mhurhangee/ep-ind-claims huggingface dataset:
A seatbelt retractor comprising at least: a spool for retracting a seatbelt; a motor for generating a drive torque for rotating the spool; a power transmission mechanism for transmitting the drive torque of the motor to the spool; and a cover for covering the power transmission mechanism, characterized in that the cover is provided with vibration restraining means for restraining vibration of the cover generated due to vibrations caused by driving the motor and operating the power transmission mechanism and, the vibration restraining means is rigidity increasing means for increasing rigidity of the cover, the rigidity increasing a means is formed of a plurality of parallel ribs provided on a plate portion of the cover, the plate portion covers a motor gear provided on a revolving shaft of the motor. a spool for retracting a seatbelt; a motor for generating a drive torque for rotating the spool; a power transmission mechanism for transmitting the drive torque of the motor to the spool; and a cover for covering the power transmission mechanism, characterized in that the cover is provided with vibration restraining means for restraining vibration of the cover generated due to vibrations caused by driving the motor and operating the power transmission mechanism and, the vibration restraining means is rigidity increasing means for increasing rigidity of the cover, the rigidity increasing a means is formed of a plurality of parallel ribs provided on a plate portion of the cover, the plate portion covers a motor gear provided on a revolving shaft of the motor.
A support system for supporting and guiding the roller shutter slats of a roller shutter, comprising a) at least one ground plate which can be attached to a ground surface, in particular to a window frame; b) at least one first sliding carriage which can be displaced horizontally when the system is in the mounted state and which has a base plate resting on the ground plate and two side portions (5a, 5b) protruding from the base plate and forming a substantially right angle therewith, wherein the base plate of the first sliding carriage can slide on the ground plate so as to displace first the sliding carriage and can be fixed in different positions on the ground plate; c) at least one second sliding carriage which can be displaced vertically when the support system is in the mounted state and which has two connecting portions (7a, 7b) between which a guide roller is held and which (7a, 7b) can be fixed to the side portions (5a, 5b) of the first sliding carriage in different positions. a) at least one ground plate which can be attached to a ground surface, in particular to a window frame; b) at least one first sliding carriage which can be displaced horizontally when the system is in the mounted state and which has a base plate resting on the ground plate and two side portions (5a, 5b) protruding from the base plate and forming a substantially right angle therewith, wherein the base plate of the first sliding carriage can slide on the ground plate so as to displace first the sliding carriage and can be fixed in different positions on the ground plate; c) at least one second sliding carriage which can be displaced vertically when the support system is in the mounted state and which has two connecting portions (7a, 7b) between which a guide roller is held and which (7a, 7b) can be fixed to the side portions (5a, 5b) of the first sliding carriage in different positions.
Stemware holder unit for holding a stemware in a predetermined position in a dishwasher cup shelf, said stemware holder unit comprising a flexible holding element adapted to hold a stem of said stemware, said holding element comprising a first attachment portion and a second attachment portion adapted to be movably interconnected with said dishwasher cup shelf, wherein said stemware holder unit has a loading state, in which said holding element is adapted to receive said stem of said stemware, and a secured state, in which said holding element is adapted to secure said stem of said stemware, and wherein, in said loading state, said holding element is essentially unfolded, characterized in that in said secured state, said holding element is folded and essentially encloses said stem of said stemware.
Measuring bearing, wherein the measuring bearing has a rolling bearing, at least one force introduction ring and a construction space for at least one sensor layer, wherein the construction space is surrounded by the at least one force introduction ring and at least one further adjacent component (8, 9) of the measuring bearing, wherein the rolling bearing has a rolling bearing cage, an outer ring and an inner ring, wherein the rolling bearing cage with rolling bodies is arranged between the two rings (8, 9), wherein the outer ring or the inner ring is provided as the at least one further component (8, 9) of the measuring bearing, wherein either the force introduction ring is arranged along the inner circumferential surface of the inner ring, wherein the construction space is surrounded by the force introduction ring and the inner ring and at least one sensor layer is arranged on the inner ring or the force introduction ring, or the force introduction ring is arranged along the outer circumferential surface of the outer ring, wherein the construction space is surrounded by the force introduction ring and the outer ring, and at least one sensor layer is arranged on the outer ring or the force introduction ring, and characterized in that a further force introduction ring (7") is arranged along a side edge of the outer ring, wherein a further construction space is surrounded by the further force introduction ring (7") and the side edge of the outer ring and at least one further sensor layer is arranged on the side edge of the outer ring or on the further force introduction ring (7").
