mhurhangee/ep-ind-claims huggingface dataset:
A method for implementing flow group Quality of Service, QoS, control in a Next Generation Network, NGN, comprising: receiving, by a Policy Decision Physical Entity, PD-PE, a resource allocation request from a Service Control Entity, SCE, wherein a first flow group information is carried in the resource allocation request, and the first flow group information represents features of a flow group; determining, by the PD-PE, according to the resource allocation request that carries the first flow group information, QoS resources required by the flow group (1401, 1501); generating and sending, by the PD-PE, a QoS policy of the flow group to a Policy Enforcement Physical Entity, PE-PE, wherein the QoS policy of the flow group indicates how the QoS resources are shared by one or more flows in the flow group, so that the PE-PE allocates one or more bearers to the one or more flows in the flow group according to the received QoS policy of the flow group and controls the resources occupied by the one or more bearers to be less than the QoS resources required by the flow group (1403, 1503). receiving, by a Policy Decision Physical Entity, PD-PE, a resource allocation request from a Service Control Entity, SCE, wherein a first flow group information is carried in the resource allocation request, and the first flow group information represents features of a flow group; determining, by the PD-PE, according to the resource allocation request that carries the first flow group information, QoS resources required by the flow group (1401, 1501); generating and sending, by the PD-PE, a QoS policy of the flow group to a Policy Enforcement Physical Entity, PE-PE, wherein the QoS policy of the flow group indicates how the QoS resources are shared by one or more flows in the flow group, so that the PE-PE allocates one or more bearers to the one or more flows in the flow group according to the received QoS policy of the flow group and controls the resources occupied by the one or more bearers to be less than the QoS resources required by the flow group (1403, 1503).
A semiconductor module comprising: a metal heat-dissipating substrate; a conductive-patterned insulating substrate that is bonded onto the metal heat-dissipating substrate; a semiconductor chip that is bonded onto the conductive-patterned insulating substrate; main circuit terminals and control terminals that are bonded by solder onto the conductive-patterned insulating substrate; a resin case that comprises side walls and a top surface and is bonded to the metal heat-dissipating substrate, the resin case comprising a first opening (10, 11) which is provided in a top surface of the resin case which is opposite to the surface bonded to the metal heat-dissipating substrate, wherein upper portions of the main circuit terminals and upper portions of the control terminals are exposed to the exterior through the first opening (10, 11); a resin body that is inserted into and attached to a second opening (10, 11) formed in a side wall of the resin case, the resin body (6, 7) having a nut embedded therein for making external connection to at least one among the main circuit terminals and the control terminals; and a resin material that fills up the resin case, wherein the first opening (10, 11) comprises a tapered side wall that is narrowed toward the top surface of the resin case, and the control terminals each comprise a tapered contact portion that is in contact with the tapered side wall of the first opening (10, 11). a metal heat-dissipating substrate; a conductive-patterned insulating substrate that is bonded onto the metal heat-dissipating substrate; a semiconductor chip that is bonded onto the conductive-patterned insulating substrate; main circuit terminals and control terminals that are bonded by solder onto the conductive-patterned insulating substrate; a resin case that comprises side walls and a top surface and is bonded to the metal heat-dissipating substrate, the resin case comprising a first opening (10, 11) which is provided in a top surface of the resin case which is opposite to the surface bonded to the metal heat-dissipating substrate, wherein upper portions of the main circuit terminals and upper portions of the control terminals are exposed to the exterior through the first opening (10, 11); a resin body that is inserted into and attached to a second opening (10, 11) formed in a side wall of the resin case, the resin body (6, 7) having a nut embedded therein for making external connection to at least one among the main circuit terminals and the control terminals; and a resin material that fills up the resin case, wherein the first opening (10, 11) comprises a tapered side wall that is narrowed toward the top surface of the resin case, and the control terminals each comprise a tapered contact portion that is in contact with the tapered side wall of the first opening (10, 11).
