mhurhangee/ep-ind-claims huggingface dataset:
Lighting or signalling device for a motor vehicle, which can emit a linear beam globally according to the direction of an optical axis, and which comprises: - a source of light; - a sheet for guiding of the rays of light, which comprises an input section for the rays of light, a front section for output of the rays of light tangentially to the guide sheet, and a rear sheet for reflection of the rays of light obtained from the source of light in the direction of the output section, characterised in that the guide sheet has a curved form, and in that the guide sheet comprises an area of coupling with the source of light, which is formed such that the rays of light emitted by the said source of light are propagated radially at the level of the said area of coupling, around a source axis, in that the guide sheet is formed such that the rays of light are propagated on incident meridian propagation planes (Mi) which are normal to the sheet, between the source of light and the reflection section, on reflected propagation planes (Mr) which are normal to the sheet, between the reflection section and the output section, and in that the reflection section is formed such that the reflected propagation planes (Mr) have orientation relative to the optical axis such that the said lighting device can emit a linear light beam according to a globally longitudinal optical axis. - a source of light; - a sheet for guiding of the rays of light, which comprises an input section for the rays of light, a front section for output of the rays of light tangentially to the guide sheet, and a rear sheet for reflection of the rays of light obtained from the source of light in the direction of the output section,
A method of preparing a transparent polyimide film, comprising the steps of: copolymerizing an aromatic dianhydride and an aromatic diamine to obtain polyamic acid; and casting the polyamic acid on a support to imidize the polyamic acid, wherein the method further comprises the step of introducing an additive for improving tear strength before or after obtaining the polyamic acid, wherein the additive is at least one selected from among polyphenylsilsesquioxane, tetramethoxy silane, tetraethoxy silane, tetrabutoxy silane, 3-aminopropyl triethoxy silane, and 3-aminopropyl trimethoxy silane,and wherein the additive is included in an amount of 0.001 ∼ 20 parts by weight based on 100 parts by weight of the polyamic acid. copolymerizing an aromatic dianhydride and an aromatic diamine to obtain polyamic acid; and casting the polyamic acid on a support to imidize the polyamic acid, wherein the method further comprises the step of introducing an additive for improving tear strength before or after obtaining the polyamic acid, wherein the additive is at least one selected from among polyphenylsilsesquioxane, tetramethoxy silane, tetraethoxy silane, tetrabutoxy silane, 3-aminopropyl triethoxy silane, and 3-aminopropyl trimethoxy silane,and wherein the additive is included in an amount of 0.001 ∼ 20 parts by weight based on 100 parts by weight of the polyamic acid.
A charging device, comprising: a DC-DC converter that is adapted to convert a voltage of DC power which is supplied from an input power supply; a charging circuit that is adapted to charge a secondary battery with a DC voltage that is outputted by the DC-DC converter; a power supply voltage detecting circuit that is adapted to detect a voltage of the input power supply; an output voltage setting circuit that is adapted to set an output voltage of the DC-DC converter; and a control device that is adapted to control the charging circuit and the output voltage setting circuit, based on the voltage of the input power supply, characterized in that the control device is adapted to increase the output voltage of the DC-DC converter by a predetermined voltage in a stepwise manner while monitoring the voltage of the input power supply, and in response to the voltage of the input power supply being decreased to a first threshold or less at a time point before the output voltage of the DC-DC converter increases to a rated charging voltage, the control device is adapted to keep the output voltage of the DC-DC converter at a voltage that is one step lower than the output voltage of the DC-DC converter at the time point. a DC-DC converter that is adapted to convert a voltage of DC power which is supplied from an input power supply; a charging circuit that is adapted to charge a secondary battery with a DC voltage that is outputted by the DC-DC converter; a power supply voltage detecting circuit that is adapted to detect a voltage of the input power supply; an output voltage setting circuit that is adapted to set an output voltage of the DC-DC converter; and a control device that is adapted to control the charging circuit and the output voltage setting circuit, based on the voltage of the input power supply, characterized in that the control device is adapted to increase the output voltage of the DC-DC converter by a predetermined voltage in a stepwise manner while monitoring the voltage of the input power supply, and in response to the voltage of the input power supply being decreased to a first threshold or less at a time point before the output voltage of the DC-DC converter increases to a rated charging voltage, the control device is adapted to keep the output voltage of the DC-DC converter at a voltage that is one step lower than the output voltage of the DC-DC converter at the time point.
