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dual_view.py
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dual_view.py
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# -*- coding: utf-8 -*-
from __future__ import unicode_literals
from Tkinter import *
from ttk import Notebook
from Tkconstants import *
from ScrolledText import *
import tkFont
import sys,time
from functools import partial
from toolbox import *
from toolbox import _
from tabbed import *
import os
import threading, Queue
from goban import *
from copy import deepcopy as copy
bg='#C0C0C0'
class OpenChart(Toplevel):
def __init__(self,parent,data,nb_moves,current_move=0):
Toplevel.__init__(self,parent)
self.parent=parent
self.nb_moves=nb_moves
self.data=data
self.current_move=current_move
self.last_graph=grp_config.get("Review","LastGraph")
self.initialize()
def close(self):
log("closing popup")
self.destroy()
self.parent.remove_popup(self)
log("done")
def initialize(self):
for widget in self.pack_slaves():
widget.destroy()
popup=self
bg=popup.cget("background")
top_frame=Frame(popup)
top_frame.pack()
self.graph_mode=StringVar()
available_graphs=[]
for data in self.data:
if data:
if "position_win_rate" in data:
#self.graph_mode.set(_("Win rate")) # initialize
available_graphs.append(_("Win rate"))
break
for data in self.data:
if data:
if "winrate_delta" in data:
if data["player_color"]=="b":
available_graphs.append(_("Black win rate delta"))
break
for data in self.data:
if data:
if "winrate_delta" in data:
if data["player_color"]=="w":
available_graphs.append(_("White win rate delta"))
break
for data in self.data:
if data:
if "value_network_win_rate" in data:
available_graphs.append(_("Value Network win rate"))
break
for data in self.data:
if data:
if "vnwr_delta" in data:
if data["player_color"]=="w":
available_graphs.append(_("Black Value Network win rate delta"))
break
for data in self.data:
if data:
if "vnwr_delta" in data:
if data["player_color"]=="b":
available_graphs.append(_("White Value Network win rate delta"))
break
for data in self.data:
if data:
if "monte_carlo_win_rate" in data:
available_graphs.append(_("Monte Carlo win rate"))
break
for data in self.data:
if data:
if "mcwr_delta" in data:
if data["player_color"]=="w":
available_graphs.append(_("Black Monte Carlo win rate delta"))
break
for data in self.data:
if data:
if "mcwr_delta" in data:
if data["player_color"]=="b":
available_graphs.append(_("White Monte Carlo win rate delta"))
break
for data in self.data:
if data:
if ("score_estimation" in data) or ("upper_bound_score" in data) or ("lower_bound_score" in data):
available_graphs.append(_("Score estimation"))
break
for data in self.data:
if data:
if ("average_reading_depth" in data) or ("max_reading_depth" in data):
available_graphs.append(_("Reading depth"))
break
self.graph_selection=apply(OptionMenu,(top_frame,self.graph_mode)+tuple(available_graphs))
self.graph_selection.pack(side=LEFT, padx=5)
if self.last_graph in [mode for mode in available_graphs]:
self.graph_mode.set(self.last_graph)
else:
self.last_graph=available_graphs[0]
self.graph_mode.set(self.last_graph)
self.graph_mode.trace("w", lambda a,b,c: self.change_graph())
chart_width=self.parent.winfo_width()
chart_height=self.parent.winfo_height()/3+10
self.chart = Canvas(popup,bg='white',bd=0, borderwidth=0,height=chart_height,width=chart_width)
self.chart.pack(fill=BOTH,expand=1, padx=5)
self.chart.bind("<Configure>",self.display)
bottom_frame=Frame(popup)
bottom_frame.pack(anchor=W)
self.status_bar=Label(bottom_frame,text='',background=bg)
self.status_bar.pack(anchor=W)
self.clear_status()
self.bind('<Control-q>', self.save_as_png)
self.protocol("WM_DELETE_WINDOW", self.close)
popup.focus()
def set_status(self,event=None,msg=''):
self.status_bar.config(text=msg)
def clear_status(self,event=None):
self.status_bar.config(text=_("<Ctrl+Q> to save the graph as an image."))
def goto_move(self,event=None,move=None):
if move:
log("goto move",move)
self.parent.parent.lift()
self.parent.goto_move(move_number=move)
def display_vertical_winrate_graduation(self,border,height,width):
#drawing vertical graduation
graduations=[x*10 for x in range(10+1)]
y0=height+1000
x0=border/2
x1=width-border/2
for g in graduations:
y1=height-border-g*(height-2*border)/100.
if y0-y1>=border:
self.chart.create_text(x0,y1, text=str(g)+"%",fill='black',font=self.font)
self.chart.create_text(x1,y1, text=str(g)+"%",fill='black',font=self.font)
#self.chart.create_line(x0, y1, x1, y1, fill='black')
y0=y1
def display_vertical_score_graduation(self,border,height,width,maximum):
#drawing vertical graduation
graduations=[x*2 for x in range(0,int((maximum+2)/2.))]
