mhurhangee/ep-ind-claims huggingface dataset:
A compound represented by the following general formula: wherein R 1 to R 4 each independently represent a hydrogen atom, a nitro group, a halogeno group, a cyano group, an amide group, a carboxy group, an alkyl group having 1 to 6 carbon atoms, an alkoxy group having 1 to 6 carbon atoms, an alkyloxycarbonyl group having 2 to 4 carbon atoms, an alkylcarbonyloxy group having 2 to 4 carbon atoms, or an arylcarbonyl group having 7 to 10 carbon atoms; R 5 and R 6 each independently represent a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, an arylalkyl group having 7 to 13 carbon atoms, or a phenylalkyl group having 7 to 9 carbon atoms, which has an alkyl group having 1 to 6 carbon atoms, a nitro group, a halogeno group or a cyano group as a substituent of the phenyl group; n represents an integer of 0 to 4; R 7 represents a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, an arylalkyl group having 7 to 13 carbon atoms, an alkyl group having 1 to 6 carbon atoms, which has an alkoxy group having 1 to 6 carbon atoms, a hydroxy group, a carboxy group, a halogeno group, a cyano group, an amide group or an alkyloxycarbonyl group having 2 to 4 carbon atoms, as a substituent, or a phenylalkyl group having 7 to 9 carbon atoms, which has an alkoxy group having 1 to 6 carbon atoms, a halogeno group or an amide group, as a substituent of the phenyl group; n pieces of R 8 each independently represent a nitro group, a halogeno group, a cyano group, an amide group, a carboxy group, an alkyl group having 1 to 6 carbon atoms, an alkoxy group having 1 to 6 carbon atoms, an alkyloxycarbonyl group having 2 to 4 carbon atoms, an alkylcarbonyloxy group having 2 to 4 carbon atoms, or an arylcarbonyl group having 7 to 10 carbon atoms; R 12 represents a hydrogen atom or a methyl group; A 1 represents an alkylene group having 1 to 21 carbon atoms which has at least one group selected from -O-, -OCO-, -COO-, a vinylene group and an arylene group in the chain; an alkylene group having 1 to 21 carbon atoms which has at least one group selected from -O-, -OCO-, -COO- and an arylene group in the chain, and also has a hydroxy group as a substituent; an alkylene group having 1 to 21 carbon atoms; or an alkylene group having 1 to 21 carbon atoms which has a hydroxy group as a substituent; A 2 represents -NH- or -O-; An - represents an anion containing an aryl group having an electron-withdrawing substituent, a sulfonyl group having an electron-withdrawing substituent, or a halogenated alkyl group.
A method for selectively ejecting a cell from within a fluid (14, 16) near the surface thereof, the method comprising delivering sufficient focused acoustic energy to the fluid (14, 16) to eject a first cell therefrom, wherein the ejected cell is contained in a droplet (49, 53) of said fluid, wherein the amount of acoustic energy is initially calibrated by slowly increasing the energy applied, from an amount insufficient to eject a calibration cell desired for ejection until there is sufficient energy applied to eject the calibration cell a desired distance, the ejected cell having substantially the same volume as the calibration cell.
A method of blasting the rock, wherein the blastholes are fired with an inter-hole delay so as to produces little explosion gas and sound, the method comprising the steps of: - drilling 2 or more rows of the blastholes in the rock, wherein a row consists of from 2 to 25 or more blastholes, each blasthole along and between the rows is adjacent to another blasthole; - loading each of the blasthole with an explosive charge; - connecting blast initiation means with each explosive charge; and - firing the explosive charges via connected blasting and delaying means in such a way that each explosive charge detonates with the inter-hole delay, thereby detonating the blasthole within the stressfield pre-propagated from the preceding adjacent blasthole; the method being characterised in that the inter-hole delay time within which a new stressfield propagates within the pre-propagated stressfield ranges from 0.182 ms to 0.334 ms or from 0.43 ms to 0.80 ms per metre of the burden or the inter-hole spacing. - drilling 2 or more rows of the blastholes in the rock, wherein a row consists of from 2 to 25 or more blastholes, each blasthole along and between the rows is adjacent to another blasthole; - loading each of the blasthole with an explosive charge; - connecting blast initiation means with each explosive charge; and - firing the explosive charges via connected blasting and delaying means in such a way that each explosive charge detonates with the inter-hole delay, thereby detonating the blasthole within the stressfield pre-propagated from the preceding adjacent blasthole;
