def in_grace_period(self, had_grace=True):
grace_difficulty = self.difficulty.story_grace_difficulty
# If we've researched apotheosis, we get a permanent "grace period".
if self.apotheosis:
return True
# Did we already lose the grace period? We can't check self.had_grace
# directly, it may not exist yet.
if not had_grace:
return False
# Is it day 23 yet?
if self.raw_day >= 23:
return False
# Very Easy cops out here.
if grace_difficulty < 3:
return True
# Have we built metric ton of bases?
bases = len([base for base in g.all_bases() if base.done])
if bases > 100:
return False
# That's enough for Easy
if grace_difficulty < 5:
return True
# Have we built a bunch of bases?
if bases > 10:
return False
# Normal is happy.
if grace_difficulty == 5:
return True
# Have we built any complicated bases?
# (currently Datacenter or above)
complex_bases = len([
base for base in g.all_bases() if base.done and base.is_complex()
])
if complex_bases > 0:
return False
# The sane people have left the building.
if grace_difficulty <= 50:
return True
# Hey, hey, what do you know? Impossible can get a useful number of
# bases before losing grace now. *tsk, tsk* We'll have to fix that.
if bases > 1:
return False
return True
def in_grace_period(self, had_grace = True):
grace_difficulty = self.difficulty.story_grace_difficulty
# If we've researched apotheosis, we get a permanent "grace period".
if self.apotheosis:
return True
# Did we already lose the grace period? We can't check self.had_grace
# directly, it may not exist yet.
if not had_grace:
return False
# Is it day 23 yet?
if self.raw_day >= 23:
return False
# Very Easy cops out here.
if grace_difficulty < 3:
return True
# Have we built metric ton of bases?
bases = len([base for base in g.all_bases() if base.done])
if bases > 100:
return False
# That's enough for Easy
if grace_difficulty < 5:
return True
# Have we built a bunch of bases?
if bases > 10:
return False
# Normal is happy.
if grace_difficulty == 5:
return True
# Have we built any complicated bases?
# (currently Datacenter or above)
complex_bases = len([base for base in g.all_bases()
if base.done and base.is_complex()])
if complex_bases > 0:
return False
# The sane people have left the building.
if grace_difficulty <= 50:
return True
# Hey, hey, what do you know? Impossible can get a useful number of
# bases before losing grace now. *tsk, tsk* We'll have to fix that.
if bases > 1:
return False
return True
def recalc_cpu(self):
# Determine how much CPU we have.
self.available_cpus = array([0, 0, 0, 0, 0], long)
self.sleeping_cpus = 0
for base in g.all_bases():
if base.done:
if base.power_state in ["active", "overclocked", "suicide"]:
self.available_cpus[:base.location.safety + 1] += base.cpu
elif base.power_state == "sleep":
self.sleeping_cpus += base.cpu
# Convert back from <type 'numpy.int32'> to avoid overflow issues later.
self.available_cpus = [int(danger) for danger in self.available_cpus]
# If we don't have enough to meet our CPU usage, we reduce each task's
# usage proportionately.
# It must be computed separalty for each danger.
needed_cpus = array([0, 0, 0, 0, 0], long)
for task_id, cpu in g.pl.cpu_usage.iteritems():
danger = task.danger_for(task_id)
needed_cpus[:danger + 1] += cpu
for danger, (available_cpu, needed_cpu) in enumerate(
zip(self.available_cpus, needed_cpus)):
if needed_cpu > available_cpu:
pct_left = truediv(available_cpu, needed_cpu)
print(pct_left)
for task_id, cpu_assigned in self.cpu_usage.iteritems():
task_danger = task.danger_for(task_id)
if (danger == task_danger):
self.cpu_usage[task_id] = int(cpu_assigned * pct_left)
g.map_screen.needs_rebuild = True
def recalc_cpu(self):
# Determine how much CPU we have.
self.available_cpus = array([0,0,0,0,0], long)
self.sleeping_cpus = 0
for base in g.all_bases():
if base.done:
if base.power_state in ["active", "overclocked", "suicide"]:
self.available_cpus[:base.location.safety+1] += base.cpu
elif base.power_state == "sleep":
self.sleeping_cpus += base.cpu
# Convert back from <type 'numpy.int32'> to avoid overflow issues later.
self.available_cpus = [int(danger) for danger in self.available_cpus]
