BEGIN:VCALENDAR
VERSION:2.0
PRODID:-//TYPO3/NONSGML News system (news)//EN
BEGIN:VEVENT
UID:news-37321@phys.au.dk
DTSTAMP:20210929T105652Z
DTSTART:20171116T131500Z
DTEND:20171116T140000Z
END:VEVENT
END:VCALENDAR




<div class="news news-single">
	<div class="article" itemscope="itemscope" itemtype="http://schema.org/Article">
		
	
			<script type="text/javascript">
				const showAllContentLangToken = "Show all content ";
			</script>

			
			

			<article class="typo3-delphinus delphinus-gutters">

				<!-- News PID: 83035 - used for finding folder/page which contains the news / event -->
				<!-- News UID: 37321 - the ID of the current news / event-->

				<div class="news-event">
					<div class="news-event__header">
						<!-- Categories -->
						
							<span class="text--stamp">
<!-- categories -->
<span class="news-list-category">
	
		
	
		
	
		
	
		
	
</span>

</span>
						

						<!-- Title -->
						<h1 itemprop="headline">Student Colloquium - Mogens Dalgaard: Reinforcement learning: How machines may intelligently solve our quantum problems</h1>
						
					</div>

					

					<div class="news-event__content">

						<!-- Events info box -->
						
								

								<div class="news-event__info theme--dark" id="event-info">
									<h2 class="screenreader-only">Info about event</h2>

									
											<!--- Same date -->
											<div class="news-event__info__item news-event__info__item--time">
												<h3 class="news-event__info__item__header text--label-header">Time</h3>
												<div class="news-event__info__item__content">
													<span class="u-avoid-wrap">
														Thursday 16  November 2017,
													</span>
													<span class="u-avoid-wrap">
														&nbsp;at 14:15 -  15:00
													</span>
													<p class="news-event__info__item__ical-link"><a href="/en/news/item/artikel/student-colloquium-mogens-dalgaard-reinforcement-learning-how-machines-may-intelligently-solve-o?tx_news_pi1%5Bformat%5D=ical&amp;type=9819&amp;cHash=c4b0a2df6740e9b7d2bcaab59a5befd1">Add to calendar</a></p>
												</div>
											</div>
										

									<!-- Location detailed -->
									
											<!-- Location Simple -->
											
										

									<!-- Organizer detailed -->
									
											<!-- Organizer Simple -->
											
										

									<!-- Price -->
									

									<!-- Event link -->
									

									<!-- Registration -->
									
								</div>
							

						
							<!-- Media -->
							
								

	
	

	

	
		
					
		
		

		<figure class="news-event__image image" id="first-side-image">
			
					
	
			
                    
                    

					<a href="/fileadmin/_processed_/1/7/csm_Mogens_Dalgaard_e9c8798c10.png" title="" class="lightbox" rel="lightbox[myImageSet]">
                        <img itemprop="image" src="/fileadmin/news_import/Mogens_Dalgaard.png" width="794" height="1123" alt="" />
                    </a>
                    <figcaption>
                        
                         
                   </figcaption>
				
		


			

			

			

			
		</figure>
 	
			
	



							
						

						
							<div class="news-event__content__text">
								<span class="text--byline" id="byline">
									

									<!-- Author -->
									
										<span itemprop="author" itemscope="itemscope" itemtype="http://schema.org/Person">
											
													By
												

											
													<a href="mailto:flarup@phys.au.dk">
														<span itemprop="name">Grete Flarup</span>
													</a>
												
										</span>
									
								</span>

								

									<!-- Body text -->
									<p>Within recent years Machine Learning have been successfully used to solve a wide range of problems in physics. From training Neural Networks to find many-body particle wave functions to controlling large experiments such as creation of Bose-Einstein condensates or even a fusion reactor.&nbsp; In this colloquium the subfield Reinforcement Learning is presented and used to solve a quantum state preparation problem.&nbsp; Reinforcement Learning is computer learning based solely on gained experience. The computer is able to learn without having any prior knowledge of the problem at hand. This makes it suitable for solving quantum control problems where the underlying dynamics may not be intuitive or the optimal solution difficult to find. The algorithm used, a version of Watkins’ Q-learning algorithm, is tested on a two-level quantum system whose dynamics is governed by a bang-bang Hamiltonian. The algorithm successfully outperforms other numerical methods. </p>
								
							</div>
						
					</div>

					
						<!-- Content elements -->
						
					
				</div>
			</article>

			
				
				
			

			<!-- related things -->
			
		

	</div>
</div>
