mhurhangee/ep-ind-claims huggingface dataset:
Electrically heatable antenna pane comprising at least: - one transparent pane, - one electrical heating layer that extends at least over a portion of a pane surface and that serves, at least section-wise, as a planar antenna for receiving and/or transmitting electromagnetic waves, - at least one first busbar and one second busbar that are electrically connectable to a voltage source and that are electrically conductingly connected to the heating layer in direct contact such that after application of a supply voltage, a heating current flows over a heating field formed by the heating layer, - one first antenna connection that is electrically conductingly connected to the heating layer in direct contact, - one second antenna connection that is electrically conductingly connected to a section of the heating layer in direct contact, wherein the section is electrically isolated against direct currents by a heating-layer-free separation region from the rest of the heating layer and the section is capacitively coupled to the adjacent heating layer for the transmission of antenna signals. - one transparent pane, - one electrical heating layer that extends at least over a portion of a pane surface and that serves, at least section-wise, as a planar antenna for receiving and/or transmitting electromagnetic waves, - at least one first busbar and one second busbar that are electrically connectable to a voltage source and that are electrically conductingly connected to the heating layer in direct contact such that after application of a supply voltage, a heating current flows over a heating field formed by the heating layer, - one first antenna connection that is electrically conductingly connected to the heating layer in direct contact, - one second antenna connection that is electrically conductingly connected to a section of the heating layer in direct contact,
A method, in a network node operatively connected to a wireless network, for detecting and correcting problems with scrambling code allocations among cells supported by a group of base stations in the wireless network, where each base station supports one or more of the cells, the method comprising designating an initial one of the group of base stations as a source base station; identifying a first set of scrambling codes, the first set of scrambling codes consisting of all scrambling codes allocated to cells supported by the source base station; determining a second set of scrambling codes, the second set of scrambling codes comprising at least all scrambling codes allocated to cells neighboring any of the cells supported by the source base station; comparing the first and second sets of scrambling codes to detect duplicate scrambling codes between the first and second sets; upon detecting a duplicated scrambling code between the first and second sets, using location information for the cells corresponding to the duplicated scrambling code to determine whether interference between the cells is likely and, if interference is likely, changing the scrambling code for the cell that has the duplicated scrambling code and that is supported by a base station other than the source base station; and selecting a next one of the base stations for designation as the source base station; and repeating said identifying, determining, comparing, using, changing, and selecting operations until each one of the base stations has been designated as the source base station. designating an initial one of the group of base stations as a source base station; identifying a first set of scrambling codes, the first set of scrambling codes consisting of all scrambling codes allocated to cells supported by the source base station; determining a second set of scrambling codes, the second set of scrambling codes comprising at least all scrambling codes allocated to cells neighboring any of the cells supported by the source base station; comparing the first and second sets of scrambling codes to detect duplicate scrambling codes between the first and second sets; upon detecting a duplicated scrambling code between the first and second sets, using location information for the cells corresponding to the duplicated scrambling code to determine whether interference between the cells is likely and, if interference is likely, changing the scrambling code for the cell that has the duplicated scrambling code and that is supported by a base station other than the source base station; and selecting a next one of the base stations for designation as the source base station; and repeating said identifying, determining, comparing, using, changing, and selecting operations until each one of the base stations has been designated as the source base station.
A communication method, in a network including a first communication apparatus, a second communication apparatus and a third communication apparatus, wherein the second communication apparatus execute a process comprising: identifying, from packets received from the first communication apparatus, forwarding packets that are packets to be forwarded to the third communication apparatus; measuring an interval in receiving the forwarding packets from the first communication apparatus; forwarding the forwarding packets to the third communication apparatus; receiving report information that reports a reception state of the forwarding packets from the third communication apparatus; using the report information to select target packets that are packets for which success of reception has not been reported from the third communication apparatus in the packets that were forwarded to the third communication apparatus; and when the interval in receiving the forwarding packets from the first communication apparatus exceeds a threshold, retransmitting the target packets to the third communication apparatus in a format using Forward Error Correction coding. identifying, from packets received from the first communication apparatus, forwarding packets that are packets to be forwarded to the third communication apparatus; measuring an interval in receiving the forwarding packets from the first communication apparatus; forwarding the forwarding packets to the third communication apparatus; receiving report information that reports a reception state of the forwarding packets from the third communication apparatus; using the report information to select target packets that are packets for which success of reception has not been reported from the third communication apparatus in the packets that were forwarded to the third communication apparatus; and when the interval in receiving the forwarding packets from the first communication apparatus exceeds a threshold, retransmitting the target packets to the third communication apparatus in a format using Forward Error Correction coding.
