mhurhangee/patent-ind-claim-en huggingface dataset:
Heat exchanger unit, having at least one heat exchanger module (3; 103; 203; 303; 403; 503; 603) which has at least one heat exchanger (6; 106; 206; 306; 406); 606) comprises a housing (8; 108; 408) for the passage of fluids between an internal atmosphere and an external atmosphere , in particular a cross-flow or counter-flow heat exchanger, the heat exchanger module (3; 103; 203; 303; 403; 503; 603) having a housing (8; 108; 408), and the heat exchanger (6; 106; 206; 306; 406; 606) has at least one supply air connection (111; 211; 311; 411) and at least one exhaust air connection (112; 212; 312; 412), which can be connected in particular to ducts inside the building, and at least one outgoing air connection (114; 214; 314; 614) and at least one fresh air connection ; 215; 315; 615), wherein the heat exchanger unit (2; 102; 402; 502; 602) also has at least one frame (4; 104; 404; 504; 604; 604') which can be integrated into a building envelope which can be connected, in particular detachably, to the heat exchanger module (3; 103; 203; 403; 503; 606), the housing (8; 108; 408; 608) with at least one housing wall section and/or the frame (4; 104; 404; 504; 604; 604') with at least one frame section in a region between the internal atmosphere and the external atmosphere is connected in such a way to the heat exchanger (6; 106; 206; 306; 406); 606) that, in the assembled state, the supply air connection (111; 211; 311; 411; 611) and the exhaust air connection (112; 212; 312; 412; 612) open out into the internal atmosphere , and the outgoing air connection (114; 214; 314; 614) and the fresh air connection (115; 215; 315; 615) open out into the external atmosphere , characterized in that the frame is designed in such a way that it widens the building envelope towards the outside, so that the frame integrated into the building envelope forms a bulge into the outside atmosphere, the heat exchanger unit points into the outside atmosphere, the insulation is arranged in such a way that the inside atmosphere extends into the heat exchanger module up to the heat exchanger and the heat exchanger module is accessible from the outside on the one hand and on the other hand the heat exchanger lies exactly between the outside atmosphere and the inside atmosphere or that the frame is designed in such a way that it widens the building envelope towards the interior of the building, so that the frame integrated into the building envelope forms a bulge into the interior atmosphere, leads a part of the exterior atmosphere inwards, the heat exchanger unit points inwards, the insulation is mounted such that the external atmosphere extends into the heat exchanger module up to the heat exchanger and the heat exchanger module is accessible from the inside, but at the same time the heat exchanger is located exactly between the external atmosphere and the internal atmosphere .
A closure for an undercut fitting groove of a drive rod fitting of a window, a French window or the like, with a drive rod section , with a locking pin connected to the drive rod section and with a guide unit connected to the locking pin for rear engagement of an undercut of the webs forming the fitting groove , characterized in that the guide unit has an upper plate and a lower plate , in that , in an assembly position, the upper plate is moveably held with respect to the lower plate , so that the plates are insertable into the fitting groove between the webs , and in an operating position, the upper plate is firmly connected to the lower plate , so that the plates together are wider than the undercut formed by the webs .
A screen display method, comprising: detecting (S1301) a first touch operation of a user on a first screen of an application, wherein the first touch operation is used to display a second screen of the application; displaying (S1302) the second screen at a screen refresh rate equal to a frame rate of the application in response to the first touch operation, and determining whether the second screen is a target screen, wherein the target screen is at least one preset screen in the application; when the second screen is the target screen, determining (S1303) whether a second touch operation of the user on the second screen is detected; when the second touch operation is detected, determining (S1304) whether a touch area corresponding to the second touch operation is a target area, wherein the target area is at least one preset area on the target screen; when the touch area corresponding to the second touch operation is the target area, determining (S1305) a target screen refresh rate based on the frame rate of the application, wherein the target screen refresh rate is greater than the frame rate of the application; and displaying (S1306) the second screen at the target screen refresh rate in response to the second touch operation. detecting (S1301) a first touch operation of a user on a first screen of an application, wherein the first touch operation is used to display a second screen of the application; displaying (S1302) the second screen at a screen refresh rate equal to a frame rate of the application in response to the first touch operation, and determining whether the second screen is a target screen, wherein the target screen is at least one preset screen in the application; when the second screen is the target screen, determining (S1303) whether a second touch operation of the user on the second screen is detected; when the second touch operation is detected, determining (S1304) whether a touch area corresponding to the second touch operation is a target area, wherein the target area is at least one preset area on the target screen; when the touch area corresponding to the second touch operation is the target area, determining (S1305) a target screen refresh rate based on the frame rate of the application, wherein the target screen refresh rate is greater than the frame rate of the application; and displaying (S1306) the second screen at the target screen refresh rate in response to the second touch operation.
