In the quiet corridors of the Walter and Eliza Hall Institute, a researcher has found a way to ask an old question more precisely: not merely how do we treat disease, but how do we deliver healing to exactly the right place, in exactly the right cell? Dr Jan Schaefer's nanoparticle technology targets the lung macrophages that drive COPD's slow destruction, carrying RNA therapies directly into the immune cells that have turned against the body. His InnoVision prize win in 2025 marks a moment when a laboratory insight crossed into the larger world of possibility — where science meets the systems
WEHI researcher wins innovation prize for targeted COPD drug delivery
Fighting and outmaneuvering threats to build a new defense system
What drew you to COPD specifically, rather than other lung diseases?
COPD is progressive and affects millions, but what really captured me was understanding the macrophage problem—these immune cells that should protect you but become destructive. Once I saw that mechanism clearly, I wanted to find a way to fix it without harming the rest of the body.
The nanoparticle approach sounds elegant, but how do you actually get them to the right cells?
That's the core challenge. We're designing particles small enough to reach deep into the lungs and engineered to be recognized by macrophages specifically. It's like writing an address on a package so it only opens in one house.
You won the competition among six strong projects. What do you think made yours stand out?
Honestly, I think it was the combination—solid science, but also a clear path to something real. The judges could see this wasn't just an interesting idea; it could become a therapy people actually use.
Dr Booty's role seems crucial. What did he teach you about moving from lab to industry?
He showed me that academic research and commercial viability aren't opposites. You can be rigorous and ambitious about science while also thinking clearly about how to make it work in the world. That perspective changed how I talk about my work.
Starting your PhD remotely during lockdown sounds isolating. How did that shape you?
It was tough, but it taught me resilience. When I finally got to WEHI and experienced the collaborative environment here, I understood what I'd been missing. Now I value those connections differently.
What's next for the nanoparticles?
The prize gives me resources to present at conferences and connect with industry partners. Those conversations will help me understand what needs to happen next—what additional work, what partnerships, what steps toward actual clinical trials.
El Pulso
- COPD silently robs millions of lung function year by year, and existing treatments lack the precision to address the immune cells driving the damage from within.
- Schaefer identified a specific culprit — rogue macrophages — and engineered nanoparticles small enough to infiltrate them and deliver RNA therapies with surgical accuracy.
- Winning WEHI's InnoVision competition among six competing projects gave his work institutional validation and opened access to conferences, industry summits, and commercial networks.
- Two mentors shaped his readiness: one gave him the scientific foundation, the other taught him how to translate laboratory discovery into language the commercial world could act on.
- Having begun his PhD in isolation during COVID-19 border closures, Schaefer's arrival at WEHI revealed a collaborative culture that accelerated both his science and his ambition.
- The nanoparticle project now sits at the threshold between research concept and clinical venture, with funding, mentorship, and industry partnerships beginning to close the gap.
In the quiet corridors of the Walter and Eliza Hall Institute, a researcher has found a way to ask an old question more precisely: not merely how do we treat disease, but how do we deliver healing to exactly the right place, in exactly the right cell? Dr Jan Schaefer's nanoparticle technology targets the lung macrophages that drive COPD's slow destruction, carrying RNA therapies directly into the immune cells that have turned against the body. His InnoVision prize win in 2025 marks a moment when a laboratory insight crossed into the larger world of possibility — where science meets the systems that carry it toward the people who need it most.
Dr Jan Schaefer works at the Walter and Eliza Hall Institute studying how infectious and inflammatory diseases damage the lungs — but his deeper focus is a more precise question: how do you deliver medicine to exactly the cells that need it, without flooding the rest of the body in the process?
The disease he's targeting is COPD, a progressive condition affecting millions worldwide. Its cruelty lies in a particular mechanism — macrophages, immune cells meant to protect the lungs, become drivers of inflammation and tissue destruction. Schaefer's response was to design nanoparticles capable of slipping directly into those macrophages and delivering RNA therapies at the source, minimizing side effects while maximizing impact.
