Abstract: There is provided a wobble plate piston water pump for use in a pressure washer and driven by a driving source, the water pump includes a pump body, a wobble plate, four or more pistons and a water passage defined by a water inlet and a water outlet. The driving source being electric powered and having a power consumption of less than or equal to a 15 ampere draw at 120 volts or 220 volts or the driving source being gas powered and having an engine displacement of less than or equal to 250 cubic centimetres.

Abstract: The present disclosure describes methods and/or apparatus for gripping a plurality of types of circuit boards. For example, a method may include: gripping a first circuit board using a first sub-gripper of an integrated mechanical gripper, wherein the integrated mechanical gripper comprises a plurality of sub-grippers; placing the first circuit board into a transfer platform; gripping the first circuit board from the transfer platform using a second sub-gripper of the plurality of sub-grippers, flipping the first circuit board, and placing the flipped first circuit board into a splitter; splitting the first circuit board into at least one second circuit board with a different type or size from the first circuit board; and gripping the second circuit board from the splitter using a third sub-gripper of the plurality of sub-grippers.

Abstract: There is provided a wobble plate piston water pump including: a pump body defining a plurality of channels; a rotatable wobble plate disposed in the pump body; a plurality of pistons each located in a respective one of the plurality of channels, the pistons being reciprocatable within the channel along a piston axis; a water passage defined by a water inlet and a water outlet; and a plurality of inlet check valves, each associated with one of the channels, and positioned between the water inlet and the associated channel, the inlet check valves reciprocate along an axis parallel to the piston axis to transition between closed states and open states.

Abstract: There is provided a wobble plate piston water pump for use in a pressure washer and driven by a driving source, the water pump includes a pump body, a wobble plate, four or more pistons and a water passage defined by a water inlet and a water outlet. The driving source being electric powered and having a power consumption of less than or equal to a 15 ampere draw at 120 volts or 220 volts or the driving source being gas powered and having an engine displacement of less than or equal to 250 cubic centimetres.

Abstract: There is provided a wobble plate piston water pump for use in a pressure washer and driven by a driving source, the water pump includes a pump body, a wobble plate, four or more pistons and a water passage defined by a water inlet and a water outlet. The driving source being electric powered and having a power consumption of less than or equal to a 15 ampere draw at 120 volts or 220 volts or the driving source being gas powered and having an engine displacement of less than or equal to 250 cubic centimetres.

Abstract: There is provided a wobble plate piston water pump for use in a pressure washer and driven by a driving source, the water pump includes a pump body, a wobble plate, four or more pistons and a water passage defined by a water inlet and a water outlet. The driving source being electric powered and having a power consumption of less than or equal to a 15 ampere draw at 120 volts or 220 volts or the driving source being gas powered and having an engine displacement of less than or equal to 250 cubic centimetres.

Abstract: There is provided a wobble plate piston water pump for use in a pressure washer and driven by a driving source, the water pump includes a pump body, a wobble plate, four or more pistons and a water passage defined by a water inlet and a water outlet. The driving source being electric powered and having a power consumption of less than or equal to a 15 ampere draw at 120 volts or 220 volts or the driving source being gas powered and having an engine displacement of less than or equal to 250 cubic centimetres.

Abstract: Apparatus for generating steam is disclosed. It comprises a water inlet (19), an evaporation surface (24), and a heater (26) disposed adjacent to the evaporation surface to heat the evaporation surface. The water inlet (19) is positioned relative to the evaporation surface (24) so that water is fed onto the evaporation surface from the inlet (19) and forms a film on the evaporation surface such that said film is evaporated from the evaporation surface (24). The apparatus also has a scale collection region (23). The evaporation surface (24) and the scale collection region (23) are configured such that the scale collection region (23) is positioned below the evaporation surface (24) during use of the apparatus so that scale dislodged from the evaporation surface (24) and which falls away from the evaporation surface (24), drops into the scale collection region (23).

Abstract: There is provided a wobble plate piston water pump for use in a pressure washer and driven by a driving source, the water pump includes a pump body, a wobble plate, four or more pistons and a water passage defined by a water inlet and a water outlet. The driving source being electric powered and having a power consumption of less than or equal to a 15 ampere draw at 120 volts or 220 volts or the driving source being gas powered and having an engine displacement of less than or equal to 250 cubic centimetres.

Abstract: Disparity is determined for images from an array of disparate image sensors. In one example, a method includes processing images from multiple cameras of a camera array to reduce variations caused by variations in the in the image sensors of the respective cameras, the multiple cameras including a reference camera and at least one secondary camera, and determining multiple baseline disparities from the image from the reference camera to the images from the secondary cameras.

