mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving, by a wireless device , one or more messages comprising one or more configuration parameters for a cell, wherein the one or more configuration parameters indicate: transmission configuration indicator, TCI, states for decoding physical downlink shared channel, PDSCH; and a sounding reference signal, SRS, resource; receiving a medium access control control element, MAC CE, activating one or more TCI states of the TCI states; and transmitting, via the SRS resource, an SRS with a spatial domain transmission filter, wherein: the one or more configuration parameters do not indicate a spatial relation for the SRS resource and do not indicate a control resource set in an active downlink bandwidth part, BWP, of the cell; and the spatial domain transmission filter is based on an activated TCI state with a lowest TCI state index among one or more TCI state indexes of the one or more activated TCI states. receiving, by a wireless device , one or more messages comprising one or more configuration parameters for a cell, wherein the one or more configuration parameters indicate: transmission configuration indicator, TCI, states for decoding physical downlink shared channel, PDSCH; and a sounding reference signal, SRS, resource; transmission configuration indicator, TCI, states for decoding physical downlink shared channel, PDSCH; and a sounding reference signal, SRS, resource; receiving a medium access control control element, MAC CE, activating one or more TCI states of the TCI states; and transmitting, via the SRS resource, an SRS with a spatial domain transmission filter, wherein: the one or more configuration parameters do not indicate a spatial relation for the SRS resource and do not indicate a control resource set in an active downlink bandwidth part, BWP, of the cell; and the spatial domain transmission filter is based on an activated TCI state with a lowest TCI state index among one or more TCI state indexes of the one or more activated TCI states. the one or more configuration parameters do not indicate a spatial relation for the SRS resource and do not indicate a control resource set in an active downlink bandwidth part, BWP, of the cell; and the spatial domain transmission filter is based on an activated TCI state with a lowest TCI state index among one or more TCI state indexes of the one or more activated TCI states.
A light emitting module for an automotive headlight, comprising: a light guide plate comprising a front surface for exiting light;, a rear surface positioned opposite to the front surface , and a side surface positioned at a side of the light guide plate ; a first lighting unit configured to emit a first light beam incident upon the rear surface of the light guide plate, the first lighting unit positioned backwards and at a distance from a rear surface of the light guide plate ; and a second lighting unit configured to emit a second light beam incident upon the side surface of the light guide plate, the second lighting unit positioned sidewards of a side surface of the light guide plate ; characterized in that the light guide plate has a plurality of concave structures containing a lower inclined flat surface ("bfgc") and an upper flat surface ("aegc") angled with respect to the lower inclined flat surface ("bfgc") at the rear surface thereof for refracting the light of the first light beam hitting the concave structures downwards and for reflecting the second light beam forwards towards the front surface of the light guide plate . a light guide plate comprising a front surface for exiting light;, a rear surface positioned opposite to the front surface , and a side surface positioned at a side of the light guide plate ; a first lighting unit configured to emit a first light beam incident upon the rear surface of the light guide plate, the first lighting unit positioned backwards and at a distance from a rear surface of the light guide plate ; and a second lighting unit configured to emit a second light beam incident upon the side surface of the light guide plate, the second lighting unit positioned sidewards of a side surface of the light guide plate ; characterized in that the light guide plate has a plurality of concave structures containing a lower inclined flat surface ("bfgc") and an upper flat surface ("aegc") angled with respect to the lower inclined flat surface ("bfgc") at the rear surface thereof for refracting the light of the first light beam hitting the concave structures downwards and for reflecting the second light beam forwards towards the front surface of the light guide plate .
A fusogenic liposome-coated porous silicon nanoparticle comprising: a nanostructured silicon-containing core material having a plurality of pores, the material comprising: (a) a porous silicon core prepared from a crystalline silicon material, (b) a porous surface that is chemically linked to the porous silicon core, (c) a plurality of cargo molecules that are physically associated with the porous silicon core, and (d) a metal silicate on the porous surface, wherein the metal silicate comprises a calcium or magnesium silicate; and a fusogenic liposome coating around the silicon-containing core material; wherein said plurality of cargo molecules comprise a nucleic acid. a nanostructured silicon-containing core material having a plurality of pores, the material comprising: (a) a porous silicon core prepared from a crystalline silicon material, (b) a porous surface that is chemically linked to the porous silicon core, (c) a plurality of cargo molecules that are physically associated with the porous silicon core, and (d) a metal silicate on the porous surface, wherein the metal silicate comprises a calcium or magnesium silicate; and (a) a porous silicon core prepared from a crystalline silicon material, (b) a porous surface that is chemically linked to the porous silicon core, (c) a plurality of cargo molecules that are physically associated with the porous silicon core, and (d) a metal silicate on the porous surface, wherein the metal silicate comprises a calcium or magnesium silicate; and a fusogenic liposome coating around the silicon-containing core material; wherein said plurality of cargo molecules comprise a nucleic acid.
