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mirror of https://gitlab.com/scemama/qmcchem.git synced 2024-11-07 06:33:38 +01:00

Added ocaml files

This commit is contained in:
Anthony Scemama 2015-12-19 02:35:13 +01:00
parent e49713ee98
commit a629b30051
31 changed files with 7263 additions and 0 deletions

105
ezfio_config/qmc.config Normal file
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ao_basis
ao_num integer
ao_prim_num integer (ao_basis_ao_num)
ao_nucl integer (ao_basis_ao_num)
ao_power integer (ao_basis_ao_num,3)
ao_prim_num_max integer = maxval(ao_basis_ao_prim_num)
ao_coef real (ao_basis_ao_num,ao_basis_ao_prim_num_max)
ao_expo real (ao_basis_ao_num,ao_basis_ao_prim_num_max)
mo_basis
mo_tot_num integer
mo_coef real (ao_basis_ao_num,mo_basis_mo_tot_num)
mo_classif character (mo_basis_mo_tot_num)
mo_closed_num integer =n_count_ch(mo_basis_mo_classif,size(mo_basis_mo_classif),'c')
mo_active_num integer =n_count_ch(mo_basis_mo_classif,size(mo_basis_mo_classif),'a')
mo_virtual_num integer =n_count_ch(mo_basis_mo_classif,size(mo_basis_mo_classif),'v')
mo_energy real (mo_basis_mo_tot_num)
mo_occ real (mo_basis_mo_tot_num)
mo_symmetry character*(8) (mo_basis_mo_tot_num)
electrons
elec_alpha_num integer
elec_beta_num integer
elec_num integer = electrons_elec_alpha_num + electrons_elec_beta_num
elec_walk_num_tot integer
elec_walk_num integer
elec_coord_pool real (electrons_elec_num+1,3,electrons_elec_coord_pool_size)
elec_coord_pool_size integer
elec_fitcusp_radius real
nuclei
nucl_num integer
nucl_label character*(32) (nuclei_nucl_num)
nucl_charge real (nuclei_nucl_num)
nucl_coord real (nuclei_nucl_num,3)
nucl_fitcusp_radius real (nuclei_nucl_num)
spindeterminants
n_det_alpha integer
n_det_beta integer
n_det integer
n_int integer
bit_kind integer
n_states integer
psi_det_alpha integer*8 (spindeterminants_n_int*spindeterminants_bit_kind/8,spindeterminants_n_det_alpha)
psi_det_beta integer*8 (spindeterminants_n_int*spindeterminants_bit_kind/8,spindeterminants_n_det_beta)
psi_coef_matrix_rows integer (spindeterminants_n_det)
psi_coef_matrix_columns integer (spindeterminants_n_det)
psi_coef_matrix_values double precision (spindeterminants_n_det,spindeterminants_n_states)
simulation
do_run integer
stop_time integer
equilibration logical
title character*(128)
http_server character*(128)
do_jast logical
do_nucl_fitcusp logical
method character*(32)
block_time integer
sampling character*(32)
save_data logical
time_step real
print_level integer
ci_threshold double precision
md5_key character*(32)
orig_time double precision
E_ref double precision
jastrow
jast_type character*(32)
jast_a_up_up real
jast_a_up_dn real
jast_b_up_up real
jast_b_up_dn real
jast_pen real (nuclei_nucl_num)
jast_eeN_e_a real (nuclei_nucl_num)
jast_eeN_e_b real (nuclei_nucl_num)
jast_eeN_N real (nuclei_nucl_num)
jast_core_a1 real (nuclei_nucl_num)
jast_core_a2 real (nuclei_nucl_num)
jast_core_b1 real (nuclei_nucl_num)
jast_core_b2 real (nuclei_nucl_num)
blocks
empty integer
pseudo
ao_pseudo_grid double precision (ao_basis_ao_num,pseudo_pseudo_lmax+pseudo_pseudo_lmax+1,pseudo_pseudo_lmax-0+1,nuclei_nucl_num,pseudo_pseudo_grid_size)
do_pseudo logical
mo_pseudo_grid double precision (ao_basis_ao_num,pseudo_pseudo_lmax+pseudo_pseudo_lmax+1,pseudo_pseudo_lmax-0+1,nuclei_nucl_num,pseudo_pseudo_grid_size)
pseudo_dz_k double precision (nuclei_nucl_num,pseudo_pseudo_klocmax)
pseudo_dz_kl double precision (nuclei_nucl_num,pseudo_pseudo_kmax,pseudo_pseudo_lmax+1)
pseudo_grid_rmax double precision
pseudo_grid_size integer
pseudo_klocmax integer
pseudo_kmax integer
pseudo_lmax integer
pseudo_n_k integer (nuclei_nucl_num,pseudo_pseudo_klocmax)
pseudo_n_kl integer (nuclei_nucl_num,pseudo_pseudo_kmax,pseudo_pseudo_lmax+1)
pseudo_v_k double precision (nuclei_nucl_num,pseudo_pseudo_klocmax)
pseudo_v_kl double precision (nuclei_nucl_num,pseudo_pseudo_kmax,pseudo_pseudo_lmax+1)

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@ -14,7 +14,9 @@ then
exit 1 exit 1
fi fi
set +u
source "${QMCCHEM_PATH}"/qmcchemrc source "${QMCCHEM_PATH}"/qmcchemrc
set -u
cd Downloads cd Downloads
chmod +x opam_installer.sh chmod +x opam_installer.sh

150
ocaml/Block.ml Normal file
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open Core.Std;;
open Qptypes;;
type t =
{ property : Property.t ;
value : Sample.t ;
weight : Weight.t ;
compute_node : Compute_node.t ;
pid : Pid.t ;
block_id : Block_id.t ;
}
let re =
Str.regexp "[ |#|\n]+"
let of_string s =
try
let lst =
Str.split re s
|> List.rev
in
match lst with
| b :: pid :: c:: p :: w :: v :: [] -> Some
{ property = Property.of_string p ;
value = Sample.of_float (Float.of_string v) ;
weight = Weight.of_float (Float.of_string w) ;
compute_node = Compute_node.of_string c;
pid = Pid.of_string pid;
block_id = Block_id.of_int (Int.of_string b) ;
}
| b :: pid :: c:: p :: w :: v ->
let v =
List.rev v
|> Array.of_list
|> Array.map ~f:Float.of_string
in
let dim =
Array.length v
in
Some
{ property = Property.of_string p ;
value = Sample.of_float_array ~dim v ;
weight = Weight.of_float (Float.of_string w) ;
compute_node = Compute_node.of_string c;
pid = Pid.of_string pid;
block_id = Block_id.of_int (Int.of_string b) ;
}
| _ -> None
with
| _ -> None
let to_string b =
Printf.sprintf "%s %s # %s %s %s %d"
(Sample.to_string b.value )
(Weight.to_float b.weight |> Float.to_string)
(Property.to_string b.property)
(Compute_node.to_string b.compute_node)
(Pid.to_string b.pid)
(Block_id.to_int b.block_id)
let dir_name = lazy(
let ezfio_filename =
Lazy.force Qputils.ezfio_filename
in
let md5 =
Md5.hash ()
in
List.fold_right ~init:"" ~f:Filename.concat
[ ezfio_filename ; "blocks" ; md5 ; Filename.dir_sep ]
)
(* Fetch raw data from the EZFIO file *)
let _raw_data =
ref None
let update_raw_data ?(locked=true) () =
(* Create array of files to read *)
let dir_name =
Lazy.force dir_name
in
let files =
let result =
match Sys.is_directory dir_name with
| `Yes ->
begin
Sys.readdir dir_name
|> Array.map ~f:(fun x -> dir_name^x)
|> Array.to_list
end
| _ -> []
in
if locked then
result
else
List.filter result ~f:(fun x ->
match String.substr_index ~pattern:"locked" x with
| Some x -> false
| None -> true
)
in
let rec transform new_list = function
| [] -> new_list
| head :: tail ->
let head = String.strip head in
let item = of_string head in
match item with
| None -> transform new_list tail
| Some x -> transform (x::new_list) tail
in
let result =
List.map files ~f:(fun filename ->
In_channel.with_file filename ~f:(fun in_channel ->
In_channel.input_all in_channel)
)
|> String.concat
|> String.split_lines
|> List.rev
|> transform []
in
result
let raw_data ?(locked=true) () =
match !_raw_data with
| Some x -> x
| None ->
let result =
update_raw_data ~locked ()
in
_raw_data := Some result;
result
let properties = lazy (
let set = Set.empty ~comparator:Comparator.Poly.comparator in
List.fold (raw_data ()) ~init:set ~f:(fun s x -> Set.add s x.property)
|> Set.to_list
)

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ocaml/Default.ml Normal file
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open Core.Std;;
let simulation_do_nucl_fitcusp =
if (not (Ezfio.has_simulation_do_nucl_fitcusp ())) then
begin
if (not (Ezfio.has_pseudo_do_pseudo ())) then
true
else
not (Ezfio.get_pseudo_do_pseudo ())
end
else
Ezfio.get_simulation_do_nucl_fitcusp ()
let electrons_elec_walk_num = 30
let electrons_elec_walk_num_tot = 10000
let jastrow_jast_type = "None"
let simulation_block_time = 30
let simulation_ci_threshold = 1.e-8
let simulation_method = "VMC"
let simulation_sampling = "Langevin"
let simulation_stop_time = 3600
let simulation_time_step = 0.15
let reset_defaults () =
List.iter ~f:(fun x -> Sys.remove ( (Lazy.force Qputils.ezfio_filename) ^ x))
[ "/electrons/elec_walk_num" ;
"/electrons/elec_walk_num_tot" ;
"/jastrow/jast_type" ;
"/simulation/block_time" ;
"/simulation/ci_threshold" ;
"/simulation/do_nucl_fitcusp" ;
"/simulation/method" ;
"/simulation/sampling" ;
"/simulation/stop_time" ;
"/simulation/time_step" ]

865
ocaml/Input.ml Normal file
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open Core.Std
open Qptypes
open Qputils
module Pseudo: sig
type t = bool
val doc : string
val read : unit -> t
val to_bool : t -> bool
val of_bool : bool -> t
val to_int : t -> int
val of_int : int -> t
val to_string : t -> string
val of_string : string -> t
end = struct
type t = bool
let doc = "Correct wave function to verify electron-nucleus cusp condition"
let of_bool x = x
let to_bool x = x
let read () =
let _ =
Lazy.force Qputils.ezfio_filename
in
if (not (Ezfio.has_pseudo_do_pseudo ())) then
Ezfio.set_pseudo_do_pseudo false;
Ezfio.get_pseudo_do_pseudo ()
|> of_bool
let to_string t =
to_bool t
|> Bool.to_string
let of_string t =
try
String.lowercase t
|> Bool.of_string
|> of_bool
with
| Invalid_argument msg -> failwith msg
let to_int t =
let t =
to_bool t
in
if t then 1
else 0
let of_int = function
| 0 -> false
| 1 -> true
| _ -> failwith "Expected 0 or 1"
end
module Fitcusp : sig
type t = bool
val doc : string
val read : unit -> t
val write : t -> unit
val to_bool : t -> bool
val of_bool : bool -> t
val to_int : t -> int
val of_int : int -> t
val to_string : t -> string
val of_string : string -> t
end = struct
type t = bool
let doc = "Correct wave function to verify electron-nucleus cusp condition"
let of_bool x = x
let to_bool x = x
let read () =
let _ =
Lazy.force Qputils.ezfio_filename
in
if (not (Ezfio.has_simulation_do_nucl_fitcusp ())) then
Ezfio.set_simulation_do_nucl_fitcusp Default.simulation_do_nucl_fitcusp;
Ezfio.get_simulation_do_nucl_fitcusp ()
|> of_bool
let write t =
let _ =
Lazy.force Qputils.ezfio_filename
in
let () =
match (Pseudo.read () |> Pseudo.to_bool, to_bool t) with
| (true, true) -> failwith "Pseudopotentials and Fitcusp are incompatible"
| _ -> ()
in
to_bool t
|> Ezfio.set_simulation_do_nucl_fitcusp
let to_string t =
to_bool t
|> Bool.to_string
let of_string t =
try
String.lowercase t
|> Bool.of_string
|> of_bool
with
| Invalid_argument msg -> failwith msg
let to_int t =
let t =
to_bool t
in
if t then 1
else 0
let of_int = function
| 0 -> false
| 1 -> true
| _ -> failwith "Expected 0 or 1"
end
module Block_time : sig
type t = int
val doc : string
val read : unit -> t
val write : t -> unit
val to_int : t -> int
val of_int : int -> t
val to_string : t -> string
val of_string : string -> t
val to_float : t -> float
val of_float : float-> t
end = struct
type t = int
let doc = "Length (seconds) of a block"
let of_int x =
if (x < 1) then
failwith "Block time should be >=1";
if (x > 36000) then
failwith "Block time is too large (<= 36000)";
x
let to_int x = x
let read () =
let _ =
Lazy.force Qputils.ezfio_filename
in
if (not (Ezfio.has_simulation_block_time ())) then
Ezfio.set_simulation_block_time Default.simulation_block_time;
Ezfio.get_simulation_block_time ()
|> of_int
let write t =
let _ =
Lazy.force Qputils.ezfio_filename
in
to_int t
|> Ezfio.set_simulation_block_time
let to_string t =
to_int t
|> Int.to_string
let of_string t =
Int.of_string t
|> of_int
let to_float t =
to_int t
|> Float.of_int
let of_float t =
Int.of_float t
|> of_int
end
module Walk_num : sig
type t = int
val doc : string
val read : unit -> t
val write : t -> unit
val to_int : t -> int
val of_int : int -> t
val to_string : t -> string
val of_string : string -> t
end = struct
type t = int
let doc = "Number of walkers per CPU core"
let of_int x =
if (x < 1) then
failwith "Number of walkers should be >=1";
if (x > 100_000) then
failwith "Number of walkers is too large (<= 100_000)";
x
let to_int x = x
let read () =
let _ =
Lazy.force Qputils.ezfio_filename
in
if (not (Ezfio.has_electrons_elec_walk_num () )) then
Ezfio.set_electrons_elec_walk_num Default.electrons_elec_walk_num;
Ezfio.get_electrons_elec_walk_num ()
|> of_int
let write t =
let _ =
Lazy.force Qputils.ezfio_filename
in
to_int t
|> Ezfio.set_electrons_elec_walk_num
let to_string t =
to_int t
|> Int.to_string
let of_string t =
Int.of_string t
|> of_int
end
module Walk_num_tot : sig
type t = int
val doc : string
val read : unit -> t
val write : t -> unit
val to_int : t -> int
val of_int : int -> t
val to_string : t -> string
val of_string : string -> t
end = struct
type t = int
let doc = "Total number of stored walkers for restart"
let of_int x =
if (x < 2) then
failwith "Total number of stored walkers should be > 1";
if (x > 100_000_000) then
failwith "Number of walkers to store too large (<= 100.10^6)";
x
let to_int x = x
let read () =
let _ =
Lazy.force Qputils.ezfio_filename
in
if (not (Ezfio.has_electrons_elec_walk_num_tot () )) then
Ezfio.set_electrons_elec_walk_num_tot Default.electrons_elec_walk_num_tot;
Ezfio.get_electrons_elec_walk_num_tot ()
|> of_int
let write t =
let _ =
Lazy.force Qputils.ezfio_filename
in
to_int t
|> Ezfio.set_electrons_elec_walk_num_tot
let to_string t =
to_int t
|> Int.to_string
let of_string t =
Int.of_string t
|> of_int
end
module Stop_time : sig
type t = int
val read : unit -> t
val doc : string
val write : t -> unit
val to_int : t -> int
val of_int : int -> t
val to_float : t -> float
val of_float : float -> t
val to_string : t -> string
val of_string : string -> t
end = struct
type t = int
let doc = "Requested simulation time (seconds)"
let of_int x =
if (x < 1) then
failwith "Simulation time too short (>=1 s)";
x
let to_int x = x
let read () =
let _ =
Lazy.force Qputils.ezfio_filename
in
if (not (Ezfio.has_simulation_stop_time ())) then
Ezfio.set_simulation_stop_time Default.simulation_stop_time;
Ezfio.get_simulation_stop_time ()
|> of_int
let write t =
let _ =
Lazy.force Qputils.ezfio_filename
in
to_int t
|> Ezfio.set_simulation_stop_time
let to_string t =
to_int t
|> Int.to_string
let of_string t =
Int.of_string t
|> of_int
let to_float t =
to_int t
|> Float.of_int
let of_float t =
Int.of_float t
|> of_int
end
module Method : sig
type t = VMC | DMC
val doc : string
val read : unit -> t
val write : t -> unit
val to_string : t -> string
val of_string : string -> t
end = struct
type t = VMC | DMC
let doc = "QMC Method : [ VMC | DMC ]"
let of_string = function
| "VMC" | "vmc" -> VMC
| "DMC" | "dmc" -> DMC
| x -> failwith ("Method should be [ VMC | DMC ], not "^x^".")
let to_string = function
| VMC -> "VMC"
| DMC -> "DMC"
let read () =
let _ =
Lazy.force Qputils.ezfio_filename
in
if (not (Ezfio.has_simulation_method ())) then
Ezfio.set_simulation_method Default.simulation_method;
Ezfio.get_simulation_method ()
|> of_string
let write t =
let _ =
Lazy.force Qputils.ezfio_filename
in
to_string t
|> Ezfio.set_simulation_method
end
module Sampling : sig
type t = Brownian | Langevin
val doc : string
val read : unit -> t
val write : t -> unit
val to_string : t -> string
val of_string : string -> t
end = struct
type t = Brownian | Langevin
let doc = "Sampling algorithm : [ Langevin | Brownian ]"
let of_string s =
match String.capitalize (String.strip s) with
| "Langevin" -> Langevin
| "Brownian" -> Brownian
| x -> failwith ("Sampling should be [ Brownian | Langevin ], not "^x^".")
let to_string = function
| Langevin -> "Langevin"
| Brownian -> "Brownian"
let read () =
let _ =
Lazy.force Qputils.ezfio_filename
in
if (not (Ezfio.has_simulation_sampling ())) then
Ezfio.set_simulation_sampling Default.simulation_sampling;
Ezfio.get_simulation_sampling ()
|> of_string
let write t =
let _ =
Lazy.force Qputils.ezfio_filename
in
to_string t
|> Ezfio.set_simulation_sampling
end
module Ref_energy : sig
type t = float
val doc : string
val read : unit -> t
val write : t -> unit
val to_float : t -> float
val of_float : float -> t
val to_string : t -> string
val of_string : string -> t
end = struct
type t = float
let doc = "Fixed reference energy to normalize DMC weights"
let of_float x =
if (x > 0.) then
failwith "Reference energy should not be positive.";
if (x <= -1_000_000.) then
failwith "Reference energy is too low.";
x
let to_float x = x
let read () =
let _ =
Lazy.force Qputils.ezfio_filename
in
if (not (Ezfio.has_simulation_e_ref ())) then
to_float 0.
|> Ezfio.set_simulation_e_ref;
Ezfio.get_simulation_e_ref ()
|> of_float
let write t =
let _ =
Lazy.force Qputils.ezfio_filename
in
to_float t
|> Ezfio.set_simulation_e_ref
let of_string x =
Float.of_string x
|> of_float
let to_string x =
to_float x
|> Float.to_string
end
module CI_threshold : sig
type t = float
val doc : string
val read : unit -> t
val write : t -> unit
val to_float : t -> float
val of_float : float -> t
val to_string : t -> string
val of_string : string -> t
end = struct
type t = float
let doc = "Truncation t of the wave function : Remove determinants with a
contribution to the norm less than t"
let of_float x =
if (x >= 1.) then
failwith "Truncation of the wave function should be < 1.";
if (x < 0.) then
failwith "Truncation of the wave function should be positive.";
x
let to_float x = x
let read () =
let _ =
Lazy.force Qputils.ezfio_filename
in
if (not (Ezfio.has_simulation_ci_threshold ())) then
Ezfio.set_simulation_ci_threshold Default.simulation_ci_threshold ;
Ezfio.get_simulation_ci_threshold ()
|> of_float
let write t =
let _ =
Lazy.force Qputils.ezfio_filename
in
to_float t
|> Ezfio.set_simulation_ci_threshold
let of_string x =
Float.of_string x
|> of_float
let to_string x =
to_float x
|> Float.to_string
end
module Time_step : sig
type t = float
val doc : string
val read : unit -> t
val write : t -> unit
val to_float : t -> float
val of_float : float -> t
val to_string : t -> string
val of_string : string -> t
end = struct
type t = float
let doc = "Simulation time step"
let of_float x =
if (x >= 10.) then
failwith "Time step should be < 10.";
if (x <= 0.) then
failwith "Time step should be positive.";
x
let to_float x = x
let read () =
let _ =
Lazy.force Qputils.ezfio_filename
in
if (not (Ezfio.has_simulation_time_step ())) then
Ezfio.set_simulation_time_step Default.simulation_time_step;
Ezfio.get_simulation_time_step ()
|> of_float
let write t =
let _ =
Lazy.force Qputils.ezfio_filename
in
to_float t
|> Ezfio.set_simulation_time_step
let of_string x =
Float.of_string x
|> of_float
let to_string x =
to_float x
|> Float.to_string
end
module Jastrow_type : sig
type t = None | Core | Simple
val doc : string
val read : unit -> t
val write : t -> unit
val to_string : t -> string
val of_string : string -> t
end = struct
type t = None | Core | Simple
let doc = "Type of Jastrow factor [ None | Core | Simple ]"
let of_string s =
match String.capitalize (String.strip s) with
| "Core" -> Core
| "Simple" -> Simple
| "None" -> None
| _ -> failwith "Jastrow type should be [ None | Core | Simple ]"
let to_string = function
| Core -> "Core"
| Simple -> "Simple"
| None -> "None"
let read () =
let _ =
Lazy.force Qputils.ezfio_filename
in
if (not (Ezfio.has_jastrow_jast_type ())) then
Ezfio.set_jastrow_jast_type Default.jastrow_jast_type;
Ezfio.get_jastrow_jast_type ();
|> of_string
let write t =
let _ =
Lazy.force Qputils.ezfio_filename
in
let () =
match (Pseudo.read () |> Pseudo.to_bool, t) with
| (false, _)
| (true , None) -> ()
| _ -> failwith "Jastrow and Pseudopotentials are incompatible"
in
to_string t
|> Ezfio.set_jastrow_jast_type
end
module Properties: sig
type t = (Property.t * bool) list
val doc : string
val read : unit -> t
val write : t -> unit
val to_string : t -> string
val of_string : string -> t
end = struct
type t = (Property.t * bool) list
let doc =
"Properties to sample. (X) is true and ( ) is false"
let read () =
List.map Property.all ~f:(fun x -> (x, Property.calc x))
let write l =
List.iter l ~f:(fun (x,b) -> Property.set_calc x b)
let to_string l =
List.map l ~f:(fun (x,b) ->
let ch =
if b then "X" else " "
in
Printf.sprintf "(%s) %s" ch (Property.to_string x))
|> String.concat ~sep:"\n"
let of_string s =
String.split s ~on:'\n'
|> List.map ~f:(fun x ->
let (calc,prop) =
String.strip x
|> String.rsplit2_exn ~on:' '
in
let prop =
String.strip prop
|> Property.of_string
and calc =
match calc with
| "(X)" -> true
| "( )" -> false
| _ -> failwith " (X) or ( ) expected"
in
(prop, calc)
)
end
(** Check if everything is correct in the input file. *)
let validate () =
let _ =
Lazy.force Qputils.ezfio_filename
in
(* Check if walkers are present *)
if (not (Ezfio.has_electrons_elec_coord_pool ())) then
Printf.printf "Warning: No initial walkers\n";
let meth =
Method.read ()
and sampling =
Sampling.read ()
and ts =
Time_step.read ()
and jast_type =
Jastrow_type.read ()
and do_fitcusp =
Fitcusp.read ()
and do_pseudo =
Pseudo.read ()
in
(* Check sampling and time steps *)
let () =
match (sampling, meth, Pseudo.to_bool do_pseudo) with
| (Sampling.Brownian, Method.DMC, true) ->
if ( (Time_step.to_float ts) >= 0.5 ) then
warn "Time step seems large for DMC.";
| (Sampling.Brownian, Method.DMC, false) ->
if ( (Time_step.to_float ts) >= 0.01 ) then
warn "Time step seems large for DMC.";
| (Sampling.Brownian, Method.VMC, _) ->
if ( (Time_step.to_float ts) >= 10. ) then
warn "Time step seems large for VMC.";
| (Sampling.Langevin, Method.VMC, _) ->
if ( (Time_step.to_float ts) <= 0.01 ) then
warn "Time step seems small for Langevin sampling."
| (Sampling.Langevin, Method.DMC, _) ->
failwith "Lanvegin sampling is incompatible with DMC"
in
(* Check E_ref is not zero *)
let () =
match (meth, Ref_energy.(read () |> to_float) ) with
| (Method.DMC,0.) -> failwith "E_ref should not be zero in DMC"
| _ -> ()
in
(* Set block and total time*)
let () =
if ( (Block_time.read ()) > Stop_time.read ()) then
failwith "Block time is longer than total time"
in
(* Check if E_loc if computed *)
let () =
match (meth, Property.(calc E_loc)) with
| (Method.DMC, false) -> failwith "E_loc should be sampled in DMC"
| (Method.VMC, false) -> warn "Sampling of E_loc is not activated in input"
| _ -> ()
in
(* Pseudo and Jastrow are incompatible *)
let () =
match (Pseudo.to_bool do_pseudo, jast_type) with
| (true, Jastrow_type.Core )
| (true, Jastrow_type.Simple) -> failwith "Jastrow and Pseudopotentials are incompatible"
| _ -> ()
in
(* Fitcusp is not recommended with pseudo *)
let () =
match (Pseudo.to_bool do_pseudo, Fitcusp.to_bool do_fitcusp) with
| (true, true) -> warn "Fitcusp is incompatible with Pseudopotentials"
| _ -> ()
in
(* Other Checks *)
let () =
let _ =
Walk_num.read ()
and _ =
Walk_num_tot.read ()
and _ =
CI_threshold.read ()
in ()
in
()