A method for freeze protection for a temperature control system, the temperature control system for controlling the temperature of a temperature-controlled space at a user-selected set point temperature, the method comprising: monitoring a discharge air temperature; monitoring a return air temperature; with a controller, setting a return air target temperature to equal the user-selected set point temperature; and characterized by controlling the return air temperature to be approximately equal to the return air target temperature; and adjusting the return air target temperature when the discharge air temperature drops to one of at or below freezing, wherein the controller determines during the adjusting step an adjusted value for the return air target temperature that is dependent on a measured value of the return air temperature. monitoring a discharge air temperature; monitoring a return air temperature; with a controller, setting a return air target temperature to equal the user-selected set point temperature; and characterized by controlling the return air temperature to be approximately equal to the return air target temperature; and adjusting the return air target temperature when the discharge air temperature drops to one of at or below freezing, wherein the controller determines during the adjusting step an adjusted value for the return air target temperature that is dependent on a measured value of the return air temperature.
A vacuum chamber comprising at least one ceramic isolating cylinder with two face ends, wherein at least one of the two face ends of the ceramic isolating cylinder is closed by a metallic cover comprising an outer and an inner part (4, 5), wherein a distal end of the outer part of the metallic cover is thinner relative to the remainder of the outer part of the metallic cover and forms a metallic lid, wherein the metallic lid is connected to at least one of the two face ends of the ceramic isolating cylinder in a vacuum tight manner, characterized in that the metallic cover is formed in one piece and fits with the inner part of the metallic cover at an inner girthed area of the ceramic isolating cylinder to realize a self-centering of the metallic lid to at least one of the two face ends of the ceramic isolating cylinder.
A method for tracking an object that is embedded within images of a scene, comprising: (a) in a sensor unit that includes a movable sensor, generating, storing and transmitting over a communication link a succession of images of a scene; (b) in a remote control unit, receiving the succession of images; (c) receiving a user command for selecting an object of interest in a given image of said received succession of images or derivative thereof, determining object data associated with said object and transmitting through said link to said sensor unit at least said object data; (d) in the sensor unit, identifying the given image of the stored succession of images and the object of interest using said object data, and tracking the object in at least one other image of said stored succession of images, said other image being later than said given image; characterized in that: (e) in the case that said object cannot be located in the latest image of said stored succession of images, using information of at least two images in which said object was located to predict estimated real-time location of the object and generating a direction command to the movable sensor for generating real-time image of the scene and locking on said object. (a) in a sensor unit that includes a movable sensor, generating, storing and transmitting over a communication link a succession of images of a scene; (b) in a remote control unit, receiving the succession of images; (c) receiving a user command for selecting an object of interest in a given image of said received succession of images or derivative thereof, determining object data associated with said object and transmitting through said link to said sensor unit at least said object data; (d) in the sensor unit, identifying the given image of the stored succession of images and the object of interest using said object data, and tracking the object in at least one other image of said stored succession of images, said other image being later than said given image; (e) in the case that said object cannot be located in the latest image of said stored succession of images, using information of at least two images in which said object was located to predict estimated real-time location of the object and generating a direction command to the movable sensor for generating real-time image of the scene and locking on said object.
Primary piston of a penetration-type tandem master cylinder, comprising a piston body with a front cavity (19/25) receiving the primary spring (7, 71, 72, 73; 29) and a rear cavity (17, 27) receiving the push rod, these cavities (19, 17) being separated by a wall, which primary piston is characterized in that - the body of the primary piston is moulded in plastic and delimits the front cavity and the rear cavity, which are separated by a metallic insert of overmoulded stamped sheet metal, this insert being situated between the front cavity and the rear cavity receiving the push rod, - the insert having a spherical cap for accommodating the push rod and a centring means for centring the primary spring or the primary spring pack. - the body of the primary piston is moulded in plastic and delimits the front cavity and the rear cavity, which are separated by a metallic insert of overmoulded stamped sheet metal, this insert being situated between the front cavity and the rear cavity receiving the push rod, - the insert having a spherical cap for accommodating the push rod and a centring means for centring the primary spring or the primary spring pack.
A thickener obtained by subjecting a disruption product of a plant to a pulverization or finely-dividing treatment simultaneously with or after a treatment with a lignin-degrading enzyme, wherein the 50% particle diameter after the pulverization or finely-dividing treatment is 20 to 100 μm.
