mhurhangee/patent-ind-claim-en huggingface dataset:
A joint assembly for luminaires (L), comprising: a pin comprising at least one pin section , each pin section comprising: an upper opening ; a side opening ; a bore connecting the upper opening and the side opening; wherein the upper opening is configured to receive at least one power cable to feed through the bore and out the side opening; a primary hinge comprising: a primary vertical base for connecting to a luminaire or wall; a plurality of primary knuckles extending from the vertical base, wherein a distal portion of the knuckles comprises pin engagement means ; and at least one secondary hinge (46,46',46") comprising: a secondary vertical base (48,48',48") for connecting to an additional luminaire: a plurality of secondary knuckles (50,50',50") extending from the vertical base, wherein a distal portion of the knuckles comprises pin engagement means for engaging the pin. a pin comprising at least one pin section , each pin section comprising: an upper opening ; a side opening ; a bore connecting the upper opening and the side opening; wherein the upper opening is configured to receive at least one power cable to feed through the bore and out the side opening; an upper opening ; a side opening ; a bore connecting the upper opening and the side opening; wherein the upper opening is configured to receive at least one power cable to feed through the bore and out the side opening; a primary hinge comprising: a primary vertical base for connecting to a luminaire or wall; a plurality of primary knuckles extending from the vertical base, wherein a distal portion of the knuckles comprises pin engagement means ; and a primary vertical base for connecting to a luminaire or wall; a plurality of primary knuckles extending from the vertical base, wherein a distal portion of the knuckles comprises pin engagement means ; and at least one secondary hinge (46,46',46") comprising: a secondary vertical base (48,48',48") for connecting to an additional luminaire: a plurality of secondary knuckles (50,50',50") extending from the vertical base, wherein a distal portion of the knuckles comprises pin engagement means for engaging the pin. a secondary vertical base (48,48',48") for connecting to an additional luminaire: a plurality of secondary knuckles (50,50',50") extending from the vertical base, wherein a distal portion of the knuckles comprises pin engagement means for engaging the pin.
A package for storing and/or shipping cable, comprising: a platform having a flat panel having upper and lower surfaces, first locating features on the upper surface, and second locating features on the lower surface; a generally cylindrical hub having a first diameter mounted on the upper surface of the flat panel , the hub engaging and being positioned by the first locating features , whereby the hub can also be engaged by the second locating features such that the hub fits within these locating features; and a cable coiled around the hub . a platform having a flat panel having upper and lower surfaces, first locating features on the upper surface, and second locating features on the lower surface; a generally cylindrical hub having a first diameter mounted on the upper surface of the flat panel , the hub engaging and being positioned by the first locating features , whereby the hub can also be engaged by the second locating features such that the hub fits within these locating features; and a cable coiled around the hub .
A solid form of a salt having the formula: wherein the solid form is crystalline.
A composition comprising: (a) a compound PAC-1: (b) a second active agent, wherein the second active agent is bortezomib, doxorubicin, tamoxifen, carboplatin, or paclitaxel; and (c) a pharmaceutically acceptable diluent, excipient, or carrier. (a) a compound PAC-1: (b) a second active agent, wherein the second active agent is bortezomib, doxorubicin, tamoxifen, carboplatin, or paclitaxel; and (c) a pharmaceutically acceptable diluent, excipient, or carrier.
Drawer guide for displaceably arranging, on a carcass, a drawer that can be pulled out of the carcass in a pull-out direction , comprising at least two guide rails , which are displaceable relative to one another, and a locking device for locking at least one of the at least two guide rails relative to at least one further one of the at least two guide rails with respect to the pull-out direction in at least one position, wherein the locking device comprises at least one locking element and at least one locking element receiver to receive the at least one locking element , which are arranged on different guide rails of the drawer guide , wherein at least one locking element receiver comprises at least two receiver portions , between which at least one locking element is receivable in a locked state of the drawer guide , wherein at least two receiver portions are arranged, with respect to a relative movement path of at least one locking element relative to at least one locking element receiver , on mutually opposite sides of the relative movement path , characterized in that the locking element receiver is formed substantially in two pieces and comprises a holding element which projects upwardly over the guide rails of the drawer guide , wherein the holding element is arranged on a rail back of a carcass-side guide rail , wherein the holding element projects with a web region of the holding element in the horizontal direction and perpendicularly to the pull-out direction over the drawer-side guide rail .
