ABOUT & VISION
Engineering built on clarity, accountability, and field reality.
Our approach: align requirements early, design vendor-neutral systems, and deliver documentation teams can build and service.
Our approach: align requirements early, design vendor-neutral systems, and deliver documentation teams can build and service.
Scroll down to our 20-point engineering-led framework for building
modern mobile machines — from hydraulics to software.
Team PrimeHydroSystems
- Alexander RyabovCo-Founder & Business Development Lead
8+ years in sales at HAWE Hydraulik and 5 years at Danfoss. Led international business development across mobile hydraulics and machine control solutions. 100+ projects delivered with OEMs and machine builders—aligning technical scope, timelines, and commercial outcomes from first discussion to delivery.
- Nikolay SafonovCo-Founder & Technical Director
12 years at Danfoss, specializing in mobile machine control systems and hydraulic automation. Develops architecture, calculations, control logic, and commissioning workflows—from hydraulic sizing to PLC/ECU software, CAN integration, HMI and diagnostics. 100+ projects delivered using Danfoss PLUS+1 and field-proven engineering practices.
Our Engineering Framework
When I was a kid, I had a lot of LEGO. Over time, all the pieces ended up mixed together in big boxes. The instructions disappeared, the pictures on the packaging faded, and all that was left was a pile of parts — wheels, axles, bricks, and windows.
And I loved it.
I almost never built models by the book. Repeating someone else’s plan felt boring. I would spread the pieces out and build something new — a machine that didn’t exist. A hybrid of whatever was available: race-car wheels, a truck body, a crane boom.
But the most interesting part came after. I would take a sheet of graph paper and draw an assembly plan: front view, side view, sometimes even a rough isometric sketch. I would label parts and note the order of steps. I don’t remember those creations today — but I remember the feeling: an idea turning into an instruction that someone else could understand and follow.
That’s still the core of what we do now — just at a different scale.
In real projects, teams often start with the same “mixed box”: scattered inputs, competing priorities, and unclear requirements. Sales wants a wow-factor. Engineering defends proven solutions. Manufacturing needs simplicity. Leadership watches budget and timelines. Everyone is right — but without alignment, the project slows down, and the result drifts.
Our role is to listen, clarify, and translate. We turn diverse expectations into one clear technical direction. We convert “how we want it to be” into “what exactly will be built, how, and with what interfaces.” The outcome is a practical, buildable plan:
Even the most complex machine starts as a rough idea and a pile of disconnected parts. We help you see the system — and document it so it can be built, tested, and delivered in the real world.
Nikolay Safonov
And I loved it.
I almost never built models by the book. Repeating someone else’s plan felt boring. I would spread the pieces out and build something new — a machine that didn’t exist. A hybrid of whatever was available: race-car wheels, a truck body, a crane boom.
But the most interesting part came after. I would take a sheet of graph paper and draw an assembly plan: front view, side view, sometimes even a rough isometric sketch. I would label parts and note the order of steps. I don’t remember those creations today — but I remember the feeling: an idea turning into an instruction that someone else could understand and follow.
That’s still the core of what we do now — just at a different scale.
In real projects, teams often start with the same “mixed box”: scattered inputs, competing priorities, and unclear requirements. Sales wants a wow-factor. Engineering defends proven solutions. Manufacturing needs simplicity. Leadership watches budget and timelines. Everyone is right — but without alignment, the project slows down, and the result drifts.
Our role is to listen, clarify, and translate. We turn diverse expectations into one clear technical direction. We convert “how we want it to be” into “what exactly will be built, how, and with what interfaces.” The outcome is a practical, buildable plan:
- For stakeholders — a clear definition of what they actually need.
- For engineers and builders — a specification they can execute with confidence.
Even the most complex machine starts as a rough idea and a pile of disconnected parts. We help you see the system — and document it so it can be built, tested, and delivered in the real world.
Nikolay Safonov
In complex machine development, the biggest delays rarely come from engineering tools — they come from unclear scope and misaligned expectations. Different stakeholders want different things: commercial teams push for standout features, engineering prefers proven solutions, manufacturing needs simplicity, and leadership watches cost and timing. Without a single source of truth, projects slow down and the outcome drifts.
That’s where we act as an engineering “idea producer” — a practical translator between business goals and technical reality. Our role is not to impose opinions, but to listen, structure, and convert scattered requirements into a plan that teams can execute.
What this includes
The outcome is a clear roadmap from “we want” to “it works” — faster decisions, fewer iterations, and systems designed to perform in real operating conditions.
That’s where we act as an engineering “idea producer” — a practical translator between business goals and technical reality. Our role is not to impose opinions, but to listen, structure, and convert scattered requirements into a plan that teams can execute.
What this includes
- Listening & structuring: uncover the real needs behind vague requests and technical language.
- Alignment & specification: consolidate inputs into one agreed requirements document (scope, interfaces, acceptance criteria).
- Digitizing the vision: translate “reliable / smart / serviceable” into measurable parameters, control logic, HMI behavior, and operating modes.
- Cross-industry leverage: bring proven solutions from adjacent sectors and adapt them to your equipment.
The outcome is a clear roadmap from “we want” to “it works” — faster decisions, fewer iterations, and systems designed to perform in real operating conditions.
