mhurhangee/ep-ind-claims huggingface dataset:
A recording system comprising: a recording portion that performs recording on a medium; a stacking portion that stacks the medium recorded by the recording portion; and a processing portion (72, 73) that processes a bundle of media stacked on the stacking portion, wherein a controller that controls feeding of the medium to the stacking portion determines a maximum number of sheets of media to be stacked on the stacking portion, based on information on swelling of the medium recorded by the recording portion, and the recording portion performs recording by ejecting a liquid onto the medium, wherein the processing portion (72, 73) includes a binding section that binds the media at a position facing the stacking portion, characterized in that the processing portion further includes a folding unit that folds the media at a binding position of the binding section, the information on the swelling includes information on an amount of the liquid ejected to an area of the medium passing between the binding section and the stacking portion, and the controller determines the maximum number of sheets based on acquired information on the amount of the liquid. a recording portion that performs recording on a medium; a stacking portion that stacks the medium recorded by the recording portion; and a processing portion (72, 73) that processes a bundle of media stacked on the stacking portion, wherein a controller that controls feeding of the medium to the stacking portion determines a maximum number of sheets of media to be stacked on the stacking portion, based on information on swelling of the medium recorded by the recording portion, and the recording portion performs recording by ejecting a liquid onto the medium, wherein the processing portion (72, 73) includes a binding section that binds the media at a position facing the stacking portion, characterized in that the processing portion further includes a folding unit that folds the media at a binding position of the binding section, the information on the swelling includes information on an amount of the liquid ejected to an area of the medium passing between the binding section and the stacking portion, and the controller determines the maximum number of sheets based on acquired information on the amount of the liquid.
A recoil starter including: a reel support shaft; a rope reel that is rotatably mounted on the reel support shaft; a ratchet member that is swingably mounted on the rope reel; a ratchet guide that is rotatably mounted on the reel support shaft with friction resistance; and a friction spring that provides the friction resistance to the ratchet guide, wherein the ratchet guide includes: a guide portion that pushes out the ratchet member to an outer diameter direction when the rope reel rotates in an engine starting direction; and a swinging-prevention portion that prevents the ratchet member from swinging to the outer diameter direction when the ratchet member does not contact the guide portion, characterized in that the ratchet guide generally has a circular shape and includes a flange portion having a circular disc shape, and a concave portion disposed in the center of the flange portion, wherein rib-like wall portions protrude in the thickness direction from the back surface of the flange portion, wherein each of the wall portions forms said guide portion and said swinging-prevention portion. a reel support shaft; a rope reel that is rotatably mounted on the reel support shaft; a ratchet member that is swingably mounted on the rope reel; a ratchet guide that is rotatably mounted on the reel support shaft with friction resistance; and a friction spring that provides the friction resistance to the ratchet guide, wherein the ratchet guide includes: a guide portion that pushes out the ratchet member to an outer diameter direction when the rope reel rotates in an engine starting direction; and a swinging-prevention portion that prevents the ratchet member from swinging to the outer diameter direction when the ratchet member does not contact the guide portion, characterized in that the ratchet guide generally has a circular shape and includes a flange portion having a circular disc shape, and a concave portion disposed in the center of the flange portion, wherein rib-like wall portions protrude in the thickness direction from the back surface of the flange portion, wherein each of the wall portions forms said guide portion and said swinging-prevention portion. a guide portion that pushes out the ratchet member to an outer diameter direction when the rope reel rotates in an engine starting direction; and a swinging-prevention portion that prevents the ratchet member from swinging to the outer diameter direction when the ratchet member does not contact the guide portion, characterized in that the ratchet guide generally has a circular shape and includes a flange portion having a circular disc shape, and a concave portion disposed in the center of the flange portion, wherein rib-like wall portions protrude in the thickness direction from the back surface of the flange portion, wherein each of the wall portions forms said guide portion and said swinging-prevention portion.
A method of detecting proteins in a serum or plasma sample via mass spectrometry, comprising a step of adding a protease to the sample under conditions that do not allow protein denaturation to digest proteins at 0°C to 40°C and at pH 7 to 9, a step of separating the obtained peptides from undigested proteins, and a step of detecting the obtained peptides, wherein the protease is trypsin, wherein the step of detecting the obtained peptides is a step of subjecting the peptides to mass spectrometry, and wherein the method does not comprise a protein or peptide enrichment step before and/or after protease treatment.
