mhurhangee/ep-ind-claims huggingface dataset:
A print controlling apparatus connectable to an image forming apparatus, the print controlling apparatus comprising: a user interface unit to receive a command to print a document; a print data generation unit to generate print data for the document by applying a halftone screen; and a communication interface unit to transmit the generated print data to the image forming apparatus, wherein the halftone screen is a stochastic screen to which a Voronoi division and a low pass filter are applied; characterized in that the print data generation unit is specifically adapted to generate the halftone screen based on the addition of a weighted Voronoi value to a weighted filter value for each dot within a screen. a user interface unit to receive a command to print a document; a print data generation unit to generate print data for the document by applying a halftone screen; and a communication interface unit to transmit the generated print data to the image forming apparatus, wherein the halftone screen is a stochastic screen to which a Voronoi division and a low pass filter are applied; characterized in that the print data generation unit is specifically adapted to generate the halftone screen based on the addition of a weighted Voronoi value to a weighted filter value for each dot within a screen.
A pivot device including: - a first mounting secured to a yoke, said yoke including an arm designated as stationary and an arm designated as sliding - a second mounting articulated about a clamping spacer, said spacer having a through hole between a sliding end opposite the sliding arm and a stationary end opposite the stationary arm of said spacer - a pivot rod passing through said arms (5, 5'), and said clamping spacer via said hole with in particular an assembly clearance, and clamping the spacer between said arms (5, 5') and said ends (13, 14) said device being characterized in that a space is arranged between said pivot rod and said clamping spacer, said space opening solely into said sliding end. - a first mounting secured to a yoke, said yoke including an arm designated as stationary and an arm designated as sliding - a second mounting articulated about a clamping spacer, said spacer having a through hole between a sliding end opposite the sliding arm and a stationary end opposite the stationary arm of said spacer - a pivot rod passing through said arms (5, 5'), and said clamping spacer via said hole with in particular an assembly clearance, and clamping the spacer between said arms (5, 5') and said ends (13, 14)
Radio-identification capsule for the marking of an object, the capsule comprising: - a metallic mount intended to be fixed to the object; - a housing able to retain a radio-tag, the housing being secured to the mount and overmoulded on the mount so as to form an enduringly leaktight seal with the mount; and - means for holding the radio-tag at a fixed distance from the mount, the capsule being characterized in that the housing is made of polyetheretherketone (PEEK) reinforced with carbon or glass fibre. - a metallic mount intended to be fixed to the object; - a housing able to retain a radio-tag, the housing being secured to the mount and overmoulded on the mount so as to form an enduringly leaktight seal with the mount; and - means for holding the radio-tag at a fixed distance from the mount,
A method for processing a plate having a front brushed, glazed or mirror surface and a rear surface, characterized in that it comprises an incision operation at pre-selected zones of the rear surface, involving a simultaneous localized heating of said zones, so as to cause a respective controlled permanent alteration of said front brushed, glazed or mirror surface at said incised zones, so as to produce a desired optical effect on such surface, said plate having a thickness in the range of 0.5 to 3 mm.
A method for purifying darbepoetin alfa, comprising: (a) binding darbepoetin alfa to an anion exchange chromatography column by loading a mixture comprising darbepoetin alfa having various contents of sialic acid into the anion exchange chromatography column; (b) washing the chromatography column with a washing buffer solution containing arginine to selectively separate a structural isoform of darbepoetin alfa having a desired isoelectric point from a mixture of structural isoforms of darbepoetin alfa having higher isoelectric points; and (c) eluting the darbepoetin alfa, which remains bound to the chromatography column, from the column wherein the eluted darbepoetin alfa has an isoelectric point ranging from pl 2.0 to 4.0. (a) binding darbepoetin alfa to an anion exchange chromatography column by loading a mixture comprising darbepoetin alfa having various contents of sialic acid into the anion exchange chromatography column; (b) washing the chromatography column with a washing buffer solution containing arginine to selectively separate a structural isoform of darbepoetin alfa having a desired isoelectric point from a mixture of structural isoforms of darbepoetin alfa having higher isoelectric points; and (c) eluting the darbepoetin alfa, which remains bound to the chromatography column, from the column wherein the eluted darbepoetin alfa has an isoelectric point ranging from pl 2.0 to 4.0.
