Low Temperature Self-Regulating Heating Cable (SLCBL)

Additional Features:

• Safe to overlap and insulate
• Can be cut-to-length and terminated in the field
• Moisture, chemical, and flame resistant
  
  

Maximum Continuous Maintenance Temperature:  150°F (65°C)
Intermittent Exposure Temperature Range: -40°F to 185°F (-40°C to 85°C)
Supply Voltage: 110-120 VAC or 208-277 VAC
Nominal Power Output at 50°F (10°C): 

• 3, 5, 8, 10, 12 watts/ft (10, 16, 26, 33, 39 watts/m)
• For 208 and 277 VAC, adjust watts shown for the 240 VAC cable  using the Voltage Adjustment Factors chart

Bus Wire Gauge: 16 AWG
Braid Resistance: Tinned copper 0.0055 ohms/ft (0.0182 ohms/m)
T-Rating:

• T6: 3, 5, 8, 10 watts/ft (10, 16, 26, 33 watts/m)
• T5: 12 watts/ft (39 watts/m)

Bend Radius: 0.5 in (12 mm)

NOTE: Electrical equipment T-Rating codes define the maximum surface temperature that equipment will reach. It is used in hazardous (classified) area applications.

• Ordinary Locations: -B, -BP series only

• Ordinary Locations
• Hazardous Location
• • •    Class I Division 2 Groups A, B, C, D
    •    Class II Division 2 Groups E, F, G
    •    Class III

Approval valid only when used with appropriate heating cable and installation accessories, and installed in accordance with all applicable instructions, codes, and regulations.

Outer Layer Options:

How Self-Regulating Cable Works

• The semi-conductive core material contains a graphite network, which allows electricity to flow from one bus wire to the other. When the core is dense and colder, there are many paths for electricity to take through the graphite network, producing more heat.
• Since the core material expands as it heats, the graphite network is elongated, disrupting some of the paths. More and more paths are disrupted as heating continues until the system reaches self-controlled thermal stability. When the core material cools, it contracts, reconnecting some of the electrical paths in the graphite network, and more equivalent heat is produced.
• This temperature response occurs independently at each point along the heater. If an externally produced high temperature occurs next to a low temperature in the cable, each section of heating cable will adjust its own heat output in relation to its own local requirements.