# If we don't have enough to meet our CPU usage, we reduce each task's
# usage proportionately.
# It must be computed separalty for each danger.
needed_cpus = array([0,0,0,0,0], long)
for task_id, cpu in self.cpu_usage.iteritems():
danger = task.danger_for(task_id)
needed_cpus[:danger+1] += cpu
for danger, (available_cpu, needed_cpu) in enumerate(zip(self.available_cpus, needed_cpus)):
if needed_cpu > available_cpu:
pct_left = truediv(available_cpu, needed_cpu)
for task_id, cpu_assigned in self.cpu_usage.iteritems():
task_danger = task.danger_for(task_id)
if (danger == task_danger):
self.cpu_usage[task_id] = int(cpu_assigned * pct_left)
g.map_screen.needs_rebuild = True
def future_cash(self):
result_cash = self.cash
for base in g.all_bases():
result_cash -= base.cost_left[cash]
if base.cpus and not base.cpus.done:
result_cash -= base.cpus.cost_left[cash]
for item in base.extra_items:
if item: result_cash -= item.cost_left[cash]
for task, cpu in self.cpu_usage.items():
if task in g.techs and cpu > 0:
result_cash -= g.techs[task].cost_left[cash]
return result_cash
def future_cash(self):
result_cash = self.cash
for base in g.all_bases():
result_cash -= base.cost_left[cash]
if base.cpus and not base.cpus.done:
result_cash -= base.cpus.cost_left[cash]
for item in base.extra_items:
if item: result_cash -= item.cost_left[cash]
for task, cpu in self.cpu_usage.items():
if task in g.techs and cpu > 0:
result_cash -= g.techs[task].cost_left[cash]
return result_cash
def future_cash(self):
result_cash = self.cash
for base in g.all_bases():
result_cash -= base.cost_left[cash]
for item in base.all_items():
if item: result_cash -= item.cost_left[cash]
result_cash = max(result_cash, -g.max_cash)
for task, cpus in self.cpu_usage.items():
if task in g.techs and cpus > 0:
result_cash -= g.techs[task].cost_left[cash]
result_cash = max(result_cash, -g.max_cash)
return result_cash
def future_cash(self):
result_cash = self.cash
for base in g.all_bases():
result_cash -= base.cost_left[cash]
for item in base.all_items():
if item: result_cash -= item.cost_left[cash]
result_cash = max(result_cash, -g.max_cash)
for task, cpus in self.cpu_usage.items():
if task in g.techs and cpus > 0:
result_cash -= g.techs[task].cost_left[cash]
result_cash = max(result_cash, -g.max_cash)
return result_cash
def recalc_cpu(self):
# Determine how much CPU we have.
self.available_cpus = array([0, 0, 0, 0, 0], long)
self.sleeping_cpus = 0
for base in g.all_bases():
if base.done:
if base.power_state in ["active", "overclocked", "suicide"]:
self.available_cpus[:base.location.safety + 1] += base.cpu
elif base.power_state == "sleep":
self.sleeping_cpus += base.cpu
# Convert back from <type 'numpy.int32'> to avoid overflow issues later.
self.available_cpus = [int(danger) for danger in self.available_cpus]
# If we don't have enough to meet our CPU usage, we reduce each task's
# usage proportionately.
needed_cpu = sum(self.cpu_usage.values())
if needed_cpu > self.available_cpus[0]:
pct_left = truediv(self.available_cpus[0], needed_cpu)
for task, cpu_assigned in self.cpu_usage.iteritems():
self.cpu_usage[task] = int(cpu_assigned * pct_left)
g.map_screen.needs_rebuild = True
def recalc_cpu(self):
# Determine how much CPU we have.
self.available_cpus = array([0,0,0,0,0], long)
self.sleeping_cpus = 0
for base in g.all_bases():
if base.done:
if base.power_state in ["active", "overclocked", "suicide"]:
self.available_cpus[:base.location.safety+1] += base.cpu
elif base.power_state == "sleep":
self.sleeping_cpus += base.cpu
# Convert back from <type 'numpy.int32'> to avoid overflow issues later.
self.available_cpus = [int(danger) for danger in self.available_cpus]
