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Robotics and control are both research and application domains that have been frequently engineered through the use of interdisciplinary approaches like cybernetics. Cognition is a particular concept of this approach, abstracted from the context of living organisms to that of artificial devices, and is concerned with knowledge acquisition and understanding through thought, experience, and the senses. Cognitive robotics and control refer to knowledge processing as much as knowledge generation from problem understanding, leading to special forms of architectures that enable systems to behave in an autonomous way. The main aim of this book is to highlight emerging applications and address recent breakthroughs in the domain of cognitive robotics and control and related areas. Procedures, algorithms, architectures, and implementations for reasoning, problem solving, or decision making are considered in the domain of robotics and control.
History of engineering & technology --- initial trajectory --- trajectory optimization --- Bézier surface --- robotics --- open FPGAs --- robot control --- surgical robotics --- human–machine interaction --- autonomous guidance --- low-cost platform --- FPGA --- S-curve --- motion control --- SoC --- telemanipulation --- haptics --- machine learning --- gesture recognition --- upper limb rehabilitation robot --- particle swam optimization (PSO) --- artificial bee colony (ABC) --- Ziegler Nichols --- Maximum sensitivity --- ontology --- robot task planning --- knowledge base --- knowledge representation --- industrial collaborative robots --- shared robotic tasks --- physical human–robot interaction --- human intention recognition --- time series classification --- n/a --- Bézier surface --- human-machine interaction --- physical human-robot interaction
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Robotics and control are both research and application domains that have been frequently engineered through the use of interdisciplinary approaches like cybernetics. Cognition is a particular concept of this approach, abstracted from the context of living organisms to that of artificial devices, and is concerned with knowledge acquisition and understanding through thought, experience, and the senses. Cognitive robotics and control refer to knowledge processing as much as knowledge generation from problem understanding, leading to special forms of architectures that enable systems to behave in an autonomous way. The main aim of this book is to highlight emerging applications and address recent breakthroughs in the domain of cognitive robotics and control and related areas. Procedures, algorithms, architectures, and implementations for reasoning, problem solving, or decision making are considered in the domain of robotics and control.
initial trajectory --- trajectory optimization --- Bézier surface --- robotics --- open FPGAs --- robot control --- surgical robotics --- human–machine interaction --- autonomous guidance --- low-cost platform --- FPGA --- S-curve --- motion control --- SoC --- telemanipulation --- haptics --- machine learning --- gesture recognition --- upper limb rehabilitation robot --- particle swam optimization (PSO) --- artificial bee colony (ABC) --- Ziegler Nichols --- Maximum sensitivity --- ontology --- robot task planning --- knowledge base --- knowledge representation --- industrial collaborative robots --- shared robotic tasks --- physical human–robot interaction --- human intention recognition --- time series classification --- n/a --- Bézier surface --- human-machine interaction --- physical human-robot interaction
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People with congenital and/or acquired disabilities constitute a great number of dependents today. Robotic platforms to help people with disabilities are being developed with the aim of providing both rehabilitation treatment and assistance to improve their quality of life. A high demand for robotic platforms that provide assistance during rehabilitation is expected because of the health status of the world due to the COVID-19 pandemic. The pandemic has resulted in countries facing major challenges to ensure the health and autonomy of their disabled population. Robotic platforms are necessary to ensure assistance and rehabilitation for disabled people in the current global situation. The capacity of robotic platforms in this area must be continuously improved to benefit the healthcare sector in terms of chronic disease prevention, assistance, and autonomy. For this reason, research about human–robot interaction in these robotic assistance environments must grow and advance because this topic demands sensitive and intelligent robotic platforms that are equipped with complex sensory systems, high handling functionalities, safe control strategies, and intelligent computer vision algorithms. This Special Issue has published eight papers covering recent advances in the field of robotic platforms to assist disabled people in daily or clinical environments. The papers address innovative solutions in this field, including affordable assistive robotics devices, new techniques in computer vision for intelligent and safe human–robot interaction, and advances in mobile manipulators for assistive tasks.