Device for expanding containers by means of a gaseous medium, with a nozzle device which fills the container with the gaseous medium, wherein the nozzle device has a placement body which can be placed on a mouth of the container, and wherein the nozzle device is movable relative to the container in a longitudinal direction of the container, wherein the placement body has a receiving portion which is suitable for receiving at least one region of the mouth, and has a peripheral wall that at least partially surrounds the region of the mouth in a peripheral direction of the mouth during a blowing process, and an annular press-on portion that is arranged above the receiving portion and can be placed on an upper edge of the mouth, characterised in that the press-on portion has a sealing region tapering towards the top, wherein this sealing region is configured such that at its lower end it has a cross-section which is larger than a cross-section of the mouth of the container, and at its upper portion a cross-section which is smaller than the mouth cross-section of the container, so that in this way the sealing region can be placed on the mouth of the container and thus the sealing effect is created directly at a mouth edge of the container.
Implantable device (10; 100; 200; 300) for treating mitral valve regurgitation, the device (10; 100; 200; 300) being configured to expand from a compressed state into an expanded state, and comprising: - a stent element consisting of (i) an atrial anchoring stent- portion, and (ii) a valve-carrying stent-portion, the atrial anchoring stent-portion being fixedly connected with the valve-carrying stent- portion, wherein the atrial anchoring portion, in the expanded state of the device, has a balloon-like shape and has a diameter which is larger than the diameter of an annulus of a native mitral valve (60; 66) present between an atrium (56; 54) and a ventricle (57; 55) of an heart to be treated, and is sized and configured to anchor the device via radial force in an atrium (56; 54) of a heart to be treated when the device (10; 100; 200; 300) is in the expanded state; and wherein the valve-carrying stent-portion, in the expanded state of the device (10; 100; 200; 300), has a substantially cylindrical shape with a diameter which, in the expanded state, is smaller than the diameter of the annulus of the native mitral valve (60; 66), such, that there is no contact between the annulus of the native mitral valve (60; 66) and the valve-carrying stent-portion, and enabling the native mitral valve (60; 66) to retain its function. - a valve element comprising a skirt-portion and a valve-portion, the skirt-portion being externally mounted to the valve-carrying stent-portion, and the valve-portion being internally mounted to the valve-carrying stent-portion. - a stent element consisting of (i) an atrial anchoring stent- portion, and (ii) a valve-carrying stent-portion, the atrial anchoring stent-portion being fixedly connected with the valve-carrying stent- portion, wherein the atrial anchoring portion, in the expanded state of the device, has a balloon-like shape and has a diameter which is larger than the diameter of an annulus of a native mitral valve (60; 66) present between an atrium (56; 54) and a ventricle (57; 55) of an heart to be treated, and is sized and configured to anchor the device via radial force in an atrium (56; 54) of a heart to be treated when the device (10; 100; 200; 300) is in the expanded state; and wherein the valve-carrying stent-portion, in the expanded state of the device (10; 100; 200; 300), has a substantially cylindrical shape with a diameter which, in the expanded state, is smaller than the diameter of the annulus of the native mitral valve (60; 66), such, that there is no contact between the annulus of the native mitral valve (60; 66) and the valve-carrying stent-portion, and enabling the native mitral valve (60; 66) to retain its function. (i) an atrial anchoring stent- portion, and (ii) a valve-carrying stent-portion, - a valve element comprising a skirt-portion and a valve-portion, the skirt-portion being externally mounted to the valve-carrying stent-portion, and the valve-portion being internally mounted to the valve-carrying stent-portion.
A controller unit (650, 654) for recognizing a transmission to be received, wherein the controller unit (650, 654) is configured to: perform a determination whether a power of a receive signal, or a quantity derived from the power, lies within a limited interval, recognize a transmission to be received based on the determination that the power of the receive signal, or the quantity derived from the power, lies within the limited interval (702, 744), recognize different power levels of the receive signal, or of the quantity derived from the power, and periods of time during which the different power levels are present, and rank the different time periods to recognize the time periods for the transmission to be received and/or to re-configure the receiver differently for different time periods. perform a determination whether a power of a receive signal, or a quantity derived from the power, lies within a limited interval, recognize a transmission to be received based on the determination that the power of the receive signal, or the quantity derived from the power, lies within the limited interval (702, 744), recognize different power levels of the receive signal, or of the quantity derived from the power, and periods of time during which the different power levels are present, and rank the different time periods to recognize the time periods for the transmission to be received and/or to re-configure the receiver differently for different time periods.
