Siemens 6ES7131-6BH01-0BA0 Digital Input Module - contactor,cortacircuitos,inversor solar,medidor electrico,baterias solares

chatear: +86-13184948252 Whatsapp: 0086-13811255435 Correo electrónico: kent@bestcontactor.com

Acerca de Contacto |

Siemens 6ES7131-6BH01-0BA0 Digital Input Module - contactor,cortacircuitos,inversor solar,medidor electrico,baterias solares

eléctrico/

Siemens 6ES7131-6BH01-0BA0 Digital Input Module

  Designación completa del modelo & Positioning SIMATIC ET200SP DI 16×24VDC ST Standard Digital Input Module of siemens Series: ET200SP Distributed I/O (PROFINET/PROFIBUS Remote Station) Función: 16-canal 24 V DC digital input for collecting signals from PNP sensors such as switches, proximity switches, photoelectric sensors and limit switches Coding Type: Mechanical Coding Type A, only compatible ...

  • Detalles del producto

 

  1. Designación completa del modelo & Posicionamiento

SIMATIC ET200SP DI 16×24VDC ST Standard Digital Input Module of siemens

Serie: ET200SP Distributed I/O (PROFINET/PROFIBUS Remote Station)

Función: 16-canal 24 V DC digital input for collecting signals from PNP sensors such as switches, proximity switches, photoelectric sensors and limit switches

Coding Type: Mechanical Coding Type A, only compatible with Type A0 BaseUnit

Desglose del código del modelo

Segmento de códigoDefinición
6ES7131ET200SP Digital Input (DE) Module Series
6BH0116-canal 24 V DC Standard DI, Hardware Version V1
0BA0Standard industrial version, no anti-corrosion coating and no surge suppression enhancement
  1. Core Electrical Specifications

2.1 Fuente de alimentación & Características de entrada

Suministro clasificado: 24 En DC, permissible range 19.2 ~ 28.8 V, with reverse polarity protection

Tipo de entrada: P-reading (Sinking PNP Input, CEI 61131 Tipo 3)

Lógica 0: -30 V~ +5 V

Lógica 1: +11 V~ +30 V

Typical On-state Current per Channel: 2.5 mamá; Maximum Total Module Current: 90 mamá

Consumo de energía típico: 1.7 W.

Channel Grouping: Two groups (Channels 0~7 / 8~15). All sensors within one group must be uniformly PNP or NPN; mixed wiring is prohibited.

2.2 Filter Delay (8 configurable levels in TIA Portal)

0.05 / 0.1 / 0.4 / 0.8 / 1.6 / 3.2 / 12.8 / 20 EM

Additional cable delay of 30 ~ 500 μs. A filter setting ≥3.2 ms is recommended for environments with heavy interference from inverters.

2.3 Maximum Cable Length

Cable blindado: 1000 m maximum

Unshielded Cable: 600 m maximum

  1. Mechanical Structure & Instalación
  2. Dimensiones: 15 milímetros (W.) × 73 milímetros (h) × 58 milímetros (D), ultra-narrow compact design
  3. Clase de protección: IP20, DIN rail mounting inside control cabinet only
  4. Temperatura ambiente

Montaje Horizontal: 0 ~ +60 °C

Montaje vertical: 0 ~ +40 °C

Almacenamiento & Transporte: -25 ~ +70 °C

  1. Indicadores: Independent green LED for each channel (ON = Logic 1, OFF = Logic 0); no dedicated hardware fault LED
  2. Address Occupancy: Consumes 2 input bytes plus an additional 2 bytes for diagnostic QI information. Hardware interrupt, isochronous mode and counter functions are not supported.
  3. Wiring Diagrams (Type A0 BaseUnit Mandatory)

4.1 2-wire Passive Contacts (Limit Switches, Pushbuttons)

Wire directly to the A0 BaseUnit: one contact terminal connects to DIx, the other to M (24 V negative). For wire breakage detection, connect a 25 ~ 45 kΩ resistor in parallel with the contact.

4.2 3-wire PNP Sensors (Common Photoelectric / Proximity Switches)

Potential distribution terminal required:

Sensor Brown Wire: L+ 24 V

Sensor Blue Wire: Common M Ground

Sensor Black Wire (Señal): Connect to module DI channel

> NPN sensors must not be directly wired to this module; logic 1 signals cannot be detected.

