mhurhangee/ep-ind-claims huggingface dataset:
A method for positioning a calibration fixture relative to a vehicle during a vehicle service procedure, said method comprising: establishing an axis along which said calibration fixture is to be positioned, said axis being aligned relative to a feature of the vehicle; projecting an illuminating beam of light along said established axis; identifying - along said established axis - a specific location on the floor for said calibration fixture; wherein said step of identifying said specific location - along said established axis - includes disposing said calibration fixture at a position on a floor along said axis; determining a distance between said calibration fixture and a reference point associated with the vehicle; and responsive to said determined distance altering said position on the floor of said calibration fixture - along said axis - to achieve placement of said calibration fixture at said specific location on the floor; and disposing said calibration fixture at said identified specific location for calibration of a vehicle onboard sensor having a field of view encompassing said specific location; said method further including coupling an optical projector to a front steerable wheel assembly of the vehicle; projecting - from said optical projector - said illuminating beam of light; and steering said front steerable wheel assembly to align said illuminating beam of light with said established axis to guide disposition of said calibration fixture along said axis. establishing an axis along which said calibration fixture is to be positioned, said axis being aligned relative to a feature of the vehicle; projecting an illuminating beam of light along said established axis; identifying - along said established axis - a specific location on the floor for said calibration fixture; wherein said step of identifying said specific location - along said established axis - includes disposing said calibration fixture at a position on a floor along said axis; determining a distance between said calibration fixture and a reference point associated with the vehicle; and responsive to said determined distance altering said position on the floor of said calibration fixture - along said axis - to achieve placement of said calibration fixture at said specific location on the floor; and disposing said calibration fixture at said identified specific location for calibration of a vehicle onboard sensor having a field of view encompassing said specific location; said method further including coupling an optical projector to a front steerable wheel assembly of the vehicle; projecting - from said optical projector - said illuminating beam of light; and steering said front steerable wheel assembly to align said illuminating beam of light with said established axis to guide disposition of said calibration fixture along said axis.
A method for assigning uplink acknowledgement, ACK, resources for a user equipment in a wireless communication system, comprising: identifying a UE for which a persistent assignment of communication resources is to be established; identifying uplink ACK resources for use by the identified UE; communicating an explicit assignment of the identified uplink ACK resources with a persistent assignment of communication resources to the UE; and allocating uplink ACK resources for one or more UEs with persistent resource assignments and one or more UEs that are scheduled via respective control channels, wherein the allocating comprises creating a common pool of uplink ACK resources that is shared by UEs with persistent resource assignments and UEs that are scheduled via respective control channels and wherein UEs are grouped such that UEs with persistent resource assignments occupy one portion of the common pool of uplink ACK resources and UEs that are scheduled via respective control channels occupy a another portion of the common pool of uplink ACK resources; characterised by: maintaining a first index set for persistent resource assignments to respective UEs; maintaining a second index set for control channels utilized for scheduling respective UEs; indexing respective uplink ACK resources in the common pool of uplink ACK resources; and assigning ACK resources to a UE that is scheduled with a control channel at least in part by transmitting an index of the control channel as maintained in the second index set and an offset amount of ACK resources assigned to UEs with respective persistent resource assignments to the UE. identifying a UE for which a persistent assignment of communication resources is to be established; identifying uplink ACK resources for use by the identified UE; communicating an explicit assignment of the identified uplink ACK resources with a persistent assignment of communication resources to the UE; and allocating uplink ACK resources for one or more UEs with persistent resource assignments and one or more UEs that are scheduled via respective control channels, wherein the allocating comprises creating a common pool of uplink ACK resources that is shared by UEs with persistent resource assignments and UEs that are scheduled via respective control channels and wherein UEs are grouped such that UEs with persistent resource assignments occupy one portion of the common pool of uplink ACK resources and UEs that are scheduled via respective control channels occupy a another portion of the common pool of uplink ACK resources; maintaining a first index set for persistent resource assignments to respective UEs; maintaining a second index set for control channels utilized for scheduling respective UEs; indexing respective uplink ACK resources in the common pool of uplink ACK resources; and assigning ACK resources to a UE that is scheduled with a control channel at least in part by transmitting an index of the control channel as maintained in the second index set and an offset amount of ACK resources assigned to UEs with respective persistent resource assignments to the UE.
