def score(self,n_ijk,alpha_ijk_in):
alpha_ijk = copy.deepcopy(alpha_ijk_in)
prod_k = sum22(subtract(matrixGammaLog(add(n_ijk,alpha_ijk)),matrixGammaLog(alpha_ijk)))
alpha_ij = sum22(alpha_ijk_in)
n_ij = sum22(n_ijk)
prod_ij = subtract(matrixGammaLog(alpha_ij), matrixGammaLog(add(alpha_ij,n_ij)))
return sum2(add(prod_ij,prod_k))
def adadelta(allparams,
nat_stepsize,
num_epochs,
seq_len,
num_seqs=None,
rho=0.95,
epsilon=1e-6,
num_samples=1,
permute=True):
natparams, params = allparams[:1], allparams[1:]
sum_gsq = zeros_like(params) # accumulated sq. grads
sum_usq = zeros_like(params) # accumulated sq. updates
accumulate = lambda a, b: add(scale(rho, a), scale(1 - rho, b))
for epoch in xrange(num_epochs):
vals = []
batches, num_batches = split_into_batches(data, seq_len, num_seqs)
for y in batches:
val, grad = scale(
1. / num_datapoints,
val_and_grad(y, num_batches, num_samples, *allparams))
natgrad, grad = grad[:1], grad[1:]
sum_gsq = accumulate(sum_gsq, square(grad))
diag_scaling = div(sqrt(add_scalar(epsilon, sum_usq)),
sqrt(add_scalar(epsilon, sum_gsq)))
update = mul(diag_scaling, grad)
sum_usq = accumulate(sum_usq, square(update))
natparams = add(natparams, scale(nat_stepsize, natgrad))
params = add(params, update)
allparams = concat(natparams, params)
vals.append(val)
if callback: callback(epoch, vals, natgrad, allparams)
return allparams
def itemConstants(itemFile, constantsFile, cwd, keywords=KW, suffix=""):
cwd = util.find(cwd, util.root)
fileName = util.find(itemFile, cwd)
path = os.path.join(CONSTANTS_DIR, constantsFile)
w = open(fileName, 'r')
t = w.read()
w.close()
libName = itemFile.replace("_insert.j", "")
header = "library " + libName.title() + "Constants\n"
header = header.replace("_", "")
header += "globals\n"
itemId = getId.findall(t)[0]
varNames = [util.name2Var(x) for x in getItemName.findall(t)]
totals = [int(x) for x in getTotal.findall(t)]
if totals != []:
for var in range(0, len(varNames)):
for x in range(0, totals[var]):
header += "\tconstant integer " + varNames[var] + "_" + str(
x) + suffix + " = '" + itemId + "'\n"
itemId = util.add(itemId)
else:
for var in range(0, len(varNames)):
header += "\tconstant integer " + varNames[
var] + suffix + " = '" + itemId + "'\n"
itemId = util.add(itemId)
header += "endglobals\nendlibrary"
w = open(path, 'w')
print >> w, header
w.close()
def __init__(self, width, height, n_rivers=3, thickness=2, inverted=False, map_group=None, turn_limit=None, can_escape=True, max_view_distance=None):
import util
super().__init__(map_group, turn_limit, can_escape=can_escape, max_view_distance=max_view_distance)
brush = [
['#' if inverted else '.'] * thickness
] * thickness
self._fill(width, height, '.' if inverted else '#')
for _i in range(n_rivers):
roll = random.randint(0,3)
if roll == 0:
point = (0, random.randint(0, height-1))
elif roll == 1:
point = (width-1, random.randint(0, height-1))
elif roll == 2:
point = (random.randint(0, width-1), 0)
elif roll == 3:
point = (random.randint(0, width-1), height-1)
center = (width/2, height/2)
delta = util.normalize(util.difference(point, center))
orig_delta = delta
print(delta)
turn_l = util.rot_ccw_90(orig_delta)
turn_r = util.rot_cw_90(orig_delta)
iterations = 0
while self._in_bounds(point, width, height):
self._apply_brush(brush, point, width, height)
if iterations > width / 3:
pert = util.normalize(
util.add(delta, util.scalar_mult(random.choice([turn_l, turn_r]), 0.7 + 0.3*random.random())))
delta = util.normalize(util.add(delta, pert))
point = util.add(point, delta)
iterations += 1
self._place_stairs(width, height)
def multiply_karatsuba(x, y):
"""
Multiplies two numbers represented as arrays
using the Karatsuba algorithm, falling back
on grade school algorithm for the base case
:param x: []int
:param y: []int
:rtype []int
"""
x, y = match_padding(x, y)
a, b = split(x)
c, d = split(y)
if len(x) == 1:
return multiply_simple(x, y)
res_1 = multiply_karatsuba(a, c)
res_2 = multiply_karatsuba(b, d)
partial = multiply_karatsuba(add(a, b), add(c, d))