x0=border/2
middle=height-border-(height-2*border)/2
#placing 0 first
y0=middle
self.chart.create_text(x0,y0, text="0",fill='black',font=self.font)
self.chart.create_line(border-3, y0, border+3, y0, fill='black')
for g in graduations:
y1=middle+g/2*(height-2*border)/maximum
y2=middle-g/2*(height-2*border)/maximum
if y1-y0>=border/2:
self.chart.create_text(x0,y1, text=str(-g),fill='black',font=self.font)
self.chart.create_text(x0,y2, text=str(g),fill='black',font=self.font)
self.chart.create_line(border-3, y1, border+3, y1, fill='black')
self.chart.create_line(width-border-3, y1, width-border+3, y1, fill='black')
self.chart.create_line(border-3, y2, border+3, y2, fill='black')
self.chart.create_line(width-border-3, y2, width-border+3, y2, fill='black')
y0=y1
def display_vertical_depth_graduation(self,border,height,width,maximum):
#drawing vertical graduation
graduations=[x for x in range(maximum+1)]
x0=border/2
x00=width-border/2
y0=height-border
for g in graduations:
y1=height-border-g*(height-2*border)/maximum
if y0-y1>=border/2:
self.chart.create_text(x0,y1, text=str(g),fill='black',font=self.font)
self.chart.create_text(x00,y1, text=str(g),fill='black',font=self.font)
self.chart.create_line(border-3, y1, border+3, y1, fill='black')
self.chart.create_line(width-border-3, y1, width-border+3, y1, fill='black')
y0=y1
def change_graph(self,event=None):
self.last_graph=_(self.graph_mode.get())
grp_config.set("Review","LastGraph",self.last_graph)
self.display()
def display(self,event=None):
if event:
width=event.width
height=event.height
self.width=width
self.height=height
#let's estimate the ratio fontsize/pixel
offset=-1000000
idt=self.chart.create_text(offset,offset, text="0",font=("TkFixedFont", 1000))
x1,y1,x2,y2=self.chart.bbox(idt)
ratio=max(x2-x1,y2-y1)/1000.
#let's measure one letter's size from a tkinter widget
police = tkFont.nametofont("TkFixedFont")
self.lpix = 2*police.measure("0")
#let's adjust the fontsize to match the letter's size
fontsize=int(round(self.lpix/ratio))
self.border=4.5*fontsize
self.font=("TkFixedFont",str(fontsize))
else:
width=self.width
height=self.height
border=self.border
lpix=self.lpix
space=1.0*(width-2*border)/(self.nb_moves+1)
for item in self.chart.find_all():
self.chart.delete(item)
self.chart.create_line(0, 0, width, 0, fill='#000000',width=4)
self.chart.create_line(0, height, width, height, fill='#000000',width=4)
self.chart.create_line(0, 0, 0, height, fill='#000000',width=4)
self.chart.create_line(width, 0, width, height, fill='#000000',width=4)
y00=height-border
x0=border+(self.current_move-1)*space
x1=x0+space
y1=border-5
yellow=grp_config.get("Review","YellowBar")
self.chart.create_rectangle(x0, y00, x1, y1, fill=yellow,outline=yellow)#yellow_bar
mode=self.last_graph
if mode in (_("Black win rate delta"),_("White win rate delta")):
moves=self.display_winrate_delta(border,height,width)
elif mode==_("Win rate"):
moves=self.display_winrate_graph(border,height,width,lpix)
elif mode==_("Score estimation"):
moves=self.display_score_graph(border,height,width,lpix)
elif mode==_("Monte Carlo win rate"):
moves=self.display_monte_carlo_winrate_graph(border,height,width,lpix)
elif mode==_("Value Network win rate"):
moves=self.display_value_network_winrate_graph(border,height,width,lpix)
elif mode in (_("Black Monte Carlo win rate delta"),_("White Monte Carlo win rate delta")):
moves=self.display_monte_carlo_delta(border,height,width)
elif mode in (_("Black Value Network win rate delta"),_("White Value Network win rate delta")):
moves=self.display_value_network_delta(border,height,width)
elif mode==_("Reading depth"):
moves=self.display_reading_depth_graph(border,height,width,lpix)
self.display_horizontal_graduation(moves,height,width,border,lpix)
self.display_axis(height,width,border)
def display_value_network_delta(self,border,height,width):
moves=[]
space=1.0*(width-2*border)/(self.nb_moves+1)
if self.graph_mode.get()==_("Black Value Network win rate delta"):
player_color='b'
else:
player_color='w'
x00=border
y00=height-border-(height-2*border)/2.
for one_data in self.data:
if (one_data["player_color"]==player_color) and ("vnwr_delta" in one_data):
position_win_rate=one_data["value_network_win_rate"]
move=one_data["move"]
moves.append(move)
x0=border+(move-1)*space
x1=x0+space*2
y0=height-border
y1=height-border-position_win_rate*(height-2*border)/100.