A method of operating a forming shield arrangement that is configured for a windrowing work vehicle , the forming shield arrangement including at least one forming shield that is moveably supported by a support structure , the at least one forming shield including a deflecting surface that extends substantially in a vertical direction, the deflecting surface configured to deflect a crop material for forming a windrow , the method comprising: receiving, by a processor of a control system from a memory element , a stored position setting that corresponds to a position of the deflecting surface relative to the support structure ; processing, by the processor , a positioning control signal based, at least in part, on the stored position setting; and moving, with an actuator , the at least one forming shield relative to the support structure according to the positioning control signal to change the position of the deflecting surface , characterized in that the method further comprising detecting, with a sensor , an actual position setting of the at least one forming shield and saving the actual position setting as the stored position setting, and receiving, by the processor , location data that corresponds to an actual location of the windrowing work vehicle within a field; and wherein processing the positioning control signal includes processing the positioning control signal based, at least in part, on the stored position setting and the location data. receiving, by a processor of a control system from a memory element , a stored position setting that corresponds to a position of the deflecting surface relative to the support structure ; processing, by the processor , a positioning control signal based, at least in part, on the stored position setting; and moving, with an actuator , the at least one forming shield relative to the support structure according to the positioning control signal to change the position of the deflecting surface , characterized in that the method further comprising detecting, with a sensor , an actual position setting of the at least one forming shield and saving the actual position setting as the stored position setting, and receiving, by the processor , location data that corresponds to an actual location of the windrowing work vehicle within a field; and wherein processing the positioning control signal includes processing the positioning control signal based, at least in part, on the stored position setting and the location data.
A method performed by a secondary station to obtain a time reference in a cellular network, the method comprising sending, at initial connection to the network, a request for a time reference, said request being addressed to a Signature Generator, wherein the request for time reference includes a randomly generated number used as a nonce, receiving the time reference and the nonce, wherein the time reference and the nonce are signed with a nonce signature, using the nonce and nonce signature to check authenticity of received messages, using the received time reference to configure a clock at the secondary station; the method further comprising receiving a plurality of system information, SI, messages from a plurality of primary stations, said SI messages including each a respective time reference information related to the corresponding primary station, checking the validity of a received signature for each of the primary stations, checking a cell identifier for each of the primary stations with a valid signature, and ignoring time reference information from primary stations with a cell identifier being identical to another primary station and having an earlier value than the one from the other primary station, and deducing a local time reference from one or more of the time reference information originating from primary stations with a valid signature. sending, at initial connection to the network, a request for a time reference, said request being addressed to a Signature Generator, wherein the request for time reference includes a randomly generated number used as a nonce, receiving the time reference and the nonce, wherein the time reference and the nonce are signed with a nonce signature, using the nonce and nonce signature to check authenticity of received messages, using the received time reference to configure a clock at the secondary station; the method further comprising receiving a plurality of system information, SI, messages from a plurality of primary stations, said SI messages including each a respective time reference information related to the corresponding primary station, checking the validity of a received signature for each of the primary stations, checking a cell identifier for each of the primary stations with a valid signature, and ignoring time reference information from primary stations with a cell identifier being identical to another primary station and having an earlier value than the one from the other primary station, and deducing a local time reference from one or more of the time reference information originating from primary stations with a valid signature.
A wrapping machine comprising: - a feed path (P) of products (R) to be wrapped in a wrapping sheet (F); - along the feed path, an insertion station of products (R) to be wrapped in a wrapping sheet (F) and folding members of the wrapping sheet (F); - a conveyor device , which receives the products (R) in the insertion station and causes advancement thereof through the folding members ; wherein the conveyor device comprises a system of endless flexible members that define a closed trajectory along which carriages , constrained to the flexible members and provided with prongs , move; wherein pairs of consecutive and adjacent carriages define compartments (V) for accommodating products (R) to be wrapped; characterized by further comprising: - a magazine of carriages associated with the system of flexible members ; - and manipulators adapted to pick up carriages from the magazine and attach them to the system of flexible members , and to pick up carriages from the system of flexible members and place them in the magazine . - a feed path (P) of products (R) to be wrapped in a wrapping sheet (F); - along the feed path, an insertion station of products (R) to be wrapped in a wrapping sheet (F) and folding members of the wrapping sheet (F); - a conveyor device , which receives the products (R) in the insertion station and causes advancement thereof through the folding members ; wherein the conveyor device comprises a system of endless flexible members that define a closed trajectory along which carriages , constrained to the flexible members and provided with prongs , move; wherein pairs of consecutive and adjacent carriages define compartments (V) for accommodating products (R) to be wrapped; - a magazine of carriages associated with the system of flexible members ; - and manipulators adapted to pick up carriages from the magazine and attach them to the system of flexible members , and to pick up carriages from the system of flexible members and place them in the magazine .
