mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for merging at least a part of a plurality of models, the method comprising: selecting , based on an amount of memory consumption by respective layers of respective models, a first layer of a first model; determining , sharable layers based on values of layer properties, the sharable layers comprise a second layer of a second model and the first layer of the first model when the values of respective properties of the first layer and the second layer are within a predetermined threshold of similarity; generating a third, merged model, wherein the third model includes a third layer, the third layer being instantiated as a single layer that corresponds to the first layer and the second layer; and transmitting the third model to an edge server, wherein the edge server executes the third model to perform data analytics on the edge server, and wherein the third model consumes less memory on the edge server than executing both the first model and the second model, wherein the first model and the second model correspond to trained video analytic machine learning models. selecting , based on an amount of memory consumption by respective layers of respective models, a first layer of a first model; determining , sharable layers based on values of layer properties, the sharable layers comprise a second layer of a second model and the first layer of the first model when the values of respective properties of the first layer and the second layer are within a predetermined threshold of similarity; generating a third, merged model, wherein the third model includes a third layer, the third layer being instantiated as a single layer that corresponds to the first layer and the second layer; and transmitting the third model to an edge server, wherein the edge server executes the third model to perform data analytics on the edge server, and wherein the third model consumes less memory on the edge server than executing both the first model and the second model, wherein the first model and the second model correspond to trained video analytic machine learning models.
Method for executing a cooking process without a separate preheating process in an oven, having at least the following steps: - entering (S21) a target temperature (Ts) and a cooking time (tg) for said target temperature (Ts) relating to a loaded oven and provided together with a preheating process, - automatically determining (S24) a derived cooking time (tg2) for the cooking process, said derived cooking time (tg2) being provided without the separate preheating process and being derived at least from the cooking time (tg) entered and the target temperature (Ts) entered and - executing the cooking process with the derived cooking time (tg2) without a separate preheating process, characterised in that - the determination (S24) of the derived cooking time (tg2) comprises adding the cooking time (tg) entered to an empirically determined additional time (x), wherein the additional time (x) is determined as a function of the target temperature (Ts) entered and - the execution of the cooking process without the separate preheating process with the derived cooking time (tg2) is only possible if the cooking time (tg) entered reaches or exceeds a predetermined minimum cooking time, i.e. is only permitted as from a minimum cooking time entered. - entering (S21) a target temperature (Ts) and a cooking time (tg) for said target temperature (Ts) relating to a loaded oven and provided together with a preheating process, - automatically determining (S24) a derived cooking time (tg2) for the cooking process, said derived cooking time (tg2) being provided without the separate preheating process and being derived at least from the cooking time (tg) entered and the target temperature (Ts) entered and - executing the cooking process with the derived cooking time (tg2) without a separate preheating process, - the determination (S24) of the derived cooking time (tg2) comprises adding the cooking time (tg) entered to an empirically determined additional time (x), wherein the additional time (x) is determined as a function of the target temperature (Ts) entered and - the execution of the cooking process without the separate preheating process with the derived cooking time (tg2) is only possible if the cooking time (tg) entered reaches or exceeds a predetermined minimum cooking time, i.e. is only permitted as from a minimum cooking time entered.
Refuse receptacle with a housing which has an opening on at least one side, a supporting frame for refuse bags which is placed at least indirectly on an edge of the opening of the housing in a removable manner, and a covering frame , wherein the covering frame is removably placed on the supporting frame and wherein the covering frame covers - the supporting frame and - a joint between the supporting frame and the housing on an outer side of the refuse receptacle, wherein the supporting frame has a first frame portion extending substantially parallel to a wall of the housing , characterised in that , the supporting frame has tabs which are extended inwards from the first frame portion and the covering frame has members which press the tabs of the supporting frame outwards against the inner wall of the housing . - the supporting frame and - a joint between the supporting frame and the housing on an outer side of the refuse receptacle,
A system for stimulating glabrous tissue of a patient, comprising: a housing surrounding an enclosed chamber ; a humidifier configured to supply humidified room air to the chamber sufficient to minimize heat loss from the glabrous tissue; and a patient port operably connected to the chamber and configured to house a region of the skin surface of a patient comprising the glabrous tissue , the patient port being configured to reversibly create a seal upon isolation of the region of the skin surface with respect to an interior of the chamber , wherein the chamber in the system is configured to isolate glabrous tissue of the hand, and is sized such that the patient's hand above the MCP joints does not contact a sidewall of the chamber, wherein the humidified air having a relative humidity of between about 90% and about 99%, characterised in that the system affects humidity and/or convection of the air surrounding the glabrous tissue without changing air temperature. a housing surrounding an enclosed chamber ; a humidifier configured to supply humidified room air to the chamber sufficient to minimize heat loss from the glabrous tissue; and a patient port operably connected to the chamber and configured to house a region of the skin surface of a patient comprising the glabrous tissue , the patient port being configured to reversibly create a seal upon isolation of the region of the skin surface with respect to an interior of the chamber , wherein the chamber in the system is configured to isolate glabrous tissue of the hand, and is sized such that the patient's hand above the MCP joints does not contact a sidewall of the chamber, wherein the humidified air having a relative humidity of between about 90% and about 99%, characterised in that the system affects humidity and/or convection of the air surrounding the glabrous tissue without changing air temperature.
