mhurhangee/ep-ind-claims huggingface dataset:
A method for measuring a channel between a first base station (10, eNB 1) and a second base station (10, eNB 2) by the first base station in an LTE wireless communication system, the method comprising: receiving, in a subframe, a reference signal from the second base station; and measuring the channel between the first base station and the second base station based on the reference signal, wherein, when a user equipment belonging to the first base station transmits an uplink signal in the subframe and the second base station does not transmit a signal except for the reference signal in the subframe, the reference signal is an uplink reference signal, and wherein, when the user equipment belonging to the first base station does not transmit an uplink signal in the subframe and the second base station transmits a signal other than the reference signal to a user equipment belonging to the second base station in the subframe, the reference signal is a downlink reference signal. receiving, in a subframe, a reference signal from the second base station; and measuring the channel between the first base station and the second base station based on the reference signal, wherein, when a user equipment belonging to the first base station transmits an uplink signal in the subframe and the second base station does not transmit a signal except for the reference signal in the subframe, the reference signal is an uplink reference signal, and wherein, when the user equipment belonging to the first base station does not transmit an uplink signal in the subframe and the second base station transmits a signal other than the reference signal to a user equipment belonging to the second base station in the subframe, the reference signal is a downlink reference signal.
A jug and lid for juicer, comprising: a jug having a cylindrical upper portion having an upper rim; and a lid having a generally cylindrical body portion that fits within the upper portion; characterized in that the cylindrical upper portion has a pouring spout; the cylindrical upper portion has, in addition to the pouring spout, a first opening for receiving a discharge spout of a juicer; the cylindrical body portion has a vertical pouring channel and a second opening that may be aligned with the first opening; the cylindrical body portion of the lid has a stepped circumferential seal, said lid being configured to rotate between a sealing orientation wherein said stepped circumferential seal isolates both the pouring spout and the first opening and a filling orientation wherein the pouring spout is open and the first and second openings (86, 78) are aligned in a filling and pouring orientation. a jug having a cylindrical upper portion having an upper rim; and a lid having a generally cylindrical body portion that fits within the upper portion; characterized in that the cylindrical upper portion has a pouring spout; the cylindrical upper portion has, in addition to the pouring spout, a first opening for receiving a discharge spout of a juicer; the cylindrical body portion has a vertical pouring channel and a second opening that may be aligned with the first opening; the cylindrical body portion of the lid has a stepped circumferential seal, said lid being configured to rotate between a sealing orientation wherein said stepped circumferential seal isolates both the pouring spout and the first opening and a filling orientation wherein the pouring spout is open and the first and second openings (86, 78) are aligned in a filling and pouring orientation.
A method, comprising: measuring channel state information on a downlink from a base station; identifying a selected beam group out of a set of beam groups according to a wideband property of said channel state information, wherein a characteristic of said set of beam groups depends on a transmission rank; and identifying a selected subset of beams in said selected beam group according to at least one subband, wherein a number of beams in said selected subset of beams is equal to said transmission rank; wherein an angular range from a direction of maximum array gain of a first beam to a direction of maximum array gain of a last beam in said selected beam group overlaps in angular domain with an angular range from a direction of maximum array gain of a first beam to a direction of maximum array gain of a last beam in an adjacent beam group. measuring channel state information on a downlink from a base station; identifying a selected beam group out of a set of beam groups according to a wideband property of said channel state information, wherein a characteristic of said set of beam groups depends on a transmission rank; and identifying a selected subset of beams in said selected beam group according to at least one subband, wherein a number of beams in said selected subset of beams is equal to said transmission rank; wherein an angular range from a direction of maximum array gain of a first beam to a direction of maximum array gain of a last beam in said selected beam group overlaps in angular domain with an angular range from a direction of maximum array gain of a first beam to a direction of maximum array gain of a last beam in an adjacent beam group.
