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import { Order } from 'blockly/python';
import * as Blockly from 'blockly';
export const forBlock = Object.create(null);
forBlock['create_mcp'] = function (block, generator) {
// Ensure the generator is properly initialized for nested blocks like loops
if (!generator.nameDB_) {
generator.nameDB_ = new Blockly.Names(generator.RESERVED_WORDS_ || []);
}
// Ensure getDistinctName is available for control flow blocks
if (!generator.getDistinctName) {
generator.getDistinctName = function (name, type) {
return this.nameDB_.getDistinctName(name, type);
};
}
const typedInputs = [];
const listParams = [];
let i = 0;
// Build list of typed input parameters with inferred Python types
while (block.getInput('X' + i)) {
const input = block.getInput('X' + i);
if (input && input.connection && input.connection.targetBlock()) {
const paramName = (block.inputNames_ && block.inputNames_[i]) || ('arg' + i);
const type = (block.inputTypes_ && block.inputTypes_[i]) || 'string';
let pyType;
switch (type) {
case 'integer':
pyType = 'int';
break;
case 'float':
pyType = 'float';
break;
case 'string':
pyType = 'str';
break;
case 'list':
pyType = 'list';
listParams.push(paramName);
break;
case 'boolean':
pyType = 'bool';
break;
default:
pyType = 'Any';
}
typedInputs.push(`${paramName}: ${pyType}`);
}
i++;
}
// Main function body and return value(s)
let body = generator.statementToCode(block, 'BODY');
// Add list conversion code at the beginning of the body
let listConversionCode = '';
for (const param of listParams) {
listConversionCode += ` ${param} = ${param}.iloc[:, 0].tolist()\n`;
}
body = listConversionCode + body;
let returnStatement = '';
const returnValues = [];
// Check if we have outputs defined and the R inputs exist
if (block.outputCount_ && block.outputCount_ > 0 && block.getInput('R0')) {
for (let r = 0; r < block.outputCount_; r++) {
let returnValue = generator.valueToCode(block, 'R' + r, Order.ATOMIC);
// Replace placeholder args with actual names
if (returnValue && block.inputNames_) {
for (let j = 0; j < block.inputNames_.length; j++) {
const paramName = block.inputNames_[j];
returnValue = returnValue.replace(new RegExp(`arg${j}\\b`, 'g'), paramName);
}
}
// Type-cast returns to ensure proper Gradio compatibility
const outputType = block.outputTypes_[r] || 'string';
if (outputType === 'integer' && returnValue) {
returnValue = `int(${returnValue})`;
} else if (outputType === 'float' && returnValue) {
returnValue = `float(${returnValue})`;
} else if (outputType === 'boolean' && returnValue) {
returnValue = `bool(${returnValue})`;
}
returnValues.push(returnValue || 'None');
}
if (returnValues.length === 1) {
returnStatement = ` return ${returnValues[0]}\n`;
} else {
returnStatement = ` return (${returnValues.join(', ')})\n`;
}
} else {
// No outputs defined, return empty dict for MCP
returnStatement = ' return {}\n';
}
let code = '';
// Create the main function definition
if (typedInputs.length > 0) {
code += `def create_mcp(${typedInputs.join(', ')}):\n out_amt = ${returnValues.length}\n out_names = ${JSON.stringify(block.outputNames_ || [])}\n out_types = ${JSON.stringify(block.outputTypes_ || [])}\n\n${body}${returnStatement}\n`;
} else {
code += `def create_mcp():\n out_amt = ${returnValues.length}\n out_names = ${JSON.stringify(block.outputNames_ || [])}\n out_types = ${JSON.stringify(block.outputTypes_ || [])}\n\n${body || ''}${returnStatement}`;
}
// Map Python types to Gradio components for inputs
// Only add inputs if they actually exist in the block (X0, X1, etc.)
