The 60032751 is an external hardware option engineered to absorb and dissipate regenerative energy generated during motor deceleration phases within industrial drive structures. Operating under the specific type designation SACE 15 RE 13, this high-capacity component connects directly to the direct current (DC) bus architecture of a compatible frequency converter. When a reversing load or sudden velocity constraint forces a motor to act as a generator, the SACE 15 RE 13 steps in to convert the resulting electrical surge into thermal energy, safely exhausting it through its ventilated frame assembly. This power management loop safeguards vulnerable internal drive capacitors against overvoltage faults, enabling highly predictable dynamic braking performance and continuous speed adjustments across heavy mechanical lifting, conveying, and rotational systems.
Features
Functions as a dedicated heavy-duty option card option under official designation SACE 15 RE 13.
Designed to integrate into a centralized variable frequency drive braking network.
Ventilated metallic chassis built to handle recurring thermal expansions and load cycles.
Original factory-certified configuration deployed as an essential field option or replacement part.
Applications
Dynamic deceleration management in industrial variable speed drive setups.
High-inertia mechanical loops requiring controlled deceleration without overvoltage tripping.
Heavy-duty crane operations, hoisting equipment, and automated conveyor line positioning.
Technical Specifications
Parameter
Specification
Manufacturer
ABB
Product ID
60032751
ABB Type Designation
SACE 15 RE 13
Catalog Description
SACE 15 RE 13; Braking resistor SACE 15 RE 13
Global Commercial Alias
SACE 15 RE 13
EAN / UPC
6410038040901
Product Net Width
290 mm (11.42 in)
Product Net Height
365 mm (14.37 in)
Product Net Depth / Length
131 mm (5.16 in)
Product Net Weight
6.8 kg (15.0 lb)
Package Level 1 Units
carton 1 piece
Customs Tariff Number
853329
Installation Guidelines
Panel Mounting and Clearances
The enclosure must be mounted securely on a non-combustible vertical surface with the cooling vents positioned upward to facilitate natural thermal convection. Maintain large, unobstructed clearances above, below, and around the SACE 15 RE 13 chassis to allow proper airflow and prevent intense heat buildup from affecting nearby electronic modules or drive housings.
Grounding and Shielding
Establish a secure, low-impedance connection between the structural ground terminal of the resistor cage and the main electrical earth terminal of the cabinet enclosure. The heavy electrical current routed during active braking periods requires an explicit ground path to dissipate residual currents and avoid inductive noise coupling into neighboring data systems.
Cable Routing and Insulation
All power conductors running between the frequency controller's braking chopper terminals and the 60032751 assembly must use high-temperature rated shielded wires to withstand elevated thermal operating points. Route these lines away from low-voltage signal conduits, network fieldbus runs, or sensor lines to eliminate electromagnetic cross-talk.
FAQ
What is the primary operational role of the SACE 15 RE 13 module?
The component functions as an external braking resistor designed to safely absorb and dissipate regenerative electrical energy converted by a motor during forced deceleration loops.
What are the precise physical measurements and weight of this resistor assembly?
The hardware module has a net weight of 6.8 kg (15.0 lb) and features physical dimensions of 365 mm in height, 290 mm in width, and 131 mm in depth.
How should this hardware be positioned during a system cabinet installation?
It must be securely fastened vertically to a non-flammable backplane plate with sufficient open space surrounding its cooling vents to allow natural air convection.
A practical replacement guide for the GE Fanuc IC693CPU313, covering its embedded five-slot architecture, memory backup, firmware-dependent capacity and why it cannot use Series 90-30 expansion racks.
A field-focused comparison of Bently Nevada 3500/40M and 3500/42M monitor inputs, channel-pair configuration, rear I/O options, external termination hardware and firmware checks before replacement.
A field checklist for diagnosing Allen-Bradley 1746-NR4 RTD and resistance inputs, including sensor curves, lead compensation, excitation current, filter timing and channel diagnostics.
A field-focused checklist for replacing an Allen-Bradley 1785-L40B or planning a PLC-5/40 migration, covering backups, 1771 I/O mapping, DH+/RIO channels, revision risks and commissioning.
Replacing an Allen-Bradley 1747-SN scanner? Check SLC 500 logical rack and G-file mapping, link speed, cable termination, COMM/FAULT LEDs and hardware series before blaming the module or changing the...