Enclosure for enclosing a cuboid penetration, in particular a chimney, at a passage of the penetration through a roof surface, comprising a first and a second enclosure part (2, 3), wherein the first enclosure part has first guide profiles on mutually parallel opposite edges of a first cover plate and the second enclosure part has second guide profiles on mutually parallel opposite edges of a second cover plate, wherein the first guide profiles and the second guide profiles are adapted to guide the first enclosure part and the second enclosure part slidingly against one another, wherein the first and second enclosure parts (2, 3) each have lateral wall parts (11, 12) projecting along the first and second guide profiles (6, 9) from the first and second cover plates (5, 8) and adapted to be slidably guided against each other, and wherein at the second enclosure part between the lateral wall parts a rear wall detachably connected to the lateral wall parts projects from the second cover plate, characterized in that at the first enclosure part between the lateral wall parts a movable front wall projects from the first cover plate.
Method for creating an inverted puff pastry dough or croissant dough, comprising the steps of: A. Creating a laminate extending in a length and a width direction by: A1. Providing a first layer of a mixture of fat such as margarine or butter and flour or starch on a substrate; A2. Providing at least one layer of base dough on top of the mixture; A4. Providing a second layer of a mixture of fat such as margarine or butter and flour or starch on top of the dough layer; B. Cutting the thus obtained laminate in the width direction, as to obtain multiple laminate pieces; C. Stacking the laminate pieces in a partly-overlapping manner in the length direction, while essentially aligning them in the width direction; and E. Rolling the stacked laminate pieces a first time in a rolling direction in or against the length direction, thus obtaining an inverted puff pastry dough or croissant dough. A. Creating a laminate extending in a length and a width direction by: A1. Providing a first layer of a mixture of fat such as margarine or butter and flour or starch on a substrate; A2. Providing at least one layer of base dough on top of the mixture; A4. Providing a second layer of a mixture of fat such as margarine or butter and flour or starch on top of the dough layer; A1. Providing a first layer of a mixture of fat such as margarine or butter and flour or starch on a substrate; A2. Providing at least one layer of base dough on top of the mixture; A4. Providing a second layer of a mixture of fat such as margarine or butter and flour or starch on top of the dough layer; B. Cutting the thus obtained laminate in the width direction, as to obtain multiple laminate pieces; C. Stacking the laminate pieces in a partly-overlapping manner in the length direction, while essentially aligning them in the width direction; and E. Rolling the stacked laminate pieces a first time in a rolling direction in or against the length direction, thus obtaining an inverted puff pastry dough or croissant dough.
A three-position disconnector switch, comprising: - an earthing contact; - a power out contact; - a power in contact; - a first piston; and - a second piston; wherein, in a connected switch position: the first piston is configured to make an electrical connection with the power out contact and the second piston is configured to make an electrical connection with the power out contact and the power in contact, and wherein in the connected switch position a distance between a first end of the first piston and the power in contact is less than a distance between a second end of the first piston and the earthing contact; wherein, in a disconnected switch position: the first piston is configured to make an electrical connection with the power out contact and the second piston is configured to make an electrical connection with the power out contact; wherein, in an earthed switch position: the first piston is configured to make an electrical connection with the earthing contact and with the power out contact and the second piston is configured to make an electrical connection with the power out contact. - an earthing contact; - a power out contact; - a power in contact; - a first piston; and - a second piston; wherein, in a connected switch position: the first piston is configured to make an electrical connection with the power out contact and the second piston is configured to make an electrical connection with the power out contact and the power in contact, and wherein in the connected switch position a distance between a first end of the first piston and the power in contact is less than a distance between a second end of the first piston and the earthing contact; wherein, in a disconnected switch position: the first piston is configured to make an electrical connection with the power out contact and the second piston is configured to make an electrical connection with the power out contact; wherein, in an earthed switch position: the first piston is configured to make an electrical connection with the earthing contact and with the power out contact and the second piston is configured to make an electrical connection with the power out contact.
