Abstract: Systems and methods of assisting users in collision avoidance in a virtual reality environment include tracking a location of first and second users in a physical environment; based on the tracked location of each of the users, calculating a collision probability between the first user and the second user in the physical environment; comparing a threshold collision probability to the calculated collision probability; and when the calculated collision probability exceeds the threshold collision probability and the first user avatar visible to the second user and the second user avatar visible to the first user do not visually suggest to each of the first user and the second user a representation of the probability of collision in the physical environment, a collision alert is triggered.

Abstract: Systems and methods of assisting users in collision avoidance in a virtual reality environment include tracking a location of first and second users in a physical environment; based on the tracked location of each of the users, calculating a collision probability between the first user and the second user in the physical environment; comparing a threshold collision probability to the calculated collision probability; and when the calculated collision probability exceeds the threshold collision probability and the first user avatar visible to the second user and the second user avatar visible to the first user do not visually suggest to each of the first user and the second user a representation of the probability of collision in the physical environment, a collision alert is triggered.

Abstract: Systems and methods of assisting users in collision avoidance in a virtual reality environment include tracking a location, speed, and direction of movement of first and second users in a physical environment; based on the tracked location, speed, and direction of each of the users, calculating a collision probability between the first user and the second user in the physical environment; comparing a threshold collision probability to the calculated collision probability; and when the calculated collision probability exceeds the threshold collision probability and the first user avatar visible to the second user and the second user avatar visible to the first user do not visually suggest to each of the first user and the second user a representation of the probability of collision in the physical environment, a collision alert is triggered.

Abstract: Systems and methods of unbinding the scope of a virtual reality environment. One method includes the steps of: providing a user virtual reality device to a user; providing the virtual reality environment to the user through the user virtual reality device, wherein the virtual reality environment has a corresponding physical environment in which the users are located when interacting with the virtual reality environment; providing a virtual offset in the virtual reality environment so that the ratio of the virtual reality environment to the corresponding physical environment is greater than 1:1; and providing a user avatar in the virtual reality environment through which the user explores the virtual reality environment.

Abstract: Systems and methods of assisting users in collision avoidance in a virtual reality environment include tracking a location, speed, and direction of movement of first and second users in a physical environment; based on the tracked location, speed, and direction of each of the users, calculating a collision probability between the first user and the second user in the physical environment; comparing a threshold collision probability to the calculated collision probability; and when the calculated collision probability exceeds the threshold collision probability and the first user avatar visible to the second user and the second user avatar visible to the first user do not visually suggest to each of the first user and the second user a representation of the probability of collision in the physical environment, a collision alert is triggered.