Tirare
Mobility • Human Amplification • Deep Tech

The Human Was Never Meant To Be The Motor.

Millions of utility vehicles already move goods across India every day.

The vehicle was never the problem. The drivetrain was never the problem.

The human became the weakest component in the system.

Tirare is developing a new category of human-amplification mobility systems built around the Mechanical Rider Intent Interface (MRII) an architecture that allows human effort and electric assistance to operate as one integrated system.

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Explore the engineering architecture, grant-backed development, validation strategy, market analysis, deployment roadmap and future vision behind Tirare.

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₹1L
IIIT Delhi Grant
Prototype
Functional Prototype
MRII
Core Innovation
Patent
Filing In Progress

Human Torque + Motor Torque = Axle Torque

The human should never become unnecessary. The motor should never replace the rider. The motor becomes another pair of legs.

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Where It Started

Tirare Did Not Begin With A Business Plan.

It began with a question.

Founder Statement
Why are people still pulling hundreds of kilograms with their bodies in the age of electric mobility?

Across Indian cities, cargo tricycles move vegetables, water containers, construction materials, gas cylinders and countless other essentials.

Most people see the vehicle.

Very few notice the person pulling it.

The mobility industry has spent years building faster vehicles, larger batteries and more sophisticated electronics.

Yet millions of existing utility vehicles remain dependent on physical labour for propulsion.

Tirare began as an attempt to understand why.

The Unexpected Discovery

The problem was not technological.

Electric motors already existed.

Batteries already existed.

Electric cargo vehicles already existed.

The real challenge was that existing operators could not simply abandon the vehicles they already depended upon.

The barrier was not electrification.

The barrier was replacement.

Field Reality

Before Technology, There Is Reality.

Across India, cargo tricycles, cycle-rickshaws and utility vehicles continue moving goods every day.

Most discussions about electrification begin with vehicles. Tirare began with operators.

Elderly utility vehicle operator

Work Does Not Stop When The Body Does

Many operators continue working well into old age.

Years of repetitive effort accumulate in the knees, back, shoulders and hands.

Strength decreases.

Demand does not.

Income remains tied to movement.

Field Observation
When a vehicle becomes difficult to pedal, the work rarely disappears. The operator simply absorbs more of the burden.

Existing Vehicles

Millions of vehicles already exist and already serve a purpose.

Existing Skills

Operators understand these vehicles and local mechanics already know how to repair them.

Existing Economics

Daily income depends on keeping vehicles in service, not replacing them.

The Question Was Never "How Do We Electrify A Vehicle?"

The more important question was whether electrification could work without disrupting the people who already depend on these vehicles today.

Where Tirare Began

The Vehicle Was Never The Problem.

One afternoon, a cargo tricycle was still moving goods despite a broken pedal. The vehicle was no longer functioning as intended. The rider continued working anyway. Not because the vehicle was reliable. Because stopping work carried a greater cost than operating a damaged machine.

Cargo tricycle operator

A Broken Pedal.
A Working Driver.

The pedal no longer completed a full rotation. The vehicle should have been repaired.

Instead, it remained in daily service.

The obvious engineering question was:

Why continue using a partially broken vehicle?

Because the vehicle was still generating income.

The vehicle was still producing income. Repair required money. Replacement required even more. Downtime meant lost earnings. For the operator, a partially functioning vehicle was often less dangerous than losing a day's work.

Work could not stop.

Observation Before Engineering

This observation changed the engineering question entirely. The challenge was not how to electrify a vehicle. The challenge was understanding why operators continued relying on machines that many product designers would immediately replace. The answer was rarely technical.

It was economic. Any solution that ignored that reality would fail long before the first component failed.

Operators continued moving cargo despite worn components, declining physical strength and vehicles that would normally be considered overdue for replacement.

The challenge was not mobility.

The challenge was preserving livelihoods while reducing effort.

The People Electrification Leaves Behind

In Indian cities, elderly cargo and cycle-rickshaw operators continue working into their seventies and eighties.

Not because they want to.

Because they have to.

