mhurhangee/ep-ind-claims huggingface dataset:
A method for terminal (14, 100) requested base station controlled terminal transmission throttling, the method comprising: determining whether terminal power consumption is to be reduced; when the terminal power consumption is to be reduced, transmitting a throttling request signal to the base station, the throttling request signal including data indicating to the base station to issue a discontinuous uplink transmission grant to the terminal (14, 100), wherein the throttling request signal includes data representing a maximum duty cycle of the forthcoming discontinuous uplink transmission from the terminals to the base station; receiving from the base station the discontinuous uplink transmission grant; and transmitting discontinuous uplink transmissions from the terminals (14, 100) to the base station that do not exceed the maximum duty cycle, wherein the maximum duty cycle corresponds to discontinuous uplink transmission bursts of less than a time t corresponding to a continuous uplink transmission. determining whether terminal power consumption is to be reduced; when the terminal power consumption is to be reduced, transmitting a throttling request signal to the base station, the throttling request signal including data indicating to the base station to issue a discontinuous uplink transmission grant to the terminal (14, 100), wherein the throttling request signal includes data representing a maximum duty cycle of the forthcoming discontinuous uplink transmission from the terminals to the base station; receiving from the base station the discontinuous uplink transmission grant; and transmitting discontinuous uplink transmissions from the terminals (14, 100) to the base station that do not exceed the maximum duty cycle, wherein the maximum duty cycle corresponds to discontinuous uplink transmission bursts of less than a time t corresponding to a continuous uplink transmission.
A phased array antenna system for a mobile platform, comprising: an antenna enclosure adapted to be mounted on the mobile platform; a phased array transmit antenna mounted within the antenna enclosure; and a phased array receive antenna mounted within the antenna enclosure and adjacent the transmit antenna the phased array antenna system further comprising: spaced apart partition walls within the enclosure defining a space between the transmit antenna and the receive antenna, the partition walls being formed of a material providing an RF barrier; and an electrical power supply within the enclosure and located in the space between the partition walls; wherein the enclosure includes an integral transmit aperture plate, and an integral receive aperture plate; and wherein the enclosure includes an outer face having set of grooves between the transmit aperture plate and the receive aperture plate providing RF isolation of the receive antenna from the transmit antenna. an antenna enclosure adapted to be mounted on the mobile platform; a phased array transmit antenna mounted within the antenna enclosure; and a phased array receive antenna mounted within the antenna enclosure and adjacent the transmit antenna the phased array antenna system further comprising: spaced apart partition walls within the enclosure defining a space between the transmit antenna and the receive antenna, the partition walls being formed of a material providing an RF barrier; and an electrical power supply within the enclosure and located in the space between the partition walls; wherein the enclosure includes an integral transmit aperture plate, and an integral receive aperture plate; and wherein the enclosure includes an outer face having set of grooves between the transmit aperture plate and the receive aperture plate providing RF isolation of the receive antenna from the transmit antenna. spaced apart partition walls within the enclosure defining a space between the transmit antenna and the receive antenna, the partition walls being formed of a material providing an RF barrier; and an electrical power supply within the enclosure and located in the space between the partition walls; wherein the enclosure includes an integral transmit aperture plate, and an integral receive aperture plate; and wherein the enclosure includes an outer face having set of grooves between the transmit aperture plate and the receive aperture plate providing RF isolation of the receive antenna from the transmit antenna.
Sanitary installation part, having a functional unit and having a diffuser formed downstream of the functional unit, wherein the functional unit forms at least one inlet opening (5, 5') to a diffuser space, wherein the diffuser has a baffle plate which delimits the diffuser space in an incident-flow direction predefined by the at least one inlet opening (5, 5'), which baffle plate diverts water flowing in through the at least one inlet opening (5, 5') in a lateral direction, wherein the diffuser space is formed between the baffle plate and the functional unit and has an outlet opening through which water entering through the at least one inlet opening (5, 5') emerges in its entirety from the diffuser space, characterized in that an opening cross section of the outlet opening has an area which amounts to 0.9 times to 2 times, preferably 1 times to 1.7 times, an area of an opening cross section of the at least one inlet opening (5, 5').
A variable capacitor bank (112,114; 800) comprising: a conductive housing (306; 802) defining an interior volume: an electrical bus (303; 806) comprising a first portion disposed within the conductive housing and a second portion extending through the conductive housing such that the second portion of the bus and the conductive housing form a port (320; 850); and a switched capacitor (302A-302N; 804A-804F) disposed within the conductive housing and electrically coupled to the first portion of the electrical bus. an electrical bus (303; 806) comprising a first portion disposed within the conductive housing and a second portion extending through the conductive housing such that the second portion of the bus and the conductive housing form a port (320; 850); and a switched capacitor (302A-302N; 804A-804F) disposed within the conductive housing and electrically coupled to the first portion of the electrical bus.