grey_bar=self.chart.create_rectangle(x0, y0, x1, y1, fill='#aaaaaa',outline='grey')
delta=one_data["vnwr_delta"]
if player_color.lower()=="b":
msg=_("Move %i: win rate of Black's move: %s; win rate of computer move: %s")%(move,str(position_win_rate+delta)+"%",str(position_win_rate)+"%")
else:
msg=_("Move %i: win rate of White's move: %s; win rate of computer move: %s")%(move,str(position_win_rate+delta)+"%",str(position_win_rate)+"%")
self.chart.tag_bind(grey_bar, "<Enter>", partial(self.set_status,msg=msg))
self.chart.tag_bind(grey_bar, "<Leave>", self.clear_status)
self.chart.tag_bind(grey_bar, "<Button-1>",partial(self.goto_move,move=move))
if delta!=0:
y2=y1-delta*(height-2*border)/100.
if delta<0:
red_bar=self.chart.create_rectangle(x0, y1, x1, y2, fill='red',outline='#aa0000')
msg2=_("The computer believes it's own move win rate would be %.2fpp higher.")%(-delta)
self.chart.tag_bind(red_bar, "<Enter>", partial(self.set_status,msg=msg2))
self.chart.tag_bind(red_bar, "<Leave>", self.clear_status)
self.chart.tag_bind(red_bar, "<Button-1>",partial(self.goto_move,move=move))
else:
green_bar=self.chart.create_rectangle(x0, y1, x1, y2, fill='#00ff00',outline='#00aa00')
msg2=_("The computer believes the actual move is %.2fpp better than it's best move.")%(delta)
self.chart.tag_bind(green_bar, "<Enter>", partial(self.set_status,msg=msg2))
self.chart.tag_bind(green_bar, "<Leave>", self.clear_status)
self.chart.tag_bind(green_bar, "<Button-1>",partial(self.goto_move,move=move))
self.chart.create_line(x0, y1, x1, y1, fill='#0000ff',width=2)
self.chart.create_line(x0, y1, x00, y00, fill='#0000ff')
x00=x1
y00=y1
#drawing vertical graduation
self.display_vertical_winrate_graduation(border,height,width)
return moves
def display_monte_carlo_delta(self,border,height,width):
moves=[]
space=1.0*(width-2*border)/(self.nb_moves+1)
if self.graph_mode.get()==_("Black Monte Carlo win rate delta"):
player_color='b'
else:
player_color='w'
x00=border
y00=height-border-(height-2*border)/2.
for one_data in self.data:
if (one_data["player_color"]==player_color) and ("mcwr_delta" in one_data):
position_win_rate=one_data["monte_carlo_win_rate"]
move=one_data["move"]
moves.append(move)
x0=border+(move-1)*space
x1=x0+space*2
y0=height-border
y1=height-border-position_win_rate*(height-2*border)/100.
grey_bar=self.chart.create_rectangle(x0, y0, x1, y1, fill='#aaaaaa',outline='grey')
delta=one_data["mcwr_delta"]
if player_color.lower()=="b":
msg=_("Move %i: win rate of Black's move: %s; win rate of computer move: %s")%(move,str(position_win_rate+delta)+"%",str(position_win_rate)+"%")
else:
msg=_("Move %i: win rate of White's move: %s; win rate of computer move: %s")%(move,str(position_win_rate+delta)+"%",str(position_win_rate)+"%")
self.chart.tag_bind(grey_bar, "<Enter>", partial(self.set_status,msg=msg))
self.chart.tag_bind(grey_bar, "<Leave>", self.clear_status)
self.chart.tag_bind(grey_bar, "<Button-1>",partial(self.goto_move,move=move))
if delta!=0:
y2=y1-delta*(height-2*border)/100.
if delta<0:
red_bar=self.chart.create_rectangle(x0, y1, x1, y2, fill='red',outline='#aa0000')
msg2=_("The computer believes it's own move win rate would be %.2fpp higher.")%(-delta)
self.chart.tag_bind(red_bar, "<Enter>", partial(self.set_status,msg=msg2))
self.chart.tag_bind(red_bar, "<Leave>", self.clear_status)
self.chart.tag_bind(red_bar, "<Button-1>",partial(self.goto_move,move=move))
else:
green_bar=self.chart.create_rectangle(x0, y1, x1, y2, fill='#00ff00',outline='#00aa00')
msg2=_("The computer believes the actual move is %.2fpp better than it's best move.")%(delta)
self.chart.tag_bind(green_bar, "<Enter>", partial(self.set_status,msg=msg2))
self.chart.tag_bind(green_bar, "<Leave>", self.clear_status)
self.chart.tag_bind(green_bar, "<Button-1>",partial(self.goto_move,move=move))
self.chart.create_line(x0, y1, x1, y1, fill='#0000ff',width=2)
self.chart.create_line(x0, y1, x00, y00, fill='#0000ff')
x00=x1
y00=y1
#drawing vertical graduation
self.display_vertical_winrate_graduation(border,height,width)
return moves
def display_winrate_delta(self,border,height,width):
moves=[]
space=1.0*(width-2*border)/(self.nb_moves+1)
if self.graph_mode.get()==_("Black win rate delta"):
player_color='b'
else:
player_color='w'
x00=border
y00=height-border-(height-2*border)/2.
