mhurhangee/ep-ind-claims huggingface dataset:
A bracket for mounting a fluid ejection module to a frame, the bracket comprising: a support strut configured to carry the fluid ejection module; and an alignment strut coupled to the support strut and configured to affix to the frame so as to orient the support strut with respect to the frame in each of three orthogonal linear directions and three orthogonal angular directions, the alignment strut comprising: a first alignment mechanism comprising a first adjustable alignment feature (120, 121); a second alignment mechanism comprising a second adjustable alignment feature (124, 126); and a third alignment mechanism comprising a third adjustable alignment feature (130, 132, 134), characterized in that: the first alignment feature (120, 121) is configured to bear against the frame so as to orient the support strut in a first angular direction when the alignment strut is affixed to the frame; the second alignment feature (124, 126) is configured to bear against the frame so as to orient the support strut in a second angular direction and in a third linear direction when the alignment strut is affixed to the frame; the third alignment feature (130, 132, 134) is configured to bear against the frame so as to orient the support strut in a first linear direction when the alignment strut is affixed to the frame; each of the first (120, 121) and second (124, 126) alignment features is held mechanically fixed, optionally by an adhesive, on the alignment strut in a respective aligned position; and the third alignment mechanism is movable on the alignment strut. a support strut configured to carry the fluid ejection module; and an alignment strut coupled to the support strut and configured to affix to the frame so as to orient the support strut with respect to the frame in each of three orthogonal linear directions and three orthogonal angular directions, the alignment strut comprising: a first alignment mechanism comprising a first adjustable alignment feature (120, 121); a second alignment mechanism comprising a second adjustable alignment feature (124, 126); and a third alignment mechanism comprising a third adjustable alignment feature (130, 132, 134), the first alignment feature (120, 121) is configured to bear against the frame so as to orient the support strut in a first angular direction when the alignment strut is affixed to the frame; the second alignment feature (124, 126) is configured to bear against the frame so as to orient the support strut in a second angular direction and in a third linear direction when the alignment strut is affixed to the frame; the third alignment feature (130, 132, 134) is configured to bear against the frame so as to orient the support strut in a first linear direction when the alignment strut is affixed to the frame; each of the first (120, 121) and second (124, 126) alignment features is held mechanically fixed, optionally by an adhesive, on the alignment strut in a respective aligned position; and the third alignment mechanism is movable on the alignment strut.
A method for providing clipping protection in a downmixed audio signal, the method comprising: receiving audio data comprising a plurality of channels and its relevant metadata, wherein the relevant metadata includes metadata indicating a loudness of the audio data; downmixing the audio data comprising the plurality of channels into a downmixed audio signal; determining gain values based on the loudness of the audio data; determining whether the gain values are sufficient for clipping protection of the downmixed audio signal; wherein the gain values are sufficient for clipping protection, if application of the gain values prevents an amplitude of the downmixed audio signal from exceeding a maximum representable value; in response to determining that the gain values are sufficient for clipping protection, applying the gain values to the downmixed audio signal, in case the gain values are not sufficient for clipping protection, replacing the gain values with new gain values sufficient for clipping protection, such that application of the new gain values prevents the amplitude of the downmixed audio signal from exceeding the maximum representable value; and applying the new gain values to the downmixed audio signal. receiving audio data comprising a plurality of channels and its relevant metadata, wherein the relevant metadata includes metadata indicating a loudness of the audio data; downmixing the audio data comprising the plurality of channels into a downmixed audio signal; determining gain values based on the loudness of the audio data; determining whether the gain values are sufficient for clipping protection of the downmixed audio signal; wherein the gain values are sufficient for clipping protection, if application of the gain values prevents an amplitude of the downmixed audio signal from exceeding a maximum representable value; in response to determining that the gain values are sufficient for clipping protection, applying the gain values to the downmixed audio signal, in case the gain values are not sufficient for clipping protection, replacing the gain values with new gain values sufficient for clipping protection, such that application of the new gain values prevents the amplitude of the downmixed audio signal from exceeding the maximum representable value; and applying the new gain values to the downmixed audio signal.
