1. MiniGripper 60
Description
The Grabo Mini is a robotic electro-mechanical gripper with a modular design, allowing it to be used with different jaw configurations. The available options include parallel jaws and curvilinear jaws. Its easy-to-use fastening mechanism makes it compatible with various types of robotic manipulators.
Features
- The Grabo Mini’s jaws are easily replaceable, allowing it to adapt to different gripping materials.
- The design of the Grabo Mini allows for quick actuator replacement, reducing both maintenance time and costs.
- The gripper can utilize jaws made from various materials, making it suitable for diverse and specialized applications.
- The Grabo Mini’s adaptive attachment system enables seamless integration with any robotic system.
- Its modular design allows the Grabo Mini to operate in both parallel and curvilinear modes.
- Components requiring corrosion resistance, strength, and hardness are made from durable stainless steel, while those needing lightweight strength are crafted from high-strength aluminum alloy.
- The Grabo Mini features a precision-integrated actuator based on advanced technology.
- Precision-machined gears with low backlash in the Grabo Mini ensure high accuracy and precision.
Specifications
- Dimensions: 100mm*90mm*48mm
- Maximum: Curvilinear Stroke (Maximum graspable diameter) 52 mm
- Minimum: Curvilinear Stroke (Minimum graspable diameter) 18 mm
- Angular: Stroke 68 Degrees
- Maximum: Cycle count 60 cycles/min
- Minimum: Cycle Time 1 s
- Gripper: Mass 320 grams
2. SCOUT Robotic Platform for Development of Autonomous Systems
Description:
The QuantPro Scout is a four-wheeled mobile robot platform designed to integrate various sensors for developing autonomous robots and systems. It features four independently controlled wheels and can reach speeds of up to 1.5 m/s. The platform includes an inbuilt IMU, motors with encoders, an onboard computer with a GPU, and a 3D depth camera for perception. Powered by an onboard Li-ion battery, the robot can operate continuously for up to 2 hours and offers 5V and 12V power outlets for connecting external devices. The robot can be controlled through multiple input methods, including translation velocity, individual wheel speed, and yaw velocity. It is equipped with 2 Ethernet ports and 2 USB ports for communication.
Features
- Four-Wheeled Platform: Four independently controlled wheels for enhanced maneuverability and stability.
- Speed: Capable of reaching speeds up to 1.5 m/s.
- Control Methods: Adjustable through translation velocity, individual wheel speed, and yaw velocity for precise navigation and movement control.
- 3D Depth Camera: Integrated 3D depth camera for detailed environmental perception and spatial understanding.
- Inbuilt IMU (Inertial Measurement Unit): For tracking the robot’s orientation and acceleration, aiding in navigation and stability.
- Onboard Computer: Equipped with a powerful onboard computer featuring a GPU to handle complex computations and processing tasks.
- Battery: Powered by a Li-ion battery providing up to 2 hours of continuous operation.
- Power Outlets: 5V and 12V power outlets available for connecting and powering external devices.
- Sensor Integration: Designed to integrate various sensors for developing and testing autonomous systems.
- Modular Design: Facilitates easy addition of external devices and sensors for extended functionality.
