mhurhangee/ep-ind-claims huggingface dataset:
A method for making a sandwich material for brazing, comprising the following steps of: - providing a core layer of a first aluminium alloy that contains (by wt. %): Mn: 0.5-2.0%, preferably 0.8 - 1.8%, most preferably 1.0 - 1.7% Mg: ≤ 1.0%, preferably ≤ 0.3%, most preferably ≤ 0.05% Si: ≤ 0.2% preferably ≤ 0.1 % Si Ti: ≤ 0.3% Cr: ≤ 0.3%, preferably ≤ 0.2% Zr: ≤ 0.3%, preferably ≤ 0.2% Cu: ≤ 0.2%, preferably ≤ 0.1 % Zn: ≤ 3% In: ≤ 0.2% Sn: ≤ 0.1% Fe+Ni: ≤ 0.7%, preferably ≤ 0.35% the rest Al and ≤ 0.05% of each of unavoidable impurities; - providing a barrier layer of a second aluminium alloy that contains (by wt. %): Mn+Cr: ≤ 0.2% Mg: ≤ 1.0%, preferably ≤ 0.3%, most preferably ≤ 0.05% Si: 1.6 - 5%, preferably 2 - 4.5% Ti: ≤ 0.3%, preferably < 0.2% Zr: ≤ 0.2% Cu: ≤ 0.2%, preferably ≤ 0.1 % Zn: ≤ 3% In: ≤ 0.2% Sn: ≤ 0.1% (Fe+Ni): ≤ 1.5%, preferably ≤ 0.7%, more preferably 0.1 - 0.35% the rest Al and ≤ 0.05% of each of unavoidable impurities; - rolling the layers together so that they adhere and form a sandwich material; - heat treating the sandwich material at a predetermined temperature for a predetermined time so that the Si-content is equalised to 0.4-1% in both core layer and barrier layer; - rolling the sandwich material to the intended final thickness. - providing a core layer of a first aluminium alloy that contains (by wt. %): Mn: 0.5-2.0%, preferably 0.8 - 1.8%, most preferably 1.0 - 1.7% Mg: ≤ 1.0%, preferably ≤ 0.3%, most preferably ≤ 0.05% Si: ≤ 0.2% preferably ≤ 0.1 % Si Ti: ≤ 0.3% Cr: ≤ 0.3%, preferably ≤ 0.2% Zr: ≤ 0.3%, preferably ≤ 0.2% Cu: ≤ 0.2%, preferably ≤ 0.1 % Zn: ≤ 3% In: ≤ 0.2% Sn: ≤ 0.1% Fe+Ni: ≤ 0.7%, preferably ≤ 0.35% the rest Al and ≤ 0.05% of each of unavoidable impurities; - providing a barrier layer of a second aluminium alloy that contains (by wt. %): Mn+Cr: ≤ 0.2% Mg: ≤ 1.0%, preferably ≤ 0.3%, most preferably ≤ 0.05% Si: 1.6 - 5%, preferably 2 - 4.5% Ti: ≤ 0.3%, preferably < 0.2% Zr: ≤ 0.2% Cu: ≤ 0.2%, preferably ≤ 0.1 % Zn: ≤ 3% In: ≤ 0.2% Sn: ≤ 0.1% (Fe+Ni): ≤ 1.5%, preferably ≤ 0.7%, more preferably 0.1 - 0.35% the rest Al and ≤ 0.05% of each of unavoidable impurities; - rolling the layers together so that they adhere and form a sandwich material; - heat treating the sandwich material at a predetermined temperature for a predetermined time so that the Si-content is equalised to 0.4-1% in both core layer and barrier layer; - rolling the sandwich material to the intended final thickness.
Sorting system for sorting products comprising a central control system, a number of successive combinations, located one after another, of an elongated carrying body and a pusher body movable in a direction of movement following a path along which a number of sorting locations are provided, wherein the carrying bodies extend parallel to each other and perpendicular to the direction of movement and each one of the carrying bodies is configured for carrying a product to be sorted, the sorting system further comprising a displacing device for moving the combinations in the direction of movement along the path, each combination further being provided with a further displacing device that is provided with an on-board driving device for moving the pusher body in a sorting direction along the carrying body, extending perpendicularly to the direction of movement, for pushing a product carried by the carrying body off of the carrying body with the pusher body, as well as with an on-board control system that is configured for receiving destination data emanating from the central control system relating to the sorting location where a product to be sorted should be pushed off of the carrying body and for driving the on-board driving device hereto, the sorting system comprising a distance-determining device that is configured for determining a distance parameter that is related to the, or at least a, distance viewed in the sorting direction between a pusher body of a combination, of which the carrying body carries a product to be sorted and the product to be sorted carried by the carrying body and for sending the distance parameter to the on-board control system and wherein the on-board control system is configured for controlling the on-board driving device of the combination on the basis of this distance data, characterized in that the distance-determining device comprises, for at least some of the combinations, an on-board distance-determining device that is provided with a sensor assembly with at least one sensor, said on-board distance-determining device being configured for determining the distance parameter and for sending the distance parameter directly to the on-board control system.
