Solufuse

Showing 25 of 123 from the live probe.

• Run Topology Analysis From Json

  Orchestrates the topology analysis by converting a JSON string to DataFrames and then calling the tree builder function. Args: json_string: A string containing the JSON data from the ETAP file. filename: The original name of the file (e.g., 'MyProject.si2s'). Returns: A detailed JSON string representing the network's hierarchical topology tree.

• Topology Skill

  Main entry point for the topology skill. It takes the raw JSON output from another tool and processes it to build a detailed network topology tree.

• Analyze Topology

  Analyzes file content to extract topology and identify key components like incomers, transformers, cables, buses, and couplings.

• Calculate Single Transformer

• Process Inrush Request

• Get All Clearances

• Calculate Outdoor Retention Pit Dimensions

  Calculates the recommended dimensions for an outdoor retention pit. According to the standard's recommendation, the length and width of the pit should be equal to the transformer's dimensions, augmented on each side by 20% of the distance from the highest point of the transformer to the high level of the retention system. Args: transformer_length_m: The overall length of the transformer in meters. transformer_width_m: The overall width of the transformer in meters. height_transform

• Neutral Earthing Reactors 225 400 Skill

  Orchestrates the 225/400kV compliance analysis based on ETAP data. Workflow: 1. Parses the input string to get parameters. 2. Extracts necessary data from the specified ETAP data file. 3. Performs the compliance calculations based on the Z0/Z1 ratio. 4. Generates a formatted Markdown report. 5. Returns the final report and debug data as a JSON object.

• Read Etap Json File

  Reads the entire content of a specified JSON file within a given project. All return values, including errors, are JSON-formatted strings. - **project_id**: The ID of the project where the file is located. - **relative_path**: The relative path to the JSON file within the project's storage.

• List Project Files

  Lists all files within a project's storage directory. Args: project_id (str): The ID of the project. Returns: A JSON string containing the list of files or an error.

• List Iec 60909 Formulas

  Lists all Python functions and their docstrings in the IEC 60909 formula files. This function scans the `app/skills/iec_60909/scripts/formulas` directory, identifies all Python files, and extracts the name and docstring of each function defined within them. Returns: str: A JSON string representing a dictionary where keys are filenames and values are lists of dictionaries, with each dictionary containing a 'function_name' and its 'docstring'.

• Calculate I L1 1a

  Calculates the phase current I_L1 from symmetrical components. Formula 1a: I_L1 = I_(1) + I_(2) + I_(0) Args: I_1 (complex): The direct (positive-sequence) current component. I_2 (complex): The inverse (negative-sequence) current component. I_0 (complex): The homopolar (zero-sequence) current component. Returns: complex: The current in phase L1.

• Calculate I L2 1b

  Calculates the phase current I_L2 from symmetrical components. Formula 1b: I_L2 = a^2 * I_(1) + a * I_(2) + I_(0) Args: I_1 (complex): The direct (positive-sequence) current component. I_2 (complex): The inverse (negative-sequence) current component. I_0 (complex): The homopolar (zero-sequence) current component. Returns: complex: The current in phase L2.

• Calculate I L3 1c

  Calculates the phase current I_L3 from symmetrical components. Formula 1c: I_L3 = a * I_(1) + a^2 * I_(2) + I_(0) Args: I_1 (complex): The direct (positive-sequence) current component. I_2 (complex): The inverse (negative-sequence) current component. I_0 (complex): The homopolar (zero-sequence) current component. Returns: complex: The current in phase L3.

• Calculate R L Corrected 3

  Calculates the conductor resistance corrected for temperature. Formula 3: R_L = [1 + alpha * (theta_e - 20)] * R_L20 Args: R_L20 (float): Resistance at 20 °C (in Ohms). theta_e (float): Conductor temperature at the end of the short circuit (in °C). alpha (float, optional): Temperature factor (per Kelvin). Defaults to 0.004. Returns: float: The corrected resistance (in Ohms).

• Calculate X Q 5

  Calculates the equivalent reactance X_Q from the impedance and R/X ratio. Formula 5: X_Q = Z_Q / sqrt(1 + (R_Q / X_Q)^2) Args: Z_Q (float): The equivalent impedance Z_Q (in Ohms). R_Q_over_X_Q (float): The R/X ratio of the network feeder. Returns: float: The equivalent reactance X_Q (in Ohms).

• Calculate Z Q 4

  Calculates the equivalent impedance of a network feeder. Formula 4: Z_Q = (c * U_nQ) / (sqrt(3) * I"_kQ) Args: c (float): Voltage factor. U_nQ (float): Nominal voltage of the feeder at the connection point Q (in Volts). I_k_double_prime_Q (float): Initial symmetrical short-circuit current at point Q (in Amperes). Returns: float: The equivalent impedance Z_Q (in Ohms).

• Calculate Z Qt 6

  Calculates the equivalent impedance Z_Qt referred to the LV side of a transformer. Formula 6: Z_Qt = [c * U_nQ / (sqrt(3) * I"_kQ)] * (1 / t_r^2) Args: c (float): Voltage factor. U_nQ (float): Nominal voltage of the feeder at connection point Q (HV side) (in Volts). I_k_double_prime_Q (float): Initial short-circuit current at point Q (in Amperes). t_r (float): Rated transformation ratio. Returns: float: The equivalent impedance Z_Qt referred to the LV side (in Ohms).

• Calculate Ibm 1ph 98

  Calculates I_b1M for a single-phase fault. Formula 98: I_b1M = I"_k1M

• Calculate Ibm 2ph 97

  Calculates I_b2M for a two-phase fault. Formula 97: I_b2M = sqrt(3)/2 * I_bM

• Calculate Ibm 3ph 96

  Calculates I_bM for a three-phase fault. Formula 96: I_bM = μ * q * I"_kM

• Calculate Ikm 1ph 101

  Calculates I_k1M for a single-phase fault. Formula 101: I_k1M = I"_k1M

• Calculate Ikm 2ph 100

  Calculates I_k2M for a two-phase fault. Formula 100: I_k2M = sqrt(3)/2 * I_kM

• Calculate Ikm 3ph 99

  Calculates I_kM for a three-phase fault. Formula 99: I_kM = 0

• Calculate Ik Double Prime M 2ph 92

  Calculates I"_k2M for a two-phase fault. Formula 92: I"_k2M = sqrt(3)/2 * I"_kM