Siemens 6AG2193-6BP00-4DA0 SIPLUS Extreme I/O Module

Part number

6AG2193-6BP00-4DA0

Brand

Siemens

Category

I/O Modules

Product type

I/O Modules

Lifecycle

Active Product

Dimensions

14.7 x 4.2 x 2.8 cm

Net weight

0.048 Kg

Source category

SIPLUS extreme RAIL TM PosInput 1 Counter and position detection module

• The module operates within an extended temperature range of -40 to +70 degrees Celsius. This rating ensures functionality in extreme ambient conditions without performance degradation.
• It supports overload tolerance level OT4 with ST1/2 capabilities. The system can withstand temperatures up to +85 degrees Celsius for durations of ten minutes.
• Physical dimensions are recorded at 14.7 by 4.2 by 2.8 centimeters. The compact form factor allows for efficient mounting within standard industrial control cabinet configurations.
• Net weight is listed as 0.048 kilograms, indicating a lightweight construction. This mass facilitates easier handling and installation compared to heavier legacy industrial components.
• The base design derives from the 6ES7193-6BP00-0DA0 model structure. Modifications include enhanced protection features and specific terminal configurations for demanding applications.
• Terminal type is specified as push-in BU type A0 configuration. This connection method simplifies wiring processes while maintaining secure electrical contact points for signal transmission.

• Identify the product by the full alphanumeric code 6AG2193-6BP00-4DA0. This unique identifier distinguishes it from other variants in the broader Siemens portfolio.
• Recognize the SIPLUS extreme branding as a key differentiator. This label signifies adherence to rigorous standards for environmental resistance and durability.
• Note the classification as a rail-based module within the ET 200SP series. This placement indicates its integration method and system hierarchy.
• Verify the presence of conformal coating as a critical feature. This protective layer is essential for modules deployed in corrosive or humid industrial settings.

Parameters are factual source fields retained for model review.

• Review the width and height specifications of 15 mm by 117 mm. These measurements are crucial for planning rack space and module density.
• Check the load group designation as new within the technical documentation. This classification may influence power distribution and circuit breaker sizing decisions.
• Confirm the absence of auxiliary terminals in the standard configuration. Users requiring additional signaling may need to account for this limitation in their design.
• Examine the counter and position detection functionality for application fit. Ensure the input requirements align with the specific sensing devices planned for deployment.

• Inspect the visual representation for accurate labeling of the part number. Clear text on the module housing aids in quick identification during installation.
• Verify the depiction of the push-in terminal blocks for wiring clarity. Visual confirmation helps technicians prepare the correct tools and wire gauges.
• Check for indicators of the conformal coating finish on the PCB. The texture or color difference may be visible in high-resolution product images.
• Ensure the overall form factor matches the stated dimensional data. Proportions in the image should reflect the 15 mm width specification accurately.

• Gather project specifications requiring extreme temperature resistance for module selection. Document the maximum ambient temperatures expected in the operational environment.
• Prepare wiring diagrams showing push-in terminal connections for the counter inputs. Include details on signal types and voltage levels for verification.
• Calculate required rack space based on the 15 mm width dimension. Plan the layout to accommodate the module alongside other ET 200SP components.
• Define the overload tolerance needs relative to the OT4 ST1/2 rating. Specify any potential thermal spikes that the module must endure safely.

• Cross-reference the active lifecycle status with long-term project planning. Active status suggests ongoing support and manufacturing review details for future expansion.
• Validate the temperature range against local environmental monitoring data. Ensure the -40 to +70 degree span covers all seasonal and operational extremes.
• Assess the mechanical dimensions for application context with existing mounting rails. The rail-based design must align with the infrastructure already installed in the facility.
• Confirm the technical summary details match the latest manufacturer documentation. Regular updates to product specifications may affect the accuracy of the listed parameters.