mhurhangee/ep-ind-claims huggingface dataset:
A chopper knife (100, 200) for an agricultural machine, the chopper knife (100, 200) comprising a plate-shaped blade having a front region and a rear region, in which the rear region is adapted for securing the blade to a blade support, the front region comprising at least one elongate cutting edge (150, 151), the blade being confined in transversal direction by longitudinal edges (106, 107), the at least one elongate cutting edge being provided with a coating (140, 141) extending along a surface of the blade over a width (d) perpendicular to a longitudinal edge (106, 107.), characterised in that said width (d) of the coating (140, 141) decreases in a direction from the front region towards the rear region of the blade.
A power electronics module system, wherein the power electronics module system comprises a power electronics module, a connection module connectable to the power electronics module, a cooling apparatus and a reception area arranged at an axial end of the power electronics modules for receiving the connection module, wherein the reception area comprises lateral walls (11a, 11b, 11c, 11d), wherein the reception area comprises electrically conductive first contact elements, which comprise a thermically conductible connection to a lateral wall of the reception area, wherein the connection module comprises electrically conductive second contact elements, which are arranged on the connection module such that, upon arranging the connection module within the reception area, an electrically conductive contact between the first and the second contact elements (9, 10) is provided, wherein, within at least one of the lateral walls (11a, 11b, 11c, 11d) of the reception area, a cooling channel able to be flown through by a liquid cooling medium extends und further passing across the rectifier cooling area, characterized in that the cooling channel extends within a first lateral wall of the reception area extending in an axial direction of the power electronics module and further extends within a second lateral wall of the reception area extending in an axial direction of the power electronics module, wherein the connection module comprises a housing, wherein the geometrical shape of the housing of the connection module is formed such that, if the connection module is arranged in the reception area, the connection module housing side facing the first lateral wall of the receiving area comprises a thermically conductive contact with the first lateral wall of the receiving area and the connection module housing side facing the second lateral wall of the receiving area comprises a thermically conductive contact with the second lateral wall of the receiving area, wherein the first contact elements are arranged on a third lateral wall of the receiving area, wherein the first contact elements comprise a thermically conductive connection to the third lateral wall of the receiving area, wherein the third lateral wall comprises a thermically conductive contact with the first and second lateral wall (11a, 11b) of the receiving area and wherein the first contact elements are arranged on the third lateral wall and wherein a thermically conductive material is arranged between the first contact elements and the third lateral wall.
A roof window operating arrangement for closing of a roof window comprising a sash and a frame, wherein the operating arrangement comprises an operator housing which is adapted to be connected to one of the frame or sash and from where an operating element extends and is adapted to releasably connect to the corresponding opposite sash or frame, wherein the operator housing is provided with a drive unit comprising an electric motor connected to a drive shaft of the operating arrangement, the drive shaft being further arranged with a winding drum, the winding drum being actuated by one end of a spring, the opposite end of the spring being connected to a fixed point such as the operator housing, wherein the winding drum is arranged to wind up the operating element, characterized in that the operating arrangement comprises a one-way clutch system which is arranged to engage the drive unit with the winding drum in an active state and disengage the drive unit from the winding drum in an inactive state, wherein the one-way clutch system is provided by the drive shaft being connected to the winding drum by a connection element, such as to provide a one-way clutch in the direction of rotation of the motor winding up the operating element, wherein the connection between the drive shaft and the connection element is provided by a cover element, which is arranged with a slit, in which a protrusion on the connection element engages, wherein the connection element is furthermore connected to an anchor plate which rotates with the drive shaft, and that the one-way clutch is configured to engage the drive shaft with the winding drum in the active state of the drive unit and disengage the drive shaft from the winding drum in the inactive state of the drive unit, wherein the engagement and disengagement between the winding drum and the drive shaft is obtained by the connection element being forced, through the connection of the protrusion in the slit, to engage with one end in a groove in the winding drum, and that when in the active state of the drive unit, the drive shaft rotates the winding drum in a first direction winding up the operating element, and when in the inactive state the winding drum is free-wheeled in a first and a second direction, and that the winding drum is furthermore influenced by the force of the spring creating an automatic winding up of the operating element when the drive unit is in an inactive state.
A ceramic embedding composition for producing a casting mold for dental medical applications, wherein the embedding mass is produced starting from a ceramic powder mixture containing a phosphate-based binder which is mixed with a colloid-forming agent or a gelling agent, characterized in that the ceramic powder mixture used as the starting substance contains Zr acetylacetonate.