for one_data in self.data:
if (one_data["player_color"]==player_color) and ("winrate_delta" in one_data):
position_win_rate=one_data["position_win_rate"]
move=one_data["move"]
moves.append(move)
x0=border+(move-1)*space
x1=x0+space*2
y0=height-border
y1=height-border-position_win_rate*(height-2*border)/100.
grey_bar=self.chart.create_rectangle(x0, y0, x1, y1, fill='#aaaaaa',outline='grey')
delta=one_data["winrate_delta"]
if player_color.lower()=="b":
msg=_("Move %i: win rate of Black's move: %s; win rate of computer move: %s")%(move,str(position_win_rate+delta)+"%",str(position_win_rate)+"%")
else:
msg=_("Move %i: win rate of White's move: %s; win rate of computer move: %s")%(move,str(position_win_rate+delta)+"%",str(position_win_rate)+"%")
self.chart.tag_bind(grey_bar, "<Enter>", partial(self.set_status,msg=msg))
self.chart.tag_bind(grey_bar, "<Leave>", self.clear_status)
self.chart.tag_bind(grey_bar, "<Button-1>",partial(self.goto_move,move=move))
if delta!=0:
y2=y1-delta*(height-2*border)/100.
if delta<0:
red_bar=self.chart.create_rectangle(x0, y1, x1, y2, fill='red',outline='#aa0000')
msg2=_("The computer believes it's own move win rate would be %.2fpp higher.")%(-delta)
self.chart.tag_bind(red_bar, "<Enter>", partial(self.set_status,msg=msg2))
self.chart.tag_bind(red_bar, "<Leave>", self.clear_status)
self.chart.tag_bind(red_bar, "<Button-1>",partial(self.goto_move,move=move))
else:
green_bar=self.chart.create_rectangle(x0, y1, x1, y2, fill='#00ff00',outline='#00aa00')
msg2=_("The computer believes the actual move is %.2fpp better than it's best move.")%(delta)
self.chart.tag_bind(green_bar, "<Enter>", partial(self.set_status,msg=msg2))
self.chart.tag_bind(green_bar, "<Leave>", self.clear_status)
self.chart.tag_bind(green_bar, "<Button-1>",partial(self.goto_move,move=move))
self.chart.create_line(x0, y1, x1, y1, fill='#0000ff',width=2)
self.chart.create_line(x0, y1, x00, y00, fill='#0000ff')
x00=x1
y00=y1
#drawing vertical graduation
self.display_vertical_winrate_graduation(border,height,width)
return moves
def display_value_network_winrate_graph(self,border,height,width,lpix):
moves=[]
space=1.0*(width-2*border)/(self.nb_moves+1)
self.chart.create_text(len(_("Black win rate"))*lpix/2,border/2, text=_("Black win rate"),fill='black',font=self.font)
x00=border
y00=height-border-(height-2*border)/2.
for one_data in self.data:
if "value_network_win_rate" in one_data:
move=one_data["move"]
moves.append(move)
x0=border+(move-1)*space
x1=x0+space
win_rate=one_data["value_network_win_rate"]
if one_data["player_color"]=="w":
win_rate=100.-win_rate
color=_("White")
else:
color=_("Black")
player_win_rate=float(int(win_rate*100)/100.)
y0=height-border
y1=height-border-win_rate*(height-2*border)/100.
grey_bar=self.chart.create_rectangle(x0, y0, x1, y1, fill='#aaaaaa',outline='grey')
#msg="Move "+str(move)+" ("+color+"), black/white win rate: "+str(player_win_rate)+"%/"+str(100-player_win_rate)+"%"
msg=(_("Move %i (%s), black/white win rate: ")%(move,color))+str(win_rate)+"%/"+str(100-player_win_rate)+"%"
self.chart.tag_bind(grey_bar, "<Enter>", partial(self.set_status,msg=msg))
self.chart.tag_bind(grey_bar, "<Leave>", self.clear_status)
self.chart.tag_bind(grey_bar, "<Button-1>",partial(self.goto_move,move=move))
self.chart.create_line(x0, y1, x1, y1, fill='#0000ff',width=2)
self.chart.create_line(x0, y1, x00, y00, fill='#0000ff')
x00=x1
y00=y1
#drawing vertical graduation
self.display_vertical_winrate_graduation(border,height,width)
return moves
def display_monte_carlo_winrate_graph(self,border,height,width,lpix):
moves=[]
space=1.0*(width-2*border)/(self.nb_moves+1)
self.chart.create_text(len(_("Black win rate"))*lpix/2,border/2, text=_("Black win rate"),fill='black',font=self.font)
x00=border
y00=height-border-(height-2*border)/2.
