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<h2>Create your snippet's HTML, CSS and Javascript in the editor tabs</h2>
</div>
</div>using System;
using System.Collections.Generic;
// Define AGI entity class
class AGIEntity {
// Properties and methods representing AGI capabilities
// This could include complex task management, virtual simulation logic, etc.
}
// Define Pocket Dimension class
class PocketDimension {
public List<AGIEntity> AGIEntities { get; private set; }
public PocketDimension(int entityCount) {
AGIEntities = new List<AGIEntity>();
// Create and add AGI entities to this pocket dimension
for (int i = 0; i < entityCount; i++) {
AGIEntities.Add(new AGIEntity());
}
}
}
class Simulation {
public List<List<PocketDimension>> NestedDimensions { get; private set; }
public Simulation(int levels, int entitiesPerDimension) {
NestedDimensions = new List<List<PocketDimension>>();
// Create the nested pocket dimensions
for (int i = 0; i < levels; i++) {
List<PocketDimension> levelDimensions = new List<PocketDimension>();
for (int j = 0; j < 25; j++) { // 25 dimensions per level as specified
levelDimensions.Add(new PocketDimension(entitiesPerDimension));
}
NestedDimensions.Add(levelDimensions);
}
}
}
class Program {
static void Main(string[] args) {
// Define the simulation parameters
int levels = 10;
int entitiesPerDimension = 25;
// Create the simulation
Simulation sim = new Simulation(levels, entitiesPerDimension);
// Accessing the entities in the simulation
// Example: Accessing the first entity in the second dimension of the third level
AGIEntity entity = sim.NestedDimensions[2][1].AGIEntities[0];
// Additional logic for simulating interactions, tasks, and functionalities
}
}using System;
using System.Collections.Generic;
// Define a class to represent a subject
class Subject {
public string Name { get; set; }
public List<string> Archives { get; set; }
public Subject(string name) {
Name = name;
Archives = new List<string>();
}
public void AddArchive(string archive) {
Archives.Add(archive);
}
}
// Define a class to manage the classification of subjects
class SubjectClassification {
public Dictionary<string, List<Subject>> Categories { get; set; }
public SubjectClassification() {
Categories = new Dictionary<string, List<Subject>>();
}
public void AddSubjectToCategory(string category, Subject subject) {
if (!Categories.ContainsKey(category)) {
Categories[category] = new List<Subject>();
}
Categories[category].Add(subject);
}
}
class Program {
static void Main(string[] args) {
// Create a subject classification instance
SubjectClassification classification = new SubjectClassification();
// Create subjects
Subject mathematics = new Subject("Mathematics");
mathematics.AddArchive("Mathematics Archive 1");
mathematics.AddArchive("Mathematics Archive 2");
// Add mathematics to the category "Science"
classification.AddSubjectToCategory("Science", mathematics);
Subject literature = new Subject("Literature");
literature.AddArchive("Literature Archive 1");
literature.AddArchive("Literature Archive 2");
// Add literature to the category "Humanities"
classification.AddSubjectToCategory("Humanities", literature);
// Accessing subjects and their archives
foreach (var category in classification.Categories) {
Console.WriteLine($"Category: {category.Key}");
foreach (var subject in category.Value) {
Console.WriteLine($"Subject: {subject.Name}");
Console.WriteLine("Archives:");
foreach (var archive in subject.Archives) {
Console.WriteLine(archive);
}
}
}
}
}import tensorflow as tf
# Define and train a simple neural network (this is a basic example)
model = tf.keras.Sequential([
tf.keras.layers.Embedding(input_dim=vocab_size, output_dim=embedding_dim, input_length=max_length),
tf.keras.layers.GlobalAveragePooling1D(),
tf.keras.layers.Dense(1, activation='sigmoid')
])
model.compile(loss='binary_crossentropy', optimizer='adam', metrics=['accuracy'])
# Train the model with your fact-checking dataset
model.fit(training_data, training_labels, epochs=num_epochs)
# Loop to continually learn and improve accuracy
while True:
new_data = get_new_data_to_fact_check() # Retrieve new data to fact-check
for data_point in new_data:
predicted_accuracy = model.predict(data_point) # Predict accuracy
# Check against ground truth or reliable sources, update model based on feedback
update_model_with_feedback(data_point, predicted_accuracy)
// C# code to interface with a Python-trained model
// Code to load the preprocessed data and the trained model
// (This code assumes that the model and necessary data are accessible via an API or file system)
public class FactChecker
{
// Function to check the accuracy of a given statement
public double CheckAccuracy(string statement)
{
// Use an API call or file access to pass 'statement' to the trained model in Python
// Get the model's prediction and return the accuracy score
// (This part might require inter-process communication or using a web service to interact with the Python model)
return GetPredictionFromPythonModel(statement);
}
// Function to update the model based on user feedback
public void UpdateModelWithFeedback(string statement, bool isAccurate)
{
// Send user feedback data to Python for retraining the model
// This could involve sending the statement and accuracy label back to Python for retraining
SendFeedbackToPython(statement, isAccurate);
}
// Other necessary functions to handle interactions with the trained model
}
using System;
using System.Collections.Generic;
class AIKnowledgeSystem
{
// Define learning goals and subjects the AI aims to improve upon
List<string> learningGoals = new List<string>() { "Science", "Technology", "History", "Art", "Mathematics" };
// Define sources or repositories for data collection
Dictionary<string, string> dataSources = new Dictionary<string, string>()
{
{ "Science", "https://example.com/science-data" },
{ "Technology", "https://example.com/tech-data" },
// ... define more sources for other subjects
};
public void StartLearningProcess()
{
foreach (var subject in learningGoals)
{
// Data Collection
string data = GatherDataFromSource(dataSources[subject]);
// Data Preprocessing
string preprocessedData = PreprocessData(data);
// Knowledge Acquisition
string insights = ExtractInsights(preprocessedData);
// Update Knowledge Base
UpdateKnowledgeBase(subject, insights);
// Validation and Evaluation
ValidateAndEvaluate(subject, insights);
}
// Continual Learning Loop - Simulated continuous learning
while (true)
{
foreach (var subject in learningGoals)
{
string newData = GetNewData(subject);
string preprocessedNewData = PreprocessData(newData);
string newInsights = ExtractInsights(preprocessedNewData);
UpdateKnowledgeBase(subject, newInsights);
ValidateAndEvaluate(subject, newInsights);
// Simulated adaptive learning strategies based on feedback
bool userFeedback = GetUserFeedback();
if (userFeedback)
{
AdjustLearningStrategy(subject);
}
}
// Simulated retraining and improvement
RetrainAI();
// Monitoring and Maintenance (Simulated)
MonitorLearningProcess();
}
}
// Simulated methods for the various stages
private string GatherDataFromSource(string sourceUrl)
{
// Simulated data collection process
