public static Blueprint Generate(SpriteShifterConfiguration configuration)
{
var signalCount = configuration.SignalCount ?? ScreenUtil.PixelSignals.Count;
const int maxFilters = 20;
const int shifterCount = 32;
const int inputSignalCount = 32;
var inputSignals = ComputerSignals.OrderedSignals.Take(inputSignalCount).ToList();
var offsetSignal = VirtualSignalNames.Dot;
var entities = new List <Entity>();
var inputMaps = new Entity[inputSignalCount];
var shifters = new Shifter[shifterCount];
// Input maps
for (var processorIndex = 0; processorIndex < inputSignalCount; processorIndex++)
{
var inputSignal = inputSignals[processorIndex];
var y = processorIndex * 4 + 3;
if (y % 18 == 8)
{
y--;
}
else if (y % 18 == 9)
{
y++;
}
var inputMap = new Entity
{
Name = ItemNames.ConstantCombinator,
Position = new Position
{
X = 1,
Y = y
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Filters = new List <Filter> {
Filter.Create(offsetSignal, processorIndex + 1)
}
}
};
inputMaps[processorIndex] = inputMap;
entities.Add(inputMap);
}
// Shifters
for (var shifterIndex = 0; shifterIndex < shifterCount; shifterIndex++)
{
var shifterX = shifterIndex * 2 + shifterIndex / 8 * 2 + 2;
var outputLink = new Entity
{
Name = ItemNames.BigElectricPole,
Position = new Position
{
X = 0.5 + shifterX,
Y = -1.5
}
};
entities.Add(outputLink);
var inputSquared = new Entity
{
Name = ItemNames.ArithmeticCombinator,
Position = new Position
{
X = shifterX,
Y = 0.5
},
Direction = Direction.Down,
Control_behavior = new ControlBehavior
{
Arithmetic_conditions = new ArithmeticConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Each),
Second_constant = 2,
Operation = ArithmeticOperations.Exponentiation,
Output_signal = SignalID.Create(VirtualSignalNames.Each)
}
}
};
entities.Add(inputSquared);
var bufferedInput = new Entity
{
Name = ItemNames.ArithmeticCombinator,
Position = new Position
{
X = 0.5 + shifterX,
Y = 2
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Arithmetic_conditions = new ArithmeticConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Each),
Second_constant = 1,
Operation = ArithmeticOperations.Multiplication,
Output_signal = SignalID.Create(VirtualSignalNames.Each)
}
}
};
entities.Add(bufferedInput);
var negativeInputSquared = new Entity
{
Name = ItemNames.ArithmeticCombinator,
Position = new Position
{
X = 1 + shifterX,
Y = 0.5
},
Direction = Direction.Up,
Control_behavior = new ControlBehavior
{
Arithmetic_conditions = new ArithmeticConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Each),
Second_constant = -1,
Operation = ArithmeticOperations.Multiplication,
Output_signal = SignalID.Create(VirtualSignalNames.Each)
}
}
};
entities.Add(negativeInputSquared);
// Input signal processors
var signalProcessors = new SignalProcessor[inputSignalCount];
for (var processorIndex = 0; processorIndex < inputSignalCount; processorIndex++)
{
var inputSignal = inputSignals[processorIndex];
var y = processorIndex * 4 + 3;
var inputChecker = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = 0.5 + shifterX,
Y = y
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Each),
Second_signal = SignalID.Create(offsetSignal),
Comparator = Comparators.IsEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Each),
Copy_count_from_input = false
}
}
};
entities.Add(inputChecker);
var inputBuffer = new Entity
{
Name = ItemNames.ArithmeticCombinator,
Position = new Position
{
X = 0.5 + shifterX,
Y = 1 + y
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Arithmetic_conditions = new ArithmeticConditions
{
First_signal = SignalID.Create(inputSignal),
Second_constant = 1,
Operation = ArithmeticOperations.Multiplication,
Output_signal = SignalID.Create(inputSignal)
}
}
};
entities.Add(inputBuffer);
var outputGenerator = new Entity
{
Name = ItemNames.ArithmeticCombinator,
Position = new Position
{
X = 0.5 + shifterX,
Y = 2 + y
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Arithmetic_conditions = new ArithmeticConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Each),
Second_signal = SignalID.Create(inputSignal),
Operation = ArithmeticOperations.Multiplication,
Output_signal = SignalID.Create(VirtualSignalNames.Each)
}
}
};
entities.Add(outputGenerator);
var outputCleaner = new Entity
{
Name = ItemNames.ArithmeticCombinator,
Position = new Position
{
X = 0.5 + shifterX,
Y = 3 + y
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Arithmetic_conditions = new ArithmeticConditions
{
First_signal = SignalID.Create(inputSignal),
Second_constant = -1,
Operation = ArithmeticOperations.Multiplication,
Output_signal = SignalID.Create(offsetSignal)
}
}
};
entities.Add(outputCleaner);
signalProcessors[processorIndex] = new SignalProcessor
{
InputChecker = inputChecker,
InputBuffer = inputBuffer,
OutputGenerator = outputGenerator,
OutputCleaner = outputCleaner
};
}
// Output signal maps
var outputMaps = new Entity[(signalCount + maxFilters - 1) / maxFilters];
for (var index = 0; index < outputMaps.Length; index++)
{
var outputSignalMap = new Entity
{
Name = ItemNames.ConstantCombinator,
Position = new Position
{
X = index % 2 + shifterX,
Y = index / 2 + inputSignalCount * 4 + 3
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Filters = ScreenUtil.PixelSignals.Skip(index * maxFilters).Take(Math.Min(maxFilters, signalCount - index * maxFilters)).Select((signal, signalIndex) => new Filter
{
Signal = SignalID.Create(signal),
Count = index * maxFilters + signalIndex + 1
}).ToList()
}
};
outputMaps[index] = outputSignalMap;
entities.Add(outputSignalMap);
}
var offsetBuffer = new Entity
{
Name = ItemNames.ArithmeticCombinator,
Position = new Position
{
X = 0.5 + shifterX,
Y = outputMaps[^ 1].Position.Y + 1
public static Blueprint Generate(SpriteMemoryConfiguration configuration)
{
var spriteCount = configuration.SpriteCount ?? 16;
var baseAddress = configuration.BaseAddress ?? 1;
var rowSignals = ComputerSignals.OrderedSignals.Take(36).ToList();
var inputSignal = VirtualSignalNames.LetterOrDigit('0');
var entities = new List <Entity>();
var sprites = new Sprite[spriteCount];
var rowFilters = new RowFilter[rowSignals.Count + 1];
for (var index = 0; index < spriteCount; index++)
{
var reader = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = 0.5,
Y = index
},
Direction = Direction.Left,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Check),
Constant = 0,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Everything),
Copy_count_from_input = true
}
}
};
entities.Add(reader);
var drawSelector = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = 2.5,
Y = index
},
Direction = Direction.Left,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Dot),
Constant = index + 1,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Everything),
Copy_count_from_input = true
}
}
};
entities.Add(drawSelector);
var memory = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = 4.5,
Y = index
},
Direction = Direction.Left,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Info),
Constant = 0,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Everything),
Copy_count_from_input = true
}
}
};
entities.Add(memory);
var writer = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = 6.5,
Y = index
},
Direction = Direction.Left,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Check),
Constant = 0,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Everything),
Copy_count_from_input = true
}
}
};
entities.Add(writer);
var spriteSelector = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = 8.5,
Y = index
},
Direction = Direction.Left,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Info),
