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bluetooth® remote control  (Carl Zeiss)


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    Carl Zeiss bluetooth® remote control
    Figure illustrates Google® Cardboard based solution (1) ZEISS® VR ONE Plus, (2) Celly® <t>Bluetooth®</t> remote control and (3) Samsung Galaxy S9® smartphone (SM-G960F/DS). The smartphone runs software coded in Unity® on Android® Pie operating system. By clicking on the Bluetooth® remote control during training, the user gives feedback to the system, which enables main menu navigation and adapts the position of the presented stimulus during the course of training. Thus, the presented stimuli keep being displayed in the individual transition zone of the user’s intact and defect visual field after potential improvements stemming from neuronal reconnection.
    Bluetooth® Remote Control, supplied by Carl Zeiss, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/product/bluetooth+remote+control/bluetooth+control+remote/pmc08445436-103-13-30
    Average 90 stars, based on 1 article reviews
    bluetooth® remote control - by Bioz Stars, 2026-08
    90/100 stars

    Images

    1) Product Images from "Salzburg Visual Field Trainer (SVFT): A virtual reality device for (the evaluation of) neuropsychological rehabilitation"

    Article Title: Salzburg Visual Field Trainer (SVFT): A virtual reality device for (the evaluation of) neuropsychological rehabilitation

    Journal: PLoS ONE

    doi: 10.1371/journal.pone.0249762

    Figure illustrates Google® Cardboard based solution (1) ZEISS® VR ONE Plus, (2) Celly® Bluetooth® remote control and (3) Samsung Galaxy S9® smartphone (SM-G960F/DS). The smartphone runs software coded in Unity® on Android® Pie operating system. By clicking on the Bluetooth® remote control during training, the user gives feedback to the system, which enables main menu navigation and adapts the position of the presented stimulus during the course of training. Thus, the presented stimuli keep being displayed in the individual transition zone of the user’s intact and defect visual field after potential improvements stemming from neuronal reconnection.
    Figure Legend Snippet: Figure illustrates Google® Cardboard based solution (1) ZEISS® VR ONE Plus, (2) Celly® Bluetooth® remote control and (3) Samsung Galaxy S9® smartphone (SM-G960F/DS). The smartphone runs software coded in Unity® on Android® Pie operating system. By clicking on the Bluetooth® remote control during training, the user gives feedback to the system, which enables main menu navigation and adapts the position of the presented stimulus during the course of training. Thus, the presented stimuli keep being displayed in the individual transition zone of the user’s intact and defect visual field after potential improvements stemming from neuronal reconnection.

    Techniques Used: Control, Software

    Left panel (step one): By means of the “Eye Tracking Based Visual Field Analysis” (EFA) the exact individual location and extent of the blind spots (red cluster) of 40 healthy, normal-sighted participants was assessed (illustration shows one exemplary participant). One (red or green) stimulus represents an area of approximately 0.75° of visual angle. Right panel (step two): The coordinates of the individual blind spots location and extent were transformed (illustrated by the yellow arrow) into the coordinates system of the “Salzburg Visual Field Trainer” (SVFT). Participants were instructed to keep a steady fixation on the central cross (blue arrow) during testing and press the bluetooth button whenever they saw a stimulus in their peripheral vision. From 100 stimuli that were presented, 15 stimuli were displayed in the individually assessed location of the participants’ blind spots (exemplary “blind spot stimulus”: red arrow) and 85 stimuli were displayed around the participants’ blind spots (exemplary “detectable stimulus”: green arrow).
    Figure Legend Snippet: Left panel (step one): By means of the “Eye Tracking Based Visual Field Analysis” (EFA) the exact individual location and extent of the blind spots (red cluster) of 40 healthy, normal-sighted participants was assessed (illustration shows one exemplary participant). One (red or green) stimulus represents an area of approximately 0.75° of visual angle. Right panel (step two): The coordinates of the individual blind spots location and extent were transformed (illustrated by the yellow arrow) into the coordinates system of the “Salzburg Visual Field Trainer” (SVFT). Participants were instructed to keep a steady fixation on the central cross (blue arrow) during testing and press the bluetooth button whenever they saw a stimulus in their peripheral vision. From 100 stimuli that were presented, 15 stimuli were displayed in the individually assessed location of the participants’ blind spots (exemplary “blind spot stimulus”: red arrow) and 85 stimuli were displayed around the participants’ blind spots (exemplary “detectable stimulus”: green arrow).

