mhurhangee/ep-ind-claims huggingface dataset:
A method of performing D2D (device-to-device) communication, by a first UE, in a wireless communication system, the method comprising: receiving control information containing information on reserved resources allocated to be used for transmission of a second UE, from the second UE; and performing D2D transmission in consideration of the reserved resources of the second UE, wherein the D2D transmission is performed in a resource pool except for specific resource, wherein the specific resource is a reserved resource of which reception power is greater than a specific threshold among the reserved resources of the second UE, and wherein the control information further comprises information on a priority of data to be transmitted by the second UE and wherein the specific threshold is determined based on the priority of the data to be transmitted by the second UE and a priority of data to be transmitted by the first UE. receiving control information containing information on reserved resources allocated to be used for transmission of a second UE, from the second UE; and performing D2D transmission in consideration of the reserved resources of the second UE, wherein the D2D transmission is performed in a resource pool except for specific resource, wherein the specific resource is a reserved resource of which reception power is greater than a specific threshold among the reserved resources of the second UE, and wherein the control information further comprises information on a priority of data to be transmitted by the second UE and wherein the specific threshold is determined based on the priority of the data to be transmitted by the second UE and a priority of data to be transmitted by the first UE.
A method for making a targeted modular therapeutic agent for treating a disease or condition, the method comprising: identifying a target marker, said target marker being differentially expressed in the presence of a target cell population; screening a library of mRNA-protein pairs comprising proteins linked to their cognate mRNAs to identify the mRNA-protein pairs having substantial affinity for the target marker; obtaining one or more proteins corresponding to the proteins from the identified mRNA-protein pairs; and conjugating the obtained protein(s) to an antibody binding domain, wherein said antibody binding domain is capable of interaction with an antibody that stimulates or suppresses an immune response against the target cell population. identifying a target marker, said target marker being differentially expressed in the presence of a target cell population; screening a library of mRNA-protein pairs comprising proteins linked to their cognate mRNAs to identify the mRNA-protein pairs having substantial affinity for the target marker; obtaining one or more proteins corresponding to the proteins from the identified mRNA-protein pairs; and conjugating the obtained protein(s) to an antibody binding domain, wherein said antibody binding domain is capable of interaction with an antibody that stimulates or suppresses an immune response against the target cell population.
Alight receiving element comprising: a semiconductor layer in which photodiodes performing photoelectric conversion of infrared rays are formed in units of pixels; and a wiring layer in which a transfer transistor reading charge generated by the photodiodes is formed, wherein an inter-pixel light shielding unit that shields the infrared rays is formed at a pixel boundary portion of the wiring layer, wherein the inter-pixel light shielding unit is formed at a position of the same layer as that of a gate contact that connects a gate of the transfer transistor and the metal film closest to the semiconductor layer, and wherein the inter-pixel light shielding unit is formed at the same time when the gate contact is formed, and the inter-pixel light shielding unit is formed of the same material as that of the gate contact. a semiconductor layer in which photodiodes performing photoelectric conversion of infrared rays are formed in units of pixels; and a wiring layer in which a transfer transistor reading charge generated by the photodiodes is formed, wherein an inter-pixel light shielding unit that shields the infrared rays is formed at a pixel boundary portion of the wiring layer, wherein the inter-pixel light shielding unit is formed at a position of the same layer as that of a gate contact that connects a gate of the transfer transistor and the metal film closest to the semiconductor layer, and wherein the inter-pixel light shielding unit is formed at the same time when the gate contact is formed, and the inter-pixel light shielding unit is formed of the same material as that of the gate contact. wherein the inter-pixel light shielding unit is formed at a position of the same layer as that of a gate contact that connects a gate of the transfer transistor and the metal film closest to the semiconductor layer, and wherein the inter-pixel light shielding unit is formed at the same time when the gate contact is formed, and the inter-pixel light shielding unit is formed of the same material as that of the gate contact.
An uncured fibre reinforced assembly comprising a fibrous reinforcement provided with at least one highly reactive curing agent that is solid at a temperature between 10 °C and 30 °C and comprising 2-methylimidazole, 2-ethylimidazole or 2-phenylimidazole and/or combinations thereof, said fibrous reinforcement having a matrix film layer applied to at least part of at least one of its surfaces wherein the matrix film layer comprises at least one epoxy resin material together with at least one latent epoxy curing agent, the latent epoxy curing agent being an aliphatic and/or aromatic amine that is solid at a temperature between 10 °C and 30 °C, and wherein the matrix film layer impregnates the fibrous reinforcement by less than 15%, and wherein the assembly can be cured by vacuum bag curing in 15 minutes at 100 °C.
