Asst. Professor - National University of Sciences and Technology (NUST), Islamabad, Pakistan and Res
12 years of experience
With more than twelve (12) years at the intersection of academic research, industry projects and clinical trials, with advanced neuro technology and robotics platforms working at peak performance. My responsibilities have spanned the complete equipment life cycle: planning laboratory layouts, installing hardware and software, performing preventive maintenance and troubleshooting intricate electro optic, mechatronics, mechanical and data acquisition. I have routinely set up and experienced in 32 channel wireless EEG headsets, 14 channel mobile EEG devices and open architecture eight channel boards for custom biosensing. On the optical side I have gained extensive hands on experience with wearable fNIRS/EEG systems offering up to eighty optodes as well as dense 52 channel fNIRS/EEG platforms for cortically rich recordings. Alongside neural interfaces, I have worked on wearable robotic exoskeleton hands and collaborative robotic arms that support neuro rehabilitation and human–machine interaction studies.
I have tried to apply these skills in both laboratory and field environments. While working in and NUST, Pakistan and CTU, Prague I involved in designing and commissioning a hybrid fNIRS/EEG for neuroergonomics, human factors, synchronising optical and electrical signals within a AR/VR and flight simulator scenario driven. At National Center of Artificial Intelligence (NCAI )- NUST Islamabad, I am Scientific Co-Director, and I oversaw a complete ML/DL/AI Algorithms, neuroergonomics lab upgrade: retro fitting fifty plus channel fNIRS/EEG modules, installing shielded cabling and power isolation, validating signal integrity with phantom benchmarks and updating the risk assessment dossier. In clinical settings I calibrated exoskeleton servo drivers to meet ISO safety thresholds and integrated user triggered neural signals for patient controlled actuation, helping translate research prototypes into safe to use rehabilitation devices.
A core element of my contribution has been in capacity building. I tried develop and deliver more than twenty structured training programmes for engineers, clinicians and postgraduate researchers, covering electrode and optode placement, device calibration, firmware updates and real time data monitoring. Each course blended classroom instruction with practical troubleshooting drills, enabling trainees to service and fault find equipment on their own. To sustain those gains I authored detailed technical manuals and standard operating procedures including setup checklists, maintenance schedules, emergency shutdown steps and data quality audits. These documents were adopted as official protocols in two university labs and a hospital neuro rehab unit, where they helped cut equipment downtime by over thirty five percent.
I worked to strengthen my technical foundation through formal certification: I did various Certification in Engineering optimization, AI-Python, Matlab, LabVIEW Developer, Health & Safety, ISO standards, advanced AI-MATLAB, MATLAB Simulink and laboratory safety courses. I have routinely built acquisition pipelines in MATLAB/Simulink, EEGLAB, Python (MNE, scikit learn) and ROS, which enabled me to debug packet loss errors in wireless neural data streams, implement real time motion artifact suppression for optical recordings and worked adaptive LSTM classifiers, VT-Transformers according to cognitive state feedback.
I remained in high profile collaborations like EU Horizon 2020 and Horizon Europe. In the EU Horizon 2020 ENHANCE project was focused on Enhancing Human performance in socio Technical Systems. Current engagement involve Vision based intelligent cam systems for east European Industries. Across all engagements I have tried to translate sophisticated equipment into reliable, user friendly tools that accelerate research, improve clinical outcomes and tried to uphold the highest international safety and quality standards.
Equipment Expertise. I Dr Umer Asgher has worked across the wide spectrum of research and applied experience on include AI, BCI, Engineering optimization, neurotechnology. I have routinely deployed wearable and clinical fNIRS/EEG systems from 32 channel headsets for untethered high resolution recording to 14 channel mobile devices for rapid field trials and has experimented with open architecture eight channel boards for custom biosensing, as well as single channel devices for large cohort screening. On the optical side i managed to work on wearable fNIRS/EEG platforms scalable to eighty optodes and dense 52 channel fNIRS/EEG systems, achieving rich cortical coverage in both mobile and clinical environments. This broad hardware experience underpins the laboratory, simulator and real world trials led on cognition, fatigue and neuro adaptive control.
Signal Processing & Simulation experience. I have experience on real time acquisition pipelines of AI (ML/DL) using Python, MATLAB/Simulink and LabVIEW. Experience in applied Fnirs/EEGLAB for pre processing and leveraged Python’s MNE and scikit learn stacks for feature extraction, deep learning and reproducible analytics. His workflows incorporate artifact rejection, source localization, hybrid fNIRS/EEG fusion and rigorous cross validation, ensuring data integrity that meets international neuroinformatics standards. By integrating these toolchains with digital twins in aviation transport, maritime bridges and surgical theatres, I tried helped accelerate algorithm validation and shorten the path from prototype to translational deployment.
Applied Impact. Drawing on this toolkit, I worked on applied passive BCI workload dashboards, air traffic simulators, hybrid fNIRS/EEG classifiers that trigger adaptive automation in maritime control rooms, and fNIRS guided exoskeleton hands for neuro rehabilitation. These solutions align with research priorities in AI safety, resilience and health innovation offering new ways to reduce operator error, tried to enhance human performance, timely detection of diseases, patient recovery and inform next generation neurotechnology policy. I worked and tried to involve in demonstrated ability to translate cutting edge equipment into impactful applications in research and industry.
https://www.linkedin.com/in/dr-umer-a-a3595018/ https://scholar.google.com/citations?user=5FRXowUAAAAJ&hl=en https://loop.frontiersin.org/people/534940/overview https://sines.nust.edu.pk/faculty/umer-asgher/ https://ncai.pk/team/