A method for producing a solid separator for a battery cell, comprising: - supplying a substrate, - applying a slurry of a ceramic solid separator, comprising a solid electrolyte, a polymer binder, and a solvent, onto the substrate, - drying the substrate coated with the slurry, wherein a dried coating is formed, and - sintering the dried coating of the substrate, wherein the coating is heated by coupling high-energy radiation from a surface emitter (40, 42, 44, 46, 48, 50, 64, 66) to a process temperature Tp for sintering the coating. - supplying a substrate, - applying a slurry of a ceramic solid separator, comprising a solid electrolyte, a polymer binder, and a solvent, onto the substrate, - drying the substrate coated with the slurry, wherein a dried coating is formed, and - sintering the dried coating of the substrate, wherein the coating is heated by coupling high-energy radiation from a surface emitter (40, 42, 44, 46, 48, 50, 64, 66) to a process temperature Tp for sintering the coating.
A compensating coupling for transmitting torques, comprising a sleeve-shaped base body extending in a longitudinal direction and having a plurality of transverse slots distributed about the circumference and along the longitudinal direction, wherein the transverse slots each extend in the radial direction from an outer surface to an inner surface of the sleeve-shaped base body, wherein the transverse slots are each filled with an elastomer, characterized in that the base body has at least one region provided with transverse slots between two regions without slots one after the other in the longitudinal direction, wherein the region provided with the transverse slots has a larger inside diameter and/or a smaller outside diameter than the regions without slots.
A catheter comprising the following: an elongated body extending along a body longitudinal axis, said elongated body comprising a proximal catheter shaft section and a distal, deflectable catheter shaft section; first and second pull wires (40, 42), wherein each of said first and second pull wires (40, 42) comprises a proximal end and a distal end, and wherein each of said first and second pull wires (40, 42) extends along said proximal catheter shaft section and along said deflectable catheter shaft section; first and second compression coils (82, 84) each disposed over one of said first and second pull wires (40, 42), respectively, along said proximal catheter shaft section, and wherein each of said first and second compression coils (82, 84) comprises a proximal end and a distal end; a shaft coupler extending proximally from a proximal end of said deflectable catheter shaft section, said shaft coupler having an outer radial surface affixed to an inner radial surface of said proximal catheter shaft section and said deflectable catheter shaft section, and a handle assembly at a proximal end of said proximal catheter shaft section, and wherein a portion of said handle assembly presses against said proximal ends of said first and second compression coils (82, 84), characterized in that a proximal portion of said shaft coupler presses against said distal ends of said first and second compression coils (82, 84). an elongated body extending along a body longitudinal axis, said elongated body comprising a proximal catheter shaft section and a distal, deflectable catheter shaft section; first and second pull wires (40, 42), wherein each of said first and second pull wires (40, 42) comprises a proximal end and a distal end, and wherein each of said first and second pull wires (40, 42) extends along said proximal catheter shaft section and along said deflectable catheter shaft section; first and second compression coils (82, 84) each disposed over one of said first and second pull wires (40, 42), respectively, along said proximal catheter shaft section, and wherein each of said first and second compression coils (82, 84) comprises a proximal end and a distal end; a shaft coupler extending proximally from a proximal end of said deflectable catheter shaft section, said shaft coupler having an outer radial surface affixed to an inner radial surface of said proximal catheter shaft section and said deflectable catheter shaft section, and a handle assembly at a proximal end of said proximal catheter shaft section, and wherein a portion of said handle assembly presses against said proximal ends of said first and second compression coils (82, 84), characterized in that a proximal portion of said shaft coupler presses against said distal ends of said first and second compression coils (82, 84).
A method to identify flow control modules within a flow control system, the method comprising: inserting, by a first flow control module deployed as an intermediary between a plurality of end nodes, a first configuration identifier for the flow control module into an options area of header of a data packet initiating synchronization of a session; recognising, by the first control module, a second configuration identifier from an options area of a header of a data packet received by the first flow control module initiating acknowledgement of synchronization of the session, the second configuration identifier inserted by a second control module; and passing, by the first flow control module the acknowledgement of synchronization of the session to a node that initiated the session, such that with the session initiated, the first flow control module and the second flow control module are identifiable in the data path; wherein the first flow control module increases a window scale or requests a larger buffer capacity in response to receiving the configuration identifier from the second flow control module. inserting, by a first flow control module deployed as an intermediary between a plurality of end nodes, a first configuration identifier for the flow control module into an options area of header of a data packet initiating synchronization of a session; recognising, by the first control module, a second configuration identifier from an options area of a header of a data packet received by the first flow control module initiating acknowledgement of synchronization of the session, the second configuration identifier inserted by a second control module; and passing, by the first flow control module the acknowledgement of synchronization of the session to a node that initiated the session, such that with the session initiated, the first flow control module and the second flow control module are identifiable in the data path; wherein the first flow control module increases a window scale or requests a larger buffer capacity in response to receiving the configuration identifier from the second flow control module.
