mhurhangee/patent-ind-claim-en huggingface dataset:
A retortable plastic container configured to be sealed by a rigid lid , the retortable plastic container comprising: a side wall defining an open end of the container; and a base opposite the open end and having a flexible portion defining a bottom panel of the container including a central region having an as formed convex shape extending away from the open end of the container and a peripheral region having an as formed concave shape connecting the central region and the side wall, and a skirt portion extending away from the open end of the container, characterized in that the side wall has a first thickness and the flexible portion of the base has a second thickness smaller than the first thickness, the flexible portion having a thickness that is constant across the central region and the peripheral region and an angle α between the peripheral region of the flexible portion and the skirt portion is within a range of 80° and 100° . a side wall defining an open end of the container; and a base opposite the open end and having a flexible portion defining a bottom panel of the container including a central region having an as formed convex shape extending away from the open end of the container and a peripheral region having an as formed concave shape connecting the central region and the side wall, and a skirt portion extending away from the open end of the container, characterized in that the side wall has a first thickness and the flexible portion of the base has a second thickness smaller than the first thickness, the flexible portion having a thickness that is constant across the central region and the peripheral region and an angle α between the peripheral region of the flexible portion and the skirt portion is within a range of 80° and 100° .
A composition comprising: (a) from about 6 to about 12 weight % R-1132a (b) from about 7 to about 13 weight % R-32 (c) from about 55 to about 87 weight % R-1234yf. (a) from about 6 to about 12 weight % R-1132a (b) from about 7 to about 13 weight % R-32 (c) from about 55 to about 87 weight % R-1234yf.
An open center hydraulic system , the open center hydraulic system comprising a hydraulic valve control unit , one or more actuators (151-153), a pump , a shunt valve and one or more actuator valves (141-143) coupled to the shunt valve , wherein each actuator valve (141-143) is controlling a corresponding actuator's (151-153) position, the hydraulic valve control unit comprising: - a processor ; and - a memory , said memory containing instructions executable by said processor, wherein said hydraulic valve control unit is configured - to obtain user input data indicative of at least a desired actuator's (151-153) position; - to determine opening area values of the one or more actuator valves (141-143) using a predetermined relation dependent on the user input data; - to determine an opening area value of the shunt valve using the predetermined relation dependent on the user input data; - to control the shunt valve based on the opening area value of the shunt valve; and - to control the one or more actuator valves (141-143) based on the opening area values of the one or more actuator valves (141-143), characterized in that the user input data is further indicative of a desired single action operational mode, wherein the predetermined relation is further dependent on the single action operational mode; and in that the predetermined relation provides in the single action operational mode an opening area value (AS) of the shunt valve being equal to a maximum opening area (AS max ) value of the shunt valve and the opening area values of the one or more actuator valves (141-143) dependent on the user input data. - a processor ; and - a memory , said memory containing instructions executable by said processor, - to obtain user input data indicative of at least a desired actuator's (151-153) position; - to determine opening area values of the one or more actuator valves (141-143) using a predetermined relation dependent on the user input data; - to determine an opening area value of the shunt valve using the predetermined relation dependent on the user input data; - to control the shunt valve based on the opening area value of the shunt valve; and - to control the one or more actuator valves (141-143) based on the opening area values of the one or more actuator valves (141-143),
A spinal implant system comprising: at least one interbody implant comprising a first member including a tissue engaging surface and at least one mating element , a second member including a tissue engaging surface and at least one mating element and an intermediate member including at least one mating element ; and an intra-operative surgical tool connectable with at least one of the members to engage adjacent mating elements and fix the intermediate member with at least one of the first member and the second member , wherein the surgical tool includes a first part defining a cavity configured for disposal of the first member and a second part defining a cavity configured for disposal of the second member such that the parts compress the members into mating engagement. at least one interbody implant comprising a first member including a tissue engaging surface and at least one mating element , a second member including a tissue engaging surface and at least one mating element and an intermediate member including at least one mating element ; and an intra-operative surgical tool connectable with at least one of the members to engage adjacent mating elements and fix the intermediate member with at least one of the first member and the second member , wherein the surgical tool includes a first part defining a cavity configured for disposal of the first member and a second part defining a cavity configured for disposal of the second member such that the parts compress the members into mating engagement.