Constant = index + 1,
Comparator = Comparators.IsNotEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Check),
Copy_count_from_input = false
}
}
};
entities.Add(spriteSelector);
sprites[index] = new Sprite
{
Reader = reader,
DrawSelector = drawSelector,
Memory = memory,
Writer = writer,
SpriteSelector = spriteSelector
};
}
for (var index = 0; index < rowFilters.Length; index++)
{
var renamer = new Entity
{
Name = index == 0 ? ItemNames.DeciderCombinator : ItemNames.ArithmeticCombinator,
Position = new Position
{
X = 10.5,
Y = index
},
Direction = Direction.Left,
Control_behavior = index == 0
? new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(inputSignal),
Constant = 1,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Info),
Copy_count_from_input = false
}
}
: new ControlBehavior
{
Arithmetic_conditions = new ArithmeticConditions
{
First_signal = SignalID.Create(inputSignal),
Second_constant = 1,
Operation = ArithmeticOperations.Multiplication,
Output_signal = SignalID.Create(rowSignals[index - 1])
}
}
};
entities.Add(renamer);
var addressMatcher = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = 12.5,
Y = index
},
Direction = Direction.Left,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Check),
Constant = baseAddress + index,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.Create(inputSignal),
Copy_count_from_input = true
}
}
};
entities.Add(addressMatcher);
rowFilters[index] = new RowFilter
{
Renamer = renamer,
AddressMatcher = addressMatcher
};
}
BlueprintUtil.PopulateEntityNumbers(entities);
AddConnection(CircuitColor.Green, sprites[0].Writer, CircuitId.Input, rowFilters[0].Renamer, CircuitId.Output);
for (var index = 0; index < spriteCount; index++)
{
var sprite = sprites[index];
AddConnection(CircuitColor.Green, sprite.Reader, CircuitId.Input, sprite.DrawSelector, CircuitId.Input);
AddConnection(CircuitColor.Green, sprite.DrawSelector, CircuitId.Input, sprite.Memory, CircuitId.Output);
AddConnection(CircuitColor.Green, sprite.Memory, CircuitId.Output, sprite.Memory, CircuitId.Input);
AddConnection(CircuitColor.Red, sprite.Memory, CircuitId.Input, sprite.Writer, CircuitId.Output);
AddConnection(CircuitColor.Red, sprite.Reader, CircuitId.Input, sprite.Writer, CircuitId.Input);
AddConnection(CircuitColor.Red, sprite.Writer, CircuitId.Input, sprite.SpriteSelector, CircuitId.Output);
if (index > 0)
{
var adjacentSprite = sprites[index - 1];
AddConnection(CircuitColor.Green, sprite.Reader, CircuitId.Output, adjacentSprite.Reader, CircuitId.Output);
AddConnection(CircuitColor.Green, sprite.DrawSelector, CircuitId.Output, adjacentSprite.DrawSelector, CircuitId.Output);
AddConnection(CircuitColor.Red, sprite.DrawSelector, CircuitId.Input, adjacentSprite.DrawSelector, CircuitId.Input);
AddConnection(CircuitColor.Green, sprite.Writer, CircuitId.Input, adjacentSprite.Writer, CircuitId.Input);
AddConnection(CircuitColor.Green, sprite.SpriteSelector, CircuitId.Input, adjacentSprite.SpriteSelector, CircuitId.Input);
}
}
for (var index = 0; index < rowFilters.Length; index++)
{
var rowFilter = rowFilters[index];
AddConnection(CircuitColor.Green, rowFilter.Renamer, CircuitId.Input, rowFilter.AddressMatcher, CircuitId.Output);
if (index > 0)
{
var adjacentRowFilter = rowFilters[index - 1];
AddConnection(CircuitColor.Green, rowFilter.Renamer, CircuitId.Output, adjacentRowFilter.Renamer, CircuitId.Output);
AddConnection(CircuitColor.Green, rowFilter.AddressMatcher, CircuitId.Input, adjacentRowFilter.AddressMatcher, CircuitId.Input);
AddConnection(CircuitColor.Red, rowFilter.AddressMatcher, CircuitId.Input, adjacentRowFilter.AddressMatcher, CircuitId.Input);
}
}
return(new Blueprint
{
Label = $"Sprite Memory",
Icons = new List <Icon>
{
Icon.Create(ItemNames.DeciderCombinator),
Icon.Create(ItemNames.Lamp)
},
Entities = entities,
Item = ItemNames.Blueprint,
Version = BlueprintVersions.CurrentVersion
});
}
public static Blueprint Generate(SpeakerConfiguration configuration)
{
const int numberOfInstruments = 12;
var speakersPerConfiguration = configuration.SpeakersPerConfiguration ?? 6;
var volumeLevels = configuration.VolumeLevels ?? 1;
var minVolume = configuration.MinVolume ?? 0;
var maxVolume = configuration.MaxVolume ?? 1;
var baseAddress = configuration.BaseAddress ?? 0;
var reverseAddressX = configuration.ReverseAddressX ?? false;
var reverseAddressY = configuration.ReverseAddressY ?? false;
var signal = configuration.Signal ?? '0';
var includePower = configuration.IncludePower ?? true;
var speakersPerVolumeLevel = speakersPerConfiguration * numberOfInstruments;
var speakerCount = speakersPerVolumeLevel * volumeLevels;
var width = configuration.Width ?? speakerCount / (configuration.Height ?? 16);
var height = configuration.Height ?? speakerCount / width;
const int entitiesPerCell = 6;
const int cellHeight = 11;
const int writerEntityOffset = -1;
const int clearerEntityOffset = -2;
const int readerEntityOffset = 1;
const int playerEntityOffset = 2;
const int speakerEntityOffset = 3;
var gridWidth = width + (includePower ? ((width + 7) / 16 + 1) * 2 : 0);
var gridHeight = height * cellHeight;
var xOffset = -gridWidth / 2;
var yOffset = -gridHeight / 2;
var entities = new List <Entity>();
for (int row = 0; row < height; row++)
{
for (int column = 0; column < width; column++)
{
var relativeAddress = (reverseAddressY ? (height - row - 1) : row) * width + (reverseAddressX ? (width - column - 1) : column);
var address = relativeAddress + baseAddress + 1;
var memoryCellEntityNumber = (row * width + column) * entitiesPerCell + 3;
var memoryCellX = column + (includePower ? (column / 16 + 1) * 2 : 0) + xOffset;
var memoryCellY = (height - row - 1) * cellHeight + 4.5 + yOffset;
var adjacentMemoryCells = new List <int> {
-1, 1
}
.Where(offset => column + offset >= 0 && column + offset < width)
.Select(offset => memoryCellEntityNumber + offset * entitiesPerCell)
.Concat(new List <int> {
-1, 1
}
.Where(offset => row + offset >= 0 && row + offset < height && column == 0)
.Select(offset => memoryCellEntityNumber + offset * width * entitiesPerCell)
)
.ToList();
// Memory cell
entities.Add(new Entity
{
Entity_number = memoryCellEntityNumber,
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = memoryCellX,
Y = memoryCellY
},
Direction = Direction.Down,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.CreateVirtual(VirtualSignalNames.Check),
Constant = address,
Comparator = Comparators.IsNotEqual,
Output_signal = SignalID.CreateLetterOrDigit(signal),
Copy_count_from_input = true
}
},
Connections = CreateConnections(new ConnectionPoint
{
Red = new List <ConnectionData>
{
// Connection to writer input (address line)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + writerEntityOffset,
Circuit_id = CircuitId.Input
},
// Connection to reader input (address line)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + readerEntityOffset,
Circuit_id = CircuitId.Input
}
},
Green = new List <ConnectionData>
{
// Connection to own output (data feedback)
new ConnectionData
{
Entity_id = memoryCellEntityNumber,
Circuit_id = CircuitId.Output
},
// Connection to writer output (data in)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + writerEntityOffset,
Circuit_id = CircuitId.Output
}
}
}, new ConnectionPoint
{
Green = new List <ConnectionData>
{
// Connection to own input (data feedback)
new ConnectionData
{
Entity_id = memoryCellEntityNumber,
Circuit_id = CircuitId.Input
},
// Connection to reader input (data out)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + readerEntityOffset,
