mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for collecting or culturing cells or cell colonies, said apparatus comprising: a common substrate formed from an elastomer and having a plurality of wells formed therein, wherein said wells are separated by walls, wherein the common substrate is an elastomeric substrate; and a plurality of rigid cell carriers releasably connected to said common substrate, with said carriers arranged in the form of an array, and with each of said carriers received in one of said wells, wherein said carriers are configured to release from said substrate upon mechanical distortion of said substrate. a common substrate formed from an elastomer and having a plurality of wells formed therein, wherein said wells are separated by walls, wherein the common substrate is an elastomeric substrate; and a plurality of rigid cell carriers releasably connected to said common substrate, with said carriers arranged in the form of an array, and with each of said carriers received in one of said wells, wherein said carriers are configured to release from said substrate upon mechanical distortion of said substrate.
A method comprising: measuring one or more characteristics of corrosion in equipment before implementation of a corrosion remediation action; implementing the corrosion remediation action on the equipment based on corrosion characteristics; measuring the one or more characteristics of corrosion in the equipment after implementation of the corrosion remediation action; determining a change in the one or more characteristics of the corrosion between before and after implementation of the corrosion remediation action; determining one or more historical operational characteristics as one or more of previous settings of the equipment , previous speeds at which the equipment operated, previous temperatures in which the equipment operated, previous humidity levels in which the equipment operated, or previous amounts of dust in which the equipment operated; and modifying a schedule of the corrosion remediation action for the equipment based on the change in the one or more characteristics of the corrosion, and wherein the schedule is modified based on the one or more historical operational characteristics of the equipment . measuring one or more characteristics of corrosion in equipment before implementation of a corrosion remediation action; implementing the corrosion remediation action on the equipment based on corrosion characteristics; measuring the one or more characteristics of corrosion in the equipment after implementation of the corrosion remediation action; determining a change in the one or more characteristics of the corrosion between before and after implementation of the corrosion remediation action; determining one or more historical operational characteristics as one or more of previous settings of the equipment , previous speeds at which the equipment operated, previous temperatures in which the equipment operated, previous humidity levels in which the equipment operated, or previous amounts of dust in which the equipment operated; and modifying a schedule of the corrosion remediation action for the equipment based on the change in the one or more characteristics of the corrosion, and wherein the schedule is modified based on the one or more historical operational characteristics of the equipment .
Method for operating an industrial truck with a traction drive, with a driver's workplace , which is formed by a driver's stand for a standing operator (P), and with a steering device , on which at least one accelerator (B1; B2) is arranged, on the activation of which by the operator (P) the traction drive is activated, wherein the accelerator (B1; B2) has a first movement option (M1) for a forward travel of the industrial truck , a second movement option (M2) for a reverse travel of the industrial truck and a neutral position, characterized in that in an operating state in which the operator (P) is not located on the driver's stand the traction drive is activated by means of the accelerator (B1; B2) only when at least two activation operations of the accelerator (B1; B2) in one of the movement options (M1; M2) is carried out within a predefined time period.
A shovel comprising: a lower traveling body ; an upper turning body turnably attached to the lower traveling body ; an automatic greasing device mounted on the upper turning body ; and a control device configured to control the automatic greasing device , characterized in that the control device is configured to control timing to start greasing by the automatic greasing device based on a past operating condition of the shovel, the past operating condition of the shovel including at least one of a number of non-operating days, a cumulative idling time, an excavation time, a cumulative time for which a predetermined engine mode is selected, and an actuator load. a lower traveling body ; an upper turning body turnably attached to the lower traveling body ; an automatic greasing device mounted on the upper turning body ; and a control device configured to control the automatic greasing device , characterized in that the control device is configured to control timing to start greasing by the automatic greasing device based on a past operating condition of the shovel, the past operating condition of the shovel including at least one of a number of non-operating days, a cumulative idling time, an excavation time, a cumulative time for which a predetermined engine mode is selected, and an actuator load.
