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A HOLISTIC APPROACH & STRATEGIC VISION FOR PROCESS SOLUTIONS

SYNTHETIC BRAIDED

Our Synthetic Braided Sensor Wire combines flexibility and strength, providing excellent abrasion resistance and durability for demanding applications. With its high tensile strength and resistance to moisture and chemicals, this wire is ideal for temperature sensors and industrial applications that require long-lasting, reliable performance in harsh environments.

Example Applications: Replacement for beaded thermocouples, heat treating, coke ovens, soaking pits, furnace survey thermocouples, brick & tile kilns, closed tubes or protective atmospheres, glass and ceramic manufacturing, metalworking plants Symbols:

† = This product has a saturant on the singles and jacket
‡ = This product has a light saturant on the jacket to help prevent fraying

Certification / Registered

Certification / Registered

Standards Compliance

Standards Compliance

CFCF: Highest temperature flexible insulation available. The braided yarn is a composition of the oxides of alumina, boric and silicone. Each conductor as well as the overall jacket are braided with this high temperature yarn to provide maximum flexibility at extremely high temperatures.

Compounds Temp. Rating* Notes
Singles & Jacket:
Ceramic Fiber

Continuous: 1205°C
(2200 °F)

 

 

Intermittent: 1430°C (2600°F)

Comparison to Other Constructions:
Abrasion Resistance – Poor
Chemical Resistance – Fair
Moisture Resistance – Poor
Relative Cost – High

RR: High temperature silica fibers are braided on the single conductors as well as the overall jacket. Because saturant is not used, this product is not recommended for abrasive applications. Each conductor as well as the overall jacket are braided with this high temperature yarn to provide maximum flexibility at extremely high temperatures. A tracer is braided into insulation for polarity and calibration identification.

Compounds Temp. Rating Notes
Singles & Jacket:
Refrasil

Continuous: 980°C
(1800 °F)

Intermittent: 790°C (1450°F)

Comparison to Other Constructions:
Abrasion Resistance – Poor
Chemical Resistance – Fair
Moisture Resistance – Fair
Relative Cost – High

MCFCF:This construction has a mica barrier tape applied to each single conductor prior to being insulated with the ceramic fiber yarns. The construction is identical to the CFCF construction except for the addition of a light jacket saturant and the mica tape, which protects against potential shorting from the black carbon residue which forms when the product is used in applications where the air supply is limited, such as thermocouples in protection tubes. The mica may also provide moisture protection during temperature cycling.

Compounds Temp. Rating Notes

Singles:
Ceramic Fiber & mica wrap

 

 

Jacket:
Ceramic Fiber

Continuous: 1205°C
(2200 °F)

 

 

Intermittent: 1430°C (2600°F)

Comparison to Other Constructions:
Abrasion Resistance – Good
Chemical Resistance – Fair
Moisture Resistance – Good
Relative Cost – Low

Relative Cost – Medium

SFSF: Tough, heavy insulation for use where abrasion resistance on braided insulation is required. Conductors are insulated with a braided composite synthetic yarn* & impregnated with a color-coded moisture resistant saturant. The insulated conductors are laid parallel & insulated with a heavy yarn composite synthetic fiber jacket which is then coated with the same saturant.

Compounds Temp. Rating Notes

Singles & Jacket:
Synthetic Fiber

*Above construction can be supplied with skived Teflon® tape over each conductor prior to applying the synthetic overbraid for increased chemical resistance. Use code “TFSFSF”

Continuous: 290°C
(550 °F)

Intermittent: 340°C (650°F)

Comparison to Other Constructions:
Abrasion Resistance – Good
Chemical Resistance – Fair
Moisture Resistance – Fair
Relative Cost – Medium

Mineral Insulated (MGO) Sensors

Industrial Thermocouples

 

Plastics & Packaging

 

Temperature Transmitters

 

Resistance Temperature Detectors

 

 

Thermowells

 

 

 

Custom Designed sensor

 

Food, Dairy, & Pharma

Sensors with Digital Transmitters

Calculators

Power Flow Rate Temp Calculator

Calculate the electrical power, flow rate or temperature requirement.
airflow in standard cubic feet per minute
temperature rise in degrees F from the inlet to the exhaust
Watts = SCFM x ΔT/2.5

Temperature Conversion Calculator

Calculate the electrical power, flow rate or temperature requirement.
°F = ((( °C * 9) / 5 ) + 32)
°C = ((( °F - 32) * 5 ) / 9)

Three-Phase Unit Calculator

Fill in two values to find the 3rd.
W = LC * (V * √2)
V = (W / LC) / √2
LC = W / (V * √2)

Single Phase Unit Calculator

Fill in two values to find the 3rd.
W = LC * V
V = LC * W
LC = W / V

Ohms Law Calculator

Fill in two values to find the other two.