3. Grabo 5
Features
- Servo motor robotic gripper
- High-quality material
- 5 kg payload ( also available in 1.2 kg and 10 kg payload. High precision servo motor
- High quality, low cost, quick response
- Easily mountable
- Easily detachable parallel & curvilinear gripper jaw
- Use of spur gears for better drive
- No lubrication required
- Overhead Camera (optional)
- Precision integrated actuator
Specifications: Curvilinear
- Payload 5 kg
- Maximum Curvilinear Stroke (Maximum graspable diameter) 120 mm
- Minimum Curvilinear Stroke (Minimum graspable diameter) 42 mm
- Angular Stroke 68 Degrees
- Maximum Gripping Force on the graspable diameter 266.7 N
- Gripping Torque 14.4 Nm
- Maximum Cycle count 60 cycles/min
- Minimum Cycle Time 1 s
- Weight per jaw maximum 91 grams
- Cable length maximum 5 m
- Gripper Mass 2.2 kgs
- Closing speed 20 to 150 mm/s
- Operating temperature 0°C to 40°C (customization available)
- Connectivity Ethernet/IP, CANopen, EtherCAT
- Feedback (customizable) Force sensing, Position sensing
Specifications : Parallel
- Payload : 5 kg
- Maximum Stroke : 70 mm
- Maximum Gripping Force : 180 N
- Maximum Cycle count : 60 cycles/min
- Minimum Cycle Time : 1 s
- Cable length maximum : 5 m
- Gripper Mass : 3.3 kgs
- Operating temperature : 0°C to 40°C (customization available)
- Connectivity : Ethernet/IP, CANopen, EtherCAT
- Feedback (customizable) : Force sensing, Position sensing
4. Flexible Robotic System
Description:
The Flexible Robot, also known as the Patient Assistant Robot or the Flexible 4-Axis QuantPro SCARA Robot, is specifically developed to assist bedridden patients, particularly those suffering from severe injuries or physical disabilities. These patients often face challenges in performing basic tasks, such as reaching for a glass of water or taking their medication, due to their limited mobility. To address these needs, the Patient Assistant Robot was created, providing essential support by autonomously handling and delivering items that the patient would otherwise be unable to access on their own. This innovation is designed to improve the quality of life for individuals with significant physical limitations, offering them greater independence and comfort in their daily routines.
Features of Flexible Robotic System with three Links:
- Lightweight: The FRS is very lightweight.
- Easy and Flexible deployment: The Flexible Robotic System with three Links can accommodate many kind of end effectors using the adaptable mounting. Therefore, it is very easy to deploy the robot for many different applications quickly.
- Reliable Gear Drive: The gear drive instead of the belt drive.
Specifications
- Power Consumption: 100 W (Approx.)
- Payload: 20 grams
- Degrees of Freedom: 5
- Maximum reach: 1460 mm
- Weight: 5.2 kgs
- Enclosure Rating: IP54
- Cable Length: 3 m or 6 m
Key Features:
- Enhanced Mobility Assistance: The robot can easily perform a variety of tasks, from delivering a glass of water to positioning medication, thereby helping patients with daily needs.
- Versatile Deployment: Equipped with an adaptable mounting system, the robot can be quickly reconfigured with different end effectors to suit various tasks and environments.
- User-Friendly Operation: Designed for simplicity and ease of use, the robot can be controlled with minimal effort, allowing patients or caregivers to efficiently manage its functions.
- Durability and Reliability: Built with a robust gear drive system, it ensures consistent performance and reliability in assisting patients.
5. Flexible Universal Modular Robot
Description:
The Flexible Universal Modular Robot (FUMoR) is designed to enhance precision and repeatability in industries by enabling a more accurate grasp of tiny objects. FUMoR v1.0 is primarily developed for two main purposes:
– The intelligent and efficient handling of very small items, including medicines, cotton balls, paper clips, spoons, and various small engineering and medical/surgical components.
– Providing assistance and guidance to patients and elderly individuals at home, helping with daily tasks such as feeding and medical support.
Technical Features
- Unique design of flexible link in gooseneck structure.
- Unique design of modularity of the link, gripper and base.
- Sensor instrumentation of the flexible link.
- Novel miniaturized gripper with infrared sensor (for object detection).
- Adjustable base height & vertical positioning of the robot.
- Easy table top mounted assembly for home & confined works space applications.
Specifications
- FUMoR is a single flexible link table mount robot with a payload of 100gms.
- It has a height of approximately 400mm and the minimum table space required is 600mmX400mm.
- The complete structure is made of Mild Steel and Stainless Steel and weighs approximately 7 kg.
