mhurhangee/ep-ind-claims huggingface dataset:
A condenser for a power module, the condenser comprising: a plurality of aluminum materials combined to form a casing equipped with a channel for coolant therein, the casing having a top plate and a bottom plate and the casing being formed such that a thickness ratio of the top plate and the bottom plate thereof is 1:5 to 10; and a high-purity aluminum block for fixing the top plate to an insulative substrate of the power module, wherein stress generated on a joining surface between the condenser and the insulative substrate is mitigated due to active deformation of the high-purity aluminum block; wherein one of a frame-like projection and depression is formed at a position on the top plate and surrounds the high-purity aluminum block, wherein the frame-like projection or depression is configured to actively deform so that stress generated between the joining surface of the condenser and the insulative substrate is mitigated, and the channel is divided into a plurality of parallel flow passages by a plurality of cooling fins (48, 50) that extend in a direction perpendicular to a lengthwise direction of the insulative substrate of the power module, wherein stress generated on the joining surfaces between the condenser and the insulative substrate is absorbed and mitigated by deformation of the parallel flow passages divided by the cooling fins (48, 50). a plurality of aluminum materials combined to form a casing equipped with a channel for coolant therein, the casing having a top plate and a bottom plate and the casing being formed such that a thickness ratio of the top plate and the bottom plate thereof is 1:5 to 10; and a high-purity aluminum block for fixing the top plate to an insulative substrate of the power module, wherein stress generated on a joining surface between the condenser and the insulative substrate is mitigated due to active deformation of the high-purity aluminum block; wherein one of a frame-like projection and depression is formed at a position on the top plate and surrounds the high-purity aluminum block, wherein the frame-like projection or depression is configured to actively deform so that stress generated between the joining surface of the condenser and the insulative substrate is mitigated, and the channel is divided into a plurality of parallel flow passages by a plurality of cooling fins (48, 50) that extend in a direction perpendicular to a lengthwise direction of the insulative substrate of the power module, wherein stress generated on the joining surfaces between the condenser and the insulative substrate is absorbed and mitigated by deformation of the parallel flow passages divided by the cooling fins (48, 50).
A method for wireless communication by a terminal (10, 20), the method comprising: transmitting, to a base station, BS, terminal capability information for reporting that a dynamic transmission-diversity, Tx-D, fallback scheme for a short transmission time interval, sTTI,-based operation mode is supported; receiving, from the BS, through higher layer signaling, a configuration for the dynamic Tx-D fallback scheme for the sTTI-based operation mode; detecting, in the sTTI-based operation mode, specific format of downlink control information, DCI, including a specific field related to the dynamic Tx-D fallback scheme for the sTTI-based operation mode; and based on that a value of the specific field indicates the Tx-D fallback scheme, performing, in the sTTI-based operation mode, a Tx-D-based downlink data signal reception according to the dynamic Tx-D fallback scheme for the sTTI-based operation mode. transmitting, to a base station, BS, terminal capability information for reporting that a dynamic transmission-diversity, Tx-D, fallback scheme for a short transmission time interval, sTTI,-based operation mode is supported; receiving, from the BS, through higher layer signaling, a configuration for the dynamic Tx-D fallback scheme for the sTTI-based operation mode; detecting, in the sTTI-based operation mode, specific format of downlink control information, DCI, including a specific field related to the dynamic Tx-D fallback scheme for the sTTI-based operation mode; and based on that a value of the specific field indicates the Tx-D fallback scheme, performing, in the sTTI-based operation mode, a Tx-D-based downlink data signal reception according to the dynamic Tx-D fallback scheme for the sTTI-based operation mode.
A packing cushion separation device for separating a downstream packing cushion from an upstream packing cushion, the downstream and upstream packing cushions being in a string of interconnected packing cushions, adjacent ones of which are separated by perforations at least near lateral edges of the string of interconnected packing cushions, said separation device comprising: a separation plate (50; 60) adapted to support the string of interconnected packing cushions against force applied to the string of interconnected packing cushions in a direction towards and generally normal to said separation plate (50; 60), characterized in that said separation plate (50; 60) includes an opening therein which extends to a downstream end edge of said separation plate (50; 60), thereby permitting the user to extend one or more fingers of a single hand towards a region between adjacent packing cushions in the string of interconnected packing cushions, grasp the downstream packing cushion, tear the perforations laterally outwardly, and separate the downstream packing cushion from the upstream packing cushions. a separation plate (50; 60) adapted to support the string of interconnected packing cushions against force applied to the string of interconnected packing cushions in a direction towards and generally normal to said separation plate (50; 60), characterized in that said separation plate (50; 60) includes an opening therein which extends to a downstream end edge of said separation plate (50; 60), thereby permitting the user to extend one or more fingers of a single hand towards a region between adjacent packing cushions in the string of interconnected packing cushions, grasp the downstream packing cushion, tear the perforations laterally outwardly, and separate the downstream packing cushion from the upstream packing cushions.
