mhurhangee/ep-ind-claims huggingface dataset:
An air conditioner comprising: an outdoor unit having a compressor and discharge pressure detector for detecting a discharge pressure which is a pressure of a refrigerant discharged from the compressor; a controller and a plurality of indoor units (5a, 5b, 5c) each having an indoor heat exchanger (51a, 51b, 51c), an indoor expansion valve (52a, 52b, 52c) and liquid side temperature detector (61a, 61b, 61c) for detecting a heat exchange exit temperature which is a temperature of the refrigerant flowing out from the indoor heat exchanger (51a, 51b, 51c) when the indoor heat exchanger (51a, 51b, 51c) is functioning as a condenser, in which the outdoor unit is installed above the plurality of indoor units (5a, 5b, 5c) and there is a difference in height between installation places of the plurality of indoor units (5a, 5b, 5c), characterized in that the controller (200, 500) is configured to execute a refrigerant amount balance control to adjust degrees of opening of the indoor expansion valves (52a, 52b, 52c) so that refrigerant supercooling degrees of the indoor units (5a, 5b, 5c) become an average refrigerant supercooling degree obtained by using a maximum value and a minimum value of the refrigerant supercooling degrees or that the heat exchange exit temperatures of the indoor units (5a, 5b, 5c) become an average heat exchange exit temperature obtained by using a maximum value and a minimum value of the heat exchange exit temperatures when the air conditioner performs heating operation. an outdoor unit having a compressor and discharge pressure detector for detecting a discharge pressure which is a pressure of a refrigerant discharged from the compressor; a controller and a plurality of indoor units (5a, 5b, 5c) each having an indoor heat exchanger (51a, 51b, 51c), an indoor expansion valve (52a, 52b, 52c) and liquid side temperature detector (61a, 61b, 61c) for detecting a heat exchange exit temperature which is a temperature of the refrigerant flowing out from the indoor heat exchanger (51a, 51b, 51c) when the indoor heat exchanger (51a, 51b, 51c) is functioning as a condenser, in which the outdoor unit is installed above the plurality of indoor units (5a, 5b, 5c) and there is a difference in height between installation places of the plurality of indoor units (5a, 5b, 5c), characterized in that the controller (200, 500) is configured to execute a refrigerant amount balance control to adjust degrees of opening of the indoor expansion valves (52a, 52b, 52c) so that refrigerant supercooling degrees of the indoor units (5a, 5b, 5c) become an average refrigerant supercooling degree obtained by using a maximum value and a minimum value of the refrigerant supercooling degrees or that the heat exchange exit temperatures of the indoor units (5a, 5b, 5c) become an average heat exchange exit temperature obtained by using a maximum value and a minimum value of the heat exchange exit temperatures when the air conditioner performs heating operation.
A cluster system self-organizing method, comprising: receiving, by a node A in a cluster system, a request message sent by an external node for requesting to join the cluster system, wherein the cluster system comprises at least two nodes, the node A is one node in the cluster system, the node A and at least one another node in the cluster system mutually have a bidirectional neighbor relationship, and two nodes that have the bidirectional neighbor relationship mutually transmit information; separately determining, by the node A, whether a ratio of a space area that is allocated to the node A in the cluster system to a space area that is allocated to each bidirectional neighbor node of the node A in the cluster system meets a preset relationship, wherein when the cluster system comprises only one node, a two-dimensional coordinate system is established by using the one node as an origin, in the two-dimensional coordinate, a cluster area is allocated to the cluster system, and the entire cluster area is allocated to the one node; and when at least one external node joins the cluster system, a space area that is occupied in the cluster area by the one node is reduced, and a space area in the cluster area is respectively allocated to the at least one joined external node; and if the preset relationship is met, establishing, by the node A, the bidirectional neighbor relationship with the external node, so as to ensure that nodes are evenly distributed in the cluster system and avoid centralized distribution of nodes in the cluster system. receiving, by a node A in a cluster system, a request message sent by an external node for requesting to join the cluster system, wherein the cluster system comprises at least two nodes, the node A is one node in the cluster system, the node A and at least one another node in the cluster system mutually have a bidirectional neighbor relationship, and two nodes that have the bidirectional neighbor relationship mutually transmit information; separately determining, by the node A, whether a ratio of a space area that is allocated to the node A in the cluster system to a space area that is allocated to each bidirectional neighbor node of the node A in the cluster system meets a preset relationship, wherein when the cluster system comprises only one node, a two-dimensional coordinate system is established by using the one node as an origin, in the two-dimensional coordinate, a cluster area is allocated to the cluster system, and the entire cluster area is allocated to the one node; and when at least one external node joins the cluster system, a space area that is occupied in the cluster area by the one node is reduced, and a space area in the cluster area is respectively allocated to the at least one joined external node; and if the preset relationship is met, establishing, by the node A, the bidirectional neighbor relationship with the external node, so as to ensure that nodes are evenly distributed in the cluster system and avoid centralized distribution of nodes in the cluster system.
