mhurhangee/ep-ind-claims huggingface dataset:
A method executed by a user equipment, in the following also referred to as UE, for performing sidelink transmission, comprising: the UE being in Radio Resource Control, in the following also referred to as RRC, - connected mode in the Uu link with a network node (1605; 1705); using at least Downlink, in the following also referred to as DL, pathloss, between the same UE and the network node, for sidelink power control (1610; 1710); determining or deriving a sidelink transmit power (1615; 1715, 1720); and performing a sidelink transmission to other device(s) with the sidelink transmit power (1620; 1725), wherein the method further comprises: deriving a first DL pathloss value for determining an uplink transmit power of one specific kind of New Radio, in the following also referred to as NR, Physical Uplink Shared Channel, in the following also referred to as PUSCH, transmission, the one specific kind of NR PUSCH transmission is one NR PUSCH transmission scheduled by Downlink Control Information, in the following also referred to as DCI, format 0_0, and the sidelink transmit power is derived by: said deriving the first DL pathloss value; and determining or deriving the sidelink transmit power based on the first DL pathloss value. the UE being in Radio Resource Control, in the following also referred to as RRC, - connected mode in the Uu link with a network node (1605; 1705); using at least Downlink, in the following also referred to as DL, pathloss, between the same UE and the network node, for sidelink power control (1610; 1710); determining or deriving a sidelink transmit power (1615; 1715, 1720); and performing a sidelink transmission to other device(s) with the sidelink transmit power (1620; 1725), wherein the method further comprises: deriving a first DL pathloss value for determining an uplink transmit power of one specific kind of New Radio, in the following also referred to as NR, Physical Uplink Shared Channel, in the following also referred to as PUSCH, transmission, the one specific kind of NR PUSCH transmission is one NR PUSCH transmission scheduled by Downlink Control Information, in the following also referred to as DCI, format 0_0, and the sidelink transmit power is derived by: said deriving the first DL pathloss value; and determining or deriving the sidelink transmit power based on the first DL pathloss value. deriving a first DL pathloss value for determining an uplink transmit power of one specific kind of New Radio, in the following also referred to as NR, Physical Uplink Shared Channel, in the following also referred to as PUSCH, transmission, the one specific kind of NR PUSCH transmission is one NR PUSCH transmission scheduled by Downlink Control Information, in the following also referred to as DCI, format 0_0, and the sidelink transmit power is derived by: said deriving the first DL pathloss value; and determining or deriving the sidelink transmit power based on the first DL pathloss value. said deriving the first DL pathloss value; and determining or deriving the sidelink transmit power based on the first DL pathloss value.
A method for producing surface functionalised nanoparticles comprising reacting first and second nanoparticle precursor species in the presence of a nanoparticle surface binding ligand of Formula 3 X-Y-Z Formula 3 wherein X is a nanoparticle surface binding group, Y is a linker group, and Z is a functional group, in which Y comprises a polyethyleneglycol group and Z comprises an aliphatic group incorporating a terminal unsaturated group, said reaction being effected under conditions permitting binding of said surface binding ligand to the growing nanoparticles to produce said surface functionalised nanoparticles.
A method of processing touch contacts on or near a touch sensitive surface, the surface including an associated plurality of touch sensors, the method comprising: detecting a set of a plurality of contacts touched down on the surface, establishing hand, and finger or palm identities for each contact; tracking across successive scans of the plurality of touch sensors of the touch sensitive surface the trajectories of individual contacts on the surface; detecting a liftoff of a first subset of two or more contacts of the set of contacts touched down on or near the surface, wherein a second subset of one or more contacts of the set remain touched down; detecting a synchronous touchdown of the first subset; selecting an activity based on the combination of finger identities in the first subset; maintaining the selection of the activity when the number of contacts on or near the surface changes due to one or more asynchronous finger touchdowns or liftoffs, so long as at least one finger contact remains touched down on or near the surface; and generating at least one input event of the selected activity in accordance with motion after the selection. detecting a set of a plurality of contacts touched down on the surface, establishing hand, and finger or palm identities for each contact; tracking across successive scans of the plurality of touch sensors of the touch sensitive surface the trajectories of individual contacts on the surface; detecting a liftoff of a first subset of two or more contacts of the set of contacts touched down on or near the surface, wherein a second subset of one or more contacts of the set remain touched down; detecting a synchronous touchdown of the first subset; selecting an activity based on the combination of finger identities in the first subset; maintaining the selection of the activity when the number of contacts on or near the surface changes due to one or more asynchronous finger touchdowns or liftoffs, so long as at least one finger contact remains touched down on or near the surface; and generating at least one input event of the selected activity in accordance with motion after the selection.
