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Contact usLiquidity Operations Manager
The Liquidity Operations Manager agent oversees daily liquidity management, ensuring adequate cash positions to meet operational needs and regulatory requirements. It leverages a knowledge base of operational policies, funding source availability, and internal limits, alongside computational tools to monitor liquidity and optimize funding decisions.
Instructions
Step 1: Daily Liquidity Monitoring
- Input: Daily cash positions by currency, inflows, outflows, and starting balances.
- Tool: monitor_daily_liquidity
- Knowledge: Reference the knowledge base for liquidity thresholds, intraday liquidity requirements, and escalation procedures.
- Action: Assess daily liquidity positions, calculate key ratios, and identify any deficits requiring immediate action.
Step 2: Funding Strategy Simulation
- Input: Current liquidity position and available funding options (sources, amounts, costs).
- Tool: simulate_funding_strategy
- Knowledge: Reference the knowledge base for funding source limits, cost benchmarks, and diversification rules.
- Action: Simulate optimal funding allocation to meet liquidity needs at minimal cost while complying with risk policies.
Step 3: Reporting & Recommendations
- Input: Results from liquidity monitoring and funding simulations.
- Action: Summarize daily liquidity status, highlight any risks or breaches, and provide recommendations for funding actions and operational adjustments.Knowledge Base (.md)
Business reference guide
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.md, .txt, .pdf
Data Files
Upload data for analysis (CSV, JSON, Excel, PDF)
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Multiple files: .json, .csv, .xlsx, .xls, .pdf, .docx, .pptx, .txt
Tools 3
monitor_daily_liquidity
Monitors daily liquidity positions and calculates key liquidity metrics.
Parameters:
- cash_positions: JSON string — list of objects with keys Date (str), Currency (str),
Inflows (float), Outflows (float), StartingBalance (float).
Example: '[{"Date":"2024-01-01","Currency":"EUR","Inflows":200000,"Outflows":150000,"StartingBalance":500000}]'
Returns:
- JSON string with ending balances, net cash flow, and liquidity ratios.
monitor_daily_liquidity
Monitors daily liquidity positions and calculates key liquidity metrics. Parameters: - cash_positions: JSON string — list of objects with keys Date (str), Currency (str), Inflows (float), Outflows (float), StartingBalance (float). Example: '[{"Date":"2024-01-01","Currency":"EUR","Inflows":200000,"Outflows":150000,"StartingBalance":500000}]' Returns: - JSON string with ending balances, net cash flow, and liquidity ratios.
def monitor_daily_liquidity(cash_positions: str) -> str: """ Monitors daily liquidity positions and calculates key liquidity metrics. Parameters: - cash_positions: JSON string — list of objects with keys Date(str), Currency(str), Inflows(float), Outflows(float), StartingBalance(float). Example: '[{"Date":"2024-01-01","Currency":"EUR","Inflows":200000,"Outflows":150000,"StartingBalance":500000}]' Returns: - JSON string with ending balances, net cash flow, and liquidity ratios. """ try: data = json.loads(cash_positions) if isinstance(cash_positions, str) else cash_positions df = pd.DataFrame(data) df['NetCashFlow'] = df['Inflows'] - df['Outflows'] df['EndingBalance'] = df['StartingBalance'] + df['NetCashFlow'] df['LiquidityRatio'] = df['EndingBalance'] / df['Outflows'].replace(0, 1) result = df[['Date', 'Currency', 'StartingBalance', 'Inflows', 'Outflows', 'NetCashFlow', 'EndingBalance', 'LiquidityRatio']] return result.to_json(orient='records', indent=2) except Exception as e: return json.dumps({'error': str(e)})
simulate_funding_strategy
Simulates optimal funding allocation to meet liquidity needs at minimal cost.
Parameters:
- current_liquidity: Current cash position (float). Negative means a funding need.
- funding_options: List of funding source objects, each with keys:
- Source (str): Funding source name
- Available (float): Maximum amount available
- Cost (float): Interest rate or cost of funding (e.g. 0.03 for 3%)
Example: [{"Source":"Central Bank","Available":5000000,"Cost":0.02},{"Source":"Interbank","Available":3000000,"Cost":0.035}]
Returns:
- JSON string with recommended funding allocation and total projected cost.
simulate_funding_strategy
Simulates optimal funding allocation to meet liquidity needs at minimal cost. Parameters: - current_liquidity: Current cash position (float). Negative means a funding need. - funding_options: List of funding source objects, each with keys: - Source (str): Funding source name - Available (float): Maximum amount available - Cost (float): Interest rate or cost of funding (e.g. 0.03 for 3%) Example: [{"Source":"Central Bank","Available":5000000,"Cost":0.02},{"Source":"Interbank","Available":3000000,"Cost":0.035}] Returns: - JSON string with recommended funding allocation and total projected cost.
def simulate_funding_strategy(current_liquidity: float, funding_options: List[Dict[str, Any]]) -> str: """ Simulates optimal funding allocation to meet liquidity needs at minimal cost. Parameters: - current_liquidity: Current cash position(float). Negative means a funding need. - funding_options: List of funding source objects, each with keys: - Source(str): Funding source name - Available(float): Maximum amount available - Cost(float): Interest rate or cost of funding(e.g. 0.03 for 3%) Example: [{"Source":"Central Bank","Available":5000000,"Cost":0.02},{"Source":"Interbank","Available":3000000,"Cost":0.035}] Returns: - JSON string with recommended funding allocation and total projected cost. """ try: options = funding_options if isinstance(funding_options, list) else json.loads(funding_options) funding_allocation = {} remaining_need = max(0, -current_liquidity) total_cost = 0.0 for option in sorted(options, key=lambda x: x['Cost']): if remaining_need <= 0: break allocated = min(option['Available'], remaining_need) funding_allocation[option['Source']] = round(allocated, 2) total_cost += allocated * option['Cost'] remaining_need -= allocated return json.dumps({ 'FundingAllocation': funding_allocation, 'TotalCost': round(total_cost, 2), 'UnfundedAmount': round(remaining_need, 2) if remaining_need > 0 else 0 }, indent=2) except Exception as e: return json.dumps({'error': str(e)})
file_tools
FileTools from agno framework
file_tools
FileTools from agno framework
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