mhurhangee/patent-ind-claim-en huggingface dataset:
An off gas test fixture for testing the barrier coating integrity of a vessel having at least one opening , the off gas test fixture comprising: an interface portion having an upper surface and a vertical wall encompassing at least a portion of the upper surface , the upper surface configured to abut against a portion of the vessel adjacent to the opening , the upper surface further including a face seal configured to provide a first seal about the opening when the vessel is secured to the off gas test fixture , the vertical wall including a recess configured to house a side seal , the side seal configured to provide a second seal between a portion of the outer surface of the wall of the vessel and the interface portion ; characterized in that the test fixture further comprises: a vacuum line in communication with a space separating the first seal and the second seal , the vacuum line comprising at at least one end a connector configured to be operably connected to a vacuum to evacuate gas from the space when the vessel is secured to the off gas test fixture . an interface portion having an upper surface and a vertical wall encompassing at least a portion of the upper surface , the upper surface configured to abut against a portion of the vessel adjacent to the opening , the upper surface further including a face seal configured to provide a first seal about the opening when the vessel is secured to the off gas test fixture , the vertical wall including a recess configured to house a side seal , the side seal configured to provide a second seal between a portion of the outer surface of the wall of the vessel and the interface portion ; characterized in that the test fixture further comprises: a vacuum line in communication with a space separating the first seal and the second seal , the vacuum line comprising at at least one end a connector configured to be operably connected to a vacuum to evacuate gas from the space when the vessel is secured to the off gas test fixture .
A flush toilet for cleaning a toilet with flush water supplied from a flush water source and discharging waste, comprising: a bowl that includes a bowl-shaped waste receiving surface , a rim formed above the waste receiving surface , and a pooled water portion formed below the waste receiving surface ; a discharge passage for discharging waste that has an inlet connected to the pooled water portion ; a spout portion for spouting flush water onto the bowl for forming a swirling flow on the waste receiving surface , wherein the waste receiving surface of the bowl has a sectorial recess that is formed between a front end portion of the waste receiving surface and a front end portion of the pooled water portion , the sectorial recess having both lateral ends extending in a front-back direction of the bowl which are virtual lines (B) defined by inflection points (p1) between an upper end portion of the sectorial recess and a connecting portion of the waste receiving surface connected to the sectorial recess in each cross-section along a lateral direction orthogonal to a center line (C) along the front-back direction of the bowl , characterized in that the sectorial recess in the waste receiving surface of the bowl is formed such that radii (R1,R2,R3,R4) of curvature of a central bottom surface of the sectorial recess in respective cross-sections along a lateral direction decrease from the front end portion of the waste receiving surface toward the front end portion of the pooled water portion . a bowl that includes a bowl-shaped waste receiving surface , a rim formed above the waste receiving surface , and a pooled water portion formed below the waste receiving surface ; a discharge passage for discharging waste that has an inlet connected to the pooled water portion ; a spout portion for spouting flush water onto the bowl for forming a swirling flow on the waste receiving surface , wherein the waste receiving surface of the bowl has a sectorial recess that is formed between a front end portion of the waste receiving surface and a front end portion of the pooled water portion , the sectorial recess having both lateral ends extending in a front-back direction of the bowl which are virtual lines (B) defined by inflection points (p1) between an upper end portion of the sectorial recess and a connecting portion of the waste receiving surface connected to the sectorial recess in each cross-section along a lateral direction orthogonal to a center line (C) along the front-back direction of the bowl , characterized in that the sectorial recess in the waste receiving surface of the bowl is formed such that radii (R1,R2,R3,R4) of curvature of a central bottom surface of the sectorial recess in respective cross-sections along a lateral direction decrease from the front end portion of the waste receiving surface toward the front end portion of the pooled water portion .
