import * as v from "valibot"; //#region ../parsers/src/schemas/index.d.ts declare function createUplinkInputSchema(): v.ObjectSchema<{ /** * The uplink payload byte array, where each byte is represented by an integer between 0 and 255. */ readonly bytes: v.ArraySchema, v.MinValueAction, v.MaxValueAction, v.IntegerAction]>, undefined>; /** * The uplink message LoRaWAN `fPort` */ readonly fPort: v.OptionalSchema, v.MinValueAction, v.MaxValueAction, v.IntegerAction]>, undefined>; /** * ISO 8601 string representation of the time the message was received by the network server. */ readonly recvTime: v.OptionalSchema, undefined>; }, "Uplink input should be an object with `bytes` and optional `fPort` and `recvTime` properties.">; declare function createHexUplinkInputSchema(): v.SchemaWithPipe]>; readonly fPort: v.OptionalSchema, v.MinValueAction, v.MaxValueAction, v.IntegerAction]>, undefined>; readonly recvTime: v.OptionalSchema, undefined>; }, undefined>, v.StringSchema], undefined>, v.TransformAction]>; type UplinkInput = v.InferOutput>; type HexUplinkInput = v.InferOutput>; //#endregion //#region ../parsers/src/types.d.ts interface GenericSuccessfulUplinkOutput { warnings?: string[]; data: object; errors?: never; } interface GenericUplinkOutputFailure { errors: string[]; warnings?: never; data?: never; } type DownlinkFrame = number[]; interface DownlinkOutputFailure { errors: string[]; warnings?: never; fPort?: never; bytes?: never; } interface MultipleDownlinkOutputFailure { errors: string[]; warnings?: never; fPort?: never; frames?: never; } type DownlinkOutput = { fPort: number; bytes: DownlinkFrame; warnings?: string[]; errors?: never; } | DownlinkOutputFailure; type MultipleDownlinkOutput = { fPort: number; frames: DownlinkFrame[]; warnings?: string[]; errors?: never; } | MultipleDownlinkOutputFailure; type GenericUplinkOutput = TData | GenericUplinkOutputFailure; interface Range { start: number; end: number; } interface Channel$1 extends Range { adjustMeasurementRangeDisallowed?: true; name: TName; } //#endregion //#region ../parsers/src/codecs/codec.d.ts type Codec DownlinkOutput) | undefined) = undefined, TMultipleEncoder extends (((input: any) => MultipleDownlinkOutput) | undefined) = undefined> = { name: TCodecName; protocol: TProtocol; adjustRoundingDecimals: (decimals: number) => void; adjustMeasuringRange: (name: TChannelName, range: { start: number; end: number; }) => void; getChannels: () => Channel$1[]; canTryDecode: (input: UplinkInput) => boolean; decode: (input: UplinkInput) => TData; } & (undefined extends TEncoder ? {} : { encode: TEncoder; }) & (undefined extends TMultipleEncoder ? {} : { encodeMultiple: TMultipleEncoder; }); type AnyCodec = (Codec & { encode?: (input: any) => DownlinkOutput; encodeMultiple?: (input: any) => MultipleDownlinkOutput; }) | (Codec & { encode?: (input: any) => DownlinkOutput; encodeMultiple?: (input: any) => MultipleDownlinkOutput; }); //#endregion //#region ../parsers/src/codecs/protocols.d.ts /** * TULIP2 protocol identifier. * Used for legacy devices with basic message handling (0x00-0x09 message types). */ declare const TULIP2_PROTOCOL: "TULIP2"; /** * TULIP3 protocol identifier. * Used for advanced devices with comprehensive sensor support (0x10-0x17 message types). */ declare const TULIP3_PROTOCOL: "TULIP3"; //#endregion //#region ../parsers/src/codecs/tulip2/index.d.ts interface TULIP2Channel extends Channel$1 { channelId: number; } type Encoder = (input: TInput) => DownlinkOutput; type MultipleEncoder = (input: TInput) => MultipleDownlinkOutput; type EncoderFactory = (options: { getChannels: () => TULIP2Channel[]; }) => Encoder; type MultipleEncoderFactory = (options: { getChannels: () => TULIP2Channel[]; }) => MultipleEncoder; type ReturnOfFactory | MultipleEncoderFactory | undefined> = TFactory extends ((...args: any[]) => infer TResult) ? TResult : undefined; type Handler = (input: UplinkInput, options: { roundingDecimals: number; channels: TChannels; }) => TReturn; interface MessageHandlers { 0x00?: Handler; 0x01?: Handler; 0x02?: Handler; 0x03?: Handler; 0x04?: Handler; 0x05?: Handler; 0x06?: Handler; 0x07?: Handler; 0x08?: Handler; 0x09?: Handler; 0x0A?: Handler; 0x0B?: Handler; 0x0C?: Handler; 0x0D?: Handler; } type ReturnTypeOfHandlers> = { [K in keyof THandlers]: THandlers[K] extends Handler ? TReturn : never }[keyof THandlers]; type TULIP2AdjustableChannelNames = { [K in keyof TChannels]: TChannels[K] extends TULIP2Channel ? (TChannels[K]['adjustMeasurementRangeDisallowed'] extends true ? never : TChannels[K]['name']) : never }[number]; /** * Type alias for a TULIP2 codec with protocol identification. * Wrapper around base Codec type that fixes the protocol to TULIP2 and passes through all other type parameters. */ type TULIP2Codec, TEncoderFactory extends EncoderFactory | undefined = undefined, TMultipleEncoderFactory extends MultipleEncoderFactory | undefined = undefined> = Codec, TULIP2AdjustableChannelNames, ReturnOfFactory, ReturnOfFactory>; //#endregion //#region ../parsers/src/devices/A2G/parser/index.d.ts declare function useParser(): { adjustRoundingDecimals: (decimals: number) => void; adjustMeasuringRange: (channel: never, range: { start: number; end: number; }) => void; decodeUplink: (input: UplinkInput) => GenericUplinkOutput; 4: Handler<[{ readonly channelId: 0; readonly name: "pressure"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 1; readonly name: "flow"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 2; readonly name: "input_1"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 3; readonly name: "input_2"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 4; readonly name: "input_3"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 5; readonly name: "input_4"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 6; readonly name: "relay_status_1"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 7; readonly name: "relay_status_2"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }], { data: { configurationId: number; messageType: 4; technicalAlarms: { TemperatureInput4SignalOverload: boolean; TemperatureInput3SignalOverload: boolean; VoltageInput2SignalOverload: boolean; VoltageInput1SignalOverload: boolean; ModbusCommunicationError: boolean; AnalogOutput2SignalOverload: boolean; AnalogOutput1SignalOverload: boolean; PressureSignalOverload: boolean; }; }; warnings?: string[] | undefined; }>; 5: Handler<[{ readonly channelId: 0; readonly name: "pressure"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 1; readonly name: "flow"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 2; readonly name: "input_1"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 3; readonly name: "input_2"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 4; readonly name: "input_3"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 5; readonly name: "input_4"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 6; readonly name: "relay_status_1"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 7; readonly name: "relay_status_2"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }], { data: { configurationId: number; messageType: 5; deviceAlarms: { ADCConverterError: boolean; PressureSensorNoResponseError: boolean; PressureSensorTimeoutError: boolean; FactoryOptionsWriteError: boolean; FactoryOptionsDeleteError: boolean; InvalidFactoryOptionsError: boolean; UserSettingsInvalidError: boolean; UserSettingsReadWriteError: boolean; ZeroOffsetOverRangeError: boolean; InvalidSignalSourceSpecifiedError: boolean; AnalogOutput2OverTemperatureError: boolean; AnalogOutput2LoadFaultError: boolean; AnalogOutput2OverRangeError: boolean; AnalogOutput1OverTemperatureError: boolean; AnalogOutput1LoadFaultError: boolean; AnalogOutput1OverRangeError: boolean; }; }; warnings?: string[] | undefined; }>; 7: Handler<[{ readonly channelId: 0; readonly name: "pressure"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 1; readonly name: "flow"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 2; readonly name: "input_1"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 3; readonly name: "input_2"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 4; readonly name: "input_3"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 5; readonly name: "input_4"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 6; readonly name: "relay_status_1"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 7; readonly name: "relay_status_2"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }], { data: { configurationId: number; messageType: 7; deviceInformation: { productId: 13; productIdName: "A2G"; productSubId: number; productSubIdName: "LoRaWAN" | "MIOTY" | "Unknown"; sensorFirmwareVersion: string; sensorHardwareVersion: string; hardwareAssemblyTypeId: number; hardwareAssemblyTypeName: "A2G HE0 Full Assembly" | "A2G HE1 1AO Assembly" | "A2G HE2 Modbus Assembly" | "A2G HE3 Modular Assembly" | "A2G LC1 LC1VAO" | "A2G LC2 CT" | "A2G LC3 BAT"; serialNumber: string; channelConfigurations: [{ measurand: 3; measurandName: "Pressure (gauge)" | "Pressure (absolute)" | "Pressure (differential)"; measurementRangeStart: number; measurementRangeEnd: number; unit: 1 | 2 | 3 | 4 | 5; unitName: "mbar" | "Pa" | "kPa" | "mmWC" | "inWC"; }] | [{ measurand: 3; measurandName: "Pressure (gauge)" | "Pressure (absolute)" | "Pressure (differential)"; measurementRangeStart: number; measurementRangeEnd: number; unit: 1 | 2 | 3 | 4 | 5; unitName: "mbar" | "Pa" | "kPa" | "mmWC" | "inWC"; }, { measurand: 6; measurandName: "Flow (vol.)" | "Flow (mass)"; unit: 10 | 11 | 12 | 13 | 14 | 15; unitName: "[m³/s] cubic metre per second" | "[m³/h] cubic metre per hour (cbm/h)" | "[l/s] litre per second" | "[cfm] cubic feet per minute" | "[m/s]" | "[ft/min]"; measurementRangeStart?: number | undefined; measurementRangeEnd?: number | undefined; }, { measurand: 70; measurandName: "Input 1" | "Input 2" | "Input 3" | "Input 4"; unit: 0 | 1 | 2 | 3 | 4 | 5 | 10 | 11 | 12 | 13 | 14 | 15 | 20 | 22 | 31 | 32 | 21 | 23 | 24 | 45 | 46 | 30 | 40 | 41; unitName: "°C" | "°F" | "mbar" | "Pa" | "kPa" | "V" | "ppm" | "mmWC" | "inWC" | "[m³/s] cubic metre per second" | "[m³/h] cubic metre per hour (cbm/h)" | "[l/s] litre per second" | "[cfm] cubic feet per minute" | "[m/s]" | "[ft/min]" | "None" | "% rH" | "[g/m³]" | "[g/ft³]" | "[kJ/kg]" | "[BTU/lb]" | "normalized" | "[%] percent" | "bin"; measurementRangeStart?: number | undefined; measurementRangeEnd?: number | undefined; }, { measurand: 71; measurandName: "Input 1" | "Input 2" | "Input 3" | "Input 4"; unit: 0 | 1 | 2 | 3 | 4 | 5 | 10 | 11 | 12 | 13 | 14 | 15 | 20 | 22 | 31 | 32 | 21 | 23 | 24 | 45 | 46 | 30 | 40 | 41; unitName: "°C" | "°F" | "mbar" | "Pa" | "kPa" | "V" | "ppm" | "mmWC" | "inWC" | "[m³/s] cubic metre per second" | "[m³/h] cubic metre per hour (cbm/h)" | "[l/s] litre per second" | "[cfm] cubic feet per minute" | "[m/s]" | "[ft/min]" | "None" | "% rH" | "[g/m³]" | "[g/ft³]" | "[kJ/kg]" | "[BTU/lb]" | "normalized" | "[%] percent" | "bin"; measurementRangeStart?: number | undefined; measurementRangeEnd?: number | undefined; }, { measurand: 72; measurandName: "Input 1" | "Input 2" | "Input 3" | "Input 4"; unit: 0 | 1 | 2 | 3 | 4 | 5 | 10 | 11 | 12 | 13 | 14 | 15 | 20 | 22 | 31 | 32 | 21 | 23 | 24 | 45 | 46 | 30 | 40 | 41; unitName: "°C" | "°F" | "mbar" | "Pa" | "kPa" | "V" | "ppm" | "mmWC" | "inWC" | "[m³/s] cubic metre per second" | "[m³/h] cubic metre per hour (cbm/h)" | "[l/s] litre per second" | "[cfm] cubic feet per minute" | "[m/s]" | "[ft/min]" | "None" | "% rH" | "[g/m³]" | "[g/ft³]" | "[kJ/kg]" | "[BTU/lb]" | "normalized" | "[%] percent" | "bin"; measurementRangeStart?: number | undefined; measurementRangeEnd?: number | undefined; }, { measurand: 73; measurandName: "Input 1" | "Input 2" | "Input 3" | "Input 4"; unit: 0 | 1 | 2 | 3 | 4 | 5 | 10 | 11 | 12 | 13 | 14 | 15 | 20 | 22 | 31 | 32 | 21 | 23 | 24 | 45 | 46 | 30 | 40 | 41; unitName: "°C" | "°F" | "mbar" | "Pa" | "kPa" | "V" | "ppm" | "mmWC" | "inWC" | "[m³/s] cubic metre per second" | "[m³/h] cubic metre per hour (cbm/h)" | "[l/s] litre per second" | "[cfm] cubic feet per minute" | "[m/s]" | "[ft/min]" | "None" | "% rH" | "[g/m³]" | "[g/ft³]" | "[kJ/kg]" | "[BTU/lb]" | "normalized" | "[%] percent" | "bin"; measurementRangeStart?: number | undefined; measurementRangeEnd?: number | undefined; }]; }; }; warnings?: string[] | undefined; }>; 8: Handler<[{ readonly channelId: 0; readonly name: "pressure"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 1; readonly name: "flow"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 2; readonly name: "input_1"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 3; readonly name: "input_2"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 4; readonly name: "input_3"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 5; readonly name: "input_4"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 6; readonly name: "relay_status_1"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 7; readonly name: "relay_status_2"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }], { data: { configurationId: number; messageType: 8; deviceStatistic: { batteryLevelNewEvent: boolean; batteryLevelPercent: number; }; }; warnings?: string[] | undefined; }>; }>>; decodeHexUplink: (input: HexUplinkInput) => GenericUplinkOutput; 4: Handler<[{ readonly channelId: 0; readonly name: "pressure"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 1; readonly name: "flow"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 2; readonly name: "input_1"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 3; readonly name: "input_2"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 4; readonly name: "input_3"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 5; readonly name: "input_4"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 6; readonly name: "relay_status_1"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 7; readonly name: "relay_status_2"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }], { data: { configurationId: number; messageType: 4; technicalAlarms: { TemperatureInput4SignalOverload: boolean; TemperatureInput3SignalOverload: boolean; VoltageInput2SignalOverload: boolean; VoltageInput1SignalOverload: boolean; ModbusCommunicationError: boolean; AnalogOutput2SignalOverload: boolean; AnalogOutput1SignalOverload: boolean; PressureSignalOverload: boolean; }; }; warnings?: string[] | undefined; }>; 5: Handler<[{ readonly channelId: 0; readonly name: "pressure"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 1; readonly name: "flow"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 2; readonly name: "input_1"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 3; readonly name: "input_2"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 4; readonly name: "input_3"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 5; readonly name: "input_4"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 6; readonly name: "relay_status_1"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 7; readonly name: "relay_status_2"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }], { data: { configurationId: number; messageType: 5; deviceAlarms: { ADCConverterError: boolean; PressureSensorNoResponseError: boolean; PressureSensorTimeoutError: boolean; FactoryOptionsWriteError: boolean; FactoryOptionsDeleteError: boolean; InvalidFactoryOptionsError: boolean; UserSettingsInvalidError: boolean; UserSettingsReadWriteError: boolean; ZeroOffsetOverRangeError: boolean; InvalidSignalSourceSpecifiedError: boolean; AnalogOutput2OverTemperatureError: boolean; AnalogOutput2LoadFaultError: boolean; AnalogOutput2OverRangeError: boolean; AnalogOutput1OverTemperatureError: boolean; AnalogOutput1LoadFaultError: boolean; AnalogOutput1OverRangeError: boolean; }; }; warnings?: string[] | undefined; }>; 7: Handler<[{ readonly channelId: 0; readonly name: "pressure"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 1; readonly name: "flow"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 2; readonly name: "input_1"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 3; readonly name: "input_2"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 4; readonly name: "input_3"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 5; readonly name: "input_4"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 6; readonly name: "relay_status_1"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 7; readonly name: "relay_status_2"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }], { data: { configurationId: number; messageType: 7; deviceInformation: { productId: 13; productIdName: "A2G"; productSubId: number; productSubIdName: "LoRaWAN" | "MIOTY" | "Unknown"; sensorFirmwareVersion: string; sensorHardwareVersion: string; hardwareAssemblyTypeId: number; hardwareAssemblyTypeName: "A2G HE0 Full Assembly" | "A2G HE1 1AO Assembly" | "A2G HE2 Modbus Assembly" | "A2G HE3 Modular Assembly" | "A2G LC1 LC1VAO" | "A2G LC2 CT" | "A2G LC3 BAT"; serialNumber: string; channelConfigurations: [{ measurand: 3; measurandName: "Pressure (gauge)" | "Pressure (absolute)" | "Pressure (differential)"; measurementRangeStart: number; measurementRangeEnd: number; unit: 1 | 2 | 3 | 4 | 5; unitName: "mbar" | "Pa" | "kPa" | "mmWC" | "inWC"; }] | [{ measurand: 3; measurandName: "Pressure (gauge)" | "Pressure (absolute)" | "Pressure (differential)"; measurementRangeStart: number; measurementRangeEnd: number; unit: 1 | 2 | 3 | 4 | 5; unitName: "mbar" | "Pa" | "kPa" | "mmWC" | "inWC"; }, { measurand: 6; measurandName: "Flow (vol.)" | "Flow (mass)"; unit: 10 | 11 | 12 | 13 | 14 | 15; unitName: "[m³/s] cubic metre per second" | "[m³/h] cubic metre per hour (cbm/h)" | "[l/s] litre per second" | "[cfm] cubic feet per minute" | "[m/s]" | "[ft/min]"; measurementRangeStart?: number | undefined; measurementRangeEnd?: number | undefined; }, { measurand: 70; measurandName: "Input 1" | "Input 2" | "Input 3" | "Input 4"; unit: 0 | 1 | 2 | 3 | 4 | 5 | 10 | 11 | 12 | 13 | 14 | 15 | 20 | 22 | 31 | 32 | 21 | 23 | 24 | 45 | 46 | 30 | 40 | 41; unitName: "°C" | "°F" | "mbar" | "Pa" | "kPa" | "V" | "ppm" | "mmWC" | "inWC" | "[m³/s] cubic metre per second" | "[m³/h] cubic metre per hour (cbm/h)" | "[l/s] litre per second" | "[cfm] cubic feet per minute" | "[m/s]" | "[ft/min]" | "None" | "% rH" | "[g/m³]" | "[g/ft³]" | "[kJ/kg]" | "[BTU/lb]" | "normalized" | "[%] percent" | "bin"; measurementRangeStart?: number | undefined; measurementRangeEnd?: number | undefined; }, { measurand: 71; measurandName: "Input 1" | "Input 2" | "Input 3" | "Input 4"; unit: 0 | 1 | 2 | 3 | 4 | 5 | 10 | 11 | 12 | 13 | 14 | 15 | 20 | 22 | 31 | 32 | 21 | 23 | 24 | 45 | 46 | 30 | 40 | 41; unitName: "°C" | "°F" | "mbar" | "Pa" | "kPa" | "V" | "ppm" | "mmWC" | "inWC" | "[m³/s] cubic metre per second" | "[m³/h] cubic metre per hour (cbm/h)" | "[l/s] litre per second" | "[cfm] cubic feet per minute" | "[m/s]" | "[ft/min]" | "None" | "% rH" | "[g/m³]" | "[g/ft³]" | "[kJ/kg]" | "[BTU/lb]" | "normalized" | "[%] percent" | "bin"; measurementRangeStart?: number | undefined; measurementRangeEnd?: number | undefined; }, { measurand: 72; measurandName: "Input 1" | "Input 2" | "Input 3" | "Input 4"; unit: 0 | 1 | 2 | 3 | 4 | 5 | 10 | 11 | 12 | 13 | 14 | 15 | 20 | 22 | 31 | 32 | 21 | 23 | 24 | 45 | 46 | 30 | 40 | 41; unitName: "°C" | "°F" | "mbar" | "Pa" | "kPa" | "V" | "ppm" | "mmWC" | "inWC" | "[m³/s] cubic metre per second" | "[m³/h] cubic metre per hour (cbm/h)" | "[l/s] litre per second" | "[cfm] cubic feet per minute" | "[m/s]" | "[ft/min]" | "None" | "% rH" | "[g/m³]" | "[g/ft³]" | "[kJ/kg]" | "[BTU/lb]" | "normalized" | "[%] percent" | "bin"; measurementRangeStart?: number | undefined; measurementRangeEnd?: number | undefined; }, { measurand: 73; measurandName: "Input 1" | "Input 2" | "Input 3" | "Input 4"; unit: 0 | 1 | 2 | 3 | 4 | 5 | 10 | 11 | 12 | 13 | 14 | 15 | 20 | 22 | 31 | 32 | 21 | 23 | 24 | 45 | 46 | 30 | 40 | 41; unitName: "°C" | "°F" | "mbar" | "Pa" | "kPa" | "V" | "ppm" | "mmWC" | "inWC" | "[m³/s] cubic metre per second" | "[m³/h] cubic metre per hour (cbm/h)" | "[l/s] litre per second" | "[cfm] cubic feet per minute" | "[m/s]" | "[ft/min]" | "None" | "% rH" | "[g/m³]" | "[g/ft³]" | "[kJ/kg]" | "[BTU/lb]" | "normalized" | "[%] percent" | "bin"; measurementRangeStart?: number | undefined; measurementRangeEnd?: number | undefined; }]; }; }; warnings?: string[] | undefined; }>; 8: Handler<[{ readonly channelId: 0; readonly name: "pressure"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 1; readonly name: "flow"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 2; readonly name: "input_1"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 3; readonly name: "input_2"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 4; readonly name: "input_3"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 5; readonly name: "input_4"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 6; readonly name: "relay_status_1"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }, { readonly channelId: 7; readonly name: "relay_status_2"; readonly start: number; readonly end: number; readonly adjustMeasurementRangeDisallowed: true; }], { data: { configurationId: number; messageType: 8; deviceStatistic: { batteryLevelNewEvent: boolean; batteryLevelPercent: number; }; }; warnings?: string[] | undefined; }>; }>>; }; //#endregion //#region ../parsers/src/schemas/tulip2/downlink.d.ts interface Tulip2EncodeFeatureFlags { /** * Maximum allowed configurationId value for actions that include configurationId. * Used by the generated action schema validators. */ maxConfigId: number; /** * Enables `startUpTime` on per-channel configuration object schemas. * If omitted/false, `startUpTime` is not accepted. */ channelsStartupTime?: boolean; /** * Enables `measureOffset` on per-channel configuration object schemas. * If omitted/false, `measureOffset` is not accepted. */ channelsMeasureOffset?: boolean; /** * Enables `isBLEEnabled` in mainConfiguration schema. */ mainConfigBLE?: boolean; /** * Switches mainConfiguration from dual measuring rates * (`measuringRateWhenNoAlarm` + `measuringRateWhenAlarm`) * to single `measuringRate`. */ mainConfigSingleMeasuringRate?: boolean; /** * Channel keys that must be boolean-only in configuration actions. * * Example: `['channel1']` * - `channel1: true | false` is allowed * - `channel1: { alarms: ... }` is rejected by schema * * This also affects TypeScript output types (`TULIP2ConfigurationAction`) so * listed channels are inferred as `true | false` only, while other channels * still allow full channel configuration objects. */ channelsBooleanOnly?: readonly [`channel${number}`, ...`channel${number}`[]]; } interface Tulip2DownlinkSpanLimitFactors { /** * The maximum span factor for the dead band, meaning that the allowed dead band will be at most span * this factor. * Default is 1 (100%). * Only set if the dead band range is restricted to a smaller range than the full span, e.g. 10% of the span would be a factor of 0.1. */ deadBandMaxSpanFactor?: number; /** * The maximum span factor for the slope, meaning that the allowed slope will be at most span * this factor. * Default is 1 (100%). * Only set if the slope range is restricted to a smaller range than the full span, e.g. 10% of the span would be a factor of 0.1. */ slopeMaxSpanFactor?: number; /** * The minimum span factor for the measure offset, meaning that the allowed measure offset will be at least +/- span * this factor. * Default is 1 (100%). * Only set if the offset range is restricted to a smaller range than the full span, e.g. +/- 5% of the span would be a factor of 0.05. */ measureOffsetMinSpanFactor?: number; /** * The maximum span factor for the measure offset, meaning that the allowed measure offset will be at most +/- span * this factor. * Default is 1 (100%). * Only set if the offset range is restricted to a smaller range than the full span, e.g. +/- 5% of the span would be a factor of 0.05. */ measureOffsetMaxSpanFactor?: number; } declare function createConfigurationIdSchema(maxConfigId: number): v.OptionalSchema, v.MinValueAction, v.MaxValueAction, v.IntegerAction]>, undefined>; declare function createByteLimitSchema(): v.OptionalSchema, v.MinValueAction, v.IntegerAction]>, undefined>; type TULIP2BaseActionEntries = { deviceAction: v.LiteralSchema; } & TObjectExtension; type TULIP2ActionEntriesWithConfigurationId = TULIP2BaseActionEntries & { configurationId: ReturnType; }; type TULIP2ActionEntriesWithByteLimit = TULIP2BaseActionEntries & { byteLimit: ReturnType; }; type TULIP2ActionEntriesWithConfigurationIdAndByteLimit = TULIP2ActionEntriesWithConfigurationId & TULIP2ActionEntriesWithByteLimit; type Tulip2DownlinkMainConfigBase = v.ObjectSchema<{ publicationFactorWhenAlarm: v.NumberSchema; publicationFactorWhenNoAlarm: v.NumberSchema; measuringRateWhenNoAlarm: v.NumberSchema; measuringRateWhenAlarm: v.NumberSchema; }, undefined>; type Tulip2DownlinkMainConfigWithBLE = v.ObjectSchema<{ publicationFactorWhenAlarm: v.NumberSchema; publicationFactorWhenNoAlarm: v.NumberSchema; isBLEEnabled: v.BooleanSchema; measuringRateWhenNoAlarm: v.NumberSchema; measuringRateWhenAlarm: v.NumberSchema; }, undefined>; type Tulip2DownlinkMainConfigSingleRate = v.ObjectSchema<{ publicationFactorWhenAlarm: v.NumberSchema; publicationFactorWhenNoAlarm: v.NumberSchema; measuringRate: v.NumberSchema; }, undefined>; type Tulip2DownlinkMainConfigWithBLEAndSingleRate = v.ObjectSchema<{ publicationFactorWhenAlarm: v.NumberSchema; publicationFactorWhenNoAlarm: v.NumberSchema; isBLEEnabled: v.BooleanSchema; measuringRate: v.NumberSchema; }, undefined>; type Tulip2DownlinkMainConfiguration = TFeatureFlags['mainConfigBLE'] extends true ? TFeatureFlags['mainConfigSingleMeasuringRate'] extends true ? Tulip2DownlinkMainConfigWithBLEAndSingleRate : Tulip2DownlinkMainConfigWithBLE : TFeatureFlags['mainConfigSingleMeasuringRate'] extends true ? Tulip2DownlinkMainConfigSingleRate : Tulip2DownlinkMainConfigBase; type Tulip2DownlinkChannelSchemaBase = v.ObjectSchema<{ alarms: v.OptionalSchema; lowThreshold: v.OptionalSchema, undefined>; highThreshold: v.OptionalSchema, undefined>; lowThresholdWithDelay: v.OptionalSchema; delay: v.NumberSchema; }, undefined>, undefined>; highThresholdWithDelay: v.OptionalSchema; delay: v.NumberSchema; }, undefined>, undefined>; risingSlope: v.OptionalSchema, undefined>; fallingSlope: v.OptionalSchema, undefined>; }, undefined>, undefined>; }, undefined>; type Tulip2DownlinkChannelSchemaWithStartup = v.ObjectSchema<{ alarms: v.OptionalSchema; lowThreshold: v.OptionalSchema, undefined>; highThreshold: v.OptionalSchema, undefined>; lowThresholdWithDelay: v.OptionalSchema; delay: v.NumberSchema; }, undefined>, undefined>; highThresholdWithDelay: v.OptionalSchema; delay: v.NumberSchema; }, undefined>, undefined>; risingSlope: v.OptionalSchema, undefined>; fallingSlope: v.OptionalSchema, undefined>; }, undefined>, undefined>; startUpTime: v.OptionalSchema, undefined>; }, undefined>; type Tulip2DownlinkChannelSchemaWithOffset = v.ObjectSchema<{ alarms: v.OptionalSchema; lowThreshold: v.OptionalSchema, undefined>; highThreshold: v.OptionalSchema, undefined>; lowThresholdWithDelay: v.OptionalSchema; delay: v.NumberSchema; }, undefined>, undefined>; highThresholdWithDelay: v.OptionalSchema; delay: v.NumberSchema; }, undefined>, undefined>; risingSlope: v.OptionalSchema, undefined>; fallingSlope: v.OptionalSchema, undefined>; }, undefined>, undefined>; measureOffset: v.OptionalSchema, undefined>; }, undefined>; type Tulip2DownlinkChannelSchemaWithBoth = v.ObjectSchema<{ alarms: v.OptionalSchema; lowThreshold: v.OptionalSchema, undefined>; highThreshold: v.OptionalSchema, undefined>; lowThresholdWithDelay: v.OptionalSchema; delay: v.NumberSchema; }, undefined>, undefined>; highThresholdWithDelay: v.OptionalSchema; delay: v.NumberSchema; }, undefined>, undefined>; risingSlope: v.OptionalSchema, undefined>; fallingSlope: v.OptionalSchema, undefined>; }, undefined>, undefined>; startUpTime: v.OptionalSchema, undefined>; measureOffset: v.OptionalSchema, undefined>; }, undefined>; type Tulip2DownlinkChannelSchema = TFeatureFlags['channelsStartupTime'] extends true ? TFeatureFlags['channelsMeasureOffset'] extends true ? Tulip2DownlinkChannelSchemaWithBoth : Tulip2DownlinkChannelSchemaWithStartup : TFeatureFlags['channelsMeasureOffset'] extends true ? Tulip2DownlinkChannelSchemaWithOffset : Tulip2DownlinkChannelSchemaBase; type Tulip2ChannelSchemasObject = { [K in TChannels[number] as `channel${K['channelId']}`]: `channel${K['channelId']}` extends ChannelBooleanOnlyKeys ? v.OptionalSchema, v.LiteralSchema], undefined>, undefined> : v.OptionalSchema, v.LiteralSchema, Tulip2DownlinkChannelSchema], undefined>, undefined> }; type ChannelBooleanOnlyKeys = TFeatureFlags['channelsBooleanOnly'] extends readonly `channel${number}`[] ? TFeatureFlags['channelsBooleanOnly'][number] : never; declare function createTULIP2DownlinkConfigurationActionSchema(channels: TChannel[], featureFlags: TFeatureFlags, spanLimitFactors?: Tulip2DownlinkSpanLimitFactors): v.ObjectSchema, undefined>; } & Tulip2ChannelSchemasObject>, undefined>; declare function createDownlinkResetToFactorySchema(): v.ObjectSchema<{ readonly deviceAction: v.LiteralSchema<"resetToFactory", undefined>; }, undefined>; declare function createDownlinkResetBatteryIndicatorSchema(featureFlags: Tulip2EncodeFeatureFlags): v.ObjectSchema>, undefined>; type DownlinkResetToFactory = v.InferOutput>; type InferValibotOutput = TSchema extends { '~types'?: { output: infer TOutput; } | undefined; } ? TOutput : never; type TULIP2ConfigurationAction = InferValibotOutput>>; type TULIP2DownlinkInput = DownlinkResetToFactory | TULIP2ConfigurationAction; //#endregion //#region ../parsers/src/devices/FLRU_NETRIS3/parser/tulip2/channels.d.ts declare function createTULIP2FLRUChannels(): [{ readonly channelId: 0; readonly name: "level"; readonly start: number; readonly end: number; }]; //#endregion //#region ../parsers/src/devices/FLRU_NETRIS3/parser/tulip2/constants.d.ts declare const FLRU_DOWNLINK_FEATURE_FLAGS: { readonly maxConfigId: 31; readonly channelsStartupTime: false; readonly channelsMeasureOffset: true; readonly mainConfigBLE: false; readonly mainConfigSingleMeasuringRate: false; }; type FLRUTulip2Channels = ReturnType; type FLRUTulip2DownlinkInput = TULIP2DownlinkInput; //#endregion //#region ../parsers/src/codecs/tulip3/lookups.d.ts declare const protocolDataTypeLookup: { readonly 0: "float - IEEE754"; readonly 1: "int 24 - Fixed-point s16.7 (Q16.7)"; readonly 2: "int 16 - Fixed-point s10.5 (Q10.5)"; readonly 3: "uint16 - TULIP scale 2500 - 12500"; }; declare const measurandLookup: { readonly 1: "Temperature"; readonly 2: "Temperature difference"; readonly 3: "Pressure (gauge)"; readonly 4: "Pressure (absolute)"; readonly 5: "Pressure (differential)"; readonly 6: "Flow (vol.)"; readonly 7: "Flow (mass)"; readonly 8: "Force"; readonly 9: "Mass"; readonly 10: "Level"; readonly 11: "Length"; readonly 12: "Volume"; readonly 13: "Current"; readonly 14: "Voltage"; readonly 15: "Resistance"; readonly 16: "Capacitance"; readonly 17: "Inductance"; readonly 18: "Relative"; readonly 19: "Time"; readonly 20: "Frequency"; readonly 21: "Speed"; readonly 22: "Acceleration"; readonly 23: "Density"; readonly 24: "Density (gauge pressure at 20 °C)"; readonly 25: "Density (absolute pressure at 20 °C)"; readonly 26: "Humidity (relative)"; readonly 27: "Humidity (absolute)"; readonly 28: "Angle of rotation / inclination"; readonly 29: "Strain"; }; declare const unitsLookup: { readonly 1: "°C"; readonly 2: "°F"; readonly 3: "K"; readonly 4: "°R"; readonly 7: "bar"; readonly 8: "mbar"; readonly 9: "μbar"; readonly 10: "Pa"; readonly 11: "hPa"; readonly 12: "kPa"; readonly 13: "MPa"; readonly 14: "psi"; readonly 15: "lbf/ft²"; readonly 16: "kN/m²"; readonly 17: "N/cm²"; readonly 18: "atm"; readonly 19: "kg/cm²"; readonly 20: "kg/mm²"; readonly 21: "μmHg"; readonly 22: "mmHg"; readonly 23: "cmHg"; readonly 24: "inHg"; readonly 25: "mmH2O"; readonly 26: "mH2O"; readonly 27: "inH2O"; readonly 28: "ftH2O"; readonly 45: "N"; readonly 46: "daN"; readonly 47: "kN"; readonly 48: "MN"; readonly 49: "kp"; readonly 50: "lbf"; readonly 51: "ozf"; readonly 52: "dyn"; readonly 55: "kg"; readonly 56: "g"; readonly 57: "mg"; readonly 58: "lb"; readonly 60: "mm"; readonly 61: "cm"; readonly 62: "m"; readonly 63: "μm"; readonly 64: "ft"; readonly 65: "in"; readonly 70: "l"; readonly 71: "ml"; readonly 72: "m³"; readonly 73: "gal (UK)"; readonly 74: "gal (US)"; readonly 75: "ft³"; readonly 76: "in³"; readonly 82: "mΩ"; readonly 83: "Ω"; readonly 84: "kΩ"; readonly 86: "μV"; readonly 87: "mV"; readonly 88: "V"; readonly 90: "mA"; readonly 91: "μA"; readonly 93: "μF"; readonly 94: "nF"; readonly 95: "pF"; readonly 97: "mH"; readonly 98: "μH"; readonly 100: "%"; readonly 101: "‰"; readonly 102: "ppm"; readonly 105: "°"; readonly 106: "rad"; readonly 108: "counts"; readonly 110: "kg/m³"; readonly 111: "g/m³"; readonly 112: "mg/m³"; readonly 113: "μg/m³"; readonly 114: "kg/l"; readonly 115: "g/l"; readonly 116: "lb/ft³"; readonly 120: "l/min"; readonly 121: "l/s"; readonly 122: "m³/h"; readonly 123: "m³/s"; readonly 124: "cfm"; readonly 140: "kg/s"; readonly 141: "kg/h"; readonly 160: "s"; readonly 161: "min"; readonly 162: "h"; readonly 163: "d"; readonly 167: "Hz"; readonly 168: "kHz"; readonly 170: "m/s"; readonly 171: "cm/s"; readonly 172: "ft/min"; readonly 173: "ft/s"; readonly 180: "m/s²"; readonly 181: "ft/s²"; readonly 185: "µeps"; }; //#endregion //#region ../parsers/src/codecs/tulip3/registers/index.d.ts interface RegisterEntry { path: TPath; size: number; parsing: (data: TData) => TResult; } interface CustomRegisterEntry>, TPath extends string = string> extends RegisterEntry, TPath> { schema: TSchema; } type AnyCustomRegisterLookup = Record>; //#endregion //#region ../parsers/src/codecs/tulip3/profile.d.ts interface ChannelIdentificationRegisterFlags { measurand?: true; unit?: true; minMeasureRange?: true; maxMeasureRange?: true; minPhysicalLimit?: true; maxPhysicalLimit?: true; accuracy?: true; offset?: true; gain?: true; calibrationDate?: true; } interface ChannelConfigurationRegisterFlags { protocolDataType?: true; processAlarmEnabled?: true; processAlarmDeadBand?: true; lowThresholdAlarmValue?: true; highThresholdAlarmValue?: true; fallingSlopeAlarmValue?: true; risingSlopeAlarmValue?: true; lowThresholdWithDelayAlarmValue?: true; lowThresholdWithDelayAlarmDelay?: true; highThresholdWithDelayAlarmValue?: true; highThresholdWithDelayAlarmDelay?: true; } interface ChannelRegisterConfig { tulip3IdentificationRegisters: ChannelIdentificationRegisterFlags; tulip3ConfigurationRegisters: ChannelConfigurationRegisterFlags; channelSpecificIdentificationRegisters: AnyCustomRegisterLookup; channelSpecificConfigurationRegisters: AnyCustomRegisterLookup; } interface TULIP3ChannelConfig { /** * Measurement limit, not physical limit */ start: number; /** * Measurement limit, not physical limit */ end: number; measurementTypes: typeof protocolDataTypeLookup[keyof typeof protocolDataTypeLookup][]; /** * Available measurands for this channel (at least one required). * Array of measurand strings from measurandLookup that this channel supports. * Used to validate measurand selection in uplink output and downlink input schemas. * @example ['Temperature', 'Pressure (gauge)'] */ availableMeasurands: [(typeof measurandLookup)[keyof typeof measurandLookup], ...