mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing an active TNFR (tumor necrosis factor receptor)-Fc fusion protein, comprising: a) loading a sample comprising a mixture of TNFR-Fc fusion proteins produced in mammalian cells in an amount of 10 to 14 g/L bed per volume of chromatography resin to a hydrophobic interaction chromatography column pre-equilibrated with an equilibration buffer comprising one or more salts selected from the group consisting of sodium citrate, sodium sulfate, and sodium phosphate; b) washing the column with a wash buffer comprising the same salt as in the equilibration buffer to remove clipped forms of TNFR-Fc fusion protein from the mixture of TNFR-F c fusion proteins; and c) eluting the active TNFR-Fc fusion proteins from the column with an elution buffer having salt concentration lower than the equilibration buffer, wherein the sample comprising the mixture of TNFR-Fc fusion proteins is adjusted to have a conductivity of 50 to 75 mS/cm, before loading. a) loading a sample comprising a mixture of TNFR-Fc fusion proteins produced in mammalian cells in an amount of 10 to 14 g/L bed per volume of chromatography resin to a hydrophobic interaction chromatography column pre-equilibrated with an equilibration buffer comprising one or more salts selected from the group consisting of sodium citrate, sodium sulfate, and sodium phosphate; b) washing the column with a wash buffer comprising the same salt as in the equilibration buffer to remove clipped forms of TNFR-Fc fusion protein from the mixture of TNFR-F c fusion proteins; and c) eluting the active TNFR-Fc fusion proteins from the column with an elution buffer having salt concentration lower than the equilibration buffer,
Cooking appliance having at least - a muffle which delimits a cooking compartment and has a muffle opening, - a drive device (9,10) comprising a drive motor, - a door for closing the muffle opening, said door being movable by means of this drive device (9,10), and - a control circuit for controlling the drive device (9,10), - wherein the door can only execute a travel movement if at least one safety signal (S1,S2) activating the travel movement is present, characterised in that - the door can only execute a travel movement if at least two safety signals (S1, S2) are present, wherein - the at least two safety signals (S1, S2) comprise a first internal safety signal output by a first process sensor unit of the control circuit, and a second external safety signal output by a second processor unit of the control circuit and - the control circuit comprises at least the first processor unit for actuating the drive motor of the drive device (9, 10) and the second processor unit for switching and/or regulating the first processor unit. - a muffle which delimits a cooking compartment and has a muffle opening, - a drive device (9,10) comprising a drive motor, - a door for closing the muffle opening, said door being movable by means of this drive device (9,10), and - a control circuit for controlling the drive device (9,10), - wherein the door can only execute a travel movement if at least one safety signal (S1,S2) activating the travel movement is present, characterised in that - the door can only execute a travel movement if at least two safety signals (S1, S2) are present, wherein - the at least two safety signals (S1, S2) comprise a first internal safety signal output by a first process sensor unit of the control circuit, and a second external safety signal output by a second processor unit of the control circuit and - the control circuit comprises at least the first processor unit for actuating the drive motor of the drive device (9, 10) and the second processor unit for switching and/or regulating the first processor unit.
A compound of formula wherein: R 1 is heteroaryl optionally substituted by methyl, ethyl, halo or =O; and R 2 is H, methyl or ethyl. or a salt thereof. R 1 is heteroaryl optionally substituted by methyl, ethyl, halo or =O; and R 2 is H, methyl or ethyl.
A thermoplastic resin composition, comprising: a graft copolymer containing an alkyl (meth)acrylate rubber core and an alkyl methacrylate compound (co)polymer shell surrounding the alkyl (meth)acrylate rubber core; and a matrix resin, wherein the rubber core has an average particle diameter of 40 to 100 nm determined by dynamic light scattering, the graft copolymer has a grafting degree of 20 to 100 % determined as set forth in the description, difference in refractive index between the rubber core, the (co)polymer shell, and the matrix resin is less than 0.04 determined using a refractometer, and the thermoplastic resin composition has a refractive index of greater than 1.46 and less than 1.49 using a refractometer. a graft copolymer containing an alkyl (meth)acrylate rubber core and an alkyl methacrylate compound (co)polymer shell surrounding the alkyl (meth)acrylate rubber core; and a matrix resin, wherein the rubber core has an average particle diameter of 40 to 100 nm determined by dynamic light scattering, the graft copolymer has a grafting degree of 20 to 100 % determined as set forth in the description, difference in refractive index between the rubber core, the (co)polymer shell, and the matrix resin is less than 0.04 determined using a refractometer, and the thermoplastic resin composition has a refractive index of greater than 1.46 and less than 1.49 using a refractometer.
