Abstract: An example multi-zone touchscreen device is configured to receive multiple feeds of touchscreen display data from different respective data sources. The touchscreen device scales the respective feeds of touchscreen display data for concurrent display in predefined regions of a touch-sensitive display. The touchscreen device receives a touch input in one of the predefined regions of the touch-sensitive display and applies a reverse scaling to the selected touchscreen display data to determine a location of the selection in the original data feed. The touchscreen device then communicates the location of the selection to the source of the original data feed.

Abstract: A communication device (e.g., a data system on a module (DSoM)/a Data System in a Package (DSiP)) for communicatively coupling a computing device with a cloud-based service to synchronize one or more data modifications, on an asynchronous basis with respect to one another is provided. The communication device may be configured to be communicatively coupled to the computing device and may include a wireless cellular transceiver. The communication device may be configured to one or more of transmit at least one data object from the computing device to the cloud-based service and receive at least one data object from the cloud-based service. Embodiments of the present disclosure may provide a distributed replicated spatiotemporal database packaged on a communication device and integrated with an internet-based secure communication hub.

Abstract: Disclosed is a method, a device, and/or a system of water treatment through ozone generated from an invertible ozonation cap attachable to a vessel. In one embodiment, a cap for treating water inside a vessel includes an exterior surface of the cap, a fastener for attaching the cap to an opening of the vessel, a power source, an electrolytic ozone generator comprising an electrode that generates dissolved ozone and/or ozone gas when both the electrode is exposed to the water and a current from the power source is applied to the electrode, and an interior surface of the cap that exposes an anode of the electrode such that the water inside the vessel can contact the anode when the cap is inverted such that the dissolved zone and/or ozone gas rises up through the water of the vessel for increased water treatment effectiveness.

Abstract: Disclosed are a method, a device, and/or system of effective and/or safe ozonation of water in a tank through evolved gas control. In one embodiment, a system for effective ozonation of water includes an ozone generator for producing ozone partially in the form of ozone gas, and a disperser. The disperser is configured to receive ozone gas from the ozone generator rising through the water as ozone bubbles disperse the ozone bubbles within the water. The disperser increases a contact time of the ozone and/or distributes dissolution of the ozone in the water. The disperser may include one or more bubble paths guiding the ozone bubbles. The ozone generator may be an electrolytic ozone unit. An electrode may include a proton exchange membrane electrically coupling an anode and a cathode of an electrode, where hydrogen gas generated at the cathode may be vented and/or conveyed to a catalytic decomposition unit.

Abstract: A communication hub configured to be communicatively coupled to a communication device (e.g., a data system on a module (DSoM)/a Data System in a Package (DSiP)) and a cloud-based service is provided. The communication hub may be configured to organize the communication devices into one or more communication device groups, wherein the communication devices are communicatively coupled to one or more computing devices. The communication hub may be configured to associate one or more routes with the communication device groups, wherein the routes are configured to route data objects between the communication devices and the cloud-based service. The communication hub may be configured to asynchronously, with respect to the computing devices, route the data objects between the communication devices and the cloud-based service.

Abstract: Disclosed are a method, a device and a system of automatic flow control based on sensed effectiveness indicators to produce effectively treated water with a portable water treatment unit. In one or more embodiments, a chemical treatment unit delivers a treatment chemical to water as the water flows at a flow rate induced by a pump capable of operating at multiple speeds. A sensor downstream of the chemical treatment unit measures an effectiveness indicator and a processor and/or a feedback circuit determines an effectiveness of the chemical treatment. A controller changes power to the pump in response to the determination, adjusting the flow rate to ensure efficient usage of a power source and/or to ensure effective production of potable water. One or more filters may be included, each having a bypass valve, and the pump may automatically adjust to changing filter configurations and/or source water composition.

Abstract: A method of generating edited video, the method comprises displaying, at a user device, information related to one or more video tags, the video tags representing options for generating an edited version of an unedited video; receiving, at the user device, a selection of one of the one or more video tags; and transmitting, from the user device, the unedited video, the selection of the one of the one or more video tags, and an indication of a video sharing website where the edited version of the unedited video is to be published to a remote server.

Abstract: A digital signal processing system and method transforms pairs of channels selected from a multichannel signal into the frequency domain. Vector operations are performed upon the frequency-domain data by which signal components unique to one of the input channels are routed to one of the output channels, signal components unique to the other of the input channels are routed to another of the output channels, and signal components common to both channels are routed to a third and optionally to a fourth output channel. The frequency-domain output channels are then transformed back into the time-domain, forming a plurality of time-domain output channels. The vector operations are performed in a manner that preserves the overall information content of the input data.

Abstract: A digital signal processing system and method transforms pairs of channels selected from a multichannel signal into the frequency domain. Vector operations are performed upon the frequency-domain data by which signal components unique to one of the input channels are routed to one of the output channels, signal components unique to the other of the input channels are routed to another of the output channels, and signal components common to both channels are routed to a third and optionally to a fourth output channel. The frequency-domain output channels are then transformed back into the time-domain, forming a plurality of time-domain output channels. The vector operations are performed in a manner that preserves the overall information content of the input data.

Abstract: A digital signal processing system and method transforms two time-domain signals into the frequency domain. Vector operations are performed upon the frequency-domain data by which signal components unique to one of the input signals are routed to one of the output signals, signal components unique to the other of the input signals are routed to another of the output signals, and signal components common to both signals are routed to a third and optionally to a fourth output signal. The frequency-domain output signals are then transformed back into the time-domain, forming an equivalent number of signals of output data. The vector operations are performed in a manner that preserves the overall information content of the input data.

Abstract: A digital signal processing system and method transforms pairs of channels selected from a multichannel signal into the frequency domain. Vector operations are performed upon the frequency-domain data by which signal components unique to one of the input channels are routed to one of the output channels, signal components unique to the other of the input channels are routed to another of the output channels, and signal components common to both channels are routed to a third and optionally to a fourth output channel. The frequency-domain output channels are then transformed back into the time-domain, forming a plurality of time-domain output channels. The vector operations are performed in a manner that preserves the overall information content of the input data.