mhurhangee/ep-ind-claims huggingface dataset:
An architectural panel having an aesthetic surface that is visible when the panel is in use, and an integrated energy storage system comprising at least one battery assembly, which includes at least one battery cell, embedded within a manufactured architectural material, the at least one battery assembly comprising an exterior surface, a majority of the exterior surface being over-formed and bonded with the architectural material by flowing a viscous precursor of the architectural material over it, the at least one battery assembly comprising electrical connectors operable to connect the at least one battery assembly with an electrical circuit that is external to the panel, wherein the architectural material comprises quartz, and wherein the architectural material is opaque such that the battery cell is not visible through the architectural material.
A thermal insulation element comprising a closed-cell, rigid polyurethane foam, which is at least partially covered by a layer system comprising at least one layer formed by a polybutylene terephthalate composition.
A compressor arrangement comprising: - a compressor for compressing a process gas from a suction region towards a pressure region, - a mechanical seal arrangement for sealing against an atmosphere on a shaft of the compressor, - said mechanical seal arrangement comprising a mechanical seal including a stationary slide ring with a first sliding surface and a rotating slide ring with a second sliding surface defining a sealing gap between the sliding surfaces (41a, 42a), and - a barrier fluid supply with barrier fluid line, which extends from the pressure region of the compressor to the mechanical seal and through which process gas is branched off from the pressure region as a barrier fluid, characterized in that - the stationary slide ring has a through opening extending from a rear side of the stationary slide ring to an orifice at the first sliding surface of the stationary slide ring to supply process gas from the barrier fluid line through the stationary slide ring to the sealing gap. - a compressor for compressing a process gas from a suction region towards a pressure region, - a mechanical seal arrangement for sealing against an atmosphere on a shaft of the compressor, - said mechanical seal arrangement comprising a mechanical seal including a stationary slide ring with a first sliding surface and a rotating slide ring with a second sliding surface defining a sealing gap between the sliding surfaces (41a, 42a), and - a barrier fluid supply with barrier fluid line, which extends from the pressure region of the compressor to the mechanical seal and through which process gas is branched off from the pressure region as a barrier fluid, characterized in that - the stationary slide ring has a through opening extending from a rear side of the stationary slide ring to an orifice at the first sliding surface of the stationary slide ring to supply process gas from the barrier fluid line through the stationary slide ring to the sealing gap.
A method of evaluating a subject's risk of developing type 2 diabetes, comprising: performing Nuclear Magnetic Resonance measurements of at least one lipoprotein component, at least one branched chain amino acid, and GlycA from an in vitro blood plasma or serum biosample from the subject, wherein GlycA is a composite Nuclear Magnetic Resonance signal from carbohydrate portions of acute phase reactant glycoproteins containing N-acetylglucosamine and/or N-acetylgalactosamine moieties that is detectable at about 2.00 ppm when Nuclear Magnetic Resonance measurements are performed at about 47 degrees C; and performing a computer-implemented calculation of a diabetes risk index for the subject using a mathematical model of risk of developing type 2 diabetes that includes the Nuclear Magnetic Resonance measurements of the at least one lipoprotein component, the at least one branched chain amino acid, and GlycA. performing Nuclear Magnetic Resonance measurements of at least one lipoprotein component, at least one branched chain amino acid, and GlycA from an in vitro blood plasma or serum biosample from the subject, wherein GlycA is a composite Nuclear Magnetic Resonance signal from carbohydrate portions of acute phase reactant glycoproteins containing N-acetylglucosamine and/or N-acetylgalactosamine moieties that is detectable at about 2.00 ppm when Nuclear Magnetic Resonance measurements are performed at about 47 degrees C; and performing a computer-implemented calculation of a diabetes risk index for the subject using a mathematical model of risk of developing type 2 diabetes that includes the Nuclear Magnetic Resonance measurements of the at least one lipoprotein component, the at least one branched chain amino acid, and GlycA.