A method of preparing a rubber composition for a tire comprising initiating kneading of a rubber component and a compound represented by the following formula before kneading the rubber component and a silane coupling agent having a mercapto group: wherein R 1 represents a straight-chain or branched chain alkyl group having 1 to 18 carbon atoms or a cycloalkyl group having 3 to 12 carbon atoms, and R 2 and R 3 together with nitrogen bonded thereto form a succinimide group, a maleimide group or a phthalimide group.
A process for the preparation of a core-shell microcapsule slurry comprising the following steps: a) dissolving at least an amino-acid derived polyisocyanate having at least two isocyanate functional groups in a hydrophobic material, preferably a perfume to form an oil phase; b) preparing a dispersing phase comprising a stabilizer, wherein the dispersing phase is not miscible with the oil phase; c) adding the oil phase into the dispersing phase to form a two-phases dispersion; d) optionally, adding a reactant to the dispersion obtained in step c); and e) performing a curing step to form core-shell microcapsules in the form of a slurry. a) dissolving at least an amino-acid derived polyisocyanate having at least two isocyanate functional groups in a hydrophobic material, preferably a perfume to form an oil phase; b) preparing a dispersing phase comprising a stabilizer, wherein the dispersing phase is not miscible with the oil phase; c) adding the oil phase into the dispersing phase to form a two-phases dispersion; d) optionally, adding a reactant to the dispersion obtained in step c); and e) performing a curing step to form core-shell microcapsules in the form of a slurry.
A needle assembly, comprising: a hub; and a cannula distally extending from the hub, the cannula including a magnetizable material; characterised by a needle guard defining a volume configured to be removably attached to the needle assembly so as to cover the cannula, the needle guard including a magnetic material configured to magnetize the cannula when the cannula is disposed in the volume. a hub; and a cannula distally extending from the hub, the cannula including a magnetizable material; characterised by a needle guard defining a volume configured to be removably attached to the needle assembly so as to cover the cannula, the needle guard including a magnetic material configured to magnetize the cannula when the cannula is disposed in the volume.
Ionization device, comprising: a plasma generating device configured to generate metastable particles and/or ions of an ionization gas in a primary plasma region, a field generating device configured to generate a glow discharge in a secondary plasma region, an inlet configured to supply a gas to be ionized into the secondary plasma region, characterized by a further inlet configured to supply the metastable particles and/or the ions of the ionization gas into the secondary plasma region. a plasma generating device configured to generate metastable particles and/or ions of an ionization gas in a primary plasma region, a field generating device configured to generate a glow discharge in a secondary plasma region, an inlet configured to supply a gas to be ionized into the secondary plasma region, characterized by a further inlet configured to supply the metastable particles and/or the ions of the ionization gas into the secondary plasma region.
A polymer composition comprising: a. 60-80 wt% of a recycled polypropylene; b. 10-35 wt% of a recycled polyethylene; c. 5-20 wt% of a polyolefin elastomer; d. 0.1-10 wt% styrene ethylene butylene styrene block copolymer (SEBS), wherein the wt% is relative to the total weight of the polymer composition; wherein said polymer composition comprises at least 11 wt% of polyolefin elastomer and styrene ethylene butylene styrene block copolymer, the recycled polypropylene is a material collected under the DSD 324 or DSD 324-1 standard and the recycled polyethylene is a material collected under the DSD 329 standard, and wherein the POE is a C2-C4 copolymer, a C2-C6 copolymer or a C2-C8 copolymer. a. 60-80 wt% of a recycled polypropylene; b. 10-35 wt% of a recycled polyethylene; c. 5-20 wt% of a polyolefin elastomer; d. 0.1-10 wt% styrene ethylene butylene styrene block copolymer (SEBS), wherein the wt% is relative to the total weight of the polymer composition; wherein said polymer composition comprises at least 11 wt% of polyolefin elastomer and styrene ethylene butylene styrene block copolymer, the recycled polypropylene is a material collected under the DSD 324 or DSD 324-1 standard and the recycled polyethylene is a material collected under the DSD 329 standard, and wherein the POE is a C2-C4 copolymer, a C2-C6 copolymer or a C2-C8 copolymer.
An orthopaedic prosthesis comprising: a tibial tray having a platform and a stem extending downwardly from a bottom surface of the platform, and a wireless communication device, characterised in that the prosthesis includes: a spacer which can be coupled to an end of the stem of the tibial tray, the spacer being formed from an electrically insulating material, and a stem extension which can be coupled to the spacer, the wireless communication device being electrically coupled to the stem extension via an antenna wire and configured to transmit data using the stem extension as an antenna. a tibial tray having a platform and a stem extending downwardly from a bottom surface of the platform, and a wireless communication device, characterised in that the prosthesis includes: a spacer which can be coupled to an end of the stem of the tibial tray, the spacer being formed from an electrically insulating material, and a stem extension which can be coupled to the spacer, the wireless communication device being electrically coupled to the stem extension via an antenna wire and configured to transmit data using the stem extension as an antenna. a spacer which can be coupled to an end of the stem of the tibial tray, the spacer being formed from an electrically insulating material, and a stem extension which can be coupled to the spacer, the wireless communication device being electrically coupled to the stem extension via an antenna wire and configured to transmit data using the stem extension as an antenna.
