thermography - microelectronics

2
We measure it. Thermography in microelectronics TESTOsolutions Precisely visualizing critical temperatures. Electronic components are becoming smaller and smaller, the demands on heat withdrawal are increasing. For optimization purposes, an examination of temperature conditions using a thermal imager is expedient, and the analysis of warming and cooling behaviour over defined time intervals is often required. Only high-quality thermal imagers with the highest geometric resolution and the possiblity of recording fully radiometric video sequences are up to this job.

Upload: testo-limited

Post on 30-Mar-2016

264 views

Category:

Documents


0 download

DESCRIPTION

Electronic components are becoming smaller and smaller, the demands on heat withdrawal are increasing. For optimization purposes, an examination of temperature conditions using a thermal imager is expedient, and the analysis of warming and cooling behavior over defined time intervals is often required. Only high-quality thermal imagers with the highest geometric resolution and the possibility of recording fully radiometric video sequences are up to this job.

TRANSCRIPT

Page 1: Thermography - Microelectronics

We measure it.

Thermography in microelectronics

TESTOsolutions

Precisely visualizing critical temperatures.Electronic components are becoming smaller andsmaller, the demands on heat withdrawal areincreasing. For optimization purposes, an examinationof temperature conditions using a thermal imager isexpedient, and the analysis of warming and coolingbehaviour over defined time intervals is often required.Only high-quality thermal imagers with the highestgeometric resolution and the possiblity of recordingfully radiometric video sequences are up to this job.

TS_Microelectronics_MASTER_I_2012 30.11.2011 15:16 Seite 1

Page 2: Thermography - Microelectronics

Thermographic mould and humidity measurement We measure it.

Heat development on a test bench.

The miniaturization trend in electronic components continues – andwith it, the requirements regarding heat transfer: even the smallestcomponents in the narrowest spaces create heat which can affect thecomponent itself or adjacent assemblies. Especially the developmentof heat over time can negatively influence the functionality and lifeexpectancy of an instrument.Thermography is an effective tool for the optimum dimensioning andpositioning of electronic components for an ideal circuit board layout:It allows temperature distribution and development to be identifiedwithout contact even in the smallest scales. Since thermal curvesfrequently also need to be taken into consideration, individual thermalimages are often not sufficient.

Thermography of microelectronics requires a very good geometricresolution in order to be able to measure the smallest structuresreliably. A detector size of 640 x 480 pixels is often indispensable here.In the testo 890, the intelligent interaction of the system componentswith a 640 x 480-pixel detector and a 42° lens allows a focus distanceof only 10 cm. This enables the resolution of tiny structures of 113 μm.The testo 890 offers all preconditions for the thermography of electronic

components: You record thermal processes in real time with the fullyradiometric video measurement, and transfer the data directly to a PC.The recording can be stopped and analyzed at any point. And: Forevery instant in the video, all temperature measurement points areexactly available per pixel, so that you can precisely analyze all thermaldevelopments and if necessary introduce optimization measures.

Visualize heat development in detail –

without contact.

More information:

For more information and answers to all your questions concerning ther-mography on microelectronics, contact our thermography experts at +49 7653 681 700 or [email protected].

The application

The solution

0980

862

4/Q

/01.

2012

TS_Microelectronics_MASTER_I_2012 07.12.2011 07:32 Seite 2