for one_data in self.data:
if "monte_carlo_win_rate" in one_data:
move=one_data["move"]
moves.append(move)
x0=border+(move-1)*space
x1=x0+space
win_rate=one_data["monte_carlo_win_rate"]
if one_data["player_color"]=="w":
win_rate=100.-win_rate
color=_("White")
else:
color=_("Black")
player_win_rate=float(int(win_rate*100)/100.)
y0=height-border
y1=height-border-win_rate*(height-2*border)/100.
grey_bar=self.chart.create_rectangle(x0, y0, x1, y1, fill='#aaaaaa',outline='grey')
#msg="Move "+str(move)+" ("+color+"), black/white win rate: "+str(player_win_rate)+"%/"+str(100-player_win_rate)+"%"
msg=(_("Move %i (%s), black/white win rate: ")%(move,color))+str(win_rate)+"%/"+str(100-player_win_rate)+"%"
self.chart.tag_bind(grey_bar, "<Enter>", partial(self.set_status,msg=msg))
self.chart.tag_bind(grey_bar, "<Leave>", self.clear_status)
self.chart.tag_bind(grey_bar, "<Button-1>",partial(self.goto_move,move=move))
self.chart.create_line(x0, y1, x1, y1, fill='#0000ff',width=2)
self.chart.create_line(x0, y1, x00, y00, fill='#0000ff')
x00=x1
y00=y1
#drawing vertical graduation
self.display_vertical_winrate_graduation(border,height,width)
return moves
def display_winrate_graph(self,border,height,width,lpix):
moves=[]
space=1.0*(width-2*border)/(self.nb_moves+1)
self.chart.create_text(len(_("Black win rate"))*lpix/2,border/2, text=_("Black win rate"),fill='black',font=self.font)
x00=border
y00=height-border-(height-2*border)/2.
for one_data in self.data:
if "position_win_rate" in one_data:
move=one_data["move"]
moves.append(move)
x0=border+(move-1)*space
x1=x0+space
position_win_rate=one_data["position_win_rate"]
if one_data["player_color"]=="w":
position_win_rate=100.-position_win_rate
color=_("White")
else:
color=_("Black")
player_win_rate=float(int(position_win_rate*100)/100.)
y0=height-border
y1=height-border-position_win_rate*(height-2*border)/100.
grey_bar=self.chart.create_rectangle(x0, y0, x1, y1, fill='#aaaaaa',outline='grey')
#msg="Move "+str(move)+" ("+color+"), black/white win rate: "+str(player_win_rate)+"%/"+str(100-player_win_rate)+"%"
msg=(_("Move %i (%s), black/white win rate: ")%(move,color))+str(position_win_rate)+"%/"+str(100-player_win_rate)+"%"
self.chart.tag_bind(grey_bar, "<Enter>", partial(self.set_status,msg=msg))
self.chart.tag_bind(grey_bar, "<Leave>", self.clear_status)
self.chart.tag_bind(grey_bar, "<Button-1>",partial(self.goto_move,move=move))
self.chart.create_line(x0, y1, x1, y1, fill='#0000ff',width=2)
self.chart.create_line(x0, y1, x00, y00, fill='#0000ff')
x00=x1
y00=y1
#drawing vertical graduation
self.display_vertical_winrate_graduation(border,height,width)
return moves
def display_score_graph(self,border,height,width,lpix):
self.chart.create_text(border+len(_("Win for Black"))*lpix/2,border+lpix, text=_("Win for Black"),fill='black',font=self.font)
self.chart.create_text(border+len(_("Win for White"))*lpix/2,height-border-lpix, text=_("Win for White"),fill='black',font=self.font)
moves=[]
#checking graph limits
maximum=-1000
for one_data in self.data:
if "score_estimation" in one_data:
maximum=max(maximum,max([abs(x) for x in (one_data["upper_bound_score"],one_data["lower_bound_score"],one_data["score_estimation"])]))
maximum+=5
space=1.0*(width-2*border)/(self.nb_moves+1)
middle=height-border-(height-2*border)/2
x00=border
y00=middle
for one_data in self.data:
if "score_estimation" in one_data:
move=one_data["move"]
moves.append(move)
x0=border+(move-1)*space
x1=x0+space
estimated_score=one_data["score_estimation"]
upper_bound_score=one_data["upper_bound_score"]
lower_bound_score=one_data["lower_bound_score"]
y0=middle-lower_bound_score*(height-2*border)/2./maximum
y1=middle-upper_bound_score*(height-2*border)/2./maximum
y2=middle-estimated_score*(height-2*border)/2./maximum
y3=min(middle,y0,y1,y2)
y4=max(middle,y0,y1,y2)
white_bar=self.chart.create_rectangle(x0, y3, x1, y4, fill='#eeeeee',outline='')
self.chart.create_line(x0, y2, x1, y2, fill='#0000ff',width=2)
self.chart.create_line(x0, y2, x00, y00, fill='#0000ff')
x00=x1
y00=y2
if one_data["player_color"]=="w":
color=_("White")
else:
color=_("Black")
if estimated_score>=0:
