mhurhangee/patent-ind-claim-en huggingface dataset:
A laminate comprising a first layer containing a fluororesin, a second layer containing a barrier material, a third layer containing a fluororesin and a fourth layer containing a polyamide, the first layer, the second layer, the third layer and the fourth layer being laminated in this order adjacent to one another, wherein each of the fluororesin in the first layer and the fluororesin in the third layer is a fluororesin having a melting point of from 160 to 230°C and having the following adhesive functional groups: adhesive functional group: at least one type of functional group selected from the group consisting of a carboxy group, an acid anhydride group, a carboxylic acid halide group, an epoxy group, a hydroxy group, an amino group, a mercapto group, a carbonate bond, an amide bond, a urethane bond, a urea bond, an ester bond and an ether bond, wherein the barrier material is a metal or a non-gas-permeable resin, wherein the barrier material is at least one member selected from the group consisting of aluminum, an aluminum alloy, stainless steel, polyvinyl alcohol, a butenediol/vinyl alcohol copolymer, polychlorotrifluoroethylene, an ethylene/chlorotrifluoroethylene copolymer and polyvinylidene fluoride. adhesive functional group: at least one type of functional group selected from the group consisting of a carboxy group, an acid anhydride group, a carboxylic acid halide group, an epoxy group, a hydroxy group, an amino group, a mercapto group, a carbonate bond, an amide bond, a urethane bond, a urea bond, an ester bond and an ether bond, wherein the barrier material is a metal or a non-gas-permeable resin, wherein the barrier material is at least one member selected from the group consisting of aluminum, an aluminum alloy, stainless steel, polyvinyl alcohol, a butenediol/vinyl alcohol copolymer, polychlorotrifluoroethylene, an ethylene/chlorotrifluoroethylene copolymer and polyvinylidene fluoride.
A vibration-damping device comprising: an outer cylinder connected to one of a vibration generation portion and a vibration reception portion, an inner member connected to the other of the vibration generation portion and the vibration reception portion; an elastic body which connects together the outer cylinder and the inner member ; and a partition member configured to partition a liquid chamber in the outer cylinder into a main liquid chamber with the elastic body as a part of a partition wall and an auxiliary liquid chamber , an orifice passage through which the main liquid chamber communicates with the auxiliary liquid chamber being formed in the partition member, wherein the vibration-damping device comprises: an intermediate cylinder disposed between the outer cylinder and the inner member and connected to the elastic body; and a dividing member which is connected to the intermediate cylinder and divides the main liquid chamber into a first main liquid chamber having an inner portion of the elastic body located radially inward of the intermediate cylinder as a part of the partition wall and a second main liquid chamber having an outer portion of the elastic body located radially outward of the intermediate cylinder as a part of the partition wall, the inner member is disposed radially inward of the intermediate cylinder, characterised in that the dividing member includes a dividing member main body in which an accommodation chamber , a first communication hole through which the accommodation chamber communicates with the first main liquid chamber, and a second communication hole through which the accommodation chamber communicates with the second main liquid chamber are formed, and a movable member which is accommodated in the accommodation chamber and is displaced or deformed in accordance with a pressure difference between the first main liquid chamber and the second main liquid chamber, and the dividing member main body blocks one end opening portion of the intermediate cylinder located in the main liquid chamber.
A device for use in a biopsy procedure, wherein the device comprises: a. a body portion ; b. a needle , wherein the needle extends distally from the body portion , wherein the needle comprises: i. an outer cannula defining an inner lumen, ii. a tip, and iii. a lateral aperture configured to receive tissue, wherein the lateral aperture is proximal to the tip; c. a cutter , wherein the cutter is operably configured to translate relative to the needle to sever a tissue specimen from tissue received within the lateral aperture; and d. a tissue sample holder (800. 900), wherein the tissue sample holder is configured to receive tissue specimens severed by the cutter , wherein the tissue sample holder comprises: i. an outer cup , wherein the outer cup defines an interior space , ii. a cap , wherein the cap is selectively coupled with the outer cup , wherein the cap includes a push release member , and iii. a tray , wherein the tray is configured to hold the severed tissue specimens, wherein the tray is selectively coupled with the cap , wherein at least a portion of the tray is configured to engage at least a portion of the push release member to selectively release the tray from the cap . a. a body portion ; b. a needle , wherein the needle extends distally from the body portion , wherein the needle comprises: i. an outer cannula defining an inner lumen, ii. a tip, and iii. a lateral aperture configured to receive tissue, wherein the lateral aperture is proximal to the tip; i. an outer cannula defining an inner lumen, ii. a tip, and iii. a lateral aperture configured to receive tissue, wherein the lateral aperture is proximal to the tip; c. a cutter , wherein the cutter is operably configured to translate relative to the needle to sever a tissue specimen from tissue received within the lateral aperture; and d. a tissue sample holder (800. 900), wherein the tissue sample holder is configured to receive tissue specimens severed by the cutter , wherein the tissue sample holder comprises: i. an outer cup , wherein the outer cup defines an interior space , ii. a cap , wherein the cap is selectively coupled with the outer cup , wherein the cap includes a push release member , and iii. a tray , wherein the tray is configured to hold the severed tissue specimens, wherein the tray is selectively coupled with the cap , wherein at least a portion of the tray is configured to engage at least a portion of the push release member to selectively release the tray from the cap . i. an outer cup , wherein the outer cup defines an interior space , ii. a cap , wherein the cap is selectively coupled with the outer cup , wherein the cap includes a push release member , and iii. a tray , wherein the tray is configured to hold the severed tissue specimens, wherein the tray is selectively coupled with the cap , wherein at least a portion of the tray is configured to engage at least a portion of the push release member to selectively release the tray from the cap .
