Abstract: A worktable (100), having: a left slot grid (102); a right slot grid (104) secured to the left slot grid; and a center slide (106) configured to be adjustably positionable between the left slot grid and the right slot grid.

Abstract: An apparatus (100), including: a push block (102) configured to push a workpiece across a table saw, the push block including: a first leg (120), a second leg (130) having a fence side (132) configured to abut a fence of the table saw, and a center leg (140) disposed between the first leg and the second leg. The first leg and the center leg define a first tunnel (152) therebetween, and the center leg and the second leg define a second tunnel (154) therebetween; a scale (160) configured to indicate a distance along the push block from the fence when the fence side of the second leg abuts the fence; and a cursor (162) configured to indicate on the scale safe cut-width settings for the table saw in which a saw blade will not contact the center leg when the fence side of the second leg abuts the fence.

Abstract: A layer stack including a first bonding dielectric material layer, a dielectric metal oxide layer, and a second bonding dielectric material layer is formed over a top surface of a substrate including a substrate semiconductor layer. A conductive material layer is formed by depositing a conductive material over the second bonding dielectric material layer. The substrate semiconductor layer is thinned by removing portions of the substrate semiconductor layer that are distal from the layer stack, whereby a remaining portion of the substrate semiconductor layer includes a top semiconductor layer. A semiconductor device on the top semiconductor layer.

Abstract: The invention provides compositions and methods for the cytoplasmic delivery of antibodies and other proteins. Specifically, provided herein are compositions having an anionic polypeptide and a cationic transfection agent for facilitating the cytoplasmic delivery of an antibody or a protein.

Abstract: An apparatus (100), including: a base (102) configured to retain a liquid therein; an abrasive mat (200) configured to rest on a bottom of the base and to support a saw blade in a horizontal orientation; and a blade slot (612) configured to hold the saw blade in a vertical orientation.

Abstract: A miter bar assembly (100), including: a top member (102) having: a top member opening (110) configured to permit a bottom member fastener (122) to pass through the top member; and a top member fastener feature (140) configured to immovably fix the top member directly to a panel; and a bottom member (104) positioned under the top member and having: a bottom member fastener feature (120) configured cooperate with the bottom member fastener and the top member opening to enable the bottom member to move laterally relative to the top member and to selectively immovably fix the bottom member to the top member. At least one of: a magnetic force urges the bottom member and the top member laterally apart; and relative longitudinal movement between the bottom member and the top member adjusts a lateral position of the bottom member relative to the top member.

Abstract: A direct memory access (DMA) engine can be used to multicast data from system memory to a target memory for loading into an array. The DMA engine may include a controller that is configured to receive a data transfer request, and generate a set of write operations for the output interface. The set of write operations can include, for each of multiple partitions of the target memory, a write operation to write usable data from the multicast data to an address offset in the corresponding partition, and an additional write operation to write filler data from the multicast data to a null device address.

Abstract: A router bit (100), including: a shank (104) that defines a longitudinal axis (106); a cutter (110); a body (112) that secures the cutter to the shank; and a recess (120) in the body that is disposed between axial ends (122, 124) of the cutter, and that includes an indexing feature (126).

Abstract: A 3D printing system for construction includes a 3D printing assembly having a pair of tower assemblies, and a pair of rail assemblies. The pair of tower assemblies are movably disposed on the pair of rail assemblies. Each of the pair of rail assemblies defines a longitudinal axis and the pair of tower assemblies are configured to move on the pair of rail assemblies in a direction along the longitudinal axis. Each of the rail assemblies includes a plurality of rail parts. Each of the rail parts includes at least one track extending along the longitudinal axis, an aligning protrusion at a first end portion thereof, and an aligning groove at a second end portion thereof. The aligning groove is configured to accept the aligning protrusion of an adjacent rail part.

Abstract: A bearingless groove router bit includes at least one cutting element affixed to a head of the router bit and has a first end spaced from an end of connected shank connected to the head and a second end adjacent to the second end of the head. The cutting element includes a cutting edge extending along the cutting element between the first end to the second end of the cutting element. The cutting edge may include a radial side edge that projects radially inwardly relative to a central axis of the router bit and a straight side edge that extends from an end of the radial side edge outwardly relative to the central axis to minimize tear out during cutting of a groove in a work piece.

Abstract: A clamp head adapter (100), including: an adapter body (102); a slot (104) disposed on a first side (106) of the adapter body and configured to receive and secure therein a clamp head (24); and a groove (110) recessed into a body surface (112) of the adapter body opposite the first side. The groove includes a vertex (130); a first bevel angle (132) between a normal line (134) normal to the body surface and a first line (136) between the vertex and a first corner (138) of the groove, and a second bevel angle (150) between the normal line and a second line (152) between the vertex and a second corner (154) of the groove. The first bevel angle and the second bevel angle together form a groove angle (156) that is less than 90 degrees.

Abstract: An apparatus (100), including: a push block (100) including: a first side (120) and a second side (122), each configured to abut and slide along a fence of the table saw; and a bottom (124) including a first tunnel (130) and a second tunnel (132) and an immovable dividing wall (134) therebetween. When the first side abuts the fence the first tunnel is configured to straddle a blade throughout a first tunnel first range of fence positions (R12), and the second tunnel is configured to straddle the blade throughout a second tunnel first range of fence positions (R34). When the second side abuts the fence the first tunnel is configured to straddle the blade throughout a first tunnel second range of fence positions (R45), and the second tunnel is configured to straddle the blade throughout a second tunnel second range of fence positions (R23).

Abstract: An apparatus (100), including: a base reference contact (102) configured to correspond with a first point on a workpiece; a dimension contact (120) configured to move relative to the base reference contact along a dimension axis (124) and to correspond with a second point on a workpiece; and a pointer (162) operatively associated with the dimension contact such that movement of the dimension contact moves the pointer along the dimension axis an amount (X % D) that is proportional to and less than an amount (D) the dimension contact moves along the dimension axis.

Abstract: The invention relates to proximity-based sortase-mediated protein purification and ligation. Specifically, the invention relates to techniques that links protein expression/purification with conjugation to therapeutic agents, imaging agents, or linkers.

Abstract: An apparatus (100), including: a base (102) configured to retain a liquid therein; an abrasive mat (200) configured to rest on a bottom of the base and to support a saw blade in a horizontal orientation; and a blade slot (612) configured to hold the saw blade in a vertical orientation.

Abstract: An example virtual reality (VR) system includes a VR headset, a plurality of monitoring stations, and an image processing device. Each of the monitoring stations includes an image sensor to capture images of the VR headset and an environment in which the VR headset is used. The image processing device is to process the images captured by the monitoring stations to detect an object in the environment, and to transmit, to the VR headset, information that includes notification of the object detected.

Abstract: An apparatus, having: a panel (100) comprising a top surface (102), a bottom surface (104), and a side surface (106) spanning the top and bottom surfaces; plural upper retaining slots (110), each upper retaining slot recessed into the panel through the top surface, extending parallel to the top surface, and opening through the side surface in at least one location (112), wherein each upper retaining slot comprises a trapezoidal shape; and a dog hole (122) extending through the panel from the top surface to the bottom surface.

Abstract: An example virtual reality (VR) system includes a VR headset, a plurality of monitoring stations, and an image processing device. Each of the monitoring stations includes an image sensor to capture images of the VR headset and an environment in which the VR headset is used. The image processing device is to process the images captured by the monitoring stations to detect an object in the environment, and to transmit, to the VR headset, information that includes notification of the object detected.