mhurhangee/patent-ind-claim-en huggingface dataset:
A medical device system comprising: a sensing circuit configured to: receive a first cardiac electrical signal; sense R-waves from the first cardiac electrical signal, and receive a second cardiac electrical signal different than the first cardiac electrical signal; a memory; and a control circuit coupled to the sensing circuit and the memory, the control circuit configured to: store a signal segment of the second cardiac electrical signal in the memory for each of the plurality of R-waves sensed by the sensing circuit from the first cardiac electrical signal; determine a morphology parameter from each signal segment of the second cardiac signal; and determine at least one signal segment of the second cardiac electrical signal as being a noisy signal segment based on the morphology parameter determined for each respective signal segment; and withhold detection of a tachyarrhythmia episode in response to determining the at least one signal segment as a noisy signal segment. a sensing circuit configured to: receive a first cardiac electrical signal; sense R-waves from the first cardiac electrical signal, and receive a second cardiac electrical signal different than the first cardiac electrical signal; receive a first cardiac electrical signal; sense R-waves from the first cardiac electrical signal, and receive a second cardiac electrical signal different than the first cardiac electrical signal; a memory; and a control circuit coupled to the sensing circuit and the memory, the control circuit configured to: store a signal segment of the second cardiac electrical signal in the memory for each of the plurality of R-waves sensed by the sensing circuit from the first cardiac electrical signal; determine a morphology parameter from each signal segment of the second cardiac signal; and determine at least one signal segment of the second cardiac electrical signal as being a noisy signal segment based on the morphology parameter determined for each respective signal segment; and withhold detection of a tachyarrhythmia episode in response to determining the at least one signal segment as a noisy signal segment. store a signal segment of the second cardiac electrical signal in the memory for each of the plurality of R-waves sensed by the sensing circuit from the first cardiac electrical signal; determine a morphology parameter from each signal segment of the second cardiac signal; and determine at least one signal segment of the second cardiac electrical signal as being a noisy signal segment based on the morphology parameter determined for each respective signal segment; and determine a morphology parameter from each signal segment of the second cardiac signal; and determine at least one signal segment of the second cardiac electrical signal as being a noisy signal segment based on the morphology parameter determined for each respective signal segment; and withhold detection of a tachyarrhythmia episode in response to determining the at least one signal segment as a noisy signal segment.
Arrangement comprising a tool and packaging for receiving the tool , the tool comprising at least one machining head for machining an in particular dental workpiece in a material-removing manner by means of a machine tool , and a clamping portion for securing the tool in a chuck of the machine tool while the workpiece is being machined in a material-removing manner, and the tool being able to be removed from the packaging and arranged back in the packaging multiple times, characterised in that the packaging comprises a main body for receiving the tool , preferably the machining head of the tool , and a cover part , and in that the packaging comprises at least one securing device for fixing the packaging in place in a tool intermediate store of the machine tool , the securing device being arranged on the main body and additionally being configured for fixing the cover part in place on the main body .
An engine control method comprising: opening and closing an EGR passage by an EGR control valve , wherein the EGR passage is configured to recirculate a part of exhaust gas from an exhaust passage to an intake passage ; setting a basic opening (A0) of the EGR control valve , based on a current engine operation state; sensing an actual exhaust system temperature (T1) that is a current temperature of an exhaust system ; calculating a differential pressure (ΔP1) across the EGR control valve , based on the actual exhaust system temperature (T1); calculating a reference differential pressure (ΔP0) that is a differential pressure across the EGR control valve in a steady state corresponding to the current engine operation state; calculating a reference pulsation amplitude (D0) that is an amplitude of pulsation of the reference differential pressure (ΔP0); and correcting the basic opening (A0), based on the differential pressure (ΔP1), the reference differential pressure (ΔP0), and the reference pulsation amplitude (D0). opening and closing an EGR passage by an EGR control valve , wherein the EGR passage is configured to recirculate a part of exhaust gas from an exhaust passage to an intake passage ; setting a basic opening (A0) of the EGR control valve , based on a current engine operation state; sensing an actual exhaust system temperature (T1) that is a current temperature of an exhaust system ; calculating a differential pressure (ΔP1) across the EGR control valve , based on the actual exhaust system temperature (T1); calculating a reference differential pressure (ΔP0) that is a differential pressure across the EGR control valve in a steady state corresponding to the current engine operation state; calculating a reference pulsation amplitude (D0) that is an amplitude of pulsation of the reference differential pressure (ΔP0); and correcting the basic opening (A0), based on the differential pressure (ΔP1), the reference differential pressure (ΔP0), and the reference pulsation amplitude (D0).
