mhurhangee/patent-ind-claim-en huggingface dataset:
A tunneling machine comprising an elongated frame for being inserted into a work area inside a tunnel or an unfinished tunnel, said frame defining a front end and a rear end, said tunneling machine further comprising: an actuator for moving said frame within said work area , an excavating mechanism located at said front end of said frame for excavating particulate material from said work area , a buffer tank located between said front end and said rear end of said frame , said buffer tank comprises a sloping bottom, a first conveyor for receiving said particulate material from said excavating mechanism at said front end of said frame and transporting said particulate material to said buffer tank , a soil transporter for receiving said particulate material from said buffer tank at said rear end of said frame and transporting said particulate material from said rear end of said frame to the outside of said work area , and a second conveyor for transporting said particulate material from said buffer tank to said soil transporter , said second conveyor running only when said soil transporter is at said rear end of said frame , said second conveyor is extending from said sloping bottom of said buffer tank to the top of said soil transporter , said second conveyor comprises a primary conveyor extending within said buffer tank and reaching from the bottom of the buffer tank to the outside of the buffer tank , and a secondary conveyor extending outside said buffer tank , said secondary conveyor reaching fully enclosed from the primary conveyer to the soil transporter . an actuator for moving said frame within said work area , an excavating mechanism located at said front end of said frame for excavating particulate material from said work area , a buffer tank located between said front end and said rear end of said frame , said buffer tank comprises a sloping bottom, a first conveyor for receiving said particulate material from said excavating mechanism at said front end of said frame and transporting said particulate material to said buffer tank , a soil transporter for receiving said particulate material from said buffer tank at said rear end of said frame and transporting said particulate material from said rear end of said frame to the outside of said work area , and a second conveyor for transporting said particulate material from said buffer tank to said soil transporter , said second conveyor running only when said soil transporter is at said rear end of said frame , said second conveyor is extending from said sloping bottom of said buffer tank to the top of said soil transporter , said second conveyor comprises a primary conveyor extending within said buffer tank and reaching from the bottom of the buffer tank to the outside of the buffer tank , and a secondary conveyor extending outside said buffer tank , said secondary conveyor reaching fully enclosed from the primary conveyer to the soil transporter .
A staple cartridge , comprising: a cartridge body comprising a plurality of staple cavities ; a plurality of staples removably positioned in said staple cavities; and an implantable layer , comprising: a piece of lyophilized foam ; a plurality of fibers at least partially embedded in said piece of lyophilized foam; a plurality of pores defined in said piece of lyophilized foam ; and a plurality of pockets . a cartridge body comprising a plurality of staple cavities ; a plurality of staples removably positioned in said staple cavities; and an implantable layer , comprising: a piece of lyophilized foam ; a plurality of fibers at least partially embedded in said piece of lyophilized foam; a plurality of pores defined in said piece of lyophilized foam ; and a plurality of pockets . a piece of lyophilized foam ; a plurality of fibers at least partially embedded in said piece of lyophilized foam; a plurality of pores defined in said piece of lyophilized foam ; and a plurality of pockets .
A pharmaceutical composition for use in a method for preventing or treating macular degeneration or macular edema, comprising a compound selected from 3-[[ -1,2,4a-trimethyl-5-methylidene-3,4,6,7,8,8a-hexahydro-2H-naphthalen-1-yl]methyl]-2-hydroxy-5-methoxycyclohexa-2,5-diene-1,4-dione and 3-[[ -1,2,4a-trimethyl-5-methylidene-3,4,6,7,8,8a-hexahydro-2H-naphthalen-1-yl]methyl]-5-ethoxy-2-hydroxycyclohexa-2,5-diene-1,4-dione or a pharmaceutically acceptable salt thereof as an active ingredient.
Method for measuring a plurality of status parameters of a fluid contained in a container , wherein the container configured for single use has a wall on which a sensor support plate is fixed in a fluid-tight manner, said plate supporting a plurality of sensors (S1-S5) which are in operative contact with the interior of the container on the one hand and in data-exchanging connection with an external control unit which receives and processes measurement data from the sensors (S1-S5) on the other hand, characterized in that the sensor plate carries a temporarily inactive duplicate (D1-D5) of at least one of the sensors (S1-S5) which is activated when measurement data of the sensor (S1-S5) are classified as conspicuous in the context of an integrity or plausibility test carried out by an external control unit , wherein the control unit temporarily processes both the measurement data received from the sensor (S1-S5) and the data received from the duplicate (D1-D5), and wherein, in the event that the processing of the measurement data received from the sensor (S1-S5) and from the duplicate (D1-D5) leads to identical results within a predetermined tolerance, the duplicate (D1-D5) is deactivated again and, in the event that the processing of the measurement data received from the sensor (S1-S5) and from the duplicate (D1-D5) leads to different results taking into account the predetermined tolerance, the sensor (S1-S5) is deactivated.
