mhurhangee/patent-ind-claim-en huggingface dataset:
A receiver circuit for an antenna array system, AAS, the receiver circuit comprising a set of receivers (15 1 -15 P ), each receiver (15 1 -15 P ) comprising - a first time-interleaved, TI, analog-to-digital converter, ADC, (35 1 ) in a receive path of the receiver, the first TI-ADC (35 1 ) comprising a plurality of sub ADCs (A 1 -A M + N ); and - a control circuit configured to select which sub ADC (A 1 -A M + N ) is to operate on what input sample based on a first selection sequence, being either a random or pseudo-random sequence, wherein the control circuits in the different receivers (15 1 -15 P ) in said set of receivers (15 1 -15p) are configured to use different first selection sequences; and each receiver (15 1 -15 P ) comprises a sequence generator circuit configured to generate the first sequence for that receiver (15 1 -15 P ), wherein the sequence generator circuits in the different receivers (15 1 -15 P ) in said set of receivers (15 1 -15 P ) have different circuit structures, thereby providing different first selection sequences. - a first time-interleaved, TI, analog-to-digital converter, ADC, (35 1 ) in a receive path of the receiver, the first TI-ADC (35 1 ) comprising a plurality of sub ADCs (A 1 -A M + N ); and - a control circuit configured to select which sub ADC (A 1 -A M + N ) is to operate on what input sample based on a first selection sequence, being either a random or pseudo-random sequence, wherein the control circuits in the different receivers (15 1 -15 P ) in said set of receivers (15 1 -15p) are configured to use different first selection sequences; and each receiver (15 1 -15 P ) comprises a sequence generator circuit configured to generate the first sequence for that receiver (15 1 -15 P ), wherein the sequence generator circuits in the different receivers (15 1 -15 P ) in said set of receivers (15 1 -15 P ) have different circuit structures, thereby providing different first selection sequences. the control circuits in the different receivers (15 1 -15 P ) in said set of receivers (15 1 -15p) are configured to use different first selection sequences; and each receiver (15 1 -15 P ) comprises a sequence generator circuit configured to generate the first sequence for that receiver (15 1 -15 P ), wherein the sequence generator circuits in the different receivers (15 1 -15 P ) in said set of receivers (15 1 -15 P ) have different circuit structures, thereby providing different first selection sequences.
Device for patterning a workpiece which preferably consists at least in part of wood, wood-based materials, plastics material or the like, comprising: at least one printing unit for printing on a surface , in particular a narrow surface, of the workpiece , a conveying means for bringing about a relative movement between the workpiece and the printing unit , and a supply unit for supplying at least two printing components to the printing unit , wherein a mixing unit is provided upstream of the printing unit for mixing the components supplied by means of the supply unit and for discharging the mixture to the printing unit , characterised in that the mixing unit is configured to control the temperature of the supplied components. at least one printing unit for printing on a surface , in particular a narrow surface, of the workpiece , a conveying means for bringing about a relative movement between the workpiece and the printing unit , and a supply unit for supplying at least two printing components to the printing unit , wherein a mixing unit is provided upstream of the printing unit for mixing the components supplied by means of the supply unit and for discharging the mixture to the printing unit , characterised in that the mixing unit is configured to control the temperature of the supplied components.
A process for pelletizing a semi-crystalline polymer, the process comprising: a. providing a vessel having an inlet and an outlet; b. introducing a first polymer composition comprising a semi-crystalline polymer and a solvent into the inlet of the vessel, wherein the first polymer composition is molten, and wherein the semi-crystalline polymer is a propylene-based polymer including propylene-derived units and 5 wt% to 30 wt% of units derived from ethylene and/or C 4 -C 12 α-olefins; c. subjecting the first polymer composition to a vacuum in the vessel such that at least a portion of the solvent is removed from the first polymer composition and the temperature of the first polymer composition is reduced, forming a second polymer composition comprising the semi-crystalline polymer and having a lower solvent content and a lower temperature than the first polymer composition; d. discharging the second polymer composition from the outlet of the vessel; e. feeding the second polymer composition to a pelletizer; and f. discharging a pelletized polymer product from the pelletizer, wherein the second polymer composition comprises less than or equal to 1 wt% solvent, and the relationship between the temperature of the second polymer composition at the outlet of the vessel (Tf) and the first crystallization temperature of the semi-crystalline polymer (Tc1) satisfies the formula Tf ≤ Tc1 + 60 wherein Tf and Tc1 are in degrees Celsius, and wherein the semi-crystalline polymer has a heat of