Apparatus for closing receptacles, comprising: an application unit of closures configured to place and press a concave closure onto the mouth of each receptacle, said application unit for applying the closures comprising an isolator adapted to define a controlled contamination and sterile environment containing at least the neck of the receptacles; a non-aseptic capper for tightening the closures in a non-sterile environment which is external to the controlled contamination environment, characterised in that said capper is configured to screw each concave and internally threaded closure to the neck of the corresponding receptacle, and said controlled contamination environment has a volume that extends into a narrow zone around the neck of the receptacles. an application unit of closures configured to place and press a concave closure onto the mouth of each receptacle, said application unit for applying the closures comprising an isolator adapted to define a controlled contamination and sterile environment containing at least the neck of the receptacles; a non-aseptic capper for tightening the closures in a non-sterile environment which is external to the controlled contamination environment, characterised in that said capper is configured to screw each concave and internally threaded closure to the neck of the corresponding receptacle, and said controlled contamination environment has a volume that extends into a narrow zone around the neck of the receptacles.
A computer-implemented method for determining a transportation direction for a user, the method comprising: receiving a current location of the user; receiving a pollution based input value related to air pollution in a geographical area including the current location; and determining the transportation direction using the pollution based input value such that the user is subjected to a lowest level of pollution and/or such that a predefined maximum level of pollution to which the user is subjected is not exceeded; retrieving a human activity based input value, wherein the human activity based input value is based on activity data from a portable device configured to sense an activity level of the human wearing the portable device, wherein the activity data is derived from the sensed activity level; and characterized in that the method further comprises updating the transportation direction using the human activity based input value (HAIV). receiving a current location of the user; receiving a pollution based input value related to air pollution in a geographical area including the current location; and determining the transportation direction using the pollution based input value such that the user is subjected to a lowest level of pollution and/or such that a predefined maximum level of pollution to which the user is subjected is not exceeded; retrieving a human activity based input value, wherein the human activity based input value is based on activity data from a portable device configured to sense an activity level of the human wearing the portable device, wherein the activity data is derived from the sensed activity level; and characterized in that the method further comprises updating the transportation direction using the human activity based input value (HAIV).
An interconnecting converter system for interconnecting renewable energy sources with a DC distribution bus being at least at medium voltage level, wherein the interconnecting converter system comprises a converter unit for interconnecting a renewable energy source with the DC distribution bus; wherein the converter unit comprises: an isolated DC-to-DC converter connectable to the renewable energy source; and a non-isolated DC-to-DC converter connectable to the DC distribution bus, which is cascade connected with the isolated DC-to-DC converter, wherein the non-isolated converter is a buck, boost or buck/boost converter; wherein the interconnecting converter system comprises a controller adapted for: controlling the isolated DC-to-DC converter in open loop; and controlling a power flow of the converter unit with the non-isolated DC-to-DC converter. wherein the interconnecting converter system comprises a converter unit for interconnecting a renewable energy source with the DC distribution bus; wherein the converter unit comprises: an isolated DC-to-DC converter connectable to the renewable energy source; and a non-isolated DC-to-DC converter connectable to the DC distribution bus, which is cascade connected with the isolated DC-to-DC converter, wherein the non-isolated converter is a buck, boost or buck/boost converter; an isolated DC-to-DC converter connectable to the renewable energy source; and a non-isolated DC-to-DC converter connectable to the DC distribution bus, which is cascade connected with the isolated DC-to-DC converter, wherein the non-isolated converter is a buck, boost or buck/boost converter; wherein the interconnecting converter system comprises a controller adapted for: controlling the isolated DC-to-DC converter in open loop; and controlling a power flow of the converter unit with the non-isolated DC-to-DC converter. controlling the isolated DC-to-DC converter in open loop; and controlling a power flow of the converter unit with the non-isolated DC-to-DC converter.
