Andrew Kortyna - Tumblr

An experimental physicist with a significant history in research with high-precision measurements, Andrew Kortyna holds a bachelor of science in physics from Juniata College in Huntingdon, Pennsylvania, and a doctorate in physics from Wesleyan University in Middletown, Connecticut. Andrew Kortyna’s molecular physics dissertation was titled "Laser Studies of Photofragmentation Processes in Diatomic Sodium" Since securing his doctorate in 1993, Dr. Kortyna has designed and constructed reactive molecular reaction instrumentation as a visiting scientist at Cornell University and low-energy electron-molecule scattering instrumentation as a postdoctoral scholar at the NASA Jet Propulsion Laboratory. He has also structured and taught physics classes as an associate professor with Bates College, Colby College, Hobart and William Smith Colleges, and Lafayette College and conducted research on nonlinear optics as a visiting fellow with the Joint Institute of Laboratory Astrophysics (JILA). For the past four years, Andrew Kortyna has served as a research associate with JILA and the University of Colorado. His ongoing responsibilities center on taking high-precision structure measurements of transient molecules and free radicals using molecular beam methods, laser IR absorption, interferometry, and various other frequency metrology techniques.

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American Physical Society Bridge Program Empowers Students

A physicist specializing in atomic, optical, and molecular physics, Andrew Kortyna has served as a physicist at ColdQuanta Inc. since 2019. He takes part in various research and development initiatives. An alumnus of Juniata College and Wesleyan University, he has worked in multiple organizations, including academia, in the United States and abroad. Andrew Kortyna is a member of numerous professional organizations, including the American Physical Society.

The American Physical Society (APS) aims to promote the knowledge of physics to benefit humanity. APS engages in various professional development and advocacy initiatives. To ensure the inclusion of minorities, APS developed measures to ensure underrepresented African Americans, Hispanic and Indigenous physicists receive adequate support. The APS Bridge Program is a two-year post-baccalaureate program that seeks to boost the number of physics PhDs awarded to students from underrepresented minority communities. It offers mentoring opportunities and creates sustainable transition programs. Many doctoral students find new career paths in academia, government, and the corporate sector and build professional networks.

Eligible students must be from an underrepresented minority community group and be either former or current physics major students but lack the required research experience, coursework, or guidance to apply for a PhD program. Universities and colleges, non-profits, and national labs receive institutional membership to ensure physics educational programs improve diversity.

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How to Respond to a Forest Fire When on a Hike

Wesleyan University graduate Dr. Andrew Kortyna joined Boulder, Colorado’s ColdQuanta, Inc., as a physicist in 2019. When he is not researching and developing a cold atom-based alarm clock, Dr. Andrew Kortyna enjoys staying active through hiking and camping.

Forest fires are a pertinent concern for outdoor enthusiasts, especially in areas such as the Western United States, Australia, and mainland Europe. As such, it is wise for hikers and campers to keep an action plan in mind in case they do encounter a fire. For instance, hiking groups should discuss escape routes along their hiking path, particularly if they decide to go ahead on a hot, dry day. Ideally, they should have two different escape routes at all times.

Once on the trail, hikers must be aware of the warning signs of a developing wildfire so they can respond to the threat as quickly as possible. Smoke, a telltale sign of a forest fire, can be used to help gauge the distance and direction of the flames. In some cases, individuals may be unsure whether smoke is indicative of a wildfire. Unless the exact source of smoke can be identified, it should be treated as a wildfire. The group should quickly travel in the opposite direction of the smoke, leaving behind unnecessary equipment that could weigh them down, and contact emergency services as soon as it is safe to do so.

Finally, hikers must understand that wildfires can move extremely fast, meaning distant smoke can quickly become nearby flames. Ridges and dense forests are the worst locations to seek shelter during a fire. It is advisable to travel toward low-lying areas and away from trees and overgrowth. If individuals must shelter in place, open areas like meadows are the best option. Large rocks can also provide shelter against heat and flames. On the other hand, while streams and other sources of water can afford protection, individuals should stay clear of aquatic vegetation, as it can quickly dry out and become flammable during a wildfire.

