mhurhangee/ep-ind-claims huggingface dataset:
A method for applying at least a two-color decoration material having a particular shape or boundaries to a ceramic substrate, comprising: a. applying at least one adhesive-layer-forming component to a ceramic substrate, b. selectively applying an adhesive activator which renders said adhesive-layer-forming component adhesive to form an adhesive layer, according to a chosen color pattern of said decoration, c. applying a ceramic pigment, in particulate form, as a decoration material, together with a further amount of at least one adhesive-layer-forming component, d. removing excess of said ceramic pigment such that said pigment material remains only at the location on the substrate determined by said activated adhesive layer, e. selectively applying a further adhesive activator which renders said further amount of at least one adhesive-layer-forming component adhesive to form a further activated adhesive layer, according to a chosen color pattern of said decoration f. applying a different, further ceramic pigment, in particulate form, as a further decoration material, and g. removing excess further pigment such that said further pigment material remains only at the location on the substrate determined by the further activated adhesive layer, whereby a ceramic substrate, decorated with at least two colors, is formed. a. applying at least one adhesive-layer-forming component to a ceramic substrate, b. selectively applying an adhesive activator which renders said adhesive-layer-forming component adhesive to form an adhesive layer, according to a chosen color pattern of said decoration, c. applying a ceramic pigment, in particulate form, as a decoration material, together with a further amount of at least one adhesive-layer-forming component, d. removing excess of said ceramic pigment such that said pigment material remains only at the location on the substrate determined by said activated adhesive layer, e. selectively applying a further adhesive activator which renders said further amount of at least one adhesive-layer-forming component adhesive to form a further activated adhesive layer, according to a chosen color pattern of said decoration f. applying a different, further ceramic pigment, in particulate form, as a further decoration material, and g. removing excess further pigment such that said further pigment material remains only at the location on the substrate determined by the further activated adhesive layer,
A method for encoding an audio signal, the method comprising: dividing the signal based on a pre-set frequency into a high frequency signal corresponding to a band higher than the pre-set frequency and a low frequency signal corresponding to a band lower than the pre-set frequency; encoding the low frequency signal using a pre-set encoding method; detecting one or more frequency components determined as one or more important frequency components according to a pre-set criterion from the high frequency signal; encoding the one or more important frequency components and information indicating one or more positions at which the one or more frequency components are prepared; calculating an energy value of a signal to reconstruct one or more subbands in which the one or more important frequency components are included; encoding the calculated energy value and information indicating a position of each subband; encoding one or more signals as information for decoding the high frequency signal using the low frequency signal to reconstruct one or more subbands in which the important frequency components are not included; and multiplexing the encoded low frequency signal, the encoded one or more important frequency components and the information indicating one or more positions at which the one or more frequency components are to be reconstructed, the encoded energy value and the information indicating a position of each subband, and the information for decoding the high frequency signal using the low frequency signal. dividing the signal based on a pre-set frequency into a high frequency signal corresponding to a band higher than the pre-set frequency and a low frequency signal corresponding to a band lower than the pre-set frequency; encoding the low frequency signal using a pre-set encoding method; detecting one or more frequency components determined as one or more important frequency components according to a pre-set criterion from the high frequency signal; encoding the one or more important frequency components and information indicating one or more positions at which the one or more frequency components are prepared; calculating an energy value of a signal to reconstruct one or more subbands in which the one or more important frequency components are included; encoding the calculated energy value and information indicating a position of each subband; encoding one or more signals as information for decoding the high frequency signal using the low frequency signal to reconstruct one or more subbands in which the important frequency components are not included; and multiplexing the encoded low frequency signal, the encoded one or more important frequency components and the information indicating one or more positions at which the one or more frequency components are to be reconstructed, the encoded energy value and the information indicating a position of each subband, and the information for decoding the high frequency signal using the low frequency signal.
Method for manufacturing a mold for manufacturing a retroreflective screen, the mold comprising, on one face side, a plurality of cavities, each cavity having the shape of a truncated pyramid, the method comprising the following consecutive steps: a) forming parallelepiped openings on the side of one face of a substrate; b) filling the openings with a photosensitive resin; c) insolating the resin by means of a light beam inclined relative to the bottom of the parallelepiped cavities, so that part of the resin does not see the insolating beam; and d) removing the insolated portion of the resin and retaining the non-insolated portion of the resin in the openings so as to form said cavities in the shape of a truncated pyramid. a) forming parallelepiped openings on the side of one face of a substrate; b) filling the openings with a photosensitive resin; c) insolating the resin by means of a light beam inclined relative to the bottom of the parallelepiped cavities, so that part of the resin does not see the insolating beam; and d) removing the insolated portion of the resin and retaining the non-insolated portion of the resin in the openings so as to form said cavities in the shape of a truncated pyramid.
