#QuantumSensors

[govindhtech]

Advances In Quantum Metrology With Bosonic Noisy Systems 

Advances in Quantum Metrology

A recent study reveals how to optimise time and energy to make ultra-precise measurements in the presence of quantum noise in quantum sensors. This groundbreaking study provides a “blueprint for designing efficient quantum sensors under realistic conditions” that shows when advanced quantum resources are valuable and when basic conventional instruments are sufficient.

Quantum Metrology: Promise and Challenge

Quantum metrology accelerates technology by measuring precisely via entanglement and superposition. Quantum technologies could revolutionize sensing and measuring, but practical issues remain. Because  quantum computing, is noisy, time and energy constraints often limit its performance. Using unlimited resources to attain infinite precision in finite time for infinite-dimensional probes like a bosonic mode is unphysical. Because of this, the probe's average energy use must be limited.

“How should it optimally allocate time and energy to measure physical parameters as accurately as possible in noisy quantum systems?” is the study's main question. The paper analyses a well-known model: a single light mode (the “bosonic mode”) interacting with a temperature environment. Experimental platforms like optical cavities and superconducting circuits benefit from this design.

Timing and Energy in Resource Allocation

Time and average energy (photons) are crucial to researchers. In noise, they identified a “nontrivial interplay between the average energy and the time devoted to the estimation”. Heisenberg scaling, which scales precision quadratically with time and energy in noiseless settings, rarely holds in noisy situations. Quantum advantage often decreases to a constant factor dependent on noise type and degree.

This study emphasises the importance of considering time as a resource, which theoretical frameworks often overlook. For noisy systems, where the quadratic scaling of precision with time is usually lost for long durations, it is generally more effective to split the whole available time into ideal shorter measurement windows and repeat the experiment. This technique requires balancing quantum entanglement's benefits with a longer evolution period.

When Quantum Resources Are Brilliant

The work analysed parameter estimates for several parameter types to develop basic measurement precision constraints that apply to all quantum techniques, independent of complexity. It also found suitable protocols for these purposes, often without complex adaptive systems or external ancillae.

Estimating different parameters yields significant differences:

Hamiltonian Parameters for Frequency and Displacement Estimation:

The study found that “simple strategies using classical light and basic measurements are surprisingly nearly optimal, especially when the total sensing time is sufficiently long” for frequency or displacement.

Coherent states and continuous cavity output measurement can approximate frequency over long periods of time almost to the theoretical limits. Nonclassical light is only useful when probing time is very limited. This shows that coherent light continuous photodetection is best if the measurement period is much longer than the system's relaxation time.

The average photon count does not affect displacement estimation precision. Again, choose an ideal repeat duration to get near-optimal performance without squeezing.

Estimating Temperature and Loss Rate for Noise:

However, “nonclassical states of light (like Fock states or two-mode squeezed states) become essential to achieve a genuine quantum advantage” when forecasting noise-related parameters like temperature or loss rate. These parameters' optimal iteration time may be infinitely short, and Quantum Fisher Information (QFI) rises exponentially with time.

At low temperatures, coherent light can estimate loss rate well, but at high temperatures, it fails. This paper shows that a squeezed vacuum state and parity measurement can efficiently saturated the accuracy bound for this assignment. This method is useful because parity measurement can be a quantum non-demolition measurement.

For temperature estimate, coherent states are no better than vacuums. Therefore, a nonclassical light state is needed for good temperature scaling. The study found that a “fast-prepare-and-measure protocol using Fock states provides better scaling with the number of photons than any classical strategy,” saturating fundamental precision constraints and considerably improving precision. A two-mode squeezed vacuum input state with a noiseless ancilla can saturate the bound, while a single-mode squeezed state cannot.

Squeezing Estimate:

No classical analogue exists for this parameter. The study proposes a novel method using cat-state-based bosonic error-correction codes. This improved approach achieves quadratic precision scaling with the average number of photons. This has a major advantage over other estimating kinds, where scaling is constrained.

Future Quantum Technology Implications

Researchers and engineers working on quantum sensors can use the findings as a guide. Outlining “when quantum resources are truly beneficial and when simpler tools suffice” helps construct quantum technologies more efficiently and precisely.

By emphasising time as a scarce resource and analysing numerous parameter types, the study lays the groundwork for quantum sensing, thermometry, and open quantum system dynamics. The discovery that optimal performance is often achieved with simple passive protocols, without the need for complex adaptive systems or entanglement with external ancillae, is a promising step towards quantum sensor deployment. This study shows how quantum metrology's fundamental restrictions can affect protocol and sensing device development.

