Martin Richter

Dr. Martin Richter

orcid

Research Focus & Metrics

Academic Career Length

33Years (1994-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 August 1995 in Sensors and Actuators A: Physical
Verified
Journal Article
Closed access
RZR. Zengerle
R. Zengerle
JUJ. Ulrich
J. Ulrich
SKS. Kluge
S. Kluge
MRMartin Richter
Martin Richter
ARA. Richter
A. Richter

1 June 1998 in Sensors and Actuators A: Physical
Verified
Journal Article
Closed access
MRMartin Richter
Martin Richter
RLR. Linnemann
R. Linnemann
PWP. Woias
P. Woias

7 November 2005 in IEEE Transactions on Advanced Packaging
Verified
Journal Article
Closed access
TVT. Velten
T. Velten
HRH.H. Ruf
H.H. Ruf
DBD. Barrow
D. Barrow
NANikos Aspragathos
Nikos Aspragathos
PLP. Lazarou
P. Lazarou
MWM. Wackerle
M. Wackerle
Biomicroelectromechanical systems (bio-MEMS) are MEMS which are designed for medical or biological applications. As with other MEMS, bio-MEMS frequently, have to be packaged to provide an interface to the macroscale world of the user. Bio-MEMS can be roughly divided in two groups. Bio-MEMS can be pure technical systems applied in a biological environment or technical systems which integrate biological materials as one functional component of the system. In both cases, the materials which have intimate contact to biological matter have to be biocompatible to avoid unintentional effects on the biological substances, which in case of medical implants, could harm the patient. In the case of biosensors, the use of nonbiocompatible materials could interfere with the biological subcomponents which would affect the sensor's performance. Bio-MEMS containing biological subcomponents require the use of "biocompatible" technologies for assembly and packaging; e.g., high temperatures occurring, for instance, during thermosonic wire bonding and other thermobonding processes would denature the bioaffinity layers on biosensor chips. This means that the use of selected or alternative packaging and assembly methods, or new strategies, is necessary for a wide range of bio-MEMS applications. This paper provides an overview of some of the strategies, technologies, and applications in the field of bio-MEMS packaging. It includes the following: strategies for the partitioning of subsystems within integrated microsystems for (bio)chemical analysis/synthesis; methods for microassembly of bio-MEMS; technologies for bonding of polymer bio-MEMS components; packaging of miniature medical devices; packaging of biosensors for in vitro applications; packaging of micropumps as a bio-MEMS component. The applications discussed are derived from different fields to demonstrate the plethora of bio-MEMS considerations. In commercial production, packaging is possibly the major cost factor of bio-MEMS-based products, and its development requires special attention.

1 July 1997 in Sensors and Actuators A: Physical
Verified
Journal Article
Closed access
MRMartin Richter
Martin Richter
PWP. Woias
P. Woias
DWD. Weiβ
D. Weiβ

1 December 1994 in Journal of Micromechanics and Microengineering
Verified
Journal Article
Closed access
PDF file
RZR Zengerle
R Zengerle
MRMartin Richter
Martin Richter

1 August 2004 in Chemical Engineering Journal
Verified
Journal Article
Closed access
RKR Keoschkerjan
R Keoschkerjan
MRMartin Richter
Martin Richter
DBD Boskovic
D Boskovic
FSF Schnürer
F Schnürer
SLS Löbbecke
S Löbbecke