Configurable Hardware Architecture
01Core mechanical structures can be adapted for reach, payload class, mounting, workspace, and service requirements without rebuilding the platform from zero.
Platforms
Deployable robotic platforms designed for practical automation and modern robotic software workflows.
MINTROBOT platforms combine configurable physical architecture, middleware-ready communication, and integration-ready modularity into practical robotic foundations.
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Platform philosophy
MINTROBOT platforms are built around configurable hardware structures, SDR-ready control architecture, and modular system interfaces. This allows each platform to be adapted to operational requirements without treating every project as a one-off machine.
Core mechanical structures can be adapted for reach, payload class, mounting, workspace, and service requirements without rebuilding the platform from zero.
Designed for software-defined control, middleware communication, teleoperation, data collection, and AI workflow integration.
Modular end-effectors, sensing units, controllers, and mounting structures can be combined into deployment-ready robotic systems.
Platform families
MINTROBOT platform families are organized around practical service automation. A column-style platform provides a stable manipulation base for table-top and fixed-workspace tasks, while Son provides a network-connected end-effector module with an SDR-level interface. This lets a system start from a deployment-ready structure and adapt only the reach, payload class, sensing, mounting, end-effector, and workflow elements required by the operating environment.
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The configurable service manipulation foundation. Pal Service provides a column-style platform structure suited to table-top and fixed-workspace automation tasks.
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The SDR-native gripper module. Son exposes a middleware-level interface directly from the end-effector, avoiding separate low-level fieldbus setup for system integration.
View Platform →System architecture
MINTROBOT platforms are designed to support modern robotic workflows including teleoperation, middleware-based integration, data collection, and practical system integration. The architecture creates a direct path from application and AI workflows to physical robot hardware through middleware and SDR control, so AI logic, data workflows, and hardware behavior can operate through a defined system interface.
Modern robotics workflow
SDR-native platform
Application layer
Application / AI Workflow
System interface
Middleware Interface
Control layer
SDR Controller
Hardware module
Pal & Son Platform
MINTROBOT platform
Hardware module
Other HW Modules
Mobile / leg / etc.
Hardware module
Sensors
Vision / IO / environment
Engineering heritage
MINTROBOT's platform direction is built on accumulated development experience across industrial robot arms, automation mechanisms, and field-oriented robotic systems. This experience continues to support B2B development, licensing opportunities, and platform-based adaptation for industrial and service automation needs.
Development archive
A horizontal archive for verified project images. Replace each placeholder with actual robot arm, mechanism, automation cell, or integration photos when assets are ready.
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Industrial arm development experience for manipulation, motion, and mechanical architecture.
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Automation mechanism work for compact, repeatable handling and process-oriented tasks.
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Vertical workspace structures that inform service-class column platform design.
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Cartesian automation structures for practical fixtures, testbeds, and process integration.
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Task-specific gripping, tooling, and manipulation interfaces for robotic applications.
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Applied handling setups used to validate motion, tooling, sensing, and cycle workflow.
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Robotic cell development experience across fixtures, controls, safety, and operation.
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Service-oriented manipulation configurations for table-top and fixed-workspace tasks.
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Sensing-assisted robotic handling experience for alignment, detection, and workflow feedback.
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Controller and actuator integration background across robotic and automation structures.
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Early platform development used to validate mechanical structure and control approach.
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Application fixtures and support structures developed around real automation constraints.
Platform inquiry