Konrad P. Kording
Dr. Kording's research has one single focus, data that matters. Early research in the lab focused on computational neuroscience and in particular movement. But as the approaches matured, the focus has more been on discovering ways in which new data sources as well as emerging data analysis can enable awesome possibilities. The current focus is on Causality in Data science applications - how do we know how things work if we can not randomize? Our style of working is transdisciplinary, we collaborate on virtually every project.
Over time the lab has made an impact across many fields including:
- Statistics of the real world: Discovered how many aspects of early sensory brain areas optimize sparseness and stability (example)
- Bayesian brains: Shown that many behaviors under uncertainty are close to the ideal statistical processing (review)
- Causal inference in human behavior: Demonstrated how the brain understand cause and effect for perception and action (paper)
- Dynamics of human memory: Shown that many ways of forgetting are actually optimal ( paper)
- Stevenson's law: Described that the number of simultaneously recorded neurons grows exponentially with a timescale of 6 years (paper)
- Uncertainty in the brain: Extensively asked how the brain represents what it does not know (paper)
- Predicting professor careers: Introduced data driven multifaceted career predictions (paper)
- Physics for massive brain recording: Calculated what is necessary to record from all neurons in the brain (paper)
- DNA ticker tapes: Proposed that cells could write a temporal history of their activity onto DNA (paper))
- Mood and Behavior understanding: Shown how mobile phone data can provide insight into everyday behavior (paper)
- Neural cryptography: Developed brain decoders that need no training data (paper)
- Large scale xray tomography: Spearheaded approach to image large brain areas and segment cells/blood vessels (paper)
- Deep learning and brains: Outlined a path to link those two areas (paper)
- How to write papers: Our writing guide is used by hundreds of thousands of people (paper), at >10k tweets possibly the most tweeted about paper across science.
2017 UPennKonrad starts as PIK (Penn Integrates Knowledge) professor at UPenn.
2015NeurotechnologyTwo new U01s from the NIH: xray tomography of brains, and massive scale electrical recordings. Emphasizing the lab's emerging focus on new neurotechnologies.
2015Full ProfessorPromotion to professor. Years of work. And a loss of a word in the title.
2015Automatic AnatomyNew paper in elife shows how connectivity and many other aspects of neurons can be combined to identify cell types. [link] Major future interest for lab.
2015New big data sourcesIn collaboration with Argonne national lab and with the group of Andreas Schaefer, Konrad is proposing new ways of generating huge amounts of data.
2014RIC CI chairRIC produces a new title for Konrad with a helpful new funding stream.
2013 DNA recording of neural activityWith a new transformative grant by the NIH aimed at recording all activities in the brain onto DNA there is a new focus on high risk high reward projects.
2010TenureCelebrating a great time at Northwestern.
2009 An NIH funded grantThe project "Role of uncertainty for motor learning and adaptation" gets funded by the NINDS.
2006Assistant professor and Northwestern University and the Rehabilitation Institute of ChicagoMostly focusing on computational motor control and its use for rehabilitation. Can not suppress the interest in neural data too long.
2004-2006 Postdoc in computational cognitive scienceNormative models for behavior and topics models for text processing. Extensive learning about statistics.
2002-2004Postdoc in computational motor ControlNormative models of motor control. And extensive experimental tests of these ideas. With Daniel Wolpert at UCL London. Learning statistics and machine learning from Peter Dayan, Maneesh Sahani and others at Gatsby.
2001 PhD in PhysicsThe doctoral thesis focused on simulating groups of neurons, and on calculating how their properties could be optimally matched to the statistical properties of the world.
Rm 106, Hayden Hall
240 S 33rd St, Philadelphia, PA 19104
Bioengineering and Neuroscience at UPenn
tel.: 857 928 5370