Circuit_id = CircuitId.Input
}
}
})
});
// Memory cell writer
entities.Add(new Entity
{
Entity_number = memoryCellEntityNumber + writerEntityOffset,
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = memoryCellX,
Y = memoryCellY - 2
},
Direction = Direction.Down,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.CreateVirtual(VirtualSignalNames.Check),
Constant = address,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.CreateLetterOrDigit(signal),
Copy_count_from_input = true
}
},
Connections = CreateConnections(new ConnectionPoint
{
// Connection to adjacent writer input (address line)
Red = adjacentMemoryCells.Select(entityNumber => new ConnectionData
{
Entity_id = entityNumber + writerEntityOffset,
Circuit_id = CircuitId.Input
}).Concat(new List <ConnectionData>
{
// Connection to memory cell input (address line)
new ConnectionData
{
Entity_id = memoryCellEntityNumber,
Circuit_id = CircuitId.Input
}
}).ToList(),
// Connection to adjacent writer input (data in)
Green = adjacentMemoryCells.Select(entityNumber => new ConnectionData
{
Entity_id = entityNumber + writerEntityOffset,
Circuit_id = CircuitId.Input
}).ToList()
}, new ConnectionPoint
{
Green = new List <ConnectionData>
{
// Connection to memory cell input (data out)
new ConnectionData
{
Entity_id = memoryCellEntityNumber,
Circuit_id = CircuitId.Input
},
// Connection to memory cell clearer output (data in/out)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + clearerEntityOffset,
Circuit_id = CircuitId.Output
}
}
})
});
// Memory cell clearer
entities.Add(new Entity
{
Entity_number = memoryCellEntityNumber + clearerEntityOffset,
Name = ItemNames.ArithmeticCombinator,
Position = new Position
{
X = memoryCellX,
Y = memoryCellY - 4
},
Direction = Direction.Down,
Control_behavior = new ControlBehavior
{
Arithmetic_conditions = new ArithmeticConditions
{
First_signal = SignalID.CreateLetterOrDigit(signal),
Second_signal = SignalID.CreateVirtual(VirtualSignalNames.Dot),
Operation = ArithmeticOperations.Multiplication,
Output_signal = SignalID.CreateLetterOrDigit(signal)
}
},
Connections = CreateConnections(new ConnectionPoint
{
// Connection to adjacent clearer input (clear signal)
Red = adjacentMemoryCells.Select(entityNumber => new ConnectionData
{
Entity_id = entityNumber + clearerEntityOffset,
Circuit_id = CircuitId.Input
}).ToList(),
Green = new List <ConnectionData>
{
// Connection to own output (data in)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + clearerEntityOffset,
Circuit_id = CircuitId.Output
}
}
}, new ConnectionPoint
{
Green = new List <ConnectionData>
{
// Connection to own input (data in)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + clearerEntityOffset,
Circuit_id = CircuitId.Input
},
// Connection to memory cell writer output (data in/out)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + writerEntityOffset,
Circuit_id = CircuitId.Output
}
}
})
});
// Memory cell reader
entities.Add(new Entity
{
Entity_number = memoryCellEntityNumber + readerEntityOffset,
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = memoryCellX,
Y = memoryCellY + 2
},
Direction = Direction.Down,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.CreateVirtual(VirtualSignalNames.Info),
Constant = address,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.CreateLetterOrDigit(signal),
Copy_count_from_input = true
}
},
Connections = CreateConnections(new ConnectionPoint
{
Red = new List <ConnectionData>
{
// Connection to memory cell input (address line)
new ConnectionData
{
Entity_id = memoryCellEntityNumber,
Circuit_id = CircuitId.Input
}
},
Green = new List <ConnectionData>
{
// Connection to memory cell output (data out)
new ConnectionData
{
Entity_id = memoryCellEntityNumber,
Circuit_id = CircuitId.Output
},
// Connection to player input (data out)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + playerEntityOffset,
Circuit_id = CircuitId.Input
}
}
}, new ConnectionPoint
{
// Connection to adjacent reader output (data out)
Green = adjacentMemoryCells.Select(entityNumber => new ConnectionData
{
Entity_id = entityNumber + readerEntityOffset,
Circuit_id = CircuitId.Output
}).ToList()
})
});
// Player
entities.Add(new Entity
{
Entity_number = memoryCellEntityNumber + playerEntityOffset,
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = memoryCellX,
Y = memoryCellY + 4
},
Direction = Direction.Down,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.CreateVirtual(VirtualSignalNames.Dot),
Constant = 0,
Comparator = Comparators.GreaterThan,
Output_signal = SignalID.CreateLetterOrDigit(signal),
Copy_count_from_input = true
}
},
Connections = CreateConnections(new ConnectionPoint
{
// Connection to adjacent player input (play signal)
Red = adjacentMemoryCells.Select(entityNumber => new ConnectionData
{
Entity_id = entityNumber + playerEntityOffset,
Circuit_id = CircuitId.Input
}).ToList(),
Green = new List <ConnectionData>
{
// Connection to reader input (data in)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + readerEntityOffset,
Circuit_id = CircuitId.Input
}
}
}, new ConnectionPoint
{
Green = new List <ConnectionData>
{
// Connection to speaker (data out)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + speakerEntityOffset
}
}
})
});
// Speaker
entities.Add(new Entity
{
Entity_number = memoryCellEntityNumber + speakerEntityOffset,
Name = ItemNames.ProgrammableSpeaker,
Position = new Position
{
X = memoryCellX,
Y = memoryCellY + 5.5
},
Control_behavior = new ControlBehavior
{
Circuit_condition = new CircuitCondition
{
First_signal = SignalID.CreateLetterOrDigit(signal)
},
Circuit_parameters = new CircuitParameters
{
Signal_value_is_pitch = true,
Instrument_id = relativeAddress % speakersPerVolumeLevel / speakersPerConfiguration
}
},
Connections = CreateConnections(new ConnectionPoint
{
Green = new List <ConnectionData>
{
// Connection to player output (data in)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + playerEntityOffset,
Circuit_id = CircuitId.Output
}
}
}),
Parameters = new SpeakerParameter
{
Playback_volume = maxVolume - (double)(relativeAddress / speakersPerVolumeLevel) / (volumeLevels - 1) * (maxVolume - minVolume),
Playback_globally = true,
Allow_polyphony = true
},
Alert_parameters = new SpeakerAlertParameter
{
Show_alert = false
}
});
}
}
if (includePower)
{
var substationWidth = (width + 7) / 16 + 1;
var substationHeight = (gridHeight + 3) / 18 + 1;
entities.AddRange(CreateSubstations(substationWidth, substationHeight, xOffset, yOffset + 2, width * height * entitiesPerCell + 1));
}
return(new Blueprint
{
Label = $"{width}x{height} Speaker",
Icons = new List <Icon>
{
new Icon
{
Signal = SignalID.Create(ItemNames.ProgrammableSpeaker)
}
},
Entities = entities,
Item = ItemNames.Blueprint,
Version = BlueprintVersions.CurrentVersion
});
}
public static Blueprint Generate(RamConfiguration configuration)
{
var width = configuration.Width ?? 16;
var height = configuration.Height ?? 16;
var baseAddress = configuration.BaseAddress ?? 0;
var signal = configuration.Signal ?? '0';
var includePower = configuration.IncludePower ?? true;
const int entitiesPerCell = 3;
const int cellHeight = 6;
const int writerEntityOffset = -1;
const int readerEntityOffset = 1;
var gridWidth = width + (includePower ? ((width + 7) / 16 + 1) * 2 : 0);
var gridHeight = height * cellHeight;
var xOffset = -gridWidth / 2;
var yOffset = -gridHeight / 2;
var entities = new List <Entity>();
for (int row = 0; row < height; row++)
{
for (int column = 0; column < width; column++)
{
var address = row * width + column + baseAddress + 1;
