mhurhangee/ep-ind-claims huggingface dataset:
An air-cooling battery module, comprising: a cell assembly having a plurality of cells; and a cooling member having a duct disposed to contact an edge portion of the cell assembly and having an air passage formed therein so that a cooling air moves therethrough, wherein the inside of the duct has a truss structure formed by arranging frames to form a triangular shape, and wherein an uneven pattern is formed at the inside of the duct of the cooling member, characterized in that the uneven pattern is formed on the surface of the truss structure. a cell assembly having a plurality of cells; and a cooling member having a duct disposed to contact an edge portion of the cell assembly and having an air passage formed therein so that a cooling air moves therethrough, wherein the inside of the duct has a truss structure formed by arranging frames to form a triangular shape, and wherein an uneven pattern is formed at the inside of the duct of the cooling member, characterized in that the uneven pattern is formed on the surface of the truss structure.
Method for generating signals which enable a positioning by a mobile positioning facility disposed within a shielded space, wherein - at least one imitating radio signal (Sf, Sf1, Sf2, Sf3) is generated, wherein each imitating radio signal imitates a satellite signal of a respective fictitious, in reality non-existent satellite (TS, TS1, TS2, TS3) and has fictitious satellite data of the fictitious satellite (TS, TS1, TS2, TS3), - at least one modified radio signal (Sm1, Sm2) is generated, namely by modifying a received satellite signal of a real satellite (CS1, CS2, CS3, CS3, CS4, CS5, CS6) of a real, existing satellite system, wherein within the scope of modification, satellite data of the received satellite signal is extended by fictitious track and positioning data of the at least one fictitious satellite (TS, TS1, TS2, TS3), and - the at least one imitating radio signal (Sf, Sf1, Sf2, Sf3) and the at least one modified radio signal (Sm1, Sm2) are fed into the shielded space. - at least one imitating radio signal (Sf, Sf1, Sf2, Sf3) is generated, wherein each imitating radio signal imitates a satellite signal of a respective fictitious, in reality non-existent satellite (TS, TS1, TS2, TS3) and has fictitious satellite data of the fictitious satellite (TS, TS1, TS2, TS3), - at least one modified radio signal (Sm1, Sm2) is generated, namely by modifying a received satellite signal of a real satellite (CS1, CS2, CS3, CS3, CS4, CS5, CS6) of a real, existing satellite system, wherein within the scope of modification, satellite data of the received satellite signal is extended by fictitious track and positioning data of the at least one fictitious satellite (TS, TS1, TS2, TS3), and - the at least one imitating radio signal (Sf, Sf1, Sf2, Sf3) and the at least one modified radio signal (Sm1, Sm2) are fed into the shielded space.
A filter including: a housing circumscribing a central axis (A-A), the housing having an inlet at a lower end and an outlet at an upper end, and a filter element disposed within an upper portion of the housing, the filter element having an interior surface defining an inner upper chamber and an exterior surface defining with an interior surface of the housing an outer upper chamber, in which the inlet communicates with the outer upper chamber such that air entering the inlet flows to the outer upper chamber, and air flows from the outer upper chamber though the filter element where particulates are removed from the air and then into the inner upper chamber, characterised in that the filter includes a standpipe which forms a passageway communicating at an upper end with the outlet and at a lower end with a lower chamber in the housing below the inner upper chamber, the lower end of the standpipe extending through the inner upper chamber to a point no higher than a lower exposed surface of the filter element, the standpipe providing a path for air which has flowed through the filter element into the inner upper chamber to flow from the lower end of the standpipe to the outlet, and the filter includes a check valve which permits flow from the lower chamber to the inlet and blocks flow from the inlet to the lower chamber a housing circumscribing a central axis (A-A), the housing having an inlet at a lower end and an outlet at an upper end, and a filter element disposed within an upper portion of the housing, the filter element having an interior surface defining an inner upper chamber and an exterior surface defining with an interior surface of the housing an outer upper chamber, in which the inlet communicates with the outer upper chamber such that air entering the inlet flows to the outer upper chamber, and air flows from the outer upper chamber though the filter element where particulates are removed from the air and then into the inner upper chamber, characterised in that the filter includes a standpipe which forms a passageway communicating at an upper end with the outlet and at a lower end with a lower chamber in the housing below the inner upper chamber, the lower end of the standpipe extending through the inner upper chamber to a point no higher than a lower exposed surface of the filter element, the standpipe providing a path for air which has flowed through the filter element into the inner upper chamber to flow from the lower end of the standpipe to the outlet, and the filter includes a check valve which permits flow from the lower chamber to the inlet and blocks flow from the inlet to the lower chamber