A method for providing a superconducting device (14; 18; 20; 30; 40; 50; 60; 70; 80; 90) comprising at least one superconducting cable (10; 14; 70; 910a,b) of high temperature superconducting material, said method comprising: determining one or more regions of reduced critical current density in the superconducting device (14; 18; 20; 30; 40; 50; 60; 70; 80; 90); modifying the critical current density in the one or more regions of reduced critical current density, so as to increase the overall critical current or to decrease the overall AC losses of the superconducting device, said modifying comprising modifying the amount and/or distribution of the superconducting material in the one or more regions of reduced critical current density; wherein said method is characterized in that said modifying comprises locally varying the amount and/or distribution of the superconducting material along the length of the at least one superconducting cable (10; 14; 70; 910a,b). determining one or more regions of reduced critical current density in the superconducting device (14; 18; 20; 30; 40; 50; 60; 70; 80; 90); modifying the critical current density in the one or more regions of reduced critical current density, so as to increase the overall critical current or to decrease the overall AC losses of the superconducting device, said modifying comprising modifying the amount and/or distribution of the superconducting material in the one or more regions of reduced critical current density; wherein said method is characterized in that said modifying comprises locally varying the amount and/or distribution of the superconducting material along the length of the at least one superconducting cable (10; 14; 70; 910a,b).
A refrigerant for a cooling device having a cooling circuit comprising at least one heat exchanger in which the refrigerant undergoes a phase transition, the refrigerant being a refrigerant mixture composed of a mass fraction of carbon dioxide (CO 2 ) and a mass fraction of at least one other component, the other component being pentafluoroethane (C 2 HF 5 ) and difluoromethane (CH 2 F 2 ), characterized in that the mass fraction of carbon dioxide in the refrigerant mixture is 33 to 38 mass percent, a mass fraction of pentafluoroethane being 33.5 to 31 mass percent, and a mass fraction of difluoromethane being 33.5 to 31 mass percent.
A method for generating a conjugated immunoglobulin, the method comprising: incubating an immunoglobulin derived from rabbit with a mild reducing buffer comprising cysteine, dithiothreitol (DTT), or tris (2-carboxyethyl) phosphine (TCEP) to decap a cysteine at amino acid position 80 ("Cys80") in a light chain variable region of the immunoglobulin, the Cys80 based upon the Kabat or Chothia numbering system, wherein the immunoglobulin comprises a heavy chain variable region and the light chain variable region; and conjugating a thiol-reactive compound to the Cys80, wherein the thiol-reactive compound comprises a thiol-reactive group. incubating an immunoglobulin derived from rabbit with a mild reducing buffer comprising cysteine, dithiothreitol (DTT), or tris (2-carboxyethyl) phosphine (TCEP) to decap a cysteine at amino acid position 80 ("Cys80") in a light chain variable region of the immunoglobulin, the Cys80 based upon the Kabat or Chothia numbering system, wherein the immunoglobulin comprises a heavy chain variable region and the light chain variable region; and conjugating a thiol-reactive compound to the Cys80, wherein the thiol-reactive compound comprises a thiol-reactive group.
A computer-implemented method when executed by data processing hardware causes the data processing hardware to perform operations comprising: receiving a plurality of unlabeled student training utterances ; for each unlabeled student training utterance , generating a transcription corresponding to the respective unlabeled student training utterance using a plurality of non-streaming automated speech recognition (ASR) teacher models ; and distilling a streaming ASR student model from the plurality of non-streaming ASR teacher models by training the streaming ASR student model using the plurality of unlabeled student training utterances paired with the corresponding transcriptions generated by the plurality of non-streaming ASR teacher models . receiving a plurality of unlabeled student training utterances ; for each unlabeled student training utterance , generating a transcription corresponding to the respective unlabeled student training utterance using a plurality of non-streaming automated speech recognition (ASR) teacher models ; and distilling a streaming ASR student model from the plurality of non-streaming ASR teacher models by training the streaming ASR student model using the plurality of unlabeled student training utterances paired with the corresponding transcriptions generated by the plurality of non-streaming ASR teacher models .
