mhurhangee/ep-ind-claims huggingface dataset:
Bioelectrical impedance measuring apparatus for determining composition data of a human body having a plurality of electrodes and measuring circuitry, including alternating current sources, voltage measuring circuits and a control and analysis unit, which control and analysis unit is arranged to inject an alternating current from the alternating current source, based on predetermined measuring programs, through two electrodes into the body, which electrodes are specific for the specific measuring program, and to determine with two other electrodes on different limbs the resulting voltages using the voltage measuring circuits, and to determine therefrom the impedance of body segments, wherein two hand contact bodies are provided, each of which is shaped in such a manner and provided with two electrodes (3, 4; 7, 8) in such a manner that a user when contacting the hand contact bodies with his hands comes into contact with two electrodes for each hand at the respective hand contact body, wherein each hand contact body has a hand seating surface (1; 5) for placement of a hand inner surface thereon, wherein each hand seating surface (1; 5) is provided with an electrically insulating separating wall (2; 6) extending over a part of the length of the hand seating surface, the separating wall being adapted to project into the space between middle and ring finger when a hand is placed on the hand seating surface, and wherein on both sides of the separating wall an electrode (3, 4; 7, 8) having a longitudinal extension along the hand seating surface is provided, characterized in that the separating wall (2; 6) extends so far along the hand seating surface that it separates the two electrodes (3, 4; 7, 8) of a hand contact body along their entire longitudinal extension such that, when a hand is placed on the hand seating surface and the separating wall (2; 6) is projecting into the space between middle and ring finger, one of the two electrodes can come into contact with the small finger and/or ring finger only and the other electrode can come into contact with middle finger and/or index finger only.
A method for realising an effective value of a quantity to be varied in an electrical load (9; 32) connected to a multi-phase switchable DC/AC frequency convertor (10; 31) comprising a plurality of controllable switches (3, 4; 5, 6; 7, 8), wherein said value is realised by varying a current or a voltage delivered by the DC/AC frequency convertor through suitable switching of the switches thereof (3, 4; 5, 6; 7, 8), and wherein said quantity exhibits a load angle (ρ) which, averaged in time, leads or lags the voltage or current being delivered, which method comprises the steps of: - defining a dead zone having dimensions representative of an allowable amplitude and phase angle deviation in the quantity to be realised; and - switching one or more of the switches (3, 4; 5, 6; 7, 8) on the basis of the manner in which the deviation in the quantity to be realised extends beyond the dead zone, for the purpose of realising said quantity during operation with an amplitude and phase angle deviation ranging within the dead zone, characterized by - orienting the dead zone with respect to the voltage or current delivered by the DC/AC frequency convertor (10; 31) by rotating the dead zone through the load angle (ρ) in the direction of the delivered voltage or current. - defining a dead zone having dimensions representative of an allowable amplitude and phase angle deviation in the quantity to be realised; and - switching one or more of the switches (3, 4; 5, 6; 7, 8) on the basis of the manner in which the deviation in the quantity to be realised extends beyond the dead zone, for the purpose of realising said quantity during operation with an amplitude and phase angle deviation ranging within the dead zone, characterized by - orienting the dead zone with respect to the voltage or current delivered by the DC/AC frequency convertor (10; 31) by rotating the dead zone through the load angle (ρ) in the direction of the delivered voltage or current.
