mhurhangee/ep-ind-claims huggingface dataset:
A computing system (100, 1200) comprising: a first memory storing processor-executable program code; a second memory storing data of a hierarchy (110, 1236) in a relational table and an order index structure (130, 1234) associated with the hierarchy (110, 1236), where each node of the hierarchy (110, 1236) is represented by a row of the table, and each row includes a level of its respective node, a pointer to a lower bound entry of the order index structure (130, 1234) associated with the hierarchy (110, 1236), and a pointer to an upper bound entry of the order index structure (130, 1234) associated with the hierarchy (110, 1236), wherein the order index structure (130, 1234) maintains the relative order of its entries and provides the operation of finding an entry e to which a pointer / points, while common secondary indexes point from an order index structure entry to a row of the table through its row ID; and a processor to execute the processor-executable program code in order to cause the computing system (100, 1200) to: receive a pointer /; and determine an entry e of the order index structure (130, 1234) to which the received pointer / points. a first memory storing processor-executable program code; a second memory storing data of a hierarchy (110, 1236) in a relational table and an order index structure (130, 1234) associated with the hierarchy (110, 1236), where each node of the hierarchy (110, 1236) is represented by a row of the table, and each row includes a level of its respective node, a pointer to a lower bound entry of the order index structure (130, 1234) associated with the hierarchy (110, 1236), and a pointer to an upper bound entry of the order index structure (130, 1234) associated with the hierarchy (110, 1236), wherein the order index structure (130, 1234) maintains the relative order of its entries and provides the operation of finding an entry e to which a pointer / points, while common secondary indexes point from an order index structure entry to a row of the table through its row ID; and a processor to execute the processor-executable program code in order to cause the computing system (100, 1200) to: receive a pointer /; and determine an entry e of the order index structure (130, 1234) to which the received pointer / points. receive a pointer /; and determine an entry e of the order index structure (130, 1234) to which the received pointer / points.
A liquid discharge device, comprising: a modulation circuit configured to generate a modulation signal (Ms) obtained by pulse-modulating a source signal (Aa) by self oscillation; a transistor pair (M1, M2) which includes a high side transistor and a low side transistor and which is configured to generate an amplified modulation signal (Sd) by amplifying the modulation signal; a demodulation unit which includes an inductor and a capacitor and which is configured to generate a drive signal (COM-A) by smoothing the amplified modulation signal; an piezoelectric element that is configured to be displaced when the drive signal is applied; a cavity inside which a liquid droplet can be filled and whose internal volume is changed by the displacement of the piezoelectric element; and a nozzle provided to discharge liquid inside the cavity according to the change of the internal volume of the cavity, a distance between the high side transistor and the capacitor is longer than a distance between the inductor and the capacitor; and characterised in that the distance between the inductor and the capacitor is longer than or equal to 3 mm. a modulation circuit configured to generate a modulation signal (Ms) obtained by pulse-modulating a source signal (Aa) by self oscillation; a transistor pair (M1, M2) which includes a high side transistor and a low side transistor and which is configured to generate an amplified modulation signal (Sd) by amplifying the modulation signal; a demodulation unit which includes an inductor and a capacitor and which is configured to generate a drive signal (COM-A) by smoothing the amplified modulation signal; an piezoelectric element that is configured to be displaced when the drive signal is applied; a cavity inside which a liquid droplet can be filled and whose internal volume is changed by the displacement of the piezoelectric element; and a nozzle provided to discharge liquid inside the cavity according to the change of the internal volume of the cavity, a distance between the high side transistor and the capacitor is longer than a distance between the inductor and the capacitor; and characterised in that the distance between the inductor and the capacitor is longer than or equal to 3 mm.
A medical product comprising an occlusion balloon (28; 60; 70; 100; 120) inflatable by introduction of a fill material characterized in that the occlusion balloon has a balloon wall formed with a remodelable material.
A method of making a respiratory syncytial virus fusion glycoprotein comprising: (a) transforming an insect host cell with a baculovirus to express a nucleic acid encoding an RSV F glycoprotein consisting of the sequence of SEQ ID NO:8; and (b) culturing the host cell under conditions conducive to the production of the RSV F glycoprotein. (a) transforming an insect host cell with a baculovirus to express a nucleic acid encoding an RSV F glycoprotein consisting of the sequence of SEQ ID NO:8; and (b) culturing the host cell under conditions conducive to the production of the RSV F glycoprotein.