Ultrasound flow meter capsule comprising a housing and an insert, the housing comprises an aperture forming an open end to an internal cavity with a cavity surface extending towards a closed end, and the insert comprises an outer surface and an inner surface forming a measuring channel having a measuring channel inlet and a measuring channel outlet, wherein the measuring channel is configured with a measuring channel axis extending from the measuring channel inlet to the measuring channel outlet, wherein the insert is arranged in the internal cavity with the measuring channel inlet arranged towards the cavity closed end, the cavity surface of the housing and the outer surface of the insert are arranged to form an outer flow channel with a channel inlet at the cavity open end and to form a turning section at the cavity closed end, wherein the internal cavity and the insert are configured to provide an intended flow direction from the channel inlet, via the outer flow channel, via the turning section, and via the measuring channel, to the measuring channel outlet, characterized in that the insert further comprises two ribs arranged on its outer surface, separated by a rib distance and extending along the outer flow channel between the outer surface of the insert and the cavity surface, thereby providing a flow path extending between the channel inlet and the turning section and where the rib distance gradually narrows down in the intended flow direction such that the rib distance closest to the measuring channel outlet is larger than the rib distance closest to the measuring channel inlet.
A disposable assembly for use with a sensor assembly, the disposable assembly comprising: a body having a lid portion and a base portion, the body defining a fluid flow passage forming an inlet and an outlet; an upstream fluid chamber, a downstream fluid chamber, a flow restricting element positioned in the fluid flow passage between the upstream fluid chamber and the downstream fluid chamber; characterized by a flexible fluid pressure membrane disposed along the fluid flow passage between the inlet and the outlet, wherein, in use, fluid pressure within the upstream fluid chamber presses against a first area of the fluid pressure membrane, and fluid pressure within the downstream fluid chamber presses against a second area of the fluid pressure membrane, and wherein the fluid pressure membrane defines an opening for receiving the flow restricting element. a body having a lid portion and a base portion, the body defining a fluid flow passage forming an inlet and an outlet; an upstream fluid chamber, a downstream fluid chamber, a flow restricting element positioned in the fluid flow passage between the upstream fluid chamber and the downstream fluid chamber; characterized by a flexible fluid pressure membrane disposed along the fluid flow passage between the inlet and the outlet, wherein, in use, fluid pressure within the upstream fluid chamber presses against a first area of the fluid pressure membrane, and fluid pressure within the downstream fluid chamber presses against a second area of the fluid pressure membrane, and wherein the fluid pressure membrane defines an opening for receiving the flow restricting element.
Thermostat valve, including - a valve element moveable relative to a valve seat to adjust a valve opening to regulate a fluid flow, - wherein a valve pin is arranged to act on said valve element, said valve pin protruding out of said valve and being arranged movable in a longitudinal direction within a stuffing box, - wherein said stuffing box is mounted to said valve by axially abutting against a stop element secured by a removable mounting element, - wherein said stuffing box comprises an inner seal provided between the valve pin and the stuffing box, - wherein said stuffing box further comprises an outer seal provided between the stuffing box and a valve insert, characterized in that, - said removable mounting element comprises a holding flange, wherein the holding flange abuts against a holding ring in said longitudinal direction, - and said holding ring abuts against said stuffing box in said longitudinal direction, wherein said stuffing box is arranged within said holding ring. - a valve element moveable relative to a valve seat to adjust a valve opening to regulate a fluid flow, - wherein a valve pin is arranged to act on said valve element, said valve pin protruding out of said valve and being arranged movable in a longitudinal direction within a stuffing box, - wherein said stuffing box is mounted to said valve by axially abutting against a stop element secured by a removable mounting element, - wherein said stuffing box comprises an inner seal provided between the valve pin and the stuffing box, - wherein said stuffing box further comprises an outer seal provided between the stuffing box and a valve insert, characterized in that, - said removable mounting element comprises a holding flange, wherein the holding flange abuts against a holding ring in said longitudinal direction, - and said holding ring abuts against said stuffing box in said longitudinal direction, wherein said stuffing box is arranged within said holding ring.