A method for determining the quantity of soot particles of the lubricating oil for a diesel engine, said method including the following steps: - breakdown of a duration of operation of the engine into groups, each group including the same limited number of successive time intervals, • for each interval of a given group, acquisition of at least one parameter (R, C) representative of the operating conditions of the engine, • calculation of a mean value of said at least one parameter (R, C) for the given group according to said at least one parameter (R, C) recorded for each of the intervals of said group, • determining of a quantity of soot particles introduced into the lubricating oil of the engine for the given group according to at least one preestablished mapping (Mc, Cs), establishing the quantity of soot introduced into the oil according to said mean value, • totalling of the quantities of soot particles corresponding to the given group and to the groups preceding it so as to determine a total quantity (Ms) of soot particles evaluated during the operation of the corresponding engine. - breakdown of a duration of operation of the engine into groups, each group including the same limited number of successive time intervals, • for each interval of a given group, acquisition of at least one parameter (R, C) representative of the operating conditions of the engine, • calculation of a mean value of said at least one parameter (R, C) for the given group according to said at least one parameter (R, C) recorded for each of the intervals of said group, • determining of a quantity of soot particles introduced into the lubricating oil of the engine for the given group according to at least one preestablished mapping (Mc, Cs), establishing the quantity of soot introduced into the oil according to said mean value, • totalling of the quantities of soot particles corresponding to the given group and to the groups preceding it so as to determine a total quantity (Ms) of soot particles evaluated during the operation of the corresponding engine. • for each interval of a given group, acquisition of at least one parameter (R, C) representative of the operating conditions of the engine, • calculation of a mean value of said at least one parameter (R, C) for the given group according to said at least one parameter (R, C) recorded for each of the intervals of said group, • determining of a quantity of soot particles introduced into the lubricating oil of the engine for the given group according to at least one preestablished mapping (Mc, Cs), establishing the quantity of soot introduced into the oil according to said mean value, • totalling of the quantities of soot particles corresponding to the given group and to the groups preceding it so as to determine a total quantity (Ms) of soot particles evaluated during the operation of the corresponding engine.
An ambient light detection method, applied to a terminal, wherein the terminal comprises a display screen and an ambient light sensor; the ambient light sensor is located under the display screen, and a display area of the display screen comprises a first area and a second area; the first area comprises an area for receiving by the ambient light sensor ambient light, and the second area is a part of an area, other than the first area, in the display area; and the method comprises the steps of: displaying, by the terminal, in the first area a black picture at least two times during a process of refreshing one frame of an image frame picture; displaying, by the terminal when the first area displays the black picture, the image frame picture in the second area; displaying, by the terminal, in the first area the image frame picture in an interval between consecutively displaying the black picture in the first area; and obtaining, by the terminal, an intensity of the ambient light, wherein the intensity of the ambient light is detected by the ambient light sensor when the first area displays the black picture. displaying, by the terminal, in the first area a black picture at least two times during a process of refreshing one frame of an image frame picture; displaying, by the terminal when the first area displays the black picture, the image frame picture in the second area; displaying, by the terminal, in the first area the image frame picture in an interval between consecutively displaying the black picture in the first area; and obtaining, by the terminal, an intensity of the ambient light, wherein the intensity of the ambient light is detected by the ambient light sensor when the first area displays the black picture.
A modified Von Willebrand Factor which binds Factor VIII wherein the modified VWF comprises a sequence as shown in SEQ ID NO:3 or a fragment thereof; wherein the modified VWF binds to Factor VIII with an off rate lower than a reference VWF comprising an unmodified SEQ ID NO:3 in which the modified VWF comprises a sequence selected from the group consisting of SEQ ID NO:5 (S764P/S766W/V1083A), SEQ ID NO:6 (S764G/S766Y/V1083A), SEQ ID NO:7 (S764E/S766Y/V1083A), SEQ ID NO:8 (N1011S/V1083A/K1181E), SEQ ID NO:17 (S766Y/V1083A), SEQ ID NO:11 (V805A/Q1158L), SEQ ID NO:12 (K912E/T1088S), SEQ ID NO:9 (V1083A), SEQ ID NO:10 (S1042T), and SEQ ID NO:13 (L781P).