A noise attenuation panel for a gas turbine engine component comprising a first wall , a second wall and partition walls connected to the first and second walls and defining cells between the first and second walls , wherein the first wall is provided with a plurality of through holes , characterized in that at least three of said cells are interconnected via communication holes , wherein one of said through holes leads to a first of said at least three interconnected cells and wherein the first cell forms an end cell in said at least three interconnected cells and that a second of said interconnected cells is configured to prevent any gas flow through the second cell, and wherein said at least three interconnected cells are arranged in a straight line and the communication holes only connect one cell to another adjacent cell in said straight line.
Machining head for bottle boring a workpiece by chip removal, comprising: a housing , a housing-side coupling region for coupling a machining tool to be coupled to the machining head , wherein the housing-side coupling region comprises at least one coupling interface for directly coupling a machining tool to be coupled to the machining head , wherein the direct coupling between the machining tool and the housing-side coupling interface is effected by mechanical cooperation of coupling interface-side coupling elements and machining tool-side coupling elements , wherein corresponding coupling elements are form-fitting elements, i.e. protruding elements or receiving elements, whereby rapid coupling is implemented, so that a machining tool to be coupled to the housing can be coupled to the housing in an automatable or automated manner, or a machining tool to be uncoupled from the housing can be uncoupled from the housing in an automatable or automated manner, characterised in that the machining head comprises a further housing-side coupling region for coupling the housing to a support device supporting the housing , wherein the further housing-side coupling region comprises at least one further coupling interface for supporting the housing on the support device , wherein the housing can be or is supported on the support device so as to be movable with a rotational or pivotal degree of freedom of movement. a housing , a housing-side coupling region for coupling a machining tool to be coupled to the machining head , wherein the housing-side coupling region comprises at least one coupling interface for directly coupling a machining tool to be coupled to the machining head , wherein the direct coupling between the machining tool and the housing-side coupling interface is effected by mechanical cooperation of coupling interface-side coupling elements and machining tool-side coupling elements , wherein corresponding coupling elements are form-fitting elements, i.e. protruding elements or receiving elements, whereby rapid coupling is implemented, so that a machining tool to be coupled to the housing can be coupled to the housing in an automatable or automated manner, or a machining tool to be uncoupled from the housing can be uncoupled from the housing in an automatable or automated manner, characterised in that the machining head comprises a further housing-side coupling region for coupling the housing to a support device supporting the housing , wherein the further housing-side coupling region comprises at least one further coupling interface for supporting the housing on the support device , wherein the housing can be or is supported on the support device so as to be movable with a rotational or pivotal degree of freedom of movement.
A cartridge , comprising: a housing; a pre-vapor formulation reservoir in the housing, the pre-vapor formulation reservoir configured to store a pre-vapor formulation; a vaporizer configured to vaporize the pre-vapor formulation, the vaporizer including a heater and a wick , the wick being in fluid communication with the pre-vapor formulation reservoir , and the heater configured to vaporize at least a portion of the pre-vapor formulation in the wick to form a vapor; and an airflow diverter , wherein the heater is positioned in a transverse direction in the housing, wherein the airflow diverter is located on an opposite side of the heater relative to a mouth-end portion, and wherein the airflow diverter is substantially V-shaped in a cross-section along a longitudinal axis of the housing to direct air around the heater . a housing; a pre-vapor formulation reservoir in the housing, the pre-vapor formulation reservoir configured to store a pre-vapor formulation; a vaporizer configured to vaporize the pre-vapor formulation, the vaporizer including a heater and a wick , the wick being in fluid communication with the pre-vapor formulation reservoir , and the heater configured to vaporize at least a portion of the pre-vapor formulation in the wick to form a vapor; and an airflow diverter , wherein the heater is positioned in a transverse direction in the housing, wherein the airflow diverter is located on an opposite side of the heater relative to a mouth-end portion, and wherein the airflow diverter is substantially V-shaped in a cross-section along a longitudinal axis of the housing to direct air around the heater .
A computer-implemented method for monitoring a current operation of a process, the method comprising: creating a numerical representation of a nominal operation of the process; encrypting the numerical representation using homomorphic encryption to determine an encrypted numerical representation that blocks access to the numerical representation but allows calculations on the numerical representation; creating a smart contract on a blockchain platform using the encrypted numerical representation as a first input to calculations of the smart contract; attempting execution of the smart contract using the current operation of the process as a second input to the calculations of the smart contract, execution of the smart contract generating an output result by performing the calculations of the smart contract on the encrypted numerical representation; based on the output of the execution of the smart contract determining that the current operation is outside the nominal operation. creating a numerical representation of a nominal operation of the process; encrypting the numerical representation using homomorphic encryption to determine an encrypted numerical representation that blocks access to the numerical representation but allows calculations on the numerical representation; creating a smart contract on a blockchain platform using the encrypted numerical representation as a first input to calculations of the smart contract; attempting execution of the smart contract using the current operation of the process as a second input to the calculations of the smart contract, execution of the smart contract generating an output result by performing the calculations of the smart contract on the encrypted numerical representation; based on the output of the execution of the smart contract determining that the current operation is outside the nominal operation.