Device for reforming a glass semifinished product (4,) comprising a furnace having at least one furnace chamber that is delimited by a wall and into which the glass semifinished product can be introduced, characterized in that at least one opening is provided in the wall, the opening being provided with at least one nozzle, by means of which a sealing air flow can be generated.
A semiconductor apparatus comprising: a semiconductor chip comprising: a modular region comprising a plurality of modular areas each comprising a memory cell array with redundant bit lines and a peripheral memory area storing at least redundant addresses; a test circuit retrieving the redundant addresses intrinsic to the semiconductor chip, wherein a distribution of the redundant addresses is randomly formed related to a part or a whole of the modular areas of the modular region, wherein the test circuit outputs a random number generated from physical properties intrinsic to the semiconductor chip according to a specification code {a} received from a physical-chip-identification measuring device not included in the semiconductor chip, wherein the specification code {a} is configured to specify a reading area of the redundant addresses, wherein the random number is generated based on the distribution of the redundant addresses, and a digital code generation circuit (modf, modv) generating an output identification code {D(i,a), D(a)} using the random number, wherein the semiconductor apparatus is characterized in that: the test circuit combines the random number with the specification code {a} in order for the digital code generation circuit (modf, modv) to generate the output identification code {D(i,a), D(a)}, and the specification code {a} is received by the physical-chip-identification measuring device. a modular region comprising a plurality of modular areas each comprising a memory cell array with redundant bit lines and a peripheral memory area storing at least redundant addresses; a test circuit retrieving the redundant addresses intrinsic to the semiconductor chip, wherein a distribution of the redundant addresses is randomly formed related to a part or a whole of the modular areas of the modular region, wherein the test circuit outputs a random number generated from physical properties intrinsic to the semiconductor chip according to a specification code {a} received from a physical-chip-identification measuring device not included in the semiconductor chip, wherein the specification code {a} is configured to specify a reading area of the redundant addresses, wherein the random number is generated based on the distribution of the redundant addresses, and a digital code generation circuit (modf, modv) generating an output identification code {D(i,a), D(a)} using the random number, wherein the semiconductor apparatus is characterized in that: the test circuit combines the random number with the specification code {a} in order for the digital code generation circuit (modf, modv) to generate the output identification code {D(i,a), D(a)}, and the specification code {a} is received by the physical-chip-identification measuring device.
A device for the immobilization of a patient body part for radiotherapy applications comprising at least one flanged support member (3,123,303,503) suitable to receive and retain two thermoplastic sheets (11,11',100,100'); a first thermoplastic sheet (11,100) for covering the anatomical contours of a first area of said body part, and a second thermoplastic sheet (11',100') for covering the anatomical contours of a seconc area of said body part which is not covered by the first thermoplastic sheet (11,100); the device further comprising upstanding circumferential support legs (4,124,304,504) for mounting said flanged support member (3,123,303,503) to a fixation surface, said upstanding circumferential support legs (4,124,304,504) comprising a height such that said flanged support member (3,123,303,503) is mounted at a distance d from said fixation surface, wherein said distance d is comprised between 5 and 100 cm, preferably between 10 and 90 cm, more preferably between 15 and 80 cm, even more preferably between 20 and 70 cm, most preferably between 25 and 60 cm, even most preferably between 30 and 50 cm, wherein the support legs (4,124,304) consist of a Uni Directional carbon fiber tube with a wall thickness between 0.2 and 0.5 mm and and a weight between 150 and 250 gr/m2. the device further comprising upstanding circumferential support legs (4,124,304,504) for mounting said flanged support member (3,123,303,503) to a fixation surface, said upstanding circumferential support legs (4,124,304,504) comprising a height such that said flanged support member (3,123,303,503) is mounted at a distance d from said fixation surface, wherein said distance d is comprised between 5 and 100 cm, preferably between 10 and 90 cm, more preferably between 15 and 80 cm, even more preferably between 20 and 70 cm, most preferably between 25 and 60 cm, even most preferably between 30 and 50 cm, wherein the support legs (4,124,304) consist of a Uni Directional carbon fiber tube with a wall thickness between 0.2 and 0.5 mm and and a weight between 150 and 250 gr/m2.