A curable composition comprising one or more reactive components that cure upon exposure to suitable conditions, the curable composition comprising: (i) at least one aromatic nitroso or at least one aromatic nitroso precursor compound or combinations thereof, wherein the at least one aromatic nitroso compound or at least one aromatic nitroso precursor compound comprises at least one alkoxy silane moiety and at least one moiety selected from an aromatic nitroso or an aromatic nitroso precursor or combinations thereof; and (ii) a film former component comprising at least one non-halogenated hydroxy group-containing resin together with at least one crosslinking agent, wherein the crosslinking agent is selected from the group consisting of epoxy resins, phenolic resins, melamine resins, isocyanates, anhydrides, aldehydes, each having at least two reactive moieties, and mixtures thereof, wherein the non-halogenated hydroxy group-containing resin is present in the composition in a range of from 0.5 to 10 % wt/wt of the total weight of the curable composition, and wherein the non-halogenated hydroxyl group-containing resin has the general structure: wherein each of m, o and p is at least 5, and the combined % wt of the m, o and p components in the non-halogenated hydroxyl group-containing resin is 100%, and wherein the aromatic nitroso compound is selected from the group consisting of m-dinitrosobenzene, p-dinitrosobenzene, m-dinitrosonaphthalene, p-dinitrosonaphthalene, 2,5-dinitroso-p-cymeme, 2-methyl-1,4-dinitrosobenzene, 2-methyl-5-chloro-1,4-dinitrosobenzene, 2-fluoro-1,4-dinitrosobenzene, 2-methoxy-1-3-dinitrosobenzene, 5-chloro-1,3-dinitrosobenzene, 2-benzyl-1,4-dinitrosobenzene, 2-cyclohexyl-1,4-dinitrosobenzene and combinations thereof, and wherein the aromatic nitroso precursor compound is selected from the group consisting of (i) at least one aromatic nitroso or at least one aromatic nitroso precursor compound or combinations thereof, wherein the at least one aromatic nitroso compound or at least one aromatic nitroso precursor compound comprises at least one alkoxy silane moiety and at least one moiety selected from an aromatic nitroso or an aromatic nitroso precursor or combinations thereof; and (ii) a film former component comprising at least one non-halogenated hydroxy group-containing resin together with at least one crosslinking agent, wherein the crosslinking agent is selected from the group consisting of epoxy resins, phenolic resins, melamine resins, isocyanates, anhydrides, aldehydes, each having at least two reactive moieties, and mixtures thereof,
An active matrix substrate, comprising: pixel electrodes arranged in a matrix pattern; a source line extending in a column direction and overlapping with any adjacent two of the pixel electrodes in a row direction; a storage capacitor line extending in the row direction and intersecting with the source line; and a gate line extending in the row direction and intersecting with the source line, wherein the pixel electrodes, the source line, and the storage capacitor line are each disposed in different layers stacked with a respective insulating film therebetween, the source line has bend points below both of the adjacent two row pixel electrodes in a plan view, and has a crossing portion passing across the space between the adjacent two row pixel electrodes, and the source line overlaps with the storage capacitor line substantially only at an intersection thereof, characterized in that the storage capacitor line has extending portions branching off the storage capacitor line and extending in opposite directions in the column direction and overlapping with the space between the adjacent two row pixel electrodes and in that the gate line and the storage capacitor line are disposed in different layers with an insulating film therebetween. pixel electrodes arranged in a matrix pattern; a source line extending in a column direction and overlapping with any adjacent two of the pixel electrodes in a row direction; a storage capacitor line extending in the row direction and intersecting with the source line; and a gate line extending in the row direction and intersecting with the source line, wherein the pixel electrodes, the source line, and the storage capacitor line are each disposed in different layers stacked with a respective insulating film therebetween, the source line has bend points below both of the adjacent two row pixel electrodes in a plan view, and has a crossing portion passing across the space between the adjacent two row pixel electrodes, and the source line overlaps with the storage capacitor line substantially only at an intersection thereof, characterized in that the storage capacitor line has extending portions branching off the storage capacitor line and extending in opposite directions in the column direction and overlapping with the space between the adjacent two row pixel electrodes and in that the gate line and the storage capacitor line are disposed in different layers with an insulating film therebetween.
A method of a User Equipment (1; 610), in the following also referred to as UE, the method comprising: connecting to more than one serving cells controlled by different base stations; triggering a Buffer Status Report, in the following also referred to as BSR; and transmitting a Medium Access Control, in the following also referred to as MAC, control element corresponding to the BSR in a serving cell of the more than one serving cells, wherein the MAC control element includes status of buffered data which can be transmitted in the serving cell and does not include status of buffered data which cannot be transmitted in the serving cell, the serving cell in which the MAC control element is transmitted depends on a trigger of the BSR, wherein more than one periodic buffer status reporting timers are used to trigger the BSR and a mapping between a periodic buffer status reporting timer and the serving cell or a group of serving cells including the serving cell is configured according to information provided by the network, the method being further characterized by the step: if the trigger of the BSR is expiry of the periodic buffer status reporting timer, the MAC control element corresponding to the BSR is transmitted in the serving cell corresponding to the periodic buffer status reporting timer. connecting to more than one serving cells controlled by different base stations; triggering a Buffer Status Report, in the following also referred to as BSR; and transmitting a Medium Access Control, in the following also referred to as MAC, control element corresponding to the BSR in a serving cell of the more than one serving cells, wherein the MAC control element includes status of buffered data which can be transmitted in the serving cell and does not include status of buffered data which cannot be transmitted in the serving cell, the serving cell in which the MAC control element is transmitted depends on a trigger of the BSR, wherein more than one periodic buffer status reporting timers are used to trigger the BSR and a mapping between a periodic buffer status reporting timer and the serving cell or a group of serving cells including the serving cell is configured according to information provided by the network, the method being further characterized by the step: if the trigger of the BSR is expiry of the periodic buffer status reporting timer, the MAC control element corresponding to the BSR is transmitted in the serving cell corresponding to the periodic buffer status reporting timer.
