The platform

rT64 NanoEmitters: delivery built for the molecules medicine cares about most.

Proteins, peptides and RNA are the most precise medicines we have, and the hardest to deliver. rT64 NanoEmitters solve the three problems that hold them back at once. They keep them stable at room temperature, drive them into tissue, and concentrate them where they are needed.

How it works

Three properties, engineered into one formulation.

Conventional delivery forces a trade-off between stability, penetration and exposure. NanoEmitters do not.

Labelled cross-section of an rT64 NanoEmitter: an outer membrane shields the contents from oxidation and hydrolysis, a microparticle scaffold holds the active in place, and the active itself sits held within the scaffold until the target environment triggers release.
Stable

Holds up at room temperature

The active sits inside a microparticle scaffold encased by an outer membrane, which protects it from oxidation and hydrolysis. Intact for months at room temperature, across buffers and formats. No cold chain.

Penetrating

Reaches tissue conventional formulations cannot

At the target, the NanoEmitter responds to the local environment and packages and emits the cargo in daughter nanoparticles. This triggered emission drives the cargo deep past the surface, far beyond passive diffusion.

Concentrated

Delivers locally, without leaking off target

Nanoparticles are released as a concentrated stream, focusing treatment on the target region without detectable systemic or off-target exposure.

The mechanism

See how NanoEmitters move a molecule.

NanoEmitters are deposited on site, for example settling at the surface of the skin, and stay there. The environment then triggers them to package and emit the cargo molecule in a targeted stream of nanoparticles, to the depth you select.

rT64 NanoEmitters

Settles at the surface. Forms and streams cargo-filled nanoparticles to the tuned depth.

rT64 NanoEmitter: the carrier settles on and in the skin surface and stays there, then emits a targeted stream of filled vessels that drives down into the designed zone at the tuned depth

The NanoEmitter stays at the surface. The nanoparticle emission travels in a targeted stream that lands in the target region and nowhere else.

Contemporary formulations

Base formulations, liposomes, exosomes, conventional LNPs. Often require cold chain.

Pre-formed carriers: some degrade before use, most stall at the surface, a little reaches depth, and some reaches the bloodstream where it can act off target

Whatever survives shipping is all you get. Most stalls at the surface, a little reaches depth, some may leak into the bloodstream.

01 Stable

Ships at room temperature

Intact for months at ambient storage conditions.

02 Localizes

Remains at the deposition site

The NanoEmitter itself stays on and in the application layer.

03 Streams

Emits on trigger

Cargo-filled vessels form off the NanoEmitter and drive down as a targeted stream.

04 Tuned

Lands where you designed

Depth and spread are set by the formulation optimization.

What it carries

One platform, a broad range of cargo.

An rT64 NanoEmitter is a delivery system, not a single drug. The same approach carries several classes of active that all hit the same delivery wall.

Proteins

Large, fragile actives that lose function when they unfold or degrade. NanoEmitters keep them folded and intact from the vial to the target.

Peptides

Precise and potent, but limited by poor penetration into tissue. NanoEmitters are built to give them a marked gain in how far they reach.

RNA

Powerful but easily broken down and hard to get into cells at the right place. NanoEmitters protect the payload and concentrate it in the target tissue.

Polysaccharides

Large, water-loving chains that are difficult to hold in a stable formulation and harder still to drive into tissue. NanoEmitters carry them intact and release them at depth.

Lipids

Prone to oxidation and to separating out of a formulation over time. NanoEmitters hold them dispersed and intact, and deliver them where they are meant to act.

Small molecules

Small actives usually cross tissue on their own, so getting in is not the problem. Keeping them where they were put is. The same triggered, local release by NanoEmitters that concentrates a large molecule in the target region applies here, and depending on the formulation medium the scaffold can add stability as well.

Where it reaches

Validated across multiple tissues.

These are tissues that conventional delivery struggles to reach without compromising the rest of the body. Skin is where we have human evidence. The others are preclinical, and the pipeline is growing.

Skin, human

Topical and subcutaneous application

Large actives that normally stop at the surface are carried into the layers where they act, with no needle and no device. This is where our human proof of concept sits.

Eye, preclinical

Topical and intraocular application

A site that is notoriously hard to reach and retain for large molecules. We place them intact into ocular tissue by topical and intraocular application in preclinical in vivo studies.

Pancreas, liver and solid tumor, preclinical

Solid tissue injection

Substantial uptake into a solid internal organ with an intact large molecule is a long-standing delivery problem. Shown preclinically with in vivo ectopic tumor models.

Built to be adopted

Designed to drop into partner production lines.

A formulation technology that is ready to deploy. NanoEmitters are built on materials and processes the industry already trusts.

01

Approved materials

Built from materials already cleared for use, not new chemical entities that restart the safety clock.

02

Existing manufacturing

Designed to fit standard production processes, so a partner does not have to rebuild their line.

03

No cold chain

Room-temperature stability simplifies storage, shipping and the places a product can reach.

04

Cargo agnostic

The same construct adapts across actives rather than one bespoke formulation per molecule. It can of course be customized to further tune desired specs.

The next paradigm

A second way in: NanoConnectors.

In addition to NanoEmitter formulation, our NanoConnector solution can make direct connections between cells, translating a mechanism biology already uses. Many human cell types build fine membrane tubes to hand material to their neighbors. We put that natural wiring to work.

Animated illustration of the connector technology: cells linked by natural membrane nanotubes that shuttle cargo between them
Natural

Built on natural biology

Based on the membrane nanotubes that more than 50 human cell types use to communicate.

Direct

Cell to cell

Forms a direct route between cells to move cargo where diffusion cannot reach.

Complementary

New delivery paradigm

An alternative modality that extends the platform past nanoparticle delivery alone.

Let's connect

See what NanoEmitters can carry for you.

If a molecule you care about is held back by stability, penetration or systemic exposure, that is exactly the wall we are built to clear.

Get in touch