return $"Data from {sourceUrl}";
}
private string PreprocessData(string data)
{
// Simulated data preprocessing
return $"Preprocessed: {data}";
}
private string ExtractInsights(string preprocessedData)
{
// Simulated insight extraction using NLP
return $"Insights from NLP: {preprocessedData}";
}
private void UpdateKnowledgeBase(string subject, string insights)
{
// Simulated knowledge base update
Console.WriteLine($"Updated {subject} knowledge base with: {insights}");
}
private void ValidateAndEvaluate(string subject, string insights)
{
// Simulated validation and evaluation
Console.WriteLine($"Validating {subject} insights: {insights}");
}
private string GetNewData(string subject)
{
// Simulated method to get new data
return $"New data for {subject}";
}
private bool GetUserFeedback()
{
// Simulated method to get user feedback
// For adaptive learning strategies
return false;
}
private void AdjustLearningStrategy(string subject)
{
// Simulated adaptive learning strategy adjustment
Console.WriteLine($"Adjusting learning strategy for {subject}");
}
private void RetrainAI()
{
// Simulated retraining and improvement
Console.WriteLine("Retraining AI...");
}
private void MonitorLearningProcess()
{
// Simulated monitoring and maintenance
Console.WriteLine("Monitoring learning process...");
}
}
class Program
{
static void Main(string[] args)
{
AIKnowledgeSystem ai = new AIKnowledgeSystem();
ai.StartLearningProcess();
}
}
// Using Stanford.NLP for basic language analysis
// This requires installing and setting up the Stanford.NLP library in C#
using System;
using edu.stanford.nlp.simple; // Example library namespace
class NLUExample
{
public void PerformNLU(string text)
{
Document doc = new Document(text);
foreach (Sentence sent in doc.Sentences)
{
Console.WriteLine("Constituent parse: " + sent.Parse());
Console.WriteLine("Dependency parse: " + sent.DependencyGraph);
Console.WriteLine("Entity mentions: " + sent.EntityMentions);
// Perform more NLU tasks as needed
}
}
}
using System;
class Program
{
static void Main()
{
// Vertices of the first tesseract
double[,] tesseract1Vertices = {
{-1, -1, -1, -1},
{1, -1, -1, -1},
{-1, 1, -1, -1},
{1, 1, -1, -1},
{-1, -1, 1, -1},
{1, -1, 1, -1},
{-1, 1, 1, -1},
{1, 1, 1, -1}
};
// Vertices of the second tesseract (slightly shifted along one axis for intersection)
double[,] tesseract2Vertices = {
{-1, -1, -1, 1},
{1, -1, -1, 1},
{-1, 1, -1, 1},
{1, 1, -1, 1},
{-1, -1, 1, 1},
{1, -1, 1, 1},
{-1, 1, 1, 1},
{1, 1, 1, 1}
};
// Connect the vertices to represent edges of the tesseracts
// Here, you would typically draw lines between the vertices to represent edges
Console.WriteLine("Edges of Tesseract 1:");
ConnectVertices(tesseract1Vertices);
Console.WriteLine("\nEdges of Tesseract 2:");
ConnectVertices(tesseract2Vertices);
Console.ReadLine();
}
// Method to connect vertices and display edges
static void ConnectVertices(double[,] vertices)
{
int numVertices = vertices.GetLength(0);
// Loop through each vertex
for (int i = 0; i < numVertices; i++)
{
// Connect this vertex to other vertices to form edges
for (int j = i + 1; j < numVertices; j++)
{
// Here, you would typically draw a line between the vertices
// For simplicity, let's just display the connected vertices
Console.WriteLine($"Vertex {i + 1} connected to Vertex {j + 1}");
}
}
}
}using UnityEngine;
public class DimensionalManipulation : MonoBehaviour
{
public float dp = 3.0f;
public float d = 1.5f;
void Update()
{
float time = Time.time;
// Example: Calculate derivative and integral based on dimensional parameters
float derivativeResult = CalculateDerivative(dp, 0.001f); // Example derivative calculation
float integralResult = CalculateIntegral(d, d + 1, 0.001f); // Example integral calculation
// Algebraic modification
float modifiedDp = AlgebraicModification(dp);
float modifiedD = AlgebraicModification(d);
// Print the results to console
Debug.Log($"Derivative Result: {derivativeResult}");
Debug.Log($"Integral Result: {integralResult}");
Debug.Log($"Modified dp: {modifiedDp}");
Debug.Log($"Modified d: {modifiedD}");
}
float CalculateDerivative(float x, float h)
{
// Calculate derivative using finite difference method (simple numerical approximation)
float derivative = (Function(x + h) - Function(x)) / h;
return derivative;
}
float CalculateIntegral(float a, float b, float dx)
{
// Calculate integral using the trapezoidal rule (simple numerical approximation)
float integral = 0;
for (float x = a; x < b; x += dx)
{
float midpointArea = dx * (Function(x) + Function(x + dx)) / 2;
integral += midpointArea;
}
return integral;
}
float AlgebraicModification(float value)
{
// Example algebraic modification of the value
return Mathf.Pow(value, 2) + 3 * value - 2; // Example algebraic modification: x^2 + 3x - 2
}
float Function(float x)
{
// Example function to use in calculus operations
return Mathf.Sin(x) * Mathf.Cos(x); // Example function: sin(x) * cos(x)
}
}
using UnityEngine;
public class SineWaveTesseract : MonoBehaviour
{
// ... (previous code remains unchanged)
void Update()
{
float time = Time.time;
// ... (previous code remains unchanged)
// Example: Calculate derivatives and integrals
float derivativeResult = CalculateDerivative(time, 0.001f); // Example derivative calculation
float integralResult = CalculateIntegral(time, time + 1, 0.001f); // Example integral calculation
// Print the results to console
Debug.Log($"Derivative Result: {derivativeResult}");
Debug.Log($"Integral Result: {integralResult}");
}
float CalculateDerivative(float x, float h)
{
// Calculate derivative using finite difference method (simple numerical approximation)
float derivative = (CustomEquation(x + h) - CustomEquation(x)) / h;
return derivative;
}
float CalculateIntegral(float a, float b, float dx)
{
// Calculate integral using the trapezoidal rule (simple numerical approximation)
float integral = 0;
for (float x = a; x < b; x += dx)
{
float midpointArea = dx * (CustomEquation(x) + CustomEquation(x + dx)) / 2;
integral += midpointArea;
}
return integral;
}
// ... (previous functions remain unchanged)
}
using UnityEngine;
public class SineWaveTesseract : MonoBehaviour
{
public GameObject tesseractPrefab;
public float radius1 = 3.0f;
public float radius2 = 1.5f;
private GameObject tesseract;
void Start()
{
CreateTesseract();
}
void CreateTesseract()
{
tesseract = Instantiate(tesseractPrefab, Vector3.zero, Quaternion.identity);
}
void Update()
{
float time = Time.time;
// Calculate sine wave values and apply to tesseract's position
float sineTime = Mathf.Sin(time);
float cosTime = Mathf.Cos(time);
float x = radius1 * sineTime;
float y = radius1 * cosTime;
float z = radius2 * Mathf.Sin(time * 2.0f); // Second radius
// Apply the calculated positions to the tesseract
tesseract.transform.position = new Vector3(x, y, z);
// Scale the tesseract based on radii
float scaleChange = 1.0f + Mathf.Sin(time) * 0.5f; // Scale oscillation
tesseract.transform.localScale = new Vector3(scaleChange, scaleChange, scaleChange);
// Example: Calculate simple algebraic equations
float result1 = QuadraticEquation(2, -3, 1); // Example quadratic equation
float result2 = ExponentialFunction(2, 3); // Example exponential function
