mhurhangee/ep-ind-claims huggingface dataset:
Transmission device for embossing rollers, comprising a pin destined to be axially inserted into one end of an embossing roller, the said pin being motorized to drag the embossing roller in rotation when it is inserted in said end, said pin being is supported by elastic means (M1, M2, G) which allow its automatic alignment with a longitudinal axis (r) of the said end of the embossing roller during insertion of the pin into the same end, characterized in that said elastic means are constituted by springs (M1, M2) which allow to a base to move in height in order to align the said pin with the said end, the said base being mounted on guides so as to be able to slide horizontally, on command, for a run of predetermined length, in the sense that distances or approaches the said pin to the said end respectively so as to remove or making the connection between them, and the said pin being constituted by an end of a shaft driven by a motor fixed on said base.
A water-soluble liquid-containing pouch wherein the water-soluble pouch is made from a film comprising a co-polymer of vinyl alcohol and dicarboxylic acid, wherein the dicarboxylic acid is itaconic acid and characterised in that the liquid contained within the pouch comprises dissolved ionic components selected from the group consisting of carboxylates, phosphonates, and mixtures thereof, and has a pH of less than 8, and wherein the liquid comprises less 25wt% water.
Device forming a tap, in particular an electronic tap for a washbasin, in particular for high frequency use, which defines a water circuit between a water inlet point (8, 9) and a water outlet point and which comprises opening/closing means for the water circuit, comprising a baseplate, in particular for fixing to a basin, the baseplate, the water circuit between the water inlet point and the water outlet point and the opening/closing device being assembled in a base element referred to as a technical element, a shell being provided which forms the outer casing of the tap and which comprises a water inlet opening and a water outlet opening, the shell covering the technical element such that the water outlet is facing the water outlet opening and the baseplate is facing the water inlet opening, characterized in that the shell is fixed to the baseplate in a detachable manner at the level of the inlet opening by detachable securing means such that the shell can be removed to enable free access to the so-called technical element without having to disconnect the technical element from the water supply network, the functioning of the technical element being independent of whether the shell is fixated or not to the base plate. comprising a baseplate, in particular for fixing to a basin, the baseplate, the water circuit between the water inlet point and the water outlet point and the opening/closing device being assembled in a base element referred to as a technical element, a shell being provided which forms the outer casing of the tap and which comprises a water inlet opening and a water outlet opening, the shell covering the technical element such that the water outlet is facing the water outlet opening and the baseplate is facing the water inlet opening, characterized in that the shell is fixed to the baseplate in a detachable manner at the level of the inlet opening by detachable securing means such that the shell can be removed to enable free access to the so-called technical element without having to disconnect the technical element from the water supply network, the functioning of the technical element being independent of whether the shell is fixated or not to the base plate.
A semiconductor light emitting device comprising: a light emitting structure comprising a plurality of compound semiconductor layers (110,120,130); an electrode layer on the light emitting structure; a conductive support member on the electrode layer; a conductive layer formed along a peripheral portion of an upper surface of the light emitting structure; and an insulating layer on the conductive layer disposed along the peripheral portion of the upper surface of the light emitting structure, wherein the light emitting structure comprises: a first conductivity type semiconductor layer; an active layer on the first conductivity type semiconductor layer; and a second conductivity-type semiconductor layer between the active layer and the electrode layer, wherein a portion of the conductive layer makes contact with the electrode layer, wherein the conductive layer is a transparent material, and wherein the thickness of the insulating layer is equal to or greater than the thickness of the electrode layer and is smaller than the thickness of the conductive support member. a light emitting structure comprising a plurality of compound semiconductor layers (110,120,130); an electrode layer on the light emitting structure; a conductive support member on the electrode layer; a conductive layer formed along a peripheral portion of an upper surface of the light emitting structure; and an insulating layer on the conductive layer disposed along the peripheral portion of the upper surface of the light emitting structure, wherein the light emitting structure comprises: a first conductivity type semiconductor layer; an active layer on the first conductivity type semiconductor layer; and a second conductivity-type semiconductor layer between the active layer and the electrode layer, a first conductivity type semiconductor layer; an active layer on the first conductivity type semiconductor layer; and a second conductivity-type semiconductor layer between the active layer and the electrode layer, wherein a portion of the conductive layer makes contact with the electrode layer, wherein the conductive layer is a transparent material, and wherein the thickness of the insulating layer is equal to or greater than the thickness of the electrode layer and is smaller than the thickness of the conductive support member.
A heatable asphalt container with the asphalt container comprising electric heating elements, characterized in that the asphalt container comprises an outlet slider, which exhibits at least one electric heating element, with the outlet slider comprising at least one heating chamber for receiving the at least one electric heating element.