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open Core.Std;;
type t =
| Srun
| MPI
| Bash
let to_string = function
| Srun -> "srun"
| Bash -> "env"
| MPI -> Lazy.force Qmcchem_config.mpirun
(** Find the launcher for the current job scheduler *)
let find () =
let result =
match Scheduler.find () with
| Scheduler.SLURM -> Srun
| Scheduler.Batch
| Scheduler.PBS
| Scheduler.SGE ->
if Lazy.force Qmcchem_config.has_mpirun then
MPI
else
Bash
in
result
(** Create a file contaning the list of nodes and the number of available CPUs *)
let create_nodefile () =
let launcher =
find ()
in
let launcher_command =
to_string launcher
in
let h =
Hashtbl.create ~hashable:String.hashable ~size:1000 ()
in
let in_channel =
Unix.open_process_in (launcher_command^" hostname -s")
in
In_channel.input_lines in_channel
|> List.map ~f:String.strip
|> List.iter ~f:( fun host ->
Hashtbl.change h host (function
| Some x -> Some (x+1)
| None -> Some 1
)
);
match
Unix.close_process_in in_channel
with
| _ -> ();
let f =
match launcher with
| MPI ->
fun (node, n) ->
Printf.sprintf "%s slots=%d\n" node n
| Srun
| Bash ->
fun (node, n) ->
Printf.sprintf "%s %d\n" node n
in
Hashtbl.to_alist h
|> List.map ~f
|> String.concat

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open Core.Std
(** Directory containing the list of input files. The directory is created is inexistant. *)
let input_directory = lazy (
let ezfio_filename =
Lazy.force Qputils.ezfio_filename
in
let dirname =
Filename.concat ezfio_filename "input"
in
begin
match ( Sys.is_directory dirname ) with
| `No -> Unix.mkdir dirname
| _ -> ()
end ;
dirname
)
(** List of files responsible for the MD5 key of the input *)
let files_to_track = [
"ao_basis/ao_coef.gz" ;
"ao_basis/ao_expo.gz" ;
"ao_basis/ao_nucl.gz" ;
"ao_basis/ao_num" ;
"ao_basis/ao_power.gz" ;
"ao_basis/ao_prim_num.gz" ;
"electrons/elec_alpha_num" ;
"electrons/elec_beta_num" ;
"jastrow/jast_type" ;
"mo_basis/mo_coef.gz" ;
"mo_basis/mo_tot_num" ;
"nuclei/nucl_charge.gz" ;
"nuclei/nucl_coord.gz" ;
"nuclei/nucl_fitcusp_radius.gz" ;
"nuclei/nucl_num" ;
"simulation/ci_threshold" ;
"simulation/do_nucl_fitcusp" ;
"simulation/jast_a_up_dn" ;
"simulation/jast_a_up_up" ;
"simulation/jast_b_up_dn" ;
"simulation/jast_b_up_up" ;
"simulation/jast_core_a1" ;
"simulation/jast_core_a2" ;
"simulation/jast_core_b1" ;
"simulation/jast_core_b2" ;
"simulation/jast_een_e_a.gz" ;
"simulation/jast_een_e_b.gz" ;
"simulation/jast_een_n.gz" ;
"simulation/jast_pen.gz" ;
"simulation/method" ;
"simulation/time_step" ;
"spindeterminants/bit_kind" ;
"spindeterminants/n_det" ;
"spindeterminants/n_det_alpha" ;
"spindeterminants/n_det_beta" ;
"spindeterminants/n_int" ;
"spindeterminants/n_states" ;
"spindeterminants/psi_coef_matrix_columns.gz" ;
"spindeterminants/psi_coef_matrix_rows.gz" ;
"spindeterminants/psi_coef_matrix_values.gz" ;
"spindeterminants/psi_det_alpha.gz" ;
"spindeterminants/psi_det_beta.gz" ;
"/pseudo/do_pseudo" ;
"/pseudo/mo_pseudo_grid.gz" ;
"/pseudo/pseudo_dz_kl.gz";
"/pseudo/pseudo_klocmax" ;
"/pseudo/pseudo_n_k.gz" ;
"/pseudo/pseudo_v_kl.gz" ;
"/pseudo/pseudo_grid_rmax" ;
"/pseudo/pseudo_kmax" ;
"/pseudo/pseudo_n_kl.gz" ;
"/pseudo/pseudo_dz_k.gz" ;
"/pseudo/pseudo_grid_size" ;
"/pseudo/pseudo_v_k.gz" ;
]
(** Get an MD5 ke from the content of a file. *)
let hash_file filename =
match Sys.is_file filename with
| `Yes ->
begin
In_channel.with_file filename ~f:(fun ic ->
Cryptokit.hash_channel (Cryptokit.Hash.md5 ()) ic
|> Cryptokit.transform_string (Cryptokit.Hexa.encode ()) )
end
| _ -> ""
(** Cache containing the current value of the MD5 hash. *)
let _hash =
ref None
(** Get the hash correcponding to the EZFIO file. *)
let hash () =
let compute_hash () =
let ezfio_filename =
Lazy.force Qputils.ezfio_filename
in
let old_md5 =
if Ezfio.has_simulation_md5_key () then
Ezfio.get_simulation_md5_key ()
else
""
in
let new_md5 = files_to_track
|> List.map ~f:(fun x -> Printf.sprintf "%s/%s" ezfio_filename x)
|> List.map ~f:hash_file
|> String.concat
|> Cryptokit.hash_string (Cryptokit.Hash.md5 ())
|> Cryptokit.transform_string (Cryptokit.Hexa.encode ())
in
if (new_md5 <> old_md5) then
begin
Printf.eprintf "Info : MD5 key changed\n %s\n-> %s\n%!" old_md5 new_md5 ;
Ezfio.set_simulation_md5_key new_md5
end
;
new_md5
in
match (!_hash) with
| Some key -> key
| None ->
begin
let key =
compute_hash ()
in
_hash := Some key ;
key
end
(** Reset the cache of the MD5 hash. *)
let reset_hash () =
_hash := None;
ignore (hash ())

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open Core.Std
open Qptypes
type t =
| Property of Block.t
| Walkers of Compute_node.t * Pid.t * (float array) array
| Register of Compute_node.t * Pid.t
| Unregister of Compute_node.t * Pid.t
| Test
| GetWalkers of Strictly_positive_int.t
| Ezfio of string
let create = function
| [ "cpu" ; c ; pid ; b ; "1" ; v ] ->
let open Block in
Property
{ property = Property.Cpu;
value = Sample.of_float (Float.of_string v) ;
weight = Weight.of_float 1.;
compute_node = Compute_node.of_string c;
pid = Pid.of_string pid;
block_id = Block_id.of_int (Int.of_string b);
}
| [ "accep" ; c ; pid ; b ; "1" ; v ] ->
let open Block in
Property
{ property = Property.Accep;
value = Sample.of_float (Float.of_string v) ;
weight = Weight.of_float 1.;
compute_node = Compute_node.of_string c;
pid = Pid.of_string pid;
block_id = Block_id.of_int (Int.of_string b);
}
| [ prop ; c ; pid ; b ; w ; v ] ->
let open Block in
Property
{ property = Property.of_string prop;
value = Sample.of_float (Float.of_string v);
weight = Weight.of_float (Float.of_string w);
compute_node = Compute_node.of_string c;
pid = Pid.of_string pid;
block_id = Block_id.of_int (Int.of_string b);
}
| "elec_coord" :: c :: pid :: _ :: n ::walkers ->
begin
let walk_num =
Lazy.force Qputils.walk_num
and elec_num =
Lazy.force Qputils.elec_num
and n =
Int.of_string n
in
assert (n = List.length walkers);
assert (n = walk_num*(elec_num+1)*3);
let rec build_walker accu = function
| (0,tail) ->
let result =
List.rev accu
|> List.map ~f:Float.of_string
|> Array.of_list
in
(result, tail)
| (n,head::tail) ->
build_walker (head::accu) (n-1, tail)
| _ -> failwith "Bad walkers"
in
let rec build accu = function
| [] -> Array.of_list accu
| w ->
let (result, tail) =
build_walker [] (3*elec_num+3, w)
in
build (result::accu) tail
in
Walkers (Compute_node.of_string c, Pid.of_string pid, build [] walkers)
end
| [ "get_walkers" ; n ] -> GetWalkers (n |> Int.of_string |> Strictly_positive_int.of_int)
| [ "register" ; c ; pid ] -> Register (Compute_node.of_string c, Pid.of_string pid)
| [ "unregister" ; c ; pid ] -> Unregister (Compute_node.of_string c, Pid.of_string pid)
| [ "Test" ] -> Test
| [ "Ezfio" ; ezfio_msg ] -> Ezfio ezfio_msg
| prop :: c :: pid :: b :: d :: w :: l ->
let property =
Property.of_string prop
in
begin
assert (not (Property.is_scalar property));
let a =
Array.of_list l
|> Array.map ~f:Float.of_string
and dim =
Int.of_string d
in
assert (Array.length a = dim);
let open Block in
Property
{ property = property ;
value = Sample.of_float_array ~dim a;
weight = Weight.of_float (Float.of_string w);
compute_node = Compute_node.of_string c;
pid = Pid.of_string pid;
block_id = Block_id.of_int (Int.of_string b);
}
end
| l ->
begin
List.iter ~f:(Printf.printf ":%s:") l;
failwith "Message not understood"
end
let to_string = function
| Property b -> "Property : "^(Block.to_string b)
| Walkers (h,p,w) -> Printf.sprintf "Walkers : %s %s : %d walkers"
(Compute_node.to_string h) (Pid.to_string p)
(Array.length w)
| GetWalkers n -> Printf.sprintf "GetWalkers %d" (Strictly_positive_int.to_int n)
| Register (h,p) -> Printf.sprintf "Register : %s %s"
(Compute_node.to_string h) (Pid.to_string p)
| Unregister (h,p) -> Printf.sprintf "Unregister : %s %s"
(Compute_node.to_string h) (Pid.to_string p)
| Test -> "Test"
| Ezfio msg -> "Ezfio "^msg

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(* File generated by ${QMCCHEM_PATH}/src/create_properties.py. Do not
modify here
*)
type t =
| Cpu
| Wall
| Accep
| D_var_jast_a_up_dn
| D_var_jast_a_up_up
| D_var_jast_b_up_dn
| D_var_jast_b_up_up
| D_var_jast_core_a1
| D_var_jast_core_b1
| D_var_jast_een_e_a
| D_var_jast_een_e_b
| D_var_jast_een_n
| D_var_jast_pen
| Density1d
| Dipole
| Drift_mod
| E_kin
| E_loc
| E_loc_one
| E_loc_per_electron
| E_loc_split_core
| E_loc_two
| E_nucl
| E_pot
| E_pot_one
| N_s_inverted
| N_s_updated
| N_s_updates
| Voronoi_charges
| Voronoi_charges_covariance
| Voronoi_dipoles
| Wf_extension
| D_var_jast_a_up_dn_qmcvar
| D_var_jast_a_up_up_qmcvar
| D_var_jast_b_up_dn_qmcvar
| D_var_jast_b_up_up_qmcvar
| D_var_jast_core_a1_qmcvar
| D_var_jast_core_b1_qmcvar
| D_var_jast_een_e_a_qmcvar
| D_var_jast_een_e_b_qmcvar
| D_var_jast_een_n_qmcvar
| D_var_jast_pen_qmcvar
| Density1d_qmcvar
| Dipole_qmcvar
| Drift_mod_qmcvar
| E_kin_qmcvar
| E_loc_qmcvar
| E_loc_one_qmcvar
| E_loc_per_electron_qmcvar
| E_loc_split_core_qmcvar
| E_loc_two_qmcvar
| E_nucl_qmcvar
| E_pot_qmcvar
| E_pot_one_qmcvar
| N_s_inverted_qmcvar
| N_s_updated_qmcvar
| N_s_updates_qmcvar
| Voronoi_charges_qmcvar
| Voronoi_charges_covariance_qmcvar
| Voronoi_dipoles_qmcvar
| Wf_extension_qmcvar
;;
let calc = function
| Cpu
| Wall
| Accep -> true
| D_var_jast_a_up_dn
| D_var_jast_a_up_dn_qmcvar ->
begin
if (Ezfio.has_properties_d_var_jast_a_up_dn ()) then
Ezfio.get_properties_d_var_jast_a_up_dn ()
else
false
end
| D_var_jast_a_up_up
| D_var_jast_a_up_up_qmcvar ->
begin
if (Ezfio.has_properties_d_var_jast_a_up_up ()) then
Ezfio.get_properties_d_var_jast_a_up_up ()
else
false
end
| D_var_jast_b_up_dn
| D_var_jast_b_up_dn_qmcvar ->
begin
if (Ezfio.has_properties_d_var_jast_b_up_dn ()) then
Ezfio.get_properties_d_var_jast_b_up_dn ()
else
false
end
| D_var_jast_b_up_up
| D_var_jast_b_up_up_qmcvar ->
begin
if (Ezfio.has_properties_d_var_jast_b_up_up ()) then
Ezfio.get_properties_d_var_jast_b_up_up ()
else
false
end
| D_var_jast_core_a1
| D_var_jast_core_a1_qmcvar ->
begin
if (Ezfio.has_properties_d_var_jast_core_a1 ()) then
Ezfio.get_properties_d_var_jast_core_a1 ()
else
false
end
| D_var_jast_core_b1
| D_var_jast_core_b1_qmcvar ->
begin
if (Ezfio.has_properties_d_var_jast_core_b1 ()) then
Ezfio.get_properties_d_var_jast_core_b1 ()
else
false
end
| D_var_jast_een_e_a
| D_var_jast_een_e_a_qmcvar ->
begin
if (Ezfio.has_properties_d_var_jast_een_e_a ()) then
Ezfio.get_properties_d_var_jast_een_e_a ()
else
false
end
| D_var_jast_een_e_b
| D_var_jast_een_e_b_qmcvar ->
begin
if (Ezfio.has_properties_d_var_jast_een_e_b ()) then
Ezfio.get_properties_d_var_jast_een_e_b ()
else
false
end
| D_var_jast_een_n
| D_var_jast_een_n_qmcvar ->
begin
if (Ezfio.has_properties_d_var_jast_een_n ()) then
Ezfio.get_properties_d_var_jast_een_n ()
else
false
end
| D_var_jast_pen
| D_var_jast_pen_qmcvar ->
begin
if (Ezfio.has_properties_d_var_jast_pen ()) then
Ezfio.get_properties_d_var_jast_pen ()
else
false
end
| Density1d
| Density1d_qmcvar ->
begin
if (Ezfio.has_properties_density1d ()) then
Ezfio.get_properties_density1d ()
else
false
end
| Dipole
| Dipole_qmcvar ->
begin
if (Ezfio.has_properties_dipole ()) then
Ezfio.get_properties_dipole ()
else
false
end
| Drift_mod
| Drift_mod_qmcvar ->
begin
if (Ezfio.has_properties_drift_mod ()) then
Ezfio.get_properties_drift_mod ()
else
false
end
| E_kin
| E_kin_qmcvar ->
begin
if (Ezfio.has_properties_e_kin ()) then
Ezfio.get_properties_e_kin ()
else
false
end
| E_loc
| E_loc_qmcvar ->
begin
if (Ezfio.has_properties_e_loc ()) then
Ezfio.get_properties_e_loc ()
else
true
end
| E_loc_one
| E_loc_one_qmcvar ->
begin
if (Ezfio.has_properties_e_loc_one ()) then
Ezfio.get_properties_e_loc_one ()
else
false
end
| E_loc_per_electron
| E_loc_per_electron_qmcvar ->
begin
if (Ezfio.has_properties_e_loc_per_electron ()) then
Ezfio.get_properties_e_loc_per_electron ()
else
false
end
| E_loc_split_core
| E_loc_split_core_qmcvar ->
begin
if (Ezfio.has_properties_e_loc_split_core ()) then
Ezfio.get_properties_e_loc_split_core ()
else
false
end
| E_loc_two
| E_loc_two_qmcvar ->
begin
if (Ezfio.has_properties_e_loc_two ()) then
Ezfio.get_properties_e_loc_two ()
else
false
end
| E_nucl
| E_nucl_qmcvar ->
begin
if (Ezfio.has_properties_e_nucl ()) then
Ezfio.get_properties_e_nucl ()
else
false
end
| E_pot
| E_pot_qmcvar ->
begin
if (Ezfio.has_properties_e_pot ()) then
Ezfio.get_properties_e_pot ()
else
false
end
| E_pot_one
| E_pot_one_qmcvar ->
begin
if (Ezfio.has_properties_e_pot_one ()) then
Ezfio.get_properties_e_pot_one ()
else
false
end
| N_s_inverted
| N_s_inverted_qmcvar ->
begin
if (Ezfio.has_properties_n_s_inverted ()) then
Ezfio.get_properties_n_s_inverted ()
else
false
end
| N_s_updated
| N_s_updated_qmcvar ->
begin
if (Ezfio.has_properties_n_s_updated ()) then
Ezfio.get_properties_n_s_updated ()
else
false
end
| N_s_updates
| N_s_updates_qmcvar ->
begin
if (Ezfio.has_properties_n_s_updates ()) then
Ezfio.get_properties_n_s_updates ()
else
false
end
| Voronoi_charges
| Voronoi_charges_qmcvar ->
begin
if (Ezfio.has_properties_voronoi_charges ()) then
Ezfio.get_properties_voronoi_charges ()
else
false
end
| Voronoi_charges_covariance
| Voronoi_charges_covariance_qmcvar ->
begin
if (Ezfio.has_properties_voronoi_charges_covariance ()) then
Ezfio.get_properties_voronoi_charges_covariance ()
else
false
end
| Voronoi_dipoles
| Voronoi_dipoles_qmcvar ->
begin
if (Ezfio.has_properties_voronoi_dipoles ()) then
Ezfio.get_properties_voronoi_dipoles ()
else
false
end
| Wf_extension
| Wf_extension_qmcvar ->
begin
if (Ezfio.has_properties_wf_extension ()) then
Ezfio.get_properties_wf_extension ()
else
false
end
;;
let u _ = ();;
let set_calc = function
| Cpu
| Wall
| Accep -> u
| D_var_jast_a_up_dn
| D_var_jast_a_up_dn_qmcvar ->
Ezfio.set_properties_d_var_jast_a_up_dn
| D_var_jast_a_up_up
| D_var_jast_a_up_up_qmcvar ->
Ezfio.set_properties_d_var_jast_a_up_up
| D_var_jast_b_up_dn
| D_var_jast_b_up_dn_qmcvar ->
Ezfio.set_properties_d_var_jast_b_up_dn
| D_var_jast_b_up_up
| D_var_jast_b_up_up_qmcvar ->
Ezfio.set_properties_d_var_jast_b_up_up
| D_var_jast_core_a1
| D_var_jast_core_a1_qmcvar ->
Ezfio.set_properties_d_var_jast_core_a1
| D_var_jast_core_b1
| D_var_jast_core_b1_qmcvar ->
Ezfio.set_properties_d_var_jast_core_b1
| D_var_jast_een_e_a
| D_var_jast_een_e_a_qmcvar ->
Ezfio.set_properties_d_var_jast_een_e_a
| D_var_jast_een_e_b
| D_var_jast_een_e_b_qmcvar ->
Ezfio.set_properties_d_var_jast_een_e_b
| D_var_jast_een_n
| D_var_jast_een_n_qmcvar ->
Ezfio.set_properties_d_var_jast_een_n
| D_var_jast_pen
| D_var_jast_pen_qmcvar ->
Ezfio.set_properties_d_var_jast_pen
| Density1d
| Density1d_qmcvar ->
Ezfio.set_properties_density1d
| Dipole
| Dipole_qmcvar ->
Ezfio.set_properties_dipole
| Drift_mod
| Drift_mod_qmcvar ->
Ezfio.set_properties_drift_mod
| E_kin
| E_kin_qmcvar ->
Ezfio.set_properties_e_kin
| E_loc
| E_loc_qmcvar ->
Ezfio.set_properties_e_loc
| E_loc_one
| E_loc_one_qmcvar ->
Ezfio.set_properties_e_loc_one
| E_loc_per_electron
| E_loc_per_electron_qmcvar ->
Ezfio.set_properties_e_loc_per_electron
| E_loc_split_core
| E_loc_split_core_qmcvar ->
Ezfio.set_properties_e_loc_split_core
| E_loc_two
| E_loc_two_qmcvar ->
Ezfio.set_properties_e_loc_two
| E_nucl
| E_nucl_qmcvar ->
Ezfio.set_properties_e_nucl
| E_pot
| E_pot_qmcvar ->
Ezfio.set_properties_e_pot
| E_pot_one
| E_pot_one_qmcvar ->
Ezfio.set_properties_e_pot_one
| N_s_inverted
| N_s_inverted_qmcvar ->
Ezfio.set_properties_n_s_inverted
| N_s_updated
| N_s_updated_qmcvar ->
Ezfio.set_properties_n_s_updated
| N_s_updates
| N_s_updates_qmcvar ->
Ezfio.set_properties_n_s_updates
| Voronoi_charges
| Voronoi_charges_qmcvar ->
Ezfio.set_properties_voronoi_charges
| Voronoi_charges_covariance
| Voronoi_charges_covariance_qmcvar ->
Ezfio.set_properties_voronoi_charges_covariance
| Voronoi_dipoles
| Voronoi_dipoles_qmcvar ->
Ezfio.set_properties_voronoi_dipoles
| Wf_extension
| Wf_extension_qmcvar ->
Ezfio.set_properties_wf_extension
;;
let of_string s =
match (String.lowercase s) with
| "cpu" -> Cpu
| "wall" -> Wall
| "accep" -> Accep
| "d_var_jast_a_up_dn" -> D_var_jast_a_up_dn
| "d_var_jast_a_up_up" -> D_var_jast_a_up_up
| "d_var_jast_b_up_dn" -> D_var_jast_b_up_dn
| "d_var_jast_b_up_up" -> D_var_jast_b_up_up
| "d_var_jast_core_a1" -> D_var_jast_core_a1
| "d_var_jast_core_b1" -> D_var_jast_core_b1
| "d_var_jast_een_e_a" -> D_var_jast_een_e_a
| "d_var_jast_een_e_b" -> D_var_jast_een_e_b
| "d_var_jast_een_n" -> D_var_jast_een_n
| "d_var_jast_pen" -> D_var_jast_pen
| "density1d" -> Density1d
| "dipole" -> Dipole
| "drift_mod" -> Drift_mod
| "e_kin" -> E_kin
| "e_loc" -> E_loc
| "e_loc_one" -> E_loc_one
| "e_loc_per_electron" -> E_loc_per_electron
| "e_loc_split_core" -> E_loc_split_core
| "e_loc_two" -> E_loc_two
| "e_nucl" -> E_nucl
| "e_pot" -> E_pot
| "e_pot_one" -> E_pot_one
| "n_s_inverted" -> N_s_inverted
| "n_s_updated" -> N_s_updated
| "n_s_updates" -> N_s_updates
| "voronoi_charges" -> Voronoi_charges
| "voronoi_charges_covariance" -> Voronoi_charges_covariance
| "voronoi_dipoles" -> Voronoi_dipoles
| "wf_extension" -> Wf_extension
| "d_var_jast_a_up_dn_qmcvar" -> D_var_jast_a_up_dn_qmcvar
| "d_var_jast_a_up_up_qmcvar" -> D_var_jast_a_up_up_qmcvar
| "d_var_jast_b_up_dn_qmcvar" -> D_var_jast_b_up_dn_qmcvar
| "d_var_jast_b_up_up_qmcvar" -> D_var_jast_b_up_up_qmcvar
| "d_var_jast_core_a1_qmcvar" -> D_var_jast_core_a1_qmcvar
| "d_var_jast_core_b1_qmcvar" -> D_var_jast_core_b1_qmcvar
| "d_var_jast_een_e_a_qmcvar" -> D_var_jast_een_e_a_qmcvar
| "d_var_jast_een_e_b_qmcvar" -> D_var_jast_een_e_b_qmcvar
| "d_var_jast_een_n_qmcvar" -> D_var_jast_een_n_qmcvar
| "d_var_jast_pen_qmcvar" -> D_var_jast_pen_qmcvar
| "density1d_qmcvar" -> Density1d_qmcvar
| "dipole_qmcvar" -> Dipole_qmcvar
| "drift_mod_qmcvar" -> Drift_mod_qmcvar
| "e_kin_qmcvar" -> E_kin_qmcvar
| "e_loc_qmcvar" -> E_loc_qmcvar
| "e_loc_one_qmcvar" -> E_loc_one_qmcvar
| "e_loc_per_electron_qmcvar" -> E_loc_per_electron_qmcvar
| "e_loc_split_core_qmcvar" -> E_loc_split_core_qmcvar
| "e_loc_two_qmcvar" -> E_loc_two_qmcvar
| "e_nucl_qmcvar" -> E_nucl_qmcvar
| "e_pot_qmcvar" -> E_pot_qmcvar
| "e_pot_one_qmcvar" -> E_pot_one_qmcvar
| "n_s_inverted_qmcvar" -> N_s_inverted_qmcvar
| "n_s_updated_qmcvar" -> N_s_updated_qmcvar
| "n_s_updates_qmcvar" -> N_s_updates_qmcvar
| "voronoi_charges_qmcvar" -> Voronoi_charges_qmcvar
| "voronoi_charges_covariance_qmcvar" -> Voronoi_charges_covariance_qmcvar
| "voronoi_dipoles_qmcvar" -> Voronoi_dipoles_qmcvar
| "wf_extension_qmcvar" -> Wf_extension_qmcvar
| p -> failwith ("unknown property "^p) ;;
let to_string = function
| Cpu -> "Cpu"
| Wall -> "Wall"
| Accep -> "Accep"
| D_var_jast_a_up_dn -> "D_var_jast_a_up_dn"
| D_var_jast_a_up_up -> "D_var_jast_a_up_up"
| D_var_jast_b_up_dn -> "D_var_jast_b_up_dn"
| D_var_jast_b_up_up -> "D_var_jast_b_up_up"
| D_var_jast_core_a1 -> "D_var_jast_core_a1"
| D_var_jast_core_b1 -> "D_var_jast_core_b1"
| D_var_jast_een_e_a -> "D_var_jast_een_e_a"
| D_var_jast_een_e_b -> "D_var_jast_een_e_b"
| D_var_jast_een_n -> "D_var_jast_een_n"
| D_var_jast_pen -> "D_var_jast_pen"
| Density1d -> "Density1d"
| Dipole -> "Dipole"
| Drift_mod -> "Drift_mod"
| E_kin -> "E_kin"
| E_loc -> "E_loc"
| E_loc_one -> "E_loc_one"
| E_loc_per_electron -> "E_loc_per_electron"
| E_loc_split_core -> "E_loc_split_core"
| E_loc_two -> "E_loc_two"
| E_nucl -> "E_nucl"
| E_pot -> "E_pot"
| E_pot_one -> "E_pot_one"
| N_s_inverted -> "N_s_inverted"
| N_s_updated -> "N_s_updated"
| N_s_updates -> "N_s_updates"
| Voronoi_charges -> "Voronoi_charges"
| Voronoi_charges_covariance -> "Voronoi_charges_covariance"
| Voronoi_dipoles -> "Voronoi_dipoles"
| Wf_extension -> "Wf_extension"
| D_var_jast_a_up_dn_qmcvar -> "D_var_jast_a_up_dn_qmcvar"
| D_var_jast_a_up_up_qmcvar -> "D_var_jast_a_up_up_qmcvar"
| D_var_jast_b_up_dn_qmcvar -> "D_var_jast_b_up_dn_qmcvar"
| D_var_jast_b_up_up_qmcvar -> "D_var_jast_b_up_up_qmcvar"
| D_var_jast_core_a1_qmcvar -> "D_var_jast_core_a1_qmcvar"
| D_var_jast_core_b1_qmcvar -> "D_var_jast_core_b1_qmcvar"
| D_var_jast_een_e_a_qmcvar -> "D_var_jast_een_e_a_qmcvar"
| D_var_jast_een_e_b_qmcvar -> "D_var_jast_een_e_b_qmcvar"
| D_var_jast_een_n_qmcvar -> "D_var_jast_een_n_qmcvar"
| D_var_jast_pen_qmcvar -> "D_var_jast_pen_qmcvar"
| Density1d_qmcvar -> "Density1d_qmcvar"
| Dipole_qmcvar -> "Dipole_qmcvar"
| Drift_mod_qmcvar -> "Drift_mod_qmcvar"
| E_kin_qmcvar -> "E_kin_qmcvar"
| E_loc_qmcvar -> "E_loc_qmcvar"
| E_loc_one_qmcvar -> "E_loc_one_qmcvar"
| E_loc_per_electron_qmcvar -> "E_loc_per_electron_qmcvar"
| E_loc_split_core_qmcvar -> "E_loc_split_core_qmcvar"
| E_loc_two_qmcvar -> "E_loc_two_qmcvar"
| E_nucl_qmcvar -> "E_nucl_qmcvar"
| E_pot_qmcvar -> "E_pot_qmcvar"
| E_pot_one_qmcvar -> "E_pot_one_qmcvar"
| N_s_inverted_qmcvar -> "N_s_inverted_qmcvar"
| N_s_updated_qmcvar -> "N_s_updated_qmcvar"
| N_s_updates_qmcvar -> "N_s_updates_qmcvar"
| Voronoi_charges_qmcvar -> "Voronoi_charges_qmcvar"
| Voronoi_charges_covariance_qmcvar -> "Voronoi_charges_covariance_qmcvar"
| Voronoi_dipoles_qmcvar -> "Voronoi_dipoles_qmcvar"
| Wf_extension_qmcvar -> "Wf_extension_qmcvar"
;;
let is_scalar = function
| Cpu -> true
| Wall -> true
| Accep -> true
| D_var_jast_a_up_dn | D_var_jast_a_up_dn_qmcvar -> false
| D_var_jast_a_up_up | D_var_jast_a_up_up_qmcvar -> false
| D_var_jast_b_up_dn | D_var_jast_b_up_dn_qmcvar -> false
| D_var_jast_b_up_up | D_var_jast_b_up_up_qmcvar -> false
| D_var_jast_core_a1 | D_var_jast_core_a1_qmcvar -> false
| D_var_jast_core_b1 | D_var_jast_core_b1_qmcvar -> false
| D_var_jast_een_e_a | D_var_jast_een_e_a_qmcvar -> false
| D_var_jast_een_e_b | D_var_jast_een_e_b_qmcvar -> false
| D_var_jast_een_n | D_var_jast_een_n_qmcvar -> false
| D_var_jast_pen | D_var_jast_pen_qmcvar -> false
| Density1d | Density1d_qmcvar -> false
| Dipole | Dipole_qmcvar -> false
| Drift_mod | Drift_mod_qmcvar -> false
| E_kin | E_kin_qmcvar -> true
| E_loc | E_loc_qmcvar -> true
| E_loc_one | E_loc_one_qmcvar -> true
| E_loc_per_electron | E_loc_per_electron_qmcvar -> false
| E_loc_split_core | E_loc_split_core_qmcvar -> false
| E_loc_two | E_loc_two_qmcvar -> true
| E_nucl | E_nucl_qmcvar -> true
| E_pot | E_pot_qmcvar -> true
| E_pot_one | E_pot_one_qmcvar -> true
| N_s_inverted | N_s_inverted_qmcvar -> true
| N_s_updated | N_s_updated_qmcvar -> true
| N_s_updates | N_s_updates_qmcvar -> true
| Voronoi_charges | Voronoi_charges_qmcvar -> false
| Voronoi_charges_covariance | Voronoi_charges_covariance_qmcvar -> false
| Voronoi_dipoles | Voronoi_dipoles_qmcvar -> false
| Wf_extension | Wf_extension_qmcvar -> true
;;
let all = [ Cpu ; Wall ; Accep ;
D_var_jast_a_up_dn ; D_var_jast_a_up_up ; D_var_jast_b_up_dn ; D_var_jast_b_up_up ; D_var_jast_core_a1 ; D_var_jast_core_b1 ; D_var_jast_een_e_a ; D_var_jast_een_e_b ; D_var_jast_een_n ; D_var_jast_pen ; Density1d ; Dipole ; Drift_mod ; E_kin ; E_loc ; E_loc_one ; E_loc_per_electron ; E_loc_split_core ; E_loc_two ; E_nucl ; E_pot ; E_pot_one ; N_s_inverted ; N_s_updated ; N_s_updates ; Voronoi_charges ; Voronoi_charges_covariance ; Voronoi_dipoles ; Wf_extension ; ];;

