Clearing algorithms for barter exchange markets: enabling nationwide kidney exchanges
By David J. Abraham, Avrim Blum, Tuomas Sandholm. 2007
375 citations recorded by the source corpus.
Subfields: Artificial Intelligence, Management Science and Operations Research, Public Health, Environmental and Occupational Health
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Artificial Intelligence
- Maurice Herlihy
- M. Utku Ünver
- Jeannette M. Wing
- George L. Nemhauser
- Vincent Conitzer
- Tayfun Sönmez
- Bistra N. Dilkina
- Shabbir Ahmed
In Management Science and Operations Research
- David F. Manlove
- M. Utku Ünver
- Tayfun Sönmez
- Felix Brandt
- Ariel D. Procaccia
- George L. Nemhauser
- Vincent Conitzer
- Bistra N. Dilkina
In Public Health, Environmental and Occupational Health
Citations in the corpus
- Learning to Run Heuristics in Tree Search (2017, background): “…Programming (MIP) have thus spanned domains as diverse as aircraft routing [Barnhart et al., 1998], wildlife conservation [Dilkina and Gomes, 2010], sports scheduling [Nemhauser and Trick, 1998], dose distribution [Lee et al., 1999] and kidney exchange [Abraham et al., 2007], to mention a few.”
- Computational thinking and thinking about computing (2008, background): “Computational thinking is transforming economics, spawning a new field of computational microeconomics, with applications such as advertisement placement, online auctions, reputation services and even finding optimal donors for n -way kidney exchange (Abraham et al .”
- Matching, Allocation, and Exchange of Discrete Resources (2009, positive): “In the computer science literature, Abraham, Blum, and Sandholm (2007) introduced an integer programming algorithm that can compute the maximal multi-way exchanges with size-limit in a fast fashion exploiting the special structure of the multi-way kidney exchange problem.”
- Atomic Cross-Chain Swaps (2018, background): “ps arise when matching kidney donors and recipients. A transplant recipient with an incompatible donor can swap donors to ensure that each recipient obtains a compatible organ. A number of algorithms [1, 8, 11] have been proposed for matching donors and recipients. Shapley and Scarf [19] consider th”
- Algorithmics of Matching Under Preferences (2013, background): “These include problems involving identifying optimal sets of kidney “exchanges” (in such an exchange, a patient with a willing but incompatible donor can “swap” her donor with that of another patient in a similar position) where edge weights are derived from cardinal utilities [511, 512, 17, 513, 42”
- Handbook of Computational Social Choice (2016, methodology): “It involves a reduction from the NP-hard satisfiability problem for propositional logic to our manipulation problem.”