# res_3 is partial - res_1 - res_2.
# To simplify, just add res_1 and res_2 then subtract that sum from partial
res_3 = subtract(partial, add(res_1, res_2))
res = add(pad(res_1, len(x), 'right'), res_2,
pad(res_3, (len(x) + 1) // 2, 'right'))
return res
def itemConstants(itemFile, constantsFile, cwd, keywords = KW, suffix = ""):
cwd = util.find(cwd, util.root)
fileName = util.find(itemFile, cwd)
path = os.path.join(CONSTANTS_DIR, constantsFile)
w = open(fileName, 'r')
t = w.read()
w.close()
libName = itemFile.replace("_insert.j", "")
header = "library " + libName.title() + "Constants\n"
header = header.replace("_", "")
header += "globals\n"
itemId = getId.findall(t)[0]
varNames = [util.name2Var(x) for x in getItemName.findall(t)]
totals = [int(x) for x in getTotal.findall(t)]
if totals != []:
for var in range(0, len(varNames)):
for x in range(0, totals[var]):
header += "\tconstant integer " + varNames[var] + "_" + str(x) + suffix + " = '" + itemId + "'\n"
itemId = util.add(itemId)
else:
for var in range(0, len(varNames)):
header += "\tconstant integer " + varNames[var] + suffix + " = '" + itemId + "'\n"
itemId = util.add(itemId)
header += "endglobals\nendlibrary"
w = open(path, 'w')
print>>w, header
w.close()
def get_jump(self, origin, vector):
destination = add(origin, vector)
destination_state = self.get_field(destination)
if destination_state == None or destination_state == -1:
return None
if destination_state % 2 != self.player:
destination = add(destination, vector)
destination_state = self.get_field(destination)
if destination_state == -1:
return (origin, destination)
return None
def getOutput(self, inputs):
a_1 = [[
util.sigmoid(x)
for x in util.add(util.dot(inputs, self.ihWeights), self.ihBias)[0]
]]
#a_2 = [[util.sigmoid(x) for x in util.add(util.dot(a_1, self.hhWeights), self.hhBias)[0]]] # uncomment and fix a_3 for 2 hidden layers
a_3 = [[
util.sigmoid(x)
for x in util.add(util.dot(a_1, self.hoWeights), self.hoBias)[0]
]]
return a_3[0]
def view(title=""):
if title == "":
return redirect('/home')
user=""
if verify():
user=session['username']
if request.method == "POST":
form = request.form
content = form['content']
util.add("%s.db"%title,user, content)
posts = util.getposts(title)
return render_template('view.html',user=user,title=title,posts=posts)
def view(title=""):
if title == "":
return redirect('/home')
user = ""
if verify():
user = session['username']
if request.method == "POST":
form = request.form
content = form['content']
util.add("%s.db" % title, user, content)
posts = util.getposts(title)
return render_template('view.html', user=user, title=title, posts=posts)
def make():
if request.method =="POST":
form = request.form
title=form['Title']
content=form['content']
button=form['button']
user=session['username']
if button=='Back':
user=session['username']
return render_template('home.html', user=user)
util.add("%s.db"%title,user,content)
return redirect('/view/%s'%title)
if verify():
user = session['username']
return render_template('make.html',user=user)
return redirect(url_for("login"))
def perform_action(self, move):
if move is None:
self.game_ended = True
return
origin, destination = move
figure = self.get_field(origin)
if figure == 0 and destination[0] == self.board_size - 1:
figure = 2
if figure == 1 and destination[0] == 0:
figure = 3
self.add_figure(figure, destination)
self.remove_figure(origin)
if abs(move[0][0] - move[1][0]) == 2:
self.pacifist_turns = 0
half_destination = div(add(origin, destination), 2)
self.remove_figure(half_destination)
move_type, _ = self.get_viable_moves_from_field(destination)
if move_type == 1:
self.only_viable_field = destination
else:
self.only_viable_field = None
self.player = 1 - self.player
else:
self.pacifist_turns += 1
self.player = 1 - self.player