- It is fitted with a Nylon miniature gripper for gripping and different sensors. FUMoR consists of two motions. 1. Transitional Motion : 0- 100mm. 2. Rotational motion : 0- 360 degree.
- FUMoR is controlled by Arduino Atmega 2560.
- 230V Ac 50Hz power input.
- Maximum Reach-500mm.
- Maximum height adjustment-100mm
6. Industrial Cobots
Description:
Industrial collaborative robots, or cobots, are designed to work alongside human operators, enhancing productivity and efficiency in industrial settings. They are known for their safety features, such as force sensors and emergency stop functions, which allow them to operate without extensive safety barriers. Cobots offer flexibility with easy integration, user-friendly programming, and adaptability to various tasks, from assembly and material handling to quality inspection and packaging. Their high precision, modular design, and cost-effectiveness make them valuable tools for automating repetitive tasks and improving overall production processes.
Features:
1. Safety Features:
– Force Sensors: Detect and respond to physical contact, preventing injury by reducing the robot’s force if it encounters an obstacle. It Allows immediate shutdown of the robot in case of an emergency to ensure operator safety. Designed to interact gently with objects and humans to minimize risk.
- Flexibility and Integration:
– Ease of Setup: Quick and simple to integrate into existing workflows with minimal setup. It’s Capable of performing a wide range of tasks, including assembly, material handling, and inspection.
- User-Friendly Programming:
– Intuitive Interfaces: Includes touchscreens and graphical user interfaces for easy programming, even for operators with minimal experience. It Allow manual guidance of the robot for task setup and adjustments.
- Precision and Accuracy:
– High Repeatability: Delivers consistent performance with high precision, ideal for tasks requiring meticulous accuracy. Customizable with different end effectors and tools to suit various applications. Suitable for both small-scale and complex tasks, allowing for flexible production needs
5. Cost-Effectiveness:
– Reduced Labor Costs: Automates repetitive tasks, lowering overall labor expenses and increasing productivity and Typically requires a smaller initial investment compared to traditional industrial robots, with a shorter payback period.
These features collectively make cobots valuable for improving efficiency, safety, and flexibility in industrial environments.
7. Industrial Automation
Description:
Industrial automation refers to the use of control systems, such as computers, robots, and information technologies, to manage and control industrial processes and machinery with minimal or no human intervention. The primary goal of industrial automation is to increase productivity, improve quality, enhance safety, and reduce operational costs. This is achieved by automating repetitive, dangerous, or complex tasks that would otherwise require human labor. Industrial automation is employed across various sectors, including manufacturing, energy production, pharmaceuticals, automotive, and food processing, among others.
Automation systems can range from simple process controls to highly complex distributed control systems (DCS) and programmable logic controllers (PLCs). These systems are designed to monitor real-time data, make decisions, and execute control commands to maintain optimal process conditions. The integration of sensors, actuators, and communication networks ensures that these systems operate efficiently and reliably.
Features:
- Real-Time Monitoring and Control:
– Industrial automation systems continuously monitor processes and make real-time adjustments to ensure optimal performance. This includes adjusting variables such as temperature, pressure, speed, and flow rates based on sensor feedback.
- Scalability and Flexibility:
– Automation solutions can be scaled to meet the needs of various industries, from small-scale operations to large, complex industrial facilities. They are also flexible, allowing for easy reconfiguration to accommodate changes in production processes or product lines.
- Precision and Accuracy:
– Automation enhances the precision and accuracy of industrial processes, reducing human error and ensuring consistent product quality. This is particularly important in industries where exact measurements and tolerances are critical.
- Enhanced Safety:
– By automating hazardous or physically demanding tasks, industrial automation significantly improves workplace safety. Automated systems can handle dangerous processes without risking human injury, and safety protocols can be integrated to shut down operations in case of emergencies.
