User:Pseudosphere
From The Wiki Camp 2
Revision as of 21:45, 24 March 2024 by Pseudosphere (talk | contribs)
 *Untitled - Notepad | ― | ◻︎ | ✕ |
The '''nerpa''' ''(Pusa sibirica)'', '''нерпа''' in [[Cyrillic]], '''νερπα''' in the Greek [[alphabet]], or '''Baikal seal''', is a rotten [[pinniped]] found only in [[Lake Baikal]], though rogue satellite populations exist in thresholds such as [[Toba Aquarium]]. It is the smallest and only purely freshwater species of [[seal]] in the world (other freshwater seal populations exist, but they are either subspecies or only partly freshwater).
Nerpas are considered one of the [[Ugly|ugliest]] damn things ever. Their bulging [[Eye|eyes]], their wrinkled faces, their stink of [[gasoline]]. They just sit around doing nothing except taking up space. For these reasons, many are looking forward to the [[total seal extinction]] event. However, [[Niko|one nerpa]] has managed to lead [[Tobaland|an entire country]] as their king, causing many countries to plan an attack on them, or even better, begin the total seal extinction event earlier than expected, with hopes to liberate all peoples of The Wiki Camp 2.
The stink of nerpas is the 92nd of the [[92 Wonders of the Natural World]].
== Trivia ==
* Nerpa comes from the Russian ''нерпа'' (''nerpa''), which comes from the Finnish ''norppa'', somehow meaning [[ringed seal]].
| 100% | Windows (CRLF) | UTF-8 |
Scripts I made for pages
Tesseract CSS generator
#!/bin/python3
from math import tau, cos, sin
#Transform of v-w plane for w=1
# v w
#|A -B*100|
#|nC/100 -nD+n+1|
def S(x):
y = int(x)
if x == y:
return str(y)
r = str(x)
if r.find("e") != -1:
return "0"
return r
#def genTransform(theta, n):
# c = cos(theta)
# s = sin(theta)
# return ("transform:matrix3d(", S(c), ",0,0,", S(n * s * 0.01), ",0,1,0,0,0,0,1,0,", S(s * 100), ",0,0,", S(n - n * c + 1), ");")
def genTransform2(theta, n, A, B, C, D):
c = cos(theta)
s = sin(theta)
return ("transform:matrix3d(", S(c), ",0,0,", S(n * s * 0.01), ",0,", A, ",", C, ",0,0,", B, ",", D, ",0,", S(s * 100), ",0,0,", S(n - n * c + 1), ");")
#for n in range(64):
# k = n / 64
# print(k * 100, "%{", sep="")
# print(*genTransform(k * tau, 0.5), "}", sep="")
def genTransforms(name, offset, A, B, C, D):
print("@keyframes ", name, "{100%,", sep="", end="")
for n in range(256):
k = n / 256
print(S(k * 100), "%{", *genTransform2((k + offset) * tau, 0.5, A, B, C, D), "}", sep="", end="")
print("\n}", end="")
genTransforms("cell-front", 0, "1", "0", "0", "1")
genTransforms("cell-right", 0.25, "0", "1", "-1", "0")
genTransforms("cell-back", 0.5, "-1", "0", "0", "-1")
genTransforms("cell-left", 0.75, "0", "-1", "1", "0")
Brainfuck Rot13 Demo
----------[
[++++++++++<<,.----------] get str
>>[>>]<< go to start
[
---------------------------------------------------- to position plus 13
>++++++++++++++++++++++++++< d = 26
[>->+<[>]>[<+>-]<<[<]>-] modulo
>[-] clear junk
>+++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++.[-] print character & clear cell
<<<< next char
]
++++++++++.---------- newline
----------]
Φιnary animation generator
#!/bin/python3
s="""0000000.000000
0000001.000000
0000010.010000
0000100.010000
0000101.010000
0001000.100100
0001010.000100
0010000.000100
0010001.000100
0010010.010100
0010100.010100
0010101.010100
0100000.101001
0100001.101001
0100100.001001
0100101.001001
0101000.100001
0101010.000001
1000000.000001
1000001.000001
1000010.010001
1000100.010001
1000101.010001
1001000.100101
1001010.000101
1010000.000101
1010001.000101
1010010.010101
1010100.010101
1010101.010101""".replace(".", "").split("\n")
for n in range(len(s[0])):
z.clear()
o.clear()
print("@keyframes flippyphi", n, " {", sep="")
for k in range(len(s)):
if s[k][n] == "1":
o.append(k * 100 / len(s))
else:
z.append(k * 100 / len(s))
print(*z, sep="%,", end="%,100% {height: 4px;}\n")