Years of repetitive work accumulate in the body. Knees deteriorate. Shoulders weaken. Backs carry decades of strain. Physical capability declines long before economic necessity does.

When strength fails, they do not stop. They step down and pull.

Elderly tricycle operator

The Market Assumes Replacement

Most electrification strategies begin from the perspective of the vehicle. The operator is expected to adapt.

Buy a new vehicle.

Accept a large upfront cost.

Stop working during transition.

Learn a new platform.

Qualify for financing.

For many operators, every one of those assumptions fails.

If Replacement Is The Barrier,
Perhaps Replacement Is
The Wrong Starting Point.

The Turning Point

What If Everyone Is Starting In The Wrong Place?

Most electrification projects begin with a new vehicle.

New chassis. New systems. New financing. New maintenance.

Engineering Principle
What if the vehicle is not the thing that needs replacing?

Existing Vehicles Already Work.

They already move goods. They already generate income. They already have operators, repair networks and years of accumulated trust.

If replacement is the barrier, perhaps replacement is the wrong starting point.

Engineering Constraints

Good Engineering Begins With What Cannot Be Changed.

Tirare was not designed by selecting a motor, battery or drivetrain. It was designed by identifying the realities that any practical solution would have to obey.

Engineering Reality

Millions of cargo tricycles already exist.

They already transport goods.

They already generate income.

They already have repair networks.

Any solution that ignores these systems is not solving a transportation problem. It is creating an adoption problem.

Retrofit Constraint

Existing vehicles cannot be redesigned.

Rear axles cannot be replaced.

Chassis geometry cannot be assumed.

The solution must attach to vehicles that already exist in the field.

Economic Constraint

Operators cannot justify replacing an income-generating asset.

Even technically superior systems fail if adoption cost exceeds practical reality.

Entropy Constraint

Dust.

Shock loading.

Misalignment.

Variable maintenance.

Real-world vehicles do not operate under laboratory conditions.

Repairability Constraint

Local workshops already maintain these vehicles.

New technology must cooperate with existing repair ecosystems rather than replace them.

Human Constraint

The rider remains part of the propulsion system.

Removing the rider from the equation increases power requirements, battery requirements, weight and cost.

Scalability Constraint

A solution designed around a single vehicle configuration cannot scale across India's diverse cargo tricycle fleet.

Constraints Did Not Limit The Solution.

They defined it.

Once these realities were accepted, the objective was no longer building the best electric vehicle.

The objective became enabling existing vehicles to benefit from electrification while remaining familiar, repairable, affordable and useful.

Core Innovation

Mechanical Rider Intent Interface

Most electric assistance systems ask a simple question:

How do we measure rider effort electronically?

Tirare asks a different question.

What if rider intent could be communicated mechanically before it is ever measured electronically?

Engineering Principle
Rider intent should originate in mechanics before it is processed by electronics.
Mechanical Rider Intent Interface

How MRII Works

Conventional systems attempt to infer rider demand electronically through sensors and software.

MRII introduces a mechanical layer between the rider and the electronics.

Rider intent is physically expressed through the drivetrain before it is interpreted by control systems.

This preserves proportional assistance while reducing dependence on expensive torque-sensing architectures.

Rider Intent

Human effort remains the starting point of the system.

The rider continues operating the vehicle naturally.

Mechanical Translation

Rider demand is translated mechanically before electronic assistance is applied.

The system responds to intent, not simply motion.

Proportional Assistance

Electric power supplements human effort instead of replacing it.

Assistance remains coupled to rider participation.

The Rider Is Not A Problem To Be Engineered Away

The objective is to make every unit of human effort produce more useful work.

MRII exists because the architecture begins with human participation, not human replacement.

System Architecture

The Architecture Is Not The Motor

Most electrification projects begin with hardware.

Motor selection. Battery sizing. Controller tuning.

Tirare begins one layer higher.

Before deciding how power should be delivered, the architecture first defines how human effort, machine assistance and vehicle behaviour should relate to one another.

▶ Animation showing Tirare's assistive drivetrain architecture, where human effort and electric assistance contribute torque simultaneously.

Architecture First

Most electrification projects start by selecting components.