A system for phrenic nerve stimulation, the system comprising: a catheter (200,...,1000) including one or more intravascular electrodes (310,...,1010) each arranged on a distal portion (240,...,1040) of the catheter, the catheter being configured to be introduced in the superior vena cava (VC) of a human patient so as to position the distal portion in the superior vena cava, in the right brachiocephalic vein, and/or in the right subclavian vein, and an extracorporeal electrode patch configured to be affixed to the patient opposite to the distal portion relative to the phrenic nerve, characterized by the extracorporeal electrode patch being operable in a bipolar mode with the one or more intravascular electrodes to perform phrenic nerve stimulation.. a catheter (200,...,1000) including one or more intravascular electrodes (310,...,1010) each arranged on a distal portion (240,...,1040) of the catheter, the catheter being configured to be introduced in the superior vena cava (VC) of a human patient so as to position the distal portion in the superior vena cava, in the right brachiocephalic vein, and/or in the right subclavian vein, and an extracorporeal electrode patch configured to be affixed to the patient opposite to the distal portion relative to the phrenic nerve, characterized by the extracorporeal electrode patch being operable in a bipolar mode with the one or more intravascular electrodes to perform phrenic nerve stimulation..
A method of object detection in a scene based on lidar data and radar data of the scene, the method comprising: transforming the lidar data and the radar data to a common coordinate system; extracting different radar point clusters from the radar data; extracting different lidar point clusters from the lidar data and associating each lidar point cluster with a target object; estimating a target object's velocity based on the movement of the respective lidar point cluster between consecutive lidar images; and comparing the estimated target object's velocity with velocity information of a corresponding radar point cluster to identify corresponding radar and lidar point clusters, wherein comparing the estimated target object's velocity with velocity information of a corresponding radar point cluster comprises comparing the velocity of the center of mass of a lidar point cluster with a velocity of the center of mass of a radar point cluster. transforming the lidar data and the radar data to a common coordinate system; extracting different radar point clusters from the radar data; extracting different lidar point clusters from the lidar data and associating each lidar point cluster with a target object; estimating a target object's velocity based on the movement of the respective lidar point cluster between consecutive lidar images; and comparing the estimated target object's velocity with velocity information of a corresponding radar point cluster to identify corresponding radar and lidar point clusters, wherein comparing the estimated target object's velocity with velocity information of a corresponding radar point cluster comprises comparing the velocity of the center of mass of a lidar point cluster with a velocity of the center of mass of a radar point cluster.
An absorbent pad for a wound dressing, the pad having a plurality of fenestrations therein, wherein the fenestrations are arranged in a pattern about a central point, wherein the pattern comprises one or more arc-shaped fenestrations having symmetry about a cardinal axis and one or more arc-shaped fenestrations having symmetry about an intercardinal axis, the cardinal and intercardinal axes crossing at the central point.
A blow-by gas return device comprising: a gas path which is configured to introduce a blow-by gas generated in a crankcase into an intake system (k) through an inside of a head cover , a pressure control valve and a blow-by pipe (h); characterised by a bulging wall having a passage for the blow-by gas and being formed on a mounting flange of an intake manifold , the mounting flange being mounted on a cylinder head , and an orifice being formed in the passage for the blow-by gas, the passage for the blow-by gas being part of the gas path; wherein the orifice is formed in a joint pipe mounted on the passage for the blow-by gas for communicably connecting the blow-by pipe with the passage for the blow-by gas. a gas path which is configured to introduce a blow-by gas generated in a crankcase into an intake system (k) through an inside of a head cover , a pressure control valve and a blow-by pipe (h); characterised by a bulging wall having a passage for the blow-by gas and being formed on a mounting flange of an intake manifold , the mounting flange being mounted on a cylinder head , and an orifice being formed in the passage for the blow-by gas, the passage for the blow-by gas being part of the gas path; wherein the orifice is formed in a joint pipe mounted on the passage for the blow-by gas for communicably connecting the blow-by pipe with the passage for the blow-by gas.
