mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication, comprising: maintaining at least one power headroom report, PHR, trigger for triggering communication of a PHR for a plurality of component carriers; and communicating the PHR for at least a component carrier corresponding to the at least one PHR trigger and all other component carriers that had their corresponding PHR triggered in a intervening time before a next available PUSCH transmission of the component carriers upon the at least one PHR trigger being triggered, wherein, the communicated PHR includes, for said at least the component carrier corresponding to at least one PHR trigger and all the other component carriers that had their corresponding PHR triggered in the intervening time before the next available PUSCH transmission of the component carriers, at least one bit indicating if the Power headroom, PH, value of the PHR is based on a real PUSCH transmission or a PUSCH reference format, at least one bit indicating whether a power backoff is applied due to power management allowed by a power management maximum power reduction. maintaining at least one power headroom report, PHR, trigger for triggering communication of a PHR for a plurality of component carriers; and communicating the PHR for at least a component carrier corresponding to the at least one PHR trigger and all other component carriers that had their corresponding PHR triggered in a intervening time before a next available PUSCH transmission of the component carriers upon the at least one PHR trigger being triggered, wherein, the communicated PHR includes, for said at least the component carrier corresponding to at least one PHR trigger and all the other component carriers that had their corresponding PHR triggered in the intervening time before the next available PUSCH transmission of the component carriers, at least one bit indicating if the Power headroom, PH, value of the PHR is based on a real PUSCH transmission or a PUSCH reference format, at least one bit indicating whether a power backoff is applied due to power management allowed by a power management maximum power reduction. at least one bit indicating if the Power headroom, PH, value of the PHR is based on a real PUSCH transmission or a PUSCH reference format, at least one bit indicating whether a power backoff is applied due to power management allowed by a power management maximum power reduction.
A rotary union , comprising: a housing having a fluid inlet ; a rotating machine component rotatably supported in the housing ; a rotating seal member associated with the rotating machine component ; a non-rotating seal member slidably and sealably disposed within the housing adjacent the rotating seal member ; an expandable seal disposed between and sealably engaging each of the non-rotating seal member and the housing ; wherein the expandable seal includes two end portions , one of the two end portions engaged to the non-rotating seal member and the other of the two end portions engaged to the housing , and an expandable portion disposed axially between the two end portions , the expandable portion having an axial length that varies based on a pressure of a hydraulic fluid that is present at the fluid inlet , wherein each of the two end portions has a hollow cylindrical shape that engages a corresponding bore in the non-rotating seal member and the housing along its outer periphery, and wherein each corresponding bore includes a rounded edge facing the expandable seal, each rounded edge having a radius of curvature that matches a radius (R') of curvature along a corresponding interface between an end portion and an expandable portion of the expandable seal . a housing having a fluid inlet ; a rotating machine component rotatably supported in the housing ; a rotating seal member associated with the rotating machine component ; a non-rotating seal member slidably and sealably disposed within the housing adjacent the rotating seal member ; an expandable seal disposed between and sealably engaging each of the non-rotating seal member and the housing ;
A communication device (100; 120; 140; 190) comprising: a reception unit (114; 122; 128) configured to receive a data packet transmitted from a terminal device or transmitted to the terminal device, a communication control unit (110; 132; 152) configured: to determine that the data packet is a packet for machine type communication; to select an intermediate node on a path to a destination node of the data packet to receive the data packet, wherein the selected intermediate node is different from the destination node and is selected from a plurality of intermediate node candidates based on intermediate node data stored in a storage unit of the communication device; to replace information regarding the destination node in a destination field of the data packet with intermediate node designation information designating the selected intermediate node; a transmission unit configured to transmit the data packet into which the intermediate node designation information is inserted. a reception unit (114; 122; 128) configured to receive a data packet transmitted from a terminal device or transmitted to the terminal device, a communication control unit (110; 132; 152) configured: to determine that the data packet is a packet for machine type communication; to select an intermediate node on a path to a destination node of the data packet to receive the data packet, wherein the selected intermediate node is different from the destination node and is selected from a plurality of intermediate node candidates based on intermediate node data stored in a storage unit of the communication device; to replace information regarding the destination node in a destination field of the data packet with intermediate node designation information designating the selected intermediate node; a transmission unit configured to transmit the data packet into which the intermediate node designation information is inserted. to determine that the data packet is a packet for machine type communication; to select an intermediate node on a path to a destination node of the data packet to receive the data packet, wherein the selected intermediate node is different from the destination node and is selected from a plurality of intermediate node candidates based on intermediate node data stored in a storage unit of the communication device; to replace information regarding the destination node in a destination field of the data packet with intermediate node designation information designating the selected intermediate node; a transmission unit configured to transmit the data packet into which the intermediate node designation information is inserted.
