Siemens 6AG1193-6BP20-7BB1 Industrial Automation Component

Part number

6AG1193-6BP20-7BB1

Brand

Siemens

Category

I/O Modules

Product type

I/O Modules

Lifecycle

Active Product

Dimensions

12.2 x 4.00 x 3.00 cm

Net weight

0.057 Kg

Source category

SIPLUS BaseUnits

• The unit operates within a temperature range of -40 to +70 degrees Celsius. This wide thermal tolerance supports diverse industrial application scenarios effectively.
• Physical dimensions are recorded as 12.2 cm in width, 4.00 cm in depth, and 3.00 cm in height. These measurements assist in precise rack mounting calculations.
• The net weight of the component is listed at 0.057 kilograms. This lightweight characteristic facilitates easier handling during installation procedures.
• Terminal configuration utilizes push-in technology for secure electrical connections. This design choice aims to streamline wiring processes for maintenance teams.
• The base unit is bridged to the left side of the assembly. This specific bridging method ensures proper signal continuity within the module chain.
• Auxiliary terminals are not included in this specific model configuration. Users requiring additional auxiliary functions must plan for separate component integration.

• The product falls under the SIPLUS BaseUnits category within the ET 200SP family. This classification indicates specialized environmental hardening capabilities.
• The model is based on the standard 6ES7193-6BP20-0BB1 architecture. Modifications include specific enhancements for extreme condition performance and durability.
• BU type B1 designation identifies the specific form factor and interface layout. This code helps distinguish it from other base unit variations in the lineup.
• Conformal coating is applied to protect internal circuitry from moisture and contaminants. This feature is critical for harsh industrial environment reliability.

Parameters are factual source fields retained for model review.

• Width and height measurements are specified as 20 mm x 117 mm for the module body. These compact dimensions optimize space utilization in control cabinets.
• The absence of AUX terminals defines the electrical interface scope for this unit. Designers should account for this limitation in schematic reviews.
• Push-in terminal technology requires specific tooling for wire insertion and removal. Proper installation techniques ensure long-term connection integrity and safety.
• Left-side bridging configuration affects the daisy-chain signal flow direction. Verify this orientation matches the overall system topology requirements before deployment.

• Visual inspection should confirm the presence of conformal coating on exposed surfaces. This coating provides essential protection against environmental degradation over time.
• Check the terminal block area for push-in mechanism alignment and condition. Ensuring mechanical integrity prevents loose connections during high-vibration operations.
• Examine the bridging contacts on the left side for proper engagement. Correct bridging is vital for maintaining communication bus stability across modules.
• Verify labeling clarity for part number and technical specification codes. Accurate identification aids in inventory management and future maintenance reference tasks.

• Gather all relevant project documentation specifying environmental operating conditions. Include maximum and minimum temperature ranges expected in the installation location.
• Review system architecture diagrams to confirm base unit placement requirements. Ensure the selected model fits within the designated slot and bridging constraints.
• Prepare technical queries regarding interface application context with existing sensors. Clarify any specific wiring or termination needs for the push-in terminals.
• Document any special handling or storage requirements for the coated components. This information assists in logistics planning and preservation during transit.

• Confirm the active product lifecycle status before finalizing technical selections. Active status ensures continued support and documentation review details for the component.
• Cross-reference dimensions with cabinet space allocation plans for accuracy. Precise spatial planning prevents installation conflicts and ensures adequate cooling airflow.
• Validate temperature ratings against local site environmental monitoring data. Operating outside specified ranges may impact long-term component reliability and performance.
• Ensure all inquiry details match the specific model variant codes. Accurate part number verification prevents mismatches and delays in the inquiry preparation process.