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Commit 08f06386 authored by Dennis Gläser's avatar Dennis Gläser
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[ex3] use new quad sampler

parent d8abb6c5
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appl/example3/README.md
View file @ 08f06386
......@@ -53,23 +53,27 @@ const auto domainBBox = OCCUtilities::getBoundingBox(networkDomain);
With this, we create a quadrilateral sampler in a similar way as in the previous examples
```cpp
QuadrilateralSampler<3> quadSampler(makeUniformPointSampler(domainBBox), // sampler for quadrilateral center points
Distro(toRadians(45.0), toRadians(5.0)), // strike angle: mean value & standard deviation
Distro(toRadians(90.0), toRadians(5.0)), // dip angle: mean value & standard deviation
Distro(45.0, 5.0), // edge length: mean value & standard deviation
5.0); // threshold for minimum edge length
// we use the default sampler types, thus, default distributions (see traits classes)
using NormalDistro = std::normal_distribution<ctype>;
using UniformDistro = std::uniform_real_distribution<ctype>;
QuadrilateralSampler<3> quadSampler(makeUniformPointSampler(domainBBox), // sampler for quadrilateral center points
NormalDistro(toRadians(45.0), toRadians(5.0)), // strike angle: mean value & standard deviation
NormalDistro(toRadians(90.0), toRadians(5.0)), // dip angle: mean value & standard deviation
UniformDistro(30.0, 60.0), // strike length
UniformDistro(30.0, 60.0)); // dip length
```
For the entities of the other orientation, we want to use `Disk` objects in this case.
The instantiation of the corrensponding sampler class looks like this:
```cpp
DiskSampler diskSampler(makeUniformPointSampler(domainBBox), // sampler for disk center points
Distro(30.0, 6.5), // major axis length: mean value & standard deviation
Distro(24.0, 4.5), // minor axis length: mean value & standard deviation
Distro(toRadians(0.0), toRadians(7.5)), // rotation around x-axis: mean value & standard deviation
Distro(toRadians(0.0), toRadians(7.5)), // rotation around y-axis: mean value & standard deviation
Distro(toRadians(0.0), toRadians(7.5))); // rotation around z-axis: mean value & standard deviation
DiskSampler diskSampler(makeUniformPointSampler(domainBBox), // sampler for disk center points
NormalDistro(30.0, 6.5), // major axis length: mean value & standard deviation
NormalDistro(24.0, 4.5), // minor axis length: mean value & standard deviation
NormalDistro(toRadians(0.0), toRadians(7.5)), // rotation around x-axis: mean value & standard deviation
NormalDistro(toRadians(0.0), toRadians(7.5)), // rotation around y-axis: mean value & standard deviation
NormalDistro(toRadians(0.0), toRadians(7.5))); // rotation around z-axis: mean value & standard deviation
```
......
appl/example3/example3.cc
View file @ 08f06386
......@@ -71,26 +71,27 @@ int main(int argc, char** argv)
// and disk/quadrilaterals as entities (using the sampled center points) //
//////////////////////////////////////////////////////////////////////////////
// we use the default sampler types -> normal distributions for all parameters
using Distro = std::normal_distribution<ctype>;
// we use the default sampler types, thus, default distributions (see traits classes)
using NormalDistro = std::normal_distribution<ctype>;
using UniformDistro = std::uniform_real_distribution<ctype>;
// Bounding box of the domain in which we want to place the entities
const auto domainBBox = OCCUtilities::getBoundingBox(networkDomain);
// sampler for disks (orientation 1)
DiskSampler diskSampler(makeUniformPointSampler(domainBBox), // sampler for disk center points
Distro(30.0, 6.5), // major axis length: mean value & standard deviation
Distro(24.0, 4.5), // minor axis length: mean value & standard deviation
Distro(toRadians(0.0), toRadians(7.5)), // rotation around x-axis: mean value & standard deviation
Distro(toRadians(0.0), toRadians(7.5)), // rotation around y-axis: mean value & standard deviation
Distro(toRadians(0.0), toRadians(7.5))); // rotation around z-axis: mean value & standard deviation
NormalDistro(30.0, 6.5), // major axis length: mean value & standard deviation
NormalDistro(24.0, 4.5), // minor axis length: mean value & standard deviation
NormalDistro(toRadians(0.0), toRadians(7.5)), // rotation around x-axis: mean value & standard deviation
NormalDistro(toRadians(0.0), toRadians(7.5)), // rotation around y-axis: mean value & standard deviation
NormalDistro(toRadians(0.0), toRadians(7.5))); // rotation around z-axis: mean value & standard deviation
// sampler for quadrilaterals (orientation 2)
QuadrilateralSampler<3> quadSampler(makeUniformPointSampler(domainBBox), // sampler for quadrilateral center points
Distro(toRadians(45.0), toRadians(5.0)), // strike angle: mean value & standard deviation
Distro(toRadians(90.0), toRadians(5.0)), // dip angle: mean value & standard deviation
Distro(45.0, 5.0), // edge length: mean value & standard deviation
5.0); // threshold for minimum edge length
NormalDistro(toRadians(45.0), toRadians(5.0)), // strike angle: mean value & standard deviation
NormalDistro(toRadians(90.0), toRadians(5.0)), // dip angle: mean value & standard deviation
UniformDistro(30.0, 60.0), // strike length
UniformDistro(30.0, 60.0)); // dip length
// Define ids for the two entity sets
const Id diskSetId(1); // we give the set of orientation one, consisting of disks, the id 1
......