- Energy Efficiency:
– Automated systems optimize energy use by controlling machinery and processes more efficiently. For example, variable frequency drives (VFDs) adjust motor speeds to match process requirements, reducing unnecessary energy consumption.
- Data Acquisition and Analytics:
– Industrial automation systems collect vast amounts of data from sensors and equipment. This data can be analyzed to identify trends, optimize processes, and predict maintenance needs, leading to improved operational efficiency and reduced downtime. Industrial automation is at the heart of modern industry, driving efficiency, safety, and innovation across a wide range of applications. As technologies evolve, automation systems continue to become more intelligent, connected, and capable of transforming the way industries operate.
8. Mechatronics
Description:
Mechatronics involves the design, development, and implementation of systems that combine mechanical components with electronic controls and computer algorithms to achieve automated and smart operations. It is used in a wide range of applications, from industrial robots and automated manufacturing systems to consumer electronics and automotive systems. The goal of mechatronics is to improve the functionality, efficiency, and reliability of systems by integrating different engineering principles and technologies.
In essence, mechatronics is about creating more intelligent and versatile machines that can perform complex tasks with high precision and adaptability. This integration of multiple engineering disciplines allows for the development of innovative products and systems that can interact with their environment, make decisions, and operate autonomously or semi-autonomously.
Features:
- Interdisciplinary Integration:
- Combines mechanical engineering, electronics, control systems, and computer science.
- Encourages collaboration across multiple engineering disciplines to create more sophisticated and efficient systems.
- Automation and Control:
- Focuses on the development of automated systems that can operate independently or with minimal human intervention.
- Uses control systems to manage and regulate the behavior of mechanical and electronic components.
- Intelligent Systems:
- Involves the creation of systems capable of sensing, processing information, and making decisions.
- Examples include robotics, autonomous vehicles, and smart manufacturing systems.
- Precision and Accuracy:
- Emphasizes the design of systems that can perform tasks with high levels of precision and accuracy.
- Often used in applications requiring fine control, such as CNC machines and medical devices.
- Real-time Monitoring and Feedback:
- Systems often include sensors and feedback loops that allow for real-time monitoring and adjustments.
- Enhances the performance and reliability of the system by enabling it to respond to changes in the environment.
- Flexibility and Adaptability:
- Mechatronic systems are designed to be adaptable to different tasks and environments.
This flexibility is achieved through modular design and the use of programmable controllers.
9.Flexible Manufacturing Systems Industry 4.O
Description:
Flexible Manufacturing Systems are automated production setups that can easily switch between different products or tasks with minimal downtime. They are capable of producing a wide range of products in varying volumes without the need for extensive reconfiguration. FMS typically consists of a series of workstations interconnected by material handling systems, all controlled by a central computer or distributed control system.
Features:
- Real-Time Monitoring and Control:
- Continuous Data Collection: IoT sensors and devices collect data on various aspects of the manufacturing process, such as machine performance, product quality, and environmental conditions and Instantaneous Adjustments.
- Remote Monitoring: Operators can monitor and control the system from remote locations, enhancing flexibility and responsiveness to production needs.
- Cyber-Physical Systems (CPS):
- Integration of Physical and Digital Worlds: CPS connects physical machinery with digital systems, enabling seamless interaction and real-time control and Dynamic Response Capabilities.
- Enhanced Coordination: CPS ensures that all parts of the system work together harmoniously, improving overall efficiency and reducing the likelihood of errors.
- Data-Driven Decision-Making:
- Big Data Analytics: Large volumes of data generated by the system are analyzed to identify patterns, optimize processes, and predict future trends.
- Predictive Insights: Machine learning algorithms provide insights that help in anticipating maintenance needs, optimizing production schedules, and reducing waste and Informed Decision-Making.
4.Advanced Automation and Robotics:
- Reprogrammable Robots: Robots in FMS can be easily reprogrammed to perform different tasks, making it possible to adjust to new production requirements without significant delays and AI-Powered Robotics.
