Exercise apparatus with integrated holographic display
Stationary exercise machine with integrated holographic display to simulate depth and motion is disclosed. The disclosure uses an integrated and responsive 3-dimensional (3D) or holographic display attached to and/or integrated with stationary exercise equipment to create a more immersive, engaging and enjoyable stationary exercise experience. The 3D or holographic display provides a more stimulating sensory experience and can better simulate the perception of depth and motion through a 3D virtual environment.
1. An exercise apparatus comprising:
one or more sensors configured to capture user exercise data;
a face-tracking camera configured to track the eye movements of a user of the exercise apparatus;
a processor configured to
receive the captured user exercise data from the one or more sensors,
receive data on the eye movements of the user from the face-tracking camera, and
generate a virtual environment based on the user exercise data and the data on the eye movements of the user; and
a non-wearable display configured to display the virtual environment to the user;
wherein the non-wearable display comprises a lenticular display configured to be paired with the face-tracking camera to detect the user's eye positions; and
wherein the non-wearable display is further configured to display an imagery that adapts to the position of each of the user's eyes to simulate stereoscopoic parallax.
2. The exercise apparatus of claim 1 , wherein the exercise apparatus is a stationary exercise bike and the virtual environment comprises a virtual course.
3. The exercise apparatus of claim 1 , wherein the one or more sensors comprises one or more of potentiometers, gyroscopes, accelerometers, pressure sensors, rotation sensors, position sensors, cadence sensors, and vibration sensors.
4. The exercise apparatus of claim 3 , wherein the processor is further configured to track a movement of the user in response to the user exercise data captured by the one or more sensors.
5. The exercise apparatus of claim 1 , wherein the display is a 3-dimensional or holographic display.
6. The exercise apparatus of claim 1 , wherein the lenticular display is configured to rapidly output image directed respectively at the user's right and left eyes to simulate stereoscopic depth perception.
7. The exercise apparatus of claim 1 , wherein the display comprises a light-field configured to direct photons along the proper vector to simulate their trajectory from a virtual scene and create a perception of depth.
8. The exercise apparatus of claim 1 , wherein the display comprises holographic projectors configured to simulate depth perception by tracking the user's eye position using the face-tracking camera and project different images into each of the user's eyes to create a stereoscopic view of a virtual scene.
9. The exercise apparatus of claim 1 , wherein one of the one of more sensors is configured to detect a position or an orientation of the display; and wherein the processor is further configured to adjust a horizon in the virtual environment in response to the position or orientation of the display.
10. The exercise apparatus of claim 1 , wherein the processor is further configured to download information from a remote server, the information comprising software updates or content for use in generating the virtual environment.
11. The exercise apparatus of claim 1 , wherein the exercise apparatus is a treadmill and the virtual environment comprises a simulation of a real world location.
12. The exercise apparatus of claim 1 , wherein the processor is further configured to adjust a setting of the exercise apparatus in response to the virtual environment being displayed on the display.
13. The exercise apparatus of claim 12 , wherein the setting of the exercise apparatus comprises a degree of incline and the degree of incline is adjusted in response to a displayed change of elevation in the virtual environment.
14. A method of providing an immersive exercising experience to a user of an exercising apparatus, the exercising apparatus comprising one or more sensors, a face-tracking camera, a non-wearable display comprising a lenticular display, and a processor in communication with the one or more sensors, the face tracking camera, and the display, the method comprising:
capturing, by the one or more sensors, user exercise data;
tracking, by the face-tracking camera, the eye movements of a user of the exercise apparatus;
receiving, by the processor, the captured user exercise data from the one or more sensors,
receiving, by the processor, data on the eye movements of the user from the face-tracking camera, and
generating, by the processor, a virtual environment based on the user exercise data and the eye movements of the user;
displaying, on the non-wearable display, the virtual environment to the user;
pairing the lenticular display with the face-tracking camera to detect the user's eye positions; and
displaying, by the non-wearable display, an imagery that adapts to the position of each of the user's eyes to simulate stereoscopic parallax.
15. The method of claim 14 , further comprises tracking a movement of the user in response to the user exercise data captured by the one or more sensors.
16. The method of claim 14 , wherein the display comprises holographic projectors, and wherein the method further comprises simulating, by the holographic projectors, depth perception by tracking the user's eye position using the face-tracking camera; and projecting different images into each of the user's eyes to create a stereoscopic view of a virtual scene.
17. The method of claim 14 , further comprising adjusting, by the processor, a setting of the exercise apparatus in response to the virtual environment being displayed on the display.
18. The method of claim 14 , further comprising downloading, by the processor, information from a remote server, the information comprising software updates or content for use in generating the virtual environment.
19. An exercise apparatus comprising:
one or more sensors configured to capture user exercise data;
a face-tracking camera configured to track the eye movements of a user of the exercise apparatus;
a processor configured to
receive the captured user exercise data from the one or more sensors,
receive data on the eye movements of the user from the face-tracking camera, and
generate a virtual environment based on the user exercise data and the data on the eye movements of the user; and
a non-wearable display configured to display the virtual environment to the user;
wherein the face-tracking camera is further configured to detect infrared light from the user's body; and
wherein the processor is further configured to determine a heart rate and blood flow from the detected infrared light and adjust an exercise intensity of the exercise apparatus to maintain an optimum heart rate of the user.