NAME

? ? varmain

PACKAGE CONTENTS

? ? arc

? ? arcsub (package)

? ? blind

? ? blindsub (package)

? ? cap

? ? capsub (package)

? ? coupling

? ? couplingsub (package)

? ? cross

? ? crossover

? ? crossoversub (package)

? ? crosssub (package)

? ? custom

? ? cylinderstack

? ? cylinderstacksub (package)

? ? div

? ? divsub (package)

? ? dummy_var

? ? eqfactory

? ? filter

? ? filtersub (package)

? ? flange

? ? flangesub (package)

? ? gasket

? ? gasketsub (package)

? ? instrsub (package)

? ? instruments

? ? miscellaneous

? ? miscellaneoussub (package)

? ? multiport

? ? multisub (package)

? ? offset

? ? offsetsub (package)

? ? pipe

? ? pipesub (package)

? ? primitiv

? ? pump

? ? pumpsub (package)

? ? reducer

? ? reducersub (package)

? ? squareconduits

? ? squareconduitssub (package)

? ? supports

? ? supportssub (package)

? ? tee

? ? teesub (package)

? ? valve

? ? valvsub (package)

? ? var_basic

? ? var_util

? ? weld_ent

? ? weldentsub (package)

FUNCTIONS

? ? CurrentSpace(...)

? ? LOFT(...)

? ? acos(x, /)

? ? ? ? Return the arc cosine (measured in radians) of x.

? ? acosh(x, /)

? ? ? ? Return the inverse hyperbolic cosine of x.

? ? activate(...)

? ? asin(x, /)

? ? ? ? Return the arc sine (measured in radians) of x.

? ? asinh(x, /)

? ? ? ? Return the inverse hyperbolic sine of x.

? ? atan(x, /)

? ? ? ? Return the arc tangent (measured in radians) of x.

? ? atan2(y, x, /)

? ? ? ? Return the arc tangent (measured in radians) of y/x.

? ? ? ? Unlike atan(y/x), the signs of both x and y are considered.

? ? atanh(x, /)

? ? ? ? Return the inverse hyperbolic tangent of x.

? ? ceil(x, /)

? ? ? ? Return the ceiling of x as an Integral.

? ? ? ? This is the smallest integer >= x.

? ? copysign(x, y, /)

? ? ? ? Return a float with the magnitude (absolute value) of x but the sign of y.

? ? ? ? On platforms that support signed zeros, copysign(1.0, -0.0)

? ? ? ? returns -1.0.

? ? cos(x, /)

? ? ? ? Return the cosine of x (measured in radians).

? ? cosh(x, /)

? ? ? ? Return the hyperbolic cosine of x.

? ? degrees(x, /)

? ? ? ? Convert angle x from radians to degrees.

? ? dynloadVariant(name)

? ? erf(x, /)

? ? ? ? Error function at x.

? ? erfc(x, /)

? ? ? ? Complementary error function at x.

? ? exp(x, /)

? ? ? ? Return e raised to the power of x.

? ? expm1(x, /)

? ? ? ? Return exp(x)-1.

? ? ? ? This function avoids the loss of precision involved in the direct evaluation of exp(x)-1 for small x.

? ? fabs(x, /)

? ? ? ? Return the absolute value of the float x.

? ? factorial(x, /)

? ? ? ? Find x!.

? ? ? ? Raise a ValueError if x is negative or non-integral.

? ? floor(x, /)

? ? ? ? Return the floor of x as an Integral.

? ? ? ? This is the largest integer <= x.

? ? fmod(x, y, /)

? ? ? ? Return fmod(x, y), according to platform C.

? ? ? ? x % y may differ.

? ? frexp(x, /)

? ? ? ? Return the mantissa and exponent of x, as pair (m, e).

? ? ? ? m is a float and e is an int, such that x = m * 2.**e.

? ? ? ? If x is 0, m and e are both 0.? Else 0.5 <= abs(m) < 1.0.

? ? fsum(seq, /)

? ? ? ? Return an accurate floating point sum of values in the iterable seq.