- Precision and Speed: Automated machines in FMS work with high precision and speed, ensuring consistent quality and faster production times.
- Modular and Scalable Design:
- Modularity: FMS is designed with modular components that can be easily added, removed, or reconfigured, making it simple to adapt the system to new production needs.
- Scalability: The system can be scaled up or down depending on production requirements, allowing manufacturers to respond effectively to changes in demand and Cost-Effective Expansion.
10. End to End Hiring Solutions with AI
Description:
End-to-End Hiring Solutions with AI are crafted to tackle the multifaceted challenges of contemporary recruitment by offering a unified, intelligent approach that spans the entire hiring process. These advanced platforms integrate a range of AI-driven technologies to streamline each phase of recruitment, ensuring a more seamless and efficient experience for both employers and candidates. From automated job postings and intelligent candidate sourcing to advanced resume screening and predictive analytics, these solutions enhance every aspect of hiring. By leveraging data-driven insights and reducing manual intervention, AI-powered systems not only expedite the recruitment process but also ensure a more equitable and objective evaluation of candidates. This holistic approach helps organizations optimize their hiring strategies, improve decision-making, and foster a more engaging and transparent candidate experience, ultimately leading to better hiring outcomes and increased organizational efficiency.
- Intelligent Candidate Sourcing:
- Automated Search: Uses AI algorithms to search and identify candidates from job boards, social networks, and internal databases.
- Passive Candidate Outreach: Engages passive candidates who are not actively job hunting but match the desired profile.
- Resume Screening and Parsing:
- Automated Filtering: AI filters and screens resumes based on predefined criteria such as skills, experience, and qualifications.
- Contextual Analysis: Analyzes the context and relevance of candidate experiences and skills to ensure a more accurate match.
- AI-Powered Chatbots:
- Candidate Interaction: Engages with candidates via chatbots that answer questions, provide updates, and guide them through the application process.
- Task Automation: Handles repetitive tasks such as scheduling interviews and collecting application materials.
- Predictive Analytics:
- Success Prediction: Uses historical data and machine learning models to predict a candidate’s potential success and fit for the role.
- Trend Analysis: Identifies trends and patterns in hiring metrics to improve recruitment strategies.
11. ERP Customization & Implementation
Description:
ERP Customization refers to the process of modifying and adapting an ERP system to fit the specific needs of an organization. This includes adjusting the software’s features, functionalities, and workflows to match the company’s business processes and industry requirements. Customization may involve developing custom modules, integrating third-party applications, and configuring system settings to ensure that the ERP system supports the organization’s unique operational and strategic goals.
Features:
- Data Migration:
- Data Mapping: Systematic extraction, transformation, and loading (ETL) of data from legacy systems into the new ERP system and Validation.
- Integration:
- System Integration: Connecting the ERP system with other business applications (e.g., CRM, supply chain management) to ensure seamless data flow and process integration and Third-Party Integration.
- User Training and Support:
- Training Programs: Offering detailed training sessions and materials to ensure users understand how to effectively use the ERP system and Support Services:
- Continuous Improvement:
- Feedback Loop: Collecting and analyzing user feedback to identify opportunities for further customization or enhancements and Updates and Upgrades
Custom Development: Creating custom modules or features to address unique business needs not covered by standard ERP functionalities.
12. High End 3D Printers
Description:
High-end 3D printers are advanced additive manufacturing machines designed to produce high-quality, complex, and precision parts across various industries. Unlike entry-level or consumer-grade 3D printers, high-end models are characterized by their ability to handle a wide range of materials, including specialized polymers, metals, and composites. They offer superior resolution, speed, and reliability, making them suitable for applications that require intricate details and robust performance.
Features:
- Advanced Printing Technology:
- High Precision: Capable of producing highly detailed and accurate prints with tight tolerances and fine resolution.