msg=(_("Move %i (%s), estimated score: ")%(move,color))
msg+="B+"+str(estimated_score)
if (lower_bound_score!=upper_bound_score):
msg+=" [B%+.1f, B%+.1f]"%(lower_bound_score,upper_bound_score)
else:
msg=(_("Move %i (%s), estimated score: ")%(move,color))
msg+="W+"+str(abs(estimated_score))
if (lower_bound_score!=upper_bound_score):
msg+=" [W%+.1f, W%+.1f]"%(-lower_bound_score,-upper_bound_score)
self.chart.tag_bind(white_bar, "<Enter>", partial(self.set_status,msg=msg))
self.chart.tag_bind(white_bar, "<Leave>", self.clear_status)
self.chart.tag_bind(white_bar, "<Button-1>",partial(self.goto_move,move=move))
if y0!=y1:
grey_bar=self.chart.create_rectangle(x0, y0, x1, y1, fill='#aaaaaa',outline='grey')
self.chart.tag_bind(grey_bar, "<Enter>", partial(self.set_status,msg=msg))
self.chart.tag_bind(grey_bar, "<Leave>", self.clear_status)
self.chart.tag_bind(grey_bar, "<Button-1>",partial(self.goto_move,move=move))
self.chart.tag_bind(grey_bar, "<Enter>", partial(self.set_status,msg=msg))
self.chart.tag_bind(grey_bar, "<Leave>", self.clear_status)
self.chart.tag_bind(grey_bar, "<Button-1>",partial(self.goto_move,move=move))
self.display_vertical_score_graduation(border,height,width,maximum)
return moves
def display_reading_depth_graph(self,border,height,width,lpix):
moves=[]
#checking graph limits
maximum=8
for one_data in self.data:
if "average_reading_depth" in one_data:
maximum=max(maximum,one_data["average_reading_depth"])
if "max_reading_depth" in one_data:
maximum=max(maximum,one_data["max_reading_depth"])
maximum+=2
space=1.0*(width-2*border)/(self.nb_moves+1)
for one_data in self.data:
if "max_reading_depth" in one_data:
move=one_data["move"]
moves.append(move)
x0=border+(move-1)*space
x1=x0+space
max_reading_depth=one_data["max_reading_depth"]
y0=height-border
y1=height-border-max_reading_depth*(height-2*border)/maximum
light_bar=self.chart.create_rectangle(x0, y0, x1, y1, fill='#E6E6E6',outline='grey')
average_reading_depth=one_data["average_reading_depth"]
y0=height-border
y1=height-border-average_reading_depth*(height-2*border)/maximum
dark_bar=self.chart.create_rectangle(x0, y0, x1, y1, fill='#aaaaaa',outline='grey')
msg1=_("Move %i, for this position, the bot reads up to %d moves ahead.")%(move,max_reading_depth)
self.chart.tag_bind(light_bar, "<Enter>", partial(self.set_status,msg=msg1))
self.chart.tag_bind(light_bar, "<Leave>", self.clear_status)
self.chart.tag_bind(light_bar, "<Button-1>",partial(self.goto_move,move=move))
msg2=_("Move %i, for this position, the bot reads in average %.1f moves ahead.")%(move,average_reading_depth)
self.chart.tag_bind(dark_bar, "<Enter>", partial(self.set_status,msg=msg2))
self.chart.tag_bind(dark_bar, "<Leave>", self.clear_status)
self.chart.tag_bind(dark_bar, "<Button-1>",partial(self.goto_move,move=move))
self.display_vertical_depth_graduation(border,height,width,maximum)
return moves
def display_axis(self,height,width,border):
#drawing axis
x0=border
y0=height-border
y1=border
self.chart.create_line(x0, y0, x0, y1, fill='black')
x1=width-border
self.chart.create_line(x1, y0, x1, y1, fill='black')
self.chart.create_line(x0, y0, x1, y0, fill='black')
if self.last_graph!=_("Reading depth"):
self.chart.create_line(x0, (y0+y1)/2, x1, (y0+y1)/2, fill='black')
def display_horizontal_graduation(self,moves,height,width,border,lpix):
#drawing horizontal graduation
graduations=[x for x in moves]
x0=-1000
y0=height-border/2
y1=height-border
for g in graduations:
x1=border+(g-0.5)*(width-2*border)/self.nb_moves*1.0
if x1-x0>=border/1.5:
self.chart.create_text(x1,y0, text=str(g),fill='black',font=self.font)
self.chart.create_line(x1, y1, x1, (y0+y1)/2, fill='black')
x0=x1
def save_as_png(self,event=None):
filename=save_png_file(filename=self.graph_mode.get()+' graph.png',parent=self)
canvas2png(self.chart,filename)
class TableWidget:
def __init__(self,widget,parent,gameroot,current_move,grid,markup):
log("creating table widget",current_move)
self.parent=parent
self.widget=widget
self.gameroot=gameroot
self.maxvariations=grp_config.getint("Review", "MaxVariations")
self.my_labels={}
self.dframe=None
self.table_frame=None
