01
MOLECULAR
The language
of life
DNA stores genetic information. Molecular biology explores how that information is expressed, regulated and connected to the workings of a cell.
Explore the foundation ↗CHAPTER 06 / HUMAN + ROBOT
Intelligence.
By your side.
Our next chapter brings biology and robotics closer together. We want to connect human signals, soft tactile interfaces and local intelligence in systems shaped around the person.
Explore Human + Robot Enter Intent Studio+A research direction. A practical starting point.
A system shaped around the person.
A system shaped around the person.
HUMAN + ROBOT / SHARED INTENT
FIG. 01 / HUMAN + ROBOT
THE HUMAN CONNECTION
SIGNAL → INTELLIGENCE → HUMAN
MOLECULAR BIOLOGY+QUANTUM PHYSICS+DIGITAL INTELLIGENCE
Intelligence in the interaction.
Explore a shared decision
Where signals meet.
Explore neural interfacesNEW / HUMAN-CENTRED ROBOTICS
A softer touch.
A clearer decision.
What should a robot do when a signal becomes uncertain? Explore our direction for a loop connecting human intention, measured contact and understandable feedback.
- 01Sense the interaction
- 02Make uncertainty visible
- 03Keep the person in the loop
NEW / SYSTEM STUDIO
One person.
Many possibilities.
Choose a purpose. Combine movement, muscle and environmental signals. See the raw data budget and take a clear concept brief with you.
01Choose02Configure03Export
Open System StudioExplore the layers of an interface ↗An interactive planning tool with stated assumptions. The image illustrates a future concept.
CHAPTER 04 / CONNECTION OBSERVATORY
NEW PERSPECTIVES / 2026Closer to life.
Further in thought.
A quiet interface on the skin. A material that translates ionic activity into electronic signals. Explore two scales of the same ambition: technology that works closer to the person.
Enter the observatoryExplore the external research and our proposed direction in the observatory.
INTERACTIVE EXPERIENCEFollow a signal. Change the conditions.NEW / EXPLORE THE HUMAN FRONTIER
Four fields.
A human purpose.
A closer look at the technologies that could connect biological signals with useful intelligence. Explore the evidence, the open questions and our direction.
01 / NEURALNeurons & interfaces
How electrical activity becomes communication. Brain–computer interfaces, neural signals and the role of machine learning.
Explore the connection ↗
02 / SENSINGSensors & local AI
From the skin to a digital response. Flexible electronics, muscle signals and models that work close to the person.
Follow the signal ↗
03 / MOLECULARDNA, telomeres & information
The code and the protective ends of chromosomes. Discover what molecules can tell us, and what they cannot.
Look inside the cell ↗
04 / NANO + QUANTUMSmaller structures. Finer sensing.
DNA nanostructures, sensitive magnetic measurements and the scientific tools that let us investigate smaller scales.
Explore the small scale ↗Concept visualisations of our research direction.
THE NEXT STEP
One signal. One model. Human feedback.
Our proposed first step is a non-invasive sensor demonstrator: measure a defined signal, check its quality and make the interpretation understandable. Broader human augmentation remains a research ambition.
See the prototype direction ↗CHAPTER 03 / RESEARCH ATLAS
Inside the connection.
Beyond the surface.
Explore the building blocks: how a chip handles events, how cells meet a microchannel, how a model represents a biological process, and how a person feels a response.
Open the research atlas ↗
05 / NEUROMORPHIC
Computing, inspired by neurons.
Events, connections and energy. Explore a different way to process information.
Explore the chip ↗
06 / BIOCHIPS
Biology meets microengineering.
Tiny channels, controlled environments and cell models that help researchers ask precise questions.
Follow the microchannel ↗
07 / DIGITAL MODELS
A model with a purpose.
Connect measurements to a defined simulation. Test predictions and make uncertainty visible.
Explore the model ↗
08 / HUMAN FEEDBACK
Close the loop. Feel the response.
Touch and meaningful feedback bring the digital result back to the person.
Discover the feedback ↗The atlas links published research to open questions and our proposed development steps.
01 / OUR VISION
Look closer.
Think further.
What becomes possible when we connect the language of biology with the tools of the digital world?
Nano Genetics Sweden AB is shaping a vision at the intersection of molecular biology, quantum science and digital technology. We want to make complex connections understandable — and explore how data, models and simulation can help us ask better questions.
Our direction: explore, model, validate. This website introduces our vision and fields of interest; it does not present proprietary research results or clinical services.
02 / CONNECTED DISCIPLINES
Three perspectives.
One connected vision.
From molecules to models. Each perspective reveals a different part of the picture.
The language
02
QUANTUM
Nature at its
smallest scale
Quantum biology investigates the role of quantum effects in specific biological processes. Magnetic sensitivity in bird cryptochrome is one actively studied example.