A method comprising: receiving a first Ethernet frame having 66-bit blocks including 66b overhead blocks and 66b data blocks; buffering received 66b overhead blocks and 66b data blocks; mapping four 66b overhead blocks from the buffering into a 257-bit overhead block and a sequence of four 66b data blocks from the buffering into a 257b data block, wherein the mapping includes accumulating four 66b blocks of a same kind from the buffering for mapping into a 257b block, wherein the same kind is one of overhead and a particular calendar slot n where n = 0 - 19; wherein each overhead block (12, 52) is located in a same sequence in the 66b blocks and the 257b blocks, and characterized by transmitting a second Ethernet frame that is one of Flexible Ethernet, FlexE, and Metro Transport Networking, MTN having 257b blocks from the mapping, wherein both the first Ethernet frame and the second Ethernet frame include 20 calendar slots for Ethernet client data, wherein each calendar slot in the first Ethernet frame is a 66b block, and wherein the second Ethernet frame has four calendar slots of a same kind in each 257b data block, wherein each overhead block (12, 52) is used as a marker for framing. receiving a first Ethernet frame having 66-bit blocks including 66b overhead blocks and 66b data blocks; buffering received 66b overhead blocks and 66b data blocks; mapping four 66b overhead blocks from the buffering into a 257-bit overhead block and a sequence of four 66b data blocks from the buffering into a 257b data block, wherein the mapping includes accumulating four 66b blocks of a same kind from the buffering for mapping into a 257b block, wherein the same kind is one of overhead and a particular calendar slot n where n = 0 - 19; wherein each overhead block (12, 52) is located in a same sequence in the 66b blocks and the 257b blocks, and characterized by transmitting a second Ethernet frame that is one of Flexible Ethernet, FlexE, and Metro Transport Networking, MTN having 257b blocks from the mapping, wherein both the first Ethernet frame and the second Ethernet frame include 20 calendar slots for Ethernet client data, wherein each calendar slot in the first Ethernet frame is a 66b block, and wherein the second Ethernet frame has four calendar slots of a same kind in each 257b data block, wherein each overhead block (12, 52) is used as a marker for framing.
A method of extracting target polymer(s) included in a hydrocarbon mixture comprising a step of solid phase extraction of the hydrocarbon mixture, the stationary phase of the solid phase extraction being a polymer obtained from methacrylic acid, said polymer being different from an imprinted polymer.
Percussion mechanism, in particular for a rotary and/or percussion hammer (12a, b), having a percussion pin (14a, b) and having at least one driver element (16a, b) for transferring a percussion pin position, wherein the at least one driver element (16a, b) is coupled fixedly to the percussion pin (14a, b) parallel to a percussion direction (18a, b) in and counter to the percussion direction (18a, b), and having a damping element (26a, b) arranged upstream of the at least one driver element (16a, b) in the percussion direction (18a, b), said damping element (26a, b) being intended to damp a recoil of the percussion pin (14a, b), characterized in that the at least one driver element (16a, b) is intended to transfer the percussion pin position to a control sleeve (22a, b) and a spacer sleeve (24a, b), and the damping element (26a, b) is arranged between the spacer sleeve (24a, b) and the control sleeve (22a, b) in order to damp the recoil.
A subsea electronic assembly for positioning in an environment of an oilfield and comprising: a housing; an electronic component (125, 127, 129) disposed within the housing to facilitate electrical coupling with a subsea device at the oilfield; and a shock absorbing liquid occupying space within the housing about the electronic component to enhance resistance to shock induced damage from the oilfield environment, wherein the shock absorbing liquid is a dielectric fluid including one of a fluorinated ketone and a fluorocarbon. a housing; an electronic component (125, 127, 129) disposed within the housing to facilitate electrical coupling with a subsea device at the oilfield; and a shock absorbing liquid occupying space within the housing about the electronic component to enhance resistance to shock induced damage from the oilfield environment, wherein the shock absorbing liquid is a dielectric fluid including one of a fluorinated ketone and a fluorocarbon.