A device (1; 31; 71; 101; 107; 109) for starting a combustion engine (9; 37; 79), comprising: - an output (3; 33) which is coupled to a crankshaft (7; 35; 77) of a combustion engine when the device collaborates with the combustion engine, - a first auxiliary drive source (11; 39; 81) which is coupled to the output via a node (13; 41; 83) and where a first branch (15; 43; 85) of a drive line is present between the first auxiliary drive source and the node and a second branch (17; 45; 87) of the drive line is present between the node and the output, - a second auxiliary drive source (19; 47; 89) which is coupled to the output via the node and where a third branch (21; 49; 91) is present between the second auxiliary drive source and the node, and - a first clutch (23; 59; 93) which is present in the first branch of the drive line, the device further including a second clutch (25; 53; 95) which is present in the third branch (21; 49; 9) and can couple the two auxiliary drive sources (11; 19; 39; 47; 81; 89) to each other, wherein the first auxiliary drive source (11; 39; 81) is formed by an electromotor and the second auxiliary drive source (19; 47; 89) is formed by a flywheel characterized in that the device comprises a third clutch (51; 99) which is arranged as a further freewheel bearing or a further centrifugal decoupling and which is present in the second branch . - an output (3; 33) which is coupled to a crankshaft (7; 35; 77) of a combustion engine when the device collaborates with the combustion engine, - a first auxiliary drive source (11; 39; 81) which is coupled to the output via a node (13; 41; 83) and where a first branch (15; 43; 85) of a drive line is present between the first auxiliary drive source and the node and a second branch (17; 45; 87) of the drive line is present between the node and the output, - a second auxiliary drive source (19; 47; 89) which is coupled to the output via the node and where a third branch (21; 49; 91) is present between the second auxiliary drive source and the node, and - a first clutch (23; 59; 93) which is present in the first branch of the drive line, the device further including a second clutch (25; 53; 95) which is present in the third branch (21; 49; 9) and can couple the two auxiliary drive sources (11; 19; 39; 47; 81; 89) to each other, wherein the first auxiliary drive source (11; 39; 81) is formed by an electromotor and the second auxiliary drive source (19; 47; 89) is formed by a flywheel characterized in that the device comprises a third clutch (51; 99) which is arranged as a further freewheel bearing or a further centrifugal decoupling and which is present in the second branch .
A configuration method for a quality of service, QoS, flow, comprising: determining, by a first network element, to offload a QoS flow in a protocol data unit, PDU, session to a second network element for transmission; sending, by the first network element in response to determining to offload the QoS flow in the PDU session, a request message carrying an uplink interface address on a core network side to the second network element when the PDU session is created; receiving, by the first network element from the second network element, a response message of the request message, the response message carrying a downlink interface address allocated for offloading the QoS flow; and sending, by the first network element, an indication message to the second network element through a user plane, the indication message identifying an end marker for data packets of the QoS flow of the PDU session to indicate to the second network element to start to upload the data packets of the QoS flow to a user plane function, UPF. determining, by a first network element, to offload a QoS flow in a protocol data unit, PDU, session to a second network element for transmission; sending, by the first network element in response to determining to offload the QoS flow in the PDU session, a request message carrying an uplink interface address on a core network side to the second network element when the PDU session is created; receiving, by the first network element from the second network element, a response message of the request message, the response message carrying a downlink interface address allocated for offloading the QoS flow; and sending, by the first network element, an indication message to the second network element through a user plane, the indication message identifying an end marker for data packets of the QoS flow of the PDU session to indicate to the second network element to start to upload the data packets of the QoS flow to a user plane function, UPF.