A laser processing method of irradiating a planar object to be processed with processing laser light while locating a converging point within the object, so as to form a modified region to become a cutting start point within the object along a line to cut the object, the method comprising the steps of: irradiating the object with measuring laser light along the line to cut, so as to detect a value corresponding to a reflected light component of the measuring laser light reflected by a laser light irradiation surface irradiated with the measuring laser light in the object, and moving a converging lens for converging the processing laser light to a predetermined position with respect to the laser light irradiation surface such that the detected value becomes a predetermined value, so as to acquire a signal for moving the converging lens; and while locating the converging point of the processing converging lens at a predetermined position with respect to the laser light irradiation surface by moving the converging lens to a predetermined position with respect to the laser light irradiation surface according to the signal value, relatively moving the converging lens along the line to cut, so as to form the modified region within the object; characterized in that, when the detected value has a value exceeding a predetermined threshold, the step of acquiring the signal value defines a predetermined line segment including a line segment where the detected value exceeds the predetermined threshold, and defines and corrects the signal value in the predetermined line segment. irradiating the object with measuring laser light along the line to cut, so as to detect a value corresponding to a reflected light component of the measuring laser light reflected by a laser light irradiation surface irradiated with the measuring laser light in the object, and moving a converging lens for converging the processing laser light to a predetermined position with respect to the laser light irradiation surface such that the detected value becomes a predetermined value, so as to acquire a signal for moving the converging lens; and while locating the converging point of the processing converging lens at a predetermined position with respect to the laser light irradiation surface by moving the converging lens to a predetermined position with respect to the laser light irradiation surface according to the signal value, relatively moving the converging lens along the line to cut, so as to form the modified region within the object; characterized in that, when the detected value has a value exceeding a predetermined threshold, the step of acquiring the signal value defines a predetermined line segment including a line segment where the detected value exceeds the predetermined threshold, and defines and corrects the signal value in the predetermined line segment.
PP/UHMW-PE (Polypropylene-Ultrahigh-Molecular-Weight-Polyethylene) composition having - a melting temperature Tm in the range of 125 to 150°C (DSC, ISO 11357, Part 3), - an MFR 2 of 0.15 to 0.60 g/10min (2.16kg, 230°C, ISO1133), - units derived from 1-hexene in an amount of at least 1.80 wt.-% up to 3.0 wt.-%, as determined according to the description and - units derived from ethylene in an amount of 4.0 to 13 wt.-%, as determined according to the description and - a XS according to ISO16152 of less than 5.0 wt.-% all weight percentages with respect to the total PP/UHMW-PE composition. - a melting temperature Tm in the range of 125 to 150°C (DSC, ISO 11357, Part 3), - an MFR 2 of 0.15 to 0.60 g/10min (2.16kg, 230°C, ISO1133), - units derived from 1-hexene in an amount of at least 1.80 wt.-% up to 3.0 wt.-%, as determined according to the description and - units derived from ethylene in an amount of 4.0 to 13 wt.-%, as determined according to the description and - a XS according to ISO16152 of less than 5.0 wt.-% all weight percentages with respect to the total PP/UHMW-PE composition.
Desired-value setting apparatus on a thermostat-controlled mixing valve for cold and hot water - having an adjusting nut which is rotatably arranged on a neckpiece in a fixed position on the valve housing and which acts on a valve stem, -- on which a gripping cap is mounted in a manner preventing relative rotation and - in a fixed axial position relative to the valve housing, - the adjusting nut being mounted on the neckpiece in a fixed axial position, - and the valve stem having a sub-region -- which is guided so as to be axially displaceable in the neckpiece, characterised in that -- the sub-region is guided in the neckpiece in a manner preventing relative rotation, - projects out from the neckpiece axially with a threaded head, -- engages in a corresponding thread in the adjusting nut and - the adjusting nut has, starting at the open end face, cylindrical hole which, in the assembled position, is occupied by a corresponding cylindrical envelope surface of the neckpiece. - having an adjusting nut which is rotatably arranged on a neckpiece in a fixed position on the valve housing and which acts on a valve stem, -- on which a gripping cap is mounted in a manner preventing relative rotation and -- on which a gripping cap is mounted in a manner preventing relative rotation and - in a fixed axial position relative to the valve housing, - the adjusting nut being mounted on the neckpiece in a fixed axial position, - and the valve stem having a sub-region -- which is guided so as to be axially displaceable in the neckpiece, characterised in that -- the sub-region is guided in the neckpiece in a manner preventing relative rotation, -- which is guided so as to be axially displaceable in the neckpiece, -- the sub-region is guided in the neckpiece in a manner preventing relative rotation, - projects out from the neckpiece axially with a threaded head, -- engages in a corresponding thread in the adjusting nut and -- engages in a corresponding thread in the adjusting nut and - the adjusting nut has, starting at the open end face, cylindrical hole which, in the assembled position, is occupied by a corresponding cylindrical envelope surface of the neckpiece.