A three-dimensional printing system comprising: a resin vessel containing resin ; an imaging bar including an arrangement of light emitting devices that selectively emit radiation from an exit surface of the imaging bar to define a build plane in the resin , the exit surface of the imaging bar is less than 10 millimeters from the build plane ; a movement mechanism coupled to the imaging bar ; and a controller configured to: scan the imaging bar along a scan axis; and concurrent with scanning, operate the imaging bar to selectively image and harden a layer of resin at the build plane ; wherein the imaging bar includes a substrate supporting the arrangement of light emitting devices which are arranged along an axis that is oblique or perpendicular to the scan axis; wherein the light emitting devices are light emitting diodes LEDs, wherein the imaging bar includes an arrangement of light collimators overlaying the substrate that individually receive light from the light emitting devices ; wherein the system further comprises an arrangement of lenslets that overlays the arrangement of light collimators and that individually focuses light from a light collimator onto the image plane; and characterized in that the light collimators individually include a reflective parabolic inside surface having a cross-section extending from the LEDs towards the lenslets . a resin vessel containing resin ; an imaging bar including an arrangement of light emitting devices that selectively emit radiation from an exit surface of the imaging bar to define a build plane in the resin , the exit surface of the imaging bar is less than 10 millimeters from the build plane ; a movement mechanism coupled to the imaging bar ; and a controller configured to: scan the imaging bar along a scan axis; and concurrent with scanning, operate the imaging bar to selectively image and harden a layer of resin at the build plane ; scan the imaging bar along a scan axis; and concurrent with scanning, operate the imaging bar to selectively image and harden a layer of resin at the build plane ; wherein the imaging bar includes a substrate supporting the arrangement of light emitting devices which are arranged along an axis that is oblique or perpendicular to the scan axis; wherein the light emitting devices are light emitting diodes LEDs, wherein the imaging bar includes an arrangement of light collimators overlaying the substrate that individually receive light from the light emitting devices ; wherein the system further comprises an arrangement of lenslets that overlays the arrangement of light collimators and that individually focuses light from a light collimator onto the image plane; and characterized in that the light collimators individually include a reflective parabolic inside surface having a cross-section extending from the LEDs towards the lenslets .
An implant for a skeletal space, comprising: a first contacting member ; a second contacting member ; at least one first expansion compartment ; and at least one second expansion compartment ; wherein the implant is expandable from an insertion configuration to an expanded configuration, wherein the implant has a first dimension in a first direction and a second dimension in a second direction in the insertion configuration, and wherein the first direction is substantially perpendicular to the second direction, wherein the implant is configured such that: during expansion of the at least one first expansion compartment , the at least one first expansion compartment cooperates with at least one of the first and second contacting members to cause the first dimension of the implant to increase without substantially causing a change in the second dimension of the implant; and during expansion of the at least one second expansion compartment , the at least one second expansion compartment cooperates with at least one of the first and second contacting members to cause the second dimension of the implant to increase; characterized in that the first and second expansion compartments are each an inflatable structure. a first contacting member ; a second contacting member ; at least one first expansion compartment ; and at least one second expansion compartment ; wherein the implant is expandable from an insertion configuration to an expanded configuration, wherein the implant has a first dimension in a first direction and a second dimension in a second direction in the insertion configuration, and wherein the first direction is substantially perpendicular to the second direction, wherein the implant is configured such that: during expansion of the at least one first expansion compartment , the at least one first expansion compartment cooperates with at least one of the first and second contacting members to cause the first dimension of the implant to increase without substantially causing a change in the second dimension of the implant; and during expansion of the at least one second expansion compartment , the at least one second expansion compartment cooperates with at least one of the first and second contacting members to cause the second dimension of the implant to increase; during expansion of the at least one first expansion compartment , the at least one first expansion compartment cooperates with at least one of the first and second contacting members to cause the first dimension of the implant to increase without substantially causing a change in the second dimension of the implant; and during expansion of the at least one second expansion compartment , the at least one second expansion compartment cooperates with at least one of the first and second contacting members to cause the second dimension of the implant to increase; characterized in that the first and second expansion compartments are each an inflatable structure.