appl/example3/example3.py
View file @ 08f06386
......@@ -64,8 +64,8 @@ diskSampler = DiskSampler(makeUniformPointSampler(domainBBox), # sampl
quadSampler = QuadrilateralSampler(makeUniformPointSampler(domainBBox), # sampler for quadrilateral center points
normalSampler(toRadians(45.0), toRadians(5.0)), # strike angle: mean value & standard deviation
normalSampler(toRadians(90.0), toRadians(5.0)), # dip angle: mean value & standard deviation
normalSampler(45.0, 5.0), # edge length: mean value & standard deviation
5.0) # threshold for minimum edge length
uniformSampler(30.0, 60.0), # strike length
uniformSampler(30.0, 60.0)) # dip length
# Define ids for the two entity sets
diskSetId = Id(1) # we give the set of orientation one, consisting of disks, the id 1
......@@ -103,15 +103,15 @@ constraintsOnOther.setMinIntersectingAngle(toRadians(40.0))
# We can use the constraints matrix to facilitate constraint evaluation
constraintsMatrix = EntityNetworkConstraintsMatrix()
constraintsMatrix.addConstraints(constraints1, # constraint instance
[diskSetId.get(), diskSetId.get()]) # sets between which to use these constraints
constraintsMatrix.addConstraints(constraints1, # constraint instance
[diskSetId, diskSetId]) # sets between which to use these constraints
constraintsMatrix.addConstraints(constraints2, # constraint instance
[quadSetId.get(), quadSetId.get()]) # sets between which to use these constraints
constraintsMatrix.addConstraints(constraints2, # constraint instance
[quadSetId, quadSetId]) # sets between which to use these constraints
constraintsMatrix.addConstraints(constraintsOnOther, # constraint instance
[[diskSetId.get(), quadSetId.get()], # sets between which to use these constraints
[quadSetId.get(), diskSetId.get()]]) # sets between which to use these constraints
constraintsMatrix.addConstraints(constraintsOnOther, # constraint instance
[[diskSetId, quadSetId], # sets between which to use these constraints
[quadSetId, diskSetId]]) # sets between which to use these constraints
# Moreover, we define constraints w.r.t. the domain boundary
constraintsOnDomain = makeDefaultConstraints()
......@@ -130,7 +130,7 @@ status.setTargetCount(diskSetId, 12) # we want 11 entities of orientation 1
status.setTargetCount(quadSetId, 16) # we want 13 entities of orientation 2
# store all entity sets in a dictionary
entitySets = {diskSetId.get(): [], quadSetId.get(): []}
entitySets = {diskSetId: [], quadSetId: []}
# Alternate between set 1 & set 2 during sampling phase
sampleIntoSet1 = True
......@@ -163,7 +163,7 @@ while not status.finished():
continue
# the geometry is admissible
entitySets[id.get()].append(geom)
entitySets[id].append(geom)
status.increaseCounter(id)
status.print()
......@@ -184,7 +184,7 @@ print("\nEntity density of the contained network: {:f} m²/m³\n".format(density
##########################################################################
# construct and write a contained network, i.e. write out both network and domain.
print("Building and writing contained, confined network\n")
print("Building and writing contained, confined network")
from frackit.entitynetwork import EntityNetworkBuilder, ContainedEntityNetworkBuilder
builder = ContainedEntityNetworkBuilder();
......@@ -205,7 +205,7 @@ gmshWriter.write("contained_confined", # body of the filename to be used (will a
# we can also not confine the network to its sub-domain,
# simply by adding the sub-domains as non-confining
print("Building and writing contained, unconfined network\n")
print("Building and writing contained, unconfined network")
builder.clear();
builder.addSubDomain(solids[0], Id(1));
builder.addSubDomain(networkDomain, Id(2));
......@@ -226,7 +226,7 @@ gmshWriter = GmshWriter(uncontainedBuilder.build());
gmshWriter.write("uncontained_confined", 2.5);
# ... or not confining it
print("Building and writing uncontained, unconfined network\n")
print("Building and writing uncontained, unconfined network")
uncontainedBuilder.clear();
for setId in entitySets: uncontainedBuilder.addSubDomainEntities(entitySets[setId], Id(2))
......
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