Judit Camacho Díaz

Otros datos:

RESEARCH:

• Performed modern computer numerical methods, optimization algorithms, and Statistics, to include Monte Carlo simulation, resampling methods, parametric and non-parametric goodness-of-fits tests to theory validation, interpolation, integration, differential equations, and propagation of errors.
• Big data and cognitive load management skills; Fortran language programming; Python; graphing (R, Matlab, SuperMongo), image formation, processing, and a proficiency with 3D CAD software and Linux, to include Word, Excel, Power Point. Latex. Scientific and Technical writing for web-based platforms and non-academic audiences.  Big Data Marketing (SQL, DAX, Power Bi, Kettle, R)
• Material Physics and Technology: Handling, configuring and controlling the operation of complex scientific instruments such as ultra-vacuum pumps and mass spectrometers, electronics and optoelectronic devices.
• Applied electronics and Physical electronics, optics laboratory, physics of dielectrics and optical materials.
• Advanced electromagnetism and electromagnetism laboratory, and solid state, quantum mechanics, optoelectronics, semiconductors, and design of logic blocks of FPGA using PSpice.
• Laboratory of modern Physics - Microscopy and analysis techniques, including surface characterization, thin film diffractometric, vacuum, and techniques with lasers and plasma.
• Computer-Based Measuring Systems: Astronomical observation and instrumentation (e.g. photometers, spectroscopies) and related software.

LABORATORY:

• Active and passive transducers, analog and digital modes of operation, null and deflection methods, and methods of correction for interfering and modifying inputs.
• Static Characteristics and Static Calibration:  Calibration accuracy versus installed accuracy, combination of component errors in overall system.
• Accuracy Calculations: Theory validation by experimental testing, effect of measurement error on quality control decisions in manufacturing, static sensitivity, computer-aided calibration and measurement:
• Multiple Regression: Threshold, noise floor, resolution, hysteresis, and dead space, generalized static stiffness and input impedance -loading effects.
• Dynamic Characteristics:  Digital simulation methods for dynamic response analysis. sinusoidal transfer function, ramp response, frequency response, and impulse response of zero-order, first-order and second-order instruments, dead-time elements, logarithmic plotting of frequency-response curves, response of a general form of instrument to a periodic and transient input.
• Frequency Spectra of Amplitude - Modulated Signals: Sensor selection using computer simulation, numerical correction of dynamic data, and experimental determination of measurement- system parameters, loading effects under dynamic conditions.
• Motion and Dimensional Measurement:  Fundamental standards, relative displacement - translational and rotational, e.g. resistive potentiometers, variable-inductance and variable-reluctance pickups, capacitance pickups, piezoelectric transducers, electro-optical devices, photographic and electronic-imaging techniques, photoelastic, brittle-coating, and moiré fringe stress-analysis techniques, displacement-to-pressure transducer, digital displacement transducers, ultrasonic transducers.
• Relative Velocity -Translational and Rotational: Velocity by electrical differentiation of displacement voltage signals.
• Laser-Based Methods. Moving-coil and moving-magnet pickups, dc tachometer generators for rotary-velocity measurement, ac tachometer generators for rotary-velocity measurement.