Below is a structured overview of our key engineering service areas and typical deliverables.
1 Hydraulic Systems
2 Electrical & Control Systems
3 Full-System Development & Engineering
4 Commissioning & Service Support (Start-Up and Field Tuning)
5 Modernization & Retrofit (Repair / Re-engineering)
6 Specialized Systems & Solutions
7 Supporting Capabilities
1 Hydraulic Systems
- Schematics development: functional and installation hydraulic schematics.
- 3D routing support: hose/pipe routing and placement in the customer’s 3D CAD model.
- Sizing & component selection: hydraulic calculations, thermal calculations, and selection of components (pumps, motors, valves, filters, hoses, fittings, heat exchangers).
- Simulation: modeling and validation of operating modes and thermal behavior using specialized software.
2 Electrical & Control Systems
- System design from scratch: component selection and development of electrical schematics (functional + installation).
- Controller software: PLC/ECU/controller programming for hydraulics and machine functions.
- Operator interfaces (HMI): screen logic, UI graphics, and operating workflows for operator displays.
3 Full-System Development & Engineering
- Technical Specification (Requirements / SOW): structuring and aligning requirements across stakeholders into a complete specification.
- Mechanical design documentation: 3D models, concept design, and production drawings (industry-standard documentation; can be adapted to your required standards).
- Electric drives: sizing and selection (motors, inverters) and implementation of control systems for electric drives.
- Hybrid architectures: electro-hydraulic solutions (e.g., electric traction + hydraulic work functions).
4 Commissioning & Service Support (Start-Up and Field Tuning)
- Installation audit / supervision: on-site verification of build quality and correct assembly against documentation.
- Commissioning: system checks, controller programming, calibration, and fine tuning up to field testing and acceptance runs.
- Technical support: remote or on-site support after handover, updates, improvements, troubleshooting.
- Service tools (diagnostic software): development of service applications for diagnostics, calibration, parameter tuning, and firmware updates by the customer’s service team.
5 Modernization & Retrofit (Repair / Re-engineering)
- Diagnostics and repair: fault finding and correction in controls, hydraulics, sensors, and machine logic.
- Modernization of imported equipment: replacement of unavailable/discontinued controllers and sensors with accessible, serviceable alternatives (e.g., agricultural and construction equipment platforms).
- Control system integration: retrofit of remote controls (radio or wired panels), CAN decoding where feasible, and interface modules (“protocol bridges”) when required.
6 Specialized Systems & Solutions
- Safety and monitoring systems: FMEA-driven fault handling, diagnostics, and protection logic (error monitoring, anti-stall, traction control, cruise control, stabilization, load-holding/boom drop protection).
- Engine integration (ICE/ECU): ECU connectivity, data acquisition, and engine speed/governor control (digital networks or analog/mechanical interfacing).
- Precision process control: control of mixing, dosing, spreading, and similar технологические процессы (agriculture, aviation, municipal applications).
- Mission-critical drives: control of heavy winches, track synchronization, and high-precision speed control for demanding mechanisms.
7 Supporting Capabilities
- Battery packs for electric vehicles: energy sizing, enclosure design, cell layout, BMS integration, and charging integration.
- Attachments & implements: engineering and development of specialized attachments (e.g., excavator mulchers and custom tools).
Imagine building a house with four decision-makers: one wants gothic stained glass, another wants Japanese minimalism, a third insists on an underground garage for three cars, and the fourth says, “Just make it cheap.” That’s how many machine programs start. What keeps the project from drifting (or failing) is one document: a well-written Technical Specification (requirements / scope document).
A battlefield of prioritiesIn mobile machine development, different worlds collide:
A strong specification plays the arbiter role: it translates goals into engineering language, defines constraints, and creates one achievable target everyone can commit to.
Not a “wish list” — executable instructionsA strong spec goes far beyond “make it powerful and reliable.” It defines what the machine must do in measurable terms.
Electronics & control (the “brain and nerves”):
Hydraulics (the “muscles and blood”):
The hard part: balancing ambition and reality
The most valuable decisions happen early:
A technical specification is not paperwork. It’s a strategic document that turns business wishes into structured engineering requirements across hydraulics, electronics, software, and safety — so the machine can be built, tested, and delivered predictably.
A battlefield of prioritiesIn mobile machine development, different worlds collide:
- Commercial teams want a standout feature that sells.
- Engineering prefers proven, conservative solutions.
- Manufacturing needs simplicity and repeatability.
- Management focuses on budget, timing, and ROI.
A strong specification plays the arbiter role: it translates goals into engineering language, defines constraints, and creates one achievable target everyone can commit to.
Not a “wish list” — executable instructionsA strong spec goes far beyond “make it powerful and reliable.” It defines what the machine must do in measurable terms.
Electronics & control (the “brain and nerves”):
- Control architecture: controllers and communication
- Sensor set: pressure/temperature/position sensors and placement
- Operator interface (HMI): screens, displayed parameters, navigation logic
- Functional behavior with acceptance criteria (response, ramps, limits)
Hydraulics (the “muscles and blood”):
- Actuators and performance targets (force, speed, stroke)
- Operating modes and combined motions
- Safety criteria (pressure limits, emergency stop behavior, safe states)
- Component preferences/constraints (if any)
The hard part: balancing ambition and reality
The most valuable decisions happen early:
- “Do you really need this feature if it increases cost by 30%?”