fusion (DSC) in the range of from 0.5 J/g to less than 80 J/g. a. providing a vessel having an inlet and an outlet; b. introducing a first polymer composition comprising a semi-crystalline polymer and a solvent into the inlet of the vessel, wherein the first polymer composition is molten, and wherein the semi-crystalline polymer is a propylene-based polymer including propylene-derived units and 5 wt% to 30 wt% of units derived from ethylene and/or C 4 -C 12 α-olefins; c. subjecting the first polymer composition to a vacuum in the vessel such that at least a portion of the solvent is removed from the first polymer composition and the temperature of the first polymer composition is reduced, forming a second polymer composition comprising the semi-crystalline polymer and having a lower solvent content and a lower temperature than the first polymer composition; d. discharging the second polymer composition from the outlet of the vessel; e. feeding the second polymer composition to a pelletizer; and f. discharging a pelletized polymer product from the pelletizer,
A pet watering fountain for dispensing an aqueous drinking fluid , comprising: a bowl defining a wall for holding an aqueous drinking fluid, the bowl being divided into a drinking basin which is accessible to a domesticated pet, and an interior basin which is not accessible to the pet; a housing configured to cover the interior basin, the housing having an inlet port to receive the drinking fluid from the drinking basin; a reservoir disposed above the bowl, the reservoir configured to hold a portion of the drinking fluid; and a pump configured to receive the drinking fluid from the interior basin, and push the drinking fluid under pressure up toward the reservoir; characterized in that the pet watering fountain further comprises a flow-control valve residing between the pump and the reservoir providing for control of return fluid flow, wherein the flow-control valve is configured to selectively direct the return fluid flow to (i) the reservoir, (ii) the interior basin, or (iii) combinations thereof. a bowl defining a wall for holding an aqueous drinking fluid, the bowl being divided into a drinking basin which is accessible to a domesticated pet, and an interior basin which is not accessible to the pet; a housing configured to cover the interior basin, the housing having an inlet port to receive the drinking fluid from the drinking basin; a reservoir disposed above the bowl, the reservoir configured to hold a portion of the drinking fluid; and a pump configured to receive the drinking fluid from the interior basin, and push the drinking fluid under pressure up toward the reservoir; characterized in that the pet watering fountain further comprises a flow-control valve residing between the pump and the reservoir providing for control of return fluid flow, wherein the flow-control valve is configured to selectively direct the return fluid flow to (i) the reservoir, (ii) the interior basin, or (iii) combinations thereof.
A kit for creating a stem cell bank, comprising: a cell culture substrate comprising a laminin and a cadherin, wherein the laminin is an intact protein or a protein fragment, and wherein the laminin is laminin-521 or laminin-511; a cell culture medium; a cell splitting solution; a freezing medium; and a HLA serotype analyzer. a cell culture substrate comprising a laminin and a cadherin, wherein the laminin is an intact protein or a protein fragment, and wherein the laminin is laminin-521 or laminin-511; a cell culture medium; a cell splitting solution; a freezing medium; and a HLA serotype analyzer.
A transfer device , comprising: a housing having a first internal section , a second internal section , first and second open ends, and a base structure positioned between the first and second open ends; wherein the base structure includes a first base portion fixedly coupled to an inner surface of the housing , and a second base portion movably coupled to the inner surface of the housing ; a first needle comprising (i) a first needle portion extending from the first base portion to the first internal section and (ii) a second needle portion extending from the first base portion to the second internal section ; a second needle comprising a third needle portion extending from the second base portion to the first internal section ; and a vent that is coupled to the third needle portion, characterized in that the vent extends through an elongated slot of the housing . a housing having a first internal section , a second internal section , first and second open ends, and a base structure positioned between the first and second open ends; wherein the base structure includes a first base portion fixedly coupled to an inner surface of the housing , and a second base portion movably coupled to the inner surface of the housing ; a first needle comprising (i) a first needle portion extending from the first base portion to the first internal section and (ii) a second needle portion extending from the first base portion to the second internal section ; a second needle comprising a third needle portion extending from the second base portion to the first internal section ; and a vent that is coupled to the third needle portion, characterized in that the vent extends through an elongated slot of the housing .