A method (1900, 2000, 2100) for wireless communication performed by a user equipment, UE, the method comprising: winning (1905, 2010, 2110) a contention for access to an unlicensed radio frequency spectrum band; receiving, in a system information block, a mapping of resource sets of an enhanced physical random access channel, ePRACH, to frequency-interlaced resource blocks; selecting, from among the resource sets of the ePRACH, a resource set for transmitting a request message, transmitting (1910, 2020, 2115) on the selected resource set the request message upon winning the contention for access to the unlicensed radio frequency spectrum band, the request message being transmitted by the user equipment, UE, (115, 215, 215-a, 215-b, 215-c) on the enhanced physical random access channel, ePRACH, to access a cell that operates in the unlicensed radio frequency spectrum band; and receiving (1915, 2030, 2125), in response to transmitting the request message, a response message over the unlicensed radio frequency spectrum band. winning (1905, 2010, 2110) a contention for access to an unlicensed radio frequency spectrum band; receiving, in a system information block, a mapping of resource sets of an enhanced physical random access channel, ePRACH, to frequency-interlaced resource blocks; selecting, from among the resource sets of the ePRACH, a resource set for transmitting a request message, transmitting (1910, 2020, 2115) on the selected resource set the request message upon winning the contention for access to the unlicensed radio frequency spectrum band, the request message being transmitted by the user equipment, UE, (115, 215, 215-a, 215-b, 215-c) on the enhanced physical random access channel, ePRACH, to access a cell that operates in the unlicensed radio frequency spectrum band; and receiving (1915, 2030, 2125), in response to transmitting the request message, a response message over the unlicensed radio frequency spectrum band.
A pouring fitting [20,30,60] for fitting onto a mouth portion of a container, the pouring fitting [20, 30, 60] having a flow passage [3,33,75] for flowing fluid substance, characterized in that said flow passage [3,33,75] is forming a liquid-permeable surface in at least the tip portion thereof that serves as a pouring port, wherein said liquid-permeable surface is holding a liquid different from, and immiscible with, said fluid substance intended to be flowed through said flow passage [3, 33, 75], and wherein a covering ratio F with the liquid is 0.35 to 0.91, said covering ratio F being represented by the following formula, F = cos θ − cos θ B / cos θ A − cos θ B wherein θ is a water contact angle on the liquid-permeable surface holding the liquid different from the fluid substance, θ A is a water contact angle on the liquid different from the fluid substance, and θ B is a water contact angle on a surface of the flow passage [3,33,75] forming no liquid-permeable surface. wherein θ is a water contact angle on the liquid-permeable surface holding the liquid different from the fluid substance, θ A is a water contact angle on the liquid different from the fluid substance, and θ B is a water contact angle on a surface of the flow passage [3,33,75] forming no liquid-permeable surface.
A liquid composition comprising carbon nanotubes having surfaces modified by double bond-containing functional groups introduced into the surface of the carbon nanotubes dispersed in an organic solvent along with a photoinitiator, wherein the double bond-containing functional group is introduced from a compound having a structure of Formula 1 or Formula 2: (wherein, R1 is H or CH3; and X is Cl, NH2 or OH); and wherein, R1 is H or CH3; R2 is C1∼C6; and X is Cl, NH2 or OH.
A battery module comprising: a battery cell; a heat transfer plate that is arranged side by side with the battery cell and faces the battery cell in a first direction, wherein the heat transfer plate is thermally coupled to the battery cell and includes an edge extending in a second direction that intersects the first direction; and a holder that holds the battery cell and includes a cutout section to which the heat transfer plate is fitted, wherein the edge of the heat transfer plate includes a first engagement section that is at least one of a first recess and a first protrusion, and the holder includes a second engagement section that is at least one of a second protrusion, which is fitted to the first recess, and a second recess, which is fitted to the first protrusion, the cutout section opens in the first and second directions, characterized in that the first engagement section and the second engagement section are concave or convex in a third direction that intersects the first and second directions and are engaged with each other to limit movement of the heat transfer plate in the second direction relative to the holder. a battery cell; a heat transfer plate that is arranged side by side with the battery cell and faces the battery cell in a first direction, wherein the heat transfer plate is thermally coupled to the battery cell and includes an edge extending in a second direction that intersects the first direction; and a holder that holds the battery cell and includes a cutout section to which the heat transfer plate is fitted, wherein the edge of the heat transfer plate includes a first engagement section that is at least one of a first recess and a first protrusion, and the holder includes a second engagement section that is at least one of a second protrusion, which is fitted to the first recess, and a second recess, which is fitted to the first protrusion, the cutout section opens in the first and second directions, characterized in that the first engagement section and the second engagement section are concave or convex in a third direction that intersects the first and second directions and are engaged with each other to limit movement of the heat transfer plate in the second direction relative to the holder.