def constants(constantsDir, constantsFile, cwd, keywords = [], rawCode = "", suffix = "", alt = ""):
fileNames = util.getFileNames(constantsDir, cwd, keywords)
varNames = [util.getFileName.findall(x)[0] for x in fileNames]
varNames = [x.replace("_hero", "") for x in varNames]
varNames = [x.replace("_vendor", "") for x in varNames]
path = os.path.join(CONSTANTS_DIR, constantsFile)
w = open(path, 'w')
header = "library " + (constantsDir + alt).title() + "Constants\n"
header = header.replace("_", "")
header += "globals\n"
i = 0
objID = rawCode + "000"
if rawCode == "N":
i = 1
elif rawCode == "w":
i = "vZZZ"
elif rawCode == "g":
objID = rawCode + "001"
for var in varNames:
value = i
if rawCode != "" and rawCode != "w" and rawCode != "g":
value = int2Rawcode(value, rawCode)
elif rawCode == "w" or rawCode == "g":
value = "'" + objID + "'"
objID = util.add(objID)
header += "\tconstant integer " + var.upper() + suffix + " = " + str(value) + "\n"
if rawCode != "w" and rawCode != "g":
i += 1
header += "endglobals\nendlibrary"
print>>w, header
w.close()
def make():
if request.method == "POST":
form = request.form
title = form['Title']
content = form['content']
button = form['button']
user = session['username']
if button == 'Back':
user = session['username']
return render_template('home.html', user=user)
util.add("%s.db" % title, user, content)
return redirect('/view/%s' % title)
if verify():
user = session['username']
return render_template('make.html', user=user)
return redirect(url_for("login"))
def post(self, user_id, spotify_id):
data = json.loads(self.request.body)
song_name = data['song_name']
artist_name = data['artist_name']
album_name = data['album_name']
album_cover_url = data['album_cover_url']
u_id = int(user_id)
self.write(util.add(u_id, spotify_id, song_name, artist_name, album_name, album_cover_url))
def distance_along_edge_to_point(edge, distance_along_edge):
edge_start, edge_end = edge
edge_vector = util.subtract(edge_end, edge_start)
edge_length = util.norm(edge_vector)
scale_factor = distance_along_edge / edge_length
scaled_vector = util.scale(scale_factor, edge_vector)
point = util.add(scaled_vector, edge_start)
return point
def play(self):
fullTime = util.lcm(self.government_period, self.public_period)
self.government_strategy = self.getStrategyForAllPeriod(self.government_strategy, self.government_period,
fullTime)
self.public_strategy = self.getStrategyForAllPeriod(self.public_strategy, self.public_period, fullTime)
self.payoff = [0, 0]
for x in range(0, fullTime):
self.payoff = util.add(self.getPayoff(x), self.payoff)
return self.payoff
def make():
if request.method =="POST":
form = request.form
title=form['Title']
content=form['content']
button=form['button']
user=session['username']
if button=='Back':
user=session['username']
return render_template('home.html', user=user)
util.add("%s.db"%title,user,content)
#Appears to be used to add posts, see Utils
return redirect('/view/%s'%title)
#Redirects to a post of the name that was added
if verify():
user = session['username']
return render_template('make.html',user=user)
return redirect(url_for("login"))
def onLeftUp(self, evt): self.moving = False self.update() #if self.moving_proved: # return pos = util.add(self.offset_pos, util.div(evt.GetPosition(), float(self.cell_size))) wx.PostEvent(self.GetParent(), event.SelectObject(attr1=(int(round(pos[0])), int(round(pos[1]))), attr2=None))
def make():
if request.method == "POST":
form = request.form
title = form['Title']
content = form['content']
button = form['button']
user = session['username']
if button == 'Back':
user = session['username']
return render_template('home.html', user=user)
util.add("%s.db" % title, user, content)
#Appears to be used to add posts, see Utils
return redirect('/view/%s' % title)
#Redirects to a post of the name that was added
if verify():
user = session['username']
