various adjustments

This commit is contained in:
StanislausCichocki
2025-03-12 17:33:13 +01:00
parent 072f25cc0e
commit 6917793786
21 changed files with 500 additions and 207 deletions

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@ -21,8 +21,9 @@ add_executable(Sim_C__
src/services/Cost/TaxComponent.cpp src/services/Cost/TaxComponent.cpp
src/services/Cost/TaxComponent.h src/services/Cost/TaxComponent.h
src/helper/Curry.h src/helper/Curry.h
src/enums/Aut.h
src/config.h src/config.h
src/services/Cost/NetworkProvider.cpp
src/services/Cost/NetworkProvider.h
) )
find_package(doctest CONFIG REQUIRED) find_package(doctest CONFIG REQUIRED)
find_package(spdlog CONFIG REQUIRED) find_package(spdlog CONFIG REQUIRED)

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@ -8,9 +8,10 @@
#define LOG_DEBUG_INFO(...) #define LOG_DEBUG_INFO(...)
#define LOG_DEBUG_ERROR(...) #define LOG_DEBUG_ERROR(...)
#else #else
#define LOG_DEBUG_INFO(...) spdlog::info(__VA_ARGS__) #define LOG_DEBUG_INFO(...) spdlog::info(__VA_ARGS__)
#define LOG_DEBUG_ERROR(...) spdlog::error(__VA_ARGS__) #define LOG_DEBUG_ERROR(...) spdlog::error(__VA_ARGS__)
#endif #endif
#define VALUE_COUNT (4*24*365) #define VALUE_COUNT ((size_t)(4 * 24 * 365))
#define MAX_CONDITIONS 2560
#endif //CONFIG_H #endif //CONFIG_H

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@ -1,28 +0,0 @@
//
// Created by StanislausCichocki on 11.03.2025.
//
#ifndef AUT_H
#define AUT_H
namespace Enums::AUT {
enum GridLevel {
GridLevel1,
GridLevel2,
GridLevel3,
GridLevel4,
GridLevel5,
GridLevel6,
GridLevel7WithP,
GridLevel7WithoutP,
GridLevel7Interruptable,
};
enum EegType {
GEA,
LocalEeg,
RegionalEeg,
BEG
};
}
#endif //AUT_H

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@ -5,11 +5,9 @@
#ifndef CURRY_H #ifndef CURRY_H
#define CURRY_H #define CURRY_H
template <typename Func1, typename Func2> template<typename Func1, typename Func2>
auto curry(Func1 f1, Func2 f2) auto curry(Func1 f1, Func2 f2) {
{ return [=](auto... args) {
return [=](auto... args)
{
auto result1 = f1(args...); auto result1 = f1(args...);
return f2(result1); return f2(result1);
}; };

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@ -1,15 +1,21 @@
//
// Created by stani on 3/10/2025.
//
#ifndef ICOSTCOMPONENT_H #ifndef ICOSTCOMPONENT_H
#define ICOSTCOMPONENT_H #define ICOSTCOMPONENT_H
#include "../model/Community.h"
class ICostComponent #include <bitset>
{ #include "../model/Community.h"
#include "../Config.h"
class ICostComponent {
public: public:
std::bitset<MAX_CONDITIONS> applicableConditions;
template<typename... Conditions>
ICostComponent(Conditions... conditions) {
}
virtual ~ICostComponent() = default; virtual ~ICostComponent() = default;
virtual double apply(std::vector<std::unique_ptr<Community>>& communities) const = 0;
virtual void apply(std::unique_ptr<Building::Base> &building, std::unique_ptr<Community> &community) = 0;
}; };
#endif //ICOSTCOMPONENT_H #endif //ICOSTCOMPONENT_H