A circuit for dispensing windscreen washer fluid for a vehicle, such as a motor vehicle, including at least one nozzle, an assembly forming a valve disposed in a duct (7, 10) connecting the nozzle to a windscreen washer fluid reservoir and a pump for feeding with windscreen washer fluid and permitting the windscreen washer fluid to be directed towards the nozzle when the pump is activated and permitting the windscreen washer fluid present in a first duct section between the nozzle and the valve-forming assembly to be returned towards the reservoir when the pump is stopped, characterized in that the valve-forming assembly includes a float housed in a chamber of a stationary body communicating on the one hand with the first duct section and on the other hand with a second duct section connecting the valve-forming assembly to the reservoir and to the pump and in that the float can occupy a top position in the chamber when the pump is activated to permit the passage of the windscreen washer fluid from the second duct section to the first duct section through the chamber and can drop with the level of windscreen washer fluid in the chamber when the pump is stopped to permit the evacuation of the windscreen washer fluid in the first duct section towards the second duct section through the chamber until the float occupies a bottom rest position in the chamber, at which it obstructs the passage of the windscreen washer fluid towards the second section and blocks a column of windscreen washer fluid in this second section.
A two-component epoxy resin paint, comprising: a) an epoxy resin component; and b) an amine component for curing the epoxy resin component, the amine component comprising: i) at least one polyamide curing agent; and ii) at least one Mannich base curing agent, wherein at least one of the at least one polyamide curing agent and the at least one Mannich base curing agent is derived from one or more multifunctional amines comprising at least one cycloaliphatic multifunctional amine, wherein the cycloaliphatic multifunctional amine is present in an amount of 30 wt% or more relative to the total amount of the multifunctional amines, wherein the ratio by weight of the epoxy resin component a) to the amine component b) is 100: 8 to 100: 20, wherein the at least one polyamide curing agent comprises 1 wt% or more of ethylenically unsaturated functional groups relative to the total weight of the at least one polyamide curing agent, and wherein the at least one Mannich base curing agent comprises 1 wt% or more of phenolic hydroxyl group relative to the total weight of the at least one Mannich base curing agent. a) an epoxy resin component; and b) an amine component for curing the epoxy resin component, the amine component comprising: i) at least one polyamide curing agent; and ii) at least one Mannich base curing agent, wherein at least one of the at least one polyamide curing agent and the at least one Mannich base curing agent is derived from one or more multifunctional amines comprising at least one cycloaliphatic multifunctional amine, wherein the cycloaliphatic multifunctional amine is present in an amount of 30 wt% or more relative to the total amount of the multifunctional amines, i) at least one polyamide curing agent; and ii) at least one Mannich base curing agent, wherein at least one of the at least one polyamide curing agent and the at least one Mannich base curing agent is derived from one or more multifunctional amines comprising at least one cycloaliphatic multifunctional amine, wherein the cycloaliphatic multifunctional amine is present in an amount of 30 wt% or more relative to the total amount of the multifunctional amines, wherein at least one of the at least one polyamide curing agent and the at least one Mannich base curing agent is derived from one or more multifunctional amines comprising at least one cycloaliphatic multifunctional amine, wherein the cycloaliphatic multifunctional amine is present in an amount of 30 wt% or more relative to the total amount of the multifunctional amines, wherein the ratio by weight of the epoxy resin component a) to the amine component b) is 100: 8 to 100: 20, wherein the at least one polyamide curing agent comprises 1 wt% or more of ethylenically unsaturated functional groups relative to the total weight of the at least one polyamide curing agent, and wherein the at least one Mannich base curing agent comprises 1 wt% or more of phenolic hydroxyl group relative to the total weight of the at least one Mannich base curing agent.
A method for patterning an amorphous semiconductor layer (11; 33 34) according to a predetermined pattern by means of laser ablation with a pulsed laser having a laser wavelength, the method comprising: providing the amorphous semiconductor layer (11; 33, 34) on a substrate (10, 30); providing a distributed Bragg reflector (12, 35) on the amorphous semiconductor layer, wherein the distributed Bragg reflector (12, 35) is reflective at the laser wavelength; providing an absorbing layer (13, 36) on the distributed Bragg reflector (12, 35), wherein the absorbing layer (13, 36) is absorptive at the laser wavelength; patterning the absorbing layer (13, 36) by laser ablation with the pulsed laser, in accordance with the predetermined pattern, thereby obtaining a patterned absorbing layer (131,361); patterning the distributed Bragg reflector (12, 35) by performing an etching step using the patterned absorbing layer (131, 161) as an etch mask, thereby obtaining a patterned distributed Bragg reflector (121, 351); and etching the amorphous semiconductor layer (11; 33, 34) using the patterned distributed Bragg reflector (121, 351) as an etch mask, thereby patterning the amorphous semiconductor layer (11; 33, 34) according to the predetermined pattern. providing the amorphous semiconductor layer (11; 33, 34) on a substrate (10, 30); providing a distributed Bragg reflector (12, 35) on the amorphous semiconductor layer, wherein the distributed Bragg reflector (12, 35) is reflective at the laser wavelength; providing an absorbing layer (13, 36) on the distributed Bragg reflector (12, 35), wherein the absorbing layer (13, 36) is absorptive at the laser wavelength; patterning the absorbing layer (13, 36) by laser ablation with the pulsed laser, in accordance with the predetermined pattern, thereby obtaining a patterned absorbing layer (131,361); patterning the distributed Bragg reflector (12, 35) by performing an etching step using the patterned absorbing layer (131, 161) as an etch mask, thereby obtaining a patterned distributed Bragg reflector (121, 351); and etching the amorphous semiconductor layer (11; 33, 34) using the patterned distributed Bragg reflector (121, 351) as an etch mask, thereby patterning the amorphous semiconductor layer (11; 33, 34) according to the predetermined pattern.