((typeof measurandLookup)[keyof typeof measurandLookup])[]]; /** * Available units for this channel (at least one required). * Array of unit strings from unitsLookup that this channel supports. * Used to validate unit selection in uplink output and downlink input schemas. * @example ['bar', 'mbar', 'Pa', 'kPa'] */ availableUnits: [(typeof unitsLookup)[keyof typeof unitsLookup], ...((typeof unitsLookup)[keyof typeof unitsLookup])[]]; channelName: string; adjustMeasurementRangeDisallowed?: boolean; alarmFlags: AlarmFlags; registerConfig: ChannelRegisterConfig; } interface SensorIdentificationRegisterFlags { sensorType?: true; existingChannels?: true; firmwareVersion?: true; hardwareVersion?: true; productionDate?: true; serialNumberPart1?: true; serialNumberPart2?: true; } interface SensorConfigurationRegisterFlags { samplingChannels?: true; bootTime?: true; communicationTimeout?: true; communicationRetryCount?: true; } interface SensorRegisterConfig { tulip3IdentificationRegisters: SensorIdentificationRegisterFlags; tulip3ConfigurationRegisters: SensorConfigurationRegisterFlags; sensorSpecificIdentificationRegisters: AnyCustomRegisterLookup; sensorSpecificConfigurationRegisters: AnyCustomRegisterLookup; } interface TULIP3SensorConfig { channel1?: TULIP3ChannelConfig; channel2?: TULIP3ChannelConfig; channel3?: TULIP3ChannelConfig; channel4?: TULIP3ChannelConfig; channel5?: TULIP3ChannelConfig; channel6?: TULIP3ChannelConfig; channel7?: TULIP3ChannelConfig; channel8?: TULIP3ChannelConfig; alarmFlags: AlarmFlags; registerConfig: SensorRegisterConfig; } interface CommunicationModuleIdentificationRegisterFlags { productId?: true; productSubId?: true; channelPlan?: true; connectedSensors?: true; firmwareVersion?: true; hardwareVersion?: true; productionDate?: true; serialNumberPart1?: true; serialNumberPart2?: true; } interface CommunicationModuleConfigurationRegisterFlags { measuringPeriodAlarmOff?: true; measuringPeriodAlarmOn?: true; transmissionRateAlarmOff?: true; transmissionRateAlarmOn?: true; overVoltageThreshold?: true; underVoltageThreshold?: true; overTemperatureCmChip?: true; underTemperatureCmChip?: true; downlinkAnswerTimeout?: true; fetchAdditionalDownlinkTimeInterval?: true; enableBleAdvertising?: true; } interface CommunicationModuleRegisterConfig { tulip3IdentificationRegisters: CommunicationModuleIdentificationRegisterFlags; tulip3ConfigurationRegisters: CommunicationModuleConfigurationRegisterFlags; } interface TULIP3DeviceConfig { sensor1?: TULIP3SensorConfig; sensor2?: TULIP3SensorConfig; sensor3?: TULIP3SensorConfig; sensor4?: TULIP3SensorConfig; alarmFlags: AlarmFlags; registerConfig: CommunicationModuleRegisterConfig; } /** * The key, value pair for flag names and the bits that the value needs to be xor'd against. * @example * const flags: DeviceAlarmFlags = { * highVoltage: 0b0100_0000, * lowVoltage: 0b0010_0000, * memoryError: 0b0001_0000, * airTimeLimitation: 0b0000_1000, * chipHighTemperature: 0b0000_0100, * chipLowTemperature: 0b0000_0010, * localUserAccessDenied: 0b0000_0001, * } */ type AlarmFlags = Record; interface TULIP3DeviceProfile { deviceName: string; /** * Number of decimal places for rounding. * Will floor the value to the specified number of decimal places. * If provided value is less than 0, it will default to 4. * @default 4 */ roundingDecimals?: number; sensorChannelConfig: TTULIP3DeviceConfig; } //#endregion //#region ../parsers/src/schemas/tulip3/schemaUtils.d.ts /** * Creates a validation schema for protocol data types specific to a channel. * Uses the channel's measurementTypes to enforce only valid types for that channel. * This schema is shared across all TULIP3 schemas (uplink/downlink, read/write). * * @param config - Channel configuration with measurementTypes * @returns A Valibot picklist schema that validates against the channel's supported protocol data types * @example * ```typescript * const schema = createProtocolDataTypeSchema(channelConfig) * const result = v.parse(schema, "uint16 - TULIP scale 2500 - 12500") * ``` */ declare function createProtocolDataTypeSchema(config: TConfig): v.PicklistSchema<("float - IEEE754" | "int 24 - Fixed-point s16.7 (Q16.7)" | "int 16 - Fixed-point s10.5 (Q10.5)" | "uint16 - TULIP scale 2500 - 12500")[], undefined>; /** * Creates a validation schema for process alarm enabled flags. * This schema is shared across all TULIP3 schemas (uplink/downlink, read/write). * * @returns A Valibot object schema with boolean flags for each alarm type * @example * ```typescript * const schema = createProcessAlarmEnabledSchema() * const result = v.parse(schema, { * lowThreshold: true, * highThreshold: false, * fallingSlope: true * }) * ``` */ declare function createProcessAlarmEnabledSchema(): v.ObjectSchema<{ readonly lowThreshold: v.OptionalSchema, undefined>; readonly highThreshold: v.OptionalSchema, undefined>; readonly fallingSlope: v.OptionalSchema, undefined>; readonly risingSlope: v.OptionalSchema, undefined>; readonly lowThresholdWithDelay: v.OptionalSchema, undefined>; readonly highThresholdWithDelay: v.OptionalSchema, undefined>; }, undefined>; /** * Creates a validation schema for sampling channels configuration. * Generates channel properties in the format "channelN" where N is the channel number. * This schema is shared across all TULIP3 schemas (uplink/downlink, read/write). * * @param config - Configuration object for the sensor channels * @returns A Valibot object schema with boolean flags for each channel * @template TConfig - Type-safe sensor configuration * @example * ```typescript * const schema = createSamplingChannelsSchema(sensorConfig) * const result = v.parse(schema, { channel1: true, channel2: true, channel3: false }) * ``` */ declare function createSamplingChannelsSchema(config: TConfig): v.ObjectSchema<{ [K in keyof TConfig as K extends `channel${number}` ? K : never]: v.BooleanSchema }, undefined>; /** * Creates a validation schema for measurand names specific to a channel. * Uses the channel's availableMeasurands strings directly. * This schema is used for the 'measurand' field (string value) in uplink schemas and downlink write schemas. * * @param config - Channel configuration with availableMeasurands * @returns A Valibot picklist schema that validates against the channel's supported measurand names * @example * ```typescript * const schema = createChannelMeasurandNameSchema(channelConfig) * const result = v.parse(schema, "Temperature") // Valid if 'Temperature' is in availableMeasurands * ``` */ declare function createChannelMeasurandNameSchema(config: TConfig): v.PicklistSchema<["Temperature" | "Temperature difference" | "Pressure (gauge)" | "Pressure (absolute)" | "Pressure (differential)" | "Flow (vol.)" | "Flow (mass)" | "Force" | "Mass" | "Level" | "Length" | "Volume" | "Current" | "Voltage" | "Resistance" | "Capacitance" | "Inductance" | "Relative" | "Time" | "Frequency" | "Speed" | "Acceleration" | "Density" | "Density (gauge pressure at 20 °C)" | "Density (absolute pressure at 20 °C)" | "Humidity (relative)" | "Humidity (absolute)" | "Angle of rotation / inclination" | "Strain", ...("Temperature" | "Temperature difference" | "Pressure (gauge)" | "Pressure (absolute)" | "Pressure (differential)" | "Flow (vol.)" | "Flow (mass)" | "Force" | "Mass" | "Level" | "Length" | "Volume" | "Current" | "Voltage" | "Resistance" | "Capacitance" | "Inductance" | "Relative" | "Time" | "Frequency" | "Speed" | "Acceleration" | "Density" | "Density (gauge pressure at 20 °C)" | "Density (absolute pressure at 20 °C)" | "Humidity (relative)" | "Humidity (absolute)" | "Angle of rotation / inclination" | "Strain")[]], undefined>; /** * Creates a validation schema for unit names specific to a channel. * Uses the channel's availableUnits strings directly. * This schema is used for the 'unit' field (string value) in uplink schemas and downlink write schemas. * * @param config - Channel configuration with availableUnits * @returns A Valibot picklist schema that validates against the channel's supported unit names * @example * ```typescript * const schema = createChannelUnitNameSchema(channelConfig) * const result = v.parse(schema, "bar") // Valid if 'bar' is in availableUnits * ``` */ declare function createChannelUnitNameSchema(config: TConfig): v.PicklistSchema<["°C" | "°F" | "K" | "°R" | "bar" | "mbar" | "μbar" | "Pa" | "hPa" | "kPa" | "MPa" | "psi" | "lbf/ft²" | "kN/m²" | "N/cm²" | "atm" | "kg/cm²" | "kg/mm²" | "μmHg" | "mmHg" | "cmHg" | "inHg" | "mmH2O" | "mH2O" | "inH2O" | "ftH2O" | "N" | "daN" | "kN" | "MN" | "kp" | "lbf" | "ozf" | "dyn" | "kg" | "g" | "mg" | "lb" | "mm" | "cm" | "m" | "μm" | "ft" | "in" | "l" | "ml" | "m³" | "gal (UK)" | "gal (US)" | "ft³" | "in³" | "mΩ" | "Ω" | "kΩ" | "μV" | "mV" | "V" | "mA" | "μA" | "μF" | "nF" | "pF" | "mH" | "μH" | "%" | "‰" | "ppm" | "°" | "rad" | "counts" | "kg/m³" | "g/m³" | "mg/m³" | "μg/m³" | "kg/l" | "g/l" | "lb/ft³" | "l/min" | "l/s" | "m³/h" | "m³/s" | "cfm" | "kg/s" | "kg/h" | "s" | "min" | "h" | "d" | "Hz" | "kHz" | "m/s" | "cm/s" | "ft/min" | "ft/s" | "m/s²" | "ft/s²" | "µeps", ...