mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising the steps of: capturing an image of an area in the vicinity of the vehicle ; analysing the captured image; detecting if the captured image contains a person; determining at a first time a first temperature associated with the person in the captured image; determining, at a second time, a second temperature associated with the person in the captured image; determining a rate of change of temperature of the person based on the first temperature and the second temperature; comparing the determined rate of change of temperature with a predefined threshold rate of change of temperature; and in response to the determined rate of change of temperature surpassing the predefined threshold value, actuating a change of state of the vehicle. capturing an image of an area in the vicinity of the vehicle ; analysing the captured image; detecting if the captured image contains a person; determining at a first time a first temperature associated with the person in the captured image; determining, at a second time, a second temperature associated with the person in the captured image; determining a rate of change of temperature of the person based on the first temperature and the second temperature; comparing the determined rate of change of temperature with a predefined threshold rate of change of temperature; and in response to the determined rate of change of temperature surpassing the predefined threshold value, actuating a change of state of the vehicle.
A linear compressor comprising: a cylinder configured to define a compression space (P) of refrigerant; a frame in which the cylinder is accommodated; and a discharge unit to define a discharge space (D) of the refrigerant through which the refrigerant discharged from the compression space (P) flows; wherein the discharge unit includes: a discharge cover coupled with the frame ; and a discharge plenum disposed inside the discharge cover to define a plurality of discharge spaces (D); characterized in that the discharge unit further includes a thermal insulating plenum provided in a shape corresponding to an inner surface of the discharge cover to contact the inner surface of the discharge cover or to be disposed in close contact with the inner surface of the discharge cover such that an air layer is formed between the insulating plenum and the discharge cover . a cylinder configured to define a compression space (P) of refrigerant; a frame in which the cylinder is accommodated; and a discharge unit to define a discharge space (D) of the refrigerant through which the refrigerant discharged from the compression space (P) flows; wherein the discharge unit includes: a discharge cover coupled with the frame ; and a discharge plenum disposed inside the discharge cover to define a plurality of discharge spaces (D); characterized in that the discharge unit further includes a thermal insulating plenum provided in a shape corresponding to an inner surface of the discharge cover to contact the inner surface of the discharge cover or to be disposed in close contact with the inner surface of the discharge cover such that an air layer is formed between the insulating plenum and the discharge cover . a discharge cover coupled with the frame ; and a discharge plenum disposed inside the discharge cover to define a plurality of discharge spaces (D); characterized in that the discharge unit further includes a thermal insulating plenum provided in a shape corresponding to an inner surface of the discharge cover to contact the inner surface of the discharge cover or to be disposed in close contact with the inner surface of the discharge cover such that an air layer is formed between the insulating plenum and the discharge cover .
A composition comprising a CRISPR-Cas system for use in the treatment of a post-mitotic cell disorder selected from Table A or Table B; wherein said CRISPR-Cas system comprises a CRISPR enzyme comprising at least one or more nuclear localization sequences; a guide sequence capable of hybridizing to a target sequence in a post-mitotic eukaryotic cell; a tracr mate sequence; and a tracr sequence; or one or more polynucleotides encoding said CRISPR enzyme, said guide sequence, said tracr mate sequence, and said tracr sequence.
A light-emitting module comprising: (a) a thermally conductive substrate having one or more light-emitting elements thermally connected thereto, the substrate configured to operatively couple a source of power to the one or more light-emitting elements , thereby providing a means for activation of the one or more light-emitting elements; (b) a heat dissipation element thermally coupled to the thermally conductive substrate; and (c) a housing element including fastening means for detachably coupling the housing element to the heat dissipation element, said housing element including a transparent region enabling transmission of light emitted by the one or more light-emitting elements therethrough, characterized in that the coupling between the housing element and the heat dissipation element is arranged to apply pressure to the substrate, which is inlayed between the housing element and the heat dissipation element, such that the substrate is pressed against the heat dissipation element thereby establishing a desired level of thermal contact between the heat dissipation element and the substrate. (a) a thermally conductive substrate having one or more light-emitting elements thermally connected thereto, the substrate configured to operatively couple a source of power to the one or more light-emitting elements , thereby providing a means for activation of the one or more light-emitting elements; (b) a heat dissipation element thermally coupled to the thermally conductive substrate; and (c) a housing element including fastening means for detachably coupling the housing element to the heat dissipation element, said housing element including a transparent region enabling transmission of light emitted by the one or more light-emitting elements therethrough, characterized in that the coupling between the housing element and the heat dissipation element is arranged to apply pressure to the substrate, which is inlayed between the housing element and the heat dissipation element, such that the substrate is pressed against the heat dissipation element thereby establishing a desired level of thermal contact between the heat dissipation element and the substrate.