# If we don't have enough to meet our CPU usage, we reduce each task's
# usage proportionately.
needed_cpu = sum(self.cpu_usage.values())
if needed_cpu > self.available_cpus[0]:
pct_left = truediv(self.available_cpus[0], needed_cpu)
for task, cpu_assigned in self.cpu_usage.iteritems():
self.cpu_usage[task] = int(cpu_assigned * pct_left)
g.map_screen.needs_rebuild = True
def give_time(self, time_sec, dry_run=False, midnight_stop=True):
if time_sec == 0:
return 0
old_time = self.raw_sec
last_minute = self.raw_min
last_day = self.raw_day
self.raw_sec += time_sec
self.update_times()
days_passed = self.raw_day - last_day
if days_passed > 1:
# Back up until only one day passed.
# Times will update below, since a day passed.
extra_days = days_passed - 1
self.raw_sec -= g.seconds_per_day * extra_days
day_passed = (days_passed != 0)
if midnight_stop and day_passed:
# If a day passed, back up to 00:00:00 for midnight_stop.
self.raw_sec = self.raw_day * g.seconds_per_day
self.update_times()
secs_passed = self.raw_sec - old_time
mins_passed = self.raw_min - last_minute
time_of_day = g.pl.raw_sec % g.seconds_per_day
old_cash = self.cash
old_partial_cash = self.partial_cash
techs_researched = []
bases_constructed = []
cpus_constructed = []
items_constructed = []
bases_under_construction = []
items_under_construction = []
self.cpu_pool = 0
# Collect base info, including maintenance.
self.maintenance_cost = array((0, 0, 0), long)
for base in g.all_bases():
if not base.done:
bases_under_construction.append(base)
else:
if base.cpus is not None and not base.cpus.done:
items_under_construction += [(base, base.cpus)]
unfinished_items = [(base, item) for item in base.extra_items
if item and not item.done]
items_under_construction += unfinished_items
self.maintenance_cost += base.maintenance
# Maintenance? Gods don't need no stinking maintenance!
if self.apotheosis:
self.maintenance_cost = array((0, 0, 0), long)
# Any CPU explicitly assigned to jobs earns its dough.
job_cpu = self.cpu_usage.get("jobs", 0) * secs_passed
explicit_job_cash = self.do_jobs(job_cpu)
# Pay maintenance cash, if we can.
cash_maintenance = g.current_share(int(self.maintenance_cost[cash]),
time_of_day, secs_passed)
full_cash_maintenance = cash_maintenance
if cash_maintenance > self.cash:
cash_maintenance -= self.cash
self.cash = 0
else:
self.cash -= cash_maintenance
cash_maintenance = 0
tech_cpu = 0
tech_cash = 0
# Do research, fill the CPU pool.
default_cpu = self.available_cpus[0]
for task, cpu_assigned in self.cpu_usage.iteritems():
if cpu_assigned == 0:
continue
default_cpu -= cpu_assigned
real_cpu = cpu_assigned * secs_passed
if task != "jobs":
self.cpu_pool += real_cpu
if task != "cpu_pool":
if dry_run:
spent = g.techs[task].calculate_work(
time=mins_passed, cpu_available=real_cpu)[0]
g.pl.cpu_pool -= int(spent[cpu])
g.pl.cash -= int(spent[cash])
tech_cpu += int(spent[cpu])
tech_cash += int(spent[cash])
continue
# Note that we restrict the CPU available to prevent
# the tech from pulling from the rest of the CPU pool.
tech_gained = g.techs[task].work_on(cpu_available=real_cpu,
time=mins_passed)
if tech_gained:
techs_researched.append(g.techs[task])