A receiving antenna for a wireless power receiving device wirelessly charging electrical power, the receiving antenna comprising: a substrate; a soft magnetic layer stacked on the substrate, including a soft magnetic material, and having gaps at predetermined intervals; and a coil stacked on the soft magnetic layer, and configured to receive electromagnetic energy emitted from a wireless power transmission device, characterized in that, wherein the coil is wound in a direction parallel to the soft magnetic layer on the soft magnetic layer, and at least a part of the coil disposed between two gaps is disposed in parallel with the gaps, wherein the soft magnetic layer includes a plurality of sub soft magnetic layers separated by the gaps, wherein each of the sub soft magnetic layers is formed with a width of 0.02 mm to 1 mm, and has a stripe shape, wherein the soft magnetic layer is a metallic ribbon, wherein the metallic ribbon is a nanocrystalline metallic ribbon, wherein the gaps are filled with an acrylate-based resin, and wherein a width of each of the sub soft magnetic layers is one to fifty times a thickness of the soft magnetic layer. a substrate; a soft magnetic layer stacked on the substrate, including a soft magnetic material, and having gaps at predetermined intervals; and a coil stacked on the soft magnetic layer, and configured to receive electromagnetic energy emitted from a wireless power transmission device, characterized in that, wherein the coil is wound in a direction parallel to the soft magnetic layer on the soft magnetic layer, and at least a part of the coil disposed between two gaps is disposed in parallel with the gaps, wherein the soft magnetic layer includes a plurality of sub soft magnetic layers separated by the gaps, wherein each of the sub soft magnetic layers is formed with a width of 0.02 mm to 1 mm, and has a stripe shape, wherein the soft magnetic layer is a metallic ribbon, wherein the metallic ribbon is a nanocrystalline metallic ribbon, wherein the gaps are filled with an acrylate-based resin, and wherein a width of each of the sub soft magnetic layers is one to fifty times a thickness of the soft magnetic layer.
A gas turbine engine comprising a fan section driven, via a gear reduction, by a fan drive turbine in an engine core, and a high pressure turbine, wherein said fan section has a fan hub and a plurality of blades extending radially outwardly of said hub to an outer tip, said fan blade outer tip diameter is greater than or equal to 84 inches (213.36 centimeters), a fan tip speed is, in operation, less than or equal to 1050 ft / second (320.04 meters / second), a bypass ratio, defined as a volume of air delivered by said fan section into a bypass duct as compared to a volume of air delivered by said fan section into said engine core, is greater than or equal to 11.0, the gear ratio of said gear reduction is greater than or equal to 3.1, said fan drive turbine has between three and six stages, and a ratio of an outer diameter of said fan hub at a leading edge of the blades to an outer tip diameter of said blades at the leading edge is greater than or equal to 0.24 and less than or equal to 0.38, characterised in that: said fan drive turbine also drives a first compressor rotor having between one and five stages, and said gas turbine engine further comprises an engine static structure comprising a mid-turbine frame arranged generally between the high pressure turbine and the fan drive turbine, the mid-turbine frame supporting bearing systems and including airfoils in a core airflow path. said fan drive turbine also drives a first compressor rotor having between one and five stages, and said gas turbine engine further comprises an engine static structure comprising a mid-turbine frame arranged generally between the high pressure turbine and the fan drive turbine, the mid-turbine frame supporting bearing systems and including airfoils in a core airflow path.
A dendrimer composition comprising a mixture of dendrimers of different molecular weights of formula (Core x)(D r M) x, or a tautomeric form thereof, or a salt thereof, or a solvate thereof, wherein x is an integer from 3 to 6, and wherein: A) Core x represents any combinations of: A.1) when x = 3; A.2) when x = 4; A.3) when x = 5; A.4) when x = 6; and B) D represents C) M represents R 1 p or R 2 p, wherein: C.1) R 1 is: and C.2) R 2 is: and D) R 3 is D or M; E) r is p-1; F) p is 2 n-1; G) n is an integer from 1 to 10; and H) X is selected from the group consisting of (CQ 2) a CQ 3 and CH 2 -O-CH 2 -Ph, where Q represents, independently, H or halogen, Ph represents phenyl, and a is an integer from 0 to 16. A) Core x represents any combinations of: A.1) when x = 3; A.2) when x = 4; A.3) when x = 5; A.4) when x = 6; and A.1) when x = 3; A.2) when x = 4; A.3) when x = 5; A.4) when x = 6; and B) D represents C) M represents R 1 p or R 2 p, wherein: C.1) R 1 is: and C.2) R 2 is: and C.1) R 1 is: and C.2) R 2 is: and D) R 3 is D or M; E) r is p-1; F) p is 2 n-1; G) n is an integer from 1 to 10; and H) X is selected from the group consisting of (CQ 2) a CQ 3 and CH 2 -O-CH 2 -Ph, where Q represents, independently, H or halogen, Ph represents phenyl, and a is an integer from 0 to 16.
