We develop engineering MVPs for startups and product teams: functional devices with electronics, firmware, enclosure, and production-oriented architecture ready for investor presentations, early user validation, and pilot discussions.
Slides and renders are no longer enough. You need a physical device that demonstrates the core functionality of your product and helps communicate the idea to investors, partners, or pilot customers. The MVP shows that you are serious about the product and have a solid start.
An MVP allows you to validate real-world usage without investing in tooling, molds, or mass production. You can test assumptions, identify usability issues, and improve the product before early scaling. This is important because UX is hard to foresee.
Specialists usually handle only their part. Who will handle the whole system? At EnCata, we own the full stack and resolve system issues immediately. So when actuator noise kills the sensor signal, or HMI scope creeps into the power budget, we resolve it in one conversation, not across three contractor threads.
EnCata supports products from Feasibility Study through Low Volume Manufacturing.
A structured research phase that turns an initial idea into a clear product direction. We define the problem, target users, business goals, key requirements, risks, constraints, and development priorities before moving into technical validation.
A technical and business validation phase that determines whether the proposed product can be realistically built, scaled, and produced within target cost, performance, and manufacturing constraints. We compare possible architectures, identify risks, estimate key costs, and recommend the most viable development path.
A focused physical setup that tests whether the core technical principle can work in practice. At this stage, we isolate the critical assumption, use only the components and engineering effort needed for validation, and collect measurable evidence before moving to prototype development.
A functional product version used to test how all key units, components, and systems work together in conditions close to real use. At this stage, the product includes core features, a more detailed design and components than a PoC, while the enclosure and final production setup may still be refined.
A functional engineering device that integrates the core electronics, firmware, enclosure, and mechanical elements into a demonstrable product. At this stage, the team moves beyond isolated prototypes and prepares the solution for investor presentations, early user validation, field or laboratory testing, and pilot discussions.
A limited production run that checks whether the MVP can be manufactured consistently across multiple units. At this stage, we validate the assembly process, tooling, testing, quality control, yield, packaging, and readiness for the next manufacturing stage.
EnCata supports products from Feasibility Study through Low Volume Manufacturing.
A structured investigation into whether the proposed solution is technically and commercially viable. We identify critical risks early and define the right technical approach before committing significant resources.
A technical and business validation phase that determines whether the proposed product can be realistically built, scaled, and produced within target cost, performance, and manufacturing constraints. We compare possible architectures, identify risks, estimate key costs, and recommend the most viable development path.
A focused physical setup that tests whether the core technical principle can work in practice. At this stage, we isolate the critical assumption, use only the components and engineering effort needed for validation, and collect measurable evidence before moving to prototype development.
A functional product version used to test how all key units, components, and systems work together in conditions close to real use. At this stage, the product includes core features, a more detailed design and components than a PoC, while the enclosure and final production setup may still be refined.
A functional engineering device that integrates the core electronics, firmware, enclosure, and mechanical elements into a demonstrable product. At this stage, the team moves beyond isolated prototypes and prepares the solution for investor presentations, early user validation, field or laboratory testing, and pilot discussions.
A limited production run that checks whether the MVP can be manufactured consistently across multiple units. At this stage, we validate the assembly process, tooling, testing, quality control, yield, packaging, and readiness for the next manufacturing stage.
Our team is eager to discuss how we can assist you and answer any questions you may have. Don't hesitate to reach out!
Through dozens of projects, we’ve learned what our work must include to ensure the success of an MVP.
The list below is not exhaustive, but highlights what matters most.
At the MVP stage, we work on critical design challenges that could undermine your product success. We think ahead about BOM, manufacturability, component sourcing, and future scaling.
We focus on the product’s primary engineering value: sensing, motion, automation, control, data collection, or power conversion – without unnecessary complexity or secondary features.
An MVP should work not only on the bench but also during presentations, field tests, and customer demonstrations. We develop integrated systems where all parts work seamlessly together.