An iron-based powder composition comprising a prealloyed iron-based steel powder which comprises by weight- %: 0.2-1.5 Cr, 0.05-0.4 V, more than 0.15 -0.6 Mn, less than 0.1 Mo, less than 0.1 Ni, less than 0.2 Cu, less than 0.1 C, less than 0.25 O, less than 0.5 of unavoidable impurities, the balance being iron, which steel powder is mixed with 0.35-1 % by weight of the composition of graphite and with 0.05-2 % by weight of the composition of lubricants. 0.2-1.5 Cr, 0.05-0.4 V, more than 0.15 -0.6 Mn, less than 0.1 Mo, less than 0.1 Ni, less than 0.2 Cu, less than 0.1 C, less than 0.25 O, less than 0.5 of unavoidable impurities,
An apparatus comprising: a cap; and a cap liner, wherein the cap liner comprises a primary oxygen barrier layer which has a metalized layer, and a first diffusive layer, wherein a first side of the first diffusive layer is adjacent to a first side of the primary oxygen barrier layer, wherein a second side of the first diffusive layer is contactable with a lip-sealing surface of a bottle, and wherein the cap liner when secured on the bottle by the cap has an oxygen transmission rate increase as a thickness of the first diffusive layer increases. a cap; and a cap liner, wherein the cap liner comprises a primary oxygen barrier layer which has a metalized layer, and a first diffusive layer, wherein a first side of the first diffusive layer is adjacent to a first side of the primary oxygen barrier layer, wherein a second side of the first diffusive layer is contactable with a lip-sealing surface of a bottle, and wherein the cap liner when secured on the bottle by the cap has an oxygen transmission rate increase as a thickness of the first diffusive layer increases.
A wave energy converter (100; 200), comprising a buoyant body (101; 201), an acceleration tube (102; 202) suspended from and attached to the buoyant body (101; 201) and having an upper end adjacent to the buoyant body and a lower end at a distance from the buoyant body, wherein a portion of the acceleration tube (102; 202) defines a working cylinder (103; 203) between the upper end and the lower end, upper and lower openings in the acceleration tube (102; 202) for allowing a substantially unimpeded flow of water between the working cylinder (103; 203) and a body of water in which the acceleration tube (102; 202) is at least partially submerged when the wave energy converter operates as a result of wave movements, a working piston (105; 205) reciprocable in the working cylinder (103; 203), an energy conversion assembly comprising at least one energy collecting device (107; 207) collecting energy from the movements of the working piston (105; 205) relative to the buoyant body (101; 201) resulting from said wave movements, and a mooring system adapted to maintain the wave energy converter within a desired anchoring area and comprising at least one fastening device mounted on the wave energy converter for attachment of a mooring line to the wave energy converter, characterized in that the energy collecting device (107; 207) comprises a hydraulic pump in the form of a hydraulic cylinder (112; 212) having a jacket and an internal pump piston (113; 213) connected to at least one piston rod (114, 115; 215, 220), which forms a mechanical connection between the buoyant body (101; 201) and the working piston (105; 205) in the working cylinder (103; 203), that at least one float body (116; 216) having a buoyancy in the body of water where the wave energy converter (100; 200) operates is connected to the working piston (105; 205), and that the buoyancy of the float body (116; 216) is adapted to maintain the working piston (105; 205) in a desired vertical operating range in the working cylinder (103; 203) when the wave energy converter (100; 200) operates.
A liquid air freshener composition, the composition comprising: (a) 0.1% to 40% by weight of an oil phase comprising a fragrance; (b) At least 51.0 % by weight of water; (c) A fragrance vehicle comprising at least one mono-, di-, or polyglycol ether; And (d) An amphiphilic solubilizing agent, wherein the weight ratio of amphiphilic solubilizing agent to oil phase comprising a fragrance is less than 1:1. (a) 0.1% to 40% by weight of an oil phase comprising a fragrance; (b) At least 51.0 % by weight of water; (c) A fragrance vehicle comprising at least one mono-, di-, or polyglycol ether; And (d) An amphiphilic solubilizing agent, wherein the weight ratio of amphiphilic solubilizing agent to oil phase comprising a fragrance is less than 1:1.