A medical lead system for delivering electrical stimulation to tissue of a patient, the medical lead system comprising: a lead body for conducting electrical pulses through a plurality of conductors; a paddle having an elongated shape, a distal end and a proximate end, a first side (232; 233) and a second side (233; 232), and a longitudinal axis extending between the distal end and the proximate end; and a plurality of electrodes integrated with the paddle, with a portion of each of the plurality of electrodes being exposed at a face of the paddle, each of the plurality of electrodes being electrically connected to each of the plurality of conductors, the plurality of electrodes for delivering the electrical pulses from the plurality of conductors to the tissue of the patient, characterized in that the paddle includes a tabbed portion (260; 261; 262) extending from the first side (232; 233) at the proximate end of the paddle at an obtuse or right angle with respect to the longitudinal axis of the paddle, the tabbed portion (260; 261; 262) is configured for at least facilitating a user gripping the paddle from the side at the tabbed portion (260; 261; 262) at a position on the paddle offset from the longitudinal axis of the paddle. a lead body for conducting electrical pulses through a plurality of conductors; a paddle having an elongated shape, a distal end and a proximate end, a first side (232; 233) and a second side (233; 232), and a longitudinal axis extending between the distal end and the proximate end; and a plurality of electrodes integrated with the paddle, with a portion of each of the plurality of electrodes being exposed at a face of the paddle, each of the plurality of electrodes being electrically connected to each of the plurality of conductors, the plurality of electrodes for delivering the electrical pulses from the plurality of conductors to the tissue of the patient, characterized in that the paddle includes a tabbed portion (260; 261; 262) extending from the first side (232; 233) at the proximate end of the paddle at an obtuse or right angle with respect to the longitudinal axis of the paddle, the tabbed portion (260; 261; 262) is configured for at least facilitating a user gripping the paddle from the side at the tabbed portion (260; 261; 262) at a position on the paddle offset from the longitudinal axis of the paddle.
Tool holder for a hand-held rotating and chiselling power tool, comprising a hollow spindle surrounding a receiving space for receiving a tool coaxially with a working axis and having at least one recess in the radial direction and an insert inserted into the recess in a radial direction and having a web projecting into the receiving space in the radial direction, wherein the insert has a base with lateral surfaces extending along the working axis and fastened against inner surfaces of the recess by means of a solder, characterised by a groove arranged within the recess, extending along the working axis, opening into the receiving space and delimited by the insert and an inner surface of the recess.
An AC generator, comprising: a rotor rotatably supported inside a casing; a stator comprising a stator core and a stator winding wound around the stator core, the stator being supported by the casing so as to surround the rotor; a rectifier provided outside the casing on one side in an axial direction of the casing, for rectifying an alternating current generated in the stator winding; a voltage regulator provided outside the casing on the one side in the axial direction thereof, for regulating a magnitude of an AC voltage generated in the stator; and a protective cover comprising a bottom portion and a peripheral wall portion having a cylindrical shape, the protective cover being configured to be locked to the casing so as to cover the rectifier and the voltage regulator, the protective cover including a ventilation hole, wherein the protective cover comprises a locking claw provided so as to extend outward in the axial direction from an open-side end surface of the peripheral wall portion, the locking claw comprising an axial portion and a claw portion provided so as to project radially from an end portion of the axial portion, the locking claw being configured to be locked to the casing, characterized in that the protective cover comprises a locking-claw restricting portion formed on an outer peripheral edge portion of the bottom portion, so as to restrict the movement of protective covers when stacked in a stable stacked state; the locking-claw restricting portion comprises a recessed portion which is recessed radially inward, and the recessed portion has a bottom surface. a rotor rotatably supported inside a casing; a stator comprising a stator core and a stator winding wound around the stator core, the stator being supported by the casing so as to surround the rotor; a rectifier provided outside the casing on one side in an axial direction of the casing, for rectifying an alternating current generated in the stator winding; a voltage regulator provided outside the casing on the one side in the axial direction thereof, for regulating a magnitude of an AC voltage generated in the stator; and a protective cover comprising a bottom portion and a peripheral wall portion having a cylindrical shape, the protective cover being configured to be locked to the casing so as to cover the rectifier and the voltage regulator, the protective cover including a ventilation hole, wherein the protective cover comprises a locking claw provided so as to extend outward in the axial direction from an open-side end surface of the peripheral wall portion, the locking claw comprising an axial portion and a claw portion provided so as to project radially from an end portion of the axial portion, the locking claw being configured to be locked to the casing, characterized in that the protective cover comprises a locking-claw restricting portion formed on an outer peripheral edge portion of the bottom portion, so as to restrict the movement of protective covers when stacked in a stable stacked state; the locking-claw restricting portion comprises a recessed portion which is recessed radially inward, and the recessed portion has a bottom surface.
