mhurhangee/ep-ind-claims huggingface dataset:
An exhaust system comprising: an exhaust pipe including a straight portion, and a bent portion that is bent and extends from a downstream end of the straight portion; a muffler provided on a downstream side of the exhaust pipe; and a reinforcing member, characterized in that the straight portion of the exhaust pipe is connected with an upstream end of the muffler through the bent portion; and the reinforcing member is provided so as to extend across a downstream end portion of the straight portion, and an upstream end portion of the muffler, and wherein: the reinforcing member is formed so as to have an arc-shaped section that is curved along an outer periphery of the straight portion and an outer periphery of the muffler. an exhaust pipe including a straight portion, and a bent portion that is bent and extends from a downstream end of the straight portion; a muffler provided on a downstream side of the exhaust pipe; and a reinforcing member, characterized in that the straight portion of the exhaust pipe is connected with an upstream end of the muffler through the bent portion; and the reinforcing member is provided so as to extend across a downstream end portion of the straight portion, and an upstream end portion of the muffler, and wherein: the reinforcing member is formed so as to have an arc-shaped section that is curved along an outer periphery of the straight portion and an outer periphery of the muffler.
A process for producing a plastic composite component comprising the following steps: a) providing a first plastic component comprising ia) a matrix composition comprising a polyamide matrix polymer and at least one first fiber material for reinforcement, and ib) a surface composition which comprises a polyamide surface polymer and forms a surface of C1, and b) molding a second plastic component comprising a polyamide molding polymer onto the surface of C1, wherein SC and/or C2 comprises a polyethyleneimine for improving the adhesion between C1 and C2, wherein, in step a), C1 is placed into a mold and, in step b), C2 is injected into the mold in the molten state. a) providing a first plastic component comprising ia) a matrix composition comprising a polyamide matrix polymer and at least one first fiber material for reinforcement, and ib) a surface composition which comprises a polyamide surface polymer and forms a surface of C1, and ia) a matrix composition comprising a polyamide matrix polymer and at least one first fiber material for reinforcement, and ib) a surface composition which comprises a polyamide surface polymer and forms a surface of C1, and b) molding a second plastic component comprising a polyamide molding polymer onto the surface of C1,
A chimeric antigen receptor specific to human leukocyte antigen G (HLA-G) comprising, in order from an N-terminus to a C-terminus: the anti-HLA-G antibody comprising an amino acid sequence of SEQ ID NO: 1; the amino acid sequence of SEQ ID NO: 2; and the amino acid sequence of SEQ ID NO: 3. the anti-HLA-G antibody comprising an amino acid sequence of SEQ ID NO: 1; the amino acid sequence of SEQ ID NO: 2; and the amino acid sequence of SEQ ID NO: 3.
A method for processing signals, the method comprising: in a CMOS chip, receiving optical signals from one or more optical fibers via grating couplers (117A-117D) on a top surface of said CMOS chip; converting said optical signals to electrical signals via one or more photodetectors (111A-111D) integrated in said CMOS chip; processing said electrical signals using circuitry in said CMOS chip; receiving a continuous-wave optical signal from a laser source (147, 900) via grating couplers on said top surface of said CMOS chip; modulating said received CW optical signal using one or more optical modulators (105A-105D) integrated in said CMOS chip; receiving electrical signals from circuitry in said CMOS chip; driving said one or more optical modulators using said received electrical signals; and communicating said modulated optical signal out of said top surface of said CMOS chip into one or more optical fibers via one or more grating couplers (117E-117H) integrated in said CMOS chip; wherein said laser source (147, 900) is bonded to said top surface of said CMOS chip, wherein said laser source (147, 900) comprises an optical bench, a laser mount, a laser diode, a ball lens, an optical isolator, a mirror element, bond pads, a lid, and a support ring, wherein in operation, the CW optical signal is generated by the laser diode which is focused and/or collimated by the ball lens onto the optical isolator, wherein the CW optical signal is then reflected out of the laser source (147, 900) via the mirror element. receiving optical signals from one or more optical fibers via grating couplers (117A-117D) on a top surface of said CMOS chip; converting said optical signals to electrical signals via one or more photodetectors (111A-111D) integrated in said CMOS chip; processing said electrical signals using circuitry in said CMOS chip; receiving a continuous-wave optical signal from a laser source (147, 900) via grating couplers on said top surface of said CMOS chip; modulating said received CW optical signal using one or more optical modulators (105A-105D) integrated in said CMOS chip; receiving electrical signals from circuitry in said CMOS chip; driving said one or more optical modulators using said received electrical signals; and communicating said modulated optical signal out of said top surface of said CMOS chip into one or more optical fibers via one or more grating couplers (117E-117H) integrated in said CMOS chip; wherein said laser source (147, 900) is bonded to said top surface of said CMOS chip, wherein said laser source (147, 900) comprises an optical bench, a laser mount, a laser diode, a ball lens, an optical isolator, a mirror element, bond pads, a lid, and a support ring, wherein in operation, the CW optical signal is generated by the laser diode which is focused and/or collimated by the ball lens onto the optical isolator, wherein the CW optical signal is then reflected out of the laser source (147, 900) via the mirror element.
