mhurhangee/ep-ind-claims huggingface dataset:
A haptic actuator for transmitting heat and mechanical vibrations to an adjacent surface, the haptic actuator comprising: a heating membrane including an external surface and an internal surface opposite the external surface; one or more supports contacting the internal surface of the heating membrane, wherein the one or more supports are constructed and arranged to transmit mechanical vibrations to the heating membrane, wherein a contact area between the internal surface of the heating membrane and the one or more supports is less than a surface area of the internal surface of the heating membrane; a body; and an actuator disposed in the body, wherein the actuator is constructed and arranged to apply mechanical vibrations to the one or more supports, and wherein the one or more supports physically separate and support the heating membrane relative to the body. a heating membrane including an external surface and an internal surface opposite the external surface; one or more supports contacting the internal surface of the heating membrane, wherein the one or more supports are constructed and arranged to transmit mechanical vibrations to the heating membrane, wherein a contact area between the internal surface of the heating membrane and the one or more supports is less than a surface area of the internal surface of the heating membrane; a body; and an actuator disposed in the body, wherein the actuator is constructed and arranged to apply mechanical vibrations to the one or more supports, and wherein the one or more supports physically separate and support the heating membrane relative to the body.
A curable adhesive composition comprising: (a) a first syrup polymer formed from a first reaction mixture, the first reaction mixture comprising a non-tertiary alkyl acrylate; and an acid-functionalized ethylenically unsaturated monomer; and wherein the first syrup polymer comprises (i) 1 to 30 weight percent of a partially polymerized acid-functionalized (meth)acrylate copolymer based on a total weight of monomers in the first reaction mixture, wherein the partially polymerized acid-functionalized (meth)acrylate copolymer has a weight average molecular weight greater than 500,000 grams/mole (Daltons), determined by GPC as described in the specification; and (ii) 70 to 99 weight percent of un-reacted monomers based on the total weight of monomers in the first reaction mixture; and (b) a (meth)acrylate tackifier having a weight average molecular weight greater than 20,000 grams/mole (Daltons) but no greater than 200,000 grams/mole (Daltons), determined bx GPC as described in the specification and having a glass transition temperature no greater than 20°C, determined by DSC as described in the specification, wherein the (meth)acrylate tackifier is dissolved in the first syrup polymer; (c) an ultraviolet photoinitiator; and (d) a crosslinker. (a) a first syrup polymer formed from a first reaction mixture, the first reaction mixture comprising a non-tertiary alkyl acrylate; and an acid-functionalized ethylenically unsaturated monomer; and wherein the first syrup polymer comprises (i) 1 to 30 weight percent of a partially polymerized acid-functionalized (meth)acrylate copolymer based on a total weight of monomers in the first reaction mixture, wherein the partially polymerized acid-functionalized (meth)acrylate copolymer has a weight average molecular weight greater than 500,000 grams/mole (Daltons), determined by GPC as described in the specification; and (ii) 70 to 99 weight percent of un-reacted monomers based on the total weight of monomers in the first reaction mixture; and a non-tertiary alkyl acrylate; and an acid-functionalized ethylenically unsaturated monomer; and (i) 1 to 30 weight percent of a partially polymerized acid-functionalized (meth)acrylate copolymer based on a total weight of monomers in the first reaction mixture, wherein the partially polymerized acid-functionalized (meth)acrylate copolymer has a weight average molecular weight greater than 500,000 grams/mole (Daltons), determined by GPC as described in the specification; and (ii) 70 to 99 weight percent of un-reacted monomers based on the total weight of monomers in the first reaction mixture; and (b) a (meth)acrylate tackifier having a weight average molecular weight greater than 20,000 grams/mole (Daltons) but no greater than 200,000 grams/mole (Daltons), determined bx GPC as described in the specification and having a glass transition temperature no greater than 20°C, determined by DSC as described in the specification, wherein the (meth)acrylate tackifier is dissolved in the first syrup polymer; (c) an ultraviolet photoinitiator; and (d) a crosslinker.
