Prediction of Complex Hydrodynamic Processes

Application of FLIR Systems X6540sc Thermal IR Imaging Camera

Heat transfer experiments on thin-film flows

Heat transfer experiments on thin-film flows

Meer, Belgium — The Department of Chemical Engineering at Imperial College London (UK) has elected to use a FLIR Systems X6540sc thermal imaging camera to conduct innovative heat transfer experiments on thin-film flows.

Studying heat transfer in thin-film flows is the key to enable the accurate prediction of complex hydrodynamic processes, crucial for the design of many engineering systems that rely on these flows.

Research within the Clean Energy Processes group at the Chemical Engineering Department of Imperial College London is aimed at the development and employment of new imaging techniques for conducting simultaneous spatio-temporal measurements of thickness, velocity, temperature and heat flux in thin-film flows. Continue reading

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Real-time welding process monitoring at speeds up to 10,000 fps

With NIT’s Uncooled MWIR Sensors

Madrid, España — According to American Welding Society, welding will become increasingly automated as it is integrated into the entire manufacturing design and coordinated with improved information systems like real-time infrared monitoring.
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Thermal cameras help Indian aluminium industry optimise production

FLIR Systems P660

 

FLIR-thermal-cameras-help

“For JNARDDC, the P660 camera is an ideal solution for cost-effective and efficient predictive maintenance “(Courtesy infolink.com.au)

From an online article in InfoLink, Australia’s Architecture, Building, Construction and Design Directory, comes the following success story about use on a high tech thermal imaging camera by FLIR Systems:

“The Jawaharlal Nehru Aluminium Research Development and Design Centre (JNARDDC) is employing FLIR thermal cameras to help the Indian aluminium industry save energy and optimise the production process.
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SSE Sensitivities (Size-of-Source)

In Most IR Thermometers or Radiation Thermometers

SSE Poster image

Online — A recent online copy of a significant technical poster, Size-of-Source Effect Sensitivities In Filter Radiometers, (Authors: M. R. Dury, T. C. Arneil, G. Machin and M. Goodman), on the National Physical Laboratory (NPL) website  is now freely available as a PDF (1.05MB) download online on the NPL web site.

The introduction to the article begins:

“When performing high accuracy radiation thermometry, the size-of-source effect (SSE) of a filter radiometer* can provide a significant contribution to the uncertainties** associated with the measurements.” Continue reading

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Cleaning An IR Camera Lens

A Infrared tip from the Snell Group’s website on “Cleaning Your Camera Lens

lens_tip012010

Image: Courtesy The Snell Group

Online — Cleaning your infrared camera’s lens is a rather simple procedure if you understand the seriousness of what you are doing as well as the consequences of doing it incorrectly.

First, know that the lens of an IR camera can be very expensive. Continue reading

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IR Window Materials

A useful guide to a wide array of Infrared Materials used for windows and, for some, lenses.

This guide, on the Lawrence Berkeley Laboratory website, while very useful is designed for those most familiar with infrared properties described in terms most often used by infrared spectroscopists, often chemists, and stated in terms of wavenumbers in cm-1 rather than microns of micrometers, a term more familiar to engineers and infrared thermographers.

An explanation of how to do the actual conversion may be easily found online by googling the actual terms “converting wavenumbers to microns”. One of the current responses is: “How to convert cm-1 to microns or nanometers at www.powerstream.com/inverse-cm.htm.

It is actually very straightforward because: Wavelength in µm = 10,000/cm-1

Material information link: http://infrared.als.lbl.gov/content/web-links/90-window-materials

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Furnace Exit-Gas Temperature (FEGT) Measurement System

FEGT & BoilerSpection System Configuration

FEGT & BoilerSpection System Configuration

Santa Clara CA, USA — Continuously measure Furnace Exit-Gas Temperature (FEGT) using Non-Contact Infrared Sensors to optimize overall performance of boilers and furnaces under varying conditions of coal quality, load, ash fouling, and slagging.
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