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@ -4,29 +4,141 @@
#include "Building.h" #include "Building.h"
float Building::Cost::special_rate_consumption() const { float Building::Metadata::special_rate_consumption() const {
return SpecialRateConsumption; return SpecialRateConsumption;
} }
void Building::Cost::set_special_rate_consumption(float special_rate_consumption) { void Building::Metadata::set_special_rate_consumption(float special_rate_consumption) {
SpecialRateConsumption = special_rate_consumption; SpecialRateConsumption = special_rate_consumption;
} }
float Building::Cost::special_rate_generation() const { float Building::Metadata::special_rate_generation() const {
return SpecialRateGeneration; return SpecialRateGeneration;
} }
void Building::Cost::set_special_rate_generation(float special_rate_generation) { void Building::Metadata::set_special_rate_generation(float special_rate_generation) {
SpecialRateGeneration = special_rate_generation; SpecialRateGeneration = special_rate_generation;
} }
std::vector<float> &Building::Simulation_Values::community_coverage() { std::vector<float> &Building::Simulation_Values::generation_after_community() {
return CommunityCoverage; return GenerationAfterCommunity;
}
void Building::Simulation_Values::generation_after_community(const std::vector<float> &generation_after_community) {
GenerationAfterCommunity = generation_after_community;
}
std::vector<float> &Building::Simulation_Values::consumption_after_community() {
return ConsumptionAfterCommunity;
}
void Building::Simulation_Values::consumption_after_community(const std::vector<float> &consumption_after_community) {
ConsumptionAfterCommunity = consumption_after_community;
}
std::vector<float> &Building::Simulation_Values::generation_to_community() {
return GenerationToCommunity;
}
void Building::Simulation_Values::generation_to_community(const std::vector<float> &generation_to_community) {
GenerationToCommunity = generation_to_community;
}
std::vector<float> &Building::Simulation_Values::consumption_from_community() {
return ConsumptionFromCommunity;
}
void Building::Simulation_Values::consumption_from_community(const std::vector<float> &consumption_from_community) {
ConsumptionFromCommunity = consumption_from_community;
}
float Building::Simulation_Values::con_from_community_relative() const {
return this->ConsumptionFromCommunityRelative;
}
void Building::Simulation_Values::set_con_from_community_relative(const float x) {
this->ConsumptionFromCommunityRelative = x;
}
float Building::Simulation_Values::gen_to_community_relative() const {
return this->GenerationToCommunityRelative;
}
void Building::Simulation_Values::set_gen_to_community_relative(float x) {
this->GenerationToCommunityRelative = x;
}
float Building::Simulation_Values::consumption_after_own_coverage_sum() const {
return ConsumptionAfterCommunitySum;
}
void Building::Simulation_Values::set_consumption_after_own_coverage_sum(const float value) {
ConsumptionFromCommunityRelative = value;
}
float Building::Simulation_Values::own_usage_sum() const {
return OwnUsageSum;
}
void Building::Simulation_Values::set_ownUsageSum(const float value) {
OwnUsageSum = value;
}
float Building::Simulation_Values::needed_con_sum() const {
return NeededConSum;
}
void Building::Simulation_Values::set_neededConSum(const float value) {
NeededConSum = value;
}
float Building::Simulation_Values::needed_gen_sum() const {
return NeededGenSum;
}
void Building::Simulation_Values::set_neededGenSum(const float value) {
NeededGenSum = value;
}
float Building::Simulation_Values::consumption_after_community_sum() const {
return ConsumptionAfterCommunitySum;
}
void Building::Simulation_Values::set_consumption_after_community_sum(const float value) {
ConsumptionAfterCommunitySum = value;
}
float Building::Simulation_Values::generation_after_community_sum() const {
return GenerationAfterCommunitySum;
}
void Building::Simulation_Values::set_generation_after_community_sum(const float value) {
GenerationAfterCommunitySum = value;
}
float Building::Simulation_Values::consumption_from_community_sum() const {
return ConsumptionFromCommunitySum;
}
void Building::Simulation_Values::set_consumption_from_community_sum(const float value) {
ConsumptionFromCommunitySum = value;
}
float Building::Simulation_Values::generation_to_community_sum() const {
return GenerationToCommunitySum;
}
void Building::Simulation_Values::set_generation_to_community_sum(const float values) {
GenerationToCommunitySum = values;
}
std::vector<float> &Building::Simulation_Values::consumption_after_own_coverage() {
return ConsumptionAfterOwnCoverage;
} }
void Building::Simulation_Values:: void Building::Simulation_Values::
set_community_coverage(std::vector<float> community_coverage) { set_community_coverage(std::vector<float> community_coverage) {
CommunityCoverage = std::move(community_coverage); ConsumptionAfterOwnCoverage = std::move(community_coverage);
} }
std::vector<float> &Building::Simulation_Values::own_usage() { std::vector<float> &Building::Simulation_Values::own_usage() {
@ -38,11 +150,11 @@ void Building::Simulation_Values::set_own_usage(std::vector<float> own_usage) {
} }
std::vector<float> &Building::Simulation_Values::needed_con() { std::vector<float> &Building::Simulation_Values::needed_con() {
return Needed_con; return NeededCon;
} }
void Building::Simulation_Values::set_needed_con(std::vector<float> needed_con) { void Building::Simulation_Values::set_needed_con(std::vector<float> needed_con) {
Needed_con = std::move(needed_con); NeededCon = std::move(needed_con);
} }
std::vector<float> &Building::Simulation_Values::needed_gen() { std::vector<float> &Building::Simulation_Values::needed_gen() {
@ -68,6 +180,7 @@ float Building::Simulation_Values::relativeSelfGeneration() const {
void Building::Simulation_Values::set_relativeSelfGeneration(float const relativeSelfGeneration) { void Building::Simulation_Values::set_relativeSelfGeneration(float const relativeSelfGeneration) {
this->RelativeGeneration = relativeSelfGeneration; this->RelativeGeneration = relativeSelfGeneration;
} }
std::string Building::Metadata::name() const { std::string Building::Metadata::name() const {
return Name; return Name;
} }