? ? ? ? Assumes IEEE-754 floating point arithmetic.

? ? gamma(x, /)

? ? ? ? Gamma function at x.

? ? gcd(x, y, /)

? ? ? ? greatest common divisor of x and y

? ? hypot(x, y, /)

? ? ? ? Return the Euclidean distance, sqrt(x*x + y*y).

? ? isclose(a, b, *, rel_tol=1e-09, abs_tol=0.0)

? ? ? ? Determine whether two floating point numbers are close in value.

? ? ? ? ? rel_tol

? ? ? ? ? ? maximum difference for being considered "close", relative to the

? ? ? ? ? ? magnitude of the input values

? ? ? ? ? abs_tol

? ? ? ? ? ? maximum difference for being considered "close", regardless of the

? ? ? ? ? ? magnitude of the input values

? ? ? ? Return True if a is close in value to b, and False otherwise.

? ? ? ? For the values to be considered close, the difference between them

? ? ? ? must be smaller than at least one of the tolerances.

? ? ? ? -inf, inf and NaN behave similarly to the IEEE 754 Standard.? That

? ? ? ? is, NaN is not close to anything, even itself.? inf and -inf are

? ? ? ? only close to themselves.

? ? isfinite(x, /)

? ? ? ? Return True if x is neither an infinity nor a NaN, and False otherwise.

? ? isinf(x, /)

? ? ? ? Return True if x is a positive or negative infinity, and False otherwise.

? ? isnan(x, /)

? ? ? ? Return True if x is a NaN (not a number), and False otherwise.

? ? ldexp(x, i, /)

? ? ? ? Return x * (2**i).

? ? ? ? This is essentially the inverse of frexp().

? ? lgamma(x, /)

? ? ? ? Natural logarithm of absolute value of Gamma function at x.

? ? log(...)

? ? ? ? log(x, [base=math.e])

? ? ? ? Return the logarithm of x to the given base.

? ? ? ? If the base not specified, returns the natural logarithm (base e) of x.

? ? log10(x, /)

? ? ? ? Return the base 10 logarithm of x.

? ? log1p(x, /)

? ? ? ? Return the natural logarithm of 1+x (base e).

? ? ? ? The result is computed in a way which is accurate for x near zero.

? ? log2(x, /)

? ? ? ? Return the base 2 logarithm of x.

? ? mLine(...)

? ? mPoint(...)

? ? mSphere(...)

? ? mTransform(...)

? ? mVector(...)

? ? modf(x, /)

? ? ? ? Return the fractional and integer parts of x.

? ? ? ? Both results carry the sign of x and are floats.

? ? pow(x, y, /)

? ? ? ? Return x**y (x to the power of y).

? ? radians(x, /)

? ? ? ? Convert angle x from degrees to radians.

? ? remainder(x, y, /)

? ? ? ? Difference between x and the closest integer multiple of y.

? ? ? ? Return x - n*y where n*y is the closest integer multiple of y.

? ? ? ? In the case where x is exactly halfway between two multiples of

? ? ? ? y, the nearest even value of n is used. The result is always exact.

? ? sin(x, /)

? ? ? ? Return the sine of x (measured in radians).

? ? sinh(x, /)

? ? ? ? Return the hyperbolic sine of x.

? ? sqrt(x, /)

? ? ? ? Return the square root of x.

? ? tan(x, /)

? ? ? ? Return the tangent of x (measured in radians).

? ? tanh(x, /)

? ? ? ? Return the hyperbolic tangent of x.

? ? test()

? ? trunc(x, /)

? ? ? ? Truncates the Real x to the nearest Integral toward 0.

? ? ? ? Uses the __trunc__ magic method.

