Abstract: A system may provide, via a user interface, information identifying two or more of trending search-related information, trending video-related information, trending image-related information, or trending news-related information. The two or more of the trending search-related information, the trending video-related information, the trending image-related information, or the trending news-related information are visually presented as graphical items. Each graphical item, of the graphical items, is visually identified as corresponding to the trending search-related information, the trending video-related information, the trending image-related information, or the trending news-related information. The user interface presents multiple graphical items simultaneously. The system may further receive information identifying a topic, and provide, based on receiving the information identifying the topic, a subsequent group of graphical items, on the user interface.

Abstract: The present invention relates to the field of mechanical engineering, in particular, vehicles. In one form, the invention relates to military or defence industry protected (armoured) vehicles with a modular vehicle architecture comprising: a capsule adapted for accommodating at least one occupant; at least one sub-frame detachably operatively connected to the capsule; wherein at least the sub-frame construction comprises members of tubular structure having a cross section corresponding to a conic section.

Abstract: A system includes a platform including one or more workstations and a microfluidic input device coupled to the one or more workstations. The microfluidic input device is adapted to receive a microfluidic device from a user. The system also includes a robotic device comprising a robotic arm and disposed on the platform. The robotic arm is capable of accessing the one or more workstations and is configured to transfer a plurality of sample solutions from a first spatial location to the microfluidic device when coupled to the microfluidic input device. The system further includes a multi-pixel image capturing device optically coupled to the microfluidic device and an image processing device operably coupled to the multi-pixel image capturing device. The multi-pixel image capturing device is adapted to capture a plurality of multi-pixel images. The image processing device is configured to receive the plurality of multi-pixel images.

Abstract: A system for performing one or more microfluidic processes includes an integrated fluidic device comprising a plurality of well regions and a plurality of control valves and a workflow manager. The system also includes a transfer robot adapted to transfer the integrated fluidic device between a plurality of stations in response to a series of instructions from the workflow manager and a first station comprising a dispensing robot adapted to dispense at least one of a plurality of sample solutions and at least one of a plurality of reagents into the integrated fluidic device. The system further includes a second station comprising a fluidic controller unit and a third station comprising an inspection station.

Abstract: The technology described relates to animated transitions between consecutive sets of search engine results.

Abstract: Systems for managing workflows to perform chemical or biological reactions using microfluidic devices.

Abstract: A biological substrate, e.g., microfluidic chip. The substrate includes a rigid substrate material, which has a surface region capable of acting as a handle substrate. The substrate also has a deformable fluid layer coupled to the surface region. One or more well regions are formed in a first portion of the deformable fluid layer and are capable of holding a fluid therein. The one or more channel regions are formed in a second portion of the deformable fluid layer and are coupled to one or more of the well regions. An active region is formed in the deformable fluid layer. At least three fiducial markings are formed within the non-active region and disposed in a spatial manner associated with at least one of the well regions. A control layer is coupled to the fluid layer.

Abstract: A method, system and apparatus is disclosed for utilizing the ability to capture the essential parameters of a golf ball in flight and to generate immediate feedback to the golfer regarding the drive. The apparatus can also pair the golf ball flight information with advertising in order to increase revenue to the golf course that employs the system.

Abstract: A biological substrate, e.g., microfluidic chip. The substrate includes a rigid substrate material, which has a surface region capable of acting as a handle substrate. The substrate also has a deformable fluid layer coupled to the surface region. One or more well regions are formed in a first portion of the deformable fluid layer and are capable of holding a fluid therein. The one or more channel regions are formed in a second portion of the deformable fluid layer and are coupled to one or more of the well regions. An active region is formed in the deformable fluid layer. At least three fiducial markings are formed within the non-active region and disposed in a spatial manner associated with at least one of the well regions. A control layer is coupled to the fluid layer.

Abstract: The technology described relates to animated transitions between consecutive sets of search engine results.