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@ -4,41 +4,70 @@
#ifndef BUILDING_H #ifndef BUILDING_H
#define BUILDING_H #define BUILDING_H
#include <functional>
#include <memory> #include <memory>
#include <vector> #include <vector>
#include "Model.h" #include "Model.h"
#include "../Config.h"
namespace Building { namespace Building {
class Cost { class CostValues {
private: private:
float SpecialRateConsumption; float Consumption{0.0f};
float SpecialRateGeneration; float Generation{0.0f};
float ConsumptionWithCommunity{0.0f};
float GenerationWithCommunity{0.0f};
public: public:
float special_rate_consumption() const; float consumption() { return Consumption; }
void set_consumption(const float consumption) { Consumption = consumption; }
float generation() { return Generation; }
void set_generation(const float generation) { Generation = generation; }
float consumption_with_community() { return ConsumptionWithCommunity; }
void set_consumption_with_community(const float consumption) { ConsumptionWithCommunity = consumption; }
float generation_with_community() { return Generation; }
void set_generation_with_community(const float generation) { GenerationWithCommunity = generation; }
};
void set_special_rate_consumption(float special_rate_consumption); class Cost {
private:
float special_rate_generation() const; std::shared_ptr<CostValues> CostValuesWith{};
std::shared_ptr<CostValues> CostValuesWithOut{};
void set_special_rate_generation(float special_rate_generation);
public:
std::shared_ptr<CostValues> &get_cost_values_with() { return CostValuesWith; }
std::shared_ptr<CostValues> &get_cost_values_without() { return CostValuesWithOut; }
}; };
class Simulation_Values { class Simulation_Values {
private: private:
std::vector<float> CommunityCoverage; std::vector<float> ConsumptionAfterOwnCoverage = std::vector(VALUE_COUNT, 0.0f);
std::vector<float> OwnUsage; std::vector<float> OwnUsage = std::vector(VALUE_COUNT, 0.0f);
std::vector<float> Needed_con; std::vector<float> NeededCon = std::vector(VALUE_COUNT, 0.0f);
std::vector<float> NeededGen; std::vector<float> NeededGen = std::vector(VALUE_COUNT, 0.0f);
float RelativeSelfConsumption{0.0f}; float RelativeSelfConsumption{0.0f};
float RelativeGeneration{0.0f}; float RelativeGeneration{0.0f};
std::vector<float> ConsumptionAfterCommunity = std::vector(VALUE_COUNT, 0.0f);
std::vector<float> GenerationAfterCommunity = std::vector(VALUE_COUNT, 0.0f);
std::vector<float> ConsumptionFromCommunity = std::vector(VALUE_COUNT, 0.0f);
std::vector<float> GenerationToCommunity = std::vector(VALUE_COUNT, 0.0f);
float ConsumptionFromCommunityRelative{0.0f};
float GenerationToCommunityRelative{0.0f};
float ConsumptionAfterOwnCoverageSum{0.0f};
float OwnUsageSum{0.0f};
float NeededConSum{0.0f};
float NeededGenSum{0.0f};
float ConsumptionAfterCommunitySum{0.0f};
float GenerationAfterCommunitySum{0.0f};
float ConsumptionFromCommunitySum{0.0f};
float GenerationToCommunitySum{0.0f};
public: public:
std::vector<float> &community_coverage(); Simulation_Values() = default;
std::vector<float> &consumption_after_own_coverage();
void set_community_coverage(std::vector<float> community_coverage); void set_community_coverage(std::vector<float> community_coverage);
@ -55,24 +84,72 @@ namespace Building {
void set_needed_gen(std::vector<float> needed_gen); void set_needed_gen(std::vector<float> needed_gen);
float relativeSelfConsumption() const; float relativeSelfConsumption() const;
void set_relativeSelfConsumption(float relativeSelfConsumption); void set_relativeSelfConsumption(float relativeSelfConsumption);
float relativeSelfGeneration() const; float relativeSelfGeneration() const;
void set_relativeSelfGeneration(float relativeSelfGeneration); void set_relativeSelfGeneration(float relativeSelfGeneration);
std::vector<float> &generation_after_community();
void generation_after_community(const std::vector<float> &generation_after_community);
std::vector<float> &consumption_after_community();
void consumption_after_community(const std::vector<float> &consumption_after_community);
std::vector<float> &generation_to_community();
void generation_to_community(const std::vector<float> &generation_to_community);
std::vector<float> &consumption_from_community();
void consumption_from_community(const std::vector<float> &consumption_from_community);
float con_from_community_relative() const;
void set_con_from_community_relative(float x);
float gen_to_community_relative() const;
void set_gen_to_community_relative(float x);
float consumption_after_own_coverage_sum() const;
void set_consumption_after_own_coverage_sum(float value);
float own_usage_sum() const;
void set_ownUsageSum(float value);
float needed_con_sum() const;
void set_neededConSum(float value);
float needed_gen_sum() const;
void set_neededGenSum(float value);
float consumption_after_community_sum() const;
void set_consumption_after_community_sum(float value);
float generation_after_community_sum() const;
void set_generation_after_community_sum(float value);
float consumption_from_community_sum() const;
void set_consumption_from_community_sum(float value);
float generation_to_community_sum() const;
void set_generation_to_community_sum(float values);
}; };
class Metadata { class Metadata {
private: private:
std::string Name; std::string Name{};
float AnnualConsumption; float AnnualConsumption{0.0f};
float AnnualGeneration; float AnnualGeneration{0.0f};
std::vector<float> ConsumptionProfile; std::vector<float> ConsumptionProfile = std::vector(VALUE_COUNT, 0.0f);
std::vector<float> GenerationProfile; std::vector<float> GenerationProfile = std::vector(VALUE_COUNT, 0.0f);
std::string ConsumptionProfileName; std::string ConsumptionProfileName{};
std::string GenerationProfileName; std::string GenerationProfileName{};
short ConnectionPower; short ConnectionPower{0};
short GridPower; short GridPower{0};
float SpecialRateConsumption{0.0f};
float SpecialRateGeneration{0.0f};
public: public:
Metadata() = default;
std::string name() const; std::string name() const;
void set_name(const std::string &name); void set_name(const std::string &name);
@ -108,13 +185,21 @@ namespace Building {
short grid_power() const; short grid_power() const;
void set_grid_power(short grid_power); void set_grid_power(short grid_power);
float special_rate_consumption() const;
void set_special_rate_consumption(float special_rate_consumption);
float special_rate_generation() const;
void set_special_rate_generation(float special_rate_generation);
}; };
class Base : public Model<Base> { class Base : public Model<Base> {
private: private:
std::unique_ptr<Cost> Cost; std::unique_ptr<Cost> Cost{};
std::unique_ptr<Simulation_Values> Values; std::unique_ptr<Simulation_Values> Values{};
std::unique_ptr<Metadata> Metadata; std::unique_ptr<Metadata> Metadata{};
public: public:
std::unique_ptr<Building::Cost> &cost(); std::unique_ptr<Building::Cost> &cost();