Tirare starts by defining the relationship between rider, machine and vehicle.

Components are replaceable.

Architecture is not.

Every subsystem exists to preserve human participation while increasing useful output.

Human Torque
+
Motor Torque
=
Axle Torque

The rider remains part of the system.

The motor becomes another pair of legs.

Human Remains Necessary

The rider is never removed from the propulsion system. Tirare is designed around partnership rather than automation.

Mechanical Before Electronic

Rider intent should be communicated through physical behaviour before being interpreted by electronics.

Amplification Over Replacement

The objective is not replacing labour with electricity. The objective is multiplying useful human effort.

Retrofit Reality

Architecture must respect the vehicles, repair networks and operating conditions that already exist.

Entropy Tolerance

Systems deployed in the real world encounter dust, overload, misalignment, abuse and imperfect maintenance. The architecture must tolerate all of them.

Platform Scalability

The solution must extend across vehicle variations without requiring complete redesign for every deployment.

Architecture Before Components

Motors can change.

Batteries can change.

Controllers can change.

Manufacturing methods can change.

The philosophy cannot.

Tirare's architecture is ultimately a framework for distributing work between humans and machines in a way that improves productivity without removing the rider from the system.

Operational Sequence

How Tirare Works

Conventional electrification attempts to replace human effort.

Tirare amplifies it.

The system begins with the rider, not the motor.

01

Rider Applies Effort

The operator pedals normally. No special controls, sensors or new driving behaviour are required.

02

Intent Is Communicated

The Mechanical Rider Intent Interface captures rider demand before assistance is generated.

03

Assistance Is Calculated

The system determines how much support should be provided based on rider intent rather than replacing rider participation.

04

Motor Produces Torque

Electrical energy is converted into supplemental mechanical torque.

05

Torque Joins The Rider

Motor torque is combined with human torque rather than competing against it.

06

The Vehicle Moves

The axle receives both human and electric contribution, reducing effort while preserving human participation.

Human Torque
+
Motor Torque
=
Axle Torque

This is the core equation behind Tirare.

The rider remains part of the propulsion system.

Assistance exists to amplify human capability, not eliminate it.

Architecture Evolution

Every Architecture Solves A Different Problem

The current Tirare platform did not emerge from a single idea.

It emerged through a process of discovering which constraints actually mattered and rejecting designs that optimized for the wrong ones.

Interactive Engineering Model • Drag to explore

Reality

The project did not begin with a motor.

It began with an existing vehicle already operating in the field.

The vehicle already transported goods.

The vehicle already generated income.

The vehicle already had a repair ecosystem.

Any solution that required replacing these advantages created a new problem instead of solving one.

First Attempt

Early architectures focused on power delivery.

The objective was achieving efficient torque transfer and strong electrical assistance.

On paper these concepts worked.

In deployment they introduced new complexity, increased manufacturing demands and reduced retrofit flexibility.

Technical viability alone was not enough.

Interactive Engineering Model • Drag to explore

Interactive Engineering Model • Drag to explore

Constraint Collision

Eventually the challenge stopped being torque.

The challenge became reality.

Dust.

Misalignment.

Overloading.

Repair quality.

Vehicle-to-vehicle variation.

Several otherwise successful concepts failed at this stage.

Current Platform

The final architecture emerged only after retrofit compatibility, serviceability and entropy tolerance became primary engineering requirements.

The result is not the most technically impressive mechanism possible.

It is the mechanism most likely to survive deployment.

Every major component exists because an alternative failed under a real-world constraint.

Interactive Engineering Model • Drag to explore

Engineering Is Mostly Rejection

A successful design is rarely the first idea.

It is usually the last surviving idea.

The current Tirare platform exists because other architectures failed when confronted with reality.

Validation

Ideas Are Cheap.
Validation Is Not.

Tirare is not a concept created in isolation.

The project has been evaluated through grants, engineering reviews, innovation programs and external technical discussions.

₹1L
Grant Funding Awarded
96
Pages Of Engineering Documentation
3+
Major Architecture Iterations

IIIT Delhi Grant

Tirare was awarded ₹1,00,000 in grant funding following technical evaluation and project review.