("°C" | "°F" | "K" | "°R" | "bar" | "mbar" | "μbar" | "Pa" | "hPa" | "kPa" | "MPa" | "psi" | "lbf/ft²" | "kN/m²" | "N/cm²" | "atm" | "kg/cm²" | "kg/mm²" | "μmHg" | "mmHg" | "cmHg" | "inHg" | "mmH2O" | "mH2O" | "inH2O" | "ftH2O" | "N" | "daN" | "kN" | "MN" | "kp" | "lbf" | "ozf" | "dyn" | "kg" | "g" | "mg" | "lb" | "mm" | "cm" | "m" | "μm" | "ft" | "in" | "l" | "ml" | "m³" | "gal (UK)" | "gal (US)" | "ft³" | "in³" | "mΩ" | "Ω" | "kΩ" | "μV" | "mV" | "V" | "mA" | "μA" | "μF" | "nF" | "pF" | "mH" | "μH" | "%" | "‰" | "ppm" | "°" | "rad" | "counts" | "kg/m³" | "g/m³" | "mg/m³" | "μg/m³" | "kg/l" | "g/l" | "lb/ft³" | "l/min" | "l/s" | "m³/h" | "m³/s" | "cfm" | "kg/s" | "kg/h" | "s" | "min" | "h" | "d" | "Hz" | "kHz" | "m/s" | "cm/s" | "ft/min" | "ft/s" | "m/s²" | "ft/s²" | "µeps")[]], undefined>; //#endregion //#region ../parsers/src/schemas/tulip3/configuration.d.ts interface CommunicationModuleConfigurationFieldSchemas { measuringPeriodAlarmOff: v.OptionalSchema, undefined>; measuringPeriodAlarmOn: v.OptionalSchema, undefined>; transmissionRateAlarmOff: v.OptionalSchema, undefined>; transmissionRateAlarmOn: v.OptionalSchema, undefined>; overVoltageThreshold: v.OptionalSchema, undefined>; underVoltageThreshold: v.OptionalSchema, undefined>; overTemperatureCmChip: v.OptionalSchema, undefined>; underTemperatureCmChip: v.OptionalSchema, undefined>; downlinkAnswerTimeout: v.OptionalSchema, undefined>; fetchAdditionalDownlinkTimeInterval: v.OptionalSchema, undefined>; enableBleAdvertising: v.OptionalSchema, undefined>; } type EnabledCommunicationModuleConfigurationFields = { [K in keyof TConfig['registerConfig']['tulip3ConfigurationRegisters'] as TConfig['registerConfig']['tulip3ConfigurationRegisters'][K] extends true ? K : never]: K extends keyof CommunicationModuleConfigurationFieldSchemas ? CommunicationModuleConfigurationFieldSchemas[K] : never }; interface SensorConfigurationFieldSchemas { samplingChannels: v.OptionalSchema>, undefined>; bootTime: v.OptionalSchema, undefined>; communicationTimeout: v.OptionalSchema, undefined>; communicationRetryCount: v.OptionalSchema, undefined>; } type EnabledSensorConfigurationFields = { [K in keyof TConfig['registerConfig']['tulip3ConfigurationRegisters'] as TConfig['registerConfig']['tulip3ConfigurationRegisters'][K] extends true ? K : never]: K extends keyof SensorConfigurationFieldSchemas ? SensorConfigurationFieldSchemas[K] : never }; interface ChannelConfigurationFieldSchemas { protocolDataType: v.OptionalSchema>, undefined>; processAlarmEnabled: v.OptionalSchema, undefined>; processAlarmDeadBand: v.OptionalSchema, undefined>; lowThresholdAlarmValue: v.OptionalSchema, undefined>; highThresholdAlarmValue: v.OptionalSchema, undefined>; fallingSlopeAlarmValue: v.OptionalSchema, undefined>; risingSlopeAlarmValue: v.OptionalSchema, undefined>; lowThresholdWithDelayAlarmValue: v.OptionalSchema, undefined>; lowThresholdWithDelayAlarmDelay: v.OptionalSchema, undefined>; highThresholdWithDelayAlarmValue: v.OptionalSchema, undefined>; highThresholdWithDelayAlarmDelay: v.OptionalSchema, undefined>; channelName: v.LiteralSchema; } type EnabledChannelConfigurationFields = { [K in keyof TConfig['registerConfig']['tulip3ConfigurationRegisters'] as TConfig['registerConfig']['tulip3ConfigurationRegisters'][K] extends true ? K : never]: K extends keyof ChannelConfigurationFieldSchemas ? ChannelConfigurationFieldSchemas[K] : never } & { channelName: v.LiteralSchema; }; /** * Creates a validation schema for a sensor with its associated channel configurations. * Combines sensor configuration with individual channel configurations. * * @param sensorChannelConfig - Configuration object defining which channels are available for this sensor * @returns A Valibot object schema combining sensor configuration and channel configurations * @template TTULIP3SensorConfig - Type-safe sensor channel configuration * @example * ```typescript * const config = { channel1: true, channel2: true } * const schema = createSensorWithChannelConfigurationsSchema(config) * const result = v.parse(schema, { * configuration: { * samplingChannels: { channel1: true, channel2: true }, * bootTime: 5000 * }, * channel1: { * protocolDataType: "float - IEEE754", * lowThresholdAlarmValue: -10.0 * }, * channel2: { * protocolDataType: "float - IEEE754", * highThresholdAlarmValue: 50.0 * } * }) * ``` */ declare function createSensorWithChannelConfigurationsSchema(sensorChannelConfig: TTULIP3SensorConfig): v.ObjectSchema<{ readonly configuration: v.OptionalSchema, undefined>, undefined>; } & { [ChannelKey in keyof TTULIP3SensorConfig as ChannelKey extends `channel${number}` ? ChannelKey : never]: TTULIP3SensorConfig[ChannelKey] extends TULIP3ChannelConfig ? v.OptionalSchema, undefined>, undefined> : never }, undefined>; type MappedSensorChannelConfig$1 = { [K in keyof TTULIP3DeviceConfig as K extends `sensor${number}` ? K : never]: TTULIP3DeviceConfig[K] extends TULIP3SensorConfig ? v.OptionalSchema>, undefined> : never }; /** * Creates a validation schema for configuration message uplink output (read response). * This is the main schema creator for TULIP3 configuration read messages. * * @param config - Configuration object defining sensor-to-channel mappings * @returns A Valibot object schema for configuration message uplink output * @template TTULIP3DeviceConfig - Type-safe sensor channel configuration * @example * ```typescript * const config = { * sensor1: { channel1: {}, channel2: {} }, * sensor2: { channel1: {}, channel2: {}, channel3: {} } * } * const schema = createConfigurationReadRegistersResponseUplinkOutputSchema(config) * * const result = v.parse(schema, { * data: { * messageType: 0x15, * messageSubType: 0x01, * configuration: { * communicationModule: { * measuringPeriodAlarmOff: 3600000, * transmissionRateAlarmOff: 60 * }, * sensor1: { * configuration: { samplingChannels: { channel1: true } }, * channel1: { protocolDataType: "float - IEEE754" } * } * } * }, * warnings: ["Optional warning message"] * }) * ``` */ declare function createConfigurationReadRegistersResponseUplinkOutputSchema(config: TTULIP3DeviceConfig): v.ObjectSchema<{ readonly data: v.ObjectSchema<{ readonly messageType: v.PicklistSchema<[21], undefined>; readonly messageSubType: v.PicklistSchema<[1, 2], undefined>; } & { readonly configuration: v.ObjectSchema<{ readonly communicationModule: v.OptionalSchema, undefined>, undefined>; } & MappedSensorChannelConfig$1, undefined>; }, undefined>; readonly warnings: v.OptionalSchema, undefined>, undefined>; }, undefined>; /** * Creates a validation schema for configuration write response uplink output. * This schema validates the response from configuration write operations. * * @returns A Valibot object schema for configuration write response uplink output * @example * ```typescript * const schema = createConfigurationWriteRegistersResponseUplinkOutputSchema() * const result = v.parse(schema, { * data: { * messageType: 0x15, * messageSubType: 0x04, * configuration: { * revisionCounter: 123, * totalWrongFrames: 0, * frames: [ * { frameNumber: 1, status: "Configuration received and applied with success" } * ] * } * } * }) * ``` */ declare function createConfigurationWriteRegistersResponseUplinkOutputSchema(): v.ObjectSchema<{ readonly data: v.ObjectSchema<{ readonly messageType: v.PicklistSchema<[21], undefined>; readonly messageSubType: v.PicklistSchema<[3], undefined>; } & { readonly configuration: v.ObjectSchema<{ readonly revisionCounter: v.OptionalSchema, undefined>; readonly totalWrongFrames: v.OptionalSchema, undefined>; readonly frames: v.TupleWithRestSchema<[v.ObjectSchema<{ readonly frameNumber: v.NumberSchema; readonly status: v.PicklistSchema<("Configuration received but not applied" | "Configuration received and applied with success" | "Configuration rejected - Tried to write a read only register" | "Configuration rejected - At least one