[andrewkortyna]

DARPA Supports ColdQuanta's Quantum Clock Productization

Based in Boulder, Colorado, Andrew Kortyna is an experienced physicist who holds a BS in physics from Juniata College and a PhD in physics from Wesleyan University. Since 2019, Andrew Kortyna has conducted research at ColdQuanta, Inc., a Boulder-based company that focuses on cold atom quantum technologies.

In August 2022, ColdQuanta announced that it had received an award from the Defense Advanced Research Projects Agency (DARPA) Embedded Entrepreneurship Initiative (EEI) to foster the productization of its atomic clock technologies. ColdQuanta has successfully pioneered innovative atomic clocks that leverage the quantum properties of extremely cooled atoms. Quantum clocks are the most accurate clocks in the world. One notable application of high-precision clocks is global satellite navigation.

The DARPA Embedded Entrepreneurship Initiative (EEI) is on a mission to advance the productization of commercial dual-use quantum technologies to equip the United States national security community with advanced technologies. ColdQuanta's quantum clock technology has been deployed by NASA on the International Space Station (ISS). The productivization will enable more organizations to access ColdQuanta's technologies.

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ColdQuanta Partners with Super.tech to Bolster Q-NEXT

A longtime member of both the Advanced Laboratory Physics Association and the American Physical Society, Andrew Kortyna is a seasoned experimental physicist and educator with extensive experience in the areas of atmospheric models, astrochemistry, and the optimization of fuel combustion processes. Andrew Kortyna is presently involved in the research and development of cold-atom-based atomic clocks at ColdQuanta, Inc.

In May 2022, ColdQuanta acquired the Chicago-based quantum software company Super.tech in an effort to complement its blue-chip quantum hardware deliverables with scalable software solutions to advance Q-NEXT. ColdQuanta is a member of Q-NEXT, a US-based organization of quantum technology companies that is looking to enhance and consolidate technologies that are capable of transferring quantum information (qubits) with unprecedented precision.

ColdQuanta has successfully developed cold-atom-state computers that relay quantum information using atoms that are supercooled to a fraction of a degree above the lowest known temperature (absolute zero). Atoms in this state exhibit “quantum properties.”

Super.tech solutions will help ColdQuanta address some quantum computing bottlenecks - particularly noise. Noise, in the quantum computing context, refers to any disturbance that compromises the accuracy of quantum information. Super.tech has successfully rolled out SuperstaQ, a technology that cancels out noise and optimizes quantum computing platforms.A longtime member of both the Advanced Laboratory Physics Association and the American Physical Society, Andrew Kortyna is a seasoned experimental physicist and educator with extensive experience in the areas of atmospheric models, astrochemistry, and the optimization of fuel combustion processes. Andrew Kortyna is presently involved in the research and development of cold-atom-based atomic clocks at ColdQuanta, Inc.

In May 2022, ColdQuanta acquired the Chicago-based quantum software company Super.tech in an effort to complement its blue-chip quantum hardware deliverables with scalable software solutions to advance Q-NEXT. ColdQuanta is a member of Q-NEXT, a US-based organization of quantum technology companies that is looking to enhance and consolidate technologies that are capable of transferring quantum information (qubits) with unprecedented precision.

ColdQuanta has successfully developed cold-atom-state computers that relay quantum information using atoms that are supercooled to a fraction of a degree above the lowest known temperature (absolute zero). Atoms in this state exhibit “quantum properties.”

Super.tech solutions will help ColdQuanta address some quantum computing bottlenecks - particularly noise. Noise, in the quantum computing context, refers to any disturbance that compromises the accuracy of quantum information. Super.tech has successfully rolled out SuperstaQ, a technology that cancels out noise and optimizes quantum computing platforms.

[andrewkortyna]

ColdQuanta’s Cold Atom Method of Atomic Clock Development

Andrew Kortyna is an experimental physicist with a PhD from Wesleyan University. Since 2019, Andrew Kortyna has spearheaded R&D for a cold atom-based atomic clock with ColdQuanta in Boulder, Colorado.