Abstract: A range is determined for a disparity search for images from an image sensor array. In one example, a method includes receiving a reference image and a second image of a scene from multiple cameras of a camera array, detecting feature points of the reference image, matching points of the detected features to points of the second image, determining a maximum disparity between the reference image and the second image, and determining disparities between the reference image and the second image by comparing points of the reference image to points of the second image wherein the points of the second image are limited to points within the maximum disparity.

Abstract: A mechanism is described for facilitating location-based zone management for computing systems according to one embodiment. A method of embodiments, as described herein, includes receiving, at a server computing device, a request to locate a destination relating to an entity, retrieving a first data relating to an outdoor navigation portion of an address relating to the destination, and retrieving a second data relating to an indoor navigation portion of the address relating to the destination. The first and second data are retrieved from a first database coupled with the first server computing device. The method may further include communicating the first data and the second data to a client computing device.

Abstract: Apparatus for generating steam is disclosed. It comprises a water inlet (19), an evaporation surface (24), and a heater (26) disposed adjacent to the evaporation surface to heat the evaporation surface. The water inlet (19) is positioned relative to the evaporation surface (24) so that water is fed onto the evaporation surface from the inlet (19) and forms a film on the evaporation surface such that said film is evaporated from the evaporation surface (24). The apparatus also has a scale collection region (23). The evaporation surface (24) and the scale collection region (23) are configured such that the scale collection region (23) is positioned below the evaporation surface (24) during use of the apparatus so that scale dislodged from the evaporation surface (24) and which falls away from the evaporation surface (24), drops into the scale collection region (23).

Abstract: A range is determined for a disparity search for images from an image sensor array. In one example, a method includes receiving a reference image and a second image of a scene from multiple cameras of a camera array, detecting feature points of the reference image, matching points of the detected features to points of the second image, determining a maximum disparity between the reference image and the second image, and determining disparities between the reference image and the second image by comparing points of the reference image to points of the second image wherein the points of the second image are limited to points within the maximum disparity.

Abstract: Disparity is determined for images from an array of disparate image sensors. In one example, a method includes processing images from multiple cameras of a camera array to reduce variations caused by variations in the in the image sensors of the respective cameras, the multiple cameras including a reference camera and at least one secondary camera, and determining multiple baseline disparities from the image from the reference camera to the images from the secondary cameras.

Abstract: An exemplary content scrolling system includes a display unit for displaying content, a scroll bar for scrolling the displayed content, and a processing unit for scrolling the displayed content based on a scroll input of the scroll bar. The processing unit includes a scroll amount calculating module and a content scrolling module. The scroll amount calculating module is for calculating for calculating a scroll amount mapping to the scroll input according to a particular formula. The content scrolling module is for scrolling the displayed content according to the scroll amount. Related exemplary content scrolling methods are also provided.

Abstract: A system for testing a reflective display device includes a testing apparatus and a computer. The testing apparatus includes one or more light emitters, one or more light detectors, an analog-to-digital converter (ADC) module, and a microcontroller unit (MCU). The light emitters are for projecting light onto a reflective display device located on the testing apparatus. The light detectors are for sensing reflected light from the reflective display device, and generating electricity according to a luminance of the reflected light. The ADC module is for receiving the electrical signals from the light detectors, and producing a digital output according to voltages of the electrical signals. The MCU is configured for reading the digital output of the ADC module. The computer is for processing the digital output and displaying results after processing.

Abstract: An exemplary content scrolling system includes a display unit for displaying content, a scroll bar for scrolling the displayed content, and a processing unit for scrolling the displayed content based on a scroll input of the scroll bar. The processing unit includes a scroll amount calculating module and a content scrolling module. The scroll amount calculating module is for calculating for calculating a scroll amount mapping to the scroll input according to a particular formula. The content scrolling module is for scrolling the displayed content according to the scroll amount. Related exemplary content scrolling methods are also provided.

Abstract: A system for testing a reflective display device includes a testing apparatus and a computer. The testing apparatus includes one or more light emitters, one or more light detectors, an analog-to-digital converter (ADC) module, and a microcontroller unit (MCU). The light emitters are for projecting light onto a reflective display device located on the testing apparatus. The light detectors are for sensing reflected light from the reflective display device, and generating electricity according to a luminance of the reflected light. The ADC module is for receiving the electrical signals from the light detectors, and producing a digital output according to voltages of the electrical signals. The MCU is configured for reading the digital output of the ADC module. The computer is for processing the digital output and displaying results after processing.