Research Programs

We study how joints break — and we design ways to rebuild them.

Our work links osteoarthritis biology, environmental exposure stress, human joint organoids, and targeted gene/cell therapy. The goal is translation: catch degeneration early, stabilize the joint, and regenerate structure before “wait for surgery” becomes the only option.

Everything below is an active build. This is not generic review text. These are the systems we are constructing and evaluating right now.

Core Programs

Primary research streams

Each program feeds data into the others. The exposure biology platform stresses the system. The joint organoids let us observe failure in real time. The repair strategy aims to fix it — and do it in a way that's actually compatible with human delivery.

Osteoarthritis & Joint Repair Biology

We map how cartilage erodes under mechanical load + chronic inflammation, and how synovial immune activity drives or accelerates that damage.

Target: not just pain control. Structural stability and functional preservation of the native joint.

Environmental Exposure Biology

Real joints operate in a toxic, high-load world. We apply pollutant mixes, overload cycles, and microinflammatory insults to recreate that pressure and watch what fails first.

Clinical angle: link exposure signatures to early-onset osteoarthritis risk and faster degeneration timelines.

Stem Cell & Human Joint Organoid Models

We grow multicellular “mini-joint” systems from human stem cells — including cartilage-like and synovium-like compartments — so we can see degeneration and repair in a controlled human-relevant model (no animal surgery).

These organoids become screening platforms for repair strategies.

Gene & Cell Therapy Translation

We prototype delivery of regenerative cells and gene-modulated factors directly to damaged joint regions, aiming to calm inflammation and resurface eroding cartilage.

Goal: a path to regulated clinical intervention, not a science project.
We design every intervention with manufacturability, tracking, and regulatory visibility in mind. Translation starts at day one — not after publication.
Experimental Pipeline

How we actually run the science

Every study follows a tight loop: build the human model, injure it in a way that matches reality, test a repair strategy. We don’t guess. We watch it happen.

Step 1

Build a human joint model

We generate multicellular joint organoids from human stem cells. These include cartilage-like and synovial-like layers so we can see how local inflammation and load interact.

Output: baseline joint health readout.
Step 2

Apply stress / exposure

We expose the model to defined pollutant mixtures, repetitive load, or inflammatory signals that mimic high-risk human environments.

Output: early cartilage breakdown + inflammatory signature.
Step 3

Test repair strategies

We deliver regenerative cell payloads or targeted gene modulation to see if we can stabilize tissue, suppress inflammatory damage, and resurface eroding areas.

Output: functional recovery / structural preservation.
Every test is designed with clinical translation in mind: deliverability, regulatory visibility, and ethical use under controlled access. See collaborate for how to work with us, or portal for secure data access.
Example Output

Watching degeneration and testing repair — in real time

Below is a placeholder figure. Replace with your confocal snapshot, stress timeline schematic, or response heatmap. Each figure should be accessible (alt text, caption, timestamp).

Inflammatory response regions in a human joint organoid after pollutant exposure
Human joint organoid under inflammatory stress. We can localize cartilage breakdown and immune activation without animal surgery, then apply targeted cell/gene therapy to test repair.
Timestamp: Oct 2025
We believe in transparent translation. Monthly experimental status reports — including failures — appear in the News section. This is not medical advice. Clinical decisions must be made by licensed professionals, not from research previews. See legal / accessibility.
Collaboration

We partner with surgeons, exposure biologists, and regenerative engineers

We actively share organoid models, exposure assays, and regenerative repair concepts. We’re especially interested in early-stage joint degeneration (pre-surgery), high-load injury models, and controlled delivery of repair payloads.

Email a short intro with: your field, the idea you want to test, and what resource you need (model system, assay, dataset, co-development).

Secure Collaboration Portal (beta)

Private area for registered collaborators only. Access requires institutional affiliation and authenticated ORCID iD. Pre-publication data and draft protocols may be shared under NDA.

ORCID verification ensures publications and authorship are legitimate.