Weekly seminar of the eMRI group

Status: slot available

Weekly seminar of the eMRI group

Status: slot available

Weekly seminar of the eMRI group

Status: slot available

Weekly seminar of the eMRI group

Status: slot available

Weekly seminar of the eMRI group

Status: slot available

Weekly seminar of the eMRI group

Status: slot available

Weekly seminar of the eMRI group

Status: slot available

Weekly seminar of the eMRI group

Status: slot available

Weekly seminar of the eMRI group

Status: slot available

Weekly seminar of the eMRI group

Status: slot available

Weekly seminar of the eMRI group

Status: slot available

Weekly seminar of the eMRI group

Status: slot available

Weekly seminar of the eMRI group

Status: slot available

Weekly seminar of the eMRI group

Status: slot available

Master thesis presentation:
Quantified near Real Time Tracking of Dendritic Cell Migration using Fluorine-19 labeling in MRI in Mice

Status: confirmed

Weekly seminar of the eMRI group

Status: slot available

Septal myocardial clefts in HCH: insights and hypothesises from animal studies in myocardial structure and myocardial mechanics

Status: confirmed

no seminar this week

T. Niendorf:
High field magnets

M. Kitza: PhD application MR Physiol

Status: confirmed

Master Thesis presentation

Status: confirmed

Reliable and robust RF safety assessment of transmit array coils at ultrahigh fields

Status: confirmed

Project update: Probing nociception in near physiological mice fMRI

Abstract:
Combining mouse genetics and functional magnetic resonance imaging (fMRI) provides a promising tool to unravel the molecular mechanisms of chronic pain. Probing murine nociception via the blood oxygenation level-dependent (BOLD) effect is still challenging due to methodological constraints. The aim of this presentation is to introduce an enabling methodology to permit the study of large-scale brain circuits in pain processing using near-physiological mouse fMRI. In contrast to established subcutaneous electrostimulation paradigms, the proposed method focuses on the reproducible application of brief, mild noxious heat stimuli (46 °C /14 sec) to the plantar hindpaw of anesthetized mice. This permits research into clinically relevant forms of chronic pain, such as hyperalgesia and allodynia. The method comprises further advances in technical, procedural and data processing tools for enhanced BOLD signal detection and a tight control of physiological parameters. The latter includes the development of a novel mouse cradle designed to maintain whole-body normothermia in anesthetized mice during fMRI in a way that reflects the thermal status of awake, resting mice. Applying this method to wildtype mice resulted in BOLD activation patterns closely resembling those observed in humans – a basic requirement for translational studies.

Status: confirmed

Advanced techniques in diffusion MRI

Status: confirmed

Detection of Metabolite Changes in Response to a Varying Visual Stimulation Paradigm Using Short TE 1H MRS at 7T

Status: confirmed

T.N.: Impressions from Brisbane
D.W.: PhD project introduction

Status: confirmed

Master thesis candidate from KIT Karlsruhe

Status: confirmed

EMMOTRAC – embedded motion tracking for MR

Abstract: The topic of my talk will be our home-built optical tracking system for adaptive head motion correction in MRI. After a general introduction into adaptive motion correction, I am going to present results we have obtained in high-resolution anatomical imaging and functional imaging at 7T. Since September 2013, our group is funded by the German Ministry of Economics with the aim to start a business based upon our technology. Therefore, I will also give an overview about our goals during the grant period.

Status: confirmed