Method for the preparation of a cast sheet of homogenized tobacco material, said method comprising: ∘ pulping cellulose fibres with water ; ∘ grinding (102; 106) a blend of tobacco of one or more tobacco types to tobacco particles ; ∘ combining the pulped cellulose fibres with the tobacco particles and with a binder to form a slurry; ∘ homogenizing the slurry; ∘ casting the slurry to form a cast sheet of homogenized tobacco material from the slurry; characterized in that the method further comprises: ∘ discarding undesired portions of the cast sheet; and ∘ introducing the discarded undesired portions of the cast sheet into the slurry. ∘ pulping cellulose fibres with water ; ∘ grinding (102; 106) a blend of tobacco of one or more tobacco types to tobacco particles ; ∘ combining the pulped cellulose fibres with the tobacco particles and with a binder to form a slurry; ∘ homogenizing the slurry; ∘ casting the slurry to form a cast sheet of homogenized tobacco material from the slurry; ∘ discarding undesired portions of the cast sheet; and ∘ introducing the discarded undesired portions of the cast sheet into the slurry.
A power headroom report, PHR, sending method applied for a user terminal , the method comprising: receiving information about an uplink resource set, wherein the uplink resource set comprises uplink resources in at least two cells, the TTI lengths of the at least two cells are different, each uplink resource in the uplink resource set is an uplink resource that is located within duration of a first TTI, and the first TTI is a TTI in a cell that has a maximum TTI length and in which the user terminal is located; determining a target uplink resource, wherein the target uplink resource is an uplink resource that has an earliest start time and that is located within the duration of the first TTI; and sending a PHR on the target uplink resource. receiving information about an uplink resource set, wherein the uplink resource set comprises uplink resources in at least two cells, the TTI lengths of the at least two cells are different, each uplink resource in the uplink resource set is an uplink resource that is located within duration of a first TTI, and the first TTI is a TTI in a cell that has a maximum TTI length and in which the user terminal is located; determining a target uplink resource, wherein the target uplink resource is an uplink resource that has an earliest start time and that is located within the duration of the first TTI; and sending a PHR on the target uplink resource.
A processor comprising: a plurality of registers (1600-1604) to store a plurality of shadow stack pointers, SSPs, each SSP associated with a different event priority; event processing circuitry to select a first SSP of the plurality of SSPs from a first register of the plurality of registers (1600-1604) responsive to receipt of a first event associated with a first event priority level , the first SSP usable to identify a top of a first shadow stack; verification and utilization checking circuitry to determine by checking a value of a verified bit associated with the first SSP whether the first SSP has been previously verified, wherein if the first SSP has not been previously verified then initiating a set of atomic operations to verify the first SSP and confirm that the first SSP is not in use, the set of atomic operations using a locking operation to lock data until the set of atomic operations are complete, and wherein if the first SSP has been previously verified, then re-verifying the first SSP and confirming that the first SSP is not in use without using the locking operation. a plurality of registers (1600-1604) to store a plurality of shadow stack pointers, SSPs, each SSP associated with a different event priority; event processing circuitry to select a first SSP of the plurality of SSPs from a first register of the plurality of registers (1600-1604) responsive to receipt of a first event associated with a first event priority level , the first SSP usable to identify a top of a first shadow stack; verification and utilization checking circuitry to determine by checking a value of a verified bit associated with the first SSP whether the first SSP has been previously verified, wherein if the first SSP has not been previously verified then initiating a set of atomic operations to verify the first SSP and confirm that the first SSP is not in use, the set of atomic operations using a locking operation to lock data until the set of atomic operations are complete, and wherein if the first SSP has been previously verified, then re-verifying the first SSP and confirming that the first SSP is not in use without using the locking operation.
