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opm-common/opm/material/densead/Evaluation10.hpp
2019-06-26 10:55:33 +02:00

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// -*- mode: C++; tab-width: 4; indent-tabs-mode: nil; c-basic-offset: 4 -*-
// vi: set et ts=4 sw=4 sts=4:
/*
This file is part of the Open Porous Media project (OPM).
OPM is free software: you can redistribute it and/or modify
it under the terms of the GNU General Public License as published by
the Free Software Foundation, either version 2 of the License, or
(at your option) any later version.
OPM is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU General Public License for more details.
You should have received a copy of the GNU General Public License
along with OPM. If not, see <http://www.gnu.org/licenses/>.
Consult the COPYING file in the top-level source directory of this
module for the precise wording of the license and the list of
copyright holders.
*/
/*!
* \file
*
* \brief This file specializes the dense-AD Evaluation class for 10 derivatives.
*
* \attention THIS FILE GETS AUTOMATICALLY GENERATED BY THE "genEvalSpecializations.py"
* SCRIPT. DO NOT EDIT IT MANUALLY!
*/
#ifndef OPM_DENSEAD_EVALUATION10_HPP
#define OPM_DENSEAD_EVALUATION10_HPP
#include "Evaluation.hpp"
#include "Math.hpp"
#include <opm/material/common/Valgrind.hpp>
#include <array>
#include <cmath>
#include <cassert>
#include <cstring>
#include <iostream>
#include <algorithm>
namespace Opm {
namespace DenseAd {
template <class ValueT>
class Evaluation<ValueT, 10>
{
public:
//! the template argument which specifies the number of
//! derivatives (-1 == "DynamicSize" means runtime determined)
static const int numVars = 10;
//! field type
typedef ValueT ValueType;
//! number of derivatives
constexpr int size() const
{ return 10; };
protected:
//! length of internal data vector
constexpr int length_() const
{ return size() + 1; }
//! position index for value
constexpr int valuepos_() const
{ return 0; }
//! start index for derivatives
constexpr int dstart_() const
{ return 1; }
//! end+1 index for derivatives
constexpr int dend_() const
{ return length_(); }
//! instruct valgrind to check that the value and all derivatives of the
//! Evaluation object are well-defined.
void checkDefined_() const
{
#ifndef NDEBUG
for (const auto& v: data_)
Valgrind::CheckDefined(v);
#endif
}
public:
//! default constructor
Evaluation() : data_()
{}
//! copy other function evaluation
Evaluation(const Evaluation& other) = default;
// create an evaluation which represents a constant function
//
// i.e., f(x) = c. this implies an evaluation with the given value and all
// derivatives being zero.
template <class RhsValueType>
Evaluation(const RhsValueType& c)
{
setValue(c);
clearDerivatives();
checkDefined_();
}
// create an evaluation which represents a constant function
//
// i.e., f(x) = c. this implies an evaluation with the given value and all
// derivatives being zero.
template <class RhsValueType>
Evaluation(const RhsValueType& c, int varPos)
{
// The variable position must be in represented by the given variable descriptor
assert(0 <= varPos && varPos < size());
setValue( c );
clearDerivatives();
data_[varPos + dstart_()] = 1.0;
checkDefined_();
}
// set all derivatives to zero
void clearDerivatives()
{
data_[1] = 0.0;
data_[2] = 0.0;
data_[3] = 0.0;
data_[4] = 0.0;
data_[5] = 0.0;
data_[6] = 0.0;
data_[7] = 0.0;
data_[8] = 0.0;
data_[9] = 0.0;
data_[10] = 0.0;
}
// create an uninitialized Evaluation object that is compatible with the
// argument, but not initialized
//
// This basically boils down to the copy constructor without copying
// anything. If the number of derivatives is known at compile time, this
// is equivalent to creating an uninitialized object using the default
// constructor, while for dynamic evaluations, it creates an Evaluation
// object which exhibits the same number of derivatives as the argument.
