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TashIT

Robotics, intelligent control and applied engineering R&D

Some problems need new engineering rather than an off-the-shelf product. We integrate robots, build intelligent control and run applied R&D that takes an idea from feasibility study to working prototype.

Capabilities

Robotics and advanced technology services we deliver

Where a project needs specialist hardware, we specify robots and sensors from established manufacturers, source them through their distributors or integrators engaged for the project, and integrate everything into one working system. A palletising cell, for example, brings together an industrial robot, vision, a simulated cell layout and integration with your line controls.

  • Robotics integration

    Industrial and collaborative robots from established manufacturers, integrated with vision, conveyors and plant systems for pick-and-place, palletising, inspection and machine tending.

  • Vision-guided automation

    Cameras and 3D sensors that locate, measure and sort parts, so robots and actuators can cope with variation in position and product.

  • Intelligent control systems

    Control software that combines sensor data, models and rules to adjust a process automatically, from closed-loop tuning to supervisory control.

  • Sensor-based automation

    Custom sensing and embedded systems for measurement, counting, detection and monitoring where standard instruments do not fit.

  • Autonomous systems development

    Perception, mapping and navigation software for mobile robots and inspection platforms, developed in simulation and proven in staged, controlled trials.

  • Simulation and digital twins

    Simulated cells, layouts and control logic to test cycle times, reach and safety zones before any hardware is bought.

  • Applied R&D and prototyping

    Feasibility studies, test rigs and prototypes for automation problems without a ready-made answer, with clear go or no-go decision points.

  • Not sure which capability you need?

    Describe the problem and the systems involved. We will suggest where robotics and advanced technology can help, what else the work needs and a sensible first step.

Use cases

Where robotics and advanced technology can help

Typical problems this capability is used to solve. Each one starts from a cost, risk or delay you can measure.

  • Robotic palletising or packing cell

    End-of-line automation that combines an industrial or collaborative robot with vision and line integration, designed around your product mix and changeovers.

  • Vision-guided sorting and grading

    Cameras and actuators that grade or sort products by size, colour or defect at line speed, where manual sorting is slow or inconsistent.

  • Automated inspection station

    A purpose-built station that measures or inspects parts with cameras, lasers or other sensors and records a result for every item.

  • Feasibility study for a new automation idea

    A short, fixed-scope study that tests whether an idea is technically and commercially viable before larger investment.

Deliverables and technology

What you receive and what we build with

What you receive

The typical outputs of an engagement, scaled to the size of the work.

  1. Feasibility study with technical options, risks, cost ranges and a recommendation
  2. Concept design and simulation of the cell, mechanism or control approach
  3. Working prototype or pilot cell, built with fabrication contractors engaged for the project where needed
  4. Control and perception software with documentation and test results
  5. Safety risk assessment inputs prepared with your safety team and equipment suppliers
  6. Trial report against agreed performance criteria, with a plan to scale or to stop

Technologies we work with

Chosen to fit your existing systems, skills and hosting rules.

  • ROS 2
  • C++
  • Python
  • OpenCV
  • PyTorch
  • ONNX Runtime
  • Gazebo and NVIDIA Isaac Sim
  • NVIDIA Jetson
  • Embedded Linux
  • STM32 and ESP32 microcontrollers
  • 3D cameras and depth sensors
  • LiDAR
  • OPC UA, Modbus and EtherCAT
  • MQTT
  • Industrial and collaborative robot SDKs

Approach

How an engagement runs

New problems usually start with a short paid diagnostic and a paid pilot, so you can judge results before committing further. Well-defined work, such as a website or a portal, starts as a fixed-scope project. Live systems can move to a retainer or a managed service. Compare engagement models.

  1. Step 1: Feasibility

    A short, fixed-scope study defines the problem, tests the main technical risks and estimates cost and benefit. You get a clear recommendation, including when not to proceed.

  2. Step 2: Concept and simulation

    We design the mechanism, sensing and control approach and test it in simulation or on a bench rig before committing to hardware.

  3. Step 3: Prototype and trial

    A working prototype is built, with fabrication contractors engaged for the project where needed, and trialled under controlled conditions against agreed criteria.

  4. Step 4: Industrialise or hand over

    A successful prototype is engineered for production use with your team and suppliers, with documentation, training and support.

FAQs

Questions about robotics and advanced technology

Something else to ask?

Email your question with a little about the systems involved, and we will reply in plain language.

info@tashit.com
Do you manufacture robots?

No. We integrate robots, sensors and actuators from established manufacturers, sourced through their distributors or integrators engaged for the project, and build the software, vision and control that make them work in your process. Custom mechanisms are made by fabrication contractors engaged for the project.

How is an R&D project priced?

In stages. A short, fixed-scope feasibility study usually comes first, followed by a separately scoped prototype phase with defined decision points. You commit to each stage only once the previous one has answered its questions.

How do you approach safety?

Safety is considered from the concept stage. We work with your safety team and equipment suppliers on risk assessments and on integrating safety-rated hardware, with reference to the applicable standards, such as ISO 10218 for industrial robot systems.

Does robotics make sense where labour costs are low?

Sometimes not, and we will tell you. Automation often pays for reasons other than labour cost: consistency, safety, traceability, or tasks people cannot do reliably at line speed. The feasibility study tests the business case honestly.

Planning work in robotics and advanced technology?

Send us the brief: what you want to build or improve and the systems it has to work with. We will reply with a first step, a plan and a timeline.