[news24-amit]

The Future of Squid Sensors: Market Outlook & Key Drivers

Explore the rapidly evolving Squid Sensor Market and discover how these cutting-edge sensors are shaping the future of precise and ultra-sensitive magnetic field detection! From revolutionizing medical imaging and aerospace navigation to enhancing scientific research, superconducting quantum interference devices (SQUID) are at the forefront of innovation.

[gis56]

Quantum Optical Circuits Market to Soar 🚀 $5.8B by 2034! 🔬 #QuantumTech #Innovation

Integrated Quantum Optical Circuits is revolutionizing data processing and secure communications through quantum mechanics. This market is characterized by advancements in quantum computing, telecommunications, and ultra-sensitive sensors, leveraging components like waveguides, modulators, and detectors. These innovations are driving next-generation high-performance and secure data solutions across industries.

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Rapid growth in quantum computing and telecommunications is fueling market expansion. The quantum computing sector leads, backed by increasing R&D investments. Telecommunications follows, benefiting from the rising demand for high-speed data transmission. North America dominates, driven by strong technological infrastructure and substantial funding in quantum technologies. Europe ranks second, supported by collaborative initiatives and government-backed projects. The United States and Germany are the top-performing countries, leveraging innovative ecosystems and academic excellence. Meanwhile, the Asia-Pacific region, led by China and Japan, is witnessing rapid growth through strategic partnerships and increasing investments. This expansion is further bolstered by government support and a growing talent pool, ensuring continued breakthroughs in quantum technology.

Key market segments include active, passive, and hybrid components, catering to applications such as telecommunications, data centers, quantum computing, and biomedical research. The market also encompasses technologies like silicon photonics and lithium niobate, which are critical for fabricating advanced quantum optical circuits.

In 2024, the market achieved robust growth, reaching a volume of approximately 650 million units. The telecommunications sector leads with a 45% market share, driven by high-speed data demands. The healthcare sector holds 30%, leveraging quantum optics for advanced imaging, while the defense and aerospace sector captures 25%, utilizing quantum circuits for secure communications. This segmentation underscores the increasing reliance on quantum technologies across industries.

#quantumcomputing #integratedphotonics #quantumtech #securecommunication #telecominnovation #highspeeddata #quantumnetworks #siliconphotonics #quantumsensors #nextgentech #dataencryption #opticalcircuits #waveguidetechnology #quantumsecurity #photonics #telecomrevolution #futurecomputing #quantumengineering #advancedmaterials #techbreakthroughs #quantumconnectivity #semiconductorinnovation #aerospacetech #defenseinnovation #datacentersolutions #quantumsimulation #photonicscience #aiandquantum #quantumindustry #cuttingedgetechnology #nextgencomputing #govtech #highperformancecomputing #quantumcryptography #futuretech

[gis2080]

🚀 Tiny Tech, Big Impact: High-Precision MEMS Taking Aerospace to New Heights!

High-Precision MEMS for Aerospace Applications Market : Micro-Electro-Mechanical Systems (MEMS) have revolutionized aerospace technology by offering miniaturized, high-precision, and ultra-reliable sensing and actuation solutions. From spacecraft navigation to aircraft safety, MEMS devices enhance performance, reduce weight, and improve efficiency in extreme environments.

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How MEMS Work in Aerospace

MEMS are microscale systems integrating sensors, actuators, and electronic circuits on a single chip. These devices provide high accuracy with minimal power consumption, making them ideal for aerospace applications. Key MEMS technologies include:

✔ MEMS Inertial Measurement Units (IMUs) — High-precision gyroscopes and accelerometers for flight control and navigation. ✔ MEMS Pressure Sensors — Monitor cabin pressure, altitude, and fuel efficiency in real time. ✔ MEMS Microthrusters — Miniaturized propulsion systems for satellite positioning and space exploration. ✔ MEMS RF Filters & Switches — Enhance satellite communication and radar signal processing.

Advantages of MEMS in Aerospace

📌 Lightweight & Compact — Reduces payload weight, optimizing fuel efficiency in spacecraft and aircraft. 📌 High Sensitivity & Accuracy — Ensures precise flight dynamics and stabilization in navigation systems. 📌 Rugged & Reliable — Designed to withstand extreme temperatures, radiation, and vibrations in aerospace environments. 📌 Low Power Consumption — Increases operational longevity for satellites and unmanned aerial vehicles (UAVs).

