mhurhangee/patent-ind-claim-en huggingface dataset:
A backflow prevention device, in particular for use in a steam cooker, comprising an upper chassis , a lower chassis , a seal member , and a resilient member , wherein the upper chassis defines a receiving space passing through a bottom of the upper chassis, the lower chassis defines an air flow channel , a part of the lower chassis is accommodated in the receiving space of the upper chassis , and fixedly connected to an inner wall of the upper chassis, the upper chassis and the lower chassis are mounted or configured to be mounted to a pot , and the seal member is received in the receiving space , the resilient member is resiliently mounted between the seal member and the upper chassis , and the resilient power of the resilient member pushes the seal member to resist against and seal the air flow channel ; characterized in that the backflow prevention device further comprises a nozzle fixed or configured to be mounted to a main body , particularly to a main body of a steam cooker, and configured to be inserted into the air flow channel to push the seal member to move upwards. an upper chassis , a lower chassis , a seal member , and a resilient member , wherein the upper chassis defines a receiving space passing through a bottom of the upper chassis, the lower chassis defines an air flow channel , a part of the lower chassis is accommodated in the receiving space of the upper chassis , and fixedly connected to an inner wall of the upper chassis, the upper chassis and the lower chassis are mounted or configured to be mounted to a pot , and the seal member is received in the receiving space , the resilient member is resiliently mounted between the seal member and the upper chassis , and the resilient power of the resilient member pushes the seal member to resist against and seal the air flow channel ; characterized in that the backflow prevention device further comprises a nozzle fixed or configured to be mounted to a main body , particularly to a main body of a steam cooker, and configured to be inserted into the air flow channel to push the seal member to move upwards.
An in vitro method for integrating a transgene within the genome of a cell comprising: (a) Providing at least one RNA comprising: (i) sequence encoding foamy virus Gag protein, (ii) sequence encoding foamy virus Pol protein; (iii) Foamy Virus genomic sequence, which comprises foamy virus cis-acting sequences (CAS) essential for efficient gene transfer, and a transgene, and optionally iv) a sequence encoding a foamy virus Env protein; and (b) Introducing said RNA directly into a cell by electroporation such that the transgene integrates into the genome of said cell. (a) Providing at least one RNA comprising: (i) sequence encoding foamy virus Gag protein, (ii) sequence encoding foamy virus Pol protein; (iii) Foamy Virus genomic sequence, which comprises foamy virus cis-acting sequences (CAS) essential for efficient gene transfer, and a transgene, and optionally iv) a sequence encoding a foamy virus Env protein; and (b) Introducing said RNA directly into a cell by electroporation such that the transgene integrates into the genome of said cell.
An arrangement of a testing device and a connection device , with a testing device ; and a connection device for the connecting of electrical conductors, wherein the testing device can be plugged into the connection device and, in so doing, interrupts an electrical connection between two contact tabs that electrically contact with each other, characterized in that the testing device is plugged into the connection device either from an upper side of the connection device or from a lower side of the connection device , wherein the connection device has two contact tabs that electrically contact with each other both on its upper side and on its lower side and that an electrically isolating plug element is provided, which, with the testing device being plugged into the connection device from the upper side of it, electrically interrupts the contact tabs that are electrically contacting with each other and that are arranged on the lower side of the connection device, and that, with the testing device being plugged into the connection device from the lower side of it, the plug element electrically interrupts the contact tabs that are electrically contacting with each other and that are arranged on the upper side of the connection device .
A spinal rod insertion instrument comprising: a hollow, monolithic body having a proximal end and a distal end , the body defining a passageway that extends along a first axis between the proximal and distal ends, the distal end including first and second arms defining a slot therebetween, wherein the first and second arms can releasably retain a spinal rod in the slot therebetween, said slot defining a retaining aperture extending along a second axis perpendicular to the first axis to releasably secure the spinal rod in a fixed position with respect to the instrument, characterized in that the first and second arms include chamfered edges at a distal end of the slot , the chamfered edges being separated by a second dimension perpendicular to the first axis, and wherein, when the instrument is in the resting state, the second dimension is larger than a diameter defined by the retaining aperture . a hollow, monolithic body having a proximal end and a distal end , the body defining a passageway that extends along a first axis between the proximal and distal ends, the distal end including first and second arms defining a slot therebetween, wherein the first and second arms can releasably retain a spinal rod in the slot therebetween, said slot defining a retaining aperture extending along a second axis perpendicular to the first axis to releasably secure the spinal rod in a fixed position with respect to the instrument, characterized in that the first and second arms include chamfered edges at a distal end of the slot , the chamfered edges being separated by a second dimension perpendicular to the first axis, and wherein, when the instrument is in the resting state, the second dimension is larger than a diameter defined by the retaining aperture .