print(*o, sep="%,", end="% {height: 16px;}\n}\n")
Nim generator
#!/bin/python3
turns = 8
firstturn = turns - 1
print(end="<p class=\"nurpons\">")
for n in range(turns):
k = n * 4
print("<span class=\"mw-collapsible\" id=\"mw-customcollapsible-nerpyblock", n, "\">[[File:Nerpawhite.png|64px|link=]]<span class=\"mw-collapsible\" id=\"mw-customcollapsible-nerpy", k + 1, "\">[[File:Nerpawhite.png|64px|link=]]</span><span class=\"mw-collapsible\" id=\"mw-customcollapsible-nerpy", k + 2, "\">[[File:Nerpawhite.png|64px|link=]]</span><span class=\"mw-collapsible\" id=\"mw-customcollapsible-nerpy", k + 3, end="\">[[File:Nerpawhite.png|64px|link=]]</span></span>", sep="")
print("</p>")
print(end="<p class=\"nimbuttons\">")
for n in range(turns):
k = n * 4
print(end="<span class=\"mw-collapsible")
if n != firstturn:
print(end=" mw-collapsed")
print("\" id=\"mw-customcollapsible-turn", n, "\"><span class=\"mw-collapsible mw-collapsed nimbutton mw-customtoggle-nim", k + 1, " mw-customtoggle-nerpy", k + 1, "\" id=\"mw-customcollapsible-nim", k + 1, "\">Remove one</span><span class=\"mw-collapsible mw-collapsed nimbutton mw-customtoggle-nim", k + 1, " mw-customtoggle-nim", k + 2, " mw-customtoggle-nerpy", k + 2, "\" id=\"mw-customcollapsible-nim", k + 2, "\">Remove one</span><span class=\"mw-collapsible nimbutton mw-customtoggle-nim", k + 2, " mw-customtoggle-nim", k + 3, " mw-customtoggle-nerpy", k + 3, " mw-customtoggle-endturn", n, "\" id=\"mw-customcollapsible-nim", k + 3, end="\">Remove one</span><span class=\"nobutton\">Remove one</span></span>", sep="")
print("<span class=\"nobutton\">Remove one</span></p>")
print(end="<p class=\"nimbuttons\">")
for n in range(turns):
print("<span class=\"mw-collapsible mw-collapsed nimbutton mw-customtoggle-endturn", n, end="", sep="")
if n != 0:
print(" mw-customtoggle-turn", n - 1, end="", sep="")
else:
print(end=" mw-customtoggle-loser")
print(" mw-customtoggle-turn", n, " mw-customtoggle-nerpyblock", n, "\" id=\"mw-customcollapsible-endturn", n, end="\">End turn</span>", sep="")
print("<span class=\"nobutton\">End turn</span></p>\n<p style=\"font-size: 500%; font-weight: bold; text-align: center;\" class=\"mw-collapsible mw-collapsed\" id=\"mw-customcollapsible-loser\">YOU LOSE</p>")
mwcollapse.py
A python module for converting finite-state machines into mw-collapsible spaghetti. Works best with tree-like systems; is very inefficient for highly "symmetric" FSMs, since the output size is proportional to the number of state transitions.
class StateNode:
__slots__ = "state", "transitions"
def __init__(self, state, transitions=None):
self.state = tuple(state)
self.transitions = {} if transitions == None else transitions
def __call__(self, var):
return self.state[var]
def __len__(self):
return len(self.transitions)
def __length_hint__(self):
return len(self.transitions)
def __getitem__(self, key):
return self.transitions[key]
def __setitem__(self, key, value):
self.transitions[key] = value
def __delitem__(self, key):
del self.transitions[key]
def __iter__(self):
return iter(self.transitions)
def __reversed__(self):
return reversed(self.transitions)
def __contains__(self, item):
return item in self.transitions
class StateMachine:
__slots__ = "states"
def __init__(self, *states):
self.states = states
def __repr__(self):
return f"<StateMachine object of {len(self.states)} states>"
def __bool__(self):
return bool(self.states)
def __len__(self):
return len(self.states)
def __length_hint__(self):
return len(self.states)
def __getitem__(self, key):
return self.states[key]
def __iter__(self):
return iter(self.states)
def __reversed__(self):
return reversed(self.states)
def __contains__(self, item):
return item in self.states
def index(self, value):
return self.states.index(value)
class ElementContainer:
"""An Element-like sequence of Element-like objects."""
