mhurhangee/ep-ind-claims huggingface dataset:
A method for producing an inkjet head that is produced by forming a film on a head chip having a channel member with an ink channel formed thereon and jointing an end surface of the head chip coated with the film to a nozzle plate, the method comprising a step of: obtaining a plurality of roughness parameter maximum heights RZ for the end surface of the head chip coated with the film; and applying an adhesive containing spherical particles, whose volume average particle diameter is in the range of 0.95×Rz to 2.0×Rz, in the range of 0.1 volume% to 10.0 volume% to at least one of the end surface of the head chip and a joint surface of the nozzle plate and then jointing the nozzle plate, wherein Rz is a roughness parameter maximum height specified by JIS B0601:2001 based on a maximum height for a reference length of 2.5 mm of the end surface of the head chip coated with the film and to be jointed to the nozzle plate, and Rz is an average value of Rz obtained by measuring five positions. obtaining a plurality of roughness parameter maximum heights RZ for the end surface of the head chip coated with the film; and applying an adhesive containing spherical particles, whose volume average particle diameter is in the range of 0.95×Rz to 2.0×Rz, in the range of 0.1 volume% to 10.0 volume% to at least one of the end surface of the head chip and a joint surface of the nozzle plate and then jointing the nozzle plate, wherein Rz is a roughness parameter maximum height specified by JIS B0601:2001 based on a maximum height for a reference length of 2.5 mm of the end surface of the head chip coated with the film and to be jointed to the nozzle plate, and Rz is an average value of Rz obtained by measuring five positions.
A procedure for multi-stage grinding of workpieces made from hard mineral materials using a robot, whereby, the robot includes a grinding head with which it can then accept an initial abrasive agent from a supply container and an initial grinding process begins, whereby, after the initial grinding process has finished, the robot dispenses with the initial abrasive agent and the robot then accepts a second abrasive agent, preferably from the same or another supply container and it starts a second grinding process and, after finishing the second grinding process, dispenses of the second grinding agent, whereby, another, or multiple grinding processes can be carried out, by which the robot initially accepts the respective grinding agent, preferably from the same or another supply container, carries out the grinding process and then again dispenses of the respective abrasive agent and whereby, after finishing the last grinding process, the workpiece is removed from the processing area characterized in that, the workpiece is introduced into a processing area before processing and is measured and/or aligned there by the robot.
A method for controlling a flyback converter, the flyback converter including a main switch, a transformer and an auxiliary switch, the method comprising: obtaining a first voltage signal and a second voltage signal, the first voltage signal representing an input voltage (Vbus) of the flyback converter, and the second voltage signal representing an output voltage (Vo) of the flyback converter; controlling turn-on of the auxiliary switch, wherein the turn-on time period of the auxiliary switch is determined according to the first voltage signal (Vbus) and the second voltage signal (Vo), wherein controlling turn-on of the auxiliary switch further comprises: generating (S202-1) a third control signal SI3 and turning on the auxiliary switch according to the third control signal SI3, so as to generate a magnetizing current (Im); generating (S202-2) a first control signal SI1 according to the first voltage signal (Vbus), the second voltage signal (Vo) and the third control signal SI3; and turning off (S202-3) the auxiliary switch according to the first control signal SI1 at a time, when a product of the magnetizing current (Im) of the flyback converter and a characteristic impedance reaches the first voltage signal (Vbus); and turning on the main switch at ZVS condition, wherein the main switch is turned on at a time delayed for a duration of a dead time after turning off of the auxiliary switch. obtaining a first voltage signal and a second voltage signal, the first voltage signal representing an input voltage (Vbus) of the flyback converter, and the second voltage signal representing an output voltage (Vo) of the flyback converter; controlling turn-on of the auxiliary switch, wherein the turn-on time period of the auxiliary switch is determined according to the first voltage signal (Vbus) and the second voltage signal (Vo), generating (S202-1) a third control signal SI3 and turning on the auxiliary switch according to the third control signal SI3, so as to generate a magnetizing current (Im); generating (S202-2) a first control signal SI1 according to the first voltage signal (Vbus), the second voltage signal (Vo) and the third control signal SI3; and turning off (S202-3) the auxiliary switch according to the first control signal SI1 at a time, when a product of the magnetizing current (Im) of the flyback converter and a characteristic impedance reaches the first voltage signal (Vbus); and turning on the main switch at ZVS condition, wherein the main switch is turned on at a time delayed for a duration of a dead time after turning off of the auxiliary switch.
An isolated antibody or antigen-binding fragment thereof that binds to apelin receptor (APLNR), wherein the antibody or antigen-binding fragment comprises a heavy chain variable region comprising the amino acid sequence of SEQ ID NO: 98 and a light chain variable region comprising the amino acid sequence of SEQ ID NO: 106.