const gradioInputs = [];
if (block.inputCount_ && block.inputCount_ > 0 && block.getInput('X0')) {
for (let k = 0; k < block.inputCount_; k++) {
const type = block.inputTypes_[k];
switch (type) {
case 'integer':
gradioInputs.push('gr.Number()');
break;
case 'float':
gradioInputs.push('gr.Number()');
break;
case 'string':
gradioInputs.push('gr.Textbox()');
break;
case 'list':
gradioInputs.push('gr.Dataframe()');
break;
case 'boolean':
gradioInputs.push('gr.Checkbox()');
break;
case 'any':
gradioInputs.push('gr.JSON()');
break;
default:
gradioInputs.push('gr.Textbox()');
}
}
}
// Map Python types to Gradio components for outputs
const gradioOutputs = [];
// Only add outputs if they actually exist in the block (R0, R1, etc.)
if (block.outputCount_ && block.outputCount_ > 0 && block.getInput('R0')) {
// Use outputCount_ to ensure we only process actual outputs
for (let k = 0; k < block.outputCount_; k++) {
const type = block.outputTypes_[k];
switch (type) {
case 'integer':
gradioOutputs.push('gr.Number()');
break;
case 'float':
gradioOutputs.push('gr.Number()');
break;
case 'string':
gradioOutputs.push('gr.Textbox()');
break;
case 'list':
gradioOutputs.push('gr.Dataframe()');
break;
case 'boolean':
gradioOutputs.push('gr.Checkbox()');
break;
case 'any':
gradioOutputs.push('gr.JSON()');
break;
default:
gradioOutputs.push('gr.Textbox()');
}
}
}
return code;
};
forBlock['func_def'] = function (block, generator) {
// Ensure the generator is properly initialized for nested blocks like loops
if (!generator.nameDB_) {
generator.nameDB_ = new Blockly.Names(generator.RESERVED_WORDS_ || []);
}
// Ensure getDistinctName is available for control flow blocks
if (!generator.getDistinctName) {
generator.getDistinctName = function (name, type) {
return this.nameDB_.getDistinctName(name, type);
};
}
const name = block.getFieldValue('NAME');
const typedInputs = [];
let i = 0;
// Build function signature with typed arguments
while (block.getInput('X' + i)) {
const input = block.getInput('X' + i);
if (input && input.connection && input.connection.targetBlock()) {
const paramName = (block.inputNames_ && block.inputNames_[i]) || ('arg' + i);
const type = (block.inputTypes_ && block.inputTypes_[i]) || 'string';
let pyType;
switch (type) {
case 'integer':
pyType = 'int';
break;
case 'float':
pyType = 'float';
break;
case 'string':
pyType = 'str';
break;
case 'list':
pyType = 'list';
break;
case 'boolean':
pyType = 'bool';
break;
default:
pyType = 'Any';
}
typedInputs.push(`${paramName}: ${pyType}`);
}
i++;
}
let body = generator.statementToCode(block, 'BODY');
let returnStatement = '';
// Check if we have outputs defined and the R inputs exist
if (block.outputCount_ && block.outputCount_ > 0 && block.getInput('R0')) {
const returnValues = [];
for (let r = 0; r < block.outputCount_; r++) {
let returnValue = generator.valueToCode(block, 'R' + r, Order.ATOMIC);
// Replace placeholder args with actual names
if (returnValue && block.inputNames_) {
for (let j = 0; j < block.inputNames_.length; j++) {
const paramName = block.inputNames_[j];
returnValue = returnValue.replace(new RegExp(`arg${j}\\b`, 'g'), paramName);
}
}
// Type-cast returns to ensure proper Gradio compatibility
const outputType = block.outputTypes_[r] || 'string';
if (outputType === 'integer' && returnValue) {
returnValue = `int(${returnValue})`;
} else if (outputType === 'float' && returnValue) {
returnValue = `float(${returnValue})`;
} else if (outputType === 'boolean' && returnValue) {
returnValue = `bool(${returnValue})`;
}
returnValues.push(returnValue || 'None');
}
if (returnValues.length === 1) {
returnStatement = ` return ${returnValues[0]}\n`;
} else {
returnStatement = ` return (${returnValues.join(', ')})\n`;
}
} else {
// No outputs defined, return None
returnStatement = ' return None\n';
}
// Construct the function definition
let code;