An article comprising: a. a water-soluble film, wherein the water-soluble film comprises: a polyvinyl alcohol (PVOH) polymer; dipropylene glycol as a first plasticizer; sorbitol as a second plasticizer; and glycerin as a third plasticizer,; and b. a household care composition, preferably wherein the household care composition is in contact with the water-soluble film, wherein the first, second, and third plasticizers are present in the water-soluble film in a combined amount in a range of 5 parts to 50 parts total plasticizer per 100 parts total resin (phr) in the water-soluble film. a. a water-soluble film, wherein the water-soluble film comprises: a polyvinyl alcohol (PVOH) polymer; dipropylene glycol as a first plasticizer; sorbitol as a second plasticizer; and glycerin as a third plasticizer,; and a polyvinyl alcohol (PVOH) polymer; dipropylene glycol as a first plasticizer; sorbitol as a second plasticizer; and glycerin as a third plasticizer,; and b. a household care composition, preferably wherein the household care composition is in contact with the water-soluble film, wherein the first, second, and third plasticizers are present in the water-soluble film in a combined amount in a range of 5 parts to 50 parts total plasticizer per 100 parts total resin (phr) in the water-soluble film.
A method for designing a waveform for data communication, the method comprising: applying, by a phase rotation applying unit, a constellation specific phase rotation between consecutive data symbols in a data stream to obtain a constellation rotated data stream; obtaining, by a repeating unit, a spread signal from the constellation rotated data stream in a frequency domain; and applying, by a computing unit, a frequency domain pulse shaping filter to a spread signal, wherein the frequency domain pulse shaping filter is obtained using a Discrete Fourier transform (DFT) of a linearized Gaussian pulse sampled using an over-sampling factor. applying, by a phase rotation applying unit, a constellation specific phase rotation between consecutive data symbols in a data stream to obtain a constellation rotated data stream; obtaining, by a repeating unit, a spread signal from the constellation rotated data stream in a frequency domain; and applying, by a computing unit, a frequency domain pulse shaping filter to a spread signal, wherein the frequency domain pulse shaping filter is obtained using a Discrete Fourier transform (DFT) of a linearized Gaussian pulse sampled using an over-sampling factor.
A personal care composition comprising: (a) glycinate surfactant; (b) polyol; and (c) nonionic surfactant comprising alkyl glucoside, wherein: (i) the weight ratio of the polyol to the glycinate surfactant is no less than 5.4:1; (ii) the composition comprises phenoxyethanol; and (iii) the total amount of the glycinate surfactant and alkyl glucoside is at least 2% by weight of the composition. (a) glycinate surfactant; (b) polyol; and (c) nonionic surfactant comprising alkyl glucoside, (i) the weight ratio of the polyol to the glycinate surfactant is no less than 5.4:1; (ii) the composition comprises phenoxyethanol; and (iii) the total amount of the glycinate surfactant and alkyl glucoside is at least 2% by weight of the composition.
Harness system for a user of a thermal weed control system, said system including a gas cylinder and a thermal lance supplied by said cylinder, which comprises: - a harness comprising: - in the back, a support for said cylinder; - a shoulder strap ; and, - a belt ; characterised in that it further comprises: - at least on said shoulder strap, means for attaching an upright of an arm ; - an arm having an upright designed to be attached to said attachment means of the harness and having a cross-member extending from the upright; and, - a suspension wire comprising a first end (SA) attached to an upper part of the harness, preferably to an upper part of the shoulder strap , and a second end designed to be attached to said lance , said arm comprising a free end forming an eyelet , said suspension wire being designed to go through said eyelet . - a harness comprising: - in the back, a support for said cylinder; - a shoulder strap ; and, - a belt ; - in the back, a support for said cylinder; - a shoulder strap ; and, - a belt ; characterised in that it further comprises: - at least on said shoulder strap, means for attaching an upright of an arm ; - an arm having an upright designed to be attached to said attachment means of the harness and having a cross-member extending from the upright; and, - a suspension wire comprising a first end (SA) attached to an upper part of the harness, preferably to an upper part of the shoulder strap , and a second end designed to be attached to said lance , - at least on said shoulder strap, means for attaching an upright of an arm ; - an arm having an upright designed to be attached to said attachment means of the harness and having a cross-member extending from the upright; and, - a suspension wire comprising a first end (SA) attached to an upper part of the harness, preferably to an upper part of the shoulder strap , and a second end designed to be attached to said lance , said arm comprising a free end forming an eyelet , said suspension wire being designed to go through said eyelet .