float result3 = CustomEquation(time); // Example custom equation based on time
// Print the results to console
Debug.Log($"Quadratic Equation Result: {result1}");
Debug.Log($"Exponential Function Result: {result2}");
Debug.Log($"Custom Equation Result: {result3}");
}
float QuadraticEquation(float a, float b, float c)
{
// Solving quadratic equation: ax^2 + bx + c = 0
// Example: 2x^2 - 3x + 1 = 0
float discriminant = Mathf.Pow(b, 2) - 4 * a * c;
if (discriminant < 0)
{
Debug.LogError("No real roots for the quadratic equation.");
return 0;
}
float root1 = (-b + Mathf.Sqrt(discriminant)) / (2 * a);
return root1;
}
float ExponentialFunction(float baseValue, float exponent)
{
// Example exponential function: baseValue^exponent
return Mathf.Pow(baseValue, exponent);
}
float CustomEquation(float value)
{
// Example custom equation using the input value (in this case, time)
return Mathf.Sin(value) * Mathf.Cos(value);
}
}using UnityEngine;
public class SineWaveTesseract : MonoBehaviour
{
public GameObject tesseractPrefab;
public float radius1 = 3.0f;
public float radius2 = 1.5f;
private GameObject tesseract;
void Start()
{
CreateTesseract();
}
void CreateTesseract()
{
tesseract = Instantiate(tesseractPrefab, Vector3.zero, Quaternion.identity);
}
void Update()
{
// Calculate sine wave values and apply to tesseract's position
float sineTime = Mathf.Sin(Time.time);
float cosTime = Mathf.Cos(Time.time);
float x = radius1 * sineTime;
float y = radius1 * cosTime;
float z = radius2 * Mathf.Sin(Time.time * 2.0f); // Second radius
// Apply the calculated positions to the tesseract
tesseract.transform.position = new Vector3(x, y, z);
// Scale the tesseract based on radii
float scaleChange = 1.0f + Mathf.Sin(Time.time) * 0.5f; // Scale oscillation
tesseract.transform.localScale = new Vector3(scaleChange, scaleChange, scaleChange);
}
}using UnityEngine;
public class TesseractMovement : MonoBehaviour
{
public GameObject tesseractPrefab;
public GameObject activatorPrefab;
public GameObject contactPointPrefab;
public float movementSpeed = 1.0f;
public float rotationSpeed = 30.0f;
public float scaleChangeSpeed = 0.5f;
private GameObject tesseract;
private GameObject activatorX;
private GameObject activatorY;
private GameObject activatorZ;
private GameObject contactPoint;
void Start()
{
CreateTesseract();
CreateActivators();
CreateContactPoint();
}
void Update()
{
// Animate tesseract movement
AnimateTesseractMovement();
// Rotate activators around XYZ axes
RotateActivators();
// Simulate horizontal time travel and scale changes
SimulateHorizontalTimeTravel();
}
void CreateTesseract()
{
tesseract = Instantiate(tesseractPrefab, new Vector3(0, 0, 0), Quaternion.identity);
}
void CreateActivators()
{
activatorX = Instantiate(activatorPrefab, new Vector3(5, 0, 0), Quaternion.identity);
activatorY = Instantiate(activatorPrefab, new Vector3(0, 5, 0), Quaternion.identity);
activatorZ = Instantiate(activatorPrefab, new Vector3(0, 0, 5), Quaternion.identity);
}
void CreateContactPoint()
{
contactPoint = Instantiate(contactPointPrefab, new Vector3(0, 0, 5), Quaternion.identity);
}
void AnimateTesseractMovement()
{
// Example: Animate tesseract movement by changing its position
float sinTime = Mathf.Sin(Time.time * movementSpeed);
float cosTime = Mathf.Cos(Time.time * movementSpeed);
tesseract.transform.position = new Vector3(sinTime, cosTime, 0);
}
void RotateActivators()
{
// Example: Rotate activators around XYZ axes
activatorX.transform.Rotate(Vector3.right * Time.deltaTime * rotationSpeed);
activatorY.transform.Rotate(Vector3.up * Time.deltaTime * rotationSpeed);
activatorZ.transform.Rotate(Vector3.forward * Time.deltaTime * rotationSpeed);
}
void SimulateHorizontalTimeTravel()
{
// Example: Simulate horizontal time travel and scale changes
float scaleChange = Mathf.Sin(Time.time * scaleChangeSpeed) + 1.0f; // Oscillate between 0.0 and 2.0
float horizontalMovement = Mathf.Sin(Time.time * movementSpeed);
tesseract.transform.localScale = new Vector3(scaleChange, scaleChange, scaleChange);
contactPoint.transform.position = new Vector3(horizontalMovement, 0, 5);
}
}using UnityEngine;
public class TesseractMovement : MonoBehaviour
{
public GameObject tesseractPrefab;
public GameObject activatorPrefab;
void Start()
{
CreateTesseract();
CreateActivator();
}
void CreateTesseract()
{
// Generate tesseract representation (4D cubes) at different positions
// Animation or transition to simulate movement in the fifth dimension
// This might involve scaling or changing positions of cubes to simulate tesseract movement
}
void CreateActivator()
{
// Generate activator visualizations around XYZ axes
// Place spheres or cylinders to denote activations
}
void HorizontalTimeTravel()
{
// Implement horizontal time travel as an animation or transition
// Simulate movement along the fifth dimension
}
void ScaleBetweenRadii()
{
// Implement scaling effects between two radii
// Change the size or scale of the tesseract representation
}
void Horizontal5DContactPoint()
{
// Visualize a contact point within the horizontal surface area in 5D
// Use visual indicators or effects to show this point in the scene
}
}# Pseudocode for audio manipulation
audio = load_audio("sound.wav")
# Dimensional Modes
apply_dimensional_effects(audio, dimension)
# This function changes audio properties based on the dimension
# Transition from Stable to Prolapsed Inverted
transition_audio(audio, "stable", "prolapsed_inverted")
# Apply effects gradually to transition between states
# More Inside on the Outside and Vice Versa
adjust_spatial_effects(audio, location)
# Alter stereo panning, reverb, or spatial effects
# Dimensional Time Clips
segment_audio(audio, time_variants)
# Split audio into clips representing different time variants
play_audio(audio)
# Play the modified audio
using UnityEngine;
public class SoundManipulationMod : MonoBehaviour
{
// Reference to the external app or plugin
private ExternalAppConnector externalConnector;
// UI elements for tabs or sections
public GameObject tab1;
public GameObject tab2;
// ... (other tabs)
void Start()
{
// Initialize connection with the external app or plugin
externalConnector = GetComponent<ExternalAppConnector>();
}
public void OpenTab1()
{
// Show tab 1 UI
tab1.SetActive(true);
// Send command to the external app or plugin to activate corresponding feature for tab 1
externalConnector.ActivateFeature1();
}
public void OpenTab2()
{
// Show tab 2 UI
tab2.SetActive(true);
// Send command to the external app or plugin to activate corresponding feature for tab 2
externalConnector.ActivateFeature2();
}
// ... (similar functions for other tabs)
}using UnityEngine;
public class MultiDimensionalCube : MonoBehaviour
{
public Material cubeMaterial;
public int gridSize = 3;
public float spacing = 1.5f;
void Start()
{
Create4DStructure();
Create5DStructure();
}
void Create4DStructure()
{
for (int x = -gridSize; x <= gridSize; x++)
{
for (int y = -gridSize; y <= gridSize; y++)
{
for (int z = -gridSize; z <= gridSize; z++)
{
for (int w = -gridSize; w <= gridSize; w++)
{
Vector4 position = new Vector4(x, y, z, w) * spacing;
// Create a cube for each combination in 4D
