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NEURO-INSERTION SOLUTIONS

for Human Digital Twins

01
Use cases
Technology for Intervening in Non-Compressible Haemorrhage

We are pioneering AI-driven digital twins to revolutionise emergency trauma care, particularly in combat and high-stakes settings where non-compressible haemorrhage poses a lethal threat. Our Emergency Assistant System will provide personalised digital twins of the vascular system, leveraging pre-scan data like ultrasound or CT to simulate hemodynamics in real-time.


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Preventing, Detecting, and Supporting Musculoskeletal Conditions

We harness neuro-symbolic digital twins to transform musculoskeletal (MSK) care, preventing injuries, detecting risks early, and supporting rehabilitation. By modelling biomechanics with data from wearables, IoT sensors, and anonymised health records, our technology provides verifiable, personalised simulations of joint, muscle, and bone interactions.


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Creation of Treatment Scenarios of Wound Healing

Unlocking the complexities of wound healing, we employ neuro-symbolic digital twins to simulate biological processes and generate optimised, personalised intervention protocols. Our technology models multi-level interactions—from tissue regeneration to cellular and molecular dynamics—drawing on algebraic systems proven in virus-cell simulations and protein interactions.

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Predictive Cardiovascular Monitoring


We propose advanced predictive cardiovascular monitoring, simulating dynamics from real-time wearable data to detect critical conditions early and assess personalised risks. Our neuro-algebraic framework combines AI’s efficiency with algebraic precision, creating reliable models of heart and vascular systems.



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02

News

Neuro-Insertion Solutions Ltd at the “Early detection of less common cancers” event

15/01/2026, London

Our Leader Researcher, Prof. O. Letychevsky, attended the event “Early detection of less common cancers” organised by the Office for Life Sciences and Innovate UK in London on 15 January 2026.

It was the first of three cross-disciplinary collaborative sandpits focused on driving the early detection and diagnosis of cancer.
As was mentioned by organisers, these sandpits aim to bring participants together to form cross-sector consortia ahead of the anticipated launch of an early cancer diagnosis funding call, potentially covering the evaluation of early cancer diagnosis innovations, including for the detection of less common cancers, such as brain, gynaecological, sarcoma, haematological, hepato-pancreato-biliary cancers, and so on.

One of the main issues discussed at the event is the problem of data in the modern UK healthcare system.
As one of the key solutions for processing and analysing large sets of medical data, personalising medicine, and improving the qualitative and quantitative indicators of early cancer diagnosis, Oleksandr proposed a project that considers the creation of a library of Human Digital Twins. The proposal aroused interest among the participants, lively discussions, and debates.

We thank the Office for Life Sciences and Innovate UK for the provided opportunities. See you at the next events.

“Microbiome Engineering for Resilience and Performance” workshop

03/02/2026, Birmingham

On February 3-4, in Birmingham, our lead researcher, Prof. O. Letychevsky, participated in the sandpit workshop “Microbiome Engineering for Resilience and Performance” that was organised by Defence Science and Technology Laboratory (DSTL).

The sandpit was focused on how engineering of the human microbiome could help to enhance the resilience and performance of defence personnel.

In the process of working together with leading UK specialists, the Digital Microbiome project was proposed and presented to interested investors.

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Neuro-symbolic
Digital Twins

How we do it

Human Digital Twins

We use digital twins, which are virtual copies of natural entities or human-made objects.

We apply the neuro-insertion method in biology and medicine, where digital twins of human physiological systems are created, in particular, of the vascular and musculoskeletal systems, heart, malignant tumours or wounds.

The neuro-insertion approach combines AI technology and an algebraic approach, which includes formal methods and insertion modelling.

Insertion Modelling

The insertion modelling paradigm was introduced in the late 1990s as a generalisation of the theory of automata and transition systems. The main feature of insertion modelling was that this technology considered the interaction of entities, the so-called agents, in a certain environment, each of which represents a transitional system (or automaton) that changes its state under the influence of other agents and the environment.

Insertion technology, in particular the insertion modelling system, has been developed into a powerful modelling tool in various fields of science and industry over the past two decades. Insertion modelling has been used for verification, testing, and re-engineering of software and hardware systems [1, 2], in building cybersecurity systems [3], in physics and biology research [4], in blockchain technology [5], and in other areas.

In the last few years, insertion modelling has been combined with artificial intelligence methods and used in digital twin technology, which has been actively developing over the past decade.

Synergy of Insertion Modelling and AI

The insertion model can be combined with a deep learning neural network, which is built and trained during operation or created previously on existing data sets. Such a neural network interacts with the insertion model.

The insertion model can be considered as a digital twin of some multi-agent entity, for example, a transportation system, a nuclear reactor, a blockchain platform, and so on.

Our method consists of creating a digital twin as an algebraic specification (insertion model), which interacts with a neural network trained on example data obtained from behavioural scenarios. We consider such a combination of models as a neuro-insertion model.

04
Project
Roadmap

Where are we now

Current State: TRL2

Our neuro-symbolic digital twin solution is at TRL 2 (technology concept formulated). We have developed a conceptual approach combining neural networks and algebraic modelling for human digital twins.

Our long-term goal is a universal neuro-symbolic modelling platform for civilian and military medicine.

Overall Roadmap to Operational Solution:


• TRL 3: Experimental concept proof (6 months – 1 year).

• TRL 5-6: Digital twin prototype development (for chosen case of use) (1-2 years).

• TRL 7: Integration with wearable biosensors and telemedicine systems for real-time monitoring (1-2 years).

• TRL 8: Pilot implementation in civilian hospitals and field medical centres (2-3 years).

• TRL 9: Certification and commercialisation as a universal platform for personalised medicine and military applications (2-3 years).

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About Us

Who we are

We are the team with over 15 years of experience in algebraic modelling across various domains, including formal system verification, software and hardware, and physical and chemical process modelling.

The result of this extensive work is an algebraic modelling system used in numerous projects, which will now be applied to create human digital twins.

The team possesses expertise in developing AI models and algebraic modelling. We collaborate with UK universities (Strathclyde, Leeds, and Edinburgh), which provide access to data, expertise, and additional researchers (students and postgraduates).

06
People

Leadership Team