A container, comprising: a tray having individual spaced compartments, wherein located within each compartment is an individual pot, wherein each pot has an upper flange and is adapted to contain a medication to be packaged, means (14, 18, 21) to releasably retain the pots in the compartments prior to intended release, and means (21, 23) to sealingly retain the medication in the pots prior to its intended use; characterised in that: the container is a monitored dosing system container for discretely packaging a plurality of quantities of one or more fluid or solid medications; the tray has an upper platform extending across the tray between the compartments; the means (21, 23) to sealingly retain the medication in the pots comprises a flexible perforated sheet of non-permeable material placed over the filled tray and sealingly attached to and across an otherwise open top of each pot such that the flexible perforated sheet is sealed to the upper platform and around each individual pot flange, the perforations of the flexible perforated sheet coincide with the outer peripheries of the pots so as to define an individual sealed film across each pot; each pot is individually removable from the tray whilst the integrity of the sealed film is maintained and whilst the remainder of the pots are retained and sealed within the tray such that once the pot is removed the sealed film can be peeled off the upper flange to open the pot. a tray having individual spaced compartments, wherein located within each compartment is an individual pot, wherein each pot has an upper flange and is adapted to contain a medication to be packaged, means (14, 18, 21) to releasably retain the pots in the compartments prior to intended release, and means (21, 23) to sealingly retain the medication in the pots prior to its intended use; the container is a monitored dosing system container for discretely packaging a plurality of quantities of one or more fluid or solid medications; the tray has an upper platform extending across the tray between the compartments; the means (21, 23) to sealingly retain the medication in the pots comprises a flexible perforated sheet of non-permeable material placed over the filled tray and sealingly attached to and across an otherwise open top of each pot such that the flexible perforated sheet is sealed to the upper platform and around each individual pot flange, the perforations of the flexible perforated sheet coincide with the outer peripheries of the pots so as to define an individual sealed film across each pot; each pot is individually removable from the tray whilst the integrity of the sealed film is maintained and whilst the remainder of the pots are retained and sealed within the tray such that once the pot is removed the sealed film can be peeled off the upper flange to open the pot.
A rod-shaped arm component, wherein the arm component is a rod-shaped suspension arm component, wherein at least one underfill part is formed so that a central axis of the arm component coincides with a load line of the arm component, the central axis of the arm component being a line connecting centroids of cross-sectional shapes with one another in an axial direction of the arm component, the cross-sectional shapes being shapes on cross-sectional planes perpendicular to an axis of the arm component, the load line of the arm component indicating a line on which a load is imposed in the arm component, characterised in that the underfill part does not reach each end of the rod-shaped arm component.
A medical navigation marker device (1; 2; 3) comprising a light reflector which features a marker pattern (11, 12, 13; 11, 12, 13, 14, 15, 16; 27, 28; 34, 37; 35, 37) having the following features: - the marker pattern (11, 12, 13; 11, 12, 13, 14, 15, 16; 27, 28; 34, 37; 35, 37) comprises at least one curved face (D, E) and/or at least two angled faces (A, B, C); - the marker pattern (11, 12, 13; 11, 12, 13, 14, 15, 16; 27, 28; 34, 37; 35, 37) comprises at least one moire pattern (11, 12, 13; 27; 37) characterised in that the moire pattern comprises at least two angled moire fields (11A, 12A, 13A; 11B, 12B, 13B) and/or one or more curved moire fields (27, 37); and - the marker pattern (11, 12, 13; 11, 12, 13, 14, 15, 16; 27, 28; 34, 37; 35, 37) comprises a face identification pattern (14, 15, 16; 25, 26; 34; 35) which is configured to identify a face of the marker viewable from a particular spatial direction. - the marker pattern (11, 12, 13; 11, 12, 13, 14, 15, 16; 27, 28; 34, 37; 35, 37) comprises at least one curved face (D, E) and/or at least two angled faces (A, B, C); - the marker pattern (11, 12, 13; 11, 12, 13, 14, 15, 16; 27, 28; 34, 37; 35, 37) comprises at least one moire pattern (11, 12, 13; 27; 37) - the marker pattern (11, 12, 13; 11, 12, 13, 14, 15, 16; 27, 28; 34, 37; 35, 37) comprises a face identification pattern (14, 15, 16; 25, 26; 34; 35) which is configured to identify a face of the marker viewable from a particular spatial direction.
A radio device, comprising: a plurality of radio entities (201, 202, 203) configured to transmit radio energy (211, 212, 213); and a controller configured to control the radio energy transmission of the plurality of radio entities (201, 202, 203) to comply with a predefined Specific Absorption Rate, SAR, requirement, and to assign time quotas (404, 405) to the plurality of radio entities (201, 202, 203) over multiple time windows (410, 420), wherein the time quotas of the plurality of radio entities in a second time window of the multiple time windows are derived based on a cumulative activity of the plurality of radio entities in a first time window of the multiple time windows, wherein the controller is configured to enable at least two radio entities of the plurality of radio entities (201, 202, 203) operating concurrently based on a shared SAR transmission power restriction which allows the at least two radio entities transmitting concurrently at a predefined duty cycle up to 100% duty cycle, without violating the SAR requirement. a plurality of radio entities (201, 202, 203) configured to transmit radio energy (211, 212, 213); and a controller configured to control the radio energy transmission of the plurality of radio entities (201, 202, 203) to comply with a predefined Specific Absorption Rate, SAR, requirement, and to assign time quotas (404, 405) to the plurality of radio entities (201, 202, 203) over multiple time windows (410, 420), wherein the time quotas of the plurality of radio entities in a second time window of the multiple time windows are derived based on a cumulative activity of the plurality of radio entities in a first time window of the multiple time windows, wherein the controller is configured to enable at least two radio entities of the plurality of radio entities (201, 202, 203) operating concurrently based on a shared SAR transmission power restriction which allows the at least two radio entities transmitting concurrently at a predefined duty cycle up to 100% duty cycle, without violating the SAR requirement.
