Refine
Year of publication
Document Type
- Article (25)
- Conference Proceeding (10)
- Book (6)
- Patent (5)
- Part of a Book (3)
- Poster (1)
- Report (1)
Has Fulltext
- no (51) (remove)
Keywords
- Advanced driver assistance systems (ADAS/AD) (1)
- Agile development (1)
- Angle Sensor (1)
- Calcium oxides (1)
- Electron-phonon coupling (1)
- ISO 26262 (1)
- Incremental Encoder (1)
- Phonons (1)
- Position Encoder (1)
- Relaxation (1)
- Rotary encoder (1)
- Rotational Encoder (1)
- Safety of the intended functionality (SOTIF) (1)
- Safety-critical systems validation (1)
- Wiegand Effect (1)
- Wiegand sensor (1)
- active learning (1)
- lab work (1)
- professional skills (1)
If we think about applications for modern Power MOSFETs using trench technology, running them in linear mode may not be top of the priority list. Yet there are multiple uses for Trench Power MOSFETs in linear mode. In fact, even turning the device on and off in switching applications is a form of linear operation. Also, these components can be run in linear mode to protect the device against voltage surges. This article will illustrate the factors that need to be considered for linear operation and show how Trench Power MOSFETs are suited to it.
ε-Fe3N has been investigated by time-of-flight neutron diffraction (temperature range 4.2–618 K) and SQUID magnetometry (2–700 K, B≤5 T). A ferromagnetic spin structure is observed with magnetic moments oriented perpendicular to the c-axis of the hexagonal nuclear structure. The magnetic saturation moment of iron is 2.2 μB at 4.2 K from neutron diffraction and 2.0 μB from magnetic measurements and decreases in a Brillouin-like manner on heating to TC=575 K. Above 450 K an increasing but reversible disorder of the nitrogen partial structure is observed.