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@ -1,6 +1,5 @@
#include "Community.h" #include "Community.h"
#include "../helper/Curry.h"
std::string Community::name() const { std::string Community::name() const {
return Name; return Name;
@ -27,43 +26,44 @@ void Community::set_energy_tariff(const Energy_Tariff &energy_tariff) {
energy_Tariff = energy_tariff; energy_Tariff = energy_tariff;
} }
std::vector<float> Community::GenerationAvailable() const { std::vector<float> &Community::generation_available() {
return generationAvailable; return GenerationAvailable;
} }
void Community::set_generation_available(std::vector<float> &generationAvailable) { void Community::set_generation_available(std::vector<float> &generationAvailable) {
this->generationAvailable = generationAvailable; this->GenerationAvailable = generationAvailable;
} }
std::vector<float> Community::ConsumptionAvailable() const { std::vector<float> &Community::consumption_available() {
return consumptionAvailable; return ConsumptionAvailable;
} }
void Community::set_consumption_available(std::vector<float> &consumptionAvailable) { void Community::set_consumption_available(std::vector<float> &consumptionAvailable) {
this->consumptionAvailable = consumptionAvailable; this->ConsumptionAvailable = consumptionAvailable;
} }
std::vector<bool> Community::IsGenBiggerThanCon() const { std::vector<bool> &Community::is_gen_bigger_than_con() {
return isGenBiggerThanCon; return IsGenBiggerThanCon;
} }
void Community::set_is_gen_bigger_than_con(std::vector<bool> &isGenBiggerThanCon) { void Community::set_is_gen_bigger_than_con(std::vector<bool> &isGenBiggerThanCon) {
this->isGenBiggerThanCon=isGenBiggerThanCon; this->IsGenBiggerThanCon = isGenBiggerThanCon;
} }
auto Community::iterateBuildings( auto Community::iterateBuildings(
std::vector<std::unique_ptr<Community> > &Communities) std::vector<std::unique_ptr<Community> > &Communities)
-> std::function<std::function<void(const std::function<void( -> std::function<std::function<void(const std::function<void(Community &, Building::Base &)> &)>(
Community &, Building::Base &)> &)>(const std::function<void(Community &)> &)> { const std::function<void(Community &)> &)> {
return [&](const std::function<void(Community &)> &func1) { return [&](const std::function<void(Community &)> &func1) {
return [&, func1](const std::function<void(Community &, Building::Base &)> &func2) { return [&, func1](const std::function<void(Community &, Building::Base &)> &func2) {
iterateVector(Communities, func1); for (auto &community: Communities) {
func1(*community);
iterateVector(Communities, [&](Community &community) { for (auto &building: community->buildings()) {
for (auto &building: community.buildings()) { func2(*community, *building);
func2(community, *building);
} }
}); }
}; };
}; };
} }

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@ -4,6 +4,7 @@
#ifndef COMMUNITY_H #ifndef COMMUNITY_H
#define COMMUNITY_H #define COMMUNITY_H
#include <bitset>
#include <memory> #include <memory>
#include <vector> #include <vector>
@ -14,7 +15,6 @@
class Community : public Model<Community> { class Community : public Model<Community> {
public: public:
Community():generationAvailable(VALUE_COUNT, 0.0f),consumptionAvailable(VALUE_COUNT,0.0f){};
std::string name() const; std::string name() const;
void set_name(const std::string &name); void set_name(const std::string &name);
@ -27,29 +27,32 @@ public:
void set_energy_tariff(const Energy_Tariff &energy_tariff); void set_energy_tariff(const Energy_Tariff &energy_tariff);
std::vector<float> GenerationAvailable() const; std::vector<float> &generation_available();
void set_generation_available(std::vector<float> &generationAvailable); void set_generation_available(std::vector<float> &generationAvailable);
std::vector<float> ConsumptionAvailable() const; std::vector<float> &consumption_available();
void set_consumption_available(std::vector<float> &consumptionAvailable); void set_consumption_available(std::vector<float> &consumptionAvailable);
std::vector<bool> IsGenBiggerThanCon() const; std::vector<bool> &is_gen_bigger_than_con();
void set_is_gen_bigger_than_con(std::vector<bool> &isGenBiggerThanCon); void set_is_gen_bigger_than_con(std::vector<bool> &isGenBiggerThanCon);
std::bitset<MAX_CONDITIONS> getConditionsBitmask() const;
static std::function<std::function<void(const std::function<void(Community &, Building::Base &)> &)>(const std:: static std::function<std::function<void(const std::function<void(Community &, Building::Base &)> &)>(const std::
function<void( function<void(
Community &)> &)> Community &)> &)>
iterateBuildings(std::vector<std::unique_ptr<Community> > &Communities); iterateBuildings(std::vector<std::unique_ptr<Community> > &Communities);
private: private:
std::string Name; std::string Name;
std::vector<std::unique_ptr<Building::Base> > Buildings; std::vector<std::unique_ptr<Building::Base> > Buildings;
std::vector<float> generationAvailable; std::vector<float> GenerationAvailable = std::vector(VALUE_COUNT, 0.0f);
std::vector<float> consumptionAvailable; std::vector<float> ConsumptionAvailable = std::vector(VALUE_COUNT, 0.0f);
std::vector<bool> isGenBiggerThanCon; std::vector<bool> IsGenBiggerThanCon = std::vector(VALUE_COUNT, false);
Energy_Tariff energy_Tariff; Energy_Tariff energy_Tariff;
}; };

