mhurhangee/ep-ind-claims huggingface dataset:
A dressing system, comprising: a dressing comprising a first edge and a second edge, and a first face comprising an adhesive (20, 22); a frame removably attached to the dressing and supporting the first edge and the second edge of the dressing, the frame comprising an outer edge, an inner edge, and an opening surrounded by the inner edge; and a straining structure configured to be pushed through the opening of the frame and to strain the dressing. a dressing comprising a first edge and a second edge, and a first face comprising an adhesive (20, 22); a frame removably attached to the dressing and supporting the first edge and the second edge of the dressing, the frame comprising an outer edge, an inner edge, and an opening surrounded by the inner edge; and a straining structure configured to be pushed through the opening of the frame and to strain the dressing.
Household appliance for the regulated performance of a drying of objects to be dried which can be arranged in the household appliance, wherein the household appliance has: a container for receiving the objects to be dried, at least one air duct which is fluidically connected to the container, wherein an air current flows through the air duct and through the container, wherein at least one sensor for detecting at least two physical variables, selected from the group consisting of an absolute water load x, an air temperature T, an air pressure and/or another physical variable, which has a dependency upon the regulated performance of the drying, is arranged in the air current, wherein the at least one sensor is connected to an evaluation unit (24, 24'), which is configured to receive and evaluate the at least two physical variables from the at least one sensor and to transmit the physical variables and/or the evaluated physical variables to a control unit for the regulated performance of the drying, characterised in that the evaluation unit (24, 24') is designed to compare each evaluated physical variable, in particular each determined thermodynamic variable, with different setpoint values, wherein each setpoint value is allocated to a particular group, wherein the predetermined setpoint values of a group are allocated to a type of objects to be dried. a container for receiving the objects to be dried, at least one air duct which is fluidically connected to the container, wherein an air current flows through the air duct and through the container, wherein at least one sensor for detecting at least two physical variables, selected from the group consisting of an absolute water load x, an air temperature T, an air pressure and/or another physical variable, which has a dependency upon the regulated performance of the drying, is arranged in the air current, wherein the at least one sensor is connected to an evaluation unit (24, 24'), which is configured to receive and evaluate the at least two physical variables from the at least one sensor and to transmit the physical variables and/or the evaluated physical variables to a control unit for the regulated performance of the drying, characterised in that the evaluation unit (24, 24') is designed to compare each evaluated physical variable, in particular each determined thermodynamic variable, with different setpoint values, wherein each setpoint value is allocated to a particular group, wherein the predetermined setpoint values of a group are allocated to a type of objects to be dried.
A process for the production of a target polypeptide which comprises: (a) expressing an expression vector for expressing a target polypeptide in a CHO host cell, the expression vector comprising an expression cassette comprising a polynucleotide encoding the recombinant polypeptide operably linked to a fibronectin secretion leader sequence; and (b) recovering the target polypeptide. (a) expressing an expression vector for expressing a target polypeptide in a CHO host cell, the expression vector comprising an expression cassette comprising a polynucleotide encoding the recombinant polypeptide operably linked to a fibronectin secretion leader sequence; and (b) recovering the target polypeptide.
