mhurhangee/ep-ind-claims huggingface dataset:
A microphone (58, 59) comprising: a package including a substrate and a cover, at least one of them including a recess; a microphone chip configured by a substrate through which a chamber passes, a diaphragm covering the chamber on an opposite side of an installing surface of the microphone chip, and a back plate, the diaphragm and the back plate configuring a capacitor, and a circuit element connected to the microphone chip and the substrate of the package such that a detection signal output from the microphone chip is input into the circuit element and output to an external connection terminal of the microphone after a predetermined signal processing; wherein the microphone chip is installed on an inner surface of the substrate of the package by fixing the installing surface of the microphone chip to the inner surface of the substrate of the package by means of a die attach material; characterized in that the circuit element is arranged on a surface of the microphone chip on the opposite side of the installing surface of the microphone chip and fixed by means of a die attach material, wherein the circuit element is arranged in a region where the diaphragm and the back plate are not arranged and arranged such that, when seen in a plan view on the inner surface of the substrate of the package, a part of the chamber is below the circuit element. a package including a substrate and a cover, at least one of them including a recess; a microphone chip configured by a substrate through which a chamber passes, a diaphragm covering the chamber on an opposite side of an installing surface of the microphone chip, and a back plate, the diaphragm and the back plate configuring a capacitor, and a circuit element connected to the microphone chip and the substrate of the package such that a detection signal output from the microphone chip is input into the circuit element and output to an external connection terminal of the microphone after a predetermined signal processing; wherein the microphone chip is installed on an inner surface of the substrate of the package by fixing the installing surface of the microphone chip to the inner surface of the substrate of the package by means of a die attach material; characterized in that the circuit element is arranged on a surface of the microphone chip on the opposite side of the installing surface of the microphone chip and fixed by means of a die attach material, wherein the circuit element is arranged in a region where the diaphragm and the back plate are not arranged and arranged such that, when seen in a plan view on the inner surface of the substrate of the package, a part of the chamber is below the circuit element.
An inner tank supporting structure for an LNG storage tank for a ship which includes a cylindrical outer tank and a cylindrical inner tank, comprising: a sliding main supporter mounted at one side of a bottom of the outer tank so as to fix the center of a bottom surface of the inner tank the sliding main supporter having elongated sliding grooves formed in the lengthwise direction of the inner tank; a fixing main supporter mounted at the other side in the lengthwise direction of the bottom of the outer tank so as to fix the center of the bottom surface of the inner tank, the fixing main supporter having round grooves 41; characterized in that fixing members are arranged on the bottom surface of the inner tank 20 for joining the inner tank to the sliding grooves of the sliding main supporter and the round grooves of the fixing main supporter, wherey the fixing members joined in the sliding grooves are mounted in such a way as to be moved inside the sliding grooves of the sliding main supporter; and a sub supporter mounted at the bottom of the outer tank so as to support the bottom surface of the inner tank wherein the bottom surface of the inner tank is seated to the sub supporter. a sliding main supporter mounted at one side of a bottom of the outer tank so as to fix the center of a bottom surface of the inner tank the sliding main supporter having elongated sliding grooves formed in the lengthwise direction of the inner tank; a fixing main supporter mounted at the other side in the lengthwise direction of the bottom of the outer tank so as to fix the center of the bottom surface of the inner tank, the fixing main supporter having round grooves 41; characterized in that fixing members are arranged on the bottom surface of the inner tank 20 for joining the inner tank to the sliding grooves of the sliding main supporter and the round grooves of the fixing main supporter, wherey the fixing members joined in the sliding grooves are mounted in such a way as to be moved inside the sliding grooves of the sliding main supporter; and a sub supporter mounted at the bottom of the outer tank so as to support the bottom surface of the inner tank wherein the bottom surface of the inner tank is seated to the sub supporter.
Air guide, particularly for a cooling module of a front-end module of a motor vehicle with an air guide body which comprises an air inlet opening and an air outlet opening in order to guide air from the outside to the inside with regard to the motor vehicle, wherein the air guide body is made of a material so that the air guide body can be transferred in a mounting state and a transport state wherein the air guide body takes up a significantly larger volume in the mounting state than in the transport state wherein the air guide body has a reinforcement structure that is more stable than the material, wherein the reinforcement structure is integrated into the material and/or formed by the material, wherein the reinforcement structure has reinforcement elements on or in the air guide body, characterized in that the reinforcement elements comprise rods (23.1).