An electronic device comprising: - a MEMS sensor device (20;120) including a functional structure (45;144,145) configured to transduce a chemical or physical quantity into a corresponding electrical quantity; - a cap comprising a semiconductive substrate ; and - a bonding dielectric region , which mechanically couples the cap to the MEMS sensor device (20; 120); and wherein the cap further comprises a conductive region (10;110), which extends between the semiconductive substrate and the MEMS sensor device (20;120) and includes: - a first portion (12;112); and - a second portion (13;113), which contacts the semiconductive substrate ; characterized in that the first portion (12;112) is arranged laterally with respect to the semiconductive substrate and is exposed, so as to be electrically coupleable to a terminal at a reference potential by a corresponding wire bonding . - a MEMS sensor device (20;120) including a functional structure (45;144,145) configured to transduce a chemical or physical quantity into a corresponding electrical quantity; - a cap comprising a semiconductive substrate ; and - a bonding dielectric region , which mechanically couples the cap to the MEMS sensor device (20; 120); - a first portion (12;112); and - a second portion (13;113), which contacts the semiconductive substrate ;
Pond cleaning apparatus for pumping waste matter and water from a pond, the apparatus comprising a submersible pump mounted on a tube , the pump being arranged to pump water and waste matter through an inlet of the apparatus and along the tube towards an outlet of the apparatus, characterised in that the pump comprises an impeller which comprises a blade with at least one cutting edge.
A method of congestion handling in a cellular network, the method comprising: a radio access network node (100; 110; 120) of the cellular network receiving, from a network node, an indication of one or more criteria defining one or more congestion levels to be configured for the radio access network, RAN, and, for each of said one or more congestion levels, an indication of a congestion handling policy associated with this congestion level; depending on said one or more criteria, the radio access network node (100; 110; 120) determining whether one of said one or more congestion levels is reached; and in response to determining that one of said one or more congestion levels is reached, the radio access network node (100; 110; 120) applying the congestion handling policy associated with this congestion level, characterized in that, for each congestion level, the congestion handling policy defines a Base Bitrate, BBR, and a per flow based Excess Traffic Priority, ETP, and the congestion handling policy is applied, using the ETP, to assign user plane traffic flows above the BBR a lower priority than user plane traffic flows up to the BBR and to prioritize user plane traffic flows above the BBR compared to each other. a radio access network node (100; 110; 120) of the cellular network receiving, from a network node, an indication of one or more criteria defining one or more congestion levels to be configured for the radio access network, RAN, and, for each of said one or more congestion levels, an indication of a congestion handling policy associated with this congestion level; depending on said one or more criteria, the radio access network node (100; 110; 120) determining whether one of said one or more congestion levels is reached; and in response to determining that one of said one or more congestion levels is reached, the radio access network node (100; 110; 120) applying the congestion handling policy associated with this congestion level, characterized in that, for each congestion level, the congestion handling policy defines a Base Bitrate, BBR, and a per flow based Excess Traffic Priority, ETP, and the congestion handling policy is applied, using the ETP, to assign user plane traffic flows above the BBR a lower priority than user plane traffic flows up to the BBR and to prioritize user plane traffic flows above the BBR compared to each other.
Process for preparing chlorosilanes in a fluidized-bed reactor by reaction of a hydrogen chloride-containing reaction gas with a particulate contact composition containing silicon and optionally a catalyst, wherein the chlorosilanes have the general formula H n SiCl 4-n and/or H m Cl 6-m Si 2 where n = 1-4 and m = 0-4 and wherein the hydraulic diameter d hyd of the fluidized-bed reactor, the superficial velocity of the gas u L in the fluidized-bed reactor and the Sauter diameter d 32 of the particulate contact composition are selected so that points are imaged on an area in a cartesian coordinate system in which the Archimedes number Ar is plotted against the Reynolds number Re, where the area is defined by the equations 1a and 1b: Ar = 3 ⋅ 10 − 3 ⋅ Re 2 − 8.18 ⋅ Re + 1200 Ar = 4 ⋅ 10 − 6 ⋅ Re 2 − 0.69 ⋅ Re + 14400 with a lower limit Ar = 1 and an upper limit Ar = 3000, where Ar is determined by means of equation 3 Ar = g ⋅ d 32 3 υ F 2 ⋅ ρ P − ρ F ρ F and g is the acceleration due to gravity [m/s 2 ], d 32 is the Sauter diameter of the particles [m], ρ p is the solids density of the particles [kg/m 3 ], ρ F is the fluid density [kg/m 3 ], ν F is the kinematic viscosity of the fluid [m 2 /s], where Re is determined by means of equation 4 Re = u L ⋅ d hyd υ F and u L is the superficial velocity of the gas [m/s] and d hyd is the hydraulic diameter [m], where d hyd is determined by means of equation 5 d hyd = 4 ∗ A q , free U total , wetted and A q, free corresponds to the free flow cross section [m 2 ] in the fluidized-bed reactor and U total, wetted corresponds to the wetted perimeter [m] of all internals in the fluidized-bed reactor, where d hyd is from 0.7 to 1.8 m, u L is from 0.05 to 4 m/s and d 32 is from 5 to 500 μm. g is the acceleration due to gravity [m/s 2 ], d 32 is the Sauter diameter of the particles [m], ρ p is the solids density of the particles [kg/m 3 ], ρ F is the fluid density [kg/m 3 ], ν F is the kinematic viscosity of the fluid [m 2 /s], A q, free corresponds to the free flow cross section [m 2 ] in the fluidized-bed reactor and U total, wetted corresponds to the wetted perimeter [m] of all internals in the fluidized-bed reactor,