112
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open Core.Std;;
(** QMC=Chem installation directory *)
let root = lazy (
match ( Sys.getenv "QMCCHEM_PATH" ) with
| Some x -> x
| None -> failwith "QMCCHEM_PATH environment variable not set"
)
(* PATH environment variable as a list of strings *)
let path = lazy (
let p =
match Sys.getenv "PATH" with
| None -> failwith "PATH environment variable is not set"
| Some p -> p
in
String.split ~on:':' p
)
(* Full path of a binary taken from the PATH *)
let full_path exe =
let rec in_path_rec = function
| [] -> None
| head :: tail ->
begin
let fp =
Filename.concat head exe
in
match (Sys.is_file fp) with
| `Yes -> Some fp
| _ -> in_path_rec tail
end
in
Lazy.force path
|> in_path_rec
(* True if an executable is in the PATH *)
let in_path x =
match (full_path x) with
| Some _ -> true
| None -> false
let has_parallel = lazy( in_path "parallel" )
let has_mpirun = lazy( in_path "mpirun" )
let has_srun = lazy( in_path "parallel" )
let has_qmc = lazy( in_path "qmc" )
let has_qmc_mic = lazy( in_path "qmc_mic" )
let mpirun = lazy (
match Sys.getenv "QMCCHEM_MPIRUN" with
| None -> "mpirun"
| Some p -> p
)
let qmcchem = lazy(
Filename.concat (Lazy.force root) "bin/qmcchem"
)
and qmc = lazy(
Filename.concat (Lazy.force root) "bin/qmc"
)
and qmc_mic = lazy(
Filename.concat (Lazy.force root) "bin/qmc_mic"
)
and qmc_create_walkers = lazy(
Filename.concat (Lazy.force root) "bin/qmc_create_walkers"
)
let dev_shm = "/dev/shm/"
(** Name of the host on which the data server runs *)
let hostname = lazy (
try
Unix.gethostname ()
with
| _ -> "localhost"
)
let ip_address = lazy (
match Sys.getenv "QMCCHEM_NIC" with
| None ->
begin
try
Lazy.force hostname
|> Unix.Inet_addr.of_string_or_getbyname
|> Unix.Inet_addr.to_string
with
| Unix.Unix_error _ ->
failwith "Unable to find IP address from host name."
end
| Some interface ->
begin
try
ok_exn Linux_ext.get_ipv4_address_for_interface interface
with
| Unix.Unix_error _ ->
Lazy.force hostname
|> Unix.Inet_addr.of_string_or_getbyname
|> Unix.Inet_addr.to_string
end
)

865
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open Core.Std
open Qptypes
(** Data server of QMC=Chem.
5 ZeroMQ sockets are opened:
- a REP socket used for registering/unregisterning the walkers and for the clients to fetch the initial walkers positions
- a PULL socket to pull the results computed by the clients
- a PUB socket to send the status to the clients for the termination
- a XSUB socket for receiving debug
- a XPUB socket for sending debug
@author A. Scemama
*)
let initialization_timeout = 600.
let bind_socket ~socket_type ~socket ~address =
try
ZMQ.Socket.bind socket address
with
| Unix.Unix_error (_, message, f) ->
failwith @@ Printf.sprintf
"\n%s\nUnable to bind the dataserver's %s socket :\n %s\n%s"
f socket_type address message
| other_exception -> raise other_exception
let run ?(daemon=true) ezfio_filename =
Ezfio.set_file ezfio_filename ;
(** Measures the time difference between [t0] and [Time.now ()] *)
let delta_t t0 =
let t1 =
Time.now ()
in
Time.abs_diff t1 t0
in
(** {2 ZeroMQ initialization} *)
let zmq_context =
ZMQ.Context.create ()
in
(** Maximum size of the blocks file before compressing *)
let max_file_size = ref (
Byte_units.create `Kilobytes 64.)
in
let hostname =
Lazy.force Qmcchem_config.hostname
in
(** Status variable (mutable) *)
let status =
ref Status.Queued
in
let change_status s =
status := s;
Status.write s;
Printf.printf "Status : %s\n%!" (Status.to_string s)
in
change_status Status.Queued;
(*
(** Checks if the port is already open (not working properly yet) *)
let check_port n =
let adress_prefix =
"tcp://*:"
in
let result =
List.fold [0;1;2;3] ~init:true ~f:(fun accu i ->
let address =
adress_prefix ^ (Int.to_string (n+i))
in
let socket =
ZMQ.Socket.create zmq_context ZMQ.Socket.rep
in
let result =
try
(ZMQ.Socket.bind socket address; accu );
with
| _ -> false;
in
ZMQ.Socket.close socket;
result
)
in
if (result) then
`Available
else
`Unavailable
in
*)
(** Random port number between 49152 and 65535 *)
let port =
let newport =
(* ref (49152 + (Random.int 16383)) *)
ref ( 1024 + (Random.int (49151-1024)))
in
(*
while ((check_port !newport) = `Unavailable)
do
newport := 49152 + (Random.int 16383)
done;
*)
!newport
in
let debug_socket =
ZMQ.Socket.create zmq_context ZMQ.Socket.xpub
and address =
Printf.sprintf "tcp://*:%d" (port+4)
in
bind_socket "XPUB" debug_socket address;
let close_debug_socket () =
ZMQ.Socket.set_linger_period debug_socket 1000 ;
ZMQ.Socket.close debug_socket
in
(** Sends a log text to the debug socket *)
let send_log socket size t0 text =
let dt =
delta_t t0
in
let message =
Printf.sprintf "%20s : %8d : %10s : %s"
socket size text (Time.Span.to_string dt)
in
ZMQ.Socket.send debug_socket message
in
(** {2 Walkers} *)
(** Number of electrons *)
let elec_num =
Lazy.force Qputils.elec_num
in
(** Size of the walkers message *)
let walkers_size =
20*3*(elec_num+1)
in
(** Seconds after when the block is ended on the worker. *)
let block_time =
Input.Block_time.read ()
|> Input.Block_time.to_float
in
(** Total number of walkers to keep for restart *)
let walk_num_tot =
Input.Walk_num_tot.read ()
in
(** Array of walkers. The size is [walk_num_tot]. *)
let walkers_array =
let t0 =
Time.now ()
in
let j =
3*elec_num + 3
in
let result =
if ( not(Ezfio.has_electrons_elec_coord_pool ()) ) then
begin
Printf.printf "Generating initial walkers...\n%!";
Unix.fork_exec ~prog:(Lazy.force Qmcchem_config.qmc_create_walkers)
~args:["qmc_create_walkers" ; ezfio_filename] ()
|> Unix.waitpid_exn ;
Printf.printf "Initial walkers ready\n%!"
end ;
let size =
Ezfio.get_electrons_elec_coord_pool_size ()
and ez =
Ezfio.get_electrons_elec_coord_pool ()
|> Ezfio.flattened_ezfio
in
try
Array.init walk_num_tot ~f:(fun i ->
Array.sub ~pos:(j*(i mod size)) ~len:j ez)
with
| Invalid_argument _ ->
failwith "Walkers file is broken."
in
String.concat [ "Read " ; Int.to_string (Array.length result) ;
" walkers"]
|> send_log "status" 0 t0 ;
result
in
(** Id of the last saved walker (mutable). *)
let last_walker =
ref 0
in
(** Last time when the walkers were saved to disk. *)
let last_save_walkers =
ref (Time.now ())
in
(** Saves the walkers to disk. *)
let save_walkers () =
if (delta_t !last_save_walkers > (Time.Span.of_sec 10.) ) then
begin
let t0 =
Time.now ()
in
Ezfio.set_electrons_elec_coord_pool_size walk_num_tot ;
let walkers_list =
Array.map walkers_array ~f:Array.to_list
|> Array.to_list
|> List.concat
in
Ezfio.set_electrons_elec_coord_pool (Ezfio.ezfio_array_of_list
~rank:3 ~dim:[| elec_num+1 ; 3 ; walk_num_tot |] ~data:walkers_list);
send_log "status" walk_num_tot t0 "Saved walkers";
last_save_walkers := Time.now ();
end
in
(** Increments the [last_walker] mutable value, and saves the walkers to
disk if the array of walkers is filled. In that case, sets the last_walker to 0.
*)
let increment_last_walker () =
last_walker := !last_walker + 1;
if (!last_walker = walk_num_tot) then
begin
last_walker := 0 ;
save_walkers ()
end
in
(** {2 Set of workers} *)
(** A hash table is kept to track the running workers. The keys are the
built as string containing the couple ([Compute_node], [PID]), and
the values are the last communication time.
*)
(** The hash table for workers *)
let workers_hash =
String.Table.create ()
in
(** Creates a key using the couple ([Compute_node], [PID]) *)
let key compute_node pid =
String.concat [
(Compute_node.to_string compute_node); " ";
(Pid.to_string pid) ]
in
(** Adds a new worker to the hash table.
@raise Failure when the worker is already in the table. *)
let add_worker w pid =
let s =
key w pid
in
match Hashtbl.add workers_hash ~key:s ~data:(Time.now ()) with
| `Ok -> ()
| `Duplicate -> failwith (s^" already registered")
in
(** Deletes a new worker from the hash table.
@raise Failure when the worker is not in the table. *)
let del_worker w pid =
let s =
key w pid
in
match Hashtbl.find workers_hash s with
| Some x -> Hashtbl.remove workers_hash s
| None -> failwith (s^" not registered")
in
(** Sets the last access of the worker to [Time.now ()] *)
let touch_worker w pid =
let s =
key w pid
in
Hashtbl.set workers_hash ~key:s ~data:(Time.now ())
in
(** Returns the number of connected workers *)
let n_connected hash now =
let delta =
Time.Span.of_sec (initialization_timeout +. block_time *. 2.)
in
Hashtbl.filter hash ~f:(fun x -> (Time.abs_diff now x) <= delta)
|> Hashtbl.length
in
(** Current PID. *)
let dataserver_pid =
Unix.getpid ()
in
(** Name of the blocks file written by the current process. *)
let block_channel_filename =
let dirname =
Lazy.force Block.dir_name
in
let () =
match Sys.is_directory dirname with
| `Yes -> ()
| _ -> Unix.mkdir_p dirname
in
Filename.concat dirname (
hostname ^ "." ^ (Pid.to_string dataserver_pid)
)
in
(** Name of the blocks file written by the current process, currently locked *)
let block_channel_filename_locked =
block_channel_filename ^ ".locked"
in
let block_channel_filename_tmp =
block_channel_filename ^ ".tmp"
in
(** [Out_channel] corresponding to the blocks file written by the current process. *)
let block_channel =
try
ref (Out_channel.create block_channel_filename_locked)
with
| Sys_error _ ->
begin
(* NFS Stale file handle :
* Wait 5 seconds, and retry *)
Time.Span.of_sec 5. |> Time.pause;
ref (Out_channel.create block_channel_filename_locked)
end
in
(** Compresses the blocks file by merging all blocks with the same block ID and the
same host name, but different PIDs. The result is merging all the CPU cores of
the compute nodes. Happens when [max_file_size] is reached.
*)
let compress_block_file filename =
let t0 =
Time.now ()
in
Out_channel.close !block_channel;
Unix.rename ~src:block_channel_filename_locked ~dst:block_channel_filename_tmp;
Random_variable.compress_files ();
send_log "status" 0 t0 "Compressed block file";
block_channel := Out_channel.create ~append:true block_channel_filename_locked
in
(** {2 Threads} *)
(** {3 Status thread} *)
let start_status_thread =
let t0 =
Time.now ()
in
Thread.create (fun () ->
send_log "status" 0 t0 "Starting status thread";
let socket =
ZMQ.Socket.create zmq_context ZMQ.Socket.pub
and address =
Printf.sprintf "tcp://*:%d" (port+1)
in
bind_socket "PUB" socket address;
let delay =
Time.Span.of_ms 300.
and delay_read =
Time.Span.of_sec 2.
in
let start_time =
Time.now ()
and stop_time =
ref (Time.Span.of_sec Input.Stop_time.(read () |> to_float) )
in
let last_update =
ref start_time
in
while (!status <> Status.Stopped)
do
Time.pause delay;
let now =
Time.now ()
in
let status_string =
Status.to_string !status
in
ZMQ.Socket.send socket status_string;
send_log "status" (String.length status_string) now status_string;
let test =
if (Time.abs_diff now !last_update > delay_read) then
let n_connect =
n_connected workers_hash now
in
`Update n_connect
else if (Time.abs_diff now start_time > !stop_time) then
`Terminate
else if (Time.abs_diff now start_time > Time.Span.of_sec initialization_timeout) then
`Timeout
else
`None
in
match (daemon, !status, test) with
| (_ , _ , `None ) -> ()
| (_ , Status.Running , `Terminate ) -> change_status Status.Stopping
| (false, Status.Running , `Update 0 ) -> change_status Status.Stopped
| (true , Status.Running , `Update 0 ) -> change_status Status.Queued
| (_ , _ , `Update i ) ->
begin
status := Status.read ();
last_update := now;
stop_time := Time.Span.of_sec Input.Stop_time.(read () |> to_float) ;
let n_tot =
Hashtbl.length workers_hash
in
if (i <> n_tot) then
begin
Printf.sprintf "Connected workers : %d / %d" i n_tot
|> send_log "status" 0 now
end
end
| (false, Status.Queued , `Timeout ) -> change_status Status.Stopped
| (_, _, _) -> ()
;
done;
ZMQ.Socket.send socket (Status.to_string !status);
ZMQ.Socket.set_linger_period socket 1000 ;
ZMQ.Socket.close socket
)
in
(** {3 Log thread} *)
let start_log_thread =
let t0 =
Time.now ()
in
Thread.create (fun () ->
send_log "status" 0 t0 "Starting log thread";
let socket =
ZMQ.Socket.create zmq_context ZMQ.Socket.xsub
and address =
Printf.sprintf "tcp://*:%d" (port+3)
in
bind_socket "XSUB" socket address;
let pollitem =
ZMQ.Poll.mask_of
[| (socket , ZMQ.Poll.In) ;
(debug_socket , ZMQ.Poll.In)
|]
in
while (!status <> Status.Stopped)
do
let polling =
ZMQ.Poll.poll ~timeout:1000 pollitem
in
if (polling.(0) = Some ZMQ.Poll.In) then
begin
let message =
ZMQ.Socket.recv_all ~block:false socket
|> String.concat ~sep:" "
in
let now =
Time.now ()
in
send_log "log" 0 now message
end
else if (polling.(1) = Some ZMQ.Poll.In) then
begin
(* Forward subscription from XPUB to XSUB *)
ZMQ.Socket.recv_all ~block:false debug_socket
|> ZMQ.Socket.send_all socket
end
done;
ZMQ.Socket.set_linger_period socket 1000 ;
ZMQ.Socket.close socket
)
in
(** {3 Main thread} *)
let random_walkers n_walks =
let rec walkers accu = function
| 0 -> accu
| n ->
let random_int =
Random.int (Strictly_positive_int.to_int n_walks)
in
(Array.to_list (walkers_array.(random_int)) ) :: (walkers accu (n-1))
in
walkers [] (Strictly_positive_int.to_int n_walks)
|> List.concat
|> List.map ~f:(fun x-> Printf.sprintf "%20.14f" x)
(*
|> List.map ~f:Float.to_string
*)
in
let start_main_thread =
let wall0 =
Time.now ()
in
let f () =
change_status Status.Queued;
send_log "status" 0 wall0 "Starting main thread";
(** Reply socket *)
let rep_socket =
ZMQ.Socket.create zmq_context ZMQ.Socket.rep
and address =
Printf.sprintf "tcp://*:%d" port
in
bind_socket "REP" rep_socket address;
ZMQ.Socket.set_receive_high_water_mark rep_socket 100000;
ZMQ.Socket.set_send_high_water_mark rep_socket 100000;
ZMQ.Socket.set_immediate rep_socket true;
(** EZFIO Cache *)
let ezfio_cache =
String.Table.create ()
in
let handle_ezfio msg =
match Hashtbl.find ezfio_cache msg with
| Some result -> result
| None ->
begin
let result =
decode_ezfio_message msg
in
match (Hashtbl.add ezfio_cache ~key:msg ~data:result) with
| `Ok -> result
| `Duplicate -> result
end
in
(** Pull socket for computed data *)
let pull_socket =
ZMQ.Socket.create zmq_context ZMQ.Socket.pull
and address =
Printf.sprintf "tcp://*:%d" (port+2)
in
bind_socket "PULL" pull_socket address;
(** Address of the dataserver *)
let server_address =
let ip =
Lazy.force Qmcchem_config.ip_address
in
Printf.sprintf "tcp://%s:%d" ip port
in
Ezfio.set_simulation_http_server server_address;
Printf.printf "Server address: %s\n%!" server_address;
(** Polling item to poll REP and PULL sockets. *)
let pollitem =
ZMQ.Poll.mask_of
[| ( rep_socket, ZMQ.Poll.In) ;
( pull_socket, ZMQ.Poll.In) ;
|]
in
(** Handles messages coming into the REP socket. *)
let handle_rep () =
let raw_msg =
ZMQ.Socket.recv_all ~block:false rep_socket
in
let t0 =
Time.now ()
in
let msg =
List.map ~f:String.strip raw_msg
|> Message.create
and msg_size =
List.fold ~init:0 ~f:(fun accu x -> accu + (String.length x)) raw_msg
in
let handle = function
| Message.Ezfio ezfio_msg ->
let result =
handle_ezfio ezfio_msg
in
ZMQ.Socket.send_all rep_socket
[ String.length result
|> Printf.sprintf "%d " ;
result ] ;
send_log "rep" (String.length result) t0 ezfio_msg
| Message.GetWalkers n_walks ->
begin
send_log "req" msg_size t0 "get_walkers";
let result =
random_walkers n_walks
in
ZMQ.Socket.send_all rep_socket result;
send_log "rep" walkers_size t0 "get_walkers"
end
| Message.Register (w,pid) ->
begin
match !status with
| Status.Queued
| Status.Running ->
begin
String.concat [ "Register : " ;
(Compute_node.to_string w) ; " " ;
(Pid.to_string pid) ]
|> send_log "req" msg_size t0;
add_worker w pid;
if (!status = Status.Queued) then
change_status Status.Running ;
ZMQ.Socket.send rep_socket "OK";
send_log "rep" 2 t0 "Register : OK"
end
| Status.Stopping
| Status.Stopped ->
ZMQ.Socket.send rep_socket "Failed";
end
| Message.Unregister (w,pid) ->
begin
String.concat [ "Unregister : " ;
(Compute_node.to_string w) ; " " ;
(Pid.to_string pid) ]
|> send_log "req" msg_size t0;
ZMQ.Socket.send rep_socket "OK";
del_worker w pid;
String.concat [ "Unregister : ";
(Hashtbl.length workers_hash) |> Int.to_string ;
" remaining" ]
|> send_log "rep" 2 t0 ;
let n_connect =
n_connected workers_hash t0
in
match (daemon,n_connect) with
| (false,0) -> change_status Status.Stopped
| (true ,0) -> change_status Status.Queued
| _ -> ()
end
| Message.Test ->
begin
ZMQ.Socket.send rep_socket "OK";
send_log "rep" 2 t0 "Test"
end
| Message.Walkers (_, _, _)
| Message.Property _
-> failwith "Bad message"
in handle msg
in
(** Handles messages coming into the PULL socket. *)
let handle_pull status =
let raw_msg =
ZMQ.Socket.recv_all ~block:false pull_socket
in
let t0 =
Time.now ()
in
let msg =
List.map ~f:String.strip raw_msg
|> Message.create
and msg_size =
List.fold ~init:0 ~f:(fun accu x -> accu + (String.length x)) raw_msg
in
let recv_log =
send_log "pull" msg_size t0
in
let handle = function
| Message.Walkers (h,pid,w) ->
begin
if (status = Status.Running) then
touch_worker h pid ;
let log_msg =
Printf.sprintf "Walkers from %s : %d / %d / %d"
(key h pid) (Array.length w) (!last_walker) walk_num_tot
in
recv_log log_msg ;
for i=0 to ((Array.length w)-1)
do
Array.replace walkers_array (!last_walker) (fun _ -> w.(i));
increment_last_walker ();
done;
let wall =
Printf.sprintf "%f %f # %s %s %s %d"
(Time.Span.to_sec (Time.abs_diff (Time.now ()) wall0))
1. (Property.to_string Property.Wall)
hostname (Pid.to_string dataserver_pid) 1
|> Block.of_string
in
match wall with
| Some wall ->
begin
Out_channel.output_string !block_channel (Block.to_string wall);
Out_channel.output_char !block_channel '\n';
end
| _ -> ()
end
| Message.Property b ->
begin
if (status = Status.Running) then
touch_worker b.Block.compute_node b.Block.pid ;
Out_channel.output_string !block_channel (Block.to_string b);
Out_channel.output_char !block_channel '\n';
recv_log (Block.to_string b)
end
| Message.Test
| Message.GetWalkers _
| Message.Ezfio _
| Message.Register (_, _)
| Message.Unregister (_, _)
-> failwith "Bad message"
in handle msg
in
(* Main loop *)
while (!status <> Status.Stopped)
do
let polling =
ZMQ.Poll.poll ~timeout:1000 pollitem
in
match polling.(1) with
| Some ZMQ.Poll.In -> handle_pull !status
| _ ->
begin
match polling.(0) with
| Some ZMQ.Poll.In -> handle_rep ()
| _ ->
begin
Out_channel.flush !block_channel ;
let file_size =
(Unix.stat block_channel_filename_locked).Unix.st_size
|> Float.of_int64
|> Byte_units.create `Bytes
in
if (file_size > !max_file_size) then
begin
compress_block_file ();
max_file_size := Byte_units.scale file_size 1.2;
end
end
end
done;
List.iter ~f:(fun socket ->
ZMQ.Socket.set_linger_period socket 1000 ;
ZMQ.Socket.close socket)
[ rep_socket ; pull_socket ]
in
Thread.create f
in
(** {2 Finalization} *)
(** Cleans all the open files, sockets, etc.
@param t0 is the initial time of the run, such that the wall time can be computed.
*)
let finalize ~t0 =
print_string "Finalizing...";
change_status Status.Stopped;
compress_block_file ();
send_log "status" 0 t0 "Done";
close_debug_socket ();
ZMQ.Context.terminate zmq_context;
begin
try
Out_channel.close !block_channel;
Unix.remove block_channel_filename_locked
with
| _ -> ()
end;
Qmcchem_result.display_summary ();
in
(** {3 Main function} *)
let t0 =
Time.now ()
in
(* Handle signals *)
let handler s =
Watchdog.kill ();
in
List.iter [
Signal.term ;
Signal.quit ;
Signal.int
]
~f:(fun x -> Signal.Expert.handle x handler)
;
(* Run threads *)
begin
try
(List.iter ~f:Thread.join
[ start_status_thread () ;
start_log_thread () ;
start_main_thread () ;
])
with
| err ->
begin
print_endline "Trapped error. Waiting 10 seconds...";
change_status Status.Stopping;
Time.Span.of_sec 10. |> Time.pause;
finalize ~t0;
raise err
end
end;
finalize ~t0