Method for providing an mRNA with decreased immunogenicity and/or immunostimulatory capacity coding for at least one biologically active polypeptide or protein, wherein the method comprises the steps of identifying a target mRNA wild type sequence coding for the biologically active polypeptide or protein, modifying at least 70% of the codons of the wild type sequence which are cytidine content optimizable by increasing the cytidine-content of the mRNA such that the cytidine-content of the coding region of the modified mRNA is larger than the cytidine-content of the coding region of the wild type mRNA, whereby the encoded amino acid sequence is unchanged compared to the wild type sequence, optionally modifying at least 70% of the codons for amino acids which are not eligible for C-optimization, but are guanosine-content optimizable by increasing the guanosine-content, and synthesis of the modified target mRNA, wherein the synthesis comprises a step of chemical synthesis or in vitro transcription, wherein the modified target mRNA of lower immunogenicity and/or immunostimulatory capacity is selected from the modified target mRNAs obtainable by the method. identifying a target mRNA wild type sequence coding for the biologically active polypeptide or protein, modifying at least 70% of the codons of the wild type sequence which are cytidine content optimizable by increasing the cytidine-content of the mRNA such that the cytidine-content of the coding region of the modified mRNA is larger than the cytidine-content of the coding region of the wild type mRNA, whereby the encoded amino acid sequence is unchanged compared to the wild type sequence, optionally modifying at least 70% of the codons for amino acids which are not eligible for C-optimization, but are guanosine-content optimizable by increasing the guanosine-content, and synthesis of the modified target mRNA, wherein the synthesis comprises a step of chemical synthesis or in vitro transcription,
A first radio network node for assisting application adjustment, configured to: receive a request for an in-advance quality of service prediction notification, IQN, from an IQN recipient; determine whether or not there exists a corresponding potential quality of service change notification, PQCN, subscription matching a location, a required quality of service, QoS, and at least one of: configuration information or subscription information associated with the IQN recipient; wherein if no corresponding PQCN subscription exists, make the corresponding PQCN subscription and send to a second radio network node a request for the corresponding PQCN subscription, wherein the request for the corresponding PQCN subscription comprises a first threshold and at least one of: configuration information or subscription information associated with the IQN recipient; and map the request for the IQN to the corresponding PQCN subscription, based on the location, the required QoS and at least one of: the configuration information associated with the IQN recipient or the subscription information associated with the IQN recipient; receive the PQCN from the second radio network node; associate the PQCN with the IQN recipient; wherein the association is based on the mapping between the request for the IQN from the IQN recipient and the corresponding PQCN subscription; and send an IQN to the IQN recipient for assisting the application adjustment. receive a request for an in-advance quality of service prediction notification, IQN, from an IQN recipient; determine whether or not there exists a corresponding potential quality of service change notification, PQCN, subscription matching a location, a required quality of service, QoS, and at least one of: configuration information or subscription information associated with the IQN recipient; wherein if no corresponding PQCN subscription exists, make the corresponding PQCN subscription and send to a second radio network node a request for the corresponding PQCN subscription, wherein the request for the corresponding PQCN subscription comprises a first threshold and at least one of: configuration information or subscription information associated with the IQN recipient; and map the request for the IQN to the corresponding PQCN subscription, based on the location, the required QoS and at least one of: the configuration information associated with the IQN recipient or the subscription information associated with the IQN recipient; receive the PQCN from the second radio network node; associate the PQCN with the IQN recipient; wherein the association is based on the mapping between the request for the IQN from the IQN recipient and the corresponding PQCN subscription; and send an IQN to the IQN recipient for assisting the application adjustment.
A process for producing a 2-alkyl-2-cycloalken-1-one represented by the following general formula, comprising the step of subjecting a 2-(1-hydroxyalkyl)cycloalkan-1-one represented by the following general formula to dehydration and isomerization in the co-existence of an acid and a platinum group metal catalyst: wherein n is an integer of 1 or 2; and R 1 and R 2 are each independently a hydrogen atom or an alkyl group having 1 to 8 carbon atoms with the proviso that R 1 and R 2 may form a cyclopentane ring or a cyclohexane ring through a carbon atom adjacent thereto; and wherein n, R 1 and R 2 are the same as defined above.