A lubricating oil passage structure for a bearing, wherein: the structure comprises: a rotor including a rotary shaft; a stator arranged at an outer circumferential side of the rotor with a gap interposed in between; a frame to which the stator is fixed; a bracket joined to an end of the frame; and a bearing arranged at a center of the bracket and rotatably supporting the rotary shaft, an inner surface of the bracket is provided with protruding ribs (116, 117a, 117) which are radially arranged and a bearing rib in which the bearing is buried and fixed, an upper projection hole is provided to introduce the lubricating oil, and those of the protruding ribs which are located at right and left sides of the upper projection hole in a circumferential direction are upper protruding ribs which function as a guide to guide the lubricating oil to the bearing rib, characterised in that the upper projection hole is provided in an upper portion of the bracket and is a through hole extending in an oblique direction so that a major part of the lubricating oil flowing out of the upper projection hole flows over the inner surface of the bracket and is guided to the bearing rib, and an oil passage groove is formed in the bearing rib to supply the lubricating oil guided to the bearing rib to the bearing. the structure comprises: a rotor including a rotary shaft; a stator arranged at an outer circumferential side of the rotor with a gap interposed in between; a frame to which the stator is fixed; a bracket joined to an end of the frame; and a bearing arranged at a center of the bracket and rotatably supporting the rotary shaft, a rotor including a rotary shaft; a stator arranged at an outer circumferential side of the rotor with a gap interposed in between; a frame to which the stator is fixed; a bracket joined to an end of the frame; and a bearing arranged at a center of the bracket and rotatably supporting the rotary shaft, an inner surface of the bracket is provided with protruding ribs (116, 117a, 117) which are radially arranged and a bearing rib in which the bearing is buried and fixed, an upper projection hole is provided to introduce the lubricating oil, and those of the protruding ribs which are located at right and left sides of the upper projection hole in a circumferential direction are upper protruding ribs which function as a guide to guide the lubricating oil to the bearing rib, characterised in that the upper projection hole is provided in an upper portion of the bracket and is a through hole extending in an oblique direction so that a major part of the lubricating oil flowing out of the upper projection hole flows over the inner surface of the bracket and is guided to the bearing rib, and an oil passage groove is formed in the bearing rib to supply the lubricating oil guided to the bearing rib to the bearing.
A wedge drive, having first and second wedge drive parts (10, 20) and an adjustable guide apparatus formed at least in part by the first and second wedge drive parts, which are movable, by means of a stroke directed in a stroke direction and guided by the guide apparatus, relative to one another and along a sliding direction (X, X', X") determined by the guide apparatus and at an angle to the stroke direction, wherein the guide apparatus has a retaining clip, the retaining clip is fixed to the first wedge drive part and mounted on the second wedge drive part with a sliding guide of the guide apparatus so as to be movable in the sliding direction (X, X', X"), wherein a guide clearance of the sliding guide is variable by means of an adjustment means of the guide apparatus, which has an adjustment surface and a forced guidance surface, wherein, by adjustment of a position of the adjustment surface, a guide part of the guide apparatus is movable along the forced guidance surface and the guide clearance is variable thereby, wherein a normal vector of the forced guidance surface is at an angle to a plane of movement spanned by the stroke direction and the sliding direction (X, X', X"), characterized in that the adjustment surface is provided on an adjustment part, and the adjustment part is configured such that the position of the adjustment surface is movable in parallel by material removal on the adjustment part, the adjustment part of the first wedge drive part, the second wedge drive part, the retaining clip or the guide part is or is comprised by an adapter part, wherein the first wedge drive part is a driver or a slider bed and the second wedge drive part is a slider, or the first wedge drive part is the slider and the second wedge drive part is the slider bed. the guide apparatus has a retaining clip, the retaining clip is fixed to the first wedge drive part and mounted on the second wedge drive part with a sliding guide of the guide apparatus so as to be movable in the sliding direction (X, X', X"), wherein a guide clearance of the sliding guide is variable by means of an adjustment means of the guide apparatus, which has an adjustment surface and a forced guidance surface, wherein, by adjustment of a position of the adjustment surface, a guide part of the guide apparatus is movable along the forced guidance surface and the guide clearance is variable thereby, wherein a normal vector of the forced guidance surface is at an angle to a plane of movement spanned by the stroke direction and the sliding direction (X, X', X"), characterized in that the adjustment surface is provided on an adjustment part, and the adjustment part is configured such that the position of the adjustment surface is movable in parallel by material removal on the adjustment part, the adjustment part of the first wedge drive part, the second wedge drive part, the retaining clip or the guide part is or is comprised by an adapter part, wherein the first wedge drive part is a driver or a slider bed and the second wedge drive part is a slider, or the first wedge drive part is the slider and the second wedge drive part is the slider bed.