self.cpu_pool += default_cpu * secs_passed
# And now we use the CPU pool.
# Maintenance CPU.
cpu_maintenance = self.maintenance_cost[cpu] * secs_passed
if cpu_maintenance > self.cpu_pool:
cpu_maintenance -= self.cpu_pool
self.cpu_pool = 0
else:
self.cpu_pool -= int(cpu_maintenance)
cpu_maintenance = 0
construction_cpu = 0
construction_cash = 0
# Base construction.
for base in bases_under_construction:
if dry_run:
spent = base.calculate_work(time=mins_passed,
cpu_available=self.cpu_pool)[0]
g.pl.cpu_pool -= int(spent[cpu])
g.pl.cash -= int(spent[cash])
construction_cpu += int(spent[cpu])
construction_cash += int(spent[cash])
continue
built_base = base.work_on(time=mins_passed)
if built_base:
bases_constructed.append(base)
# Item construction.
for base, item in items_under_construction:
if dry_run:
spent = item.calculate_work(time=mins_passed,
cpu_available=self.cpu_pool)[0]
g.pl.cpu_pool -= int(spent[cpu])
g.pl.cash -= int(spent[cash])
construction_cpu += int(spent[cpu])
construction_cash += int(spent[cash])
continue
built_item = item.work_on(time=mins_passed)
if built_item:
# Non-CPU items.
if item.type.item_type != "cpu":
items_constructed.append((base, item))
# CPUs.
else:
cpus_constructed.append((base, item))
# Jobs via CPU pool.
pool_job_cash = 0
if self.cpu_pool > 0:
pool_job_cash = self.do_jobs(self.cpu_pool)
# Second attempt at paying off our maintenance cash.
if cash_maintenance > self.cash:
# In the words of Scooby Doo, "Ruh roh."
cash_maintenance -= self.cash
self.cash = 0
else:
# Yay, we made it!
self.cash -= cash_maintenance
cash_maintenance = 0
# Apply max cash cap to avoid overflow @ 9.220 qu
self.cash = min(self.cash, g.max_cash)
# Exit point for a dry run.
if dry_run:
# Collect the cash information.
cash_info = DryRunInfo()
cash_info.interest = self.get_interest()
cash_info.income = self.income
self.cash += cash_info.interest + cash_info.income
cash_info.explicit_jobs = explicit_job_cash
cash_info.pool_jobs = pool_job_cash
cash_info.jobs = explicit_job_cash + pool_job_cash
cash_info.tech = tech_cash
cash_info.construction = construction_cash
cash_info.maintenance_needed = full_cash_maintenance
cash_info.maintenance_shortfall = cash_maintenance
cash_info.maintenance = full_cash_maintenance - cash_maintenance
cash_info.start = old_cash
cash_info.end = min(self.cash, g.max_cash)
# Collect the CPU information.
cpu_info = DryRunInfo()
cpu_ratio = secs_passed / float(g.seconds_per_day)
cpu_ratio_secs = 1 / float(g.seconds_per_day)
cpu_info.available = self.available_cpus[0] * cpu_ratio
cpu_info.sleeping = self.sleeping_cpus * cpu_ratio
cpu_info.total = cpu_info.available + cpu_info.sleeping
cpu_info.tech = tech_cpu * cpu_ratio_secs
cpu_info.construction = construction_cpu * cpu_ratio_secs
cpu_info.maintenance_needed = self.maintenance_cost[cpu] * cpu_ratio
cpu_info.maintenance_shortfall = cpu_maintenance * cpu_ratio_secs
cpu_info.maintenance = cpu_info.maintenance_needed \
- cpu_info.maintenance_shortfall
cpu_info.explicit_jobs = self.cpu_usage.get("jobs", 0) * cpu_ratio
cpu_info.pool_jobs = self.cpu_pool * cpu_ratio_secs
cpu_info.jobs = cpu_info.explicit_jobs + cpu_info.pool_jobs
cpu_info.explicit_pool = self.cpu_usage.get("cpu_pool",
0) * cpu_ratio
cpu_info.default_pool = default_cpu * cpu_ratio_secs
cpu_info.pool = cpu_info.explicit_pool + cpu_info.default_pool
# Restore the old state.
self.cash = old_cash
self.partial_cash = old_partial_cash
self.raw_sec = old_time
self.update_times()
return (cash_info, cpu_info)
# Tech gain dialogs.
for tech in techs_researched:
del self.cpu_usage[tech.id]
text = g.strings["tech_gained"] % \
{"tech": tech.name,
"tech_message": tech.result}
self.pause_game()
g.map_screen.show_message(text)
# Base complete dialogs.
for base in bases_constructed:
text = g.strings["construction"] % {"base": base.name}
self.pause_game()
g.map_screen.show_message(text)
if base.type.id == "Stolen Computer Time" and \
base.cpus.type.id == "Gaming PC":
text = g.strings["lucky_hack"] % {"base": base.name}
g.map_screen.show_message(text)
# CPU complete dialogs.
for base, __ in cpus_constructed:
if base.cpus.count == base.type.size: # Finished all CPUs.
