mhurhangee/ep-ind-claims huggingface dataset:
A tower production method, characterized by comprising a first production stage, including the steps of - unrolling and bringing into a planar state a sheet metal wound around a coil, - bending the planar sheet metal at the lateral direction at varying bending radii (d), and - winding the bent sheet metal (B') into a conical coil (A'); transporting the conical coil (A') to a site of final production, after the sheet metal is first bent and then wound in the first production stage into a conical coil (A'); and a final production stage, including the steps of - feeding the bent sheet metal (B') unwound from the conical coil (A') to at least one winding machine, - producing a tower by bending and winding the bent sheet metal (B') in the winding machine around a central bending axis parallel to a wider surface of the sheet metal so that a predetermined starting winding radius and the angle between a longer edge of the sheet metal and the central bending axis are kept constant and a longer edge of the sheet metal (B') is joined with the other longer edge of the sheet metal (B'). - unrolling and bringing into a planar state a sheet metal wound around a coil, - bending the planar sheet metal at the lateral direction at varying bending radii (d), and - winding the bent sheet metal (B') into a conical coil (A'); transporting the conical coil (A') to a site of final production, after the sheet metal is first bent and then wound in the first production stage into a conical coil (A'); and a final production stage, including the steps of - feeding the bent sheet metal (B') unwound from the conical coil (A') to at least one winding machine, - producing a tower by bending and winding the bent sheet metal (B') in the winding machine around a central bending axis parallel to a wider surface of the sheet metal so that a predetermined starting winding radius and the angle between a longer edge of the sheet metal and the central bending axis are kept constant and a longer edge of the sheet metal (B') is joined with the other longer edge of the sheet metal (B').
A method of welding a cut-out part with a workpiece in wire electrode discharge machining, comprising of the steps of cutting a part to be separated from the workpiece with electrical discharge using spark energy generated by application of an inter-electrode voltage which occurs across a wire electrode and the workpiece lying in opposition to the wire electrode and, in doing so, changing an electrical processing condition applied across the wire electrode and the workpiece from a cutting phase to a welding phase at a preselected spot in a cutting path or kerf of the part, fusing at least partially the wire electrode and welding the part with the workpiece at the spot in a preselected contour of the part to retain the part on the workpiece, characterised by further comprising the steps of changing the electrical processing condition to the cutting phase at a preselected spot to weld the part with the workpiece, thereby carrying out the discharge machining to rough cut the workpiece in a thickness direction of the workpiece along a cutting contour in the workpiece to form a rough cut surface on the part, and then tilting the wire electrode in posture with respect to the rough cut surface lying in the thickness direction of the workpiece, subsequently changing the electrical processing condition to the welding phase to execute a welding process on the workpiece along the rough cut surface thereby forming the welded spot to weld the part with the workpiece along the rough cut surface at an ingress side of the workpiece for the wire electrode, the welded spot extending over a preselected length at a preselected area in the thickness direction of the workpiece to retain the part on the workpiece with the welded spot.
Device for controlling the positioning of two elements in relation to one another, for example the blades of a cutting tool of the secateur type, one of which is stationary and the other mobile and connected mechanically to a geared motor element so as to be driven by the latter along a preestablished path, the position of said mobile element being slaved to the position of a control element such as a trigger, said device comprising a frame fastening the stationary element, characterized in that the device comprising a circuit for controlling the geared motor element, a stationary first Hall effect sensor, connected to the control circuit, installed in a stationary way in relation to the frame of the device, able to indicate with a permanent bar magnet, carried by the mobile element, a zero or negative gap position of the two elements, and a second Hall effect sensor, connected to the control circuit, installed in a stationary way in relation to the frame of the device, able to indicate with a permanent bar magnet carried by the mobile element a maximum gap position of the two elements, in that the magnet is positioned so that its north-south axis is perpendicular to its path, and in that the first sensor is placed in an area in which the magnetic field vector of this first magnet exhibits a component perpendicular to said north-south axis, the sensitive face of said first sensor being parallel to the north-south axis of the corresponding magnet and the first sensor is able to provide two pieces of position information, namely abscissa and ordinate, of the corresponding magnet, in a Cartesian reference that is stationary in relation to said sensor, and wherein the latter incorporates two Hall effect cells forming an angle between them, the sensitive surfaces of said cells being parallel to the north-south axis of the corresponding magnet, the value of the minimum or negative gap between the mobile element and the stationary element is adjustable
The compound for use in a method of treating ovarian cancer, having the following structure: wherein R5 is a glucopyranosyl, R6 is a arabinofuranosyl, R1 is angeloyl, R2 is angeloyl, R3 is OH, R4=CH 2 OH, R7=H, and said compound has the following structure: or is named 3-O-[β-D-glucopyranosyl-(1→2)]-α-L-arabinofuranosyl(1→3)-β-D-glucuronopyranosyl-21,22-O-diangeloyl-3β, 15α, 16α, 21β, 22α, 24β, 28-heptahydroxyolean-12-ene); or wherein R5 is a glucopyranosyl, R6 is an arabinofuranosyl, R1 is angeloyl, R2 is angeloyl, R3 is H, R4=CH 2 OH, and R7=H, and said compound has the following structure: or is named 3-O-[ β- glucopyranosyl (1→2)]- α -arabinofuranosyl (1→3)- β- glucuronopyranosyl-21, 22- O -diangeloyl-3 β 16 α, 21 β 22α, 24 β, 28-hexahydroxyolean-12-ene, or wherein R5 is a galactopyranosyl, R6 is a arabinofuranosyl, R1 is angeloyl, R2 is angeloyl, R3 is H, R4 is CH 3, R7=H, and said compound has the following structure or is named (3-O-[ β -galactopyranosyl (1→2)]- α -arabinofuranosyl (1→3)- β- glucuronopyranosyl-21, 22-O-diangeloyl-3 β 16 α, 21 β, 22 α, 28-pentahydroxyolean-12-ene.