A battery unit comprising six battery unit faces (30, 32, 34, 36, 38, 40), said battery unit having a shape that can be inscribed in an imaginary cube having six cube faces such that each battery unit face (30, 32, 34, 36, 38, 40) forms part of a corresponding imaginary cube face, wherein a first battery unit face pair of said battery unit comprises a first battery unit face and a second battery unit face, characterized in that said first battery unit face comprises a first set of anode terminals and a first set of cathode terminals, said second battery unit face comprising a second set of anode terminals and a second set of cathode terminals, said battery unit being such that said second battery unit face can assume two different positions relative to a first battery unit face of a second battery unit of the same type, wherein: - in a first position, each anode terminal of said second set of anode terminals of said second battery unit face contacts an anode terminal of said first set of anode terminals of said first battery unit face of said second battery unit and each cathode terminal of said second set of cathode terminals of said second battery unit face contacts a cathode terminal of said first set of cathode terminals of said first battery unit face of said second battery unit, and - in a second position, each anode terminal of said second set of anode terminals of said second battery unit face contacts a cathode terminal of said first set of cathode terminals of said first battery unit face of said second battery unit and each cathode terminal of said second set of cathode terminals of said second battery unit face contacts an anode terminal of said first set of anode terminals of said first battery unit face of said second battery unit. - in a first position, each anode terminal of said second set of anode terminals of said second battery unit face contacts an anode terminal of said first set of anode terminals of said first battery unit face of said second battery unit and each cathode terminal of said second set of cathode terminals of said second battery unit face contacts a cathode terminal of said first set of cathode terminals of said first battery unit face of said second battery unit, and - in a second position, each anode terminal of said second set of anode terminals of said second battery unit face contacts a cathode terminal of said first set of cathode terminals of said first battery unit face of said second battery unit and each cathode terminal of said second set of cathode terminals of said second battery unit face contacts an anode terminal of said first set of anode terminals of said first battery unit face of said second battery unit.
An apparatus, comprising: a series switching logic configured to receive an input signal, wherein when the series switching logic receives the input signal, the series switching logic transmits an output signal; a relay control switch configured to receive the output signal from the series switching logic and configured to activate a series-parallel relay, wherein when the output signal from the series switching logic is received, the relay control switch activates the series-parallel relay that configures a first battery and a second battery into a series connection; and a cutoff switch configured to detect an operating voltage, wherein when the operating voltage reaches a predetermined cutoff voltage, the cutoff switch terminates the output signal from the series switching logic and the first battery and the second battery are then reconfigured into a parallel connection. a series switching logic configured to receive an input signal, wherein when the series switching logic receives the input signal, the series switching logic transmits an output signal; a relay control switch configured to receive the output signal from the series switching logic and configured to activate a series-parallel relay, wherein when the output signal from the series switching logic is received, the relay control switch activates the series-parallel relay that configures a first battery and a second battery into a series connection; and a cutoff switch configured to detect an operating voltage, wherein when the operating voltage reaches a predetermined cutoff voltage, the cutoff switch terminates the output signal from the series switching logic and the first battery and the second battery are then reconfigured into a parallel connection.
A connector configured to bring an object into conduction, the connector comprising: a pair of fitting bodies (20, 30) fittable to each other; and a filler with which at least one fitting body (20, 30) of said pair of fitting bodies (20, 30) is loaded, wherein one fitting body of said pair of fitting bodies (20, 30) includes: an accommodating portion formed inside said fitting body, including a bottom surface and configured to accommodate said object together with said filler; and characterized in that said one fitting body further includes a receiving portion configured to be adjacent to said accommodating portion through an opening formed on said bottom surface side and configured to receive said filler, wherein said receiving portion is formed on an outer surface of said fitting body, the receiving portion being continuous with said opening and being a recess exposed to an outside. a pair of fitting bodies (20, 30) fittable to each other; and a filler with which at least one fitting body (20, 30) of said pair of fitting bodies (20, 30) is loaded, wherein one fitting body of said pair of fitting bodies (20, 30) includes: an accommodating portion formed inside said fitting body, including a bottom surface and configured to accommodate said object together with said filler; and characterized in that said one fitting body further includes a receiving portion configured to be adjacent to said accommodating portion through an opening formed on said bottom surface side and configured to receive said filler, wherein said receiving portion is formed on an outer surface of said fitting body, the receiving portion being continuous with said opening and being a recess exposed to an outside. an accommodating portion formed inside said fitting body, including a bottom surface and configured to accommodate said object together with said filler; and characterized in that said one fitting body further includes a receiving portion configured to be adjacent to said accommodating portion through an opening formed on said bottom surface side and configured to receive said filler, wherein said receiving portion is formed on an outer surface of said fitting body, the receiving portion being continuous with said opening and being a recess exposed to an outside.