A quantum atomics company that develops a range of positioning, sensor, computing, and communication systems, ColdQuanta received $2.8 million in development funds from several US military and aerospace organizations in 2019. These funds have contributed to ColdQuanta’s R&D efforts, including the development of its cold atom-based atomic clock.

To create an extremely robust and precise atomic clock, ColdQuanta has pioneered a transformational cold atom technology that employs laser cooling to bring atoms close to absolute zero. The outside surface of this system, however, remains at ambient air temperature. This makes the atomic clock, as either a standalone unit or an integrated component of other devices, ideal for use in a wide range of deployments and hostile environments. In addition to supercooling atoms, the cold atomic clock uses lasers to hold atoms in place and change their quantum states to serve a variety of versatile purposes.

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The Basics of Raman Laser Spectroscopy

Based in Boulder, Colorado, Andrew Kortyna is an established researcher with a background spanning atomic, molecular, and optical physics. Andrew Kortyna’s current specialization is frequency metro…

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ColdQuanta, Inc. to Manufacture Atomic Clocks

Experienced physicist Andrew Kortyna specializes in high-precision laser spectroscopies and frequency metrology. Andrew Kortyna works at ColdQuanta, Inc., which specializes in quantum technology. ColdQuanta, Inc. announced in February 2022 that it received a five-year contract to develop and manufacture portable atomic clocks to be used by the Office of Naval Research. ColdQuanta will partner with Vescent Photonics, which manufactures electro-optic and laser technologies. The two received an award worth more than $15 million for the project. They will work at the Compact Rubidium Optical Clock (CROC) program, which aims to manufacture atomic clocks ready for immediate deployment by the U.S. Department of Defense. ColdQuanta Inc is responsible for the physics package, while Vescent will deliver high-quality optical frequency comb technologies, which employ radio and microwave frequencies, and Octave Photonics alongside the Quantum Nanophotonics Group of NIST with its non-linear nanophotonics, which help people understand and deal with the optical properties of nano-objects. All the atomic clocks must be of a level six technology readiness, which means that the technology used must be very mature and ready to use.

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I published “How Cesium Atomic Clocks Work to Keep Accurate Time” on @Medium https://ift.tt/333gJKJ

[andrewkortyna]

How Cesium Atomic Clocks Work to Keep Accurate Time

Prior to taking on his current role, Andrew Kortyna was a professor at Lafayette College in Easton, Pennsylvania.

A respected presence in his Colorado professional community, Andrew Kortyna addresses complex experimental research questions spanning physics and chemistry. A research program Andrew Kortyna previously guided focused on precisely measuring atomic cesium’s structure, which is vital to developing atomic clocks with even greater accuracy.

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I published “Becoming a Postdoctoral Research Associate at JILA” on @Medium https://ift.tt/2FEefcl

[andrewkortyna]

Becoming a Postdoctoral Research Associate at JILA

Prior to taking on his current role, Andrew Kortyna was a professor at Lafayette College in Easton, Pennsylvania.

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I published “Laser Cooling as a Foundation of Precise Atomic Clocks” on @Medium https://ift.tt/3m56ddi

[andrewkortyna]

I published “Understanding Transient Molecules in Interstellar Environments” on @Medium https://ift.tt/3bgGiKt

[andrewkortyna]

I published “ColdQuanta Works with NASA to Create Rugged, Compact Cold-Atom Systems” on @Medium https://ift.tt/3jkTWiR

[andrewkortyna]

I published “ColdQuanta Works with NASA to Create Rugged, Compact Cold-Atom Systems” on @Medium https://ift.tt/3jkTWiR

[andrewkortyna]

I published “Researchers Posit Two Liquid Forms of Supercooled Water” on @Medium https://ift.tt/348mR5k

[andrewkortyna]

I published “Collision Cooling — Using Cool Atoms to Cool Molecules” on @Medium https://ift.tt/2WjL5ov