return render_template('make.html', user=user)
return redirect(url_for("login"))
def post(self, user_id, spotify_id):
data = json.loads(self.request.body)
song_name = data['song_name']
artist_name = data['artist_name']
album_name = data['album_name']
album_cover_url = data['album_cover_url']
u_id = int(user_id)
self.write(
util.add(u_id, spotify_id, song_name, artist_name, album_name,
album_cover_url))
def intersect(self, o, d):
if abs(d[2]) < 1e-6:
return None
t = (self.z - o[2]) / d[2]
if t <= 1e-6:
return None
p = util.add(o, util.mul_scalar(d, t))
dist = (p[0] * p[0] + p[1] * p[1]) ** 0.5
if dist > self.radius:
return None
return t
def adam(allparams,
nat_stepsize,
stepsize,
num_epochs,
seq_len,
num_seqs=None,
b1=0.9,
b2=0.999,
eps=1e-8,
num_samples=1):
natparams, params = allparams[:1], allparams[1:]
m = zeros_like(params)
v = zeros_like(params)
i = 0
accumulate = lambda rho, a, b: add(scale(1 - rho, a), scale(rho, b))
for epoch in xrange(num_epochs):
vals = []
batches, num_batches = split_into_batches(data, seq_len, num_seqs)
for y in batches:
val, grad = scale(
1. / num_datapoints,
val_and_grad(y, num_batches, num_samples, *allparams))
natgrad, grad = grad[:1], grad[1:]
m = accumulate(b1, grad, m) # first moment estimate
v = accumulate(b2, square(grad), v) # second moment estimate
mhat = scale(1. / (1 - b1**(i + 1)), m) # bias correction
vhat = scale(1. / (1 - b2**(i + 1)), v)
update = scale(stepsize, div(mhat, add_scalar(eps,
sqrt(vhat))))
natparams = add(natparams, scale(nat_stepsize, natgrad))
params = add(params, update)
allparams = concat(natparams, params)
vals.append(val)
i += 1
if callback: callback(epoch, vals, natgrad, allparams)
return allparams
def multiply_karatsuba_parallel(x, y, key=None):
"""
Multiplies two numbers represented as arrays
using the Karatsuba algorithm, falling back
on grade school algorithm for the base case
:param x: []int
:param y: []int
:rtype []int
"""
x, y = match_padding(x, y)
a, b = split(x)
c, d = split(y)
# for base case, go simple
if len(x) == 1:
return multiply_simple(x, y)
# for big numbers, go parallel
if len(x) > 300:
# generate random ids for the subprocess outputs
r1 = random.random()
r2 = random.random()
r3 = random.random()
# run the sub-multiplications in parallel
p1 = Process(target=multiply_karatsuba_parallel, args=[a, c, r1])
p2 = Process(target=multiply_karatsuba_parallel, args=[b, d, r2])
p3 = Process(target=multiply_karatsuba_parallel,
args=[add(a, b), add(c, d), r3])
p1.start()
p2.start()
p3.start()
p1.join()
p2.join()
p3.join()
# get the results
res_1 = return_dict[r1]
res_2 = return_dict[r2]
partial = return_dict[r3]
# for smaller numbers, don't bother parallelizing
else:
res_1 = multiply_karatsuba_parallel(a, c)
res_2 = multiply_karatsuba_parallel(b, d)
partial = multiply_karatsuba_parallel(add(a, b), add(c, d))
# do the karatsuba shuffle
res_3 = subtract(partial, add(res_1, res_2))
res = add(pad(res_1, len(x), 'right'), res_2,
pad(res_3, (len(x) + 1) // 2, 'right'))
# if we are in parallel mode, write the result to the global dict
if key is not None:
return_dict[key] = res
return res
def onScroll(self, evt): pos = evt.GetPosition() logicPos = util.div(pos, float(self.cell_size)) diff = 1 if evt.GetWheelRotation()>0 else -1 self.cell_size += diff if self.cell_size < 1: self.cell_size = 1 elif self.cell_size > 40: self.cell_size = 40 self.calcScreenSize() #make sure mouse is pointing on the centre of the scroll area ( just move the pos so that this _is_ the center ) newScreenPos = util.mul(logicPos, self.cell_size) newScreenDiff = util.sub(newScreenPos, pos) newLogicDiff = util.div(newScreenDiff, self.cell_size) self.offset_pos = util.add(self.offset_pos, newLogicDiff) self.update()
def adam(gradfun, allparams, num_iters, step_size, b1=0.9, b2=0.999, eps=1e-8):