Motor vehicle comprising: - front facade lower cross-member, - a sub-motor protection panel, characterized in that the panel comprises a front edge with hooks engaging, respectively, with openings in the lower cross-member of the front façade; said hooks and said openings being L-shaped so as to allow, during the mounting of the panel on the vehicle, a vertical insertion of the hooks in the openings followed by a longitudinal translation so as to ensure a transverse retention of said hooks, each of the hooks comprising a longitudinal branch, a transverse and terminal branch, and an elbow connecting said branches (18, 20), said branches (18, 20) and said elbow corresponding to the L shape of said hook. - front facade lower cross-member, - a sub-motor protection panel,
A method for operating a lamp unit for generating ultraviolet radiation, the lamp unit including a gas discharge lamp having a discharge chamber accessible for a mercury charge, an electronic ballast, and a temperature control element adjustable by a control unit for controlling a temperature of the gas discharge lamp, wherein the gas discharge lamp is operated with a lamp current and a lamp voltage, and wherein during an operating phase an essentially constant lamp current is applied to the gas discharge lamp, wherein the temperature control element is a cooling element for cooling the gas discharge lamp, and wherein the method comprises the following method steps: (a) determining an actual value of the lamp voltage by a voltage sensor, (b) transmitting the actual value of the lamp voltage to the control unit, (c) comparing the actual value with a desired value of the lamp voltage by the control unit, (d) outputting a control signal by the control unit to the cooling element for setting a cooling power, characterized in that in that the gas discharge lamp is a low-pressure amalgam lamp and, which is continuously cooled by the cooling element during operation of the lamp unit. (a) determining an actual value of the lamp voltage by a voltage sensor, (b) transmitting the actual value of the lamp voltage to the control unit, (c) comparing the actual value with a desired value of the lamp voltage by the control unit, (d) outputting a control signal by the control unit to the cooling element for setting a cooling power, characterized in that in that the gas discharge lamp is a low-pressure amalgam lamp and, which is continuously cooled by the cooling element during operation of the lamp unit.
A splitter circuit means for use in a CATV network, the splitter circuit means comprising: a signal input; two signal outputs (36, 38); a balun transformer configured to receive an unbalanced input signal from the signal input and to supply two balanced output signals at the two signal outputs (36, 38); a series connection of a first resistor and a filter unit, said series connection being connected in parallel between the signal outputs (36, 38); the splitter circuit being characterised in that: the filter unit comprises a second resistor connected in series with an inductor and first and second capacitors (48, 50) connected in series together, such that the second resistor and the inductor are in parallel with the first and second capacitors (48, 50) with an electrical connection between the joining point of the first and second capacitors (48, 50) and the joining point of the second resistor and the inductor, thereby to provide an insertion loss in to out in the range of 3 to 10 dB, for signal frequencies in the range 1125 MHz to 1700 MHz. a signal input; two signal outputs (36, 38); a balun transformer configured to receive an unbalanced input signal from the signal input and to supply two balanced output signals at the two signal outputs (36, 38); a series connection of a first resistor and a filter unit, said series connection being connected in parallel between the signal outputs (36, 38); the splitter circuit being characterised in that: the filter unit comprises a second resistor connected in series with an inductor and first and second capacitors (48, 50) connected in series together, such that the second resistor and the inductor are in parallel with the first and second capacitors (48, 50) with an electrical connection between the joining point of the first and second capacitors (48, 50) and the joining point of the second resistor and the inductor, thereby to provide an insertion loss in to out in the range of 3 to 10 dB, for signal frequencies in the range 1125 MHz to 1700 MHz.
Battery operated jigsaw having at least one first housing part which can accommodate at least one rechargeable battery, characterized in that the rechargeable battery comprises a battery cell which has in particular a voltage of 3.6 V, and in that the first housing part forms a handle which is intended to be gripped fully by a hand of an operator.
A data transmission method comprising: for each of multiple virtual cells: obtaining, by a terminal, configuration information of the virtual cell, wherein the virtual cell comprises N cells, and N≥1; receiving, by the terminal, configuration information of time-division multiplexing, wherein the configuration information of time-division multiplexing indicates time segment each cell occupies when the terminal transmits data among the N cells, and in each time segment the terminal is instructed to transmit data in only one of the N cells; and transmitting, by the terminal, data by time-division multiplexing among the N cells according to the configuration information of time-division multiplexing; wherein a cell is configured into the multiple virtual cells, and configurations of the cell for time-division multiplexing in the multiple virtual cells are the same. for each of multiple virtual cells: obtaining, by a terminal, configuration information of the virtual cell, wherein the virtual cell comprises N cells, and N≥1; receiving, by the terminal, configuration information of time-division multiplexing, wherein the configuration information of time-division multiplexing indicates time segment each cell occupies when the terminal transmits data among the N cells, and in each time segment the terminal is instructed to transmit data in only one of the N cells; and transmitting, by the terminal, data by time-division multiplexing among the N cells according to the configuration information of time-division multiplexing; obtaining, by a terminal, configuration information of the virtual cell, wherein the virtual cell comprises N cells, and N≥1; receiving, by the terminal, configuration information of time-division multiplexing, wherein the configuration information of time-division multiplexing indicates time segment each cell occupies when the terminal transmits data among the N cells, and in each time segment the terminal is instructed to transmit data in only one of the N cells; and transmitting, by the terminal, data by time-division multiplexing among the N cells according to the configuration information of time-division multiplexing; wherein a cell is configured into the multiple virtual cells, and configurations of the cell for time-division multiplexing in the multiple virtual cells are the same.