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open Core.Std
let run ~t filename=
Ezfio.set_file filename;
if (not (Ezfio.has_simulation_http_server ())) then
failwith "QMC=Chem is not running"
;
let zmq_context =
ZMQ.Context.create ()
in
Printf.printf "Debugging %s\n%!" filename;
let socket =
ZMQ.Socket.create zmq_context ZMQ.Socket.sub
in
let address =
match (Ezfio.get_simulation_http_server ()
|> String.rsplit2 ~on:':' )
with
| Some (a,p) -> a^":"^( (Int.of_string p)+4 |> Int.to_string )
| None -> failwith "Badly formed address"
in
ZMQ.Socket.connect socket address;
ZMQ.Socket.subscribe socket "";
if t then
begin
let re_split =
Str.regexp " *: *"
in
let tot_size =
ref (Byte_units.create `Bytes 0.)
in
while true
do
let msg =
ZMQ.Socket.recv socket
in
let (socket, bytes) =
match Str.split re_split msg with
| socket :: bytes :: _ ->
(socket, Byte_units.create `Bytes (Float.of_string bytes))
| _ -> (print_endline msg ; ("", Byte_units.create `Bytes 0.))
in
tot_size := Byte_units.create `Bytes ((Byte_units.bytes !tot_size) +. (Byte_units.bytes bytes));
Printf.printf "%s\n%!" (Byte_units.to_string !tot_size);
Time.pause (Time.Span.of_float 1.)
done
end
else
begin
while true
do
let msg =
ZMQ.Socket.recv socket
in
Printf.printf "%s\n%!" msg;
done
end
let spec =
let open Command.Spec in
empty
+> flag "t" no_arg
~doc:"Measure the throughput"
+> anon ("filename" %: string)
let command =
Command.basic
~summary: "Debug ZeroMQ communications"
~readme:(fun () -> "Gets debug information from the ZMQ debug sockets.")
spec
(fun t filename () -> run t filename)

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open Core.Std
let file_header filename = Printf.sprintf
"
+----------------------------------------------------------------+
| QMC=Chem |
+----------------------------------------------------------------+
Editing file `%s`
" filename
let make_header s =
let l = String.length s in
"\n\n"^s^"\n"^(String.init l ~f:(fun _ -> '='))^"\n\n"
type field =
| Block_time
| Walk_num
| Walk_num_tot
| Stop_time
| Fitcusp
| Method
| Sampling
| Ref_energy
| CI_threshold
| Time_step
| Jastrow_type
| Properties
let get field =
let option_to_string read to_string doc =
let value =
read () |> to_string
in
Printf.sprintf "%s ::\n\n %s\n\n" doc value
in
let option_to_string_prop read to_string doc =
let value =
read () |> to_string
in
Printf.sprintf "%s :\n\n%s\n\n" doc value
in
let open Input in
match field with
| Block_time ->
option_to_string Block_time.read Block_time.to_string Block_time.doc
| Walk_num ->
option_to_string Walk_num.read Walk_num.to_string Walk_num.doc
| Walk_num_tot ->
option_to_string Walk_num_tot.read Walk_num_tot.to_string Walk_num_tot.doc
| Stop_time ->
option_to_string Stop_time.read Stop_time.to_string Stop_time.doc
| Fitcusp ->
option_to_string Fitcusp.read Fitcusp.to_string Fitcusp.doc
| Method ->
option_to_string Method.read Method.to_string Method.doc
| Sampling ->
option_to_string Sampling.read Sampling.to_string Sampling.doc
| Ref_energy ->
option_to_string Ref_energy.read Ref_energy.to_string Ref_energy.doc
| CI_threshold ->
option_to_string CI_threshold.read CI_threshold.to_string CI_threshold.doc
| Time_step ->
option_to_string Time_step.read Time_step.to_string Time_step.doc
| Jastrow_type ->
option_to_string Jastrow_type.read Jastrow_type.to_string Jastrow_type.doc
| Properties ->
option_to_string_prop Properties.read Properties.to_string Properties.doc
let create_temp_file ?temp_filename ezfio_filename fields =
let filename =
match temp_filename with
| None -> Filename.temp_file "qmcchem_edit_" ".rst"
| Some name -> name
in
Out_channel.with_file filename ~f:(fun out_channel ->
(file_header ezfio_filename) :: (List.map ~f:get fields)
|> String.concat ~sep:"\n"
|> Out_channel.output_string out_channel
)
; filename
(** Write the input file corresponding to the MD5 key *)
let write_input_in_ezfio ezfio_filename fields =
let dirname =
Lazy.force Md5.input_directory
in
let temp_filename =
Md5.hash ()
|> Filename.concat dirname
in
let input_filename =
create_temp_file ~temp_filename ezfio_filename fields
in
assert (Sys.file_exists_exn input_filename)
(** Run the edit command *)
let run ~c ?f ?t ?l ?m ?e ?s ?ts ?w ?wt ?n ?j ?input ezfio_filename =
let interactive = ref (
if c then
false
else
true
)
in
(* Open EZFIO *)
if (not (Sys.file_exists_exn ezfio_filename)) then
failwith (ezfio_filename^" does not exist");
Ezfio.set_file ezfio_filename;
let handle_option (type_conv, write) x =
let () =
match x with
| Some x ->
begin
type_conv x |> write;
interactive := false;
end
| None -> ()
in ();
in
handle_option Input.Ref_energy.(of_float , write) e;
handle_option Input.Jastrow_type.(of_string, write) j;
handle_option Input.Block_time.(of_int , write) l;
handle_option Input.Method.(of_string, write) m;
handle_option Input.Stop_time.(of_int , write) t;
handle_option Input.Sampling.(of_string, write) s;
handle_option Input.Fitcusp.(of_int , write) f;
handle_option Input.Time_step.(of_float , write) ts;
handle_option Input.Walk_num.(of_int , write) w;
handle_option Input.Walk_num_tot.(of_int , write) wt;
handle_option Input.CI_threshold.(of_float , write) n;
let fields =
[
Stop_time ;
Block_time ;
Method ;
Ref_energy ;
Sampling ;
Time_step ;
Walk_num ;
Walk_num_tot ;
Fitcusp ;
CI_threshold ;
Jastrow_type ;
Properties ;
]
in
if (!interactive) then
begin
let temp_filename =
create_temp_file ezfio_filename fields
in
let () =
match input with
| Some filename ->
begin
if (not !interactive) then
failwith "Input file not allowed with command line arguments"
else
begin
Printf.sprintf "cp %s %s" filename temp_filename
|> Sys.command_exn ;
end
end
| None ->
begin
(* Open the temp file with external editor *)
let editor =
match Sys.getenv "EDITOR" with
| Some editor -> editor
| None -> "vi"
in
Printf.sprintf "%s %s ; tput sgr0 2> /dev/null" editor temp_filename
|> Sys.command_exn
end
in
(* Re-read the temp file *)
let re_data =
Str.regexp " .+ *$"
and re_prop =
Str.regexp "([ xX]) .*$"
and raw_data =
In_channel.with_file temp_filename ~f:In_channel.input_lines
in
let data =
( List.filter raw_data ~f:(fun x -> Str.string_match re_data x 0)
|> List.map ~f:String.strip ) @
[
List.filter raw_data ~f:(fun x -> Str.string_match re_prop x 0)
|> List.map ~f:String.strip
|> String.concat ~sep:"\n" ]
in
let open Input in
List.iter2_exn data fields ~f:(fun s f ->
try
begin
match f with
| Stop_time -> Stop_time.(of_string s |> write)
| Fitcusp -> Fitcusp.(of_string s |> write)
| Block_time -> Block_time.(of_string s |> write)
| Method -> Method.(of_string s |> write)
| Ref_energy -> Ref_energy.(of_string s |> write)
| Sampling -> Sampling.(of_string s |> write)
| Time_step -> Time_step.(of_string s |> write)
| Walk_num -> Walk_num.(of_string s |> write)
| Walk_num_tot -> Walk_num_tot.(of_string s |> write)
| CI_threshold -> CI_threshold.(of_string s |> write)
| Jastrow_type -> Jastrow_type.(of_string s |> write)
| Properties -> Properties.(of_string s |> write)
end
with
| Failure msg -> Printf.eprintf "%s\n" msg
);
(* Remove temp_file *)
Sys.remove temp_filename;
end
;
if c then
begin
let dirname =
Filename.concat (Filename.concat ezfio_filename "blocks") (Md5.hash ())
in
let rec clean_dir y =
match Sys.is_directory y with
| `Yes ->
Sys.ls_dir y
|> List.map ~f:(Filename.concat y)
|> List.iter ~f:(function x ->
match ( Sys.is_directory x, Sys.is_file x ) with
| (`Yes, _) -> clean_dir x
| (_, `Yes) -> Sys.remove x
| (_,_) -> ()
);
Unix.rmdir y
| `Unknown
| `No -> ()
in clean_dir dirname;
Printf.printf "Blocks cleared\n"
end
;
Input.validate ();
Md5.reset_hash ();
write_input_in_ezfio ezfio_filename fields
let spec =
let open Command.Spec in
empty
+> flag "c" no_arg
~doc:(" Clear blocks")
+> flag "f" (optional int)
~doc:("0|1 "^Input.Fitcusp.doc)
+> flag "t" (optional int)
~doc:("seconds "^Input.Stop_time.doc)
+> flag "l" (optional int)
~doc:("seconds "^Input.Block_time.doc)
+> flag "m" (optional string)
~doc:("method "^Input.Method.doc)
+> flag "e" (optional float)
~doc:("energy "^Input.Ref_energy.doc)
+> flag "s" (optional string)
~doc:("sampling "^Input.Sampling.doc)
+> flag "ts" (optional float)
~doc:("time_step "^Input.Time_step.doc)
+> flag "w" (optional int)
~doc:("walk_num "^Input.Walk_num.doc)
+> flag "wt" (optional int)
~doc:("walk_num_tot "^Input.Walk_num_tot.doc)
+> flag "n" (optional float)
~doc:("norm "^Input.CI_threshold.doc)
+> flag "j" (optional string)
~doc:("jastrow_type "^Input.Jastrow_type.doc)
+> anon ("ezfio_file" %: string)
+> anon (maybe ("input" %: string))
;;
let command =
Command.basic
~summary: "Edit input data"
~readme:(fun () ->
"
Edit input data
")
spec
(fun c f t l m e s ts w wt n j ezfio_file input () ->
run ~c ?f ?t ?l ?m ?e ?s ?ts ?w ?wt ?n ?j ?input ezfio_file )

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open Core.Std;;
let bind_socket ~socket_type ~socket ~address =
try
ZMQ.Socket.bind socket address
with
| Unix.Unix_error (_, message, f) ->
failwith @@ Printf.sprintf
"\n%s\nUnable to bind the forwarder's %s socket :\n %s\n%s"
f socket_type address message
| other_exception -> raise other_exception
let run ezfio_filename dataserver =
let dataserver_address, dataserver_port =
Substring.create ~pos:6 dataserver
|> Substring.to_string
|> String.lsplit2_exn ~on:':'
and qmc =
Lazy.force Qmcchem_config.qmc
in
(* Go into /dev/shm *)
Unix.chdir Qmcchem_config.dev_shm;
let tmpdir =
ezfio_filename ^ "_" ^ dataserver_port
in
(* Port of the data server *)
let port =
(Int.of_string dataserver_port)+10
in
(* Build qmc executable command *)
let prog, args =
qmc,
[ qmc ; ezfio_filename ;
Printf.sprintf "ipc://%s:%d" Qmcchem_config.dev_shm port ];
in
(* Create the temporary directory. If it is possible, then the process is a
* master and the forwarder will start. Otherwise, only start a qmc process.
*)
let () =
try
Unix.mkdir tmpdir
with
| Unix.Unix_error _ ->
(* TODO : wait until the forwarder has started *)
begin
Unix.chdir tmpdir;
ignore @@ Unix.exec ~prog ~args ()
end
in
Unix.chdir tmpdir;
(* Now, only one forwarder will execute the following code *)
(* Fork a qmc *)
ignore @@
Watchdog.fork_exec ~prog ~args ();
(* If there are MICs, use them here (TODO) *)
(* Fetch input *)
let zmq_context =
ZMQ.Context.create ()
in
let terminate () =
(* Clean up the temp directory *)
Unix.chdir Qmcchem_config.dev_shm;
let command =
Printf.sprintf "rm -rf -- \"%s\" " tmpdir
in
match Unix.system command with
| Ok _ -> ()
| _ -> print_endline "Unable to remove temporary directory"
;
ZMQ.Context.terminate zmq_context
in
(* Signal handler to Kill properly all the processes *)
let handler s =
Printf.printf "Forwarder received the %s signal... killing\n" (Signal.to_string s);
terminate ();
Watchdog.kill ();
in
List.iter [
Signal.term ;
Signal.quit ;
Signal.int
]
~f:(fun x -> Signal.Expert.handle x handler)
;
(* Fetch walkers *)
let walk_num =
ref 0
and walkers =
ref []
in
(* Status thread *)
let status =
ref Status.Running
in
let start_status_thread =
let f () =
let pub_socket =
ZMQ.Socket.create zmq_context ZMQ.Socket.pub
and address =
Printf.sprintf "ipc://%s:%d" Qmcchem_config.dev_shm (port+1);
in
bind_socket "PUB" pub_socket address;
let sub_socket =
ZMQ.Socket.create zmq_context ZMQ.Socket.sub
and address =
Printf.sprintf "tcp://%s:%d" dataserver_address (port+1-10)
in
ZMQ.Socket.connect sub_socket address;
ZMQ.Socket.subscribe sub_socket "";
let pollitem =
ZMQ.Poll.mask_of
[| (sub_socket, ZMQ.Poll.In) ;
|]
in
while (!status <> Status.Stopped)
do
let polling =
ZMQ.Poll.poll ~timeout:1000 pollitem
in
if (polling.(0) = Some ZMQ.Poll.In) then
begin
let msg =
ZMQ.Socket.recv ~block:false sub_socket
in
ZMQ.Socket.send pub_socket msg;
status := Status.of_string msg;
end;
done;
List.iter ~f:(fun socket ->
ZMQ.Socket.set_linger_period socket 1000 ;
ZMQ.Socket.close socket)
[ sub_socket ; pub_socket ]
in
Thread.create f
in
let start_log_thread =
let f () =
let sub_socket =
ZMQ.Socket.create zmq_context ZMQ.Socket.xsub
and address =
Printf.sprintf "ipc://%s:%d" Qmcchem_config.dev_shm (port+3);
in
bind_socket "XSUB" sub_socket address;
let pub_socket =
ZMQ.Socket.create zmq_context ZMQ.Socket.xpub
and address =
Printf.sprintf "tcp://%s:%d" dataserver_address (port+3-10)
in
ZMQ.Socket.connect pub_socket address;
let pollitem =
ZMQ.Poll.mask_of
[| (sub_socket, ZMQ.Poll.In) ;
(pub_socket, ZMQ.Poll.In) ;
|]
in
(* Main loop *)
while (!status <> Status.Stopped)
do
let polling =
ZMQ.Poll.poll ~timeout:1000 pollitem
in
if (polling.(0) = Some ZMQ.Poll.In) then
begin
ZMQ.Socket.recv ~block:false sub_socket
|> ZMQ.Socket.send pub_socket ;
end
else if (polling.(1) = Some ZMQ.Poll.In) then
begin
Printf.printf "Forwarder subscribe\n%!";
ZMQ.Socket.recv ~block:false pub_socket
|> ZMQ.Socket.send sub_socket ;
end
done;
List.iter ~f:(fun socket ->
ZMQ.Socket.set_linger_period socket 1000 ;
ZMQ.Socket.close socket)
[ sub_socket ; pub_socket ]
in
Thread.create f
in
(* Proxy thread *)
let start_proxy_thread =
let f () =
let req_socket =
ZMQ.Socket.create zmq_context ZMQ.Socket.req
in
ZMQ.Socket.connect req_socket dataserver;
ZMQ.Socket.set_receive_timeout req_socket 180_000;
let dealer_socket =
ZMQ.Socket.create zmq_context ZMQ.Socket.dealer
in
bind_socket "PROXY" dealer_socket "inproc://dealer";
ZMQ.Socket.set_receive_high_water_mark dealer_socket 100000;
ZMQ.Socket.set_send_high_water_mark dealer_socket 100000;
ZMQ.Socket.set_immediate dealer_socket true;
let fetch_walkers () =
ZMQ.Socket.send_all req_socket ["get_walkers" ; Int.to_string !walk_num ];
ZMQ.Socket.recv_all req_socket
in
let pollitem =
ZMQ.Poll.mask_of
[| (dealer_socket, ZMQ.Poll.In) ;
|]
in
(* EZFIO Cache *)
let ezfio_cache =
String.Table.create ()
in
let handle_ezfio msg =
match Hashtbl.find ezfio_cache msg with
| Some result -> result
| None ->
begin
ZMQ.Socket.send_all req_socket ["Ezfio" ; msg];
let result =
ZMQ.Socket.recv_all req_socket
in
match (Hashtbl.add ezfio_cache ~key:msg ~data:result) with
| `Ok -> result
| `Duplicate -> result
end
in
(* Main loop *)
while (!status <> Status.Stopped)
do
let polling =
ZMQ.Poll.poll ~timeout:1000 pollitem
in
if (polling.(0) = Some ZMQ.Poll.In) then
begin
let raw_msg =
ZMQ.Socket.recv_all ~block:false dealer_socket
in
let header, msg =
let rec aux header = function
| "" :: msg -> List.rev ("" :: header), Message.create msg
| head :: tail -> aux (head::header) tail
| _ -> failwith "Too many routers in the middle"
in
aux [] (List.map ~f:String.strip raw_msg)
in
let handle message =
match message with
| Message.Ezfio ezfio_msg ->
let result =
handle_ezfio ezfio_msg
in
ZMQ.Socket.send_all dealer_socket (header @ result) ;
| Message.GetWalkers n_walks ->
begin
if (!walk_num = 0) then
begin
walk_num := Qptypes.Strictly_positive_int.to_int n_walks;
walkers := fetch_walkers ();
end;
ZMQ.Socket.send_all dealer_socket (header @ !walkers);
walkers := fetch_walkers ();
end
| Message.Test ->
ZMQ.Socket.send_all dealer_socket (header @ [ "OK" ]);
| Message.Register _
| Message.Unregister _
| Message.Walkers _
| Message.Property _ ->
failwith "Bad message"
in handle msg
end;
done;
ZMQ.Socket.set_linger_period dealer_socket 1000 ;
ZMQ.Socket.close dealer_socket;
ZMQ.Socket.set_linger_period req_socket 1000 ;
ZMQ.Socket.close req_socket;
in
Thread.create f
in
(* Main thread *)
let start_main_thread =
let f () =
let dealer_socket =
ZMQ.Socket.create zmq_context ZMQ.Socket.dealer
in
ZMQ.Socket.connect dealer_socket dataserver;
let proxy_socket =
ZMQ.Socket.create zmq_context ZMQ.Socket.dealer
in
ZMQ.Socket.connect proxy_socket "inproc://dealer";
let router_socket =
ZMQ.Socket.create zmq_context ZMQ.Socket.router
and address =
Printf.sprintf "ipc://%s:%d" Qmcchem_config.dev_shm (port);
in
bind_socket "ROUTER" router_socket address;
ZMQ.Socket.set_receive_high_water_mark router_socket 100000;
ZMQ.Socket.set_send_high_water_mark router_socket 100000;
ZMQ.Socket.set_immediate router_socket true;
(* Pull socket for computed data *)
let push_socket =
ZMQ.Socket.create zmq_context ZMQ.Socket.push
and address =
Printf.sprintf "tcp://%s:%d" dataserver_address (port+2-10)
in
ZMQ.Socket.connect push_socket address;
let pull_socket =
ZMQ.Socket.create zmq_context ZMQ.Socket.pull
and address =
Printf.sprintf "ipc://%s:%d" Qmcchem_config.dev_shm (port+2);
in
bind_socket "PULL" pull_socket address;
(* Handles messages coming into the ROUTER socket. *)
let handle_router () =
let raw_msg =
ZMQ.Socket.recv_all ~block:false router_socket
in
let header, msg =
let rec aux header = function
| "" :: msg -> List.rev ("" :: header), Message.create msg
| head :: tail -> aux (head::header) tail
| _ -> failwith "Too many routers in the middle"
in
aux [] (List.map ~f:String.strip raw_msg)
in
let handle message =
match message with
| Message.GetWalkers _
| Message.Ezfio _
| Message.Test ->
ZMQ.Socket.send_all proxy_socket raw_msg;
| Message.Register _
| Message.Unregister _ ->
ZMQ.Socket.send_all dealer_socket raw_msg;
| Message.Walkers (_, _, _)
| Message.Property _ ->
failwith "Bad message"
in handle msg
in
let handle_dealer () =
ZMQ.Socket.recv_all ~block:false dealer_socket
|> ZMQ.Socket.send_all router_socket
in
let handle_proxy () =
ZMQ.Socket.recv_all ~block:false proxy_socket
|> ZMQ.Socket.send_all router_socket
in
(* Handles messages coming into the PULL socket. *)
let handle_pull () =
ZMQ.Socket.recv_all ~block:false pull_socket
|> ZMQ.Socket.send_all push_socket
in
(* Polling item to poll ROUTER and PULL sockets. *)
let pollitem =
ZMQ.Poll.mask_of
[| (router_socket , ZMQ.Poll.In) ;
(pull_socket , ZMQ.Poll.In) ;
(dealer_socket, ZMQ.Poll.In) ;
(proxy_socket , ZMQ.Poll.In)
|]
in
(* Main loop *)
while (!status <> Status.Stopped)
do
let polling =
ZMQ.Poll.poll ~timeout:1000 pollitem
in
if (polling.(0) = Some ZMQ.Poll.In) then
handle_router ();
if (polling.(1) = Some ZMQ.Poll.In) then
handle_pull ();
if (polling.(2) = Some ZMQ.Poll.In) then
handle_dealer ();
if (polling.(3) = Some ZMQ.Poll.In) then
handle_proxy ();
done;
List.iter ~f:(fun socket ->
ZMQ.Socket.set_linger_period socket 1000 ;
ZMQ.Socket.close socket)
[ router_socket ; dealer_socket ; push_socket ; pull_socket ; proxy_socket ]
in
Thread.create f
in
(* Start the status thread and the main thread *)
begin
try
(List.iter ~f:Thread.join
[ start_status_thread ();
start_log_thread ();
start_proxy_thread ();
start_main_thread ();
])
with
| err ->
begin
print_endline "Trapped error. Waiting 10 seconds...";
status := Status.Stopping;
Time.Span.of_sec 10. |> Time.pause;
raise err
end
end;
(* Wait for the qmc process to complete *)
ignore (Watchdog.join ());
terminate ()

