Biomedical Engineering
The University of Texas at Austin

Kushaan Sharma

I build computational tools that turn physiological recordings into measurements you can trust.

My work sits where signal processing, medical imaging, and machine learning meet clinical questions: scoring sleep state from EEG and EMG in real time, generating and evaluating synthetic ECG, quantifying contraction in engineered heart tissue, measuring pancreatic fat distribution from 3D MRI, and building structured meshes from cardiovascular imaging. I have held research positions at the National Institutes of Health, the Broad Institute of MIT and Harvard, Boston Children's Hospital, UT Austin, and the Department of Veterans Affairs.

Degree
B.S. Biomedical Engineering
Grade point average
4.00 / 4.00
Expected graduation
May 2029
Goal
Ph.D.

Research

6 positions · 2025 to 2026

Six positions across neuroscience, cardiology, imaging, simulation, and nanotechnology, completed between 2025 and 2026. The common thread is taking a physiological recording or scan that cannot be measured by hand at scale and building the software that measures it.

Jun 2026 to Aug 2026

Summer Intern, NIH IRTA

National Institutes of Health, NIAAA · Laboratory for Integrative Neuroscience

Built a real-time sleep-scoring pipeline in Open Ephys that classifies EEG and EMG as it streams, across up to 20 animals at once. When the scorer calls NREM, the rig fires a TTL pulse and delivers optical stimulation, closing the loop between what the brain is doing and what the experiment does about it.

The surrounding infrastructure matters as much as the classifier: automated run logging, benchmark testing, and portable run folders, so a night of recording is reproducible rather than artisanal. The system is now in NIH technology transfer for a patent and license.

Open EphysTTL routingReal-time DAQClosed-loop optogeneticsPython
Jun 2026 to Aug 2026 Remote

Machine Learning Research Intern, ML4H

The Broad Institute of MIT and Harvard

Tensorized the EchoNext cohort into 82,543 HD5 records and trained unconditional and cross-attention-conditioned diffusion models for 12-lead ECG synthesis on NCSA Delta A100 nodes, benchmarked against a supervised structural-heart-disease baseline (test ROC AUC 0.797, n = 5,440).

Audited conditioning fidelity by paired sampling from fixed noise: label flips shifted the output less than a 1% noise perturbation (21% vs. 23% of signal RMS) and were largely seed-specific. Traced the cause to an inactive cross-attention control gate and confirmed it by gradient probe. Membership-inference testing showed no evidence of memorization (AUC 0.479).

Diffusion models12-lead ECG synthesisPrivacy evaluationTensorFlowA100 training
Jan 2026 to Aug 2026 Part-time

Health Technician

U.S. Department of Veterans Affairs · San Francisco VA Health Care System

Generated high-quality structured hexahedral meshes from cardiovascular imaging data using TrueGrid, turning patient imaging into the structured geometry that computational simulation of blood flow and vessel mechanics requires.

TrueGridHexahedral meshingCardiovascular imagingStructured meshes
Sep 2025 to Aug 2026

Research Assistant and Project Lead, Pu Laboratory

Department of Cardiology, Boston Children's Hospital · Harvard Medical School

Jul to Aug 2026. Evaluated computational methods for 2D analysis and 3D reconstruction of serial MERFISH sections from early-stage embryos: benchmarked cell-segmentation approaches (membrane markers, DAPI, transcript density) and compared tools for section alignment, spatial transcriptomics integration, and 3D visualization.

Jan to Aug 2026, project lead. Developed a Balanced Random Forest classifier that detects atrial fibrillation in murine ECGs, and built an open-source annotated mouse ECG library for the wider research community.

Sep 2025 to Jan 2026. Built the hardware-software integration for engineered heart tissue analysis, writing MATLAB signal-processing algorithms from scratch to measure contractility, deflection, and pacing response. Released as EHT-analyze and co-authored on a Nature Protocols manuscript now in revision. The work earned a merit-based research stipend.

