mhurhangee/ep-ind-claims huggingface dataset:
A prong type cage that is incorporatable in a double row roller bearing in which multiple rollers are arranged in two rows between an inner ring and an outer ring and two independent prong type cages are incorporated, and that holds the rollers arranged in one of the two rows, the prong type cage comprising: an annular portion; and a plurality of cage bars extended in an axial direction of the prong type cage from one side face of the annular portion, and located at intervals in a circumferential direction of the prong type cage, wherein pockets in which the rollers are held are defined at positions on a side of the one side face of the annular portion and between the cage bars adjacent to each other in the circumferential direction, characterised in that recesses are formed in a face of the annular portion, the face being opposable to end faces of the rollers disposed in the pockets, wherein the recesses are opened toward the end faces of the rollers configured to retain grease between the recesses and the end faces of the rollers, the recesses are opened at an inner peripheral face of the annular portion configured to introduce the grease that is present on the inner peripheral face of the annular portion into the recesses each of the recesses has a bottom face opposed to the end face of a corresponding one of the rollers, and an outer wall face that meets the one side face is formed at a radially outer side portion of each of the recesses. an annular portion; and a plurality of cage bars extended in an axial direction of the prong type cage from one side face of the annular portion, and located at intervals in a circumferential direction of the prong type cage, wherein pockets in which the rollers are held are defined at positions on a side of the one side face of the annular portion and between the cage bars adjacent to each other in the circumferential direction, characterised in that recesses are formed in a face of the annular portion, the face being opposable to end faces of the rollers disposed in the pockets, wherein the recesses are opened toward the end faces of the rollers configured to retain grease between the recesses and the end faces of the rollers, the recesses are opened at an inner peripheral face of the annular portion configured to introduce the grease that is present on the inner peripheral face of the annular portion into the recesses each of the recesses has a bottom face opposed to the end face of a corresponding one of the rollers, and an outer wall face that meets the one side face is formed at a radially outer side portion of each of the recesses.
MEMS component, comprising a monolithically integrated electronic component having a multi-plane conductor track stack disposed on a substrate, into which a cantilevered, resiliently movable, metallic actuator is integrated, which is disposed on the multi-plane conductor track stack at the level of a conductor track plane (106.3) and is connected by via contacts (116.1, 230.1) with conductor track planes (106.2, 106.4) arranged above or below the conductor track plane (106.3), which are separated by a respective intermediate insulator layer (106.7, 106.8), apart from a recess in the area of the actuator, from the conductor track plane (106.3) of the actuator, characterised in that the actuator is made of a layer that is metallic-conductive and resistant to corrosive liquids or gases and that consists of titanium nitride and that locally replaces the standard conducting track material in the area of the actuator, a corrosion-resistant and metallic-conductive base plate forms a counterelectrode of the actuator, and the actuator is firmly anchored in the intermediate plane insulator layer (106.7, 106.8) at at least two opposite suspension points (210.1, 210.2) at the edge of the recess, and has a mirror-symmetrical lateral structure with at least two conductor track sections (308.1, 308.2), perpendicular to the connecting line between the suspension points (210.1, 210.2), in the vicinity of a symmetry axis of the recess, wherein the conductor track sections (308.1, 308.2) are connected to one another by at least a middle web (308.3) of the actuator.
A process for introducing two or more 2'-modifications into an RNA, wherein the RNA has an ester functional group at the 2'-position on one or more ribose rings of a strand and an alkyne functional group at the 2'-position on one or more ribose rings on the same strand, comprising: a) adding an amine compound to the RNA to form amides via amidation reactions with the ester functional groups; b) dissolving the modified RNA from step (a) in a solvent to form a solution; and c) adding an organic azide and a metal catalyst to the solution obtained in step (b) to form triazoles via 2'-azide-alkyne cycloaddition reactions with the alkyne functional groups, wherein the amidation reactions and the azide-alkyne cycloaddition reactions are in an orthogonal fashion.