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@ -7,6 +7,9 @@
class Energy_Tariff { class Energy_Tariff {
public:
float consumption_tariff{0.0f};
float generation_tariff{0.0f};
}; };

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@ -5,15 +5,12 @@
#include <memory> #include <memory>
#include <vector> #include <vector>
template <class T> template<class T>
class Model class Model {
{
public: public:
static void iterateVector(std::vector<std::unique_ptr<T>>& vector, static void iterateVector(std::vector<std::unique_ptr<T> > &vector,
const std::function<void(T&)>& function) const std::function<void(T &)> &function) {
{ for (auto &item: vector) {
for (auto& item : vector)
{
function(*item); function(*item);
} }
} }

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@ -4,15 +4,25 @@
#include "CostPipeline.h" #include "CostPipeline.h"
void CostPipeline::addCostComponent(const std::shared_ptr<ICostComponent>& components)
{ void CostPipeline::addCostComponent(const std::shared_ptr<ICostComponent> &components) {
this->components.push_back(components); this->components.push_back(components);
} }
void CostPipeline::calculateFinalCost() void CostPipeline::calculateFinalCost() {
{ for (auto &component: this->components) {
for (auto& component : this->components) iterateCommunity(component);
{ }
component->apply(this->communities); }
void CostPipeline::iterateCommunity(std::shared_ptr<ICostComponent> &component) const {
for (auto &community: this->communities) {
iterateBuilding(community, component);
}
}
void CostPipeline::iterateBuilding(std::unique_ptr<Community> &community, std::shared_ptr<ICostComponent> &component) {
for (auto &building: community->buildings()) {
component->apply(building, community);
} }
} }

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@ -6,21 +6,27 @@
#define COSTPIPELINE_H #define COSTPIPELINE_H
#include <memory> #include <memory>
#include <vector> #include <vector>
#include "NetworkProvider.h"
#include "../../interfaces/ICostComponent.h" #include "../../interfaces/ICostComponent.h"
#include "../../model/Community.h" #include "../../model/Community.h"
class CostPipeline class CostPipeline {
{ std::vector<std::unique_ptr<Community> > &communities;
std::vector<std::unique_ptr<Community>>& communities; std::vector<std::shared_ptr<ICostComponent> > components;
std::vector<std::shared_ptr<ICostComponent>> components;
public: public:
CostPipeline(std::vector<std::unique_ptr<Community>>& communities) : communities(communities) CostPipeline(std::vector<std::unique_ptr<Community> > &communities) : communities(communities) {
{
} }
void addCostComponent(const std::shared_ptr<ICostComponent>& components); void addCostComponent(const std::shared_ptr<ICostComponent> &components);
void calculateFinalCost(); void calculateFinalCost();
void iterateCommunity(std::shared_ptr<ICostComponent> &component) const;
static void iterateBuilding(std::unique_ptr<Community> &community, std::shared_ptr<ICostComponent> &component);
}; };

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@ -0,0 +1,18 @@
//
// Created by StanislausCichocki on 12.03.2025.
//
#include "NetworkProvider.h"
void NetworkProvider::apply(std::unique_ptr<Building::Base> &building, std::unique_ptr<Community> &community) {
std::shared_ptr<Building::CostValues> &valuesWith = building->cost()->get_cost_values_with();
std::shared_ptr<Building::CostValues> &valuesWithout = building->cost()->get_cost_values_without();
//Todo tariffs
valuesWithout->set_consumption(building->values()->needed_con_sum()*building->metadata()->special_rate_consumption());
valuesWithout->set_generation(building->values()->needed_gen_sum()*-building->metadata()->special_rate_generation());
valuesWithout->set_consumption(building->values()->generation_to_community_sum()*-community->energy_tariff().consumption_tariff);
valuesWithout->set_generation(building->values()->consumption_from_community_sum()*-community->energy_tariff().generation_tariff);
}

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@ -0,0 +1,19 @@
//
// Created by StanislausCichocki on 12.03.2025.
//
#ifndef NETWORKPROVIDER_H
#define NETWORKPROVIDER_H
#include "../../interfaces/ICostComponent.h"
class NetworkProvider : public ICostComponent {
public:
NetworkProvider(): ICostComponent() {
}
void apply(std::unique_ptr<Building::Base> &building, std::unique_ptr<Community> &community) override;
};
#endif //NETWORKPROVIDER_H

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@ -4,12 +4,6 @@
#include "TaxComponent.h" #include "TaxComponent.h"
void TaxComponent::applyCost(std::vector<std::unique_ptr<Community>>& communities) void apply(std::unique_ptr<Building::Base> &building, std::unique_ptr<Community> &community) {
{
Community::iterateVector(communities, [&](Community& community)
{
Building::Base::iterateVector(community.buildings(), [&](Building::Base& building)
{
});
});
} }

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@ -7,16 +7,14 @@
#include "../../interfaces/ICostComponent.h" #include "../../interfaces/ICostComponent.h"
class TaxComponent : public ICostComponent class TaxComponent : public ICostComponent {
{
double taxRate; double taxRate;
public: public:
TaxComponent(double rate) : taxRate(rate) TaxComponent(double rate) : ICostComponent(), taxRate(rate) {
{
} }
void applyCost(std::vector<std::unique_ptr<Community>>& communities); void apply(std::unique_ptr<Building::Base> &building, std::unique_ptr<Community> &community) override;
}; };