var memoryCellEntityNumber = (row * width + column) * entitiesPerCell + 2;
var memoryCellX = column + (includePower ? (column / 16 + 1) * 2 : 0) + xOffset;
var memoryCellY = (height - row - 1) * cellHeight + 2.5 + yOffset;
var adjacentMemoryCells = new List <int> {
-1, 1
}
.Where(offset => column + offset >= 0 && column + offset < width)
.Select(offset => memoryCellEntityNumber + offset * entitiesPerCell)
.Concat(new List <int> {
-1, 1
}
.Where(offset => row + offset >= 0 && row + offset < height && column == 0)
.Select(offset => memoryCellEntityNumber + offset * width * entitiesPerCell)
)
.ToList();
// Memory cell
entities.Add(new Entity
{
Entity_number = memoryCellEntityNumber,
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = memoryCellX,
Y = memoryCellY
},
Direction = Direction.Down,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.CreateVirtual(VirtualSignalNames.Check),
Constant = address,
Comparator = Comparators.IsNotEqual,
Output_signal = SignalID.CreateLetterOrDigit(signal),
Copy_count_from_input = true
}
},
Connections = CreateConnections(new ConnectionPoint
{
Red = new List <ConnectionData>
{
// Connection to writer input (address line)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + writerEntityOffset,
Circuit_id = CircuitId.Input
},
// Connection to reader input (address line)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + readerEntityOffset,
Circuit_id = CircuitId.Input
}
},
Green = new List <ConnectionData>
{
// Connection to own output (data feedback)
new ConnectionData
{
Entity_id = memoryCellEntityNumber,
Circuit_id = CircuitId.Output
},
// Connection to writer output (data in)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + writerEntityOffset,
Circuit_id = CircuitId.Output
}
}
}, new ConnectionPoint
{
Green = new List <ConnectionData>
{
// Connection to own input (data feedback)
new ConnectionData
{
Entity_id = memoryCellEntityNumber,
Circuit_id = CircuitId.Input
},
// Connection to reader input (data out)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + readerEntityOffset,
Circuit_id = CircuitId.Input
}
}
})
});
// Memory cell writer
entities.Add(new Entity
{
Entity_number = memoryCellEntityNumber + writerEntityOffset,
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = memoryCellX,
Y = memoryCellY - 2
},
Direction = Direction.Down,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.CreateVirtual(VirtualSignalNames.Check),
Constant = address,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.CreateLetterOrDigit(signal),
Copy_count_from_input = true
}
},
Connections = CreateConnections(new ConnectionPoint
{
// Connection to adjacent writer input (address line)
Red = adjacentMemoryCells.Select(entityNumber => new ConnectionData
{
Entity_id = entityNumber + writerEntityOffset,
Circuit_id = CircuitId.Input
}).Concat(new List <ConnectionData>
{
// Connection to memory cell input (address line)
new ConnectionData
{
Entity_id = memoryCellEntityNumber,
Circuit_id = CircuitId.Input
}
}).ToList(),
// Connection to adjacent writer input (data in)
Green = adjacentMemoryCells.Select(entityNumber => new ConnectionData
{
Entity_id = entityNumber + writerEntityOffset,
Circuit_id = CircuitId.Input
}).ToList()
}, new ConnectionPoint
{
Green = new List <ConnectionData>
{
// Connection to memory cell input (data out)
new ConnectionData
{
Entity_id = memoryCellEntityNumber,
Circuit_id = CircuitId.Input
}
}
})
});
// Memory cell reader
entities.Add(new Entity
{
Entity_number = memoryCellEntityNumber + readerEntityOffset,
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = memoryCellX,
Y = memoryCellY + 2
},
Direction = Direction.Down,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.CreateVirtual(VirtualSignalNames.Info),
Constant = address,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.CreateLetterOrDigit(signal),
Copy_count_from_input = true
}
},
Connections = CreateConnections(new ConnectionPoint
{
Red = new List <ConnectionData>
{
// Connection to memory cell input (address line)
new ConnectionData
{
Entity_id = memoryCellEntityNumber,
Circuit_id = CircuitId.Input
}
},
Green = new List <ConnectionData>
{
// Connection to memory cell output (data out)
new ConnectionData
{
Entity_id = memoryCellEntityNumber,
Circuit_id = CircuitId.Output
}
}
}, new ConnectionPoint
{
// Connection to adjacent reader output (data out)
Green = adjacentMemoryCells.Select(entityNumber => new ConnectionData
{
Entity_id = entityNumber + readerEntityOffset,
Circuit_id = CircuitId.Output
}).ToList()
})
});
}
}
if (includePower)
{
var substationWidth = (width + 7) / 16 + 1;
var substationHeight = (gridHeight + 3) / 18 + 1;
entities.AddRange(CreateSubstations(substationWidth, substationHeight, xOffset, gridHeight % 18 - 4 + yOffset, width * height * entitiesPerCell + 1));
}
return(new Blueprint
{
Label = $"{width}x{height} RAM",
Icons = new List <Icon>
{
new Icon
{
Signal = SignalID.Create(ItemNames.AdvancedCircuit)
}
},
Entities = entities,
Item = ItemNames.Blueprint,
Version = BlueprintVersions.CurrentVersion
});
}
public static Blueprint Generate(VideoMemoryConfiguration configuration, List <bool[, ]> frames = null)
{
var width = configuration.Width ?? 32;
var height = configuration.Height ?? 2;
var baseAddress = configuration.BaseAddress ?? 1;
var frameHeight = frames?.ElementAtOrDefault(0)?.GetLength(0) ?? 0;
const int framesPerRow = 32;
const int maxFilters = 20;
var entities = new List <Entity>();
var memoryRows = new MemoryRow[height];
var metadata = new Entity
{
Name = ItemNames.ConstantCombinator,
Position = new Position
{
X = 2,
Y = 0
},
Direction = Direction.Down,
Control_behavior = new ControlBehavior
{
Filters = new List <Filter>
{
Filter.Create(VirtualSignalNames.LetterOrDigit('Z'), frames?.Count ?? 0)
}
}
};
entities.Add(metadata);
for (var row = 0; row < height; row++)
{
var cellY = row * 9 - (row % 2 == 1 ? 1 : 0) + 2;
var rowFrames = frames?.Skip(row * framesPerRow).Take(framesPerRow).ToList();
var addressMatcher = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = 1,
Y = cellY + 0.5
},
Direction = Direction.Down,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Info),
Constant = row + baseAddress,
Comparator = Comparators.IsNotEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Check),
Copy_count_from_input = false
}
}
};
entities.Add(addressMatcher);
var memoryCells = new MemoryCell[width];
for (var column = 0; column < width; column++)
{
var cellX = column + 2;
var enabler = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = cellX,
Y = cellY + 0.5
},
Direction = Direction.Up,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Check),
Constant = 0,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Everything),
Copy_count_from_input = true
}
}
};
entities.Add(enabler);
var pixelFilters = Enumerable.Range(0, frameHeight)
.Select(frameRow =>
{
var pixel = rowFrames
.Select((frame, frameOffset) => frame[frameRow, column] ? 1 << frameOffset : 0)
.Sum();
return(Filter.Create(ScreenUtil.PixelSignals[frameRow], pixel));
})
.Where(pixelFilter => pixelFilter.Count != 0)
.ToList();
var subCellCount = column % 18 >= 16 ? 6 : 7;
var subCells = new Entity[subCellCount];
for (var subCellIndex = 0; subCellIndex < subCellCount; subCellIndex++)
{
var subCell = new Entity
{
Name = ItemNames.ConstantCombinator,
Position = new Position
{
X = cellX,
Y = subCellIndex < 6 || row % 2 == 1 ? cellY + subCellIndex + 2 : cellY - 1
},
Direction = Direction.Down,
Control_behavior = new ControlBehavior
{
Filters = pixelFilters.Skip(subCellIndex * maxFilters).Take(maxFilters).ToList()