natparams, params = allparams[:1], allparams[1:]
m = zeros_like(params)
v = zeros_like(params)
i = 0
accumulate = lambda rho, a, b: add(scale(1-rho, a), scale(rho, b))
for i in xrange(num_iters):
grad = gradfun(allparams, i)
natgrad, grad = grad[:1], grad[1:]
m = accumulate(b1, grad, m) # first moment estimate
v = accumulate(b2, square(grad), v) # second moment estimate
mhat = scale(1./(1 - b1**(i+1)), m) # bias correction
vhat = scale(1./(1 - b2**(i+1)), v)
update = scale(step_size, div(mhat, add_scalar(eps, sqrt(vhat))))
natparams = sub(natparams, scale(step_size, natgrad))
params = sub(params, update)
allparams = concat(natparams, params)
return allparams
def __add__(self, other):
import util
return util.add(self, other)
def get_walk(self, origin, vector):
destination = add(origin, vector)
destination_state = self.get_field(destination)
if destination_state == -1:
return (origin, destination)
return None
def _():
assert util.add(1, 1) == 2
def resnet_decode(z, phi):
phi_linear, phi_mlp = phi
return add(linear_decode(z, phi_linear), mlp_decode(z, phi_mlp, tanh_scale=2., sigmoid_output=False))
#!/usr/bin/env python # encoding: utf-8 """ script.py Created by mark henderson on 2013-02-19. Copyright (c) 2013 __MyCompanyName__. All rights reserved. """ from util import add, connect #create the main node meetup = add(name='meetup') #add everyone mark = add(name='mark') patrick = add(name='patrick') greg = add(name='greg') joel = add(name='joel') leila = add(name='leila') howard = add(name='howard') henry = add(name='henry') brandon = add(name='brandon') chris = add(name='chris') kevin = add(name='kevin') will = add(name='will') mike = add(name='mike') kathleen = add(name='kathleen') foster = add(name='foster') jeff = add(name='jeff') matt = add(name='matt')
def gradfun(y_n, N, L, eta, phi, psi):
objective = lambda (phi, psi): mc_vlb(eta, phi, psi, y_n, N, L)
vlb, (phi_grad, psi_grad) = vgrad(objective)((phi, psi))
eta_natgrad = sub(add(eta_prior, saved.stats), eta)
return vlb, (eta_natgrad, phi_grad, psi_grad)
def rectFilter(self, rect): ps = self.screenPosToLogic(rect.GetPosition().Get()) ps = util.sub(ps, (1,1)) sz = util.div(rect.GetSize().Get(), self.cell_size) sz = util.add(sz, (1,1)) return ['x>=%d AND y>=%d AND x<=%d AND y<=%d'%(ps[0], ps[1], ps[0]+sz[0], ps[1]+sz[1])]
def screenPosToLogic(self, pos): return util.add(self.offset_pos, util.div(pos, self.cell_size))
def test_add():
assert add(1, 2) == 3, "test failed"
def gradfun(y_n, N, L, eta, phi, psi):
objective = lambda (phi, psi): mc_vlb(eta, phi, psi, y_n, N, L)
vlb, (phi_grad, psi_grad) = vgrad(objective)((phi, psi))
eta_natgrad = sub(add(eta_prior, saved.stats), eta)
return vlb, (eta_natgrad, phi_grad, psi_grad)
def resnet_recognize(x, psi):
psi_linear, psi_mlp = psi
return add(linear_recognize(x, psi_linear),
mlp_recognize(x, psi_mlp, tanh_scale=2.))
import util print(util.add(1,2))
for i in range(repetitions):
print("repetion: "+str(i))
ds=initStates(data,statesPerVar,prior)
gk = Gibbs(ds, ds.dens)
dags,scores=runMCMConDAGonly(numIterations,ds)
collDags.extend(gk.moves)
collScores.extend(gk.scores)
scores,indeces = maxScoresIndeces(collScores,nBest)
scoresOld =scores
scores = normVector(scores)
selectiveBest=[[0 for i in range(numVariables)]for j in range(numVariables)]
for i in range(nBest):
selectiveBest=add(selectiveBest,multMatrixScalar(collDags[indeces[i]],scores[i]))
print("##############")
print("selectiveBest")
for line in selectiveBest:
print(line)
theBest=collDags[indeces[0]]
print("##############")
print("theBest")
for line in theBest:
print(line)
writeMyCSV("selectiveBest.csv",selectiveBest)
def test_answerFail():
assert util.add(1,1) == 3
def test_add():
nt.assert_equal(add(1,2), 3)
def __sub__(self, other):
import util
return util.add(self, other, scale2=-1)
def test_answer():
assert util.add(1,1) == 2