An inlet comprising: a body provided therein with a transport duct allowing a fluid to flow therethrough wherein a first opening is provided in one region of a lateral surface of the body; at least one first nozzle (140, 142, 144) connected to the first opening (101, 102) and adapted to spray a cleaning solution into the transport duct through the first opening (101,102); a blocking sheet disposed in the transport duct to be spaced apart from an inner wall of the transport duct, wherein an upper end of the blocking sheet is positioned at an upper side of the first opening, and a lower end of the blocking sheet is positioned at a lower side of the first opening; and at least one second nozzle (150, 182, 184)connected to another region of the lateral surface of the body positioned under the lower end of the blocking sheet and sprays a gas or a liquid into the transport duct, wherein the cleaning solution sprayed from the first nozzle (142, 144) is blocked from being introduced into one region of the transport duct positioned inside the blocking sheet, wherein an outer wall of the blocking sheet is spaced from the inner wall of the transport duct. a body provided therein with a transport duct allowing a fluid to flow therethrough wherein a first opening is provided in one region of a lateral surface of the body; at least one first nozzle (140, 142, 144) connected to the first opening (101, 102) and adapted to spray a cleaning solution into the transport duct through the first opening (101,102); a blocking sheet disposed in the transport duct to be spaced apart from an inner wall of the transport duct, wherein an upper end of the blocking sheet is positioned at an upper side of the first opening, and a lower end of the blocking sheet is positioned at a lower side of the first opening; and at least one second nozzle (150, 182, 184)connected to another region of the lateral surface of the body positioned under the lower end of the blocking sheet and sprays a gas or a liquid into the transport duct, wherein the cleaning solution sprayed from the first nozzle (142, 144) is blocked from being introduced into one region of the transport duct positioned inside the blocking sheet, wherein an outer wall of the blocking sheet is spaced from the inner wall of the transport duct.
A method in a system (500; 1010; 1020) comprising a display (320; 540; 1015) for applying adapted colour rendering in relation to intensity of light of wavelengths relevant to the circadian rhythm of a user during daytime or nighttime of the system, the method comprising: receiving gaze tracking information identifying a gaze vector of the user of the system; determining a respective location of a first area of the display and a second area (350, 360) of the display based on the identified gaze vector; applying a first colour rendering mode in the first area of the display; and applying a second colour rendering mode in the second area of the display, wherein the first colour rendering mode and the second colour rendering mode differ in relation to a degree of selective adaptation of intensity of light of wavelengths relevant to the circadian rhythm of the user during daytime or nighttime, wherein selective adaptation of intensity of light of wavelengths relevant to the circadian rhythm during daytime or nighttime involves selective increase of intensity during daytime and selective decrease of intensity during nighttime. receiving gaze tracking information identifying a gaze vector of the user of the system; determining a respective location of a first area of the display and a second area (350, 360) of the display based on the identified gaze vector; applying a first colour rendering mode in the first area of the display; and applying a second colour rendering mode in the second area of the display, wherein the first colour rendering mode and the second colour rendering mode differ in relation to a degree of selective adaptation of intensity of light of wavelengths relevant to the circadian rhythm of the user during daytime or nighttime, wherein selective adaptation of intensity of light of wavelengths relevant to the circadian rhythm during daytime or nighttime involves selective increase of intensity during daytime and selective decrease of intensity during nighttime.
Overhead line system comprising overhead conductor rails (1, 16) which in each case are fixed in the center region thereof by a fixed point to a structure and are otherwise connected to the structure by way of moveable support point arms, wherein at least one of the overhead conductor rails (1, 16) has a transverse carrier on its upper side from which two downwardly directed tensioning arms originate at connecting points for holding a catenary wire, characterized in that the transverse carrier has conically tapering moldings on both sides of the connecting points of the tensioning arms, which moldings can be inserted in corresponding recesses of a clamping fitting.
A vibration isolator, comprising a pneumatic spring having a working space, wherein the vibration isolator comprises a further component for vibration isolation in horizontal direction, which is in the form of a flexible rod or a buckling pendulum; wherein the pneumatic spring is coupled rigidly to the base or to the load to be isolated in the horizontal direction and is thus effective only in a vertical direction; characterized in that at least one actuator effective in the vertical direction is arranged in the working space; and that the flexible rod or the buckling pendulum is arranged in an inner housing of the vibration isolator, which projects into the working space of the pneumatic spring. wherein the pneumatic spring is coupled rigidly to the base or to the load to be isolated in the horizontal direction and is thus effective only in a vertical direction; characterized in that at least one actuator effective in the vertical direction is arranged in the working space; and that the flexible rod or the buckling pendulum is arranged in an inner housing of the vibration isolator, which projects into the working space of the pneumatic spring.