A rubber composition for tires, comprising: a modified natural rubber having a phosphorus content of 200 ppm or less and further having a pH adjusted to 2 to 7, and a silica having a CTAB specific surface area of 180 m 2 /g or more and a BET specific surface area of 185 m 2 /g or more, wherein the CTAB specific surface area of the silica is measured in accordance with ASTM D3765-92, and wherein the BET specific surface area of the silica is measured in accordance with ASTM D3037-81, and wherein the pH of the modified natural rubber is determined by cutting the modified natural rubber into pieces at most 2 mm square on each side, immersing the pieces in distilled water, irradiating the immersed pieces with microwaves for extraction at 90°C for 15 minutes, and measuring the resulting immersion water with a pH meter. a modified natural rubber having a phosphorus content of 200 ppm or less and further having a pH adjusted to 2 to 7, and a silica having a CTAB specific surface area of 180 m 2 /g or more and a BET specific surface area of 185 m 2 /g or more, wherein the CTAB specific surface area of the silica is measured in accordance with ASTM D3765-92, and wherein the BET specific surface area of the silica is measured in accordance with ASTM D3037-81, and wherein the pH of the modified natural rubber is determined by cutting the modified natural rubber into pieces at most 2 mm square on each side, immersing the pieces in distilled water, irradiating the immersed pieces with microwaves for extraction at 90°C for 15 minutes, and measuring the resulting immersion water with a pH meter.
A method of processing a powder comprising ash, the method comprising either: (i) (a) combining a powder comprising ash and one or more alkaline earth metal oxides, carbonates and/or hydroxides with sulphuric or phosphoric acid or a mixture thereof; and (b) mixing and granulating the combination of (a) to form granules, wherein the combination of (a) has a pH of up to 7, and wherein the reaction between the acid and the alkaline earth metal oxide, carbonate and/or hydroxide produces self-curing granules and generates heat which at least partially dries the granules; or (ii) (a) combining a powder comprising ash with sulphuric or phosphoric acid or a mixture thereof; (b) increasing the alkaline earth metal oxide, carbonate and/or hydroxide content of the powder by adding one or more alkaline earth metal oxides, carbonates, hydroxides or mixtures thereof; and (c) mixing and granulating the combination of (b) to form granules, wherein the combination of (b) has a pH of up to 7, and wherein the reaction between the acid and the alkaline earth metal oxide, carbonate and/or hydroxide produces self-curing granules and generates heat which at least partially dries the granules. (i) (a) combining a powder comprising ash and one or more alkaline earth metal oxides, carbonates and/or hydroxides with sulphuric or phosphoric acid or a mixture thereof; and (b) mixing and granulating the combination of (a) to form granules, wherein the combination of (a) has a pH of up to 7, and wherein the reaction between the acid and the alkaline earth metal oxide, carbonate and/or hydroxide produces self-curing granules and generates heat which at least partially dries the granules; or (a) combining a powder comprising ash and one or more alkaline earth metal oxides, carbonates and/or hydroxides with sulphuric or phosphoric acid or a mixture thereof; and (b) mixing and granulating the combination of (a) to form granules, (ii) (a) combining a powder comprising ash with sulphuric or phosphoric acid or a mixture thereof; (b) increasing the alkaline earth metal oxide, carbonate and/or hydroxide content of the powder by adding one or more alkaline earth metal oxides, carbonates, hydroxides or mixtures thereof; and (c) mixing and granulating the combination of (b) to form granules, wherein the combination of (b) has a pH of up to 7, and wherein the reaction between the acid and the alkaline earth metal oxide, carbonate and/or hydroxide produces self-curing granules and generates heat which at least partially dries the granules. (a) combining a powder comprising ash with sulphuric or phosphoric acid or a mixture thereof; (b) increasing the alkaline earth metal oxide, carbonate and/or hydroxide content of the powder by adding one or more alkaline earth metal oxides, carbonates, hydroxides or mixtures thereof; and (c) mixing and granulating the combination of (b) to form granules,
A beverage preparation device designed for preparing a beverage upon injection of fluid into an ingredients-containing cartridge, the device comprising: - an electrically operated pump coupled between a fluid inlet and a fluid outlet for pumping the fluid from said inlet to said outlet, and - a processing unit for the pump adapted to control an operation of the pump in response to an electrical energy, the electrical energy having a wave form, such that the pump is energized only throughout selected half cycles (a 1,a 2,a 3...a n) of the wave form, wherein the processing unit is configured to determine the respective selected half cycles (a 1,a 2,a 3...a n) in which the pump is energized based on: • a target ratio of a target flow rate and a predefined maximum flow rate of the pump, and • based on the calculation of an activation ratio of the number of past half cycles for which the pump was energized to the number of overall half cycles during a respective beverage preparation process. - an electrically operated pump coupled between a fluid inlet and a fluid outlet for pumping the fluid from said inlet to said outlet, and - a processing unit for the pump adapted to control an operation of the pump in response to an electrical energy, the electrical energy having a wave form, such that the pump is energized only throughout selected half cycles (a 1,a 2,a 3...a n) of the wave form, • a target ratio of a target flow rate and a predefined maximum flow rate of the pump, and • based on the calculation of an activation ratio of the number of past half cycles for which the pump was energized to the number of overall half cycles during a respective beverage preparation process.
