The Experts below are selected from a list of 360 Experts worldwide ranked by ideXlab platform

Hang Chen - One of the best experts on this subject based on the ideXlab platform.

  • an epidermal stimulation and sensing platform for sensorimotor prosthetic Control Management of lower back exertion and electrical muscle activation
    Advanced Materials, 2016
    Co-Authors: Aadeel Akhtar, Sung Young Jung, Baoxing Xu, Hang Chen, Sung Ii Park, Brandon Boyce, Jiwoo Yu, Yuhao Zhou
    Abstract:

    Skin-mounted sensors of physiological signals are useful in areas ranging from clinical diagnostics to human–machine interfaces. [1–6] The recent development of concepts in “skin-like” semiconductor technologies, sometimes referred to as epidermal electronics, create important opportunities in long-term, noninvasive, conformal interfaces to the body.[7–13] These systems offer advantages in device mechanics and user mobility over traditional technologies for healthcare monitoring and disease diagnostics, with demonstrated capabilities in precision measurement of hydration,[14] strain,[15–17] pressure,[18,19] temperature, [20] and other parameters of interest. Additional recent work shows that similar platforms designed for the fingertips can offer advanced capabilities in electrotactile stimulation. [21] This previous work focused, however, on materials and circuit design aspects without any demonstrated application. Combining these functions in a single, simple device platform designed for operation on the trunk or limbs of the body is attractive for neuromuscular electrical stimulation, [22] neuromodulation rehabilitation therapy, [23] pain mitigation and prevention, [24] human–machine interfaces, [5] and sensorimotor Control in prosthetic and orthotic devices, [25] where electromyography (EMG) and electrostimulation can serve as sensing and actuating platforms. Here, we present systems of this type, where multiple transcutaneous electrical stimulation electrodes cointegrate on a common substrate with sensors for electromyography, temperature, and mechanical strain. Abilities for simultaneous recording of physiological data and presentation of neural stimulatory inputs provide valuable functionality, as illustrated in examples of sensorimotor prosthetic Control, Management of lower back exertion, and electrical muscle activation.

  • an epidermal stimulation and sensing platform for sensorimotor prosthetic Control Management of lower back exertion and electrical muscle activation
    Advanced Materials, 2016
    Co-Authors: Aadeel Akhtar, Hang Chen, Sung Ii Park, Brandon Boyce, Yuhao Liu, Woonhong Yeo, Hyun Jin Kim, Hsin Yen Lai
    Abstract:

    The design of an ultrathin, conformal electronic device that integrates electrotactile stimulation with electromyography, temperature, and strain sensing in a single, simple platform is reported. Experiments demonstrate simultaneous use of multiple modes of operation of this type of device in the sensorimotor Control of robotic systems, in the monitoring of lower back exertion and in muscle stimulation.

Baoxing Xu - One of the best experts on this subject based on the ideXlab platform.

  • an epidermal stimulation and sensing platform for sensorimotor prosthetic Control Management of lower back exertion and electrical muscle activation
    Advanced Materials, 2016
    Co-Authors: Aadeel Akhtar, Sung Young Jung, Baoxing Xu, Hang Chen, Sung Ii Park, Brandon Boyce, Jiwoo Yu, Yuhao Zhou
    Abstract:

    Skin-mounted sensors of physiological signals are useful in areas ranging from clinical diagnostics to human–machine interfaces. [1–6] The recent development of concepts in “skin-like” semiconductor technologies, sometimes referred to as epidermal electronics, create important opportunities in long-term, noninvasive, conformal interfaces to the body.[7–13] These systems offer advantages in device mechanics and user mobility over traditional technologies for healthcare monitoring and disease diagnostics, with demonstrated capabilities in precision measurement of hydration,[14] strain,[15–17] pressure,[18,19] temperature, [20] and other parameters of interest. Additional recent work shows that similar platforms designed for the fingertips can offer advanced capabilities in electrotactile stimulation. [21] This previous work focused, however, on materials and circuit design aspects without any demonstrated application. Combining these functions in a single, simple device platform designed for operation on the trunk or limbs of the body is attractive for neuromuscular electrical stimulation, [22] neuromodulation rehabilitation therapy, [23] pain mitigation and prevention, [24] human–machine interfaces, [5] and sensorimotor Control in prosthetic and orthotic devices, [25] where electromyography (EMG) and electrostimulation can serve as sensing and actuating platforms. Here, we present systems of this type, where multiple transcutaneous electrical stimulation electrodes cointegrate on a common substrate with sensors for electromyography, temperature, and mechanical strain. Abilities for simultaneous recording of physiological data and presentation of neural stimulatory inputs provide valuable functionality, as illustrated in examples of sensorimotor prosthetic Control, Management of lower back exertion, and electrical muscle activation.

Aadeel Akhtar - One of the best experts on this subject based on the ideXlab platform.

  • an epidermal stimulation and sensing platform for sensorimotor prosthetic Control Management of lower back exertion and electrical muscle activation
    Advanced Materials, 2016
    Co-Authors: Aadeel Akhtar, Sung Young Jung, Baoxing Xu, Hang Chen, Sung Ii Park, Brandon Boyce, Jiwoo Yu, Yuhao Zhou
    Abstract:

    Skin-mounted sensors of physiological signals are useful in areas ranging from clinical diagnostics to human–machine interfaces. [1–6] The recent development of concepts in “skin-like” semiconductor technologies, sometimes referred to as epidermal electronics, create important opportunities in long-term, noninvasive, conformal interfaces to the body.[7–13] These systems offer advantages in device mechanics and user mobility over traditional technologies for healthcare monitoring and disease diagnostics, with demonstrated capabilities in precision measurement of hydration,[14] strain,[15–17] pressure,[18,19] temperature, [20] and other parameters of interest. Additional recent work shows that similar platforms designed for the fingertips can offer advanced capabilities in electrotactile stimulation. [21] This previous work focused, however, on materials and circuit design aspects without any demonstrated application. Combining these functions in a single, simple device platform designed for operation on the trunk or limbs of the body is attractive for neuromuscular electrical stimulation, [22] neuromodulation rehabilitation therapy, [23] pain mitigation and prevention, [24] human–machine interfaces, [5] and sensorimotor Control in prosthetic and orthotic devices, [25] where electromyography (EMG) and electrostimulation can serve as sensing and actuating platforms. Here, we present systems of this type, where multiple transcutaneous electrical stimulation electrodes cointegrate on a common substrate with sensors for electromyography, temperature, and mechanical strain. Abilities for simultaneous recording of physiological data and presentation of neural stimulatory inputs provide valuable functionality, as illustrated in examples of sensorimotor prosthetic Control, Management of lower back exertion, and electrical muscle activation.

  • an epidermal stimulation and sensing platform for sensorimotor prosthetic Control Management of lower back exertion and electrical muscle activation
    Advanced Materials, 2016
    Co-Authors: Aadeel Akhtar, Hang Chen, Sung Ii Park, Brandon Boyce, Yuhao Liu, Woonhong Yeo, Hyun Jin Kim, Hsin Yen Lai
    Abstract:

    The design of an ultrathin, conformal electronic device that integrates electrotactile stimulation with electromyography, temperature, and strain sensing in a single, simple platform is reported. Experiments demonstrate simultaneous use of multiple modes of operation of this type of device in the sensorimotor Control of robotic systems, in the monitoring of lower back exertion and in muscle stimulation.

Yuhao Zhou - One of the best experts on this subject based on the ideXlab platform.