- “Is your production ready to assemble and service this level of electronics?”
- What a good specification gives youStandardization: suppliers work from the same truth; fair tenders are possible
- Time and cost control: fewer redesign loops and late-stage changes
- A reference in disputes: when opinions clash, the team returns to what was agreed
A technical specification is not paperwork. It’s a strategic document that turns business wishes into structured engineering requirements across hydraulics, electronics, software, and safety — so the machine can be built, tested, and delivered predictably.
You may have a clear picture of your machine in your head: how the frame is laid out, where modules sit, how hoses and harnesses run. But that picture lives only with you. To build it—across engineering, manufacturing, suppliers, and assembly—you need a translation into an unambiguous, production-grade language: design documentation.
We don’t “just draw.” We create a full digital and paper model of your product that becomes the single source of truth for manufacturing. This is not bureaucracy—it’s the most effective way to manage complexity, cost, and schedule.
Where documentation starts: understanding the systemWe don’t model “just a housing.” We begin with the purpose of the component:
Only then do we build the 3D CAD model. Our models are not for visuals—they are virtual twins: wall thicknesses, interfaces, fits, clearances, drain points, service access, and assembly feasibility are all verified before production.
Drawings as instructions that allow no ambiguityFrom the 3D model we generate production drawings—views, sections, and details. But the real value is the engineering precision:
Documentation as a system, not a set of filesA single part drawing is useless without the assembly definition. We build a strict hierarchy:
This structure lets you calculate exactly what is needed for a machine build—and prevents missing details that derail production.
Verification through engineering calculationsWe do not design “by feel.” Behind thicknesses, sections, and shaft diameters are verification checks:
What you gain after handoverOnce you receive the full documentation package (3D, drawings, BOMs, calculations), you have freedom:
In modern engineering, the winner is not the one with the boldest idea, but the one who can convert that idea into a clear, calculated, production-ready plan. That is exactly what manufacturing-grade design documentation provides.
We don’t “just draw.” We create a full digital and paper model of your product that becomes the single source of truth for manufacturing. This is not bureaucracy—it’s the most effective way to manage complexity, cost, and schedule.
Where documentation starts: understanding the systemWe don’t model “just a housing.” We begin with the purpose of the component:
- What loads does it see?
- How does it interact with hydraulics and electronics?
- How will it be assembled and serviced?
Only then do we build the 3D CAD model. Our models are not for visuals—they are virtual twins: wall thicknesses, interfaces, fits, clearances, drain points, service access, and assembly feasibility are all verified before production.
Drawings as instructions that allow no ambiguityFrom the 3D model we generate production drawings—views, sections, and details. But the real value is the engineering precision:
- Dimensions and tolerances (so parts made in different locations fit together)
- Materials, coatings, and standards/specs
- Notes that turn a “picture” into a manufacturing instruction
Documentation as a system, not a set of filesA single part drawing is useless without the assembly definition. We build a strict hierarchy:
- Top-level assembly (machine BOM)
- Sub-assemblies and their specifications
- Parts, standard items (fasteners, bearings), and traceable quantities
This structure lets you calculate exactly what is needed for a machine build—and prevents missing details that derail production.
Verification through engineering calculationsWe do not design “by feel.” Behind thicknesses, sections, and shaft diameters are verification checks:
- Strength, stiffness, durability
- Real loads derived from the technical specification
What you gain after handoverOnce you receive the full documentation package (3D, drawings, BOMs, calculations), you have freedom:
- Manufacture at any qualified plant—the documentation speaks for itself
- Run a fair supplier tender using identical source data
- Start procurement with a complete, accurate BOM
- Upgrade and modernize later while keeping a controlled baseline version
In modern engineering, the winner is not the one with the boldest idea, but the one who can convert that idea into a clear, calculated, production-ready plan. That is exactly what manufacturing-grade design documentation provides.
Imagine a new heavy machine—an industrial giant that only becomes “real” when it moves for the first time. Before that happens, its most complex internal system must be born and tuned: hydraulics. It’s not just pumps and hoses. It’s the machine’s muscles and bloodstream, where engineering precision meets practical intuition.
Design phase: where the idea becomes numbers
It starts with calculation and the first functional hydraulic schematic—the score that defines how oil will flow through pumps, valves, motors, and cylinders. From there we develop installation schematics, support 3D routing in the customer’s CAD model, and perform hydraulic and thermal calculations.
Today, the drawing is only the beginning. We bring the system into simulation to validate pressures, flows, temperatures, and dynamic behavior early—reducing rework and surprises. In parallel, routing is developed inside the 3D model to avoid collisions and installation issues before hardware is built.
Build phase: selecting the right “iron”
Once the digital prototype is validated, we select and size real components: pumps, motors, valve assemblies (proportional and on/off), protective valves, filtration, heat exchangers, hose and pipe diameters, and fittings. Thermal balance is critical—hydraulics generate heat under load, so cooling is engineered, not guessed.
Commissioning: bringing the system to life
The first startup is the moment of truth. We verify electrical signals and sensors, load software into the controller, and tune machine behavior—speeds, accelerations, smoothness, stability—during functional and driving tests with the customer. This is where a machine gains its “character.”
