Pro League stats & predictions

Maintaining discipline is key—don’t chase losses or let emotions dictate your betting choices.

The Role of Technology in Modern Betting

In today's digital age, technology plays a pivotal role in enhancing your betting experience. From advanced analytics software to real-time updates via mobile apps, technology offers numerous tools that can give you an edge over traditional methods.

• Data Analytics Platforms: Leverage platforms like Opta or StatsBomb for comprehensive match data analysis.
• Betting Apps: Prominent apps provide live odds updates and allow you to place bets from anywhere.
• Social Media Insights: Follow expert analysts on platforms like Twitter for real-time predictions and tips.
• Voice Assistants: Use voice assistants like Alexa or Google Assistant for quick updates during live matches.
• Casino Technology: Innovations such as virtual reality (VR) are transforming how fans engage with football betting.
• E-Sports Influence: The rise of e-sports has introduced new betting dynamics that can be applied to traditional sports.
• Betting Exchanges: Websites like Betfair offer peer-to-peer betting opportunities that can provide better odds.
• Data Privacy: Maintain awareness about how your data is used by betting platforms to ensure privacy protection.
• User Experience Design: Sophisticated UI/UX design enhances user interaction with betting platforms.
• Cryptocurrency Betting: Crypto options provide anonymity and potentially lower transaction fees.
• Betting Algorithms: Automated systems can suggest bets based on statistical models.
• Social Betting Platforms: Crowdsourced predictions add a communal aspect to betting.
• Holographic Displays: Innovative displays can provide immersive viewing experiences during live matches.
• Data Security Measures: sevansgit/FLAMEGPU<|file_sep|>/FLAMEGPU/include/MessageBuffer.h #ifndef FLAMEGPU_MESSAGEBUFFER_H #define FLAMEGPU_MESSAGEBUFFER_H #include "Agent.h" #include "AgentList.h" #include "MemoryPool.h" namespace flamegpu { template > class MessageBuffer { public: MessageBuffer() : agentLists(NULL), agentListsSize(0), agentListsCapacity(0) {} ~MessageBuffer() { if (agentLists != NULL) { delete[] agentLists; } } void allocate(size_t capacity) { agentListsCapacity = capacity; agentLists = new TMessageListType[agentListsCapacity]; agentListsSize = capacity; } void deallocate() { if (agentLists != NULL) { delete[] agentLists; agentLists = NULL; agentListsSize = agentListsCapacity = 0; } } void clear() { for (size_t i = 0; i < agentListsSize; ++i) { agentLists[i].clear(); } } bool isEmpty() const { bool empty = true; for (size_t i = 0; i < agentListsSize && empty; ++i) { empty &= agentLists[i].isEmpty(); } return empty; } size_t size() const { size_t size = 0; for (size_t i = 0; i < agentListsSize; ++i) { size += agentLists[i].size(); } return size; } TMessageListType &operator[](size_t index) { return agentLists[index]; } const TMessageListType &operator[](size_t index) const { return agentLists[index]; } size_t getAgentListSize() const { return agentListsSize; } private: TMessageListType *agentLists; size_t agentListsSize; size_t agentListsCapacity; }; template > class MessageBufferAgentCounter { public: void allocate(size_t capacity) { counters.reserve(capacity); counters.resize(capacity); } void deallocate() { counters.clear(); } void clear() { counters.clear(); } bool isEmpty() const { return counters.empty(); } size_t size() const { return counters.size(); } unsigned int &operator[](size_t index) { return counters[index]; } private: std::vector counters; }; } #endif //FLAMEGPU_MESSAGEBUFFER_H <|repo_name|>sevansgit/FLAMEGPU<|file_sep|>/examples/SimplePopulation/test/test_agents.py import unittest import numpy as np from examples.SimplePopulation.agents import SimpleAgent class TestAgents(unittest.TestCase): def test_agent_init(self): """ Test initialisation :return: """ agt = SimpleAgent() self.assertEqual(agt.get_id(), -1) self.assertEqual(agt.get_p_id(), -1) self.assertEqual(agt.get_g_id(), -1) def test_agent_populate(self): """ Test population :return: """ agt = SimpleAgent() # # This will generate an exception if it cannot