4.3 2-wire Inductive Proximity Sensors

Maximum closed-circuit current limited to 1.5 mamá. Long cables may trigger false wire-breakage alarms.

  1. Funciones de diagnóstico & Limitaciones funcionales
  2. Supports wire breakage diagnosis (parallel detection resistor required); short-circuit diagnosis unavailable
  3. No channel-level overcurrent protection; sensor short-circuits will not trigger individual channel fault alarms
  4. No encoder power supply output and no auxiliary 24 Alimentación VCC
  5. Supports I&M0 ~ I&M3 device information; hardware automatically recognized by TIA Portal
  6. Communication Compatibility: S7-1200/1500 CPU, ET200SP CPU, PROFINET IO, PROFIBUS-DP
  7. Comparison of Derivatives in the Same Series
Model NumberDiferenciasAplicaciones típicas
6ES7131-6BH01-0BA0Standard basic DI without anti-corrosion coatingGeneral workshops, standard equipment under normal temperature
6AG1131-6BH01-7BA0SIPLUS anti-corrosion coating, rango de operación -40 ~ +70 °CChemical plants, puertos, high-humidity corrosive environments
6ES7131-6BH01-0CA0Supresión de sobretensiones incorporadaLong-distance field cables, lightning-prone areas
6ES7131-6BH00-0BA0Obsolete older model, fully hardware compatibleSpare part replacement for legacy equipment
  1. Escenarios de aplicación típicos
  2. Automotive Assembly Lines: Signal collection for fixture position confirmation, safety gates and workstation pushbuttons
  3. Embalaje & Equipos de Logística: Photoelectric counting, jam detection switches, sorting trigger signals
  4. Water Treatment Systems: Float level switches, valve limit switches, pump running feedback signals
  5. Machine Tool Automation: Travel limit switches, tool detection, safety circuit contacts
  6. Selección de modelo & Precauciones de operación
  7. Only Type A0 BaseUnit is permitted; Type B0/C0 and other coded base units are incompatible. The module features an integrated Type A coding lock to prevent incorrect insertion.
  8. All sensors within each 8-channel group must share the same polarity; PNP and NPN devices cannot be mixed in one group.
  9. Cables routed near inverters and servo drives must be shielded to eliminate false triggering.
  10. Increase input filter delay for long cables to suppress electromagnetic interference.
  11. No SIL safety certification. This module cannot be used independently for safety circuits; safety relays or safety I/O modules are required.
  12. Alternative Replacement Options
  13. Direct equivalent replacement: 6AG1131-6BH01-7BA0 (wide-temperature anti-corrosion version)
  14. Higher-density upgrade: 6ES7131-6BF01-0BA0 (8-channel isolated DI module)
  15. Safety application replacement: 6ES7131-6FD01-0BB1 (Safety DI, SIL 2 obediente)

Full Operating Principle of Channel Grouping for 6ES7131-6BH01-0BA0

  1. Hardware Group Definition (Fijado 8 Channels per Group, 2 Groups Total)

El 16 input channels are physically divided into two independent reference potential domains with completely separated internal hardware circuits:

  1. Grupo 1: Channels DI.0 ~ DI.7 (Primero 8 agujas)
  2. Grupo 2: Channels DI.8 ~ DI.15 (Último 8 agujas)

Core Underlying Logic: Independent Common Reference M per Group

The module assigns a separate M reference ground to each group internally, with no electrical connection between the two groups.

All channels within one group share the same group M potential. Todo 8 channels in a single group must use identical sensor polarity (all PNP or all NPN); the two groups may adopt different polarities.

  1. Circuit Operation of Channel Groups

2.1 Modo estándar (Factory Default: PNP / Sinking P-reading)

Internal circuit structure for each group:

Each DIx channel is internally pulled up to 24 En DC

Signal conduction condition: DIx connected to 0 V (METRO) → Circuit closed, PLC detects Logic 1

Compatible with 3-wire PNP sensors and 2-wire passive contacts (pushbuttons / limit switches)

Reglas de cableado:

Negative terminals of all sensors in the group connect uniformly to the group M terminal

PNP and NPN sensors cannot coexist in one group; otherwise partial channels remain permanently Logic 0 or Logic 1.