A benzindolocarbazole derivative as represented by either general formula (1-1) or (1-2) given below: wherein R 1 to R 24 may be identical to or different from each other and are selected from the group consisting of a hydrogen atom, alkyl group, cycloalkyl group, heterocyclic group, amino group, alkenyl group, cycloalkenyl group, alkynyl group, alkoxy group, alkylthio group, aryl ether group, aryl thioether group, aryl group, heteroaryl group, halogen atom, carbonyl group, carboxyl group, oxycarbonyl group, carbamoyl group, silyl group, and -P(=O)R 25 R 26 ; R 25 and R 26 represent an aryl group or a heteroaryl group; R 25 and R 26 may be condensed to form a ring; L 1 to L 4 independently represent a single bond, a substituted or unsubstituted arylene group, or a substituted or unsubstituted heteroarylene group; and A 1 to A 4 independently represent an amino group, aryl group, heterocyclic group, or heteroaryl group.
A method of testing an overload clutch, the method comprising: activating, with a processor of a computer , a motor of a hoist , the motor driving a cable drum through the overload clutch ; loading a cable to a minimum clutch slip load with the motor; and sensing a load on the cable and communicating the load to the processor; and monitoring the overload clutch with a sensor , the sensor configured to sense slippage of a friction disc of the overload clutch and to generate a slip signal in response to slippage of the friction disc. activating, with a processor of a computer , a motor of a hoist , the motor driving a cable drum through the overload clutch ; loading a cable to a minimum clutch slip load with the motor; and sensing a load on the cable and communicating the load to the processor; and monitoring the overload clutch with a sensor , the sensor configured to sense slippage of a friction disc of the overload clutch and to generate a slip signal in response to slippage of the friction disc.
Exogenous melatonin for use in a treatment of a REM sleep behaviour disorder in a human being with an individual chronotype, wherein a time for ingesting a dose of the melatonin once a day is set at approximately 30 minutes prior to the normal time for going to bed in the case of a normotype, whose time for going to bed is set at between 22:00 hours and 24:00 hours, characterized in that the normal time for going to bed for the human beings on each subsequent day is set in a time window of a maximum of 60 minutes with respect to the normal time for going to bed of the previous day and a timeframe for the ingestion is set which enables the time for ingesting a dose to be shifted within the time window, such that the time for going to bed is adapted to the individual chronotype of the human being.
A method for providing a scalable compute fabric, comprising: determining a workflow for processing by the scalable compute fabric, wherein the workflow is based on an instruction set; configuring a pipeline dynamically for processing the workflow, wherein the configuration of the pipeline is based on a size and a type of instructions of the instruction set; wherein configuration includes dynamically locking, sharing, and assigning fixed function hardware units within the scalable compute fabric into pipelines, the sharing based on a programmable policy; arbitrating the sharing of the fixed function hardware units between the pipelines based on the programmable policy; and executing the workflow using the pipeline, wherein multiple pipelines are configured to accept simultaneous multiple instruction multiple data (MIMD) streams. determining a workflow for processing by the scalable compute fabric, wherein the workflow is based on an instruction set; configuring a pipeline dynamically for processing the workflow, wherein the configuration of the pipeline is based on a size and a type of instructions of the instruction set; wherein configuration includes dynamically locking, sharing, and assigning fixed function hardware units within the scalable compute fabric into pipelines, the sharing based on a programmable policy; arbitrating the sharing of the fixed function hardware units between the pipelines based on the programmable policy; and executing the workflow using the pipeline, wherein multiple pipelines are configured to accept simultaneous multiple instruction multiple data (MIMD) streams.