A fog-generating device comprising • a reservoir comprising a movable wall and a fog-generating material, • a heat exchanger; and • means to drive said movable wall to expel the fog-generating material from the reservoir to the heat exchanger. • a reservoir comprising a movable wall and a fog-generating material, • a heat exchanger; and • means to drive said movable wall to expel the fog-generating material from the reservoir to the heat exchanger.
A method of managing resource transmission between two service providers (21, 22) in which a first interface for managing a first service provider and a second interface for managing a second service provider are provided and simultaneously displayed on a screen of an electronic device, the first service provider being configured to provide a specific resource, the method characterized in that it comprises the steps of: displaying an icon which is representative of the specific resource on the first interface; the second interface accessing an attribute of the icon when detecting that the icon has been dragged from the first interface to the second interface; the second interface transmitting the accessed attribute of the icon to the second service provider; the second service provider sending a transmission request to the first service provider when determining that the accessed attribute of the icon matches a format of the second service provider; and transmitting the specific resource directly from the first service provider to the second service provider, wherein: the first interface is different from the second interface; and the first service provider, the second service provider and the electronic device are separate devices. displaying an icon which is representative of the specific resource on the first interface; the second interface accessing an attribute of the icon when detecting that the icon has been dragged from the first interface to the second interface; the second interface transmitting the accessed attribute of the icon to the second service provider; the second service provider sending a transmission request to the first service provider when determining that the accessed attribute of the icon matches a format of the second service provider; and transmitting the specific resource directly from the first service provider to the second service provider, wherein: the first interface is different from the second interface; and the first service provider, the second service provider and the electronic device are separate devices. the first interface is different from the second interface; and the first service provider, the second service provider and the electronic device are separate devices.
Use of an electrochemical chlorine generator assembly in a robotic pool cleaner, wherein said assembly comprises: a. a case (31, 131) constructed of a non-conductive material having openings for the passage of water through the interior of the case; b. a plurality of conductive electrodes mounted in the case, said electrodes being positioned to receive water passing through the case (31,131) and across the chlorine-generating surfaces of the electrodes, c. generator terminals adapted and configured to receive power from an external power source, said conductive electrodes being connected to said generator terminals, said generator terminals being alignable for mating contact with power conductors mounted in said pool cleaner when said assembly is secured to said pool cleaner housing in an operable position; d. mounting means (124,126) on the case (31,131) for securely engaging corresponding receiving means (140, 142, 144, 146) on a structural member of said assembly which is configured to be secured to the pool cleaner housing, thereby securing said assembly in said operable position, and manually-releasable engagement surfaces for separating said mounting means (124,126) and said receiving means (140, 142, 144, 146) to thereby permit removal of the entire assembly or a component part of the assembly comprising the electrodes from the interior of the pool cleaner housing. a. a case (31, 131) constructed of a non-conductive material having openings for the passage of water through the interior of the case; b. a plurality of conductive electrodes mounted in the case, said electrodes being positioned to receive water passing through the case (31,131) and across the chlorine-generating surfaces of the electrodes, c. generator terminals adapted and configured to receive power from an external power source, said conductive electrodes being connected to said generator terminals, said generator terminals being alignable for mating contact with power conductors mounted in said pool cleaner when said assembly is secured to said pool cleaner housing in an operable position; d. mounting means (124,126) on the case (31,131) for securely engaging corresponding receiving means (140, 142, 144, 146) on a structural member of said assembly which is configured to be secured to the pool cleaner housing, thereby securing said assembly in said operable position, and manually-releasable engagement surfaces for separating said mounting means (124,126) and said receiving means (140, 142, 144, 146) to thereby permit removal of the entire assembly or a component part of the assembly comprising the electrodes from the interior of the pool cleaner housing.