register has an invalid value" | "Configuration rejected - The combination register start address/number of bytes is wrong" | "Entire configuration discarded because of invalid parameter combination" | "Entire configuration discarded because no answer from the cloud" | "Missing frame" | "Frame rejected - frame number already received")[], undefined>; }, undefined>], v.ObjectSchema<{ readonly frameNumber: v.NumberSchema; readonly status: v.PicklistSchema<("Configuration received but not applied" | "Configuration received and applied with success" | "Configuration rejected - Tried to write a read only register" | "Configuration rejected - At least one register has an invalid value" | "Configuration rejected - The combination register start address/number of bytes is wrong" | "Entire configuration discarded because of invalid parameter combination" | "Entire configuration discarded because no answer from the cloud" | "Missing frame" | "Frame rejected - frame number already received")[], undefined>; }, undefined>, undefined>; }, undefined>; }, undefined>; readonly warnings: v.OptionalSchema, undefined>, undefined>; }, undefined>; type ConfigurationReadRegistersResponseUplinkOutput = v.InferOutput>>; type ConfigurationWriteRegistersResponseUplinkOutput = v.InferOutput>; //#endregion //#region ../parsers/src/schemas/tulip3/data.d.ts /** * Creates a validation schema for data message uplink output. * This is the main schema for TULIP3 data messages, including optional warnings. * * @param config - Configuration object defining sensor-to-channel mappings * @returns A Valibot object schema for data message uplink output * @template TTULIP3DeviceConfig - Type-safe sensor configuration * @example * ```typescript * const config = { * sensor1: { * channel1: { * min: 0, * max: 100, * unit: "°C", * measurementTypes: ["float - IEEE754"] * } * } * } * const schema = createDataMessageUplinkOutputSchema(config) * * const result = v.parse(schema, { * data: { * messageType: 0x10, * messageSubType: 0x01, * measurements: [ * { * sensorId: 0, * channelId: 0, * channelName: "temperature", * sourceDataType: "float - IEEE754", * valueAcquisitionError: false, * value: 23.5 * } * ] * }, * warnings: ["Optional warning message"] * }) * ``` */ declare function createDataMessageUplinkOutputSchema(config: TTULIP3DeviceConfig): v.ObjectSchema<{ readonly data: v.ObjectSchema<{ readonly messageType: v.PicklistSchema<[16, 17], undefined>; readonly messageSubType: v.PicklistSchema<[1], undefined>; } & { readonly measurements: v.TupleWithRestSchema<[v.SchemaWithPipe]: NonNullable[TChannel] extends TULIP3ChannelConfig ? v.ObjectSchema<{ sensor: v.LiteralSchema; sensorId: v.NumberSchema; channel: v.LiteralSchema; channelId: v.NumberSchema; channelName: v.LiteralSchema[TChannel]["channelName"], undefined>; sourceDataType: v.PicklistSchema<(NonNullable[TChannel] extends TULIP3ChannelConfig ? NonNullable[TChannel] : never) extends infer T ? T extends (NonNullable[TChannel] extends TULIP3ChannelConfig ? NonNullable[TChannel] : never) ? T extends { measurementTypes: infer U; } ? U extends readonly (string | number | bigint)[] ? U : never : never : never : never, undefined>; } & { readonly valueAcquisitionError: v.LiteralSchema; readonly value: v.OptionalSchema, undefined>; }, undefined> : never }[keyof NonNullable] }[keyof TTULIP3DeviceConfig] | { [TSensor_1 in keyof TTULIP3DeviceConfig]: { [TChannel in keyof NonNullable]: NonNullable[TChannel] extends TULIP3ChannelConfig ? v.ObjectSchema<{ sensor: v.LiteralSchema; sensorId: v.NumberSchema; channel: v.LiteralSchema; channelId: v.NumberSchema; channelName: v.LiteralSchema[TChannel]["channelName"], undefined>; sourceDataType: v.PicklistSchema<(NonNullable[TChannel] extends TULIP3ChannelConfig ? NonNullable[TChannel] : never) extends infer T ? T extends (NonNullable[TChannel] extends TULIP3ChannelConfig ? NonNullable[TChannel] : never) ? T extends { measurementTypes: infer U; } ? U extends readonly (string | number | bigint)[] ? U : never : never : never : never, undefined>; } & { readonly valueAcquisitionError: v.LiteralSchema; readonly value: v.NumberSchema; }, undefined> : never }[keyof NonNullable] }[keyof TTULIP3DeviceConfig])[], undefined>]>], v.SchemaWithPipe]: NonNullable[TChannel] extends TULIP3ChannelConfig ? v.ObjectSchema<{ sensor: v.LiteralSchema; sensorId: v.NumberSchema; channel: v.LiteralSchema; channelId: v.NumberSchema; channelName: v.LiteralSchema[TChannel]["channelName"], undefined>; sourceDataType: v.PicklistSchema<(NonNullable[TChannel] extends TULIP3ChannelConfig ? NonNullable[TChannel] : never) extends infer T ? T extends (NonNullable[TChannel] extends TULIP3ChannelConfig ? NonNullable[TChannel] : never) ? T extends { measurementTypes: infer U; } ? U extends readonly (string | number | bigint)[] ? U : never : never : never : never, undefined>; } & { readonly valueAcquisitionError: v.LiteralSchema; readonly value: v.OptionalSchema, undefined>; }, undefined> : never }[keyof NonNullable] }[keyof TTULIP3DeviceConfig] | { [TSensor_1 in keyof TTULIP3DeviceConfig]: { [TChannel in keyof NonNullable]: NonNullable[TChannel] extends TULIP3ChannelConfig ? v.ObjectSchema<{ sensor: v.LiteralSchema; sensorId: v.NumberSchema; channel: v.LiteralSchema; channelId: v.NumberSchema; channelName: v.LiteralSchema[TChannel]["channelName"], undefined>; sourceDataType: v.PicklistSchema<(NonNullable[TChannel] extends TULIP3ChannelConfig ? NonNullable[TChannel] : never) extends infer T ? T extends (NonNullable[TChannel] extends TULIP3ChannelConfig ? NonNullable[TChannel] : never) ? T extends { measurementTypes: infer U; } ? U extends readonly (string | number | bigint)[] ? U : never : never : never : never, undefined>; } & { readonly valueAcquisitionError: v.LiteralSchema; readonly value: v.NumberSchema; }, undefined> : never }[keyof NonNullable] }[keyof TTULIP3DeviceConfig])[], undefined>]>, undefined>; }, undefined>; readonly warnings: v.OptionalSchema, undefined>, undefined>; }, undefined>; type DataMessageUplinkOutput = v.InferOutput>>; //#endregion //#region ../parsers/src/schemas/tulip3/deviceAlarm.d.ts /** * Creates a validation schema for alarm flags. * Converts alarm flag bitfield configuration into boolean properties. */ declare function createGenericAlarmFlagsSchema(flags: TAlarmFlags): v.ObjectSchema>, undefined>; /** * Creates validation schema for communication module alarm uplink (message 0x13/0x01). * Extracts alarm flags from the device config's root `alarmFlags` property. * * @param config - Device sensor configuration containing alarm flags * @returns Validation schema for communication module alarm messages */ declare function createCommunicationModuleAlarmUplinkOutputSchema(config: TTULIP3DeviceConfig): v.ObjectSchema<{ readonly data: v.ObjectSchema<{ readonly messageType: v.PicklistSchema<[19], undefined>; readonly messageSubType: v.PicklistSchema<[1], undefined>; } & { readonly communicationModuleAlarms: v.ObjectSchema<{ readonly alarmFlags: v.ObjectSchema>, undefined>; }, undefined>; }, undefined>; readonly warnings: v.OptionalSchema, undefined>, undefined>; }, undefined>; type MappedSensorAlarmSchemaEntries = { [TSensor in Extract]: v.ObjectSchema<{ sensor: v.LiteralSchema; sensorId: v.NumberSchema; alarmFlags: TTULIP3DeviceConfig[TSensor] extends { alarmFlags: infer TFlags extends AlarmFlags; } ? ReturnType> : never; }, undefined> }[Extract][]; /** * Creates validation schema for sensor alarm uplink (message 0x13/0x02). * Validates array of sensor alarm entries with alarm flags. * * @param config - Device sensor configuration with sensor alarm flags * @returns Validation schema for sensor alarm messages */ declare function createSensorAlarmUplinkOutputSchema(config: TTULIP3DeviceConfig): v.ObjectSchema<{ readonly data: v.ObjectSchema<{ readonly messageType: v.PicklistSchema<[19], undefined>; readonly messageSubType: v.PicklistSchema<[2], undefined>; } & { readonly sensorAlarms: v.TupleWithRestSchema<[v.UnionSchema, undefined>], v.UnionSchema, undefined>, undefined>; }, undefined>; readonly warnings: v.OptionalSchema, undefined>, undefined>; }, undefined>; type MappedChannelAlarmSchemaEntries = { [TSensor in Extract]: TTULIP3DeviceConfig[TSensor] extends TULIP3SensorConfig ? { [TChannel in Extract]: TTULIP3DeviceConfig[TSensor][TChannel] extends { alarmFlags: infer TFlags extends AlarmFlags; } ? v.ObjectSchema<{ sensor: v.LiteralSchema; sensorId: v.NumberSchema; channel: v.LiteralSchema; channelId: v.NumberSchema; channelName: TTULIP3DeviceConfig[TSensor][TChannel] extends { channelName: infer TName extends string; } ? v.LiteralSchema : v.StringSchema; alarmFlags: ReturnType>; }, undefined> : never }[Extract] : never }[Extract][]; /** * Creates validation schema for channel alarm