Multifunction machine for cleaning and sanitizing surfaces and environments that has a body-machine that includes: - a waste suction group; - wet filtration and collection means of sucked waste; - a steam generating and steam expulsion control unit towards said surfaces and environments; - a primary circuit for circulating sucked air and waste having a first inlet and a first outlet obtained in said body-machine; characterized in that said body-machine further includes: - a secondary circulation circuit for air which has a second inlet and a second outlet obtained in said body-machine; and - an ionizing device placed on said secondary circuit between said second inlet and second outlet. - a waste suction group; - wet filtration and collection means of sucked waste; - a steam generating and steam expulsion control unit towards said surfaces and environments; - a primary circuit for circulating sucked air and waste having a first inlet and a first outlet obtained in said body-machine; - a secondary circulation circuit for air which has a second inlet and a second outlet obtained in said body-machine; and - an ionizing device placed on said secondary circuit between said second inlet and second outlet.
A light source driving circuit comprising: a driver configured to supply current to a light source; and a controller for controlling a pulse width modulated input signal applied to the driver, the input signal having a period comprising an on time and an off time with said period repeating at a first frequency, and the controller being configured to control a duty cycle of the input signal being a proportion of the on time relative to the period or off time; wherein the driver is configured to supply the current to the light source based on the input signal, wherein over the off time of each period the driver withholds supply of current from a power supply to the light source, and over the on time of each period the driver supplies current from the power supply to the light source but with a second frequency that is greater than the first frequency, the light source thus emitting a light output at a level dependent on the duty cycle; and wherein the controller is configured to control the duty cycle to set the light output of the light source to a desired light output level, and to dither the duty cycle about a point corresponding to the desired light output level; characterized in that the circuit further comprises a feedback channel from the driver to the controller for measuring the second frequency, wherein the controller is configured to adapt the dithering of the duty cycle in dependence on the second frequency as measured via said feedback channel. a driver configured to supply current to a light source; and a controller for controlling a pulse width modulated input signal applied to the driver, the input signal having a period comprising an on time and an off time with said period repeating at a first frequency, and the controller being configured to control a duty cycle of the input signal being a proportion of the on time relative to the period or off time; wherein the driver is configured to supply the current to the light source based on the input signal, wherein over the off time of each period the driver withholds supply of current from a power supply to the light source, and over the on time of each period the driver supplies current from the power supply to the light source but with a second frequency that is greater than the first frequency, the light source thus emitting a light output at a level dependent on the duty cycle; and wherein the controller is configured to control the duty cycle to set the light output of the light source to a desired light output level, and to dither the duty cycle about a point corresponding to the desired light output level; characterized in that the circuit further comprises a feedback channel from the driver to the controller for measuring the second frequency, wherein the controller is configured to adapt the dithering of the duty cycle in dependence on the second frequency as measured via said feedback channel.
