mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: means for generating discontinuous reception control information based on time and frequency parameters, wherein generated discontinuous reception control information corresponds to a plurality of levels of discontinuous reception, wherein a first level corresponds to a first inactivity period and a first number of frequency carriers and a second level corresponds to a second inactivity period and a second number of frequency carriers wherein the first inactivity period is shorter than the second inactivity period and wherein the first number of frequency carriers is greater than the second number of frequency carriers, wherein the first one of the at least two inactivity periods and the second one of the at least two inactivity periods increases or decreases based on the activity on the first one of the at least two sets of frequency carriers and on the activity on the second one of the at least two sets of the frequency carriers; and means for communicating generated discontinuous reception control information to one or more user equipments . means for generating discontinuous reception control information based on time and frequency parameters, wherein generated discontinuous reception control information corresponds to a plurality of levels of discontinuous reception, wherein a first level corresponds to a first inactivity period and a first number of frequency carriers and a second level corresponds to a second inactivity period and a second number of frequency carriers wherein the first inactivity period is shorter than the second inactivity period and wherein the first number of frequency carriers is greater than the second number of frequency carriers, wherein the first one of the at least two inactivity periods and the second one of the at least two inactivity periods increases or decreases based on the activity on the first one of the at least two sets of frequency carriers and on the activity on the second one of the at least two sets of the frequency carriers; and means for communicating generated discontinuous reception control information to one or more user equipments .
Device for evaporating volatile substances comprising: a container of a liquid volatile substance, the container having an opening and a part of the container in the periphery of said opening made of thermoformed plastic material, a vapour permeable membrane and a laminate bonded together, the laminate being made from thermoplastic material having a capillary or porous structure and which strength is suitable to act as a substrate to reinforce the membrane , wherein said container is closed at said opening by said vapour permeable membrane and the laminate , and wherein the laminate is welded to the thermoformed part of the container.
A refrigerator, comprising: an inner case; an outer case coupled to the inner case, the inner case and the outer case defining a space; a composite heat insulating material disposed in the space between the inner case and the outer case, and comprising a fibrous structure and at least one of an aerogel and a xerogel, a vacuum heat insulating material disposed in the space between the inner case and the outer case; and a foam resin heat insulating material filled between the inner case and the outer case, wherein the vacuum heat insulating material is attached to at least one of a surface of the inner case and a surface of the outer case, characterized in that the composite heat insulating material is attached to at least one of the surface of the inner case and the surface of the outer case to which the vacuum heat insulating material is attached to overlap the vacuum heat insulating material , and the foam resin heat insulating material is provided to cover a surface of the composite heat insulating material ; wherein the aerogel and/or the xerogel of the composite heat insulating material has voids filled with a gas having a thermal conductivity lower than that of air; wherein the gas having a thermal conductivity lower than that of air includes a gas in a foam resin for the foam resin heat insulating material. an inner case; an outer case coupled to the inner case, the inner case and the outer case defining a space; a composite heat insulating material disposed in the space between the inner case and the outer case, and comprising a fibrous structure and at least one of an aerogel and a xerogel, a vacuum heat insulating material disposed in the space between the inner case and the outer case; and a foam resin heat insulating material filled between the inner case and the outer case, wherein the vacuum heat insulating material is attached to at least one of a surface of the inner case and a surface of the outer case, characterized in that the composite heat insulating material is attached to at least one of the surface of the inner case and the surface of the outer case to which the vacuum heat insulating material is attached to overlap the vacuum heat insulating material , and the foam resin heat insulating material is provided to cover a surface of the composite heat insulating material ; wherein the aerogel and/or the xerogel of the composite heat insulating material has voids filled with a gas having a thermal conductivity lower than that of air; wherein the gas having a thermal conductivity lower than that of air includes a gas in a foam resin for the foam resin heat insulating material.