Safety and diagnostics: intelligence built in
Modern hydraulics must be strong and smart. We implement FMEA-based fault scenarios, multi-level diagnostics (warning → derate → safe stop), and service tools that let technicians view live parameters, interpret faults, and calibrate the system without constant developer involvement.
Step by step, hydraulics becomes a predictable, reliable, field-ready system—power and control embodied in steel and oil.
Design phase: where the idea becomes numbers
It starts with calculation and the first functional hydraulic schematic—the score that defines how oil will flow through pumps, valves, motors, and cylinders. From there we develop installation schematics, support 3D routing in the customer’s CAD model, and perform hydraulic and thermal calculations.
Today, the drawing is only the beginning. We bring the system into simulation to validate pressures, flows, temperatures, and dynamic behavior early—reducing rework and surprises. In parallel, routing is developed inside the 3D model to avoid collisions and installation issues before hardware is built.
Build phase: selecting the right “iron”
Once the digital prototype is validated, we select and size real components: pumps, motors, valve assemblies (proportional and on/off), protective valves, filtration, heat exchangers, hose and pipe diameters, and fittings. Thermal balance is critical—hydraulics generate heat under load, so cooling is engineered, not guessed.
Commissioning: bringing the system to life
The first startup is the moment of truth. We verify electrical signals and sensors, load software into the controller, and tune machine behavior—speeds, accelerations, smoothness, stability—during functional and driving tests with the customer. This is where a machine gains its “character.”
Safety and diagnostics: intelligence built in
Modern hydraulics must be strong and smart. We implement FMEA-based fault scenarios, multi-level diagnostics (warning → derate → safe stop), and service tools that let technicians view live parameters, interpret faults, and calibrate the system without constant developer involvement.
Step by step, hydraulics becomes a predictable, reliable, field-ready system—power and control embodied in steel and oil.
In heavy equipment—tracked excavators, airport ground vehicles, municipal machines—hydraulics determines how capable the machine really is. Reliability and “feel” depend on architecture choices, thermal design, and commissioning quality.
Step 1: From requirements to architecture
We translate the technical specification into a functional hydraulic schematic—the DNA of the system. It defines how the pump feeds the system, how flow is routed to actuators, and how protection is implemented.
Step 2: Digital validation and 3D integration
The schematic can be simulated to validate temperature, pressure behavior, and dynamics across operating modes. In parallel, we develop installation schematics and routing within the machine’s 3D model—placing lines, defining mounting points, and preventing failures like hose abrasion on the frame.
Step 3: Calculation and component selection
We perform sizing for pressure, flow, and power. We select pumps and motors, define valve architecture (proportional for smooth control, discrete for simpler functions), and build a clean hydraulic “nervous system” with protection and filtration. Thermal balance is engineered so the oil stays within safe temperature ranges. Pipe/hose diameters and fittings are sized for efficiency and leak-free performance.
Step 4: Build supervision and quality control
If the customer builds the system, we support assembly through supervision and verification: correct valve wiring, correct connections, secure routing, correct mounting, and overall compliance with the design.
Step 5: Commissioning and tuning
Commissioning starts with safe, no-load checks—electrical verification, sensor validation, pressure monitoring—then moves to calibration and behavior tuning. Under load, we refine responsiveness, stability, and smoothness until the machine behaves predictably.
Step 6: Diagnostics and safety
We implement diagnostic logic and service tooling so technicians can troubleshoot quickly and keep uptime high.
The result is a hydraulic system that is not only powerful, but controllable, safe, and serviceable for years.
Step 1: From requirements to architecture
We translate the technical specification into a functional hydraulic schematic—the DNA of the system. It defines how the pump feeds the system, how flow is routed to actuators, and how protection is implemented.
Step 2: Digital validation and 3D integration
The schematic can be simulated to validate temperature, pressure behavior, and dynamics across operating modes. In parallel, we develop installation schematics and routing within the machine’s 3D model—placing lines, defining mounting points, and preventing failures like hose abrasion on the frame.
Step 3: Calculation and component selection
We perform sizing for pressure, flow, and power. We select pumps and motors, define valve architecture (proportional for smooth control, discrete for simpler functions), and build a clean hydraulic “nervous system” with protection and filtration. Thermal balance is engineered so the oil stays within safe temperature ranges. Pipe/hose diameters and fittings are sized for efficiency and leak-free performance.
Step 4: Build supervision and quality control
If the customer builds the system, we support assembly through supervision and verification: correct valve wiring, correct connections, secure routing, correct mounting, and overall compliance with the design.
Step 5: Commissioning and tuning
Commissioning starts with safe, no-load checks—electrical verification, sensor validation, pressure monitoring—then moves to calibration and behavior tuning. Under load, we refine responsiveness, stability, and smoothness until the machine behaves predictably.
Step 6: Diagnostics and safety
We implement diagnostic logic and service tooling so technicians can troubleshoot quickly and keep uptime high.
The result is a hydraulic system that is not only powerful, but controllable, safe, and serviceable for years.
If hydraulics is the muscle, electronics and software are the brain and nervous system. Controls determine whether a machine moves with precision or behaves like raw force.