A method for constructing an optimized collection of digital electrocardiogram sequences for quantitative stratification of sudden cardiac death risk, the method comprising: receiving ECG measurements taken from a first group of individuals who have no history of heart disease and no history of SCD; receiving ECG measurements taken from a second group of individuals who have a history of any type of heart disease but no history of SCD; receiving ECG measurements taken from a third group of individuals who have a history of SCD; identifying, by a processor, an ECG sequence from ECG measurements relatively unique to members of the third group of individuals; and wherein the identifying comprises isolating, and optimally grouping with a processor, ECG sequences indicative of SCD risk, characterised in that the isolating comprises, in a processor, determining quality of alignment of ECG sequences, first derivatives of the ECG sequences and second derivatives of the ECG sequences from multiple individuals of the groups. receiving ECG measurements taken from a first group of individuals who have no history of heart disease and no history of SCD; receiving ECG measurements taken from a second group of individuals who have a history of any type of heart disease but no history of SCD; receiving ECG measurements taken from a third group of individuals who have a history of SCD; identifying, by a processor, an ECG sequence from ECG measurements relatively unique to members of the third group of individuals; and wherein the identifying comprises isolating, and optimally grouping with a processor, ECG sequences indicative of SCD risk, characterised in that the isolating comprises, in a processor, determining quality of alignment of ECG sequences, first derivatives of the ECG sequences and second derivatives of the ECG sequences from multiple individuals of the groups.
A hull control device (10, 10A) for maintaining a ship's hull in a range near a fixed target position (Pt, Pr, Pf) on water or sea, the hull control device (10, 10A) comprising: an error distance calculating module configured to calculate an error distance (e, eR, eF) between the fixed target position (Pt, Pr, Pf) and a ship position; an approaching speed calculating module configured to calculate an approaching speed (-Δe, -ΔeR, -ΔeF) of the ship to the target position (Pt, Pr, Pf); and a command value setting module configured to set a throttle command value according to a combination of the error distance (e, eR, eF) and the approaching speed (-Δe, -ΔeR, -ΔeF). an error distance calculating module configured to calculate an error distance (e, eR, eF) between the fixed target position (Pt, Pr, Pf) and a ship position; an approaching speed calculating module configured to calculate an approaching speed (-Δe, -ΔeR, -ΔeF) of the ship to the target position (Pt, Pr, Pf); and a command value setting module configured to set a throttle command value according to a combination of the error distance (e, eR, eF) and the approaching speed (-Δe, -ΔeR, -ΔeF).
A manufacturing method of glass base material for optical fiber, comprising: a first heat treatment step in which the porous glass base material inserted in a vessel of a sintering furnace is heated by a heater installed around the periphery of the vessel while being raised or lowered in the longitudinal direction in a chlorine-based gas containing atmosphere in the vessel of the sintering furnace; a second heat treatment step in which the porous glass base material is heated by the heater to obtain a transparent glass body while being raised or lowered in the longitudinal direction in an inert gas containing atmosphere in the vessel after the first heat treatment step; and a preliminary fluorine doping step prior to the second heat treatment step in which one or both ends of the porous glass base material are heated by the heater in a fluorine-based gas containing atmosphere in the vessel. a first heat treatment step in which the porous glass base material inserted in a vessel of a sintering furnace is heated by a heater installed around the periphery of the vessel while being raised or lowered in the longitudinal direction in a chlorine-based gas containing atmosphere in the vessel of the sintering furnace; a second heat treatment step in which the porous glass base material is heated by the heater to obtain a transparent glass body while being raised or lowered in the longitudinal direction in an inert gas containing atmosphere in the vessel after the first heat treatment step; and a preliminary fluorine doping step prior to the second heat treatment step in which one or both ends of the porous glass base material are heated by the heater in a fluorine-based gas containing atmosphere in the vessel.