Rotary vibration damper having a flange and having centrifugal weights (24, 44, 54) arranged in displaceable fashion on the flange, wherein roller elements are provided which guide the centrifugal weights (24, 44, 54), wherein the flange and the centrifugal weights (24, 44, 54) have guide tracks (26, 27) into which the roller elements engage, wherein means (31, 42, 52) for elevating a centre of gravity are provided on at least one of the centrifugal weights (24, 44, 54), wherein a means for elevating a centre of gravity is at least one lug which projects from the at least one centrifugal weight (24, 54) in an axial and/or radial direction.
A composition comprising: at least one elastomer, and a hydrocarbon polymer additive having a dicyclopentadiene, cyclopentadiene, and methylcyclopentadiene derived content of 40 wt% to 80 wt% of the total weight of the hydrocarbon polymer additive, a weight average molecular weight of 100 g/mole to 800 g/mole, and a softening point of 110°C to 150°C as determined in accordance with ASTM D6090. at least one elastomer, and a hydrocarbon polymer additive having a dicyclopentadiene, cyclopentadiene, and methylcyclopentadiene derived content of 40 wt% to 80 wt% of the total weight of the hydrocarbon polymer additive, a weight average molecular weight of 100 g/mole to 800 g/mole, and a softening point of 110°C to 150°C as determined in accordance with ASTM D6090.
A two-component flowable dental composition comprising: (a) a base paste comprising a polythiol and a methacrylate, and (b) a catalyst paste comprising a polyene, a methacrylate resin, a curing system being a photoinitiator and a base catalyst; wherein the polyene is selected from the group consisting of tricyclo[5.2.1.0 2,6]decanedimethanol diacrylate, pentaerythritol tetraacrylate, polyacrylates and polyvinyl ethers wherein the base catalyst is capable of promoting nucleophile-initiated thiol-ene Michael addition reaction at room temperature upon a paste/paste mixing, the base catalyst being selected from the group consisting of triethyl amine, 1,8-diazabicyclo[5,4,0] undec-7-ene, and 1,4-diazabicyclo[2,2,2]-octane(DABCO). (a) a base paste comprising a polythiol and a methacrylate, and (b) a catalyst paste comprising a polyene, a methacrylate resin, a curing system being a photoinitiator and a base catalyst; wherein the polyene is selected from the group consisting of tricyclo[5.2.1.0 2,6]decanedimethanol diacrylate, pentaerythritol tetraacrylate, polyacrylates and polyvinyl ethers wherein the base catalyst is capable of promoting nucleophile-initiated thiol-ene Michael addition reaction at room temperature upon a paste/paste mixing, the base catalyst being selected from the group consisting of triethyl amine, 1,8-diazabicyclo[5,4,0] undec-7-ene, and 1,4-diazabicyclo[2,2,2]-octane(DABCO).
A surgical system, comprising: a surgical tool including an elongate shaft having an end effector at a distal end thereof, the surgical tool including a cutting element configured to translate along the end effector to cut tissue engaged by the end effector, wherein a torque force is applied to the surgical tool to cause the cutting element translation, and a rod configured to move to articulate the end effector at an angle relative to the elongate shaft, the movement of the rod being configured to be driven by a motor; and a controller configured to determine an amount of corrective force based on the angle and the torque force, and the controller being configured to apply the determined corrective force to the rod during the translation of the cutting element. a surgical tool including an elongate shaft having an end effector at a distal end thereof, the surgical tool including a cutting element configured to translate along the end effector to cut tissue engaged by the end effector, wherein a torque force is applied to the surgical tool to cause the cutting element translation, and a rod configured to move to articulate the end effector at an angle relative to the elongate shaft, the movement of the rod being configured to be driven by a motor; and a controller configured to determine an amount of corrective force based on the angle and the torque force, and the controller being configured to apply the determined corrective force to the rod during the translation of the cutting element.
