He was an early researcher in electron paramagnetic resonance.

Electron paramagnetic resonance spectra of bone and its major components.

Although the structure was published several researchers used Thianthrene for Electron paramagnetic resonance studies in the 1960s.

In 1945, Zavoisky defended his habilitation on the phenomenon of electron paramagnetic resonance.

His primary research interests include thermoluminescent dosimetry and electron paramagnetic resonance biodosimetry.

Yevgeny Zavoisky discovered electron paramagnetic resonance playing important role in studying chemical species.

Apart from optical absorption, boron acceptors have been detected by electron paramagnetic resonance.

F-centers are often paramagnetic and can then be studied by electron paramagnetic resonance techniques.

Fremy's salt is a long-lived free radical that finds use as a standard in electron paramagnetic resonance spectroscopy.

However, despite extensive efforts, electron paramagnetic resonance signals from N-V avoided detection for decades until 2008.

Electron paramagnetic resonance in non-irradiated bone.

The parent phenyl radical has been identified via electron paramagnetic resonance and UV spectroscopy.

Two electron paramagnetic resonance centers (OK1 and N3) have been assigned to nitrogen-oxygen complexes.

These are easily seen in electron paramagnetic resonance spectra (in which they are confusingly called P1 centers).

Several defects related to isolated cobalt have been detected by electron paramagnetic resonance and photoluminescence, but their structure is yet unknown.

In the mid-1940s, Yevgeny Zavoisky developed electron paramagnetic resonance, eventually leading to the concept of nuclear orientation.

The energy level structure of the N-V center was established by combining optical, electron paramagnetic resonance and theoretical results, as shown in the figure.

Within the diamond lattice itself, hydrogen-vacancy and hydrogen-nitrogen-vacancy complexes have been identified in negative charge states by electron paramagnetic resonance.

This is alternately referred to as "electron paramagnetic resonance" (EPR) spectroscopy.

Abragam A & Bleaney B. Electron paramagnetic resonance of transitionions.

During his graduate studies Wüthrich started out working with electron paramagnetic resonance spectroscopy and the subject of his Ph.

So far (2009), there is only one reliable evidence (through hyperfine interaction structure in electron paramagnetic resonance) for isolated sulfur defects in diamond.

In 1955, Prokhorov started his research in the field of electron paramagnetic resonance (EPR).

Photoluminescence and electron paramagnetic resonance techniques were combined into optically detected magnetic resonance, detected from a single center.

Analysis of the electron paramagnetic resonance (EPR) spectrum of the spin label provides information about the local environment in the protein.

He was an early researcher in electron paramagnetic resonance.

Electron paramagnetic resonance spectra of bone and its major components.

Although the structure was published several researchers used Thianthrene for Electron paramagnetic resonance studies in the 1960s.

In 1945, Zavoisky defended his habilitation on the phenomenon of electron paramagnetic resonance.

His primary research interests include thermoluminescent dosimetry and electron paramagnetic resonance biodosimetry.

Yevgeny Zavoisky discovered electron paramagnetic resonance playing important role in studying chemical species.

Apart from optical absorption, boron acceptors have been detected by electron paramagnetic resonance.

F-centers are often paramagnetic and can then be studied by electron paramagnetic resonance techniques.

Fremy's salt is a long-lived free radical that finds use as a standard in electron paramagnetic resonance spectroscopy.

However, despite extensive efforts, electron paramagnetic resonance signals from N-V avoided detection for decades until 2008.

Electron paramagnetic resonance in non-irradiated bone.

The parent phenyl radical has been identified via electron paramagnetic resonance and UV spectroscopy.

Two electron paramagnetic resonance centers (OK1 and N3) have been assigned to nitrogen-oxygen complexes.

These are easily seen in electron paramagnetic resonance spectra (in which they are confusingly called P1 centers).

Several defects related to isolated cobalt have been detected by electron paramagnetic resonance and photoluminescence, but their structure is yet unknown.

In the mid-1940s, Yevgeny Zavoisky developed electron paramagnetic resonance, eventually leading to the concept of nuclear orientation.

The energy level structure of the N-V center was established by combining optical, electron paramagnetic resonance and theoretical results, as shown in the figure.

Within the diamond lattice itself, hydrogen-vacancy and hydrogen-nitrogen-vacancy complexes have been identified in negative charge states by electron paramagnetic resonance.

This is alternately referred to as "electron paramagnetic resonance" (EPR) spectroscopy.

Abragam A & Bleaney B. Electron paramagnetic resonance of transitionions.

During his graduate studies Wüthrich started out working with electron paramagnetic resonance spectroscopy and the subject of his Ph.

So far (2009), there is only one reliable evidence (through hyperfine interaction structure in electron paramagnetic resonance) for isolated sulfur defects in diamond.

In 1955, Prokhorov started his research in the field of electron paramagnetic resonance (EPR).

Photoluminescence and electron paramagnetic resonance techniques were combined into optically detected magnetic resonance, detected from a single center.

Analysis of the electron paramagnetic resonance (EPR) spectrum of the spin label provides information about the local environment in the protein.