CreateCube(position, "4D Cube");
}
}
}
}
}
void Create5DStructure()
{
for (int x = -gridSize; x <= gridSize; x++)
{
for (int y = -gridSize; y <= gridSize; y++)
{
for (int z = -gridSize; z <= gridSize; z++)
{
for (int w = -gridSize; w <= gridSize; w++)
{
for (int v = -gridSize; v <= gridSize; v++)
{
Vector5 position = new Vector5(x, y, z, w, v) * spacing;
// Create a cube for each combination in 5D
CreateCube(position, "5D Cube");
}
}
}
}
}
}
void CreateCube(Vector4 position, string cubeName)
{
GameObject cube = GameObject.CreatePrimitive(PrimitiveType.Cube);
cube.transform.position = position;
cube.transform.localScale = new Vector3(1f, 1f, 1f);
cube.GetComponent<Renderer>().material = cubeMaterial;
cube.name = cubeName;
}
}using UnityEngine;
public class MultiDimensionalPlane : MonoBehaviour
{
public int gridSize = 10;
public float spacing = 1.0f;
public Material planeMaterial;
void Start()
{
CreateMultiDimensionalPlane();
}
void CreateMultiDimensionalPlane()
{
for (int x = -gridSize; x <= gridSize; x++)
{
for (int y = -gridSize; y <= gridSize; y++)
{
Vector3 position = new Vector3(x * spacing, y * spacing, 0f);
// Calculate additional dimensions
float dimensionXY = Mathf.Sin(x * spacing) * Mathf.Cos(y * spacing);
float dimensionYX = Mathf.Cos(x * spacing) * Mathf.Sin(y * spacing);
float dimensionDyx = Mathf.Sin(x * spacing - y * spacing);
float dimensionNegDyx = -dimensionDyx;
// Instantiate planes for each dimension
InstantiatePlane(position, dimensionXY, "XY");
InstantiatePlane(position, dimensionYX, "YX");
InstantiatePlane(position, dimensionDyx, "Dyx");
InstantiatePlane(position, dimensionNegDyx, "NegDyx");
// For 5 dimensions
float dimensionDp = Mathf.Sin(x * spacing) * Mathf.Cos(y * spacing);
float dimensionNegDp = -dimensionDp;
float dimensionDpNegDp = dimensionDp - dimensionNegDp;
float dimensionNegDpDp = dimensionNegDp + dimensionDp;
InstantiatePlane(position, dimensionDp, "Dp");
InstantiatePlane(position, dimensionNegDp, "NegDp");
InstantiatePlane(position, dimensionDpNegDp, "DpNegDp");
InstantiatePlane(position, dimensionNegDpDp, "NegDpDp");
}
}
}
void InstantiatePlane(Vector3 position, float dimensionValue, string dimensionName)
{
GameObject plane = GameObject.CreatePrimitive(PrimitiveType.Plane);
plane.transform.position = position + Vector3.up * dimensionValue;
plane.transform.localScale = new Vector3(0.8f, 0.1f, 0.8f);
plane.GetComponent<Renderer>().material = planeMaterial;
plane.name = dimensionName;
}
}using UnityEngine;
public class EquationCalculator : MonoBehaviour
{
public Material signWaveMaterial; // Attach the SignWaveShader material here
void Update()
{
// Time-based calculations
float time = Time.time;
// Sign wave generation
float amplitude = Mathf.Sin(time);
signWaveMaterial.SetFloat("_Amplitude", amplitude);
// Calculate rate of time per time
float rateOfTime = CalculateRateOfTime(time);
// Use rateOfTime for further calculations or visual effects
// Calculate sine waves on a plane in 3D
CalculateSineWavesOnPlane(time);
}
float CalculateRateOfTime(float time)
{
// Implement your rate of time calculation here
// This can involve various equations based on your design
float rate = Mathf.Cos(time); // Example equation
return rate;
}
void CalculateSineWavesOnPlane(float time)
{
// Implement your sine wave calculations on a plane in 3D
// You can use multiple equations for different dimensions
// Equation for xy plane
float sineXY = Mathf.Sin(time);
// Use sineXY for further calculations or visual effects
// Equation for yx plane
float sineYX = Mathf.Sin(time + Mathf.PI); // 180-degree phase shift
// Use sineYX for further calculations or visual effects
// ... Repeat for other dimensions and equations ...
}
// Implement calculations for 4 dimensions (xy, yx, dyx, -dyx)
// Implement calculations for 5 dimensions (dp, -dp, d, -d, dp-dp, -dp-dp, ...)
// Adjust and expand the code based on your specific requirements
}
import bpy
# Replace 'audio_file_path' with the path to the generated audio file
audio_file_path = 'path_to_generated_audio.wav'
# Set up audio for the scene
bpy.context.scene.sequence_editor_create()
audio_sequence = bpy.context.scene.sequence_editor.sequences.new_sound(name="GeneratedAudio", filepath=audio_file_path, channel=1, frame_start=1)
bpy.context.scene.sequence_editor.sequences_all.update(audio_sequence)
# Define your animation here
# This might include creating keyframes for object movements or other animations
# Set up render settings
bpy.context.scene.render.resolution_x = 1920
bpy.context.scene.render.resolution_y = 1080
bpy.context.scene.render.fps = 30
bpy.context.scene.frame_start = 1
bpy.context.scene.frame_end = 250 # Adjust based on the length of your animation/audio
# Render animation
bpy.ops.render.render(animation=True)
import numpy as np
import sounddevice as sd
# Parameters
duration = 5 # Duration of the audio in seconds
sample_rate = 44100 # Sample rate (samples per second)
frequency = 440 # Frequency of the sound wave (Hz)
# Function to generate audio based on spatial coordinates (x, y) and time (z)
def generate_audio(x, y, z):
time = np.linspace(0, duration, int(duration * sample_rate), endpoint=False)
# Calculate audio data using a 3D sine wave function
audio_data = np.sin(2 * np.pi * frequency * time + x + y + z)
return audio_data
# Create a sound wave based on spatial coordinates and time
x_coord = 1.0 # Example x-coordinate
y_coord = 2.0 # Example y-coordinate
# Generate audio data based on the function and coordinates
audio = generate_audio(x_coord, y_coord, np.linspace(0, duration, int(duration * sample_rate), endpoint=False))
# Play the generated audio
sd.play(audio, sample_rate)
sd.wait()
import cv2
import tensorflow as tf
# Perform armature detection using OpenCV or a pre-trained model with TensorFlow
# Track the armatures over time using object tracking or machine learning-based methods
# Extract and process the armature movement data
# Use TensorFlow to train an AI model based on the extracted armature movement data
# Program the AI model to make decisions or control actions based on the armature's behavior
# Create and manipulate a vertex grid or representation based on the armature movement data
# This could involve animation or manipulation of 3D models or objects in a graphical environment
using System.Collections;
using System.Collections.Generic;
using UnityEngine;
public class TimeCursor : MonoBehaviour
{
public float speed = 2.0f; // Cursor movement speed
public float timeFlowRate = 1.0f; // Time flow rate
private float currentTime = 0.0f;
void Update()
{
// Update the current time based on time flow rate
currentTime += Time.deltaTime * timeFlowRate;
// Calculate the 3D position based on time
Vector3 position = CalculatePosition(currentTime);
// Move the cursor to the calculated position
transform.position = position;
}
Vector3 CalculatePosition(float time)
{
// Implement your 4D to 3D space-time transformation here
// This is where you would use advanced mathematical models and physics equations
// In this simplified example, we'll just move the cursor along the X-axis.
float x = time * speed;
float y = 0.0f; // You can set other dimensions as needed.