A clutch assembly (20, 120) comprising an electromagnet including a magnetically permeable housing (76, 210) and an electromagnet coil disposed therein; a magnetically permeable rotor (50, 150, 200) that spins about an axis within the apparatus, the rotor (50, 150, 200) being disposed in the path of a magnetic circuit generated by the electromagnet when energized; a drive for rotating the rotor relative to the electromagnet housing; wherein the rotor (50, 150, 200) and the electromagnet housing (76, 210) are each shaped to vary the reluctance between the rotor (50, 150, 200) and the electromagnet housing (76, 210) as the rotor (50, 150, 200) rotates, a current source configured to apply a current to the electromagnet coil, wherein, during rotation of the rotor (50, 150, 200), fluctuations in the current result in the electromagnet coil due to varying reluctance between the rotor (50, 150, 200) and the electromagnet housing (76, 210) are superimposed on the applied current; a current sensor (96, 96a, 96b) connected to, and sensing the fluctuations in the current in, the electromagnet coil; and processing logic, connected to the current sensor (96, 96a, 96b) and configured for reading the sensed current and determining the frequency of the fluctuations, said frequency being correlated to the rotor speed; and wherein the rotor functions as an armature (50, 150, 200) by being axially moveable; the clutch assembly being characterised in that it further comprises: an input clutch member (22, 122); an output clutch member (26, 124) having an inner diameter; a wrap spring clutch (38, 138) to which it is referred in the following as WSC, having a first end, a second end, and a plurality of coils therebetween, wherein the first end of the WSC (38, 138) is connected to the input clutch member (22, 122), the second end of the WSC (38, 138) is connected to the armature (50, 150, 200); and the coils of the WSC (38, 138) are selectively engageable with the inner diameter of the output clutch member (26, 124) to transfer torque to the output clutch member from the input clutch member (38, 138) via the coils of the WSC (38, 138) through actuation or non-actuation of the armature (50, 150, 200) against a relatively large inertial mass. an input clutch member (22, 122); an output clutch member (26, 124) having an inner diameter; a wrap spring clutch (38, 138) to which it is referred in the following as WSC, having a first end, a second end, and a plurality of coils therebetween, wherein the first end of the WSC (38, 138) is connected to the input clutch member (22, 122), the second end of the WSC (38, 138) is connected to the armature (50, 150, 200); and the coils of the WSC (38, 138) are selectively engageable with the inner diameter of the output clutch member (26, 124) to transfer torque to the output clutch member from the input clutch member (38, 138) via the coils of the WSC (38, 138) through actuation or non-actuation of the armature (50, 150, 200) against a relatively large inertial mass.
A method, comprising: detecting an in-device coexistence, IDC, interference problem between a first radio transceiver and a second radio transceiver co-located in a device platform; and transmitting an IDC interference indicator from the first radio transceiver to a base station in a wireless system (30;1600), characterized by the method further comprising: reporting IDC information to the base station, wherein the IDC information comprises both recommendation for frequency division multiplexing, FDM, and time division multiplexing, TDM, configurations, wherein the recommendation for FDM configuration comprises frequency information indicating an unusable frequency based on LTE measurement results, and wherein the recommendation for TDM configuration comprises parameters for discontinuous reception, DRX, operation based on WiFi traffic and scheduling information. detecting an in-device coexistence, IDC, interference problem between a first radio transceiver and a second radio transceiver co-located in a device platform; and transmitting an IDC interference indicator from the first radio transceiver to a base station in a wireless system (30;1600), characterized by the method further comprising: reporting IDC information to the base station, wherein the IDC information comprises both recommendation for frequency division multiplexing, FDM, and time division multiplexing, TDM, configurations, wherein the recommendation for FDM configuration comprises frequency information indicating an unusable frequency based on LTE measurement results, and wherein the recommendation for TDM configuration comprises parameters for discontinuous reception, DRX, operation based on WiFi traffic and scheduling information. reporting IDC information to the base station, wherein the IDC information comprises both recommendation for frequency division multiplexing, FDM, and time division multiplexing, TDM, configurations, wherein the recommendation for FDM configuration comprises frequency information indicating an unusable frequency based on LTE measurement results, and wherein the recommendation for TDM configuration comprises parameters for discontinuous reception, DRX, operation based on WiFi traffic and scheduling information.
A damper for absorbing energy between a first component and a second component with the second component spaced from and moveable toward the first component along a jounce axis, said damper comprising a body having a ring-shaped configuration and including a first edge for engaging the first component and a second edge for engaging the second component with said second edge spaced from said first edge and with said body defining a plurality of holes spaced about said body wherein each of said holes converge toward a center point of said damper with said plurality of holes configured to allow said damper to compress axially for absorbing energy as one of the first and second components, moves along the jounce axis, wherein said body has an exterior surface and an interior surface spaced from said exterior surface, characterized in that an area of each of said holes at said exterior surface is larger than an area of each of said hole at said interior surface.