An anti-CCR8 antibody which comprises (i) a VH chain comprising three CDRs; and (ii) a VL chain comprising three CDRs, wherein: VH CDR#1 is GFIFSNAVMY (SEQ ID NO: 1); VH CDR#2 is RIKTKFNNYATYYADAVKG (SEQ ID NO:2); VH CDR#3 is GDRNKPFAY (SEQ ID NO:3); VL CDR#1 is RASTSVITLLH (SEQ ID NO:4); VL CDR#2 is GASNLES (SEQ ID NO:5); and VL CDR#3 is QQSWNDPYT (SEQ ID NO:6); wherein the antibody comprises an IgGl Fc constant region that is afucosylated. VH CDR#1 is GFIFSNAVMY (SEQ ID NO: 1); VH CDR#2 is RIKTKFNNYATYYADAVKG (SEQ ID NO:2); VH CDR#3 is GDRNKPFAY (SEQ ID NO:3); VL CDR#1 is RASTSVITLLH (SEQ ID NO:4); VL CDR#2 is GASNLES (SEQ ID NO:5); and VL CDR#3 is QQSWNDPYT (SEQ ID NO:6);
Tool steel having the following composition, wherein the components are indicated in each case in mass percent: 0.30 ≤ C (carbon) ≤ 0.55 0.02 ≤ Si (silicon) ≤ 1.00 0.05 ≤ Mn (manganese) ≤ 1.00 P (phosphorus) ≤ 0.025 S (sulphur) ≤ 0.015 0.50 ≤ Cr (chromium) ≤ 2.00 0.10 ≤ Mo (molybdenum) ≤ 1.00 0.50 ≤ Ni (nickel) ≤ 3.00 0.50 ≤ Cu (copper) ≤ 2.50 0.001 ≤ Nb (niobium) ≤ 0.100 0.01 ≤ V (vanadium) ≤ 0.60 wherein the remainder consists of iron, usual impurities and/or accompanying elements in traces up to 0.02 mass percent per accompanying element. 0.30 ≤ C (carbon) ≤ 0.55 0.02 ≤ Si (silicon) ≤ 1.00 0.05 ≤ Mn (manganese) ≤ 1.00 P (phosphorus) ≤ 0.025 S (sulphur) ≤ 0.015 0.50 ≤ Cr (chromium) ≤ 2.00 0.10 ≤ Mo (molybdenum) ≤ 1.00 0.50 ≤ Ni (nickel) ≤ 3.00 0.50 ≤ Cu (copper) ≤ 2.50 0.001 ≤ Nb (niobium) ≤ 0.100 0.01 ≤ V (vanadium) ≤ 0.60
A press forming method of press forming a formed part comprising a top portion having a concave outer edge, with a part of the outer edge being concave inwards and a flange portion subjected to bending forming along the concave outer edge of the top portion, the press forming method being characterized by: a first forming step of forming a preformed shape part including, in a part where the flange portion is formed in a blank material, a vertical wall portion that becomes a part of the flange portion and a mountain shaped portion that is bent outwards from the vertical wall portion and is convex towards the top portion; and by a second forming step of forming the flange portion by performing bending forming on a part including the mountain shaped portion of the preformed shape part formed at the first forming step along a bending line that is a boundary from the vertical wall portions. a first forming step of forming a preformed shape part including, in a part where the flange portion is formed in a blank material, a vertical wall portion that becomes a part of the flange portion and a mountain shaped portion that is bent outwards from the vertical wall portion and is convex towards the top portion; and by a second forming step of forming the flange portion by performing bending forming on a part including the mountain shaped portion of the preformed shape part formed at the first forming step along a bending line that is a boundary from the vertical wall portions.
A cover lift system for a spa, comprising: a lifter handle having an upper arm and a lower arm telescopically connected to the upper arm, the upper arm being configured for operative connection to a cover of a spa, and the lower arm being configured for pivotal connection to a base of the spa; and an adjuster mechanism associated with the lifter handle for selectively adjusting a length of the lifter handle to allow for use of the lifter handle with spas of varying sizes; characterized by further comprising a breakaway mechanism configured to limit an amount of torque seen by the lifter handle during a covering or uncovering operation. a lifter handle having an upper arm and a lower arm telescopically connected to the upper arm, the upper arm being configured for operative connection to a cover of a spa, and the lower arm being configured for pivotal connection to a base of the spa; and an adjuster mechanism associated with the lifter handle for selectively adjusting a length of the lifter handle to allow for use of the lifter handle with spas of varying sizes; characterized by further comprising a breakaway mechanism configured to limit an amount of torque seen by the lifter handle during a covering or uncovering operation.