A drive lever assembly for an agricultural vehicle, with a shift gate and a drive lever which engages in the shift gate, which can be deflected in a longitudinal direction of the shift gate from a neutral position at least into a forward drive position, and which has play in a transverse direction of the shift gate, wherein at least in the forward drive position, the drive lever is movable in the transverse direction between an adjustment position, in which the drive lever is movable in the longitudinal direction against a reduced frictional moment, and a retaining position, in which a raised frictional moment is applied on the drive lever, characterized in that an elastic friction body extends in the longitudinal direction of the shift gate and in that in the retaining position, the drive lever is pressed against the friction body.
A substrate permeability measuring device suitable for determining the colmation of sediments, comprising - an injection element for insertion into a sediment to be examined, comprising: - several outlet openings uniformly distributed over the outer circumference of the injection element, the outlet openings being disposed in the region of the free end of the injection element and having a diameter in the range of 1 - 5 mm, and - a cavity for conducting water to the outlet openings, - a pressure increasing device via which the water can be injected with overpressure through the injection element and the outlet opening into the sediment surrounding the injection element. - an injection element for insertion into a sediment to be examined, comprising: - several outlet openings uniformly distributed over the outer circumference of the injection element, the outlet openings being disposed in the region of the free end of the injection element and having a diameter in the range of 1 - 5 mm, and - a cavity for conducting water to the outlet openings, - several outlet openings uniformly distributed over the outer circumference of the injection element, the outlet openings being disposed in the region of the free end of the injection element and having a diameter in the range of 1 - 5 mm, and - a cavity for conducting water to the outlet openings, - a pressure increasing device via which the water can be injected with overpressure through the injection element and the outlet opening into the sediment surrounding the injection element.
A crystal oscillator-based module, comprising: a conditioning circuit for receiving a synchronization clock signal from a first bus (SYNC B) and outputting a conditioned signal, the conditioning circuit comprising a CMOS inverter biased by a first resistor, together with an LC delay section and a dumping resistor for conditioning the amplitude and phase of the synchronization clock signal; a crystal resonator connected so as to receive the conditioned signal and output a resonator signal; a sustaining stage amplifier connected so as to receive the resonator signal and output a sustaining stage signal; a gain control network comprising a first inductor connected so as to receive the sustaining stage signal; a synchronization range expansion circuit connected between the gain control network and the resonator, the synchronization range expansion circuit comprising a second inductor, wherein a closed loop is formed by the second inductor connected in series with the crystal resonator, the sustaining stage amplifier and the first inductor; wherein the gain control network further includes a capacitor connected between ground and a connection node between the first inductor and the second inductor; a buffer for receiving the sustaining stage signal and outputting a buffered signal; a tri-state buffer having a main input, a control input, and an output, the main input connected to receive the buffered signal, and the output connectable to a second bus (SYNC A). a conditioning circuit for receiving a synchronization clock signal from a first bus (SYNC B) and outputting a conditioned signal, the conditioning circuit comprising a CMOS inverter biased by a first resistor, together with an LC delay section and a dumping resistor for conditioning the amplitude and phase of the synchronization clock signal; a crystal resonator connected so as to receive the conditioned signal and output a resonator signal; a sustaining stage amplifier connected so as to receive the resonator signal and output a sustaining stage signal; a gain control network comprising a first inductor connected so as to receive the sustaining stage signal; a synchronization range expansion circuit connected between the gain control network and the resonator, the synchronization range expansion circuit comprising a second inductor, wherein a closed loop is formed by the second inductor connected in series with the crystal resonator, the sustaining stage amplifier and the first inductor; wherein the gain control network further includes a capacitor connected between ground and a connection node between the first inductor and the second inductor; a buffer for receiving the sustaining stage signal and outputting a buffered signal; a tri-state buffer having a main input, a control input, and an output, the main input connected to receive the buffered signal, and the output connectable to a second bus (SYNC A).