From operator intent to motion
A joystick movement or a button press is only a small electrical signal. The control system must interpret it, apply logic and safety rules, and convert it into stable commands for valves and drives—hundreds of times per second.
Electrical design: the nervous system blueprint
We produce two levels of electrical documentation:
Component selection
We select controllers based on I/O, network support (CAN, Ethernet), processing needs, and environmental requirements. We specify sensors (pressure, temperature, position, angle), actuators (proportional coils, on/off coils, relays, contactors, inverters), and operator interfaces (industrial displays, joysticks, switch panels).
Software and machine behavior
We develop control logic that defines modes, ramps, limits, protections, diagnostics, and fault handling. We tune motion for smooth acceleration, stable holding, predictable response, and safe fallback modes.
HMI design
A good HMI is engineered for real operators—gloves, vibration, weather, stress. We design screens, navigation, and messaging so the operator sees the right information at the right time and can react quickly.
Integration and retrofits
We integrate control systems with engines (CAN/J1939 or analog), attachments, telematics/GPS, and remote control systems. When OEM remote control systems fail or become unavailable, we support re-engineering: protocol analysis, compatible replacements, or interface translators that remove vendor lock-in.
The result is a machine that “feels right,” stays safe, and can be serviced with confidence.
From operator intent to motion
A joystick movement or a button press is only a small electrical signal. The control system must interpret it, apply logic and safety rules, and convert it into stable commands for valves and drives—hundreds of times per second.
Electrical design: the nervous system blueprint
We produce two levels of electrical documentation:
- Functional schematics (how components interact: sensors to controller inputs, outputs to coils, networks between controllers).
- Installation schematics (how to wire and route: connectors, terminals, harness paths, protection, EMC practices).
Component selection
We select controllers based on I/O, network support (CAN, Ethernet), processing needs, and environmental requirements. We specify sensors (pressure, temperature, position, angle), actuators (proportional coils, on/off coils, relays, contactors, inverters), and operator interfaces (industrial displays, joysticks, switch panels).
Software and machine behavior
We develop control logic that defines modes, ramps, limits, protections, diagnostics, and fault handling. We tune motion for smooth acceleration, stable holding, predictable response, and safe fallback modes.
HMI design
A good HMI is engineered for real operators—gloves, vibration, weather, stress. We design screens, navigation, and messaging so the operator sees the right information at the right time and can react quickly.
Integration and retrofits
We integrate control systems with engines (CAN/J1939 or analog), attachments, telematics/GPS, and remote control systems. When OEM remote control systems fail or become unavailable, we support re-engineering: protocol analysis, compatible replacements, or interface translators that remove vendor lock-in.
The result is a machine that “feels right,” stays safe, and can be serviced with confidence.
The industry is shifting from diesel noise and heat to high-efficiency electric torque, precise control algorithms, and data-rich diagnostics. Electrification is not only about sustainability—it’s about performance and predictability.
Why electrification is a performance decision
Step 1: Drive sizing and modeling
We analyze duty cycles and loads: required speed, torque, dynamics, and thermal limits. We select motor type (e.g., PMSM for precision/efficiency, induction motors as robust workhorses), size inverters, define sensing (encoders, current sensors, temperature sensors), and design cooling.
Step 2: Battery as the “energy heart”
We do not simply “buy a pack.” We engineer a battery system for your machine:
Step 3: Intelligent control and energy management
Algorithms make electrification practical: vector control (FOC), smooth ramps, adaptive behavior to mass and terrain, and power distribution based on BMS data to protect the battery while maintaining performance.
Step 4: Hybrid architectures
Where full electrification is not optimal, we design hybrids (electric traction + hydraulic work functions) and integrate the control logic so both “languages” work as one.
Electrification becomes reliable when the entire system—battery, drive, controls, and thermal—is engineered as one ecosystem.
Why electrification is a performance decision
- Instant, precise torque control with fast response and high accuracy.
- High efficiency (often 90–95%+ for electric drives).
- Modular architecture (motors near functions, fewer mechanical losses).
- Diagnostics by nature (temperature, current, torque, load data).
Step 1: Drive sizing and modeling
We analyze duty cycles and loads: required speed, torque, dynamics, and thermal limits. We select motor type (e.g., PMSM for precision/efficiency, induction motors as robust workhorses), size inverters, define sensing (encoders, current sensors, temperature sensors), and design cooling.
Step 2: Battery as the “energy heart”
We do not simply “buy a pack.” We engineer a battery system for your machine:
- Energy audit (kWh) and peak power requirements (kW).
- Cell chemistry selection (e.g., NMC, LFP) and mechanical packaging.
- Electrical architecture (series/parallel configuration, voltage level).
- BMS integration (SOC/SOH estimation, balancing, safety protection).
- Thermal management (cooling/heating, environmental range).
- CAN communication to the main controller for power limits and fault reporting.
Step 3: Intelligent control and energy management
Algorithms make electrification practical: vector control (FOC), smooth ramps, adaptive behavior to mass and terrain, and power distribution based on BMS data to protect the battery while maintaining performance.
Step 4: Hybrid architectures
Where full electrification is not optimal, we design hybrids (electric traction + hydraulic work functions) and integrate the control logic so both “languages” work as one.