A radiant tube (1, 1', 1", 1"') for the indirect heating of an industrial furnace comprising a tube body, which comprises a middle section and at least one return section (19, 19') arranged next to the middle section, and at least one shoulder serving for supporting or suspending a free longitudinal end of the radiant tube (1, 1', 1", 1"'), which is provided on the free longitudinal end on the outside on the radiant tube (1, 1', 1", 1"'), wherein the middle section and the at least one return section (19, 19') are flow-connected to one another via at least one deflection section, the other longitudinal end of the radiant tube (1, 1', 1", 1"') located opposite the free longitudinal end can be fastened in a wall of the industrial furnace and comprises at least one opening, to which a burner serving for heating the radiant tube (1, 1', 1", 1"') can be connected, and the at least one deflection section (19, 19') deflecting combustion waste gases within the radiant tube (1, 1', 1", 1'") is arranged on the free longitudinal end of the radiant tube (1, 1', 1", 1"'), characterized in that the inner wall of the radiant tube (1, 1', 1", 1"') is covered with a thermal insulation on the free longitudinal end at least in sections, which insulation comprises a material with a heat conductivity of less than 0.6 W/(m·K).
A device (100, 200) for electroporating and delivering one or more antigens, the device comprising: a housing having a tip portion; a plurality of electrode arrays (106, 108) each coupled to the tip portion, wherein the electrode arrays (106, 108) project from the tip portion and define spatially separate sites, each electrode array (106, 108) includes a plurality of electrodes, and the tip portion is detachable from the device (100, 200) for sterilization between uses of the device (100, 200); a pulse generator (116, 118, 202) electrically coupled to at least one electrode of each electrode array (106, 108); and a programmable microcontroller (120, 206) electrically coupled to the pulse generator (116, 118, 202), wherein each electrode is configured to deliver an electroporating pulse to cells of epidermal tissues, and wherein the microcontroller (120, 206) is configured to adjust parameters of the electroporating pulse of each electrode array (106, 108) independently. a housing having a tip portion; a plurality of electrode arrays (106, 108) each coupled to the tip portion, wherein the electrode arrays (106, 108) project from the tip portion and define spatially separate sites, each electrode array (106, 108) includes a plurality of electrodes, and the tip portion is detachable from the device (100, 200) for sterilization between uses of the device (100, 200); a pulse generator (116, 118, 202) electrically coupled to at least one electrode of each electrode array (106, 108); and a programmable microcontroller (120, 206) electrically coupled to the pulse generator (116, 118, 202), wherein each electrode is configured to deliver an electroporating pulse to cells of epidermal tissues, and wherein the microcontroller (120, 206) is configured to adjust parameters of the electroporating pulse of each electrode array (106, 108) independently.
A blading member for a fluid flow machine, the blading member comprising a platform member and at least one airfoil member, the platform member comprising a platform member receiver section, said platform member receiver section comprising a first face and a second face, and a platform member receiver through opening being disposed in the receiver section, the receiver through opening extending from the first to the second face, the airfoil member extending from an airfoil base to an airfoil tip and comprising an airfoil member foot section and an airfoil member aerodynamic section, wherein the airfoil member foot section extends from the airfoil base to the airfoil member aerodynamic section and the airfoil member aerodynamic section extends from the airfoil member foot section to the airfoil tip, the airfoil member aerodynamic section projecting from the first face of the platform member receiver section, the airfoil member foot section comprising an airfoil member male mating section received within the platform member receiver through opening, wherein at least one interlock receiver recess (9, 22) is provided on at least one of a platform member receiver section through opening inner wall and the airfoil foot section, wherein at least one interlock member (15, 20, 26) is provided, said interlock member being partially received in an interlock receiver recess and comprising a section protruding from the interlock receiver recess, wherein the protruding section of the interlock member comprises at least one seating surface (152, 202), an interlock counterpart seating surface being provided on the other one of the platform member receiver section and the airfoil foot section, wherein the seating surface provided on the protruding section of the interlock member and the counterpart seating surface are arranged and configured to bear on each other; characterized in that a retainer member (18, 21, 23) is disposed and arranged to mate with an external surface (151, 201) of the interlock member and securing the interlock member in the interlock receiver recess.