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open Core.Std
let run ?c ?d ~l ezfio_filename =
Ezfio.set_file ezfio_filename;
let input_directory =
Lazy.force Md5.input_directory
in
let handle_options () =
let current_md5 =
Md5.hash ()
in
let filename_of_key key =
Filename.concat input_directory key
in
let key_is_valid key =
let filename =
filename_of_key key
in
Sys.file_exists_exn filename
in
let () =
match c with
| None -> ()
| Some new_md5 ->
if (key_is_valid new_md5) then
Qmcchem_edit.run ~c:false ~input:(filename_of_key new_md5) ezfio_filename
else
failwith ("Error: " ^ new_md5 ^ " does not exist")
in
let () =
match l with
| false -> ()
| true ->
Sys.ls_dir input_directory
|> List.iter ~f:(fun md5 ->
let filename =
Filename.concat input_directory md5
in
let this =
if (md5 = current_md5) then
"<-"
else
""
in
let date =
(Unix.stat filename).Unix.st_mtime
in
let date =
Unix.strftime (Unix.localtime date) "%a, %d %b %Y %T %z"
in
Printf.printf "%s : %s %s\n" md5 date this)
in
let () =
match d with
| None -> ()
| Some other_key ->
if (key_is_valid other_key) then
let command =
String.concat ~sep:" "
[ "diff" ; "-u" ; "-w" ;
(filename_of_key current_md5) ;
(filename_of_key other_key) ]
in
match (Unix.system command) with
| _ -> ()
else
failwith ("Error: " ^ other_key ^ " does not exist")
in
()
in
match (c,d,l) with
| (None,None,false) ->
Printf.printf "Current key :\n%s\n" (Md5.hash ())
| _ -> handle_options ()
let spec =
let open Command.Spec in
empty
+> flag "c" (optional string)
~doc:("<key> Change to input to <key>")
+> flag "d" (optional string)
~doc:("<key> Show input differences with <key>")
+> flag "l" no_arg
~doc:(" List all the saved MD5 keys.")
+> anon ("ezfio_file" %: string)
let command =
Command.basic
~summary: "Manipulate input MD5 keys"
~readme:(fun () ->
"
Manipulate input MD5 keys
")
spec
(fun c d l ezfio_file () -> run ?c ?d ~l ezfio_file )

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open Core.Std
open Qptypes
(** Display a table that can be plotted by gnuplot *)
let display_table property =
let p = Property.of_string property
|> Random_variable.of_raw_data
in
let conv = Random_variable.convergence p
and rconv = Random_variable.rev_convergence p
and data = p.Random_variable.data
in
let results =
List.map2_exn conv rconv ~f:(fun (val1, err1) (val2,err2) -> (val1, err1, val2, err2))
in
List.iter2_exn results data ~f:(fun (val1, err1, val2, err2) block ->
Printf.printf "%10.6f %10.6f %10.6f %10.6f %10.6f\n"
val1 err1 val2 err2 (Sample.to_float block.Block.value)
)
;;
(** Display a convergence plot of the requested property *)
let display_plot property =
print_string ("display_plot "^property^".\n")
;;
(** Display a convergence table of the error *)
let display_err_convergence property =
let p =
Property.of_string property
|> Random_variable.of_raw_data
in
let rec aux n p =
match Random_variable.ave_error p with
| (ave, Some error) ->
let (ave, error) =
Random_variable.Average.to_float ave,
Random_variable.Error.to_float error
in
Printf.printf "%10d %16.10f %16.10f\n" n ave error ;
begin
if ((3*n) < (List.length p.Random_variable.data)) then
let new_p =
Random_variable.compress p
in
aux (n+n) new_p
end
| (ave, None) -> ()
in
aux 1 p
;;
(** Display the centered cumulants of a property *)
let display_cumulants property =
let p =
Property.of_string property
|> Random_variable.of_raw_data
in
let cum =
Random_variable.centered_cumulants p
in
Printf.printf "Average = %16.10f\n" cum.(0);
Printf.printf "Variance = %16.10f\n" cum.(1);
Printf.printf "Centered k3 = %16.10f\n" cum.(2);
Printf.printf "Centered k4 = %16.10f\n" cum.(3);
print_newline ();
let n = 1. /. 12. *. cum.(2) *. cum.(2) +.
1. /. 48. *. cum.(3) *. cum.(3)
in
Printf.printf "Non-gaussianity = %16.10f\n" n
;;
(** Display a table for the autocovariance of the property *)
let display_autocovariance property =
let p =
Property.of_string property
|> Random_variable.of_raw_data
in
Random_variable.autocovariance p
|> List.iteri ~f:(fun i x ->
Printf.printf "%10d %16.10f\n" i x)
;;
(** Display a histogram of the property *)
let display_histogram property =
let p =
Property.of_string property
|> Random_variable.of_raw_data
in
let histo =
Random_variable.histogram p
in
let g =
Random_variable.GaussianDist.create
~mu:(Random_variable.average p)
~sigma2:((Random_variable.centered_cumulants p).(1)
|> Random_variable.Variance.of_float)
in
let g =
Random_variable.GaussianDist.eval ~g
in
List.iter histo ~f:( fun (x,y) ->
Printf.printf "%16.10f %16.10f %16.10f\n" x y (g ~x))
(*
and sigma2 =
(Random_variable.centered_cumulants p).(1)
and pi =
acos(-1.)
in
let one_over_2sigma2 =
1. /. ( 2. *. sigma2 )
and mu =
Random_variable.average p
and norm =
1. /. (sqrt(sigma2 *. 2.*.pi))
in
List.map histo ~f:(fun (x,y) ->
let g =
norm *. exp(-.((x-.mu)*.(x-.mu)*.one_over_2sigma2))
in
(x,y,g)
)
|> List.iter ~f:(fun (x,y,g) ->
Printf.printf "%16.10f %16.10f %16.10f\n" x y g)
*)
;;
(** Display a summary of all the cmoputed quantities *)
let display_summary () =
let properties =
Lazy.force Block.properties
and print_property property =
let p = Random_variable.of_raw_data property
in
Printf.printf "%20s : %s\n"
(Property.to_string property)
(Random_variable.to_string p)
in
List.iter properties ~f:print_property ;
let cpu =
Random_variable.of_raw_data Property.Cpu
|> Random_variable.sum
and wall =
Random_variable.of_raw_data Property.Wall
|> Random_variable.max_value_per_compute_node
|> Random_variable.sum
in
let speedup =
cpu /. wall
in
Printf.printf "%20s : %10.2f x\n" "Speedup" speedup;
;;
let run ?a ?c ?e ?h ?t ?p ezfio_file =
Ezfio.set_file ezfio_file;
let f (x,func) =
match x with
| Some property -> func property
| None -> ()
in
let l =
[ (a, display_autocovariance) ;
(c, display_cumulants) ;
(e, display_err_convergence) ;
(h, display_histogram) ;
(p, display_plot) ;
(t, display_table) ;
]
in
List.iter ~f l
;
if (List.fold ~init:true ~f:(fun accu x ->
match x with
| (None, _) -> accu && true
| (Some _,_) -> false
) l
) then
display_summary ()
;;
let spec =
let open Command.Spec in
empty
+> flag "a" (optional string)
~doc:"property Display the autcovariance function of the property"
+> flag "c" (optional string)
~doc:"property Print the centered cumulants of a property"
+> flag "e" (optional string)
~doc:"property Display the convergence of the error of the property by merging blocks"
+> flag "h" (optional string)
~doc:"property Display the histogram of the property blocks"
+> flag "p" (optional string)
~doc:"property Display a convergence plot for a property"
+> flag "t" (optional string)
~doc:"property Print a table for the convergence of a property"
+> anon ("ezfio_file" %: string)
;;
let command =
Command.basic
~summary: "Displays the results computed in an EZFIO directory."
~readme:(fun () -> "Displays the results computed in an EZFIO directory.")
spec
(fun a c e h p t ezfio_file () -> run ?a ?c ?e ?h ?t ?p ezfio_file )
;;

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open Core.Std
let full_run ?(start_dataserver=true) ezfio_filename =
(* Identify the job scheduler *)
let launcher =
Launcher.find ()
and scheduler =
Scheduler.find ()
in
Printf.printf "Scheduler : %s\n" (Scheduler.to_string scheduler);
Printf.printf "Launcher : %s\n" (Launcher.to_string launcher );
(* Create the node file *)
let server_file =
Filename.concat ezfio_filename "nodefile"
in
Out_channel.with_file server_file ~f:(fun out_channel ->
Launcher.create_nodefile ()
|> Out_channel.output_string out_channel
) ;
(* Get the configuration of executables *)
let qmcchem =
Lazy.force Qmcchem_config.qmcchem
and qmc =
[ Lazy.force Qmcchem_config.qmcchem ; "run" ; "-q" ]
in
if (start_dataserver) then
begin
(* Reset socket address in EZFIO *)
Ezfio.set_simulation_http_server "tcp://localhost:65534";
(* Start the data server *)
let prog, args =
qmcchem, [ qmcchem; "run" ; "-d" ; ezfio_filename]
in
let pid_dataserver =
Watchdog.fork_exec ~prog ~args ()
in
Printf.printf "%7d : %s\n%!" (Pid.to_int pid_dataserver) (String.concat ~sep:" " args)
end;
(* Check if the ZMQ Rep socket is open *)
let test_open_rep_socket () =
let zmq_context =
ZMQ.Context.create ()
in
let socket =
ZMQ.Socket.create zmq_context ZMQ.Socket.req
and address =
Ezfio.get_simulation_http_server ()
in
let reply =
try
(
ZMQ.Socket.set_receive_timeout socket 100;
ZMQ.Socket.connect socket address;
ZMQ.Socket.send socket (Message.(to_string Test));
ZMQ.Socket.recv socket
) with
| Unix.Unix_error _ ->
begin
ZMQ.Socket.set_linger_period socket 1 ;
ZMQ.Socket.close socket;
ZMQ.Context.terminate zmq_context;
"Failed"
end
in
reply = "OK"
in
(* Wait until the rep socket is open *)
let rec count = function
| 0 -> false
| -1 -> true
| n ->
if (not (test_open_rep_socket ())) then
begin
Time.pause (Time.Span.of_float 0.5);
count (n-1);
end
else
count (-1);
in
if (not (count 300)) then
Watchdog.kill ();
(* Start the qmc processes *)
let prog, args =
let launcher =
Launcher.(find () |> to_string)
in
match launcher
|> String.split ~on:' '
|> List.map ~f:String.strip
|> List.filter ~f:(fun x -> x <> "")
with
| launcher_exe::launcher_flags ->
launcher_exe, launcher_exe :: launcher_flags @ qmc @ [
Ezfio.get_simulation_http_server () ; ezfio_filename ]
| _ -> failwith "Error in launcher"
in
let pid_qmc =
try
Watchdog.fork_exec ~prog ~args ()
with
| Unix.Unix_error _ ->
begin
let command =
String.concat ~sep:" " args
in
Printf.printf "
============================================================
Error: Unable to run the following command
%s
============================================================
\n%!" command ;
Watchdog.kill ()
end
in
Printf.printf "%7d : %s\n%!" (Pid.to_int pid_qmc) (String.concat ~sep:" " args);
(* Wait for processes to finish *)
Watchdog.join ()
let data_run ezfio_filename =
Qmcchem_dataserver.run ezfio_filename ~daemon:false
let qmc_run dataserver ezfio_filename =
Qmcchem_forwarder.run ezfio_filename dataserver
let ssh_run host dataserver ezfio_filename =
print_endline ("ssh "^host^" "^ezfio_filename^" "^dataserver)
let run a d ?q ?s ezfio_filename =
Ezfio.set_file ezfio_filename;
let ezfio_filename =
Lazy.force Qputils.ezfio_filename
in
(* Signal handler to Kill properly all the processes *)
let handler s =
Printf.printf "Received the %s signal... killing\n" (Signal.to_string s);
Watchdog.kill ();
in
List.iter [
Signal.term ;
Signal.quit ;
Signal.int
]
~f:(fun x -> Signal.Expert.handle x handler)
;
(* Validate input *)
Input.validate ();
(* Printf.printf "MD5 : %s\n" (Lazy.force Md5.hash) ; *)
let runtype =
match (a,d,q,s) with
| (false,false, None, None) -> `Run
| (false,true, None, None) -> `Data
| (true,false, None, None) -> `Add
| (false,false, Some dataserver, None) -> `Qmc dataserver
| (false,false, Some dataserver, Some host) -> `Ssh (host, dataserver)
| _ -> failwith "Options (-a|-d|-q [-s]) are mutually exclusive"
in
let run =
match runtype with
| `Run -> full_run ~start_dataserver:true
| `Data -> data_run
| `Add -> full_run ~start_dataserver:false
| `Qmc dataserver -> qmc_run dataserver
| `Ssh (host,dataserver) -> ssh_run host dataserver
in
run ezfio_filename
let spec =
let open Command.Spec in
empty
+> flag "a" no_arg
~doc:(" Add more resources to a running calculation.")
+> flag "d" no_arg
~doc:(" Start a dataserver process on the local host.")
+> flag "q" (optional string)
~doc:("<dataserver_addr> Start a qmc process on the local host.")
+> flag "s" (optional string)
~doc:("<host> Start a qmc process on <host>.")
+> anon ("ezfio_file" %: string)
let command =
Command.basic
~summary: "Run a calculation"
~readme:(fun () ->
"
Run QMC=Chem
")
spec
(fun a d q s ezfio_file () -> run a d ?q ?s ezfio_file )

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open Core.Std
let run ezfio_filename =
Ezfio.set_file ezfio_filename ;
Status.write Status.Stopping
let spec =
let open Command.Spec in
empty
+> anon ("ezfio_file" %: string)
let command =
Command.basic
~summary: "Stop a running calculation"
~readme:(fun () ->
"
Stop a running calculation
")
spec
(fun ezfio_file () -> run ezfio_file )