A plating solution for a threaded connection for pipe or tube, the plating solution containing no cyanide, the plating solution comprising: copper pyrophosphate of 3g/L or more in terms of copper; tin pyrophosphate; zinc pyrophosphate; pyrophosphate as a metal complexing agent; and one or more sulfur-containing compounds of 0.01 to 40 g/L selected from a mercapto compound defined by Chemical Formula, a sulfide compound defined by Chemical Formula, a dimer formed through a disulfide bond of the mercapto compounds, and salts thereof: RS-(CHX 1) m -(CHX 2) n -CHX 3 X 4, where each of m and n is an integer of 1 or 0; each of X 1, X 2, X 3 and X 4 is any one of hydrogen, OH, NH 2, SO 3 H, and CO 2 H, but excluding that X 1, X 2, X 3, and X 4 are all hydrogen; and R is any one of hydrogen, a methyl group, and an ethyl group. copper pyrophosphate of 3g/L or more in terms of copper; tin pyrophosphate; zinc pyrophosphate; pyrophosphate as a metal complexing agent; and one or more sulfur-containing compounds of 0.01 to 40 g/L selected from a mercapto compound defined by Chemical Formula, a sulfide compound defined by Chemical Formula, a dimer formed through a disulfide bond of the mercapto compounds, and salts thereof: RS-(CHX 1) m -(CHX 2) n -CHX 3 X 4, where each of m and n is an integer of 1 or 0; each of X 1, X 2, X 3 and X 4 is any one of hydrogen, OH, NH 2, SO 3 H, and CO 2 H, but excluding that X 1, X 2, X 3, and X 4 are all hydrogen; and R is any one of hydrogen, a methyl group, and an ethyl group.
A melt polymerization process comprising: melt polymerizing reactants in the presence of a catalyst composition to form polymerized polycarbonate, wherein the catalyst composition comprises only a beta catalyst; adding a quencher composition to the polymerized polycarbonate, wherein the quencher composition comprises a quencher; and directing the polymerized polycarbonate to an extruder wherein the beta catalyst comprises tetraphenyl phosphonium acetate. melt polymerizing reactants in the presence of a catalyst composition to form polymerized polycarbonate, wherein the catalyst composition comprises only a beta catalyst; adding a quencher composition to the polymerized polycarbonate, wherein the quencher composition comprises a quencher; and directing the polymerized polycarbonate to an extruder wherein the beta catalyst comprises tetraphenyl phosphonium acetate.
An X-ray imaging system, comprising a target; an electron beam source configured to provide an electron beam for interaction with the target to generate X-ray radiation; electron optics configured to alternately direct the electron beam to at least a first and a second location on the target; an X-ray detector array configured to receive X-ray radiation generated at the first and second locations on the target; a sample position region for receiving a sample to be exposed to generated X-ray radiation, the sample position region being located in a region where X-ray radiation generated at the first location overlaps with X-ray radiation generated at the second location; and a processing unit coupled to the X-ray detector array, the processing unit being configured to create an image of a sample, positioned in the sample position region, based on the X-ray radiation originating from the first location and from the second location; wherein the x-ray detector array and the electron beam source are configured such that it can be determined if the x-ray radiation received by the x-ray detector at any one instant originates from the first location or from the second location on the target; and characterized in that a time between successive exposures of each of said first and second locations, respectively, is less than 10 μs. a target; an electron beam source configured to provide an electron beam for interaction with the target to generate X-ray radiation; electron optics configured to alternately direct the electron beam to at least a first and a second location on the target; an X-ray detector array configured to receive X-ray radiation generated at the first and second locations on the target; a sample position region for receiving a sample to be exposed to generated X-ray radiation, the sample position region being located in a region where X-ray radiation generated at the first location overlaps with X-ray radiation generated at the second location; and a processing unit coupled to the X-ray detector array, the processing unit being configured to create an image of a sample, positioned in the sample position region, based on the X-ray radiation originating from the first location and from the second location; wherein the x-ray detector array and the electron beam source are configured such that it can be determined if the x-ray radiation received by the x-ray detector at any one instant originates from the first location or from the second location on the target; and characterized in that a time between successive exposures of each of said first and second locations, respectively, is less than 10 μs.
An annealed pre-alloyed water atomised iron-based powder, comprising: 10- below 18% by weight of Cr; 0.5-5% by weight of each of at least one of Mo, W, V and Nb; and 0.5-2%, preferably 0.7-2% and most preferably 1-2% by weight of C; optionally including 0-2% silicon, and balance being Fe, wherein the iron-based powder has a matrix comprising less than 10% by weight of Cr, and wherein the iron-based powder comprises large chromium carbides having an average size of 8-45 μm and smaller and harder chromium carbides having an average size less than 8 μm. 10- below 18% by weight of Cr; 0.5-5% by weight of each of at least one of Mo, W, V and Nb; and 0.5-2%, preferably 0.7-2% and most preferably 1-2% by weight of C; optionally including 0-2% silicon, and balance being Fe, wherein the iron-based powder has a matrix comprising less than 10% by weight of Cr, and wherein the iron-based powder comprises large chromium carbides having an average size of 8-45 μm and smaller and harder chromium carbides having an average size less than 8 μm.
