Yes. We offer 3D enclosure design, 3D-printed prototypes, and injection mould design and manufacturing coordination. We develop the housing around the electronics and the intended use. Printing, tooling and production quantities are scoped to suit the project.

Our concept-to-prototype offer targets five weeks, covering requirements, system architecture, PCB design, manufacturing and testing. We confirm the schedule after reviewing the scope and component availability. Complex requirements, additional iterations or manufacturing delays may need a different timeline.

We begin by understanding what your device should do, who will use it and where it will operate. Share any sketches, reference products, feature lists, size and power constraints, connectivity needs, target budget and timeline. You do not need to arrive with a finished technical specification.

Our usual workflow is: collect information from you, define the system architecture, design the PCB, manufacture the prototype boards and test the assembled PCBs. Test results identify any changes needed for the next iteration. Firmware and software development are coordinated with the relevant hardware stages.

System architecture defines how the complete device will work before detailed circuit design begins. We identify the main components, power requirements, interfaces, communications and firmware needs so the PCB design follows a clear technical plan.

Depending on the agreed scope, PCB design covers circuit schematics, component selection, PCB layout and preparation of the fabrication and assembly files. The design follows the system architecture and the electrical and physical requirements of your device.

After the PCB design is ready for manufacturing, we coordinate component sourcing, board fabrication and assembly. When manufacturing is included, the minimum run is five prototypes for testing, evaluation and iteration.

Testing starts with board inspection and controlled initial power-up, followed by checks of power supplies, interfaces and the required functions. Where firmware is included, it is used to exercise the hardware. The test scope is agreed for the project, and any issues found guide troubleshooting and design refinement.

We investigate the issue and identify whether the solution requires component changes, PCB revisions or firmware updates. Any additional design work or manufacturing run is scoped before proceeding. Prototyping may involve more than one iteration.

Yes. Requirements definition, system architecture, PCB design, firmware development and testing can be scoped separately. If you already have a design or prototype, share the available files and the problem you want to solve. The five-unit minimum applies when prototype manufacturing is included.

Softlution can deliver projects spanning electronics, embedded firmware, software, AI and cloud infrastructure. The responsibilities, integrations and deliverables are agreed for your project.

Cost and schedule depend on the requirements, design complexity, component availability, manufacturing lead times and the iterations needed. We start by collecting your project information so we can define a practical scope, budget and development plan.

We develop custom electronic products combining sensors, embedded processing and AI. Examples include camera-based inspection devices, condition-monitoring sensors and products that classify or interpret signals locally.

Yes, where the task and hardware allow it. We assess model size, processing requirements, memory, power and performance to determine whether the device can run inference locally.

Yes. The scope can include system architecture, PCB design, embedded firmware, model development or adaptation, prototype manufacturing and product testing.

Share any representative examples or existing data you have. We assess whether it is suitable and what collection, labeling or preparation is required for the project.

We review its sensors, processor, memory, interfaces and power constraints. The solution may use the current hardware or require a revised board or additional processing hardware.

Yes, subject to its interfaces and condition. Share equipment manuals, electrical diagrams, available inputs and outputs, and the operations you want to automate.

We select the approach around the application. A project may use PLCs, custom embedded controllers or a combination of existing equipment and purpose-built hardware.

Yes. The agreed hardware and software can be assembled, configured and tested before shipping. The scope specifies the supplied equipment, connection requirements and installation responsibilities.

Where required, we develop remote dashboards, alerts and reporting. Essential local operation and fault handling are defined as part of the architecture.

Describe the process, machinery, operating modes, sensors, actuators, power supply, communications and installation environment. Include available diagrams, budget, delivery location and timeline.

Individual miners and small operators in residential areas or other locations where conventional ASIC noise is unacceptable. Cabinet configurations start from three miners. We also develop automation for larger mining farms.

Silent mining describes the noise-control goal. We agree on a measurable sound level at a defined position before specifying the solution. Zero sound is not assumed: the complete cooling arrangement, including pumps, fans and outdoor equipment, must meet the agreed requirement.

The agreed package can include the mining cabinet, monitoring and control hardware, and our software configured for the system. The quotation specifies exactly what is supplied, shipping arrangements, installation requirements and commissioning support. Miners are included only if listed in the agreed supply scope.

Yes, subject to their suitability for the proposed cabinet and cooling arrangement. Send the exact models, quantities, firmware and any modifications so we can check compatibility and define the supported software functions.

That depends on electrical capacity, heat removal, available space, building requirements and the noise target. We assess the proposed location before recommending a setup. A quiet cabinet alone does not make every residential room suitable for mining.

The cooling design depends on the miner models and location. We assess airflow or liquid-cooling options where compatible, along with pump and fan noise and the location of heat-rejection equipment. The entire system is considered rather than only the cabinet.

Our software supports monitoring, alerts and remote control for the agreed equipment. Supported readings, operating modes, automation functions and access arrangements are confirmed for the selected miners and control hardware.

We define communications-loss behavior during system design. Essential local control and protective responses should not depend solely on a remote connection. The exact behavior is specified and tested for your installation.

The system has defined power, cooling and connection requirements. Depending on the location and scope, site preparation and qualified electrical or cooling installation may be required. Those responsibilities are agreed before delivery.

Yes. We can develop monitoring, cooling automation, equipment controls and alerts for larger installations. Expansion is engineered around the site’s power and cooling capacity rather than assumed from the initial cabinet.

Send your delivery location, miner models and quantity, available voltage and electrical capacity, space, ambient conditions, cooling options and the sound level you need at nearby rooms or boundaries. Include your budget and target installation date.