Immersion detector equipped with a thermoresistive sensor comprising at least two temperature probes (31, 32) protruding from a base while extending in elevation along an elevation direction, said thermoresistive sensor comprising a first control and measurement unit connected to each temperature probe (31, 32), the first control and measurement unit being adapted to generate, as a function of a temperature of each temperature probe (31, 32), a first immersion information item when said thermoresistive sensor is immersed in a fluid, characterized in that said immersion detector comprises a capacitive sensor, said capacitive sensor having an electrical capacitor equipped with at least one metal armature protruding from said base while extending in elevation, said capacitive sensor having a second control and measurement unit connected to the capacitor, the second control and measurement unit being adapted to generate, as a function of an electrical capacitance of said capacitor, a second immersion information item when said capacitive sensor is immersed in said fluid, said immersion detector having a processing unit in communication with the first control and measurement unit and the second control and measurement unit in order to generate and emit an output signal indicating an immersion of said immersion detector in the presence of the first immersion information item and the second immersion information item, said immersion detector having a cap surrounding said temperature probes (31, 32) and said capacitor, said cap comprising orifices which place said temperature probes (31, 32) and said capacitor in fluidic communication with an external medium surrounding said immersion detector.
A composition for use in treating amyotrophic lateral sclerosis in a mammalian subject, wherein said composition comprises a synergistic combination of celecoxib and ciprofloxacin, wherein the celecoxib to ciprofloxacin ratio ranges from 1:10 to 1:200 (wt/wt).
A current driver for a diode system, comprising a current regulator that is configured to receive from a power supply a fixed bias voltage, wherein the bias voltage shifts a compliance voltage range of the current regulator to include a knee voltage of a diode load, and wherein the bias voltage has a value that corresponds to a lower bound of the shifted compliance voltage range; and a switch element that is connected in series with the current regulator and the diode load and is coupled to the bias voltage, to the current regulator and to the diode load, the switch element being configured to detect a voltage level that is output by the current regulator to supply drive current to the diode load, wherein the switch element has (a) a high impedance when the voltage level that is output by the current regulator to supply drive current to the diode load is less than the value of the bias voltage and (b) a low impedance when the voltage level that is output by the current regulator to supply drive current to the diode load is greater than a sum of a threshold voltage value (VSGT) associated with the switch element and the value of the bias voltage.
Method for continuous production of a multi-layer strip-shaped composite material, comprising the steps of: (i) providing a carrier material, which is continuously moved in a transport direction and which consists of a basic substance of steel and has in cross-section a central surface bounded at both sides by elevated side edges, and (ii) applying at least one liquid plating material (P-f), which consists of a plating substance, from above to the surface of the moved carrier material between the elevated side edges, wherein a closed composite forms by hardening of the liquid plating material on the carrier material, characterised in that the carrier material is produced in step (i) by a first casting machine as a continuous strip of molten steel, wherein a thin slab forms by hardening from the strip produced by the first casting machine, and in a step (iii) the closed composite formed from the carrier material and the plating material (P-e) hardened thereon is subjected to hot rolling so that a single strip-shaped composite material or hot strip consisting of the basic substance and the plating substance thereby continuously arises through roll-bonding. (i) providing a carrier material, which is continuously moved in a transport direction and which consists of a basic substance of steel and has in cross-section a central surface bounded at both sides by elevated side edges, and (ii) applying at least one liquid plating material (P-f), which consists of a plating substance, from above to the surface of the moved carrier material between the elevated side edges, wherein a closed composite forms by hardening of the liquid plating material on the carrier material, the carrier material is produced in step (i) by a first casting machine as a continuous strip of molten steel, wherein a thin slab forms by hardening from the strip produced by the first casting machine, and in a step (iii) the closed composite formed from the carrier material and the plating material (P-e) hardened thereon is subjected to hot rolling so that a single strip-shaped composite material or hot strip consisting of the basic substance and the plating substance thereby continuously arises through roll-bonding.
Electrically heatable sock having a foot part and a leg part abutting thereon, at least one heating element being disposed on the foot part and being connected via supply lines to terminals for a voltage supply which has a battery, the terminals being disposed in the upper region of the leg part, characterised in that a cuff which can be folded over is disposed at the upper end of the leg part, the terminals being attached and formed on the side of the cuff situated inside in the folded-over state in order to fix the battery in the correct position in the folded-over state of the cuff and to retain it at least partially.