A method for determining an end time of uplink back propagation in a mobile communication system, comprising the following steps: sending, by a source base station, data with consecutive sequence numbers in a buffer of a packet data convergence protocol, PDCP, module to a serving gateway, S-GW, via an S1 tunnel; sending, by the source base station, data with inconsecutive sequence numbers, which is from data with a first inconsecutive sequence number to last data in the buffer of the PDCP module, to a target base station via an uplink back propagation tunnel; the method further comprising: generating, by the source base station, an end marker datagram after the source base station has sent the data with inconsecutive sequence numbers; sending, by the source base station, the end marker datagram to the target base station via the uplink back propagation tunnel; and receiving, by the target base station, the end marker datagram and determining that the uplink back propagation has ended. sending, by a source base station, data with consecutive sequence numbers in a buffer of a packet data convergence protocol, PDCP, module to a serving gateway, S-GW, via an S1 tunnel; sending, by the source base station, data with inconsecutive sequence numbers, which is from data with a first inconsecutive sequence number to last data in the buffer of the PDCP module, to a target base station via an uplink back propagation tunnel; the method further comprising: generating, by the source base station, an end marker datagram after the source base station has sent the data with inconsecutive sequence numbers; sending, by the source base station, the end marker datagram to the target base station via the uplink back propagation tunnel; and receiving, by the target base station, the end marker datagram and determining that the uplink back propagation has ended. generating, by the source base station, an end marker datagram after the source base station has sent the data with inconsecutive sequence numbers; sending, by the source base station, the end marker datagram to the target base station via the uplink back propagation tunnel; and receiving, by the target base station, the end marker datagram and determining that the uplink back propagation has ended.
A method of managing a room, comprising: associating a mobile device with the room; determining an occupancy state of the room by analyzing a combination of a door state and motion activity within the room, and/or by analyzing a mobile device location; determining, at a first time, a first location of the mobile device, wherein determining the first location comprises sending a message from the mobile device to an administrative device (108, 224) of the room, the message reporting at least a physical location of the mobile device, wherein the message is sent in response to a request sent by the administrative device (108, 224) on a programmed and/or timed basis when it is determined that an occupant has left the room; and controlling an energy use of the room based at least partially on the first location of the mobile device. associating a mobile device with the room; determining an occupancy state of the room by analyzing a combination of a door state and motion activity within the room, and/or by analyzing a mobile device location; determining, at a first time, a first location of the mobile device, wherein determining the first location comprises sending a message from the mobile device to an administrative device (108, 224) of the room, the message reporting at least a physical location of the mobile device, wherein the message is sent in response to a request sent by the administrative device (108, 224) on a programmed and/or timed basis when it is determined that an occupant has left the room; and controlling an energy use of the room based at least partially on the first location of the mobile device.
An anchor for connecting two components (10A, 10B) that move,relative to one another to two anchoring elements (12A, 12B), whereof at least one of the anchoring elements is connected in an articulated manner, in particular in a ball-like manner, to a connecting element, serving as a compensating part, with the aid of a thickened portion (18A, 18B) partially gripped in an articulated manner, characterised in that a separate prefabricated hinge socket element (16A, 16B, 16C), with a first end region preformed into a hinge socket and an opposite second end region preformed into a fixing element, is arranged in at least one of the connecting zones (13A, 13B) located between the connecting element and the anchoring elements (12A, 12B), the thickened portion (18A, 18B) provided on the anchoring element (12A, 12B) or on the connecting element in at least one of the respective connecting zones (13A, 13B) is partially gripped in an articulated manner by the preformed first end region of the associated separate prefabricated hinge socket element (16A, 16B) and the at least one separately prefabricated hinge socket element (16A, 16B) is or can be rigidly connected by means of its preformed second end region to the connecting element or to at least one of the anchoring elements (12A, 12B).