static Evaluation createBlank(const Evaluation& x OPM_UNUSED)
{ return Evaluation(); }
// create an Evaluation with value and all the derivatives to be zero
static Evaluation createConstantZero(const Evaluation& x OPM_UNUSED)
{ return Evaluation(0.); }
// create an Evaluation with value to be one and all the derivatives to be zero
static Evaluation createConstantOne(const Evaluation& x OPM_UNUSED)
{ return Evaluation(1.); }
// create a function evaluation for a "naked" depending variable (i.e., f(x) = x)
template <class RhsValueType>
static Evaluation createVariable(const RhsValueType& value, int varPos)
{
// copy function value and set all derivatives to 0, except for the variable
// which is represented by the value (which is set to 1.0)
return Evaluation(value, varPos);
}
template <class RhsValueType>
static Evaluation createVariable(int nVars, const RhsValueType& value, int varPos)
{
if (nVars != 10)
throw std::logic_error("This statically-sized evaluation can only represent objects"
" with 10 derivatives");
// copy function value and set all derivatives to 0, except for the variable
// which is represented by the value (which is set to 1.0)
return Evaluation(nVars, value, varPos);
}
template <class RhsValueType>
static Evaluation createVariable(const Evaluation& x OPM_UNUSED, const RhsValueType& value, int varPos)
{
// copy function value and set all derivatives to 0, except for the variable
// which is represented by the value (which is set to 1.0)
return Evaluation(value, varPos);
}
// "evaluate" a constant function (i.e. a function that does not depend on the set of
// relevant variables, f(x) = c).
template <class RhsValueType>
static Evaluation createConstant(int nVars, const RhsValueType& value)
{
if (nVars != 10)
throw std::logic_error("This statically-sized evaluation can only represent objects"
" with 10 derivatives");
return Evaluation(value);
}
// "evaluate" a constant function (i.e. a function that does not depend on the set of
// relevant variables, f(x) = c).
template <class RhsValueType>
static Evaluation createConstant(const RhsValueType& value)
{
return Evaluation(value);
}
// "evaluate" a constant function (i.e. a function that does not depend on the set of
// relevant variables, f(x) = c).
template <class RhsValueType>
static Evaluation createConstant(const Evaluation& x OPM_UNUSED, const RhsValueType& value)
{
return Evaluation(value);
}
// print the value and the derivatives of the function evaluation
void print(std::ostream& os = std::cout) const
{
// print value
os << "v: " << value() << " / d:";
// print derivatives
for (int varIdx = 0; varIdx < size(); ++varIdx) {
os << " " << derivative(varIdx);
}
}
// copy all derivatives from other
void copyDerivatives(const Evaluation& other)
{
assert(size() == other.size());
data_[1] = other.data_[1];
data_[2] = other.data_[2];
data_[3] = other.data_[3];
data_[4] = other.data_[4];
data_[5] = other.data_[5];
data_[6] = other.data_[6];
data_[7] = other.data_[7];
data_[8] = other.data_[8];
data_[9] = other.data_[9];
data_[10] = other.data_[10];
}
// add value and derivatives from other to this values and derivatives
Evaluation& operator+=(const Evaluation& other)
{
assert(size() == other.size());
data_[0] += other.data_[0];
data_[1] += other.data_[1];
data_[2] += other.data_[2];
data_[3] += other.data_[3];
data_[4] += other.data_[4];
data_[5] += other.data_[5];
data_[6] += other.data_[6];
data_[7] += other.data_[7];
data_[8] += other.data_[8];
data_[9] += other.data_[9];
data_[10] += other.data_[10];
return *this;
}
// add value from other to this values
template <class RhsValueType>
Evaluation& operator+=(const RhsValueType& other)
{
// value is added, derivatives stay the same
data_[valuepos_()] += other;
return *this;
}
// subtract other's value and derivatives from this values
Evaluation& operator-=(const Evaluation& other)
{
assert(size() == other.size());
data_[0] -= other.data_[0];
data_[1] -= other.data_[1];
data_[2] -= other.data_[2];
data_[3] -= other.data_[3];
data_[4] -= other.data_[4];
data_[5] -= other.data_[5];
data_[6] -= other.data_[6];
data_[7] -= other.data_[7];
data_[8] -= other.data_[8];
data_[9] -= other.data_[9];
data_[10] -= other.data_[10];
return *this;
}
// subtract other's value from this values
template <class RhsValueType>
Evaluation& operator-=(const RhsValueType& other)
{
// for constants, values are subtracted, derivatives stay the same
data_[valuepos_()] -= other;
return *this;
}
// multiply values and apply chain rule to derivatives: (u*v)' = (v'u + u'v)
Evaluation& operator*=(const Evaluation& other)
{
assert(size() == other.size());
// while the values are multiplied, the derivatives follow the product rule,
// i.e., (u*v)' = (v'u + u'v).