A method for producing a compound represented by Formula (1-1), the method comprising subjecting a compound represented by Formula (5-1) to an addition reaction to add ethylene and/or propylene in the presence of a base: where in Formula (5-1), R X to R Z each independently represent a hydrogen atom, an ethyl group, an n-propyl group, or an isopropyl group, and n is an integer of from 1 to 3; where in Formula (1-1), R A to R D each independently represent a hydrogen atom, an ethyl group, an n-propyl group, or an isopropyl group, and n is an integer of from 1 to 3, wherein at least two of R A to R D are independently an ethyl group, an n-propyl group, or an isopropyl group, and Formula (1-1) excludes: a case where n is 1, a -C(R C )(R D )(NH 2 ) group is at para position and at meta position, and either R A or R B , and either R C or R D are each an n-propyl group, and the remaining two of R A to R D are hydrogen atoms; and a case where n is 1, a -C(R C )(R D )(NH 2 ) group is at ortho position, either R A or R B , and either R C or R D are each an ethyl group, and the remaining two of R A to R D are hydrogen atoms. where in Formula (1-1), R A to R D each independently represent a hydrogen atom, an ethyl group, an n-propyl group, or an isopropyl group, and n is an integer of from 1 to 3, wherein at least two of R A to R D are independently an ethyl group, an n-propyl group, or an isopropyl group, and Formula (1-1) excludes: a case where n is 1, a -C(R C )(R D )(NH 2 ) group is at para position and at meta position, and either R A or R B , and either R C or R D are each an n-propyl group, and the remaining two of R A to R D are hydrogen atoms; and a case where n is 1, a -C(R C )(R D )(NH 2 ) group is at ortho position, either R A or R B , and either R C or R D are each an ethyl group, and the remaining two of R A to R D are hydrogen atoms. a case where n is 1, a -C(R C )(R D )(NH 2 ) group is at para position and at meta position, and either R A or R B , and either R C or R D are each an n-propyl group, and the remaining two of R A to R D are hydrogen atoms; and a case where n is 1, a -C(R C )(R D )(NH 2 ) group is at ortho position, either R A or R B , and either R C or R D are each an ethyl group, and the remaining two of R A to R D are hydrogen atoms.
An insulation panel comprising a polymer foam core sandwiched between a front facer bonded to a front face thereof and a rear facer bonded to a rear face thereof, characterized in that the polymer foam core is further sandwiched between an exposed resiliently deformable insulation layer of mineral wool bonded to a first side thereof and an exposed resiliently deformable insulation layer of mineral wool bonded to a second side thereof.
A propulsion system for an aircraft, comprising at least one rotor and a nacelle fairing extending around said at least one rotor with respect to an axis (X) of rotation of said rotor , this nacelle fairing comprising an upstream section forming an inlet cross-section (BA) of the nacelle fairing and a downstream section , a downstream end of which forms an outlet cross-section (BF) of the nacelle fairing ; the downstream section comprises a radially internal wall and a radially external wall made of a deformable shape-memory material, and characterised in that the downstream end forming the outlet cross-section (BF) comprises a plurality of pneumatic or hydraulic actuators , the actuators extending in different consecutive angular sectors about said axis (X) of rotation, each actuator being actuatable independently of the other actuators and being configured to deform in a direction which is radial with respect to the axis (X) of rotation and which is angularly centred with respect to the angular sector over which it extends under a predetermined command pressure.