A circuit for processing data, the circuit comprising: an input for receiving a request for implementing a key-value store data transaction; a plurality of memory interfaces associated with different memory types enabling access to a plurality of memory devices associated with a key-value store; a first memory device of a first type storing a first portion of a value of a store associated with the key-value store data transaction, wherein the first portion of the value comprises a portion of a data block and corresponds to an access block size of the first memory device; a second memory device of a second type storing a second portion of the value of the store associated with the key-value store data transaction, wherein the second portion of the value of the store associated with the key-value store data transaction comprises the remainder of the data block and is different than the first portion of the value of the store associated with the key-value store data transaction; and a memory management circuit controlling the routing of data by way of the plurality of memory interfaces based upon a data transfer criterion; wherein the memory management circuit is coupled between the input and the first and the second memory interface to enable accessing the first portion of the value of the store associated with the key-value store data transaction and the second portion of the value of the store associated with the key-value store data transaction. an input for receiving a request for implementing a key-value store data transaction; a plurality of memory interfaces associated with different memory types enabling access to a plurality of memory devices associated with a key-value store; a first memory device of a first type storing a first portion of a value of a store associated with the key-value store data transaction, wherein the first portion of the value comprises a portion of a data block and corresponds to an access block size of the first memory device; a second memory device of a second type storing a second portion of the value of the store associated with the key-value store data transaction, wherein the second portion of the value of the store associated with the key-value store data transaction comprises the remainder of the data block and is different than the first portion of the value of the store associated with the key-value store data transaction; and a memory management circuit controlling the routing of data by way of the plurality of memory interfaces based upon a data transfer criterion; wherein the memory management circuit is coupled between the input and the first and the second memory interface to enable accessing the first portion of the value of the store associated with the key-value store data transaction and the second portion of the value of the store associated with the key-value store data transaction.
A battery module, comprising a plurality of batteries and a framework assembly , wherein the framework assembly comprises a first partition , two second partitions , and a securing clip ; the first partition extends in a second direction (Y); each second partition extends in a first direction (X), and the two second partitions are located respectively on two sides of the first partition in the first direction (X) and form a cross-shaped structure together with the first partition ; the securing clip fits with the two second partitions and secures the two second partitions to the first partition ; and the plurality of batteries are disposed on two sides of each second partition of the framework assembly in the second direction (Y); and wherein each second partition has a second body portion and a connection portion , the connection portion is located between the first partition and the second body portion in the first direction (X), and a first cavity is formed in the connection portion ; the securing clip has a third body portion and two extension portions , each extension portion is connected to the third body portion and extends in a third direction (Z), and the two extension portions are spaced apart in the first direction (X) and form a groove together with the third body portion ; and the third body portion is located above the connection portions of the two second partitions , the two extension portions are accommodated in respective first cavities of the connection portions of the two second partitions , and the first partition passes through the groove in the second direction (Y). the first partition extends in a second direction (Y); each second partition extends in a first direction (X), and the two second partitions are located respectively on two sides of the first partition in the first direction (X) and form a cross-shaped structure together with the first partition ; the securing clip fits with the two second partitions and secures the two second partitions to the first partition ; and the plurality of batteries are disposed on two sides of each second partition of the framework assembly in the second direction (Y); and wherein each second partition has a second body portion and a connection portion , the connection portion is located between the first partition and the second body portion in the first direction (X), and a first cavity is formed in the connection portion ; the securing clip has a third body portion and two extension portions , each extension portion is connected to the third body portion and extends in a third direction (Z), and the two extension portions are spaced apart in the first direction (X) and form a groove together with the third body portion ; and the third body portion is located above the connection portions of the two second partitions , the two extension portions are accommodated in respective first cavities of the connection portions of the two second partitions , and the first partition passes through the groove in the second direction (Y).