Method for controlling access to functions of a motor vehicle, wherein the motor vehicle has a plurality of high frequency transceiver stations (3a, 3b, 3c) at different locations, wherein a mobile access device (6a; 6b), which is portable by a user, is adapted to exchange data with the high frequency transceiver stations (3a, 3b, 3c), wherein at least a first sensor device for detecting an actuation by a user is arranged stationarily on the vehicle, the method comprising the steps of: monitoring an actuation of the sensor device and initiating at least a first signal connection (7a, 7b, 7c; 8a, 8b, 8c) between at least a first one of the high frequency transceiver stations (3a, 3b, 3c) and the portable access devices (6a; 6b) upon detection of the actuation, determining at least one first signal parameter of the at least one first signal connection in the first high frequency transceiver station, storing the at least one first signal parameter in association with the associated first high frequency transceiver station (3a, 3b, 3c) and the location of the sensor device as a reference signal parameter in a memory located in the vehicle, subordinately initiating at least one further signal connection between at least one of the high frequency transceiver stations (3a, 3b, 3c) and the portable access device (6a; 6b), determining at least one further signal parameter of said at least one further signal connection in one of said high frequency transceiver stations (3a, 3b, 3c), said further signal parameter being of the same type as said first signal parameter, calculating a position of the portable access device (6a; 6b) on the basis of the further signal parameter and in dependence on the reference signal parameter, and enabling or disabling a function of the motor vehicle depending on the calculated position. monitoring an actuation of the sensor device and initiating at least a first signal connection (7a, 7b, 7c; 8a, 8b, 8c) between at least a first one of the high frequency transceiver stations (3a, 3b, 3c) and the portable access devices (6a; 6b) upon detection of the actuation, determining at least one first signal parameter of the at least one first signal connection in the first high frequency transceiver station, storing the at least one first signal parameter in association with the associated first high frequency transceiver station (3a, 3b, 3c) and the location of the sensor device as a reference signal parameter in a memory located in the vehicle, subordinately initiating at least one further signal connection between at least one of the high frequency transceiver stations (3a, 3b, 3c) and the portable access device (6a; 6b), determining at least one further signal parameter of said at least one further signal connection in one of said high frequency transceiver stations (3a, 3b, 3c), said further signal parameter being of the same type as said first signal parameter, calculating a position of the portable access device (6a; 6b) on the basis of the further signal parameter and in dependence on the reference signal parameter, and enabling or disabling a function of the motor vehicle depending on the calculated position.
A multispectral optical probe, comprising: a first optical bandpass filter that operates to pass Cerenkov radiation in a first range of wavelengths; a first silicon photomultiplier (SiPM) photodetector configured to receive radiation passed through the first optical bandpass filter and, in response thereto, generate a first optical response signal; a second optical bandpass filter arranged adjacent to the first optical bandpass filter and operates to pass Cerenkov radiation in a second range of wavelengths, where the first range of wavelengths differ from the second range of wavelengths; and a second silicon SiPM photodetector configured to receive radiation passed through the second optical bandpass filter and, in response thereto, generate a second optical response signal; wherein the first SiPM photodetector and the second SiPM photodetector are mounted onto a flexible substrate and the first optical bandpass filter is arranged over the top of the first SiPM photodetector and the second optical bandpass filter is arranged over the top of the second SiPM photodetector. a first optical bandpass filter that operates to pass Cerenkov radiation in a first range of wavelengths; a first silicon photomultiplier (SiPM) photodetector configured to receive radiation passed through the first optical bandpass filter and, in response thereto, generate a first optical response signal; a second optical bandpass filter arranged adjacent to the first optical bandpass filter and operates to pass Cerenkov radiation in a second range of wavelengths, where the first range of wavelengths differ from the second range of wavelengths; and a second silicon SiPM photodetector configured to receive radiation passed through the second optical bandpass filter and, in response thereto, generate a second optical response signal; wherein the first SiPM photodetector and the second SiPM photodetector are mounted onto a flexible substrate and the first optical bandpass filter is arranged over the top of the first SiPM photodetector and the second optical bandpass filter is arranged over the top of the second SiPM photodetector.
Stub for discharging drained fluids for a propulsion unit, this stub comprising a cavity for storing the drained fluids, and at least one orifice for discharging the fluids contained in the storage cavity and a member for draining the storage cavity, this member being able to move between a first position of closing the discharge orifice and a second position of releasing this orifice, characterised in that it comprises means (36, 38) for measuring a difference in pressure outside the stub, the member being configured so as to move from the first to the second position when said difference in pressure is greater than, or equal to, a predetermined value.