A method of manufacturing a lead assembly comprising: disposing a set of electrodes and a set of electrical traces on an insulating substrate , wherein each of the set of electrodes is connected to an electrical trace of the set of electrical traces; inserting a mandrel through a tubing , wherein the tubing includes a thermoset material or a thermoplastic material; wrapping the substrate around the tubing such that the substrate is in a helical shape; inserting the substrate-wrapped tubing and mandrel into a heat-shrink tube ; heating, subsequent to the insertion, the heat-shrink tube, wherein the tubing and the insulating substrate are glued together by reflow when the tubing includes a thermoplastic material or adhered to one another by curing a coating of the tubing when the tubing includes a thermoset material; removing the heat-shrink tube from the substrate-wrapped tubing; and removing the mandrel from the substrate-wrapped tubing. disposing a set of electrodes and a set of electrical traces on an insulating substrate , wherein each of the set of electrodes is connected to an electrical trace of the set of electrical traces; inserting a mandrel through a tubing , wherein the tubing includes a thermoset material or a thermoplastic material; wrapping the substrate around the tubing such that the substrate is in a helical shape; inserting the substrate-wrapped tubing and mandrel into a heat-shrink tube ; heating, subsequent to the insertion, the heat-shrink tube, wherein the tubing and the insulating substrate are glued together by reflow when the tubing includes a thermoplastic material or adhered to one another by curing a coating of the tubing when the tubing includes a thermoset material; removing the heat-shrink tube from the substrate-wrapped tubing; and removing the mandrel from the substrate-wrapped tubing.
A flowable microporous hydrogel system comprising: flowable, spherical microgel particles having diameters within the range from 5 μm to 1000 μm, wherein the spherical microgel particles comprise: a cross-linked poly(ethylene glycol) backbone polymer comprising vinyl sulfone, a matrix metalloprotease (MMP) degradable crosslinker, and an RGD peptide; an annealing component comprising a K-peptide having an amino acid sequence comprising a lysine amino acid (K) of SEQ ID NO: 1 and a Q-peptide having an amino acid sequence comprising a glutamine amino acid (Q) of SEQ ID NO: 2; and an annealing agent comprising Factor XIIIa, configured to cause the spherical microgel particles to form a covalently-stabilized scaffold having interstitial spaces between the spherical microgel particles by covalently linking the spherical microgel particles that are adjacent to one another. flowable, spherical microgel particles having diameters within the range from 5 μm to 1000 μm, wherein the spherical microgel particles comprise: a cross-linked poly(ethylene glycol) backbone polymer comprising vinyl sulfone, a matrix metalloprotease (MMP) degradable crosslinker, and an RGD peptide; an annealing component comprising a K-peptide having an amino acid sequence comprising a lysine amino acid (K) of SEQ ID NO: 1 and a Q-peptide having an amino acid sequence comprising a glutamine amino acid (Q) of SEQ ID NO: 2; and a cross-linked poly(ethylene glycol) backbone polymer comprising vinyl sulfone, a matrix metalloprotease (MMP) degradable crosslinker, and an RGD peptide; an annealing component comprising a K-peptide having an amino acid sequence comprising a lysine amino acid (K) of SEQ ID NO: 1 and a Q-peptide having an amino acid sequence comprising a glutamine amino acid (Q) of SEQ ID NO: 2; and an annealing agent comprising Factor XIIIa, configured to cause the spherical microgel particles to form a covalently-stabilized scaffold having interstitial spaces between the spherical microgel particles by covalently linking the spherical microgel particles that are adjacent to one another.
A device comprising an arranging mechanism to arrange materials from a material supply onto a receiving surface to additively form a 3D object , the device further comprising a control portion including a processing resource to execute machine-readable instructions, stored in a non-transitory medium, to: Arrange, via the arranging mechanism, electrically non-conductive material relative to a receiving surface to additively form a monolithic three-dimensional object; and arrange, via the arranging mechanism, during additive formation of the 3D object, electrically conductive material to form a first conductive channel (88A-88D) extending internally within the electrically non-conductive portion of the 3D object, characterized in that the conductive channel being formed to extend in a second orientation generally perpendicular to a first orientation where a layer connection of the additively formed 3D object extends. Arrange, via the arranging mechanism, electrically non-conductive material relative to a receiving surface to additively form a monolithic three-dimensional object; and arrange, via the arranging mechanism, during additive formation of the 3D object, electrically conductive material to form a first conductive channel (88A-88D) extending internally within the electrically non-conductive portion of the 3D object, characterized in that the conductive channel being formed to extend in a second orientation generally perpendicular to a first orientation where a layer connection of the additively formed 3D object extends.