A topical composition comprising: (A) 30 to 60% by weight of zinc chloride; (B) inorganic powder and (C) additive; and (D) solvent, wherein the component (B) is selected from the group consisting of silicon dioxide, aluminum silicate, magnesium silicate, magnesium aluminum silicate, sodium magnesium silicate, calcium silicate, talc, calamine, zinc oxide, titanium oxide, iron oxide, aluminum hydroxide, calcium phosphate, and magnesium phosphate, and the component (C) is selected from the group consisting of (c1) a cellulous derivative in which a hydroxyl group of cellulose is substituted with a substituent selected from the group consisting of -OR 1 group, -OR 2 OH group, -OR 3 OR 4 group, and -OCOR 5 group (R 1 represents an alkyl group having 1 to 3 carbon atoms, R 2 represents an alkylene group having 2 to 3 carbon atoms, R 3 represents an alkylene group having 1 to 3 carbon atoms, R 4 represents an alkyl group having 1 to 3 carbon atoms, and R 5 represents an organic group), (c2) a polyvinyl-type alcohol selected from the group consisting of polyvinyl alcohol and a derivative thereof, and (c3) polyoxyethylene polyoxypropylene glycol. (A) 30 to 60% by weight of zinc chloride; (B) inorganic powder and (C) additive; and (D) solvent, wherein the component (B) is selected from the group consisting of silicon dioxide, aluminum silicate, magnesium silicate, magnesium aluminum silicate, sodium magnesium silicate, calcium silicate, talc, calamine, zinc oxide, titanium oxide, iron oxide, aluminum hydroxide, calcium phosphate, and magnesium phosphate, and the component (C) is selected from the group consisting of (c1) a cellulous derivative in which a hydroxyl group of cellulose is substituted with a substituent selected from the group consisting of -OR 1 group, -OR 2 OH group, -OR 3 OR 4 group, and -OCOR 5 group (R 1 represents an alkyl group having 1 to 3 carbon atoms, R 2 represents an alkylene group having 2 to 3 carbon atoms, R 3 represents an alkylene group having 1 to 3 carbon atoms, R 4 represents an alkyl group having 1 to 3 carbon atoms, and R 5 represents an organic group), (c2) a polyvinyl-type alcohol selected from the group consisting of polyvinyl alcohol and a derivative thereof, and (c3) polyoxyethylene polyoxypropylene glycol.
A method of producing SOFC cathode diffusion barrier layer comprising the subsequent steps of: a) depositing a pure ceria or aliovalently doped ceria layer , by atomic layer deposition, on the electrolyte layer composed of aliovalently stabilized zirconia, of the sintered half cell, whereas the surface of a electrolyte onto which film is to be deposited is exposed to a dose of vapor from one or more lanthanide first precursors with general formula Ln(thd) n , whereby thd is 2,2,6,6-tetramethylheptane-3,5-dionate, and n is 3 or 4, the second precursor is ozone or water and any excess unreacted vapor from that precursor is removed, and a vapor dose of the second precursor is brought to the surface and allowed to react, and this cycle of steps is repeated to build up thicker films; b) screenprinting on top of said ceria layer cobaltite based cathode layer, wherein said cobaltite cathode layer is lanthanum strontium cobaltite (LSC) or lanthanum strontium cobaltite ferrite (LSCF) layer. c) heating the cathode diffusion barrier ceria layer and cathode layer together, wherein the heating temperature is between 1000 and1100° C for at least one hour. a) depositing a pure ceria or aliovalently doped ceria layer , by atomic layer deposition, on the electrolyte layer composed of aliovalently stabilized zirconia, of the sintered half cell, whereas the surface of a electrolyte onto which film is to be deposited is exposed to a dose of vapor from one or more lanthanide first precursors with general formula Ln(thd) n , whereby thd is 2,2,6,6-tetramethylheptane-3,5-dionate, and n is 3 or 4, the second precursor is ozone or water and any excess unreacted vapor from that precursor is removed, and a vapor dose of the second precursor is brought to the surface and allowed to react, and this cycle of steps is repeated to build up thicker films; b) screenprinting on top of said ceria layer cobaltite based cathode layer, wherein said cobaltite cathode layer is lanthanum strontium cobaltite (LSC) or lanthanum strontium cobaltite ferrite (LSCF) layer. c) heating the cathode diffusion barrier ceria layer and cathode layer together, wherein the heating temperature is between 1000 and1100° C for at least one hour.
High-pressure control valve for a high-pressure plant with a device for actuating a valve for a high-pressure plant, in particular for a plant for the production of polyethylene, with a pneumatic drive unit and a screw drive which has a housing , a spindle and a spindle nut , the device being mechanically connected to a valve, and wherein the input side of the screw drive is coupled to the input unit for initiating a rotational input motion and the output side of the screw drive is coupled to the valve for transmitting a translational output motion, and wherein the screw drive forms a transmission which translates an input force of the input unit into an output force of the screw drive for actuating the valve.