A cyclonic separator comprising: a first cyclone stage comprising a cyclone chamber and a first dirt collection chamber located below the cyclone chamber: a second cyclone stage located downstream of the first cyclone stage and comprising a second dirt collection chamber; and an inlet duct for carrying fluid from an opening in the base of the cyclonic separator to the cyclone chamber, characterised in that, the first dirt collection chamber surrounds at least partly the inlet duct and the second dirt collection chamber. a first cyclone stage comprising a cyclone chamber and a first dirt collection chamber located below the cyclone chamber: a second cyclone stage located downstream of the first cyclone stage and comprising a second dirt collection chamber; and an inlet duct for carrying fluid from an opening in the base of the cyclonic separator to the cyclone chamber,
Method for introducing complementing training symbols into a 802.11p Orthogonal Frequency-Division Multiplexing, OFDM, frame in vehicular communications, wherein the method comprises the steps of: sending, with a transmitter, encrypted information from a first unit to a receiver of a specific second unit or a respective receiver of a number of second units; multiplexing fixed training symbols, which are implemented in a transmitter chip, with the encrypted information; transmitting said training symbols to the receiver for channel estimation at the receiver side, characterized in that in order to improve channel estimation said method further comprises the steps of inserting complementing training symbols in a logical link control, LLC, sub-layer, where the logical link control, LLC, sub-layer is software defined and can be modified, and the insertion of training symbols comprises the insertion of training bits of the complementing training symbols in a Frame Body data unit, before passing it down to a medium access control, MAC, sub-layer, as a binary vector of length NMEM + NDBPS, where the first NMEM bits of the sequence are provided in order to terminate an encoder of the transmitter in a known state, and the rest of the NDBPS bits correspond to one OFDM training symbol, and the insertion is performed at specific positions taking into consideration an interleaver of the transmitter and other fields added. sending, with a transmitter, encrypted information from a first unit to a receiver of a specific second unit or a respective receiver of a number of second units; multiplexing fixed training symbols, which are implemented in a transmitter chip, with the encrypted information; transmitting said training symbols to the receiver for channel estimation at the receiver side, characterized in that in order to improve channel estimation said method further comprises the steps of inserting complementing training symbols in a logical link control, LLC, sub-layer, where the logical link control, LLC, sub-layer is software defined and can be modified, and the insertion of training symbols comprises the insertion of training bits of the complementing training symbols in a Frame Body data unit, before passing it down to a medium access control, MAC, sub-layer, as a binary vector of length NMEM + NDBPS, where the first NMEM bits of the sequence are provided in order to terminate an encoder of the transmitter in a known state, and the rest of the NDBPS bits correspond to one OFDM training symbol, and the insertion is performed at specific positions taking into consideration an interleaver of the transmitter and other fields added.
Method for manufacturing a multi-layer security product, comprising the steps of: - preparing an inlay layer or a layer composite containing the inlay layer, - checking a function capability of the inlay layer, - applying at least one personalised and/or individualised lamination layer onto the inlay layer, or the layer composite containing the inlay layer, only and exclusively if the functional capability is present, characterised in that - a replacement layer is applied onto the inlay layer, or onto the layer composite containing the inlay layer, in the event of the functional capability not being present. - preparing an inlay layer or a layer composite containing the inlay layer, - checking a function capability of the inlay layer, - applying at least one personalised and/or individualised lamination layer onto the inlay layer, or the layer composite containing the inlay layer, only and exclusively if the functional capability is present, - a replacement layer is applied onto the inlay layer, or onto the layer composite containing the inlay layer, in the event of the functional capability not being present.
A pesticidal composition comprising sulphur in the range of 7.5% to 80% w/w of the total composition, at least one fungicide selected from the group consisting of fenamidone, cyazofamid, pyraclostrobin, azoxystrobin, trifloxystrobin, validamycin, kasugamycin, cyprodinil, pencycuron, hexaconazole, epoxiconazole, or salts thereof and at least one agrochemically acceptable excipient, and wherein the fungicide is present in the range of from 1% to 70% w/w of the total composition.
Method for operating a brushless electric motor, the windings (U, V, W) of which are controlled by an AC converter with the aid of six switches, wherein the AC converter comprises three outputs (17, 18, 19) that are allocated to the windings (U, V, W) of the electric motor and wherein a power semiconductor switch is arranged in each case between the outputs (17, 18, 19) of the AC converter and the windings (U, V, W) and wherein a detection unit for detecting defective switches, a unit for measuring the voltage at the outputs (17, 18, 19) of the AC converter and a motor position angle sensor for determining the motor position angle (φ) are provided, wherein after detecting a defective switch, the AC converter is switched off by a microcontroller in such a manner that power is no longer introduced into the windings (U, V, W) of the electric motor, characterized in that the motor position angle sensor opens the power semiconductor switches in succession in a previously defined motor position angle (φ U, φ V, φ W), wherein motor angle and motor speed information for securely opening the power semiconductor switches is generated directly from the motor position angle sensor.