A radiation treatment system, comprising: a) a computer (12, 13) for controlling a process of monitoring the position of at least a part of a patient's body during a radiation treatment, configured to provide energy data which describe an energy value which is dependent on the radiation energy applied to the patient's body; b) a monitoring device, which is designed to monitor the position of at least a part of a patient's body which is to be treated using treatment radiation and designed to be controlled in accordance with a control data; and c) a treatment device which is designed to emit the treatment radiation used for the radiation treatment; characterised in that: the computer is designed to determine the control data in accordance with the energy data, wherein the control data are designed to control the time at which monitoring is performed in accordance with the energy value; wherein the computer is further designed to determine the control data on the basis of the energy data provided and to issue the control data in order to control the monitoring device. a) a computer (12, 13) for controlling a process of monitoring the position of at least a part of a patient's body during a radiation treatment, configured to provide energy data which describe an energy value which is dependent on the radiation energy applied to the patient's body; b) a monitoring device, which is designed to monitor the position of at least a part of a patient's body which is to be treated using treatment radiation and designed to be controlled in accordance with a control data; and c) a treatment device which is designed to emit the treatment radiation used for the radiation treatment; characterised in that: the computer is designed to determine the control data in accordance with the energy data, wherein the control data are designed to control the time at which monitoring is performed in accordance with the energy value; wherein the computer is further designed to determine the control data on the basis of the energy data provided and to issue the control data in order to control the monitoring device. the computer is designed to determine the control data in accordance with the energy data, wherein the control data are designed to control the time at which monitoring is performed in accordance with the energy value; wherein the computer is further designed to determine the control data on the basis of the energy data provided and to issue the control data in order to control the monitoring device.
Utility vehicle, in particular cab-over-engine lorry, having a front axle which has a rigid axle body which is guided via a plurality of longitudinal control arms (3, 4) as control arms spaced apart in the transverse direction, which in each case are articulated on the frame side, in particular on bearing plates (5, 6) fixed to the frame, and having a front bumper in the direction of travel and an underride protection arranged thereunder relative to the direction of the vertical axis, wherein the underride protection is arranged at a defined height, in particular approximately at the height of a passenger motor vehicle bumper, characterized in that the underride protection is supported and/or fastened on one respective retaining element (9, 10), which is configured so as to dissipate impact energy, without direct frame-side support and fastening thereof, on one respective longitudinal control arm (3, 4).
A putty, comprising: (a) a hemostatic biopolymer comprising hydrophobically modified chitosan, (b) polyvinyl alcohol as a secondary polymer, (c) a borate salt ionic crosslinker, and (d) a solvent. (a) a hemostatic biopolymer comprising hydrophobically modified chitosan, (b) polyvinyl alcohol as a secondary polymer, (c) a borate salt ionic crosslinker, and (d) a solvent.
An apparatus for post cure inflation-treatment of a tire, the apparatus comprising: a plurality of vertical columns; a modular frame; a top rim plate, coupled to at least one drive unit, configured to move vertically in one of up and down position; and at least one arm, actuated by at least one arm actuating drive, wherein the modular frame and the plurality of vertical columns are configured to act as structures for mounting the top rim plate, a bottom rim plate mounted on said at least one arm, which in turn is guided on the modular frame, wherein said at least one arm is configured to linearly move with the bottom rim plate in one of an IN position and an OUT position to load and unload the tire, and during the IN position, the at least one arm with the bottom rim plate is concentric with the top rim plate, characterized in that the bottom rim plate is spring loaded to maintain a clearance with the modular frame; the at least one drive unit comprises at least one sensing device for controlling the movement of the top rim plate; and the top rim plate is adapted to move vertically by means of screw and nut means actuated by the at least one drive unit. a plurality of vertical columns; a modular frame; a top rim plate, coupled to at least one drive unit, configured to move vertically in one of up and down position; and at least one arm, actuated by at least one arm actuating drive, wherein the modular frame and the plurality of vertical columns are configured to act as structures for mounting the top rim plate, a bottom rim plate mounted on said at least one arm, which in turn is guided on the modular frame, wherein said at least one arm is configured to linearly move with the bottom rim plate in one of an IN position and an OUT position to load and unload the tire, and during the IN position, the at least one arm with the bottom rim plate is concentric with the top rim plate, characterized in that the bottom rim plate is spring loaded to maintain a clearance with the modular frame; the at least one drive unit comprises at least one sensing device for controlling the movement of the top rim plate; and the top rim plate is adapted to move vertically by means of screw and nut means actuated by the at least one drive unit.