A control system for controlling a support structure (12, MT) in a lithographic apparatus, said control system comprising: - a first measurement system (19, 49) arranged to measure, in a first coordinate system, a position of an object (W, 18, MA) supported by the support structure; - a second measurement system (13, 14, 15, 16, 43a, 44a) arranged to measure, in a second coordinate system, a position of the support structure, the first measurement system having a presumed position in the second coordinate system; and - a controller configured to: • control the position of the support structure based on measurements by the second measurement system, • convert the measured position of the object into a converted position of the support structure in the second coordinate system, and • position the support structure based on the converted position; characterized in that the controller is further configured to receive a position error signal indicative of a difference between the presumed position and an actual position of the first measurement system (19, 49) in the second coordinate system, and to control the position of the support structure and/or an aerial image in a manner dependent upon the position error signal, and wherein the position error signal is used in combination with an actuator to dampen the relative movements between the first measurement system and the second measurement system. - a first measurement system (19, 49) arranged to measure, in a first coordinate system, a position of an object (W, 18, MA) supported by the support structure; - a second measurement system (13, 14, 15, 16, 43a, 44a) arranged to measure, in a second coordinate system, a position of the support structure, the first measurement system having a presumed position in the second coordinate system; and - a controller configured to: • control the position of the support structure based on measurements by the second measurement system, • convert the measured position of the object into a converted position of the support structure in the second coordinate system, and • position the support structure based on the converted position; characterized in that the controller is further configured to receive a position error signal indicative of a difference between the presumed position and an actual position of the first measurement system (19, 49) in the second coordinate system, and to control the position of the support structure and/or an aerial image in a manner dependent upon the position error signal, and wherein the position error signal is used in combination with an actuator to dampen the relative movements between the first measurement system and the second measurement system. • control the position of the support structure based on measurements by the second measurement system, • convert the measured position of the object into a converted position of the support structure in the second coordinate system, and • position the support structure based on the converted position;
A method for detecting control information by a User Equipment, UE, in a wireless communication system supporting reconfiguration of radio resources, the method comprising: receiving a first uplink-downlink, UL-DL, configuration on system information block, SIB; receiving a radio resource reconfiguration message including a second UL-DL configuration via a Physical Downlink Control Channel, PDCCH; and monitoring a PDCCH during an on-duration time on a downlink subframe and a special subframe including a downlink pilot time slot, DwPTS, based on the second UL-DL configuration, wherein the on-duration time is counted based on the downlink subframe and the special subframe including the DwPTS based on the first UL-DL configuration, wherein the first and the second UL-DL configurations respectively indicate a first pattern of 10 subframes and a second pattern of 10 subframes, wherein each of the first and second patterns is a combination of at least one uplink subframe, at least one downlink subframe, and at least one special subframe including the DwPTS. receiving a first uplink-downlink, UL-DL, configuration on system information block, SIB; receiving a radio resource reconfiguration message including a second UL-DL configuration via a Physical Downlink Control Channel, PDCCH; and monitoring a PDCCH during an on-duration time on a downlink subframe and a special subframe including a downlink pilot time slot, DwPTS, based on the second UL-DL configuration, wherein the on-duration time is counted based on the downlink subframe and the special subframe including the DwPTS based on the first UL-DL configuration, wherein the first and the second UL-DL configurations respectively indicate a first pattern of 10 subframes and a second pattern of 10 subframes, wherein each of the first and second patterns is a combination of at least one uplink subframe, at least one downlink subframe, and at least one special subframe including the DwPTS.
A process for preparing cycloalkadienes from cycloalkene monomers, polycycloalkenylenes or mixtures of the two in the presence of a supported catalyst comprising at least one ruthenium-carbene complex of the formula IV where X 1, X 2 are identical or different, in particular identical, and are each an anionic ligand selected from the group consisting of fluorine, chlorine, bromine, iodine, preferably chlorine, with X 1 and X 2 preferably being chlorine; Q is a divalent organic group which has from 1 to 40 carbon atoms and is selected from among a divalent hydrocarbon group and a substituted divalent hydrocarbon group; R 2 is hydrogen or a C 1 -C 40 -carbon-comprising radical; R 3 is hydrogen or C 7 -C 40 -arylalkyl; R 4 is hydrogen or C 7 -C 40 -arylalkyl; X 5 is O, the radicals Z are each, independently of one another, O or NR 10, the indices s are each, independently of one another, 0 or 1 R 5, R 6, R 7, R 8, R 9 are, independently of one another, identical or different and are each hydrogen or a C 1 -C 40 -carbon-comprising radical or in the case of s being 0 also a functional group selected from the group consisting of NO 2, CN, COOH, COOR 10 and halogen, and R 10 is hydrogen or a C 1 -C 40 -carbon-comprising radical, as catalytically active component and a silicon dioxide as support material, wherein the silicon dioxide used for producing the supported catalyst is a dried