A communication assist apparatus comprising: a stimulus-presenting apparatus; and a processing apparatus that processes brain wave data from an electroencephalograph that measures a brain wave of a user after stimulus presentation to the user by the stimulus-presenting apparatus, characterized in that the processing apparatus determines that a specific intention decision has been made in the brain on the basis of a discriminant function obtained by analyzing the brain wave data and a success rate, the success rate for a certain number of times of stimulus presentation being obtained by discriminant analysis of data obtained in a training session, wherein the processing apparatus determines that the specific intention decision has been made in the brain when the product of an accumulated discrimination score according to the discriminant function obtained by analyzing the brain wave data and the success rate exceeds a threshold value, and then outputs a determination result to a device. a stimulus-presenting apparatus; and a processing apparatus that processes brain wave data from an electroencephalograph that measures a brain wave of a user after stimulus presentation to the user by the stimulus-presenting apparatus, characterized in that the processing apparatus determines that a specific intention decision has been made in the brain on the basis of a discriminant function obtained by analyzing the brain wave data and a success rate, the success rate for a certain number of times of stimulus presentation being obtained by discriminant analysis of data obtained in a training session, wherein the processing apparatus determines that the specific intention decision has been made in the brain when the product of an accumulated discrimination score according to the discriminant function obtained by analyzing the brain wave data and the success rate exceeds a threshold value, and then outputs a determination result to a device.
Volume flow regulator assembly comprising a volume flow regulator configured to be built into a ventilation line, the volume flow regulator having a tubular casing, a throttle member that is movably arranged in the casing, and an actuator mounted on the outside of the casing for adjusting the throttle member, characterized by a connector box having an access opening that is exposed in an installed condition of the assembly, and by an adapter sleeve having a receiving section in which the volume flow regulator is slidably accommodated, the adapter sleeve further having a connector section axially adjacent to the receiving section and adapted to be connected to a socket of the connector box, wherein the internal diameter of the connector section and the internal diameter of the socket as well as the width of the access opening in the direction transverse to the axis of the socket are larger than the external diameter of the casing of the volume flow regulator.
An ultrasonic motor comprising a waveguide resonator in the form of an ultrasonic actuator consisting of a polarized piezoelectric material, at least one friction element arranged on the ultrasonic actuator, an element (8, 12) to be driven by the friction element, and an electric excitation device, wherein the ultrasonic actuator has a plate-shaped geometry with a length L, a height H and a thickness T, two main faces (20, 21) which are largest in area, two longer side faces and two shorter side faces, the latter defining end faces, and comprises generators (17, 22) for acoustic ultrasonic standing waves, each of said generators being defined by the piezoelectric material having at least one excitation electrode (18, 23, 180, 181, 230, 231) arranged thereon and at least one general electrode (19, 24, 190, 191, 240, 241) arranged thereon, and the ultrasonic actuator is divided into three generator segments in the direction of its length L, wherein the central generator segment comprises a first generator for generating a longitudinal acoustic standing wave, and the two peripheral generator segments, which adjoin the central generator segment on both sides, each comprise a second generator for generating a flexural acoustic standing wave, wherein at least each second generator comprises excitation electrodes (23, 230, 231) and general electrodes (24, 240, 241) in the form of thin strips, which are arranged on the two main faces of the ultrasonic actuator in alternate sequence and, when seen in the longitudinal direction, are spaced apart from one another and parallel to one another and which extend in the direction of the height H of the ultrasonic actuator, and that the piezoelectric material of the second generators is polarized such that the polarization vectors are oriented parallel to the oscillation plane of the flexural acoustic standing wave so that the d33 piezo-module can be used for generating the flexural acoustic standing wave, characterized in that the excitation electrodes (23, 230, 231) and the general electrodes (24, 240, 241) of the second generators extend in the direction of the height H of the ultrasonic actuator, perpendicular to the longitudinal dimensions L of the ultrasonic motor.
A method for a circuit for driving an infrared transmitter LED with temperature compensation comprising the following steps: providing of one or more LED diodes (2,3) and a battery voltage (VBAT), providing an analog-to-digital converter, having two Inputs (DIO_DIV, BAT_DIV) wherein a first input (DIO_DIV) is receiving diode voltages differentlal measurements results and a second input (BAT-DIV) is receiving a measurement of the battery voltage, a LED driver comprising a resistive digital-to-analog converter structure controlling a current through the diodes, a circuit (R 1, R 2, 23; R1, R2/2, R2/2,22) measuring a battery voltage and a difference of forward diode voltages, a programmable current sink, a circuit for offset cancellation (SW2, SW3, R1, R2/2, R2, 22, 23, 24), and a circuit (40, 41) compensating a resistor load caused by resistive voltage dividers used by said circuit measuring a batery voltage and a difference of garward diode voltages; calibrating the analog-to-digital converter by measuring and cancelling an offset between both inputs (DIO_DIV, BAT, DIV) of the ADC In order to determine differences in the related measurements circuits wherein the ADC measurement of this calibration step is subtracted from subsequent measurements; determining if the battery voltage Is in an acceptable range; determining temperature dependency of the forward voltage of said one or more LEDs (2, 3) by comparing the forward voltages when switching a drive current between two constant current values; and adjusting a driver current of said one or more LEDs according to the temperature dependency determined. providing of one or more LED diodes (2,3) and a battery voltage (VBAT), providing an analog-to-digital converter, having two Inputs (DIO_DIV, BAT_DIV) wherein a first input (DIO_DIV) is receiving diode voltages differentlal measurements results and a second input (BAT-DIV) is receiving a measurement of the battery voltage, a LED driver comprising a resistive digital-to-analog converter structure controlling a current through the diodes, a circuit (R 1, R 2, 23; R1, R2/2, R2/2,22) measuring a battery voltage and a difference of forward diode voltages, a programmable current sink, a circuit for offset cancellation (SW2, SW3, R1, R2/2, R2, 22, 23, 24), and a circuit (40, 41) compensating a resistor load caused by resistive voltage dividers used by said circuit measuring a batery voltage and a difference of garward diode voltages; calibrating the analog-to-digital converter by measuring and cancelling an offset between both inputs (DIO_DIV, BAT, DIV) of the ADC In order to determine differences in the related measurements circuits wherein the ADC measurement of this calibration step is subtracted from subsequent measurements; determining if the battery voltage Is in an acceptable range; determining temperature dependency of the forward voltage of said one or more LEDs (2, 3) by comparing the forward voltages when switching a drive current between two constant current values; and adjusting a driver current of said one or more LEDs according to the temperature dependency determined.