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open Core.Std
let warning = print_string
module Positive_float : sig
type t with sexp
val to_float : t -> float
val of_float : float -> t
val to_string : t -> string
end = struct
type t = float with sexp
let to_float x = x
let of_float x = ( assert (x >= 0.) ; x )
let to_string x = Float.to_string x
end
module Strictly_positive_float : sig
type t with sexp
val to_float : t -> float
val of_float : float -> t
val to_string : t -> string
end = struct
type t = float with sexp
let to_float x = x
let of_float x = ( assert (x > 0.) ; x )
let to_string x = Float.to_string x
end
module Negative_float : sig
type t with sexp
val to_float : t -> float
val of_float : float -> t
val to_string : t -> string
end = struct
type t = float with sexp
let to_float x = x
let of_float x = ( assert (x <= 0.) ; x )
let to_string x = Float.to_string x
end
module Strictly_negative_float : sig
type t with sexp
val to_float : t -> float
val of_float : float -> t
val to_string : t -> string
end = struct
type t = float with sexp
let to_float x = x
let of_float x = ( assert (x < 0.) ; x )
let to_string x = Float.to_string x
end
module Positive_int : sig
type t with sexp
val to_int : t -> int
val of_int : int -> t
val to_string : t -> string
end = struct
type t = int with sexp
let to_int x = x
let of_int x = ( assert (x >= 0) ; x )
let to_string x = Int.to_string x
end
module Strictly_positive_int : sig
type t with sexp
val to_int : t -> int
val of_int : int -> t
val to_string : t -> string
end = struct
type t = int with sexp
let to_int x = x
let of_int x = ( assert (x > 0) ; x )
let to_string x = Int.to_string x
end
module Negative_int : sig
type t with sexp
val to_int : t -> int
val of_int : int -> t
val to_string : t -> string
end = struct
type t = int with sexp
let to_int x = x
let of_int x = ( assert (x <= 0) ; x )
let to_string x = Int.to_string x
end
module Det_coef : sig
type t with sexp
val to_float : t -> float
val of_float : float -> t
val to_string : t -> string
end = struct
type t = float with sexp
let to_float x = x
let of_float x = ( assert (x >= -1.) ;
assert (x <= 1.) ; x )
let to_string x = Float.to_string x
end
module Normalized_float : sig
type t with sexp
val to_float : t -> float
val of_float : float -> t
val to_string : t -> string
end = struct
type t = float with sexp
let to_float x = x
let of_float x = ( assert (x <= 1.) ;
assert (x >= 0.) ; x )
let to_string x = Float.to_string x
end
module Strictly_negative_int : sig
type t with sexp
val to_int : t -> int
val of_int : int -> t
val to_string : t -> string
end = struct
type t = int with sexp
let to_int x = x
let of_int x = ( assert (x < 0) ; x )
let to_string x = Int.to_string x
end
module Non_empty_string : sig
type t with sexp
val to_string : t -> string
val of_string : string -> t
val to_string : t -> string
end = struct
type t = string with sexp
let to_string x = x
let of_string x = ( assert (x <> "") ; x )
let to_string x = String.to_string x
end
module Det_number_max : sig
type t with sexp
val to_int : t -> int
val of_int : int -> t
val to_string : t -> string
end = struct
type t = int with sexp
let to_int x = x
let of_int x = ( assert (x > 0) ;
if (x > 100000000) then
warning "More than 100 million determinants"; x )
let to_string x = Int.to_string x
end
module MO_coef : sig
type t with sexp
val to_float : t -> float
val of_float : float -> t
val to_string : t -> string
end = struct
type t = float with sexp
let to_float x = x
let of_float x = ( x )
let to_string x = Float.to_string x
end
module MO_occ : sig
type t with sexp
val to_float : t -> float
val of_float : float -> t
val to_string : t -> string
end = struct
type t = float with sexp
let to_float x = x
let of_float x = ( assert (x >= 0.); x )
let to_string x = Float.to_string x
end
module AO_coef : sig
type t with sexp
val to_float : t -> float
val of_float : float -> t
val to_string : t -> string
end = struct
type t = float with sexp
let to_float x = x
let of_float x = ( x )
let to_string x = Float.to_string x
end
module AO_expo : sig
type t with sexp
val to_float : t -> float
val of_float : float -> t
val to_string : t -> string
end = struct
type t = float with sexp
let to_float x = x
let of_float x = ( assert (x >= 0.) ; x )
let to_string x = Float.to_string x
end
module AO_prim_number : sig
type t with sexp
val to_int : t -> int
val of_int : int -> t
val to_string : t -> string
end = struct
type t = int with sexp
let to_int x = x
let of_int x = ( assert (x > 0) ; x )
let to_string x = Int.to_string x
end
module Threshold : sig
type t with sexp
val to_float : t -> float
val of_float : float -> t
val to_string : t -> string
end = struct
type t = float with sexp
let to_float x = x
let of_float x = ( assert (x >= 0.) ;
assert (x <= 1.) ; x )
let to_string x = Float.to_string x
end
module PT2_energy : sig
type t with sexp
val to_float : t -> float
val of_float : float -> t
val to_string : t -> string
end = struct
type t = float with sexp
let to_float x = x
let of_float x = ( assert (x >=0.) ; x )
let to_string x = Float.to_string x
end
module Elec_alpha_number : sig
type t with sexp
val to_int : t -> int
val of_int : int -> t
val to_string : t -> string
end = struct
type t = int with sexp
let to_int x = x
let of_int x = ( assert (x > 0) ; x )
let to_string x = Int.to_string x
end
module Elec_beta_number : sig
type t with sexp
val to_int : t -> int
val of_int : int -> t
val to_string : t -> string
end = struct
type t = int with sexp
let to_int x = x
let of_int x = ( assert (x >= 0) ; x )
let to_string x = Int.to_string x
end
module Elec_number : sig
type t with sexp
val to_int : t -> int
val of_int : int -> t
val to_string : t -> string
end = struct
type t = int with sexp
let to_int x = x
let of_int x = ( assert (x > 0) ; x )
let to_string x = Int.to_string x
end
module MD5 : sig
type t with sexp
val to_string : t -> string
val of_string : string -> t
val to_string : t -> string
end = struct
type t = string with sexp
let to_string x = x
let of_string x = ( assert ((String.length x) = 32); x )
let to_string x = String.to_string x
end
module Rst_string : sig
type t with sexp
val to_string : t -> string
val of_string : string -> t
val to_string : t -> string
end = struct
type t = string with sexp
let to_string x = x
let of_string x = ( x )
let to_string x = String.to_string x
end
module Weight : sig
type t with sexp
val to_float : t -> float
val of_float : float -> t
val to_string : t -> string
end = struct
type t = float with sexp
let to_float x = x
let of_float x = ( assert (x >= 0.) ; x )
let to_string x = Float.to_string x
end
module Block_id : sig
type t with sexp
val to_int : t -> int
val of_int : int -> t
val to_string : t -> string
end = struct
type t = int with sexp
let to_int x = x
let of_int x = ( assert (x > 0) ; x )
let to_string x = Int.to_string x
end
module Compute_node : sig
type t with sexp
val to_string : t -> string
val of_string : string -> t
val to_string : t -> string
end = struct
type t = string with sexp
let to_string x = x
let of_string x = ( assert (x <> "") ; x )
let to_string x = String.to_string x
end
module MO_number : sig
type t with sexp
val to_int : t -> int
val get_max : unit -> int
val of_int : ?min:int -> ?max:int -> int -> t
val to_string : t -> string
end = struct
type t = int with sexp
let to_string x = Int.to_string x
let get_max () =
if (Ezfio.has_mo_basis_mo_tot_num ()) then
Ezfio.get_mo_basis_mo_tot_num ()
else
10000
let get_min () =
1
let to_int x = x
let of_int ?(min=get_min ()) ?(max=get_max ()) x =
begin
assert (x >= min) ;
if (x > 10000) then
warning "More than 10000 MOs";
begin
match max with
| 1 -> ()
| i -> assert ( x <= i )
end ;
x
end
end
module AO_number : sig
type t with sexp
val to_int : t -> int
val get_max : unit -> int
val of_int : ?min:int -> ?max:int -> int -> t
val to_string : t -> string
end = struct
type t = int with sexp
let to_string x = Int.to_string x
let get_max () =
if (Ezfio.has_ao_basis_ao_num ()) then
Ezfio.get_ao_basis_ao_num ()
else
10000
let get_min () =
1
let to_int x = x
let of_int ?(min=get_min ()) ?(max=get_max ()) x =
begin
assert (x >= min) ;
if (x > 10000) then
warning "More than 10000 AOs";
begin
match max with
| 1 -> ()
| i -> assert ( x <= i )
end ;
x
end
end
module Nucl_number : sig
type t with sexp
val to_int : t -> int
val get_max : unit -> int
val of_int : ?min:int -> ?max:int -> int -> t
val to_string : t -> string
end = struct
type t = int with sexp
let to_string x = Int.to_string x
let get_max () =
if (Ezfio.has_nuclei_nucl_num ()) then
Ezfio.get_nuclei_nucl_num ()
else
10000
let get_min () =
1
let to_int x = x
let of_int ?(min=get_min ()) ?(max=get_max ()) x =
begin
assert (x >= min) ;
if (x > 10000) then
warning "More than 10000 nuclei";
begin
match max with
| 1 -> ()
| i -> assert ( x <= i )
end ;
x
end
end
let decode_ezfio_message msg =
match msg with
| "get_blocks_empty" -> Ezfio.read_string "blocks" "empty"
| "get_mo_basis_mo_tot_num" -> Ezfio.read_string "mo_basis" "mo_tot_num"
| "get_mo_basis_mo_coef" ->
Ezfio.read_string_array "mo_basis" "mo_coef"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_mo_basis_mo_classif" ->
Ezfio.read_string_array "mo_basis" "mo_classif"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_mo_basis_mo_energy" ->
Ezfio.read_string_array "mo_basis" "mo_energy"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_mo_basis_mo_occ" ->
Ezfio.read_string_array "mo_basis" "mo_occ"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_mo_basis_mo_symmetry" ->
Ezfio.read_string_array "mo_basis" "mo_symmetry"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_pseudo_ao_pseudo_grid" ->
Ezfio.read_string_array "pseudo" "ao_pseudo_grid"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_pseudo_do_pseudo" -> Ezfio.read_string "pseudo" "do_pseudo"
| "get_pseudo_mo_pseudo_grid" ->
Ezfio.read_string_array "pseudo" "mo_pseudo_grid"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_pseudo_pseudo_dz_k" ->
Ezfio.read_string_array "pseudo" "pseudo_dz_k"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_pseudo_pseudo_dz_kl" ->
Ezfio.read_string_array "pseudo" "pseudo_dz_kl"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_pseudo_pseudo_grid_rmax" -> Ezfio.read_string "pseudo" "pseudo_grid_rmax"
| "get_pseudo_pseudo_grid_size" -> Ezfio.read_string "pseudo" "pseudo_grid_size"
| "get_pseudo_pseudo_klocmax" -> Ezfio.read_string "pseudo" "pseudo_klocmax"
| "get_pseudo_pseudo_kmax" -> Ezfio.read_string "pseudo" "pseudo_kmax"
| "get_pseudo_pseudo_lmax" -> Ezfio.read_string "pseudo" "pseudo_lmax"
| "get_pseudo_pseudo_n_k" ->
Ezfio.read_string_array "pseudo" "pseudo_n_k"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_pseudo_pseudo_n_kl" ->
Ezfio.read_string_array "pseudo" "pseudo_n_kl"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_pseudo_pseudo_v_k" ->
Ezfio.read_string_array "pseudo" "pseudo_v_k"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_pseudo_pseudo_v_kl" ->
Ezfio.read_string_array "pseudo" "pseudo_v_kl"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_ezfio_creation" -> Ezfio.read_string "ezfio" "creation"
| "get_ezfio_user" -> Ezfio.read_string "ezfio" "user"
| "get_ezfio_library" -> Ezfio.read_string "ezfio" "library"
| "get_ezfio_last_library" -> Ezfio.read_string "ezfio" "last_library"
| "get_simulation_do_run" -> Ezfio.read_string "simulation" "do_run"
| "get_simulation_stop_time" -> Ezfio.read_string "simulation" "stop_time"
| "get_simulation_equilibration" -> Ezfio.read_string "simulation" "equilibration"
| "get_simulation_title" -> Ezfio.read_string "simulation" "title"
| "get_simulation_http_server" -> Ezfio.read_string "simulation" "http_server"
| "get_simulation_do_jast" -> Ezfio.read_string "simulation" "do_jast"
| "get_simulation_do_nucl_fitcusp" -> Ezfio.read_string "simulation" "do_nucl_fitcusp"
| "get_simulation_method" -> Ezfio.read_string "simulation" "method"
| "get_simulation_block_time" -> Ezfio.read_string "simulation" "block_time"
| "get_simulation_sampling" -> Ezfio.read_string "simulation" "sampling"
| "get_simulation_save_data" -> Ezfio.read_string "simulation" "save_data"
| "get_simulation_time_step" -> Ezfio.read_string "simulation" "time_step"
| "get_simulation_print_level" -> Ezfio.read_string "simulation" "print_level"
| "get_simulation_ci_threshold" -> Ezfio.read_string "simulation" "ci_threshold"
| "get_simulation_md5_key" -> Ezfio.read_string "simulation" "md5_key"
| "get_simulation_orig_time" -> Ezfio.read_string "simulation" "orig_time"
| "get_simulation_e_ref" -> Ezfio.read_string "simulation" "e_ref"
| "get_spindeterminants_n_det_alpha" -> Ezfio.read_string "spindeterminants" "n_det_alpha"
| "get_spindeterminants_n_det_beta" -> Ezfio.read_string "spindeterminants" "n_det_beta"
| "get_spindeterminants_n_det" -> Ezfio.read_string "spindeterminants" "n_det"
| "get_spindeterminants_n_int" -> Ezfio.read_string "spindeterminants" "n_int"
| "get_spindeterminants_bit_kind" -> Ezfio.read_string "spindeterminants" "bit_kind"
| "get_spindeterminants_n_states" -> Ezfio.read_string "spindeterminants" "n_states"
| "get_spindeterminants_psi_det_alpha" ->
Ezfio.read_string_array "spindeterminants" "psi_det_alpha"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_spindeterminants_psi_det_beta" ->
Ezfio.read_string_array "spindeterminants" "psi_det_beta"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_spindeterminants_psi_coef_matrix_rows" ->
Ezfio.read_string_array "spindeterminants" "psi_coef_matrix_rows"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_spindeterminants_psi_coef_matrix_columns" ->
Ezfio.read_string_array "spindeterminants" "psi_coef_matrix_columns"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_spindeterminants_psi_coef_matrix_values" ->
Ezfio.read_string_array "spindeterminants" "psi_coef_matrix_values"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_ao_basis_ao_num" -> Ezfio.read_string "ao_basis" "ao_num"
| "get_ao_basis_ao_prim_num" ->
Ezfio.read_string_array "ao_basis" "ao_prim_num"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_ao_basis_ao_nucl" ->
Ezfio.read_string_array "ao_basis" "ao_nucl"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_ao_basis_ao_power" ->
Ezfio.read_string_array "ao_basis" "ao_power"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_ao_basis_ao_coef" ->
Ezfio.read_string_array "ao_basis" "ao_coef"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_ao_basis_ao_expo" ->
Ezfio.read_string_array "ao_basis" "ao_expo"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_electrons_elec_alpha_num" -> Ezfio.read_string "electrons" "elec_alpha_num"
| "get_electrons_elec_beta_num" -> Ezfio.read_string "electrons" "elec_beta_num"
| "get_electrons_elec_walk_num_tot" -> Ezfio.read_string "electrons" "elec_walk_num_tot"
| "get_electrons_elec_walk_num" -> Ezfio.read_string "electrons" "elec_walk_num"
| "get_electrons_elec_coord_pool" ->
Ezfio.read_string_array "electrons" "elec_coord_pool"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_electrons_elec_coord_pool_size" -> Ezfio.read_string "electrons" "elec_coord_pool_size"
| "get_electrons_elec_fitcusp_radius" -> Ezfio.read_string "electrons" "elec_fitcusp_radius"
| "get_jastrow_jast_type" -> Ezfio.read_string "jastrow" "jast_type"
| "get_jastrow_jast_a_up_up" -> Ezfio.read_string "jastrow" "jast_a_up_up"
| "get_jastrow_jast_a_up_dn" -> Ezfio.read_string "jastrow" "jast_a_up_dn"
| "get_jastrow_jast_b_up_up" -> Ezfio.read_string "jastrow" "jast_b_up_up"
| "get_jastrow_jast_b_up_dn" -> Ezfio.read_string "jastrow" "jast_b_up_dn"
| "get_jastrow_jast_pen" ->
Ezfio.read_string_array "jastrow" "jast_pen"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_jastrow_jast_een_e_a" ->
Ezfio.read_string_array "jastrow" "jast_een_e_a"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_jastrow_jast_een_e_b" ->
Ezfio.read_string_array "jastrow" "jast_een_e_b"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_jastrow_jast_een_n" ->
Ezfio.read_string_array "jastrow" "jast_een_n"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_jastrow_jast_core_a1" ->
Ezfio.read_string_array "jastrow" "jast_core_a1"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_jastrow_jast_core_a2" ->
Ezfio.read_string_array "jastrow" "jast_core_a2"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_jastrow_jast_core_b1" ->
Ezfio.read_string_array "jastrow" "jast_core_b1"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_jastrow_jast_core_b2" ->
Ezfio.read_string_array "jastrow" "jast_core_b2"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_nuclei_nucl_num" -> Ezfio.read_string "nuclei" "nucl_num"
| "get_nuclei_nucl_label" ->
Ezfio.read_string_array "nuclei" "nucl_label"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_nuclei_nucl_charge" ->
Ezfio.read_string_array "nuclei" "nucl_charge"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_nuclei_nucl_coord" ->
Ezfio.read_string_array "nuclei" "nucl_coord"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_nuclei_nucl_fitcusp_radius" ->
Ezfio.read_string_array "nuclei" "nucl_fitcusp_radius"
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:" "
| "get_properties_d_var_jast_a_up_dn" -> Ezfio.read_string "properties" "d_var_jast_a_up_dn"
| "get_properties_d_var_jast_a_up_up" -> Ezfio.read_string "properties" "d_var_jast_a_up_up"
| "get_properties_d_var_jast_b_up_dn" -> Ezfio.read_string "properties" "d_var_jast_b_up_dn"
| "get_properties_d_var_jast_b_up_up" -> Ezfio.read_string "properties" "d_var_jast_b_up_up"
| "get_properties_d_var_jast_core_a1" -> Ezfio.read_string "properties" "d_var_jast_core_a1"
| "get_properties_d_var_jast_core_b1" -> Ezfio.read_string "properties" "d_var_jast_core_b1"
| "get_properties_d_var_jast_een_e_a" -> Ezfio.read_string "properties" "d_var_jast_een_e_a"
| "get_properties_d_var_jast_een_e_b" -> Ezfio.read_string "properties" "d_var_jast_een_e_b"
| "get_properties_d_var_jast_een_n" -> Ezfio.read_string "properties" "d_var_jast_een_n"
| "get_properties_d_var_jast_pen" -> Ezfio.read_string "properties" "d_var_jast_pen"
| "get_properties_density1d" -> Ezfio.read_string "properties" "density1d"
| "get_properties_dipole" -> Ezfio.read_string "properties" "dipole"
| "get_properties_drift_mod" -> Ezfio.read_string "properties" "drift_mod"
| "get_properties_e_kin" -> Ezfio.read_string "properties" "e_kin"
| "get_properties_e_loc" -> Ezfio.read_string "properties" "e_loc"
| "get_properties_e_loc_one" -> Ezfio.read_string "properties" "e_loc_one"
| "get_properties_e_loc_per_electron" -> Ezfio.read_string "properties" "e_loc_per_electron"
| "get_properties_e_loc_split_core" -> Ezfio.read_string "properties" "e_loc_split_core"
| "get_properties_e_loc_two" -> Ezfio.read_string "properties" "e_loc_two"
| "get_properties_e_nucl" -> Ezfio.read_string "properties" "e_nucl"
| "get_properties_e_pot" -> Ezfio.read_string "properties" "e_pot"
| "get_properties_e_pot_one" -> Ezfio.read_string "properties" "e_pot_one"
| "get_properties_n_s_inverted" -> Ezfio.read_string "properties" "n_s_inverted"
| "get_properties_n_s_updated" -> Ezfio.read_string "properties" "n_s_updated"
| "get_properties_n_s_updates" -> Ezfio.read_string "properties" "n_s_updates"
| "get_properties_voronoi_charges" -> Ezfio.read_string "properties" "voronoi_charges"
| "get_properties_voronoi_charges_covariance" -> Ezfio.read_string "properties" "voronoi_charges_covariance"
| "get_properties_voronoi_dipoles" -> Ezfio.read_string "properties" "voronoi_dipoles"
| "get_properties_wf_extension" -> Ezfio.read_string "properties" "wf_extension"
| "has_blocks_empty" -> if (Ezfio.has_blocks_empty ()) then "T" else "F"
| "has_mo_basis_mo_tot_num" -> if (Ezfio.has_mo_basis_mo_tot_num ()) then "T" else "F"
| "has_mo_basis_mo_coef" -> if (Ezfio.has_mo_basis_mo_coef ()) then "T" else "F"
| "has_mo_basis_mo_classif" -> if (Ezfio.has_mo_basis_mo_classif ()) then "T" else "F"
| "has_mo_basis_mo_energy" -> if (Ezfio.has_mo_basis_mo_energy ()) then "T" else "F"
| "has_mo_basis_mo_occ" -> if (Ezfio.has_mo_basis_mo_occ ()) then "T" else "F"
| "has_mo_basis_mo_symmetry" -> if (Ezfio.has_mo_basis_mo_symmetry ()) then "T" else "F"
| "has_pseudo_ao_pseudo_grid" -> if (Ezfio.has_pseudo_ao_pseudo_grid ()) then "T" else "F"
| "has_pseudo_do_pseudo" -> if (Ezfio.has_pseudo_do_pseudo ()) then "T" else "F"
| "has_pseudo_mo_pseudo_grid" -> if (Ezfio.has_pseudo_mo_pseudo_grid ()) then "T" else "F"
| "has_pseudo_pseudo_dz_k" -> if (Ezfio.has_pseudo_pseudo_dz_k ()) then "T" else "F"
| "has_pseudo_pseudo_dz_kl" -> if (Ezfio.has_pseudo_pseudo_dz_kl ()) then "T" else "F"
| "has_pseudo_pseudo_grid_rmax" -> if (Ezfio.has_pseudo_pseudo_grid_rmax ()) then "T" else "F"
| "has_pseudo_pseudo_grid_size" -> if (Ezfio.has_pseudo_pseudo_grid_size ()) then "T" else "F"
| "has_pseudo_pseudo_klocmax" -> if (Ezfio.has_pseudo_pseudo_klocmax ()) then "T" else "F"
| "has_pseudo_pseudo_kmax" -> if (Ezfio.has_pseudo_pseudo_kmax ()) then "T" else "F"
| "has_pseudo_pseudo_lmax" -> if (Ezfio.has_pseudo_pseudo_lmax ()) then "T" else "F"
| "has_pseudo_pseudo_n_k" -> if (Ezfio.has_pseudo_pseudo_n_k ()) then "T" else "F"
| "has_pseudo_pseudo_n_kl" -> if (Ezfio.has_pseudo_pseudo_n_kl ()) then "T" else "F"
| "has_pseudo_pseudo_v_k" -> if (Ezfio.has_pseudo_pseudo_v_k ()) then "T" else "F"
| "has_pseudo_pseudo_v_kl" -> if (Ezfio.has_pseudo_pseudo_v_kl ()) then "T" else "F"
| "has_ezfio_creation" -> if (Ezfio.has_ezfio_creation ()) then "T" else "F"
| "has_ezfio_user" -> if (Ezfio.has_ezfio_user ()) then "T" else "F"
| "has_ezfio_library" -> if (Ezfio.has_ezfio_library ()) then "T" else "F"
| "has_ezfio_last_library" -> if (Ezfio.has_ezfio_last_library ()) then "T" else "F"
| "has_simulation_do_run" -> if (Ezfio.has_simulation_do_run ()) then "T" else "F"
| "has_simulation_stop_time" -> if (Ezfio.has_simulation_stop_time ()) then "T" else "F"
| "has_simulation_equilibration" -> if (Ezfio.has_simulation_equilibration ()) then "T" else "F"
| "has_simulation_title" -> if (Ezfio.has_simulation_title ()) then "T" else "F"
| "has_simulation_http_server" -> if (Ezfio.has_simulation_http_server ()) then "T" else "F"
| "has_simulation_do_jast" -> if (Ezfio.has_simulation_do_jast ()) then "T" else "F"
| "has_simulation_do_nucl_fitcusp" -> if (Ezfio.has_simulation_do_nucl_fitcusp ()) then "T" else "F"
| "has_simulation_method" -> if (Ezfio.has_simulation_method ()) then "T" else "F"
| "has_simulation_block_time" -> if (Ezfio.has_simulation_block_time ()) then "T" else "F"
| "has_simulation_sampling" -> if (Ezfio.has_simulation_sampling ()) then "T" else "F"
| "has_simulation_save_data" -> if (Ezfio.has_simulation_save_data ()) then "T" else "F"
| "has_simulation_time_step" -> if (Ezfio.has_simulation_time_step ()) then "T" else "F"
| "has_simulation_print_level" -> if (Ezfio.has_simulation_print_level ()) then "T" else "F"
| "has_simulation_ci_threshold" -> if (Ezfio.has_simulation_ci_threshold ()) then "T" else "F"
| "has_simulation_md5_key" -> if (Ezfio.has_simulation_md5_key ()) then "T" else "F"
| "has_simulation_orig_time" -> if (Ezfio.has_simulation_orig_time ()) then "T" else "F"
| "has_simulation_e_ref" -> if (Ezfio.has_simulation_e_ref ()) then "T" else "F"
| "has_spindeterminants_n_det_alpha" -> if (Ezfio.has_spindeterminants_n_det_alpha ()) then "T" else "F"
| "has_spindeterminants_n_det_beta" -> if (Ezfio.has_spindeterminants_n_det_beta ()) then "T" else "F"
| "has_spindeterminants_n_det" -> if (Ezfio.has_spindeterminants_n_det ()) then "T" else "F"
| "has_spindeterminants_n_int" -> if (Ezfio.has_spindeterminants_n_int ()) then "T" else "F"
| "has_spindeterminants_bit_kind" -> if (Ezfio.has_spindeterminants_bit_kind ()) then "T" else "F"
| "has_spindeterminants_n_states" -> if (Ezfio.has_spindeterminants_n_states ()) then "T" else "F"
| "has_spindeterminants_psi_det_alpha" -> if (Ezfio.has_spindeterminants_psi_det_alpha ()) then "T" else "F"
| "has_spindeterminants_psi_det_beta" -> if (Ezfio.has_spindeterminants_psi_det_beta ()) then "T" else "F"
| "has_spindeterminants_psi_coef_matrix_rows" -> if (Ezfio.has_spindeterminants_psi_coef_matrix_rows ()) then "T" else "F"
| "has_spindeterminants_psi_coef_matrix_columns" -> if (Ezfio.has_spindeterminants_psi_coef_matrix_columns ()) then "T" else "F"
| "has_spindeterminants_psi_coef_matrix_values" -> if (Ezfio.has_spindeterminants_psi_coef_matrix_values ()) then "T" else "F"
| "has_ao_basis_ao_num" -> if (Ezfio.has_ao_basis_ao_num ()) then "T" else "F"
| "has_ao_basis_ao_prim_num" -> if (Ezfio.has_ao_basis_ao_prim_num ()) then "T" else "F"
| "has_ao_basis_ao_nucl" -> if (Ezfio.has_ao_basis_ao_nucl ()) then "T" else "F"
| "has_ao_basis_ao_power" -> if (Ezfio.has_ao_basis_ao_power ()) then "T" else "F"
| "has_ao_basis_ao_coef" -> if (Ezfio.has_ao_basis_ao_coef ()) then "T" else "F"
| "has_ao_basis_ao_expo" -> if (Ezfio.has_ao_basis_ao_expo ()) then "T" else "F"
| "has_electrons_elec_alpha_num" -> if (Ezfio.has_electrons_elec_alpha_num ()) then "T" else "F"
| "has_electrons_elec_beta_num" -> if (Ezfio.has_electrons_elec_beta_num ()) then "T" else "F"
| "has_electrons_elec_walk_num_tot" -> if (Ezfio.has_electrons_elec_walk_num_tot ()) then "T" else "F"
| "has_electrons_elec_walk_num" -> if (Ezfio.has_electrons_elec_walk_num ()) then "T" else "F"
| "has_electrons_elec_coord_pool" -> if (Ezfio.has_electrons_elec_coord_pool ()) then "T" else "F"
| "has_electrons_elec_coord_pool_size" -> if (Ezfio.has_electrons_elec_coord_pool_size ()) then "T" else "F"
| "has_electrons_elec_fitcusp_radius" -> if (Ezfio.has_electrons_elec_fitcusp_radius ()) then "T" else "F"
| "has_jastrow_jast_type" -> if (Ezfio.has_jastrow_jast_type ()) then "T" else "F"
| "has_jastrow_jast_a_up_up" -> if (Ezfio.has_jastrow_jast_a_up_up ()) then "T" else "F"
| "has_jastrow_jast_a_up_dn" -> if (Ezfio.has_jastrow_jast_a_up_dn ()) then "T" else "F"
| "has_jastrow_jast_b_up_up" -> if (Ezfio.has_jastrow_jast_b_up_up ()) then "T" else "F"
| "has_jastrow_jast_b_up_dn" -> if (Ezfio.has_jastrow_jast_b_up_dn ()) then "T" else "F"
| "has_jastrow_jast_pen" -> if (Ezfio.has_jastrow_jast_pen ()) then "T" else "F"
| "has_jastrow_jast_een_e_a" -> if (Ezfio.has_jastrow_jast_een_e_a ()) then "T" else "F"
| "has_jastrow_jast_een_e_b" -> if (Ezfio.has_jastrow_jast_een_e_b ()) then "T" else "F"
| "has_jastrow_jast_een_n" -> if (Ezfio.has_jastrow_jast_een_n ()) then "T" else "F"
| "has_jastrow_jast_core_a1" -> if (Ezfio.has_jastrow_jast_core_a1 ()) then "T" else "F"
| "has_jastrow_jast_core_a2" -> if (Ezfio.has_jastrow_jast_core_a2 ()) then "T" else "F"
| "has_jastrow_jast_core_b1" -> if (Ezfio.has_jastrow_jast_core_b1 ()) then "T" else "F"
| "has_jastrow_jast_core_b2" -> if (Ezfio.has_jastrow_jast_core_b2 ()) then "T" else "F"
| "has_nuclei_nucl_num" -> if (Ezfio.has_nuclei_nucl_num ()) then "T" else "F"
| "has_nuclei_nucl_label" -> if (Ezfio.has_nuclei_nucl_label ()) then "T" else "F"
| "has_nuclei_nucl_charge" -> if (Ezfio.has_nuclei_nucl_charge ()) then "T" else "F"
| "has_nuclei_nucl_coord" -> if (Ezfio.has_nuclei_nucl_coord ()) then "T" else "F"
| "has_nuclei_nucl_fitcusp_radius" -> if (Ezfio.has_nuclei_nucl_fitcusp_radius ()) then "T" else "F"
| "has_properties_d_var_jast_a_up_dn" -> if (Ezfio.has_properties_d_var_jast_a_up_dn ()) then "T" else "F"
| "has_properties_d_var_jast_a_up_up" -> if (Ezfio.has_properties_d_var_jast_a_up_up ()) then "T" else "F"
| "has_properties_d_var_jast_b_up_dn" -> if (Ezfio.has_properties_d_var_jast_b_up_dn ()) then "T" else "F"
| "has_properties_d_var_jast_b_up_up" -> if (Ezfio.has_properties_d_var_jast_b_up_up ()) then "T" else "F"
| "has_properties_d_var_jast_core_a1" -> if (Ezfio.has_properties_d_var_jast_core_a1 ()) then "T" else "F"
| "has_properties_d_var_jast_core_b1" -> if (Ezfio.has_properties_d_var_jast_core_b1 ()) then "T" else "F"
| "has_properties_d_var_jast_een_e_a" -> if (Ezfio.has_properties_d_var_jast_een_e_a ()) then "T" else "F"
| "has_properties_d_var_jast_een_e_b" -> if (Ezfio.has_properties_d_var_jast_een_e_b ()) then "T" else "F"
| "has_properties_d_var_jast_een_n" -> if (Ezfio.has_properties_d_var_jast_een_n ()) then "T" else "F"
| "has_properties_d_var_jast_pen" -> if (Ezfio.has_properties_d_var_jast_pen ()) then "T" else "F"
| "has_properties_density1d" -> if (Ezfio.has_properties_density1d ()) then "T" else "F"
| "has_properties_dipole" -> if (Ezfio.has_properties_dipole ()) then "T" else "F"
| "has_properties_drift_mod" -> if (Ezfio.has_properties_drift_mod ()) then "T" else "F"
| "has_properties_e_kin" -> if (Ezfio.has_properties_e_kin ()) then "T" else "F"
| "has_properties_e_loc" -> if (Ezfio.has_properties_e_loc ()) then "T" else "F"
| "has_properties_e_loc_one" -> if (Ezfio.has_properties_e_loc_one ()) then "T" else "F"
| "has_properties_e_loc_per_electron" -> if (Ezfio.has_properties_e_loc_per_electron ()) then "T" else "F"
| "has_properties_e_loc_split_core" -> if (Ezfio.has_properties_e_loc_split_core ()) then "T" else "F"
| "has_properties_e_loc_two" -> if (Ezfio.has_properties_e_loc_two ()) then "T" else "F"
| "has_properties_e_nucl" -> if (Ezfio.has_properties_e_nucl ()) then "T" else "F"
| "has_properties_e_pot" -> if (Ezfio.has_properties_e_pot ()) then "T" else "F"
| "has_properties_e_pot_one" -> if (Ezfio.has_properties_e_pot_one ()) then "T" else "F"
| "has_properties_n_s_inverted" -> if (Ezfio.has_properties_n_s_inverted ()) then "T" else "F"
| "has_properties_n_s_updated" -> if (Ezfio.has_properties_n_s_updated ()) then "T" else "F"
| "has_properties_n_s_updates" -> if (Ezfio.has_properties_n_s_updates ()) then "T" else "F"
| "has_properties_voronoi_charges" -> if (Ezfio.has_properties_voronoi_charges ()) then "T" else "F"
| "has_properties_voronoi_charges_covariance" -> if (Ezfio.has_properties_voronoi_charges_covariance ()) then "T" else "F"
| "has_properties_voronoi_dipoles" -> if (Ezfio.has_properties_voronoi_dipoles ()) then "T" else "F"
| "has_properties_wf_extension" -> if (Ezfio.has_properties_wf_extension ()) then "T" else "F"
| x -> failwith (x^" : Unknown EZFIO function")
;;