silica gel which has a ratio of OH groups on its surface to the N 2 BET surface area (N 2 BET surface area determined according to DIN ISO 9277:2003-05) which is in the range from 0.1 to 1.2 OH groups/nm 2 and whose pores have an average diameter (determined according to DIN ISO 66133) of from 50 to 70 Å, wherein, in the production of the supported catalyst, the ruthenium-carbene complex is used in such an amount relative to the silicon dioxide used that the molar ratio of OH groups on the surface of the silicon dioxide to the ruthenium-carbene complex is at least 5, and wherein the chemical reaction is carried out in a continuously operated reactor. X 1, X 2 are identical or different, in particular identical, and are each an anionic ligand selected from the group consisting of fluorine, chlorine, bromine, iodine, preferably chlorine, with X 1 and X 2 preferably being chlorine; Q is a divalent organic group which has from 1 to 40 carbon atoms and is selected from among a divalent hydrocarbon group and a substituted divalent hydrocarbon group; R 2 is hydrogen or a C 1 -C 40 -carbon-comprising radical; R 3 is hydrogen or C 7 -C 40 -arylalkyl; R 4 is hydrogen or C 7 -C 40 -arylalkyl; X 5 is O, the radicals Z are each, independently of one another, O or NR 10, the indices s are each, independently of one another, 0 or 1 R 5, R 6, R 7, R 8, R 9 are, independently of one another, identical or different and are each hydrogen or a C 1 -C 40 -carbon-comprising radical or in the case of s being 0 also a functional group selected from the group consisting of NO 2, CN, COOH, COOR 10 and halogen, and R 10 is hydrogen or a C 1 -C 40 -carbon-comprising radical,
A method for communicating vehicle data, comprising: at a vehicle data feed server having one or more processors and memory storing instructions for execution by the one or more processors, wherein the vehicle data feed server is coupled to a plurality of vehicles (102, 102A) via one or more communication networks: receiving a plurality of credentials and associated access levels to vehicle data; storing the plurality of credentials with the associated access levels in a database; receiving a plurality of real-time vehicle data flows from the plurality of vehicles via the one or more communication networks, wherein each real-time vehicle data flow is associated with a respective vehicle and includes at least vehicle telemetry data of the respective vehicle; receiving from a user of a client device a user credential and a vehicle data request (114, 222); and in response to the vehicle data request: determining, based on the user credential, whether the user is authorized to access vehicle data associated with the user credential, where the vehicle data includes a subset of the plurality of real-time vehicle data flows; and in accordance with a determination that the user is authorized to access the vehicle data associated with the user credential, forwarding the subset of the plurality of real-time vehicle data flows to the client device. receiving a plurality of credentials and associated access levels to vehicle data; storing the plurality of credentials with the associated access levels in a database; receiving a plurality of real-time vehicle data flows from the plurality of vehicles via the one or more communication networks, wherein each real-time vehicle data flow is associated with a respective vehicle and includes at least vehicle telemetry data of the respective vehicle; receiving from a user of a client device a user credential and a vehicle data request (114, 222); and in response to the vehicle data request: determining, based on the user credential, whether the user is authorized to access vehicle data associated with the user credential, where the vehicle data includes a subset of the plurality of real-time vehicle data flows; and in accordance with a determination that the user is authorized to access the vehicle data associated with the user credential, forwarding the subset of the plurality of real-time vehicle data flows to the client device. determining, based on the user credential, whether the user is authorized to access vehicle data associated with the user credential, where the vehicle data includes a subset of the plurality of real-time vehicle data flows; and in accordance with a determination that the user is authorized to access the vehicle data associated with the user credential, forwarding the subset of the plurality of real-time vehicle data flows to the client device.
A processing apparatus for a stator bar of a generator, comprising: a setup table including a plurality of mounting parts that fix the stator bar for welding of both ends of the stator bar; a workstation facing the setup table; a welder positioned at a front surface of a worktable that performs welding on the stator bar; a rotating part that rotates the setup table at a first angle in the pit; and a sliding part provided below the setup table to slide the setup table in a longitudinal direction of the pit; the processing apparatus being characterised in that it comprises a tilting part that tiles the setup table toward a pit at a specific angle by a base frame connected to a lower portion of the setup table and a first actuator positioned above the base frame; and that the workstation includes a second actuator that moves the workstation toward the setup table; and that the rotating part is provided between the setup table and the tilting part. a setup table including a plurality of mounting parts that fix the stator bar for welding of both ends of the stator bar; a workstation facing the setup table; a welder positioned at a front surface of a worktable that performs welding on the stator bar; a rotating part that rotates the setup table at a first angle in the pit; and a sliding part provided below the setup table to slide the setup table in a longitudinal direction of the pit; the processing apparatus being characterised in that it comprises a tilting part that tiles the setup table toward a pit at a specific angle by a base frame connected to a lower portion of the setup table and a first actuator positioned above the base frame; and that the workstation includes a second actuator that moves the workstation toward the setup table; and that the rotating part is provided between the setup table and the tilting part.