A personal care system comprising: a stand having an outer perimeter defining a recessed handle mounting surface extending from a top surface of the stand toward a bottom surface of the stand; and a handle having an elongated body mounted to the stand; wherein at least one magnetic element retains the elongated body of the handle within the recessed handle mounting surface , characterized in that a frame having a pocket retaining the magnetic element against an inner wall of the handle mounting surface is positioned within the stand , and the stand comprises a base , a weight , a weight bracket retaining the weight within the pocket , one or more spacers stacked on top of the weight bracket and the weight , and a cover mounted to the base , the cover containing the weight , the weight bracket and the one or more spacers , and the frame is positioned between the magnetic element and one or more of the spacers . a stand having an outer perimeter defining a recessed handle mounting surface extending from a top surface of the stand toward a bottom surface of the stand; and a handle having an elongated body mounted to the stand; wherein at least one magnetic element retains the elongated body of the handle within the recessed handle mounting surface , characterized in that a frame having a pocket retaining the magnetic element against an inner wall of the handle mounting surface is positioned within the stand , and the stand comprises a base , a weight , a weight bracket retaining the weight within the pocket , one or more spacers stacked on top of the weight bracket and the weight , and a cover mounted to the base , the cover containing the weight , the weight bracket and the one or more spacers , and the frame is positioned between the magnetic element and one or more of the spacers .
A method of wireless communication performed by an apparatus of a user equipment, UE , comprising: identifying (302; 510) a physical downlink control channel, PDCCH, blind decode capability value and a PDCCH control channel element capability value; and determining (304; 520) a PDCCH blind decode limit and a PDCCH control channel element limit, wherein the PDCCH blind decode limit and the PDCCH control channel element limit are associated with the PDCCH blind decode capability value, the PDCCH control channel element capability value, and: a quantity of cell groups configured for the UE, or a quantity of the cell groups that are activated for the UE, wherein the PDCCH control channel element capability value indicates a quantity of control channel elements that the UE is capable of processing across the cell groups configured for the UE. identifying (302; 510) a physical downlink control channel, PDCCH, blind decode capability value and a PDCCH control channel element capability value; and determining (304; 520) a PDCCH blind decode limit and a PDCCH control channel element limit, wherein the PDCCH blind decode limit and the PDCCH control channel element limit are associated with the PDCCH blind decode capability value, the PDCCH control channel element capability value, and: a quantity of cell groups configured for the UE, or a quantity of the cell groups that are activated for the UE, wherein the PDCCH control channel element capability value indicates a quantity of control channel elements that the UE is capable of processing across the cell groups configured for the UE.
A thread former with a nominal thread former diameter between 8 mm and 20 mm, for the chipless production of a thread, comprising a thread forming section with a plurality of spinning studs which are arranged at respective predetermined pitch angles (T) between adjacent spinning studs along a forming curve running around the tool axis (L), in particular substantially spirally, around the tool axis (L), each pitch angle (T) being smaller than or equal to a predetermined maximum pitch angle (T max ), characterised in that the maximum pitch angle (T max ) is set such that the following condition is met: T max = sin − 1 a × ND y + b × ND + c × 2 × π ; is fulfilled for i) 8 ≤ ND < 10 with a=-0.0008, b=0.00705, c=0.1325, y=2; ii) 10 ≤ ND < 12 with a=1.7924/(2 x π), b=0, c=0, y=-0.408; or iii) 12 ≤ ND ≤ 20 with a=0.751/(2 x π), b=0, c=0, y=-0.104; where T max is the maximum pitch angle and ND is the amount of nominal tapping diameter (Da) measured in millimetres, the pitch angle (T) being set such that the number of spinning studs for at least one or each turn along the forming curve for nominal tapping diameters (Da) between 8 mm and less than 10 mm is exactly 7. i) 8 ≤ ND < 10 with a=-0.0008, b=0.00705, c=0.1325, y=2; ii) 10 ≤ ND < 12 with a=1.7924/(2 x π), b=0, c=0, y=-0.408; or iii) 12 ≤ ND ≤ 20 with a=0.751/(2 x π), b=0, c=0, y=-0.104;