In 2025, that idea won WEHI's InnoVision competition, an entrepreneurship program built to carry lab discoveries toward real-world application. The prize brought more than recognition — it opened doors to academic conferences, industry events, and a growing network of commercial contacts. Two mentors proved essential: his former lab head gave him scientific grounding, while a WEHI alumnus turned venture principal scientist taught him how to position and communicate research for audiences beyond the laboratory.
Schaefer's path had not been easy. He began his PhD remotely from Germany during COVID-19, isolated from his team and the informal rhythms of collaborative science. When he finally arrived at WEHI in person, he found an institution where colleagues actively supported one another — and that culture became part of how he worked.
The nanoparticle technology remains a research project, but it is no longer only that. With institutional backing, mentorship, and a clearer commercial trajectory, Schaefer's work represents the kind of precision-medicine thinking that might, in time, bring meaningful relief to people watching their lung function diminish year by year.
Dr Jan Schaefer sits at the intersection of two worlds—the careful, methodical one of academic research and the faster-moving realm of commercial innovation. As a research officer at the Walter and Eliza Hall Institute, he studies how infectious and inflammatory diseases ravage the lungs, but his real passion lies in a specific problem: how to slip medicine past the body's defenses and into the exact cells that need it most.
That problem is chronic obstructive pulmonary disease, or COPD, a progressive condition that has quietly become a global burden, affecting millions of people as their lungs lose function year after year. The disease works through a cruel mechanism: immune cells called macrophages, which normally protect the lungs from invaders, become part of the problem themselves, driving inflammation and tissue damage. Schaefer's insight was elegant in its precision. Rather than flooding the entire body with drugs, why not design nanoparticles small enough to slip directly into those specific macrophages and deliver RNA therapies right where they're needed? The approach promises to minimize side effects while maximizing therapeutic effect—the kind of targeted precision that modern medicine keeps reaching for but rarely achieves.
In 2025, Schaefer's work caught the attention of WEHI's InnoVision competition, an entrepreneurship program designed to take research ideas born in the lab and transform them into something the world can actually use. Among six strong projects, his won. The recognition came with more than just prestige. The prize included a travel stipend that opened doors: invitations to present at academic conferences, access to industry summits and events, and something harder to quantify but perhaps more valuable—a bridge between the academic world he knew and the commercial world he was learning to navigate.
That bridge didn't appear by accident. Schaefer credits two mentors who shaped his trajectory in different ways. Dr Marcel Doerflinger, his former lab mentor and now lab head, taught him how to think like a scientist and gave him the technical foundation to build on. But it was Dr Lee Booty, a WEHI alumnus who had spent time working in industry before returning to the institute as a venture principal scientist, who helped him understand how to position academic research for the real world—how to talk about it, how to package it, how to make it legible to people outside the lab. That kind of translation work is often invisible, but it's essential.
Schaefer's path to this moment wasn't straightforward. He started his PhD remotely in Germany while Australian borders were sealed during COVID-19, beginning his project without his research team around him, without the daily conversations and spontaneous collaborations that make science feel less lonely. It was a test of resolve, and he passed it. What he discovered at WEHI, once he could finally arrive in person, was a research environment built on the assumption that good science happens when people help each other. That collaborative ethos—the willingness of colleagues to offer feedback, share experience, make introductions—became part of how he worked.
Now, with the InnoVision prize in hand and a growing network of industry contacts, Schaefer stands at a threshold. The nanoparticle technology he's developed remains a research project, but it's no longer just that. It's a venture idea with institutional backing, mentor support, and a clearer path toward the clinic. For the millions of people living with COPD, watching their lung function decline year by year, the distance between a promising lab result and an actual treatment is still vast. But Schaefer's work represents the kind of precision-medicine thinking that might, eventually, narrow that gap.
Citas Notables
The chance to explore new scientific ideas in the lab and progress my research into targeted drug delivery gets me out of bed in the morning.— Dr Jan Schaefer
You are pitted against a clear enemy such as a pathogen or a disease-causing mechanism. The goal is to fight and outmanoeuvre these threats to develop a new defence system.— Dr Jan Schaefer, on studying infectious and inflammatory diseases