A keg filling apparatus comprising: a stand means comprising a top surface ; wherein said stand means is selectively provided with either a first detachable member comprising a first coupling means for releasable engagement with a first keg valve design, or a second detachable member comprising a second coupling means for releasable engagement with a second keg valve design or a third detachable member comprising a third coupling means for releasable engagement with a third keg valve design, wherein said first, second and third detachable members are interchangeable, each of which is configured to be releasably attached to said top surface , characterised in that the top surface of said stand means comprises a plurality of top surface apertures capable of receiving attachment members for releasable attachment to any one of the first, second or third detachable members , thus facilitating mounting of any one of the first, second or third coupling means for selective compatibility with keg valves of alternative design. a stand means comprising a top surface ; wherein said stand means is selectively provided with either a first detachable member comprising a first coupling means for releasable engagement with a first keg valve design, or a second detachable member comprising a second coupling means for releasable engagement with a second keg valve design or a third detachable member comprising a third coupling means for releasable engagement with a third keg valve design, wherein said first, second and third detachable members are interchangeable, each of which is configured to be releasably attached to said top surface , characterised in that the top surface of said stand means comprises a plurality of top surface apertures capable of receiving attachment members for releasable attachment to any one of the first, second or third detachable members , thus facilitating mounting of any one of the first, second or third coupling means for selective compatibility with keg valves of alternative design.
A large bore catheter comprising: a longitudinal axis; an elongate body comprising a lumen, a proximal end, and a distal end; a support frame at the distal end of the elongate body having a collapsed delivery configuration and an expanded deployed configuration, the support frame comprising a framework of struts comprising one or more hoop segments and a plurality of deformable cells , the deformable cells having apices, creases, or other biasing features such that the deformable cells are configured to assume an axially extended profile when the support frame is in the collapsed delivery configuration and expand to a radially extended profile when the support frame is in the expanded deployed configuration; the expanded deployed configuration of the support frame sized to have a larger inner diameter than the inner diameter of an outer sheath, characterised by the one or more hoop segments and the plurality of deformable cells accounting for a percentage of the circumference of the support frame , and wherein the one or more hoop segments are of fixed size such that the percentage accounted for by the one or more hoop segments is greater in the collapsed delivery configuration than the percentage in the expanded deployed configuration, the deformable cells taking a percentage in the expanded deployed configuration that is larger than in the collapsed delivery configuration. a longitudinal axis; an elongate body comprising a lumen, a proximal end, and a distal end; a support frame at the distal end of the elongate body having a collapsed delivery configuration and an expanded deployed configuration, the support frame comprising a framework of struts comprising one or more hoop segments and a plurality of deformable cells , the deformable cells having apices, creases, or other biasing features such that the deformable cells are configured to assume an axially extended profile when the support frame is in the collapsed delivery configuration and expand to a radially extended profile when the support frame is in the expanded deployed configuration; the expanded deployed configuration of the support frame sized to have a larger inner diameter than the inner diameter of an outer sheath, characterised by the one or more hoop segments and the plurality of deformable cells accounting for a percentage of the circumference of the support frame , and wherein the one or more hoop segments are of fixed size such that the percentage accounted for by the one or more hoop segments is greater in the collapsed delivery configuration than the percentage in the expanded deployed configuration, the deformable cells taking a percentage in the expanded deployed configuration that is larger than in the collapsed delivery configuration.
A combination of an aerosol generating device, a releasing mechanism and a smoke producing article comprising an aerosol-forming substrate , wherein the aerosol generating device is provided with a heating body , wherein the heating body is used to be inserted into the aerosol-forming substrate placed on the releasing mechanism , the releasing mechanism comprises: a rotary portion rotatably connected to the aerosol generating device between a first position and a second position, wherein the aerosol-forming substrate and the heating body are relatively movable in a circumferential direction during switching from the first position to the second position; wherein both in the first position and in the second position, the aerosol-forming substrate is in contact with the heating body ; and wherein the aerosol-forming substrate has a first axial position with respect to the heating body in the first position; the aerosol-forming substrate has a second axial position with respect to the heating body in the second position, and the first axial position is the same as the second axial position; the rotary portion being provided with a hole for the heating body to be inserted through, and the hole having an aperture which is larger than an outer diameter of the heating body . a rotary portion rotatably connected to the aerosol generating device between a first position and a second position, wherein the aerosol-forming substrate and the heating body are relatively movable in a circumferential direction during switching from the first position to the second position; wherein both in the first position and in the second position, the aerosol-forming substrate is in contact with the heating body ; and wherein the aerosol-forming substrate has a first axial position with respect to the heating body in the first position; the aerosol-forming substrate has a second axial position with respect to the heating body in the second position, and the first axial position is the same as the second axial position; the rotary portion being provided with a hole for the heating body to be inserted through, and the hole having an aperture which is larger than an outer diameter of the heating body .