A method for producing cross-laminated plywood, characterized in that the method comprises applying an aqueous binder composition on at least one surface of at least one veneer, wherein the aqueous binder composition is prepared by using at least polymerizable substance and crosslinking agent, and wherein: - the polymerizable substance comprises lignin and at least one compound selected from the class of phenols, wherein the lignin contains less than 10 weight-% of carbohydrates; - at least 50 % of the molecules in the binder composition have a molecular weight of above 3000 Da and at least 5 % of the molecules in the binder composition have a molecular weight of below 1000 Da; and - the polydispersity index of the binder composition is 6 or higher. - the polymerizable substance comprises lignin and at least one compound selected from the class of phenols, wherein the lignin contains less than 10 weight-% of carbohydrates; - at least 50 % of the molecules in the binder composition have a molecular weight of above 3000 Da and at least 5 % of the molecules in the binder composition have a molecular weight of below 1000 Da; and - the polydispersity index of the binder composition is 6 or higher.
Converter with a vessel for receiving a metal melt and with a support ring , wherein the support ring has two support pins , which form a pivot axis and about which the converter can be pivoted for pouring the metal melt, that the vessel for receiving a metal melt has at least one vessel pin , that the converter comprises a vessel pin bearing connected directly or indirectly with the support ring , that the vessel is held by the support ring by means of the vessel pin and the vessel pin bearing , characterised in that the converter comprises a rotation ring , the converter has a large-diameter roller bearing , the rotation ring is detachably secured to the support ring by means of the large-diameter roller bearing and the vessel pin bearing or bearings is or are secured to the rotation ring. with a vessel for receiving a metal melt and with a support ring , wherein the support ring has two support pins , which form a pivot axis and about which the converter can be pivoted for pouring the metal melt, that the vessel for receiving a metal melt has at least one vessel pin , that the converter comprises a vessel pin bearing connected directly or indirectly with the support ring , that the vessel is held by the support ring by means of the vessel pin and the vessel pin bearing , characterised in that the converter comprises a rotation ring , the converter has a large-diameter roller bearing , the rotation ring is detachably secured to the support ring by means of the large-diameter roller bearing and the vessel pin bearing or bearings is or are secured to the rotation ring.
A method for printing a security mark via a non-fluorescent toner, comprising receiving, by a processor , an electronic file of a security mark to be printed on a substrate; determining, by the processor, an amount of halftone coverage for forming the security mark for a non-fluorescent toner based on a brightness of the substrate, the difference in brightness between the substrate and the non-fluorescent toner being less than 1 L* unit; converting, by the processor, the electronic file of the security mark into a printer description language with the amount of halftone coverage for forming the security mark that is determined; and causing, by the processor, the security mark to be printed on the substrate determining, by the processor, an amount of halftone coverage for forming the security mark for a non-fluorescent toner based on a brightness of the substrate, the difference in brightness between the substrate and the non-fluorescent toner being less than 1 L* unit; converting, by the processor, the electronic file of the security mark into a printer description language with the amount of halftone coverage for forming the security mark that is determined; and causing, by the processor, the security mark to be printed on the substrate
A control method for controlling a wireless device comprising: setting a decode protocol (Pt1) at a first wireless device and a second wireless device ; publishing a service set identifier (SSID) by the first wireless device ; detecting the service set identifier (SSID) by the second wireless device ; decoding the service set identifier (SSID) according to the decode protocol (Pt1) by the second wireless device ; generating a user identifier (UID) by the first wireless device ; transmitting the user identifier (UID) to the second wireless device by the first wireless device , through a network link (CT); and obtaining the user identifier (UID) and executing a specific function by the second wireless device ; wherein the specific function comprises generating user data (UD), linking the user data (UD) and the user identifier (UID), and transmitting the linked user data (UD) and user identifier (UID), and wherein the second wireless device comprises a medical wireless device, an X-ray detection board, an X-ray camera, a magnetic resonance imaging (MRI) device, a computed tomography device and/or a positron emission camera. setting a decode protocol (Pt1) at a first wireless device and a second wireless device ; publishing a service set identifier (SSID) by the first wireless device ; detecting the service set identifier (SSID) by the second wireless device ; decoding the service set identifier (SSID) according to the decode protocol (Pt1) by the second wireless device ; generating a user identifier (UID) by the first wireless device ; transmitting the user identifier (UID) to the second wireless device by the first wireless device , through a network link (CT); and obtaining the user identifier (UID) and executing a specific function by the second wireless device ; wherein the specific function comprises generating user data (UD), linking the user data (UD) and the user identifier (UID), and transmitting the linked user data (UD) and user identifier (UID), and wherein the second wireless device comprises a medical wireless device, an X-ray detection board, an X-ray camera, a magnetic resonance imaging (MRI) device, a computed tomography device and/or a positron emission camera.