An article of footwear comprising: an upper having a forefoot region with a foremost extent ; a sole structure having a forefoot portion underlying the forefoot region of the upper , and an extension portion extending forward from the forefoot portion ; wherein: the sole structure includes a bladder having a fluid-filled chamber disposed at least partially in the extension portion ; the extension portion extends forward of the foremost extent of the upper from a forward edge of the forefoot portion to a distal end , and a top side of the extension portion is spaced apart from the upper between the forward edge of the forefoot portion and the distal end ; and the extension portion establishes a propulsion surface beyond the foremost extent of the upper during a forward stride. an upper having a forefoot region with a foremost extent ; a sole structure having a forefoot portion underlying the forefoot region of the upper , and an extension portion extending forward from the forefoot portion ; wherein: the sole structure includes a bladder having a fluid-filled chamber disposed at least partially in the extension portion ; the extension portion extends forward of the foremost extent of the upper from a forward edge of the forefoot portion to a distal end , and a top side of the extension portion is spaced apart from the upper between the forward edge of the forefoot portion and the distal end ; and the extension portion establishes a propulsion surface beyond the foremost extent of the upper during a forward stride. the sole structure includes a bladder having a fluid-filled chamber disposed at least partially in the extension portion ; the extension portion extends forward of the foremost extent of the upper from a forward edge of the forefoot portion to a distal end , and a top side of the extension portion is spaced apart from the upper between the forward edge of the forefoot portion and the distal end ; and the extension portion establishes a propulsion surface beyond the foremost extent of the upper during a forward stride.
An assembly (50; 150) for an aircraft having a propeller , the assembly (50; 150) comprising: a wheel well configured for receiving a retracted landing gear , the wheel well including walls and a closable bottom opening for deploying the landing gear therethrough; an engine assembly (10; 110) having an engine shaft configured for driving engagement with a propeller ; and a mount assembly (70; 170) for supporting the engine assembly (10; 110), the mount assembly (70; 170) connected to at least one of the walls of the wheel well . a wheel well configured for receiving a retracted landing gear , the wheel well including walls and a closable bottom opening for deploying the landing gear therethrough; an engine assembly (10; 110) having an engine shaft configured for driving engagement with a propeller ; and a mount assembly (70; 170) for supporting the engine assembly (10; 110), the mount assembly (70; 170) connected to at least one of the walls of the wheel well .
Use of a composition as a stabilizer of the pH and the viscosity in a coating composition, wherein the composition comprises at least one type of water glass, and at least one polysaccharide-based biopolymer, wherein the molar ratio of SiO 2 to M 2 O in the at least one type of water glass is from 0.1 to 5, wherein M is selected from Li, Na, K, and NR 4 and each R is independently H, a linear or branched C 1 -C 10 alkyl or alkenyl, an aromatic group, or an alicyclic group, wherein the coating composition is an emulsion paint, a silicone paint, a lime paint, a glue and adhesive paint, a latex paint, an artists' color, a DIY paint, a clay paint, a building paint, a glaze, an impregnation, an industrial paint, a road marking paint, a wall paint, an acrylic plaster, an emulsion plaster, a silicone resin plaster, a SiSi plaster, a primer, a water repellent, an oleophobing agent, a spackling paste or a coating composition on the basis of soluble silicates, silicate-emulsions, organo-silanes, silicones, or sol-silicate. at least one type of water glass, and at least one polysaccharide-based biopolymer, wherein the molar ratio of SiO 2 to M 2 O in the at least one type of water glass is from 0.1 to 5, wherein M is selected from Li, Na, K, and NR 4 and each R is independently H, a linear or branched C 1 -C 10 alkyl or alkenyl, an aromatic group, or an alicyclic group, wherein the coating composition is an emulsion paint, a silicone paint, a lime paint, a glue and adhesive paint, a latex paint, an artists' color, a DIY paint, a clay paint, a building paint, a glaze, an impregnation, an industrial paint, a road marking paint, a wall paint, an acrylic plaster, an emulsion plaster, a silicone resin plaster, a SiSi plaster, a primer, a water repellent, an oleophobing agent, a spackling paste or a coating composition on the basis of soluble silicates, silicate-emulsions, organo-silanes, silicones, or sol-silicate.
