Matthew Alexander Email & Phone Number

Boulder, Co, Us

Boulder, Colorado, United States

Boulder, Colorado, United States

Boulder, Colorado, United States

Program Manager for NASA Atmospheric Observation System (AOS) for phase A

Boulder, Colorado, United States

Boulder, Colorado, United States

Boulder, Colorado, United States

NASA SMBA Phase A Program Manager

Boulder, Colorado, United States

Boundary Conditions is an engineering consultancy business operating in the atmospheric sciences, weather modification, atmospheric profiling, and launch weather support systems industries.

Boulder, Colorado, United States

Boulder, Co

End Volatile Gas Prices.

Boulder, Colorado, United States

While running Quijanza, we were successful at deploying numerous machine learning solutions in the remote sensing & meteorological markets. Our products were deployed and running at Kennedy Space Center for a NASA contractor and we were able to improve real-time atmospheric thermodynamic profiles informing rocket launch window viability.

Greater New York City Area

Netherlands

SingularityNET lets anyone create, share, and monetize AI services at scale. The world’s decentralized AI network has arrived.

Zürich Area, Switzerland

Organizing a visual presentation to describe SingularityNET's Artificial General Intelligence marketplace for enthusiasts and would-be investors.

Boulder, Co

Neural Networks & Deep Learning - GPU- Python - Theano - TensorFlow- Keras - Linux- Cuda- Caffe 2- Generative Adversarial Neural Networks (GANs)NVIDIA GPU Technology Conference 2017 (Conference & Training)Microwave RFAtmospheric Thermodynamics

Boulder, Co

Sinton Instruments’ goal is to implement elegant solutions to test and measurement challenges in silicon PV. Our instruments and analysis techniques are targeted at the problems that matter, are based on a firm device-physics foundation, and are, by design, cost-effective for the application.And we have fun doing it.www.sintoninstruments.com

Greater Boston Area

The principal focus of my research deals with temperature and injection dependent lifetime spectroscopy in silicon. This work is relevant to increased efficiency in solar cells by developing a system of analysis across a wide temperature and injection range to identify the existence of defects in silicon solar cells. In particular, I have been asked to design and implement a computer program in Mat Lab which will receive measurement signals and make accurate determinations of the defects within the silicon based on those signals. A participation in the PV Lab's "Solar Bootcamp" allowed me access into Harvard University's level-1000 clean room in the Center for Nanoscale Systems, where we performed a complete fabrication of silicon solar cells. Starting from bulk Cz-Si, we were able to reach efficiencies between 12.8 and 14.4 %.http://pv.mit.edu/

Golden, Co

Toberer Research GroupMaterials by Design - Our goal is to understanding the relationship between material structure and properties to such accuracy that we can predict the properties of unexplored materials. We find this goal to be particularly rewarding when applied to the development of advanced inorganic materials for energy applications.Achieving the understanding to rationally design materials requires strengths in three main areas:Synthesis, Materials characterization, & Modeling/computationThis trio allows one to form fundamental conclusions concerning the structure-property relationships inherent to a material. Without high quality materials, robust measurements, and theoretical models, predictive material design would be impossible.Synthesis:We have a strong basis in solid state synthesis and have prepared oxides, covalent semiconductors, intermetallics, and Zintl compounds in a variety of forms (e.g. bulk ingots, nanoparticles, thin films). Much of our synthesis is focused on alternative energy materials and thus utilizes low-cost, high through-put techniques.Characterization:We seek to (a) expand the portfolio of characterization techniques and (b) improve the accuracy of such techniques. Examples include instrumentation to measure the Seebeck coefficient at high temperature with greatly improved accuracy and Nernst-Ettingshausen measurements to understand scattering phenomena.Modeling & Computation:We do extensive modeling of electronic and thermal transport in materials, and collaborate frequently with density functional theory experts to understand the underlying electron and phonon band structures. We often find the band structure provides insight into unusual experimental behavior, enabling a much more complete picture of the structure-property relationships.

Commerce City, Co

Installed PV arrays commercially and residentially; In excess of 500kW

Westminster, Co

Provided assistance to a wide-ranging student base in courses dealing with mathematics and science