Luna ODiSI B User Manual

Optical distributed sensor interrogator

Advertising
background image





OPTICAL DISTRIBUTED SENSOR INTERROGATOR

(Model ODiSI B)

www.lunainc.com

3157 State Street

|

Blacksburg, VA 24060

[email protected]

Support phone: 1.866.586.2682

The Luna ODiSI B delivers high speed, fully

distributed strain and temperature

measurements with millimeter spatial resolution.

KEY FEATURES AND PRODUCT HIGHLIGHTS


Industry-leading combination of measurement speed,
range and repeatability with extraordinary spatial
resolution

23.8-250 Hz acquisition over entire fiber

Up to 25 Hz active display over 1 meter

Up to 20 meter sensing range

Measurement ranges of ± 10,000 µStrain, -50 to 300 °C

Repeatability of ± 5 µStrain, ± 0.4 °C

As small as 1.25 mm spatial resolution

Inexpensive optical fiber sensors

Thousands of sensing locations using a single optical
fiber

Interrogation of entire fiber and all sensing locations with
a single scan

Characterization of both temperature and strain at
different points along a single fiber sensor

The Luna

ODiSI B

saves time and cost, while adding

new capability to sensing measurements with its

unprecedented combination of high density sensing

and dynamic acquisition over an optical fiber sensor.

The ODiSI B interrogates hundreds of sensing

locations per meter on a single optical fiber

simultaneously at a rate of up to 250 Hz. Reduce cost

and better characterize your system by instrumenting

many sensing locations with an unaltered, inexpensive

optical fiber. With up to 20 meters maximum sensing

length and down to 1.25 mm spatial resolution, the

ODiSI B is the paramount tool for your strain and

temperature sensing applications.

APPLICATIONS

Load, fatigue, and mechanical testing

Composite manufacturing, engineering, and design

verification

Embedded sensing

Model and simulation validation

Thermal profile measurement

Structural Health Monitoring

The ODiSI B recording the time response of the strain of a cantilever

beam oscillating at its natural frequency. An optical fiber was bonded

to the top surface. The system acquired distributed strain at 100 Hz

with 5 mm sensor spacing.

Advertising