Humanities --- Social interaction --- sensors --- electronic platform --- machine learning --- wearables --- hand motor rehabilitation --- sEMG --- hand pose --- social robot --- physical human-robot interaction --- assistive robotics --- collaborative robots --- brain-machine interfaces --- EEG --- exoskeleton --- motor imagery --- human-robot interaction --- human pose estimation --- robotic rehabilitation --- visually impaired assistance --- navigation system --- knowledge graph --- dialogue system --- NLP --- reasoning --- multimodal interfaces --- robotic exoskeleton --- sensors --- electronic platform --- machine learning --- wearables --- hand motor rehabilitation --- sEMG --- hand pose --- social robot --- physical human-robot interaction --- assistive robotics --- collaborative robots --- brain-machine interfaces --- EEG --- exoskeleton --- motor imagery --- human-robot interaction --- human pose estimation --- robotic rehabilitation --- visually impaired assistance --- navigation system --- knowledge graph --- dialogue system --- NLP --- reasoning --- multimodal interfaces --- robotic exoskeleton
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MEDER 2018, the IFToMM International Symposium on Mechanism Design for Robotics, was the fourth event in a series that was started in 2010 as a specific conference activity on mechanisms for robots. The aim of the MEDER Symposium is to bring researchers, industry professionals, and students together from a broad range of disciplines dealing with mechanisms for robots, in an intimate, collegial, and stimulating environment. In the 2018 MEDER event, we received significant attention regarding this initiative, as can be seen by the fact that the Proceedings contain contributions by authors from all around the world.The Proceedings of the MEDER 2018 Symposium have been published within the Springer book series on MMS, and the book contains 52 papers that have been selected after review for oral presentation. These papers cover several aspects of the wide field of robotics dealing with mechanism aspects in theory, design, numerical evaluations, and applications.This Special Issue of Robotics (https://www.mdpi.com/journal/robotics/special_issues/MDR) has been obtained as a result of a second review process and selection, but all the papers that have been accepted for MEDER 2018 are of very good quality with interesting contents that are suitable for journal publication, and the selection process has been difficult.
n/a --- robot control --- cylindrical --- V2SOM --- 3-UPU parallel mechanism --- McKibben muscle --- compliance control --- gait planning --- grasp stability --- robot singularity --- safety mechanism --- robot --- exercising device --- hexapod walking robot --- inadvertent braking --- energy efficiency --- robotic cell --- humanoid robots --- collaborative robot --- robot wrists --- humanoid robotic hands --- stability --- cable-driven robots --- image processing --- fail-safe operation --- VSA --- graphical user interface --- computer-aided design --- robotic legs --- human-robot-interaction --- shape changing --- painting robot --- shape memory alloy --- velocity control --- underactuated fingers --- safe physical human–robot interaction (pHRI) --- human-machine interaction --- compliant mechanism --- iCub --- robot-assisted Doppler sonography --- pHRI --- spherical parallel mechanism --- mobile manipulation --- economic locomotion --- haptic glove --- learning by demonstration --- robot kinematics --- variable stiffness actuator (VSA) --- workspace analysis --- singularity analysis --- collaborative robots --- parallel mechanisms --- rolling --- SMA actuator --- elliptical --- cable-driven parallel robots --- non-photorealistic rendering --- redundancy --- kinematic redundancy --- variable stiffness actuator --- trajectory planning --- kinematics --- pneumatic artificial muscle --- artistic rendering --- force reflection --- safe physical human–robot interaction --- orientational mechanisms --- teleoperation --- actuation burden --- cobot --- hand exoskeleton --- safe physical human-robot interaction (pHRI) --- safe physical human-robot interaction
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People with congenital and/or acquired disabilities constitute a great number of dependents today. Robotic platforms to help people with disabilities are being developed with the aim of providing both rehabilitation treatment and assistance to improve their quality of life. A high demand for robotic platforms that provide assistance during rehabilitation is expected because of the health status of the world due to the COVID-19 pandemic. The pandemic has resulted in countries facing major challenges to ensure the health and autonomy of their disabled population. Robotic platforms are necessary to ensure assistance and rehabilitation for disabled people in the current global situation. The capacity of robotic platforms in this area must be continuously improved to benefit the healthcare sector in terms of chronic disease prevention, assistance, and autonomy. For this reason, research about human–robot interaction in these robotic assistance environments must grow and advance because this topic demands sensitive and intelligent robotic platforms that are equipped with complex sensory systems, high handling functionalities, safe control strategies, and intelligent computer vision algorithms. This Special Issue has published eight papers covering recent advances in the field of robotic platforms to assist disabled people in daily or clinical environments. The papers address innovative solutions in this field, including affordable assistive robotics devices, new techniques in computer vision for intelligent and safe human–robot interaction, and advances in mobile manipulators for assistive tasks.
Humanities --- Social interaction --- sensors --- electronic platform --- machine learning --- wearables --- hand motor rehabilitation --- sEMG --- hand pose --- social robot --- physical human-robot interaction --- assistive robotics --- collaborative robots --- brain–machine interfaces --- EEG --- exoskeleton --- motor imagery --- human–robot interaction --- human pose estimation --- robotic rehabilitation --- visually impaired assistance --- navigation system --- knowledge graph --- dialogue system --- NLP --- reasoning --- multimodal interfaces --- robotic exoskeleton --- n/a --- brain-machine interfaces --- human-robot interaction
Choose an application
People with congenital and/or acquired disabilities constitute a great number of dependents today. Robotic platforms to help people with disabilities are being developed with the aim of providing both rehabilitation treatment and assistance to improve their quality of life. A high demand for robotic platforms that provide assistance during rehabilitation is expected because of the health status of the world due to the COVID-19 pandemic. The pandemic has resulted in countries facing major challenges to ensure the health and autonomy of their disabled population. Robotic platforms are necessary to ensure assistance and rehabilitation for disabled people in the current global situation. The capacity of robotic platforms in this area must be continuously improved to benefit the healthcare sector in terms of chronic disease prevention, assistance, and autonomy. For this reason, research about human–robot interaction in these robotic assistance environments must grow and advance because this topic demands sensitive and intelligent robotic platforms that are equipped with complex sensory systems, high handling functionalities, safe control strategies, and intelligent computer vision algorithms. This Special Issue has published eight papers covering recent advances in the field of robotic platforms to assist disabled people in daily or clinical environments. The papers address innovative solutions in this field, including affordable assistive robotics devices, new techniques in computer vision for intelligent and safe human–robot interaction, and advances in mobile manipulators for assistive tasks.