Method for casting castings (G), in which a molten metal is poured into a casting mold which encloses a cavity forming the casting to be produced, the casting mold consisting as a lost mold of one or more casting mold parts or -cores which are formed from a molding material consisting of a core sand, a binder and optionally one or more additives for adjusting certain properties of the molding material, comprising the following working steps: - providing the casting mold ; - encasing the casting mold in a housing , forming a filling space between at least one inner surface section of the housing and an associated outer surface section of the casting mold ; - filling of the filling space with a free-flowing filling material (F), wherein the filling material (F) filled into the filling space has such a low bulk density that a gas flow (S1, S2) can flow through the filling material package formed there from the filling material (F) after the filling space has been filled; and - pouring the molten metal into the casting mold , - wherein the casting mold begins to radiate heat as the molten metal is poured in, as a result of the heat input caused by the hot molten metal, and - wherein as a result of the heat input caused by the molten metal, the binder of the molding material begins to evaporate and burn, so that it loses its effect and the casting mold breaks up into fragments (B), characterized in that the filling material (F) has a filling material temperature of less than 100 °C when it is filled into the filling space . - providing the casting mold ; - encasing the casting mold in a housing , forming a filling space between at least one inner surface section of the housing and an associated outer surface section of the casting mold ; - filling of the filling space with a free-flowing filling material (F), wherein the filling material (F) filled into the filling space has such a low bulk density that a gas flow (S1, S2) can flow through the filling material package formed there from the filling material (F) after the filling space has been filled; and - pouring the molten metal into the casting mold , - wherein the casting mold begins to radiate heat as the molten metal is poured in, as a result of the heat input caused by the hot molten metal, and - wherein as a result of the heat input caused by the molten metal, the binder of the molding material begins to evaporate and burn, so that it loses its effect and the casting mold breaks up into fragments (B), - wherein the casting mold begins to radiate heat as the molten metal is poured in, as a result of the heat input caused by the hot molten metal, and - wherein as a result of the heat input caused by the molten metal, the binder of the molding material begins to evaporate and burn, so that it loses its effect and the casting mold breaks up into fragments (B),
A control circuit for a water feeding system of a steam cooking appliance, wherein: - the control circuit comprises a rectifier circuit and a valve control circuit , - the valve control circuit is connected to a DC output of the rectifier circuit , - the valve control circuit is provided for controlling an electric valve for a water supply, characterized in that the valve control circuit includes at least one temperature sensor and at least one Zener diode (Z1), and in that the valve control circuit is configured to open and close the valve in dependence of a temperature detected by the temperature sensor . - the control circuit comprises a rectifier circuit and a valve control circuit , - the valve control circuit is connected to a DC output of the rectifier circuit , - the valve control circuit is provided for controlling an electric valve for a water supply, characterized in that the valve control circuit includes at least one temperature sensor and at least one Zener diode (Z1), and in that the valve control circuit is configured to open and close the valve in dependence of a temperature detected by the temperature sensor .
Test arrangement for fatigue testing a wind turbine blade , comprising a floor-mounted test rig having a fixing device for fixing the wind turbine blade to the test rig and an excitation assembly for exciting the wind turbine blade at a test frequency, characterised in that the test rig comprises a liquid tank having a chamber containing a predefined liquid , wherein the liquid in the liquid tank has a resonance frequency depending on the amount of liquid in the liquid tank and the chamber geometry, such that the liquid tank is or forms part of a damping device for damping oscillations of the wind turbine blade introduced into the test rig .
A method of transmitting media contents by using an MPEG media transport protocol, MMTP, the method comprising: transmitting a transport packet including a MMTP packet header, and a payload comprising payload data generated from at least one media processing unit, MPU, wherein the MMTP packet header comprises a type field indicating a type of the payload data as one of a plurality of payload types, and a random access point, RAP, flag indicating that the payload contains a RAP, wherein the plurality of payload types comprises a first payload type indicating that the payload data includes media-aware fragment data of a MPU, a second payload type indicating that the payload data includes a generic object such as a complete MPU or an object of another type, a third payload type indicating that the payload data includes at least one signaling message, and a fourth payload type indicating that the payload data includes a repair symbol, wherein, in case that the type field is set to a first value indicating the first payload type, the payload comprises a first format of a payload header for a MPU mode prior to the payload data, and wherein, in case that the type field is set to a second value indicating the second payload type, the payload comprises a second format of a payload header for a generic file delivery (GFD) mode prior to the payload data. transmitting a transport packet including a MMTP packet header, and a payload comprising payload data generated from at least one media processing unit, MPU, wherein the MMTP packet header comprises a type field indicating a type of the payload data as one of a plurality of payload types, and a random access point, RAP, flag indicating that the payload contains a RAP, wherein the plurality of payload types comprises a first payload type indicating that the payload data includes media-aware fragment data of a MPU, a second payload type indicating that the payload data includes a generic object such as a complete MPU or an object of another type, a third payload type indicating that the payload data includes at least one signaling message, and a fourth payload type indicating that the payload data includes a repair symbol, wherein, in case that the type field is set to a first value indicating the first payload type, the payload comprises a first format of a payload header for a MPU mode prior to the payload data, and wherein, in case that the type field is set to a second value indicating the second payload type, the payload comprises a second format of a payload header for a generic file delivery (GFD) mode prior to the payload data.
