Markus Lenski
58Patents
9h-index
70Co-inventors
77Inventor score
Filing activity: Nov 12, 2004 → Jun 22, 2018
Most-cited inventions
| Patent | Title | Area | Cited by | Status |
|---|---|---|---|---|
| US10483154B1 | Front-end-of-line device structure and method of forming such a front-end-of-line device structure | Electricity | 375 | Active |
| US7741663B2 | Air gap spacer formation | Emerging Cross-Sectional Technologies | 54 | Active |
| US8071442B2 | Transistor with embedded Si/Ge material having reduced offset to the channel region | Electricity | 19 | Active |
| US7354838B2 | Technique for forming a contact insulation layer with enhanced stress transfer efficiency | Electricity | 17 | Active |
| US7943462B1 | Transistor including a high-K metal gate electrode structure formed prior to drain/source regions on the basis of a sacrificial carbon spacer | Electricity | 12 | Active |
| US7208397B2 | Transistor having an asymmetric source/drain and halo implantation region and a method of forming the same | Electricity | 12 | Expired |
| US7754556B2 | Reducing transistor junction capacitance by recessing drain and source regions | Electricity | 12 | Active |
| US7763505B2 | Method for reducing crystal defects in transistors with re-grown shallow junctions by appropriately selecting crystalline orientations | Electricity | 10 | Active |
| US7981740B2 | Enhanced cap layer integrity in a high-K metal gate stack by using a hard mask for offset spacer patterning | Electricity | 9 | Active |
| US8349694B2 | Enhanced confinement of high-K metal gate electrode structures by reducing material erosion of a dielectric cap layer upon forming a strain-inducing semiconductor alloy | Electricity | 8 | Active |
| US7109086B2 | Technique for forming a spacer for a line element by using an etch stop layer deposited by a highly directional deposition technique | Electricity | 6 | Expired |
| US8367495B2 | Method for forming CMOS transistors having metal-containing gate electrodes formed on a high-K gate dielectric material | Electricity | 5 | Active |
| US8298894B2 | Work function adjustment in high-k metal gate electrode structures by selectively removing a barrier layer | Electricity | 5 | Active |
| US8815674B1 | Methods of forming a semiconductor device by performing a wet acid etching process while preventing or reducing loss of active area and/or isolation regions | Electricity | 4 | Active |
| US7754555B2 | Transistor having a channel with biaxial strain induced by silicon/germanium in the gate electrode | Electricity | 3 | Active |
| US8227266B2 | Test structure for monitoring process characteristics for forming embedded semiconductor alloys in drain/source regions | Electricity | 3 | Active |
| US8765542B1 | Methods of forming a semiconductor device while preventing or reducing loss of active area and/or isolation regions | Electricity | 3 | Active |
| US8383500B2 | Semiconductor device formed by a replacement gate approach based on an early work function metal | Electricity | 3 | Active |
| US8652917B2 | Superior stability of characteristics of transistors having an early formed high-K metal gate | Electricity | 3 | Active |
| US7713763B2 | Test structure for monitoring process characteristics for forming embedded semiconductor alloys in drain/source regions | Electricity | 3 | Active |
| US8357573B2 | Strain enhancement in transistors comprising an embedded strain-inducing semiconductor alloy by creating a patterning non-uniformity at the bottom of the gate electrode | Electricity | 3 | Active |
| US7879667B2 | Blocking pre-amorphization of a gate electrode of a transistor | Electricity | 2 | Active |
| US8871586B2 | Methods of reducing material loss in isolation structures by introducing inert atoms into oxide hard mask layer used in growing channel semiconductor material | Emerging Cross-Sectional Technologies | 2 | Active |
| US8173501B2 | Reduced STI topography in high-K metal gate transistors by using a mask after channel semiconductor alloy deposition | Electricity | 2 | Active |
| US8198166B2 | Using high-k dielectrics as highly selective etch stop materials in semiconductor devices | Electricity | 2 | Active |
Source: USPTO / EPO open patent data. Inventor disambiguation is heuristic; counts are objective bibliographic measures.