A fluid ejection die comprising: a plurality of actuators; a number of actuator sensors disposed on the fluid ejection die to sense a characteristic of a corresponding actuator and output a first voltage corresponding to the sensed characteristic, wherein: each actuator sensor is coupled to a respective actuator; characterised in that multiple coupled actuator sensors and actuators are grouped as primitives on the fluid ejection die; a pre-charge device (106, 218, 400, 440) per primitive to pre-charge a corresponding threshold voltage storage device to a threshold voltage; and an actuator evaluation device (106, 108) per primitive to evaluate an actuator characteristic of any actuator within the primitive based on the first voltage and a pre-charged threshold voltage. a plurality of actuators; a number of actuator sensors disposed on the fluid ejection die to sense a characteristic of a corresponding actuator and output a first voltage corresponding to the sensed characteristic, wherein: each actuator sensor is coupled to a respective actuator; characterised in that multiple coupled actuator sensors and actuators are grouped as primitives on the fluid ejection die; a pre-charge device (106, 218, 400, 440) per primitive to pre-charge a corresponding threshold voltage storage device to a threshold voltage; and an actuator evaluation device (106, 108) per primitive to evaluate an actuator characteristic of any actuator within the primitive based on the first voltage and a pre-charged threshold voltage. each actuator sensor is coupled to a respective actuator; characterised in that multiple coupled actuator sensors and actuators are grouped as primitives on the fluid ejection die; a pre-charge device (106, 218, 400, 440) per primitive to pre-charge a corresponding threshold voltage storage device to a threshold voltage; and an actuator evaluation device (106, 108) per primitive to evaluate an actuator characteristic of any actuator within the primitive based on the first voltage and a pre-charged threshold voltage.
An automatic coffee maker with a tube valve which has a passage tube (2, 2') for liquids and/or gases and at least one pinch jaw (17a, 17b) for controlling a throughput through the passage tube (2, 2') and a direction changing device (5, 6, 7) which changes an orientation of the passage tube (2, 2') during operation, characterized by a mechanical coupling of the pinch jaw (17a, 17b) with the direction changing device (5, 6, 7), the mechanical coupling being configured such that a change of direction of the passage tube is carried out depending on the setting of the pinch jaw and/or a resetting of the direction changing device results in a corresponding change of position of the pinch jaw.
A light detection and ranging (LIDAR) device, comprising: a lens mounted to a housing (110; 210; 310), wherein the housing has an interior space that includes a transmit block (120; 220; 320; 420), a receive block (130; 230; 330; 630), a transmit path, and a receive path, wherein the transmit block has an exit aperture (124; 226; 426), wherein the receive block has an entrance aperture (134; 234), which is separate to the exit aperture of the transmit block, wherein the transmit path extends from the exit aperture to the lens, wherein the receive path extends from the lens to the entrance aperture, and wherein the transmit path at least partially overlaps the receive path in the interior space between the transmit block and the receive block; a plurality of light sources in the transmit block, wherein the plurality of light sources are configured to emit a plurality of light beams through the exit aperture in a plurality of different directions; a plurality of detectors in the receive block, wherein the plurality of detectors are configured to detect light; and wherein the lens is configured to receive the light beams via the transmit path, collimate the light beams for transmission into an environment of the LIDAR device, collect light comprising light from one or more of the collimated light beams reflected by one or more objects in the environment of the LIDAR device, and focus the collected light onto the detectors via the receive path. a lens mounted to a housing (110; 210; 310), wherein the housing has an interior space that includes a transmit block (120; 220; 320; 420), a receive block (130; 230; 330; 630), a transmit path, and a receive path, wherein the transmit block has an exit aperture (124; 226; 426), wherein the receive block has an entrance aperture (134; 234), which is separate to the exit aperture of the transmit block, wherein the transmit path extends from the exit aperture to the lens, wherein the receive path extends from the lens to the entrance aperture, and wherein the transmit path at least partially overlaps the receive path in the interior space between the transmit block and the receive block; a plurality of light sources in the transmit block, wherein the plurality of light sources are configured to emit a plurality of light beams through the exit aperture in a plurality of different directions; a plurality of detectors in the receive block, wherein the plurality of detectors are configured to detect light; and wherein the lens is configured to receive the light beams via the transmit path, collimate the light beams for transmission into an environment of the LIDAR device, collect light comprising light from one or more of the collimated light beams reflected by one or more objects in the environment of the LIDAR device, and focus the collected light onto the detectors via the receive path.