An electronic device, comprising: a rotating input device; a display; and a processor configured to: display, via the display, a screen for an application, the screen including one or more objects for executing a function regarding the application, detect a rotational interaction from the rotating input device, determine a first object among the one or more objects based on a rotation direction of the interaction, display, via the display, a visual effect surrounding the first object, while detecting the interaction in the rotation direction, gradually enlarge the visual effect according to the angle of rotation, and based on identifying that the visual effect that is gradually enlarged reaches a reference level, execute a function corresponding to the first object, wherein the rotating input device is formed on a bezel part that encloses an edge of the display. a rotating input device; a display; and a processor configured to: display, via the display, a screen for an application, the screen including one or more objects for executing a function regarding the application, detect a rotational interaction from the rotating input device, determine a first object among the one or more objects based on a rotation direction of the interaction, display, via the display, a visual effect surrounding the first object, while detecting the interaction in the rotation direction, gradually enlarge the visual effect according to the angle of rotation, and based on identifying that the visual effect that is gradually enlarged reaches a reference level, execute a function corresponding to the first object, wherein the rotating input device is formed on a bezel part that encloses an edge of the display. display, via the display, a screen for an application, the screen including one or more objects for executing a function regarding the application, detect a rotational interaction from the rotating input device, determine a first object among the one or more objects based on a rotation direction of the interaction, display, via the display, a visual effect surrounding the first object, while detecting the interaction in the rotation direction, gradually enlarge the visual effect according to the angle of rotation, and based on identifying that the visual effect that is gradually enlarged reaches a reference level, execute a function corresponding to the first object, wherein the rotating input device is formed on a bezel part that encloses an edge of the display.
Profile for window or door frames, consisting of a multi-chambered, extruded hollow profile (1, 10) made of thermoplastic plastics and a reinforcement (2, 6, 7, 14, 15) composed of at least one plastics strip which is at least locally connected to the hollow profile, characterised in that the reinforcement (2, 6, 7, 14, 15) is arranged so as to be substantially free-standing in the hollow profile, the reinforcement (2, 6, 7, 14, 15), in the installed state of the frame, is installed in a vertical or inclined position in the hollow profile, to form an interlocking connection with the hollow profile (1, 10) effective in the plane of the frame, the reinforcement (2, 6, 7, 14, 15) itself has profiling in the form of shaped portions, such as strips or the like, which project in the transverse direction of the reinforcement, and the interlocking connection between the reinforcement (2, 6, 7, 14, 15) and the hollow profile (1, 10) is formed by the profiling of the reinforcement.
A container production method by liquid blow molding in which a pressurized liquid is supplied into a resin preform to mold the preform into a container of a shape conforming to an inner surface of a cavity of a blow molding mold, wherein the used blow molding mold has a body mold portion (11 a) that forms a part of the inner surface of the cavity and a movable mold portion that forms another part of the inner surface of the cavity, the method comprising: an expansion and deformation step in which a pressurized liquid is supplied into the preform disposed in the body mold portion to expand and deform the preform; the method further comprising a pushing step in which the movable mold portion is moved relative to the body mold portion toward the expanded and deformed preform so that the preform is pushed by the movable mold portion, the method being characterized in that in the pushing step in which the movable mold portion is moved relative to the body mold portion toward the expanded and deformed preform so that the preform is pushed by the movable mold portion, the liquid is collected from inside of the preform at the timing at which a pressure inside of the preform starts rising by the movable mold portion's push so that the rise in the pressure is suppressed or prevented. an expansion and deformation step in which a pressurized liquid is supplied into the preform disposed in the body mold portion to expand and deform the preform; the method further comprising a pushing step in which the movable mold portion is moved relative to the body mold portion toward the expanded and deformed preform so that the preform is pushed by the movable mold portion, the method being characterized in that in the pushing step in which the movable mold portion is moved relative to the body mold portion toward the expanded and deformed preform so that the preform is pushed by the movable mold portion, the liquid is collected from inside of the preform at the timing at which a pressure inside of the preform starts rising by the movable mold portion's push so that the rise in the pressure is suppressed or prevented.
A polar encoding and rate matching method, comprising: determining one or more to-be-deleted rows of a generator matrix, wherein the generator matrix is determined based on a preset mother code length, so that in each of the one or more to-be-deleted rows, the columns including a 1 in the to-be-deleted row comprise at least one column with a column weight being 1; deleting, from the one or more to-be-deleted rows, a row corresponding to a polarized channel with lowest reliability, and deleting, from a column in which 1 in the row is located, a column with a column weight being 1, to obtain an after-deletion generator matrix; using the after-deletion generator matrix as a generator matrix to repeat the foregoing steps, until an order of a final generator matrix is equal to a target code length; and performing encoding and rate matching on a to-be-encoded bit based on the final generator matrix; wherein in at least one of the performed determining one or more to-be-deleted rows of a generator matrix steps at least two to-be-deleted rows are determined. determining one or more to-be-deleted rows of a generator matrix, wherein the generator matrix is determined based on a preset mother code length, so that in each of the one or more to-be-deleted rows, the columns including a 1 in the to-be-deleted row comprise at least one column with a column weight being 1; deleting, from the one or more to-be-deleted rows, a row corresponding to a polarized channel with lowest reliability, and deleting, from a column in which 1 in the row is located, a column with a column weight being 1, to obtain an after-deletion generator matrix; using the after-deletion generator matrix as a generator matrix to repeat the foregoing steps, until an order of a final generator matrix is equal to a target code length; and performing encoding and rate matching on a to-be-encoded bit based on the final generator matrix; wherein in at least one of the performed determining one or more to-be-deleted rows of a generator matrix steps at least two to-be-deleted rows are determined.