MATLABOpenCVMERFISHSpatial transcriptomicsAtrial fibrillationhiPSC-CM
Sep 2025 to Aug 2026

Project Lead, Virostko Laboratory

Dell Medical School and Oden Institute · UT Austin

Built two 3D MRI analysis pipelines: one quantifies pancreatic fat as a function of distance from the organ surface, the other separates intralobular, interlobular, and peripancreatic fat depots. Together they showed that spatial heterogeneity explains a two-fold discrepancy between the two standard measurement methods, and that compartment-level measures detect diet-induced change invisible to conventional analysis.

First-author manuscript under review at Investigative Radiology; abstract accepted at the 2026 American Pancreatic Association Annual Meeting.

3D segmentationQuantitative MRIFat compartmentsPythonPancreas
Jul 2025 to Jan 2026 Part-time

Research Assistant, Nanoassembly Lab

Department of Biomedical Engineering · Cockrell School of Engineering, UT Austin

Analyzed how the N/P ratio affects the stability of DNA origami nanostructures, using qPCR degradation measurements to quantify how much intact structure survives under nuclease challenge. Listed on the resulting manuscript.

DNA origamiqPCRNanostructure stabilityWet lab

Publications

4 manuscripts · 2 software releases · 4 presentations

Diagnosing the Information Limits of In Vitro Drug Release from PLGA Microparticle Data

Pharmaceutics Published

Curated 321 PLGA formulations from 113 studies and 4,913 release observations, then showed that the formulation descriptors the field routinely reports do not carry enough information to predict drug release in a way that transfers to new formulations. A negative result worth publishing, because it tells the field what to measure next.

Sharma, K., Shah, A., Sharma, S., Shah, S., Khan, M. A., & Ali, M. (2026). Pharmaceutics, 18(7), 805. doi:10.3390/pharmaceutics18070805

Pancreatic Fat Content Is Spatially Heterogeneous with Higher Fat Fraction Near the Organ Surface

Investigative Radiology Under review

Developed both image-analysis pipelines: a distance-from-surface map of pancreatic fat fraction and a compartment-level separation of intralobular, interlobular, and peripancreatic fat. Shows that the spatial pattern, not measurement noise, explains the discrepancy between the two standard whole-organ methods.

Sharma, K., Kenoff, M., Gonzalez-Adame, E., Knight-Scott, J., Haley, A. P., & Virostko, J. Submitted September 2026.

Generation of hiPSC-CMs in Scalable Suspension Cultures and Characterization Using SCPs and EHTs

Nature Protocols In revision

Contributed the MATLAB signal-processing code that measures contractility in the engineered heart tissue platform, the step that converts the protocol's raw imaging into a quantitative readout.

Prondzynski, M., et al. (incl. Sharma, K.). Submitted May 2026.

ERVExplorer: A Curated Database of Experimentally Confirmed Endogenous Retroviruses

Genetics in Medicine Open Published

Built a literature-checked database of endogenous retroviruses that resolves the disagreements between existing databases, with every entry traced back to experimental confirmation rather than inherited annotation.

Nair, A., Stricker, E., & Sharma, K. (2025). Genetics in Medicine Open, 3. American College of Medical Genetics annual meeting.

Research software
Presentations
  • American Pancreatic Association Annual Meeting, 2026, accepted
  • NIH Summer Research Symposium, 2026
  • ACMG, 2025
  • IFoRE, Sigma Xi, 2024

Projects

github.com/Kushaan-SSSK

Most of the research above exists as running software. Two cardiac projects are in active development; the rest is public.

In progress
ECG AI Artifact Active

Artifact-Robust ECG Image AI for Structural Heart Disease

Detects echocardiography-confirmed structural heart disease directly from realistic ECG images: paper printouts, scans, and smartphone photos, along with the skew, glare, and print artifacts those carry. Nothing requires a raw digital waveform at inference, so the model works on the form an ECG actually arrives in.