Key Aerospace Applications of MEMS

🔹 Satellite Navigation — High-precision MEMS IMUs enhance GNSS-based navigation in space. 🔹 Flight Control Systems — MEMS gyroscopes improve aircraft autopilot and stabilization. 🔹 Space Robotics — MEMS-based actuators enable precise movement in robotic arms on planetary rovers. 🔹 Hypersonic Vehicles — MEMS sensors monitor aerodynamic pressures and temperatures in real time.

Future Trends in Aerospace MEMS

🔸 Quantum MEMS Sensors — Ultra-precise navigation systems independent of GPS. 🔸 AI-Integrated MEMS — Smart MEMS for predictive maintenance and real-time diagnostics. 🔸 MEMS in CubeSats — Enabling cost-effective, lightweight space missions. 🔸 Next-Gen MEMS Thrusters — Revolutionizing deep-space propulsion for interplanetary travel.

As the aerospace industry advances towards autonomous spacecraft, supersonic aviation, and deep-space exploration, MEMS technology remains at the core of innovation. The future is miniaturized, intelligent, and space-ready!

#mems #aerospace #satellitetechnology #avionics #smartnavigation #autonomoussystems #gyroscopes #accelerometers #navigationtechnology #deeptech #satellites #spacetech #hypersonics #ai #machinelearning #robotics #aircraftsystems #engineering #spaceexploration #microtechnology #nextgen #advancedmanufacturing #aviation #nasa #deepspace #sensors #futuretech #defensetech #nanotechnology #microthrusters #smartengineering #gnss #autopilot #futureaircraft #quantumsensors #radartechnology

[globalinsightblog]

Quantum Sensors for Healthcare: The Future Looks Bright with Growth from $0.8B to $4.5B by 2034

Quantum Sensors for Healthcare Market is set for significant growth, projected to expand from $0.8 billion in 2024 to $4.5 billion by 2034, with a remarkable CAGR of approximately 19.4%. This innovative market focuses on the development and application of quantum sensor technologies in medical settings, offering enhanced precision in diagnostics and monitoring. These sensors are poised to revolutionize fields such as medical imaging, diagnostics, and patient monitoring, enabling earlier disease detection, improving patient outcomes, and enhancing the overall accuracy of medical procedures.

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The market’s growth is being driven primarily by advancements in medical imaging, with magnetic resonance imaging (MRI) sensors leading the way. These sensors are highly valued for their precision and non-invasive nature, making them ideal for various diagnostic applications. Diagnostic applications in oncology and neurology are also key contributors to market expansion, as healthcare providers increasingly seek early and accurate detection of diseases like cancer and neurological disorders.

North America currently dominates the Quantum Sensors for Healthcare Market, benefiting from advanced healthcare infrastructure and substantial research and development investments. Europe follows closely, driven by a strong focus on technological innovation and supportive regulatory frameworks. The Asia-Pacific region, with rising healthcare expenditures and rapid technological adoption, is quickly emerging as a key player, particularly in countries like China and India.

In 2023, the market saw a volume of 320 million units, with the imaging segment commanding the largest share at 45%, followed by diagnostic applications at 30%. Quantum-based therapeutic solutions also hold promise, capturing 25% of the market share. Leading players such as Quantum Medical, Inc., and HealthTech Quantum Solutions are at the forefront of this technological revolution, continuously innovating and forming strategic partnerships to capitalize on the market’s potential.

#QuantumSensors #HealthcareInnovation #MedicalImaging #Diagnostics #QuantumTech #PrecisionMedicine #Oncology #Neurology #QuantumTechnology #HealthTech #MedicalDevices #PatientMonitoring #TherapeuticSolutions #QuantumGravimeters #Magnetometers #ColdAtomTechnology #QuantumClocks #HealthcareDiagnostics #MedicalBreakthrough #WearableDevices #HealthcareSolutions #AIInHealthcare #QuantumComputing #PersonalizedHealthcare #MedicalRevolution #QuantumMedicalDevices #TechInMedicine

[techavid-blog]

"What is a Quantum Sensor? | Quick Explanation ⚛️Step into the world of advanced technology with Quantum Sensors! 🌌 Learn how these cutting-edge devices utilize quantum mechanics for ultra-precise measurements, transforming fields like healthcare, navigation, and communication. Perfect for curious minds, students, and tech enthusiasts. Don't miss out—like, share, and subscribe for more quick dives into revolutionary technologies! ⚛️✨"Hashtags: #QuantumSensor #QuantumTechnology #PrecisionMeasurement #QuantumMechanics #AdvancedTechnology #Innovation #TechExplained #CuttingEdgeTech #FutureTechnology #ScienceExplained