  • an epidermal stimulation and sensing platform for sensorimotor prosthetic Control Management of lower back exertion and electrical muscle activation
    Advanced Materials, 2016
    Co-Authors: Aadeel Akhtar, Sung Young Jung, Baoxing Xu, Hang Chen, Sung Ii Park, Brandon Boyce, Jiwoo Yu, Yuhao Zhou
    Abstract:

    Skin-mounted sensors of physiological signals are useful in areas ranging from clinical diagnostics to human–machine interfaces. [1–6] The recent development of concepts in “skin-like” semiconductor technologies, sometimes referred to as epidermal electronics, create important opportunities in long-term, noninvasive, conformal interfaces to the body.[7–13] These systems offer advantages in device mechanics and user mobility over traditional technologies for healthcare monitoring and disease diagnostics, with demonstrated capabilities in precision measurement of hydration,[14] strain,[15–17] pressure,[18,19] temperature, [20] and other parameters of interest. Additional recent work shows that similar platforms designed for the fingertips can offer advanced capabilities in electrotactile stimulation. [21] This previous work focused, however, on materials and circuit design aspects without any demonstrated application. Combining these functions in a single, simple device platform designed for operation on the trunk or limbs of the body is attractive for neuromuscular electrical stimulation, [22] neuromodulation rehabilitation therapy, [23] pain mitigation and prevention, [24] human–machine interfaces, [5] and sensorimotor Control in prosthetic and orthotic devices, [25] where electromyography (EMG) and electrostimulation can serve as sensing and actuating platforms. Here, we present systems of this type, where multiple transcutaneous electrical stimulation electrodes cointegrate on a common substrate with sensors for electromyography, temperature, and mechanical strain. Abilities for simultaneous recording of physiological data and presentation of neural stimulatory inputs provide valuable functionality, as illustrated in examples of sensorimotor prosthetic Control, Management of lower back exertion, and electrical muscle activation.

Andre E Punt - One of the best experts on this subject based on the ideXlab platform.

  • the effect of marine closures on a feedback Control Management strategy used in a spatially aggregated stock assessment a case study based on pink ling in australia
    Canadian Journal of Fisheries and Aquatic Sciences, 2017
    Co-Authors: Andre E Punt, M Haddon, Richard L Little, Geoffrey N Tuck
    Abstract:

    Simulation is used to explore the effect of spatial heterogeneity and spatial closures on the ability of feedback-Control Management strategies to achieve goals relating to conservation and utilization of fishery resources. The operating model underlying the projections is based on pink ling, Genypterus blacodes, off southern Australia and assumes that animals are sedentary following settlement. The Management strategies are able to move the resource towards the target level in the absence of spatial closures even though assessment results are biased. The probability of reducing the stock below its limit reference point is higher when growth rates vary spatially, but the effect is small. The probability of the stock being above its target reference point is lower when one of the smaller spatial areas is closed. However, performance is markedly different when a larger fraction of the total area is closed, with stock size being substantially larger than the target at the end of the projection period.

  • the fao precautionary approach after almost 10 years have we progressed towards implementing simulation tested feedback Control Management systems for fisheries Management
    Natural Resource Modeling, 2008
    Co-Authors: Andre E Punt
    Abstract:

    . It is almost ten years since the FAO Technical Consultation on the Precautionary Approach to Capture Fisheries took place in Lysekil, Sweden. One outcome from this Technical Consultation was a set of guidelines on the precautionary approach to capture fisheries and species introductions. These guidelines include the need to incorporate harvest Control rules in Management plans. Harvest Control rules should specify what action is to be taken when specified deviations from the operational targets and constraints are observed. The specification should include minimum data requirements for the types of assessment methods to be used for decision-making. Combinations of harvest Control rules, assessment methods and data collection schemes are referred to as Management procedures. It is now well-recognized that using Management procedures is likely to lead to improved conservation of fishery resources, and that they should be evaluated to assess whether they are likely to achieve the goals for fishery Management given the types of uncertainties that are likely to frustrate this venture. In general, evaluation of Management procedures has been based on simulation modeling. This paper reviews the progress that has been made in various fisheries jurisdictions in terms of implementing Management procedures, and why and where it has proved difficult or even impossible to implement Management procedures.