The use of a composition comprising A) from 55 to 90% by weight of aluminum oxide, B) from 5 to 35% by weight of a sodium compound which at a pH of 7 at 20°C has a solubility in water of ≤ 300 g/l and can be converted by thermal means virtually exclusively into sodium oxide as only solid, C) from 0 to 15% by weight of a magnesium compound and/or a lithium compound selected from the group consisting of: magnesium oxide, magnesium carbonate, magnesium nitrate, lithium oxide, lithium carbonate, lithium nitrate and D) from 0 to 30% by weight of zirconium dioxide, in each case based on the sum of the components A) to D), wherein the composition is not calcined prior to the extrusion and is suspended in a suspension medium selected from water with addition of a binder and optionally other additives for producing a shaped ceramic body by extrusion. A) from 55 to 90% by weight of aluminum oxide, B) from 5 to 35% by weight of a sodium compound which at a pH of 7 at 20°C has a solubility in water of ≤ 300 g/l and can be converted by thermal means virtually exclusively into sodium oxide as only solid, C) from 0 to 15% by weight of a magnesium compound and/or a lithium compound selected from the group consisting of: magnesium oxide, magnesium carbonate, magnesium nitrate, lithium oxide, lithium carbonate, lithium nitrate and D) from 0 to 30% by weight of zirconium dioxide, in each case based on the sum of the components A) to D), wherein the composition is not calcined prior to the extrusion and is suspended in a suspension medium selected from water with addition of a binder and optionally other additives for producing a shaped ceramic body by extrusion.
A stationary chuck for positionally maintaining an associated in-process wafer, comprising: a base plate having, on an upper surface thereof, a plurality of machined concentric ridges that form a series of concentric circular zones ; a silicon carbide coating on the upper surface of the base plate; and a plurality of silicon carbide inlays capable of being bonded onto the silicon carbide coating in the concentric circular zones. a base plate having, on an upper surface thereof, a plurality of machined concentric ridges that form a series of concentric circular zones ; a silicon carbide coating on the upper surface of the base plate; and a plurality of silicon carbide inlays capable of being bonded onto the silicon carbide coating in the concentric circular zones.
An inkjet head comprising: a diaphragm that is configured to vibrate by actuation of a piezoelectric body; and a pressure chamber a volume of which fluctuates by vibration of the diaphragm , wherein the pressure chamber is divided from an adjacent pressure chamber or flow path by a partition wall in which a region in contact with the diaphragm is formed of metal, and the partition wall has an aspect ratio of 1.3 or higher, the aspect ratio being a ratio of a height (t) of the partition wall to a width (W) of the partition wall , wherein the partition wall is formed by joining a plurality of partition wall members ; characterised in that joint surfaces of the plurality of partition wall members have different widths. a diaphragm that is configured to vibrate by actuation of a piezoelectric body; and a pressure chamber a volume of which fluctuates by vibration of the diaphragm , wherein the pressure chamber is divided from an adjacent pressure chamber or flow path by a partition wall in which a region in contact with the diaphragm is formed of metal, and the partition wall has an aspect ratio of 1.3 or higher, the aspect ratio being a ratio of a height (t) of the partition wall to a width (W) of the partition wall , wherein the partition wall is formed by joining a plurality of partition wall members ; characterised in that joint surfaces of the plurality of partition wall members have different widths.
A method for making a physical map of rolling circle amplification (RCA) products, comprising: (a) producing a complex comprising population of grid oligonucleotide molecules and a population of RCA products that each have a unique RCA product identifier sequence, wherein the grid oligonucleotides are hybridized directly or indirectly via a splint to complementary sites in the RCA products; (b) extending the grid oligonucleotide molecules that are hybridized to two RCA products to add the complements of the unique RCA product identifier sequences from the two RCA products to the grid oligonucleotide molecules; (c) sequencing the extended grid oligonucleotides; and (d) analyzing the sequences to identify which pairs of unique RCA product identifier sequence complements have been added onto the grid oligonucleotides; and (e) making one or more physical maps of the immobilized RCA products using the pairs of sequences identified in (d). (a) producing a complex comprising population of grid oligonucleotide molecules and a population of RCA products that each have a unique RCA product identifier sequence, wherein the grid oligonucleotides are hybridized directly or indirectly via a splint to complementary sites in the RCA products; (b) extending the grid oligonucleotide molecules that are hybridized to two RCA products to add the complements of the unique RCA product identifier sequences from the two RCA products to the grid oligonucleotide molecules; (c) sequencing the extended grid oligonucleotides; and (d) analyzing the sequences to identify which pairs of unique RCA product identifier sequence complements have been added onto the grid oligonucleotides; and (e) making one or more physical maps of the immobilized RCA products using the pairs of sequences identified in (d).