STMicroelectronics Ecosystem

Development has received exposure to industry and innovation networks connected to STMicroelectronics-supported programs.

iHub Anubhuti

The project has been presented within recognised innovation and entrepreneurship ecosystems focused on deep-technology development.

Patent Development

Core architectural innovations are being documented and prepared for intellectual property protection.

Engineering Proof Of Concept

The platform is supported by extensive engineering documentation covering architecture, constraints, trade-offs and system rationale.

Architecture Iteration

Multiple architectures were modelled, analysed and rejected before arriving at the current platform design.

IIIT Delhi
ST Hub
iHub Anubhuti

Validation Does Not Mean Finished.

Tirare remains an evolving engineering project.

The purpose of validation is not to prove that the work is complete.

It is to demonstrate that the underlying problem, architecture and engineering direction have been serious enough for others to invest time, expertise and resources into the journey.

Next Steps

The Road Ahead

The architecture exists. The engineering philosophy exists. The next phase is proving the system in the physical world.

01

Functional Prototype

Construct and validate the first fully integrated MRII-equipped Tirare system.

02

Field Deployment

Install prototypes on working cargo tricycles and observe operation under real commercial conditions.

03

Data & Optimization

Measure rider effort reduction, energy consumption, durability and maintenance requirements.

04

Pilot Manufacturing

Develop repeatable production processes and supplier relationships for low-volume deployment.

05

Platform Expansion

Extend the architecture beyond cargo tricycles into broader utility mobility applications.

Long-Term Objective

Tirare is not attempting to build another electric vehicle.

The long-term objective is creating a new category of human-amplification mobility systems where human effort and electric assistance operate as a single integrated architecture.

Platform Vision

Tirare Was Never About A Cargo Tricycle.

Cargo tricycles were simply where the problem became impossible to ignore.

Human Capability
Should Not Determine
Economic Participation.

Today

Tirare begins with manually operated cargo tricycles used for logistics, transportation and urban utility work.

Tomorrow

The same rider-intent architecture can be adapted to other forms of human-powered utility vehicles where effort limits productivity.

Eventually

Assistance systems become a layer added to existing mobility ecosystems rather than requiring complete replacement.

A Different View Of Electrification

Modern mobility often assumes progress means replacing what already exists.

New vehicle.

New infrastructure.

New financing.

New dependencies.

Tirare explores a different possibility.

What if progress could be achieved by enhancing existing systems rather than discarding them?

The Long-Term Question

If rider intent can be captured mechanically, translated intelligently and amplified efficiently...

How many forms of mobility become more accessible without becoming more expensive?

Tirare exists to explore that question.

Founder

Engineering Begins With Observation.

Founder of Tirare

Tirare did not begin with a business plan.

It did not begin with venture capital, market reports or electrification trends.

It began with a simple observation:

People continued performing physically demanding work long after their bodies should have forced them to stop.

That observation became a question.

Why was mobility innovation focused on replacing vehicles while ignoring the people operating them?

Engineering Principle
The vehicle was not failing. The rider was being asked to do more than the vehicle.

Engineering

Tirare emerged through independent engineering research, CAD development, architecture iteration and field observation.

Validation

The project has received support through innovation and entrepreneurship programs, helping advance the concept beyond an initial idea.

Mission

Build systems that increase human capability without making existing livelihoods obsolete.

Beyond Tirare

Tirare is not the destination.

It is the first exploration of a broader belief:

Engineering should reduce human limitation without reducing human relevance.

Contact

The Work Has Only
Just Begun.

Tirare is currently advancing through engineering development, validation, intellectual property protection and deployment planning.

We welcome conversations with engineers, manufacturers, researchers, institutions, mobility organizations, grant programs and potential collaborators interested in human-centered transportation systems.

Anurag Mishra

Founder
Tirare Mobility Technologies Pvt. Ltd.

📧 anuragfromtirare@gmail.com

📞 +91 96506 10688

🔗 LinkedIn

linkedin.com/in/anurag-mishra-b25733340