Input
Paper printouts, scans, phone photos
Target
Echo-confirmed structural heart disease
Constraint
No digital waveform at inference
AF Analysis Active

Mouse EKG Atrial Fibrillation Detection

Detects atrial fibrillation in mouse EKG using HRV feature extraction and a Balanced Random Forest, validated against expert manual annotations. Recordings pass through a 3 Hz high-pass filter and sliding-window peak detection (10 s window, 2 s step) tuned for mouse physiology at 300 to 900 BPM. For paroxysmal files a window counts as AF only if at least 5 seconds overlap a known episode, which keeps boundary windows from being mislabeled.

Features
Time domain, Welch frequency bands, Poincaré nonlinear, plus prev/next temporal context
Model
Balanced Random Forest, leave-one-file-out CV, benchmarked against XGBoost and a soft-voting ensemble
Selection
Highest PR-AUC, threshold set for recall at or above 0.80
Release
Open-source annotated mouse ECG library for the research community
Repositories
MARS-publicPython

Mouse Automated Real-Time Scoring. Native Open Ephys processors that score EEG/EMG sleep state live, route TTL safely, and write portable run folders, plus an offline EDF analysis suite with a QC interface. Benchmarks at 0.969 offline accuracy and 95.65% real-time at 0.788 ms p95 inference.

GPL-3.0 · Open Ephys pluginView
plga-microparticles-datasetPython

Full reproduction of the Pharmaceutics analysis: grouped train/test splits that block leakage, Peppas-kinetics mechanism prediction, burst-release classification, Williams-plot applicability domain, and calibrated uncertainty. Fixed seeds, CPU only, runs in 5 to 15 minutes.

Reproducible · seed 42View
lnp-release-auditPython

Open datasets for machine learning of nanoparticle drug release. A literature review that catalogues and audits the publicly available nanoparticle drug-release datasets, with an associated manuscript in preparation. Archived on Zenodo.

Zenodo · 10.5281/zenodo.22089645View
EHT-AnalysisMATLAB

The contractility toolchain from the Pu Lab. Quantifies engineered heart tissue contraction, post bending, and pacing response from video. This is the measurement code behind the Nature Protocols manuscript, released with the EHT-scope hardware on Zenodo.

Signal processingView
SID-EpidemicPython

A Susceptible-Infected-Dead epidemic model that simulates agents moving on a 2D grid, so transmission depends on where people actually are rather than on a well-mixed assumption.

Agent-based simulationView
heart-disease-predictionPython

Classical machine learning on clinical cardiac risk factors. The earliest of these repositories, and where the cardiac thread running through the Pu Lab and Broad work started.

Scikit-learn · XGBoostView

Skills

Methods, languages, hardware

Signals

EEGEMGECG / EKGSleep scoringAtrial fibrillation detectionContractilitySpectral analysis

Imaging

Computer visionImage segmentationMRI / 3D quantificationSpatial transcriptomicsMERFISHMotion trackingOpenCV

Modeling

Machine learningDeep learningGenerative modelingDiffusion modelsStatistical modelingUncertainty quantificationScientific computing

Acquisition

Open EphysTTL routingReal-time DAQClosed-loop controlHardware programmingFusion 360

Languages

PythonMATLABC++JavaSQLJavaScript

Stack

Scikit-learnXGBoostTensorFlowPandasNumPyReactNode.jsFlaskPostgreSQLRAG systems

Certifications

CITI Human Research (Biomedical)CITI Data or Specimens OnlyCITI Conflicts of Interest

Wet lab

DNA origamiqPCRNanostructure stabilityDegradation assays

Spoken languages

EnglishHindiPunjabi

Honors

Research, collegiate, pre-college
Scholar

American Heart Association Scholar, 2026

National
Merit award

Merit-based research stipend, Pu Laboratory

Boston Children's Hospital · Harvard Medical School
Finalist

Biomedical Engineering Case Competition

Collegiate
First place

HOSA International Leadership Conference

International
Gold division

USA Computing Olympiad

USACO
National finalist

Technology Student Association

National

Where this is going

A Ph.D. in Biomedical Engineering, and a research career building computational tools for physiological and imaging-based biomarkers. That is the measurement layer quantitative disease modeling depends on, and the clinic is where it has to hold up.

Research interests: computational biomedical engineering, physiological signal processing, medical imaging, and machine learning methods for quantitative disease modeling.