Electric vehicle with two or three wheels comprising a standard bicycle frame (1, 101) having a cylindrical space adapted to house a bottom bracket, an electric gear motor unit and pedal cranks (6, 16, 106, 116) for the transmission of the advancing motion of the vehicle, wherein said gear motor unit is a gear motor outrunner unit with a motor having a rotor (24, 50, 14, 124, 150, 114) outside a stator (12, 112), said gear motor outrunner unit being installable coaxially to the cylindrical space of the frame (1, 101) and comprising a gear box of planetary type, nested inside a stator cavity, wherein the electric gear motor unit comprises a hub (19,119) in form of a tube (19, 119) and suitably shaped so as to be inserted in said cylindrical space adapted to house the bottom bracket, said electric gear motor unit being installable by means of said tube (19, 119) coaxially to the cylindrical space of the standard bicycle frame (1, 101),, in a manner such that the revolution axes of the motor, of the gear box and of a pedal crank shaft (9, 109) coincide, and wherein the motor and the gear box are outside the cylindrical space of the frame adapted to house the bottom bracket, the output motion of the gear box being transmitted to a rotating bell-shaped element (3,103) within which the gear motor is fully housed, characterized in that the gear motor unit further comprises a cup (15, 151), said cup (15, 151) being on, a first side, integral with the frame by means of said hub (19, 119) inserted within said cylindrical space of the frame adapted to house a bottom bracket while on a second side, axially opposed along the axis of the pedal crank shaft, said cup (15, 151) is open and it acts externally as a support of the stator (12, 112) and internally has an internal toothing (23, 123) of the planetary gear box.
A display device comprising: a backlight unit comprising a light source; and a liquid crystal display module comprising: a phosphor film comprising luminescent nanostructures configured to receive a primary light, from the light source, having a first peak wavelength and to convert a portion of the primary light to emit a secondary light having a second peak wavelength that is different from the first peak wavelength; and a filter element comprising nanostructured materials that exhibit light absorption properties and do not exhibit luminescent properties and are optically coupled to the phosphor film and are configured to allow the secondary light to pass through the filter element and to block an unconverted portion of the primary light from passing through the filter element, wherein the phosphor film comprises a matrix material, and wherein the filter element is embedded in the matrix material. a backlight unit comprising a light source; and a liquid crystal display module comprising: a phosphor film comprising luminescent nanostructures configured to receive a primary light, from the light source, having a first peak wavelength and to convert a portion of the primary light to emit a secondary light having a second peak wavelength that is different from the first peak wavelength; and a filter element comprising nanostructured materials that exhibit light absorption properties and do not exhibit luminescent properties and are optically coupled to the phosphor film and are configured to allow the secondary light to pass through the filter element and to block an unconverted portion of the primary light from passing through the filter element, wherein the phosphor film comprises a matrix material, and wherein the filter element is embedded in the matrix material. a phosphor film comprising luminescent nanostructures configured to receive a primary light, from the light source, having a first peak wavelength and to convert a portion of the primary light to emit a secondary light having a second peak wavelength that is different from the first peak wavelength; and a filter element comprising nanostructured materials that exhibit light absorption properties and do not exhibit luminescent properties and are optically coupled to the phosphor film and are configured to allow the secondary light to pass through the filter element and to block an unconverted portion of the primary light from passing through the filter element, wherein the phosphor film comprises a matrix material, and wherein the filter element is embedded in the matrix material.
A device for the wireless transmission of electric power and electrical signals, comprising a first electrical component attached on a mechanical structure, particularly in a housing or a casing part, wherein the first electrical component is mounted in a movable manner and actuating means are provided for the relative movement of the first electrical component, wherein the actuating means are set up to improve the electromagnetic coupling between the first and the second electrical component as a function of the position of a second electrical component in relation to the mechanical structure by means of a movement of the first electrical component, characterised in that at least one of the electrical components (1, 2) is mounted in a rotatable manner in an installation box, wherein a tub is provided for accommodating the electrical components (1, 2), and actuating means are provided for positioning the tub in the installation box.