A rubber composition for a conveyor belt comprising: rubber components including natural rubber and butadiene rubber; a vulcanizing agent; a vulcanization accelerator; carbon black; chlorinated paraffin; antimony trioxide, and at least one hydrazide compound, wherein a mass ratio of content of the natural rubber to content of the butadiene rubber is from 25:75 to 45:55, content of the hydrazide compound as a proportion, by mass, relative to content of the chlorinated paraffin is 0.005 to 0.25, and total content of the natural rubber and butadiene rubber among the rubber components is at least 90 mass%. rubber components including natural rubber and butadiene rubber; a vulcanizing agent; a vulcanization accelerator; carbon black; chlorinated paraffin; antimony trioxide, and at least one hydrazide compound, wherein a mass ratio of content of the natural rubber to content of the butadiene rubber is from 25:75 to 45:55, content of the hydrazide compound as a proportion, by mass, relative to content of the chlorinated paraffin is 0.005 to 0.25, and total content of the natural rubber and butadiene rubber among the rubber components is at least 90 mass%.
A display device comprising: a base layer; a plurality of substrates (210, 211, 212, 213) disposed on a first side of the base layer and separated from each other; a plurality of light sources disposed on each of the substrates (210, 211, 212, 213)); a plurality of first connectors, wherein each of the substrates (210, 211, 212, 213) comprises one of the first connectors; a plurality of transmission lines disposed on each of the substrates (210, 211, 212, 213) and configured to electrically connect the first connector and the light sources; a driving board disposed on a second side of the base layer and configured to supply a driving signal to the light sources, the second side of the base layer being the opposite side of the first side of the base layer; a plurality of cables each configured to electrically connect one of the first connectors and the driving board; an optical sheet disposed above the light sources; and a display panel disposed above the optical sheet, wherein a plurality of grooves is formed on the first side of the base layer, and wherein each one of the substrates (210, 211, 212, 213) is positioned in a respective one of the grooves, characterized in that the base layer comprises a through hole in each groove through the base layer, and each cable passes through a respective through hole. a base layer; a plurality of substrates (210, 211, 212, 213) disposed on a first side of the base layer and separated from each other; a plurality of light sources disposed on each of the substrates (210, 211, 212, 213)); a plurality of first connectors, wherein each of the substrates (210, 211, 212, 213) comprises one of the first connectors; a plurality of transmission lines disposed on each of the substrates (210, 211, 212, 213) and configured to electrically connect the first connector and the light sources; a driving board disposed on a second side of the base layer and configured to supply a driving signal to the light sources, the second side of the base layer being the opposite side of the first side of the base layer; a plurality of cables each configured to electrically connect one of the first connectors and the driving board; an optical sheet disposed above the light sources; and a display panel disposed above the optical sheet, wherein a plurality of grooves is formed on the first side of the base layer, and wherein each one of the substrates (210, 211, 212, 213) is positioned in a respective one of the grooves, characterized in that the base layer comprises a through hole in each groove through the base layer, and each cable passes through a respective through hole.
An oxide semiconductor gas sensor for the detection of methylbenzene gases comprising a gas sensing layer (120,170) composed of nickel oxide (NiO) doped with chromium (Cr), wherein the gas sensing layer comprises chromium in an amount of 0.2 to 2 at%.
