A floating wave generating device for generating a standing wave in a standing water body or water basin includes at least one water acceleration section, at least one wave generation section arranged downstream of the water acceleration section, and at least one pump. The at least one pump is arranged in such a way that with this pump water from the underwater area of the standing water body or water basin can be conveyed to a starting level which is higher than the water level of the standing water body or water basin, in order to generate a water flow directed toward the wave generation section by utilizing gravity. Furthermore, the apparatus is arranged in relation to the standing water body or water basin such that the standing water body or water basin with its water level is part of the wave generation section.

A wave generating apparatus mobile application controller and method are provided in which a mobile controller actuates a plurality of wave generating chambers in sequence using a delay between the actuation of each chamber to produce a rideable wave in a pool. The mobile application controller allows the user to select the exact type of wave to be produced by the wave generator apparatus by selecting the size, shape, and pattern of the wave. The application also allows the user to use a camera to photograph or record herself or someone else, even while riding a wave.

A wave generator body, in the following body, configured to be moved through water along a track direction (T), comprises a first part forming the bow of the body when the body is moved through water along the track direction (T), a second part arranged downstream of the first part and forming the stern of the body when the body is moved through water along the track direction (T). The body is configured with a variable width (W).

The facility includes an artificial wave generator having a water driving member movable along a predetermined path, including a body delimiting a water flow chamber open by an inlet opening located at the front and facing forward and by an outlet opening located rearward of the inlet opening and facing the wave progression zone, the body including peripheral walls which entirely close the chamber from the inlet opening to the outlet opening except optionally at the side that faces upward.

Provided is a tank wave-current generation system with a rear-mounted outlet. The rear-mounted outlet and a rectifying device located below a tank are arranged, the rectifying device comprises a rectifying chamber and a built-in rectifying grid, one end of the rectifying chamber is communicated with a water collection tank, and the other end of the rectifying chamber is communicated with a bottom wall of a tank unit, an outlet in the bottom wall is located at a front end of a wave pushing direction of a wave generator, a current subjected to preliminary energy dissipation in the water collection tank is rectified into a smooth fluid through the rectifying grid and then a steady current is input into the tank, so that the current pushed by a wave pushing plate arranged on the wave generator is a steady current meeting a test requirement.

A wave park for an open or large body of water is disclosed. The wave park includes a body of water, and a track positioned in or proximate the body of water. The wave park further includes at least one foil coupled to move along the track, the at least one foil being at least partially submerged in the body of water. The at least one foil has a curvilinear cross-sectional geometry that includes a leading surface that is concave about a vertical axis to provide drag to generate a primary wave laterally in water of the body of water that contacts the leading surface of the foil, and a trailing surface that narrows from a maximum width of the foil adjacent the leading surface to a point at an end of the foil, the trailing surface to decrease the drag of the foil and to minimize oscillatory waves that trail the primary wave from the water moving past the leading surface of the foil.

A wave making apparatus for creating a surfing wave in a body of water. The waves are generated using a round bottom and front mechanical plunger. The plurality of round front plungers are assembled side by side in a vertical manner on a 90 degree back wall. The individual round front plungers actuate up and down, all at the same time, at different times, in sequence and can be placed in different shaped configurations to produce a swell into a body of water which then break of artificial surfing reefs to create a wave for surfing.

A wave-forming system includes a channel having a water inlet and a water outlet for directing water from the water inlet and the water outlet. The channel has a side wall and a bottom surface profile that slopes downward toward the water outlet and the side wall. The system also includes a back pressure barrier positioned in the water outlet to introduce a back pressure to the water flow inside the channel to continuously form waves across the channel.

A method and apparatus for generating a wave in a body of water may include altering a flow of water as it is urged through an inlet, contoured passage, and outlet. For example, a primary flow of water may be altered so that one or more secondary flows are created at angles to the direction of primary flow.

An immersion platform includes a dome configured to display a predetermined scene. The dome includes an outer perimeter. A plurality of sensory accessories are configured to stimulate at least one sense of a user. The sensory accessories include at least one of an air blower module, a lighting module, an audio module, a scent module, a haptic vibration module, a temperature module, a floor module, and brain stimulation features. A controller is configured to display the predetermined scene on the dome and to activate the plurality of accessories according to a predetermined timeline.