}
};
entities.Add(subCell);
subCells[subCellIndex] = subCell;
}
memoryCells[column] = new MemoryCell
{
Enabler = enabler,
SubCells = subCells
};
}
memoryRows[row] = new MemoryRow
{
AddressMatcher = addressMatcher,
Cells = memoryCells
};
}
BlueprintUtil.PopulateEntityNumbers(entities);
var substationWidth = (width + 9) / 18 + 1;
var substationHeight = height / 2 + 1;
entities.AddRange(CreateSubstations(substationWidth, substationHeight, 0, 0, entities.Count + 1));
for (var row = 0; row < height; row++)
{
var memoryRow = memoryRows[row];
AddConnection(CircuitColor.Red, memoryRow.AddressMatcher, CircuitId.Output, memoryRow.Cells[0].Enabler, CircuitId.Input);
var adjacentRow = row - 1;
if (adjacentRow >= 0)
{
var adjacentMemoryRow = memoryRows[adjacentRow];
AddConnection(CircuitColor.Green, memoryRow.AddressMatcher, CircuitId.Input, adjacentMemoryRow.AddressMatcher, CircuitId.Input);
for (var column = 0; column < width; column++)
{
var memoryCell = memoryRow.Cells[column];
var adjacentMemoryCell = adjacentMemoryRow.Cells[column];
AddConnection(CircuitColor.Green, memoryCell.Enabler, CircuitId.Output, adjacentMemoryCell.Enabler, CircuitId.Output);
}
}
for (var column = 0; column < width; column++)
{
var memoryCell = memoryRow.Cells[column];
AddConnection(CircuitColor.Green, memoryCell.SubCells[0], null, memoryCell.Enabler, CircuitId.Input);
for (var subCellIndex = 1; subCellIndex < memoryCell.SubCells.Length; subCellIndex++)
{
var subCell = memoryCell.SubCells[subCellIndex];
var adjacentSubCell = memoryCell.SubCells[subCellIndex < 6 || row % 2 == 1 ? subCellIndex - 1 : 0];
AddConnection(CircuitColor.Green, subCell, null, adjacentSubCell, null);
}
var adjacentColumn = column - 1;
if (adjacentColumn >= 0)
{
var adjacentMemoryCell = memoryRow.Cells[adjacentColumn];
AddConnection(CircuitColor.Red, memoryCell.Enabler, CircuitId.Input, adjacentMemoryCell.Enabler, CircuitId.Input);
}
}
}
return(new Blueprint
{
Label = $"Video ROM",
Icons = new List <Icon>
{
Icon.Create(ItemNames.Lamp),
Icon.Create(ItemNames.ConstantCombinator)
},
Entities = entities,
Item = ItemNames.Blueprint,
Version = BlueprintVersions.CurrentVersion
});
}
public static Blueprint Generate(ScreenConfiguration configuration)
{
var width = configuration.Width ?? 18;
var height = configuration.Height ?? 18;
const int cycle = 2;
const int parallelCycle = 32;
var entities = new List <Entity>();
var pixels = new Entity[height, width];
var columnControllers = new Controller[width];
var rowControllers = new Controller[height];
// Pixels
for (var row = 0; row < height; row++)
{
for (var column = 0; column < width; column++)
{
var relativeRow = row % 18;
var relativeColumn = column % 18;
// Don't place lights that intersect the substations
if (relativeRow > 15 && relativeColumn > 15)
{
continue;
}
var pixel = new Entity
{
Name = ItemNames.Lamp,
Position = new Position
{
X = column + 2,
Y = row + 2
},
Control_behavior = new ControlBehavior
{
Circuit_condition = new CircuitCondition
{
First_signal = SignalID.Create(ScreenUtil.PixelSignals[row]),
Comparator = Comparators.GreaterThan,
Constant = 0
},
Use_colors = true
}
};
pixels[row, column] = pixel;
entities.Add(pixel);
}
}
// Column controllers
for (var column = 0; column < width; column++)
{
var controllerX = column + 2;
var controllerY = height + 4;
var memory = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = controllerX,
Y = controllerY + 0.5
},
Direction = Direction.Up,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Each),
Constant = 0,
Comparator = Comparators.GreaterThan,
Output_signal = SignalID.Create(VirtualSignalNames.Each),
Copy_count_from_input = false
}
}
};
entities.Add(memory);
var writer = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = controllerX,
Y = controllerY + 2.5
},
Direction = Direction.Up,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Check),
Constant = 0,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Everything),
Copy_count_from_input = true
}
}
};
entities.Add(writer);
var addressMatcher = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = controllerX,
Y = controllerY + 4.5
},
Direction = Direction.Up,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Info),
Constant = column + 1,
Comparator = Comparators.IsNotEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Check),
Copy_count_from_input = false
}
}
};
entities.Add(addressMatcher);
var cyclicWriter = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = controllerX,
Y = controllerY + 6.5
},
Direction = Direction.Up,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Check),
Constant = 0,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Everything),
Copy_count_from_input = true
}
}
};
entities.Add(cyclicWriter);
var cyclicMatcher = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = controllerX,
Y = controllerY + 8.5
},
Direction = Direction.Up,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Info),
Constant = column % cycle + 1,
Comparator = Comparators.IsNotEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Check),
Copy_count_from_input = false
}
}
};
entities.Add(cyclicMatcher);
var parallelWriter = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = controllerX,
Y = controllerY + 14.5
},
Direction = Direction.Up,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Check),
Constant = 0,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Everything),
Copy_count_from_input = true
}
}
};
entities.Add(parallelWriter);
var parallelAddressRangeLow = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = controllerX,
Y = controllerY + 10.5
},
Direction = Direction.Up,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Info),
Constant = column + 1,
Comparator = Comparators.LessThan,
Output_signal = SignalID.Create(VirtualSignalNames.Check),
Copy_count_from_input = false
}
}
};
entities.Add(parallelAddressRangeLow);
var parallelAddressRangeHigh = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = controllerX,
Y = controllerY + 12.5
},
Direction = Direction.Up,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Info),
Constant = column + parallelCycle + 1,
Comparator = Comparators.GreaterThanOrEqualTo,
Output_signal = SignalID.Create(VirtualSignalNames.Check),
Copy_count_from_input = false
}
}
};
entities.Add(parallelAddressRangeHigh);
var isOdd = column % 2 == 1;
var parallelHorizontalLink1 = new Entity
{
Name = column % 18 == 16 ? ItemNames.Substation : ItemNames.BigElectricPole,
Position = new Position
{
X = controllerX + 0.5,
Y = controllerY + 16.5 + (isOdd ? 2 : 0)
}
};
entities.Add(parallelHorizontalLink1);
var parallelHorizontalLink2 = new Entity
{
Name = ItemNames.BigElectricPole,
Position = new Position
{
X = controllerX + 0.5,
Y = controllerY + 20.5 + (isOdd ? 2 : 0)
}
};
entities.Add(parallelHorizontalLink2);
var videoEnabler = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = controllerX,
Y = controllerY + 24.5
},
Direction = Direction.Up,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Check),
Constant = 0,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Everything),
Copy_count_from_input = true
}
}
};
entities.Add(videoEnabler);
var videoReferenceSignalSubtractor = new Entity
{
Name = ItemNames.ArithmeticCombinator,
Position = new Position
{
X = controllerX,
Y = controllerY + 26.5
},
Direction = Direction.Up,
Control_behavior = new ControlBehavior
{
Arithmetic_conditions = new ArithmeticConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Each),
Second_constant = -3,
Operation = ArithmeticOperations.Multiplication,
Output_signal = SignalID.Create(VirtualSignalNames.Each)