[newnews24]

SQUID Sensors Market to Reach USD 247.21 Mn by 2034

The global SQUID Sensors Market is set for steady growth, with a valuation of US$ 155.45 Mn in 2023 and an anticipated CAGR of 4.37% from 2024 to 2034, reaching US$ 247.21 Mn by the end of the forecast period. This growth is fueled by the expanding applications of Superconducting Quantum Interference Devices (SQUIDs) in healthcare, geoscience, environmental monitoring, and defense.

#SQUIDSensors #QuantumSensors #MedicalTechnology #EnvironmentalMonitoring #IndustrialInnovation #Geoscience #AerospaceDefense #Magnetoencephalography #MaterialScience #PrecisionMonitoring #MarketGrowth

[youngscientist96]

Quantum Scale Sensors used to Measure Planetary Scale Magnetic Fields

Magnetic fields are everywhere in our solar system. They originate from the Sun, planets, and moons, and are carried throughout interplanetary space by solar wind. This is precisely why magnetometers—devices used to measure magnetic fields—are flown on almost all missions in space to benefit the Earth, Planetary, and Heliophysicsscience communities, and ultimately enrich knowledge for all humankind. These instruments can remotely probe the interior of a planetary body to provide insight into its internal composition, structure, dynamics, and even evolution based on the magnetic history frozen into the body’s crustal rock layers.Magnetometerscan even discover hidden oceans within our solar system and help determine their salinity, thereby providing insight into the potential habitability of these icy worlds.

Fluxgates are the most widely used magnetometers for missions in space due to their proven performance and simplicity. However, the conventional size, weight, and power (SWaP) of fluxgate instruments can restrict them from being used on small platforms like CubeSats and sometimes limit the number of sensors that can be used on a spacecraft for inter-sensor calibration, redundancy, and spacecraft magnetic field removal. Traditionally, a long boom is used to distance the fluxgate magnetometers from the contaminate magnetic field generated by the spacecraft, itself, and at least two sensors are used to characterize the falloff of this field contribution so it can be removed from the measurements. Fluxgates also do not provide an absolute measurement, meaning that they need to be routinely calibrated in space through spacecraft rolls, which can be time and resource intensive.

#QuantumSensors#MagneticFieldDetection#QuantumTechnology#PlanetaryScience

#QuantumMagnetometry#Geophysics#MagneticFieldMeasurement#ScienceFather#ScientificResearch#ResearchInnovation#ResearcherLife#ScienceCommunity#STEMResearch#InnovationInScience

#ResearchAndDevelopment#LeadingResearch

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[govindhtech]

Quantum Technology Playing Larger Role in Foreign Militaries

According to U.S. Defence Intelligence, countries are employing quantum technologies more. The U.S. Defence Intelligence Agency's (DIA) 2025 Worldwide Threat Assessment warns that adversaries are cooperating and increasing cyber threats against U.S. interests and vital infrastructure, while quantum technologies are approaching operational military use. Due to significant advances in quantum science, AI, microelectronics, and cyber capabilities, the report claims that modern warfare is changing.

Fast Quantum Development Quantum is now part of China and Russia's active defence strategy, according to the DIA assessment. Quantum computing's potential to overcome encryption has received attention, but the DIA believes quantum sensors are more practical. Since they can detect magnetic or gravitational forces, these sensors may be able to locate submarines or subsurface structures without satellites. Such capabilities could boost situational awareness, especially in places with weak or blocked GPS signals.

Quantum-secure communications have advanced beyond sensing. China's national quantum network is evolving with numerous city-spanning lines using quantum key distribution (QKD), a technique claimed to be immune to current eavesdropping. Russia may also be funding secure quantum links with national defence and research organisations. Despite its transformative potential, quantum computing poses a longer-term threat. Although quantum computers aren't widely available, algorithmic advances may reduce the resources needed to attack private data. The number of quantum bits (qubits) needed to breach RSA encryption may be an order of magnitude lower than previously assumed, while the practicality and physicality of such attacks are unknown. Some quantum computer systems have manufacturing, stability, and error correction issues, and most military applications still require huge, power-intensive quantum sensing devices. The evaluation concludes that quantum technologies are gradually entering vital systems and providing benefits like faster target recognition, unbreakable communications, and more accurate navigation that meet the demands of modern, networked warfare. Microelectronics and Convergence: Future Threats