A mechanical ventilation system for respiration of an associated patient, the system being adapted for providing decision support for mechanical ventilation, the system comprising: - ventilation means capable of mechanical ventilating said patient with air and/or one or more medical gases, the ventilation means having a plurality of settings (V_SET) comprising a positive end expiratory pressure (PEEP) setting, - control means, the ventilator means being controllable by said control means by operational connection thereto, and - measurement means (11a, 11b) arranged for measuring the inspired gas and/or the respiratory feedback of said patient in the expired gas in response to the mechanical ventilation, the measurement means (11a, 11b) being capable of delivering first data to said control means, wherein the control means is adapted for using both the first data and second data indicative of the respiratory feedback in the blood in physiological models descriptive of, at least, lung mechanics, and/or gas exchange in the lungs of the patient, the physiological models comprising a number of model parameters (MOD_P), and characterized in that the control means is further arranged for simulating the effect on one, or more, model parameters (MOD_P) selected from lung mechanics parameters, gas exchange parameters, blood-acid-base parameters, respiratory drive parameters and circulation parameters of the physiological models for a suggested value of the positive end expiratory pressure (PEEP) setting for the ventilation means, and thereby provide decision support in relation to said suggested PEEP value. - ventilation means capable of mechanical ventilating said patient with air and/or one or more medical gases, the ventilation means having a plurality of settings (V_SET) comprising a positive end expiratory pressure (PEEP) setting, - control means, the ventilator means being controllable by said control means by operational connection thereto, and - measurement means (11a, 11b) arranged for measuring the inspired gas and/or the respiratory feedback of said patient in the expired gas in response to the mechanical ventilation, the measurement means (11a, 11b) being capable of delivering first data to said control means,
A foldable self-opening bag, having an outer pocket and at least one first, pocket-like storage compartment which is arranged in the outer pocket and which is enclosed at least at the bottom and also laterally by a foldable and collapsible sheathing and which has an upper filling opening, wherein the outer pocket comprises at least two partial pocket parts which can be folded apart in an opening direction and folded towards each other in a closing direction and which are firmly or detachably connected to each other, wherein erecting means are provided, which are arranged and set up in such a way that when the two partial pocket parts of the outer pocket are folded apart in the opening direction, the first storage compartment is self-acting moved from a collapsed position into a ready-to-receive set-up position by raising the collapsible sheathing, wherein the ends of at least one, preferably two, carrying loops are arranged on the sides or the upper edges of the collapsible sheathing of the storage compartments (4 and/or 5), wherein the erecting means are established by spring means, in particular spring means which are incorporated in the material of the collapsible sheathing or connected to the collapsible sheathing at least at the upper edge and supported with a lower end on the outer pocket, characterized in that at least one second, pocket-like receiving region is provided in the outer pocket, which storage compartment is moved automatically from a folded position into a ready-to-receive set-up position by setting up a collapsible sheathing of the second storage compartment and a shape of the second storage compartment is identical to the shape of the first storage compartment and the first storage compartment is attached to one of the two partial pocket parts, while the second storage compartment is then arranged on the other partial pocket part.
A system, comprising: a background module including a first capacitor having a first capacitance, C bgr, the first capacitor configured to integrate a first signal for a first amount of time, Tint_bgr, wherein the first signal comprises a background signal; and a signal module including a second capacitor having a second capacitance, C sig, the second capacitor configured to integrate a second signal for a second amount of time, T int_sig, wherein the second signal comprises a signal of interest and the background signal, wherein the first and second capacitors (611, 613) have capacitance values in a first ratio such that C bgr = K·C sig, K being a value less than 1;and wherein the first amount of time and the second amount of time define a second ratio corresponding to the first ratio such that Tint _bgr = K·T int_sig and such that C sig /T int_sig = C bgr /T int_bgr. a background module including a first capacitor having a first capacitance, C bgr, the first capacitor configured to integrate a first signal for a first amount of time, Tint_bgr, wherein the first signal comprises a background signal; and a signal module including a second capacitor having a second capacitance, C sig, the second capacitor configured to integrate a second signal for a second amount of time, T int_sig, wherein the second signal comprises a signal of interest and the background signal, wherein the first and second capacitors (611, 613) have capacitance values in a first ratio such that C bgr = K·C sig, K being a value less than 1;and wherein the first amount of time and the second amount of time define a second ratio corresponding to the first ratio such that Tint _bgr = K·T int_sig and such that C sig /T int_sig = C bgr /T int_bgr.