You receive a complete engineering package for the MVP stage: BOM, CAD files, PCB design files, firmware, assembly documentation, and recommendations for the next development stages including pilot manufacturing and DFM optimization.
We build demonstrable engineering devices, not temporary lab setups. Our MVPs are designed for validation, investor presentations, and early field testing.
We work with startups and product teams worldwide and deliver hardware internationally.
Mechanical, electronics, and firmware engineers. One design file. One weekly call. Tradeoffs resolved before they delay you.
NDA by default. Full IP transfer
Most teams evaluate hardware MVPs at a visible level: core functionality, industrial design, user interaction, demonstration readiness.
This aligns with how MVPs are usually perceived: a product that demonstrates the idea and allows early validation.
But in hardware, this is only part of the picture.
Behind every demonstrable device, there is a less visible engineering layer that defines whether the MVP can survive real testing, repeated demonstrations, and future product development.
Electronics, power systems, sensors, and antennas must work together inside a cramped enclosure.
An MVP must survive user handling, unstable operating conditions, transportation, etc.
Enclosures, electronics, and firmware are all always refined through testing and iterations.
Work that highlights the incredible technologies, solutions, and products EnCata developed
EnCata developed an 8K VR headset for sports training which featured ultra-high resolution, a wide field of view, and compact dimensions. It allowed real-time interaction between players in different places. The prototype was ready for pilot production in just 8 months.
display resolution
field of view
EnCata developed a dual-circuit brain cooling system for therapeutic use in stroke rehabilitation, neurotrauma, and psychiatric care. The system includes a portable cooling control unit and a head-cooling helmet.
Skin surface temperature under helmet
Cooling capacity
EnCata supported a robotics startup as an engineering contractor, developing a custom warehouse robot (400 kg load) for indoor and outdoor use — from concept to pilot-ready prototype. All IP belongs to the customer.
from concept to fully functional robot prototype
the robot’s maximum load
EnCata provided engineering services for a startup developing a custom soil testing rig with a stabilometer and load system. We delivered mechanical engineering, CAD, FEA, prototyping, and documentation. Built and tested from scratch in just 5 months.
Maximum pressure capacity
Soil sample replacement time
EnCata developed a smart kitchen appliance for a European company entering the smart home market. We delivered feasibility studies, electronics, firmware, and a working prototype for a device that brews coffee, tea, and prepares baby formula.
to cool water from 100 °C to 38 °C
filed during development
Our team is eager to discuss how we can assist you and answer any questions you may have. Don't hesitate to reach out!
We combine multiple engineering disciplines to develop MVP devices suitable for demonstrations, early validation, and pilot discussions.
design sketching; competitors analysis, ergonomics and special human factors, solid and surface modelling
metal structures; drives, gearboxes and suspension units; pneumatics and hydraulics; robotics and complex kinematics
PCB design and prototyping, PLC programming and industrial automation, PF design, Battery management systems (BMS)
injection molding, metal bending and welding, CNC machining, wiring and assembling.
Every MVP we deliver is an integrated engineering device, not a lab setup dressed up for a meeting. Here's what that means in practice.
Even at the MVP stage, engineering choices affect future manufacturing.
We consider BOM, sourcing, enclosure technologies, and architecture decisions to simplify the transition toward pilot production later.
Even at the MVP stage, changes in electronics, enclosure, or functionality can affect the entire system, so key iterations are reviewed together throughout development.
Before delivery, we stress-test the system through transportation, charging cycles, and repeated demos. It fails in our facility, not in front of your investor.
Before building a fully integrated MVP, we may use simplified setups or faster prototyping methods to validate key assumptions with lower cost and risk.
We serve as your all-in-one team, eliminating the need to coordinate with various freelancers or companies.
Deep domain understanding increases the success rate of your product.
Each MVP project is unique; however, our experience shows that most engineering MVP developments fit within this timeframe.