A system for monitoring the operating conditions of a rail vehicle, including an onboard device onboard said rail vehicle, incorporating a geolocation device, a plurality of sensors chosen for their relevance to measure an instantaneous operating condition of a monitored component of said rail vehicle, and at least one module shaping the raw measurement signals delivered by one or more of said sensors to generate at least one formatted signal corresponding to said instantaneous operating state of said monitored component, and a ground device, incorporating a computer analyzing said at least one formatted signal, to generate at least one indicator relative to the monitored component, said indicator making it possible to detect damages and follow variations of said damages so as to optimize a maintenance step of the monitored component, where the computer includes a damage module (24.4) capable, form said at least one formatted signal and a fatigue model of said monitored component, of computing said indicator from said, characterized in that the ground device includes a module (24.1) for the real-time reduction of the data flow using an occurrence matrix that makes it possible, for each formatted signal type, to account for the different forms of the formatted signal based on its amplitude, said occurrence matrix taking said at least one formatted signal as input, the damage module (24.4) using said matrix as input, and in that the occurrence matrix is a square matrix with N columns Ci, wherein a column Ci corresponds to a particular formatted signal, each element mi,j of the column Ci being associated with an interval of maximum amplitude (dj) of the corresponding formatted signal, and wherein the value of the element mi,j is equal to the number of occurrences of the formatted signal associated with the column Ci whose maximum amplitude is situated in the interval (dj).
A method for projecting an image on a screen (202, 402), the method comprising: processing (104, 413, 416, 418) an X bit high-dynamic range video signal (102, 414) using an image processing device (212, 412) executing a local dimming algorithm that performs bit separation and scaling (106, 108, 416, 418) to convert the high dynamic range video signal (102, 414) into a binary weighted digital byte to derive a separate Y bit Least-Significant-Bit component (304, 422) comprising consecutive bits of high spatial frequency/low brightness including the least-significant-bit of the X-bit high-dynamic range video signal and an N bit Most-Significant-Bit component (302, 424) comprising consecutive bits of low spatial frequency/high brightness including the most-significant-bit of the X-bit high-dynamic range video signal that are scaled with a brightness weighting, wherein X, Y and N are integers; characterized in that X > N + Y; and in that the method further comprises: projecting (110, 430) the LSB component (304, 422) of the image onto a front of the screen (202, 404) with a standard dynamic range projector; and projecting (112, 432) the MSB component (302, 424) of the image onto a back of the screen (202, 402) using a high intensity light source (210, 410). processing (104, 413, 416, 418) an X bit high-dynamic range video signal (102, 414) using an image processing device (212, 412) executing a local dimming algorithm that performs bit separation and scaling (106, 108, 416, 418) to convert the high dynamic range video signal (102, 414) into a binary weighted digital byte to derive a separate Y bit Least-Significant-Bit component (304, 422) comprising consecutive bits of high spatial frequency/low brightness including the least-significant-bit of the X-bit high-dynamic range video signal and an N bit Most-Significant-Bit component (302, 424) comprising consecutive bits of low spatial frequency/high brightness including the most-significant-bit of the X-bit high-dynamic range video signal that are scaled with a brightness weighting, wherein X, Y and N are integers; characterized in that X > N + Y; and in that the method further comprises: projecting (110, 430) the LSB component (304, 422) of the image onto a front of the screen (202, 404) with a standard dynamic range projector; and projecting (112, 432) the MSB component (302, 424) of the image onto a back of the screen (202, 402) using a high intensity light source (210, 410). projecting (110, 430) the LSB component (304, 422) of the image onto a front of the screen (202, 404) with a standard dynamic range projector; and projecting (112, 432) the MSB component (302, 424) of the image onto a back of the screen (202, 402) using a high intensity light source (210, 410).
A method (800, 900) for preventing a bid-down attack on a system with a strong security protocol with perfect forward secrecy property, the method comprising: receiving (802, 902) an attach request from a user equipment; sending (804, 904) an authentication request to a home network, wherein the authentication request includes an indication that a network supports the strong security protocol; receiving (808, 906) an integrity protected token from the home network, wherein the integrity protected token includes at least one bit configured to indicate that the network supports the strong security protocol, and wherein the integrity protected token is included in an authentication vector; and sending (810, 908) the integrity protected token to the user equipment. receiving (802, 902) an attach request from a user equipment; sending (804, 904) an authentication request to a home network, wherein the authentication request includes an indication that a network supports the strong security protocol; receiving (808, 906) an integrity protected token from the home network, wherein the integrity protected token includes at least one bit configured to indicate that the network supports the strong security protocol, and wherein the integrity protected token is included in an authentication vector; and sending (810, 908) the integrity protected token to the user equipment.