A method for manufacturing a three-dimensional shaped object by alternate repetition of a powder-layer forming and a solidified-layer forming, the repetition comprising: (i) forming a solidified layer by irradiating a predetermined portion of a powder layer with a light beam, thereby allowing a sintering of the powder in the predetermined portion or a melting and subsequent solidification of the powder; and (ii) forming another solidified layer by newly forming a powder layer on the formed solidified layer, followed by irradiation of a predetermined portion of the newly formed powder layer with the light beam, characterised in that, as a platform for the three-dimensional shaped object, a plate laminate body comprising a dummy solidified layer and a base plate for the shaped object is used, the dummy solidified layer is formed by a formation of a powder layer on a base plate, followed by an irradiation of the powder layer with the light beam, the plate laminate body is such that the dummy solidified layer is formed on one of principal surfaces of the base plate, whereas the three-dimensional shaped object is manufactured on the other of the principal surfaces of the base plate, and the plate laminate body is obtained by subjecting a warp-deformed laminate body to a flattening process, the warp-deformed laminate body being obtained by performing the forming of the dummy solidified layer. (i) forming a solidified layer by irradiating a predetermined portion of a powder layer with a light beam, thereby allowing a sintering of the powder in the predetermined portion or a melting and subsequent solidification of the powder; and (ii) forming another solidified layer by newly forming a powder layer on the formed solidified layer, followed by irradiation of a predetermined portion of the newly formed powder layer with the light beam,
A sealing member for vacuum insulation material having a multilayer structure comprising: a glass cloth; a first outer layer selected from an inorganic oxide-deposited PET layer, a nylon layer and a deposited OPP layer; a second outer layer selected from an inorganic oxide-deposited PET layer, a nylon layer and a deposited OPP layer; an aluminum foil layer; and a polyethylene hot-melt-bonding layer. a glass cloth; a first outer layer selected from an inorganic oxide-deposited PET layer, a nylon layer and a deposited OPP layer; a second outer layer selected from an inorganic oxide-deposited PET layer, a nylon layer and a deposited OPP layer; an aluminum foil layer; and a polyethylene hot-melt-bonding layer.
A transportable ride, in particular a Ferris wheel, comprising a horizontal main axis, a wheel rim with spokes rotating around this main axis, on which the individual passenger cabs are arranged radially on the outside, and a support structure resting on several vehicles (10, 11, 12, 13, 14, 18, 19), characterized in that - in the assembly position, a total of at least four vehicles (10, 12, 12, 13) are arranged next to each other in two rows, with two vehicles (10, 12; 12, 13) being arranged longitudinally one behind the other in each row and a further vehicle arranged between the respective ends of two longitudinally arranged vehicles in both rows and transverse to them, or - in the assembly position, a total of at least six vehicles (10, 11, 12, 13, 18, 19) are arranged next to each other in three rows, with two vehicles (10, 11; 12, 13; 18, 19) in each row arranged longitudinally one behind the other, whereby support structures comprising struts (27, 30) rest with their respective lower end areas on the two vehicles in the two outer rows, and in the transport position circular arc sections, of which the wheel rim of the Ferris wheel is composed, are accommodated on a total of four vehicles arranged in two adjacent rows in the longitudinal direction, and whereby the main axle and wheel hub and possibly a further support structure for the main axle are accommodated in the transport position on the at least one further vehicle, which is arranged transversally between the vehicles arranged longitudinally (10, 11, 12, 13) and is arranged approximately orthogonally to these. - in the assembly position, a total of at least four vehicles (10, 12, 12, 13) are arranged next to each other in two rows, with two vehicles (10, 12; 12, 13) being arranged longitudinally one behind the other in each row and a further vehicle arranged between the respective ends of two longitudinally arranged vehicles in both rows and transverse to them, or - in the assembly position, a total of at least six vehicles (10, 11, 12, 13, 18, 19) are arranged next to each other in three rows, with two vehicles (10, 11; 12, 13; 18, 19) in each row arranged longitudinally one behind the other,
A method of configuring a serial data link measurement and simulation system on a test and measurement instrument comprising the steps of: presenting on a display device of the test and measurement instrument a main menu having elements representing a measurement circuit, a simulation circuit and a transmitter, and having processing flow lines pointing from the measurement circuit to the transmitter and from the transmitter to the simulation circuit; providing a source within the main menu representing an acquired waveform for input to the measurement circuit; and providing a test point within the main menu representing an output waveform; wherein the measurement circuit comprises a de-embed block that represents a set of models input by a user of physical components used to obtain the acquired waveform, wherein the de-embed block provides a corrected waveform for input to the transmitter by removing effects introduced into the acquired waveform by the physical components. presenting on a display device of the test and measurement instrument a main menu having elements representing a measurement circuit, a simulation circuit and a transmitter, and having processing flow lines pointing from the measurement circuit to the transmitter and from the transmitter to the simulation circuit; providing a source within the main menu representing an acquired waveform for input to the measurement circuit; and providing a test point within the main menu representing an output waveform; wherein the measurement circuit comprises a de-embed block that represents a set of models input by a user of physical components used to obtain the acquired waveform, wherein the de-embed block provides a corrected waveform for input to the transmitter by removing effects introduced into the acquired waveform by the physical components.