Sanitary insert unit comprising a jet regulator, comprising an attachment screen, which is connected upstream of the jet regulator on the inflow side, and comprising a flow rate regulator, which is provided between the jet regulator and the attachment screen and has a flow-restricting body consisting of elastic material, said flow-regulating body enclosing, between itself and a regulating profiling provided on a circumferential wall of a regulating body, a control gap which changes under the pressure of the water flowing therethrough, wherein the flow rate regulator is retained in a releasable manner on the jet regulator and the attachment screen is retained in a releasable manner on the flow rate regulator, characterised in that the regulating body is connected to a holder via at least one connecting crosspiece, the at least one connecting crosspiece is provided as a holding-down part for the flow-restricting body, which is arranged between the at least one connecting crosspiece and the jet regulator, and the holder is fastened with its inflow-side front edge region in a releasable manner to the attachment screen, and is fastened with its outflow-side front edge region in a releasable manner to the inner circumference of a regulator housing.
A suture comprising: at least one suture strand; and a biocompatible suture leader (200, 200') having a first terminal end portion that is mated to a terminal end portion (10a, 10b, 11a, 11b) of the at least one suture strand, the suture leader having an outer diameter (D O) along at least a portion of the length thereof that is less than a maximum outer diameter (D S) of the at least one suture strand characterised by the suture leader further having a second terminal end portion having a pre-formed crease formed therein such that the suture leader is bent in a resting state. at least one suture strand; and a biocompatible suture leader (200, 200') having a first terminal end portion that is mated to a terminal end portion (10a, 10b, 11a, 11b) of the at least one suture strand, the suture leader having an outer diameter (D O) along at least a portion of the length thereof that is less than a maximum outer diameter (D S) of the at least one suture strand
Fuel pressure store for internal combustion engines for storing highly pressurized fuel, wherein the fuel pressure store comprises a vessel wall with a fuel store chamber formed in the vessel wall, wherein the fuel pressure store has a feed connector for the feed of highly pressurized fuel and has a discharge connector for the discharge of highly pressurized fuel, wherein the fuel pressure store has a magnetic device (9, 10), wherein the fuel store chamber has, adjacent to the magnetic device (9, 10), a magnetic reservoir for collecting metal particles, wherein the fuel pressure store has a magnetic pressure valve for opening and closing a hydraulic connection from the fuel store chamber to an outflow channel, wherein the pressure valve is designed as an electromagnetic valve with a magnet coil, characterized in that the hydraulic connection is closed when the magnet coil is electrically energized, wherein the pressure valve is the magnetic device.
A Field Effect Transistor, FET, comprising: a plurality of FET cells having a plurality of source pads, a plurality of drain pads, and a plurality of gate electrodes disposed on an upper surface of a substrate; each one of the FET cells having a corresponding one of the gate electrodes disposed between one of the source pads and one of the drain pads; a gate contact connected to the gate electrode of each one of the FET cells; a drain contact connected to the drain pad of each one of the FET cells; a source contact connected to the source pad of each one of the FET cells; wherein the cells are disposed in a loop configuration; a gate pad disposed on the upper surface of the substrate connected to the plurality of gate electrodes wherein the gate contact is disposed on a bottom surface of the substrate and wherein an electrically conductive gate via passes through the substrate to electrically connect the gate contact to the gate pad; wherein the gate pad is disposed in an inner region of the loop configuration; and wherein one of the source contact or drain contact is a conductor disposed on the bottom surface of the substrate and is connected to the corresponding one of the source pad or drain pad of each one of the FET cells through a corresponding one of a plurality of electrically conductive vias passing through the substrate. a plurality of FET cells having a plurality of source pads, a plurality of drain pads, and a plurality of gate electrodes disposed on an upper surface of a substrate; each one of the FET cells having a corresponding one of the gate electrodes disposed between one of the source pads and one of the drain pads; a gate contact connected to the gate electrode of each one of the FET cells; a drain contact connected to the drain pad of each one of the FET cells; a source contact connected to the source pad of each one of the FET cells; wherein the cells are disposed in a loop configuration; a gate pad disposed on the upper surface of the substrate connected to the plurality of gate electrodes wherein the gate contact is disposed on a bottom surface of the substrate and wherein an electrically conductive gate via passes through the substrate to electrically connect the gate contact to the gate pad; wherein the gate pad is disposed in an inner region of the loop configuration; and wherein one of the source contact or drain contact is a conductor disposed on the bottom surface of the substrate and is connected to the corresponding one of the source pad or drain pad of each one of the FET cells through a corresponding one of a plurality of electrically conductive vias passing through the substrate.