A printing apparatus comprising: a medium support unit configured to transport a medium in a transport direction (X) while supporting the medium; a medium supply unit configured to supply the medium to the medium support unit; a printing unit including a head configured to eject a liquid onto the medium while moving relative to the medium; and a rotating member provided in a position facing the medium between the medium supply unit and the printing unit, wherein the rotating member has a rotating shaft extending in an intersecting direction (Y) that is orthogonal to the transport direction, and recesses and protrusions that form a repeating uneven surface in a rotation direction of the rotating member; characterised in that the rotating member is rotatable in a state where a predetermined gap is maintained between the rotating member and the medium such that a gas present in between the rotating member and the printing medium is compressed and decompressed due to the repeating uneven surface in a rotation direction of the rotating member. a medium support unit configured to transport a medium in a transport direction (X) while supporting the medium; a medium supply unit configured to supply the medium to the medium support unit; a printing unit including a head configured to eject a liquid onto the medium while moving relative to the medium; and a rotating member provided in a position facing the medium between the medium supply unit and the printing unit, wherein the rotating member has a rotating shaft extending in an intersecting direction (Y) that is orthogonal to the transport direction, and recesses and protrusions that form a repeating uneven surface in a rotation direction of the rotating member; characterised in that the rotating member is rotatable in a state where a predetermined gap is maintained between the rotating member and the medium such that a gas present in between the rotating member and the printing medium is compressed and decompressed due to the repeating uneven surface in a rotation direction of the rotating member.
A grinder, comprising a housing with a longitudinal direction from an upper side to a lower side, wherein a fixing plate is provided inside the housing , the fixing plate divides an inner portion of the housing into an upper portion and a lower portion, a feeding assembly is provided on the upper portion of the housing ; a bracket is further provided on the upper portion of the housing; the bracket divides the remaining upper portion - thereby excluding the volume of the upper portion comprised within the feeding assembly - of the housing into two parts, and wherein one part is provided with a power mechanism and the other part is provided with a power supply mechanism; the feeding assembly , the power mechanism and the power supply mechanism are transversely arranged with respect to the longitudinal direction, wherein a grinding mechanism is provided on the lower portion of the housing , the grinding mechanism comprises a male grinding head and a female grinding head , the male grinding head is rotatably fitted in the female grinding head , and the male grinding head is connected to a motor by means of a driving shaft, wherein a shifting mechanism is connected below the male grinding head , and the shifting mechanism is rotatably connected to the male grinding head , characterized in that a compression spring is provided inside the shifting mechanism 18, and the position of the male grinding head 8 is adjusted by rotating the shifting mechanism 18 to adjust the compression degree of the compression spring, thereby adjusting the thickness of grinding. wherein a grinding mechanism is provided on the lower portion of the housing , the grinding mechanism comprises a male grinding head and a female grinding head , the male grinding head is rotatably fitted in the female grinding head , and the male grinding head is connected to a motor by means of a driving shaft, wherein a shifting mechanism is connected below the male grinding head , and the shifting mechanism is rotatably connected to the male grinding head , characterized in that a compression spring is provided inside the shifting mechanism 18, and the position of the male grinding head 8 is adjusted by rotating the shifting mechanism 18 to adjust the compression degree of the compression spring, thereby adjusting the thickness of grinding.
A method for producing definitive endoderm cells from pluripotent stem cells, comprising subjecting pluripotent stem cells to first culture in a differentiation-inducing medium in which insulin acts and subsequently to second culture in a differentiation-inducing medium in which insulin does not act.
A 3D printed article prepared from a conditioned or unconditioned filament, said filament comprising an ionomer (A), said ionomer (A) prepared from a base resin. (B); wherein: base resin (B) is prepared from ethylene and at least one C 3 to C 8 α, β ethylenically unsaturated carboxylic acid monomer; the carboxylic acid moieties of base resin (B) are 10 to 99.5 percent neutralized by zinc or lithium; the at least one C 3 to C 8 α, β ethylenically unsaturated carboxylic acid is present from about 2 weight percent to about 30 weight percent, based on the weight of base resin (B). base resin (B) is prepared from ethylene and at least one C 3 to C 8 α, β ethylenically unsaturated carboxylic acid monomer; the carboxylic acid moieties of base resin (B) are 10 to 99.5 percent neutralized by zinc or lithium; the at least one C 3 to C 8 α, β ethylenically unsaturated carboxylic acid is present from about 2 weight percent to about 30 weight percent, based on the weight of base resin (B).
A side panel for a drawer , which has means for connection to a front panel on a front side and has means for connection to a rear wall on a rear side, wherein the side panel has a one-part or multipart cladding and a plurality of interlocked molded parts , which form a core for the cladding , wherein a compensation element is provided between at least two molded parts , and the distance between the two molded parts is adjustable in the longitudinal direction of the side panel by stretching or compressing the compensation element , characterized in that the cladding is adhesively bonded to the core .