mhurhangee/ep-ind-claims huggingface dataset:
A split stator manufacturing method for manufacturing a split stator including: a split core element having a teeth portion, an insulator set on the teeth portion of the split core element, and a formed coil mounted on the teeth portion of the split core element through the insulator, the method comprising the steps of: setting the insulator and the split core element in a first mold so that the insulator is set on the teeth portion of the split core element, and then setting the formed coil in a second mold; injecting resin in a cavity defined by the first mold and the second mold while the first mold and the second mold are in a half-open state to allow the resin to flow in a space between the insulator and the formed coil; and clamping the first and second molds together while the resin exists between the insulator and the formed coil to mount the formed coil on the teeth portion through the insulator. setting the insulator and the split core element in a first mold so that the insulator is set on the teeth portion of the split core element, and then setting the formed coil in a second mold; injecting resin in a cavity defined by the first mold and the second mold while the first mold and the second mold are in a half-open state to allow the resin to flow in a space between the insulator and the formed coil; and clamping the first and second molds together while the resin exists between the insulator and the formed coil to mount the formed coil on the teeth portion through the insulator.
An apparatus for measuring a pressure of battery cells, the apparatus comprising: a battery cell; a pressure sensor configured to measure the surface pressure of the battery cell; a first plate arranged between the battery cell and the pressure sensor so as to be in contact with the battery cell and the pressure sensor, and a second plate formed so as to be in contact with the pressure sensor in an opposite direction of the battery cell based on the pressure sensor, wherein the pressure sensor comprises a plurality of pressure measuring units, characterized in that the second plate comprises a plurality of holes formed at positions corresponding to each of the plurality of pressure measuring units configured to allow air generated inside the pressure measuring units to be discharged. a battery cell; a pressure sensor configured to measure the surface pressure of the battery cell; a first plate arranged between the battery cell and the pressure sensor so as to be in contact with the battery cell and the pressure sensor, and a second plate formed so as to be in contact with the pressure sensor in an opposite direction of the battery cell based on the pressure sensor, wherein the pressure sensor comprises a plurality of pressure measuring units, characterized in that the second plate comprises a plurality of holes formed at positions corresponding to each of the plurality of pressure measuring units configured to allow air generated inside the pressure measuring units to be discharged.
Belay device (2; 102; 202; 402) comprising a braking apparatus (6; 106; 206) and a locking apparatus (8; 108; 208), wherein the braking apparatus (6; 106; 206) is designed to brake a movement of a rope (16; 116; 432), wherein the locking apparatus (8; 108; 208) comprises a movable rope holding element (12, 14; 112, 114; 212, 214) which is designed to be moved by the rope (16; 116; 432) being held on it, wherein the locking apparatus (8; 108; 208) is designed to lock movement of the rope holding element (12, 14; 112, 114; 212, 214) in a locked state and to allow movement of the rope holding element (12, 14; 112, 114; 212, 214) in a free-running state, wherein the locking apparatus (8; 108; 208) is configured in such a way that a load change at one end of the rope (84r, 841; 184r, 1841) effects a transition from the locked state to the free-running state, wherein the rope (16; 116; 432) has a load end, which is a rope section to be loaded by a weight of a belayer, and a belaying end, which is a rope section separated from the load end by the belay device (2; 102; 202; 402), characterised in that the load change at the belaying end of the rope (16; 116; 432) is effected by pulling the belaying end away from the belay device (2; 102; 202; 402), while the load end is loaded by the weight of the belayer. wherein the braking apparatus (6; 106; 206) is designed to brake a movement of a rope (16; 116; 432), wherein the locking apparatus (8; 108; 208) comprises a movable rope holding element (12, 14; 112, 114; 212, 214) which is designed to be moved by the rope (16; 116; 432) being held on it, wherein the locking apparatus (8; 108; 208) is designed to lock movement of the rope holding element (12, 14; 112, 114; 212, 214) in a locked state and to allow movement of the rope holding element (12, 14; 112, 114; 212, 214) in a free-running state, wherein the locking apparatus (8; 108; 208) is configured in such a way that a load change at one end of the rope (84r, 841; 184r, 1841) effects a transition from the locked state to the free-running state, wherein the rope (16; 116; 432) has a load end, which is a rope section to be loaded by a weight of a belayer, and a belaying end, which is a rope section separated from the load end by the belay device (2; 102; 202; 402), characterised in that the load change at the belaying end of the rope (16; 116; 432) is effected by pulling the belaying end away from the belay device (2; 102; 202; 402), while the load end is loaded by the weight of the belayer.