A method of wireless communications at a user equipment, UE, comprising: receiving, from a base station, a radio resource control, RRC, configuration indicating multiple UE-specific UCI resource sets that are subsets of a resource pool of the base station; receiving, from the base station, a physical downlink control channel, PDCCH, including a corresponding acknowledgement/non-acknowledgement, ACK/NACK, resource configuration; selecting a UE-specific UCI resource set from the multiple UE-specific UCI resource sets for transmitting UCI on a PUCCH based, at least in part, on an uplink channel information, UCI, payload size; determining, at the UE, one or more ACK/NACK resources from the selected UE-specific UCI resource set for the PUCCH, based, at least in part, on the ACK/NACK resource configuration; receiving, from the base station, user data on a physical downlink shared channel, PDSCH; and transmitting, from the UE to the base station, an ACK/NACK on the PUCCH for the PDSCH on at least one of the one or more ACK/NACK resources determined based at least in part on the ACK/NACK resource configuration. receiving, from a base station, a radio resource control, RRC, configuration indicating multiple UE-specific UCI resource sets that are subsets of a resource pool of the base station; receiving, from the base station, a physical downlink control channel, PDCCH, including a corresponding acknowledgement/non-acknowledgement, ACK/NACK, resource configuration; selecting a UE-specific UCI resource set from the multiple UE-specific UCI resource sets for transmitting UCI on a PUCCH based, at least in part, on an uplink channel information, UCI, payload size; determining, at the UE, one or more ACK/NACK resources from the selected UE-specific UCI resource set for the PUCCH, based, at least in part, on the ACK/NACK resource configuration; receiving, from the base station, user data on a physical downlink shared channel, PDSCH; and transmitting, from the UE to the base station, an ACK/NACK on the PUCCH for the PDSCH on at least one of the one or more ACK/NACK resources determined based at least in part on the ACK/NACK resource configuration.
A training ammunition cartridge comprising a projectile mounted on a cartridge case with a pyrotechnic propellant, the projectile having a projectile body with adequate structural integrity to withstand set-back forces that are applied when the projectile is fired from a gun, said projectile body having at least one compartment therein forming a void, wherein the void is containing a material that transitions from a solid to a liquid after set-back and after the projectile exits from a barrel of the gun, wherein the void is of such configuration as to cause the liquid material therein to induce forces and moments that, after a period of stable ballistic flight, destabilize the projectile and shorten its flight, characterized in that said material housed in said void transitions from a solid to a liquid upon reaching an elevated temperature above a storage and operational temperature of the ammunition cartridge.
Method for controlling a labelling device, wherein the labelling device is part of a block system that furthermore comprises a supply device for supplying the articles to be labelled, characterized in that the method comprises the following steps: Supply of a predetermined number of articles by the supply device wherein the labelling device and the supply device are operated at a first operating speed; Automatic delivery of the predetermined number of articles to the labelling device; Decoupling of a drive of the labelling device from a drive of the supply device; and Operation of the labelling device at a different, second operating speed. Supply of a predetermined number of articles by the supply device wherein the labelling device and the supply device are operated at a first operating speed; Automatic delivery of the predetermined number of articles to the labelling device; Decoupling of a drive of the labelling device from a drive of the supply device; and Operation of the labelling device at a different, second operating speed.