Pure boron (PureB) deposition as the anode region of Si photodiodes creates negative fixed charge at the boron/silicon interface, which is responsible for effective suppression of electron injection from the bulk, thus ensuring low saturation/dark current densities. This mechanism is shown here to remain effective when PureB diodes, fabricated at 700 °C, are operated at cryogenic temperatures down to 100 K. Although the PureB junctions were only a few nanometers deep, they displayed the same current-voltage (I-V) characteristics as conventional deep diffused p⁺-n junction diodes in the whole temperature range and also maintained ideality factors close to n = 1. Al-contacting was found to reveal process-related defects in the f...
Abstract — A single-photon avalanche diode (SPAD) with high responsivity in the ultraviolet (UV) wav...
Several methods of depositing pure boron (PureB) layers on silicon are examined with respect to thei...
In this chapter, a new technology for low‐temperature (LT, 400°C) boron deposition is developed, whi...
PureB silicon photodiode technology is distinguished by enabling nm-shallow junction depths that bri...
Deposition of pure amorphous boron (PureB) layers on n-type Si results in p+n-like devices even in c...
In this thesis, conventional high temperature (HT, 700 °C) PureB technology is optimized in order to...
In this thesis, the research on silicon-based CMOS-compatible PureB technology was continued with th...
The relationship between light-emission patterns from silicon avalanche-mode light-emitting diodes (...
In this paper, the optical and electrical performance of a newly developed silicon photodiode based ...
A little more than a monolayer-thick pure-boron (PureB) layer was deposited on silicon at 250 °C by ...
Pure amorphous boron (PureB) deposition on Si is used to fabricate ultrashallow low-saturation-curre...
Nanolayers of pure boron (PureB) deposited on Si form p+-type regions at deposition temperatures fro...
Deposition of ultra-thin pure amorphous boron (PureB) layers directly on silicon have in recent year...
This thesis presents a performance investigation of newly-developed ultra-shallow junction photodiod...
Envisioning wide future relevance, work is reviewed here on the pure dopant deposition of boron (Pur...
Abstract — A single-photon avalanche diode (SPAD) with high responsivity in the ultraviolet (UV) wav...
Several methods of depositing pure boron (PureB) layers on silicon are examined with respect to thei...
In this chapter, a new technology for low‐temperature (LT, 400°C) boron deposition is developed, whi...
PureB silicon photodiode technology is distinguished by enabling nm-shallow junction depths that bri...
Deposition of pure amorphous boron (PureB) layers on n-type Si results in p+n-like devices even in c...
In this thesis, conventional high temperature (HT, 700 °C) PureB technology is optimized in order to...
In this thesis, the research on silicon-based CMOS-compatible PureB technology was continued with th...
The relationship between light-emission patterns from silicon avalanche-mode light-emitting diodes (...
In this paper, the optical and electrical performance of a newly developed silicon photodiode based ...
A little more than a monolayer-thick pure-boron (PureB) layer was deposited on silicon at 250 °C by ...
Pure amorphous boron (PureB) deposition on Si is used to fabricate ultrashallow low-saturation-curre...
Nanolayers of pure boron (PureB) deposited on Si form p+-type regions at deposition temperatures fro...
Deposition of ultra-thin pure amorphous boron (PureB) layers directly on silicon have in recent year...
This thesis presents a performance investigation of newly-developed ultra-shallow junction photodiod...
Envisioning wide future relevance, work is reviewed here on the pure dopant deposition of boron (Pur...
Abstract — A single-photon avalanche diode (SPAD) with high responsivity in the ultraviolet (UV) wav...
Several methods of depositing pure boron (PureB) layers on silicon are examined with respect to thei...
In this chapter, a new technology for low‐temperature (LT, 400°C) boron deposition is developed, whi...