Snowsports board comprising at least one end piece, characterized in that it comprises a break-off portion which is provided in order to promote breaking of the end piece.
An extremum-seeking control system comprising: - a plant (604, 704) comprising HVAC equipment, wherein the plant (604, 704) is operable to affect a variable state or condition of a building; - an extremum-seeking controller configured to: - provide a control input to the plant (604, 704) and receive a performance variable as a first feedback from the plant (604, 704), wherein the plant (604, 704) uses the control input to affect the performance variable; - receive a constrained variable as a second feedback from the plant (604, 704), wherein the constrained variable corresponds to a measurement of the variable state or condition of the building; - calculate a performance penalty by applying a penalty function to the constrained variable; - modify the performance variable with the performance penalty to generate a modified cost function; - estimate a gradient of the modified cost function with respect to the control input; and - drive the gradient of the modified cost function toward zero by modulating the control input. - a plant (604, 704) comprising HVAC equipment, wherein the plant (604, 704) is operable to affect a variable state or condition of a building; - an extremum-seeking controller configured to: - provide a control input to the plant (604, 704) and receive a performance variable as a first feedback from the plant (604, 704), wherein the plant (604, 704) uses the control input to affect the performance variable; - receive a constrained variable as a second feedback from the plant (604, 704), wherein the constrained variable corresponds to a measurement of the variable state or condition of the building; - calculate a performance penalty by applying a penalty function to the constrained variable; - modify the performance variable with the performance penalty to generate a modified cost function; - estimate a gradient of the modified cost function with respect to the control input; and - drive the gradient of the modified cost function toward zero by modulating the control input. - provide a control input to the plant (604, 704) and receive a performance variable as a first feedback from the plant (604, 704), wherein the plant (604, 704) uses the control input to affect the performance variable; - receive a constrained variable as a second feedback from the plant (604, 704), wherein the constrained variable corresponds to a measurement of the variable state or condition of the building; - calculate a performance penalty by applying a penalty function to the constrained variable; - modify the performance variable with the performance penalty to generate a modified cost function; - estimate a gradient of the modified cost function with respect to the control input; and - drive the gradient of the modified cost function toward zero by modulating the control input.
A system (30, 120) for determining the continuity of an isolation line formed by point contact ablation in a region of the human heart, comprising: a central controller (45, 124) operatively coupled with a power source, wherein the system is adapted to be coupled to an elongate flexible catheter having a distal end portion comprising an ablation head arranged for contact with a target tissue and operatively coupled with a power source for forming a desired isolation line (62, 64, 78, 80) of ablated tissue and operatively coupled with a force sensor, and adapted to be coupled to a position sensing device, wherein the ablation head is adapted to consecutively form lesions (87a-87h) on the desired isolation line (62, 64, 78, 80); wherein the controller is configured to: - receive signals from the catheter, the force sensor and the position sensing device; - divide the isolation line into a series of ablation zones (zones I-VIII); - increment a jump index if a pair of the lesions consecutively formed are centered within ablation zones that are non-adjacent zones by the number of ablation zones that were passed over between the two ablation sites; and - determine the continuity of the isolation line based on the jump index and the force data. a central controller (45, 124) operatively coupled with a power source, wherein the system is adapted to be coupled to an elongate flexible catheter having a distal end portion comprising an ablation head arranged for contact with a target tissue and operatively coupled with a power source for forming a desired isolation line (62, 64, 78, 80) of ablated tissue and operatively coupled with a force sensor, and adapted to be coupled to a position sensing device, wherein the ablation head is adapted to consecutively form lesions (87a-87h) on the desired isolation line (62, 64, 78, 80); wherein the controller is configured to: - receive signals from the catheter, the force sensor and the position sensing device; - divide the isolation line into a series of ablation zones (zones I-VIII); - increment a jump index if a pair of the lesions consecutively formed are centered within ablation zones that are non-adjacent zones by the number of ablation zones that were passed over between the two ablation sites; and - determine the continuity of the isolation line based on the jump index and the force data. - receive signals from the catheter, the force sensor and the position sensing device; - divide the isolation line into a series of ablation zones (zones I-VIII); - increment a jump index if a pair of the lesions consecutively formed are centered within ablation zones that are non-adjacent zones by the number of ablation zones that were passed over between the two ablation sites; and - determine the continuity of the isolation line based on the jump index and the force data.