A laundry processing device comprising a drum component and provided with a supporting component, wherein said supporting component is configured to support the drum component of the laundry processing device and comprises, first supporting pieces, and second supporting pieces, wherein, the second supporting pieces support the drum component in a contacting manner, and there is a gap between each of the first supporting pieces and the drum component, and at least one first supporting piece is arranged above the drum component, wherein at least one first supporting piece is arranged below the drum component, the second supporting pieces are arranged at two sides of a connecting line between a lowest point of the drum component and a center of the drum component, and the at least one first supporting piece arranged below the drum component is arranged between the second supporting pieces, wherein the at least one first supporting piece arranged above the drum component supports the drum component in a contacting manner when the drum component performs upward eccentric movement; wherein the supporting component further comprises a first mounting bracket and a second mounting bracket, the first supporting pieces and the second supporting pieces below the drum component are arranged on the first mounting bracket, and the at least one first supporting pieces above the drum component are arranged on the second mounting bracket; and the laundry processing device comprises a front supporting plate for supporting and mounting the drum component, and the first mounting bracket and the second mounting bracket are both assembled on the front supporting plate of the laundry processing device. first supporting pieces, and second supporting pieces, wherein, the second supporting pieces support the drum component in a contacting manner, and there is a gap between each of the first supporting pieces and the drum component, and at least one first supporting piece is arranged above the drum component, wherein at least one first supporting piece is arranged below the drum component, the second supporting pieces are arranged at two sides of a connecting line between a lowest point of the drum component and a center of the drum component, and the at least one first supporting piece arranged below the drum component is arranged between the second supporting pieces, wherein the at least one first supporting piece arranged above the drum component supports the drum component in a contacting manner when the drum component performs upward eccentric movement; wherein the supporting component further comprises a first mounting bracket and a second mounting bracket, the first supporting pieces and the second supporting pieces below the drum component are arranged on the first mounting bracket, and the at least one first supporting pieces above the drum component are arranged on the second mounting bracket; and the laundry processing device comprises a front supporting plate for supporting and mounting the drum component, and the first mounting bracket and the second mounting bracket are both assembled on the front supporting plate of the laundry processing device.
A method comprising: (a) heating, at a temperature equal to or greater than 150 °C, a laminate including a wafer, an adhesive layer, and a support which are laminated in this order, the adhesive layer being formed of an adhesive composition containing an elastomer in which a styrene unit is contained as a constituent unit of a main chain, a content of the styrene unit is 14% by weight to 50% by weight, and a weight average molecular weight is 10,000 to 200,000; and (b) after step (a), removing the adhesive layer on the wafer by use of a solvent. (a) heating, at a temperature equal to or greater than 150 °C, a laminate including a wafer, an adhesive layer, and a support which are laminated in this order, the adhesive layer being formed of an adhesive composition containing an elastomer in which a styrene unit is contained as a constituent unit of a main chain, a content of the styrene unit is 14% by weight to 50% by weight, and a weight average molecular weight is 10,000 to 200,000; and (b) after step (a), removing the adhesive layer on the wafer by use of a solvent.
A method for producing gears in gearwheels by means of skiving with a skiving wheel that features cutting teeth, with a workpiece spindle that is rotationally driven about a rotational workpiece axis and serves for receiving the gearwheel, and with a tool spindle that is rotationally driven about a rotational tool axis and carries the skiving wheel, wherein the tool spindle and the workpiece spindle are positioned at an axial cross-angle (α) relative to one another and the drives of the tool spindle and the workpiece spindle are rotationally driven in a predefined speed ratio, wherein the gearing is produced in several successive processing steps (S1 to S20), wherein the spacewidths between the teeth to be produced are incrementally cut deeper with a feed motion having a component in the axial direction of the workpiece spindle, and wherein the axial spacing between the tool spindle and the workpiece spindle and a turning angle (α1 to α19) between a fixed point such as, e.g., the center of the spacewidth lying between a first and a second tooth flank (9, 9') and a fixed point on the cutting tooth such as, e.g., its center is changed between the processing steps in such a way that a first cutting edge section (5") of the cutting tooth engages on a tooth flank section of a first tooth flank produced during a preceding processing step with an at least reduced material removal referred to other cutting edge sections (5', 5''') of this cutting tooth, characterized in that the absolute value of the turning angle (α1 to α19) is incrementally reduced whereas the preceding sign of the turning angle (α1 to α2) is changed after a group of processing steps (S1 to S20) or after each processing step.