A method of inducing blood brain barrier properties in iPSC-derived brain microvascular endothelial cells (BMECs) so as to generate an isogenic blood brain barrier model comprising the steps of (a) co-culturing iPSC-derived BMECs with a combination of iPSC-derived astrocytes and iPSC-derived neurons; wherein blood brain barrier properties are induced, and wherein the iPSC-derived astrocytes and iPSC-derived neurons are isogenic to the iPSC-derived BMECs. (a) co-culturing iPSC-derived BMECs with a combination of iPSC-derived astrocytes and iPSC-derived neurons;
A digital radiographic, DR, phase-contrast imaging, PCI, system for capturing phase-contrast radiographic images of an object, the system comprising: an x-ray source for emitting an x-ray beam at different selectable relative x-ray beam energies radiographic imaging; a digital radiographic, DR, detector (140, D); a source grating G0; an x-ray grating interferometer comprising a gratings holder configured to hold an array of selectable phase gratings G1, and an analyzer grating G2, wherein the gratings holder is made of low absorbing material and movable in a direction perpendicular to a direction of the x-ray beam to position a selected one of the array of selectable phase gratings G1 between the source grating G0 and the DR detector (140, D); and a look up table storing information associated with a selected one of the different relative x-ray beam energies to identify one of the array of selectable phase gratings G1, corresponding to the selected one of the different relative x-ray beam energies, to move into the position between the source grating G0 and the DR detector (140, D) to capture a phase-contrast radiographic image of the object; wherein the arrangement of the source grating G0, the x-ray grating interferometer and a position of the DR detector (140, D) is configured to provide at least two phase-contrast radiographic images of the object obtained at different relative x-ray beam energies. an x-ray source for emitting an x-ray beam at different selectable relative x-ray beam energies radiographic imaging; a digital radiographic, DR, detector (140, D); a source grating G0; an x-ray grating interferometer comprising a gratings holder configured to hold an array of selectable phase gratings G1, and an analyzer grating G2, wherein the gratings holder is made of low absorbing material and movable in a direction perpendicular to a direction of the x-ray beam to position a selected one of the array of selectable phase gratings G1 between the source grating G0 and the DR detector (140, D); and a look up table storing information associated with a selected one of the different relative x-ray beam energies to identify one of the array of selectable phase gratings G1, corresponding to the selected one of the different relative x-ray beam energies, to move into the position between the source grating G0 and the DR detector (140, D) to capture a phase-contrast radiographic image of the object; wherein the arrangement of the source grating G0, the x-ray grating interferometer and a position of the DR detector (140, D) is configured to provide at least two phase-contrast radiographic images of the object obtained at different relative x-ray beam energies.
A signal delay adjustment device configured to adjust output timings of sounds among a plurality of speakers by individually setting delay times of audio signals to be supplied to the plurality of speakers (SP FR , SP FL , SP RR , SP RL ), and individually delay the audio signals to be supplied to the plurality of speakers (SP FR , SP FL , SP RR , SP RL )with the set delay times, the signal delay adjustment device comprising: a setting part configured to set the delay times to be applied to the audio signals for each speaker (SP FR , SP FL , SP RR , SP RL ); a data generating part configured to generate delay time control data for controlling the delay times to be applied to the audio signals based on a change amount of each of the delay times; and a delay part configured to individually delay the audio signals to be supplied to the plurality of speakers (SP FR , SP FL , SP RR , SP RL ) based on the delay times set by the setting part , wherein the delay part changes the delay applied to the audio signal by a fixed delay time every time a predefined ccontrol time interval elapses until the delay reaches the delay time set based on the delay time control data and thereby gradually changes the delay Limes applied to the audio signals over a time which is longer as the change amount of the delay time is larger and so that the delay time applied to each of the audio signals reaches the delay time set by the setting part over said time. a setting part configured to set the delay times to be applied to the audio signals for each speaker (SP FR , SP FL , SP RR , SP RL ); a data generating part configured to generate delay time control data for controlling the delay times to be applied to the audio signals based on a change amount of each of the delay times; and a delay part configured to individually delay the audio signals to be supplied to the plurality of speakers (SP FR , SP FL , SP RR , SP RL ) based on the delay times set by the setting part , wherein the delay part changes the delay applied to the audio signal by a fixed delay time every time a predefined ccontrol time interval elapses until the delay reaches the delay time set based on the delay time control data and thereby gradually changes the delay Limes applied to the audio signals over a time which is longer as the change amount of the delay time is larger and so that the delay time applied to each of the audio signals reaches the delay time set by the setting part over said time.
A high power diode laser comprising an edge-emitting laser diode bar stack and a fast-axis collimator lens array assembly; the laser diode bar stack providing an array of emitters with a fast axis and a slow axis, the axes being perpendicular to each other and orthogonal to the propagation direction of the laser beam and the slow axis being parallel to the face of the bars ; and a fast-axis collimator lens array assembly comprising a plurality of fast-axis collimators formed as a two dimensional array; wherein each emitter has an emitter location in the x and y axes, the emitter locations providing a pattern with an irregular geometry in the x-y axes of the laser diode bar stack; each fast-axis collimator comprises a lens shape in the array and each lens shape being machined so that dominant irregularities in the geometry of the laser diode bar stack are replicated within the fast-axis collimator lens array to correct for errors in fast-axis and slow-axis emitter position, wherein: the fast-axis collimator lens array assembly is provided as a micro-optical element formed as a monolithic array, wherein each fast-axis collimator comprises a lens form in the element corresponding to an emitter in the laser diode bar stack; wherein the spacing between the collimators in the fast axis varies across the micro-optical element . the fast-axis collimator lens array assembly is provided as a micro-optical element formed as a monolithic array, wherein each fast-axis collimator comprises a lens form in the element corresponding to an emitter in the laser diode bar stack; wherein the spacing between the collimators in the fast axis varies across the micro-optical element .