Process for producing a composite material, comprising the steps of a) providing a reactive resin mixture comprising at least one reactive polyisocyanate composition A and at least one crosslinking catalyst B, b) providing a fibrous filler C, the fibres of which have an aspect ratio of at least 1000, c) wetting the fibrous filler C with the reactive resin mixture from process step a), d) curing the resin-impregnated fibrous filler, to give a profile by means of one or more chemical reactions, wherein at least 50% of the free isocyanate groups in the polyisocyanate composition A are crosslinked to give at least one structure selected from the group consisting of uretdione, isocyanurate, biuret, iminooxadiazinedione and oxadiazinetrione structures. a) providing a reactive resin mixture comprising at least one reactive polyisocyanate composition A and at least one crosslinking catalyst B, b) providing a fibrous filler C, the fibres of which have an aspect ratio of at least 1000, c) wetting the fibrous filler C with the reactive resin mixture from process step a), d) curing the resin-impregnated fibrous filler, to give a profile by means of one or more chemical reactions, wherein at least 50% of the free isocyanate groups in the polyisocyanate composition A are crosslinked to give at least one structure selected from the group consisting of uretdione, isocyanurate, biuret, iminooxadiazinedione and oxadiazinetrione structures.
A circuit comprising: a scan compression architecture driven by a scan clock and configured to generate M scan outputs , wherein M is an integer; a clock divider configured to divide the scan clock by k to generate k number of phase-shifted scan clocks, wherein k is an integer; and a packing logic coupled to the scan compression architecture and configured to generate kM slow scan outputs in response to the M scan outputs and the k number of phase shifted scan clocks; wherein the packing logic includes: M number of packing elements, each packing element of the M number of packing elements configured to receive a scan output of the M scan outputs; and k number of flip-flops in each packing element, each flip-flop of the k number of flip-flops in a packing element configured to receive a scan output of the M scan outputs and configured to receive a phase-shifted scan clock of the k number of phase-shifted scan clocks, such that each flip-flop generates a slow scan output of the kM slow scan outputs in response to the scan output and the phase-shifted scan clock. a scan compression architecture driven by a scan clock and configured to generate M scan outputs , wherein M is an integer; a clock divider configured to divide the scan clock by k to generate k number of phase-shifted scan clocks, wherein k is an integer; and a packing logic coupled to the scan compression architecture and configured to generate kM slow scan outputs in response to the M scan outputs and the k number of phase shifted scan clocks; wherein the packing logic includes: M number of packing elements, each packing element of the M number of packing elements configured to receive a scan output of the M scan outputs; and k number of flip-flops in each packing element, each flip-flop of the k number of flip-flops in a packing element configured to receive a scan output of the M scan outputs and configured to receive a phase-shifted scan clock of the k number of phase-shifted scan clocks, such that each flip-flop generates a slow scan output of the kM slow scan outputs in response to the scan output and the phase-shifted scan clock.