A computer-implemented method comprising: obtaining, at a noise signal aggregator and at a first point in time, a noise floor signal transmitted from an antenna fixedly attached to a first vehicle , the noise floor signal indicating a location of the first vehicle , a noise floor measurement , and a time of measurement; accessing, by the noise signal aggregator , a noise floor map database storing a plurality of noise floor levels at a plurality of geographic locations, the sets of noise floor levels including noise floor levels corresponding to a plurality of cycle segments at the plurality of geographic locations; and updating, by the noise signal aggregator , a particular noise floor level for the obtained location of the first vehicle for a cycle segment including the time of measurement by combining the particular noise floor level with the noise floor measurement . obtaining, at a noise signal aggregator and at a first point in time, a noise floor signal transmitted from an antenna fixedly attached to a first vehicle , the noise floor signal indicating a location of the first vehicle , a noise floor measurement , and a time of measurement; accessing, by the noise signal aggregator , a noise floor map database storing a plurality of noise floor levels at a plurality of geographic locations, the sets of noise floor levels including noise floor levels corresponding to a plurality of cycle segments at the plurality of geographic locations; and updating, by the noise signal aggregator , a particular noise floor level for the obtained location of the first vehicle for a cycle segment including the time of measurement by combining the particular noise floor level with the noise floor measurement .
A method of expanding an elongated and at least regionally planar metal element which has two respective marginal regions , which are oppositely disposed and which extend in the longitudinal direction (L), and a central region which is arranged therebetween and which is provided with cuts , wherein the marginal regions of the metal element are moved apart transversely to the longitudinal direction (L) and in parallel with the planar extent of the metal element such that connection sections of the central region formed by the cuts and connecting the marginal regions to one another are folded, characterized in that , in a first method step before the moving apart, the marginal regions are displaced with respect to one another transversely to the planar extent of the metal element by a targeted exertion of force in a direction facing transversely to the planar extent of the metal element and, in a subsequent second method step, said marginal regions are moved apart in the displaced state.
A wearable muscle control device comprising: an expandable band that is adapted to be worn by a user; a plurality of capacitive EMG sensors integrated into the band, each capacitive EMG sensor in the plurality of sensors configured to, in use, detect electrical signals produced by muscle activity in response to the user performing a first physical gesture and provide at least one signal in response to the detected muscle activity; at least one inertial sensor integrated into the band, the at least one inertial sensor configured to, in use, detect motion in response to the user performing a second physical gesture and provide at least one signal in response to the detected motion; and a processor integrated into the band, the processor being communicatively coupled to the plurality of capacitive EMG sensors and to the at least one inertial sensor, and the processor being configured to, in use: detect and process at least one signal provided by each of the plurality of capacitive EMG sensors and the at least one signal provided by the at least one inertial sensor, and identify the first physical gesture and the second physical gesture performed by the user, wherein: the first physical gesture is identified based on the at least one signal provided by each of the plurality of capacitive EMG sensors; and the second physical gesture defined by a motion, is different from the first physical gesture, and is identified based on the at least one signal provided by the at least one inertial sensor. detect and process at least one signal provided by each of the plurality of capacitive EMG sensors and the at least one signal provided by the at least one inertial sensor, and identify the first physical gesture and the second physical gesture performed by the user, wherein: the first physical gesture is identified based on the at least one signal provided by each of the plurality of capacitive EMG sensors; and the second physical gesture defined by a motion, is different from the first physical gesture, and is identified based on the at least one signal provided by the at least one inertial sensor. the first physical gesture is identified based on the at least one signal provided by each of the plurality of capacitive EMG sensors; and the second physical gesture defined by a motion, is different from the first physical gesture, and is identified based on the at least one signal provided by the at least one inertial sensor.