A method of controlling a communication link comprising: detecting, at a receiving entity, a first hole comprising one or more consecutive corrupted packets from a transmitting entity; sending a first negative acknowledgement, NAK, to the transmitting entity, the first NAK relating to the one or more consecutive corrupted packets of the first hole; and starting a first NAK prohibit timer distinctly associated with the one or more consecutive corrupted packets of the first hole, in response to the sending of the NAK, wherein the first NAK prohibit timer prevents further NAKs from being sent for the one or more consecutive corrupted packets of the first hole until the first NAK prohibit timer has expired; detecting, at the receiving entity, a second hole comprising one or more consecutive corrupted packets, from the transmitting entity, wherein the packets of the second hole are non-consecutive with the packets of the first hole; while the first NAK prohibit timer is running, sending a second NAK to the transmitting entity, the second NAK relating to the one or more consecutive corrupted packets of the second hole, and starting a second NAK prohibit timer distinctly associated with the one or more consecutive corrupted packets of the second hole, wherein the second NAK prohibit timer prevents further NAKs from being sent for the one or more consecutive corrupted packets of the second hole until the second NAK prohibit timer has expired. detecting, at a receiving entity, a first hole comprising one or more consecutive corrupted packets from a transmitting entity; sending a first negative acknowledgement, NAK, to the transmitting entity, the first NAK relating to the one or more consecutive corrupted packets of the first hole; and starting a first NAK prohibit timer distinctly associated with the one or more consecutive corrupted packets of the first hole, in response to the sending of the NAK, wherein the first NAK prohibit timer prevents further NAKs from being sent for the one or more consecutive corrupted packets of the first hole until the first NAK prohibit timer has expired; detecting, at the receiving entity, a second hole comprising one or more consecutive corrupted packets, from the transmitting entity, wherein the packets of the second hole are non-consecutive with the packets of the first hole; while the first NAK prohibit timer is running, sending a second NAK to the transmitting entity, the second NAK relating to the one or more consecutive corrupted packets of the second hole, and starting a second NAK prohibit timer distinctly associated with the one or more consecutive corrupted packets of the second hole, wherein the second NAK prohibit timer prevents further NAKs from being sent for the one or more consecutive corrupted packets of the second hole until the second NAK prohibit timer has expired.
A package comprising: a main body formed of a paper material; a top formed of the paper material; a central compartment formed by the top and the main body (302; 304); and a wrapping formed of a film comprising polylactic acid and comprising: a first layer comprising a first material having a first melting point; a second layer comprising a second material having a second melting point, the second melting point is lower than the first melting point, a first side of the second layer bonded to a first side of the first layer; a third layer comprising the second material, a first side of the third layer bonded to a second side of the first layer, the second side of the first layer opposite the first side of the first layer; and a moisture barrier coating applied to a second side of the second layer and a second side of the third layer opposite the first side of the first layer through an atomic layer deposition process, the moisture barrier coating comprising a metal-oxide and having a thickness of 2 - 10 nm. a main body formed of a paper material; a top formed of the paper material; a central compartment formed by the top and the main body (302; 304); and a wrapping formed of a film comprising polylactic acid and comprising: a first layer comprising a first material having a first melting point; a second layer comprising a second material having a second melting point, the second melting point is lower than the first melting point, a first side of the second layer bonded to a first side of the first layer; a third layer comprising the second material, a first side of the third layer bonded to a second side of the first layer, the second side of the first layer opposite the first side of the first layer; and a moisture barrier coating applied to a second side of the second layer and a second side of the third layer opposite the first side of the first layer through an atomic layer deposition process, the moisture barrier coating comprising a metal-oxide and having a thickness of 2 - 10 nm. a first layer comprising a first material having a first melting point; a second layer comprising a second material having a second melting point, the second melting point is lower than the first melting point, a first side of the second layer bonded to a first side of the first layer; a third layer comprising the second material, a first side of the third layer bonded to a second side of the first layer, the second side of the first layer opposite the first side of the first layer; and a moisture barrier coating applied to a second side of the second layer and a second side of the third layer opposite the first side of the first layer through an atomic layer deposition process, the moisture barrier coating comprising a metal-oxide and having a thickness of 2 - 10 nm.