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Services d'informatique quantique/en: Difference between revisions
Services d'informatique quantique/en (view source)
Revision as of 19:54, 30 September 2024
, 1 month agoCreated page with "== Applications == Optimization of complex problems is one of the most promising areas for quantum computing in several research areas: * Machine learning: quantum computing can reduce training and processing times; * Finance: quantum computing can speed up portfolio risk assessment and fraud detection; * Molecular modeling: quantum computing can simulate more complex chemical systems and simulate reactions in real time; * Meteorology: quantum computing can increase the..."
(Created page with "<b>What is quantum computing?</b> A quantum computer takes advantage of the characteristics of quantum particles (<i>qubits</i>), including superposition of states, constructive and destructive interference, and entanglement. With these properties, a new computational paradigm is in place and promises greater parallelization for solving complex problems that cannot be managed by classical computing systems.") |
(Created page with "== Applications == Optimization of complex problems is one of the most promising areas for quantum computing in several research areas: * Machine learning: quantum computing can reduce training and processing times; * Finance: quantum computing can speed up portfolio risk assessment and fraud detection; * Molecular modeling: quantum computing can simulate more complex chemical systems and simulate reactions in real time; * Meteorology: quantum computing can increase the...") |
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<b>What is quantum computing?</b> A quantum computer takes advantage of the characteristics of quantum particles (<i>qubits</i>), including superposition of states, constructive and destructive interference, and entanglement. With these properties, a new computational paradigm is in place and promises greater parallelization for solving complex problems that cannot be managed by classical computing systems. | <b>What is quantum computing?</b> A quantum computer takes advantage of the characteristics of quantum particles (<i>qubits</i>), including superposition of states, constructive and destructive interference, and entanglement. With these properties, a new computational paradigm is in place and promises greater parallelization for solving complex problems that cannot be managed by classical computing systems. | ||
== Applications == | == Applications == | ||
Optimization of complex problems is one of the most promising areas for quantum computing in several research areas: | |||
* | * Machine learning: quantum computing can reduce training and processing times; | ||
* | * Finance: quantum computing can speed up portfolio risk assessment and fraud detection; | ||
* | * Molecular modeling: quantum computing can simulate more complex chemical systems and simulate reactions in real time; | ||
* | * Meteorology: quantum computing can increase the number of variables for weather forecasting; | ||
* | * Logistics: quantum computing can optimize logistics and workflow planning associated with supply chain management. | ||
<div lang="fr" dir="ltr" class="mw-content-ltr"> | <div lang="fr" dir="ltr" class="mw-content-ltr"> | ||