A processor that loads data elements, comprising: an upper level cache, L1, that is the highest level cache of a cache hierarchy including one or more levels of cache of the processor (100; 600); and at least one processor core coupled to the upper level, L1, cache, including one or more registers and a plurality of instruction processing stages, a decoder unit to decode an instruction requiring an input of a plurality of data elements, wherein a size of each of the plurality of data elements is less than a cache line size of the processor, characterized in responsive to the instruction, an execution unit to load the plurality of data elements to the one or more registers, without loading the plurality of data elements in the upper level cache, L1,, wherein the upper level cache, L1, is dedicated to processor core and closer to the execution unit than caches in lower levels of the cache hierarchy, wherein the loading of the plurality of data elements is to: gather the plurality of data elements in a temporary buffer, and load the plurality of data elements from the temporary buffer to the one or more registers. an upper level cache, L1, that is the highest level cache of a cache hierarchy including one or more levels of cache of the processor (100; 600); and at least one processor core coupled to the upper level, L1, cache, including one or more registers and a plurality of instruction processing stages, a decoder unit to decode an instruction requiring an input of a plurality of data elements, wherein a size of each of the plurality of data elements is less than a cache line size of the processor, characterized in responsive to the instruction, an execution unit to load the plurality of data elements to the one or more registers, without loading the plurality of data elements in the upper level cache, L1,, wherein the upper level cache, L1, is dedicated to processor core and closer to the execution unit than caches in lower levels of the cache hierarchy, wherein the loading of the plurality of data elements is to: gather the plurality of data elements in a temporary buffer, and load the plurality of data elements from the temporary buffer to the one or more registers. characterized in responsive to the instruction, an execution unit to load the plurality of data elements to the one or more registers, without loading the plurality of data elements in the upper level cache, L1,, wherein the upper level cache, L1, is dedicated to processor core and closer to the execution unit than caches in lower levels of the cache hierarchy, wherein the loading of the plurality of data elements is to: gather the plurality of data elements in a temporary buffer, and load the plurality of data elements from the temporary buffer to the one or more registers. gather the plurality of data elements in a temporary buffer, and load the plurality of data elements from the temporary buffer to the one or more registers.
A safety system for a passenger moving system (100, 200, 300) comprising a monitoring means, wherein the safety system is adapted to identify a body profile of a passenger characterized in that the safety system is adapted to measure an angle (θ) between one or more bones on the body of the passenger, wherein the one or more bones on the body of the passenger connect at a joint, said joint being rotatable about at least one axis (x, y, z) and that the body profile of the passenger comprises - a standing position; - a sitting position; - any position there-between. wherein the safety system is adapted to identify a body profile of a passenger characterized in that the safety system is adapted to measure an angle (θ) between one or more bones on the body of the passenger, wherein the one or more bones on the body of the passenger connect at a joint, said joint being rotatable about at least one axis (x, y, z) and that the body profile of the passenger comprises - a standing position; - a sitting position; - any position there-between. - a standing position; - a sitting position; - any position there-between.
Energy storage arrangement, comprising: • at least one electrochemical cell, wherein the at least one electrochemical cell comprises a first electrode that is liquid during operation, an electrolyte that is liquid during operation and a second electrode that is liquid during operation, wherein the first electrode, the electrolyte and the second electrode form during operation a layer structure with at least one interface (105a, 105b); and • a magnetic field-generating structure, which is arranged outside the outer circumference of the at least one electrochemical cell for generating a magnetic field, wherein the magnetic field-generating structure is set up in such a way that the generated magnetic field penetrates the at least one electrochemical cell, characterized in that • the magnetic field-generating structure arranged outside the outer circumference of the at least one electrochemical cell comprises at least one permanent magnet and/or an electrically conductive coil arrangement for generating the magnetic field and is set up in such a way that a magnetic field component of the magnetic field generated is parallel to a surface normal to the at least one interface (105a, 105b) of the layer structure. • at least one electrochemical cell, wherein the at least one electrochemical cell comprises a first electrode that is liquid during operation, an electrolyte that is liquid during operation and a second electrode that is liquid during operation, wherein the first electrode, the electrolyte and the second electrode form during operation a layer structure with at least one interface (105a, 105b); and • a magnetic field-generating structure, which is arranged outside the outer circumference of the at least one electrochemical cell for generating a magnetic field, wherein the magnetic field-generating structure is set up in such a way that the generated magnetic field penetrates the at least one electrochemical cell, characterized in that • the magnetic field-generating structure arranged outside the outer circumference of the at least one electrochemical cell comprises at least one permanent magnet and/or an electrically conductive coil arrangement for generating the magnetic field and is set up in such a way that a magnetic field component of the magnetic field generated is parallel to a surface normal to the at least one interface (105a, 105b) of the layer structure.