A kamado style grilling apparatus comprising: a cooking chamber having a high heat capacity and a vent system , wherein the cooking chamber further comprises and is defined by a base unit and a top unit disposed over the base unit that is capable of moving from an open to a closed position via a hinge component , wherein the base unit comprises a base and a peripheral side wall extending upwardly from said base towards a base unit edge and the top unit comprises a top unit edge that contacts the base unit edge when the top unit is in a closed position, thereby defining the cooking chamber , wherein the vent system comprises at least one adjustable air intake vent in the base unit and at least one adjustable air outlet vent in the top unit such that air is capable of passing into the cooking chamber through said at least one air intake vent and out of the cooking chamber through said at least one outlet vent when the vents are open; characterized in that : (a) the top unit and base unit comprise cast aluminum; (b) both the top unit edge and base unit edge each comprise a tongue member, a top unit tongue member and a base unit tongue member , each of which further comprises a wall member that extends circumferentially around the dome edge and outwards from the edge, wherein the tongue members rest adjacent to each other so as to form a double insulated wall when the top unit is in the closed position; and (c) the top unit edge and base unit edge each further comprise a groove adjacent to the tongue member positioned so each of the top unit and base unit tongue members contact the opposing edge's groove when the cooking chamber is in the closed position. (a) the top unit and base unit comprise cast aluminum; (b) both the top unit edge and base unit edge each comprise a tongue member, a top unit tongue member and a base unit tongue member , each of which further comprises a wall member that extends circumferentially around the dome edge and outwards from the edge, wherein the tongue members rest adjacent to each other so as to form a double insulated wall when the top unit is in the closed position; and (c) the top unit edge and base unit edge each further comprise a groove adjacent to the tongue member positioned so each of the top unit and base unit tongue members contact the opposing edge's groove when the cooking chamber is in the closed position.
A scoring device (30; 210) comprising a scoring structure (32; 211) configured to score a material inside a body lumen , said scoring device comprising a first end and a second end, wherein said first end comprises an opening , wherein said opening is configured for a balloon (11; 221) mounted on a catheter shaft to pass therethrough into said scoring structure and for the balloon to be completely extracted out of said scoring device, and characterized in that the first end further comprises a fastening element (214; 272) configured to attach to the balloon catheter proximally spaced to the balloon. wherein said first end comprises an opening , wherein said opening is configured for a balloon (11; 221) mounted on a catheter shaft to pass therethrough into said scoring structure and for the balloon to be completely extracted out of said scoring device, and characterized in that the first end further comprises a fastening element (214; 272) configured to attach to the balloon catheter proximally spaced to the balloon.
A compound having the following structure: wherein X is any pharmaceutically acceptable anion.
A method performed by a terminal which is capable of connecting to evolved packet core, EPC, and 5G core, 5GC, in a wireless communication system, the method comprising: receiving , from a base station , system information block, SIB, including information on a core network associated with a cell on which the SIB is received, a public land mobile network, PLMN, list and RAT information, wherein the core network is 5GC, and wherein the information on the core network includes a core network type; performing a measurement of a synchronization signal block, SSB, based on measurement configuration information received from the base station; generating a measurement report message for reporting a measurement result, the measurement report message including first information on a cell identifier of the cell, second information on the measurement result, and third information on the core network type; and transmitting , to the base station, the measurement report message. receiving , from a base station , system information block, SIB, including information on a core network associated with a cell on which the SIB is received, a public land mobile network, PLMN, list and RAT information, wherein the core network is 5GC, and wherein the information on the core network includes a core network type; performing a measurement of a synchronization signal block, SSB, based on measurement configuration information received from the base station; generating a measurement report message for reporting a measurement result, the measurement report message including first information on a cell identifier of the cell, second information on the measurement result, and third information on the core network type; and transmitting , to the base station, the measurement report message.
A method for communicating data frames on a bus that operates according to a multi-master bus protocol, the method comprising the steps of: beginning transmission of a data frame from a node on the bus when the node gains control of the bus, wherein the multi-master bus protocol specifies a frame format that includes a start portion , a payload portion , and an end portion ; during transmission of the payload portion of the data frame, inserting an in-payload arbitration field into the transmission if the payload portion of the data frame exceeds a certain predetermined size; continuing transmission of the data frame if the node maintains control of the bus after insertion of the in-payload arbitration field; and halting transmission of the data frame before transmission of the data frame is complete if the node loses control of the bus after insertion of the in-payload arbitration field. beginning transmission of a data frame from a node on the bus when the node gains control of the bus, wherein the multi-master bus protocol specifies a frame format that includes a start portion , a payload portion , and an end portion ; during transmission of the payload portion of the data frame, inserting an in-payload arbitration field into the transmission if the payload portion of the data frame exceeds a certain predetermined size; continuing transmission of the data frame if the node maintains control of the bus after insertion of the in-payload arbitration field; and halting transmission of the data frame before transmission of the data frame is complete if the node loses control of the bus after insertion of the in-payload arbitration field.
A polypeptide having amylase activity comprising an amino acid sequence having at least 65 % sequence identity to the amino acid sequence of SEQ ID NO: 1, and wherein the polypeptide comprises an amino acid substitution at position 205, with reference to the position numbering of the sequence shown as SEQ ID NO: 1; wherein the polypeptide has improved thermostability compared to the amylase of SEQ ID NO: 1.
