Truncation and Duality Results for Hopf Image Algebras
Bulletin of the Polish Academy of Sciences. Mathematics (2014)
- Volume: 62, Issue: 2, page 161-179
- ISSN: 0239-7269
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topTeodor Banica. "Truncation and Duality Results for Hopf Image Algebras." Bulletin of the Polish Academy of Sciences. Mathematics 62.2 (2014): 161-179. <http://eudml.org/doc/281262>.
@article{TeodorBanica2014,
	abstract = {Associated to an Hadamard matrix $H ∈ M_N(ℂ)$ is the spectral measure μ ∈ [0,N] of the corresponding Hopf image algebra, A = C(G) with $G ⊂ S⁺_N$. We study a certain family of discrete measures $μ^r ∈ [0,N]$, coming from the idempotent state theory of G, which converge in Cesàro limit to μ. Our main result is a duality formula of type $∫_0^N (x/N)^p dμ^r(x) = ∫_0^N (x/N)^r dν^p(x)$, where $μ^r,ν^r$ are the truncations of the spectral measures μ,ν associated to $H,H^t$. We also prove, using these truncations $μ^r,ν^r$, that for any deformed Fourier matrix $H=F_M ⊗_Q F_N$ we have μ = ν.},
	author = {Teodor Banica},
	journal = {Bulletin of the Polish Academy of Sciences. Mathematics},
	keywords = {quantum permutation; Hadamard matrix},
	language = {eng},
	number = {2},
	pages = {161-179},
	title = {Truncation and Duality Results for Hopf Image Algebras},
	url = {http://eudml.org/doc/281262},
	volume = {62},
	year = {2014},
}
TY  - JOUR
AU  - Teodor Banica
TI  - Truncation and Duality Results for Hopf Image Algebras
JO  - Bulletin of the Polish Academy of Sciences. Mathematics
PY  - 2014
VL  - 62
IS  - 2
SP  - 161
EP  - 179
AB  - Associated to an Hadamard matrix $H ∈ M_N(ℂ)$ is the spectral measure μ ∈ [0,N] of the corresponding Hopf image algebra, A = C(G) with $G ⊂ S⁺_N$. We study a certain family of discrete measures $μ^r ∈ [0,N]$, coming from the idempotent state theory of G, which converge in Cesàro limit to μ. Our main result is a duality formula of type $∫_0^N (x/N)^p dμ^r(x) = ∫_0^N (x/N)^r dν^p(x)$, where $μ^r,ν^r$ are the truncations of the spectral measures μ,ν associated to $H,H^t$. We also prove, using these truncations $μ^r,ν^r$, that for any deformed Fourier matrix $H=F_M ⊗_Q F_N$ we have μ = ν.
LA  - eng
KW  - quantum permutation; Hadamard matrix
UR  - http://eudml.org/doc/281262
ER  - 
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