A method for producing a relief-like decor on a surface of a ceramic printing medium, comprising the steps of: a) providing a ceramic printing medium; b) dispensing droplets of a first glaze suspension comprising at least one frit-containing glaze material in the form of particles onto a portion of the surface using a plurality of nozzles of a first inkjet printer, and constricting the droplets applied to the portion such that at least partially constricted glaze material forms elevations, whereby a continuous unidirectional relative movement between the nozzles and the printing medium takes place during the dispensing of the droplets; c) firing the ceramic printing medium to produce a fired relief-like decor on the surface of the printing medium; characterized in that in step (b) the printing medium and/or the droplets applied to the printing medium is or are caused to oscillate, or that at least a continuous fluid stream from a fluid-stream-activating device is directed against the surface of the printing medium on which the droplets have been applied, preferably in such a way that constricted glaze material forms elevations with a substantially flat surface or with flat surface. a) providing a ceramic printing medium; b) dispensing droplets of a first glaze suspension comprising at least one frit-containing glaze material in the form of particles onto a portion of the surface using a plurality of nozzles of a first inkjet printer, and constricting the droplets applied to the portion such that at least partially constricted glaze material forms elevations, whereby a continuous unidirectional relative movement between the nozzles and the printing medium takes place during the dispensing of the droplets; c) firing the ceramic printing medium to produce a fired relief-like decor on the surface of the printing medium;
A method for producing a ribbon of complex for producing electrical energy storage units from said ribbon, characterized in that the method comprises the steps consisting in: - continuous moving a strip of material (11, 12, 13), - longitudinally cutting the strip of material so as to form at least two strands of material (11 a, 12a, 13a and 11 b, 12b, 13b) from the strip of material, - transversally separating the strands of material along a direction of separation extending in a moving plane of the strands of material, - forming at least one functional layer on the separated strands of material to obtain a complex, and - longitudinally cutting the complex to obtain at least two ribbons of electrical energy storage complex. - continuous moving a strip of material (11, 12, 13), - longitudinally cutting the strip of material so as to form at least two strands of material (11 a, 12a, 13a and 11 b, 12b, 13b) from the strip of material, - transversally separating the strands of material along a direction of separation extending in a moving plane of the strands of material, - forming at least one functional layer on the separated strands of material to obtain a complex, and - longitudinally cutting the complex to obtain at least two ribbons of electrical energy storage complex.
Lock device, having - a first lock part, - a second lock part, which can in a fastening direction be arranged on the first lock part and is connected to the first lock part in a closing state, and - an actuating element, on which the second lock part is movably arranged, wherein in the closing state the second lock part is held on the first lock part via the actuating element and, moreover, the second lock part acts together with the actuating element in such a way that in a loaded state, when a force is acting on the second lock part relative to the first lock part along the fastening direction, the actuating element is rigidly connected to the first lock part and holds the second lock part on the first lock part, whereas in an unloaded state the second lock part can be detached from the first lock part by actuation of the actuating element, - having magnetic means (25, 35, 46; 303, 304, 403, 404) to generate a magnetic attracting force between the first lock part on the one hand and the actuating element and/or the second lock part on the other hand, to support the transfer of the lock device (1, 1') into the closing state characterized in that - in the closing state in the loaded state the actuating element is held friction-locking by static friction on the first lock part or - the actuating element in the closing state is held catch-lockingly on the first lock part, wherein the catch locking connection between actuating element and the first lock part in the loaded state of the second lock part is blocked, whereas in the unloaded state of the second lock part it can be released. - a first lock part, - a second lock part, which can in a fastening direction be arranged on the first lock part and is connected to the first lock part in a closing state, and - an actuating element, on which the second lock part is movably arranged, wherein in the closing state the second lock part is held on the first lock part via the actuating element and, moreover, the second lock part acts together with the actuating element in such a way that in a loaded state, when a force is acting on the second lock part relative to the first lock part along the fastening direction, the actuating element is rigidly connected to the first lock part and holds the second lock part on the first lock part, whereas in an unloaded state the second lock part can be detached from the first lock part by actuation of the actuating element, - having magnetic means (25, 35, 46; 303, 304, 403, 404) to generate a magnetic attracting force between the first lock part on the one hand and the actuating element and/or the second lock part on the other hand, to support the transfer of the lock device (1, 1') into the closing state - in the closing state in the loaded state the actuating element is held friction-locking by static friction on the first lock part or - the actuating element in the closing state is held catch-lockingly on the first lock part, wherein the catch locking connection between actuating element and the first lock part in the loaded state of the second lock part is blocked, whereas in the unloaded state of the second lock part it can be released.