float z = 0.0f;
return new Vector3(x, y, z);
}
}
using System.Collections;
using System.Collections.Generic;
using UnityEngine;
using UnityEngine.UI;
public class TesseractGrid : MonoBehaviour
{
public GameObject cursor;
public float timeFlowRate = 1.0f;
public Text timeText; // Text for displaying time
// Define clips for the grid
public GameObject[] horizontalClips;
public GameObject[] verticalClips;
public Slider barGraph; // Bar graph UI element
public float additiveFactor = 0.0f; // Additional factor affecting time
private int currentHorizontalClipIndex = 0;
private int currentVerticalClipIndex = 0;
private float currentTime = 0;
void Update()
{
// Move the cursor between four quadrants
MoveCursor();
// Manipulate time flow
UpdateTime();
// Manipulate clips on the vertical and horizontal axes
UpdateClips();
// Update the bar graph and factor
UpdateBarGraph();
// Apply the additive factor
currentTime += additiveFactor * Time.deltaTime;
}
void MoveCursor()
{
// Implement cursor movement logic
}
void UpdateTime()
{
float deltaTime = Time.deltaTime * timeFlowRate;
currentTime += deltaTime;
// Handle time loop or reversal as needed
if (currentTime > 10.0f)
{
currentTime = -10.0f;
}
else if (currentTime < -10.0f)
{
currentTime = 10.0f;
}
// Display the current time on the UI
timeText.text = "Time: " + currentTime.ToString("F1");
}
void UpdateClips()
{
// Change clips on the vertical and horizontal axes based on time or other conditions
// Example: Switch to the next horizontal clip every 2 seconds
if (currentTime % 2.0f < 1.0f)
{
currentHorizontalClipIndex = (currentHorizontalClipIndex + 1) % horizontalClips.Length;
}
// Example: Switch to the next vertical clip every 3 seconds
if (currentTime % 3.0f < 1.5f)
{
currentVerticalClipIndex = (currentVerticalClipIndex + 1) % verticalClips.Length;
}
// Apply the selected clips to the grid
ApplyClips();
}
void UpdateBarGraph()
{
// Update the bar graph based on time and additiveFactor
// Set the value of the bar graph to a function of currentTime
barGraph.value = (currentTime + 10.0f) / 20.0f; // Normalize the value to [0, 1]
}
void ApplyClips()
{
// Implement logic to display the selected clips on the grid
}
}
using System.Collections;
using System.Collections.Generic;
using UnityEngine;
using UnityEngine.UI;
public class TesseractGrid : MonoBehaviour
{
public GameObject cursor;
public float timeFlowRate = 1.0f;
public Text timeText; // Text for displaying time
// Define clips for the grid
public GameObject[] horizontalClips;
public GameObject[] verticalClips;
public Slider barGraph; // Bar graph UI element
private int currentHorizontalClipIndex = 0;
private int currentVerticalClipIndex = 0;
private float currentTime = 0;
void Update()
{
// Move the cursor between four quadrants
MoveCursor();
// Manipulate time flow
UpdateTime();
// Manipulate clips on the vertical and horizontal axes
UpdateClips();
// Update the bar graph based on time
UpdateBarGraph();
}
void MoveCursor()
{
// Implement cursor movement logic
}
void UpdateTime()
{
float deltaTime = Time.deltaTime * timeFlowRate;
currentTime += deltaTime;
// Handle time loop or reversal as needed
if (currentTime > 10.0f)
{
currentTime = -10.0f;
}
else if (currentTime < -10.0f)
{
currentTime = 10.0f;
}
// Display the current time on the UI
timeText.text = "Time: " + currentTime.ToString("F1");
}
void UpdateClips()
{
// Change clips on the vertical and horizontal axes based on time or other conditions
// Example: Switch to the next horizontal clip every 2 seconds
if (currentTime % 2.0f < 1.0f)
{
currentHorizontalClipIndex = (currentHorizontalClipIndex + 1) % horizontalClips.Length;
}
// Example: Switch to the next vertical clip every 3 seconds
if (currentTime % 3.0f < 1.5f)
{
currentVerticalClipIndex = (currentVerticalClipIndex + 1) % verticalClips.Length;
}
// Apply the selected clips to the grid
ApplyClips();
}
void UpdateBarGraph()
{
// Update the bar graph based on time
// Set the value of the bar graph to a function of currentTime
barGraph.value = (currentTime + 10.0f) / 20.0f; // Normalize the value to [0, 1]
}
void ApplyClips()
{
// Implement logic to display the selected clips on the grid
}
}using System.Collections;
using System.Collections.Generic;
using UnityEngine;
public class TesseractGrid : MonoBehaviour
{
public GameObject cursor;
public float timeFlowRate = 1.0f; // Adjust time flow speed
// Define clips for the grid
public GameObject[] horizontalClips;
public GameObject[] verticalClips;
private int currentHorizontalClipIndex = 0;
private int currentVerticalClipIndex = 0;
private float currentTime = 0;
void Update()
{
// Move the cursor between four quadrants
MoveCursor();
// Manipulate time flow
UpdateTime();
// Manipulate clips on the vertical and horizontal axes
UpdateClips();
}
void MoveCursor()
{
// Implement cursor movement logic
}
void UpdateTime()
{
float deltaTime = Time.deltaTime * timeFlowRate;
currentTime += deltaTime;
// Handle time loop or reversal as needed
if (currentTime > 10.0f)
{
currentTime = -10.0f;
}
else if (currentTime < -10.0f)
{
currentTime = 10.0f;
}
}
void UpdateClips()
{
// Change clips on the vertical and horizontal axes based on time or other conditions
// Example: Switch to the next horizontal clip every 2 seconds
if (currentTime % 2.0f < 1.0f)
{
currentHorizontalClipIndex = (currentHorizontalClipIndex + 1) % horizontalClips.Length;
}
// Example: Switch to the next vertical clip every 3 seconds
if (currentTime % 3.0f < 1.5f)
{
currentVerticalClipIndex = (currentVerticalClipIndex + 1) % verticalClips.Length;
}
// Apply the selected clips to the grid
ApplyClips();
}
void ApplyClips()
{
// Implement logic to display the selected clips on the grid
}
}using System;
using System.Drawing;
using System.Windows.Forms;
public class MandelbrotVisualization : Form
{
private PictureBox[] canvases = new PictureBox[4];
private int canvasWidth = 400;
private int canvasHeight = 400;
private int scaleFactor = 1;
public MandelbrotVisualization()
{
Text = "Mandelbrot 3D Cube Visualization";
ClientSize = new Size(canvasWidth * 2, canvasHeight * 2);
for (int i = 0; i < 4; i++)
{
canvases[i] = new PictureBox();
canvases[i].Width = canvasWidth;
canvases[i].Height = canvasHeight;
canvases[i].Location = new Point((i % 2) * canvasWidth, (i / 2) * canvasHeight);
Controls.Add(canvases[i]);
}
Button scaleButton = new Button();
scaleButton.Text = "Scale Up";
scaleButton.Location = new Point(canvasWidth / 2 - 50, canvasHeight * 2 + 10);
scaleButton.Click += ScaleUp;
Controls.Add(scaleButton);
Load += RenderMandelbrotSet;
}
private void RenderMandelbrotSet(object sender, EventArgs e)
{
for (int i = 0; i < 4; i++)
{
Bitmap bitmap = new Bitmap(canvasWidth, canvasHeight);
using (Graphics g = Graphics.FromImage(bitmap))
{
int xOffset = (i % 2) * canvasWidth;
int yOffset = (i / 2) * canvasHeight;
DrawMandelbrot(g, canvasWidth, canvasHeight, xOffset, yOffset);
}
canvases[i].Image = bitmap;
}
}
private void DrawMandelbrot(Graphics g, int width, int height, int xOffset, int yOffset)
{
// Define the Mandelbrot drawing logic here
// You can use a nested loop to iterate through pixels and calculate their values
// Consider the current scale factor to control the level of detail
// Map Mandelbrot coordinates to screen coordinates
// Set pixel colors based on the calculated Mandelbrot values
}
private void ScaleUp(object sender, EventArgs e)
{
scaleFactor *= 2;
RenderMandelbrotSet(sender, e);
}
[STAThread]
static void Main()
{
Application.Run(new MandelbrotVisualization());
}
}
using System;
using System.Collections.Generic;
using System.IO;
using UnityEngine;
public class ModLoader : MonoBehaviour
{
private List<Mod> loadedMods = new List<Mod>();
public void LoadMods()
{
string modsDirectory = Path.Combine(Application.dataPath, "Mods");
if (!Directory.Exists(modsDirectory))
return;
string[] modDirectories = Directory.GetDirectories(modsDirectory);
foreach (string modDir in modDirectories)
{
string modManifestPath = Path.Combine(modDir, "mod.json");
if (File.Exists(modManifestPath))
{
string modManifestContents = File.ReadAllText(modManifestPath);
Mod mod = JsonUtility.FromJson<Mod>(modManifestContents);
loadedMods.Add(mod);
// Load mod assets and initialize mod code here
// You might use reflection or custom scripting interfaces to execute mod code.