self.display_move(current_move,grid,markup)
def get_label(self,name,container):
if name in self.my_labels:
return self.my_labels[name]
if type(name)==type("abc"):
if name=="node comments":
new_label=Label(container,justify=LEFT)
new_label.grid(row=1,column=1,columnspan=100,sticky=W+N)
self.my_labels[name]=new_label
return new_label
else:
row,column=name
new_label=Label(container)
new_label.grid(row=row,column=column,sticky=W+E)
self.my_labels[name]=new_label
return new_label
def display_move(self,current_move,grid,markup):
new_popup=self.widget
for widget in self.my_labels.values():
widget.config(text="")
widget.unbind("<Enter>")
self.current_move=current_move
comments=get_position_short_comments(self.current_move,self.gameroot)
one_label=self.get_label("node comments",self.widget) #get or create that label widget
one_label.config(text=comments)
columns_header=["MOVE",'nothing here',"WR","MCWR","VNWR","PNV","PO","EV","RAVE","SCORE"]
columns_header_status_msg=[_("Move"),_("Move"),_("Win rate"),_("Monte Carlo win rate"),_("Value Network win rate"),_("Policy Network value"),_("Playouts"),_("Evaluation"),_("RAVE"),_("Score estimation")]
columns_sgf_properties=["nothing here","nothing here","BWWR","MCWR","VNWR","PNV","PLYO","EVAL","RAVE","ES"]
parent=get_node(self.gameroot,self.current_move-1)
nb_variations=min(len(parent),self.maxvariations+1)
log(nb_variations,"variations")
columns=[[None for r in range(nb_variations+1)] for c in range(len(columns_header))]
color=guess_color_to_play(self.gameroot,current_move)
for a in range(1,min(len(parent),self.maxvariations+1)):
one_alternative=parent[a]
c=0
for key in columns_sgf_properties:
if node_has(one_alternative,key):
value=node_get(one_alternative,key)
if "%/" in value:
if color=="b":
value=float(value.split("%/")[0])
value=round(value,2)
value=str(value)+"%"
else:
value=float(value.split("/")[1][:-1])
value=round(value,2)
value=str(value)+"%"
columns[c][a]=value
c+=1
columns[0][a]="ABCDEFGHIJKLMNOPQRSTUVWXYZ"[a-1]
columns[1][a]=ij2gtp(one_alternative.get_move()[1])
try:
columns[0][0]="A"
columns[1][0]=ij2gtp(parent[0].get_move()[1])
one_alternative=parent[0][1]
c=0
for key in columns_sgf_properties:
if node_has(one_alternative,key):
value=node_get(one_alternative,key)
if "%/" in value:
if parent[0].get_move()[0].lower()=="b":
value=float(value.split("%/")[0])
value=round(value,2)
value=str(value)+"%"
else:
value=float(value.split("/")[1][:-1])
value=round(value,2)
value=str(value)+"%"
columns[c][0]=value
c+=1
except:
pass
c=0
for column in columns:
empty=True
for row in column:
if row!=None:
empty=False
break
if empty:
columns_header[c]=None
c+=1
row=2
if self.dframe==None:
self.dframe=Frame(new_popup)
self.dframe.grid(row=row,column=1,columnspan=100,sticky=W+N)
c=0
deltas_strings = ["WR","BWWR","MC", "MCWR","VN","VNWR"]
deltas_strings_status_msg=[_("Win rate"),"",_("Monte Carlo win rate"), "",_("Value Network win rate"),""]
for i in range(0,len(deltas_strings),2):
idx = columns_sgf_properties.index(deltas_strings[i+1])
if columns[1][0]==columns[1][1]:
delta = 0
dtext = "+0pp"
status_msg=""
elif( columns_header[idx] and columns[idx][0] and columns[idx][1] ):
delta = float(columns[idx][0].split("%")[0]) - float(columns[idx][1].split("%")[0])
dtext = "%+.2fpp"%delta
if delta > 0:
status_msg="The computer believes the actual move is %.2fpp better than it's best move."%delta
else:
status_msg="The computer believes it's own move win rate would be %.2fpp higher."%(-delta)
else:
delta = None
dtext = "NA"
status_msg=_("Not available")
one_label=self.get_label((0,c),self.dframe)
one_label.config(text=deltas_strings[i]+":")
one_label.bind("<Enter>",partial(self.set_status,msg=deltas_strings_status_msg[i]))
one_label.bind("<Leave>",lambda e: self.clear_status())
another_label=self.get_label((0,c+1),self.dframe)
another_label.config(text=dtext+" ",fg="black" if delta is None or delta == 0 else "red" if delta < 0 else "darkgreen")
another_label.bind("<Enter>",partial(self.set_status,msg=status_msg))
another_label.bind("<Leave>",lambda e: self.clear_status())
c = c + 2
if not self.table_frame:
row=10
self.table_frame=LabelFrame(new_popup)