Gear wheel which is formed integrally from plastics material, comprising - an axis of rotation, - an external toothing arranged around an axis of rotation, - a centrally arranged receiving opening, - an intermediate portion arranged between the external toothing and the receiving opening, - a reinforcing structure which is arranged in the intermediate portion and has a plurality of openings (32, 33) and reinforcing ribs (34, 35) located between the openings, characterised by the following further features: - the external toothing is configured as a helical gearing having a helix angle relative to the axis of rotation, - at least some of the openings (32, 33) at least approximately follow the helix angle of the helical gearing with an opening angle. - an axis of rotation, - an external toothing arranged around an axis of rotation, - a centrally arranged receiving opening, - an intermediate portion arranged between the external toothing and the receiving opening, - a reinforcing structure which is arranged in the intermediate portion and has a plurality of openings (32, 33) and reinforcing ribs (34, 35) located between the openings, - the external toothing is configured as a helical gearing having a helix angle relative to the axis of rotation, - at least some of the openings (32, 33) at least approximately follow the helix angle of the helical gearing with an opening angle.
A sensor device comprising a house, wherein the house comprises: (a) a position determination unit comprising an accelerometer and a pressure sensor, (b) a microcontroller unit comprising a software algorithm configured for determining position of the sensor device, (c) a power management unit, (d) a process parameter sensor, and (e) a communication unit adapted for communicating with a user interface; and wherein the software algorithm in (b) can determine the position of the sensor device in a container comprising a liquid medium, a wall and an agitator wherein the algorithm is an algorithm comprising the following steps: (i) sampling data about pressure and acceleration from the position determination unit of item (a); and (iia) determining the immersion depth and thereby the vertical position of the sensor device in the liquid medium of the container based on the in step (i) sampled pressure data wherein the pressure is correlated to the depth in the sense that higher pressure relates to increased immersion depth of the sensor device in the liquid medium of the container; and (iib): determining horizontal position of the sensor device in the liquid medium of the container based on the in step (i) sampled accelerometer data, wherein a first acceleration profile is derived from the sensor device contacting the agitator and a second acceleration profile is derived from the sensor device contacting the wall of the container and wherein the first and seconds acceleration profiles are different and the algorithm is capable of identifying this difference and thereby determining when the device contacts the agitator or contacts the wall of the container. (a) a position determination unit comprising an accelerometer and a pressure sensor, (b) a microcontroller unit comprising a software algorithm configured for determining position of the sensor device, (c) a power management unit, (d) a process parameter sensor, and (e) a communication unit adapted for communicating with a user interface; and (i) sampling data about pressure and acceleration from the position determination unit of item (a); and (iia) determining the immersion depth and thereby the vertical position of the sensor device in the liquid medium of the container based on the in step (i) sampled pressure data wherein the pressure is correlated to the depth in the sense that higher pressure relates to increased immersion depth of the sensor device in the liquid medium of the container; and (iib): determining horizontal position of the sensor device in the liquid medium of the container based on the in step (i) sampled accelerometer data, wherein a first acceleration profile is derived from the sensor device contacting the agitator and a second acceleration profile is derived from the sensor device contacting the wall of the container and wherein the first and seconds acceleration profiles are different and the algorithm is capable of identifying this difference and thereby determining when the device contacts the agitator or contacts the wall of the container.
A locking device with a locking device housing and a barrier device, wherein the barrier device is received in the locking device housing, wherein the barrier device is provided with a stator, with a rotor with a rotor axis and with an electromechanical actuator in the rotor, wherein the rotor has a first rotor element and a second rotor element, wherein the first rotor element and the second rotor element are arranged axially one behind the other with respect to the rotor axis, the first rotor element and the second rotor element are connected to one another in a rotationally fixed manner, wherein the electromechanical actuator is arranged in one of the rotor elements (32, 33), wherein the locking device comprises a fastening element, wherein the fastening element is inserted from the outside into the locking device housing in order to fasten the stator to the locking device housing in a rotationally fixed manner. with a stator, with a rotor with a rotor axis and with an electromechanical actuator in the rotor, wherein the rotor has a first rotor element and a second rotor element, wherein the first rotor element and the second rotor element are arranged axially one behind the other with respect to the rotor axis, the first rotor element and the second rotor element are connected to one another in a rotationally fixed manner, wherein the electromechanical actuator is arranged in one of the rotor elements (32, 33), wherein the locking device comprises a fastening element, wherein the fastening element is inserted from the outside into the locking device housing in order to fasten the stator to the locking device housing in a rotationally fixed manner.
An interlayer film for laminated glass, showing an expansion coefficient in a width direction of 10% or less as measured after immersion in hot water at 80°C for 10 minutes, and wherein the interlayer film for laminated glass has a multilayer structure including a sound insulation layer interposed between two protective layers, wherein the sound insulation layer contains a polyvinyl acetal and a plasticizer, wherein the polyvinyl acetal has an acetyl group content of 5 mol% or more.