A sprayhead suitable for use with an aerosol container comprising a central valve stem, said sprayhead comprising: a chassis capable of attachment to the valve cup of an aerosol container; a rotatable circular collar comprising a bridge spanning a diameter of the collar; and a spray channel and associated actuator button, said spray channel being designed to pass through a central aperture in the bridge spanning a diameter of the collar, and being connectable to the central valve stem of an aerosol container with which the sprayhead is designed to be used; the chassis holding the spray channel and associated actuator button in a non-rotatable manner and the collar being rotatable between a first position in which the spray channel is prevented from depression by interaction of a feature (37, 38) on the spray channel with a feature on the bridge spanning a diameter of the collar and a second position in which the spray channel is not so prevented from depression; characterised in that: the chassis comprises an annular skirt encircling at least 90% of the circumference of the valve cup and gripping the valve cup such that the torque required to turn the chassis around the valve cup is at least twice that required to turn the rotatable circular collar around the chassis; and the bridge spanning a diameter of the collar sits above an upper surface of the chassis. a chassis capable of attachment to the valve cup of an aerosol container; a rotatable circular collar comprising a bridge spanning a diameter of the collar; and a spray channel and associated actuator button, said spray channel being designed to pass through a central aperture in the bridge spanning a diameter of the collar, and being connectable to the central valve stem of an aerosol container with which the sprayhead is designed to be used; the chassis holding the spray channel and associated actuator button in a non-rotatable manner and the collar being rotatable between a first position in which the spray channel is prevented from depression by interaction of a feature (37, 38) on the spray channel with a feature on the bridge spanning a diameter of the collar and a second position in which the spray channel is not so prevented from depression; characterised in that: the chassis comprises an annular skirt encircling at least 90% of the circumference of the valve cup and gripping the valve cup such that the torque required to turn the chassis around the valve cup is at least twice that required to turn the rotatable circular collar around the chassis; and the bridge spanning a diameter of the collar sits above an upper surface of the chassis. the chassis comprises an annular skirt encircling at least 90% of the circumference of the valve cup and gripping the valve cup such that the torque required to turn the chassis around the valve cup is at least twice that required to turn the rotatable circular collar around the chassis; and the bridge spanning a diameter of the collar sits above an upper surface of the chassis.
Plastic molding material, having the following composition: (a) 49 to 97 wt.% of at least one plastic forming a matrix, (b) 3 to 40 wt.% of at least one carbon fiber coated with at least one plastic, (c) 0 to 48 wt.% of at least one further additive, wherein the components (a) to (c) add up to 100 wt.%, characterized in that the carbon fiber of component (b) is selected from the group consisting of recycled carbon fibers and cellulose-based carbon fibers, that the carbon fiber of component (b) has an average length in the range between 50 and 200 μm, that the at least one plastic of the carbon-fiber coating is selected from a group consisting of polyamides, in particular copolyamides, polyesters, in particular copolyesters, polyurethanes, epoxy resins, polyhydroxyethers, acrylic copolymers, and mixtures or superimposed layers of two or more of these plastics, that the at least one plastic of component (a) is a thermoplastic material selected from the group consisting of acetal resins, liquid-crystalline polymers, polyacrylates, polymethacrylates, olefinic and cycloolefinic polymers, polyamides, polyamide elastomers, in particular polyesteramides, polyetheramides and polyetheresteramides, polyamideimides, polyethers, polyaryl ethers including polyphenyl ethers, polyhydroxy ethers, polycarbonates, polysulfones, polyetherimides, polyimides, polyesters, polyester-polycarbonates, polyoxyethylenes, polystyrenes, styrene copolymers, polysulfones, vinyl polymers such as polyvinyl chloride and polyvinyl acetate, and mixtures or blends of two or more of the thermoplastics listed, or a thermoset selected from the group consisting of melamine resins, phenoplasts, polyester resins, aminoplasts, epoxy resins, polyurethanes, crosslinked polyacrylates, and mixtures or blends of two or more of the thermosets listed, and that the plastic molding material has a surface resistivity of 1*10 9 to 1*10 16 ohms and a volume resistivity of 1*10 1 to 1*10 14 ohms*m, both determined in accordance with IEC 60093. (a) 49 to 97 wt.% of at least one plastic forming a matrix, (b) 3 to 40 wt.% of at least one carbon fiber coated with at least one plastic, (c) 0 to 48 wt.% of at least one further additive,
Banderole comprising: a main portion; and a first folding portion at a first end of the main portion; wherein: the first folding portion comprises a first sub-portion and a second sub-portion; the first sub-portion is connected to the main portion; the second sub-portion is connected to the first sub-portion; the first folding portion is configured to be folded towards the main portion such that the first sub-portion abuts against a first side of the main portion and forms a first insertion pocket; the second sub-portion is configured to be folded towards a second side of the main portion when the first sub-portion abuts against the first side of the main portion, the second side being opposite to the first side; and the second sub-portion is configured to be fixed to the main portion; characterized in that the ratio of a total width of the banderole in an unfolded state to a width of the main portion of the banderole is less than 1.4. a main portion; and a first folding portion at a first end of the main portion; the first folding portion comprises a first sub-portion and a second sub-portion; the first sub-portion is connected to the main portion; the second sub-portion is connected to the first sub-portion; the first folding portion is configured to be folded towards the main portion such that the first sub-portion abuts against a first side of the main portion and forms a first insertion pocket; the second sub-portion is configured to be folded towards a second side of the main portion when the first sub-portion abuts against the first side of the main portion, the second side being opposite to the first side; and the second sub-portion is configured to be fixed to the main portion; characterized in that the ratio of a total width of the banderole in an unfolded state to a width of the main portion of the banderole is less than 1.4.