A physical downlink control channel transmission method, wherein the method is used by a wireless network device to send N signal sets each corresponding to one different network service, each of the N signal sets is used to transmit control information of one terminal, N is an integer greater than 2, a signal in each signal set comprises a physical downlink control channel, PDCCH, or a PDCCH and a physical control format indicator channel, PCFICH, and the method comprises: sending each signal set to the terminal on a resource that can be occupied by the signal set, wherein sending processing is performed on a signal in each signal set, and the sending processing comprises at least one of multiplexing, scrambling, modulation, interleaving, or resource mapping. sending each signal set to the terminal on a resource that can be occupied by the signal set, wherein sending processing is performed on a signal in each signal set, and the sending processing comprises at least one of multiplexing, scrambling, modulation, interleaving, or resource mapping.
A method of operating a multi-engine system of an aircraft having a first engine and a second engine, the method comprising: accumulating compressed air in a pressure vessel external to the first and second engines (10A, 10B); operating the first and second engines (10A, 10B) asymmetrically, by controlling the first engine to operate in an active operating condition providing sufficient power and/or rotor speed for demands of the aircraft, and controlling the second engine to operate in a standby operating condition wherein the second engine produces less power output than the first engine; and in response to a power demand request, accelerating the second engine by introducing the compressed air from the pressure vessel into the second engine at a location upstream of a combustor of the second engine. accumulating compressed air in a pressure vessel external to the first and second engines (10A, 10B); operating the first and second engines (10A, 10B) asymmetrically, by controlling the first engine to operate in an active operating condition providing sufficient power and/or rotor speed for demands of the aircraft, and controlling the second engine to operate in a standby operating condition wherein the second engine produces less power output than the first engine; and in response to a power demand request, accelerating the second engine by introducing the compressed air from the pressure vessel into the second engine at a location upstream of a combustor of the second engine.
A method for selectively activating a magnetic nanoparticle, the method comprising: providing a magnetic nanoparticle having a magnetic vortex structure; applying a first magnetic field to the magnetic nanoparticle so that the magnetic nanoparticle has a resonance frequency; and activating the magnetic nanoparticle by applying a second magnetic field having the resonance frequency to the magnetic nanoparticle; wherein the first magnetic field is a DC magnetic field and the second magnetic field is an AC magnetic field or a pulse field. providing a magnetic nanoparticle having a magnetic vortex structure; applying a first magnetic field to the magnetic nanoparticle so that the magnetic nanoparticle has a resonance frequency; and activating the magnetic nanoparticle by applying a second magnetic field having the resonance frequency to the magnetic nanoparticle;
A stator mount assembly comprising: a stator vane; a slot formed on a case structure for receiving a vane foot; and a wear liner (72; 94) for the stator vane comprising: a shaped member comprising a U-shaped portion (78; 108) for receiving a foot of a stator vane; a first end (80; 96) biased into contact with the stator vane; and a spring seal (84; 104) extending from the U-shaped portion (78; 108) and biased into contact with a support structure supporting the stator vane; the wear liner (72; 94) including a second end (82; 98) extending transverse overlapping an outer surface of the foot; characterized in that: the spring seal (84; 104) is attached to the U-shaped portion (78; 108). a stator vane; a slot formed on a case structure for receiving a vane foot; and a wear liner (72; 94) for the stator vane comprising: a shaped member comprising a U-shaped portion (78; 108) for receiving a foot of a stator vane; a first end (80; 96) biased into contact with the stator vane; and a spring seal (84; 104) extending from the U-shaped portion (78; 108) and biased into contact with a support structure supporting the stator vane; a shaped member comprising a U-shaped portion (78; 108) for receiving a foot of a stator vane; a first end (80; 96) biased into contact with the stator vane; and a spring seal (84; 104) extending from the U-shaped portion (78; 108) and biased into contact with a support structure supporting the stator vane; the wear liner (72; 94) including a second end (82; 98) extending transverse overlapping an outer surface of the foot; characterized in that: the spring seal (84; 104) is attached to the U-shaped portion (78; 108).
