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Introduction, Specifications, Characteristics – Super Systems SuperOX User Manual

Page 3: Introduction specifications characteristics

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Super Systems Inc. Page 3 of 14

SuperOX

TM

Operations Manual

Introduction

Thank you for selecting the Super Systems Inc. (SSi) SuperOX

TM

Sensor for your combustion

control application.


SuperOX

TM

represents "state of the art" in oxygen sensor technology. It has been designed for

use in combustion control systems for glass, power, steel reheat, chemical process and

incineration applications.


SuperOX

TM

, with its patented measuring electrode construction, is the product of a team of

design and application engineers, each with over twenty years of atmosphere control

experience. The SSi engineering team has long recognized that the sensor is the most critical

component in a control system and has traditionally been the weakest link. Now, reliability,
repeatability and accuracy are assured with the use of SSi’s SuperOX

TM

high temperature, in situ

sensor in your system.

Specifications
• Useful O2 Range: 10-20 to 100%
• Temperature range: 1200oF to 2900oF
• Stability: within +/- 1 mvdc
• Impedance: less than 5 kohms @ 1700oF
• Useful output: -50 to 1250 mvdc

• Overall length: 26.5” (67.31 cm), 35.5”

(90.17 cm), and 44.5” (113.03 cm)

• Weight: 3.0 lbs.
• Insertion to 18” (45.72 cm), 27” (68.58 cm),

and 36” (91.44 cm)

• Mounting: into 1" (25.4 mm) NPT female

• Sheath diameter: 1.00" (25.4 mm)

Characteristics

The typical zirconia oxygen sensor consists of a closed end tube with the sensing portion at the

tip. The tube operates on the principle of yttria-stabilized zirconia. Figure 1 illustrates the

SuperOX

TM

Sensor design with details omitted for clarity. The tip of the tube is spring loaded into

contact with the outer, negative platinum electrode, which is in contact with the ceramic sheath.

The inner, positive electrode is spring loaded into contact with the inner zirconia surface. A

thermocouple is positioned close to the inner electrode surface and reference air bathes the

sensing surface.

Figure 1