M. Krtička

Analysis of possible systematic errors in the Oslo method

In this work, we have reviewed the Oslo method, which enables the simultaneous extraction of the level density and {gamma}-ray transmission coefficient from a set of particle-{gamma} coincidence data. Possible errors and uncertainties have been investigated. Typical data sets from various mass regions as well as simulated data have been tested against the assumptions behind the data analysis.

Anomalous fluctuations of s-wave reduced neutron widths of 192,194Pt resonances

We obtained an unprecedentedly large number of s-wave neutron widths through R-matrix analysis of neutron cross-section measurements on enriched Pt samples. Careful analysis of these data rejects the validity of the Porter-Thomas distribution with a statistical significance of at least 99.997%.

Extraction of thermal and electromagnetic properties in Ti(45)

The level density and

Estimation of M1 scissors mode strength for deformed nuclei in the medium to heavy mass region by statistical Hauser-Feshbach model calculations

\ensuremath{\gamma}

Investigation of the tungsten isotopes via thermal neutron capture

-ray strength function of

New Methods for the Determination of Total Radiative Thermal Neutron Capture Cross Sections

^{45}\mathrm{Ti}

The RPI multiplicity detector response to γ-ray cascades following neutron capture in and

have been determined by use of the Oslo method. The particle-

Measurement of the {sup 157}Gd(n,{gamma}) reaction with the DANCE {gamma} calorimeter array

\ensuremath{\gamma}

Ni63(n,γ) cross sections measured with DANCE

coincidences from the

Radiative Capture Cross Sections of 155,157 Gd for Thermal Neutrons

^{46}\mathrm{Ti}