Homogenous clonal marrow stem cells for use in treating graft-versus-host disease, wherein the homogeneous clonal marrow stem cells are isolated by the method comprising: i) allowing a sample of bone marrow cells to settle in a container; ii) transferring supernatant from i) to a new container and culturing; iii) transferring supernatant from ii) to a new container and culturing; iv) transferring supernatant from iii) to a new container; v) allowing cells to form single cell-derived colonies; and vi) isolating a homogenous population of clonal marrow stem cells. i) allowing a sample of bone marrow cells to settle in a container; ii) transferring supernatant from i) to a new container and culturing; iii) transferring supernatant from ii) to a new container and culturing; iv) transferring supernatant from iii) to a new container; v) allowing cells to form single cell-derived colonies; and vi) isolating a homogenous population of clonal marrow stem cells.
A time-of-flight apparatus comprising: a laser configured to produce a laser pulse having a first peak power and first duration; and a pulse clipper for receiving the laser pulse from the laser, wherein the pulse clipper is configured to produce a clipped pulse from the laser pulse, wherein the clipped pulse has a second duration less than the first duration characterized in that the pulse clipper comprises an optical waveguide having an induced absorption region, the induced absorption region comprising a semiconductor having a bandgap energy; and wherein the clipped pulse has a second peak power during the second duration and wherein an instantaneous power of the clipped pulse at a moment of time after the second duration divided by the second peak power is smaller than an instantaneous power of the laser pulse at the moment of time after the second duration divided by the first peak power. a laser configured to produce a laser pulse having a first peak power and first duration; and a pulse clipper for receiving the laser pulse from the laser, wherein the pulse clipper is configured to produce a clipped pulse from the laser pulse, wherein the clipped pulse has a second duration less than the first duration characterized in that the pulse clipper comprises an optical waveguide having an induced absorption region, the induced absorption region comprising a semiconductor having a bandgap energy; and wherein the clipped pulse has a second peak power during the second duration and wherein an instantaneous power of the clipped pulse at a moment of time after the second duration divided by the second peak power is smaller than an instantaneous power of the laser pulse at the moment of time after the second duration divided by the first peak power.
A lower attachment for a trimmable horizontal stabiliser actuator (THSA) comprising two connections for connecting the lower attachment to a flight control surface; each connection comprising: a surface bracket for coupling to a flight control surface, the surface bracket mounted about a gimbal of the lower attachment by a bushing disposed between the gimbal and the surface bracket; and a failsafe plate (120, 122) fittingly engaged on a first end of the bushing; characterised by a tightening ring fixedly mounted on a second end of the bushing opposite the first end and secured to the surface bracket by at least one contact screw, such that the contact screw is operable to urge the bushing against the failsafe plate (120, 122); and stiffness rods disposed on the opposite side of the failsafe plate (120, 122) to the bushing; wherein the stiffness rods are positioned between the failsafe plate of the first connection and the failsafe plate of the second connection on the opposite side of the lower attachment, and are arranged to maintain separation of the failsafe plates (120, 122) and ensure contact between the failsafe plates (120, 122) and the respective bushings of each connection. a surface bracket for coupling to a flight control surface, the surface bracket mounted about a gimbal of the lower attachment by a bushing disposed between the gimbal and the surface bracket; and a failsafe plate (120, 122) fittingly engaged on a first end of the bushing; characterised by a tightening ring fixedly mounted on a second end of the bushing opposite the first end and secured to the surface bracket by at least one contact screw, such that the contact screw is operable to urge the bushing against the failsafe plate (120, 122); and stiffness rods disposed on the opposite side of the failsafe plate (120, 122) to the bushing; wherein the stiffness rods are positioned between the failsafe plate of the first connection and the failsafe plate of the second connection on the opposite side of the lower attachment, and are arranged to maintain separation of the failsafe plates (120, 122) and ensure contact between the failsafe plates (120, 122) and the respective bushings of each connection.