An elevator comprising a cage and a counter-weight connected together by a plurality of main ropes driven by being wound around a motor driven sheave, wherein each of the plurality of main ropes comprises a plurality of strands twisted together and each of the plurality of strands comprises a plurality of wires twisted together; the outer periphery of each of the plurality of main ropes is coated with resin material (5, 6) and has a substantially circular cross-section; at least one of said plurality of strands which is arranged in the center of each of the main ropes is coated with resin material and/or each of the plurality of wires are coated with resin material; and the outer periphery of each of the plurality of main ropes has been coated with the resin material after the plurality of strands including the at least one strand in the center of the corresponding main rope which had been coated before, have been twisted and/or after the plurality of strands of twisted coated wires have been twisted.
A vehicular braking control apparatus that performs frictional braking by a frictional braking device and regenerative braking by a regenerative braking device and that is shifted between a cooperative braking mode realized by the frictional braking and the regenerative braking and a single braking mode realized by only the frictional braking, comprising: calculation means for calculating a correction coefficient (Kp) for a frictional braking control amount on the basis of an actual degree of vehicle deceleration and a reference degree of vehicle deceleration based on an amount of braking operation performed by a driver during braking in the single braking mode; and correction means for correcting the frictional braking control amount based on the correction coefficient (Kp), characterized in that the correction coefficient (Kp) for the frictional braking control amount is a ratio of the reference degree of vehicle deceleration to the actual degree of vehicle deceleration. calculation means for calculating a correction coefficient (Kp) for a frictional braking control amount on the basis of an actual degree of vehicle deceleration and a reference degree of vehicle deceleration based on an amount of braking operation performed by a driver during braking in the single braking mode; and correction means for correcting the frictional braking control amount based on the correction coefficient (Kp), characterized in that the correction coefficient (Kp) for the frictional braking control amount is a ratio of the reference degree of vehicle deceleration to the actual degree of vehicle deceleration.
An endoscope camera comprising: a cylindrical hard case; a camera head provided at a distal end portion of the hard case; and a dome-shaped cover attached to the distal end portion of the hard case which covers the camera head, wherein the cover is provided with a rib wall having an inner and an outer surfaces for reinforcing the cover with at least one of the inner and outer surfaces being a lightproof surface, and wherein the cover is provided with a holding section, the camera head is provided with an abutment section, and the abutment section is held by the holding section to locate a spherical center of the cover on an optical axis of the camera head, wherein a first space for housing the camera head and a second space for housing an illumination section are formed inside the cover, and the rib wall intervenes between the first space and the second space. a cylindrical hard case; a camera head provided at a distal end portion of the hard case; and a dome-shaped cover attached to the distal end portion of the hard case which covers the camera head, wherein the cover is provided with a rib wall having an inner and an outer surfaces for reinforcing the cover with at least one of the inner and outer surfaces being a lightproof surface, and wherein the cover is provided with a holding section, the camera head is provided with an abutment section, and the abutment section is held by the holding section to locate a spherical center of the cover on an optical axis of the camera head, wherein a first space for housing the camera head and a second space for housing an illumination section are formed inside the cover, and the rib wall intervenes between the first space and the second space.
A labelling machine, comprising a series of dispensers for dispensing printed and/or pre-printed labels; a label application device, which is separate from the label dispensers; and transportation means for transporting labels from the various label dispensers to the label application device; these transportation means comprising a first transportation module, in order to receive the labels printed by a label dispenser in each position; and a second fixed transportation module, responsible for supplying the label application device with labels; it being possible for the first module to be located opposite the second, in order to transfer labels from the said first to second module, said labelling machine characterized in that the dispensers are located at different heights and arranged in a column, and in that the first transportation module may be moved vertically between positions that coincide with those occupied by the label dispensers.