These technological advances together strengthen them. According to the research, quantum technologies are emerging alongside advanced manufacturing, artificial intelligence, and electronic warfare to accelerate their adoption into military systems. These combinations allow countries to research quantum computers for signal analysis, logistics, and multi-domain simulations by linking sensors, secure communications, and AI-driven decision frameworks. This technological competition relies on advanced microelectronics. The DIA emphasises that chips and fabrication capacity are critical chokepoints to technological rivalry. Computing-intensive technologies like quantum and AI require high-end microelectronics. Even while the US and its allies have an advantage in production and design, competitors are actively striving to reduce their dependence on foreign supply. Despite export limitations hindering China's growth in various disciplines, domestic funding and foreign workarounds appear to be maintaining quantum technology research. Despite sanctions-induced supply constraints and cost pressures, Russia prioritises electronics for missiles and secure communications. Evolving Cyberthreats

Increased state and non-state cyber activities also affects the danger landscape. The analysis found that enemies are seeking new ways to threaten US infrastructure and cyber networks. Cyber Focus: China restructured their military to prioritise cyber and electronic warfare as asymmetric weapons, placing Aerospace, Cyberspace, Information Support, and Joint Logistic Support Forces under the Central Military Commission. China wants to challenge US space dominance by improving C5ISRT. Chinese hackers, notably the PLA Cyberspace Force and Ministry of State Security, steal data and intellectual property from global networks, including US government networks. China will likely continue to use its cyber capabilities to gather intelligence on political, military, economic, and intellectual targets and steal secret data for military and economic advantage. Since early 2024, the U.S. government has publicly listed Chinese cyber operators planning to strike U.S. essential infrastructure if a major conflict arises. Russia's Asymmetric Approach: Russia can avoid NATO confrontation by using cyber and media assaults. Russian state and non-state cyber groups continue to assault US-connected networks. States prioritise espionage, and one gang, apparently associated with the Russian Foreign Intelligence Service (SVR), stole terabytes of Microsoft data, including U.S. government account information. Low-level attacks on energy and water networks by pro-Russian non-state hackers have increased since 2023, compromising public safety and national security. Russia will likely use proxies, cyber, media, and covert action in response to Western support for Ukraine. North Korea and Iran: North Korea uses cyberspace for espionage and financial gain to avoid sanctions. It uses ransomware, cryptocurrency theft, and hacking-for-hire. It also gathers weapons-development intelligence from foreign academics, defence industry personnel, and politicians, often using international criminal networks. Iran has expanded cyberattacks, cyberespionage, and information operations against Israel to aid its regional proxies. Geopolitical cooperation strategic implications

These technological and cyber achievements reflect China and Russia's growing military and technical partnership and relations with North Korea and Iran, according to the research. China cooperates in training and technological exchanges but avoids military aid. Some Russian nuclear and space technology is used for navigation and quantum sensing, according to reports. To avoid American influence, enemies are cooperating more. These trends strategically affect US defence. The research says defence strategy must now include quantum preparation, extending beyond cybersecurity to assess how quantum clocks and sensors may challenge detection, stealth, and navigation assumptions. This is a big difference from past appraisals that saw quantum as a long-term study. Quantum technologies may be difficult to identify and evaluate before deployment, creating technical surprise. This reduces warning time and complicates intelligence gathering. If competing quantum capabilities are not benchmarked and monitored, the US may be acting on outdated assumptions. Finally, commercial and academic partnerships in quantum science with Chinese government-backed organisations may not align with U.S. interests, and research results may be used for military purposes, emphasising the need for export controls and secure research environments.

[casualwonderlandeagle-blog]

Quantum Sensors Market Growth Forecast Analysis by Manufacturers, Regions, Types and Applications to 2025

Global quantum sensors market is expected to witness steady revenue growth during the forecast period. This growth is attributed to increasing adoption of quantum sensors in verticals such as defense, oil & gas, transportation, and construction. Persistence Market Research has come up with a new report, “Quantum Sensors Market: Global Industry Analysis and Forecast (2016–2025),” which offer key insights of the global quantum sensors market to the audiences. This report has revealed some interesting facts about the market opportunities across several applications of the global quantum sensors market. Global quantum sensors market was valued at US$ 228.7 Mn in 2016 and is projected to reach US$ 329.4 Mn by 2025 end. The market is expected to expand at a moderate rate of CAGR 4.3 % during the projected period, i.e. 2016-2025. The focus of this report is on quantum sensor providers who work with leading research institution to drive the market commercialization of technologies being developed in the industry.

