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Quantum Sensors Patent Application Trends 2025: Difference between revisions

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Updating Quantum Sensors Patent Application Trends 2025
 
Updating Quantum Sensors Patent Application Trends 2025
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** Count: 1 patents
** Count: 1 patents
** Example: [[20250040449. Superconducting device (Teknologian tutkimuskeskus VTT Oy)]]
** Example: [[20250040449. Superconducting device (Teknologian tutkimuskeskus VTT Oy)]]
* [[:Category:CPC_G01R33/3607|G01R33/3607]] (MEASURING ELECTRIC VARIABLES; MEASURING MAGNETIC VARIABLES  (indicating correct tuning of resonant circuits)
* [[:Category:CPC_G01R33/3607|G01R33/3607]] (No explanation available)
** Count: 1 patents
** Count: 1 patents
** Example: [[20250004076. NUCLEAR MAGNETIC RESONANCE SENSING DEVICE AND NUCLEAR MAGNETIC RESONANCE SENSING METHOD (SUMIDA CORPORATION)]]
** Example: [[20250004076. NUCLEAR MAGNETIC RESONANCE SENSING DEVICE AND NUCLEAR MAGNETIC RESONANCE SENSING METHOD (SUMIDA CORPORATION)]]
* [[:Category:CPC_G01R33/3621|G01R33/3621]] (MEASURING ELECTRIC VARIABLES; MEASURING MAGNETIC VARIABLES  (indicating correct tuning of resonant circuits)
* [[:Category:CPC_G01R33/3621|G01R33/3621]] (No explanation available)
** Count: 1 patents
** Count: 1 patents
** Example: [[20250004076. NUCLEAR MAGNETIC RESONANCE SENSING DEVICE AND NUCLEAR MAGNETIC RESONANCE SENSING METHOD (SUMIDA CORPORATION)]]
** Example: [[20250004076. NUCLEAR MAGNETIC RESONANCE SENSING DEVICE AND NUCLEAR MAGNETIC RESONANCE SENSING METHOD (SUMIDA CORPORATION)]]
* [[:Category:CPC_G06N5/04|G06N5/04]] (Inference or reasoning models)
* [[:Category:CPC_G06N5/04|G06N5/04]] (No explanation available)
** Count: 1 patents
** Count: 1 patents
** Example: [[20250013889. Hybrid Quantum-Classical Computer for Bayesian Inference with Engineered Likelihood Functions for Robust Amplitude Estimation (Zapata Computing, Inc.)]]
** Example: [[20250013889. Hybrid Quantum-Classical Computer for Bayesian Inference with Engineered Likelihood Functions for Robust Amplitude Estimation (Zapata Computing, Inc.)]]
* [[:Category:CPC_G06N10/00|G06N10/00]] (Quantum computing, i.e. information processing based on quantum-mechanical phenomena)
* [[:Category:CPC_G06N10/00|G06N10/00]] (No explanation available)
** Count: 1 patents
** Count: 1 patents
** Example: [[20250013889. Hybrid Quantum-Classical Computer for Bayesian Inference with Engineered Likelihood Functions for Robust Amplitude Estimation (Zapata Computing, Inc.)]]
** Example: [[20250013889. Hybrid Quantum-Classical Computer for Bayesian Inference with Engineered Likelihood Functions for Robust Amplitude Estimation (Zapata Computing, Inc.)]]
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* Number of Quantum Sensors patents: 1
* Number of Quantum Sensors patents: 1
* Top CPC codes:
* Top CPC codes:
** [[:Category:CPC_G01R33/3607|G01R33/3607]] (MEASURING ELECTRIC VARIABLES; MEASURING MAGNETIC VARIABLES  (indicating correct tuning of resonant circuits): 1 patents
** [[:Category:CPC_G01R33/3607|G01R33/3607]] (No explanation available): 1 patents
** [[:Category:CPC_G01R33/3621|G01R33/3621]] (MEASURING ELECTRIC VARIABLES; MEASURING MAGNETIC VARIABLES  (indicating correct tuning of resonant circuits): 1 patents
** [[:Category:CPC_G01R33/3621|G01R33/3621]] (No explanation available): 1 patents
* Recent patents:
* Recent patents:
** [[20250004076. NUCLEAR MAGNETIC RESONANCE SENSING DEVICE AND NUCLEAR MAGNETIC RESONANCE SENSING METHOD (SUMIDA CORPORATION)]] (20250102)
** [[20250004076. NUCLEAR MAGNETIC RESONANCE SENSING DEVICE AND NUCLEAR MAGNETIC RESONANCE SENSING METHOD (SUMIDA CORPORATION)]] (20250102)
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* Number of Quantum Sensors patents: 1
* Number of Quantum Sensors patents: 1
* Top CPC codes:
* Top CPC codes:
** [[:Category:CPC_G06N5/04|G06N5/04]] (Inference or reasoning models): 1 patents
** [[:Category:CPC_G06N5/04|G06N5/04]] (No explanation available): 1 patents
** [[:Category:CPC_G06N10/00|G06N10/00]] (Quantum computing, i.e. information processing based on quantum-mechanical phenomena): 1 patents
** [[:Category:CPC_G06N10/00|G06N10/00]] (No explanation available): 1 patents
* Recent patents:
* Recent patents:
** [[20250013889. Hybrid Quantum-Classical Computer for Bayesian Inference with Engineered Likelihood Functions for Robust Amplitude Estimation (Zapata Computing, Inc.)]] (20250109)
** [[20250013889. Hybrid Quantum-Classical Computer for Bayesian Inference with Engineered Likelihood Functions for Robust Amplitude Estimation (Zapata Computing, Inc.)]] (20250109)
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[[File:Emerging_Technology_Areas_in_Quantum_Sensors.png|border|800px]]
[[File:Emerging_Technology_Areas_in_Quantum_Sensors.png|border|800px]]


