TORICARDIA · Emerging MedTech venture

Engineering the next heartbeat.

What if an artificial heart could move more like a real one? At Toricardia, we are translating our FlowerHeart soft robotic ventricle into a platform for cardiac research, with a long-term vision for implantable heart replacement.

ILLUSTRATIVE MYOARCHITECTURE · NOT A PRODUCT RENDER
Biomimetic motionEngineered to generate thickening, twist, and shortening
Soft robotic architecturePneumatic artificial muscles arranged to mimic cardiac fibers
Research → clinical visionA staged translation strategy rather than a single high-risk leap
The challenge

Life-sustaining flow is only part of the story.

For advanced heart failure, mechanical circulatory support can be lifesaving. Yet long-term blood-contacting systems still face challenges including hemocompatibility, infection, durability, and the complexity of replicating cardiac function.

01 / Clinical need

Unmet demand

Donor hearts are scarce, while the need for advanced circulatory support remains substantial.

02 / Engineering gap

Beyond pumping

Native ventricles generate coordinated thickening, shortening and twisting motions, shaping their interaction with blood and surrounding anatomy.

03 / Development gap

Better testbeds

Researchers also need physiologically meaningful platforms to evaluate devices, procedures, and computational heart models.

FlowerHeart · Our core technology

Inspired by the heart’s own architecture.

FlowerHeart translates a nested-tori representation of ventricular muscle architecture into a soft robotic chamber. Strategically arranged pneumatic artificial muscles produce a coordinated three-dimensional deformation instead of relying on a conventional rigid pumping mechanism.

Our experimental program explores silicone and textile architectures, moving from computational design to physical prototypes and mock-circulatory testing.

Wall thickeningVentricular twistLongitudinal motionSoft actuation
CONCEPT SCHEMATIC · NESTED TORI
A staged application strategy

Near-term utility. Long-term transformation.

Rather than treating the implantable heart as the only path forward, we are exploring a sequence of applications with different levels of validation, development risk and regulatory complexity.

01

Cardiac research, teaching & physical simulation

Dynamic ventricular phantoms for device bench testing, medical training and research demonstrations. A potential earlier entry point subject to reproducibility and customer validation.

Nearer-term exploration
02

Digital-twin validation & in-vitro studies

Controlled physical benchmarks for computational heart models, flow studies and selected experimental pharmaceutical workflows. Requires application-specific measurement protocols and validation.

Research opportunity
03

Tissue engineering & bioreactor platforms

Conceptual use of biomimetic mechanical loading in engineered cardiac tissue maturation or perfusion. Requires new biological designs and dedicated studies.

Exploratory concept
04

Extracorporeal circulation & support

Potential future pumping architecture for external perfusion or circulation systems, including selected ECC/ECMO-related research. Blood compatibility, flow characteristics, reliability and safety remain unproven.

High-risk concept
05

Soft implantable artificial heart

Our moonshot: a fully implantable, biomimetic total artificial heart that aims to reproduce native-like mechanics. This demands major advances in biventricular operation, hemocompatibility, durability, controls, energy delivery and clinical validation.

Long-term moonshot
Application order is a proposed commercialization hypothesis, not a verified ranking of technology readiness levels. Each use case will require its own market, engineering, regulatory and intellectual-property assessment.
Evidence, not just ambition

Built. Tested. Learning.

Our FlowerHeart technology has progressed beyond a purely computational concept to physical soft ventricular prototypes and mock-loop testing. The values below are experimental results under specific laboratory conditions, not clinical performance claims.

~94 mLReported stroke volume · S34 silicone prototypeSelected experimental mock-loop result
~8.9 L/minReported cardiac output · S34Selected laboratory condition; not an implantable-device rating
2Prototype material familiesSilicone-matrix and textile-matrix configurations
Next engineering priorities: robust valves and fluid interfaces · repeatability · durability · hemocompatibility · biventricular proof of concept.
The people behind Toricardia

Rooted in engineering. Built for collaboration.

Toricardia builds on FlowerHeart research spanning biomechanics, computational engineering and soft robotics. As the venture takes shape, we are looking to connect scientific, clinical and entrepreneurial expertise.

KO
Technology developer · Venture initiator

Kasra Osouli, PhD

Mechanical engineering and bioengineering researcher focused on biomimetic soft ventricles, cardiac mechanics, and experimental validation.

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Network under development

Clinical & venture collaborators

Scientific partners, clinical advisors and potential co-founders will be featured with permission as the company formation progresses.

Institutional names, affiliations, patents, grants, and partner logos should be confirmed and approved before publishing as startup endorsements.
Help shape what comes next

Let’s engineer a different future for cardiac technology.

We welcome conversations with investors, clinical innovators, research groups, potential co-founders and technology partners.

Toricardia is a proposed company name for an emerging research-based venture, not yet a registered medical-device manufacturer. No product described here is approved for clinical use. Configure a working contact email before publishing.