A semiconductor device, comprising: a semiconductor device layer comprising a first surface; a plurality of gate electrodes disposed on the first surface of the semiconductor device layer, wherein the plurality of gate electrodes are spaced apart from one another; a plurality of contact regions disposed in the first surface of the semiconductor device layer, wherein each contact region of the plurality of contact regions is disposed between adjacent gate electrodes of the plurality of gate electrodes; a dielectric layer disposed on and adjacent to each gate electrode of the plurality of electrodes, wherein the dielectric layer comprises a plurality of openings, wherein each opening of the plurality of openings is disposed over a contact region of the plurality of contact regions; and an aluminum layer disposed on the dielectric layer, wherein the aluminum layer extends into each opening of the plurality of openings of the dielectric layer such that the aluminum layer is disposed on the plurality of contact regions of the semiconductor device layer, characterized in that a cell pitch of the semiconductor device is between approximately 4.5 μm and approximately 8 μm, each opening of the plurality of openings comprises a width and a height, wherein the width is less or equal to approximately 2 μm, wherein a ratio of the height to the width is between approximately 1: 1 and approximately 5:1, and wherein a step coverage of the aluminum layer in each opening of the plurality of openings is greater than or equal to approximately 75%. a semiconductor device layer comprising a first surface; a plurality of gate electrodes disposed on the first surface of the semiconductor device layer, wherein the plurality of gate electrodes are spaced apart from one another; a plurality of contact regions disposed in the first surface of the semiconductor device layer, wherein each contact region of the plurality of contact regions is disposed between adjacent gate electrodes of the plurality of gate electrodes; a dielectric layer disposed on and adjacent to each gate electrode of the plurality of electrodes, wherein the dielectric layer comprises a plurality of openings, wherein each opening of the plurality of openings is disposed over a contact region of the plurality of contact regions; and an aluminum layer disposed on the dielectric layer, wherein the aluminum layer extends into each opening of the plurality of openings of the dielectric layer such that the aluminum layer is disposed on the plurality of contact regions of the semiconductor device layer, characterized in that a cell pitch of the semiconductor device is between approximately 4.5 μm and approximately 8 μm, each opening of the plurality of openings comprises a width and a height, wherein the width is less or equal to approximately 2 μm, wherein a ratio of the height to the width is between approximately 1: 1 and approximately 5:1, and wherein a step coverage of the aluminum layer in each opening of the plurality of openings is greater than or equal to approximately 75%.