A slot die, which includes a feed unit for introducing a coating materia, a chamber for accommodating a coating material supplied through the feed unit, a slit communicating with the chamber to discharge the coating material, a die body having die lips which form the slit, and a shim plate to be inserted into and fixed to the die body to support the chamber, wherein the shim plate has an inner width corresponding to the width of the inner space of the chamber block, wherein the chamber includes a chamber block which has an inner space for accommodating the coating material and is configured so that the entire block is exchangeable with respect to the die body, and wherein a coating width is determined by a width of the inner space of the chamber block, wherein the chamber block is a member provided separately from the die body, and the chamber block is disposed to be accommodated in the die body, characterized in that chamber blocks whose inner spaces have different widths are provided for different coating widths, and the different chamber blocks have the same outer width, and wherein the coating width is adjustable by exchanging the chamber block.
Target for an inductive displacement sensor, comprising a plurality of conductive patterns (127 i; 137 i; 147 i) distributed along a zone having a dimension D tot in a direction, said patterns (127 i; 137 i; 147 i) being defined by the overlay of at least a first set of elementary periodic patterns having a period approximately equal to D tot /N, including N first elementary conductive patterns (129 j; 139 j; 149 j) of a dimension approximately equal to D tot /2N in said direction, regularly distributed along said zone, and of a second set of elementary periodic patterns having a period approximately equal to D tot /(N+r), including N+r second elementary patterns (131 k; 141 k; 151 k) of a dimension approximately equal to D tot /2(N+r) in said direction, regularly distributed along said zone, where N is an integer greater than or equal to 2 and r is a positive integer, different to zero and less than or equal to N-1, wherein first and second elementary conductive patterns overlap at least partially.
Method for circulating a metal bath in a metallurgical vessel, in which a flushing gas is introduced into the metal bath, characterised in that the flushing gas is introduced into the metal bath by means of a systematic arrangement of gas introduction positions in the metallurgical vessel in such a manner the metal bath carries out a predefined directed flow, wherein in order to produce and/or maintain the predefined directed flow the introduction of the flushing gas is controlled/regulated, wherein a measurement device, which comprises at least one vibration sensor, at least one ultrasound sensor and/or at least one optoelectronic sensor, is used to ascertain a flow pattern of the metal bath.
Device to verify the air and water-tightness of an enclosure at a predetermined pressure made to communicate in a sealed manner with a closed measurement space arranged in the verification device that comprises an electronic processing module and a first pressure sensor arranged in said measurement space and able to transmit to the electronic processing module, by a first communication link, a first signal representative of the pressure in the enclosure, the electronic processing module comprising at least calculations means and memorization means linked to communication means, wherein it comprises at least one precision module able to cooperate with the electronic processing module so as to overcome the temperature variation of the surrounding environment during the performance of processing operations of at least the first signal representative of the pressure in the enclosure and of the detection of a leak in the enclosure, the precision module comprising at least one temperature sensor able to transmit to the processing module, by a second communication link, a second signal representative of the surrounding temperature, the processing module in cooperation with the precision module able to perform a first pressure measurement simultaneously with a first temperature measurement and separated by a predetermined time lapse from a second pressure measurement simultaneously with a second associated temperature measurement, the processing module in cooperation with the precision module able to perform the following processing: F = ( P 2 + T 2 − T 1. P 2 + K 1 / 0,5. T 1 + 0,5. T 2 + K 2 − P 1 / Δt where F corresponds to the value of a leak expressed in mbar/24h, P 1 corresponds to the first pressure measured in mbar, P 2 corresponds to the second pressure measured in mbar, T 1 corresponds to the first temperature measured in degrees Celsius at the measurement time of the first pressure, T 2 corresponds to the second temperature measured in degrees Celsius at the measurement time of the second pressure, K 1 and K 2 are constants and Δt corresponds to the time lapse between the two pressure measurements expressed in seconds, the leak being detected when a predetermined leak threshold stored in the memory is exceeded. F corresponds to the value of a leak expressed in mbar/24h, P 1 corresponds to the first pressure measured in mbar, P 2 corresponds to the second pressure measured in mbar, T 1 corresponds to the first temperature measured in degrees Celsius at the measurement time of the first pressure, T 2 corresponds to the second temperature measured in degrees Celsius at the measurement time of the second pressure, K 1 and K 2 are constants and Δt corresponds to the time lapse between the two pressure measurements expressed in seconds, the leak being detected when a predetermined leak threshold stored in the memory is exceeded.