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Global Quantum Sensors Market: Opportunity Analysis

The global quantum sensors market will experience a surge in demand of atomic clocks to improve the accuracy of time sensitive signals, as IoT applications such as autonomous cars and drones reach their maturity and start demanding higher accuracy from GPS devices.

GPS systems are inherently dependent on precise calculations of timing for efficient communication between the GPS using device and the satellite providing GPS co-ordinates.

The usage of fossil fuels is increasing with urbanization, as more and more people prefer air travel and personal vehicles. Providing ample fuel to support the growing demand is emerging as a primary challenge for the oil & gas industry.

Gravity sensors will bring considerable accuracy in the process of ground scanning for oil drilling and extraction. Quantum gravity sensors will help drillers to get a clear picture of what is under the ground helping them discover pockets of crude oil left undiscovered with the usage of classical methods

Download TOC: https://www.persistencemarketresearch.com/market-research/quantum-sensors-market/toc

Global Quantum Sensors Market: Forecast by Type

The type segment of the global quantum sensors market includes atomic clock, gravity sensor, magnetic sensor, rotation sensors, imaging sensors, and temperature sensors. Among type segments, atomic clock segment is expected to dominate the global quantum sensors marketwith US$ 127.8 Mn revenue in 2025. Atomic clock segment is expected to gain significant traction throughout the forecast period. Gravity sensors segment is also expected to register steady increase in Y-o-Y growth rates throughout the forecast period. In terms of value, this segment is expected to expand at a CAGR of 4.7% during the forecast period.

Global Quantum Sensors Market: Forecast by Industry Vertical

This segment is consists of defense, oil & gas, transportation, construction, medical and healthcare, IT & telecommunication, agriculture, and others. Among industry verticals, defense segment is anticipated to expand at a CAGR of 5.3% during the forecast period. The defense segment is likely to be valued at 101.7 Mn in 2025.

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[royalvoxpost]

Scientists demonstrate that optical quantum non-demolition measurement can produce complex entangled states with long-range entanglement. The ability to produce a giant entanglement state could help design ultra-sensitive #QuantumSensors for #BrainImaging https://t.co/y9jhd3az7A https://t.co/JCxw71BrTl

Scientists demonstrate that optical quantum non-demolition measurement can produce complex entangled states with long-range entanglement. The ability to produce a giant entanglement state could help design ultra-sensitive #QuantumSensors for #BrainImaging https://t.co/y9jhd3az7A pic.twitter.com/JCxw71BrTl

— The Royal Vox Post (@RoyalVoxPost) May 15, 2020

via Twitter https://twitter.com/RoyalVoxPost May 15, 2020 at 07:22PM

[royalvoxpost]

#QuantumSensor: researchers show for the first time that a single cesium atom can be used as a sensor for measuring ultracold temperatures and sensing magnetic fields. The technique could help study fragile quantum systems without interference - https://t.co/zj4nGv3kET https://t.co/up7m1Czdoq

#QuantumSensor: researchers show for the first time that a single cesium atom can be used as a sensor for measuring ultracold temperatures and sensing magnetic fields. The technique could help study fragile quantum systems without interference - https://t.co/zj4nGv3kET pic.twitter.com/up7m1Czdoq

— The Royal Vox Post (@RoyalVoxPost) February 4, 2020

via Twitter https://twitter.com/RoyalVoxPost February 04, 2020 at 05:42PM

[royalvoxpost]

#MedTech #QuantumTechnology: #QuantumSensors could help to replace bulky equipment with compact devices. By shrinking the size of the equipment, it could be possible to much more easily detect diseases in a person’s brain or improve cardiac imaging - https://t.co/GxtRFAUcvj https://t.co/7uMMFOe1oR

#MedTech #QuantumTechnology: #QuantumSensors could help to replace bulky equipment with compact devices. By shrinking the size of the equipment, it could be possible to much more easily detect diseases in a person’s brain or improve cardiac imaging - https://t.co/GxtRFAUcvj pic.twitter.com/7uMMFOe1oR

— The Royal Vox Post (@RoyalVoxPost) June 24, 2019

via Twitter https://twitter.com/RoyalVoxPost June 24, 2019 at 02:28PM