Modular directional valve device, fitted with one or more elements (E1, E2,.. En), said valve device being suitable for controlling a variable displacement pump (PA), said one or more elements (E1...En) being of the crossing type allowing connection of the variable displacement pump (PA) and of a tank to various utilities through respective uses (A1, B1, A2, B2); said valve device comprising at least one delivery line (P1) and said valve device being arranged for the connection to the pump (PA) through said at least one delivery line (P1) and further comprising at least one load line for connecting said at least one delivery line (P1) to the utilities, said at least one load line passing through respective spool of said one or more elements (E1, E2,.. En), said at least one load line connecting said respective spool in parallel, a fitting for the connection of the tank to a low pressure line (T) of the modular directional valve device into which the return flow rates of utilities flow, a choke arranged on a bypass line (LC) of the modular directional valve device downstream of a last element (En) of said one or more elements (E1, E2,.. En), said valve device further comprising a connection line (N) for connection, direct or indirect, to a control signal line of the pump (PA), said connection line (N) being adapted to draw the control signal on the bypass line (LC) between a last element (En) of the one or more elements and the choke , wherein a pressure regulator is provided only in the bypass line (LC) and upstream of the first element (E1) of said one or more elements (E1, E2,.. En), the regulator being configured so as to impose a constant pressure drop along the bypass line (LC) and through said one or more elements (E1, E2,.. En), the valve device being characterized in that said load line is connected to said bypass line (LC) upstream said pressure regulator .
Transmitter made of flat electrodes, which enables the generation of a toroidal electromagnetic field that is symmetrical in one plane, wherein the transmitter consists of multiple plates arranged in the same plane, wherein at least one of the plates has holes in its plane in which other plates are arranged, and the other plates are all electrically connected to each other and insulated from the plate with holes, and wherein the plates are designed as electrodes.
A method for use in a network node, the method comprising: transmitting a set of system information transmissions, wherein each transmission within the set comprises system information, and wherein the set of transmissions enable soft combining by configuring a portion of the system information to be the same for each transmission within the set; for each transmission, providing an indication of an identifier associated with the respective transmission, wherein the indication: enables a wireless device to determine that the transmissions belong to the set of system information transmissions and are therefore capable of being soft-combined; is provided other than in the system information; and is provided by encoding the indication on a reference signal. transmitting a set of system information transmissions, wherein each transmission within the set comprises system information, and wherein the set of transmissions enable soft combining by configuring a portion of the system information to be the same for each transmission within the set; for each transmission, providing an indication of an identifier associated with the respective transmission, wherein the indication: enables a wireless device to determine that the transmissions belong to the set of system information transmissions and are therefore capable of being soft-combined; is provided other than in the system information; and is provided by encoding the indication on a reference signal. enables a wireless device to determine that the transmissions belong to the set of system information transmissions and are therefore capable of being soft-combined; is provided other than in the system information; and is provided by encoding the indication on a reference signal.
A ventilation unit with high sound absorption and thermal insulation performance, the ventilation unit comprising a heat exchanger , the noise emission of which said ventilation unit is designed to abate, the ventilation unit being made as a self-supporting structure with a plurality of modules , wherein the modular structure includes a plurality of areas configured for the abatement of high and low sound frequencies, the low frequency abatement areas comprising a plurality of Helmholtz resonators, wherein the modular structure comprises a section configured for the abatement of high and low frequencies and a section configured for the abatement of high frequencies, characterized in that the modules of the modular structure are separated from each other by metal partitions which are respectively composed of a metal frame and a frame in insulating material and configured to act effectively as absorbers of low frequencies, and in that the modules are coated with metallic insulating material so to optimize noise reduction.
An apparatus comprising: at least two sets of radiant fired heaters , the first set of radiant fired heaters being positioned above the second set of radiant fired heaters , each set of the at least two sets of radiant fired heaters comprising at least one radiant fired heater , each radiant fired heater having at least one process coil disposed within the radiant fired heater , burners , and a flue gas outlet, wherein the process coils have one outlet and at least one inlet; at least one inlet manifold having an inlet and multiple outlets for each radiant fired heater , with each outlet of the at least one inlet manifold in fluid communication with one process coil inlet; and an outlet manifold having multiple inlets and an outlet for each radiant fired heater , with the multiple inlets of the outlet manifold in fluid communication with the process coil outlets, wherein the sets of radiant fired heaters are stacked sets . at least two sets of radiant fired heaters , the first set of radiant fired heaters being positioned above the second set of radiant fired heaters , each set of the at least two sets of radiant fired heaters comprising at least one radiant fired heater , each radiant fired heater having at least one process coil disposed within the radiant fired heater , burners , and a flue gas outlet, wherein the process coils have one outlet and at least one inlet; at least one inlet manifold having an inlet and multiple outlets for each radiant fired heater , with each outlet of the at least one inlet manifold in fluid communication with one process coil inlet; and an outlet manifold having multiple inlets and an outlet for each radiant fired heater , with the multiple inlets of the outlet manifold in fluid communication with the process coil outlets,
A cylinder printing jig used for a printer including a moving table , comprising: a base unit configured to be detachably fixed to a printer body ; a movable unit , the movable unit being provided separately from the base unit ; and a roller mechanism being configured to have a contact with the table of the printer , the roller mechanism being provided in the movable unit to convert the movement of the table to the rotation of a cylindrical print medium , characterized in that the movable unit is supported by the base unit to vertically move, and in that the roller mechanism is configured to have a contact with the table of the printer due to the weight of the movable unit . a base unit configured to be detachably fixed to a printer body ; a movable unit , the movable unit being provided separately from the base unit ; and a roller mechanism being configured to have a contact with the table of the printer , the roller mechanism being provided in the movable unit to convert the movement of the table to the rotation of a cylindrical print medium , characterized in that the movable unit is supported by the base unit to vertically move, and in that the roller mechanism is configured to have a contact with the table of the printer due to the weight of the movable unit .