A user equipment, UE, apparatus of a Long-Term Evolution, LTE, radio communication system including a base station and the UE apparatus, the UE apparatus comprising: a determination unit configured to determine a size of a soft buffer to be secured within the UE apparatus based on a total soft buffer size corresponding to a UE category of the UE apparatus, a modulation scheme configured for a downlink by the base station, and a MIMO-layer number configured for the downlink by the base station; and a receiving unit configured to store data received from the base station in the soft buffer with the size determined by the determination unit , wherein the UE category includes 2 layers, 4 layers, and 8 layers as maximum MIMO-layer numbers to be supported, and the UE category includes 64 QAM and 256 QAM as the modulation schemes to be supported, characterized in that , upon detecting that the UE category of the UE apparatus is one of a UE category 19 and a UE category 18, the determination unit is configured to calculate the size of the soft buffer based on the total soft buffer size corresponding to the UE category 18. a determination unit configured to determine a size of a soft buffer to be secured within the UE apparatus based on a total soft buffer size corresponding to a UE category of the UE apparatus, a modulation scheme configured for a downlink by the base station, and a MIMO-layer number configured for the downlink by the base station; and a receiving unit configured to store data received from the base station in the soft buffer with the size determined by the determination unit , wherein the UE category includes 2 layers, 4 layers, and 8 layers as maximum MIMO-layer numbers to be supported, and the UE category includes 64 QAM and 256 QAM as the modulation schemes to be supported, characterized in that , upon detecting that the UE category of the UE apparatus is one of a UE category 19 and a UE category 18, the determination unit is configured to calculate the size of the soft buffer based on the total soft buffer size corresponding to the UE category 18.
A microparticle sorting microchip comprising: a main channel through which a microparticle-containing fluid flows; a first waste channel , a second waste channel , and a trap channel, the trap channel coaxially communicating with the main channel, wherein the trap channel branches, at a branch point , into the first waste channel, the second waste channel, and a central channel which is connected to a pressure chamber ; and a gate channel intersecting the central channel of the trap channel at a point downstream of the branch point, wherein the trap channel has an opening portion intersecting the gate channel, and a cross-sectional area of the trap channel upstream of the opening portion is smaller than a cross-sectional area of the trap channel downstream of the opening portion, along a direction in which the microparticle-containing fluid flows. a main channel through which a microparticle-containing fluid flows; a first waste channel , a second waste channel , and a trap channel, the trap channel coaxially communicating with the main channel, wherein the trap channel branches, at a branch point , into the first waste channel, the second waste channel, and a central channel which is connected to a pressure chamber ; and a gate channel intersecting the central channel of the trap channel at a point downstream of the branch point, wherein the trap channel has an opening portion intersecting the gate channel, and a cross-sectional area of the trap channel upstream of the opening portion is smaller than a cross-sectional area of the trap channel downstream of the opening portion, along a direction in which the microparticle-containing fluid flows.
Warp knitting machine having a bar arrangement comprising a plurality of bars which have knitting tools, having a supporting structure which has at least one supporting body which is aligned substantially parallel to the bars, and having a vibration damping device , wherein the vibration damping device is a passive vibration damping device which is in an operational connection with a wall of the supporting body , wherein the vibration damping device is fastened to the wall of the supporting body within a central third of the supporting body along a longitudinal direction of the supporting body , characterised in that the vibration damping device is in an operational connection only with the central third of the wall .
Mixing fitting for a reliable and automatic hygiene flush of cold and hot water pipes with a fitting housing as well as with electronic control and sensors for user recognition, with connections for cold and hot water and an electrically operated solenoid valve as well as a manually adjustable mixing device as a mixing valve with a mixer shaft or as a thermostat, wherein a drive is provided, which is electrically operated and which is connected to an adjusting device , which is connected to the mixing valve or the thermostat, wherein the control , the sensors for user recognition, the solenoid valve , the mixing valve , the drive and the adjusting device are arranged in the fitting housing , characterised in that the adjusting movement of the drive and thus the mixing device connected thereto is freely movable in the de-energised state in such a manner that the mixing device of the mixing fitting can be manually operated without restriction by the respective user during normal operation, wherein at the beginning of an automatic hygiene flush when the solenoid valve is opened, the mixing valve can be moved into an opening position by means of the drive in that the drive is connected to the adjusting device , which adjusts the mixer shaft or the thermostat into the predetermined position for a hygiene flush.