Electrification becomes reliable when the entire system—battery, drive, controls, and thermal—is engineered as one ecosystem.
You may have a strong electric machine concept—drive sizing, requirements, architecture—but without a battery that fits, performs, and survives real conditions, the project stalls. Off-the-shelf packs often fail on packaging, power delivery, and reliability. This is where we step in.
Stage 1: Prototype (proof of concept)
The goal is speed and validation. We:
We turn the prototype into a manufacturable product:
We build and test a small pre-series batch (e.g., 5–10 units) with vibration, thermal shock, cycling, and safety validation.
Stage 3: Production handover
We help select/assess manufacturing partners, support first-line build supervision, train staff, and remain available for improvements, second-source qualification, and next-generation versions (higher energy density, lower cost, improved packaging).
The outcome: a documented, safe, repeatable battery solution you can manufacture and support long-term.
Stage 1: Prototype (proof of concept)
The goal is speed and validation. We:
- Run a fast energy audit based on your duty cycle.
- Create a 3D concept that fits your available space (even complex geometry).
- Build a safe, testable prototype using available components.
- Integrate into your prototype machine and support early tests, collecting real thermal and load data.
We turn the prototype into a manufacturable product:
- Final enclosure design (vibration mounts, IP protection, service access).
- Robust thermal management (cooling/heating for real climates).
- Power architecture upgrades (busbars, contactors, safety disconnects).
- BMS software refinement (balancing, diagnostics, health prediction).
- Full documentation package: 3D, drawings, schematics, BOM, assembly and test procedures.
We build and test a small pre-series batch (e.g., 5–10 units) with vibration, thermal shock, cycling, and safety validation.
Stage 3: Production handover
We help select/assess manufacturing partners, support first-line build supervision, train staff, and remain available for improvements, second-source qualification, and next-generation versions (higher energy density, lower cost, improved packaging).
The outcome: a documented, safe, repeatable battery solution you can manufacture and support long-term.
Remote control improves safety and visibility—but becomes a major risk when the OEM system is discontinued or fails. We regularly solve cases where replacement is unavailable or costs an unreasonable share of the machine value.
Option 1: Diagnose and retrofit a compatible remote
We connect to the machine control system, analyze communication (often CAN-based), and identify what commands and data the remote exchanged. Based on this “dictionary,” we select a compatible modern remote and configure it to match the machine’s expected protocol—often faster and far cheaper than OEM replacement.
Option 2: Interface translator for complex protocols
When protocols are too complex to rely on direct configuration, we implement an interface “bridge.” A modern remote with a standard protocol talks to the bridge; the bridge translates signals into the machine’s native language. This removes hard dependency on a single remote vendor and simplifies future replacements.
Option 3: Stationary wired panel where mobility isn’t needed
If the operator works from one position, a wired panel is often the best solution—lower cost, higher reliability, no radio interference, no batteries. We design the panel using widely available industrial components, making it repairable by standard technicians.
We provide full-cycle design: ergonomics, enclosure, wiring, safety logic, and integration—either replicating OEM functionality or adding missing features.
Option 1: Diagnose and retrofit a compatible remote
We connect to the machine control system, analyze communication (often CAN-based), and identify what commands and data the remote exchanged. Based on this “dictionary,” we select a compatible modern remote and configure it to match the machine’s expected protocol—often faster and far cheaper than OEM replacement.
Option 2: Interface translator for complex protocols
When protocols are too complex to rely on direct configuration, we implement an interface “bridge.” A modern remote with a standard protocol talks to the bridge; the bridge translates signals into the machine’s native language. This removes hard dependency on a single remote vendor and simplifies future replacements.
Option 3: Stationary wired panel where mobility isn’t needed
If the operator works from one position, a wired panel is often the best solution—lower cost, higher reliability, no radio interference, no batteries. We design the panel using widely available industrial components, making it repairable by standard technicians.
We provide full-cycle design: ergonomics, enclosure, wiring, safety logic, and integration—either replicating OEM functionality or adding missing features.
In modern mobile equipment, the engine is more than a power source—it is an intelligent system. Its data and operating modes must be integrated into the machine controller to ensure performance and safety.
We provide:
This work supports both new development and modernization—creating predictable coordination between engine power and machine behavior.
We provide:
- ECU integration: communication between the main controller and engine ECU for data exchange and commands.
- Data acquisition and processing: real-time RPM, temperatures, pressures, fault codes—displayed to the operator and used in control logic.
- Speed and mode control: multiple control paths depending on the platform:
- Digital control via CAN/J1939 (where supported)
- Analog signals (0–5V, 4–20mA)
- Mechanical integration (e.g., actuator on a cable throttle for legacy systems)
This work supports both new development and modernization—creating predictable coordination between engine power and machine behavior.
Hydraulics is universal—but every industry adds its own “DNA.” The same principle moves a cutting head underground and controls aircraft ground equipment on a runway. The difference is in loads, environments, safety requirements, and uptime expectations.
Industry DNA
Cross-industry transfer
Many “innovations” are proven patterns applied in a new domain:
The result is managed synergy: faster solutions with fewer unknowns, built on experience across multiple equipment types.