A dishwasher control method for a dishwasher, the dishwasher comprising: a washing tub comprising an upper storage unit and a lower storage unit for receiving dishes; a top injection unit provided over the upper storage unit; an upper injection unit provided between the upper storage unit and the lower storage unit; a lower injection unit provided under the lower storage unit; a driving unit for selectively supplying wash water to each of the injection units; and a manipulation unit including an upper/lower selection button for selecting to intensively wash the upper storage unit or the lower storage unit, the dishwasher control method comprising: a setting step for setting one of an upper operation mode, a lower operation mode and a normal operation mode according to a user's selection using the upper/lower selection button of the manipulation unit; and an injecting step for injecting the wash water wherein the injection duration times and rotation number of the top, upper and lower injection units are differentiated according to the settings of the setting step; wherein the upper operation mode is configured to intensively wash dishes loaded in the upper storage unit, the lower operation mode is configured to intensively wash dishes loaded in the lower storage unit, and the normal operation mode is configured to uniformly wash dishes loaded in the upper storage unit and lower storage unit, and wherein the upper operation mode sets the injection duration time of the lower injection unit to be shorter than the injection duration time of the top injection unit and/or the injection duration time of the upper injection unit, and the lower operation mode sets the injection duration time of the top injection unit to be shorter than the injection duration time of the upper injection unit and/or the injection duration time of the lower injection unit. a setting step for setting one of an upper operation mode, a lower operation mode and a normal operation mode according to a user's selection using the upper/lower selection button of the manipulation unit; and an injecting step for injecting the wash water wherein the injection duration times and rotation number of the top, upper and lower injection units are differentiated according to the settings of the setting step; wherein the upper operation mode is configured to intensively wash dishes loaded in the upper storage unit, the lower operation mode is configured to intensively wash dishes loaded in the lower storage unit, and the normal operation mode is configured to uniformly wash dishes loaded in the upper storage unit and lower storage unit, and wherein the upper operation mode sets the injection duration time of the lower injection unit to be shorter than the injection duration time of the top injection unit and/or the injection duration time of the upper injection unit, and the lower operation mode sets the injection duration time of the top injection unit to be shorter than the injection duration time of the upper injection unit and/or the injection duration time of the lower injection unit.
A surface cleaning apparatus comprising: (a) an air flow passage extending from a dirty air inlet to a clean air outlet; (b) a suction motor positioned in the air flow passage; and, (c) at least one cyclone chamber positioned in the air flow passage and having an associated dirt collection chamber wherein at least a portion of the dirt collection chamber surrounds at least a portion of the suction motor and the dirt collection chamber has a non-circular cross section. (a) an air flow passage extending from a dirty air inlet to a clean air outlet; (b) a suction motor positioned in the air flow passage; and, (c) at least one cyclone chamber positioned in the air flow passage and having an associated dirt collection chamber wherein at least a portion of the dirt collection chamber surrounds at least a portion of the suction motor and the dirt collection chamber has a non-circular cross section.
A method of manufacturing an OLED device, which method comprises - applying a number of conductive strips as anode and cathode contact pads for an anode and cathode of the OLED device onto a substrate defining a region bounded by the conductive strips; - depositing an electroluminescent organic layer onto the substrate within the region bounded by the conductive strips; - applying a sealant onto the conductive strips to encapsulate the OLED device; and - depositing a conductive protective layer at least partially onto each conductive strip such that a surface of each conductive strip external to the sealant is protected against harmful effect of the environment, wherein the step of depositing the conductive protective layer comprises transferring part of a transfer layer or a sequence of transfer layers from a carrier. - applying a number of conductive strips as anode and cathode contact pads for an anode and cathode of the OLED device onto a substrate defining a region bounded by the conductive strips; - depositing an electroluminescent organic layer onto the substrate within the region bounded by the conductive strips; - applying a sealant onto the conductive strips to encapsulate the OLED device; and - depositing a conductive protective layer at least partially onto each conductive strip such that a surface of each conductive strip external to the sealant is protected against harmful effect of the environment, wherein the step of depositing the conductive protective layer comprises transferring part of a transfer layer or a sequence of transfer layers from a carrier.