A method of aligning memory access operations to a geometry of single storage devices in a storage array comprising a storage array controller coupled to a plurality of single storage devices via a midplane, the method comprising: receiving, by the storage array controller, information from a single storage device describing the layout of memory in the respective single storage device, which includes a size of a smallest writeable memory unit in the respective single storage device; determining, by the storage array controller, for the single storage device in dependence upon the layout of memory in the respective single storage device, a write size corresponding to the size of the smallest writeable memory unit and a physical address; and sending, by the storage array controller, to the storage device a write request having a size corresponding to the write size and addressed to the physical address within the single storage device. receiving, by the storage array controller, information from a single storage device describing the layout of memory in the respective single storage device, which includes a size of a smallest writeable memory unit in the respective single storage device; determining, by the storage array controller, for the single storage device in dependence upon the layout of memory in the respective single storage device, a write size corresponding to the size of the smallest writeable memory unit and a physical address; and sending, by the storage array controller, to the storage device a write request having a size corresponding to the write size and addressed to the physical address within the single storage device.
An electric heater, comprising: a base (211, 251, 511); and a heatingunit (221, 261), the heating unit (221, 261)having a plurality of unit heating elements (225, 235, 265, 275,525,535) disposed on a plate surface of the base (211, 251,511), and at least one non-heating connection portion (227, 237, 267, 277, 526, 536) configured not to heat and conductively connecting the unit heating elements (225, 235, 265, 275, 525, 535)to each other; characterized in that the heating unit (221, 261) further comprises: a first heating portion (222, 262, 521) of which inner and outer ends thereof form circular shapes and provided with the plurality of unit heating elements (225, 265, 525), each unit heating elements (225, 265, 525) having a bar shape, and a second heating portion (232, 272, 531) disposed radially inside of the first heating portion (222, 262, 521); wherein the non-heating connection portion (227,237, 267, 277, 526, 536,) is formed of a material having a low electrical resistance compared to the unit heating elements (225, 235, 265, 275, 525, 535). a base (211, 251, 511); and a heatingunit (221, 261), the heating unit (221, 261)having a plurality of unit heating elements (225, 235, 265, 275,525,535) disposed on a plate surface of the base (211, 251,511), and at least one non-heating connection portion (227, 237, 267, 277, 526, 536) configured not to heat and conductively connecting the unit heating elements (225, 235, 265, 275, 525, 535)to each other; a first heating portion (222, 262, 521) of which inner and outer ends thereof form circular shapes and provided with the plurality of unit heating elements (225, 265, 525), each unit heating elements (225, 265, 525) having a bar shape, and a second heating portion (232, 272, 531) disposed radially inside of the first heating portion (222, 262, 521); wherein the non-heating connection portion (227,237, 267, 277, 526, 536,) is formed of a material having a low electrical resistance compared to the unit heating elements (225, 235, 265, 275, 525, 535).
A method of operating an integrated circuit-based electronic control system to control an engine to propel a vehicle, the method comprising: receiving a throttle command with the ECS; determining with the ECS an operation to increase engine cycle efficiency for a look-ahead horizon of vehicle operating conditions by reducing engine torque below a magnitude corresponding to the throttle command and below a torque curve limit over a first vehicle operation segment and permitting an increase in engine torque above the torque curve limit over a second vehicle operation segment, the first vehicle operation segment and the second vehicle operation segment comprising respective portions of the look-ahead horizon; controlling the engine to output torque below the magnitude corresponding to the throttle command and below the torque curve limit over the first vehicle operation segment; and controlling the engine to output torque above the torque curve limit over the second vehicle operation segment in response to a second throttle command received by the ECS and constrained by an extended limit on operation of the engine above the torque curve limit. receiving a throttle command with the ECS; determining with the ECS an operation to increase engine cycle efficiency for a look-ahead horizon of vehicle operating conditions by reducing engine torque below a magnitude corresponding to the throttle command and below a torque curve limit over a first vehicle operation segment and permitting an increase in engine torque above the torque curve limit over a second vehicle operation segment, the first vehicle operation segment and the second vehicle operation segment comprising respective portions of the look-ahead horizon; controlling the engine to output torque below the magnitude corresponding to the throttle command and below the torque curve limit over the first vehicle operation segment; and controlling the engine to output torque above the torque curve limit over the second vehicle operation segment in response to a second throttle command received by the ECS and constrained by an extended limit on operation of the engine above the torque curve limit.