Industry DNA
- Construction & mining equipment: extreme shock loads, abrasive dust, operation on slopes → focus on durability, filtration, cooling, and survivability.
- Agriculture machinery: seasonal peaks, precision tasks, chemical exposure → focus on efficiency, multi-function integration, electronic control, precision dosing.
- Airport and municipal equipment: 24/7 duty cycles, strict safety and reliability → focus on predictable behavior, redundancy, clean circuits, diagnostic maturity.
- Oil & gas / drilling: explosive zones, remote operation, extreme torque at low speed → focus on protected execution, telemetry, heavy-duty actuation.
Cross-industry transfer
Many “innovations” are proven patterns applied in a new domain:
- Precision dosing technologies adapted from agriculture to airport de-icing or spreading operations.
- Redundant safety circuits from mining applied to lifting equipment to protect people.
- Energy recovery ideas applied to high-cycle municipal equipment to reduce load and fuel use.
- Clean, corrosion-resistant circuits adapted from one domain to another with strict fluid requirements.
The result is managed synergy: faster solutions with fewer unknowns, built on experience across multiple equipment types.
Imagine operating heavy equipment in noise, vibration, dust, and stress. The machine must “speak” clearly—and it must protect itself before failures become catastrophes. That’s why we engineer the combination of HMI, multi-level diagnostics, and preventive FMEA.
HMI: an operator’s language
A strong HMI is not a digital manual. It is an operational dashboard:
Multi-level diagnostics
FMEA: engineering failures before they happen
FMEA (Failure Modes and Effects Analysis) systematically identifies what can fail and how the system should respond. We define failure modes (sensor loss, valve stuck, software fault), evaluate consequences, and implement mitigations: redundancy, plausibility checks, safe-state logic, and controlled shutdown strategies.
Service Tool
We develop service tooling that reveals system health: fault history, live parameter monitoring, calibration functions, configuration, and firmware updates—so service is fast, consistent, and not dependent on guesswork.
HMI: an operator’s language
A strong HMI is not a digital manual. It is an operational dashboard:
- Only critical data on the main screen (pressure, temperature, system status).
- Clear icons and warnings (green/yellow/red logic).
- Contextual fault messages: not just codes, but practical actions.
Multi-level diagnostics
- Warning: notify without stopping production.
- Derate / limitation: protect the machine while allowing safe continuation.
- Safe stop: prevent damage or unsafe motion.
FMEA: engineering failures before they happen
FMEA (Failure Modes and Effects Analysis) systematically identifies what can fail and how the system should respond. We define failure modes (sensor loss, valve stuck, software fault), evaluate consequences, and implement mitigations: redundancy, plausibility checks, safe-state logic, and controlled shutdown strategies.
Service Tool
We develop service tooling that reveals system health: fault history, live parameter monitoring, calibration functions, configuration, and firmware updates—so service is fast, consistent, and not dependent on guesswork.
A complex machine without diagnostics becomes a “black box.” When it fails, maintenance turns into trial-and-error: replace a sensor, then wiring, then a controller—costly and slow.
A modern Service Tool changes everything. It enables:
1 Deep diagnostics, not just codes
2 Calibration and configuration without the developer
3 Preventive maintenance and reporting
For fleet owners, it creates independence and lowers total cost of ownership. For manufacturers and integrators, it reduces support load and increases customer loyalty. In modern mobile machinery, diagnostic software is no longer “optional”—it’s a core reliability asset.
A modern Service Tool changes everything. It enables:
1 Deep diagnostics, not just codes
- Error decoding into plain language
- Fault history with context (conditions, temperatures, RPM)
- Live monitoring (graphs of pressures, positions, signals—like an ECG)
2 Calibration and configuration without the developer
- Sensor zeroing and end-stop calibration
- Parameter tuning for new use cases
- Updates and controlled reflashing
3 Preventive maintenance and reporting
- Usage statistics and trend monitoring
- Reports for service records and internal tracking
For fleet owners, it creates independence and lowers total cost of ownership. For manufacturers and integrators, it reduces support load and increases customer loyalty. In modern mobile machinery, diagnostic software is no longer “optional”—it’s a core reliability asset.
In the workshop, the machine may look finished—frame assembled, hoses routed, wiring installed—but it’s not alive yet. Commissioning is the process that creates a reliable link between operator inputs and machine behavior.
Stage 0: Build verification (supervised assembly check)
Before applying power, we verify the build against schematics and installation drawings: correct coil wiring, correct hose routing, correct connectors, correct sensor placement, and avoidance of EMC issues. This prevents failures like blown electronics, hose bursts, and mechanical damage during first startup.
Stage 1: “Cold start” and sensor verification
We power the control system first, connect with the service tool, confirm all controllers and displays are online, and validate sensors and inputs. FMEA checks are performed in real conditions (e.g., sensor disconnect should trigger the expected fault and safe response).
Stage 2: Hydraulics startup and circuit validation
We start the power unit, monitor pressures and temperature, and validate circuits no-load: actuators move correctly, no leaks, correct direction, correct protection behavior.
Stage 3: Behavior tuning (“machine character”)
We tune ramp rates, smoothness, limits, stability, and synchronization. We refine operator feel and safety behavior, and integrate engine communication and sensor calibration.