A computed tomography, CT, imaging system comprising: an x-ray source configured to be powered by a power system at different operating voltages, the x-ray source operable to emit a beam of x-rays from a focal spot toward an object, the x-ray source operable to move a spot position, SP, of the focal spot, FS; a detector assembly configured to detect the x-rays attenuated by the object; and at least one processing unit configured to execute programmed instructions stored in memory, wherein the at least one processing unit, while executing the programmed instructions, is configured to direct the x-ray source to emit different beams of the x-rays at different energy levels and to receive data from the detector assembly that are representative of detection of the x-rays emitted at the different energy levels; wherein the at least one processing unit is also configured to direct the x-ray source to move the focal spot, FS, between different spot positions, SP, such that the focal spot is at different spot positions while the beams are emitted at the different energy levels, wherein the x-ray source, at each of a first spot position and a second spot position, is configured to emit at least a first beam at a first energy level and a second beam at a second energy level. an x-ray source configured to be powered by a power system at different operating voltages, the x-ray source operable to emit a beam of x-rays from a focal spot toward an object, the x-ray source operable to move a spot position, SP, of the focal spot, FS; a detector assembly configured to detect the x-rays attenuated by the object; and at least one processing unit configured to execute programmed instructions stored in memory, wherein the at least one processing unit, while executing the programmed instructions, is configured to direct the x-ray source to emit different beams of the x-rays at different energy levels and to receive data from the detector assembly that are representative of detection of the x-rays emitted at the different energy levels; wherein the at least one processing unit is also configured to direct the x-ray source to move the focal spot, FS, between different spot positions, SP, such that the focal spot is at different spot positions while the beams are emitted at the different energy levels, wherein the x-ray source, at each of a first spot position and a second spot position, is configured to emit at least a first beam at a first energy level and a second beam at a second energy level.
A method for cell management, applied to a terminal and characterized by comprising: receiving configuration information sent by a network-side device, wherein the configuration information comprises a trigger condition for triggering the terminal to perform a cell management operation, N pieces of management information corresponding to the trigger condition, and evaluation periods respectively corresponding to the N pieces of management information, wherein the management information is used to indicate a cell management operation type, the cell management operation type comprises at least one of addition, deletion, and change of a cell, wherein N is a positive integer; and if a duration of satisfying the trigger condition is less than an evaluation period corresponding to target management information in the N pieces of management information, skipping performing the cell management operation; and/or if a duration of satisfying the trigger condition is greater than or equal to an evaluation period corresponding to target management information in the N pieces of management information, performing, on a cell, a management operation corresponding to the target management information. receiving configuration information sent by a network-side device, wherein the configuration information comprises a trigger condition for triggering the terminal to perform a cell management operation, N pieces of management information corresponding to the trigger condition, and evaluation periods respectively corresponding to the N pieces of management information, wherein the management information is used to indicate a cell management operation type, the cell management operation type comprises at least one of addition, deletion, and change of a cell, wherein N is a positive integer; and if a duration of satisfying the trigger condition is less than an evaluation period corresponding to target management information in the N pieces of management information, skipping performing the cell management operation; and/or if a duration of satisfying the trigger condition is greater than or equal to an evaluation period corresponding to target management information in the N pieces of management information, performing, on a cell, a management operation corresponding to the target management information.
A system for planning an application having at least one marking, having a control and evaluation unit, having a database, having a display unit, and having at least one spatial model of a real environment, and at least one camera for imaging the real environment; wherein the real environment in the spatial model can be displayed as a virtual environment on the display unit; wherein the marking in the real environment is arranged at a position and having an orientation; wherein the position and the orientation of the marking can be detected at least by the camera; characterized in that the position and orientation of the marking are linked to a virtual sensor model; with the visual sensor model in the spatial model of the virtual environment being able to be displayed on the display unit at the position and having the orientation of the marking; and with the virtual sensor model having at least one virtual detection zone, with the virtual detection zone in the spatial model of the virtual environment being able to be displayed on the display unit. wherein the real environment in the spatial model can be displayed as a virtual environment on the display unit; wherein the marking in the real environment is arranged at a position and having an orientation; wherein the position and the orientation of the marking can be detected at least by the camera; characterized in that the position and orientation of the marking are linked to a virtual sensor model; with the visual sensor model in the spatial model of the virtual environment being able to be displayed on the display unit at the position and having the orientation of the marking; and with the virtual sensor model having at least one virtual detection zone, with the virtual detection zone in the spatial model of the virtual environment being able to be displayed on the display unit.
