Technical Interests
Science is fun! David F Hakala's Website
Technical Interests
Science is fun! David F Hakala's Website
Science is fun! David F Hakala's Website
Science is fun! David F Hakala's Website
Primarily laser photochemistry, chemical kinetics, and computational chemstry. Chemistry of planetary atmospheres and comets.
The possibilities of being able to actually simulate real quantum processes will lead to great things.
I have added a number of technical notes on Neutral Atom Quantum Computing to the LCD and LCoS downloads sectrion
Plasma makes up over 99% of the Universe. It is our best shot at getting a clean energy source to address Climate Change issues. One of my thesis advisors first observed nuclear fusion with Lord Rutherford and Sir Mark Oliphant in 1933.
Analytical methods, luminescent materials, photoresists, PVA chemistry, Electrodepsosition, vacuum deposition
From Color CRT's to LCD's to Microdisplays interested in the device chemistry and physics and the manufacturing processes.
Batteries are critical for many things. My ineterest is mostly to how our Smart Infrastructure and IoT works for extended periods of time.
Molecular Qubits are a truly interesting subject. They are related to the topic of Quantum Computing in that they are a molecular scale implementation of a qubit. The energy levels of the molecule provide the basis for the qubit. Energy levels must be different enough so that they can be manipulated and read without confounding the resul
Molecular Qubits are a truly interesting subject. They are related to the topic of Quantum Computing in that they are a molecular scale implementation of a qubit. The energy levels of the molecule provide the basis for the qubit. Energy levels must be different enough so that they can be manipulated and read without confounding the results with data from undesired energy levels. Typically, but not exclusively the spin of a molecule is used. In a magnetic field the energy of these levels separates and the resulting can be used as a qubit. This subject combines spectroscopy (optical and microwave) with computational chemistry, molecular design and synthesis, and quantum information processing.
Principles of Photochemical Separation of Isomeric Nuclides
G. C. Baldwin, H. M. Clark, D. F. Hakala and R. R. Reeves · Rensselaer Polytechnic Institute
Revised draft (v3), October 27, 2026 · Original work presented at the 12th Informal Conference on Photochemistry, NBS, Gaithersburg, 1976 (NBS Special Publication 526, 1978)
About this v
Principles of Photochemical Separation of Isomeric Nuclides
G. C. Baldwin, H. M. Clark, D. F. Hakala and R. R. Reeves · Rensselaer Polytechnic Institute
Revised draft (v3), October 27, 2026 · Original work presented at the 12th Informal Conference on Photochemistry, NBS, Gaithersburg, 1976 (NBS Special Publication 526, 1978)
About this version (v3). Section 4.2 now treats mercury-197m at the same level of detail as bromine-80m: measured hyperfine constants and isotope shifts for the 253.7 nm line, a calculated spectrum, the selectivity limit set by line wings, the HCl photochemistry, production without stable-mercury carrier, and the assay (Figures 5–8 and 10, Tables 5–7). Bromine is now Section 4.1.
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