uplink (message 0x13/0x03). * Validates array of channel alarm entries with alarm flags per channel. * * @param config - Device sensor configuration with channel alarm flags * @returns Validation schema for channel alarm messages */ declare function createChannelAlarmUplinkOutputSchema(config: TTULIP3DeviceConfig): v.ObjectSchema<{ readonly data: v.ObjectSchema<{ readonly messageType: v.PicklistSchema<[19], undefined>; readonly messageSubType: v.PicklistSchema<[3], undefined>; } & { readonly channelAlarms: v.TupleWithRestSchema<[v.UnionSchema, undefined>], v.UnionSchema, undefined>, undefined>; }, undefined>; readonly warnings: v.OptionalSchema, undefined>, undefined>; }, undefined>; type CommunicationModuleAlarmMessageUplinkOutput = v.InferOutput>>; type SensorAlarmMessageUplinkOutput = v.InferOutput>>; type ChannelAlarmMessageUplinkOutput = v.InferOutput>>; //#endregion //#region ../parsers/src/schemas/tulip3/identification.d.ts /** * Creates a validation schema for product sub-IDs. * * @returns A Valibot picklist schema that validates against known product sub-IDs * @example * ```typescript * const schema = createProductSubIdSchema() * const result = v.parse(schema, "PEW-1000") * ``` */ declare function createProductSubIdSchema(): v.PicklistSchema<("LoRaWAN class A" | "BLE only" | "LoRaWAN class B" | "LoRaWAN class C" | "Mioty class Z" | "Mioty class A" | "Mioty class B")[], undefined>; /** * Creates a unified validation schema for channel plans. * * NOTE: The lookup-based approach for LoRaWAN and Mioty channel plans is currently not used * due to issues with the lookups. This schema now only allows non-negative integers. * * @returns A Valibot schema that validates a non-negative integer channel plan * @example * ```typescript * const schema = createChannelPlanSchema() * const result = v.parse(schema, 1) // Only non-negative integers are valid * ``` */ declare function createChannelPlanSchema(): v.SchemaWithPipe, v.MinValueAction, v.IntegerAction]>; /** * Creates a validation schema for connected sensors configuration based on a config object. * * @param config - The device sensor config object (keys are sensor names) * @returns A Valibot object schema with boolean flags for each possible sensor * @example * ```typescript * const config = { sensor1: {}, sensor2: {} } * const schema = createConnectedSensorsSchema(config) * const result = v.parse(schema, { sensor1: true, sensor2: false, sensor3: false, sensor4: false }) * ``` */ declare function createConnectedSensorsSchema(config: TConfig): v.ObjectSchema<{ sensor1: keyof TConfig extends "sensor1" ? v.LiteralSchema : v.LiteralSchema; sensor2: keyof TConfig extends "sensor2" ? v.LiteralSchema : v.LiteralSchema; sensor3: keyof TConfig extends "sensor3" ? v.LiteralSchema : v.LiteralSchema; sensor4: keyof TConfig extends "sensor4" ? v.LiteralSchema : v.LiteralSchema; }, undefined>; /** * Creates a validation schema for existing channels configuration based on a config object. * * @param config - The sensor channel config object (keys are channel names) * @returns A Valibot object schema with boolean flags for each possible channel * @example * ```typescript * const config = { channel1: true, channel2: true } * const schema = createExistingChannelsSchema(config) * const result = v.parse(schema, { channel1: true, channel2: true, channel3: false, channel4: false, channel5: false, channel6: false, channel7: false, channel8: false }) * ``` */ declare function createExistingChannelsSchema(config: TConfig): v.ObjectSchema<{ channel1: keyof TConfig extends "channel1" ? v.LiteralSchema : v.LiteralSchema; channel2: keyof TConfig extends "channel2" ? v.LiteralSchema : v.LiteralSchema; channel3: keyof TConfig extends "channel3" ? v.LiteralSchema : v.LiteralSchema; channel4: keyof TConfig extends "channel4" ? v.LiteralSchema : v.LiteralSchema; channel5: keyof TConfig extends "channel5" ? v.LiteralSchema : v.LiteralSchema; channel6: keyof TConfig extends "channel6" ? v.LiteralSchema : v.LiteralSchema; channel7: keyof TConfig extends "channel7" ? v.LiteralSchema : v.LiteralSchema; channel8: keyof TConfig extends "channel8" ? v.LiteralSchema : v.LiteralSchema; }, undefined>; interface CommunicationModuleIdentificationFieldSchemas { productId: v.OptionalSchema, undefined>; productSubId: v.OptionalSchema, undefined>; channelPlan: v.OptionalSchema, undefined>; connectedSensors: v.OptionalSchema>, undefined>; firmwareVersion: v.OptionalSchema, undefined>; hardwareVersion: v.OptionalSchema, undefined>; productionDate: v.OptionalSchema, v.IsoDateAction]>, undefined>; serialNumberPart1: v.OptionalSchema, undefined>; serialNumberPart2: v.OptionalSchema, undefined>; } type EnabledCommunicationModuleIdentificationFields = { [K in keyof TConfig['registerConfig']['tulip3IdentificationRegisters'] as TConfig['registerConfig']['tulip3IdentificationRegisters'][K] extends true ? K : never]: K extends keyof CommunicationModuleIdentificationFieldSchemas ? CommunicationModuleIdentificationFieldSchemas[K] : never }; /** * Creates a validation schema for communication module identification data. * Contains hardware and software information about the communication module. * Only includes fields that are enabled in the device configuration flags. * * @param config - Device sensor config object (keys are sensor names) * @returns A Valibot object schema for communication module identification * @template TConfig - Type-safe device configuration * @example * ```typescript * const config = { * sensor1: {}, * registerConfig: { * tulip3IdentificationRegisters: { * productId: true, * firmwareVersion: true * } * } * } * const schema = createCommunicationModuleIdentificationSchema(config) * const result = v.parse(schema, { * productId: 0x0B, // PEW-1000 * firmwareVersion: "1.2.3" * }) * ``` */ interface SensorIdentificationFieldSchemas { sensorType: v.OptionalSchema, undefined>; existingChannels: v.OptionalSchema>, undefined>; firmwareVersion: v.OptionalSchema, undefined>; hardwareVersion: v.OptionalSchema, undefined>; productionDate: v.OptionalSchema, v.IsoDateAction]>, undefined>; serialNumberPart1: v.OptionalSchema, undefined>; serialNumberPart2: v.OptionalSchema, undefined>; } type EnabledSensorIdentificationFields = { [K in keyof TConfig['registerConfig']['tulip3IdentificationRegisters'] as TConfig['registerConfig']['tulip3IdentificationRegisters'][K] extends true ? K : never]: K extends keyof SensorIdentificationFieldSchemas ? SensorIdentificationFieldSchemas[K] : never }; interface ChannelIdentificationFieldSchemas { measurand: v.OptionalSchema>, undefined>; unit: v.OptionalSchema>, undefined>; minMeasureRange: v.OptionalSchema, undefined>; maxMeasureRange: v.OptionalSchema, undefined>; minPhysicalLimit: v.OptionalSchema, undefined>; maxPhysicalLimit: v.OptionalSchema, undefined>; accuracy: v.OptionalSchema, undefined>; offset: v.OptionalSchema, undefined>; gain: v.OptionalSchema, undefined>; calibrationDate: v.OptionalSchema, v.IsoDateAction]>, undefined>; channelName: v.LiteralSchema; } type EnabledChannelIdentificationFields = { [K in keyof TConfig['registerConfig']['tulip3IdentificationRegisters'] as TConfig['registerConfig']['tulip3IdentificationRegisters'][K] extends true ? K : never]: K extends keyof ChannelIdentificationFieldSchemas ? ChannelIdentificationFieldSchemas[K] : never } & { channelName: v.LiteralSchema; }; /** * Creates a validation schema for a sensor with its associated channels. * Combines sensor identification with individual channel configurations. * * @param sensorChannelConfig - Configuration object defining which channels are available for this sensor * @returns A Valibot object schema combining sensor identification and channel configurations * @template TTULIP3SensorConfig - Type-safe sensor channel configuration * @example * ```typescript * const config = { channel1: true, channel2: true } * const schema = createSensorWithChannelsSchema(config) * const result = v.parse(schema, { * identification: { * sensorType: 0x0001, * firmwareVersion: "1.0.0" * }, * channel1: { * measurand: "temperature", * unit: "°C" * }, * channel2: { * measurand: "pressure", * unit: "bar" * } * }) * ``` */ declare function createSensorWithChannelsSchema(sensorChannelConfig: TTULIP3SensorConfig): v.ObjectSchema<{ readonly identification: v.OptionalSchema, undefined>, undefined>; } & { [ChannelKey in keyof TTULIP3SensorConfig as ChannelKey extends `channel${number}` ? ChannelKey : never]: TTULIP3SensorConfig[ChannelKey] extends TULIP3ChannelConfig ? v.OptionalSchema, undefined>, undefined> : never }, undefined>; type MappedSensorChannelConfig = { [K in keyof TTULIP3DeviceConfig as K extends `sensor${number}` ? K : never]: TTULIP3DeviceConfig[K] extends TULIP3SensorConfig ? v.OptionalSchema