const ValueType u = this->value();
const ValueType v = other.value();
// value
data_[valuepos_()] *= v ;
// derivatives
data_[1] = data_[1] * v + other.data_[1] * u;
data_[2] = data_[2] * v + other.data_[2] * u;
data_[3] = data_[3] * v + other.data_[3] * u;
data_[4] = data_[4] * v + other.data_[4] * u;
data_[5] = data_[5] * v + other.data_[5] * u;
data_[6] = data_[6] * v + other.data_[6] * u;
data_[7] = data_[7] * v + other.data_[7] * u;
data_[8] = data_[8] * v + other.data_[8] * u;
data_[9] = data_[9] * v + other.data_[9] * u;
data_[10] = data_[10] * v + other.data_[10] * u;
return *this;
}
// m(c*u)' = c*u'
template <class RhsValueType>
Evaluation& operator*=(const RhsValueType& other)
{
data_[0] *= other;
data_[1] *= other;
data_[2] *= other;
data_[3] *= other;
data_[4] *= other;
data_[5] *= other;
data_[6] *= other;
data_[7] *= other;
data_[8] *= other;
data_[9] *= other;
data_[10] *= other;
return *this;
}
// m(u*v)' = (vu' - uv')/v^2
Evaluation& operator/=(const Evaluation& other)
{
assert(size() == other.size());
// values are divided, derivatives follow the rule for division, i.e., (u/v)' = (v'u -
// u'v)/v^2.
ValueType& u = data_[valuepos_()];
const ValueType& v = other.value();
data_[1] = (v*data_[1] - u*other.data_[1])/(v*v);
data_[2] = (v*data_[2] - u*other.data_[2])/(v*v);
data_[3] = (v*data_[3] - u*other.data_[3])/(v*v);
data_[4] = (v*data_[4] - u*other.data_[4])/(v*v);
data_[5] = (v*data_[5] - u*other.data_[5])/(v*v);
data_[6] = (v*data_[6] - u*other.data_[6])/(v*v);
data_[7] = (v*data_[7] - u*other.data_[7])/(v*v);
data_[8] = (v*data_[8] - u*other.data_[8])/(v*v);
data_[9] = (v*data_[9] - u*other.data_[9])/(v*v);
data_[10] = (v*data_[10] - u*other.data_[10])/(v*v);
u /= v;
return *this;
}
// divide value and derivatives by value of other
template <class RhsValueType>
Evaluation& operator/=(const RhsValueType& other)
{
const ValueType tmp = 1.0/other;
data_[0] *= tmp;
data_[1] *= tmp;
data_[2] *= tmp;
data_[3] *= tmp;
data_[4] *= tmp;
data_[5] *= tmp;
data_[6] *= tmp;
data_[7] *= tmp;
data_[8] *= tmp;
data_[9] *= tmp;
data_[10] *= tmp;
return *this;
}
// add two evaluation objects
Evaluation operator+(const Evaluation& other) const
{
assert(size() == other.size());
Evaluation result(*this);
result += other;
return result;
}
// add constant to this object
template <class RhsValueType>
Evaluation operator+(const RhsValueType& other) const
{
Evaluation result(*this);
result += other;
return result;
}
// subtract two evaluation objects
Evaluation operator-(const Evaluation& other) const
{
assert(size() == other.size());
Evaluation result(*this);
result -= other;
return result;
}
// subtract constant from evaluation object
template <class RhsValueType>
Evaluation operator-(const RhsValueType& other) const
{
Evaluation result(*this);
result -= other;
return result;
}
// negation (unary minus) operator
Evaluation operator-() const
{
Evaluation result;
// set value and derivatives to negative
result.data_[0] = - data_[0];
result.data_[1] = - data_[1];
result.data_[2] = - data_[2];
result.data_[3] = - data_[3];