A method performed by a visual recognition system implemented by one or more computers for classifying a new image by determining whether the new image includes images of objects that belong to object categories from a predetermined set of object categories, the method comprising: maintaining a comparison set, the comparison set comprising a plurality of comparison images and a respective label vector for each of the plurality of comparison images, each label vector including a respective score for each label in a predetermined set of labels; receiving a new image; determining, for each comparison image, a respective attention weight characterizing a level of similarity between the comparison image and the new image by applying a neural network attention mechanism to the new image and to the comparison image; and generating a respective label score for each label in the predetermined set of labels from, for each of the comparison images, the respective attention weight for the comparison image and the respective label vector for the comparison image, wherein the respective label score for each of the labels represents a likelihood that the label is a correct label for the new image; and classifying the new image based on the respective label scores for the labels in the predetermined set of labels; wherein generating the respective score for each label in the predetermined set of labels comprises: for each comparison image, multiplying the label vector for the comparison image by the attention weight for the comparison image to generate a weighted label vector for the comparison image; and summing the weighted label vectors to generate a combined label vector that includes a respective label score for each label in the predetermined set of labels. maintaining a comparison set, the comparison set comprising a plurality of comparison images and a respective label vector for each of the plurality of comparison images, each label vector including a respective score for each label in a predetermined set of labels; receiving a new image; determining, for each comparison image, a respective attention weight characterizing a level of similarity between the comparison image and the new image by applying a neural network attention mechanism to the new image and to the comparison image; and generating a respective label score for each label in the predetermined set of labels from, for each of the comparison images, the respective attention weight for the comparison image and the respective label vector for the comparison image, wherein the respective label score for each of the labels represents a likelihood that the label is a correct label for the new image; and classifying the new image based on the respective label scores for the labels in the predetermined set of labels; for each comparison image, multiplying the label vector for the comparison image by the attention weight for the comparison image to generate a weighted label vector for the comparison image; and summing the weighted label vectors to generate a combined label vector that includes a respective label score for each label in the predetermined set of labels.
A method of forming a non-pneumatic tire comprising the steps of: providing an outer shear band ring, wherein the outer shear band ring has an inner diameter; providing an intermediate section (14, 28, 34) that has a supporting structure (16, 30, 36), wherein the intermediate section (14, 28, 34) is in an uncompressed state, wherein in the uncompressed state the intermediate section (14, 28, 34) has an outer diameter, wherein the outer diameter of the intermediate section (14, 28, 34) in the uncompressed state is greater than the inner diameter of the outer shear band ring; compressing the intermediate section (14, 28, 34) from the uncompressed state to a compressed state; inserting the intermediate section (14, 28, 34) when in the compressed state inside of the outer shear band ring; and releasing compression of the intermediate section (14, 28, 34) when the intermediate section (14, 28, 34) is inside of the outer shear band ring such that the intermediate section (14, 28, 34) moves from the compressed state to a state of interference fit with the outer shear band ring, wherein the intermediate section (14, 28, 34) has an inner shear band ring (18, 32, 38), wherein the inner shear band ring (18, 32, 38) is located at the outer surface of the intermediate section (14, 28, 34), wherein the inner shear band ring (18, 32, 38) engages the outer shear band ring after releasing compression of the intermediate section (14, 28, 34), wherein the outer shear band ring and the inner shear band ring (18, 32, 38) include the same materials. providing an outer shear band ring, wherein the outer shear band ring has an inner diameter; providing an intermediate section (14, 28, 34) that has a supporting structure (16, 30, 36), wherein the intermediate section (14, 28, 34) is in an uncompressed state, wherein in the uncompressed state the intermediate section (14, 28, 34) has an outer diameter, wherein the outer diameter of the intermediate section (14, 28, 34) in the uncompressed state is greater than the inner diameter of the outer shear band ring; compressing the intermediate section (14, 28, 34) from the uncompressed state to a compressed state; inserting the intermediate section (14, 28, 34) when in the compressed state inside of the outer shear band ring; and releasing compression of the intermediate section (14, 28, 34) when the intermediate section (14, 28, 34) is inside of the outer shear band ring such that the intermediate section (14, 28, 34) moves from the compressed state to a state of interference fit with the outer shear band ring, wherein the intermediate section (14, 28, 34) has an inner shear band ring (18, 32, 38), wherein the inner shear band ring (18, 32, 38) is located at the outer surface of the intermediate section (14, 28, 34), wherein the inner shear band ring (18, 32, 38) engages the outer shear band ring after releasing compression of the intermediate section (14, 28, 34), wherein the outer shear band ring and the inner shear band ring (18, 32, 38) include the same materials.