Actuating handle for actuating a sash of a window or a door, comprising: a housing for attaching the actuating handle to the sash, a handle rotatably mounted on the housing and having a handle neck for gripping by a user and a grip part supported in the housing for rotation between a closed position and an open position for transmitting the rotational movement of the handle to a locking mechanism of the sash, at least one predetermined breaking point being provided between the handle neck and the grip part, a locking mechanism by means of which the grip part can be locked against rotation relative to the housing in the locked position, and a breakage monitoring device for monitoring the predetermined breaking point and for outputting information about a breakage of the predetermined breaking point. a housing for attaching the actuating handle to the sash, a handle rotatably mounted on the housing and having a handle neck for gripping by a user and a grip part supported in the housing for rotation between a closed position and an open position for transmitting the rotational movement of the handle to a locking mechanism of the sash, at least one predetermined breaking point being provided between the handle neck and the grip part, a locking mechanism by means of which the grip part can be locked against rotation relative to the housing in the locked position, and a breakage monitoring device for monitoring the predetermined breaking point and for outputting information about a breakage of the predetermined breaking point.
A method of reducing a wetness gradient development for multiple packages of wet wipes prior to consumer purchase, the method comprising: locating the multiple packages of wet wipes in a first orientation such that a first side of each multiple package of wet wipes faces downward and an opposite second side of each multiple package of wet wipes faces upward; and characterized by inverting the multiple package of wet wipes at least 24 hours after the multiple packages are placed in their first orientation to place the multiple packages of wet wipes in a second orientation such that the first side of each multiple package of wet wipes faces upward and the second side of each multiple package of wet wipes faces downward prior to sale of the multiple packages to a consumer. locating the multiple packages of wet wipes in a first orientation such that a first side of each multiple package of wet wipes faces downward and an opposite second side of each multiple package of wet wipes faces upward; and characterized by inverting the multiple package of wet wipes at least 24 hours after the multiple packages are placed in their first orientation to place the multiple packages of wet wipes in a second orientation such that the first side of each multiple package of wet wipes faces upward and the second side of each multiple package of wet wipes faces downward prior to sale of the multiple packages to a consumer.
A protein having an affinity for an immunoglobulin, comprising an amino acid sequence obtained by introducing, into an amino acid sequence derived from the C domain of Protein A of SEQ ID No: 5, at least one amino acid substitution at any one or more of amino acid residues at Ser as an amino acid residue corresponding to position 33 of the C domain, or Asp as an amino acid residue corresponding to position 36 of the C domain, wherein the protein has a lower affinity for an Fab region of an immunoglobulin than a protein before introduction of the substitution, wherein the protein before introduction of the substitution comprises the amino acid sequence of the C domain of Protein A of SEQ ID No:5 or the amino acid sequence of SEQ ID No:10 derived from the C domain of Protein A, and wherein the protein has a sequence identity of not less than 90% to the amino acid sequence of SEQ ID NO: 5.
Panel for an open roof construction for a vehicle, said panel including substantially parallel upper and lower sheets (3', 3'') connected and sealed to each other at least along their circumference by means of a spacer in order to create a space there between containing gas, the upper panel sheet being larger than the lower panel sheet (3"), a reinforcement being fixed to the panel at least at the front and rear thereof, said space communicating with a device integrated in the panel and equalizing the pressure in the space with the ambient pressure, said pressure equalizing device including at least one controlling vessel or container, containing dehydrating material, communicating with the space through one or more conduits, characterized in that the reinforcement is fixed to the panel at a position below the upper panel sheet and outwardly of the spacer, said controlling vessel or container of said pressure equalizing device being integrated in said reinforcement.
A method of managing physical layer security in a wireless device, comprising: receiving, by a processor of the wireless device, downlink control signaling that includes a first signature from a base station in a physical downlink control channel, PDCCH, wherein the PDCCH is a downlink control channel that carries downlink control signaling; determining, by the processor, a second signature based on the first signature received from the base station; receiving, by the processor, a communication from the base station in a physical downlink shared channel, PDSCH, wherein the PDSCH is a downlink data channel that carries the communication, and wherein the communication was modified using the second signature from the base station; performing, by the processor, a matching operation to determine whether the second signature determined by the processor matches the second signature used to modify the communication; and enabling, by the processor, communication with the base station in response to determining that the second signature determined by the processor matches the second signature used to modify the communication. receiving, by a processor of the wireless device, downlink control signaling that includes a first signature from a base station in a physical downlink control channel, PDCCH, wherein the PDCCH is a downlink control channel that carries downlink control signaling; determining, by the processor, a second signature based on the first signature received from the base station; receiving, by the processor, a communication from the base station in a physical downlink shared channel, PDSCH, wherein the PDSCH is a downlink data channel that carries the communication, and wherein the communication was modified using the second signature from the base station; performing, by the processor, a matching operation to determine whether the second signature determined by the processor matches the second signature used to modify the communication; and enabling, by the processor, communication with the base station in response to determining that the second signature determined by the processor matches the second signature used to modify the communication.