Michael Nieskoski PhD

Senior Principal Systems Engineer at Raytheon Technologies
  • Claim this Profile
Contact Information
us****@****om
(386) 825-5501
Location
Marlborough, Massachusetts, United States, US

Topline Score

Topline score feature will be out soon.

Bio

Generated by
Topline AI

You need to have a working account to view this content.
You need to have a working account to view this content.

Experience

    • United States
    • Aviation and Aerospace Component Manufacturing
    • 700 & Above Employee
    • Senior Principal Systems Engineer
      • Aug 2019 - Present

      1) LSE and Technical Lead for Wideband AESA Phased Array Communication Systems 2) Working as a System Analyst focusing on algorithm development for frequency and time estimation, signal detection and acquisition, and phased array optimization for SATCOM applications. 3) Applied linear quadratic estimation, Kalman Filtering, Markov chains, and Viterbi algorithm to improve SATCOM Tx and Rx Time Tracking and Error Estimation 4) Innovated a system based approach to analyze phased array global coverage and connectivity with Geosynchronous and Lower Earth Orbit satellites based on scan angle, data rate, and number of satellites in line-of-sight (LOS). 5) Utilized near-field EM analysis to optimize phased array development in S, X, Ku, K, Ka-band communication systems Show less

    • United States
    • Medical Equipment Manufacturing
    • 700 & Above Employee
    • Senior Ultrasonics Engineer
      • May 2017 - Aug 2019

      1) Technical lead in high power ultrasonic surgical tip development used in bone removal and soft-tissue applications 2) Developed innovative module that analytically computes eigenvalue problem for titanium horn waveguide tips for longitudinal, torsional, and flexural system resonance, and incorporates supervised machine learning algorithm to optimize mechanical design and accelerate development 3) Applied digital signal analysis to quantify slight signal perturbations within Laser Vibrometer and Audio continuous waveforms, thereby identifying energy leakage into parametric and auto-parametric resonance 4) Develop Voice-of-Customer (VOC) product requirements through interactions with liver surgeons and neurosurgeons 5) Address risk management documentation (MDHA, PFMEA, DFMEA, AFMEA) for ongoing projects and ensure verification testing properly addresses product requirements Show less

    • United States
    • Higher Education
    • 100 - 200 Employee
      • Mar 2015 - Jun 2017

      My research focuses on quantifying the pivotal role of tumor microenviorement and mechanical stress within pancreatic cancer, which leads to minimal drug perfusion, hypovascularity within the tumor site, and poor therapeutic outcome. During my PhD work I have:1) Innovated entire device and system architecture to measure and quantify micro-regional steady-state pressure and pressure fluctuations within biological tissue 2) Applied unsupervised machine learning algorithms to quantify complex tissue structures within hundreds of pathological and fluorescence images3) Applied digital image analysis techniques to quantify inherent spatial complexity of desmoplastic response through fractal dimension and entropy, leading to the development of a new, simplified biomechanical model4) Directed an investigation on the relationship between mechanical stress in pancreatic tissue with in-vivo imaging techniques using endoscopic ultrasound elastography Show less

      • Sep 2011 - Mar 2015

      My research focused on improving the efficacy of magnetic nanoparticle hyperthermia by optimizing the delivery of magnetic fields to mitigate harmful superficial eddy current heating. Contributions to the field include:1) Applied both electromagnetic coil design and signal optimization algorithms for the efficient localized electromagnetic energy transfer within cancer tissue2) Incorporated digital signal analysis to improve penetration depth of inductive energy and minimize surface heating through signal selection and phase matching of multi-coil systems3) Instituted magnetic nanoparticle hyperthermia treatment planning methodology for potential clinical applications at Dartmouth Hitchcock Medical Center4) Worked closely with veterinarians at Dartmouth Hitchcock Medical Center to optimize administration of Magnetic Nanoparticle Hyperthermia treating oral cancer lesions in canine volunteers5) Extended Investigation of electromagnetic energy deposition for the treatment of tumor ablation into improvements in benign prostatic hyperplasia and diabetic peripheral neuropathy Show less

  • Graf Lab: Boston College
    • Chestnut Hill, MA
    • Undergraduate Researcher
      • Jun 2010 - Aug 2010

      1) Recipient of Research Experience for Undergraduate (REU) grant for Physics of Complex Materials 2) Summer research resulted in both co-authored conference paper and published in Journal of Low Temperature Physics 3) Operated 2T superconducting electromagnet to suppress the Meissner effect in superconductive material • Discovered a granular superconductive transition in 200nm Bismuth nanoparticles confined in an opal host material 1) Recipient of Research Experience for Undergraduate (REU) grant for Physics of Complex Materials 2) Summer research resulted in both co-authored conference paper and published in Journal of Low Temperature Physics 3) Operated 2T superconducting electromagnet to suppress the Meissner effect in superconductive material • Discovered a granular superconductive transition in 200nm Bismuth nanoparticles confined in an opal host material

    • Undergraduate Researcher
      • Jun 2009 - Aug 2009

      1) Recipient of the Connecticut Space Grant Undergraduate Research Summer Fellowship 2) Operated a Chemical Beam Epitaxy system used to grow Gallium Nitride nanowires for photovoltaic applications as an alternative energy source to be applied to space shuttles 3) Operated a Scanning Electron Microscope to conduct electron beam lithography on silicon substrate 1) Recipient of the Connecticut Space Grant Undergraduate Research Summer Fellowship 2) Operated a Chemical Beam Epitaxy system used to grow Gallium Nitride nanowires for photovoltaic applications as an alternative energy source to be applied to space shuttles 3) Operated a Scanning Electron Microscope to conduct electron beam lithography on silicon substrate

Education

  • Thayer School of Engineering at Dartmouth
    Doctor of Philosophy (Ph.D.), Engineering Science (Biomechanics focus)
    2015 - 2017
  • Thayer School of Engineering at Dartmouth
    Master’s Degree, Engineering Science (Electrical Engineering focus)
    2011 - 2015
  • Fairfield University
    Bachelor’s Degree, Physics
    2007 - 2011

Community

You need to have a working account to view this content. Click here to join now