A display control apparatus comprising: a control unit that performs control of displaying a plurality of representative images (A, B, C, D) extracted from a search target image group, and image group information (a, b, c, d) that indicates presence of an image other than the representative images in the search target image group and is displayed in a form different from the representative images between a plurality of the representative images; characterized in that: upon a user's input to select the image group information displayed on the display unit, a representative image (aX, aY) is extracted from an image group corresponding to the input image group information and is displayed on the display unit; when input to select the image group information displayed on the display unit is made and then input to give an instruction of canceling selection is made, the image corresponding to the selected image group information is excluded from the search target image group. upon a user's input to select the image group information displayed on the display unit, a representative image (aX, aY) is extracted from an image group corresponding to the input image group information and is displayed on the display unit; when input to select the image group information displayed on the display unit is made and then input to give an instruction of canceling selection is made, the image corresponding to the selected image group information is excluded from the search target image group.
A hook-and-loop component embedded with a foam material, comprising a band body having a first surface and a second surface, the first surface and the second surface being opposite to each other and the hook-and-loop component is characterized in that: a plurality of pores is disposed on the band body; a plurality of hair loops being made of soft fiber materials is disposed on the first surface; and a magnetic material is disposed on the second surface and is corresponding to a disposed position of the hair loops; wherein the disposed position of the hair loops and the magnetic material includes an interval away from an edge of the first surface and the second surface. a plurality of pores is disposed on the band body; a plurality of hair loops being made of soft fiber materials is disposed on the first surface; and a magnetic material is disposed on the second surface and is corresponding to a disposed position of the hair loops; wherein the disposed position of the hair loops and the magnetic material includes an interval away from an edge of the first surface and the second surface.
A transverse internal gear pump, comprising: a trochoid, in which an inner rotor having a plurality of outer teeth is rotatably accommodated within an outer rotor having a plurality of inner teeth, the inner rotor being rotatably accommodated within the outer rotor in an eccentric state and with the outer teeth and the inner teeth meshing, and in which an intake-side volume chamber for taking in a liquid and an ejection-side volume chamber for ejecting liquid taken into the intake-side volume chamber are formed between the inner teeth and the outer teeth; a liquid intake nozzle extending in a non-perpendicular direction with respect to the trochoid rotation surfaces, the liquid intake nozzle having a distal end immersed in a liquid reservoir of the liquid, and forming part of a passage via which the liquid communicates with the intake-side volume chamber; and an intake cover having the liquid intake nozzle being secured to the pump casing, and the liquid intake nozzle and the intake cover being integrally molded by the injection molding of a resin composition, wherein the transverse internal gear pump has a plastic pump casing in which a recessed portion for accommodating the trochoid is formed, and a pump cover for closing off the pump casing; and wherein a port linking the liquid intake nozzle interior and a space in the interior of the intake cover is disposed in a location that, when the pump is installed, is above a vertically central portion of the space in the interior of the intake cover. a trochoid, in which an inner rotor having a plurality of outer teeth is rotatably accommodated within an outer rotor having a plurality of inner teeth, the inner rotor being rotatably accommodated within the outer rotor in an eccentric state and with the outer teeth and the inner teeth meshing, and in which an intake-side volume chamber for taking in a liquid and an ejection-side volume chamber for ejecting liquid taken into the intake-side volume chamber are formed between the inner teeth and the outer teeth; a liquid intake nozzle extending in a non-perpendicular direction with respect to the trochoid rotation surfaces, the liquid intake nozzle having a distal end immersed in a liquid reservoir of the liquid, and forming part of a passage via which the liquid communicates with the intake-side volume chamber; and an intake cover having the liquid intake nozzle being secured to the pump casing, and the liquid intake nozzle and the intake cover being integrally molded by the injection molding of a resin composition, wherein the transverse internal gear pump has a plastic pump casing in which a recessed portion for accommodating the trochoid is formed, and a pump cover for closing off the pump casing; and wherein a port linking the liquid intake nozzle interior and a space in the interior of the intake cover is disposed in a location that, when the pump is installed, is above a vertically central portion of the space in the interior of the intake cover.