QBT23S | Banner Engineering High-Temperature Fiber Optic Sensor Cable
- Regular price
- $449.00
- Sale price
- $449.00
- Regular price
-
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Product Description P/N: QBT23S
Description
The Banner Engineering QBT23S is a high-temperature fiber optic cable designed for diffuse-reflective sensing applications in industrial environments. It features a bifurcated glass fiber construction with a stainless steel sheath and threaded sensing tip. The cable is engineered for reliable operation in elevated temperature conditions.
Technical Specifications
| Condition | New/Never Used Surplus |
| Brand | Banner Engineering |
| Category | Sensors & Switches |
| Part Number | QBT23S |
| Subcategory | Fiber Optic Cable |
| Sensor Type | Fiber Optic Cable |
| Sensing Mode | Diffuse-Reflective |
| Fiber Configuration | Bifurcated |
| Fiber Material | Glass |
| Sheath Material | Stainless steel monocoil |
| Sensing Tip Material | Brass |
| Tip Style | Threaded |
| Cable Length | 36 in (approx. 1 m) |
| Maximum Operating Temperature | +249°C |
| Compatible Equipment | Fiber optic amplifiers |
| Weight | 0.79 lbs |
Information About QBT23S
The QBT23S is part of Banner Engineering’s glass fiber optic sensing solutions intended for use with compatible fiber optic amplifiers. It is constructed with a stainless steel monocoil sheath and a brass sensing end to withstand harsh industrial conditions. The bifurcated fiber design allows efficient light transmission and reception within a single cable assembly. This model is commonly used in applications where conventional sensors cannot tolerate high ambient temperatures.
Key Features:
-
High-temperature capability: Designed for operation up to +249°C
-
Bifurcated fiber design: Supports diffuse-reflective sensing systems
-
Glass fiber core: Ensures stable optical performance
-
Stainless steel monocoil sheath: Provides mechanical and thermal protection
-
Threaded sensing tip: Enables secure and precise mounting
-
Industrial-grade construction: Suitable for harsh automation environments
The QBT23S delivers the durability and thermal resistance required for high-temperature industrial sensing applications.
Description
The Banner Engineering QBT23S is a high-temperature fiber optic cable designed for diffuse-reflective sensing applications in industrial environments. It features a bifurcated glass fiber construction with a stainless steel sheath and threaded sensing tip. The cable is engineered for reliable operation in elevated temperature conditions.
Technical Specifications
| Condition | New/Never Used Surplus |
| Brand | Banner Engineering |
| Category | Sensors & Switches |
| Part Number | QBT23S |
| Subcategory | Fiber Optic Cable |
| Sensor Type | Fiber Optic Cable |
| Sensing Mode | Diffuse-Reflective |
| Fiber Configuration | Bifurcated |
| Fiber Material | Glass |
| Sheath Material | Stainless steel monocoil |
| Sensing Tip Material | Brass |
| Tip Style | Threaded |
| Cable Length | 36 in (approx. 1 m) |
| Maximum Operating Temperature | +249°C |
| Compatible Equipment | Fiber optic amplifiers |
| Weight | 0.79 lbs |
Information About QBT23S
The QBT23S is part of Banner Engineering’s glass fiber optic sensing solutions intended for use with compatible fiber optic amplifiers. It is constructed with a stainless steel monocoil sheath and a brass sensing end to withstand harsh industrial conditions. The bifurcated fiber design allows efficient light transmission and reception within a single cable assembly. This model is commonly used in applications where conventional sensors cannot tolerate high ambient temperatures.
Key Features:
-
High-temperature capability: Designed for operation up to +249°C
-
Bifurcated fiber design: Supports diffuse-reflective sensing systems
-
Glass fiber core: Ensures stable optical performance
-
Stainless steel monocoil sheath: Provides mechanical and thermal protection
-
Threaded sensing tip: Enables secure and precise mounting
-
Industrial-grade construction: Suitable for harsh automation environments
The QBT23S delivers the durability and thermal resistance required for high-temperature industrial sensing applications.