BEGIN:VCALENDAR
VERSION:2.0
PRODID:-//Vrije Universiteit Amsterdam//NONSGML v1.0//EN
NAME:PhD defence E.J.P. Brouwer
METHOD:PUBLISH
BEGIN:VEVENT
DTSTART:20260204T114500
DTEND:20260204T131500
DTSTAMP:20260204T114500
UID:phd-defence-e-j-p-brouwer@8F96275E-9F55-4B3F-A143-836282E12573
CREATED:20260924T235602
LOCATION:
SUMMARY:PhD defence E.J.P. Brouwer
X-ALT-DESC;FMTTYPE=text/html: <html> <body> <p><p>The Big Little Brain
 </p></p> <h3><strong>Major role of the cerebellum revealed with ultra
 -powerful MRI</strong></h3><p>Using one of the most powerful MRI scan
 ners in the world, neuroscientist Emma Brouwer has mapped the cerebel
 lum in great detail. She shows how this brain region is structured an
 d how it functions, both in healthy individuals and in patients with 
 multiple sclerosis (MS). These new insights contribute to a better un
 derstanding of brain functions as well as brain diseases.</p><p><stro
 ng>Why the cerebellum is so important</strong><br>The cerebellum make
 s up only about ten percent of the brain’s volume, but it plays a c
 rucial role in far more than just movement. It is involved in motor c
 ontrol, learning, attention, and possibly also emotions and cognition
 . Nevertheless, it has long received relatively little attention in b
 rain research, mainly because its structure is extremely fine and com
 plex. “It is precisely this complexity that makes the cerebellum di
 fficult to study with standard MRI scanners,” Brouwer explains. “
 Many details simply remain invisible.”</p><p><strong>Looking with a
  sharper lens</strong><br>Brouwer used a 7 Tesla MRI scanner (7T MRI)
 , a scanner with a much stronger magnet than the MRI systems typicall
 y used in hospitals. This extra power makes it possible to create ima
 ges with exceptionally high resolution. Thanks to this technology, su
 btle structures and functional patterns in the cerebellum could be vi
 sualized.</p><p><strong>Mapping function and structure</strong><br>In
  total, Brouwer conducted seven separate studies, examining both the 
 structure and the function of the cerebellum. Using functional MRI (f
 MRI), she was able to see which parts of the cerebellum are active du
 ring specific tasks.</p><p>Brouwer studied both healthy adults and pa
 tients with multiple sclerosis (MS). In MS, the nervous system is dam
 aged, which can also affect the cerebellum. By comparing the two grou
 ps, it became clear how disease processes influence the cerebellum.</
 p><p><strong>New methods for future brain research</strong><br>In add
 ition to new insights into the cerebellum itself, Brouwer also demons
 trates how 7T MRI can be optimally used to study small cerebellar str
 uctures. This methodological knowledge is valuable for other research
 ers around the world. These techniques can help enable more targeted 
 research into brain diseases in the future.</p><p><strong>From fundam
 ental knowledge to better care</strong><br>Although Brouwer’s resea
 rch is fundamental in nature, its implications are broader. Because t
 he cerebellum is involved in many neurological disorders, a better un
 derstanding of it can, in the long term, contribute to improved diagn
 osis and treatment. Her work underscores how advanced technology and 
 fundamental research together open new doors in neuroscience.</p><p>M
 ore information on the <a href="https://hdl.handle.net/1871.1/eaa58d8
 8-5e84-4960-a4bb-745a4f01cd02" data-new-window="true" target="_blank"
  rel="noopener noreferrer">thesis</a></p> </body> </html>
DESCRIPTION: The Big Little Brain <h3><strong>Major role of the cerebe
 llum revealed with ultra-powerful MRI</strong></h3>Using one of the m
 ost powerful MRI scanners in the world, neuroscientist Emma Brouwer h
 as mapped the cerebellum in great detail. She shows how this brain re
 gion is structured and how it functions, both in healthy individuals 
 and in patients with multiple sclerosis (MS). These new insights cont
 ribute to a better understanding of brain functions as well as brain 
 diseases.<strong>Why the cerebellum is so important</strong><br>The c
 erebellum makes up only about ten percent of the brain’s volume, bu
 t it plays a crucial role in far more than just movement. It is invol
 ved in motor control, learning, attention, and possibly also emotions
  and cognition. Nevertheless, it has long received relatively little 
 attention in brain research, mainly because its structure is extremel
 y fine and complex. “It is precisely this complexity that makes the
  cerebellum difficult to study with standard MRI scanners,” Brouwer
  explains. “Many details simply remain invisible.”<strong>Looking
  with a sharper lens</strong><br>Brouwer used a 7 Tesla MRI scanner (
 7T MRI), a scanner with a much stronger magnet than the MRI systems t
 ypically used in hospitals. This extra power makes it possible to cre
 ate images with exceptionally high resolution. Thanks to this technol
 ogy, subtle structures and functional patterns in the cerebellum coul
 d be visualized.<strong>Mapping function and structure</strong><br>In
  total, Brouwer conducted seven separate studies, examining both the 
 structure and the function of the cerebellum. Using functional MRI (f
 MRI), she was able to see which parts of the cerebellum are active du
 ring specific tasks.Brouwer studied both healthy adults and patients 
 with multiple sclerosis (MS). In MS, the nervous system is damaged, w
 hich can also affect the cerebellum. By comparing the two groups, it 
 became clear how disease processes influence the cerebellum.<strong>N
 ew methods for future brain research</strong><br>In addition to new i
 nsights into the cerebellum itself, Brouwer also demonstrates how 7T 
 MRI can be optimally used to study small cerebellar structures. This 
 methodological knowledge is valuable for other researchers around the
  world. These techniques can help enable more targeted research into 
 brain diseases in the future.<strong>From fundamental knowledge to be
 tter care</strong><br>Although Brouwer’s research is fundamental in
  nature, its implications are broader. Because the cerebellum is invo
 lved in many neurological disorders, a better understanding of it can
 , in the long term, contribute to improved diagnosis and treatment. H
 er work underscores how advanced technology and fundamental research 
 together open new doors in neuroscience.More information on the <a hr
 ef="https://hdl.handle.net/1871.1/eaa58d88-5e84-4960-a4bb-745a4f01cd0
 2" data-new-window="true" target="_blank" rel="noopener noreferrer">t
 hesis</a>
END:VEVENT
END:VCALENDAR