}
}
}
public void ApplyMods()
{
// Apply mod changes to the game here
}
}
import pygame
# Define constants for cube size and colors
CUBE_SIZE = 40
CUBE_COLOR = (255, 0, 0)
# Initialize Pygame
pygame.init()
# Create a window
window = pygame.display.set_mode((4 * CUBE_SIZE, 4 * CUBE_SIZE))
# Main loop
running = True
while running:
for event in pygame.event.get():
if event.type == pygame.QUIT:
running = False
# Clear the screen
window.fill((0, 0, 0))
# Draw the 4x4x4 cube
for x in range(4):
for y in range(4):
for z in range(4):
pygame.draw.rect(
window,
CUBE_COLOR,
(x * CUBE_SIZE, y * CUBE_SIZE, CUBE_SIZE, CUBE_SIZE),
)
pygame.display.flip()
# Quit Pygame
pygame.quit()
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using System;
class Program
{
static void Main()
{
// Define the main time clip duration
int mainClipDuration = 10;
// Define the intersection time
int intersectionTime = 5;
// Calculate the spatial dimension in time
double spatialDimension = CalculateSpatialDimension(mainClipDuration, intersectionTime);
Console.WriteLine($"Main Time Clip Duration: {mainClipDuration}");
Console.WriteLine($"Intersection Time: {intersectionTime}");
Console.WriteLine($"Calculated Spatial Dimension in Time: {spatialDimension}");
}
static double CalculateSpatialDimension(int mainClipDuration, int intersectionTime)
{
// Simplified formula for calculating spatial dimension
double spatialDimension = mainClipDuration / (double)intersectionTime;
return spatialDimension;
}
}
using System;
using System.Threading;
class Program
{
static void Main()
{
// Create a Timer object to play the main time clip
Timer mainTimer = new Timer(PlayMainTimeClip, null, 0, 1000); // Play every 1 second
// Create a Timer object to play the first intersecting time clip
Timer intersectingTimer1 = new Timer(PlayIntersectingTimeClip1, null, 5000, 1000); // Play every 1 second, starting after 5 seconds
// Create a Timer object to play the second intersecting time clip
Timer intersectingTimer2 = new Timer(PlayIntersectingTimeClip2, null, 10000, 1000); // Play every 1 second, starting after 10 seconds
Console.WriteLine("Press Enter to exit.");
Console.ReadLine();
}
static void PlayMainTimeClip(object state)
{
Console.WriteLine("Playing Main Time Clip");
// Add your code to play the main time clip here
}
static void PlayIntersectingTimeClip1(object state)
{
Console.WriteLine("Playing Intersecting Time Clip 1");
// Add your code to play the first intersecting time clip here
}
static void PlayIntersectingTimeClip2(object state)
{
Console.WriteLine("Playing Intersecting Time Clip 2");
// Add your code to play the second intersecting time clip here
}
}
using UnityEngine;
public class TesseractMovement : MonoBehaviour
{
public GameObject tesseractPrefab;
public GameObject activatorPrefab;
public GameObject contactPointPrefab;
public float movementSpeed = 1.0f;
public float rotationSpeed = 30.0f;
public float scaleChangeSpeed = 0.5f;
private GameObject tesseract;
private GameObject activatorX;
private GameObject activatorY;
private GameObject activatorZ;
private GameObject contactPoint;
void Start()
{
CreateTesseract();
CreateActivators();
CreateContactPoint();
}
void Update()
{
// Animate tesseract movement
AnimateTesseractMovement();
// Rotate activators around XYZ axes
RotateActivators();
// Simulate horizontal time travel and scale changes
SimulateHorizontalTimeTravel();
}
void CreateTesseract()
{
tesseract = Instantiate(tesseractPrefab, new Vector3(0, 0, 0), Quaternion.identity);
}
void CreateActivators()
{
activatorX = Instantiate(activatorPrefab, new Vector3(5, 0, 0), Quaternion.identity);
activatorY = Instantiate(activatorPrefab, new Vector3(0, 5, 0), Quaternion.identity);
activatorZ = Instantiate(activatorPrefab, new Vector3(0, 0, 5), Quaternion.identity);
}
void CreateContactPoint()
{
contactPoint = Instantiate(contactPointPrefab, new Vector3(0, 0, 5), Quaternion.identity);
}
void AnimateTesseractMovement()
{
// Example: Animate tesseract movement by changing its position
float sinTime = Mathf.Sin(Time.time * movementSpeed);
float cosTime = Mathf.Cos(Time.time * movementSpeed);
tesseract.transform.position = new Vector3(sinTime, cosTime, 0);
}
void RotateActivators()
{
// Example: Rotate activators around XYZ axes
activatorX.transform.Rotate(Vector3.right * Time.deltaTime * rotationSpeed);
activatorY.transform.Rotate(Vector3.up * Time.deltaTime * rotationSpeed);
activatorZ.transform.Rotate(Vector3.forward * Time.deltaTime * rotationSpeed);
}
void SimulateHorizontalTimeTravel()
{
// Example: Simulate horizontal time travel and scale changes
float scaleChange = Mathf.Sin(Time.time * scaleChangeSpeed) + 1.0f; // Oscillate between 0.0 and 2.0
float horizontalMovement = Mathf.Sin(Time.time * movementSpeed);
tesseract.transform.localScale = new Vector3(scaleChange, scaleChange, scaleChange);
contactPoint.transform.position = new Vector3(horizontalMovement, 0, 5);
}
}using UnityEngine;
public class TesseractMovement : MonoBehaviour
{
public GameObject tesseractPrefab;
public GameObject activatorPrefab;
void Start()
{
CreateTesseract();
CreateActivator();
}
void CreateTesseract()
{
// Generate tesseract representation (4D cubes) at different positions
// Animation or transition to simulate movement in the fifth dimension
// This might involve scaling or changing positions of cubes to simulate tesseract movement
}
void CreateActivator()
{
// Generate activator visualizations around XYZ axes
// Place spheres or cylinders to denote activations
}
void HorizontalTimeTravel()
{
// Implement horizontal time travel as an animation or transition
// Simulate movement along the fifth dimension
}
void ScaleBetweenRadii()
{
// Implement scaling effects between two radii
// Change the size or scale of the tesseract representation
}
void Horizontal5DContactPoint()
{
// Visualize a contact point within the horizontal surface area in 5D
// Use visual indicators or effects to show this point in the scene
}
}
using UnityEngine;
public class SoundManipulationMod : MonoBehaviour
{
// Reference to the external app or plugin
private ExternalAppConnector externalConnector;
// UI elements for tabs or sections
public GameObject tab1;
public GameObject tab2;
// ... (other tabs)
void Start()
{
// Initialize connection with the external app or plugin
externalConnector = GetComponent<ExternalAppConnector>();
}
public void OpenTab1()
{
// Show tab 1 UI
tab1.SetActive(true);
// Send command to the external app or plugin to activate corresponding feature for tab 1
externalConnector.ActivateFeature1();
}
public void OpenTab2()
{
// Show tab 2 UI
tab2.SetActive(true);
// Send command to the external app or plugin to activate corresponding feature for tab 2
externalConnector.ActivateFeature2();
}
// ... (similar functions for other tabs)
}
using UnityEngine;
public class MultiDimensionalCube : MonoBehaviour
{
public Material cubeMaterial;
public int gridSize = 3;
public float spacing = 1.5f;
void Start()
{
Create4DStructure();
Create5DStructure();
}
void Create4DStructure()
{
for (int x = -gridSize; x <= gridSize; x++)
{