A method of monitoring the safety of a revolving tower crane having a revolving deck, wherein the crane has a sensor system and a crane control, and wherein furthermore at least one tilt sensor is provided, characterized in that the at least one tilt sensor is attached and installed at the revolving deck of the revolving tower crane, and in that the monitoring of the crane safety takes place at least during the putting up and taking down of the revolving tower crane, and that the putting up of the crane starts with the assembly of its substructure and of the tower and the revolving deck having the installed at least one tilt sensor is thereupon placed on, with the monitoring starting after the placing on of the revolving deck.
Inorganic pigment treated with at least one non-reactive polysiloxane of the general Formula I, wherein R 1 to R 8 may be the same or different and are selected from the group consisting of C m H 2m+1, wherein m is ≤10, preferably <6, more preferably <4, and even more preferably m = 1, 2 or 3, and fluorinated derivatives thereof wherein at least one hydrogen atom is replaced by fluorine, C 6 H 5, x, y and copolymers thereof, wherein EO represents an oxyethylene unit, PO represents an oxypropylene unit and x and y may be the same or different and x + y is in the range of 1 to 50, and wherein the at least one non-reactive polysiloxane is having a viscosity in the range of 50-3000 mm 2 x s -1 at 25°C, preferably 100-2000 mm 2 x s -1 at 25°C, more preferably 150-1000 mm 2 x s -1 at 25°C (DIN 51562), and wherein the inorganic pigment coated with at least one non-reactive polysiloxane of the general Formula I has a residual moisture content of less than 1 wt-%, preferably less than 0.5 wt-%, more preferably less than 0.4 wt-%, after drying at 160°C to weight constancy, wherein the at least one polysiloxane is present in an amount between 0.1 and 10 wt-%, preferably between 1 and 8 wt-%, more preferably between 3 and 6 wt-% of the coated inorganic pigment, calculated on the total weight of the coated pigment after drying at 160°C to weight constancy. wherein R 1 to R 8 may be the same or different and are selected from the group consisting of C m H 2m+1, wherein m is ≤10, preferably <6, more preferably <4, and even more preferably m = 1, 2 or 3, and fluorinated derivatives thereof wherein at least one hydrogen atom is replaced by fluorine, C 6 H 5, x, y and copolymers thereof, wherein EO represents an oxyethylene unit, PO represents an oxypropylene unit and x and y may be the same or different and x + y is in the range of 1 to 50, and C m H 2m+1, wherein m is ≤10, preferably <6, more preferably <4, and even more preferably m = 1, 2 or 3, and fluorinated derivatives thereof wherein at least one hydrogen atom is replaced by fluorine, C 6 H 5, x, y and copolymers thereof, wherein EO represents an oxyethylene unit, PO represents an oxypropylene unit and x and y may be the same or different and x + y is in the range of 1 to 50, and wherein the at least one non-reactive polysiloxane is having a viscosity in the range of 50-3000 mm 2 x s -1 at 25°C, preferably 100-2000 mm 2 x s -1 at 25°C, more preferably 150-1000 mm 2 x s -1 at 25°C (DIN 51562), and wherein the inorganic pigment coated with at least one non-reactive polysiloxane of the general Formula I has a residual moisture content of less than 1 wt-%, preferably less than 0.5 wt-%, more preferably less than 0.4 wt-%, after drying at 160°C to weight constancy, wherein the at least one polysiloxane is present in an amount between 0.1 and 10 wt-%, preferably between 1 and 8 wt-%, more preferably between 3 and 6 wt-% of the coated inorganic pigment, calculated on the total weight of the coated pigment after drying at 160°C to weight constancy.