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@ -1,69 +1,73 @@
//
// Created by StanislausCichocki on 10.03.2025.
//
#include <spdlog/spdlog.h> #include <spdlog/spdlog.h>
#include "Surplus.h" #include "Surplus.h"
#include "../model/Building.h" #include "../model/Building.h"
#include <algorithm> #include <algorithm>
#include <vector> #include <vector>
#include <ranges> #include <ranges>
#include <numeric> #include <numeric>
#include <cassert>
#include <iostream>
void Surplus::CalculateSurplus() { void Surplus::CalculateSurplus() {
auto iterateFunc = Community::iterateBuildings(communities); auto iterateFunc = Community::iterateBuildings(communities);
auto modifyCommunity = [this](Community &c) { auto modifyCommunity = [this](Community &c) {
this->consumptionAvailable=std::vector<float>(VALUE_COUNT, 00.f); this->consumptionAvailable = std::vector<float>(VALUE_COUNT, 0.f);
this->generationAvailable=std::vector<float>(VALUE_COUNT, 00.f); this->generationAvailable = std::vector<float>(VALUE_COUNT, 0.f);
this->isGenBigger=std::vector<bool>(VALUE_COUNT, false);
assert(!c.name().empty() && "Community name is empty!");
LOG_DEBUG_INFO("Calculating Surplus for Community: {}", c.name()); LOG_DEBUG_INFO("Calculating Surplus for Community: {}", c.name());
}; };
auto modifyBuildingSurplus = [this](Community &community, Building::Base &building) { auto modifyBuildingSurplus = [this](Community &community, Building::Base &building) {
assert(building.metadata() != nullptr && "Building metadata is null!");
LOG_DEBUG_INFO("Calculating Surplus for Building: {} in Community: {}", LOG_DEBUG_INFO("Calculating Surplus for Building: {} in Community: {}",
building.metadata()->name(), community.name()); building.metadata()->name(), community.name());
CalculateBuildingSurplus(community, building); CalculateBuildingSurplus(community, building);
};
auto modifyBuildingSurplusCommunity = [this](Community &community, Building::Base &building) {
LOG_DEBUG_INFO("Calculating Surplus for Building: {} in Community: {}",
building.metadata()->name(), community.name());
CalculateSurplusCommunity(community, building);
};
iterateFunc(modifyCommunity)(modifyBuildingSurplus);
iterateFunc(modifyCommunity)(modifyBuildingSurplusCommunity);
auto addCommunityValues = [this](Community &community) {
community.set_consumption_available(this->consumptionAvailable); community.set_consumption_available(this->consumptionAvailable);
community.set_generation_available(this->generationAvailable); community.set_generation_available(this->generationAvailable);
community.set_is_gen_bigger_than_con(this->isGenBigger);
}; };
iterateFunc(addCommunityValues);
iterateFunc(modifyCommunity)(modifyBuildingSurplus);
auto calculateCommunitySurplus = [this](Community &community) {
std::vector<bool> isGenBiggerThanCon;
std::ranges::transform(
consumptionAvailable, generationAvailable,
std::back_inserter(isGenBiggerThanCon),
[](const float a, const float b) { return a < b; }
);
community.set_is_gen_bigger_than_con(isGenBiggerThanCon);
};
auto calculateDistribution = [this](Community &community, Building::Base &building) {
CalculateSurplusCommunity(community, building);
};
iterateFunc(calculateCommunitySurplus)(calculateDistribution);
} }
void Surplus::CalculateBuildingSurplus(Community &community, Building::Base &building) { void Surplus::CalculateBuildingSurplus(Community &community, Building::Base &building) {
std::vector<float> ownCoverage; std::vector<float> ownCoverage = std::vector(VALUE_COUNT, 0.0f);
std::vector<float> neededConsumption; std::vector<float> neededConsumption = std::vector(VALUE_COUNT, 0.0f);
std::vector<float> neededGeneration; std::vector<float> neededGeneration = std::vector(VALUE_COUNT, 0.0f);
std::vector<float> ownUsage; std::vector<float> ownUsage = std::vector(VALUE_COUNT, 0.0f);
assert(building.metadata() != nullptr && "Building metadata is null!");
const auto &consumption = building.metadata()->consumption_profile(); const auto &consumption = building.metadata()->consumption_profile();
const auto &generation = building.metadata()->generation_profile(); const auto &generation = building.metadata()->generation_profile();
ownCoverage.reserve(consumption.size()); size_t i = 0; // Fixed static variable issue
neededConsumption.reserve(consumption.size());
neededGeneration.reserve(consumption.size());
ownUsage.reserve(consumption.size());
std::ranges::for_each(consumption, [&](auto c_ptr) { std::ranges::for_each(consumption, [&](auto c_ptr) {
static size_t i = 0; // Keep track of index
const float c = c_ptr ? c_ptr : 0.0f; const float c = c_ptr ? c_ptr : 0.0f;
const float g = (i < generation.size() && generation[i]) ? generation[i] : 0.0f; const float g = i < generation.size() ? generation[i] : 0.0f;
const float c_community = (i < consumptionAvailable.size() && consumptionAvailable[i]) const float c_community = (i < consumptionAvailable.size()) ? consumptionAvailable[i] : 0.0f;
? consumptionAvailable[i] const float g_community = (i < generationAvailable.size()) ? generationAvailable[i] : 0.0f;
: 0.0f;
const float g_community = (i < generationAvailable.size() && generationAvailable[i])
? generationAvailable[i]
: 0.0f;
const auto ownCov = (c - g); const auto ownCov = (c - g);
const auto neededCons = ((c > 0.0f) ? c : 0.0f); const auto neededCons = ((c > 0.0f) ? c : 0.0f);
@ -73,13 +77,12 @@ void Surplus::CalculateBuildingSurplus(Community &community, Building::Base &bui
const auto communityConsumption = c_community + neededCons; const auto communityConsumption = c_community + neededCons;
const auto generationConsumption = g_community + neededGen; const auto generationConsumption = g_community + neededGen;
ownCoverage.push_back(ownCov); ownCoverage[i] = ownCov;
