Will “Electrodynamicist” be Replaced By Robots? 🤔
0 % Chance of Automation
“Electrodynamicist” will never be replaced by robots.
This job is ranked #175 out of #702. A higher ranking (i.e., a lower number) means the job is less likely to be replaced.
Care to share? Click for Facebook, Twitter, LinkedIn, or XING. 👍
Job Description
Conduct research into physical phenomena, develop theories on the basis of observation and experiments, and devise methods to apply physical laws and theories.
Job Details
- The SOC (Standard Occupational Classification) code is 19-2012.00
- The Mean Annual Wage in the U.S. is $ 121,770.00
- The Mean Hourly Wage is $ 58.00
- Currently, there are 16,680 people on this job
☝️ Information based on the reference occupation “Physicists”.
Also Known As…
- Physicists
- Scientist
- Research Scientist
- Research Physicist
- Research Consultant
- Physicist
- Health Physicist
- Biophysics Scientist
- Weapons Engineer
- Weapons Designer
- Thermodynamicist
- Thermodynamic Physicist
- Theoretical Physicist
- Space Physicist
- Scientist Electronics
- Rocket Scientist
- Rheologist
- Research Professor
- Radiation Protection Technician
- Radiation Control Health Physicist
- Physics Professor
- Physical Aerodynamicist
- Optical Scientist
- Optical Instrument Specialist
- Nuclear Spectroscopist
- Nuclear Scientist
- Nuclear Physicist
- Nanotechnologist
- Molecular Spectroscopist
- Molecular Physicist
- Medical Physicist
- Mathematical Physicist
- Mass Spectroscopist
- Laser Engineer
- Fluid Dynamicist
- Experimental Physicist
- Electro-Optical Engineer
- Electro Optical Engineer
- Consultant Electronics
- Cloud Physicist
- Atomic Spectroscopist
- Atmospheric Physicist
- Astrophysicist
- Aerophysicist
- Aerodynamicist
Tasks for “Electrodynamicist”
- Analyze data from research conducted to detect and measure physical phenomena.
- Teach physics to students.
- Advise authorities of procedures to be followed in radiation incidents or hazards, and assist in civil defense planning.
- Describe and express observations and conclusions in mathematical terms.
- Perform complex calculations as part of the analysis and evaluation of data, using computers.
- Develop theories and laws on the basis of observation and experiments, and apply these theories and laws to problems in areas such as nuclear energy, optics, and aerospace technology.
- Conduct research pertaining to potential environmental impacts of atomic energy-related industrial development to determine licensing qualifications.
- Observe the structure and properties of matter, and the transformation and propagation of energy, using equipment such as masers, lasers, and telescopes to explore and identify the basic principles governing these phenomena.
- Direct testing and monitoring of contamination of radioactive equipment, and recording of personnel and plant area radiation exposure data.
- Conduct application evaluations and analyze results to determine commercial, industrial, scientific, medical, military, or other uses for electro-optical devices.
- Design computer simulations to model physical data so that it can be better understood.
- Report experimental results by writing papers for scientific journals or by presenting information at scientific conferences.
- Collaborate with other scientists in the design, development, and testing of experimental, industrial, or medical equipment, instrumentation, and procedures.
- Develop manufacturing, assembly, and fabrication processes of lasers, masers, infrared, and other light-emitting and light-sensitive devices.
- Develop standards of permissible concentrations of radioisotopes in liquids and gases.