An isolated immunogenic peptide comprising: a natural killer T cell epitope of an antigenic protein, comprising a [FWHY]-xx-[ILMV]-xx-[FWHY] motif; and a thioreductase -xx-C or C-xx- motif, which is either immediately adjacent to said NKT cell epitope, or separated from said NKT cell epitope by a linker of at most 7 amino acids, an optional flanking amino acid sequence of up to 10 amino acids at the N and/or C terminus of the peptide, wherein said antigenic protein does not comprise in its natural sequence a -xx-C or C-xx- motif within 11 amino acids N- or C terminally adjacent to said NKT cell epitope. a natural killer T cell epitope of an antigenic protein, comprising a [FWHY]-xx-[ILMV]-xx-[FWHY] motif; and a thioreductase -xx-C or C-xx- motif, which is either immediately adjacent to said NKT cell epitope, or separated from said NKT cell epitope by a linker of at most 7 amino acids, an optional flanking amino acid sequence of up to 10 amino acids at the N and/or C terminus of the peptide,
Heavy vehicle fitted with a crane to which a device is attached, for moving large urban solid waste containers where the waste is released through the bottom, which containers may or may not be underground, said heavy vehicle comprises a structure onto which a container washing system is mounted, said container washing system comprises a system for washing the inside of the containers and a system for washing the outside of the containers, characterized in that said container washing system comprises a vertically retracting washing vessel consisting of a compartment containing the system for washing the inside of the containers, the system for washing the outside of the containers, a lower rear door for unloading any solid waste and carrying out cleaning procedures, a door in the upper front part of a retracting section in order to facilitate the moving of the containers and a hydraulic oil subsystem for moving the washing vessel and said doors (9, 10), wherein said system for washing the inside of the containers consists of washing units and said system for washing the outside of the containers comprises high pressure water sprinklers attached to the four inside walls of the compartment of the washing vessel and situated at different levels; a water tank forming a single unit and consisting of two outside sections aligned with the side walls of the vehicle and intended for storing the clean water to be used for washing which are connected in such a way that the columns of water on either side are identical, and a central section used for collecting dirty washing water; and an electric and electronic control and programming subsystem designed to carry out all the actions and operations necessary for moving the container, moving the washing vessel, washing and draining the washing water and assisting an operator in the control and programming operations, consisting of a board fitted with two circuit breakers for protecting the power supply system running on the vehicle batteries, two levelling amplifiers, one for the minimum clean water level and the other for the maximum dirty water level, a programmable logic controller, a key selector with automatic and manual modes, various warning devices and various manual control switches; wherein said device is attachable by the operator to a container to be washed, said container is placed inside the compartment of the washing vessel by the operator by means of the crane, the retracting washing vessel is lifted by the operator so that the container is completely immersed inside the vessel, the system for washing the inside of the containers is driven, the washing vessel is retracted whereby the system for washing the outside of the containers is driven during the downward movement, after which the container is returned by the operator driving the crane.
A method of controlling wireless transmissions in a wireless communication system, the method comprising: a wireless device (10, 11; 1400; 1700) contending for access to a medium; in response to gaining access to the medium, the wireless device (10, 11; 1400; 1700) reserving a transmission opportunity, TXOP, on the medium; and based on signaling (601, 701, 702; 1210, 1220) performed by the wireless device (10, 11; 1400; 1700), the wireless device (10, 11; 1400; 1700) configuring a set of resources (501, 502, 503; 602, 603; 703, 704; 801) in the reserved TXOP to be available to at least one other wireless device (10, 11; 1400; 1600; 1700) for one or more transmissions of data arriving after beginning of the TXOP, wherein the signaling (601, 701, 702; 1210, 1220) comprises a message (601; 702) transmitted by the wireless device (10, 11; 1400; 1700), which indicates the set of resources and one or more criteria under which the set of resources (501, 502, 503; 602, 603; 703, 704; 801) is allowed to be used by the at least one other wireless device (10, 11; 1400; 1600; 1700). a wireless device (10, 11; 1400; 1700) contending for access to a medium; in response to gaining access to the medium, the wireless device (10, 11; 1400; 1700) reserving a transmission opportunity, TXOP, on the medium; and based on signaling (601, 701, 702; 1210, 1220) performed by the wireless device (10, 11; 1400; 1700), the wireless device (10, 11; 1400; 1700) configuring a set of resources (501, 502, 503; 602, 603; 703, 704; 801) in the reserved TXOP to be available to at least one other wireless device (10, 11; 1400; 1600; 1700) for one or more transmissions of data arriving after beginning of the TXOP, wherein the signaling (601, 701, 702; 1210, 1220) comprises a message (601; 702) transmitted by the wireless device (10, 11; 1400; 1700), which indicates the set of resources and one or more criteria under which the set of resources (501, 502, 503; 602, 603; 703, 704; 801) is allowed to be used by the at least one other wireless device (10, 11; 1400; 1600; 1700).