Tyre for vehicle wheels comprising an inner surface and at least one anchoring element configured to fasten an object to said inner surface , wherein the anchoring element is at least partially incorporated in a first portion of the tyre defining said inner surface and is accessible from said inner surface ; wherein the anchoring element comprises: i) a central body , provided with a base , ii) a seat , defined in the central body , configured to at least partially house said object , said seat being provided with a first mechanical coupling element configured to cooperate with a second mechanical coupling element associated to said object so as to fasten said object to the anchoring element ; iii) at least one coupling portion (11; 27) of the central body to the tyre , and wherein said coupling portion (11; 27) transversely projects from the base of the central body and is interposed between and in contact with said first portion of the tyre defining the inner surface of the tyre and with a second portion of the tyre radially outer with respect to said first portion, characterised in that the anchoring element comprises a plurality of coupling portions of the central body substantially fin-shaped and transversely and perimetrally projecting from the base of the central body . wherein the anchoring element is at least partially incorporated in a first portion of the tyre defining said inner surface and is accessible from said inner surface ; wherein the anchoring element comprises: i) a central body , provided with a base , ii) a seat , defined in the central body , configured to at least partially house said object , said seat being provided with a first mechanical coupling element configured to cooperate with a second mechanical coupling element associated to said object so as to fasten said object to the anchoring element ; iii) at least one coupling portion (11; 27) of the central body to the tyre , and i) a central body , provided with a base , ii) a seat , defined in the central body , configured to at least partially house said object , said seat being provided with a first mechanical coupling element configured to cooperate with a second mechanical coupling element associated to said object so as to fasten said object to the anchoring element ; iii) at least one coupling portion (11; 27) of the central body to the tyre , and wherein said coupling portion (11; 27) transversely projects from the base of the central body and is interposed between and in contact with said first portion of the tyre defining the inner surface of the tyre and with a second portion of the tyre radially outer with respect to said first portion, characterised in that the anchoring element comprises a plurality of coupling portions of the central body substantially fin-shaped and transversely and perimetrally projecting from the base of the central body .
A method for producing a recess or a projection on a cut edge of a plate-shaped workpiece , in particular a metal sheet, characterized by the following steps: cutting the cut edge by means of a laser beam which emerges from a laser processing head that can be moved above the workpiece in at least one direction (X, Y) in order to cut the cut edge and whose longitudinal axis can be set at an angle to the surface normal of the workpiece , wherein, when cutting the recess or the projection , the laser processing head is positioned and moved at an angle such that the laser beam moves along contours of different lengths on the two workpiece sides facing the laser and facing away from the laser, so that, as a result, an inclined recess or an inclined projection is produced relative to the actual cut edge , wherein, during the cutting of the inclined recess or of the inclined projection , the laser processing head is positioned and moved at an angle such that the laser beam moves along a recess or projection contour on the one, first workpiece side and, in doing so, always cuts the actual cut edge with its beam axis on the edge provided on the other, second workpiece side , so that the inclined recess or the inclined projection on the second workpiece side ends in the edge of the actual cut edge , and wherein, during the cutting of the inclined recess or the inclined projection , the beam axis of the laser beam that cuts the edge of the actual cut edge remains in a fixed point on this edge . cutting the cut edge by means of a laser beam which emerges from a laser processing head that can be moved above the workpiece in at least one direction (X, Y) in order to cut the cut edge and whose longitudinal axis can be set at an angle to the surface normal of the workpiece , wherein, when cutting the recess or the projection , the laser processing head is positioned and moved at an angle such that the laser beam moves along contours of different lengths on the two workpiece sides facing the laser and facing away from the laser, so that, as a result, an inclined recess or an inclined projection is produced relative to the actual cut edge , wherein, during the cutting of the inclined recess or of the inclined projection , the laser processing head is positioned and moved at an angle such that the laser beam moves along a recess or projection contour on the one, first workpiece side and, in doing so, always cuts the actual cut edge with its beam axis on the edge provided on the other, second workpiece side , so that the inclined recess or the inclined projection on the second workpiece side ends in the edge of the actual cut edge , and wherein, during the cutting of the inclined recess or the inclined projection , the beam axis of the laser beam that cuts the edge of the actual cut edge remains in a fixed point on this edge .