A device for the guided transport of a fibre web, having a fibre web transport means with a circumferential exterior surface for conveying the fibre web in a conveying direction, and a guide element (71, 71a-d) with a curved form that is arranged opposite a portion of the exterior surface of the fibre web transport means and transversely to the conveying direction, facing the exterior surface of the fibre web transport means, having a surface profile that comprises a plurality of alternating elevations (73, 73a-d) and depressions (75, 75a-d), wherein the plurality of elevations (73, 73a-d) and depressions (75, 75a-d) extend in the conveying direction of the fibre web, such that the elevations (73, 73a-d) form conveying surfaces for guiding the fibre web and the depressions (75, 75a-d) form vent grooves for extracting the entrained air conveyed along with the fibre web, characterized in that the fibre web transport means is a conveyor belt that is deflected around a plurality of deflection rollers (47, 49), wherein the portion of the exterior surface of the conveyor belt, that is located opposite the guide element (71, 71a-d) at the respective time, is always located in the circulation area around a fibre web deflection roller, and in that the guide element (71, 71a-d) is concavely curved in the conveying direction and the elevations (73, 73a-d) point radially inward.
An integrated gas sensor having a gas sensing element, comprising: a substrate including semiconductor material; and a structure of interconnection layers, arranged above the substrate and including a number of stacked conductive layers (9, 10, 11) and dielectric layers, wherein the gas sensing element is integrated within the structure of interconnection layers, and at least one electrode (22a, 22b) is provided within the structure of interconnection layers, electrically connected to the gas sensing element and designed to provide an electric current (I ox) to the gas sensing element in order to cause heating thereof; characterized by further including an integrated electronic circuit within the substrate, operatively coupled to the gas sensing element and configured to cause the electric current (I ox) to flow through the gas sensing element, in at least one operating condition; the integrated electronic circuit including a voltage source and a control unit, configured to control the voltage source in order to provide the electric current (I ox) to the gas sensing element during the at least one operating condition, thereby causing oxidation of a metal body of the gas sensing element. a substrate including semiconductor material; and a structure of interconnection layers, arranged above the substrate and including a number of stacked conductive layers (9, 10, 11) and dielectric layers, wherein the gas sensing element is integrated within the structure of interconnection layers, and at least one electrode (22a, 22b) is provided within the structure of interconnection layers, electrically connected to the gas sensing element and designed to provide an electric current (I ox) to the gas sensing element in order to cause heating thereof; characterized by further including an integrated electronic circuit within the substrate, operatively coupled to the gas sensing element and configured to cause the electric current (I ox) to flow through the gas sensing element, in at least one operating condition; the integrated electronic circuit including a voltage source and a control unit, configured to control the voltage source in order to provide the electric current (I ox) to the gas sensing element during the at least one operating condition, thereby causing oxidation of a metal body of the gas sensing element.
A planet wheel carrier (101, 301) for a planetary gear, the planet wheel carrier comprising: - a carrier body (102, 302) for supporting shafts of planet wheels of the planetary gear, the carrier body and the shafts of the planet wheels comprising oil channels (103, 203) for conducting oil to bearings of the planet wheels, and - a slide bearing (127, 327) for rotatably supporting a first end (119, 319) of the carrier body with respect to a frame of the planetary gear, wherein the slide bearing comprises at least one oil channel (108, 308) for conducting oil from at least one oil channel of the frame of the planetary gear to the oil channels of the carrier body, characterized in that the planet wheel carrier comprises one or more conical roller bearings (109, 110 309, 310) for rotatably supporting a second end (120 320) of the carrier body with respect to the frame of the planetary gear and for receiving an axial force directed to the carrier body, and the slide bearing (127, 327) comprises two axially successive bearing elements and an axial gap between the bearing elements constitutes the oil channel (108, 308) of the slide bearing. - a carrier body (102, 302) for supporting shafts of planet wheels of the planetary gear, the carrier body and the shafts of the planet wheels comprising oil channels (103, 203) for conducting oil to bearings of the planet wheels, and - a slide bearing (127, 327) for rotatably supporting a first end (119, 319) of the carrier body with respect to a frame of the planetary gear,