A snowmobile comprising a frame; an endless track for driving the snowmobile; slide rails for mounting the endless track; at least one linkage between the slide rails and the frame, the linkage comprising a pivot link and a bell crank, where the linkage pivots in response to movement between the slide rails and the frame; and at least one linear force element positioned between the linkage and the frame, the bell crank being connected to one end of the LFE and to the pivot link, whereby pivotal movement of the linkage strokes the LFE the bell crank and the LFE being arranged outside the endless track; characterized in that the linkage further includes at least a first frame arm (212, 214) and an opposing second frame arm (212, 214) which are attached to the bell crank, such that the first and second frame arms and the pivot link flank the endless track, and in that carrier rollers are coupled to the first and second frame arms with the endless track positioned over the carrier rollers in rolling contact therewith, wherein the carrier rollers move with the movement of the linkage and relative to the frame.
A ball valve assembly comprising: a pipe section having an axial bore for enabling fluid flow therethrough in use; a valve ball having an internal conduit, the valve ball being mounted within the pipe section and for rotation with respect to the pipe section between an open position in which fluid within the bore may flow through the conduit and a closed position in which the conduit is inaccessible to fluid within the bore; drive means (16a, 20a) for rotating the valve ball, said drive means being located radially outside the bore; an encapsulation, said encapsulation being positioned to receive the valve ball and having portions located radially between the pipe bore and the drive means, such that the encapsulation prevents fluid within the bore from accessing the drive means; and a hydraulic fluid line, wherein the drive means comprises a piston actuable by the hydraulic fluid pressure within said hydraulic fluid line, characterised in that: the pipe section comprises a failsafe fluid path in fluid connection with the bore, such that in the event of a loss of hydraulic fluid pressure within the hydraulic fluid line, fluid may flow from the bore, through the failsafe fluid path and thus actuate the piston. a pipe section having an axial bore for enabling fluid flow therethrough in use; a valve ball having an internal conduit, the valve ball being mounted within the pipe section and for rotation with respect to the pipe section between an open position in which fluid within the bore may flow through the conduit and a closed position in which the conduit is inaccessible to fluid within the bore; drive means (16a, 20a) for rotating the valve ball, said drive means being located radially outside the bore; an encapsulation, said encapsulation being positioned to receive the valve ball and having portions located radially between the pipe bore and the drive means, such that the encapsulation prevents fluid within the bore from accessing the drive means; and a hydraulic fluid line, wherein the drive means comprises a piston actuable by the hydraulic fluid pressure within said hydraulic fluid line, characterised in that: the pipe section comprises a failsafe fluid path in fluid connection with the bore, such that in the event of a loss of hydraulic fluid pressure within the hydraulic fluid line, fluid may flow from the bore, through the failsafe fluid path and thus actuate the piston. the pipe section comprises a failsafe fluid path in fluid connection with the bore, such that in the event of a loss of hydraulic fluid pressure within the hydraulic fluid line, fluid may flow from the bore, through the failsafe fluid path and thus actuate the piston.
A handle (1, 1a) for a medical tool system, with a housing, a rotational drive on an axially affixed position within the housing, a preferably manually lockable and unlockable uptake mechanism for a medical tool that can be inserted into the handle (1, 1a) and that can be driven by the rotational drive, and with an axially fixed guide sleeve (9, 9a), which extends distally from the handle (1, 1a), for the tool, and with an adjustable telescoping mechanism, which is manually activateable, whose manually activateable adjustment mechanism is formed by a plurality of axially spaced-apart indentations (7c, 7d) in the proximal end of the extension shaft, by means of at least one retaining ball which is held in the housing so as to be axially fixed but radially movable, and by means of a closing sleeve (11, 11a), which is axially impinged on by a spring, encompasses the retaining balls and is manually activateable, with the internal diameter of said closing sleeve (11, 11a) changing in the axial direction, wherein a smaller diameter presses the or each retaining ball in each case into a respective indentation (7c, 7d) of the extension shaft and a larger diameter releases the or each retaining ball from the respective indentation (7c, 7d), characterised in that the furthest proximal indentation on the extension shaft for the short position is situated radially further outwards than all the distally following indentations for longer positions or for the longer position.