sensors --- electronic platform --- machine learning --- wearables --- hand motor rehabilitation --- sEMG --- hand pose --- social robot --- physical human-robot interaction --- assistive robotics --- collaborative robots --- brain–machine interfaces --- EEG --- exoskeleton --- motor imagery --- human–robot interaction --- human pose estimation --- robotic rehabilitation --- visually impaired assistance --- navigation system --- knowledge graph --- dialogue system --- NLP --- reasoning --- multimodal interfaces --- robotic exoskeleton --- n/a --- brain-machine interfaces --- human-robot interaction
Choose an application
Robotics and control are both research and application domains that have been frequently engineered through the use of interdisciplinary approaches like cybernetics. Cognition is a particular concept of this approach, abstracted from the context of living organisms to that of artificial devices, and is concerned with knowledge acquisition and understanding through thought, experience, and the senses. Cognitive robotics and control refer to knowledge processing as much as knowledge generation from problem understanding, leading to special forms of architectures that enable systems to behave in an autonomous way. The main aim of this book is to highlight emerging applications and address recent breakthroughs in the domain of cognitive robotics and control and related areas. Procedures, algorithms, architectures, and implementations for reasoning, problem solving, or decision making are considered in the domain of robotics and control.
History of engineering & technology --- initial trajectory --- trajectory optimization --- Bézier surface --- robotics --- open FPGAs --- robot control --- surgical robotics --- human-machine interaction --- autonomous guidance --- low-cost platform --- FPGA --- S-curve --- motion control --- SoC --- telemanipulation --- haptics --- machine learning --- gesture recognition --- upper limb rehabilitation robot --- particle swam optimization (PSO) --- artificial bee colony (ABC) --- Ziegler Nichols --- Maximum sensitivity --- ontology --- robot task planning --- knowledge base --- knowledge representation --- industrial collaborative robots --- shared robotic tasks --- physical human-robot interaction --- human intention recognition --- time series classification --- initial trajectory --- trajectory optimization --- Bézier surface --- robotics --- open FPGAs --- robot control --- surgical robotics --- human-machine interaction --- autonomous guidance --- low-cost platform --- FPGA --- S-curve --- motion control --- SoC --- telemanipulation --- haptics --- machine learning --- gesture recognition --- upper limb rehabilitation robot --- particle swam optimization (PSO) --- artificial bee colony (ABC) --- Ziegler Nichols --- Maximum sensitivity --- ontology --- robot task planning --- knowledge base --- knowledge representation --- industrial collaborative robots --- shared robotic tasks --- physical human-robot interaction --- human intention recognition --- time series classification
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Technology is changing the manufacturing world. For example, sensors are being used to track inventories from the manufacturing floor up to a retail shelf or a customer’s door. These types of interconnected systems have been called the fourth industrial revolution, also known as Industry 4.0, and are projected to lower manufacturing costs. As industry moves toward these integrated technologies and lower costs, engineers will need to connect these systems via the Internet of Things (IoT). These engineers will also need to design how these connected systems interact with humans. The focus of this Special Issue is the smart sensors used in these human–robot collaborations.
Technology: general issues --- History of engineering & technology --- physical human-robot interaction --- game theory --- adaptive optimal control --- robot control --- tandem force sensor --- traction force sensor --- human–robot interaction --- contact task --- imitation learning --- safe physical human–robot collaboration --- collision detection --- human action recognition --- artificial intelligence --- industrial automation --- reinforcement learning --- social robotics --- human-robot interaction --- reward design --- physical embodiment --- human robot collaboration --- human robot interaction --- path planning --- bidirectional awareness --- haptic feedback device --- human machine interface --- collision identification --- collaborative robot --- deep learning --- uncertainty estimation --- knowledge distillation --- human–robot collaboration --- speed and separation monitoring --- human–machine differentiation --- thermal cameras --- protective separation distance --- collaborative robots --- motion planning --- human motion prediction --- human-following robots --- teleoperation --- high-speed image processing --- machine learning --- finger position recognition --- grasp type estimation --- human-robot collaboration --- human-centered robotics --- task planning --- n/a --- safe physical human-robot collaboration --- human-machine differentiation
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