A method for acquiring a network resource, comprising: receiving (S401'-a), by a terminal device, first information from a first network device, wherein the first information comprises action indication information and statistical information, the action indication information is used for requesting a communication resource from a second network device after the terminal device lowers a resource request level or is used for acquiring a communication resource by the terminal device through retries when a communication resource request fails, and the statistical information is at least used for representing one or more of the following: a status of receiving and processing a communication resource request by the second network device within a preset time period, and a status of a network failure of the second network device within the preset time period; sending (S701-a), by the terminal device, a first communication resource request to the second network device according to a first action indicated by the action indication information, wherein the first communication resource request is used for acquiring a first communication resource; wherein the first action indicated by the action indication information comprises sending the first communication resource request to the second network device after one or more of the following operations are performed: lowering a capability of the terminal device, turning off one or more functions of the terminal device, changing a cell, changing an access technology or changing a parameter of the communication resource request. receiving (S401'-a), by a terminal device, first information from a first network device, wherein the first information comprises action indication information and statistical information, the action indication information is used for requesting a communication resource from a second network device after the terminal device lowers a resource request level or is used for acquiring a communication resource by the terminal device through retries when a communication resource request fails, and the statistical information is at least used for representing one or more of the following: a status of receiving and processing a communication resource request by the second network device within a preset time period, and a status of a network failure of the second network device within the preset time period; sending (S701-a), by the terminal device, a first communication resource request to the second network device according to a first action indicated by the action indication information, wherein the first communication resource request is used for acquiring a first communication resource; wherein the first action indicated by the action indication information comprises sending the first communication resource request to the second network device after one or more of the following operations are performed: lowering a capability of the terminal device, turning off one or more functions of the terminal device, changing a cell, changing an access technology or changing a parameter of the communication resource request.
Closing plug for a beverage container, comprising: - an outer part including an annular flange which extends in a sleeve which is circumferentially deformed below the annular flange to obtain a bulge, - a spreader ring including an annular flange starting from which a plurality of L-shaped elements extend in downward direction, said L-shaped elements being spaced apart from each other and having a pivot point at the angle of the "L", and the freed ends of said L-shaped elements being designed as hooks, - a bushing, - a rotary cover which includes a cover plate starting from which a sleeve extends in downward direction in such a manner that it is offset in a radially inward direction, wherein when the closing plug is in an arrangement of non-use, the spreader ring is prepositioned in the outer part, the bushing partially projects into the spreader ring, the rotary cover is prepositioned in the bushing, and the hooks are arranged in a radially inward direction, and wherein a closing arrangement can be provided by the rotary cover, in which the rotary cover, the spreader ring and the bushing are received by the outer part to such an extent that the hooks of the spreader ring are turned outwards and engage the bulge, whereby a circumferential projection that is formed by the bulge is provided such that it is pressed in the direction towards a bottom side of the annular flange. - an outer part including an annular flange which extends in a sleeve which is circumferentially deformed below the annular flange to obtain a bulge, - a spreader ring including an annular flange starting from which a plurality of L-shaped elements extend in downward direction, said L-shaped elements being spaced apart from each other and having a pivot point at the angle of the "L", and the freed ends of said L-shaped elements being designed as hooks, - a bushing, - a rotary cover which includes a cover plate starting from which a sleeve extends in downward direction in such a manner that it is offset in a radially inward direction,
A quantum circuit, comprising: a network of a plurality of sub-circuits (210a, 210b,... 210n) coupled in parallel, wherein each sub-circuit includes a plurality of non-linear circuit elements coupled in series, wherein the quantum circuit is configured to receive an input, across the plurality of sub-circuits, the input comprising: a signal to be amplified; and a plurality of pump signal components, each pump signal component parametrically adjusting a gain of at least one of the non-linear circuit element in such manner that the quantum circuit acts as an amplifier. a network of a plurality of sub-circuits (210a, 210b,... 210n) coupled in parallel, wherein each sub-circuit includes a plurality of non-linear circuit elements coupled in series, wherein the quantum circuit is configured to receive an input, across the plurality of sub-circuits, the input comprising: a signal to be amplified; and a plurality of pump signal components, each pump signal component parametrically adjusting a gain of at least one of the non-linear circuit element in such manner that the quantum circuit acts as an amplifier. a signal to be amplified; and a plurality of pump signal components, each pump signal component parametrically adjusting a gain of at least one of the non-linear circuit element in such manner that the quantum circuit acts as an amplifier.