Follow the research ↗03
DIGITAL
A new way
to understand
Computation can help us analyse biological data and predict molecular structures. Models offer insight — their predictions still need careful evaluation.
Discover the possibilities ↗03 / INTERACTIVE EXPLORER
From structure
to information.
One sequence. Two ways to see it. Explore how a schematic DNA structure can become a digital representation.
DNA / EXPLORER 01ILLUSTRATIVE MODEL
5′ → 3′
A = 00 T = 01 C = 10 G = 11
A / T C / G16 BASE PAIRS
The double helix of life
Two complementary strands: A pairs with T, and C with G. Rotate the model to see its structure from another angle.
An educational illustration, not an atomic simulation. The sequence is synthetic. The binary mapping is an arbitrary encoding, not a quantum calculation.
04 / CONNECTED SYSTEMS
Different worlds.
One connected picture.
Our vision is a connected chain from events in biology to information people can understand.
BIOLOGY
Molecules & cells
Biological context gives a measurement meaning.
SENSING
Sensors & interfaces
Choose a measurement principle suited to the signal and environment.
CONNECTION
Data & systems
Connect timestamps, units, provenance and quality.
INTELLIGENCE
Models & interpretation
Compare signals and make uncertainty visible.
HUMAN
People at the centre
Understand, review and make informed decisions.
Concept architecture • no connected devices or personal data collection on this website.
05 / SENSOR ATLAS
Every signal
opens a door.
Different sensor types answer different questions. We want to explore how they can complement one another.
Light, colour and fluorescence
Optical signals
Optical measurements can reveal information about a sample. Wavelength, background and calibration affect interpretation.
Chemistry becomes an electrical signal
Electrochemical sensors
A chemical interaction can become a measurable electrical change. Selectivity and drift need to be checked.
The body in context
Movement & physiology
Movement, temperature and electrical biosignals can provide different perspectives. A signal is not a diagnosis.
The surroundings matter too
Environment & context
Temperature, light and humidity can help us understand measurement conditions and interference.
Close to the measurement target
Nano & molecular interfaces
Nanostructures are a research area for interfaces between materials and biological systems. Function must be validated in the relevant environment.
A different way to sense
Quantum sensing
Quantum sensors can measure quantities such as magnetic fields. Diamond NV centres are studied at very small scales; this is distinct from quantum biology.
06 / INTERACTIVE SIGNAL LAB
From signal
to understanding.
Choose a scenario and add interference. See why data quality is part of every digital model.
NANO GENETICS / SIGNAL LABSYNTHETIC DATA
— Measured (synthetic)┄ Reference
Relative amplitude
Noise / reference (RMS)
SIGNAL → CONTEXT → HUMAN
01 /
02 / Check calibration and measurement conditions.
03 / Let a person review the interpretation.
A simplified demonstration in relative units. Curves are generated in your browser and do not represent a real sensor, molecule or patient.
07 / HUMAN IN THE LOOP
Technology that supports.
People who guide.
Our goal is to make complex systems understandable and useful, starting with human needs.
Understand the signal
Show what was measured, when and under what conditions.
Understand uncertainty
Separate observations from model assumptions and suggestions.
Stay in control
Design future systems with clear permissions, consent and human review.
08 / DEVELOPMENT HORIZON
One vision.
Clear next steps.
A proposed development path for Nano Genetics — not a list of finished products.
Define
Choose a concrete problem, a signal and the person the system should support.
Build a prototype
Connect a bounded sensor stream to a visualisation with explicit data quality.
Test & compare
Evaluate against reference measurements and document limitations.
Integrate responsibly
Develop interoperability, security and usability before scaling.
09 / THE NEXT CHAPTER
Biological by nature.
Digital by possibility.
IGI
A direction for the next stage of IGI.
Our ambition is to connect knowledge across scales: from molecular processes to digital models. The next step is to define focused questions, identify suitable data and build concepts that can be tested.
VISION & CONCEPT DEVELOPMENT10 / SCIENTIFIC FOUNDATIONS
Curiosity,
grounded in evidence.
The science that informs our questions. Independent sources, not claims of affiliation or work performed by Nano Genetics.
NHGRI / DNA
02Deoxyribonucleic Acid (DNA) Fact Sheet
An introduction to DNA, its structure and the information it carries.
XU ET AL. / NATURE / 2021
03Magnetic sensitivity of cryptochrome 4 from a migratory songbird
Laboratory evidence of magnetic sensitivity in a bird protein; the biological mechanism remains a research question.
JUMPER ET AL. / NATURE / 2021
04Highly accurate protein structure prediction with AlphaFold
A milestone in computational structure prediction, with defined capabilities and limitations.
NIBIB / Sensors
An introduction to biomedical sensors and measurement principles.
NIST / Diamond NV Center Magnetometry
Research background on diamond-based magnetic sensing at small scales.