A process for the production of a high tenacity, highly oriented film, tape, fiber, ribbon or sheet from a polyolefin powder comprising: a) feeding a metered amount of ultra high molecular weight polyethylene (UHMWPE) powder to an apparatus comprising: i) a pair of vertically oriented, counter rotating heated calender rolls defining a nip there between and including a top and a bottom heated calender roll, the top heated calender roll having an outer surface and an apex; and ii) a metering mechanism for feeding a metered amount of the UHMWPE powder to the apex of said top roll wherefrom the UHMWPE powder is delivered to the nip by rotation about the surface of said top roll from the apex to the nip; b) rolling the UHMWPE powder through the nip under these conditions until a virtually full density coherent polyolefin sheet is produced; c) once the virtually full density coherent polyolefin sheet exits the nip, adjusting the temperature in the nip to a temperature between 12 °C lower to 8 °C higher than the onset of melt for the particular UHMWPE powder being processed as determined by differential scanning calorimetry; and d) drawing the virtually full density coherent polyolefin sheet while maintaining a constant tension to produce the high tenacity, highly oriented UHMWPE film, tape, fiber, ribbon or sheet having a high heat of fusion. a) feeding a metered amount of ultra high molecular weight polyethylene (UHMWPE) powder to an apparatus comprising: i) a pair of vertically oriented, counter rotating heated calender rolls defining a nip there between and including a top and a bottom heated calender roll, the top heated calender roll having an outer surface and an apex; and ii) a metering mechanism for feeding a metered amount of the UHMWPE powder to the apex of said top roll wherefrom the UHMWPE powder is delivered to the nip by rotation about the surface of said top roll from the apex to the nip; i) a pair of vertically oriented, counter rotating heated calender rolls defining a nip there between and including a top and a bottom heated calender roll, the top heated calender roll having an outer surface and an apex; and ii) a metering mechanism for feeding a metered amount of the UHMWPE powder to the apex of said top roll wherefrom the UHMWPE powder is delivered to the nip by rotation about the surface of said top roll from the apex to the nip; b) rolling the UHMWPE powder through the nip under these conditions until a virtually full density coherent polyolefin sheet is produced; c) once the virtually full density coherent polyolefin sheet exits the nip, adjusting the temperature in the nip to a temperature between 12 °C lower to 8 °C higher than the onset of melt for the particular UHMWPE powder being processed as determined by differential scanning calorimetry; and d) drawing the virtually full density coherent polyolefin sheet while maintaining a constant tension to produce the high tenacity, highly oriented UHMWPE film, tape, fiber, ribbon or sheet having a high heat of fusion.
A method of performing, by a user equipment, UE, a random access procedure in a wireless communication system, the method comprising: receiving i) a msgA Preamble Received Target Power for a MsgA preamble and ii) a msgA Delta Preamble for a transmission of a MsgA Physical Uplink Shared CHannel, PUSCH; transmitting the MsgA preamble and the MsgA PUSCH; and receiving a random access response, RAR, message, characterized in that wherein the MsgA preamble is transmitted based on the msgA Preamble Received Target Power, wherein the MsgA PUSCH is transmitted based on a PUSCH transmission power, and wherein the PUSCH transmission power is determined by 10*log10(MPUSCH) + msgA Preamble Received Target Power + msgA Delta Preamble + PC, whereby MPUSCH is a number of resource blocks for the MsgA PUSCH, the msgA Delta Preamble is a power offset relative to the msgA Preamble Received Target Power, and PC is a power control value depending on a path loss, PL and a transport format, TF. receiving i) a msgA Preamble Received Target Power for a MsgA preamble and ii) a msgA Delta Preamble for a transmission of a MsgA Physical Uplink Shared CHannel, PUSCH; transmitting the MsgA preamble and the MsgA PUSCH; and receiving a random access response, RAR, message, characterized in that wherein the MsgA preamble is transmitted based on the msgA Preamble Received Target Power, wherein the MsgA PUSCH is transmitted based on a PUSCH transmission power, and wherein the PUSCH transmission power is determined by 10*log10(MPUSCH) + msgA Preamble Received Target Power + msgA Delta Preamble + PC, whereby MPUSCH is a number of resource blocks for the MsgA PUSCH, the msgA Delta Preamble is a power offset relative to the msgA Preamble Received Target Power, and PC is a power control value depending on a path loss, PL and a transport format, TF.
A polishing pad (100; 200; 300) comprising a polishing member (110; 210; 310) having a polishing surface (P1; P21, P22; P31, P32), characterized in that the polishing member comprises a material having dilatancy characteristics, wherein the material having dilatancy characteristics is the material constituting the polishing surface of the polishing pad, and wherein the material having dilatancy characteristics means a material that has higher viscosity at the time shearing strain is given as compared with the case where the shearing strain is not given.