DATA

? ? ARC3D = pyvariant.p3dprimitive object at 0x000002A02CF81EB0

? ? ARC3D2 = pyvariant.p3dprimitive object at 0x000002A02CF81ED0

? ? ARC3D2_ = pyvariant.p3dprimitive object at 0x000002A02CF90C90

? ? ARC3DS = pyvariant.p3dprimitive object at 0x000002A02CF81EF0

? ? ARC3DS2 = pyvariant.p3dprimitive object at 0x000002A02CF90D10

? ? BOX = pyvariant.p3dprimitive object at 0x000002A02CF81F10

? ? CONE = pyvariant.p3dprimitive object at 0x000002A02CF81E90

? ? CON_HM = pyvariant.p3dprimitive object at 0x000002A02CF90CF0

? ? CON_MJ = pyvariant.p3dprimitive object at 0x000002A02CF90C50

? ? CON_OF = pyvariant.p3dprimitive object at 0x000002A02CF90C30

? ? CON_OM = pyvariant.p3dprimitive object at 0x000002A02CF90B90

? ? CON_PL = pyvariant.p3dprimitive object at 0x000002A02CF90C70

? ? CON_Q_ = pyvariant.p3dprimitive object at 0x000002A02CF90CB0

? ? CON_Q__Sub = pyvariant.p3dprimitive object at 0x000002A02CF90CD0

? ? CORNERBOX = pyvariant.p3dprimitive object at 0x000002A02CF90A90

? ? CPVX178 = pyvariant.p3dprimitive object at 0x000002A02D050510

? ? CUBE = pyvariant.p3dprimitive object at 0x000002A02CF81F30

? ? CYLINDER = pyvariant.p3dprimitive object at 0x000002A02CF81E70

? ? ELLIPSE = pyvariant.p3dprimitive object at 0x000002A02CF81E50

? ? ELLIPSOIDHEAD = pyvariant.p3dprimitive object at 0x000002A02CF900B0

? ? ELLIPSOIDHEAD2 = pyvariant.p3dprimitive object at 0x000002A02CF900D0

? ? ELLIPSOIDHEAD2TO1 = pyvariant.p3dprimitive object at 0x000002A02CF9017...

? ? ELLIPSOIDSEGMENT = pyvariant.p3dprimitive object at 0x000002A02CF90030

? ? FLATHEAD = pyvariant.p3dprimitive object at 0x000002A02CF90110

? ? HALFSPHERE = pyvariant.p3dprimitive object at 0x000002A02CF90050

? ? LINE = pyvariant.p3dprimitive object at 0x000002A02CF81E30

? ? PIPE = pyvariant.p3dprimitive object at 0x000002A02CF81DD0

? ? POINT = pyvariant.p3dprimitive object at 0x000002A02CF81E10

? ? PYRAMID = pyvariant.p3dprimitive object at 0x000002A02CF81F50

? ? PnP3dACPAdapterIgnoreWallThickness = True

? ? ROUNDRECT = pyvariant.p3dprimitive object at 0x000002A02CF81F70

? ? ROUNDRECTA = pyvariant.p3dprimitive object at 0x000002A02CF81F90

? ? SEMIELLIPSOIDHEAD = pyvariant.p3dprimitive object at 0x000002A02CF9019...

? ? SPHERE = pyvariant.p3dprimitive object at 0x000002A02CF90A10

? ? SPHERESEGMENT = pyvariant.p3dprimitive object at 0x000002A02CF81FD0

? ? STIFFENINGRING = pyvariant.p3dprimitive object at 0x000002A02CF90130

? ? TORISPHERICHEAD = pyvariant.p3dprimitive object at 0x000002A02CF90090

? ? TORISPHERICHEAD2 = pyvariant.p3dprimitive object at 0x000002A02CF90070

? ? TORISPHERICHEAD2TO1 = pyvariant.p3dprimitive object at 0x000002A02CF90...