An operating device for operating a light source, in particular an LED, comprising: - A first power converter stage (P1) supplied with a voltage U IN and potential-isolated, having a first reference potential (Z1), - A second power converter stage (P2) with a second reference potential (Z2), which is connected to the secondary side of the first potential-isolated power converter stage (P1), - A preferably digital control unit (C1), which via a potential isolation unit (G2) controls a power switch (S1) of the first power converter stage (P1) and controls the second power converter stage (P2) without potential isolation, by the control unit (C1) controlling a power switch (S2) of the control device, which clocks the second power converter stage (P2), and - An illuminant (L), that is supplied with energy by the second power converter stage (P2). - A first power converter stage (P1) supplied with a voltage U IN and potential-isolated, having a first reference potential (Z1), - A second power converter stage (P2) with a second reference potential (Z2), which is connected to the secondary side of the first potential-isolated power converter stage (P1), - A preferably digital control unit (C1), which via a potential isolation unit (G2) controls a power switch (S1) of the first power converter stage (P1) and controls the second power converter stage (P2) without potential isolation, by the control unit (C1) controlling a power switch (S2) of the control device, which clocks the second power converter stage (P2), and power converter stage (P1) and controls the second power converter stage (P2) without potential isolation, by the control unit (C1) controlling a power switch (S2) of the control device, which clocks the second power converter stage (P2), and - An illuminant (L), that is supplied with energy by the second power converter stage (P2).
A method of automatic steering of electronic client devices accessing a network, the network having multiple access points, from a first one of the access points of the network to a different access point of the network, comprising: automatically identifying, by a network controller of the network, a pre-determined type of electronic client device gaining access to the network via wireless communications with the first one of the access points of the network, wherein the pre-determined type of electronic client device includes stationary low bandwidth, SLB, client devices that are stationary relative to a nearest access point of the network for at least a predetermined period of time, and that have bandwidth usage below a predetermined threshold over the predetermined period of time; and automatically designating, by the network controller, an electronic client device as a non-steerable SLB client device in a no-steer list of the network controller in response to identifying the electronic client device as the predetermined type of electronic client device, wherein, when the network controller selects the electronic client device for steering to the different access point of the network during a steering event, each electronic client device designated as non-steerable SLB client device in the no-steer list by the network controller is prevented from being steered and only electronic client devices that are not designated as non-steerable SLB client devices in the no-steer list are available as candidates to be steered. automatically identifying, by a network controller of the network, a pre-determined type of electronic client device gaining access to the network via wireless communications with the first one of the access points of the network, wherein the pre-determined type of electronic client device includes stationary low bandwidth, SLB, client devices that are stationary relative to a nearest access point of the network for at least a predetermined period of time, and that have bandwidth usage below a predetermined threshold over the predetermined period of time; and automatically designating, by the network controller, an electronic client device as a non-steerable SLB client device in a no-steer list of the network controller in response to identifying the electronic client device as the predetermined type of electronic client device, wherein, when the network controller selects the electronic client device for steering to the different access point of the network during a steering event, each electronic client device designated as non-steerable SLB client device in the no-steer list by the network controller is prevented from being steered and only electronic client devices that are not designated as non-steerable SLB client devices in the no-steer list are available as candidates to be steered.
A resource scheduling method, comprising: sending , by a user equipment, an access request to an access network device using an access channel resource; determining, by the user equipment, an access identifier based on an access channel resource period identifier, or based on a frequency band identifier and an access channel resource period identifier, wherein the access channel resource period identifier Period_id satisfies the following formula: Period_id = floor(SFN/Period), where SFN is a system frame number, Period is a minimum access channel resource period, and floor() represents rounding down; and receiving , from the access network device, by the user equipment, based on the access identifier, scheduling information of an access response. sending , by a user equipment, an access request to an access network device using an access channel resource; determining, by the user equipment, an access identifier based on an access channel resource period identifier, or based on a frequency band identifier and an access channel resource period identifier, wherein the access channel resource period identifier Period_id satisfies the following formula: Period_id = floor(SFN/Period), where SFN is a system frame number, Period is a minimum access channel resource period, and floor() represents rounding down; and receiving , from the access network device, by the user equipment, based on the access identifier, scheduling information of an access response. Period_id = floor(SFN/Period), where SFN is a system frame number, Period is a minimum access channel resource period, and floor() represents rounding down; and receiving , from the access network device, by the user equipment, based on the access identifier, scheduling information of an access response.