Motor vehicle heat transfer system having a closed circuit for an operating medium, wherein the motor vehicle heat transfer system comprises an exhaust gas channel for guiding exhaust gas from an internal combustion engine of the motor vehicle, and has an evaporator (1, 2) which contacts the exhaust gas channel for evaporating the operating medium, characterised in that the evaporator (1, 2) comprises at least one evaporator cartridge (4, 5), wherein the evaporator cartridge (4, 5) has a housing and a capillary structure which is arranged in the housing.
Use of a DNA construct comprising a polynucleotide comprising: (a) the nucleotide sequence of SEQ ID No. 1; (b) a nucleotide sequence encoding a polypeptide capable of conferring resistance to at least one herbicide to a plant, wherein said herbicide is a member of a class of herbicides selected from: (i) the ALS-inhibiting class; (ii) the pigment synthesis-inhibiting class; (iii) the PPO-inhibiting class; (iv) the PS II-inhibiting class; and (v) the synthetic auxin class wherein the polypeptide has an amino acid sequence of at least 85%, at least 90%, or at least 95% identity, when compared to SEQ ID No. 2 based on the Needleman-Wunsch alignment algorithm, or (c) a complement of the nucleotide sequence of (a) or (b), wherein the complement and the nucleotide sequence consist of the same number of nucleotides and are 100% complementary; operably linked to at least one regulatory sequence; to confer or enhance resistance to at least one herbicide to a plant, or to at least two, three, four or five herbicides, wherein said herbicides are selected from a class of herbicides selected from: (a) the ALS-inhibiting class; (b) the pigment synthesis-inhibiting class; (c) the PPO-inhibiting class; (d) the PS II-inhibiting class; and (e) the synthetic auxin class. (a) the nucleotide sequence of SEQ ID No. 1; (b) a nucleotide sequence encoding a polypeptide capable of conferring resistance to at least one herbicide to a plant, wherein said herbicide is a member of a class of herbicides selected from: (i) the ALS-inhibiting class; (ii) the pigment synthesis-inhibiting class; (iii) the PPO-inhibiting class; (iv) the PS II-inhibiting class; and (v) the synthetic auxin class wherein the polypeptide has an amino acid sequence of at least 85%, at least 90%, or at least 95% identity, when compared to SEQ ID No. 2 based on the Needleman-Wunsch alignment algorithm, or (i) the ALS-inhibiting class; (ii) the pigment synthesis-inhibiting class; (iii) the PPO-inhibiting class; (iv) the PS II-inhibiting class; and (v) the synthetic auxin class (c) a complement of the nucleotide sequence of (a) or (b), wherein the complement and the nucleotide sequence consist of the same number of nucleotides and are 100% complementary; (a) the ALS-inhibiting class; (b) the pigment synthesis-inhibiting class; (c) the PPO-inhibiting class; (d) the PS II-inhibiting class; and (e) the synthetic auxin class.
A method for treating a surface of a porous material in an environment, said method comprising the steps of: I. First, contacting a porous material with an organic gas in an environment having a pressure P1 and a temperature T1, wherein said organic gas is such that at said pressure P1 and at said temperature T1 it remains a gas when outside of said porous material but condenses as an organic liquid when in contact with said porous material, thereby filling pores of said porous material with said organic liquid, II. After step I, cooling down said porous material to a temperature T2 such that said organic liquid freezes within said pores, thereby sealing said pores with an organic solid, thereby providing a protected porous material, and III. After step II, performing a treatment on said surface. I. First, contacting a porous material with an organic gas in an environment having a pressure P1 and a temperature T1, wherein said organic gas is such that at said pressure P1 and at said temperature T1 it remains a gas when outside of said porous material but condenses as an organic liquid when in contact with said porous material, thereby filling pores of said porous material with said organic liquid, II. After step I, cooling down said porous material to a temperature T2 such that said organic liquid freezes within said pores, thereby sealing said pores with an organic solid, thereby providing a protected porous material, and III. After step II, performing a treatment on said surface.
A terminal comprising: a receiving section adapted to receive a downlink control channel consisting of a plurality of control channel elements, CCEs, a CCE being comprised of a plurality of resource element groups, REGs, in a control resource set; and a control section adapted to control a demodulation process based on a demodulation reference signal that is allocated in at least one resource element included in a REG group, each REG group including a plurality of REGs in the control resource set, and a same precoding being applied to different REG groups within a set of consecutive resource blocks in the control resource set, wherein the size of one REG group is configured by higher layer signaling. a receiving section adapted to receive a downlink control channel consisting of a plurality of control channel elements, CCEs, a CCE being comprised of a plurality of resource element groups, REGs, in a control resource set; and a control section adapted to control a demodulation process based on a demodulation reference signal that is allocated in at least one resource element included in a REG group, each REG group including a plurality of REGs in the control resource set, and a same precoding being applied to different REG groups within a set of consecutive resource blocks in the control resource set, wherein the size of one REG group is configured by higher layer signaling.