A body side member of an ostomy appliance, comprising: a backing layer having a proximal surface and a distal surface, the proximal surface of the backing layer comprising an adhesive layer ; the adhesive layer being defined by a first zone and a second zone surrounding the first zone , a through-going opening (O) extending through the backing layer and the adhesive layer and surrounded by the first zone ; a release liner covering the proximal adhesive surface of the adhesive layer ; characterized in that at least a part of the distal surface of the release liner is embossed to define a plurality of interconnected cavities between the adhesive surface and the release liner , and wherein the release liner comprises a reservoir containing a liquid, the reservoir being configured to be able to dispense liquid from the reservoir into the interconnected cavities . a backing layer having a proximal surface and a distal surface, the proximal surface of the backing layer comprising an adhesive layer ; the adhesive layer being defined by a first zone and a second zone surrounding the first zone , a through-going opening (O) extending through the backing layer and the adhesive layer and surrounded by the first zone ; a release liner covering the proximal adhesive surface of the adhesive layer ; characterized in that at least a part of the distal surface of the release liner is embossed to define a plurality of interconnected cavities between the adhesive surface and the release liner ,
A method of wireless communication performed by a user equipment, UE, comprising: receiving , from a base station, a resource allocation of a group wake-up signal, WUS, resource assigned to one or more UEs in a UE group; determining a location of the group WUS resource within a set of WUS resources associated with a paging occasion based on a frequency location of an ungrouped WUS that implicitly indicates which of a plurality of WUS resource patterns is used; and monitoring for a group WUS at the determined location in the resource allocation of the group WUS resource. receiving , from a base station, a resource allocation of a group wake-up signal, WUS, resource assigned to one or more UEs in a UE group; determining a location of the group WUS resource within a set of WUS resources associated with a paging occasion based on a frequency location of an ungrouped WUS that implicitly indicates which of a plurality of WUS resource patterns is used; and monitoring for a group WUS at the determined location in the resource allocation of the group WUS resource.
An in vitro or ex vivo method for determining the risk of developing a healthcare-associated infection, preferably a nosocomial infection, in a patient, preferably a patient in a healthcare facility, within seven days following the day on which the blood sample was collected from said patient, comprising: a) A step of incubating a patient's blood sample with a stimulus, said stimulus comprising a molecule selected from the group consisting of: - a superantigen-type molecule or a superantigen-like molecule, and - one or several antibodies enabling the direct activation of T lymphocytes selected from the antibodies that recognize and activate a receptor on the surface of the T lymphocyte; b) A step of measuring the expression, from the stimulated blood sample resulting from step a), of at least one cytokine, said cytokine being produced by innate immunity cells and/or adaptive immunity cells. a) A step of incubating a patient's blood sample with a stimulus, said stimulus comprising a molecule selected from the group consisting of: - a superantigen-type molecule or a superantigen-like molecule, and - one or several antibodies enabling the direct activation of T lymphocytes selected from the antibodies that recognize and activate a receptor on the surface of the T lymphocyte; - a superantigen-type molecule or a superantigen-like molecule, and - one or several antibodies enabling the direct activation of T lymphocytes selected from the antibodies that recognize and activate a receptor on the surface of the T lymphocyte; b) A step of measuring the expression, from the stimulated blood sample resulting from step a), of at least one cytokine, said cytokine being produced by innate immunity cells and/or adaptive immunity cells.
An automatic pool cleaner configured to be induced by the flow of water therethrough to move along a pool surface to be cleaned, wherein the automatic pool cleaner comprises: a turbine housing forming a water-flow chamber having inlet and outlet ports; a turbine mounted for rotation in the housing and providing a flow path for water and debris therearound, the turbine including a rotor having a rotor axis (CL) and at least one vane with a proximal edge (1122, 1126A-P, 1308) connected to the rotor , further comprising a vane-rotor interconnection connecting the at least one vane to the rotor , characterized in that the vane-rotor interconnection permitting rotation of the vane proximal edge (1122, 1126A-P, 1308) with respect to the rotor axis between extended and retracted positions to allow the passage of debris pieces and to allow the creation of an angle between the rotor axis (CL) and the vane proximal edge (1122, 1126A-P, 1308). a turbine housing forming a water-flow chamber having inlet and outlet ports; a turbine mounted for rotation in the housing and providing a flow path for water and debris therearound, the turbine including a rotor having a rotor axis (CL) and at least one vane with a proximal edge (1122, 1126A-P, 1308) connected to the rotor , further comprising a vane-rotor interconnection connecting the at least one vane to the rotor , characterized in that the vane-rotor interconnection permitting rotation of the vane proximal edge (1122, 1126A-P, 1308) with respect to the rotor axis between extended and retracted positions to allow the passage of debris pieces and to allow the creation of an angle between the rotor axis (CL) and the vane proximal edge (1122, 1126A-P, 1308).