    Techniques Used: Transformation Assay



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    Figure illustrates Google® Cardboard based solution (1) ZEISS® VR ONE Plus, (2) Celly® <t>Bluetooth®</t> remote control and (3) Samsung Galaxy S9® smartphone (SM-G960F/DS). The smartphone runs software coded in Unity® on Android® Pie operating system. By clicking on the Bluetooth® remote control during training, the user gives feedback to the system, which enables main menu navigation and adapts the position of the presented stimulus during the course of training. Thus, the presented stimuli keep being displayed in the individual transition zone of the user’s intact and defect visual field after potential improvements stemming from neuronal reconnection.
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    Setup of the the “Salzburg Visual Field Trainer” (SVFT) illustrating Google ® Cardboard based solution (1) ZEISS ® VR ONE Plus, (2) Celly ® <t>Bluetooth</t> ® remote control and (3) Samsung Galaxy S9 ® smartphone (SM-G960F/DS). The smartphone runs software coded in Unity ® on Android ® Pie operating system. By clicking on the Bluetooth ® remote control during training, the user gives feedback to the system, which enables main menu navigation and adapts the position of the presented stimulus during the course of training. Thus, the presented stimuli keep being displayed in the individual transition zone of the user’s intact and defect visual field after potential improvements stemming from neuronal reconnection.
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    Setup of the the “Salzburg Visual Field Trainer” (SVFT) illustrating Google ® Cardboard based solution (1) ZEISS ® VR ONE Plus, (2) Celly ® <t>Bluetooth</t> ® remote control and (3) Samsung Galaxy S9 ® smartphone (SM-G960F/DS). The smartphone runs software coded in Unity ® on Android ® Pie operating system. By clicking on the Bluetooth ® remote control during training, the user gives feedback to the system, which enables main menu navigation and adapts the position of the presented stimulus during the course of training. Thus, the presented stimuli keep being displayed in the individual transition zone of the user’s intact and defect visual field after potential improvements stemming from neuronal reconnection.
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    Image Search Results


    Figure illustrates Google® Cardboard based solution (1) ZEISS® VR ONE Plus, (2) Celly® Bluetooth® remote control and (3) Samsung Galaxy S9® smartphone (SM-G960F/DS). The smartphone runs software coded in Unity® on Android® Pie operating system. By clicking on the Bluetooth® remote control during training, the user gives feedback to the system, which enables main menu navigation and adapts the position of the presented stimulus during the course of training. Thus, the presented stimuli keep being displayed in the individual transition zone of the user’s intact and defect visual field after potential improvements stemming from neuronal reconnection.

    Journal: PLoS ONE

    Article Title: Salzburg Visual Field Trainer (SVFT): A virtual reality device for (the evaluation of) neuropsychological rehabilitation

    doi: 10.1371/journal.pone.0249762

    Figure Lengend Snippet: Figure illustrates Google® Cardboard based solution (1) ZEISS® VR ONE Plus, (2) Celly® Bluetooth® remote control and (3) Samsung Galaxy S9® smartphone (SM-G960F/DS). The smartphone runs software coded in Unity® on Android® Pie operating system. By clicking on the Bluetooth® remote control during training, the user gives feedback to the system, which enables main menu navigation and adapts the position of the presented stimulus during the course of training. Thus, the presented stimuli keep being displayed in the individual transition zone of the user’s intact and defect visual field after potential improvements stemming from neuronal reconnection.

    Article Snippet: The entire input required during the training process can be controlled from the Bluetooth® remote control (consisting of one pressable button), allowing the smartphone to be permanently fixed to the ZEISS® VR ONE Plus socket.

    Techniques: Control, Software

    Left panel (step one): By means of the “Eye Tracking Based Visual Field Analysis” (EFA) the exact individual location and extent of the blind spots (red cluster) of 40 healthy, normal-sighted participants was assessed (illustration shows one exemplary participant). One (red or green) stimulus represents an area of approximately 0.75° of visual angle. Right panel (step two): The coordinates of the individual blind spots location and extent were transformed (illustrated by the yellow arrow) into the coordinates system of the “Salzburg Visual Field Trainer” (SVFT). Participants were instructed to keep a steady fixation on the central cross (blue arrow) during testing and press the bluetooth button whenever they saw a stimulus in their peripheral vision. From 100 stimuli that were presented, 15 stimuli were displayed in the individually assessed location of the participants’ blind spots (exemplary “blind spot stimulus”: red arrow) and 85 stimuli were displayed around the participants’ blind spots (exemplary “detectable stimulus”: green arrow).

    Journal: PLoS ONE

    Article Title: Salzburg Visual Field Trainer (SVFT): A virtual reality device for (the evaluation of) neuropsychological rehabilitation

    doi: 10.1371/journal.pone.0249762

    Figure Lengend Snippet: Left panel (step one): By means of the “Eye Tracking Based Visual Field Analysis” (EFA) the exact individual location and extent of the blind spots (red cluster) of 40 healthy, normal-sighted participants was assessed (illustration shows one exemplary participant). One (red or green) stimulus represents an area of approximately 0.75° of visual angle. Right panel (step two): The coordinates of the individual blind spots location and extent were transformed (illustrated by the yellow arrow) into the coordinates system of the “Salzburg Visual Field Trainer” (SVFT). Participants were instructed to keep a steady fixation on the central cross (blue arrow) during testing and press the bluetooth button whenever they saw a stimulus in their peripheral vision. From 100 stimuli that were presented, 15 stimuli were displayed in the individually assessed location of the participants’ blind spots (exemplary “blind spot stimulus”: red arrow) and 85 stimuli were displayed around the participants’ blind spots (exemplary “detectable stimulus”: green arrow).

