Home > Products > kSA BandiT > Product Information   site map  
          kSA BandiT - Product Information

 Product Inquiry

This page contains all the product information for the kSA BandiT. If you are looking for kSA BandiT support, please click here.

     General Information

     Performance

     Application Notes

     White Papers

     References


General Information

kSA BandiT flyer
Two-page flyer describing the features of the kSA BandiT
 
kSA BandiT specifications
Four-page document describing hardware/software specifications in detail
Top

Performance

Wavelength Ranges
380-1100 nm (BandiT Visible (VIS) model)
870-1400 nm (BandiT Near-IR (NIR) model)
 
Temperature Update Rate
20 Hz (typical)
1 Hz (minimum)
 
Typical Temperature Ranges
Material Range Model
ZnSe RT-700°C VIS
ZnTe RT-700°C VIS
SiC RT-1300°C VIS
GaN RT-1300°C VIS
GaAs RT-650°C NIR
InP RT-650°C NIR
Si RT-550°C NIR

 
Temperature Resolution
0.1 °C
 
Stability
± 0.2 °C (4 hours)
 
Accuracy
± 2 °C
 
Outputs
Real-time display
10V analog (configurable)
 
Inputs
analog (configurable)
Top

Application Notes

kSA BandiT Application Notes are documents written about a specific component or components of the kSA BandiT real-time wafer temperature system. These documents are designed to explain details of the kSA BandiT capabilities and aid the user in maximizing the utility of the system. k-Space User Manuals are available for download as well by contacting us.

Note that some documents contain proprietary information, and therefore are password protected. At this time, if you are a k-Space customer, please email us requesting the documents and we will send them to you.

kSA BandiT for Growth Rate (03-12-07)
 
kSA BandiT for GaN (03-12-07)
 
Top

White Papers

k-Space white papers are documents that describe a technology or technologies utilized by a k-Space product. White papers may also include calibration procedures, application to various technologies, or comparisons with similar products.

Note that some documents may contain proprietary information, and therefore are password protected. If you are a k-Space customer, please email us requesting a username and password, and we will respond via email with a proper username and password, allowing you access to the document.

kSA Band Edge Thermometry vs. Emissivity-Corrected Pyrometry (3-09-07)
The purpose of this document is to evaluate the current state of the art with respect to both methods while discussing advantages and disadvantages of each with respect to typical applications.
 
Pyrometric Oscillations For Growth Rate (3-16-05)
This document describes BandiT's ability to determine deposition rate from pyrometric interference oscillations. This capability is built-in to BandiT, making it a dual purpose temperature and deposition rate monitoring tool.
 
BandiT Spectrometer Calibration (2-11-05)
This document describes the procedure for checking the calibration of the spectrometer.
 
kSA BandiT Calibration (11-30-04)
This paper gives a detailed description of how calibration files are generated for the kSA BandiT system, and how BandiT temperature measurement accuracy is independently verified using known RHEED surface transition temperatures.
 
kSA BandiT Measures SiC Substrate Temperature (3-09-07)
This paper addresses the technological challenges of SiC temperature measurement, and shows some reproducibility results obtained with kSA BandiT.
 
kSA BandiT: Band-edge Thermometry (02-03-04)
A PowerPoint presentation describing the kSA BandiT system, including both hardware and software components. Data is also presented highlighting the features of the BandiT system, including low temperature measurement and spatially-resolved temperature measurement during substrate rotation.
Top

References

k-Space references are a compilation of published papers that either offer a review of the techniques used by the kSA BandiT, or specifically use the kSA BandiT for work within the paper.

Adsorption-controlled molecular-beam epitaxial growth of BiFeO3
J.F. Ihlefeld, A. Kumar, V. Gopalan, D.G. Schlom, Y.B. Chen, X.Q. Pan, T. Heeg,
J. Schubert, X. Ke, P. Schiffer, J. Orenstein, L.W. Martin, Y.H. Chu, and R. Ramesh
Applied Physics Letters 91, 2007, pp. 071922
 
Substrate temperature measurement using a commercial band-edge detection system
I. Farrer, J.J. Harris, R. Thomson, D. Barlett, C.A. Taylor II, and D.A. Ritchie
2006 MBE Conference: Tokyo
 
Growth related interference effects in band edge thermometry of semiconductors
R. N. Sacks, D. Barlett, C. A. Taylor II, and J. Williams
J.V.S.T. B 23, 2005
 
In situ temperature control of MBE growth using band-edge thermometry
Shane Johnson, Chau-Hong Kuo, Martin Boonzaayer, Wolfgang Braun,
Ulrich Koelle, Yong-Hang Zhang, and John Roth
J.V.S.T. B 16, 1998, pp. 1502-1506
 
Precision of noninvasive temperature measurement by diffuse reflectance spectroscopy
T.P. Pearsall, Stevan R. Saban, James Booth, Barrett T. Beard Jr., and S.R. Johnson
Rev. Sci. Instrum. 66, 1995, pp. 4977-4980
 
Diffuse optical reflectivity measurements on GaAs during MBE processing
C. Lavoie, S.R. Johnson, J.A. Mackenzie, T. Tiedje, and T. van Buuren
J.V.S.T. A 10, 1992, pp. 930-933
Top