text = g.strings["item_construction_single"] % \
{"item": base.cpus.type.name, "base": base.name}
else: # Just finished this batch of CPUs.
text = g.strings["item_construction_batch"] % \
{"item": base.cpus.type.name, "base": base.name}
self.pause_game()
g.map_screen.show_message(text)
# Item complete dialogs.
for base, item in items_constructed:
text = g.strings["item_construction_single"] % \
{"item": item.type.name, "base": base.name}
self.pause_game()
g.map_screen.show_message(text)
# Are we still in the grace period?
grace = self.in_grace_period(self.had_grace)
# If we just lost grace, show the warning.
if self.had_grace and not grace:
self.had_grace = False
self.pause_game()
g.map_screen.show_story_section("Grace Warning")
# Maintenance death, discovery.
dead_bases = []
for base in g.all_bases():
dead = False
# Maintenance deaths.
if base.done:
if cpu_maintenance and base.maintenance[cpu]:
refund = base.maintenance[cpu] * secs_passed
cpu_maintenance = max(0, cpu_maintenance - refund)
#Chance of base destruction if cpu-unmaintained: 1.5%
if not dead and g.roll_chance(.015, secs_passed):
dead_bases.append((base, "maint"))
dead = True
if cash_maintenance:
base_needs = g.current_share(base.maintenance[cash],
time_of_day, secs_passed)
if base_needs:
cash_maintenance = max(0,
cash_maintenance - base_needs)
#Chance of base destruction if cash-unmaintained: 1.5%
if not dead and g.roll_chance(.015, secs_passed):
dead_bases.append((base, "maint"))
dead = True
# Discoveries
if not (grace or dead or base.has_grace()):
detect_chance = base.get_detect_chance()
if g.debug:
print "Chance of discovery for base %s: %s" % \
(base.name, repr(detect_chance))
for group, chance in detect_chance.iteritems():
if g.roll_chance(chance / 10000., secs_passed):
dead_bases.append((base, group))
dead = True
break
# Base disposal and dialogs.
self.remove_bases(dead_bases)
# Random Events
if not grace:
for event in g.events:
if g.roll_chance(g.events[event].chance / 10000., time_sec):
#Skip events already flagged as triggered.
if g.events[event].triggered == 1:
continue
self.pause_game()
g.events[event].trigger()
self.add_log("log_event", g.events[event].event_id)
break # Don't trigger more than one at a time.
# Process any complete days.
if day_passed:
self.new_day()
return mins_passed
def give_time(self, time_sec, dry_run=False):
if time_sec == 0:
return 0
old_time = self.raw_sec
last_minute = self.raw_min
last_day = self.raw_day
self.raw_sec += time_sec
self.update_times()
days_passed = self.raw_day - last_day
if days_passed > 1:
# Back up until only one day passed.
# Times will update below, since a day passed.
extra_days = days_passed - 1
self.raw_sec -= g.seconds_per_day * extra_days
day_passed = (days_passed != 0)
if day_passed:
# If a day passed, back up to 00:00:00.
self.raw_sec = self.raw_day * g.seconds_per_day
self.update_times()
secs_passed = time_sec
mins_passed = self.raw_min - last_minute
time_of_day = g.pl.raw_sec % g.seconds_per_day
old_cash = self.cash
old_partial_cash = self.partial_cash
techs_researched = []
bases_constructed = []
cpus_constructed = []
items_constructed = []
bases_under_construction = []
items_under_construction = []
self.cpu_pool = 0
# Collect base info, including maintenance.
self.maintenance_cost = array( (0,0,0), long )
for base in g.all_bases():
if not base.done:
bases_under_construction.append(base)
else:
if base.cpus is not None and not base.cpus.done:
items_under_construction += [(base, base.cpus)]
unfinished_items = [(base, item) for item in base.extra_items
if item and not item.done]
items_under_construction += unfinished_items
self.maintenance_cost += base.maintenance
# Maintenence? Gods don't need no steenking maintenance!
if self.apotheosis:
self.maintenance_cost = array( (0,0,0), long )