A panel saw for cutting workpieces into multiple sections, comprising: - a machine base frame ; - a workpiece support with a sawing slot ; - a saw aggregate , which is arranged below the workpiece support , wherein a circular saw blade is arranged on the saw aggregate , which circular saw blade in a sawing position protrudes through the sawing slot and is displaceable in a sawing direction ; - a holding-down device for clamping the workpiece on the workpiece support ; - a positioning device for positioning the workpiece , wherein the holding-down device has at least one first holding-down beam with a first holding-down surface and a second holding-down beam with a second holding-down surface , wherein pressure pins are arranged in the first holding-down beam , which are displaceable relative to the first holding-down surface , characterized in that the pressure pins are arranged in bores of the first holding-down surface and are preloaded in their retracted position by means of a spring element, and that the pressure pins are displaceable out of their retracted position and into an advance position by means of compressed air. - a machine base frame ; - a workpiece support with a sawing slot ; - a saw aggregate , which is arranged below the workpiece support , wherein a circular saw blade is arranged on the saw aggregate , which circular saw blade in a sawing position protrudes through the sawing slot and is displaceable in a sawing direction ; - a holding-down device for clamping the workpiece on the workpiece support ; - a positioning device for positioning the workpiece ,
Cutting section for a drill bit , wherein the cutting section is connectable to a drill shaft section of the drill bit via a releasable connecting device which has at least one slot-shaped recess , having: ▪ a first closed tubular element which is in the form of a first hollow cylinder and which has a first hollow cylinder height (H 1 ), a first inside diameter (d 1 ) and a first outside diameter (D 1 ), ▪ a second closed tubular element which is in the form of a second hollow cylinder having a second circular ring-shaped cross-sectional area and which has a second hollow cylinder height (H 2 ), a second inside diameter (d 2 ) and a second outside diameter (D 2 ), and ▪ one or more drill segments , wherein the one or more drill segments are connected to the first closed tubular element and to the second closed tubular element and the second closed tubular element has the at least one slot-shaped recess , wherein the at least one slot-shaped recess comprises a transverse slot and a connecting slot , and the connecting slot connects the transverse slot to the second upper end surface of the second closed tubular element , characterized in that the first closed tubular element is pushed into the second closed tubular element , in that the first outside diameter (D 1 ) is smaller than the second inside diameter (d 2 ), in that a first outer lateral surface of the first closed tubular element touches a second inner lateral surface of the second closed tubular element , and in that the first hollow cylinder has a first waved, trapezoidal or zigzag-shaped cross-sectional area. ▪ a first closed tubular element which is in the form of a first hollow cylinder and which has a first hollow cylinder height (H 1 ), a first inside diameter (d 1 ) and a first outside diameter (D 1 ), ▪ a second closed tubular element which is in the form of a second hollow cylinder having a second circular ring-shaped cross-sectional area and which has a second hollow cylinder height (H 2 ), a second inside diameter (d 2 ) and a second outside diameter (D 2 ), and ▪ one or more drill segments , wherein the one or more drill segments are connected to the first closed tubular element and to the second closed tubular element and the second closed tubular element has the at least one slot-shaped recess , wherein the at least one slot-shaped recess comprises a transverse slot and a connecting slot , and the connecting slot connects the transverse slot to the second upper end surface of the second closed tubular element , characterized in that the first closed tubular element is pushed into the second closed tubular element , in that the first outside diameter (D 1 ) is smaller than the second inside diameter (d 2 ), in that a first outer lateral surface of the first closed tubular element touches a second inner lateral surface of the second closed tubular element , and in that the first hollow cylinder has a first waved, trapezoidal or zigzag-shaped cross-sectional area.
A complex treatment apparatus (1 00) comprising: a main body , the main body comprising: a connection part to or from which treatment part modules respectively performing inhalation, suction, luminescence, and nebulization functions required for treatment of respiratory diseases and ear diseases are replaceably connectable or separable; wherein each treatment part module comprises a second PCB with a display part displaying the functions of the treatment part module; a power switch ; a power supply part (1 35) configured to supply power to the treatment part modules according to an operation of the power switch; and a controller configured to control functions of the power supply part and the treatment part modules, wherein a grip part is provided on an outside surface of the main body in which the powersupply part and the controller are installed, wherein the connection part comprises a connector electrically connecting a first PCB with the power supply part and the controller installed therein and the second PCB with the display part displaying the functions of the treatment part modules. a main body , the main body comprising: a connection part to or from which treatment part modules respectively performing inhalation, suction, luminescence, and nebulization functions required for treatment of respiratory diseases and ear diseases are replaceably connectable or separable; wherein each treatment part module comprises a second PCB with a display part displaying the functions of the treatment part module; a power switch ; a power supply part (1 35) configured to supply power to the treatment part modules according to an operation of the power switch; and a controller configured to control functions of the power supply part and the treatment part modules, wherein a grip part is provided on an outside surface of the main body in which the powersupply part and the controller are installed, a connection part to or from which treatment part modules respectively performing inhalation, suction, luminescence, and nebulization functions required for treatment of respiratory diseases and ear diseases are replaceably connectable or separable; wherein each treatment part module comprises a second PCB with a display part displaying the functions of the treatment part module; a power switch ; a power supply part (1 35) configured to supply power to the treatment part modules according to an operation of the power switch; and a controller configured to control functions of the power supply part and the treatment part modules, wherein a grip part is provided on an outside surface of the main body in which the powersupply part and the controller are installed, wherein the connection part comprises a connector electrically connecting a first PCB with the power supply part and the controller installed therein and the second PCB with the display part displaying the functions of the treatment part modules.