2.2 Wiring NPN Sensors to a Single Group (Source Output)

NPN sensors output low-level 0 V signals which cannot be recognized by default. Modify the group common M connection to 24 V L+:

DIx receives high-level 24 V signal from NPN sensor to close the circuit

Only the target group’s common potential needs adjustment; the other group remains unaffected.

2.3 Key Isolation Features of Group Separation

No electrical linkage between the two groups. It is fully allowed to connect Group 1 M to 0 V and Group 2 M to 24 V L+.

Short-circuit or ground faults on one group will not interfere with signal acquisition on the other group.

Sensors on long cables or separate power supply loops can be grounded in separate groups to reduce ground loop interference.

  1. Mapping Between I/O Addresses and Channel Groups (PLC Memory Area)

El 16 channels occupy 2 input bytes, strictly allocated by group in one-to-one correspondence:

Grupo 1 (DE.0~DI.7): `IBx` (1st byte, bit0 ~ bit7)

Grupo 2 (DI.8~DI.15): `IBx+1` (2nd byte, bit0 ~ bit7)

Ejemplo: Module start address IB100

DI0~DI7 = I100.0 ~ I100.7

DI8~DI15 = I101.0 ~ I101.7

Diagnostic QI status data is uploaded in two segments corresponding to each group.

  1. Terminal Layout of Type A0 BaseUnit Matching Channel Groups

Terminal arrangement logic of matching A0 BaseUnit:

  1. Terminals 1~8: DE.0~DI.7 (Grupo 1) + Grupo 1 Common M
  2. Terminals 9~16: DI.8~DI.15 (Grupo 2) + Grupo 2 Common M

The base unit is equipped with two independent M terminals physically separated for connecting different potentials to each group.

  1. Three Typical Practical Wiring Scenarios for Grouping

Guión 1: All PNP Wiring (Más común)

Grupo 1 M and Group 2 M shorted together to 0 V (24 V negative)

Uniform 3-wire PNP sensors and passive switches for both groups with no conflict

Guión 2: One Group PNP, One Group NPN (Permitted)

Grupo 1 (DI0~7) M connected to 0 V → Wired with PNP photoelectric / proximity sensors

Grupo 2 (DI8~15) M connected to 24 V L+ → Wired with NPN sensors

This configuration is valid. Independent group potentials do not interfere with each other, and all signals are recognized normally.

Guión 3: Mixed PNP & NPN Within One Group (Strictly Forbidden)

Ejemplo: DI0~4 wired to PNP sensors, DI5~7 wired to NPN sensors

The group only has one shared M potential, creating circuit conflicts with the following phenomena:

Partial channels permanently no signal (constant Logic 0)

Random false triggering and signal flickering

Severe cases cause input circuit overload and permanent module channel damage

  1. Group-Based Diagnostic Functions

Wire breakage detection operates on a per-group basis:

Detection resistors are wired in parallel to all channels in one group; wire-break diagnosis is enabled/disabled for the entire group at once

A wire break fault detected in one group only triggers diagnostics for that group, leaving the other group unaffected

Filter delay parameters apply to the entire module; independent filter settings per group are unsupported.

  1. Engineering Advantages of Dual-Group Design
  2. Dual-sensor compatibility: Direct wiring for PNP and NPN sensors without intermediate relays
  3. Isolation of different potential loops: Separate high-power and low-power machine tool signals into two groups to mitigate common-mode interference
  4. Fault zoning: Short-circuit or ground faults on one group will not disable all 16 canales
  5. Flexible cabling: Each group can be powered by an independent 24 Alimentación VCC; power faults on one supply do not impact the other group.
  6. Quick Summary
  7. Hardware fixed into 2 groups of 8 channels each, with an independent common reference M for every group
  8. All sensors within one group must share identical polarity; the two groups may use different polarities freely
  9. Address allocation, diagnostic data and common reference potentials are managed separately by group
  10. Core essence: The two groups feature electrically isolated input circuits and share only the module power supply.

Anterior:

Deja una respuesta

Dejar un mensaje