? ? TORISPHERICHEADH = pyvariant.p3dprimitive object at 0x000002A02CF900F0

? ? TORUS = pyvariant.p3dprimitive object at 0x000002A02CF81FB0

? ? VARINDEX_ = <aqa.varmap.varindex.VarIndex object>

? ? defaultNozzleLength = 100.0

? ? defaultPipeLength = 100.0

? ? defaultTolerance = 0.001

? ? e = 2.718281828459045

? ? inf = inf

? ? mcE = 2.718281828459045

? ? mcPi = 3.141592653589793

? ? mcSqrt2 = 1.4142135623730956

? ? mcSqrt3 = 1.7320508075688772

? ? mcTome = 1.618033988749895

? ? nan = nan

? ? pi = 3.141592653589793

? ? tau = 6.283185307179586

FILE

? ? c:\program files\autodesk\autocad 2024\plnt3d\contentscripts\variants.zip\varmain\__init__.py

Help on p3dprimitive in varmain object:

varmain.BOX = class p3dprimitive(builtins.object)

?|? p3dprimitive() -> p3dprimitive object

?|

?|? Methods defined here:

?|

?|? __call__(self, /, *args, **kwargs)

?|? ? ? Call self as a function.

?|

?|? __getattribute__(self, name, /)

?|? ? ? Return getattr(self, name).

?|

?|? __init__(self, /, *args, **kwargs)

?|? ? ? Initialize self.? See help(type(self)) for accurate signature.

?|

?|? __repr__(self, /)

?|? ? ? Return repr(self).

?|

?|? directionAt(...)

?|? ? ? directionAt(n,inECS=0) ->mVector

?|

?|? ? ? return the direction of the nth connection point

?|? ? ? if inECS==1, return the direction in ECS coords

?|

?|? erase(...)

?|? ? ? erase body

?|

?|? extents(...)

?|? ? ? self -> (minPt, maxpt)

?|

?|? ? ? retrieve the body's extents

?|

?|? intersectWith(...)

?|? ? ? self,other

?|? ? ? intersect body self with other

?|

?|? numberOfPoints(...)

?|? ? ? numberOfPoints() -> int

?|

?|? ? ? return number of (connection) points

?|

?|? parameters(...)

?|? ? ? parameters() -> ParamValue

?|

?|? ? ? return the element's construction parameters

?|

?|? pointAt(...)

?|? ? ? pointAt(n,inECS=0) -> mPoint

?|

?|? ? ? return the position of the nth connection point

?|? ? ? if inECS==1, return the point in ECS coords

?|

?|? rotateX(...)

?|? ? ? rotateX(a) -> self

?|

?|? ? ? rotate the element round the X-axis by a degrees

?|

?|? rotateY(...)

?|? ? ? rotateY(a) -> self

?|

?|? ? ? rotate the element round the Y-axis by a degrees

?|

?|? rotateZ(...)

?|? ? ? rotateZ(a) -> self

?|

?|? ? ? rotate the element round the Z-axis by a degrees

?|

?|? saveMeshAs(...)

?|? ? ? self,name -> retrieve the body's mesh and save it as *.obj

?|

?|? setBlockName(...)

?|? ? ? self,name -> change the block name to 'name'

?|

?|? setBlockProperties(...)

?|? ? ? self,units,comment? -> change the block properties

?|

?|? setColor(...)

?|? ? ? self,c -> Set Color c

?|

?|? setEndpoints(...)

?|? ? ? setEndPoints(p0,p1) -> set Endpoints of Line

?|

?|? setLinearDimension(...)

?|? ? ? self,name,p0,p1 -> Set Dimension named name to go from p1 to p1

?|

?|? setPoint(...)

?|? ? ? setPoint(p, v) -> self

?|

?|? ? ? append point at position p, direction v; p,v may be mPoint, mVector or 3-Tupel (x,y,z)

?|

?|? setTransformationMatrix(...)

?|? ? ? setTransformationMatrix(t)

?|

?|? ? ? set the elements transformation matrix.

?|

?|? subtractFrom(...)

?|? ? ? self,other

?|? ? ? subtract other from body self

?|

?|? transformationMatrix(...)

?|? ? ? transformationMatrix() -> mTransform

?|

?|? ? ? return the element's current transformation matrix

?|

?|? translate(...)

?|? ? ? translate(p) -> self

?|

?|? ? ? translate the element by v; v may be mPoint, mVector or 3-Tupel (x,y,z)

?|

?|? uniteWith(...)

?|? ? ? self,other