neededConsumption.push_back(neededCons); neededConsumption[i] = neededCons;
neededGeneration.push_back(neededGen); neededGeneration[i] = neededGen;
ownUsage.push_back(ownUs); ownUsage[i] = ownUs;
this->consumptionAvailable[i] = communityConsumption; if (i < consumptionAvailable.size()) this->consumptionAvailable[i] = communityConsumption;
this->generationAvailable[i] = generationConsumption; if (i < generationAvailable.size()) this->generationAvailable[i] = generationConsumption;
this->isGenBigger[i] = generationAvailable[i] > consumptionAvailable[i];
++i; ++i;
}); });
@ -88,24 +91,92 @@ void Surplus::CalculateBuildingSurplus(Community &community, Building::Base &bui
building.values()->set_needed_gen(std::move(neededGeneration)); building.values()->set_needed_gen(std::move(neededGeneration));
building.values()->set_own_usage(std::move(ownUsage)); building.values()->set_own_usage(std::move(ownUsage));
if (building.metadata()->annual_consumption() > 0.0f) { const float totalConsumption = std::accumulate(building.metadata()->consumption_profile().begin(),
building.metadata()->consumption_profile().end(), 0.0f);
const float totalGeneration = std::accumulate(building.metadata()->generation_profile().begin(),
building.metadata()->generation_profile().end(), 0.0f);
if (totalConsumption > 0.0f) {
building.values()->set_relativeSelfConsumption( building.values()->set_relativeSelfConsumption(
std::accumulate(building.values()->own_usage().begin(), building.values()->own_usage().end(), 0.0f) / std::accumulate(building.values()->own_usage().begin(), building.values()->own_usage().end(), 0.0f) /
std::accumulate(building.metadata()->consumption_profile().begin(), totalConsumption);
building.metadata()->consumption_profile().end(), 0.0f));
} else { } else {
building.values()->set_relativeSelfConsumption(0.0f); building.values()->set_relativeSelfConsumption(0.0f);
} }
if (building.metadata()->annual_generation() > 0.0f) {
if (totalGeneration > 0.0f) {
building.values()->set_relativeSelfGeneration( building.values()->set_relativeSelfGeneration(
std::accumulate(building.values()->own_usage().begin(), building.values()->own_usage().end(), 0.0f) / std::accumulate(building.values()->own_usage().begin(), building.values()->own_usage().end(), 0.0f) /
std::accumulate(building.metadata()->generation_profile().begin(), totalGeneration);
building.metadata()->generation_profile().end(), 0.0f));
} else { } else {
building.values()->set_relativeSelfGeneration(0.0f); building.values()->set_relativeSelfGeneration(0.0f);
} }
} }
void Surplus::CalculateSurplusCommunity(const Community &community, const Building::Base &base) { void Surplus::CalculateSurplusCommunity(Community &community, Building::Base &base) {
const size_t neededGenSize = base.values()->needed_gen().size();
const size_t neededConSize = base.values()->needed_con().size();
const size_t consumptionAfterCommunitySize = base.values()->consumption_after_community().size();
const size_t generationAfterCommunitySize = base.values()->generation_after_community().size();
const size_t generationToCommunitySize = base.values()->generation_to_community().size();
const size_t consumptionFromCommunitySize = base.values()->consumption_from_community().size();
const size_t communityConsumptionSize = community.consumption_available().size();
const size_t communityGenerationSize = community.generation_available().size();
if (neededGenSize != neededConSize ||
neededGenSize != consumptionAfterCommunitySize ||
neededGenSize != generationAfterCommunitySize ||
neededGenSize != generationToCommunitySize ||
neededGenSize != consumptionFromCommunitySize ||
neededGenSize != communityConsumptionSize ||
neededGenSize != communityGenerationSize) {
std::cerr << "Size mismatch detected in CalculateSurplusCommunity():\n";
std::cerr << "neededGenSize: " << neededGenSize << "\n";
std::cerr << "neededConSize: " << neededConSize << "\n";
std::cerr << "consumptionAfterCommunitySize: " << consumptionAfterCommunitySize << "\n";
std::cerr << "generationAfterCommunitySize: " << generationAfterCommunitySize << "\n";
std::cerr << "generationToCommunitySize: " << generationToCommunitySize << "\n";
std::cerr << "consumptionFromCommunitySize: " << consumptionFromCommunitySize << "\n";
std::cerr << "communityConsumptionSize: " << communityConsumptionSize << "\n";
std::cerr << "communityGenerationSize: " << communityGenerationSize << "\n";
throw std::runtime_error("Mismatch in vector sizes for CalculateSurplusCommunity()");
}
for (auto &&[needed_g, needed_c, con_after,gen_after,con_from,gen_to, con_available, gen_available, isGenBigger]:
std::views::zip(
base.values()->needed_gen(),
base.values()->needed_con(),
base.values()->consumption_after_community(),
base.values()->generation_after_community(),
base.values()->generation_to_community(),
base.values()->consumption_from_community(),
community.consumption_available(),
community.generation_available(),
community.is_gen_bigger_than_con()
)) {
if (isGenBigger) {
con_from = needed_g;
gen_to = needed_g / gen_available * con_available;
} else {
con_from = needed_c / con_available * gen_available;
gen_to = needed_c;
}
con_after = needed_c - con_from;
gen_after = needed_g - gen_to;
}
if (base.metadata()->annual_consumption() != 0) {
base.values()->set_con_from_community_relative(
std::accumulate(base.values()->consumption_from_community().begin(),
base.values()->consumption_from_community().end(),
0.0f) / base.metadata()->annual_consumption());
}
if (base.metadata()->annual_generation() != 0) {
base.values()->set_gen_to_community_relative(
std::accumulate(base.values()->generation_to_community().begin(),
base.values()->generation_to_community().end(),
0.0f) / base.metadata()->annual_generation());
}
} }