A heat exchanger comprising a heat exchanger body comprising: a first heat exchanger manifold including a first transition member and a second transition member, wherein the first and second transition members each comprise a plurality of guide vanes (302, 304, 804, 806); a second heat exchanger manifold including a third transition member and a fourth transition member, wherein the third and fourth transition members each comprise a plurality of guide vanes (302, 304, 804, 806); a plurality of working fluid passages extending along an at least partially arcuate path between said first heat exchanger manifold and said second heat exchanger manifold; a plurality of coolant fluid passages extending along the at least partially arcuate path in thermal conduction contact with said plurality of working fluid passages; and said first heat exchanger manifold, said second heat exchanger manifold, said plurality of working fluid passages, and said plurality of coolant fluid passages formed monolithically of a sintered material, wherein a first set of the plurality of working fluid passages and a second set of the plurality of working fluid passages are separated by core passage walls, each of the core passage walls having a corrugated cross-section. a first heat exchanger manifold including a first transition member and a second transition member, wherein the first and second transition members each comprise a plurality of guide vanes (302, 304, 804, 806); a second heat exchanger manifold including a third transition member and a fourth transition member, wherein the third and fourth transition members each comprise a plurality of guide vanes (302, 304, 804, 806); a plurality of working fluid passages extending along an at least partially arcuate path between said first heat exchanger manifold and said second heat exchanger manifold; a plurality of coolant fluid passages extending along the at least partially arcuate path in thermal conduction contact with said plurality of working fluid passages; and said first heat exchanger manifold, said second heat exchanger manifold, said plurality of working fluid passages, and said plurality of coolant fluid passages formed monolithically of a sintered material, wherein a first set of the plurality of working fluid passages and a second set of the plurality of working fluid passages are separated by core passage walls, each of the core passage walls having a corrugated cross-section.
A package (100, 200, 400, 600) comprising: a dielectric layer (105, 205, 405, 605) having a first face and a second face opposite the first face; and a conductive line (145, 245, 445, 645) of a patterned metal redistribution layer coupled with the second face of the dielectric layer, the line including a first portion (140, 240, 340, 640) with a first width as measured in a first direction parallel to the second face and a second portion (135, 235, 335, 635) directly coupled to the first portion (140, 240, 340, 640), the second portion (135, 235, 335, 635) having a second width as measured in the first direction; wherein the first portion (140, 240, 340, 640) extends beyond a plane of the second face of the dielectric layer in a second direction perpendicular to the second face and the second portion (135, 235, 335, 635) is positioned between the first face and the second face of the dielectric layer; wherein the line (145, 245, 445, 645) is to carry one or more signals in a third direction perpendicular to the first and second directions; and wherein the line (145, 245, 445, 645) is coupled with a pad deposited on the second face of the dielectric layer. a dielectric layer (105, 205, 405, 605) having a first face and a second face opposite the first face; and a conductive line (145, 245, 445, 645) of a patterned metal redistribution layer coupled with the second face of the dielectric layer, the line including a first portion (140, 240, 340, 640) with a first width as measured in a first direction parallel to the second face and a second portion (135, 235, 335, 635) directly coupled to the first portion (140, 240, 340, 640), the second portion (135, 235, 335, 635) having a second width as measured in the first direction; wherein the first portion (140, 240, 340, 640) extends beyond a plane of the second face of the dielectric layer in a second direction perpendicular to the second face and the second portion (135, 235, 335, 635) is positioned between the first face and the second face of the dielectric layer; wherein the line (145, 245, 445, 645) is to carry one or more signals in a third direction perpendicular to the first and second directions; and wherein the line (145, 245, 445, 645) is coupled with a pad deposited on the second face of the dielectric layer.
Device for holding a component, the device comprising a clip (1; 101), and the clip (1; 101) comprising a head (2; 102) and one or more clip surfaces (21; 121) for contacting the component to be held or an element on which the component is to be held, wherein the clip surface faces (21; 121) the head (2; 102) and is spaced at a distance from said head (2; 102), and wherein the device comprises a clamping part (23; 123) which supports the head (2; 102) from the head (2; 102) side facing the clip surface (21; 121) or is connected to the head (2; 102), wherein the clamping part (23; 123) has a contact surface (24; 124) which faces the clip surface (21; 121) and wherein the device further comprises a spring (26; 126) which is arranged so as to pre-tension the contact surface (24; 124) away from the head (2; 102) in the direction of the clip surface (21; 121) characterized by a releasable retaining means (27; 127), which holds the head (2; 102) in a first position relative to the contact surface (24; 124), wherein the spring (26; 126) is deformed in a direction in which the pre-tension is increased if the head (2; 102) is in this first position by comparison with a second position which the head (2; 102) can adopt relative to the contact surface (24; 124).