61
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@ -0,0 +1,61 @@
open Core.Std
let split_re =
Str.regexp " +"
let split s =
String.strip s
|> Str.split split_re
let ezfio_filename = lazy (
let f =
!Ezfio.ezfio_filename
in
let full_path =
begin
if f = "EZFIO_File" then
begin
if (Array.length Sys.argv = 1) then
failwith "Error : EZFIO directory not specified on the command line\n";
let ezfio_filename = Sys.argv.(1)
in
let () =
match (Sys.is_directory ezfio_filename) with
| `Yes -> Ezfio.set_file ezfio_filename ;
| _ -> failwith ("Error : "^ezfio_filename^" not found")
in ezfio_filename
end
else
f
end
in
let dir, result =
Filename.realpath full_path
|> Filename.split
in
Unix.chdir dir;
result
)
let elec_num = lazy (
Ezfio.set_file (Lazy.force ezfio_filename);
Ezfio.get_electrons_elec_alpha_num () +
Ezfio.get_electrons_elec_beta_num ()
)
let walk_num = lazy (
Ezfio.set_file (Lazy.force ezfio_filename);
Ezfio.get_electrons_elec_walk_num ()
)
let warn msg =
Printf.printf "Warning : %s\n%!" msg
let () =
Random.self_init ()

712
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@ -0,0 +1,712 @@
open Core.Std;;
open Qptypes;;
type t =
{ property : Property.t ;
data : Block.t list;
}
module Average = struct
include Sample
end
module Error = struct
include Sample
end
module Variance = struct
include Sample
end
module Skewness: sig
type t
val to_float : t -> float
val of_float : float -> t
val to_string : t -> string
end = struct
type t = float
let to_string = Float.to_string
let to_float x = x
let of_float x = x
end
module Kurtosis: sig
type t
val to_float : t -> float
val of_float : float -> t
val to_string : t -> string
end = struct
type t = float
let to_string = Float.to_string
let to_float x = x
let of_float x = x
end
module GaussianDist: sig
type t
val create : mu:Average.t -> sigma2:Variance.t -> t
val eval : g:t -> x:float -> float
end = struct
type t = { mu: Average.t ; sigma2: Variance.t }
let create ~mu ~sigma2 =
{ mu ; sigma2 }
let eval ~g ~x =
let { mu ; sigma2 } =
g
in
let mu =
Average.to_float mu
and sigma2 =
Variance.to_float sigma2
in
let x2 =
(x -. mu) *. ( x -. mu) /. sigma2
in
let pi =
acos (-1.)
in
let c =
1. /. (sqrt (sigma2 *. (pi +. pi)))
in
c *. exp ( -0.5 *. x2)
end
(** Build from raw data *)
let of_raw_data ?(locked=true) property =
let data =
Block.raw_data ~locked ()
|> List.filter ~f:(fun x -> x.Block.property = property)
in
{ property ; data }
;;
(** Compute average *)
let average { property ; data } =
if Property.is_scalar property then
let (num,denom) =
List.fold ~init:(0., 0.) ~f:(fun (an, ad) x ->
let num =
(Weight.to_float x.Block.weight) *. (Sample.to_float x.Block.value)
and den =
(Weight.to_float x.Block.weight)
in (an +. num, ad +. den)
) data
in
num /. denom
|> Average.of_float
else
let dim =
match data with
| [] -> 1
| x :: tl -> Sample.dimension x.Block.value
in
let (num,denom) =
List.fold ~init:(Array.create ~len:dim 0. , 0.) ~f:(fun (an, ad) x ->
let num =
Array.map (Sample.to_float_array x.Block.value) ~f:(fun y ->
(Weight.to_float x.Block.weight) *. y)
and den = (Weight.to_float x.Block.weight)
in (
Array.mapi an ~f:(fun i y -> y +. num.(i)) ,
ad +. den)
) data
in
let denom_inv =
1. /. denom
in
Array.map num ~f:(fun x -> x *. denom_inv)
|> Average.of_float_array ~dim
;;
(** Compute sum (for CPU/Wall time) *)
let sum { property ; data } =
List.fold data ~init:0. ~f:(fun accu x ->
let num = (Weight.to_float x.Block.weight) *. (Sample.to_float x.Block.value)
in accu +. num
)
;;
(** Calculation of the average and error bar *)
let ave_error { property ; data } =
let rec loop ~sum ~avsq ~ansum ~avsum ~n ?idx = function
| [] ->
begin
if (n > 0.) then
( Average.of_float (sum /. ansum),
Some (Error.of_float (sqrt ( Float.abs ( avsq /.( ansum *. n)))) ))
else
( Average.of_float (sum /. ansum), None)
end
| (x,w) :: tail ->
begin
let avcu0 =
avsum /. ansum
in
let xw =
x *. w
in
let ansum, avsum, sum =
ansum +. w ,
avsum +. xw ,
sum +. xw
in
loop tail
~sum:sum
~avsq:(avsq +. (1. -. (w /. ansum)) *. (x -. avcu0)
*. (x -. avcu0) *. w)
~avsum:avsum
~ansum:ansum
~n:(n +. 1.)
end
in
let ave_error_scalar = function
| [] -> (Average.of_float 0., None)
| (x,w) :: tail ->
loop tail
~sum:(x *. w)
~avsq:0.
~ansum:w
~avsum:(x *. w)
~n:0.
in
if (Property.is_scalar property) then
List.map data ~f:(fun x ->
(Sample.to_float x.Block.value,
Weight.to_float x.Block.weight)
)
|> ave_error_scalar
else
match data with
| [] -> (Average.of_float 0., None)
| head::tail as list_of_samples ->
let dim =
head.Block.value
|> Sample.dimension
in
let result =
Array.init dim ~f:(fun idx ->
List.map list_of_samples ~f:(fun x ->
(Sample.to_float ~idx x.Block.value,
Weight.to_float x.Block.weight)
)
|> ave_error_scalar
)
in
( Array.map result ~f:(fun (x,_) -> Average.to_float x)
|> Average.of_float_array ~dim ,
if (Array.length result < 2) then
None
else
Some (Array.map result ~f:(function
| (_,Some y) -> Error.to_float y
| (_,None) -> 0.)
|> Average.of_float_array ~dim)
)
;;
(** Fold function for block values *)
let fold_blocks ~f { property ; data } =
let init = match List.hd data with
| None -> 0.
| Some block -> Sample.to_float block.Block.value
in
List.fold_left data ~init:init ~f:(fun accu block ->
let x = Sample.to_float block.Block.value
in f accu x
)
;;
(** Convergence plot *)
let convergence { property ; data } =
let rec loop ~sum ~avsq ~ansum ~avsum ~n ~accu = function
| [] -> List.rev accu
| head :: tail ->
begin
let x = Sample.to_float head.Block.value
and w = Weight.to_float head.Block.weight
and avcu0 = avsum /. ansum
in
let xw = x *. w
in
let ansum = ansum +. w
and avsum = avsum +. xw
and sum = sum +. xw
in
let accu =
if (n > 0.) then
(sum /. ansum, sqrt ( Float.abs ( avsq /.( ansum *. n))))::accu
else
(sum /. ansum, 0.)::accu
in
loop tail
~sum:sum
~avsq:(avsq +. (1. -. (w /. ansum)) *. (x -. avcu0)
*. (x -. avcu0) *. w)
~avsum:avsum
~ansum:ansum
~n:(n +. 1.)
~accu:accu
end
in
match data with
| [] -> []
| head :: tail ->
begin
let x = Sample.to_float head.Block.value
and w = Weight.to_float head.Block.weight
in
let s = x *. w in
loop tail
~sum:s
~avsq:0.
~ansum:w
~avsum:s
~n:0.
~accu:[ (s /. w, 0.) ]
end
;;
let rev_convergence { property ; data } =
let p = { property=property ; data = List.rev data } in
convergence p
|> List.rev
;;
(** Min and max of block *)
let min_block =
fold_blocks ~f:(fun accu x ->
if (x < accu) then x
else accu
)
;;
let max_block =
fold_blocks ~f:(fun accu x ->
if (x > accu) then x
else accu
)
;;
(** Create a hash table for merging *)
let create_hash ~hashable ~create_key ?(update_block_id=(fun x->x)) t =
let table = Hashtbl.create ~hashable:hashable ()
in
List.iter t.data ~f:(fun block ->
let key = create_key block
in
let open Block in
Hashtbl.change table key (function
| Some current ->
let wc, wb =
Weight.to_float current.weight,
Weight.to_float block.weight
in
let sw =
wc +. wb
in
if (Property.is_scalar current.property) then
let vc, vb =
Sample.to_float current.value,
Sample.to_float block.value
in Some
{ property = current.property ;
weight = Weight.of_float sw ;
value = Sample.of_float ((wc *. vc +. wb *. vb) /. sw);
block_id = update_block_id block.block_id;
pid = block.pid ;
compute_node = block.compute_node;
}
else
let vc, vb =
Sample.to_float_array current.value,
Sample.to_float_array block.value
and dim =
Sample.dimension current.value
in Some
{ property = current.property ;
weight = Weight.of_float sw ;
value =
Array.init dim ~f:(fun i -> ((wc *. vc.(i) +. wb *. vb.(i)) /. sw))
|> Sample.of_float_array ~dim ;
block_id = update_block_id block.block_id;
pid = block.pid ;
compute_node = block.compute_node;
}
| None -> Some
{ property = block.property ;
weight = block.weight;
value = block.value ;
block_id = update_block_id block.block_id;
pid = block.pid ;
compute_node = block.compute_node;
}
)
);
table
;;
(** Genergic merge function *)
let merge ~hashable ~create_key ?update_block_id t =
let table = create_hash ~hashable:hashable ~create_key:create_key
?update_block_id:update_block_id t
in
{ property = t.property ;
data = Hashtbl.to_alist table
|> List.sort ~cmp:(fun x y ->
if (x>y) then 1
else if (x<y) then -1
else 0)
|> List.map ~f:(fun (x,y) -> y)
}
;;
(** Merge per block id *)
let merge_per_block_id =
merge
~hashable:Int.hashable
~create_key:(fun block -> Block_id.to_int block.Block.block_id)
;;
(** Merge per compute_node *)
let merge_per_compute_node =
merge
~hashable:String.hashable
~create_key:(fun block ->
Printf.sprintf "%s"
(Compute_node.to_string block.Block.compute_node) )
;;
(** Merge per Compute_node and PID *)
let merge_per_compute_node_and_pid =
merge
~hashable:String.hashable
~create_key:(fun block ->
Printf.sprintf "%s %10.10d"
(Compute_node.to_string block.Block.compute_node)
(Pid.to_int block.Block.pid) )
;;
(** Merge per Compute_node and BlockId *)
let merge_per_compute_node_and_block_id =
merge
~hashable:String.hashable
~create_key:(fun block ->
Printf.sprintf "%s %10.10d"
(Compute_node.to_string block.Block.compute_node)
(Block_id.to_int block.Block.block_id) )
;;
(** Merge two consecutive blocks *)
let compress =
merge
~hashable:String.hashable
~create_key:(fun block ->
Printf.sprintf "%s %10.10d" (Compute_node.to_string block.Block.compute_node)
(((Block_id.to_int block.Block.block_id)+1)/2))
~update_block_id:(fun block_id ->
((Block_id.to_int block_id)+1)/2
|> Block_id.of_int )
;;
(** Last value on each compute node (for wall_time) *)
let max_value_per_compute_node t =
let table = Hashtbl.create ~hashable:String.hashable ()
in
let create_key block =
Printf.sprintf "%s %10.10d"
(Compute_node.to_string block.Block.compute_node)
(Pid.to_int block.Block.pid)
in
List.iter t.data ~f:(fun block ->
let key = create_key block
in
let open Block in
Hashtbl.change table key (function
| Some current ->
let vc = Sample.to_float current.value
and vb = Sample.to_float block.value
in
if (vc > vb) then
Some current
else
Some block
| None -> Some block
)
);
{ property = t.property ;
data = Hashtbl.to_alist table
|> List.sort ~cmp:(fun x y ->
if (x>y) then 1
else if (x<y) then -1
else 0)
|> List.map ~f:(fun (x,y) -> y)
}
;;
(** String representation *)
let to_string p =
match p.property with
| Property.Cpu -> Printf.sprintf "%s" (Time.Span.to_string (Time.Span.of_sec (sum p)))
| Property.Wall -> Printf.sprintf "%s" (Time.Span.to_string (Time.Span.of_sec (sum (max_value_per_compute_node p))))
| Property.Accep -> Printf.sprintf "%16.10f" (average p |> Average.to_float)
| _ ->
begin
if Property.is_scalar p.property then
match ave_error p with
| (ave, Some error) ->
let (ave, error) =
Average.to_float ave,
Error.to_float error
in
Printf.sprintf "%16.10f +/- %16.10f" ave error
| (ave, None) ->
let ave =
Average.to_float ave
in
Printf.sprintf "%16.10f" ave
else
match ave_error p with
| (ave, Some error) ->
let idxmax =
Average.dimension ave
in
let rec f accu idx =
if (idx < idxmax) then
let (ave, error) =
Average.to_float ~idx ave,
Error.to_float ~idx error
in
let s =
Printf.sprintf "%8d : %16.10f +/- %16.10f ;\n" (idx+1) ave error
in
f (accu ^ s) (idx+1)
else
accu
in
(f "[ \n" 0) ^ " ]"
| (ave, None) ->
Average.to_float ave
|> Printf.sprintf "%16.10f"
end
;;
(** Compress block files : Merge all the blocks computed on the same host *)
let compress_files () =
Block._raw_data := None;
let properties =
Lazy.force Block.properties
in
(* Create temporary file *)
let dir_name =
Block.dir_name
in
let dir_name =
Lazy.force dir_name
in
let files =
Sys.ls_dir dir_name
|> List.filter ~f:(fun x ->
match String.substr_index ~pattern:"locked" x with
| Some x -> false
| None -> true
)
|> List.map ~f:(fun x -> dir_name^x)
in
let out_channel_dir =
Filename.temp_dir ~in_dir:(!Ezfio.ezfio_filename ^ "/blocks/") "qmc" ""
in
let out_channel_name =
let hostname =
Lazy.force Qmcchem_config.hostname
and suffix =
Unix.getpid ()
|> Pid.to_string
in
String.concat [ hostname ; "." ; suffix ]
in
let block_channel =
Out_channel.create (out_channel_dir ^ out_channel_name)
in
List.iter properties ~f:(fun p ->
let l =
match p with
| Property.Cpu
| Property.Accep ->
of_raw_data ~locked:false p
|> merge_per_compute_node
| Property.Wall ->
of_raw_data ~locked:false p
|> max_value_per_compute_node
| _ ->
of_raw_data ~locked:false p
|> merge_per_compute_node_and_block_id
in
List.iter l.data ~f:(fun x ->
Out_channel.output_string block_channel (Block.to_string x);
Out_channel.output_char block_channel '\n';
);
);
Out_channel.close block_channel;
List.iter files ~f:Unix.remove ;
Unix.rename ~src:(out_channel_dir^out_channel_name) ~dst:(dir_name^out_channel_name);
Unix.rmdir out_channel_dir
;;
(** Autocovariance function (not weighted) *)
let autocovariance { property ; data } =
let ave =
average { property ; data }
|> Average.to_float
and data =
match (merge_per_block_id { property ; data })
with { property ; data } -> Array.of_list data
in
let x_t =
Array.map ~f:(fun x -> (Sample.to_float x.Block.value) -. ave) data
in
let f i =
let denom =
if (i > 1) then (Float.of_int i) else 1.
in
let r =
Array.sub ~pos:0 ~len:i x_t
|> Array.fold ~init:0. ~f:(fun accu x ->
accu +. x *. x_t.(i))
in
r /. denom
in
Array.init ~f (Array.length data)
|> Array.to_list
;;
(** Computes the first 4 centered cumulants (zero mean) *)
let centered_cumulants { property ; data } =
let ave =
average { property ; data }
|> Average.to_float
in
let centered_data =
List.map ~f:(fun x ->
( (Weight.to_float x.Block.weight),
(Sample.to_float x.Block.value) -. ave )
)
data
in
let var =
let (num, denom) =
List.fold ~init:(0., 0.) ~f:(fun (a2, ad) (w,x) ->
let x2 = x *. x
in
let var = w *. x2
and den = w
in (a2 +. var, ad +. den)
) centered_data
in num /. denom
in
let centered_data =
let sigma_inv =
1. /. (sqrt var)
in
List.map ~f:(fun x ->
( (Weight.to_float x.Block.weight),
( (Sample.to_float x.Block.value) -. ave ) *. sigma_inv )
)
data
in
let (cum3,cum4) =
let (cum3, cum4, denom) =
List.fold ~init:(0., 0., 0.) ~f:(fun (a3, a4, ad) (w,x) ->
let x2 = x *. x
in
let cum3 = w *. x2 *. x
and cum4 = w *. x2 *. x2
and den = w
in (a3 +. cum3, a4 +. cum4, ad +. den)
) centered_data
in
( cum3 /. denom, cum4 /. denom -. 3. )
in
[| ave ; var ; cum3 ; cum4 |]
;;
(** Computes a histogram *)
let histogram { property ; data } =
let min, max =
(min_block { property ; data }),
(max_block { property ; data })
in
let length =
max -. min
and n =
List.length data
|> Float.of_int
|> sqrt
in
let delta_x =
length /. (n-.1.)
and result =
Array.init ~f:(fun _ -> 0.) (Int.of_float (n +. 1.))
in
List.iter ~f:(fun x ->
let w =
(Weight.to_float x.Block.weight)
and x =
(Sample.to_float x.Block.value)
in
let i =
(x -. min) /. delta_x +. 0.5
|> Float.to_int
in
result.(i) <- result.(i) +. w
) data
;
let norm =
1. /. ( delta_x *. (
Array.fold ~init:0. ~f:(fun accu x -> accu +. x) result
) )
in
Array.mapi ~f:(fun i x -> (min +. (Float.of_int i)*.delta_x, x *. norm) ) result
|> Array.to_list
;;

46
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open Core.Std
type t =
| One_dimensional of float
| Multidimensional of (float array * int)
with sexp
let dimension = function
| One_dimensional _ -> 1
| Multidimensional (_,d) -> d
let to_float ?idx x =
match (idx,x) with
| None , One_dimensional x
| Some 0, One_dimensional x -> x
| Some i, One_dimensional x ->
failwith "Index should not be specified in One_dimensional"
| None , Multidimensional (x,_) -> x.(0)
| Some i, Multidimensional (x,s) when i < s -> x.(i)
| Some i, Multidimensional (x,s) ->
Printf.sprintf "Index out of bounds in Multidimensional
%d not in [0,%d[ " i s
|> failwith
let to_float_array = function
| One_dimensional _ -> failwith "Should be Multidimensional"
| Multidimensional (x,_) -> x
let of_float x =
One_dimensional x
let of_float_array ~dim x =
if (Array.length x) <> dim then
failwith "Inconsistent array size in of_float_array"
else
match dim with
| 1 -> One_dimensional x.(0)
| _ -> Multidimensional (x, dim)
let to_string = function
| One_dimensional x -> Float.to_string x
| Multidimensional (x,_) ->
Array.map x ~f:Float.to_string
|> String.concat_array ~sep:" "
|> Printf.sprintf "%s"

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type t with sexp
val to_float : ?idx:int -> t -> float
val to_float_array : t -> float array
val of_float : float -> t
val of_float_array : dim:int -> float array -> t
val to_string : t -> string
val dimension : t -> int

40
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open Core.Std;;
type t =
| SGE
| PBS
| SLURM
| Batch
let to_string = function
| SGE -> "SGE"
| PBS -> "PBS"
| SLURM -> "SLURM"
| Batch -> "Batch"
let find () =
let scheduler =
[ "SLURM_NODELIST" ; "PE_HOSTFILE" ; "PBS_NODEFILE" ]
|> List.map ~f:(function x ->
match (Sys.getenv x) with
| Some _ -> x
| None -> ""
)
|> List.filter ~f:(function x -> x <> "")
|> List.hd
in
let result =
match scheduler with
| Some "SLURM_NODELIST" -> SLURM
| Some "PE_HOSTFILE" -> SGE
| Some "PBS_NODEFILE" -> PBS
| None -> Batch
| Some x -> failwith (Printf.sprintf "Scheduler %s not found" x)
in
result