A multilayered film for decorative molding of an adherend having a three-dimensional solid surface, the multilayered film comprising, as an intermediate layer (X), a thermoplastic resin layer having a bending rigidity K of 60 to 30,000 kPa·mm 3 , a layer (Y) composed of a thermoplastic polymer composition on both surfaces of the intermediate layer (X), and a decorative layer (Z) closely arranged on the surface of either one of the thermoplastic polymer composition layers (Y), wherein the bending rigidity K is defined according to the following formula: K = E × h 3 / 12 unit: kPa·mm 3 , E: tensile elastic modulus at 23°C, h: film thickness, characterized in that the thermoplastic polymer composition contains from 0 to 50 parts by mass of a polypropylene-based resin (B) based on 100 parts by mass of a thermoplastic elastomer (A) that is a block copolymer containing a polymer block (a1) composed of an aromatic vinyl compound unit and a polymer block (a2) composed of a conjugated diene compound unit, or a hydrogenated product thereof; wherein the content of a tackifying resin in the thermoplastic polymer composition is less than 1% by mass. unit: kPa·mm 3 , E: tensile elastic modulus at 23°C, h: film thickness, characterized in that the thermoplastic polymer composition contains from 0 to 50 parts by mass of a polypropylene-based resin (B) based on 100 parts by mass of a thermoplastic elastomer (A) that is a block copolymer containing a polymer block (a1) composed of an aromatic vinyl compound unit and a polymer block (a2) composed of a conjugated diene compound unit, or a hydrogenated product thereof; wherein the content of a tackifying resin in the thermoplastic polymer composition is less than 1% by mass.
A four stroke internal combustion engine comprising at least one cylinder arrangement , an exhaust conduit , and a turbine comprising a turbine wheel , the turbine having a turbine wheel inlet area, A TIN , wherein the at least one cylinder arrangement forms a combustion chamber and comprises a piston arranged to reciprocate in a cylinder bore and an exhaust port arrangement , the exhaust port arrangement being configured to open and close an exhaust flow area, A CYL , during an exhaust sequence of the piston reciprocation, wherein the cylinder arrangement has a maximum volume, V MAX , between a bottom dead centre, BDC, of the piston and an upper inner delimiting surface of the combustion chamber , wherein the exhaust conduit extends between the exhaust flow area, A CYL , and the turbine wheel inlet area, A TIN , and has an exhaust conduit volume, V EXH , wherein the exhaust port arrangement comprises electronically and/or hydraulically operated exhaust poppet valves, characterized in that, the exhaust conduit volume, V EXH , is ≤ 0.5 times the maximum volume, V MAX , and wherein the turbine has a normalised effective flow area, γ, defined as γ = A TURB /V MAX , wherein γ > 0.22 m -1 , wherein A TURB = (A TIN /A TOT ) * m' RED * (R/(κ(2/(κ +1) X ))) 1/2 , wherein X = (κ+1)/(κ-1), wherein A TOT is a total inlet area of the turbine, and wherein A TURB is obtained at a reduced mass flow, m' RED , of the turbine at 2.5 - 3.5 pressure ratio between an inlet side and an outlet side of the turbine and at a tip speed of 450 m/s of the turbine wheel , and wherein the exhaust port arrangement is configured to expose the exhaust flow area, A CYL , at a size of at least 0.22 times the maximum volume, V MAX , when the piston is at the bottom dead centre, BDC, wherein a momentary cylinder volume, V, of the cylinder arrangement is defined by a momentary position of the piston in the cylinder bore during its reciprocation, wherein A CYL (V) expresses the exhaust flow area, A CYL , as a function of the momentary cylinder volume, V, during a power stroke of the piston , wherein an exhaust flow area coefficient, δ, is defined as δ = A CYL (V)/(0.22*V MAX ), A CYL being expressed in m 2 and V MAX being expressed in m 3 , wherein the exhaust port arrangement has an opening speed coefficient, β, defined as β = (V(δ=1)-V(δ=0.1))/V MAX , and wherein the exhaust flow area, A CYL , has the opening speed coefficient β < 0.06.