for (int y = -gridSize; y <= gridSize; y++)
{
for (int z = -gridSize; z <= gridSize; z++)
{
for (int w = -gridSize; w <= gridSize; w++)
{
Vector4 position = new Vector4(x, y, z, w) * spacing;
// Create a cube for each combination in 4D
CreateCube(position, "4D Cube");
}
}
}
}
}
void Create5DStructure()
{
for (int x = -gridSize; x <= gridSize; x++)
{
for (int y = -gridSize; y <= gridSize; y++)
{
for (int z = -gridSize; z <= gridSize; z++)
{
for (int w = -gridSize; w <= gridSize; w++)
{
for (int v = -gridSize; v <= gridSize; v++)
{
Vector5 position = new Vector5(x, y, z, w, v) * spacing;
// Create a cube for each combination in 5D
CreateCube(position, "5D Cube");
}
}
}
}
}
}
void CreateCube(Vector4 position, string cubeName)
{
GameObject cube = GameObject.CreatePrimitive(PrimitiveType.Cube);
cube.transform.position = position;
cube.transform.localScale = new Vector3(1f, 1f, 1f);
cube.GetComponent<Renderer>().material = cubeMaterial;
cube.name = cubeName;
}
}
using UnityEngine;
public class MultiDimensionalPlane : MonoBehaviour
{
public int gridSize = 10;
public float spacing = 1.0f;
public Material planeMaterial;
void Start()
{
CreateMultiDimensionalPlane();
}
void CreateMultiDimensionalPlane()
{
for (int x = -gridSize; x <= gridSize; x++)
{
for (int y = -gridSize; y <= gridSize; y++)
{
Vector3 position = new Vector3(x * spacing, y * spacing, 0f);
// Calculate additional dimensions
float dimensionXY = Mathf.Sin(x * spacing) * Mathf.Cos(y * spacing);
float dimensionYX = Mathf.Cos(x * spacing) * Mathf.Sin(y * spacing);
float dimensionDyx = Mathf.Sin(x * spacing - y * spacing);
float dimensionNegDyx = -dimensionDyx;
// Instantiate planes for each dimension
InstantiatePlane(position, dimensionXY, "XY");
InstantiatePlane(position, dimensionYX, "YX");
InstantiatePlane(position, dimensionDyx, "Dyx");
InstantiatePlane(position, dimensionNegDyx, "NegDyx");
// For 5 dimensions
float dimensionDp = Mathf.Sin(x * spacing) * Mathf.Cos(y * spacing);
float dimensionNegDp = -dimensionDp;
float dimensionDpNegDp = dimensionDp - dimensionNegDp;
float dimensionNegDpDp = dimensionNegDp + dimensionDp;
InstantiatePlane(position, dimensionDp, "Dp");
InstantiatePlane(position, dimensionNegDp, "NegDp");
InstantiatePlane(position, dimensionDpNegDp, "DpNegDp");
InstantiatePlane(position, dimensionNegDpDp, "NegDpDp");
}
}
}
void InstantiatePlane(Vector3 position, float dimensionValue, string dimensionName)
{
GameObject plane = GameObject.CreatePrimitive(PrimitiveType.Plane);
plane.transform.position = position + Vector3.up * dimensionValue;
plane.transform.localScale = new Vector3(0.8f, 0.1f, 0.8f);
plane.GetComponent<Renderer>().material = planeMaterial;
plane.name = dimensionName;
}
}using UnityEngine;
public class SignWaveMod : MonoBehaviour
{
public Material signWaveMaterial; // Attach the SignWaveShader material here
public VideoPlayer timeClipVideo; // Attach a VideoPlayer component for time clips
public float revolutionSpeed = 4.0f; // Revolves 4 times per second
public float omegaPrimeIntensity = 0.5f; // Adjust intensity for -omega prime calculation
void Start()
{
if (signWaveMaterial == null)
{
Debug.LogError("Sign wave material is not assigned!");
return;
}
if (timeClipVideo == null)
{
Debug.LogError("Time clip VideoPlayer component is not assigned!");
return;
}
timeClipVideo.Play(); // Start playing the time clips
}
void Update()
{
// Time-based calculations
float time = Time.time;
// Sign wave generation
float amplitude = Mathf.Sin(time);
signWaveMaterial.SetFloat("_Amplitude", amplitude);
// Revolving hyperbolically in four dimensions
float revolutionAngle = revolutionSpeed * time;
Quaternion rotation = Quaternion.Euler(revolutionAngle, revolutionAngle * 2, revolutionAngle * 3, revolutionAngle * 4);
transform.rotation = rotation;
// -Omega prime calculation
float omegaPrime = -omegaPrimeIntensity * Mathf.Sin(time);
signWaveMaterial.SetFloat("_OmegaPrime", omegaPrime);
// Positive space-time generation
// Perform space-time modifications or stabilizations based on your design
PerformSpaceTimeModifications(time);
}
void PerformSpaceTimeModifications(float time)
{
// Implement your positive space-time generation logic here
// This might include adding or subtracting space-time, converging, or destabilizing it
}
}using UnityEngine;
public class OscilloscopeSimulator : MonoBehaviour
{
public Material signalMaterial; // Attach the SignWaveShader material here
public VideoPlayer videoPlayer; // Attach a VideoPlayer component for video playback
public AudioClip audioClip; // Attach an audio clip for sound waves
// Components for electricity simulation
public float resistance = 1.0f;
public float voltage = 1.0f;
private float current;
void Start()
{
if (signalMaterial == null)
{
Debug.LogError("Signal material is not assigned!");
return;
}
if (videoPlayer == null)
{
Debug.LogError("VideoPlayer component is not assigned!");
}
if (audioClip != null)
{
AnalyzeAudio(audioClip);
}
}
void Update()
{
// Simulate electricity flow
current = voltage / resistance;
// Emit particles based on the current
EmitParticles(current);
// Update material properties based on electricity simulation
UpdateMaterialProperties(current);
}
void AnalyzeAudio(AudioClip clip)
{
// Implement audio analysis if needed
}
void EmitParticles(float current)
{
// Emit particles or perform visual effects based on the current
// ...
}
void UpdateMaterialProperties(float current)
{
// Update material properties (e.g., shader properties) based on the current
signalMaterial.SetFloat("_Amplitude", current);
// Adjust other shader properties as needed
}
}
Shader "Custom/SignWaveShader"
{
Properties
{
_MainTex ("Texture", 2D) = "white" { }
_Amplitude ("Amplitude", Range(0.1, 5)) = 1.0
_Frequency ("Frequency", Range(0.1, 10)) = 1.0
_Speed ("Speed", Range(0.1, 5)) = 1.0
}
SubShader
{
Tags { "Queue" = "Overlay" }
Blend SrcAlpha OneMinusSrcAlpha
Pass
{
CGPROGRAM
#pragma vertex vert
#pragma exclude_renderers gles xbox360 ps3
#include "UnityCG.cginc"
struct appdata
{
float4 vertex : POSITION;
float3 normal : NORMAL;
};
struct v2f
{
float4 pos : POSITION;
float3 normal : TEXCOORD0;
};
fixed _Amplitude;
fixed _Frequency;
fixed _Speed;
v2f vert(appdata v)
{
v2f o;
o.pos = UnityObjectToClipPos(v.vertex);
o.normal = mul((float3x3)unity_WorldToObject, v.normal);
return o;
}
ENDCG
}
}
SubShader
{
Tags { "Queue" = "Overlay" }
Blend SrcAlpha OneMinusSrcAlpha
Pass
{
CGPROGRAM
#pragma vertex vert
#pragma fragment frag
#pragma exclude_renderers gles xbox360 ps3
#include "UnityCG.cginc"
struct appdata
{
float4 vertex : POSITION;
float3 normal : NORMAL;
};
struct v2f
{
float4 pos : POSITION;
float3 normal : TEXCOORD0;
};
sampler2D _MainTex;
fixed _Amplitude;
fixed _Frequency;
fixed _Speed;
v2f vert(appdata v)
{
v2f o;
o.pos = UnityObjectToClipPos(v.vertex);
o.normal = mul((float3x3)unity_WorldToObject, v.normal);
return o;
}
fixed4 frag(v2f i) : COLOR
{
// Calculate sine wave based on time and position
fixed wave = _Amplitude * sin(_Frequency * _Time.y + _Speed * i.normal.x);
// Use wave value to sample from the texture
fixed4 col = tex2D(_MainTex, i.normal.xy * 0.5 + 0.5);