A security ink, comprising: a liquid medium; and a plurality of quantum dots disposed in said medium which, upon excitation with a light source, exhibit a quantum yield greater than 30%, and a photoluminescence which has at least one lifetime of more than 40 nanoseconds but less than 1 millisecond and which varies by at least 5% across the emission spectrum of the quantum dots wherein said plurality of quantum dots comprises a first set of quantum dots having a first chemical composition and size, and a second set of quantum dots having a second chemical composition and size which are distinct from said first chemical composition and size. a liquid medium; and a plurality of quantum dots disposed in said medium which, upon excitation with a light source, exhibit a quantum yield greater than 30%, and a photoluminescence which has at least one lifetime of more than 40 nanoseconds but less than 1 millisecond and which varies by at least 5% across the emission spectrum of the quantum dots wherein said plurality of quantum dots comprises a first set of quantum dots having a first chemical composition and size, and a second set of quantum dots having a second chemical composition and size which are distinct from said first chemical composition and size.
A method for detecting methylated DNA using qMSP (quantitative methylation specific PCR), comprising: (a) treating a target DNA-containing sample with at least one reagent which modifies a non-methylated DNA site to be distinguished from a methylated DNA site; (b) constructing a reverse primer, which comprises a target-specific sequence designed to be capable of binding complementarily to the target DNA treated with the reagent, and a universal primer that does not bind complementarily to the target DNA, and the universal primer is bound to the 5' end of the target-specific sequence; (c) performing one direction asymmetric linear amplification for methylated DNA by unidirectional PCR using, as a template, the target DNA treated with the reagent in step (a), and using, as a primer, the reverse primer constructed in step (b); (d) amplifying the target DNA using a forward primer, which is capable of binding complementarily to the DNA linearly amplified in step (c), and a universal primer that does not bind complementarily to the linearly amplified target DNA; and (e) detecting methylation of the target DNA by a probe capable of hybridizing complementarily to the target DNA sequence amplified in step (d). (a) treating a target DNA-containing sample with at least one reagent which modifies a non-methylated DNA site to be distinguished from a methylated DNA site; (b) constructing a reverse primer, which comprises a target-specific sequence designed to be capable of binding complementarily to the target DNA treated with the reagent, and a universal primer that does not bind complementarily to the target DNA, and the universal primer is bound to the 5' end of the target-specific sequence; (c) performing one direction asymmetric linear amplification for methylated DNA by unidirectional PCR using, as a template, the target DNA treated with the reagent in step (a), and using, as a primer, the reverse primer constructed in step (b); (d) amplifying the target DNA using a forward primer, which is capable of binding complementarily to the DNA linearly amplified in step (c), and a universal primer that does not bind complementarily to the linearly amplified target DNA; and (e) detecting methylation of the target DNA by a probe capable of hybridizing complementarily to the target DNA sequence amplified in step (d).
A dispersible moist wipe comprising synthetic fibers between 0 and 10 percent by weight, regenerated cellulose fibers between 5 percent and 20 percent by weight, and natural cellulose fibers in an amount between 70 and 95 percent by weight, at least 50 percent of the natural cellulose fibers being fibrillated, the regenerated cellulose fibers and the natural cellulose fibers being hydroentangled such that the web has a wet CD tensile strength of at least 200 grams per inch; wherein the natural cellulose fibers are softwood pulp; wherein the regenerated fibers have a decitex between 0.7 g/10,000 m and 2 g/10,000 m; and wherein the regenerated cellulose fibers have a length in the range of about 4 millimeters to about 15 millimeters.
A method for producing a cellulose xanthate nanofiber, the method comprising defibrating cellulose xanthate that contains cellulose I or a cationic substitution substance of the cellulose xanthate.