self.table_frame.grid(row=row,column=10,sticky=W+N,pady=10)
row=10
c=0
for header,status_msg in zip(columns_header,columns_header_status_msg):
if header:
if c==0:
one_label=self.get_label((row,10+c),self.table_frame)
one_label.config(text=header,relief=RIDGE,bd=2,width=6)
one_label.grid(columnspan=2)
elif c==1:
pass
else:
one_label=self.get_label((row,10+c),self.table_frame)
one_label.config(text=header,relief=RIDGE,bd=2,width=7)
one_label.bind("<Enter>",partial(self.set_status,msg=status_msg))
one_label.bind("<Leave>",lambda e: self.clear_status())
c+=1
row+=2
for r in range(nb_variations):
for c in range(len(columns)):
if columns_header[c]:
one_label=self.get_label((row+r,10+c),self.table_frame)
one_label.config(text=columns[c][r],relief=RIDGE)
if r>0:
i,j=gtp2ij(columns[1][r])
one_label.bind("<Enter>",partial(self.show_variation,one_label=one_label,i=i,j=j))
else:
one_label.config(bd=2)
if c==0:
one_label.config(width=2)
elif c==1:
one_label.config(width=4)
def show_variation(self,event,one_label,i,j):
# https://stackoverflow.com/questions/14000944/finding-the-currently-selected-tab-of-ttk-notebook
nb1=self.parent.left_notebook
nb2=self.parent.right_notebook
if nb2.index(nb2.select())==1:
#if self.parent.right_notebook.raised()=="bot":
grid, markup=self.parent.right_bot_goban.grid, self.parent.right_bot_goban.markup
self.parent.show_variation(event=event,goban=self.parent.right_bot_goban,grid=grid,markup=markup,i=i,j=j)
one_label.bind("<Leave>", lambda e: self.parent.leave_variation(self.parent.right_bot_goban,grid,markup))
elif nb1.index(nb1.select())==1:
#elif self.parent.left_notebook.raised()=="bot":
grid, markup=self.parent.left_bot_goban.grid, self.parent.left_bot_goban.markup
self.parent.show_variation(event=event,goban=self.parent.left_bot_goban,grid=grid,markup=markup,i=i,j=j)
one_label.bind("<Leave>", lambda e: self.parent.leave_variation(self.parent.left_bot_goban,grid,markup))
else:
log("No analysis tab beeing displayed")
return
one_label.bind("<Up>", self.parent.show_variation_next)
one_label.bind("<Down>", self.parent.show_variation_prev)
one_label.bind("<MouseWheel>", self.parent.mouse_wheel) #for windows
if not self.parent.inverted_mouse_wheel:
one_label.bind("<Button-4>", self.parent.show_variation_next) #for linux
one_label.bind("<Button-5>", self.parent.show_variation_prev) #for linux
else:
one_label.bind("<Button-5>", self.parent.show_variation_next) #for linux
one_label.bind("<Button-4>", self.parent.show_variation_prev) #for linux
def clear_status(self):
self.parent.clear_status()
def set_status(self,event,msg):
self.parent.set_status(msg)
class DualView(Toplevel):
def __init__(self,parent,filename):
Toplevel.__init__(self,parent)
self.parent=parent
self.filename=filename
import goban
goban.fuzzy=grp_config.getfloat("Review", "FuzzyStonePlacement")
goban.show_variation=self.show_variation
#self.variation_color_mode=grp_config.get("Review", "VariationsColoring")
self.inverted_mouse_wheel=grp_config.getboolean('Review', 'InvertedMouseWheel')
#self.variation_label=grp_config.get('Review', 'VariationsLabel')
self.initialize()
self.current_move=1
self.current_view=-1
#self.after(500,lambda: self.display_move(self.current_move))
self.display_move(self.current_move)
self.pressed=0
self.parent.focus()
self.active_notebook=None
def set_active(self,nb):
self.active_notebook=nb
def remove_popup(self,popup):
log("Removing popup")
self.popups.remove(popup)
def add_popup(self,popup):
log("Adding new popup")
self.popups.append(popup)
def close(self):
for tab in self.left_side_opened_tabs+self.right_side_opened_tabs:
tab.close()
for popup in self.popups[:]:
popup.close()
self.destroy()
self.parent.remove_popup(self)
def prev_10_move(self,event=None):
self.current_move=max(1,self.current_move-10)
self.pressed=time.time()
pf=partial(self.goto_move,move_number=self.current_move,pressed=self.pressed)
self.parent.after(0,lambda: pf())
def prev_move(self,event=None):
if self.current_move>1:
self.pressed=time.time()
self.current_move-=1
pf=partial(self.goto_move,move_number=self.current_move,pressed=self.pressed)
self.parent.after(0,lambda: pf())