An exhaust air duct arrangement for a kitchen exhaust air duct system, comprising a sheet metal tube and a support structure which is accommodated in the interior of the sheet metal tube so as to be displaceable along the longitudinal direction (x) of the sheet metal tube and via which two opposite wall sections of the sheet metal tube are supported against one another, the support structure having a first and a second bearing section, which each bear against the inner circumference of the sheet metal tube via a positive fit, characterised in that the bearing sections are connected to one another via a Z-shaped section, the Z-shaped section having a first and a second binding profile side, the first binding profile side merging into the first bearing section and the second binding profile side merging into the second bearing section.
A dental implant comprising: ∘ An implant fixture which comprises an upper surface being an intraoral surface comprising: ∘ an internal thread, and ∘ an upper abutment connector, ∘ A first abutment comprising: ∘ an implant fixture connector connectable to said upper abutment connector, ∘ a second abutment connector, and ∘ a first passageway, ∘ A second abutment comprising: ∘ a first abutment connector connectable to said second abutment connector, ∘ a second passageway, wherein ∘ a screw is inserted through said first passageway and said second passageway into said internal thread such that said screw attaches said first abutment and said second abutment to said implant fixture, wherein in assembled state said implant fixture is in contact with said second abutment, a horizontal contact surface comprising microscopic gaps is formed between said first and second abutment (4, 8) and said horizontal contact surface comprising microscopic gaps is situated at a distance d below said intraoral surface, characterized in that there is only one contact surface comprising microscopic gaps between the second abutment and the implant fixture and in that said contact surface comprising microscopic gaps is substantially vertical. ∘ An implant fixture which comprises an upper surface being an intraoral surface comprising: ∘ an internal thread, and ∘ an upper abutment connector, ∘ an internal thread, and ∘ an upper abutment connector, ∘ A first abutment comprising: ∘ an implant fixture connector connectable to said upper abutment connector, ∘ a second abutment connector, and ∘ a first passageway, ∘ an implant fixture connector connectable to said upper abutment connector, ∘ a second abutment connector, and ∘ a first passageway, ∘ A second abutment comprising: ∘ a first abutment connector connectable to said second abutment connector, ∘ a second passageway, wherein ∘ a screw is inserted through said first passageway and said second passageway into said internal thread such that said screw attaches said first abutment and said second abutment to said implant fixture, ∘ a first abutment connector connectable to said second abutment connector, ∘ a second passageway, wherein ∘ a screw is inserted through said first passageway and said second passageway into said internal thread such that said screw attaches said first abutment and said second abutment to said implant fixture,
A method of creating a plurality of relief dots in a cylindrical photosensitive printing blank during a digital platemaking process, said cylindrical photosensitive printing blank comprising a hollow cylindrical base made of a high strength polymer resin, a first photocurable layer comprising a photopolymerizable resilient material, a laser ablatable mask layer disposed on at least one second photocurable layer, said cylindrical photosensitive printing blank being mountable on a printing cylinder, the method comprising the steps of: a. laser ablating the laser ablatable mask layer to create an in situ negative in the laser ablatable mask layer; b. placing a barrier layer on top of the laser ablatable mask layer, wherein the barrier layer is shrink wrapped over the laser ablatable mask layer; c. exposing the at least one second photocurable layer to actinic radiation through the barrier layer and the in situ negative; d. removing the barrier layer; and e. developing the imaged and exposed photosensitive printing blank to reveal the relief image therein, said relief image comprising the plurality of relief dots, wherein the first photocurable layer is cured prior to the application of the second photocurable layer. a. laser ablating the laser ablatable mask layer to create an in situ negative in the laser ablatable mask layer; b. placing a barrier layer on top of the laser ablatable mask layer, wherein the barrier layer is shrink wrapped over the laser ablatable mask layer; c. exposing the at least one second photocurable layer to actinic radiation through the barrier layer and the in situ negative; d. removing the barrier layer; and e. developing the imaged and exposed photosensitive printing blank to reveal the relief image therein, said relief image comprising the plurality of relief dots,
A method of operating an electronic circuit that comprises: positive and negative input terminals [A, B] adapted to be connected across a floating source of direct current power; positive [V+], negative [V-] and ground output terminals; a charge storage device connected across the positive and negative input terminals [A, B]; first and second switches [IGBT1, IGBT2] connected in series across the positive and negative input terminals [A, B], wherein a connection point between the first and the second switches forms a node; a first capacitor connected across the positive [V+] and ground output terminals; a second capacitor connected across the ground and negative [V-] output terminals; a first diode, an anode of which is connected to the positive input terminal, and a cathode of which is connected to the positive output terminal [V+]; a second diode, an anode of which is connected to the negative output terminal [V-], and a cathode of which is connected to the negative input terminal; and an inductor connected between the node and the ground output terminal, the method comprising charging the charge storage device, and being characterised by: during a half of a period of a resonant circuit formed by the inductor and the second capacitor, discharging the charge storage device across the inductor to the second capacitor by closing the first switch [IGBT1] and opening the second switch [IGBT2]; and during a half of a period of the resonant circuit formed by the inductor and the first capacitor, discharging the charge storage device across the inductor to the first capacitor by opening the first switch [IGBT1] and closing the second switch [IGBT2]. during a half of a period of a resonant circuit formed by the inductor and the second capacitor, discharging the charge storage device across the inductor to the second capacitor by closing the first switch [IGBT1] and opening the second switch [IGBT2]; and during a half of a period of the resonant circuit formed by the inductor and the first capacitor, discharging the charge storage device across the inductor to the first capacitor by opening the first switch [IGBT1] and closing the second switch [IGBT2].