A method for blow moulding containers , in the case of which a preform made of a thermoplastic material is formed into the container after a thermal conditioning along a transport path in the region of a heating section inside a blow mould under the effect of blowing pressure, and in the case of which the transport path is limited in a tunnel-like manner at least in some regions, wherein a cross-sectional surface of the heating section arranged transversely to the transport path is changed in such a way as a function of a dimensioning of the preforms to be heated that a smaller cross-sectional surface is assigned to smaller preforms than to larger preforms , characterised in that - to reduce the size of the cross-sectional surface of a heating duct , a box-like filling element is inserted into the heating duct , and those radiant heaters , which are arranged at a height level next to the filling element , are turned off completely, and wherein the filling element used to change the size of the cross-sectional surface is air-cooled. - to reduce the size of the cross-sectional surface of a heating duct , a box-like filling element is inserted into the heating duct , and those radiant heaters , which are arranged at a height level next to the filling element , are turned off completely, and wherein the filling element used to change the size of the cross-sectional surface is air-cooled.
An exhaust gas recirculation (EGR) valve for vehicles, comprising: a housing comprising an EGR channel formed therein; a driving motor and a motor shaft provided in the housing ; a pinion gear disposed at the motor shaft ; a power train gear comprising a tooth formed on an outer edge and engaged with the pinion gear ; and a cam unit coupled to the power train gear and rotating along with the power train gear , wherein the EGR channel is selectively opened and closed via up and down movement in response to rotation of the cam unit , further comprising: an inserting portion formed in the power train gear ; and a protrusion portion formed on one surface of the cam unit 8200) and inserted into the inserting portion , wherein the protrusion portion is coupled and fixed by heat while being inserted into the inserting portion , further comprising a spacer step difference portion disposed around the protrusion portion and configured to space a surface of the power train gear and a surface of the cam unit apart from each other. a housing comprising an EGR channel formed therein; a driving motor and a motor shaft provided in the housing ; a pinion gear disposed at the motor shaft ; a power train gear comprising a tooth formed on an outer edge and engaged with the pinion gear ; and a cam unit coupled to the power train gear and rotating along with the power train gear , wherein the EGR channel is selectively opened and closed via up and down movement in response to rotation of the cam unit , further comprising: an inserting portion formed in the power train gear ; and a protrusion portion formed on one surface of the cam unit 8200) and inserted into the inserting portion , wherein the protrusion portion is coupled and fixed by heat while being inserted into the inserting portion , further comprising a spacer step difference portion disposed around the protrusion portion and configured to space a surface of the power train gear and a surface of the cam unit apart from each other.
A method for automatic operation of a coker, the method comprising: obtaining a target coke rate indicating a target rate at which to accumulate coke within a coke drum of the coker, wherein the target coke rate is specified as a time rate of change of a coke level within the coke drum and updated during coke production within a drum cycle of the coke drum; using a neural network model to generate a target coker feed rate predicted to result in the coke accumulating within the coke drum at the target coke rate, the target coker feed rate indicating a target rate at which to feed oil into the coke drum; and operating a drum feeder using the target coker feed rate to modulate a feed of oil into the coke drum. obtaining a target coke rate indicating a target rate at which to accumulate coke within a coke drum of the coker, wherein the target coke rate is specified as a time rate of change of a coke level within the coke drum and updated during coke production within a drum cycle of the coke drum; using a neural network model to generate a target coker feed rate predicted to result in the coke accumulating within the coke drum at the target coke rate, the target coker feed rate indicating a target rate at which to feed oil into the coke drum; and operating a drum feeder using the target coker feed rate to modulate a feed of oil into the coke drum.