Connection between a metal head bolt fastened to a wall or ceiling of a refractory lining and a reinforcing anchor consisting of a bent metal rod and extending into the refractory concrete of the refractory lining, wherein, at the connecting point, the reinforcing anchor engages around the head bolt underneath the bolt head in a U-shaped manner, characterized in that the connecting point is enclosed by a plastic cap which can be pushed on, which with a top surface covers the bolt head and which has, on the side situated opposite the top surface, an insertion gap through which the shank of the head bolt runs, and in that a connecting cap of plastic that can be pushed on lies in the interior space of the plastic cap , - which connecting cap encloses the U-shaped region of the reinforcing anchor in a U-shaped manner - with a push-on direction transverse to the longitudinal direction of the head bolt - and bears against the annular bottom side of the bolt head . - which connecting cap encloses the U-shaped region of the reinforcing anchor in a U-shaped manner - with a push-on direction transverse to the longitudinal direction of the head bolt - and bears against the annular bottom side of the bolt head .
A method in a network node serving a user equipment, UE, the method comprising: configuring the UE in a cell to operate with a center frequency of a radio frequency, RF, reception bandwidth of the UE being different than a center frequency of an RF transmission bandwidth of the cell; moving transmission of a control signal from a subcarrier that corresponds to the center frequency of the RF reception bandwidth of the UE to a subcarrier that does not correspond to the center frequency of the RF reception bandwidth of the UE; puncturing the subcarrier in a downlink signal that, when transmitted over the RF transmission bandwidth of the cell, corresponds to the center frequency of the RF reception bandwidth of the UE to provide a punctured downlink signal; and transmitting the punctured downlink signal to the UE through a transmitter circuit operating within the RF reception bandwidth of the UE. configuring the UE in a cell to operate with a center frequency of a radio frequency, RF, reception bandwidth of the UE being different than a center frequency of an RF transmission bandwidth of the cell; moving transmission of a control signal from a subcarrier that corresponds to the center frequency of the RF reception bandwidth of the UE to a subcarrier that does not correspond to the center frequency of the RF reception bandwidth of the UE; puncturing the subcarrier in a downlink signal that, when transmitted over the RF transmission bandwidth of the cell, corresponds to the center frequency of the RF reception bandwidth of the UE to provide a punctured downlink signal; and transmitting the punctured downlink signal to the UE through a transmitter circuit operating within the RF reception bandwidth of the UE.
A locking device, in particular an electric steering lock for a motor vehicle, having a locking member movable between a first and a second position for locking a functionally relevant component, such as the steering shaft in the steering wheel column or the gear shift lever, wherein the locking member in the first position is in blocking engagement with the component and/or can be brought into blocking engagement with the component and is not engaged with the component in the second position, having a drive for the movement of the locking member between the two positions, and having a securing means for securing the locking member in the first position, in particular in the manner of a push-back protection for the locking member disposed in the first position for preventing tampering, wherein the securing means is arranged in the locking member , characterised in that the securing means is a pin, and in that the securing means is mounted in a translationally displaceable manner in a receptacle of the locking member .
A composition comprising a lipophilic derivative of a hydrophilic drug and an amphiphile compound for use in the treatment of a central nervous system disorder wherein the treatment comprises oral administration to the human or animal body, wherein the hydrophilic drug is a peptide and/or a neuroactive agent; wherein the amphiphile compound is an amphiphilic carbohydrate compound; wherein the lipophilic derivative of the hydrophilic drug comprises a hydrophilic drug and a cleavable lipophilic linker, wherein the lipophilic linker comprises a substituted or unsubstituted hydrocarbon group comprising at least 4 carbon atoms and comprises a group selected from a C 4-30 alkyl group, a C 4-30 alkenyl group, a C 4-30 alkynyl group, a C 5-20 aryl group, a multicycle hydrophobic group with more than one C 4- C 8 ring structure such as a sterol (e.g. cholesterol), a multicyclic hydrophobic group with more than one C 4 -C 8 heteroatom ring structure, a polyoxa C 1 -C 4 alkylene group such as polyoxa butylene polymer, or a hydrophobic polymeric substituent such as a poly (lactic acid) group, a poly(lactide-co-glycolide) group or a poly(glycolic acid) group; or wherein the linker comprises general formula -C(=O)R 1 wherein R 1 is C 4-20 alkyl which may be optionally substituted. wherein the hydrophilic drug is a peptide and/or a neuroactive agent; wherein the amphiphile compound is an amphiphilic carbohydrate compound; wherein the lipophilic derivative of the hydrophilic drug comprises a hydrophilic drug and a cleavable lipophilic linker, wherein the lipophilic linker comprises a substituted or unsubstituted hydrocarbon group comprising at least 4 carbon atoms and comprises a group selected from a C 4-30 alkyl group, a C 4-30 alkenyl group, a C 4-30 alkynyl group, a C 5-20 aryl group, a multicycle hydrophobic group with more than one C 4- C 8 ring structure such as a sterol (e.g. cholesterol), a multicyclic hydrophobic group with more than one C 4 -C 8 heteroatom ring structure, a polyoxa C 1 -C 4 alkylene group such as polyoxa butylene polymer, or a hydrophobic polymeric substituent such as a poly (lactic acid) group, a poly(lactide-co-glycolide) group or a poly(glycolic acid) group; or wherein the linker comprises general formula -C(=O)R 1 wherein R 1 is C 4-20 alkyl which may be optionally substituted.
