Probe Station Characterization
Probe Station Characterization - Related Videos
05:38
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13:58
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07:28
Measurement of Bioelectric Current with a Vibrating Probe
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The manufacture, calibration and use of non-invasive vibrating probes to measure bioelectric current in various biological systems is described.
09:51
Atom Probe Tomography Studies on the Cu(In,Ga)Se2 Grain Boundaries
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Cited by 29 •
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In this work, we describe the use of the atom-probe tomography technique for studying the grain boundaries of the absorber layer in a CIGS solar cell. A novel approach to prepare the atom probe tips containing the desired grain boundary with a known structure is also presented here.
12:18
Co-localizing Kelvin Probe Force Microscopy with Other Microscopies and Spectroscopies: Selected Applications in Corrosion Characterization of Alloys
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Cited by 3 •
2022
Kelvin probe force microscopy (KPFM) measures surface topography and differences in surface potential, while scanning electron microscopy (SEM) and associated spectroscopies can elucidate surface morphology, composition, crystallinity, and crystallographic orientation. Accordingly, the co-localization of SEM with KPFM can provide insight into the effects of nanoscale composition and surface structure on corrosion.
FAQs
Accurate probe placement establishes the electrical or sensing connection needed to test selected contact pads. Fine conductive tips must align with the intended locations so instruments can apply controlled stimuli and capture the device response. Consistent positioning helps distinguish actual device behavior from differences caused by contacting the wrong pad or an unintended part of the structure.
Controlled conditions make it possible to relate a measured response to a specific applied stimulus. By varying voltage, current, light, or temperature in a deliberate way, researchers can examine how a semiconductor device, material, or microfabricated structure behaves under different inputs. This supports evaluation of electrical behavior, switching performance, and changes that may reveal defects or process variation.
Current-voltage behavior, resistance, capacitance, and switching performance provide different views of device operation. Comparing these measurements across devices or locations can show whether structures respond consistently and can help identify abnormal behavior. In engineering studies, those differences provide evidence for defects, fabrication inconsistency, or other process variation without requiring the sample to be packaged first.
A typical workflow begins by selecting the device, material, or microfabricated structure and identifying its contact pads or measurement locations. The probe station then positions fine conductive tips or other sensors, while connected instruments apply a chosen voltage, current, light, or temperature condition. Researchers record the resulting response and use measurements such as resistance or capacitance to evaluate performance.
The setup combines a probe station, fine conductive tips or other sensors, and connected measurement instruments. Depending on the investigation, the instruments apply controlled voltage, current, light, or temperature and record the response. This flexible arrangement allows researchers to select conditions suited to electrical behavior, switching performance, material evaluation, or physical testing of microfabricated structures.
Engineers use this approach when they need information from semiconductor devices, materials, or microfabricated structures before packaging. It supports wafer-level testing, prototype validation, materials research, failure analysis, and quality control. Early measurements can identify defects or process variation and help evaluate prototypes while reducing testing time and fabrication costs associated with proceeding through additional packaging steps.