Cooling and/or freezing device comprising a cooled interior and a closure element by means of which the interior can be closed, wherein the interior and/or the closure element has a layer of insulating material for the purpose of thermal insulation, wherein at least one component is located in the layer of insulating material, which component has no fixed connection to the insulating material, wherein a removable element with or without an insulating effect is located in the layer of insulating material, which element is arranged such that there is access to the component after its removal, wherein the removable element is arranged such that the removable element can be pulled out and inserted from the inside or outside, and wherein the component is not in direct contact with the insulating material, characterised in that the component is not covered in a gas-tight manner with respect to the environment and in that at least one condensate water drain is provided, which is arranged in such a way that it removes condensate water from the area in which the component is arranged.
An anode active material, comprising a lithiated silicon-oxygen material and a coating layer, wherein there is at least a Si-O-M bond between the coating layer and the lithiated silicon-oxygen material, wherein the lithiated silicon-oxygen material is a silicate, which comprises one or more of Li 2 SiO 3, Li 6 Si 2 O 7, Li 2 Si 2 O 5, and Li 4 SiO 4 and which after hydrolysis, dehydration and polymerization forms a net-work like tight coating layer, mainly composed of Si-O-M bonds on the surface of the silicon-oxygen material, wherein M is selected from one or more of an aluminum element, a boron element, and a phosphorus element, wherein the content of M is 0.05 wt% to 1.0 wt% of the coating layer.
A composition for admixture with water, wherein the composition is optionally presented in two or more parts and comprises: a) 150 to 400 mmol ascorbate anion provided by a mixture of: (i) ascorbic acid and (ii) one or more salts of ascorbic acid the components (i) and (ii) being present in a molar ratio of from 1:4.5 to 1:7.0; and b) 5 to 100 g polyethylene glycol. a) 150 to 400 mmol ascorbate anion provided by a mixture of: (i) ascorbic acid and (ii) one or more salts of ascorbic acid the components (i) and (ii) being present in a molar ratio of from 1:4.5 to 1:7.0; and (i) ascorbic acid and (ii) one or more salts of ascorbic acid b) 5 to 100 g polyethylene glycol.
Method of controlling emission wavelength of a light emitting device, the method comprising: providing an amplitude modulated current ( I f) through the device to maintain light emission of the device; during said light emission, determining a dynamic resistance indication of series resistance (Rs) of the device, the series resistance comprising ohmic resistance of the device, and measuring a forward voltage ( V f) of the device during said light emission, the forward voltage being across an impedance comprising impedance of an active region of the device and the series resistance; determining an indicator of active region voltage (V j) of the device on the basis of the measured forward voltage and the determined dynamic resistance indication of series resistance; and controlling a temperature of the device on the basis of the determined indicator of active region voltage, characterised in that the determining the dynamic resistance indication of series resistance comprises: extracting an AC component of forward voltage of the device while providing the amplitude modulated current; determining the dynamic resistance indication on the basis of the extracted AC component and the modulation amplitude of the amplitude modulated current, to thereby obtain the dynamic resistance indication of series resistance. providing an amplitude modulated current ( I f) through the device to maintain light emission of the device; during said light emission, determining a dynamic resistance indication of series resistance (Rs) of the device, the series resistance comprising ohmic resistance of the device, and measuring a forward voltage ( V f) of the device during said light emission, the forward voltage being across an impedance comprising impedance of an active region of the device and the series resistance; determining an indicator of active region voltage (V j) of the device on the basis of the measured forward voltage and the determined dynamic resistance indication of series resistance; and controlling a temperature of the device on the basis of the determined indicator of active region voltage, characterised in that the determining the dynamic resistance indication of series resistance comprises: extracting an AC component of forward voltage of the device while providing the amplitude modulated current; determining the dynamic resistance indication on the basis of the extracted AC component and the modulation amplitude of the amplitude modulated current, to thereby obtain the dynamic resistance indication of series resistance. extracting an AC component of forward voltage of the device while providing the amplitude modulated current; determining the dynamic resistance indication on the basis of the extracted AC component and the modulation amplitude of the amplitude modulated current, to thereby obtain the dynamic resistance indication of series resistance.
An assembly for treating gaseous emissions comprising a substrate body having a plurality of cells for the passage of emissions gas, respective lengths of metal wire located in each of a first set of the plurality of cells, and an induction heating coil mounted adjacent the substrate body for generating a varying electromagnetic field, thereby inductively to heat the lengths of wire and thereby to heat the substrate body, wherein the wires are distributed non-uniformly through the substrate body to obtain a desired inductance heating pattern at the substrate body; the assembly having a front for entry of gaseous emissions to be treated and a back for exit of treated gaseous emissions, characterised by the substrate body having a non-uniform distribution of wires along a longitudinal axis from the front to the back of the substrate body.