9#include <fmt/ostream.h>
13#define ALIGATOR_CHECK_DERIVED_CLASS(Base, Derived) \
14 static_assert((std::is_base_of_v<Base, Derived>), \
15 "Failed check for derived class.")
37#pragma GCC diagnostic push
38#pragma GCC diagnostic ignored "-Wdeprecated-declarations"
40#pragma GCC diagnostic pop
59 return dynamic_cast<U *
>(&*
cost_);
63 template <
typename U>
const U *
getCost()
const {
65 return dynamic_cast<const U *
>(&*
cost_);
77 return dynamic_cast<const U *
>(&*
dynamics_);
112 template <
typename Cstr,
typename = std::enable_if_t<std::is_same_v<
125 virtual void evaluate(
const ConstVectorRef &x,
const ConstVectorRef &u,
126 const ConstVectorRef &y,
Data &data)
const;
130 const ConstVectorRef &u,
131 const ConstVectorRef &y,
136 const ConstVectorRef &u,
143template <
typename Scalar>
144template <
typename Cstr,
typename>
146 const int c_nu = cstr.func->nu;
147 if (c_nu != this->
nu()) {
149 "Function has the wrong dimension for u: got {:d}, expected {:d}", c_nu,
155template <
typename Scalar>
158 return oss << fmt::format(
"{}", stage);
163template <
typename Scalar>
164struct fmt::formatter<
aligator::StageModelTpl<Scalar>> {
165 constexpr auto parse(format_parse_context &ctx)
const
166 ->
decltype(ctx.begin()) {
170 auto format(
const aligator::StageModelTpl<Scalar> &stage,
171 format_context &ctx)
const ->
decltype(ctx.out()) {
172 if (stage.ndx1() == stage.ndx2()) {
173 return fmt::format_to(ctx.out(),
177 "\n nc: {:d}, [{:d} constraints]"
179 stage.ndx1(), stage.nu(), stage.nc(),
180 stage.numConstraints());
182 return fmt::format_to(ctx.out(),
186 "\n nc: {:d}, [{:d} constraints]"
189 stage.ndx1(), stage.nu(), stage.nc(),
190 stage.numConstraints(), stage.ndx2());
195#ifdef ALIGATOR_ENABLE_TEMPLATE_INSTANTIATION
196#include "aligator/core/stage-model.txx"
Defines the constraint object and constraint stack manager for this library.
#define ALIGATOR_RUNTIME_ERROR(...)
Base definitions for ternary functions.
Namespace for modelling system dynamics.
std::ostream & operator<<(std::ostream &oss, const ExplicitDynamicsDataTpl< S > &self)
#define ALIGATOR_CHECK_DERIVED_CLASS(Base, Derived)
Convenience class to manage a stack of constraints.
Stage costs for control problems.
Dynamics model: describes system dynamics through an implicit relation .
Base class for manifolds, to use in cost funcs, solvers...
Simple struct holding together a function and set, to describe a constraint.
Data struct for stage models StageModelTpl.
A stage in the control problem.
virtual ~StageModelTpl()=default
PolyManifold xspace_next_
virtual void computeFirstOrderDerivatives(const ConstVectorRef &x, const ConstVectorRef &u, const ConstVectorRef &y, Data &data) const
Compute the first-order derivatives of the StageModelTpl.
const U * getCost() const
CostAbstractTpl< Scalar > Cost
StageConstraintTpl< Scalar > StageConstraint
U * getDynamics()
Get a pointer to an expected concrete type for the dynamics class.
virtual bool hasDynModel() const
virtual void computeSecondOrderDerivatives(const ConstVectorRef &x, const ConstVectorRef &u, Data &data) const
Compute the second-order derivatives of the StageModelTpl.
const Manifold & xspace_next() const
ALIGATOR_DEPRECATED void addConstraint(Cstr &&cstr)
Add a constraint to the stage.
ManifoldAbstractTpl< Scalar > Manifold
ALIGATOR_DYNAMIC_TYPEDEFS(Scalar)
xyz::polymorphic< Cost > PolyCost
xyz::polymorphic< Manifold > PolyManifold
ConstraintStackTpl< Scalar > constraints_
const Cost & cost() const
DynamicsModelTpl< Scalar > Dynamics
StageModelTpl(const PolyCost &cost, const PolyDynamics &dynamics)
virtual shared_ptr< Data > createData() const
Create a StageData object.
xyz::polymorphic< ConstraintSetTpl< Scalar > > PolyConstraintSet
const Manifold & uspace() const
xyz::polymorphic< Dynamics > PolyDynamics
StageDataTpl< Scalar > Data
int numDual() const
Number of dual variables, i.e. Lagrange multipliers.
void addConstraint(const PolyFunction &func, const PolyConstraintSet &cstr_set)
Add a constraint to the stage.
const U * getDynamics() const
U * getCost()
Get a pointer to an expected concrete type for the cost function.
std::size_t numConstraints() const
Number of constraint objects.
int numPrimal() const
Number of primal optimization variables.
xyz::polymorphic< StageFunctionTpl< Scalar > > PolyFunction
const Manifold & xspace() const
virtual void evaluate(const ConstVectorRef &x, const ConstVectorRef &u, const ConstVectorRef &y, Data &data) const
Evaluate all the functions (cost, dynamics, constraints) at this node.
int nc() const
Total number of constraints.