A portable electronic device comprising: a first section comprising a first display on a first side of the first section; and a second section pivotably connected to the first section, the second section comprising a second display on a first side of the second section, wherein the second section comprises a second side opposite the first side of the second section, and wherein when the first and second sections (12, 14) are in a first folded configuration relative to each other the first side of the first section is located opposite the second side of the second section; a sensor for sensing movement of the first and second sections (12, 14) relative to each other; and a system connected to the sensor for changing images displayed on the first and second displays (30, 32) based, at least partially, upon sensed movement of the first and second sections relative to each other wherein the system for changing images displayed on the first and second displays (30, 32) comprises means for receiving selection of an application on the second display to be displayed on the first display when the first and second sections (12, 14) are subsequently moved relative to each other from the first folded configuration, and wherein the system for changing images displayed on the first and second displays (30, 32) comprises means for displaying sequential page images of a same selected application on sequential ones of the displays (30, 32) in response to sensing that the first and second sections (12, 14) are sequentially flipped relative to each other. a first section comprising a first display on a first side of the first section; and a second section pivotably connected to the first section, the second section comprising a second display on a first side of the second section, wherein the second section comprises a second side opposite the first side of the second section, and wherein when the first and second sections (12, 14) are in a first folded configuration relative to each other the first side of the first section is located opposite the second side of the second section; a sensor for sensing movement of the first and second sections (12, 14) relative to each other; and a system connected to the sensor for changing images displayed on the first and second displays (30, 32) based, at least partially, upon sensed movement of the first and second sections relative to each other wherein the system for changing images displayed on the first and second displays (30, 32) comprises means for receiving selection of an application on the second display to be displayed on the first display when the first and second sections (12, 14) are subsequently moved relative to each other from the first folded configuration, and wherein the system for changing images displayed on the first and second displays (30, 32) comprises means for displaying sequential page images of a same selected application on sequential ones of the displays (30, 32) in response to sensing that the first and second sections (12, 14) are sequentially flipped relative to each other.
A rubber composition comprising: 100 parts by mass of a sulfur-modified chloroprene rubber; 25 to 55 parts by mass of carbon black having an average particle diameter of 70 nm or less; and more than 0 parts by mass and 15 parts by mass or less of a diene-based rubber other than a chloroprene rubber, wherein the sulfur-modified chloroprene rubber comprises a functional group A represented by General Formula below and positioned at a molecular terminal, and in the sulfur-modified chloroprene rubber, a mass ratio B/A of a content of a functional group B represented by General Formula below and positioned at a molecular terminal with respect to a content of the functional group A is 6.00 or less, and a total amount of the functional group A and the functional group B is 0.10 to 0.60% by mass. (In the formula, R a1 and R a2 each independently represent a hydrogen atom, a halogen atom, a hydroxy group, an alkoxy group, a carboxy group, a carboxylate group, a cyano group, an alkyl group which may have a substituent, or an arylthio group which may have a substituent, and R a1 and R a2 may bond with each other to form a ring which may have a substituent.) (In the formula, R b represents a hydrogen atom or an alkyl group having 1 to 4 carbon atoms which may have a substituent.) the sulfur-modified chloroprene rubber comprises a functional group A represented by General Formula below and positioned at a molecular terminal, and in the sulfur-modified chloroprene rubber, a mass ratio B/A of a content of a functional group B represented by General Formula below and positioned at a molecular terminal with respect to a content of the functional group A is 6.00 or less, and a total amount of the functional group A and the functional group B is 0.10 to 0.60% by mass. (In the formula, R a1 and R a2 each independently represent a hydrogen atom, a halogen atom, a hydroxy group, an alkoxy group, a carboxy group, a carboxylate group, a cyano group, an alkyl group which may have a substituent, or an arylthio group which may have a substituent, and R a1 and R a2 may bond with each other to form a ring which may have a substituent.) (In the formula, R b represents a hydrogen atom or an alkyl group having 1 to 4 carbon atoms which may have a substituent.)