Stage 4: Testing under load
Real work cycles validate the system: sustained load, heat behavior, peak pressures, and stability. Final parameter tuning is performed until the machine becomes predictable and efficient.
Commissioning is where engineering value becomes real-world performance.
Stage 0: Build verification (supervised assembly check)
Before applying power, we verify the build against schematics and installation drawings: correct coil wiring, correct hose routing, correct connectors, correct sensor placement, and avoidance of EMC issues. This prevents failures like blown electronics, hose bursts, and mechanical damage during first startup.
Stage 1: “Cold start” and sensor verification
We power the control system first, connect with the service tool, confirm all controllers and displays are online, and validate sensors and inputs. FMEA checks are performed in real conditions (e.g., sensor disconnect should trigger the expected fault and safe response).
Stage 2: Hydraulics startup and circuit validation
We start the power unit, monitor pressures and temperature, and validate circuits no-load: actuators move correctly, no leaks, correct direction, correct protection behavior.
Stage 3: Behavior tuning (“machine character”)
We tune ramp rates, smoothness, limits, stability, and synchronization. We refine operator feel and safety behavior, and integrate engine communication and sensor calibration.
Stage 4: Testing under load
Real work cycles validate the system: sustained load, heat behavior, peak pressures, and stability. Final parameter tuning is performed until the machine becomes predictable and efficient.
Commissioning is where engineering value becomes real-world performance.
After commissioning, the machine leaves the workshop and enters real life. Many suppliers stop there—but this is where the most valuable learning begins. The warranty period is not just legal—it’s the first true field test with real operators, environments, and unpredictable loads.
We treat early operation as feedback-driven engineering: solve issues, document lessons, and improve the next iteration. Post-warranty, support becomes a practical alternative to building a full internal engineering service department.
Support can include:
We treat early operation as feedback-driven engineering: solve issues, document lessons, and improve the next iteration. Post-warranty, support becomes a practical alternative to building a full internal engineering service department.
Support can include:
- Remote help: fast diagnostics via service tools and log review, parameter updates, configuration files.
- Field visits: deeper troubleshooting, planned improvements, upgrades based on operator feedback.
- Training and handover: enabling customer service teams to use tools and documentation confidently.
- Next-generation evolution: improvements become standard for the next build series.
Across job sites, fleets run high-quality machines from global manufacturers. The problem begins when the “brain” fails: an obsolete controller, discontinued sensor, or unavailable remote control system. Mechanically the equipment may be excellent—but electronically it becomes unserviceable.
Modern retrofit is not “garage repair.” It is engineering:
The result is restored operation, reduced vendor dependency, and equipment that can be supported locally and reliably.
Modern retrofit is not “garage repair.” It is engineering:
- Deep diagnostics via ports and data logs
- Root cause identification (not guessing and swapping parts)
- Modern control replacement with accessible components
- Improved diagnostics and documentation
The result is restored operation, reduced vendor dependency, and equipment that can be supported locally and reliably.
Modern special-purpose machines combine mechanics, hydraulics, electronics, and software into one system. The harder the application, the more requirements conflict—and the higher the cost of mistakes.
We deliver integrated solutions across:
Our approach starts with clarity of the task and ends with a tuned, tested, working system ready for real conditions.
We deliver integrated solutions across:
- Hydraulics and drives: winches, track synchronization, precision speed control, heavy-load motion.
- Control systems: automation for mixing/dosing processes, precision agriculture logic, attachment integration, remote control retrofits.
- Safety and diagnostics: protective logic, fault strategy, service tools that reduce downtime.
- Modernization: replacing outdated electronics, restoring unavailable components, and improving serviceability.
Our approach starts with clarity of the task and ends with a tuned, tested, working system ready for real conditions.
Our work often starts when ideas are fragmented and the path to implementation is unclear. We act as the “idea producer” and technical integrator: we listen to all stakeholders and translate scattered inputs into a clear technical specification.
After requirements are aligned, we coordinate across disciplines: hydraulics, electronics, software, diagnostics, and commissioning—especially at the boundaries where projects typically fail. We organize key processes (build verification, commissioning, FMEA-driven fault strategy) and ensure data flows correctly between teams: design → software → integration → testing.
We step in when the project hits critical issues:
We remain accountable to the result—delivering a system that can be built, tested, operated, and serviced reliably.
After requirements are aligned, we coordinate across disciplines: hydraulics, electronics, software, diagnostics, and commissioning—especially at the boundaries where projects typically fail. We organize key processes (build verification, commissioning, FMEA-driven fault strategy) and ensure data flows correctly between teams: design → software → integration → testing.
We step in when the project hits critical issues:
- Conflicts between requirements, feasibility, and timing—finding workable tradeoffs.
- Integration problems between subsystems—making hydraulics and software behave as one.
- Retrofit decisions when OEM parts are unavailable—selecting the best strategy and controlling risk.
- Troubleshooting hard failures—finding mismatches between hardware reality and software assumptions.
- Handover with documentation and service tools—so the system is not a “black box.”
We remain accountable to the result—delivering a system that can be built, tested, operated, and serviced reliably.
Engineering built on clarity and accountability.
Meet the team and the approach behind reliable mobile systems.
Meet the team and the approach behind reliable mobile systems.
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