A graphene composite, comprising: a graphene including a defect; and a self-assembled monolayer (SAM) disposed on the defect, wherein the self-assembled monolayer is formed by self-assembling, on the defect, a compound represented by Chemical Formula 1 below: wherein in Chemical Formula 1, R 1 is a C3 to C30 alkyl group, R 2 and R 3 , which are identical to or different from each other, are independently a hydrogen atom or a C1 to C6 alkyl group, and R 4 is a C1 to C6 alkyl group. a graphene including a defect; and a self-assembled monolayer (SAM) disposed on the defect, wherein the self-assembled monolayer is formed by self-assembling, on the defect, a compound represented by Chemical Formula 1 below: wherein in Chemical Formula 1, R 1 is a C3 to C30 alkyl group, R 2 and R 3 , which are identical to or different from each other, are independently a hydrogen atom or a C1 to C6 alkyl group, and R 4 is a C1 to C6 alkyl group.
A nacelle for a wind turbine , the nacelle comprising: - a nacelle housing ; - a rotor hub ; - a rotor bearing for bearing the rotor hub on the nacelle housing , wherein the rotor bearing has at least one inner ring element and at least one outer ring element , wherein at least one oil-lubricated sliding bearing element is formed between the inner ring element and the outer ring element , wherein a lubricating oil sump is formed, which serves to receive that lubricating oil which serves to lubricate the oil-lubricated sliding bearing element , wherein the lubricating oil sump is formed in the nacelle , characterized in that a sealing element is formed between the nacelle housing and the rotor hub and/or between the nacelle housing and a rotor shaft , which sealing element is configured to seal the lubricating oil sump from the environment, wherein in the operating state, the lubricating oil sump is filled with lubricating oil up to a lubricating oil level , wherein the sliding surfaces are below the lubricating oil level at least in some sections, and thus are immersed in the lubricating oil present in the lubricating oil sump . - a nacelle housing ; - a rotor hub ; - a rotor bearing for bearing the rotor hub on the nacelle housing , wherein the rotor bearing has at least one inner ring element and at least one outer ring element , wherein at least one oil-lubricated sliding bearing element is formed between the inner ring element and the outer ring element , wherein a lubricating oil sump is formed, which serves to receive that lubricating oil which serves to lubricate the oil-lubricated sliding bearing element , wherein the lubricating oil sump is formed in the nacelle ,
A flying body ejection mechanism comprising: a flying body capable of being connected to a parachute ; and an ejection section configured to hold the flying body and to eject the flying body held, wherein the flying body includes a flying body main body section engaged with the ejection section, and a gas generating device disposed in an internal space defined by the ejection section and the flying body main body section, and configured to generate gas, characterized in that the ejection section is formed in a bar shape, the flying body main body section is formed in a tube shape having an opening at one end and having a bottom at an other end, the gas generating device is provided in an interior of the flying body main body section, and the flying body is supported on the ejection section such that at least a part of the ejection section is inserted in an interior of the flying body main body section and the gas generating device faces a tip end portion of the ejection section. an ejection section configured to hold the flying body and to eject the flying body held, wherein the flying body includes a flying body main body section engaged with the ejection section, and a gas generating device disposed in an internal space defined by the ejection section and the flying body main body section, and configured to generate gas, characterized in that the ejection section is formed in a bar shape, the flying body main body section is formed in a tube shape having an opening at one end and having a bottom at an other end, the gas generating device is provided in an interior of the flying body main body section, and the flying body is supported on the ejection section such that at least a part of the ejection section is inserted in an interior of the flying body main body section and the gas generating device faces a tip end portion of the ejection section.
A method of performing device-to-device, D2D, communication by a first device , the method comprising: receiving (S10) at least one reference signal from a second device ; estimating (S20) a channel state based on the received at least one reference signal; and determining (S40) a plurality of transmission parameters based on the estimated channel state; obtaining (S50) at least one measurement value corresponding to a relative velocity between the first device and the second device based on the at least one reference signal; adjusting (S60) at least one transmission parameter based on the at least one measurement value; providing (S70) the adjusted at least one transmission parameter to the second device ; and transmitting (S80) data to the second device based on the adjusted at least one transmission parameter. receiving (S10) at least one reference signal from a second device ; estimating (S20) a channel state based on the received at least one reference signal; and determining (S40) a plurality of transmission parameters based on the estimated channel state; obtaining (S50) at least one measurement value corresponding to a relative velocity between the first device and the second device based on the at least one reference signal; adjusting (S60) at least one transmission parameter based on the at least one measurement value; providing (S70) the adjusted at least one transmission parameter to the second device ; and transmitting (S80) data to the second device based on the adjusted at least one transmission parameter.
