Nanotechnology
Materials and devices engineered at the smallest scale, where small changes unlock large gains.
Explore NanotechnologyWe offer high-tech solutions using artificial intelligence, IoT, blockchain and nanotechnology, and integrate them into our ventures and products to deliver experiences users have never seen before.
Materials and devices engineered at the smallest scale, where small changes unlock large gains.
Explore NanotechnologyConnected devices that sense, report and respond, from a single sensor to a whole fleet.
Explore Internet of ThingsShared records that cannot be quietly altered, so every party can trust the same data.
Explore BlockchainSystems that learn from data and automate decisions, built into products people use every day.
Explore Artificial Intelligence01 · What we do
We build on four technologies and apply them across our own ventures. That lets us test ideas in real products, learn from real users, and carry what works into the next solution.
Systems that learn from data and automate decisions, built into products people use every day.
Learn moreConnected devices that sense, report and respond, from a single sensor to a whole fleet.
Learn moreShared records that cannot be quietly altered, so every party can trust the same data.
Learn moreMaterials and devices engineered at the smallest scale, where small changes unlock large gains.
Learn more02 · How the four fit
Each technology solves a different part of the same problem.
Better materials make sensors, batteries and coatings smaller, tougher and more efficient.
Connected devices capture what happens in the physical world, as it happens.
Models find patterns, make predictions and automate responses at a scale people cannot.
A shared ledger lets several parties rely on the same history without a single gatekeeper.
03 · Solutions
Pick a technology to see how it works, where it applies and what to watch for.
Software that learns patterns from data to predict, classify, generate or decide, and the engineering needed to run it reliably.
Artificial intelligence covers systems that learn from examples instead of following only hand-written rules. A model is trained on historical data, tested against data it has not seen, and then deployed to make predictions or generate content.
Modern language models can write, summarise and answer questions. When they are connected to a company's own documents through retrieval, their answers can be grounded in approved sources instead of general knowledge.
A model is only the start. Production AI needs clean data pipelines, evaluation before release, monitoring for drift and clear rules for when a person must review the result.
Arrival-time prediction, dynamic routing and demand forecasting for vehicles and riders.
Route optimisation, load planning and delay prediction across delivery networks.
Visual defect detection and predictive maintenance from machine data.
Fraud detection, credit risk scoring and document processing.
Assistants that answer from approved documents and hand over to people when unsure.
Demand forecasting, personalisation and inventory planning.
Not always. Many useful applications begin with pre-trained models combined with your own documents. Others, such as defect detection, need labelled examples of your own.
By grounding answers in approved sources, testing against a set of known questions before release, and keeping a person in the loop for high-risk decisions.
That depends on how the system is deployed. The hosting location, the provider terms and any retention rules should be agreed before any data is used.
Connected devices that sense the physical world, send data to software and act on instructions, from one sensor to a whole fleet.
An Internet of Things system has four layers: devices with sensors and a small processor, a network connection, a platform that receives and stores the data, and applications that turn it into alerts, dashboards or automatic actions.
Connectivity is chosen for the job. Wi-Fi suits buildings, cellular suits vehicles and remote sites, Bluetooth Low Energy suits short range and low power, and LoRaWAN suits small messages over long distances.
Processing can happen on the device, at the edge or in the cloud. The right split depends on how fast a response must be, how much data is produced and how much connectivity costs.
Vehicle location, driving behaviour and battery or engine health reported in real time.
Temperature and humidity tracking for goods in storage and transit.
Condition monitoring that flags equipment wear before it causes a stop.
Occupancy, air quality and energy use measured and controlled automatically.
Soil moisture and weather sensing to guide irrigation.
Smart meters and network sensors that report usage and faults.
It depends on range, power, data volume and cost. Cellular suits moving assets, Wi-Fi suits buildings and low-power wide-area networks suit small, infrequent messages.
Unique credentials per device, encrypted transport, minimal open services and signed over-the-air updates, plus a way to revoke a lost or compromised device.
Edge processing reduces delay and bandwidth. Cloud processing is simpler to manage and scale. Many systems use both.
Shared records that several parties can trust without a central gatekeeper, and the programmable rules that run on top of them.
A blockchain is a shared ledger. Records are grouped into blocks, and each block carries a cryptographic fingerprint of the one before it, so changing old data would break every later block and be detected.
Networks agree on new records through a consensus process. Public networks are open to anyone. Permissioned networks admit only approved participants, which is common for business use.
Smart contracts are programs stored on the ledger that run automatically when conditions are met, for example releasing a payment when a delivery is confirmed.
Provenance records that follow a product from source to shelf.
Certificates and licences that anyone can verify without calling the issuer.
Tamper-evident logs of approvals and changes.
Shared records that reduce reconciliation between organisations.
Verifiable credentials that people control and share selectively.
Proof that a document existed in a given form at a given time.
When there is a single trusted owner of the data, when records must be easy to change or delete, or when performance and cost matter more than shared verification.
Public networks suit open participation and public verification. Permissioned networks suit a known group of organisations that need privacy and control.
They are as safe as their design, testing and review. Independent audits and staged releases reduce the risk but do not remove it.
Engineering materials and devices at the scale of billionths of a metre, where size itself changes how a material behaves.
Nanotechnology works with structures between about 1 and 100 nanometres. At this scale, properties such as strength, conductivity, colour and reactivity can differ from the same material in bulk.
Structures are made either top-down, by carving material away with techniques such as lithography, or bottom-up, by letting atoms and molecules assemble through chemical synthesis. Microscopes and spectroscopy are used to check the result.
The hard part is scaling up. A result that works in a laboratory must be reproducible, safe and affordable in production.
Transistors and memory built at nanometre dimensions.
Nano-structured electrodes that improve battery capacity and charging.
Thin films that resist corrosion, wear, fouling or water.
Diagnostic sensors and targeted drug delivery.
Membranes and filters that remove very small particles.
Devices that detect very small amounts of gases or chemicals.
Yes. It is central to modern semiconductors and is used in coatings, batteries, filtration and some medical products.
Some nanoparticles behave differently from the same material in bulk, so exposure, disposal and long-term effects are assessed case by case.
Better materials improve the sensors, batteries and chips that IoT devices and AI systems depend on.
04 · Ventures
Products built on shared technology and engineering.
Mobility and delivery.
Mopedo is part of the Future Tech portfolio, built on our shared capabilities in AI, IoT, blockchain and nanotechnology.
Smart mobility.
Cyberbike is part of the Future Tech portfolio, built on our shared capabilities in AI, IoT, blockchain and nanotechnology.
Artificial intelligence.
Axra AI is part of the Future Tech portfolio, built on our shared capabilities in AI, IoT, blockchain and nanotechnology.
05 · How we work
We build AI, IoT, blockchain and nanotechnology into our ventures and products instead of treating them as separate offerings.
An always-on learning agenda drives steady development of our people, our skills and our products.
We build and transfer digital skills, proficiency and ideas across our innovation network.
06 · About
We offer high-tech solutions using cutting-edge technologies like artificial intelligence, IoT, blockchain and nanotechnology.
We integrate these technologies into our ventures, including Mopedo, Cyberbike and Axra AI, and into our other products, to give users an experience that is new and built to the best quality we can deliver.
Future Tech IT Global Services Pvt. Ltd.07 · Careers
Our always-on learning agenda means you build new skills as the work changes, and share them across our innovation network.
Models, data pipelines and AI features in live products.
Devices, firmware, connectivity and telemetry.
Smart contracts, ledgers and verification services.
Nanotechnology research and prototyping.
08 · Contact