    Article Snippet: The entire input required during the training process can be controlled from the Bluetooth® remote control (consisting of one pressable button), allowing the smartphone to be permanently fixed to the ZEISS® VR ONE Plus socket.

    Techniques: Transformation Assay

    Setup of the the “Salzburg Visual Field Trainer” (SVFT) illustrating Google ® Cardboard based solution (1) ZEISS ® VR ONE Plus, (2) Celly ® Bluetooth ® remote control and (3) Samsung Galaxy S9 ® smartphone (SM-G960F/DS). The smartphone runs software coded in Unity ® on Android ® Pie operating system. By clicking on the Bluetooth ® remote control during training, the user gives feedback to the system, which enables main menu navigation and adapts the position of the presented stimulus during the course of training. Thus, the presented stimuli keep being displayed in the individual transition zone of the user’s intact and defect visual field after potential improvements stemming from neuronal reconnection.

    Journal: medRxiv

    Article Title: Salzburg Visual Field Trainer (SVFT): A virtual reality device for (the evaluation of) neuropsychological rehabilitation

    doi: 10.1101/2021.03.25.21254352

    Figure Lengend Snippet: Setup of the the “Salzburg Visual Field Trainer” (SVFT) illustrating Google ® Cardboard based solution (1) ZEISS ® VR ONE Plus, (2) Celly ® Bluetooth ® remote control and (3) Samsung Galaxy S9 ® smartphone (SM-G960F/DS). The smartphone runs software coded in Unity ® on Android ® Pie operating system. By clicking on the Bluetooth ® remote control during training, the user gives feedback to the system, which enables main menu navigation and adapts the position of the presented stimulus during the course of training. Thus, the presented stimuli keep being displayed in the individual transition zone of the user’s intact and defect visual field after potential improvements stemming from neuronal reconnection.

    Article Snippet: The entire input required during the training process can be controlled from the Bluetooth ® remote control (consisting of one pressable button), allowing the smartphone to be permanently fixed to the ZEISS ® VR ONE Plus socket.

    Techniques: Control, Software

    Two-steps experimental design of the study. Left panel (step one): With the help of the validated perimetric methodology “Eye Tracking Based Visual Field Analysis” (EFA) the exact individual location and extent of the blind spots (red cluster) of 40 healthy, normal-sighted participants was assessed. Right panel (step two): Following, the coordinates of the individual blind spots location and extent were transformed (illustrated by the yellow arrow) into the coordinates system of the “Salzburg Visual Field Trainer” (SVFT). Participants were instructed to keep a steady fixation on the central cross (blue arrow) during testing and press the bluetooth button whenever they saw a stimulus in their peripheral vision. From 100 stimuli that were presented, 15 stimuli were displayed in the individually assessed location of the participants’ blind spots (exemplary “blind spot stimulus”: red arrow) and 85 stimuli were displayed around the participants’ blind spots (exemplary “detectable stimulus”: green arrow) in their fully functional visual field.

    Journal: medRxiv

    Article Title: Salzburg Visual Field Trainer (SVFT): A virtual reality device for (the evaluation of) neuropsychological rehabilitation

    doi: 10.1101/2021.03.25.21254352

    Figure Lengend Snippet: Two-steps experimental design of the study. Left panel (step one): With the help of the validated perimetric methodology “Eye Tracking Based Visual Field Analysis” (EFA) the exact individual location and extent of the blind spots (red cluster) of 40 healthy, normal-sighted participants was assessed. Right panel (step two): Following, the coordinates of the individual blind spots location and extent were transformed (illustrated by the yellow arrow) into the coordinates system of the “Salzburg Visual Field Trainer” (SVFT). Participants were instructed to keep a steady fixation on the central cross (blue arrow) during testing and press the bluetooth button whenever they saw a stimulus in their peripheral vision. From 100 stimuli that were presented, 15 stimuli were displayed in the individually assessed location of the participants’ blind spots (exemplary “blind spot stimulus”: red arrow) and 85 stimuli were displayed around the participants’ blind spots (exemplary “detectable stimulus”: green arrow) in their fully functional visual field.

    Article Snippet: The entire input required during the training process can be controlled from the Bluetooth ® remote control (consisting of one pressable button), allowing the smartphone to be permanently fixed to the ZEISS ® VR ONE Plus socket.

    Techniques: Transformation Assay, Functional Assay