An electric air-purifying respirator for a welding helmet, the electric air-purifying respirator comprising a housing, a battery device, a battery holder being formed in the housing, and a lockable fitting structure, the battery device being able to be detachably installed in the battery holder by the lockable fitting structure, wherein the lockable fitting structure comprises at least four pairs of sliding joint structures formed on the battery device and the battery holder respectively and a locking structure provided in the battery device, wherein the sliding joint structures of each pair can be engaged with or disengaged from each other by sliding them relative to each other, wherein the locking structure comprises a button and a tongue capable to be actuated by the button, wherein the tongue is movable along a direction substantially perpendicular to a sliding direction of the sliding joint structure, and wherein after the pairs of sliding joint structures have been moved relative to each other in place, the tongue contacts a stop side of the battery holder to lock the pairs of sliding joint structures.
A displacement measuring system for a mobile part, in particular of an aircraft, of the type including: - means forming a measuring sensor associated with the mobile part, - means forming a conditioner for output signals of the measuring sensor-forming means, distinct and separate therefrom and connected to the latter through connecting means, and - processing means for output signals from the conditioner-forming means, for delivering displacement information for the mobile part, the measuring sensor-forming means including storage means further for intrinsic technical characterization information for said measuring sensor-forming means, the system being configured to implement a phase for the acquisition of this intrinsic technical characterization information of these measuring sensor-forming means, by the conditioner-forming means, and a phase for configuration of the operation of these conditioner-forming means, from this recovered characterization information, characterized in that the measuring system includes means (19; 22) for acquisition of the operating temperature of the measuring sensor-forming means, the means for acquisition of the operating temperature of the measuring sensor-forming means including means for determining this temperature from an electrical resistivity measurement of at least one temperature-sensitive element, integrated into the measuring sensor-forming means. - means forming a measuring sensor associated with the mobile part, - means forming a conditioner for output signals of the measuring sensor-forming means, distinct and separate therefrom and connected to the latter through connecting means, and - processing means for output signals from the conditioner-forming means, for delivering displacement information for the mobile part,
A bone screw with self-tapping thread, consisting substantially of a magnesium alloy and provided at least in regions of the thread with a bioactive surface coating, which contains microcapsules with a lubricant and/or micro-abrasives, which microcapsules can be destroyed by pressure and frictional heat as the bone screw is screwed into bone substance.
Method for adapting an engine controller with regard to a thermal stress of a catalytic converter, wherein an internal combustion engine is operated under predefined test cycles in a steady state and/or non-steady state operating mode and a catalytic converter temperature is determined in an operating-point-dependent manner and, in the presence of an increased thermal stress of the catalytic converter, at least one applicative measure is implemented in the engine controller for later utilization in a real vehicle operating mode such that said increased thermal stress is avoided under similar operation of the internal combustion engine in the real vehicle operating mode, characterized in that, in the test operating mode, the catalytic converter temperature is determined over a measurement surface of the catalytic converter of at least 4 cm 2, said measurement surface being arranged substantially transversely with respect to the exhaust-gas flow direction, wherein the thermal stress within the measurement surface is determined in a spatially resolved manner at at least two measurement points.
A time lapse photography system comprising a microscope, a camera for photographing images generated by said microscope, and a photographing control device for controlling said microscope and said camera to execute time lapse photography characterized in that, said photography control device comprises: photographing control means for controlling said camera and said microscope so as to cause said camera and said microscope to execute said time lapse photography in an execution mode in which said time lapse photography is executed according to predetermined photographing conditions at a predetermined gain and exposure time of said camera and also for controlling said camera and said microscope so as to cause said camera and said microscope to execute said time lapse photography in a test mode in which said time lapse photography is tested at a shorter exposure time of said camera than in said execution mode before said execution mode; monitoring means for monitoring states of said microscope and said camera based on information from said microscope and said camera; and determination means for determining whether said time lapse photography is being executed according to said photographing conditions or not based on a monitoring result by said monitoring means in said test mode. photographing control means for controlling said camera and said microscope so as to cause said camera and said microscope to execute said time lapse photography in an execution mode in which said time lapse photography is executed according to predetermined photographing conditions at a predetermined gain and exposure time of said camera and also for controlling said camera and said microscope so as to cause said camera and said microscope to execute said time lapse photography in a test mode in which said time lapse photography is tested at a shorter exposure time of said camera than in said execution mode before said execution mode; monitoring means for monitoring states of said microscope and said camera based on information from said microscope and said camera; and determination means for determining whether said time lapse photography is being executed according to said photographing conditions or not based on a monitoring result by said monitoring means in said test mode.