Method for manufacturing a skirt of a flexible tube, one end of which is intended to be closed by a head, for example a tube for cream, by triple-bubble extrusion blow moulding of a biaxially oriented film, the extrusion blow moulding method comprising the following steps: - extruding a film so as to obtain a tubular film in the form of a first bubble, - cooling and flattening the first bubble, - biaxial orientation in a machine direction and a transverse direction of the film by heating and inflating so as to form a second bubble, - cooling and flattening the second bubble, - heating and inflating the second bubble to form a third bubble, - cooling and flattening the third bubble, the manufacturing method being characterised in that it further comprises the following steps: - prior to the flattening of the third bubble, a step of thermal stabilisation of the film forming the third bubble made by simultaneous application of an internal pressure and a thermal treatment of the third bubble so as to anneal the film forming said third bubble, and - following the flattening the third bubble, the formation of an open skirt at two opposite ends from the biaxially oriented film. - extruding a film so as to obtain a tubular film in the form of a first bubble, - cooling and flattening the first bubble, - biaxial orientation in a machine direction and a transverse direction of the film by heating and inflating so as to form a second bubble, - cooling and flattening the second bubble, - heating and inflating the second bubble to form a third bubble, - cooling and flattening the third bubble, - prior to the flattening of the third bubble, a step of thermal stabilisation of the film forming the third bubble made by simultaneous application of an internal pressure and a thermal treatment of the third bubble so as to anneal the film forming said third bubble, and - following the flattening the third bubble, the formation of an open skirt at two opposite ends from the biaxially oriented film.
A method for producing a semifinished product of synthetic quartz glass by plastic deformation of a softened SiO 2 mass in a melt mold, comprising the following method steps: (a) providing a porous SiO 2 soot body, (b) zonewise sintering of the SiO 2 soot body in the melt mold at a sintering temperature and during a sintering period with formation of a completely sintered transparent quartz glass body, and directly thereafter (c) shaping the sintered quartz glass body by softening in the melt mold with formation of a viscous quartz glass mass which fills the volume of the melt mold entirely or partly, and (d) cooling the quartz glass mass and removing the mass from the melt mold with formation of the semifinished product. (a) providing a porous SiO 2 soot body, (b) zonewise sintering of the SiO 2 soot body in the melt mold at a sintering temperature and during a sintering period with formation of a completely sintered transparent quartz glass body, and directly thereafter (c) shaping the sintered quartz glass body by softening in the melt mold with formation of a viscous quartz glass mass which fills the volume of the melt mold entirely or partly, and (d) cooling the quartz glass mass and removing the mass from the melt mold with formation of the semifinished product.
A glucagon receptor agonist compound comprising the formula: YX 1 QGTFX 2 SDYSKYLDX 3 KKAX 4 EFVX 5 WLLEX 6 X 7 wherein X 1 is Aib; X 2 is T or L; X 3 is Aib; X 4 is K which is chemically modified through conjugation to the epsilon-amino group of the K side-chain with ([2-(2-Amino-ethoxy)-ethoxy]-acetyl) 2 -(γGlu) a -CO-(CH 2) b -CO 2 H, wherein a is 1 or 2 and b is 14 to 24; X 5 is E or A; X 6 is T or E; X 7 is either absent, or is a peptide selected from the group consisting of GPSSGAPPPS and GPSSG; and the C-terminal amino acid is amidated as a C-terminal primary amide (SEQ ID NO: 5); or a pharmaceutically acceptable salt thereof. X 1 is Aib; X 2 is T or L; X 3 is Aib; X 4 is K which is chemically modified through conjugation to the epsilon-amino group of the K side-chain with ([2-(2-Amino-ethoxy)-ethoxy]-acetyl) 2 -(γGlu) a -CO-(CH 2) b -CO 2 H, wherein a is 1 or 2 and b is 14 to 24; X 5 is E or A; X 6 is T or E; X 7 is either absent, or is a peptide selected from the group consisting of GPSSGAPPPS and GPSSG; and the C-terminal amino acid is amidated as a C-terminal primary amide (SEQ ID NO: 5);