Related Technology & Tools
- Atomic force microscopes
- Power amplifiers
- Betatrons
- High vacuum equipment
- Grating monochromators
- Digital oscilloscopes
- Optical detectors
- X ray crystallography equipment
- Laboratory electromagnets
- Liquid helium level sensors
- Multiple diode lasers
- Pulsed nitrogen lasers
- Capacitance bridges
- Optical choppers
- Analog frequency analyzers
- Headspace autosamplers
- Analytical balances
- Optical tables
- Laboratory tube furnaces
- Pinhole filters
- Gamma ray spectrometers
- Measuring microscopes
- Safety goggles
- Vibrating sample magnetometers
- X ray photoemission spectrometers
- Magnetic resonance imaging MRI systems
- Digital plotters
- Magnetic force microscopes
- Helium lasers
- Mass spectrometers
- Accelerometers
- Galvanostats
- Cryostats
- Surface profilometers
- Single frequency dye lasers
- Conditioning amplifiers
- High-resolution semiconductor detectors
- Laptop computers
- Scintillation probes
- Monochromators
- Radiofrequency RF generators
- Two-channel fast Fourier transform FFT analyzers
- Two-channel dynamic signal analyzers
- High-speed video cameras
- Ionization chambers
- Zeeman split lasers
- Diffusion-pumped vacuum systems
- Gas chromatography equipment
- Particle counters
- Signal generators
- Optical beamsplitting devices
- Scanning tunneling microscopes STM
- Arbitrary function generators
- Argon ion lasers
- Vacuum stations
- Spring scales
- Electron microscopes
- Cyclotrons
- Prism spectrometers
- High intensity UV sources
- Diode lasers
- Double monochromators
- Charge-coupled device CCD cameras
- Sound intensity probes
- Neutron detectors
- Big G torsion balances
- Cavity dumpers or drivers
- Atomic absorption AA spectrometers
- Desktop computers
- Friction-force microscopes
- Optical tweezers
- Geiger-Muller counters
- Digital voltmeters DVM
- Helium refrigerators
- Photon counting systems
- High-energy accelerators
- Gas chromatography GC injectors
- Linear accelerators
- Radiation detecting film badges
- Digital sound level meters
- Digital multimeters
- Annealing furnaces
- Fourier transform infrared FTIR spectrometers
- Semiconductor parameter analyzers
- Mickelson interferometers
- Nuclear magnetic resonance NMR spectroscopes
- Nanovoltmeters
- Diffusion pumps
- High-resolution spectrometers
- Laser power meters
- Light scattering devices
- Interferometers
- Visible spectrometers
- Turbo-pumped vacuum systems
- Two-channel network analyzers
- Scanning electron microscopes SEM
- Vernier force sensors
- Thermoluminescent dosimeters
- Photodetectors
- Spectrophotometers
- Personal computers
- Function generators
- Transmission electron microscopes TEM
- Isotope ratio mass spectrometers
- Computed tomography CT scanners
- Scanning monochromators
- Spectrum analyzers
- Positive ion accelerators
- Leak detection equipment
- Gaussmeters
- Laboratory box furnaces
- Atomic emission detectors AED
- Analog sound level meters
- Programmable phase modulators
- Telescopes
- Microwave interferometers
- Laboratory centrifugal pumps
- Portable fast Fourier transform FFT analyzers
- Vibration exciters
- Pistonphones
- Photometers
- Gnuplot
- SciGraphica
- Synergy Software KaleidaGraph
- COMSOL Multiphysics
- Vector Fields OPERA-3d
- Radiation dose calculation software
- Microsoft PowerPoint
- Spectroscopy software
- CERN ROOT
- Video analysis software
- Wolfram Research Mathematica
- SciLab
- MySQL
- Lenox Softworks VideoPoint
- Sun Microsystems Java
- Linux
- Microsoft Access
- Autodesk AutoCAD
- National Instruments LabVIEW
- JavaScript
- Maplesoft Maple
- Formula translation/translator FORTRAN
- Microsoft Excel
- Criss Software XRF11
- Microsoft Visual Basic
- The MathWorks MATLAB
- GNU Octave
- RibbonSoft QCad
- Microsoft Office
- Systat Software SigmaPlot
- UNIX
- Microsoft Word
- Ploticus
- OriginLab Origin
- Microsoft Visual J++
- Assembler
- C
- Adobe Systems Adobe Photoshop
- Scribus
- Xfig
- Spectral Dynamics STAR
- REDUCE
- Experimental Physics and Industrial Control System EPICS
- Mathsoft Mathcad
- Pascal
- GNU Image Manipulation Program GIMP
- Adobe Systems Adobe Audition
- RSI interactive data language IDL software
- CERN Physics Analysis Workstation PAW
- Dose modeling software
- Statistical software
- Practical extraction and reporting language Perl
- Aptech Systems GAUSS
- Microsoft Visual C++
- SQLite
- Python
- XV