Spoke comprising a spoke body for a wheel of an at least partially muscle-powered bicycle , in particular for a wheel, wherein the spoke body comprises a hub-side, first end and a rim-side, second end , wherein the two ends are remote from one another, and wherein the spoke body is configured elongated and comprises, over at least one longitudinal region in a longitudinal direction of the spoke body , at least one flattened cross-section substantially accommodated in a longitudinal plane , characterized in that the spoke body comprises a first end portion thickness in a first end portion at the hub-side, first end transverse to the longitudinal plane , and that the spoke body comprises a second end portion thickness in a second end portion at the rim-side, second end transverse to the longitudinal plane , and that the spoke body comprises, in a first center region disposed closer to the first end portion than to the second end portion , transverse to the longitudinal plane , a first center region thickness that is smaller than the first end portion thickness , and that the spoke body comprises in a second center region disposed closer to the second end portion than to the first end portion , the flattened cross-section , comprising a second center region thickness transverse to the longitudinal plane that is smaller than the first center region thickness .
Method for mechanically connecting a first electronic component , in particular a printed circuit board element, to a second electronic component , in particular a second printed circuit board element, wherein the first electronic component comprises a first through-opening in a first direction and the second electronic component comprises a second through-opening or a blind hole in the first direction , wherein the method comprises the following steps: arranging and aligning the first electronic component over the second electronic component in the first direction , in such a way that the second through-opening or the blind hole is arranged at least partially below the first through-opening in the first direction ; introducing an encapsulation compound into the first through-opening and into the second through-opening , or into the first through-opening and into the blind hole; and curing the encapsulation compound in order to fix the first electronic component in relation to the second electronic component , characterized by the following steps: applying a dam material , which extends around the first through-opening , onto a first side of the first electronic component , facing away from the second electronic component , and applying a fill material as an encapsulation compound onto that part of the first side of the first electronic component which is enclosed by the dam material , in such a way that the fill material is introduced into the first through-opening and into the second through-opening or into the blind hole. arranging and aligning the first electronic component over the second electronic component in the first direction , in such a way that the second through-opening or the blind hole is arranged at least partially below the first through-opening in the first direction ; introducing an encapsulation compound into the first through-opening and into the second through-opening , or into the first through-opening and into the blind hole; and curing the encapsulation compound in order to fix the first electronic component in relation to the second electronic component , characterized by the following steps: applying a dam material , which extends around the first through-opening , onto a first side of the first electronic component , facing away from the second electronic component , and applying a fill material as an encapsulation compound onto that part of the first side of the first electronic component which is enclosed by the dam material , in such a way that the fill material is introduced into the first through-opening and into the second through-opening or into the blind hole. applying a dam material , which extends around the first through-opening , onto a first side of the first electronic component , facing away from the second electronic component , and applying a fill material as an encapsulation compound onto that part of the first side of the first electronic component which is enclosed by the dam material , in such a way that the fill material is introduced into the first through-opening and into the second through-opening or into the blind hole.
-1a-(hydroxymethyl)-4-methoxy-2-(( -3,4,5-trihydroxy-6-(hydroxymethyl)tetrahydro-2H-pyran-2-yl)oxy)octahydrooxireno[2',3':4,5]cyclopenta[1,2-c]pyran-6-yl4-hydroxybenzoate (KS-513) represented by the following chemical formula , a pharmaceutically acceptable salt or solvates thereof:
An automatic analyzer for conducting a sample analysis operation of causing a reaction by mixing a sample with a reagent, of pre-cleaning the reaction product after the reaction is finished, of determining constituents in question by detecting signals from the reaction product, and of outputting measuring results, the automatic analyzer comprising: selection means for allowing the user to select whether a preparatory operation such as a system liquid replacement operation, a sample nozzle pressure sensor checking operation, a reaction vessel discarding operation and/or a pre-cleaning liquid replacement operation as an analysis preparation process necessary before the start of analysis by the automatic analyzer, should be executed in an initial process at the powering on of the analyzer, in a preparation process before the start of the sample analysis operation or in parallel with the sample analysis operation, wherein the automatic analyzer is adapted to execute the preparatory operation at the timing selected by the user. selection means for allowing the user to select whether a preparatory operation such as a system liquid replacement operation, a sample nozzle pressure sensor checking operation, a reaction vessel discarding operation and/or a pre-cleaning liquid replacement operation as an analysis preparation process necessary before the start of analysis by the automatic analyzer, should be executed in an initial process at the powering on of the analyzer, in a preparation process before the start of the sample analysis operation or in parallel with the sample analysis operation, wherein the automatic analyzer is adapted to execute the preparatory operation at the timing selected by the user.