A compound having the formula I: or a pharmaceutically acceptable salt thereof, wherein A is a carbocycle, or the moiety A-(R 7) n (R 8) represents n is 0, 1, 2 or 3; p and q are independently selected from 1, 2 and 3; R 1 is C 1-4 alkyl, C 1-4 fluoroalkyl, C 3-6 cycloalkyl or C 1-4 alkoxy; R2 is H or halogen; R 3 is H, halogen, C 1-4 alkyl, C 1-4 haloalkyl, C 3-6 cycloalkyl or C 1-4 hydroxyalkyl; R4 is H or halogen; R5 is OH; R 6 is H, C 1-4 alkyl, C 1-4 haloalkyl, C 3-6 cycloalkyl or C 1-4 hydroxyalkyl; R 7 is selected from OH and C 1-4 alkyl; R 8 is selected from (CR a R b) n CO 2 R c, CONR d R e, tetrazolyl, OH, CH 2 OH, oxo, CN, NHCO 2 R f and NHSO 2 R f; with the proviso that R 8 and -C(R 5)(R 6)- are not attached to the same ring carbon atom; R a and R b are each independently selected from H and methyl; R c is H or C 1-4 alkyl, R d and R e are each independently selected from H and C 1-4 alkyl; and R f is C 1-4 alkyl or benzyl. A is a carbocycle, or the moiety A-(R 7) n (R 8) represents n is 0, 1, 2 or 3; p and q are independently selected from 1, 2 and 3; R 1 is C 1-4 alkyl, C 1-4 fluoroalkyl, C 3-6 cycloalkyl or C 1-4 alkoxy; R2 is H or halogen; R 3 is H, halogen, C 1-4 alkyl, C 1-4 haloalkyl, C 3-6 cycloalkyl or C 1-4 hydroxyalkyl; R4 is H or halogen; R5 is OH; R 6 is H, C 1-4 alkyl, C 1-4 haloalkyl, C 3-6 cycloalkyl or C 1-4 hydroxyalkyl; R 7 is selected from OH and C 1-4 alkyl; R 8 is selected from (CR a R b) n CO 2 R c, CONR d R e, tetrazolyl, OH, CH 2 OH, oxo, CN, NHCO 2 R f and NHSO 2 R f; with the proviso that R 8 and -C(R 5)(R 6)- are not attached to the same ring carbon atom; R a and R b are each independently selected from H and methyl; R c is H or C 1-4 alkyl, R d and R e are each independently selected from H and C 1-4 alkyl; and R f is C 1-4 alkyl or benzyl.
A cutting method to be carried out in the course of a series production of cell composites of batteries for singulating electrode pieces from a web-like electrode substrate using cutting means, so as to obtain electrode pieces with a flat active material and a lateral arrester tab, comprising the steps of: a) providing the web-like electrode substrate, which has an active material region and an arrester strip on at least one side of the active material region, by conveying the web-like electrode substrate to the cutting means; b) cutting at least one arrester tab free from the arrester strip, a portion of unneeded material of the arrester strip being produced before and/or after the arrester tab in the conveying direction, characterized by c) singulating the electrode piece provided with the arrester tab cut free by cutting through the electrode substrate inclusive of the active material and also portion cut out in step b), so that portion, by being cut through, is reduced in size and decomposed into several portion parts, and d) removing the portion parts from the cutting means. a) providing the web-like electrode substrate, which has an active material region and an arrester strip on at least one side of the active material region, by conveying the web-like electrode substrate to the cutting means; b) cutting at least one arrester tab free from the arrester strip, a portion of unneeded material of the arrester strip being produced before and/or after the arrester tab in the conveying direction, characterized by c) singulating the electrode piece provided with the arrester tab cut free by cutting through the electrode substrate inclusive of the active material and also portion cut out in step b), so that portion, by being cut through, is reduced in size and decomposed into several portion parts, and d) removing the portion parts from the cutting means.