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@ -16,20 +16,18 @@ private:
std::vector<std::unique_ptr<Community> > &communities; std::vector<std::unique_ptr<Community> > &communities;
std::vector<float> consumptionAvailable; std::vector<float> consumptionAvailable;
std::vector<float> generationAvailable; std::vector<float> generationAvailable;
std::vector<bool> isGenBigger;
public: public:
Surplus(std::vector<std::unique_ptr<Community> > &communities) : communities(communities), Surplus(std::vector<std::unique_ptr<Community> > &communities) : communities(communities),
consumptionAvailable(VALUE_COUNT, 0.0f), consumptionAvailable(VALUE_COUNT, 0.0f),
generationAvailable(VALUE_COUNT, 0.0f), generationAvailable(VALUE_COUNT, 0.0f) {
isGenBigger(VALUE_COUNT, false) {
} }
void CalculateSurplus(); void CalculateSurplus();
void CalculateBuildingSurplus(Community &community, Building::Base &); void CalculateBuildingSurplus(Community &community, Building::Base &);
void CalculateSurplusCommunity(const Community & community, const Building::Base & base); void CalculateSurplusCommunity(Community &community, Building::Base &base);
}; };

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@ -15,12 +15,6 @@ namespace Building {
class Factory { class Factory {
public: public:
std::unique_ptr<Building::Cost> static create_test_cost() {
auto cost = std::make_unique<Building::Cost>();
cost->set_special_rate_consumption(0.15f);
cost->set_special_rate_generation(0.10f);
return cost;
}
std::unique_ptr<Building::Simulation_Values> static create_test_simulation_values() { std::unique_ptr<Building::Simulation_Values> static create_test_simulation_values() {
auto values = std::make_unique<Building::Simulation_Values>(); auto values = std::make_unique<Building::Simulation_Values>();
@ -56,6 +50,9 @@ public:
metadata->set_connection_power(100); metadata->set_connection_power(100);
metadata->set_grid_power(50); metadata->set_grid_power(50);
metadata->set_special_rate_consumption(0.15f);
metadata->set_special_rate_generation(0.10f);
auto consumptionProfile = std::vector<float>(); auto consumptionProfile = std::vector<float>();
auto generationProfile = std::vector<float>(); auto generationProfile = std::vector<float>();
@ -74,7 +71,6 @@ public:
std::unique_ptr<Building::Base> static create_test_building() { std::unique_ptr<Building::Base> static create_test_building() {
auto building = std::make_unique<Building::Base>(); auto building = std::make_unique<Building::Base>();
building->set_cost(create_test_cost());
building->set_values(create_test_simulation_values()); building->set_values(create_test_simulation_values());
building->set_metadata(create_test_metadata()); building->set_metadata(create_test_metadata());
@ -90,7 +86,7 @@ public:
community->set_name("Test Community"); community->set_name("Test Community");
std::vector<std::unique_ptr<Building::Base> > buildings; std::vector<std::unique_ptr<Building::Base> > buildings;
for (int i = 0; i < 3; i++) { for (int i = 0; i < 10; i++) {
buildings.push_back(create_test_building()); buildings.push_back(create_test_building());
} }

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@ -3,15 +3,19 @@
// //
#define DOCTEST_CONFIG_IMPLEMENT_WITH_MAIN #define DOCTEST_CONFIG_IMPLEMENT_WITH_MAIN
#include "../../src/services/Surplus.h" #include "../../src/services/Surplus.h"
#include "../../src/services/Cost/CostPipeline.h"
#include "../../src/services/Cost/NetworkProvider.h"
#include "doctest/doctest.h" #include "doctest/doctest.h"
#include "../model/Factory.h" #include "../model/Factory.h"
TEST_CASE("Testing add function") { TEST_CASE("Testing add function") {
std::vector<std::unique_ptr<Community> > communities; std::vector<std::unique_ptr<Community> > communities;
for (int i = 0; i < 1000; i++) { for (int i = 0; i < 3; i++) {
communities.push_back(Factory::create_test_community()); communities.push_back(Factory::create_test_community());
} }
Surplus surplus(communities); Surplus surplus(communities);
surplus.CalculateSurplus(); surplus.CalculateSurplus();
CostPipeline costPipeline(communities);
costPipeline.addCostComponent(std::make_shared<NetworkProvider>());
CHECK(true); CHECK(true);
} }