We count the number of lattice paths lying under a cyclically shifting piecewise linear boundary of varying slope. Our main result can be viewed as an extension of well-known enumerative formulae concerning lattice paths dominated by lines of integer slope (e.g. the generalized ballot theorem). Its proof is bijective, involving a classical “reflection” argument. Moreover, a straightforward refinement of our bijection allows for the counting of paths with a specified number of corners. We also show how the result can be applied to give elegant derivations for the number of lattice walks under certain periodic boundaries. In particular, we recover known expressions concerning paths dominated by a line of half-integer slope, and some new and o...
AbstractThere is a strikingly simple classical formula for the number of lattice paths avoiding the ...
AbstractWe count lattice paths that are confined to the first quadrant by the nature of their step v...
AbstractWe provide a direct geometric bijection for the number of lattice paths that never go below ...
AbstractWe count the number of lattice paths lying under a cyclically shifting piecewise linear boun...
AbstractWe count the number of lattice paths lying under a cyclically shifting piecewise linear boun...
ABSTRACT. We count the number of lattice paths lying under a cyclically shifting piece-wise linear b...
AbstractThere is a strikingly simple classical formula for the number of lattice paths avoiding the ...
AbstractThis paper develops a unified enumerative and asymptotic theory of directed two-dimensional ...
International audienceWe analyze some enumerative and asymptotic properties of Dyck paths under a li...
We solve two problems regarding the enumeration of lattice paths in \(\mathbb{Z}^2\) with steps \((1...
We solve two problems regarding the enumeration of lattice paths in \(\mathbb{Z}^2\) with steps \((1...
We give bijective proofs that, when combined with one of the combinatorial proofs of the general bal...
We give bijective proofs that, when combined with one of the combinatorial proofs of the general bal...
We give bijective proofs that, when combined with one of the combinatorial proofs of the general bal...
AbstractThis note generalizes André's reflection principle to give a new combinatorial proof of a fo...
AbstractThere is a strikingly simple classical formula for the number of lattice paths avoiding the ...
AbstractWe count lattice paths that are confined to the first quadrant by the nature of their step v...
AbstractWe provide a direct geometric bijection for the number of lattice paths that never go below ...
AbstractWe count the number of lattice paths lying under a cyclically shifting piecewise linear boun...
AbstractWe count the number of lattice paths lying under a cyclically shifting piecewise linear boun...
ABSTRACT. We count the number of lattice paths lying under a cyclically shifting piece-wise linear b...
AbstractThere is a strikingly simple classical formula for the number of lattice paths avoiding the ...
AbstractThis paper develops a unified enumerative and asymptotic theory of directed two-dimensional ...
International audienceWe analyze some enumerative and asymptotic properties of Dyck paths under a li...
We solve two problems regarding the enumeration of lattice paths in \(\mathbb{Z}^2\) with steps \((1...
We solve two problems regarding the enumeration of lattice paths in \(\mathbb{Z}^2\) with steps \((1...
We give bijective proofs that, when combined with one of the combinatorial proofs of the general bal...
We give bijective proofs that, when combined with one of the combinatorial proofs of the general bal...
We give bijective proofs that, when combined with one of the combinatorial proofs of the general bal...
AbstractThis note generalizes André's reflection principle to give a new combinatorial proof of a fo...
AbstractThere is a strikingly simple classical formula for the number of lattice paths avoiding the ...
AbstractWe count lattice paths that are confined to the first quadrant by the nature of their step v...
AbstractWe provide a direct geometric bijection for the number of lattice paths that never go below ...