Device for handling weaving accessories, which comprises a first holding element, wherein the first holding element is provided for being moved cyclically between a supply device and a receiving device and wherein the first holding element is disposed at a carrier means (6, 7), wherein the carrier means (6, 7) is intended to initiate the movement of the holding element by being operatively connected to an actuator, characterised in that a push-off element (8, 9) for pushing a weaving accessory off the holding element and onto a component (51, 52, 53, 54) of the receiving device is also disposed at the carrier means (6, 7). which comprises a first holding element, wherein the first holding element is provided for being moved cyclically between a supply device and a receiving device and wherein the first holding element is disposed at a carrier means (6, 7), wherein the carrier means (6, 7) is intended to initiate the movement of the holding element by being operatively connected to an actuator, characterised in that a push-off element (8, 9) for pushing a weaving accessory off the holding element and onto a component (51, 52, 53, 54) of the receiving device is also disposed at the carrier means (6, 7).
PD-0184264 or a pharmaceutically acceptable salt thereof for use in a method of treatment of a viral disease, wherein the subject has been symptomatic for the viral infection for at least 36 hours, at least 48 hours, or at least 72 hours when treatment is started.
Hearing aid adapted to be received fittingly in an auditory canal of a user, having a device housing that comprises: - a microphone on a proximal side for receiving sound, - a loudspeaker which is in open communication with a sound-emitting opening of the hearing aid, - a battery chamber for receiving a battery therein, and - a sound processing device for reproducing said sound by the loudspeaker in at least partly processed manner, characterized - in that said device housing is to be received completely recessed in the auditory canal, - in that the device housing is at least partly accommodated in a fitting body having an outer wall which is configured to lie sealingly within said auditory canal of the user - in that the fitting body comprises a sleeve with a cavity which is open on a first side, said device housing being releasably placed in said cavity at said first side, - in that the sleeve comprises the sound-emitting opening and said sound-emitting opening opens said cavity at a second side, - in that the sleeve comprises a pull member which extends beyond the proximal side of the device housing, - in that an outer wall of the device housing lies sealingly against an inner wall of said cavity, - in that the pull member comprises a tab which extends as an integral part from the fitting body, and - in that a transmission channel between the loudspeaker and the sound-emitting opening comprises a buffer space for cerumen. - a microphone on a proximal side for receiving sound, - a loudspeaker which is in open communication with a sound-emitting opening of the hearing aid, - a battery chamber for receiving a battery therein, and - a sound processing device for reproducing said sound by the loudspeaker in at least partly processed manner, characterized - in that said device housing is to be received completely recessed in the auditory canal, - in that the device housing is at least partly accommodated in a fitting body having an outer wall which is configured to lie sealingly within said auditory canal of the user - in that the fitting body comprises a sleeve with a cavity which is open on a first side, said device housing being releasably placed in said cavity at said first side, - in that the sleeve comprises the sound-emitting opening and said sound-emitting opening opens said cavity at a second side, - in that the sleeve comprises a pull member which extends beyond the proximal side of the device housing, - in that an outer wall of the device housing lies sealingly against an inner wall of said cavity, - in that the pull member comprises a tab which extends as an integral part from the fitting body, and - in that a transmission channel between the loudspeaker and the sound-emitting opening comprises a buffer space for cerumen.
A cheese mold, in particular a cheese mold for arrangement in a cassette press or the like, wherein the cheese mold has at least one bottom and a shell (4, 16) and the bottom is provided with a rib structure up to the transitional region of the outer shell wall, wherein the mold (1 12) may be round or cylindrical or angular in cross-section, characterized in that, in a round cheese mold, longitudinal ribs extend radially from the longitudinal axis going out over the bottom and continue as shell ribs into the region of the shell wall, wherein the longitudinal ribs are connected to rings in the bottom region, and wherein a plurality of rings are provided with different diameters and spaced from each other, while in rectangular cheese molds, the ribs are arranged at least parallel to each other.
An electrode for an electrochemical cell comprising: a porous support structure comprising a plurality of pores; and an electrode active material comprising sulfur contained within the pores of the porous support structure, wherein each pore of the plurality of pores has a pore volume, and the plurality of pores has a total pore volume defined by the sum of each of the individual pore volumes; and at least 50% of the total pore volume is occupied by pores having cross-sectional diameters of between 0.1 microns and 10 microns. a porous support structure comprising a plurality of pores; and an electrode active material comprising sulfur contained within the pores of the porous support structure, wherein each pore of the plurality of pores has a pore volume, and the plurality of pores has a total pore volume defined by the sum of each of the individual pore volumes; and at least 50% of the total pore volume is occupied by pores having cross-sectional diameters of between 0.1 microns and 10 microns. each pore of the plurality of pores has a pore volume, and the plurality of pores has a total pore volume defined by the sum of each of the individual pore volumes; and at least 50% of the total pore volume is occupied by pores having cross-sectional diameters of between 0.1 microns and 10 microns.