- Multi-Material Printing: Supports printing with multiple materials or colors simultaneously for complex and multi-functional parts.
- Large Build Volume:
- Extended Size Capability: Offers a spacious build area to create larger objects or multiple parts in a single print run.
- Modular Expansion: Some models allow for modular build volume expansion to accommodate varying project sizes.
- High-Quality Materials:
- Variety of Filaments: Compatible with a wide range of materials, including high-performance polymers, metals, ceramics, and composites.
- Material Versatility: Supports advanced materials like carbon fiber composites, flexible polymers, and high-temperature resins.
- Precision Engineering:
- High Resolution: Equipped with advanced technology to achieve high resolution and surface finish.
Stable Build Platform: Features a robust and stable build platform to minimize warping and ensure consistent print quality.
13. Research Labs
Description:
Research labs are specialized environments dedicated to scientific and technological investigation, experimentation, and development. They are equipped with advanced tools, equipment, and technologies to support research activities across various fields, including engineering, materials science, biology, chemistry, and physics.
In the context of 3D printing, research labs focus on exploring new materials, refining printing techniques, and developing innovative applications. Researchers in these labs work on improving the performance, efficiency, and capabilities of 3D printing technologies. They may conduct experiments to test the properties of novel materials, optimize printing processes, and explore applications for high-end 3D printing in areas such as prototype development, custom manufacturing, and functional testing.
Features:
Safety Protocols:
- Safety Equipment: Includes safety showers, eye wash stations, and personal protective equipment (PPE) to ensure a safe working environment.
- Emergency Systems: Features emergency response systems and protocols for handling hazardous situations.
Collaboration Facilities:
- Meeting Rooms: Provides dedicated spaces for team meetings, collaboration, and presentation of research findings.
- Communication Tools: Equipped with video conferencing and other communication tools to facilitate collaboration with external researchers.
Sample Storage and Handling:
- Storage Solutions: Includes specialized storage for samples, including refrigerators, freezers, and controlled storage units.
- Handling Equipment: Features equipment for the careful handling and preparation of samples to prevent contamination or degradation.
Funding and Grant Management:
- Funding Access: Provides resources and support for securing research grants and managing research budgets.
Proposal Support: Offers assistance with preparing and submitting research proposals for funding
14. Centre of Excellence
Description:
A Centre of Excellence (CoE) is a specialized facility or institution dedicated to advancing knowledge, innovation, and best practices in a specific field or technology. CoEs bring together experts, resources, and cutting-edge tools to drive advancements and provide leadership in their area of focus.
In the realm of 3D printing, a CoE serves as a hub for expertise and innovation in additive manufacturing. It typically includes high-end 3D printers, state-of-the-art research facilities, and a team of specialists who collaborate to push the boundaries of 3D printing technology. The CoE may focus on areas such as material science, industrial applications, or technological development, and it often provides training, support, and consultation services to organizations and individuals looking to leverage 3D printing capabilities. By fostering a collaborative environment and driving research and development, the CoE plays a crucial role in advancing the field of 3D printing and its applications.
Features:
State-of-the-Art Facilities:
- High-Tech Labs: Features advanced laboratories with the latest equipment and technologies relevant to the center’s focus.
- Innovation Spaces: Provides dedicated spaces for experimentation, prototyping, and innovation.
Knowledge Transfer and Dissemination:
- Publications and Conferences: Publishes research findings in academic journals and presents at conferences to share knowledge and advancements.
- Industry Partnerships: Collaborates with industry partners to apply research findings and technologies in real-world applications.
Support Services:
- Consultancy: Offers consultancy services to organizations seeking expertise in the center’s area of specialization.
- Technical Support: Provides technical support and guidance for implementing and utilizing advanced technologies and methodologies.
Funding and Resources:
- Grant Acquisition: Assists in acquiring funding and grants for research and development projects.
- Resource Allocation: Manages resources effectively to support ongoing research and development activities.