}
}
};
entities.Add(videoReferenceSignalSubtractor);
var videoValueSpreader = new Entity
{
Name = ItemNames.ArithmeticCombinator,
Position = new Position
{
X = controllerX,
Y = controllerY + 28.5
},
Direction = Direction.Up,
Control_behavior = new ControlBehavior
{
Arithmetic_conditions = new ArithmeticConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Each),
Second_constant = 2,
Operation = ArithmeticOperations.Multiplication,
Output_signal = SignalID.Create(VirtualSignalNames.Each)
}
}
};
entities.Add(videoValueSpreader);
var videoBitIsolator = new Entity
{
Name = ItemNames.ArithmeticCombinator,
Position = new Position
{
X = controllerX,
Y = controllerY + 30.5
},
Direction = Direction.Up,
Control_behavior = new ControlBehavior
{
Arithmetic_conditions = new ArithmeticConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Each),
Second_constant = 1,
Operation = ArithmeticOperations.And,
Output_signal = SignalID.Create(VirtualSignalNames.Each)
}
}
};
entities.Add(videoBitIsolator);
var videoBitShifter = new Entity
{
Name = ItemNames.ArithmeticCombinator,
Position = new Position
{
X = controllerX,
Y = controllerY + 32.5
},
Direction = Direction.Up,
Control_behavior = new ControlBehavior
{
Arithmetic_conditions = new ArithmeticConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Each),
Second_signal = SignalID.CreateLetterOrDigit('W'),
Operation = ArithmeticOperations.RightShift,
Output_signal = SignalID.Create(VirtualSignalNames.Each)
}
}
};
entities.Add(videoBitShifter);
columnControllers[column] = new Controller
{
Memory = memory,
Writer = writer,
AddressMatcher = addressMatcher,
Cyclic = new CyclicInput
{
Writer = cyclicWriter,
Matcher = cyclicMatcher
},
Parallel = new ParallelInput
{
Writer = parallelWriter,
AddressRangeLow = parallelAddressRangeLow,
AddressRangeHigh = parallelAddressRangeHigh,
HorizontalLink1 = parallelHorizontalLink1,
HorizontalLink2 = parallelHorizontalLink2
},
Video = new VideoInput
{
Enabler = videoEnabler,
ReferenceSignalSubtractor = videoReferenceSignalSubtractor,
ValueSpreader = videoValueSpreader,
BitIsolator = videoBitIsolator,
BitShifter = videoBitShifter
}
};
}
// Row controllers
for (var row = 0; row < height; row++)
{
var controllerY = row + 2;
var memory = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = -1.5,
Y = controllerY
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Each),
Constant = 0,
Comparator = Comparators.LessThan,
Output_signal = SignalID.Create(VirtualSignalNames.Each),
Copy_count_from_input = true
}
}
};
entities.Add(memory);
var writer = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = -3.5,
Y = controllerY
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Check),
Constant = 0,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Everything),
Copy_count_from_input = true
}
}
};
entities.Add(writer);
var addressMatcher = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = -5.5,
Y = controllerY
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Info),
Constant = row + 1,
Comparator = Comparators.IsNotEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Check),
Copy_count_from_input = false
}
}
};
entities.Add(addressMatcher);
var cyclicWriter = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = -7.5,
Y = controllerY
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Check),
Constant = 0,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Everything),
Copy_count_from_input = true
}
}
};
entities.Add(cyclicWriter);
var cyclicMatcher = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = -9.5,
Y = controllerY
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(VirtualSignalNames.Info),
Constant = row % cycle + 1,
Comparator = Comparators.IsNotEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Check),
Copy_count_from_input = false
}
}
};
entities.Add(cyclicMatcher);
rowControllers[row] = new Controller
{
Memory = memory,
Writer = writer,
AddressMatcher = addressMatcher,
Cyclic = new CyclicInput
{
Writer = cyclicWriter,
Matcher = cyclicMatcher
}
};
}
BlueprintUtil.PopulateEntityNumbers(entities);
var substationWidth = (width + 8) / 18 + 1;
var substationHeight = (height + 8) / 18 + 1;
var substations = CreateSubstations(substationWidth, substationHeight, 0, 0, entities.Count + 1, GridConnectivity.Top | GridConnectivity.Vertical);
entities.AddRange(substations);
var substations2 = CreateSubstations(substationWidth, 1, 0, height + 38, entities.Count + 1);
entities.AddRange(substations2);
// Pixel connections
for (var row = 0; row < height; row++)
{
for (var column = 0; column < width; column++)
{
var pixel = pixels[row, column];
if (pixel == null)
{
continue;
}
public static Blueprint Generate(FontConfiguration configuration)
{
var fontImageFile = configuration.FontImage;
var combinatorsPerRow = configuration.CombinatorsPerRow ?? 5;
var useOneSignalPerRow = configuration.UseOneSignalPerRow ?? false;
var inputSignal = configuration.InputSignal ?? VirtualSignalNames.Dot;
var widthSignal = configuration.WidthSignal;
var heightSignal = configuration.HeightSignal;
var signals = configuration.Signals.Contains(',') ? configuration.Signals.Split(',').ToList() : configuration.Signals.Select(signal => VirtualSignalNames.LetterOrDigit(signal)).ToList();
const int maxFilters = 20;
var font = FontUtil.ReadFont(fontImageFile);
var characters = font.Characters;
var entities = new List <Entity>();
var characterEntities = new List <(Entity Matcher, List <Entity> Glyph)>();
if (heightSignal != null)
{
characters.Add(new FontUtil.Character
{
CharacterCode = '\n',
GlyphPixels = new bool[font.Height, 0]
});
}
var combinatorX = 0;
for (var characterIndex = 0; characterIndex < characters.Count; characterIndex++)
{
var character = characters[characterIndex];
var glyphPixels = character.GlyphPixels;
var height = glyphPixels.GetLength(0);
var width = glyphPixels.GetLength(1);
if (characterIndex % combinatorsPerRow == 0)
{
combinatorX = 0;
}
var glyphFilters = new List <Filter>();
if (widthSignal != null)
{
glyphFilters.Add(Filter.Create(widthSignal, width));
}
if (heightSignal != null)
{
glyphFilters.Add(Filter.Create(heightSignal, height));
}
for (int y = 0; y < height; y++)
{
if (useOneSignalPerRow)
{
var rowSignal = 0;
for (int x = 0; x < width; x++)
{
if (glyphPixels[y, x])
{
rowSignal |= 1 << x;
}
}
glyphFilters.Add(Filter.Create(signals[y], rowSignal));
}
else
{
for (int x = 0; x < width; x++)
{
if (glyphPixels[y, x])
{
glyphFilters.Add(Filter.Create(signals[y * width + x]));
}
}
}
}
var combinatorY = characterIndex / combinatorsPerRow;
var matcher = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = (characterIndex % combinatorsPerRow - combinatorsPerRow) * 2 + 0.5,
Y = combinatorY
},
Direction = Direction.Left,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(inputSignal),
Constant = character.CharacterCode,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Everything),
Copy_count_from_input = true
}
}
};
entities.Add(matcher);
var glyph = new List <Entity>();
for (int index = 0; index < (glyphFilters.Count + maxFilters - 1) / maxFilters; index++)
{
var glyphPart = new Entity
{
Name = ItemNames.ConstantCombinator,
Position = new Position
{
X = combinatorX++,
Y = combinatorY
},
Direction = Direction.Down,
Control_behavior = new ControlBehavior
{
Filters = glyphFilters.Skip(index * maxFilters).Take(maxFilters).ToList()
}
};
glyph.Add(glyphPart);
entities.Add(glyphPart);
}
characterEntities.Add((matcher, glyph));
}
BlueprintUtil.PopulateEntityNumbers(entities);
for (int characterIndex = 0; characterIndex < characterEntities.Count; characterIndex++)