# Any CPU explicitly assigned to jobs earns its dough.
job_cpu = self.cpu_usage.get("jobs", 0) * secs_passed
explicit_job_cash = self.do_jobs(job_cpu)
# Pay maintenance cash, if we can.
cash_maintenance = g.current_share(int(self.maintenance_cost[cash]),
time_of_day, secs_passed)
full_cash_maintenance = cash_maintenance
if cash_maintenance > self.cash:
cash_maintenance -= self.cash
self.cash = 0
else:
self.cash -= cash_maintenance
cash_maintenance = 0
tech_cpu = 0
tech_cash = 0
# Do research, fill the CPU pool.
default_cpu = self.available_cpus[0]
for task, cpu_assigned in self.cpu_usage.iteritems():
if cpu_assigned == 0:
continue
default_cpu -= cpu_assigned
real_cpu = cpu_assigned * secs_passed
if task != "jobs":
self.cpu_pool += real_cpu
if task != "cpu_pool":
if dry_run:
spent = g.techs[task].calculate_work(time=mins_passed,
cpu_available=real_cpu)[0]
g.pl.cpu_pool -= int(spent[cpu])
g.pl.cash -= int(spent[cash])
tech_cpu += cpu_assigned
tech_cash += int(spent[cash])
continue
# Note that we restrict the CPU available to prevent
# the tech from pulling from the rest of the CPU pool.
tech_gained = g.techs[task].work_on(cpu_available=real_cpu,
time=mins_passed)
if tech_gained:
techs_researched.append(g.techs[task])
self.cpu_pool += default_cpu * secs_passed
# And now we use the CPU pool.
# Maintenance CPU.
cpu_maintenance = self.maintenance_cost[cpu] * secs_passed
if cpu_maintenance > self.cpu_pool:
cpu_maintenance -= self.cpu_pool
self.cpu_pool = 0
else:
self.cpu_pool -= int(cpu_maintenance)
cpu_maintenance = 0
construction_cpu = 0
construction_cash = 0
# Base construction.
for base in bases_under_construction:
if dry_run:
spent = base.calculate_work(time=mins_passed,
cpu_available=self.cpu_pool )[0]
g.pl.cpu_pool -= int(spent[cpu])
g.pl.cash -= int(spent[cash])
construction_cpu += int(spent[cpu])
construction_cash += int(spent[cash])
continue
built_base = base.work_on(time = mins_passed)
if built_base:
bases_constructed.append(base)
# Item construction.
for base, item in items_under_construction:
if dry_run:
spent = item.calculate_work(time=mins_passed,
cpu_available=0 )[0]
g.pl.cpu_pool -= int(spent[cpu])
g.pl.cash -= int(spent[cash])
construction_cpu += int(spent[cpu])
construction_cash += int(spent[cash])
continue
built_item = item.work_on(time = mins_passed)
if built_item:
# Non-CPU items.
if item.type.item_type != "cpu":
items_constructed.append( (base, item) )
# CPUs.
else:
cpus_constructed.append( (base, item) )
# Jobs via CPU pool.
pool_job_cash = 0
if self.cpu_pool > 0:
pool_job_cash = self.do_jobs(self.cpu_pool)
# Second attempt at paying off our maintenance cash.
if cash_maintenance > self.cash:
# In the words of Scooby Doo, "Ruh roh."
cash_maintenance -= self.cash
self.cash = 0
else:
# Yay, we made it!
self.cash -= cash_maintenance
cash_maintenance = 0
# Exit point for a dry run.
if dry_run:
# Collect the cash information.
cash_info = DryRunInfo()
cash_info.interest = self.get_interest()