A holder having an upper face and a lower face, comprising: a generally bar-shaped shank portion and a head portion located on a front end portion of the shank portion and integrally formed therewith, wherein the head portion includes an insert attaching space provided on a lateral face of a front end portion, an upper jaw and a lower jaw respectively located above and below the insert attaching space, a slit extending backward from the insert attaching space, an upper jaw connecting portion and a lower jaw connecting portion divided by the slit, an upper clamp surface (18, 36) of the upper jaw opposed to the insert attaching space, and a lower clamp surface (19, 40) of the lower jaw opposed to the insert attaching space, a groove is connected to the slit at a deepest end thereof, the groove being located such that a thickness of the holder between the upper face and the groove becomes thinner than a thickness of the holder between the upper face and the slit, characterized in that the groove extends from the lateral face on the side of the insert attaching space toward the lateral face opposite to the lateral face on the side of the insert attaching space so as not to reach the opposite lateral face. a generally bar-shaped shank portion and a head portion located on a front end portion of the shank portion and integrally formed therewith, wherein the head portion includes an insert attaching space provided on a lateral face of a front end portion, an upper jaw and a lower jaw respectively located above and below the insert attaching space, a slit extending backward from the insert attaching space, an upper jaw connecting portion and a lower jaw connecting portion divided by the slit, an upper clamp surface (18, 36) of the upper jaw opposed to the insert attaching space, and a lower clamp surface (19, 40) of the lower jaw opposed to the insert attaching space, a groove is connected to the slit at a deepest end thereof, the groove being located such that a thickness of the holder between the upper face and the groove becomes thinner than a thickness of the holder between the upper face and the slit, characterized in that the groove extends from the lateral face on the side of the insert attaching space toward the lateral face opposite to the lateral face on the side of the insert attaching space so as not to reach the opposite lateral face.
A method comprising: receiving, from a pseudo-random number generator (PRNG) dependent cryptographic module that comprises a pseudo-random number generator (PRNG) configured to generate random numbers using a seed based on received entropy, a request for entropy for reseeding the PRNG-dependent cryptographic module; and generating, with a random number generator and based on an entropy source, the entropy for reseeding the PRNG-dependent cryptographic module; and characterized by further comprising: operating, while generating the entropy for reseeding the PRNG-dependent cryptographic module, the PRNG-dependent cryptographic module to overlap at least a portion of power consumption associated with operating the PRNG-dependent cryptographic module with power consumption associated with the generating of the entropy for reseeding the PRNG-dependent cryptographic module. receiving, from a pseudo-random number generator (PRNG) dependent cryptographic module that comprises a pseudo-random number generator (PRNG) configured to generate random numbers using a seed based on received entropy, a request for entropy for reseeding the PRNG-dependent cryptographic module; and generating, with a random number generator and based on an entropy source, the entropy for reseeding the PRNG-dependent cryptographic module; and characterized by further comprising: operating, while generating the entropy for reseeding the PRNG-dependent cryptographic module, the PRNG-dependent cryptographic module to overlap at least a portion of power consumption associated with operating the PRNG-dependent cryptographic module with power consumption associated with the generating of the entropy for reseeding the PRNG-dependent cryptographic module.
A kit having components capable of being assembled as a dispensing device for dispensing metered dosages of a medicament, the kit comprising: a container; a housing having a longitudinally extending cavity and a well located at the a bottom of said cavity; said container comprising a valve stem extending longitudinally therefrom, said container containing a plurality of metered dosages of said medicament, said valve stem adapted to be received in said well of said housing; and an indicating device including an indicator member adapted to be mounted in said cavity of said housing below said container, said indicating device further including an actuator member adapted to engage said indicator member, characterized in that said actuator member comprises a locking ring adapted for mounting the actuator member to the container and having formed therein a longitudinal slit. a container; a housing having a longitudinally extending cavity and a well located at the a bottom of said cavity; said container comprising a valve stem extending longitudinally therefrom, said container containing a plurality of metered dosages of said medicament, said valve stem adapted to be received in said well of said housing; and an indicating device including an indicator member adapted to be mounted in said cavity of said housing below said container, said indicating device further including an actuator member adapted to engage said indicator member, characterized in that said actuator member comprises a locking ring adapted for mounting the actuator member to the container and having formed therein a longitudinal slit.
A method of curing a composite article, comprising; providing a heat source (5, 105, 205) for heating the composite article; detecting a temperature-related property proximal to the heat source; regulating the heat output of the heat source to the composite article, based at least in part on the detected temperature-related property, to a predetermined temperature vs. time profile; characterized by acquiring heat output vs time data (33, 41, 43); functionalising heat output vs time data; identifying a reproducible characteristic (35, 49) of the functionalised heat output vs time data; and predicting a curing completion time based on the reproducible characteristic of the functionalised heat output vs time data. providing a heat source (5, 105, 205) for heating the composite article; detecting a temperature-related property proximal to the heat source; regulating the heat output of the heat source to the composite article, based at least in part on the detected temperature-related property, to a predetermined temperature vs. time profile; acquiring heat output vs time data (33, 41, 43); functionalising heat output vs time data; identifying a reproducible characteristic (35, 49) of the functionalised heat output vs time data; and predicting a curing completion time based on the reproducible characteristic of the functionalised heat output vs time data.