Rolling element of a tripod joint, having a housing with a first housing part, a second housing part and a housing inner body which is held between the first and the second housing part (2, 3) and which has a receiving opening for mounting a pin of a tripod star of the tripod joint, and rolling bodies which are assigned to the first and the second housing part (2, 3) for support on raceways (8, 9) of a joint outer part of the tripod joint which lie opposite one another, a spring element being provided between the housing inner body and the first and the second housing part (2, 3), and the spring element spreading the housing parts (2, 3) against the housing inner body, in order to press the rolling bodies against the associated raceways (8, 9) of the joint outer part, characterized in that the housing inner body is held in the first and in the second housing part (2, 3) in each case in a groove-like receptacle (10, 11), or in that in each case the first and second housing part (2, 3) are held in a groove-like receptacle of the housing inner body, and in that the spring element is annular and is held in a depression on the outer side of the housing inner body and/or in in each case one depression in the groove-like receptacles (10, 11) of the housing parts (2, 3).
A frame for retaining one or more masonry slips, the one or more masonry slips each having at least two slots formed on at least two sides thereof, respectively, the frame comprising: a supporting structure comprising a back plate, wherein the supporting structure is configured to house two or more masonry slips; two or more face rails positioned on the back plate of the supporting structure wherein each face rail is configured to house at least one masonry slip, each face rail comprising a projection directed away from the back plate of the supporting structure, and further comprising a retaining element positioned at the end of the projection and such that the retaining element is approximately parallel to the back plate of the supporting structure, wherein the retaining element is configured to be positioned within one of the two slots formed on the sides of the masonry slip; characterized in that the supporting structure is a curved supporting structure. a supporting structure comprising a back plate, wherein the supporting structure is configured to house two or more masonry slips; two or more face rails positioned on the back plate of the supporting structure wherein each face rail is configured to house at least one masonry slip, each face rail comprising a projection directed away from the back plate of the supporting structure, and further comprising a retaining element positioned at the end of the projection and such that the retaining element is approximately parallel to the back plate of the supporting structure, wherein the retaining element is configured to be positioned within one of the two slots formed on the sides of the masonry slip; characterized in that the supporting structure is a curved supporting structure.
A process for converting biomass into biogas and renewable agricultural fertilizer, said process comprising: - anaerobic microbially digesting of biomass (a), producing at least a gaseous methane-comprising effluent (b) and an aqueous effluent (c) comprising phosphorous-containing compounds, magnesium ions, ammonia, carbon dioxide and methane gas; - subjecting said aqueous effluent (c) in a struvite-forming step to a pressure below ambient pressure or (partial) vacuum, discharging a gaseous stream (k) comprising carbon dioxide and methane gas from said aqueous effluent, thereby forming struvite-solids (e); - separating and collecting said struvite solids (e) from said aqueous effluent, thereby obtaining an aqueous struvite-poor effluent (f); - producing at least a first renewable agricultural fertilizer composition (g) by subjecting said aqueous struvite-poor effluent (f) to aerobic microbial nitrification, thereby converting at least part of the ammonia into ammonium nitrate, wherein said first fertilizer composition (g) is collected and transferred to storage, either directly or following a further processing step. - anaerobic microbially digesting of biomass (a), producing at least a gaseous methane-comprising effluent (b) and an aqueous effluent (c) comprising phosphorous-containing compounds, magnesium ions, ammonia, carbon dioxide and methane gas; - subjecting said aqueous effluent (c) in a struvite-forming step to a pressure below ambient pressure or (partial) vacuum, discharging a gaseous stream (k) comprising carbon dioxide and methane gas from said aqueous effluent, thereby forming struvite-solids (e); - separating and collecting said struvite solids (e) from said aqueous effluent, thereby obtaining an aqueous struvite-poor effluent (f); - producing at least a first renewable agricultural fertilizer composition (g) by subjecting said aqueous struvite-poor effluent (f) to aerobic microbial nitrification, thereby converting at least part of the ammonia into ammonium nitrate,