140DDO84300 Schneider Electric Modicon Quantum Datasheet

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Schneider Electric 140DDO84300 Modicon Quantum Series The Schneider Electric 140DDO84300, also cataloged as the 140DDO84300 Discrete Output Module, operates as...

SKU: 140DD084300

Manufacturer: Schneider
Product No.: 140DD084300
Product Type: Dc Discrete Output Modules
Product Origin: France
Payment:T/T, Western Union
Weight: 1000g
Shipping port: Xiamen
Warranty: 12 months

Description Reviews

Schneider Electric 140DDO84300 Modicon Quantum Series

The Schneider Electric 140DDO84300, also cataloged as the 140DDO84300 Discrete Output Module, operates as a dedicated hardware component for solid-state DC switching tasks within Modicon Quantum automation platforms. The module manages 16 independent channels organized into isolated groups to execute positive source logic commands, transferring discrete control profiles directly from the processor backplane to field-side actuators without auxiliary relay components.

Hardware Specifications

Parameter	Specification
Model	140DDO84300
Brand	Schneider Electric
Origin	France
Weight	0.45 kg (0.99 lbs)
Dimensions	398 mm x 41 mm x 152 mm
Operating Temp	0 to 60 deg C
Power Dissipation	1 W + (1 V x total module load current)
Number of Channels	16 Channels (2 groups of 8)
Output Type	Discrete Outputs (Positive source logic)
Discrete Output Voltage	10 to 60 VDC (Limits: 10.2 to 72 VDC)
Absolute Maximum Output	72 VDC permanent
Maximum Load Current	12 A per module (6 A per group)
Required Bus Current	160 mA
Response Time	<= 1 ms (State 0 to 1 and State 1 to 0)
Isolation between Channels and Bus	2500 Vrms DC for 1 minute
Maximum Relative Humidity	95% Without Condensation
Storage Temperature Range	-40 to 85 deg C
Certifications	CE, UL, CSA, RoHS

Profinet / EtherNet/IP Deterministic Networks Integration

The 140DDO84300 module interfaces with remote communication drops to align discrete switching cycles with Profinet / EtherNet/IP deterministic networks. By requiring exactly 1 output word for I/O density scaling, the internal hardware execution guarantees end-to-end signal propagation response times of <= 1 ms. This fixed mapping profile allows the host controller to maintain synchronous network update loops across long-distance topologies while mitigating data latency or channel-to-channel communication skew under peak inductive load demands.

Frequently Asked Questions

Q: What are the internal protection limitations if an external field wire experiences a short circuit?

A: Each group of 8 channels contains an internal 8 A fuse designed to isolate catastrophic over-current faults. Individual output points are rated for a 2 A maximum fuse threshold, and exceeding the 6 A group limit or 12 A total module limit will trigger thermal protection or open the group fuse.

Q: Can this module be configured to drive negative logic or sinking field circuits?

A: No. The internal transistor architecture of the 140DDO84300 is hardwired strictly for positive logic (source) operations, where the module supplies voltage directly to the load from the external DC power supply rail.

Q: What is the absolute voltage limit before the solid-state components suffer insulation breakdown?

A: The module is rated for a permanent maximum of 72 VDC. Isolation barriers between the independent channel groups and the low-voltage logic bus are rated up to 2500 Vrms DC for a duration of 1 minute.

Field Installation Guidelines

Chassis Insertion: Fit the module into any available slot of the Modicon Quantum rack assembly. Press firmly until the local signaling LEDs line up with the adjacent modules and secure the screw retainers to verify ground continuity.
Cabinet Environment: Install the rack inside an IP20-rated enclosure protected from airborne particulates and corrosive chemicals. Maintain adequate convection pathways to ensure the ambient internal air does not exceed 60 deg C under maximum load current.
Wiring and Inductive Loads: Group active field wiring away from low-voltage network cables. For highly inductive loads, confirm that the system adheres to the specified limit configuration formula, $\text{Inductance(H)} = 0.5 / ((\text{current(A)})^2 \times (\text{switching frequency(Hz)}))$, to suppress back-EMF spikes.

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