A work vehicle comprising: a travelling vehicle body that includes a power source to a work part and a travel part; and a communication unit that is mounted on the travelling vehicle body, the communication unit comprising: directly receiving signals from a portable communication terminal carried by a worker through a first communication system and a second communication system having smaller communication area than that of the first communication system; and controlling the travelling vehicle body based on the received signals from the portable communication terminal, wherein the first communication system is for receiving the signals transmitted to the travelling vehicle body from the portable communication terminal based on the worker's input at the communication unit, and the second communication system is for automatically transmitting from the portable communication terminal and receiving a detection signal by the communication unit indicating that the portable communication terminal exists in the communication area, and a short-distance radio communication standard is employed for the second communication system, characterized in that a control unit automatically stops a travel of the travelling vehicle body when receiving the second signal from said portable communication terminal during the travel of the travelling vehicle body. a travelling vehicle body that includes a power source to a work part and a travel part; and a communication unit that is mounted on the travelling vehicle body, the communication unit comprising: directly receiving signals from a portable communication terminal carried by a worker through a first communication system and a second communication system having smaller communication area than that of the first communication system; and controlling the travelling vehicle body based on the received signals from the portable communication terminal, wherein directly receiving signals from a portable communication terminal carried by a worker through a first communication system and a second communication system having smaller communication area than that of the first communication system; and controlling the travelling vehicle body based on the received signals from the portable communication terminal, wherein the first communication system is for receiving the signals transmitted to the travelling vehicle body from the portable communication terminal based on the worker's input at the communication unit, and the second communication system is for automatically transmitting from the portable communication terminal and receiving a detection signal by the communication unit indicating that the portable communication terminal exists in the communication area, and a short-distance radio communication standard is employed for the second communication system, characterized in that a control unit automatically stops a travel of the travelling vehicle body when receiving the second signal from said portable communication terminal during the travel of the travelling vehicle body.
A method for forming glass sheets comprising: initially forming a heated flat glass sheet to an upwardly concave curved shape with upper end portions and a lower intermediate portion extending between the upper end portions, with the upper end portions and intermediate portion having straight line elements, and with the glass sheet curved transversely to the straight line elements; locating the initially formed glass sheet below an upper mold having a downwardly facing surface with downwardly convex curvature along transverse directions; moving the end portions of the glass sheet upwardly relative to the intermediate portion to initially contact the end portions of the glass sheet with the downwardly facing surface of the upper mold to form the straight line elements of the end portions with curvature while the intermediate portion of the glass sheet still has straight line elements without any significant curvature; and thereafter moving the intermediate portion of the glass sheet upwardly relative to its end portions to contact the intermediate portion of the glass sheet with the downwardly facing surface of the upper mold to also form the straight line elements of the intermediate portion with curvature so the entire glass sheet is curved along transverse directions. initially forming a heated flat glass sheet to an upwardly concave curved shape with upper end portions and a lower intermediate portion extending between the upper end portions, with the upper end portions and intermediate portion having straight line elements, and with the glass sheet curved transversely to the straight line elements; locating the initially formed glass sheet below an upper mold having a downwardly facing surface with downwardly convex curvature along transverse directions; moving the end portions of the glass sheet upwardly relative to the intermediate portion to initially contact the end portions of the glass sheet with the downwardly facing surface of the upper mold to form the straight line elements of the end portions with curvature while the intermediate portion of the glass sheet still has straight line elements without any significant curvature; and thereafter moving the intermediate portion of the glass sheet upwardly relative to its end portions to contact the intermediate portion of the glass sheet with the downwardly facing surface of the upper mold to also form the straight line elements of the intermediate portion with curvature so the entire glass sheet is curved along transverse directions.
Apparatus for making a resilient unit, the apparatus comprising at least first and second spring supply stations (212, 214), a conveyor and a pocketing station, wherein the first and second spring supply stations (212, 214) are arranged to supply respectively at least first and second spring types (216, 218) to the pocketing station, via the conveyor, which first and second types differ from one another in at least one characteristic, the pocketing station being arranged in use to insert the springs (216, 218) between superposed sheets (222, 224) of material, and to encapsulate the springs (216, 218) in pockets formed by joining the sheets (222, 224) at least at positions between the springs (216, 218), wherein the first and second supply stations (212, 214) are arranged in use to deposit respectively springs of the first and second type (216, 218) under compression onto the conveyor and the conveyor is arranged in use to convey the springs (216, 218) under compression to the pocketing station, wherein the springs (216, 218) are arranged to be supplied to the pocketing station in a row comprising a plurality of discrete spring locations, and wherein the individual spring locations may be occupied by a spring of a first type, a spring of a second, third or successive type, or may not be occupied by a spring at all.
Charging arrangement for a vehicle, wherein a stand is arranged on the vehicle, a secondary winding being arranged on or in said stand, wherein the secondary winding can be inductively coupled to a primary conductor (6, 7) which is laid in a stationary manner, wherein an energy storage means of the vehicle can be charged from the secondary winding, characterized in that two line conductors which are laid in parallel are provided as the primary conductor (6, 7), said line conductors being laid in a widened manner in one or more regions, that is to say being spaced apart from one another by a greater distance in this region or these regions than in the non-widened regions, wherein a ferrite plate (22, 23) is provided in the respective widened region, wherein a planar arrangement of ferrite plates (22, 23) on a baseplate is provided on the side of the primary conductor (6, 7) remote from the vehicle.