A method of providing a Maneuver Coordination Service, "MCS", by an Intelligent Transport System Station, "ITS-S", the method comprising: generating, by an MCS facility, a first Maneuver Coordination Message, "MCM", to indicate a detected event for maneuver coordination; transmitting or broadcasting, by the MCS facility, the first MCM to one or more other ITS-Ss proximate to the ITS-S; executing, by the MCS facility, one or more actions of an individual maneuver change based on the detected event when the individual maneuver change without coordination is determined to be sufficient for the detected event; and initiating, by the MCS facility, group coordination for the detected event when the individual maneuver change is determined not to be sufficient for the detected event, wherein the initiating group coordination comprises: calculating, by the MCS facility, a maximum time available for negotiation/execution for one or more maneuver coordination strategies; determining, by the MCS facility, a set of the one or more other ITS-Ss to be impacted by the one or more maneuver coordination strategies and to be included in a maneuver coordination group, "MCG"; and causing transmitting or broadcasting, by the MCS facility, of a second MCM to the determined ITS-Ss in the MCG, the second MCM including MCG information the one or more maneuver coordination strategies, the maximum time available for negotiation/execution for the one or more maneuver coordination strategies, the ITS-Ss to be impacted by the one or more maneuver coordination strategies and indicating the detected event. generating, by an MCS facility, a first Maneuver Coordination Message, "MCM", to indicate a detected event for maneuver coordination; transmitting or broadcasting, by the MCS facility, the first MCM to one or more other ITS-Ss proximate to the ITS-S; executing, by the MCS facility, one or more actions of an individual maneuver change based on the detected event when the individual maneuver change without coordination is determined to be sufficient for the detected event; and calculating, by the MCS facility, a maximum time available for negotiation/execution for one or more maneuver coordination strategies; determining, by the MCS facility, a set of the one or more other ITS-Ss to be impacted by the one or more maneuver coordination strategies and to be included in a maneuver coordination group, "MCG"; and causing transmitting or broadcasting, by the MCS facility, of a second MCM to the determined ITS-Ss in the MCG, the second MCM including MCG information the one or more maneuver coordination strategies, the maximum time available for negotiation/execution for the one or more maneuver coordination strategies, the ITS-Ss to be impacted by the one or more maneuver coordination strategies and indicating the detected event.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a system information block 1, SIB1, including information on a list of system information, SI, request resources, and information on a number N of synchronization signal blocks, SSBs per one random access channel, RACH, occasion, wherein an entry included in the list corresponds to an SI message and includes a random access, RA, preamble start index for an SI request; in case that a random access procedure is initiated to request the SI message, identifying an SSB; identifying a random access preamble among at least one random access preamble for the SI message, wherein the random access preamble corresponds to the SSB; identifying a physical random access channel, PRACH, occasion corresponding to the SSB; and transmitting, to the base station, the random access preamble in the PRACH occasion for the SI message, wherein, in case that the N is larger than or equal to 1, an index of i-th random access preamble among the at least one random access preamble corresponds to i-th SSB among the N of the SSBs and is determined as the RA preamble start index plus the i, and wherein the i is indexed from 0 to N - 1. receiving, from a base station, a system information block 1, SIB1, including information on a list of system information, SI, request resources, and information on a number N of synchronization signal blocks, SSBs per one random access channel, RACH, occasion, wherein an entry included in the list corresponds to an SI message and includes a random access, RA, preamble start index for an SI request; in case that a random access procedure is initiated to request the SI message, identifying an SSB; identifying a random access preamble among at least one random access preamble for the SI message, wherein the random access preamble corresponds to the SSB; identifying a physical random access channel, PRACH, occasion corresponding to the SSB; and transmitting, to the base station, the random access preamble in the PRACH occasion for the SI message, wherein, in case that the N is larger than or equal to 1, an index of i-th random access preamble among the at least one random access preamble corresponds to i-th SSB among the N of the SSBs and is determined as the RA preamble start index plus the i, and wherein the i is indexed from 0 to N - 1.