Device for discharging electrostatically charged cards , with at least one earthed and/or electrically conductive discharging member to be earthed, by means of which electrostatic charges on the surface of a card are discharged, the device comprising a housing on which at least one slot-like opening is provided for inserting a card along one or more thrust planes (E) predetermined by the slot-like opening , wherein in one or more regions (B) along the at least one thrust plane (E) the at least one discharging member is arranged and/or aligned to discharge electrostatic charges in one or more regions (B) of the thrust plane (E), wherein the device comprises a housing with an upper side and a lower side , characterized in that the opening extends from the upper side to the underside and the slot-like opening is formed for pushing the card through from the upper side to the underside of the housing along the pushing plane (E).
A system comprising: a fuel cell stack having an exit fluid flow; a first conduit for the exit fluid flow; a valve disposed within the first conduit; a turbine assembly to receive a bypass portion of the exit fluid flow based on an orientation of the valve with respect to the first conduit, wherein the turbine assembly comprises: a turbine (122; 226) having an inlet coupled to the first conduit upstream of the valve to receive the bypass portion of the exit fluid flow; and a generator coupled to the turbine to generate electrical energy resulting from the bypass portion; and a compressor assembly provided upstream of the fuel cell stack to receive intake air and compress the air to achieve the desired input airflow to the fuel cell stack, the compressor assembly comprising a compressor and a motor coupled to the compressor, wherein: the turbine and the motor are not mechanically coupled via a common rotary shaft. a fuel cell stack having an exit fluid flow; a first conduit for the exit fluid flow; a valve disposed within the first conduit; a turbine assembly to receive a bypass portion of the exit fluid flow based on an orientation of the valve with respect to the first conduit, wherein the turbine assembly comprises: a turbine (122; 226) having an inlet coupled to the first conduit upstream of the valve to receive the bypass portion of the exit fluid flow; and a generator coupled to the turbine to generate electrical energy resulting from the bypass portion; and a turbine (122; 226) having an inlet coupled to the first conduit upstream of the valve to receive the bypass portion of the exit fluid flow; and a generator coupled to the turbine to generate electrical energy resulting from the bypass portion; and a compressor assembly provided upstream of the fuel cell stack to receive intake air and compress the air to achieve the desired input airflow to the fuel cell stack, the compressor assembly comprising a compressor and a motor coupled to the compressor, wherein: the turbine and the motor are not mechanically coupled via a common rotary shaft.
A sliding control method to operate household appliances, the method comprising: detecting a sliding touch control process; generating respective elements corresponding to individual sliding phases in accordance with respective positions to which individual sliding phases reach during the sliding touch control process wherein generating respective elements further comprises: determining an absolute value of a corresponding element in accordance with a distance between a start position and a stop position of each sliding phase; and determining a sign of the corresponding element in accordance with a relative direction between the start position and the stop position of each sliding phase if the absolute value is not zero; arranging the respective elements in accordance with an executing sequence of the individual sliding phases, thereby obtaining a sliding sequence; matching the sliding sequence to a control sequence preset; and executing a control instruction corresponding to the control sequence matched. detecting a sliding touch control process; generating respective elements corresponding to individual sliding phases in accordance with respective positions to which individual sliding phases reach during the sliding touch control process wherein generating respective elements further comprises: determining an absolute value of a corresponding element in accordance with a distance between a start position and a stop position of each sliding phase; and determining a sign of the corresponding element in accordance with a relative direction between the start position and the stop position of each sliding phase if the absolute value is not zero; determining an absolute value of a corresponding element in accordance with a distance between a start position and a stop position of each sliding phase; and determining a sign of the corresponding element in accordance with a relative direction between the start position and the stop position of each sliding phase if the absolute value is not zero; arranging the respective elements in accordance with an executing sequence of the individual sliding phases, thereby obtaining a sliding sequence; matching the sliding sequence to a control sequence preset; and executing a control instruction corresponding to the control sequence matched.