A torque motor for use in a servovalve comprising: first and second pole pieces (20', 20"), first and second permanent magnets (30a, 30b) held between said pole pieces (20', 20"), an armature plate supported between said pole pieces (20', 20"); and first and second magnetic coils (11a, 11b) coupled to said armature; wherein each of said first and second pole pieces (20', 20") have a "C-shaped" cross-section comprising a ring-shaped section (20a, 20b) extending in a first plane with first (20c, 20e) and second portions (20d, 20f) extending perpendicularly away from said plane and towards said armature; and further wherein said perpendicularly extending portions (20c-20f) are detachable from and attachable to said ring-shaped section (20a, 20b) of said pole pieces (20', 20"); and characterised in that said detachable/attachable portions (20c-20f) comprise a protrusion having a first shape and said ring-shaped section (20a, 20b) comprises a cut-out section of a corresponding shape, for connecting said detachable/attachable portions to said ring-shaped section (20a, 20b); and wherein the protrusion and cut-out section are configured to allow the slotting of said protrusion into said cut-out section. first and second pole pieces (20', 20"), first and second permanent magnets (30a, 30b) held between said pole pieces (20', 20"), an armature plate supported between said pole pieces (20', 20"); and first and second magnetic coils (11a, 11b) coupled to said armature; wherein each of said first and second pole pieces (20', 20") have a "C-shaped" cross-section comprising a ring-shaped section (20a, 20b) extending in a first plane with first (20c, 20e) and second portions (20d, 20f) extending perpendicularly away from said plane and towards said armature; and further wherein said perpendicularly extending portions (20c-20f) are detachable from and attachable to said ring-shaped section (20a, 20b) of said pole pieces (20', 20"); and characterised in that said detachable/attachable portions (20c-20f) comprise a protrusion having a first shape and said ring-shaped section (20a, 20b) comprises a cut-out section of a corresponding shape, for connecting said detachable/attachable portions to said ring-shaped section (20a, 20b); and wherein the protrusion and cut-out section are configured to allow the slotting of said protrusion into said cut-out section.
A polymer composition comprising at least the following components A) 40 to 60 wt.-% based on the overall weight of the polymer composition of a polymer blend, comprising a1) polypropylene; a2) polyethylene; wherein the weight ratio of a1) to a2) is from 3:7 to 12: 1; and wherein the polymer blend A) is a recycled material comprising from 0.1 to 100 ppm of limonene, based on the overall weight of component A), as determined by using solid phase microextraction (HS-SPME-GC-MS); B) 40 to 60 wt.-% based on the overall weight of the polymer composition of a virgin heterophasic polypropylene block copolymer; whereby said virgin heterophasic polypropylene block copolymer has • a xylene soluble content determined according to ISO 16152 based on the overall weight of component B) in the range of 8 to 30 wt.-%; • a C2-content in the range of 2.0 to 12.0 wt.-%; and • a MFR 2 (230°C, 2.16 kg) determined according to ISO 1133 in the range of 30 to 55 g/10 min; with the proviso that the weight proportions of components A) and B) add up to 100 wt.-%. A) 40 to 60 wt.-% based on the overall weight of the polymer composition of a polymer blend, comprising a1) polypropylene; a2) polyethylene; wherein the weight ratio of a1) to a2) is from 3:7 to 12: 1; and wherein the polymer blend A) is a recycled material comprising from 0.1 to 100 ppm of limonene, based on the overall weight of component A), as determined by using solid phase microextraction (HS-SPME-GC-MS); a1) polypropylene; a2) polyethylene; wherein the weight ratio of a1) to a2) is from 3:7 to 12: 1; and wherein the polymer blend A) is a recycled material comprising from 0.1 to 100 ppm of limonene, based on the overall weight of component A), as determined by using solid phase microextraction (HS-SPME-GC-MS); B) 40 to 60 wt.-% based on the overall weight of the polymer composition of a virgin heterophasic polypropylene block copolymer; whereby said virgin heterophasic polypropylene block copolymer has • a xylene soluble content determined according to ISO 16152 based on the overall weight of component B) in the range of 8 to 30 wt.-%; • a C2-content in the range of 2.0 to 12.0 wt.-%; and • a MFR 2 (230°C, 2.16 kg) determined according to ISO 1133 in the range of 30 to 55 g/10 min; • a xylene soluble content determined according to ISO 16152 based on the overall weight of component B) in the range of 8 to 30 wt.-%; • a C2-content in the range of 2.0 to 12.0 wt.-%; and • a MFR 2 (230°C, 2.16 kg) determined according to ISO 1133 in the range of 30 to 55 g/10 min;