{
var(matcher, glyph) = characterEntities[characterIndex];
AddConnection(CircuitColor.Green, matcher, CircuitId.Input, glyph[0], null); // Connect to constant combinators holding glyphs
var adjacentCharacterIndex = characterIndex - (characterIndex / combinatorsPerRow == 0 ? 1 : combinatorsPerRow);
if (adjacentCharacterIndex >= 0)
{
var adjacentMatcher = characterEntities[adjacentCharacterIndex].Matcher;
AddConnection(CircuitColor.Red, matcher, CircuitId.Input, adjacentMatcher, CircuitId.Input); // Connect inputs together
AddConnection(CircuitColor.Green, matcher, CircuitId.Output, adjacentMatcher, CircuitId.Output); // Connect outputs together
}
// Connections between glyph parts
for (int index = 1; index < glyph.Count; index++)
{
AddConnection(CircuitColor.Green, glyph[index], null, glyph[index - 1], null);
}
}
return(new Blueprint
{
Label = $"{font.Width}x{font.Height} Font",
Icons = new List <Icon>
{
Icon.Create(ItemNames.ConstantCombinator),
Icon.Create(VirtualSignalNames.LetterOrDigit('A')),
Icon.Create(VirtualSignalNames.LetterOrDigit('B')),
Icon.Create(VirtualSignalNames.LetterOrDigit('C'))
},
Entities = entities,
Item = ItemNames.Blueprint,
Version = BlueprintVersions.CurrentVersion
});
}
public static Blueprint Generate(PixelSignalsConfiguration configuration)
{
var signalCount = configuration.SignalCount ?? ScreenUtil.PixelSignals.Count;
const int maxFilters = 20;
var entities = new List <Entity>();
var signalConstants = new Entity[(signalCount + maxFilters - 1) / maxFilters];
// Signal constants
for (var index = 0; index < signalConstants.Length; index++)
{
var outputSignalMap = new Entity
{
Name = ItemNames.ConstantCombinator,
Position = new Position
{
X = index + 1,
Y = 0
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Filters = ScreenUtil.PixelSignals.Skip(index * maxFilters).Take(Math.Min(maxFilters, signalCount - index * maxFilters)).Select((signal, signalIndex) => new Filter
{
Signal = SignalID.Create(signal),
Count = 1
}).ToList()
}
};
signalConstants[index] = outputSignalMap;
entities.Add(outputSignalMap);
}
BlueprintUtil.PopulateEntityNumbers(entities);
// Signal constant connections
for (var index = 1; index < signalConstants.Length; index++)
{
var outputSignalMap = signalConstants[index];
var adjacentOutputSignalMap = signalConstants[index - 1];
AddConnection(CircuitColor.Red, outputSignalMap, null, adjacentOutputSignalMap, null);
}
return(new Blueprint
{
Label = $"Pixel signals",
Icons = new List <Icon>
{
new Icon
{
Signal = SignalID.Create(ItemNames.Lamp)
},
new Icon
{
Signal = SignalID.Create(ItemNames.ConstantCombinator)
}
},
Entities = entities,
Item = ItemNames.Blueprint,
Version = BlueprintVersions.CurrentVersion
});
}
public static Blueprint Generate(DemuxConfiguration configuration)
{
var signalCount = configuration.SignalCount ?? ComputerSignals.OrderedSignals.Count;
var width = configuration.Width ?? 1;
var addressSignal = configuration.AddressSignal ?? VirtualSignalNames.Dot;
var outputSignal = configuration.OutputSignal ?? VirtualSignalNames.LetterOrDigit('A');
var entities = new List <Entity>();
var signalFilters = new SignalFilter[signalCount];
for (int index = 0; index < signalCount; index++)
{
var filterX = index % width * 4;
var filterY = index / width;
var addressChecker = new Entity
{
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = 0.5 + filterX,
Y = filterY
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.Create(addressSignal),
Constant = index + 1,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.Create(VirtualSignalNames.Dot),
Copy_count_from_input = false
}
}
};
entities.Add(addressChecker);
var signalRenamer = new Entity
{
Name = ItemNames.ArithmeticCombinator,
Position = new Position
{
X = 2.5 + filterX,
Y = filterY
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Arithmetic_conditions = new ArithmeticConditions
{
First_signal = SignalID.Create(ComputerSignals.OrderedSignals[index]),
Second_signal = SignalID.Create(VirtualSignalNames.Dot),
Operation = ArithmeticOperations.Multiplication,
Output_signal = SignalID.Create(outputSignal)
}
}
};
entities.Add(signalRenamer);
signalFilters[index] = new SignalFilter
{
AddressChecker = addressChecker,
SignalRenamer = signalRenamer
};
}
BlueprintUtil.PopulateEntityNumbers(entities);
for (var index = 0; index < signalCount; index++)
{
var signalFilter = signalFilters[index];
AddConnection(CircuitColor.Red, signalFilter.AddressChecker, CircuitId.Output, signalFilter.SignalRenamer, CircuitId.Input);
if (index > 0)
{
var adjacentSignalFilterIndex = index / width == 0 ? index - 1 : index - width;
var adjacentSignalFilter = signalFilters[adjacentSignalFilterIndex];
AddConnection(CircuitColor.Red, signalFilter.AddressChecker, CircuitId.Input, adjacentSignalFilter.AddressChecker, CircuitId.Input);
AddConnection(CircuitColor.Green, signalFilter.SignalRenamer, CircuitId.Input, adjacentSignalFilter.SignalRenamer, CircuitId.Input);
AddConnection(CircuitColor.Red, signalFilter.SignalRenamer, CircuitId.Output, adjacentSignalFilter.SignalRenamer, CircuitId.Output);
}
}
return(new Blueprint
{
Label = $"Demultiplexer",
Icons = new List <Icon>
{
Icon.Create(ItemNames.DeciderCombinator),
Icon.Create(ItemNames.ArithmeticCombinator)
},
Entities = entities,
Item = ItemNames.Blueprint,
Version = BlueprintVersions.CurrentVersion
});
}
public Blueprint Generate(IConfigurationRoot configuration)
{
var registerCount = int.TryParse(configuration["RegisterCount"], out var registerCountValue) ? registerCountValue : 16;
const char memorySignal = 'A';
const char writeSignal = '1';
const char leftOperandSignal = '2';
const char rightOperandSignal = '3';
const char conditionSignal = '4';
const int writerEntityOffset = -1;
const int autoIncrementEntityOffset = -2;
const int leftOperandEntityOffset = 1;
const int rightOperandEntityOffset = 2;
const int conditionEntityOffset = 3;
const int entitiesPerRegister = 6;
const int cellWidth = 8;
const int cellHeight = 2;
var gridHeight = registerCount * 2;
var xOffset = -cellWidth / 2;
var yOffset = -gridHeight / 2;
var entities = new List <Entity>();
for (int row = 0; row < registerCount; row++)
{
var address = row + 1;
var memoryCellEntityNumber = row * entitiesPerRegister + 3;
var memoryCellX = 2.5 + xOffset;
var memoryCellY = row * cellHeight + 1 + yOffset;
List <int> GetAdjacentMemoryCells(params int[] offsets) => offsets
.Where(offset => row + offset >= 0 && row + offset < registerCount)
.Select(offset => memoryCellEntityNumber + offset * entitiesPerRegister)
.ToList();
var previousMemoryCell = GetAdjacentMemoryCells(-1);
var nextMemoryCell = GetAdjacentMemoryCells(1);
var adjacentMemoryCells = GetAdjacentMemoryCells(-1, 1);
// Memory cell
entities.Add(new Entity
{
Entity_number = memoryCellEntityNumber,
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = memoryCellX,
Y = memoryCellY
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.CreateLetterOrDigit(writeSignal),
Constant = address,
Comparator = Comparators.IsNotEqual,
Output_signal = SignalID.CreateLetterOrDigit(memorySignal),
Copy_count_from_input = true
}
},
Connections = CreateConnections(new ConnectionPoint
{
Red = new List <ConnectionData>
{
// Connection to own output (data feedback)
new ConnectionData
{
Entity_id = memoryCellEntityNumber,
Circuit_id = CircuitId.Output
},
// Connection to auto-increment output (data in)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + autoIncrementEntityOffset,
Circuit_id = CircuitId.Output
}
},
// Connection to next writer input (address line)
