01
Baseline
Workflow map, volumes, cycle time, labour exposure, exceptions and current cost assumptions.
Applied Robotics & Physical AI
Start with the workflow. Prove the value. Then choose the robot.
Esmatronics turns real operational problems into validated robotics applications. We measure the current process, define the technical architecture, prove a bounded pilot and transfer the capability into your organisation.
Vendor-neutralPlatform follows the application.
Engineering-ledMechatronics, sensing, embedded systems and integration.
Evidence before scaleAcceptance criteria are defined before rollout.
The deployment gap
The difficult part is rarely buying the robot.
Robots, AMRs, sensors and AI platforms are available. The harder questions are which workflow to automate first, what must integrate around it, how success will be measured and whether the investment is justified.
01
Which workflow first?
Start where value, feasibility and access are all visible.
02
What has to integrate?
Doors, elevators, machines, APIs, sensors, networking and people are often part of the system.
03
How do we know it works?
Define measurable acceptance criteria before the pilot begins.
04
Can the team continue without us?
Documentation, training and capability transfer are designed into the project.
First engagement
A 21-day automation payback case for one named workflow.
A fixed-scope engineering engagement designed to answer whether a robotics opportunity is technically feasible, economically defendable and ready for a bounded pilot. The 21-day clock starts when agreed access and required data are available.
Decision product
Know whether automation pays before you commit to the robot.
The engagement is deliberately platform-neutral. If the correct answer is not to automate the workflow, that is still a useful engineering result.
02
Feasibility
Payload, route, traffic, safety zones, interfaces, connectivity and operating constraints.
03
Architecture
Platform-neutral concept covering robotics, sensing, compute, software and human interaction.
04
Economics
Base, upside and downside payback scenarios with visible assumptions.
05
Risk register
Technical, operational, integration, safety and delivery risks stated before build.
06
Pilot acceptance plan
Fixed test conditions, success metrics, customer inputs, timeline and go/no-go criteria.
Delivery model
Diagnose → Design → Prove → Transfer → Scale
Robotics becomes valuable when the engineering, the operating environment and the people around the system are treated as one system.
01
Diagnose
Measure the workflow and the value at stake before selecting technology.
02
Design
Define architecture, interfaces, platform requirements and acceptance metrics.
03
Prove
Run a bounded pilot in real or representative operating conditions.
04
Transfer
Document the system and train the engineers, operators or faculty who own it.
05
Scale
Add routes, sites or use cases only after the evidence from the pilot holds.
Where we start
Physical AI tied to measurable operational work.
We prioritise problems where a sponsor can see the current cost, provide access to the workflow and define a useful result within months rather than years.
Primary application
Intralogistics & internal material movement
Repeated point-to-point transport is a strong first robotics case because time, routes, payload, interfaces and exceptions can be measured. The engineering challenge is usually wider than the mobile robot itself.
Explore intralogistics →Robotic inspection
Mobile or fixed robotic systems where sensing, imaging and repeatable measurement are central to the application.
Repetitive manipulation
Selected handling or manipulation workflows where environment, interfaces and acceptance criteria can be bounded.
Applied robotics capability
Industry-linked labs, train-the-trainer programmes and engineering capability transfer built around real systems rather than generic courses.
Capability stack
The system around the robot matters as much as the robot.
Esmatronics Robotics combines systems engineering with specialist robotics capability so the application can be designed as one technical and operational system.
SE
Systems engineering
Requirements, interfaces, operating envelope, architecture and project governance.
RB
Robotics engineering
AMRs, ROS2, navigation, robotic arms, firmware and rapid prototyping where the application requires it.
AI
Perception & Physical AI
Machine vision, sensing and AI components connected to real physical constraints and measurable tasks.
EM
Embedded & mechatronics
Sensors, electronics, communications, edge compute, electrical interfaces and actuator integration.
IV
Integration & validation
Doors, lifts, machines, APIs, networks, acceptance tests, commissioning and technical documentation.
KT
Knowledge transfer
Documentation, workshops and train-the-trainer delivery so capability remains inside the customer organisation.
Fit qualification
A good first project has six signals.
✓
Named workflow
A specific process, not a general wish for AI.
✓
Measurable problem
Cost, delay, quality, safety exposure or capacity.
✓
Internal sponsor
Someone who can mobilise operations and engineering.
✓
Access
Site, process, relevant data and responsible staff.
✓
Budget path
A plausible route from decision to funded pilot.
✓
Reason to act
A decision window in the next three to six months.
Other robotics services
Different buying situations need different entry points.
Established service line
Service robots for buildings
Assessment, selection, pilot, integration and support for autonomous floor cleaning, internal transport and indoor delivery in Danish buildings.
Open service robotics →Industrial application
Intralogistics & AMR integration
From current transport cost and route mapping to architecture, AMR integration, pilot acceptance and scale-up.
Explore intralogistics →Start with one workflow
Before investing in robots, establish whether the opportunity is technically viable and economically defensible.
Describe the repeated task, where it happens and what makes it expensive or difficult today. We will tell you whether it looks like a useful fit for a short qualification call.
Esmatronics Labs
Kongensgade 21B, Denmark
ceo@esmatronics.dk · +45 30 89 49 41