A method for measuring a time stamp unit of a remote device, comprising: obtaining m sets of sampled data, wherein each set of sampled data comprises packet transmission time stamps and times of arrival at a monitoring point that are of a previously transmitted data packet and a subsequently transmitted data packet of the remote device, m is a positive integer, and m>1; calculating m estimated time stamp units according to the packet transmission time stamps and the times of arrival at the monitoring point that are of the previously transmitted data packets and the subsequently transmitted data packets of the remote device and that are in the m sets of sampled data; selecting, from the m estimated time stamp units, an estimated time stamp unit, a difference between which and an average value of the m estimated time stamp units falls within a predetermined range; and calculating the time stamp unit of the remote device according to the selected estimated time stamp unit. obtaining m sets of sampled data, wherein each set of sampled data comprises packet transmission time stamps and times of arrival at a monitoring point that are of a previously transmitted data packet and a subsequently transmitted data packet of the remote device, m is a positive integer, and m>1; calculating m estimated time stamp units according to the packet transmission time stamps and the times of arrival at the monitoring point that are of the previously transmitted data packets and the subsequently transmitted data packets of the remote device and that are in the m sets of sampled data; selecting, from the m estimated time stamp units, an estimated time stamp unit, a difference between which and an average value of the m estimated time stamp units falls within a predetermined range; and calculating the time stamp unit of the remote device according to the selected estimated time stamp unit.
A polyisocyanurate comprising isocyanurate rings linked by linker groups which are aromatic or heteroaromatic or both, said linker groups being coupled to the nitrogen atoms of said rings, said polyisocyanurate being microporous or mesoporous or both microporous and mesoporous.
An organic light emitting diode comprising: a rectangular substrate including a light emitting portion having an anode, a cathode, and an organic layer of at least one layer arranged between the anode and the cathode, and a non-light emitting portion positioned on an outer side thereof; a total of four bar-type flexible printed circuit boards, each positioned along an entirety of a respective edge of the rectangular substrate in the non-light emitting portion; each bar-type flexible printed circuit board mounted with anode pads and cathode pads; and at least one of a soldering portion or a wire bonding portion making the bar-type flexible printed circuit boards having neighboring end portions conduct electricity, wherein each of the bar-type flexible printed circuit boards is electrically connected to two other of the bar-type flexible printed circuit boards at the anode pads and cathode pads at the neighboring end portions by the at least one of the soldering portion or the wire bonding portion. a rectangular substrate including a light emitting portion having an anode, a cathode, and an organic layer of at least one layer arranged between the anode and the cathode, and a non-light emitting portion positioned on an outer side thereof; a total of four bar-type flexible printed circuit boards, each positioned along an entirety of a respective edge of the rectangular substrate in the non-light emitting portion; each bar-type flexible printed circuit board mounted with anode pads and cathode pads; and at least one of a soldering portion or a wire bonding portion making the bar-type flexible printed circuit boards having neighboring end portions conduct electricity, wherein each of the bar-type flexible printed circuit boards is electrically connected to two other of the bar-type flexible printed circuit boards at the anode pads and cathode pads at the neighboring end portions by the at least one of the soldering portion or the wire bonding portion.
Composition in the form of an emulsion, preferably in the form of an oil-in-water emulsion, comprising at least one hydrophilic gelling polymer chosen from anionic acrylic copolymers and at least one lipophilic polymer comprising monomeric units of formulae and: in which: R 1, independently of one another, are chosen from alkyl or alkylene radicals; with at least 60% by weight of the R 1 groups being behenyl radicals, the percentage by weight relating to the sum of all the R 1 groups present in the polymer; the weight ratio of the sum of all the hydroxyethyl acrylate units to the sum of all the acrylate units bearing the R 1 group ranges from 1:30 to 1: 1; and the sum of the total of units A and B is at least 95% by weight of the total weight of the polymer; the lipophilic polymer having a number-average molecular weight Mn ranging from 2000 to 9000 g/mol. R 1, independently of one another, are chosen from alkyl or alkylene radicals; with at least 60% by weight of the R 1 groups being behenyl radicals, the percentage by weight relating to the sum of all the R 1 groups present in the polymer; the weight ratio of the sum of all the hydroxyethyl acrylate units to the sum of all the acrylate units bearing the R 1 group ranges from 1:30 to 1: 1; and the sum of the total of units A and B is at least 95% by weight of the total weight of the polymer; the lipophilic polymer having a number-average molecular weight Mn ranging from 2000 to 9000 g/mol.