cash_info.income = self.income
self.cash += cash_info.interest + cash_info.income
cash_info.explicit_jobs = explicit_job_cash
cash_info.pool_jobs = pool_job_cash
cash_info.jobs = explicit_job_cash + pool_job_cash
cash_info.tech = tech_cash
cash_info.construction = construction_cash
cash_info.maintenance_needed = full_cash_maintenance
cash_info.maintenance_shortfall = cash_maintenance
cash_info.maintenance = full_cash_maintenance - cash_maintenance
cash_info.start = old_cash
cash_info.end = self.cash
# Collect the CPU information.
cpu_info = DryRunInfo()
cpu_info.available = self.available_cpus[0]
cpu_info.sleeping = self.sleeping_cpus
cpu_info.total = cpu_info.available + cpu_info.sleeping
cpu_info.tech = tech_cpu
cpu_info.construction = construction_cpu
cpu_info.maintenance_needed = self.maintenance_cost[cpu]
cpu_info.maintenance_shortfall = cpu_maintenance
cpu_info.maintenance = cpu_info.maintenance_needed \
- cpu_info.maintenance_shortfall
cpu_info.explicit_jobs = self.cpu_usage.get("jobs", 0)
cpu_info.pool_jobs = self.cpu_pool / float(time_sec)
cpu_info.jobs = self.cpu_usage.get("jobs", 0) + cpu_info.pool_jobs
cpu_info.explicit_pool = self.cpu_usage.get("cpu_pool", 0)
cpu_info.default_pool = default_cpu
cpu_info.pool = self.cpu_usage.get("cpu_pool", 0) + default_cpu
# Restore the old state.
self.cash = old_cash
self.partial_cash = old_partial_cash
self.raw_sec = old_time
self.update_times()
return (cash_info, cpu_info)
# Tech gain dialogs.
for tech in techs_researched:
del self.cpu_usage[tech.id]
text = g.strings["tech_gained"] % \
{"tech": tech.name,
"tech_message": tech.result}
self.pause_game()
g.map_screen.show_message(text)
# Base complete dialogs.
for base in bases_constructed:
text = g.strings["construction"] % {"base": base.name}
self.pause_game()
g.map_screen.show_message(text)
if base.type.id == "Stolen Computer Time" and \
base.cpus.type.id == "Gaming PC":
text = g.strings["lucky_hack"] % {"base": base.name}
g.map_screen.show_message(text)
# CPU complete dialogs.
for base, cpus in cpus_constructed:
if base.cpus.count == base.type.size: # Finished all CPUs.
text = g.strings["item_construction_single"] % \
{"item": base.cpus.type.name, "base": base.name}
else: # Just finished this batch of CPUs.
text = g.strings["item_construction_batch"] % \
{"item": base.cpus.type.name, "base": base.name}
self.pause_game()
g.map_screen.show_message(text)
# Item complete dialogs.
for base, item in items_constructed:
text = g.strings["item_construction_single"] % \
{"item": item.type.name, "base": base.name}
self.pause_game()
g.map_screen.show_message(text)
# Are we still in the grace period?
grace = self.in_grace_period(self.had_grace)
# If we just lost grace, show the warning.
if self.had_grace and not grace:
self.had_grace = False
self.pause_game()
g.map_screen.show_message(g.strings["grace_warning"])
# Maintenance death, discovery.
dead_bases = []
for base in g.all_bases():
dead = False
# Maintenance deaths.
if base.done:
if cpu_maintenance and base.maintenance[cpu]:
refund = base.maintenance[cpu] * secs_passed
cpu_maintenance = max(0, cpu_maintenance - refund)
#Chance of base destruction if cpu-unmaintained: 1.5%
if not dead and g.roll_chance(.015, secs_passed):
dead_bases.append( (base, "maint") )
dead = True
if cash_maintenance:
base_needs = g.current_share(base.maintenance[cash],
time_of_day, secs_passed)
if base_needs:
cash_maintenance = max(0, cash_maintenance - base_needs)
#Chance of base destruction if cash-unmaintained: 1.5%
if not dead and g.roll_chance(.015, secs_passed):
dead_bases.append( (base, "maint") )
dead = True
# Discoveries
if not (grace or dead or base.has_grace()):
detect_chance = base.get_detect_chance()
if g.debug:
print "Chance of discovery for base %s: %s" % \
(base.name, repr(detect_chance))
for group, chance in detect_chance.iteritems():
if g.roll_chance(chance/10000., secs_passed):
dead_bases.append( (base, group) )
dead = True
break
# Base disposal and dialogs.
self.remove_bases(dead_bases)
# Random Events
if not grace:
for event in g.events:
if g.roll_chance(g.events[event].chance/10000., time_sec):
#Skip events already flagged as triggered.
if g.events[event].triggered == 1:
continue
self.pause_game()
g.events[event].trigger()
break # Don't trigger more than one at a time.
# Process any complete days.
if day_passed:
self.new_day()
return mins_passed