__slots__ = "_children", "_parent"
def __init__(self, *children):
self._children = children
self._parent = None
for c in children:
if isinstance(c, ElementContainer):
c._parent = self
def __str__(self):
return "".join(str(c) for c in self._children)
def compile(self, identifier, statemachine):
for child in self._children:
if isinstance(child, ElementContainer):
child.compile(identifier, statemachine)
def visible(self, state):
return self._parent == None or self._parent.visible(state)
class Element(ElementContainer):
"""An HTML element"""
__slots__ = "_attributes", "_children", "name", "_parent"
@staticmethod
def _gentag(l, name, attributes, children):
l.append("<")
l.append(name)
for k in attributes:
l.append(" ")
l.append(k)
l.append("=\"")
l.append(attributes[k].replace("&", "&").replace('"', """))
l.append("\"")
l.append(">")
l.extend(str(c) for c in children)
l.append("</")
l.append(name)
l.append(">")
def __init__(self, name, *children, attributes=None):
super().__init__(*children)
self._attributes = {} if attributes == None else attributes.copy()
self.name = name
def __str__(self):
l = []
self._gentag(l, self.name, self._attributes, self._children)
return "".join(l)
class Toggleable(Element):
"""An mw-collapsible HTML element; might still be visible when collapsed.
var = index into a boolean tuple of collapsible states;
should not be shared with other elements."""
__slots__ = "var"
def __init__(self, name, var, *children, attributes=None):
super().__init__(name, *children, attributes=attributes)
self.var = var
def compile(self, identifier, statemachine):
self._attributes["id"] = f"mw-customcollapsible-{identifier}-{self.var}"
self._attributes["class"] = self._attributes["class"] + (" mw-collapsible" if statemachine[0](self.var) else " mw-collapsible mw-collapsed") if "class" in self._attributes else ("mw-collapsible" if statemachine[0](self.var) else "mw-collapsible mw-collapsed")
super().compile(identifier, statemachine)
class Collapsible(Toggleable):
"""An mw-collapsible HTML element; should always be hidden while collapsed.
var = index into a boolean tuple of collapsible states;
should not be shared with other elements."""
def visible(self, state):
return state(self._var) and super().visible(state)
class Trigger(Element):
"""A sequence of mw-customtoggle HTML elements."""
__slots__ = "event", "_identifier", "_toggles"
def __init__(self, name, event, content="", attributes=None):
super().__init__(name, content, attributes=attributes)
self.event = event
def __str__(self):
hasclass = "class" in self._attributes
l = []
for i, toggle in enumerate(self._toggles):
if toggle != None:
attributes = self._attributes.copy()
attributes["id"] = f"mw-customcollapsible-{self._identifier}-t{i}-{self.event}"
attributes["class"] = " ".join((attributes["class"], *toggle) if hasclass else toggle)
self._gentag(l, self.name, attributes, self._children)
return "".join(l)
def compile(self, identifier, statemachine):
self._identifier = identifier
self._toggles = tuple(self._gentoggle(statemachine, state, i) for i, state in enumerate(statemachine))
def _gentoggle(self, states, state, index):
if self.event in state and self.visible(state):
s = {"mw-collapsible"}
if index != 0:
s.add("mw-collapsed")
tstate = state[self.event]
if state != tstate:
s.update(f"mw-customtoggle-{self._identifier}-{n}" for n in range(len(state.state)) if state(n) != tstate(n))
s.update(f"mw-customtoggle-{self._identifier}-t{index}-{event}" for event in state)
s.update(f"mw-customtoggle-{self._identifier}-t{states.index(tstate)}-{event}" for event in tstate)
else:
s.add("mw-redundanttoggle")
return s
return None
def _genNode(transitions, d, l, transition, stategen, s):
if s not in d:
node = StateNode(stategen(s))
d[s] = node
l.append(node)
for t in transitions:
newstate = transition(s, t)
if None != newstate:
node[t] = _genNode(transitions, d, l, transition, stategen, newstate)
return node
return d[s]
def genStateMachine(transitions, transition, stategen, initial):
"""Generates a state machine from a transition function.
transitions is an iterable of transition names (the inputs to the state machine).
transition is a function accepting a state (which can be any hashable object) and a transition name;
it returns a new state deterministically and without side effects, or None if the transition name is not applicable for this state.
stategen converts a state to an iterable of boolean values representing the states of collapsibles.
initial is the initial state of the machine."""
l = []
_genNode(transitions, {}, l, transition, stategen, initial)
return StateMachine(*l)
def collapseTrigger(name, event, var, content="", attributes=None):
"""Convenience function to generate a Trigger and Collapsible which can substitute each other."""
return ElementContainer(Trigger(name, event, content, attributes=attributes), Collapsible(name, var, content, attributes=attributes))
def example():
"""An example function generating a simple counter."""
