Repository logo
  • English
  • Català
  • Čeština
  • Deutsch
  • Español
  • Français
  • Gàidhlig
  • Italiano
  • Latviešu
  • Magyar
  • Nederlands
  • Polski
  • Português
  • Português do Brasil
  • Srpski (lat)
  • Suomi
  • Svenska
  • Türkçe
  • Tiếng Việt
  • Қазақ
  • বাংলা
  • हिंदी
  • Ελληνικά
  • Српски
  • Yкраї́нська
  • Log In
    New user? Click here to register. Have you forgotten your password?
Repository logo
  • Communities & Collections
  • All of DSpace
  • English
  • Català
  • Čeština
  • Deutsch
  • Español
  • Français
  • Gàidhlig
  • Italiano
  • Latviešu
  • Magyar
  • Nederlands
  • Polski
  • Português
  • Português do Brasil
  • Srpski (lat)
  • Suomi
  • Svenska
  • Türkçe
  • Tiếng Việt
  • Қазақ
  • বাংলা
  • हिंदी
  • Ελληνικά
  • Српски
  • Yкраї́нська
  • Log In
    New user? Click here to register. Have you forgotten your password?
  1. Home
  2. Browse by Author

Browsing by Author "De Mendoza, Adriana"

Now showing 1 - 1 of 1
Results Per Page
Sort Options
  • No Thumbnail Available
    Publication
    Simulación clásica de computación cuántica para el cálculo del valor propio de un operador hermítico
    (2009-10) De Mendoza, Adriana; Reina Estupiñán, John Henry
    Clasicaly, the computational time required to calculate the energy of quantum systems escales exponentially with size, however, this calculation can be made in polinomial time using a recursive quantum algorithm termed phase estimation algorithm (PEA). This reduces the number of qubist required to read out a register from twenty to four approximately. The wave function for the molecular system is mapped out into the qubits basis such that the required number of qubits grows linearly with the number of basis functions, and the number of gates needed escales polynomially with the number of qubits. This work shows how the algorithm calculates the eigenvalue of an Hermitic operator, typically the ground state energy of an open quantum system, given the interaction with quantum noise sources. This is developed by modeling the sources of dissipation within the algoritm and realizing quantum error correction by means of Shor�s algorithm

DSpace software copyright © 2002-2025 LYRASIS

  • Cookie settings
  • Privacy policy
  • End User Agreement
  • Send Feedback