O = V / A

O = V² / W

O = W / A²

V = A * O = A * (V/A)

V = √(W * O)

V = W / A

A = V / O

A = W/ V

A = √(W / O)

W = A * V

W = V² / O

W = A² * O

Heat Transfer Through Convection Calculator

ρ = density (lb/ft3)

V = volume flow rate (ft3/hour)

Cp = specific heat (Btu/lb°F)

Ta-Tb = temperature differential (°F)

Q = ρ x V x Cp x (Ta-Tb)


Fill in four values

ρ = density (lb/ft3)
V = volume flow rate (ft3/hour)
Cp = specific heat (Btu/lb°F)
Ta-Tb = TD (°F)
Q = ρ x V x Cp x (Ta-Tb)

ACFM to SCFM

ACFM = airflow in actual cubic feet per minute

P = gage pressure (psi)

T = gas temperature °R = 460 + °F

SCFM = airflow in standard cubic feet per minute


Find Standard Cubic Feet per Minute based on data from your Actual Cubic Feet per Minute Rotameter

airflow in actual cubic feet per minute
gage pressure (psi)
gas temperature °R = 460 + °F
airflow in standard cubic feet per minute

Standard Flow Rate (SCFM) Calculator

Calculate the SCFM.
Actual cubic feet per minute
Actual pounds per square inch at Gauge
Actual temperature in °F. °R = 460 + °F
CFM * (PSI actual / 14.7psi)*(528°R / T actual)

Pressure Conversion

Fill in one value to calculate the other.
PSI = Bar * 14.504
Bar = PSI / 14.504

Mass Flow to volume Metric Flow

Fill in one value to calculate the other two
kg/h = Kilogram Per Hour (lb/min multiply by 27.216)
Lbs/min = Pounds per minute (kg/h divide by 27.216)
SCFM = Standard cubic feet per minute

Power Flow Rate Temp Calculator

Calculate the electrical power, flow rate or temperature requirement.
airflow in standard cubic feet per minute
temperature rise in degrees F from the inlet to the exhaust
Watts = SCFM x ΔT/2.5

Temperature Conversion Calculator

Calculate the electrical power, flow rate or temperature requirement.
°C = ((( °F - 32) * 5 ) / 9)
°F = ((( °C * 9) / 5 ) + 32)

Three-Phase Unit Calculator

Fill in two values to find the 3rd.
W = LC * (V * √2)
V = (W / LC) / √2
LC = W / (V * √2)

Single Phase Unit Calculator

Fill in two values to find the 3rd.
W = LC * V
V = LC * W
LC = W / V

Ohms Law Calculator

Fill in two values to find the other two.

O = V / A

O = V² / W

O = W / A²

V = A * O = A * (V/A)

V = √(W * O)

V = W / A

A = V / O

A = W/ V

A = √(W / O)

W = A * V

W = V² / O

W = A² * O

Heat Transfer Through Convection Calculator

ρ = density (lb/ft3)

V = volume flow rate (ft3/hour)

Cp = specific heat (Btu/lb°F)

Ta-Tb = temperature differential (°F)

Q = ρ x V x Cp x (Ta-Tb)


Fill in four values

ρ = density (lb/ft3)
V = volume flow rate (ft3/hour)
Cp = specific heat (Btu/lb°F)
Ta-Tb = TD (°F)
Q = ρ x V x Cp x (Ta-Tb)

ACFM to SCFM

ACFM = airflow in actual cubic feet per minute

P = gage pressure (psi)

T = gas temperature °R = 460 + °F

SCFM = airflow in standard cubic feet per minute


Find Standard Cubic Feet per Minute based on data from your Actual Cubic Feet per Minute Rotameter

airflow in actual cubic feet per minute
gage pressure (psi)
gas temperature °R = 460 + °F
airflow in standard cubic feet per minute

Standard Flow Rate (SCFM) Calculator

Calculate the SCFM.
Actual cubic feet per minute
Actual pounds per square inch at Gauge
Actual temperature in °F. °R = 460 + °F
CFM * (PSI actual / 14.7psi)*(528°R / T actual)

Pressure Conversion

Fill in one value to calculate the other.
PSI = Bar * 14.504
Bar = PSI / 14.504

Mass Flow to volume Metric Flow

Fill in one value to calculate the other two
Kg/h = Kilogram Per Hour (lb/min multiply by 27.216)
Lbs/min = Pounds per minute (kg/h divide by 27.216)
SCFM = Standard cubic feet per minute