find the function # agt.populate() # # Check we have populated correctly # self.assertTrue(agt.get_p_id() >= -1) # self.assertTrue(agt.get_g_id() >= -1) # self.assertTrue(agt.get_id() >= -1) # self.assertTrue(agt.x >= -10) # self.assertTrue(agt.y <= +10) # self.assertTrue(agt.z >= -10) # self.assertTrue(agt.z <= +10) if __name__ == '__main__': unittest.main() <|file_sep|>#ifndef FLAMEGPU_AGENTLIST_H #define FLAMEGPU_AGENTLIST_H #include "flamegpu_globals.h" namespace flamegpu { template > class AgentList { public: AgentList() : agents(NULL), agentsSize(0), agentsCapacity(0), messages(NULL), messagesSize(0), messagesCapacity(0) {} ~AgentList() { deallocate(); } void allocate(size_t capacity); void deallocate(); void clear(); bool isEmpty() const; size_t size() const; Agent &operator[](size_t index); const Agent &operator[](size_t index) const; Agent *getAgentPointer(size_t index); Message* getMessagePointer(size_t index); TMessageType& getMessage(size_t index); const TMessageType& getMessage(size_t index) const; Agent &addAgent(Agent &&agent); Agent &addAgent(const Agent &agent); void addMessages(TMessageType* messagesIn, size_t messagesInCount, bool copyMessagesIn); TMessageType *addMessages(size_t count, bool copyMessagesIn); TMessageType *getMessages(); void resizeMessages(size_t count); void removeAgents(size_t countToRemove); size_t getAgentListSize() const { return agentsSize; } size_t getMessagesCount() const { return messagesSize; } private: // static unsigned int getTypeId(); // static unsigned int getTypeId(); // static unsigned int getTypeId(Agent*); // static unsigned int getTypeId(Agent&); // static unsigned int getTypeId(const Agent&); // static unsigned int getTypeId(const Agent*); // static unsigned int getTypeId(TMessageType*); // static unsigned int getTypeId(const TMessageType*); // static unsigned int getTypeId(TMessageType&); // static unsigned int getTypeId(const TMessageType&); // private: // private: // private: // private: private: Agent* agents; size_t agentsSize; size_t agentsCapacity; TMessageType *messages; size_t messagesSize; size_t messagesCapacity; }; template inline Agent &AgentList::addAgent(Agent &&agent){ if (agentsCapacity == agentsSize){ // TODO: Implement resizing logic throw std::runtime_error("Not implemented"); } agents[agentsSize] = std::move(agent); ++agentsSize; return agents[agentsSize-1]; } template inline Agent &AgentList::addAgent(const Agent &agent){ if (agentsCapacity == agentsSize){ // TODO: Implement resizing logic throw std::runtime_error("Not implemented"); } agents[agentsSize] = agent; ++agentsSize; return agents[agentsSize-1]; } template inline void AgentList::allocate(size_t capacity){ if (capacity == agentsCapacity){ // No need to reallocate return; } if (agentsCapacity == agentsSize){ // We need more space so we double it if (capacity == 0){ capacity = AGENT_LIST_DEFAULT_CAPACITY; } else{ capacity *= AGENT_LIST_DOUBLE_FACTOR; } } else{ // We only need enough space so we reduce it slightly if (capacity > AGENT_LIST_DEFAULT_CAPACITY){ capacity *= AGENT_LIST_REDUCE_FACTOR; capacity += AGENT_LIST_DEFAULT_CAPACITY; if (capacity > AGENT_LIST_MAX_CAPACITY){ capacity = AGENT_LIST_MAX_CAPACITY; } if (capacity <= agentsCapacity){ capacity = agentsCapacity + AGENT_LIST_ADDITIONAL_CAPACITY; if (capacity > AGENT_LIST_MAX_CAPACITY){ capacity = AGENT_LIST_MAX_CAPACITY; } } } else{ // If we've gone down below default we go back up again capacity = AGENT_LIST_DEFAULT_CAPACITY; } } // Now allocate space for all components agentsCapacity = capacity; // uint32 typeId = getTypeId(); agents = new Agent[agentsCapacity]; messagesCapacity = capacity * MAX_MESSAGE_COUNT_PER_AGENT; // uint32 msgTypeId = getMessageTypeId(); // messages = // new Message[messagesCapacity]; #if defined(__CUDACC__) && !defined(__CUDACC_VER_MAJOR__) #error Cuda support not implemented yet. #else #if defined(__CUDACC__) #pragma managed false #endif #endif #if defined(__CUDACC__) && !defined(__CUDACC_VER_MAJOR__) #error Cuda support not implemented yet. #else #if defined(__CUDACC__) #pragma managed true #endif #endif messages = new TMessageType[messagesCapacity]; #if defined(__CUDACC__) && !defined(__