Wire electrode for spark-erosion cutting having - a core , which contains a metal or a metal alloy, and - a covering layer , surrounding the core , which comprises regions the morphology of which corresponds to block-like particles, which are spatially separated, at least over a portion of their circumference, from each other and/or the core material by cracks, wherein, viewed in a wire cross section perpendicular or parallel to the wire longitudinal axis, the portion amounting to more than 50% of the surface area of a region with the morphology of a block-like particle contains a copper-zinc alloy with a zinc concentration of 58.5 - 67 wt.-%, characterized in that , in a view perpendicular to the wire surface, the proportion of the surface formed by the block-like particles is more than 20% and less than 50% of the entire surface of the wire electrode and the block-like particles the surface area of which in each case lies in the range of 25 - 250 μm 2 in total make up a proportion of more than 50% of the surface area of all block-like particles. - a core , which contains a metal or a metal alloy, and - a covering layer , surrounding the core , which comprises regions the morphology of which corresponds to block-like particles, which are spatially separated, at least over a portion of their circumference, from each other and/or the core material by cracks, wherein, viewed in a wire cross section perpendicular or parallel to the wire longitudinal axis, the portion amounting to more than 50% of the surface area of a region with the morphology of a block-like particle contains a copper-zinc alloy with a zinc concentration of 58.5 - 67 wt.-%, characterized in that , in a view perpendicular to the wire surface, the proportion of the surface formed by the block-like particles is more than 20% and less than 50% of the entire surface of the wire electrode and the block-like particles the surface area of which in each case lies in the range of 25 - 250 μm 2 in total make up a proportion of more than 50% of the surface area of all block-like particles.
A dishwasher comprising a body ; a washing tub which is arranged in the body and wherein the washing process is realized; at least one rack which is disposed in the washing tub and whereon the dishes to be washed are placed; at least one spraying member which enables the water to be sprayed onto the rack and the kitchen items to be cleaned; an intensive washing member which is disposed on the rack and whereon the kitchen items requiring intensive washing are placed; an intensive washing line which enables the water to be delivered to the intensive washing member , and at least one water outlet port which is arranged on the intensive washing member and which enables the water coming from the intensive washing line to be delivered horizontally to the washing tub , characterized by a guiding member which is provided in front of the intensive washing member having a guiding surface onto which the water passing through the water outlet port is sent and which is inclined so as to change the direction of the water delivered through the water outlet port by approximately 90 degrees, thereby vertically changing the direction of the water sent onto the same towards the kitchen items. at least one water outlet port which is arranged on the intensive washing member and which enables the water coming from the intensive washing line to be delivered horizontally to the washing tub , characterized by a guiding member which is provided in front of the intensive washing member having a guiding surface onto which the water passing through the water outlet port is sent and which is inclined so as to change the direction of the water delivered through the water outlet port by approximately 90 degrees, thereby vertically changing the direction of the water sent onto the same towards the kitchen items.
A replaceable module for an aerosol and flavor generating device , wherein the replaceable module comprises an air chamber , wherein the air chamber comprises at least an air inlet for an entrance of an airflow into the air chamber , wherein the air chamber comprises an air outlet for an exit of a first portion of the airflow out of the air chamber , wherein the air outlet is configured to be connected to an aerosol generating article to direct the first portion of the airflow through the aerosol generating article , wherein the air chamber comprises at least an opening arranged at a circumference of the air chamber for an exit of a second portion of the airflow radially out of the air chamber , wherein the air chamber comprises a holding unit for holding a flavor generating article between the air inlet and the opening , characterised in that the air chamber comprises a turbulence-generating unit arranged between the air inlet and the opening to block the airflow at least partially to cause a turbulent airflow in the air chamber close to the opening during puffing. wherein the replaceable module comprises an air chamber , wherein the air chamber comprises at least an air inlet for an entrance of an airflow into the air chamber , wherein the air chamber comprises an air outlet for an exit of a first portion of the airflow out of the air chamber , wherein the air outlet is configured to be connected to an aerosol generating article to direct the first portion of the airflow through the aerosol generating article , wherein the air chamber comprises at least an opening arranged at a circumference of the air chamber for an exit of a second portion of the airflow radially out of the air chamber , wherein the air chamber comprises a holding unit for holding a flavor generating article between the air inlet and the opening , characterised in that the air chamber comprises a turbulence-generating unit arranged between the air inlet and the opening to block the airflow at least partially to cause a turbulent airflow in the air chamber close to the opening during puffing.