Abstract: A method for producing an image of an object within a chamber of a microfluidic device includes providing the microfluidic device having x, y, and z dimensions and a chamber depth center point located along the z dimension. The chamber depth center point is located a known z dimension distance from a fiducial marking embedded within the microfluidic device. The method also includes placing the microfluidic device within an imaging system that includes an optical device capable of detecting the fiducial marking. The optical device defines an optical path axially aligned with the z dimension and has a focal plane perpendicular to the optical path. When the focal plane is moved along the optical path, the fiducial marking is maximally detected when the focal plane is at the z depth in comparison to when the focal plane is not substantially in-plane with the z depth.

Abstract: A method for producing an image of an object within a chamber of a microfluidic device includes providing the microfluidic device having x, y, and z dimensions and a chamber depth center point located along the z dimension. The chamber depth center point is located a known z dimension distance from a fiducial marking embedded within the microfluidic device. The method also includes placing the microfluidic device within an imaging system that includes an optical device capable of detecting the fiducial marking. The optical device defines an optical path axially aligned with the z dimension and has a focal plane perpendicular to the optical path. When the focal plane is moved along the optical path, the fiducial marking is maximally detected when the focal plane is at the z depth in comparison to when the focal plane is not substantially in-plane with the z depth.

Abstract: Systems for managing workflows to perform chemical or biological reactions using microfluidic devices.

Abstract: A biological substrate, e.g., microfluidic chip. The substrate includes a rigid substrate material, which has a surface region capable of acting as a handle substrate. The substrate also has a deformable fluid layer coupled to the surface region. One or more well regions are formed in a first portion of the deformable fluid layer and are capable of holding a fluid therein. The one or more channel regions are formed in a second portion of the deformable fluid layer and are coupled to one or more of the well regions. An active region is formed in the deformable fluid layer. At least three fiducial markings are formed within the non-active region and disposed in a spatial manner associated with at least one of the well regions. A control layer is coupled to the fluid layer.

Abstract: Hot dip coating apparatus for coating a steel strip in an Al—Zn alloy bath comprises components that are made from stainless steel containing an appreciable amount of nitrogen distributed substantially uniformly through its microstructure. The nitrogen is incorporated into the stainless steel as an alloy additive and improves the steel's corrosion resistance and minimizes pitting and thinning of the component when immersed in the metal bath for extended periods.

Abstract: Systems for managing workflows to perform chemical or biological reactions using microfluidic devices.

Abstract: A biological substrate, e.g., microfluidic chip. The substrate includes a rigid substrate material, which has a surface region capable of acting as a handle substrate. The substrate also has a deformable fluid layer coupled to the surface region. One or more well regions are formed in a first portion of the deformable fluid layer and are capable of holding a fluid therein. The one or more channel regions are formed in a second portion of the deformable fluid layer and are coupled to one or more of the well regions. An active region is formed in the deformable fluid layer. At least three fiducial markings are formed within the non-active region and disposed in a spatial manner associated with at least one of the well regions. A control layer is coupled to the fluid layer.

Abstract: A biological substrate, e.g., microfluidic chip. The substrate includes a rigid substrate material, which has a surface region capable of acting as a handle substrate. The substrate also has a deformable fluid layer coupled to the surface region. One or more well regions are formed in a first portion of the deformable fluid layer and are capable of holding a fluid therein. The one or more channel regions are formed in a second portion of the deformable fluid layer and are coupled to one or more of the well regions. An active region is formed in the deformable fluid layer. At least three fiducial markings are formed within the non-active region and disposed in a spatial manner associated with at least one of the well regions. A control layer is coupled to the fluid layer.

Abstract: A biological substrate, e.g., microfluidic chip. The substrate includes a rigid substrate material, which has a surface region capable of acting as a handle substrate. The substrate also has a deformable fluid layer coupled to the surface region. One or more well regions are formed in a first portion of the deformable fluid layer and are capable of holding a fluid therein. The one or more channel regions are formed in a second portion of the deformable fluid layer and are coupled to one or more of the well regions. An active region is formed in the deformable fluid layer. At least three fiducial markings are formed within the non-active region and disposed in a spatial manner associated with at least one of the well regions. A control layer is coupled to the fluid layer.

Abstract: Systems for managing workflows to perform chemical or biological reactions using microfluidic devices.