A method of responding to a request using server response data that is cached at a network element, the method comprising the computer-implemented steps of: intercepting, at the network element, one or more data packets that a client application addressed to a server application that is hosted on a device other than the network element; determining an application layer message that is contained in one or more payload portions of the one or more data packets, wherein the application layer message specifies a particular request for specified data from the server application; determining a portion of the specified data that is contained in a cache maintained at the network element; sending, toward the server application, a particular message that requests dynamically generated data that is not contained in the cache, wherein the particular message does not request the portion of the specified data that is contained in the cache; receiving, from the server application, a first response that contains the dynamically generated data; and sending, toward the client application, a second response that contains both the dynamically generated data and the portion of the specified data that is contained in the cache. intercepting, at the network element, one or more data packets that a client application addressed to a server application that is hosted on a device other than the network element; determining an application layer message that is contained in one or more payload portions of the one or more data packets, wherein the application layer message specifies a particular request for specified data from the server application; determining a portion of the specified data that is contained in a cache maintained at the network element; sending, toward the server application, a particular message that requests dynamically generated data that is not contained in the cache, wherein the particular message does not request the portion of the specified data that is contained in the cache; receiving, from the server application, a first response that contains the dynamically generated data; and sending, toward the client application, a second response that contains both the dynamically generated data and the portion of the specified data that is contained in the cache.
Method for manufacturing a base plate for an ostomy appliance, the method comprising: - providing a top layer; - providing an electrode assembly with a proximal and a distal side, the electrode assembly comprising a plurality of electrodes, the electrode assembly having a first part and a second part, the first part comprising connection parts of the plurality of electrode configured for connecting the plurality of electrodes to terminals of a monitor device; - providing a first adhesive layer comprising one or more water soluble or water swellable hydrocolloids; and - assembling the top layer, the electrode assembly and the first adhesive layer, such that the second part of the electrode assembly i is arranged between the first adhesive layer and the top layer, the distal side of the electrode assembly facing the top layer and the proximal side of the electrode assembly facing the first adhesive layer, wherein the first adhesive layer is provided such that the proximal side of the first part of the electrode assembly is not covered by the first adhesive layer. - providing a top layer; - providing an electrode assembly with a proximal and a distal side, the electrode assembly comprising a plurality of electrodes, the electrode assembly having a first part and a second part, the first part comprising connection parts of the plurality of electrode configured for connecting the plurality of electrodes to terminals of a monitor device; - providing a first adhesive layer comprising one or more water soluble or water swellable hydrocolloids; and - assembling the top layer, the electrode assembly and the first adhesive layer, such that the second part of the electrode assembly i is arranged between the first adhesive layer and the top layer, the distal side of the electrode assembly facing the top layer and the proximal side of the electrode assembly facing the first adhesive layer, wherein the first adhesive layer is provided such that the proximal side of the first part of the electrode assembly is not covered by the first adhesive layer.
A method for generating a signal useful in the commutation of current through windings of a brushless electric motor, the method comprising: detecting a kickback pulse in a non-driven winding (L1-L3) of the motor; detecting a rotor-induced zero crossing in the non-driven winding following the detection of the kickback pulse; and using the detection of the rotor-induced zero crossing to generate a signal useful in commutation of current through the windings of the motor, characterized in that the detection of the kickback pulse comprises masking a leading edge of the kickback pulse and detecting a falling edge of the kickback pulse. detecting a kickback pulse in a non-driven winding (L1-L3) of the motor; detecting a rotor-induced zero crossing in the non-driven winding following the detection of the kickback pulse; and using the detection of the rotor-induced zero crossing to generate a signal useful in commutation of current through the windings of the motor,