A coated article including a coating supported by a glass substrate and having silver glass side reflective color, the coating comprising: - first and second infrared (IR) reflecting layers comprising silver, the first IR reflecting layer being located closer to the glass substrate than is the second IR reflecting layer ; - a first contact layer located over and directly contacting the first IR reflecting layer comprising silver; - a dielectric layer comprising silicon nitride located over and directly contacting the first contact layer; - a second contact layer located over the layer comprising silicon nitride; - the second IR reflecting layer comprising silver located over and directly contacting the second contact layer; - a third contact layer located over and directly contacting the second IR reflecting layer; and - another dielectric layer comprising silicon nitride located over the third contact layer, wherein the coated article has a visible transmission of from 15-45%, a glass side visible reflectance of from 23-43%, a glass side reflective a* value from -6.0 to +5.0, and a glass side reflective b* value from -11.0 to +3. 0, characterized in that the dielectric layer comprising silicon nitride is split by a splitting absorber layer comprising Nb and Zr, so that the splitting absorber layer comprising Nb and Zr is located between and contacting a first portion of the dielectric layer comprising silicon nitride and a second portion of the dielectric layer comprising silicon nitride. - first and second infrared (IR) reflecting layers comprising silver, the first IR reflecting layer being located closer to the glass substrate than is the second IR reflecting layer ; - a first contact layer located over and directly contacting the first IR reflecting layer comprising silver; - a dielectric layer comprising silicon nitride located over and directly contacting the first contact layer; - a second contact layer located over the layer comprising silicon nitride; - the second IR reflecting layer comprising silver located over and directly contacting the second contact layer; - a third contact layer located over and directly contacting the second IR reflecting layer; and - another dielectric layer comprising silicon nitride located over the third contact layer,
A method performed by a user equipment, UE , for skipping of access class barring, ACB, in a wireless communication system, the method comprising: receiving (S200), by a radio resource control, RRC, layer of the UE , from a base station, system information including ACB skip bits, which informs the RRC layer whether ACB check is skipped for a specific IMS/MMTEL application; upon receiving (S210) the ACB skip bits, and when the UE is in RRC_IDLE state, forwarding (S210), by the RRC layer of the UE , the ACB skip bits to an IMS/MMTEL layer; upon initiating (S220), by the IMS/MMTEL layer of the UE , the specific IMS/MMTEL application, and if the IMS/MMTEL layer of the UE passes a service specific access control check for the specific IMS/MMTEL application, informing (S231) a non-access stratum, NAS, layer of the UE that the ACB check should be skipped for the specific IMS/MMTEL application, otherwise informing (S301) the NAS layer of the UE that the ACB check should not be skipped for the specific IMS/MMTEL application; and transmitting (S240), by the NAS layer of the UE , a service request to the RRC layer of the UE if the RRC layer of the UE previously informed the NAS layer of the UE that ACB is applicable due to ACB check and the IMS/MMTEL layer of the UE informed the NAS layer of the UE that the ACB check should be skipped for the specific IMS/MMTEL application, otherwise not transmitting the service request to the RRC layer of the UE . receiving (S200), by a radio resource control, RRC, layer of the UE , from a base station, system information including ACB skip bits, which informs the RRC layer whether ACB check is skipped for a specific IMS/MMTEL application; upon receiving (S210) the ACB skip bits, and when the UE is in RRC_IDLE state, forwarding (S210), by the RRC layer of the UE , the ACB skip bits to an IMS/MMTEL layer; upon initiating (S220), by the IMS/MMTEL layer of the UE , the specific IMS/MMTEL application, and if the IMS/MMTEL layer of the UE passes a service specific access control check for the specific IMS/MMTEL application, informing (S231) a non-access stratum, NAS, layer of the UE that the ACB check should be skipped for the specific IMS/MMTEL application, otherwise informing (S301) the NAS layer of the UE that the ACB check should not be skipped for the specific IMS/MMTEL application; and transmitting (S240), by the NAS layer of the UE , a service request to the RRC layer of the UE if the RRC layer of the UE previously informed the NAS layer of the UE that ACB is applicable due to ACB check and the IMS/MMTEL layer of the UE informed the NAS layer of the UE that the ACB check should be skipped for the specific IMS/MMTEL application, otherwise not transmitting the service request to the RRC layer of the UE .