A computer-implemented method of stitching tile images of a specimen-bearing slide, the method comprising: (a) deriving a greyscale tile image for each of a set of tile images, wherein each tile image corresponds to a portion within a region of interest of the specimen-bearing slide; (b) performing a local registration to determine spatial relationships between pairs of adjacent greyscale tile images, wherein a spatial relationship of an overlapping region between each pair of adjacent greyscale tile images is determined by using an integral image to compute a normalized cross correlation, NCC, score for an image resolution within a multi-resolution framework; (c) performing a global placement to position the set of tile images relative to one another, wherein the global placement is determined with weighted least squares utilizing the determined spatial relationships between all adjacent greyscale tile images and the NCC scores as weights; and (d) stitching together the set of images based on the computed tile image placements. (a) deriving a greyscale tile image for each of a set of tile images, wherein each tile image corresponds to a portion within a region of interest of the specimen-bearing slide; (b) performing a local registration to determine spatial relationships between pairs of adjacent greyscale tile images, wherein a spatial relationship of an overlapping region between each pair of adjacent greyscale tile images is determined by using an integral image to compute a normalized cross correlation, NCC, score for an image resolution within a multi-resolution framework; (c) performing a global placement to position the set of tile images relative to one another, wherein the global placement is determined with weighted least squares utilizing the determined spatial relationships between all adjacent greyscale tile images and the NCC scores as weights; and (d) stitching together the set of images based on the computed tile image placements.
A carrier for holding a plurality of containers, the carrier comprising: a bottom panel; a top panel at least partially in face-to-face contact with the bottom panel; a handle for grasping and carrying a central portion of the carrier, the handle comprising a bottom gripping portion in the bottom panel and a top gripping portion in the top panel; at least one container receiver for at least partially receiving a respective container of the plurality of containers, the at least one container receiver is foldably connected to the handle. a bottom panel; a top panel at least partially in face-to-face contact with the bottom panel; a handle for grasping and carrying a central portion of the carrier, the handle comprising a bottom gripping portion in the bottom panel and a top gripping portion in the top panel; at least one container receiver for at least partially receiving a respective container of the plurality of containers, the at least one container receiver is foldably connected to the handle.
A diesel fuel composition comprising a diesel fuel, a colloidally dispersed or solubilised metal catalyst compound for diesel particulate trap regeneration and 10 to 1,000 ppm of an oil soluble or oil dispersible organic compound having a lipophilic hydrocarbyl chain having attached directly thereto at least two contiguous polar head functional groups, wherein the metal catalyst compound consists of cerium or iron oxides or mixtures thereof, and wherein the organic compound is represented by the generalised formula A-C-B, where C represents a hydrocarbyl chain of Mn (number average molecular weight) of 200 - 4,000, and A and B represent at least two contiguous carboxylate residues attached directly to one end of the lipophilic C chain, being either groups of the formula -COOH or ionized as -(COO -) n M n+ where M is a uni- or dipositively charged metal cation (i.e. where n = 1 or 2) or a quaternary ammonium cation.