Air-release valve for a water installation, comprising a main body, in which at least one flow passage leading from an air-release valve input to an air-release valve output is formed, and in which an axially displaceable closing body is arranged that comprises, in its upper region, an upwardly acting upper sealing surface and a lower sealing surface formed below said upper sealing surface, which lower sealing surface seals an entrance to at least one venting duct that extends radially and opens towards the peripheral surface of the main body when in a sealing position, characterised by at least one means which interacts with the water installation when the air-release valve is mounted in order to non-releasably hold the air-release valve.
A system iron comprising: a body including a steam generator for generating steam; an ironing plate, which is rotatably coupled to an upper portion of the body and which sprays the steam generated by the steam generator to an outside; an angle-limiting member for limiting rotation of the ironing plate; and a button unit, which is operated in linkage with the angle-limiting unit so as to release a state in which rotation of the ironing plate is limited by the angle-limiting unit; characterized by an elastic member for maintaining the state in which rotation of the ironing plate is limited by the angle-limiting unit, a hinge shaft connecting the ironing plate to an upper portion of the body in a rotatable manner; a connecting bar connecting the hinge shaft to the ironing plate; and a locking bar, which is disposed on the body so as to support rotation of the hinge shaft and which has formed therein a locking groove into which the angle-limiting member is inserted, wherein the angle-limiting member is inserted at one end thereof into the locking groove in the locking bar and is connected at a remaining end thereof to the elastic member. a body including a steam generator for generating steam; an ironing plate, which is rotatably coupled to an upper portion of the body and which sprays the steam generated by the steam generator to an outside; an angle-limiting member for limiting rotation of the ironing plate; and a button unit, which is operated in linkage with the angle-limiting unit so as to release a state in which rotation of the ironing plate is limited by the angle-limiting unit; characterized by an elastic member for maintaining the state in which rotation of the ironing plate is limited by the angle-limiting unit, a hinge shaft connecting the ironing plate to an upper portion of the body in a rotatable manner; a connecting bar connecting the hinge shaft to the ironing plate; and a locking bar, which is disposed on the body so as to support rotation of the hinge shaft and which has formed therein a locking groove into which the angle-limiting member is inserted, wherein the angle-limiting member is inserted at one end thereof into the locking groove in the locking bar and is connected at a remaining end thereof to the elastic member.
A method for preparing a 3D tissue construct from cells, comprising the steps of: a. introducing a medium comprising cells in a well of a multiwell system made of a biocompatible material, comprising at least 3 wells, wherein said wells have a wall and a bottom, a volume between 0.125 and 4.0 mm 3, and a wall thickness of at least 50 micron; b. culturing the cells to obtain a 3D tissue construct, wherein the multiwell system does not comprise a 3D synthetic polymer scaffold. a. introducing a medium comprising cells in a well of a multiwell system made of a biocompatible material, comprising at least 3 wells, wherein said wells have a wall and a bottom, a volume between 0.125 and 4.0 mm 3, and a wall thickness of at least 50 micron; b. culturing the cells to obtain a 3D tissue construct,
A mobile terminal comprising: a case (101, 102) comprising an electric control unit in which electric/electronic parts are mounted; a battery cover coupled to a rear surface of the case; and a vibration motor coupled to an inner surface of the battery cover characterized in that the mobile terminal comprise further: a hole having a shape corresponding to the vibration motor is formed in the case; a groove having a shape corresponding to the vibration motor is formed in the electric/electronic parts mounted in the case; a buffer pad is disposed between the vibration motor and the electric/electronic parts; and a support wall provided in the battery cover and configured to surround the vibration motor, wherein a portion near the hole of the case is formed of a metallic material. a case (101, 102) comprising an electric control unit in which electric/electronic parts are mounted; a battery cover coupled to a rear surface of the case; and a vibration motor coupled to an inner surface of the battery cover characterized in that the mobile terminal comprise further: a hole having a shape corresponding to the vibration motor is formed in the case; a groove having a shape corresponding to the vibration motor is formed in the electric/electronic parts mounted in the case; a buffer pad is disposed between the vibration motor and the electric/electronic parts; and a support wall provided in the battery cover and configured to surround the vibration motor, a hole having a shape corresponding to the vibration motor is formed in the case; a groove having a shape corresponding to the vibration motor is formed in the electric/electronic parts mounted in the case; a buffer pad is disposed between the vibration motor and the electric/electronic parts; and a support wall provided in the battery cover and configured to surround the vibration motor, wherein a portion near the hole of the case is formed of a metallic material.