Green = nextMemoryCell.Select(entityNumber => new ConnectionData
{
Entity_id = entityNumber + writerEntityOffset,
Circuit_id = CircuitId.Input
}).Concat(new List <ConnectionData>
{
// Connection to writer input (address line)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + writerEntityOffset,
Circuit_id = CircuitId.Input
}
}).ToList()
}, new ConnectionPoint
{
Red = new List <ConnectionData>
{
// Connection to own input (data feedback)
new ConnectionData
{
Entity_id = memoryCellEntityNumber,
Circuit_id = CircuitId.Input
},
// Connection to writer output (data in)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + writerEntityOffset,
Circuit_id = CircuitId.Output
},
// Connection to right operand input (data out)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + rightOperandEntityOffset,
Circuit_id = CircuitId.Input
}
}
})
});
// Memory cell writer
entities.Add(new Entity
{
Entity_number = memoryCellEntityNumber + writerEntityOffset,
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = memoryCellX,
Y = memoryCellY - 1
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.CreateLetterOrDigit(writeSignal),
Constant = address,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.CreateLetterOrDigit(memorySignal),
Copy_count_from_input = true
}
},
Connections = CreateConnections(new ConnectionPoint
{
// Connection to adjacent writer input (data in)
Red = adjacentMemoryCells.Select(entityNumber => new ConnectionData
{
Entity_id = entityNumber + writerEntityOffset,
Circuit_id = CircuitId.Input
}).ToList(),
// Connection to previous memory cell input (address line)
Green = previousMemoryCell.Select(entityNumber => new ConnectionData
{
Entity_id = entityNumber,
Circuit_id = CircuitId.Input
}).Concat(new List <ConnectionData>
{
// Connection to memory cell input (address line)
new ConnectionData
{
Entity_id = memoryCellEntityNumber,
Circuit_id = CircuitId.Input
}
}).ToList(),
}, new ConnectionPoint
{
Red = new List <ConnectionData>
{
// Connection to memory cell output (data out)
new ConnectionData
{
Entity_id = memoryCellEntityNumber,
Circuit_id = CircuitId.Output
}
}
})
});
// Auto-increment writer
entities.Add(new Entity
{
Entity_number = memoryCellEntityNumber + autoIncrementEntityOffset,
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = memoryCellX - 2,
Y = memoryCellY - 1
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.CreateLetterOrDigit(leftOperandSignal),
Constant = address,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.CreateLetterOrDigit(memorySignal),
Copy_count_from_input = true
}
},
Connections = CreateConnections(new ConnectionPoint
{
// Connection to adjacent auto-increment input (address line/data in)
Green = adjacentMemoryCells.Select(entityNumber => new ConnectionData
{
Entity_id = entityNumber + autoIncrementEntityOffset,
Circuit_id = CircuitId.Input
}).ToList(),
}, new ConnectionPoint
{
Red = new List <ConnectionData>
{
// Connection to memory cell input (data out)
new ConnectionData
{
Entity_id = memoryCellEntityNumber,
Circuit_id = CircuitId.Input
}
}
})
});
// Left operand reader
entities.Add(new Entity
{
Entity_number = memoryCellEntityNumber + leftOperandEntityOffset,
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = memoryCellX + 2,
Y = memoryCellY - 1
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.CreateLetterOrDigit(leftOperandSignal),
Constant = address,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.CreateLetterOrDigit(memorySignal),
Copy_count_from_input = true
}
},
Connections = CreateConnections(new ConnectionPoint
{
Red = new List <ConnectionData>
{
// Connection to right operand input (data out)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + rightOperandEntityOffset,
Circuit_id = CircuitId.Input
},
// Connection to condition input (data out)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + conditionEntityOffset,
Circuit_id = CircuitId.Input
}
},
// Connection to previous right operand input (address line)
Green = previousMemoryCell.Select(entityNumber => new ConnectionData
{
Entity_id = entityNumber + rightOperandEntityOffset,
Circuit_id = CircuitId.Input
}).Concat(new List <ConnectionData>
{
// Connection to right operand input (address line)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + rightOperandEntityOffset,
Circuit_id = CircuitId.Input
},
// Connection to condition input (address line)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + conditionEntityOffset,
Circuit_id = CircuitId.Input
}
}).ToList()
}, new ConnectionPoint
{
// Connection to adjacent left operand output (data out)
Red = adjacentMemoryCells.Select(entityNumber => new ConnectionData
{
Entity_id = entityNumber + leftOperandEntityOffset,
Circuit_id = CircuitId.Output
}).ToList()
})
});
// Right operand reader
entities.Add(new Entity
{
Entity_number = memoryCellEntityNumber + rightOperandEntityOffset,
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = memoryCellX + 2,
Y = memoryCellY
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.CreateLetterOrDigit(rightOperandSignal),
Constant = address,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.CreateLetterOrDigit(memorySignal),
Copy_count_from_input = true
}
},
Connections = CreateConnections(new ConnectionPoint
{
Red = new List <ConnectionData>
{
// Connection to memory cell output (data out)
new ConnectionData
{
Entity_id = memoryCellEntityNumber,
Circuit_id = CircuitId.Output
}
},
// Connection to next left operand input (address line)
Green = nextMemoryCell.Select(entityNumber => new ConnectionData
{
Entity_id = entityNumber + leftOperandEntityOffset,
Circuit_id = CircuitId.Input
}).Concat(new List <ConnectionData>
{
// Connection to left operand input (address line)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + leftOperandEntityOffset,
Circuit_id = CircuitId.Input
}
}).ToList()
}, new ConnectionPoint
{
// Connection to adjacent right operand output (data out)
Red = adjacentMemoryCells.Select(entityNumber => new ConnectionData
{
Entity_id = entityNumber + rightOperandEntityOffset,
Circuit_id = CircuitId.Output
}).ToList()
})
});
// Condition reader
entities.Add(new Entity
{
Entity_number = memoryCellEntityNumber + conditionEntityOffset,
Name = ItemNames.DeciderCombinator,
Position = new Position
{
X = memoryCellX + 4,
Y = memoryCellY - 1
},
Direction = Direction.Right,
Control_behavior = new ControlBehavior
{
Decider_conditions = new DeciderConditions
{
First_signal = SignalID.CreateLetterOrDigit(conditionSignal),
Constant = address,
Comparator = Comparators.IsEqual,
Output_signal = SignalID.CreateLetterOrDigit(memorySignal),
Copy_count_from_input = true
}
},
Connections = CreateConnections(new ConnectionPoint
{
Red = new List <ConnectionData>
{
// Connection to left operand input (data out)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + leftOperandEntityOffset,
Circuit_id = CircuitId.Input
}
},
Green = new List <ConnectionData>
{
// Connection to left operand input (address line)
new ConnectionData
{
Entity_id = memoryCellEntityNumber + leftOperandEntityOffset,
Circuit_id = CircuitId.Input
}
}
}, new ConnectionPoint
{
// Connection to adjacent condition output (data out)
Red = adjacentMemoryCells.Select(entityNumber => new ConnectionData
{
Entity_id = entityNumber + conditionEntityOffset,
Circuit_id = CircuitId.Output
}).ToList()
})
});
}
return(new Blueprint
{
Label = $"{registerCount} Registers",
Icons = new List <Icon>
{
new Icon
{
Signal = SignalID.Create(ItemNames.ProcessingUnit)
}
},
Entities = entities,
Item = ItemNames.Blueprint,
Version = BlueprintVersions.CurrentVersion
});
}