if (typedInputs.length > 0) {
code = `def ${name}(${typedInputs.join(', ')}):\n${body}${returnStatement}`;
} else {
code = `def ${name}():\n${body}${returnStatement}`;
}
// Add output type hints as comments if outputs are defined
if (block.outputTypes_ && block.outputTypes_.length > 0) {
let outputTypes = [];
for (let k = 0; k < block.outputTypes_.length; k++) {
const type = block.outputTypes_[k];
const outName = block.outputNames_[k] || ('output' + k);
let pyType;
switch (type) {
case 'integer':
pyType = 'int';
break;
case 'float':
pyType = 'float';
break;
case 'string':
pyType = 'str';
break;
case 'list':
pyType = 'list';
break;
default:
pyType = 'Any';
}
outputTypes.push(`${outName}: ${pyType}`);
};
}
// Return function definition as a string value (not executed immediately)
return code;
};
forBlock['llm_call'] = function (block, generator) {
const model = block.getFieldValue('MODEL');
const prompt = generator.valueToCode(block, 'PROMPT', Order.NONE) || "''";
// Generate code to call an LLM model with a prompt
const code = `llm_call(${prompt}, model="${model}")`;
return [code, Order.NONE];
};
forBlock['func_call'] = function (block, generator) {
// Prefer the serialized function name, fall back to the field if needed
const funcName = block.currentFunction_ || block.getFieldValue('FUNC_NAME');
if (!funcName || funcName === 'NONE') {
return ['None', Order.ATOMIC];
}
// Find the function definition to get parameter info
const workspace = block.workspace;
const funcBlock = workspace.getAllBlocks(false).find(b =>
b.type === 'func_def' && b.getFieldValue('NAME') === funcName
);
if (!funcBlock) {
return ['None', Order.ATOMIC];
}
// Build the argument list based on actual inputs on the block
const args = [];
let i = 0;
while (block.getInput('ARG' + i)) {
const argValue = generator.valueToCode(block, 'ARG' + i, Order.NONE);
args.push(argValue || 'None');
i++;
}
const code = `${funcName}(${args.join(', ')})`;
return [code, Order.FUNCTION_CALL];
};
forBlock['call_api'] = function (block, generator) {
const url = generator.valueToCode(block, 'URL', Order.NONE) || "''";
const method = block.getFieldValue('METHOD');
const headers = generator.valueToCode(block, 'HEADERS', Order.NONE) || "''";
// Generate code to call an LLM model with a prompt
const code = `call_api(url=${url}, method="${method}", headers=${headers})`;
return [code, Order.NONE];
};
forBlock['in_json'] = function (block, generator) {
const name = generator.valueToCode(block, 'NAME', Order.NONE);
const json = generator.valueToCode(block, 'JSON', Order.NONE);
// Generate code to call an LLM model with a prompt
const code = `${json}[${name}]`;
return [code, Order.NONE];
};
forBlock['make_json'] = function (block, generator) {
const pairs = [];
let i = 0;
// Collect all key-value pairs
while (block.getInput('FIELD' + i)) {
// Get the key from the text field on the block
const keyField = block.getField('KEY' + i);
const key = keyField ? keyField.getValue() : (block.fieldKeys_[i] || ('key' + i));
const value = generator.valueToCode(block, 'FIELD' + i, Order.NONE) || "''";
pairs.push(`"${key}": ${value}`);
i++;
}
// Generate valid Python dict syntax
const code = pairs.length > 0 ? `{${pairs.join(', ')}}` : '{}';
return [code, Order.ATOMIC];
};
forBlock['lists_contains'] = function (block, generator) {
const item = generator.valueToCode(block, 'ITEM', Order.NONE) || "''";
const list = generator.valueToCode(block, 'LIST', Order.NONE) || "[]";
// Generate code to check if item is in list
const code = `${item} in ${list}`;
return [code, Order.ATOMIC];
};
forBlock['cast_as'] = function (block, generator) {
const value = generator.valueToCode(block, 'VALUE', Order.NONE) || "''";
const type = block.getFieldValue('TYPE');
// Generate code to cast value to the specified type
const code = `${type}(${value})`;
return [code, Order.FUNCTION_CALL];
}; |