An imaging system for industrial equipment using gamma-ray or X-ray profiling techniques and tomographic image reconstruction, comprising: (a) a radiation emission subsystem with at least one radiation source that emits radiation passing through an industrial equipment to be analyzed by imaging; (b) a radiation detection subsystem with at least one radiation detector , which detects the radiation energy emitted by the radiation emission subsystem that has passed through said industrial equipment; (c) processing and imaging means that receive and evaluate the radiation samples detected by the radiation detection subsystem and generate a tomogram of the analyzed region, the system being characterized in that processing and imaging means select the radiation samples detected with energy value within a range of values corresponding to a non-zero maximum defined scattering angle (θ) of the radiation emitted by the radiation source , and generate a tomographic reconstruction of images of the industrial equipment based on these selected radiation samples, wherein the range of energy values of the selected samples is defined as E − TH i ≤ E M ≤ E + TH s wherein E M = measured sample energy; E = characteristic energy of the radiation source; and TH i = lower energy variation limit, and TH s = upper energy variation limit. (a) a radiation emission subsystem with at least one radiation source that emits radiation passing through an industrial equipment to be analyzed by imaging; (b) a radiation detection subsystem with at least one radiation detector , which detects the radiation energy emitted by the radiation emission subsystem that has passed through said industrial equipment; (c) processing and imaging means that receive and evaluate the radiation samples detected by the radiation detection subsystem and generate a tomogram of the analyzed region, the system being characterized in that processing and imaging means select the radiation samples detected with energy value within a range of values corresponding to a non-zero maximum defined scattering angle (θ) of the radiation emitted by the radiation source , and generate a tomographic reconstruction of images of the industrial equipment based on these selected radiation samples, wherein the range of energy values of the selected samples is defined as E − TH i ≤ E M ≤ E + TH s wherein E M = measured sample energy; E = characteristic energy of the radiation source; and TH i = lower energy variation limit, and TH s = upper energy variation limit.
A method in a system in which a device has an eSIM that includes a first profile and a second profile, the device switching from attachment to a first network using the first profile to attachment to a second network using the second profile, the second network connecting to an external network over a data tunnel, the second network further connecting to a third network over the data tunnel and the second network further connecting to the external network via the data tunnel and the third network , the method comprising: extracting, at a data inspection device , information communicated over the data tunnel, the information associated with the eSIM and communicated over the data tunnel between the second network and the third network , the data inspection device positioned to inspect data as it passes to the external network ; and sending, from the data inspection device to an application server , at least a portion of the extracted information as a notification to the application server that the eSIM has switched to the second profile, wherein the second network lacks SMS capability for delivering an SMS message as the notification. extracting, at a data inspection device , information communicated over the data tunnel, the information associated with the eSIM and communicated over the data tunnel between the second network and the third network , the data inspection device positioned to inspect data as it passes to the external network ; and sending, from the data inspection device to an application server , at least a portion of the extracted information as a notification to the application server that the eSIM has switched to the second profile, wherein the second network lacks SMS capability for delivering an SMS message as the notification.
An inhibitor of IGFBP3 for use in the treatment and/or prevention of an intestinal disorder wherein said inhibitor is a fragment of TMEM219 comprising an extracellular domain of TMEM219 or a TMEM219 siRNA.
Method for operating a working vehicle-working device combination having a part system for adjusting the working vehicle-working device combination , wherein the method comprises the following steps: • determining an engine torque of an engine of a working vehicle of the working vehicle-working device combination depending on an injected quantity of fuel, • determining a first torque loss depending on an engine rotational speed and/or a cooling temperature of the engine , • determining a second torque loss depending on at least one fan torque of a fan and/or a generator torque of a generator and/or a pump torque of a pump of the working vehicle , • determining an output torque , which is an outgoing or emerging torque from a transmission of the working vehicle , on the basis of the engine torque and the first and the second torque loss and • performing a control operation on the working vehicle-working device combination and/or the part system depending on the output torque , wherein determining the output torque comprises the following steps: • subtracting the first and/or the second torque loss from the engine torque , as a result of which a transmission torque is determined, and • multiplying the transmission torque by a selected transmission ratio and dividing by a transmission efficiency value. • determining an engine torque of an engine of a working vehicle of the working vehicle-working device combination depending on an injected quantity of fuel, • determining a first torque loss depending on an engine rotational speed and/or a cooling temperature of the engine , • determining a second torque loss depending on at least one fan torque of a fan and/or a generator torque of a generator and/or a pump torque of a pump of the working vehicle , • determining an output torque , which is an outgoing or emerging torque from a transmission of the working vehicle , on the basis of the engine torque and the first and the second torque loss and • performing a control operation on the working vehicle-working device combination and/or the part system depending on the output torque , • subtracting the first and/or the second torque loss from the engine torque , as a result of which a transmission torque is determined, and • multiplying the transmission torque by a selected transmission ratio and dividing by a transmission efficiency value.