An antenna arrangement comprising a body comprising a plurality of antenna devices , the body having a flexible structure and an elongated shape, characterized in that each antenna device comprises a controller and an antenna element, wherein said controller is configured for performing per element processing, the antenna arrangement thus being arranged for distributed processing utilizing the controllers of the antenna devices .
A lithiated polyamide-imide (LiPAI) comprising : 0 to 50 mol.% of recurring units R imide of formula : 0 to 70 mol.% of recurring units R amic acid of formula : and 30 to 100 mol.% of recurring units R Li salt of formula provided that recurring units R imide , R amic acid , and R Li salt collectively represent more than 50 mol.% of recurring units in the lithiated polyamide-imide (LiPAI), wherein : Ar is a trivalent aromatic group selected from the group consisting of : and corresponding optionally substituted structures; X is selected from the group consisting of -O-, -C(O)-, -CH 2 -, -C(CF 3 ) 2 -, and -(CF 2 ) p -; p is an integer from 1 to 5; R is a divalent aromatic group selected from the group consisting of : and corresponding optionally substituted structures, and Y is selected from the group consisting of -O-, -S-, -SO 2 -, -CH 2 -, -C(O)-, -C(CF 3 ) 2 -, -(CF 2 ) q -, q being an integer from 0 to 5. 0 to 50 mol.% of recurring units R imide of formula : 0 to 70 mol.% of recurring units R amic acid of formula : and 30 to 100 mol.% of recurring units R Li salt of formula provided that recurring units R imide , R amic acid , and R Li salt collectively represent more than 50 mol.% of recurring units in the lithiated polyamide-imide (LiPAI), wherein : Ar is a trivalent aromatic group selected from the group consisting of : and corresponding optionally substituted structures; X is selected from the group consisting of -O-, -C(O)-, -CH 2 -, -C(CF 3 ) 2 -, and -(CF 2 ) p -; p is an integer from 1 to 5; R is a divalent aromatic group selected from the group consisting of : and corresponding optionally substituted structures, and Y is selected from the group consisting of -O-, -S-, -SO 2 -, -CH 2 -, -C(O)-, -C(CF 3 ) 2 -, -(CF 2 ) q -, q being an integer from 0 to 5. Ar is a trivalent aromatic group selected from the group consisting of : and corresponding optionally substituted structures; X is selected from the group consisting of -O-, -C(O)-, -CH 2 -, -C(CF 3 ) 2 -, and -(CF 2 ) p -; p is an integer from 1 to 5; R is a divalent aromatic group selected from the group consisting of : and corresponding optionally substituted structures, and Y is selected from the group consisting of -O-, -S-, -SO 2 -, -CH 2 -, -C(O)-, -C(CF 3 ) 2 -, -(CF 2 ) q -, q being an integer from 0 to 5.
A display device comprising: a plurality of pixel electrodes (AE) spaced apart from each other on a substrate; a plurality of light emitting elements (ED) disposed on the plurality of pixel electrodes, the plurality of light emitting elements comprising a first semiconductor layer ; a semiconductor pattern disposed on the first semiconductor layer ; a common electrode layer (CEL) disposed on the semiconductor pattern ; and a void (V) disposed between the first semiconductor layer and the common electrode layer (CEL) and adjacent to the semiconductor pattern , wherein the plurality of light emitting elements (ED) comprise a first light emitting element (ED1) and a second light emitting element (ED2). a plurality of pixel electrodes (AE) spaced apart from each other on a substrate; a plurality of light emitting elements (ED) disposed on the plurality of pixel electrodes, the plurality of light emitting elements comprising a first semiconductor layer ; a semiconductor pattern disposed on the first semiconductor layer ; a common electrode layer (CEL) disposed on the semiconductor pattern ; and a void (V) disposed between the first semiconductor layer and the common electrode layer (CEL) and adjacent to the semiconductor pattern , wherein the plurality of light emitting elements (ED) comprise a first light emitting element (ED1) and a second light emitting element (ED2).