52
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open Qputils
type t =
| Stopped
| Queued
| Running
| Stopping
;;
let of_string = function
| "Stopped" -> Stopped
| "Queued" -> Queued
| "Running" -> Running
| "Stopping" -> Stopping
| _ -> failwith "Invalid status"
;;
let of_int = function
| 0 -> Stopped
| 1 -> Queued
| 2 -> Running
| 3 -> Stopping
| _ -> failwith "Invalid status"
;;
let to_string = function
| Stopped -> "Stopped"
| Queued -> "Queued"
| Running -> "Running"
| Stopping -> "Stopping"
;;
let to_int = function
| Stopped -> 0
| Queued -> 1
| Running -> 2
| Stopping -> 3
;;
let read () =
Ezfio.set_file (Lazy.force ezfio_filename);
Ezfio.get_simulation_do_run ()
|> of_int
;;
let write x =
Ezfio.set_file (Lazy.force ezfio_filename);
to_int x
|> Ezfio.set_simulation_do_run
;;

126
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open Core.Std;;
let _list = ref [] ;;
let _running = ref false;;
let _threads = ref [] ;;
(** Kill the current process and all children *)
let kill () =
let kill pid =
Printf.printf "Killed %d\n" (Pid.to_int pid);
Signal.send_i Signal.term (`Pid pid)
in
List.iter ~f:kill (!_list);
exit 1
;;
(** Start watchdog *)
let start () =
if (!_running) then
failwith "Watchdog error: Already running"
else
begin
_running := true;
let pause () =
Time.Span.of_sec 1.
|> Time.pause
in
let pid_is_running pid =
match (Sys.file_exists ("/proc/"^(Pid.to_string pid)^"/stat")) with
| `No | `Unknown -> false
| `Yes -> true
in
let f () =
while (!_running)
do
pause () ;
(*DEBUG
List.iter (!_list) ~f:(fun x -> Printf.printf "%d\n%!" (Pid.to_int x));
*)
let continue () =
List.fold_left (!_list) ~init:true ~f:(
fun accu x -> accu && (pid_is_running x)
)
in
if ( not (continue ()) ) then
kill ()
done
in
_threads := ( (Thread.create f) () ) :: (!_threads)
end
;;
(** Stop watchdog *)
let stop () =
if (!_running) then
_running := false
else
failwith "Watchdog error: Already stopped"
;;
(** Add a PID to tracking *)
let add pid =
if (not !_running) then
start ();
_list := pid :: (!_list)
;;
(** Remove a PID from tracking *)
let del pid =
let rec aux accu = function
| [] -> accu
| a :: rest ->
if (a <> pid) then
aux (a::accu) rest
else
aux accu rest
in
_list := aux [] (!_list);
match (!_list) with
| [] -> if (!_running) then stop ()
| _ -> ()
;;
(** Fork and exec a new process *)
let fork_exec ~prog ~args () =
let pid =
Unix.fork_exec ~prog ~args ()
in
let f () =
add pid;
let success =
match (Unix.waitpid pid) with
| Core_kernel.Std.Result.Ok () -> true
| Core_kernel.Std.Result.Error (`Exit_non_zero n) ->
( Printf.printf "PID %d exited with code %d\n%!"
(Pid.to_int pid) n ;
false )
| Core_kernel.Std.Result.Error (`Signal n) ->
( Printf.printf "PID %d killed with signal %d (%s)\n%!"
(Pid.to_int pid) (Signal.to_system_int n)
(Signal.to_string n) ;
false )
in
del pid ;
if (not success) then
kill ()
in
_threads := ( (Thread.create f) () ) :: (!_threads);
pid
;;
(** Wait for threads to finish *)
let join () =
(* if (!_running) then stop (); *)
List.iter ~f:Thread.join (!_threads);
assert (not !_running)
;;

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#!/bin/bash
if [[ -z ${QMCCHEM_PATH} ]]
then
echo "Error: qmcchemrc not loaded"
exit -1
fi
cd ${QMCCHEM_PATH}/ocaml
LSMD5_FILE=${QMCCHEM_PATH}/ocaml/.ls_md5
FILES="*.ml *.mli"
MD5=$(ls -ltr --full-time ${FILES} 2>/dev/null | md5sum | cut -d ' ' -f 1)
REF=0
if [[ -f ${LSMD5_FILE} ]]
then
REF=$(cat ${LSMD5_FILE})
fi
if [[ ${MD5} != ${REF} ]]
then
echo ${MD5} > ${LSMD5_FILE}
echo Finding dependencies in OCaml files
python ./ninja_ocaml.py
fi
ninja ${@}

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#!/usr/bin/env python
#
# Copyright 2015 Anthony Scemama
#
# Licensed under the Apache License, Version 2.0 (the "License");
# you may not use this file except in compliance with the License.
# You may obtain a copy of the License at
#
# http://www.apache.org/licenses/LICENSE-2.0
#
# Unless required by applicable law or agreed to in writing, software
# distributed under the License is distributed on an "AS IS" BASIS,
# WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
# See the License for the specific language governing permissions and
# limitations under the License.
#
# This file can be downloaded here:
# https://raw.githubusercontent.com/scemama/ninja_ocaml/master/ninja_ocaml.py
#
"""Build OCaml projects using ninja."""
__author__ = """Anthony Scemama <scemama@irsamc.ups-tlse.fr>"""
import os
import sys
import subprocess
def _help_ ():
print """
1) Download and install ninja :
https://github.com/martine/ninja/releases/latest
2) Copy the script into your OCaml project.
3) Run the script. It will build a default build.ninja file
4) Edit the build.ninja file
5) Compile the main target using `ninja`
6) Compile all the targets using `ninja all`
"""
def create_generated_ninja():
"""Creates the generated.ninja file"""
# Header
PACKAGES=""
THREAD=""
SYNTAX=""
OCAMLC_FLAGS=""
GENERATED_NINJA="generated.ninja"
with open('build.ninja','r') as f:
for line in f:
if line.startswith("PACKAGES"):
PACKAGES=line.split('=',1)[1].strip()
elif line.startswith("THREAD"):
THREAD=line.split('=',1)[1].strip()
elif line.startswith("SYNTAX"):
SYNTAX=line.split('=',1)[1].strip()
elif line.startswith("OCAMLC_FLAGS"):
OCAMLC_FLAGS=line.split('=',1)[1].strip()
elif line.startswith("LINK_FLAGS"):
LINK_FLAGS=line.split('=',1)[1].strip()
elif line.startswith("GENERATED_NINJA"):
GENERATED_NINJA=line.split('=',1)[1].strip()
if PACKAGES != "":
LINK_FLAGS = "-linkpkg "+PACKAGES
header = [
"""
########################################################
# This file was auto-generated. #
# This file will be overwritten. Don't edit this file! #
# Changes should be done in the build.ninja file. #
########################################################
""",
"PACKAGES=%s"%(PACKAGES),
"THREAD=%s"%(THREAD),
"SYNTAX=%s"%(SYNTAX),
"OCAMLC_FLAGS=%s"%(OCAMLC_FLAGS),
"LINK_FLAGS=%s"%(LINK_FLAGS),
"GENERATED_NINJA=%s"%(GENERATED_NINJA),
]
header += """
rule ocamlc
command = ocamlfind ocamlc -c $OCAMLC_FLAGS $THREAD $PACKAGES $SYNTAX -o $out $in
description = Compiling $out (bytecode)
rule ocamlopt
command = ocamlfind ocamlopt -c $OCAMLC_FLAGS $THREAD $PACKAGES $SYNTAX -o $o $in
description = Compiling $out (native)
rule ocamlc_link
command = ocamlfind ocamlc $OCAMLC_FLAGS $THREAD $LINK_FLAGS $PACKAGES $SYNTAX -o $out $in
description = Compiling $out (bytecode)
rule ocamlopt_link
command = ocamlfind ocamlopt $OCAMLC_FLAGS $THREAD $LINK_FLAGS $PACKAGES $SYNTAX -o $out $in
description = Compiling $out (native)
""".splitlines()
# Get the list of .ml files
all_files = os.listdir(os.getcwd())
files = [ os.path.splitext(i)[0] for i in all_files if i.endswith('.ml') ]
while "myocamlbuild" in files:
files.remove("myocamlbuild")
ml_files = ' '.join( [ '%s.ml'%i for i in files ] )
# Dependencies
result = subprocess.Popen(
("ocamlfind ocamldep {0} {1} {2}".format(PACKAGES,SYNTAX,ml_files)).split()
,stdout=subprocess.PIPE).communicate()[0]
result = result.replace('\\\n',' ')
dependencies = {}
for line in result.splitlines():
key, value = line.split(':')
dependencies[key.strip()] = value.strip()
result = header
template = """
build {0}.cmi: ocamlc {0}.mli | $GENERATED_NINJA
build {0}.cmo: ocamlc {0}.ml | $GENERATED_NINJA {1}
build {0}.cmx {0}.o: ocamlopt {0}.ml | $GENERATED_NINJA {2}
o = {0}.o
"""
template_root_byte = """
build {2}.byte: ocamlc_link {1} {0}
"""
template_root_native = """
build {2}: ocamlopt_link {1} {0}
"""
# Find roots
dep = {}
for f in dependencies:
dep[f] = [ i.strip() for i in dependencies[f].split() ]
roots = {}
for f in dependencies:
Found = False
for g,l in dep.iteritems():
if f in l:
Found = True
if not Found:
roots[f] = []
def get_deps(l):
result = []
for i in l:
if i in dep:
result += get_deps(dep[i])
result += l
newresult = []
for r in result:
if r not in newresult:
newresult.append(r)
return newresult
for r in roots:
roots[r] = [ i for i in get_deps(dep[r]) if not i.endswith(".cmi") ]
# Write the $GENERATED_NINJA file
result += [ template.format(basename,
dependencies["%s.cmo"%basename],
dependencies["%s.cmx"%basename]
) for basename in files ]
result += [ template_root_byte.format(basename,
' '.join(roots[basename]),
os.path.splitext(basename)[0]
) for basename in roots if basename.endswith('.cmo')]
result += [ template_root_native.format(basename,
' '.join(roots[basename]),
os.path.splitext(basename)[0]
) for basename in roots if basename.endswith('.cmx')]
output = '\n'.join(result)
try:
with open(GENERATED_NINJA,'r') as f:
inp = f.read()
except IOError:
inp = ""
if inp != output:
with open(GENERATED_NINJA,'w') as f:
f.write(output)
def create_build_ninja ():
with open('build.ninja','w') as f:
f.write("""
MAIN=
# Main program to build
PACKAGES=
# Required opam packages, for example:
# PACKAGES=-package core,sexplib.syntax
THREAD=
# If you need threding support, use:
# THREAD=-thread
SYNTAX=
# If you need pre-processing, use:
# SYNTAX=-syntax camlp4o
OCAMLC_FLAGS=
# Flags to give to ocamlc, for example:
# OCAMLC_FLAGS=-g -warn-error A
LINK_FLAGS=
# Flags to give to the linker, for example:
# LINK_FLAGS=-cclib '-Wl,-rpath=../lib,--enable-new-dtags'
GENERATED_NINJA=generated.ninja
# Name of the auto-generated ninja file
rule create_generated
command = python ./ninja_ocaml.py
description = Finding dependencies between modules
rule run_ninja
command = ninja -f $in $target
description = Compiling OCaml executables
pool = console
rule run_clean
command = ninja -f $GENERATED_NINJA -t clean ; rm $GENERATED_NINJA
pool = console
description = Cleaning directory
rule ocamlc
command = ocamlfind ocamlc -c $OCAMLC_FLAGS $THREAD $PACKAGES $SYNTAX -o $out $in
description = Compiling $in (bytecode)
rule ocamlopt
command = ocamlfind ocamlopt -c $OCAMLC_FLAGS $THREAD $PACKAGES $SYNTAX -o $out $in
description = Compiling $in (native)
rule ocamlc_link
command = ocamlfind ocamlc $OCAMLC_FLAGS $THREAD $LINK_FLAGS $PACKAGES $SYNTAX -o $out $in
description = Compiling $out (bytecode)
rule ocamlopt_link
command = ocamlfind ocamlopt $OCAMLC_FLAGS $THREAD $LINK_FLAGS $PACKAGES $SYNTAX -o $out $in
description = Compiling $out (native)
build clean: run_clean
build always $GENERATED_NINJA: create_generated
build $MAIN: run_ninja $GENERATED_NINJA
target = $MAIN
build all: run_ninja $GENERATED_NINJA
target =
default $MAIN
""")
def main():
for h in "help -h -help --help ?".split():
if h in sys.argv:
_help_ ()
return
if "build.ninja" in os.listdir(os.getcwd()):
create_generated_ninja ()
else:
create_build_ninja ()
print """
==========================================================
A default build.ninja file was created.
Now, edit build.ninja and compile your project using:
ninja
==========================================================
"""
if __name__ == '__main__':
main()

15
ocaml/qmcchem.ml Normal file
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@ -0,0 +1,15 @@
open Core.Std
let command =
Command.group ~summary:"QMC=Chem command" [
"debug" , Qmcchem_debug.command ;
"edit" , Qmcchem_edit.command ;
"md5" , Qmcchem_md5.command ;
"result", Qmcchem_result.command ;
"run" , Qmcchem_run.command ;
"stop" , Qmcchem_stop.command ;
]
let () =
Command.run command

336
ocaml/qptypes_generator.ml Normal file
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@ -0,0 +1,336 @@
open Core.Std;;
let input_data = "
* Positive_float : float
assert (x >= 0.) ;
* Strictly_positive_float : float
assert (x > 0.) ;
* Negative_float : float
assert (x <= 0.) ;
* Strictly_negative_float : float
assert (x < 0.) ;
* Positive_int : int
assert (x >= 0) ;
* Strictly_positive_int : int
assert (x > 0) ;
* Negative_int : int
assert (x <= 0) ;
* Det_coef : float
assert (x >= -1.) ;
assert (x <= 1.) ;
* Normalized_float : float
assert (x <= 1.) ;
assert (x >= 0.) ;
* Strictly_negative_int : int
assert (x < 0) ;
* Non_empty_string : string
assert (x <> \"\") ;
* Det_number_max : int
assert (x > 0) ;
if (x > 100000000) then
warning \"More than 100 million determinants\";
"^
(*
"
* States_number : int
assert (x > 0) ;
if (x > 100) then
warning \"More than 100 states\";
if (Ezfio.has_determinants_n_states_diag ()) then
assert (x <= (Ezfio.get_determinants_n_states_diag ()))
else if (Ezfio.has_determinants_n_states ()) then
assert (x <= (Ezfio.get_determinants_n_states ()));
* Bit_kind_size : int
begin match x with
| 8 | 16 | 32 | 64 -> ()
| _ -> raise (Failure \"Bit_kind_size should be (8|16|32|64).\")
end;
* Bit_kind : int
begin match x with
| 1 | 2 | 4 | 8 -> ()
| _ -> raise (Failure \"Bit_kind should be (1|2|4|8).\")
end;
* Bitmask_number : int
assert (x > 0) ;
"^
*)
"
* MO_coef : float
* MO_occ : float
assert (x >= 0.);
* AO_coef : float
* AO_expo : float
assert (x >= 0.) ;
* AO_prim_number : int
assert (x > 0) ;
* Threshold : float
assert (x >= 0.) ;
assert (x <= 1.) ;
* PT2_energy : float
assert (x >=0.) ;
* Elec_alpha_number : int
assert (x > 0) ;
* Elec_beta_number : int
assert (x >= 0) ;
* Elec_number : int
assert (x > 0) ;
* MD5 : string
assert ((String.length x) = 32);
* Rst_string : string
* Weight : float
assert (x >= 0.) ;
* Block_id : int
assert (x > 0) ;
* Compute_node : string
assert (x <> \"\") ;
"
;;
let input_ezfio = "
* MO_number : int
mo_basis_mo_tot_num
1 : 10000
More than 10000 MOs
* AO_number : int
ao_basis_ao_num
1 : 10000
More than 10000 AOs
* Nucl_number : int
nuclei_nucl_num
1 : 10000
More than 10000 nuclei
"^
(*
"
* N_int_number : int
determinants_n_int
1 : 30
N_int > 30
* Det_number : int
determinants_n_det
1 : 100000000
More than 100 million determinants
"
*)
""
;;
let untouched = "
"
let template = format_of_string "
module %s : sig
type t with sexp
val to_%s : t -> %s
val of_%s : %s %s -> t
val to_string : t -> string
end = struct
type t = %s with sexp
let to_%s x = x
let of_%s %s x = ( %s x )
let to_string x = %s.to_string x
end
"
;;
let parse_input input=
let rec parse result = function
| [] -> result
| ( "" , "" )::tail -> parse result tail
| ( t , text )::tail ->
let name,typ,params,params_val =
match String.split ~on:':' t with
| [name;typ] -> (name,typ,"","")
| name::typ::params::params_val -> (name,typ,params,
(String.concat params_val ~sep:":") )
| _ -> assert false
in
let typ = String.strip typ
and name = String.strip name in
let typ_cap = String.capitalize typ in
let newstring = Printf.sprintf template name typ typ typ params_val typ typ
typ typ params ( String.strip text ) typ_cap
in
List.rev (parse (newstring::result) tail )
in
String.split ~on:'*' input
|> List.map ~f:(String.lsplit2_exn ~on:'\n')
|> parse []
|> String.concat
;;
let ezfio_template = format_of_string "
module %s : sig
type t with sexp
val to_%s : t -> %s
val get_max : unit -> %s
val of_%s : ?min:%s -> ?max:%s -> %s -> t
val to_string : t -> string
end = struct
type t = %s with sexp
let to_string x = %s.to_string x
let get_max () =
if (Ezfio.has_%s ()) then
Ezfio.get_%s ()
else
%s
let get_min () =
%s
let to_%s x = x
let of_%s ?(min=get_min ()) ?(max=get_max ()) x =
begin
assert (x >= min) ;
if (x > %s) then
warning \"%s\";
begin
match max with
| %s -> ()
| i -> assert ( x <= i )
end ;
x
end
end
"
let parse_input_ezfio input=
let parse s =
match (
String.split s ~on:'\n'
|> List.filter ~f:(fun x -> (String.strip x) <> "")
) with
| [] -> ""
| a :: b :: c :: d :: [] ->
begin
let (name,typ) = String.lsplit2_exn ~on:':' a
and ezfio_func = b
and (min, max) = String.lsplit2_exn ~on:':' c
and msg = d
in
let (name, typ, ezfio_func, min, max, msg) =
match (List.map [ name ; typ ; ezfio_func ; min ; max ; msg ] ~f:String.strip) with
| [ name ; typ ; ezfio_func ; min ; max ; msg ] -> (name, typ, ezfio_func, min, max, msg)
| _ -> assert false
in
Printf.sprintf ezfio_template
name typ typ typ typ typ typ typ typ (String.capitalize typ)
ezfio_func ezfio_func max min typ typ max msg min
end
| _ -> failwith "Error in input_ezfio"
in
String.split ~on:'*' input
|> List.map ~f:parse
|> String.concat
(** EZFIO *)
let create_ezfio_handler () =
let lines =
In_channel.with_file "ezfio.ml" ~f:In_channel.input_lines
|> List.filteri ~f:(fun i _ -> i > 470)
in
let functions =
List.map lines ~f:(fun x ->
match String.split x ~on:' ' with
| _ :: x :: "()" :: "=" :: f :: dir :: item :: _-> (x, f, dir, item)
| _ :: x :: "=" :: f :: dir :: item :: _-> (x, f, dir, item)
| _ -> ("","","","")
)
in
let has_functions =
List.filter functions ~f:(fun (x,_,_,_) -> String.is_prefix ~prefix:"has_" x)
and get_functions =
List.filter functions ~f:(fun (x,_,_,_) -> String.is_prefix ~prefix:"get_" x)
in
let result =
[ "let decode_ezfio_message msg =
match msg with " ] @
(
List.map get_functions ~f:(fun (x,f,d,i) ->
let i =
match (String.chop_suffix i ~suffix:";;") with
| Some x -> x
| None -> i
in
if (String.is_suffix f ~suffix:"_array") then
Printf.sprintf " | \"%s\" ->
Ezfio.read_string_array %s %s
|> Ezfio.flattened_ezfio
|> Array.to_list
|> String.concat ~sep:\" \"" x d i
else
Printf.sprintf " | \"%s\" -> Ezfio.read_string %s %s" x d i
)
) @ (
List.map has_functions ~f:(fun (x,_,_,_) ->
Printf.sprintf " | \"%s\" -> if (Ezfio.%s ()) then \"T\" else \"F\"" x x
)
) @ [" | x -> failwith (x^\" : Unknown EZFIO function\")\n;;"]
in
String.concat result ~sep:"\n"
(** Main *)
let () =
let input =
String.concat ~sep:"\n"
[ "open Core.Std\nlet warning = print_string\n\n" ;
parse_input input_data ;
parse_input_ezfio input_ezfio ;
create_ezfio_handler ();
untouched ]
and old_input =
let filename =
"Qptypes.ml"
in
match Sys.file_exists filename with
| `Yes -> In_channel.read_all "Qptypes.ml"
| `No | `Unknown -> "empty"
in
if input <> old_input then
Out_channel.write_all "Qptypes.ml" ~data:input

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#!/usr/bin/env python
#
# Creates the properties.config file in the EZFIO directory. This is
# done by reading all the properties written in the src/PROPERTIES
# directory.
#
import os, sys
root = os.environ['QMCCHEM_PATH']
os.chdir(root+'/src/')
sys.path.insert(0,'./')
from properties import properties
# Write file if file has changed
# ==============================
def write_if_modified(filename,tmp_filename):
try:
file = open(filename,'r')
except IOError:
f1 = ""
else:
f1 = file.read()
file.close()
file = open(tmp_filename,'r')
f2 = file.read()
file.close()
if f1 != f2:
os.rename(tmp_filename,filename)
else:
os.remove(tmp_filename)
# Create the EZFIO file for properties
# ====================================
filename = root+'/ezfio_config/properties.config'
tmp_filename = filename + '.new'
# Write temporary file
# --------------------
file = open(tmp_filename,'w')
print >>file, 'properties'
for p in properties:
print >>file, ' %30s logical'%(p[1].ljust(30))
file.close()
write_if_modified(filename,tmp_filename)
# Create the ${QMCCHEM_PATH}/ocaml/Property.ml file
# =================================================
filename = root+'/ocaml/Property.ml'
tmp_filename = filename + '.new'
properties_qmcvar = properties + map(lambda x: (x[0], x[1]+"_qmcvar", x[2]), properties)
file = open(tmp_filename,'w')
# type
# ----
print >>file, """
(* File generated by ${QMCCHEM_PATH}/src/create_properties.py. Do not
modify here
*)
type t =
| Cpu
| Wall
| Accep"""
for p in properties_qmcvar:
print >>file, "| %s"%(p[1].capitalize())
# calc function
# -------------
print >>file, """;;
let calc = function
| Cpu
| Wall
| Accep -> true"""
for p in properties:
if p[1] == "e_loc":
tf = "true"
else:
tf = "false"
print >>file, """| %(P)s
| %(P)s_qmcvar ->
begin
if (Ezfio.has_properties_%(p)s ()) then
Ezfio.get_properties_%(p)s ()
else
%(true_false)s
end
"""%{'P':p[1].capitalize(), 'p':p[1], 'true_false': tf}
# set_calc
# --------
print >>file, """;;
let u _ = ();;
let set_calc = function
| Cpu
| Wall
| Accep -> u"""
for p in properties:
print >>file, """| %(P)s
| %(P)s_qmcvar ->
Ezfio.set_properties_%(p)s
"""%{'P':p[1].capitalize(), 'p':p[1]}
# of_string
# ---------
print >>file, """;;
let of_string s =
match (String.lowercase s) with
| "cpu" -> Cpu
| "wall" -> Wall
| "accep" -> Accep"""
for p in properties_qmcvar:
print >>file, """ | "%(p)s" -> %(P)s"""%{'P':p[1].capitalize(), 'p':p[1]}
print >>file, """ | p -> failwith ("unknown property "^p) ;;
"""
# to_string
# ---------
print >>file, """
let to_string = function
| Cpu -> "Cpu"
| Wall -> "Wall"
| Accep -> "Accep" """
for p in properties_qmcvar:
print >>file, """| %(P)s -> "%(P)s" """%{'P':p[1].capitalize(), 'p':p[1]}
print >>file, """;;
"""
# is_scalar
# ---------
print >>file, """
let is_scalar = function
| Cpu -> true
| Wall -> true
| Accep -> true """
for p in properties:
if p[2] == "":
print >>file, """| %(P)s | %(P)s_qmcvar -> true """%{'P':p[1].capitalize()}
else:
print >>file, """| %(P)s | %(P)s_qmcvar -> false """%{'P':p[1].capitalize()}
print >>file, """;;
"""
# all properties
# --------------
print >>file, """
let all = [ Cpu ; Wall ; Accep ; """
for p in properties:
print >>file, " %s ;"%(p[1].capitalize()),
print >>file, "];;"
file.close()
write_if_modified(filename,tmp_filename)