An insertion mechanism for a cannula , comprising: a cannula housing relative to which the cannula can be displaced; at least one cannula holder (2.2, 3.2) on which the cannula is fastened and which is movable relative to the cannula housing ; an insertion energy store for generating an insertion force on the at least one cannula holder (2.2, 3.2); a holding element (1.1) which can hold the at least one cannula holder (2.2, 3.2) relative to the cannula housing counter to the force generated by the insertion energy store ; a heating element ; and a fuse or a safety element which, in the safety state, holds the holding element (1.1) in a locked position and, in the released state, releases the holding element (1.1) so that the holding element (1.1) can be moved into the release position by the pressure of the insertion energy store and the at least one cannula holder (2.2, 3.2) can move relative to the cannula housing , driven by the insertion energy store , in order to trigger or carry out an insertion movement or insertion, characterized in that the fuse or the safety element or a part of the fuse is provided on the heating element and comprises a softenable or meltable material which is heated and softened by the heating element from one side and/or on one surface and/or is weakened in terms its mechanical supporting or holding capacity or severed or at least partially or completely melted. a cannula housing relative to which the cannula can be displaced; at least one cannula holder (2.2, 3.2) on which the cannula is fastened and which is movable relative to the cannula housing ; an insertion energy store for generating an insertion force on the at least one cannula holder (2.2, 3.2); a holding element (1.1) which can hold the at least one cannula holder (2.2, 3.2) relative to the cannula housing counter to the force generated by the insertion energy store ; a heating element ; and a fuse or a safety element which, in the safety state, holds the holding element (1.1) in a locked position and, in the released state, releases the holding element (1.1) so that the holding element (1.1) can be moved into the release position by the pressure of the insertion energy store and the at least one cannula holder (2.2, 3.2) can move relative to the cannula housing , driven by the insertion energy store , in order to trigger or carry out an insertion movement or insertion, characterized in that the fuse or the safety element or a part of the fuse is provided on the heating element and comprises a softenable or meltable material which is heated and softened by the heating element from one side and/or on one surface and/or is weakened in terms its mechanical supporting or holding capacity or severed or at least partially or completely melted.
A frequency modulated continuous wave, FMCW, radar system comprising: a chirp profile storage component configured to store a chirp profile for each chirp of a frame of chirps, wherein a chirp profile is a set of chirp timing parameters; a timing engine coupled to the chirp profile storage component to receive each chirp profile in transmission order during transmission of the frame of chirps, wherein the timing engine uses each chirp profile to configure a corresponding chirp; wherein the timing engine comprises a parameter mapping component and a plurality of chirp profile buffers; wherein each chirp profile buffer includes a plurality of registers; and wherein the parameter mapping component coupled to the chirp profile storage component to receive each chirp profile, wherein the parameter mapping component is configured to map the chirp timing parameters in the chirp profile to registers in a chirp profile buffer of the plurality of chirp profile buffers ; and characterized in that the parameter mapping component is configured to map the chirp timing parameters in a chirp profile to registers in a first chirp profile buffer of the plurality of chirp profile buffers while the timing engine is using a second chirp profile buffer of the plurality of chirp profile buffers for configuring a chirp. a chirp profile storage component configured to store a chirp profile for each chirp of a frame of chirps, wherein a chirp profile is a set of chirp timing parameters; a timing engine coupled to the chirp profile storage component to receive each chirp profile in transmission order during transmission of the frame of chirps, wherein the timing engine uses each chirp profile to configure a corresponding chirp; wherein the timing engine comprises a parameter mapping component and a plurality of chirp profile buffers; wherein each chirp profile buffer includes a plurality of registers; and wherein the parameter mapping component coupled to the chirp profile storage component to receive each chirp profile, wherein the parameter mapping component is configured to map the chirp timing parameters in the chirp profile to registers in a chirp profile buffer of the plurality of chirp profile buffers ; and characterized in that the parameter mapping component is configured to map the chirp timing parameters in a chirp profile to registers in a first chirp profile buffer of the plurality of chirp profile buffers while the timing engine is using a second chirp profile buffer of the plurality of chirp profile buffers for configuring a chirp.