Cylindrical capacitor, consisting of a plurality of cylindrical winding elements which are stacked one above the other in the direction of the cylinder axis and have electrical contact surfaces (5; 9; 10; 100) on their end faces, which contact surfaces are connected to switching strips (7; 8) which are guided over the cylinder jacket surface, and each having at least one connection terminal (4; 41), characterized in that two substantially circular first and second connecting discs (2; 3) adapted to the cylinder diameter are provided, which are electrically and mechanically separated from an insulating element , wherein the first of the connecting discs is directly electrically connected to a contact surface located in the direction of the connecting terminal (4; 41) of an upper cylindrical winding element , further, starting from the first connecting disc , a plurality of first switching strips are formed which are distributed over the cylinder jacket surface and extend substantially parallel and which are each connected to a contact surface facing away from the connecting terminal (4; 41) of a further winding element , starting from the second of the connecting discs, a plurality of second switching strips are formed which are distributed over the cylinder jacket surface and extend congruently over the first switching strips and which lead to the further contact surfaces (9; 10) of the winding elements for the electrical parallel connection thereof, wherein an insulating layer or insulating sheath is provided at least in the overlapping region of the first and second switching strips (7; 8). two substantially circular first and second connecting discs (2; 3) adapted to the cylinder diameter are provided, which are electrically and mechanically separated from an insulating element , wherein the first of the connecting discs is directly electrically connected to a contact surface located in the direction of the connecting terminal (4; 41) of an upper cylindrical winding element , further, starting from the first connecting disc , a plurality of first switching strips are formed which are distributed over the cylinder jacket surface and extend substantially parallel and which are each connected to a contact surface facing away from the connecting terminal (4; 41) of a further winding element , starting from the second of the connecting discs, a plurality of second switching strips are formed which are distributed over the cylinder jacket surface and extend congruently over the first switching strips and which lead to the further contact surfaces (9; 10) of the winding elements for the electrical parallel connection thereof, wherein an insulating layer or insulating sheath is provided at least in the overlapping region of the first and second switching strips (7; 8).
Bagless vacuum cleaner comprising a separator container and a flap which is arranged laterally in and/or on the separator container and is designed such that a separator chamber located in the separator container can be cleaned and/or maintained when the flap is open and is dust-tightly sealed when the flap is closed, relative to a direction of travel (R) of the vacuum cleaner, characterised in that the flap has a recess in which a cleaning tool is arranged which can be removed from the recess in order to clean the separator chamber .
A system for estimating a state of an environment, based on multi-channel information of a multi-band Wi-Fi transmission that provides Wi-Fi coverage of the environment over a centimeter-wavelength channel and a millimeter-wavelength channel, the system comprising: at least one processor ; and memory having instructions stored thereon that, when executed by the at least one processor, cause the system to: receive properties of different channels of the multi-band Wi-Fi transmission including one or multiple properties of the centimeter-wavelength channel and one or multiple properties of the millimeter-wavelength channel; determine the state of the environment using jointly the properties of the centimeter-wavelength channel and the properties of the millimeter-wavelength channel; and submit the state of the environment to a service provider, wherein the state of the environment comprises a location, pose, state, height, motion, orientation, and behavior of static and moving objects in the environment, and wherein such objects are communication device-carrying objects and/or communication device-free objects. receive properties of different channels of the multi-band Wi-Fi transmission including one or multiple properties of the centimeter-wavelength channel and one or multiple properties of the millimeter-wavelength channel; determine the state of the environment using jointly the properties of the centimeter-wavelength channel and the properties of the millimeter-wavelength channel; and submit the state of the environment to a service provider, wherein the state of the environment comprises a location, pose, state, height, motion, orientation, and behavior of static and moving objects in the environment, and wherein such objects are communication device-carrying objects and/or communication device-free objects.