result.data_[4] = - data_[4];
result.data_[5] = - data_[5];
result.data_[6] = - data_[6];
result.data_[7] = - data_[7];
result.data_[8] = - data_[8];
result.data_[9] = - data_[9];
result.data_[10] = - data_[10];
return result;
}
Evaluation operator*(const Evaluation& other) const
{
assert(size() == other.size());
Evaluation result(*this);
result *= other;
return result;
}
template <class RhsValueType>
Evaluation operator*(const RhsValueType& other) const
{
Evaluation result(*this);
result *= other;
return result;
}
Evaluation operator/(const Evaluation& other) const
{
assert(size() == other.size());
Evaluation result(*this);
result /= other;
return result;
}
template <class RhsValueType>
Evaluation operator/(const RhsValueType& other) const
{
Evaluation result(*this);
result /= other;
return result;
}
template <class RhsValueType>
Evaluation& operator=(const RhsValueType& other)
{
setValue( other );
clearDerivatives();
return *this;
}
// copy assignment from evaluation
Evaluation& operator=(const Evaluation& other) = default;
template <class RhsValueType>
bool operator==(const RhsValueType& other) const
{ return value() == other; }
bool operator==(const Evaluation& other) const
{
assert(size() == other.size());
for (int idx = 0; idx < length_(); ++idx) {
if (data_[idx] != other.data_[idx]) {
return false;
}
}
return true;
}
bool operator!=(const Evaluation& other) const
{ return !operator==(other); }
template <class RhsValueType>
bool operator!=(const RhsValueType& other) const
{ return !operator==(other); }
template <class RhsValueType>
bool operator>(RhsValueType other) const
{ return value() > other; }
bool operator>(const Evaluation& other) const
{
assert(size() == other.size());
return value() > other.value();
}
template <class RhsValueType>
bool operator<(RhsValueType other) const
{ return value() < other; }
bool operator<(const Evaluation& other) const
{
assert(size() == other.size());
return value() < other.value();
}
template <class RhsValueType>
bool operator>=(RhsValueType other) const
{ return value() >= other; }
bool operator>=(const Evaluation& other) const
{
assert(size() == other.size());
return value() >= other.value();
}
template <class RhsValueType>
bool operator<=(RhsValueType other) const
{ return value() <= other; }
bool operator<=(const Evaluation& other) const
{
assert(size() == other.size());
return value() <= other.value();
}
// return value of variable
const ValueType& value() const
{ return data_[valuepos_()]; }
// set value of variable
template <class RhsValueType>
void setValue(const RhsValueType& val)
{ data_[valuepos_()] = val; }
// return varIdx'th derivative
const ValueType& derivative(int varIdx) const
{
assert(0 <= varIdx && varIdx < size());
return data_[dstart_() + varIdx];
}
// set derivative at position varIdx
void setDerivative(int varIdx, const ValueType& derVal)
{
assert(0 <= varIdx && varIdx < size());
data_[dstart_() + varIdx] = derVal;
}
private:
std::array<ValueT, 11> data_;
};
} // namespace DenseAd
} // namespace Opm
#endif // OPM_DENSEAD_EVALUATION10_HPP