Synthera: A Living, Affordable Therapy for Cancer

Inspiration

Cancer has touched my life in a deeply personal way. I’ve seen people I love go through the intense physical and emotional toll of traditional treatments like chemotherapy and radiation. Beyond the pain and side effects, I saw the financial strain these treatments placed on families — especially in a place like Iowa, where I live.

Iowa has the second-highest cancer rate in the United States. That statistic isn’t just a number to me — it’s a reflection of the urgency for smarter, more accessible solutions. I didn’t want to stand by while people in my own community and around the world continue to suffer or go untreated due to cost, toxicity, or lack of innovation.

I was inspired by synthetic biology — specifically the idea that we could use engineered life forms to precisely and safely target disease. What if we could take something as safe and familiar as a probiotic and turn it into a programmable, living drug? That’s how Synthera was born: not just as a scientific project, but as a mission to make cancer treatment smarter, safer, and radically more affordable.


What It Does

Synthera is a capsule containing engineered probiotic bacteria that seek out and destroy tumors from within the body — like a guided missile, but alive.

Once ingested, the capsule dissolves, releasing the engineered bacteria into the body. These bacteria are designed to detect key signatures of the tumor microenvironment, including:

  • Low oxygen levels (hypoxia)
  • High acidity (low pH)
  • Lactate accumulation, a hallmark of cancer metabolism

When they detect these conditions, the bacteria begin producing and releasing a combination therapy payload, including:

  • Cancer-killing molecules (e.g. toxins specific to tumor cells)
  • Immune-stimulating proteins that rally the body’s natural defenses
  • Angiogenesis inhibitors that block the formation of new blood vessels feeding the tumor

After delivering their payload, Synthera’s engineered bacteria self-destruct using built-in triple kill-switches, ensuring they don’t persist in the body or environment. The result: a targeted, transient, and trace-free therapeutic intervention.


How I Built It

  • Genetic Circuit Design: I used E. coli Nissle 1917, a probiotic strain already approved for human use, and designed tumor-sensing genetic circuits using CRISPR and synthetic biology tools.
  • Biodegradable Delivery System: I modeled a PLGA (poly(lactic-co-glycolic acid)) capsule to encapsulate the bacteria, enabling controlled release after ingestion.
  • Interactive Simulations: To make the system easier to understand, I built visual simulations of the therapy’s journey — from capsule delivery to tumor sensing to immune activation.
  • Cost Modeling: I created a realistic cost-of-production model using current biotech manufacturing techniques to prove Synthera could be made for under $10 per dose.

Challenges I Ran Into

  • Translating Complexity: Cancer biology is incredibly complex. One of the hardest parts was simplifying that science into a visual, understandable story without sacrificing accuracy.
  • Biosafety Engineering: Working with live bacteria, even safe strains, requires extra care. Designing robust, multi-layered safety mechanisms — like the triple kill-switch — was a top priority.
  • Time Constraints: Balancing scientific rigor with the fast pace of a hackathon meant making strategic decisions about scope and feasibility.
  • Affordability as a Core Goal: It wasn’t enough to make this idea scientifically sound — I wanted it to be something real people could actually afford. That meant careful decisions around design, production, and delivery.

Accomplishments I’m Proud Of

  • Created a full end-to-end therapeutic concept — not just a molecule, but a delivery system, safety model, and clinical vision.
  • Designed multiple biosafety layers, including genetic kill-switches, capsule encapsulation, and metabolic control of bacterial growth.
  • Demonstrated a cost-per-capsule under $10, which is thousands of times cheaper than many current cancer therapies that can range from $20,000 to over $100,000.
  • Developed Synthera as a platform, not a one-off — meaning it can be adapted to treat many different types of cancers.

What I Learned

  • Tumor microenvironments are more than just a challenge — they can be a targeting mechanism. Their unique conditions allow for condition-specific activation of therapies.
  • Synthetic biology gives us tools to create responsive, programmable treatments that are unlike anything in traditional medicine.
  • Good science needs good communication. I learned how important it is to tell a compelling story that can reach beyond the lab to investors, clinicians, and patients.
  • Working at the intersection of disciplines — biology, engineering, design, and healthcare economics — is where real innovation happens.

What’s Next for Synthera

  1. Build Proof-of-Concept Prototypes

    • Start with testing the engineered bacteria in tumor organoid models (3D tumor simulations in the lab).
  2. Preclinical Biosafety & Delivery Testing

    • Evaluate targeting, therapeutic release, and kill-switch functionality in controlled animal models.
  3. Partner with Oncology Accelerators

    • Collaborate with biotech incubators and cancer research labs to take the idea from concept to trial.
  4. Expand the Platform

    • Adapt Synthera to different cancer types by swapping out payloads and tuning sensors to different microenvironments.
  5. Work Toward Global Access

    • Design supply chains, licensing models, and manufacturing pipelines to make Synthera accessible in low- and middle-income countries, not just in wealthy clinics.

Why This Matters

Too many people — especially in underserved communities and rural states like mine — are left behind by modern cancer treatments. Synthera is my attempt to change that.

By combining cutting-edge science with a relentless focus on accessibility, safety, and cost, I believe Synthera could be part of the next generation of cancer therapy:

  • Not just high-tech, but high-impact
  • Not just innovative, but inclusive
  • Not just possible, but necessary

Built With

  • animation-loops
  • arrow-functions
  • backdrop-filter
  • box-shadow
  • browser-apis
  • cdn-(cloudflare)
  • css-animations
  • css-custom-properties
  • css-gradients
  • css-grid
  • css3
  • cubic-bezier-transitions
  • dom-manipulation
  • event-listeners
  • flexbox
  • font-loading
  • glassmorphism-design
  • html5
  • javascript-es6+
  • keyframe-animations
  • linear-gradients
  • mathematical-geometry-generation
  • mouse-event-handling
  • object-destructuring
  • overflow-control
  • position-absolute
  • procedural-3d-modeling
  • progressive-enhancement
  • radial-gradients
  • requestanimationframe
  • responsive-design
  • rgba-colors
  • template-literals
  • text
  • three.js
  • touch-events
  • transform3d
  • vanilla-javascript
  • viewport-meta-tag
  • webgl
  • z-index-layering
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