A process for preparing acyloxybenzoic acids of the formula in which R 1 is a linear or branched, saturated alkyl group having 6 to 30 carbon atoms, a linear or branched, singly or multiply unsaturated alkenyl group having 6 to 30 carbon atoms, or an aryl group having 6 to 30 carbon atoms, which comprises a) admixing para-hydroxybenzoic acid, in a solvent mixture comprising water and an organic solvent, the organic solvent used being isopropanol, with an alkali metal hydroxide, in an alkali metal hydroxide: para-hydroxybenzoic acid molar ratio ≥ 1.9:1, and only thereafter adding a carboxylic halide of formula R 1 COHal, in which R 1 possesses the definition indicated above and Hal is a halide, at a temperature ≤ 25°C, and carrying out reaction, b) adjusting the reaction mixture after step a), at a temperature ≤ 25°C, to a pH of 6 to 8.5 by addition of acid, if the pH at the end of step a) is not already within this range, c) after step b), where that step takes place, and otherwise after step a), heating the reaction mixture to a temperature of 35 to 80°C and thereafter adjusting it to a pH of 1 to 4 by addition of acid, and e) adding the entire amount of alkali metal hydroxide in step a) before the addition of the carboxylic halide to the reaction mixture, and otherwise adding no further base in the process. R 1 is a linear or branched, saturated alkyl group having 6 to 30 carbon atoms, a linear or branched, singly or multiply unsaturated alkenyl group having 6 to 30 carbon atoms, or an aryl group having 6 to 30 carbon atoms, a) admixing para-hydroxybenzoic acid, in a solvent mixture comprising water and an organic solvent, the organic solvent used being isopropanol, with an alkali metal hydroxide, in an alkali metal hydroxide: para-hydroxybenzoic acid molar ratio ≥ 1.9:1, and only thereafter adding a carboxylic halide of formula R 1 COHal, in which R 1 possesses the definition indicated above and Hal is a halide, at a temperature ≤ 25°C, and carrying out reaction, b) adjusting the reaction mixture after step a), at a temperature ≤ 25°C, to a pH of 6 to 8.5 by addition of acid, if the pH at the end of step a) is not already within this range, c) after step b), where that step takes place, and otherwise after step a), heating the reaction mixture to a temperature of 35 to 80°C and thereafter adjusting it to a pH of 1 to 4 by addition of acid, and e) adding the entire amount of alkali metal hydroxide in step a) before the addition of the carboxylic halide to the reaction mixture, and otherwise adding no further base in the process.
A method for automatically controlling the operation of a lift assembly of a work vehicle, the lift assembly comprising an implement and a pair of loader arms coupled to the implement, the method comprising: receiving, with a computing device, an input associated with an instruction to move at least one of the loader arms or the implement to a pre-defined position; monitoring, with the computing device, a position of the at least one of the loader arms or the implement relative to the pre-defined position; while a reference point associated with the at least one of the loader arms or the implement is located outside an outer threshold boundary defined relative to a reference location associated with the pre-defined positon, transmitting, with the computing device, at least one first command signal in order to to move the at least one of the loader arms or the implement towards the pre-defined position, the at least one first command signal associated with moving the at least one of the loader arms or the implement at a movement velocity corresponding to a desired constant velocity; and when the reference point is moved within the outer threshold boundary, transmitting, with the computing device, at least one second command signal in order to ramp down the movement velocity of the at least one of the loader arms or the implement from the desired constant velocity as the at least one of the loader arms or the implement is moved closer to the pre-defined position; and characterized in that said method further comprising generating the at least one first command signal using a closed-loop velocity control sub-algorithm. receiving, with a computing device, an input associated with an instruction to move at least one of the loader arms or the implement to a pre-defined position; monitoring, with the computing device, a position of the at least one of the loader arms or the implement relative to the pre-defined position; while a reference point associated with the at least one of the loader arms or the implement is located outside an outer threshold boundary defined relative to a reference location associated with the pre-defined positon, transmitting, with the computing device, at least one first command signal in order to to move the at least one of the loader arms or the implement towards the pre-defined position, the at least one first command signal associated with moving the at least one of the loader arms or the implement at a movement velocity corresponding to a desired constant velocity; and when the reference point is moved within the outer threshold boundary, transmitting, with the computing device, at least one second command signal in order to ramp down the movement velocity of the at least one of the loader arms or the implement from the desired constant velocity as the at least one of the loader arms or the implement is moved closer to the pre-defined position; and characterized in that said method further comprising generating the at least one first command signal using a closed-loop velocity control sub-algorithm.