We consider a fair division setting in which items arrive one by one and are allocated to agents via two existing mechanisms: LIKE and BALANCED LIKE. The LIKE mechanism is strategy-proof whereas the BALANCED LIKE mechanism is not. Whilst LIKE is strategy-proof, we show that it is not group strategy-proof. Indeed, our first main result is that no online mechanism is group strategyproof. We then focus on pure Nash equilibria of these two mechanisms. Our second main result is that computing a pure Nash equilibrium is tractable for LIKE and intractable for BALANCED LIKE. Our third main result is that there could be multiple such profiles and counting them is also intractable even when we restrict our attention to equilibria with a specific prop...
We investigate the pure-strategy Nash equilibria of asymmetric, winner-take-all, imperfectly discrim...
We consider the problem of fairly dividing a collection of indivisible goods among a set of players....
Classic cake cutting protocols — which fairly allocate a divisible good among agents with heterogene...
We consider fair division problems where indivisible items arrive one by one in an online fashion an...
We study a new but simple model for online fair division in which indivisible items arrive one-by-on...
We consider the problem of allocating a finite number of divisible homogeneous goods to N ≥ 2 indiv...
We consider the problem of fairly allocating a set of indivisible goods to a set of strategic agents...
International audienceIn this article, we study the problem of Nash implementation in private good e...
We study the paradigmatic fair division problem of fairly allocating a divisible good among agents w...
Strategic games may exhibit symmetries in a variety of ways. A common aspect, enabling the compact r...
This paper combines two key ingredients for online algorithms - competitive analysis (e.g. the compe...
We study the existence of pure Nash equilibrium (PNE) for the mechanisms used in Internet services (...
(Offline) Fair Division is a fundamental problem in which a number of resources are allocated to a n...
International audienceWe deal with the problem of providing incentives for the implementation of com...
International audienceIn this paper we explore the problem of Nash implementation providing two new ...
We investigate the pure-strategy Nash equilibria of asymmetric, winner-take-all, imperfectly discrim...
We consider the problem of fairly dividing a collection of indivisible goods among a set of players....
Classic cake cutting protocols — which fairly allocate a divisible good among agents with heterogene...
We consider fair division problems where indivisible items arrive one by one in an online fashion an...
We study a new but simple model for online fair division in which indivisible items arrive one-by-on...
We consider the problem of allocating a finite number of divisible homogeneous goods to N ≥ 2 indiv...
We consider the problem of fairly allocating a set of indivisible goods to a set of strategic agents...
International audienceIn this article, we study the problem of Nash implementation in private good e...
We study the paradigmatic fair division problem of fairly allocating a divisible good among agents w...
Strategic games may exhibit symmetries in a variety of ways. A common aspect, enabling the compact r...
This paper combines two key ingredients for online algorithms - competitive analysis (e.g. the compe...
We study the existence of pure Nash equilibrium (PNE) for the mechanisms used in Internet services (...
(Offline) Fair Division is a fundamental problem in which a number of resources are allocated to a n...
International audienceWe deal with the problem of providing incentives for the implementation of com...
International audienceIn this paper we explore the problem of Nash implementation providing two new ...
We investigate the pure-strategy Nash equilibria of asymmetric, winner-take-all, imperfectly discrim...
We consider the problem of fairly dividing a collection of indivisible goods among a set of players....
Classic cake cutting protocols — which fairly allocate a divisible good among agents with heterogene...