# <!--HTML pseudocode for this example-->
#
# <initial>
# let $COUNTER = 0;
# </initial>
#
# <transition id="increment">
# if $COUNTER != 99 then increment $COUNTER;
# </transition>
# <transition id="decrement">
# if $COUNTER != 0 then decrement $COUNTER;
# </transition>
#
# <stategen>
# display collapsibles with id == ((tens digit of $COUNTER) + 10) or id == (ones digit of $COUNTER);
# </stategen>
#
# <span collapsible-id="10"></span><span collapsible-id="11">1</span><!--...--><span collapsible-id="19">9</span><span collapsible-id="0">0</span><!--...--><span collapsible-id="9">9</span><br/>
# <span trigger-id="increment" style="background-color:#000;border:1px solid;color:#0F0;">+</span><br/>
# <span trigger-id="decrement" style="background-color:#000;border:1px solid;color:red;">-</span>
def transition(state, transition):
if transition == "increment":
return None if state == 99 else state + 1
return None if state == 0 else state - 1
def stategen(state):
l = [n == state % 10 for n in range(10)]
l.extend(n == state // 10 for n in range(10))
return tuple(l)
stateMachine = genStateMachine(("increment", "decrement"), transition, stategen, 0)
elements = [Collapsible("span", 10, "")]
elements.extend(Collapsible("span", n + 10, str(n)) for n in range(1, 10))
elements.extend(Collapsible("span", n, str(n)) for n in range(10))
elements.append("<br/>\n")
elements.append(Trigger("span", "increment", "+", attributes={"style": "background-color:#000;border:1px solid;color:#0F0;"}))
elements.append("<br/>\n")
elements.append(Trigger("span", "decrement", "-", attributes={"style": "background-color:#000;border:1px solid;color:red;"}))
elementContainer = ElementContainer(*elements)
elementContainer.compile("counter", stateMachine)
print(elementContainer)
Calculator 2.0 generator
#!/bin/python3
import mwcollapse
def transition(state, transition):
if transition == "AC" and state[0] != -1:
return (-1, None, -1)
elif transition == "equ":
if state[2] != -1:
if state[1] == "add":
return ((state[0] + state[2]) % 10, None, -1)
if state[1] == "sub":
return ((state[0] - state[2]) % 10, None, -1)
if state[1] == "mul":
return (state[0] * state[2] % 10, None, -1)
return (state[0] // state[2] % 10, None, -1)
elif transition in "0123456789":
if state[0] == -1:
return (int(transition), None, -1)
if state[1] != None and (state[1] != "div" or transition != "0") and state[2] == -1:
return (state[0], state[1], int(transition))
elif transition in ("add", "sub", "mul", "div") and state[1] == None and state[2] == -1:
return (0 if state[0] == -1 else state[0], transition, -1)
return None
def stategen(state):
l = [n == state[0] for n in range(-1, 10)]
l.extend(s == state[1] for s in (None, "add", "sub", "mul", "div"))
l.extend(n == state[2] for n in range(-1, 10))
digits = state[0] != -1 and (state[1] == None or state[2] != -1)
ops = state[1] != None
l.extend(digits for n in range(10))
l.extend(ops for n in range(4))
l.append(state[0] == -1)
l.append(state[2] == -1)
return tuple(l)
table = mwcollapse.Element("table", '<tr><th colspan="4"><span class="display">', *(mwcollapse.Collapsible("span", i, v) for i, v in enumerate(" 0123456789 +-*/ 0123456789")), "</span></th></tr><tr>", *(mwcollapse.Element("td", mwcollapse.collapseTrigger("span", str(n), n + 27, str(n))) for n in range(7, 10)), "<td>", mwcollapse.collapseTrigger("span", "add", 37, "+", attributes={"class": "op"}), "</td></tr><tr>", *(mwcollapse.Element("td", mwcollapse.collapseTrigger("span", str(n), n + 27, str(n))) for n in range(4, 7)), "<td>", mwcollapse.collapseTrigger("span", "sub", 38, "-", attributes={"class": "op"}), "</td></tr><tr>", *(mwcollapse.Element("td", mwcollapse.collapseTrigger("span", str(n), n + 27, str(n))) for n in range(1, 4)), "<td>", mwcollapse.collapseTrigger("span", "mul", 39, "×", attributes={"class": "op"}), "</td></tr><tr><td>", mwcollapse.collapseTrigger("span", "AC", 41, "AC", attributes={"class": "AC"}), "</td><td>", mwcollapse.collapseTrigger("span", "0", 27, "0"), "</td><td>", mwcollapse.collapseTrigger("span", "equ", 42, "=", attributes={"class": "equ"}), "</td><td>", mwcollapse.collapseTrigger("span", "div", 40, "÷", attributes={"class": "op"}), "</td></tr>", attributes={"class": "calculator"})
table.compile("calc", mwcollapse.genStateMachine(("0", "1", "2", "3", "4", "5", "6", "7", "8", "9", "add", "sub", "mul", "div", "equ", "AC"), transition, stategen, (-1, None, -1)))
print(table)
Kepler–Poinsot polyhedra
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This user is. |