Lead-free solder alloy comprising zinc (Zn) as the main component and aluminum (Al) as an alloying metal, wherein the solder alloy is a eutectic having a single melting point at 375 °C measured by DSC at a heating rate of 5 °C min -1, wherein the lead-free solder alloy consists of 5.0 wt.% of aluminum (Al), 0.35 wt.% of magnesium (Mg), 1.0 wt.% of germanium (Ge), a total of 0 to 0.5 wt.% of one or more doping elements selected among phosphorus, nickel (Ni), bismuth (Bi), antimony (Sb) and silicon (Si), up to 0.05 wt.% of inevitable impurities, and of zinc (Zn) as the remainder to make up 100 wt.%.
Steel piston for an internal combustion engine with at least one cooling channel and shank surfaces (12, 14) with which, in the installed state, the piston lies against a cylinder bore or a cylinder liner on a pressure side and a counterpressure side, wherein one shank surface has a width 25-50% less than the other shank surface, and a cooling channel outlet is arranged centrally on the side of the narrower shank surface.
A driving wheel assembly (100 a, b) mounted on a main body of a robot cleaner to drive the robot cleaner, the driving wheel assembly comprising: a housing; a driving motor connected to one side of the housing; a first unit connected to the housing to be rotated around a rotation shaft of the driving motor, and a second unit protruding from one side of the first unit; a driving wheel rotatably connected to the first unit; and a compression coil spring disposed at a position to apply pressure to the second unit, characterized in that said compression coil spring is disposed at a position opposite to the driving wheel with respect to a first straight line extending from a floor surface which the driving wheel contacts in vertical direction and pass through the rotation shaft of the driving motor and applies said pressure to the second unit in a tangential direction of a trajectory formed by the rotation shaft of the driving motor and the second unit during a process of rotating the first unit. a housing; a driving motor connected to one side of the housing; a first unit connected to the housing to be rotated around a rotation shaft of the driving motor, and a second unit protruding from one side of the first unit; a driving wheel rotatably connected to the first unit; and a compression coil spring disposed at a position to apply pressure to the second unit, characterized in that said compression coil spring is disposed at a position opposite to the driving wheel with respect to a first straight line extending from a floor surface which the driving wheel contacts in vertical direction and pass through the rotation shaft of the driving motor and applies said pressure to the second unit in a tangential direction of a trajectory formed by the rotation shaft of the driving motor and the second unit during a process of rotating the first unit.
A mounting mat for an exhaust gas treatment device comprising a mat of inorganic fibers comprising first and second major opposite facing surfaces, leading and trailing edges, and opposite lateral edges, wherein at least a portion of at least one of said opposite lateral edges includes a substantially dry flexible edge protectant comprising: (i) a substantially non-crosslinkable polymer that thermally decomposes leaving a gas erosion resisting agent adsorbed on the mounting mat; or (ii) a substantially non-crosslinkable polymer and a gas erosion resisting agent adsorbed on the mounting mat.
A compound of formula, or a pharmaceutically acceptable salt thereof, wherein, each R 1 -R 30 is independently selected from the group consisting of H and deuterium, and at least one of R 1 -R 30 is deuterium with an abundance level of at least 1 mol% deuterium.
A grant-free uplink transmission method, wherein the method is performed by a terminal and comprises: storing, by the terminal, an uplink transmission time-frequency resource allocated by a network side device; when the terminal needs to send an uplink signal, determining, according to a correspondence between an uplink signal type and a subframe format, an uplink signal type of a to-be-transmitted uplink signal, wherein the subframe format refers to a quantity of orthogonal frequency division multiplexing, OFDM, symbols in the uplink transmission time-frequency resource; generating, by the terminal, the to-be-transmitted uplink signal according to the determined uplink signal type, and sending, by the terminal, the generated uplink signal to the network side device; wherein there are four uplink signal types: type 1 indicates that only a reference signal is transmitted; type 2 indicates that a reference signal and a control signal are transmitted; type 3 indicates that a reference signal and a data signal are transmitted; and type 4 indicates that a reference signal, a control signal, and a data signal are transmitted. storing, by the terminal, an uplink transmission time-frequency resource allocated by a network side device; when the terminal needs to send an uplink signal, determining, according to a correspondence between an uplink signal type and a subframe format, an uplink signal type of a to-be-transmitted uplink signal, wherein the subframe format refers to a quantity of orthogonal frequency division multiplexing, OFDM, symbols in the uplink transmission time-frequency resource; generating, by the terminal, the to-be-transmitted uplink signal according to the determined uplink signal type, and sending, by the terminal, the generated uplink signal to the network side device; wherein there are four uplink signal types: type 1 indicates that only a reference signal is transmitted; type 2 indicates that a reference signal and a control signal are transmitted; type 3 indicates that a reference signal and a data signal are transmitted; and type 4 indicates that a reference signal, a control signal, and a data signal are transmitted. type 1 indicates that only a reference signal is transmitted; type 2 indicates that a reference signal and a control signal are transmitted; type 3 indicates that a reference signal and a data signal are transmitted; and type 4 indicates that a reference signal, a control signal, and a data signal are transmitted.