* [[:Category:CPC_G06N10/00|G06N10/00]] (Quantum computing, i.e. information processing based on quantum-mechanical phenomena)
* [[:Category:CPC_G06N10/00|G06N10/00]] (No explanation available)
** Count: 1 patents
** Count: 1 patents
** Example: [[20250013889. Hybrid Quantum-Classical Computer for Bayesian Inference with Engineered Likelihood Functions for Robust Amplitude Estimation (Zapata Computing, Inc.)]]
** Example: [[20250013889. Hybrid Quantum-Classical Computer for Bayesian Inference with Engineered Likelihood Functions for Robust Amplitude Estimation (Zapata Computing, Inc.)]]
* [[:Category:CPC_G06N5/04|G06N5/04]] (Inference or reasoning models)
* [[:Category:CPC_G06N5/04|G06N5/04]] (No explanation available)
** Count: 1 patents
** Count: 1 patents
** Example: [[20250013889. Hybrid Quantum-Classical Computer for Bayesian Inference with Engineered Likelihood Functions for Robust Amplitude Estimation (Zapata Computing, Inc.)]]
** Example: [[20250013889. Hybrid Quantum-Classical Computer for Bayesian Inference with Engineered Likelihood Functions for Robust Amplitude Estimation (Zapata Computing, Inc.)]]
* [[:Category:CPC_G01R33/3621|G01R33/3621]] (MEASURING ELECTRIC VARIABLES; MEASURING MAGNETIC VARIABLES  (indicating correct tuning of resonant circuits)
* [[:Category:CPC_G01R33/3621|G01R33/3621]] (No explanation available)
** Count: 1 patents
** Count: 1 patents
** Example: [[20250004076. NUCLEAR MAGNETIC RESONANCE SENSING DEVICE AND NUCLEAR MAGNETIC RESONANCE SENSING METHOD (SUMIDA CORPORATION)]]
** Example: [[20250004076. NUCLEAR MAGNETIC RESONANCE SENSING DEVICE AND NUCLEAR MAGNETIC RESONANCE SENSING METHOD (SUMIDA CORPORATION)]]
* [[:Category:CPC_G01R33/3607|G01R33/3607]] (MEASURING ELECTRIC VARIABLES; MEASURING MAGNETIC VARIABLES  (indicating correct tuning of resonant circuits)
* [[:Category:CPC_G01R33/3607|G01R33/3607]] (No explanation available)
** Count: 1 patents
** Count: 1 patents
** Example: [[20250004076. NUCLEAR MAGNETIC RESONANCE SENSING DEVICE AND NUCLEAR MAGNETIC RESONANCE SENSING METHOD (SUMIDA CORPORATION)]]
** Example: [[20250004076. NUCLEAR MAGNETIC RESONANCE SENSING DEVICE AND NUCLEAR MAGNETIC RESONANCE SENSING METHOD (SUMIDA CORPORATION)]]

Revision as of 06:04, 13 March 2025

Quantum Sensors Patent Application Filing Activity

Quantum Sensors patent applications in 2025

Top Technology Areas in Quantum Sensors

Top CPC Codes

Top Companies in Quantum Sensors 2025

File:Top Companies in Quantum Sensors.png

Teknologian tutkimuskeskus VTT Oy

SUMIDA CORPORATION

Zapata Computing, Inc.

New Companies in Quantum Sensors (Last Month)

File:New Companies in Quantum Sensors Last Month.png

No new companies detected in the last month.

Emerging Technology Areas in Quantum Sensors

Top Companies in Emerging Quantum Sensors Technologies 2025

Top Inventors in Quantum Sensors

Janne Lehtinen

Joonas Govenius

Jukka-Pekka Kaikkonen

Izuru OHKI

Norikazu MIZUOCHI

Yoshiharu YOSHII

Tsunaki KANEKO

Akifumi SAKO

Guoming WANG

Enshan Dax KOH of Cambridge MA (US)

Peter D. JOHNSON of Somerville MA (US)

Yudong CAO of Cambridge MA (US)

Pierre-Luc DALLAIRE-DEMERS

Top Collaborations in Quantum Sensors

Top US States for Quantum Sensors Inventors


Top Cities for Quantum Sensors Inventors

  • Espoo: 3 inventors
  • Miyagi: 3 inventors
  • Kyoto: 2 inventors
  • Cambridge: 2 inventors
  • North York: 1 inventors
  • Somerville: 1 inventors
  • Toronto: 1 inventors
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