A toy assembly, comprising: a housing (840; 940); a primary toy character (844; 944) and an ancillary toy character (848; 948) which are inside the housing (840; 940); and a breakout mechanism (800; 920) that is operable to break the housing (840; 940) to expose the primary toy character (844; 944) and the ancillary toy character (848; 948), wherein the breakout mechanism (800; 920) expands to push the ancillary toy character (848; 948) through the housing (840; 940); characterised in that the breakout mechanism (800; 920) is included as part of the primary toy character (844; 944). a housing (840; 940); a primary toy character (844; 944) and an ancillary toy character (848; 948) which are inside the housing (840; 940); and a breakout mechanism (800; 920) that is operable to break the housing (840; 940) to expose the primary toy character (844; 944) and the ancillary toy character (848; 948), wherein the breakout mechanism (800; 920) expands to push the ancillary toy character (848; 948) through the housing (840; 940); characterised in that the breakout mechanism (800; 920) is included as part of the primary toy character (844; 944).
A method performed in a central controller element (203; 503A-C; 601) coupled to a network (205; 501A-C) of packet data switches (207, 209, 211, 213, 215, 217) with ingress and egress ports (603, 605) with links (225, 227, 229) between an ingress port of one switch and an egress port of another switch, the method for throttling traffic on the links and comprising: identifying (311, 313) a congested link of the network, the link having traffic from a plurality of packet traffic groups (221, 223) from an ingress port to an egress port; determining a throttle rate (t1; t2) for a packet traffic group (221; 223) of the congested link based on a weight (w1; w2; w3; w4) of the group and a current traffic rate (r1; r2) of the group through the link; sending the determined throttle rate from the central controller to an ingress switch (209; 211) of the network, the ingress switch having an egress port that is coupled to an ingress port of the link. identifying (311, 313) a congested link of the network, the link having traffic from a plurality of packet traffic groups (221, 223) from an ingress port to an egress port; determining a throttle rate (t1; t2) for a packet traffic group (221; 223) of the congested link based on a weight (w1; w2; w3; w4) of the group and a current traffic rate (r1; r2) of the group through the link; sending the determined throttle rate from the central controller to an ingress switch (209; 211) of the network, the ingress switch having an egress port that is coupled to an ingress port of the link.
A foldable stroller, mobile from an unfolded position to a folded position, and comprising a seat portion, a backrest, four legs, and: - a rear linkage including two rear legs each having an upper end and a lower end mounted with a wheeled means; - a front linkage including at least two front legs each having an upper end and a lower end mounted with a wheeled means; - a backrest linkage including at least one backrest mount; and - a seat support including a front end and a rear end, and having a length shorter than the height of the backrest; said stroller being characterized in that: the front linkage, the rear linkage, the backrest linkage and the seat support are articulated one to another and configured so as to ensure simultaneously when the stroller is moved from its unfolded position to its folded position: - the forward hinging of the lower end of the rear legs until said lower end of the rear legs reaches a position next to the upper end of the front legs, - the backward hinging of the lower end of the front legs until said lower end of the front legs reaches a position next to the upper end of the rear legs, - the folding of the backrest against the seat portion, the upper edge of the backrest mount reaching a position next to the front end of the seat support and to the upper end of the front legs, and - the going of the rear legs between the front legs. - a rear linkage including two rear legs each having an upper end and a lower end mounted with a wheeled means; - a front linkage including at least two front legs each having an upper end and a lower end mounted with a wheeled means; - a backrest linkage including at least one backrest mount; and - a seat support including a front end and a rear end, and having a length shorter than the height of the backrest; the front linkage, the rear linkage, the backrest linkage and the seat support are articulated one to another and configured so as to ensure simultaneously when the stroller is moved from its unfolded position to its folded position: - the forward hinging of the lower end of the rear legs until said lower end of the rear legs reaches a position next to the upper end of the front legs, - the backward hinging of the lower end of the front legs until said lower end of the front legs reaches a position next to the upper end of the rear legs, - the folding of the backrest against the seat portion, the upper edge of the backrest mount reaching a position next to the front end of the seat support and to the upper end of the front legs, and - the going of the rear legs between the front legs. - the forward hinging of the lower end of the rear legs until said lower end of the rear legs reaches a position next to the upper end of the front legs, - the backward hinging of the lower end of the front legs until said lower end of the front legs reaches a position next to the upper end of the rear legs, - the folding of the backrest against the seat portion, the upper edge of the backrest mount reaching a position next to the front end of the seat support and to the upper end of the front legs, and - the going of the rear legs between the front legs.