A display mechanism for n moonphases for a timepiece, where n is an integer greater than or equal to 3, comprising a first wheel and pinion (8, 8') comprising first teeth and having a night-time background (10, 10') and at least one portion of lunar background (12, 12') and a second wheel and pinion (14, 14') comprising second teeth and superposed on the first wheel and pinion (8, 8'), said second wheel and pinion (14, 14') having a night-time background (16, 16') and n moonphase profiles (18, 18') and the first wheel and pinion (8, 8') and the second wheel and pinion (14, 14') being pivoted about one and the same axis, said display mechanism being arranged such that the first wheel and pinion (8, 8') is capable of being driven in rotation at a constant velocity, and that the second wheel and pinion (14, 14') is capable of being driven in rotation at the same angular velocity and in the same direction as the first wheel and pinion (8, 8') during a moonphase display period during which a portion of lunar background (12, 12') of the first wheel and pinion (8, 8') and a moonphase profile (18, 18') of the second wheel and pinion (14, 14') corresponding to the moonphase to be displayed are superposed to reveal said moonphase, and such that the second wheel and pinion (14, 14') is offset in relation to the first wheel and pinion (8, 8') by a repositioning angle during a transitional period between the current display period and the following display period in order to be able to reveal the following moonphase.
A method for the simultaneous manufacture of ophthalmic lenses, in particular contact lenses, having different lens parameters on a closed loop production line, comprising providing a number of different types of reusable molds, each of the different types of reusable molds comprising male and female mold halves and further comprising lens forming material in the different types of reusable molds, transporting the number of different types of reusable molds in sequential rows and in each row in side by side configuration through a series of treatment stations, the treatment stations being arranged sequentially along the closed loop production line in which the lenses having the different lens parameters are simultaneously manufactured from the lens forming material, wherein the treatment stations comprise a polymer dosing station, a polymerization station, a rinsing and watering station, a lens inspection station and a packing station, and further identifying each lens manufactured with a lens identification code associated with each said lens, characterized in that the lens identification code is provided on a surface of the manufactured lens, and in that the lens identification code is transferred from a mold half to the formed lens, wherein prior to dosing a lens forming material into a mold the male and/or the female mold half on its respective molding surface is provided with a removable lens identification code, which is transferred from the respective molding surface to a front and/or rear surface of the manufactured lens, and wherein the lens identification code is established on the molding surface as a pattern of dots which, after having been transferred to the contact lens surface(s), is permanently fixated there.
A control system including a control device and a device configured to communicate with the control device, the control system comprising: communication processing means configured to perform communication processing for periodically exchanging data frames with the device over a field network in accordance with a frame transmission cycle; control means connected to the communication processing means through an internal bus, wherein the communication processing means is configured to mediate frame transfer between the device and the control means, wherein the control means is configured to periodically perform a control operation for controlling the device, wherein the control operation comprises determining a control instruction based on input data obtained from a frame received from the device, wherein the control means is configured to include the control instruction in a frame for transmission to the device; providing means (500; 540) configured to provide a development environment for performing at least a part of creation of contents of processing performed by the control means and making of settings involved with communication processing by the communication processing means; and determination means (500; 550) configured to determine a settable range of a cycle time of the frame transmission cycle for the exchange of data frames with the device, based on contents set in the development environment provided by the providing means. communication processing means configured to perform communication processing for periodically exchanging data frames with the device over a field network in accordance with a frame transmission cycle; control means connected to the communication processing means through an internal bus, wherein the communication processing means is configured to mediate frame transfer between the device and the control means, wherein the control means is configured to periodically perform a control operation for controlling the device, wherein the control operation comprises determining a control instruction based on input data obtained from a frame received from the device, wherein the control means is configured to include the control instruction in a frame for transmission to the device; providing means (500; 540) configured to provide a development environment for performing at least a part of creation of contents of processing performed by the control means and making of settings involved with communication processing by the communication processing means; and determination means (500; 550) configured to determine a settable range of a cycle time of the frame transmission cycle for the exchange of data frames with the device, based on contents set in the development environment provided by the providing means.