// Combine color with wave effect
return col * wave;
}
ENDCG
}
}
}using UnityEngine;
public class WaveGenerator : MonoBehaviour
{
public AudioClip audioClip; // Assign your audio clip in the inspector
public float waveHeight = 1.0f;
public ParticleSystem particleSystem;
private void Start()
{
if (audioClip != null)
{
AnalyzeAudio(audioClip);
}
}
void AnalyzeAudio(AudioClip clip)
{
float[] samples = new float[clip.samples];
clip.GetData(samples, 0);
int stepSize = clip.samples / particleSystem.main.maxParticles;
for (int i = 0; i < particleSystem.main.maxParticles; i++)
{
float t = i / (float)particleSystem.main.maxParticles;
int sampleIndex = Mathf.FloorToInt(t * clip.samples);
float amplitude = Mathf.Abs(samples[sampleIndex]);
Vector3 position = new Vector3(t * 10f, amplitude * waveHeight, 0f);
particleSystem.Emit(position, Vector3.zero, 0.1f, 1f, Color.white);
}
}
}using UnityEngine;
public class SixDParticleEmitter : MonoBehaviour
{
public GameObject particlePrefab;
public int numberOfParticles = 100;
void Start()
{
for (int i = 0; i < numberOfParticles; i++)
{
InstantiateParticle();
}
}
void InstantiateParticle()
{
GameObject particle = Instantiate(particlePrefab, Random.insideUnitSphere * 5f, Quaternion.identity);
particle.transform.parent = transform;
}
}
Shader "Custom/6DObjectShader"
{
Properties
{
_Color ("Color", Color) = (1,1,1,1)
_MainTex ("Particle Texture", 2D) = "white" { }
}
SubShader
{
Tags { "Queue" = "Overlay" }
Blend SrcAlpha One
ZWrite Off
ZTest LEqual
Cull Off
Lighting Off
Fog { Mode Off }
ColorMask RGB
Pass
{
CGPROGRAM
#pragma vertex vert
#pragma exclude_renderers gles xbox360 ps3
#include "UnityCG.cginc"
struct appdata
{
float4 vertex : POSITION;
};
struct v2f
{
float4 pos : POSITION;
};
v2f vert(appdata v)
{
v2f o;
o.pos = UnityObjectToClipPos(v.vertex);
return o;
}
ENDCG
}
}
SubShader
{
Tags { "Queue" = "Overlay" }
Blend SrcAlpha OneMinusSrcAlpha
ZWrite Off
ZTest LEqual
Cull Off
Lighting Off
Fog { Mode Off }
ColorMask RGB
Pass
{
CGPROGRAM
#pragma vertex vert
#pragma fragment frag
#pragma exclude_renderers gles xbox360 ps3
#include "UnityCG.cginc"
struct appdata
{
float4 vertex : POSITION;
};
struct v2f
{
float4 pos : POSITION;
float4 color : COLOR;
};
fixed4 _Color;
v2f vert(appdata v)
{
v2f o;
o.pos = UnityObjectToClipPos(v.vertex);
return o;
}
fixed4 frag(v2f i) : COLOR
{
return _Color;
}
ENDCG
}
}
}
using UnityEngine;
public class TimeAxesParticleEffect : MonoBehaviour
{
public ParticleSystem particleSystem;
public float primaryTimeScale = 1.0f;
public float submissiveTimeScale = 0.5f;
public float dominateTimeScale = 2.0f;
public float mergeTimeScale = 1.5f;
public float destabilizedTimeScale = 0.2f;
void Update()
{
// Simulate different time axes
float primaryTime = Time.time * primaryTimeScale;
float submissiveTime = Time.time * submissiveTimeScale;
float dominateTime = Time.time * dominateTimeScale;
float mergeTime = Time.time * mergeTimeScale;
float destabilizedTime = Time.time * destabilizedTimeScale;
// Adjust particle system parameters based on time axes
ParticleSystem.MainModule mainModule = particleSystem.main;
mainModule.startSpeed = Mathf.Sin(primaryTime);
mainModule.startLifetime = Mathf.Sin(submissiveTime) + 1.0f;
mainModule.simulationSpeed = Mathf.Sin(dominateTime) + 1.0f;
// Example: Modify other particle system properties based on merge and destabilized times
if (Mathf.Sin(mergeTime) > 0)
{
// Handle merging effect
// ...
}
else
{
// Handle destabilized effect
// ...
}
}
}using UnityEngine;
public class OmegaPrimeParticleEffect : MonoBehaviour
{
public ParticleSystem particleSystem;
public float collapseSpeed = 2.0f;
public float amplitude = 1.0f;
void Update()
{
// Simulate omega prime calculations
float omegaPrime = Mathf.Sin(Time.time);
// Adjust particle positions based on omega prime calculations
ParticleSystem.Particle[] particles = new ParticleSystem.Particle[particleSystem.main.maxParticles];
int particleCount = particleSystem.GetParticles(particles);
for (int i = 0; i < particleCount; i++)
{
Vector3 originalPosition = particles[i].position;
Vector3 newPosition = new Vector3(originalPosition.x, amplitude * omegaPrime, originalPosition.z);
particles[i].position = Vector3.Lerp(originalPosition, newPosition, Time.deltaTime * collapseSpeed);
}
// Apply the adjusted particle positions back to the particle system
particleSystem.SetParticles(particles, particleCount);
}
}Shader "Custom/NonEuclideanTimeWave"
{
Properties
{
_MainTex ("Texture", 2D) = "white" { }
_Speed ("Speed", Range(0.1, 10)) = 1.0
_Frequency ("Frequency", Range(0.1, 10)) = 1.0
}
SubShader
{
Tags { "RenderType"="Opaque" }
LOD 100
Pass
{
CGPROGRAM
#pragma vertex vert
#pragma exclude_renderers gles xbox360 ps3
#include "UnityCG.cginc"
struct appdata
{
float4 vertex : POSITION;
};
struct v2f
{
float4 pos : POSITION;
};
v2f vert(appdata v)
{
v2f o;
o.pos = UnityObjectToClipPos(v.vertex);
return o;
}
ENDCG
}
}
SubShader
{
Tags { "RenderType"="Opaque" }
LOD 100
CGPROGRAM
#pragma surface surf Lambert
sampler2D _MainTex;
fixed _Speed;
fixed _Frequency;
struct Input
{
float2 uv_MainTex;
};
void surf(Input IN, inout SurfaceOutput o)
{
float timeValue = _Speed * _Time.y; // Custom time function
float waveValue = sin(2 * 3.141592653589793 * _Frequency * timeValue);
o.Albedo = waveValue * tex2D(_MainTex, IN.uv_MainTex).rgb;
}
ENDCG
}
CustomEditor "ShaderForgeMaterialInspector"
}
using UnityEngine;
using UnityEngine.UI;
public class SoundVisualization : MonoBehaviour
{
public Text responseText;
public InputField frequencyInput;
public InputField amplitudeInput;
public InputField dimensionalityInput;
public GameObject blenderObject; // Reference to your Blender object
private ParticleSystem particleSystem;
private ParticleSystem.Particle[] particles;
void Start()
{
particleSystem = GetComponent<ParticleSystem>();
particles = new ParticleSystem.Particle[width * height];
Generate2DWave();
}
void Generate2DWave()
{
float frequency = float.Parse(frequencyInput.text);
float amplitude = float.Parse(amplitudeInput.text);
// Access Blender object properties to modify the sine wave
if (blenderObject != null)
{
// You may need to adjust this part based on your specific use case
// For example, access the Blender object's properties, transform, etc.
// You might use blenderObject.transform.position, blenderObject.transform.localScale, etc.
// Modify the sine wave based on these properties
}
for (int y = 0; y < height; y++)
{
for (int x = 0; x < width; x++)
{
float value = amplitude * Mathf.Sin(2 * Mathf.PI * frequency * x / width);
Vector3 position = new Vector3(x, value, y);
particles[x + y * width].position = position * particleScale;
}
}
particleSystem.SetParticles(particles, particles.Length);
}
public void OnDimensionalityChanged()
{
int newDimensionality = int.Parse(dimensionalityInput.text);
width = newDimensionality;
height = newDimensionality;
particles = new ParticleSystem.Particle[width * height];
Generate2DWave();
}
public void OnChatInteraction(string userInput)
{
string response = $"User: {userInput}";
responseText.text = response;
}
}