A bolus control device for use with an injection device, the bolus control device comprising: a valve body having a proximal end opposite a distal end, the valve body defining a fluid channel therethrough; a first connector at the proximal end configured for connecting to a fluid inlet line; a second connector at the distal end configured for connecting to a fluid outlet line; a compressible check valve disposed within the fluid channel and compressible in response to fluid pressure within the fluid channel; an adjustment mechanism (220, 320) configured for varying a compression of the compressible check valve, and an intermediate element disposed between the first connector and the second connector, wherein the fluid channel extends through an interior cavity of the intermediate element; wherein the adjustment mechanism (220, 320) is configured to adjust an axial position of the first connector relative to the intermediate element to adjust a compression of the compressible check valve between a distal end of the first connector and a distal end of the intermediate element; and wherein the compressible check valve is reversibly compressible with movement of the adjustment mechanism (220, 320) to increase or decrease a cracking pressure at which the compressible check valve opens to allow fluid flow through the fluid channel. a valve body having a proximal end opposite a distal end, the valve body defining a fluid channel therethrough; a first connector at the proximal end configured for connecting to a fluid inlet line; a second connector at the distal end configured for connecting to a fluid outlet line; a compressible check valve disposed within the fluid channel and compressible in response to fluid pressure within the fluid channel; an adjustment mechanism (220, 320) configured for varying a compression of the compressible check valve, and an intermediate element disposed between the first connector and the second connector, wherein the fluid channel extends through an interior cavity of the intermediate element; wherein the adjustment mechanism (220, 320) is configured to adjust an axial position of the first connector relative to the intermediate element to adjust a compression of the compressible check valve between a distal end of the first connector and a distal end of the intermediate element; and wherein the compressible check valve is reversibly compressible with movement of the adjustment mechanism (220, 320) to increase or decrease a cracking pressure at which the compressible check valve opens to allow fluid flow through the fluid channel.
A media conveyor comprising: a media support platform comprising a suction hole; a valve to selectively close the suction hole; and a valve actuatorto actuate the valve and comprising an airtube, the air tube comprising an air inlet, and a seal to selectively seal the air inlet. a media support platform comprising a suction hole; a valve to selectively close the suction hole; and a valve actuatorto actuate the valve and comprising an airtube, the air tube comprising an air inlet, and a seal to selectively seal the air inlet.
An acquisition device (16, 116) comprising: • an acquisition unit (12, 112), comprising: • a structure referred to as a surface structure; • at least one sensor (42, 44, 46, 48) and/or at least one sample-taking system; and • a mechanical connection (26, 52) between the surface structure and said at least one sensor and/or said at least one sample-taking system, the mechanical connection being arranged in such a manner as to enable said at least one sensor and/or said at least one sample-taking system to be positioned at a plurality of depths referred to as acquisition depths that are predetermined relative to a surface of a liquid; • an aerial drone suitable for transporting the unit from one point to another; and • a float device (35, 116) suitable for holding said surface structure in a position that is substantially stationary relative to the surface of the liquid, and at least in part above said surface; the device being suitable for performing an acquisition stage during which the surface structure is thus held in a position that is substantially stationary relative to the surface of the liquid, and the same measurement of a property relating to said liquid is performed by said at least one sensor, and/or at least one sample of liquid is taken by said at least one sample-taking system, at each of said acquisition depths. • an acquisition unit (12, 112), comprising: • a structure referred to as a surface structure; • at least one sensor (42, 44, 46, 48) and/or at least one sample-taking system; and • a mechanical connection (26, 52) between the surface structure and said at least one sensor and/or said at least one sample-taking system, the mechanical connection being arranged in such a manner as to enable said at least one sensor and/or said at least one sample-taking system to be positioned at a plurality of depths referred to as acquisition depths that are predetermined relative to a surface of a liquid; • a structure referred to as a surface structure; • at least one sensor (42, 44, 46, 48) and/or at least one sample-taking system; and • a mechanical connection (26, 52) between the surface structure and said at least one sensor and/or said at least one sample-taking system, the mechanical connection being arranged in such a manner as to enable said at least one sensor and/or said at least one sample-taking system to be positioned at a plurality of depths referred to as acquisition depths that are predetermined relative to a surface of a liquid; • an aerial drone suitable for transporting the unit from one point to another; and • a float device (35, 116) suitable for holding said surface structure in a position that is substantially stationary relative to the surface of the liquid, and at least in part above said surface;
An apparatus for capturing audio for later editing and communicating the captured audio to a server of a distributed music collaboration system, said apparatus comprising a track trapper configured for providing said server of said distributed music collaboration system with a session vector comprising session tracks associated with a session, each of said session tracks being associated with an individual music source and containing data representative of what a musician played during said session, said track trapper including a multi-track input interface having a variety of input receptacles for concurrently receiving said inputs from musicians characterized in that an audio converter having access to a program memory that includes software for converting analog audio of said session tracks into one of a plurality of digital audio formats selected by a user, thereby generating separate converted session tracks, a storage medium for storing said converted session tracks, a session-track vectorization unit for packaging said converted session tracks into a session vector for transmission to said server of said distributed music collaboration system, and a session-vector transfer unit for effecting transfer of said session vector to said server of said distributed music collaboration system, wherein said session vector contains data representative of what one or more musicians played.
A moving blade of titanium and aluminium alloy, for a turbojet turbine comprising an airfoil and at least one bead at a distal end of the airfoil, the bead having at least one azimuthal contact surface (31, 32) with another directly adjacent blade, a hard abrasion-resistant material, called anti-wear material, being deposited on the at least one azimuthal contact surface (31, 32), an indentation is made in the said at least one azimuthal contact surface (31, 32), the anti-wear material being deposited in the indentation, and each azimuthal contact surface (31, 32) has a plurality of successive facets defining a chevron profile, the blade being characterized in that each azimuthal contact surface (31, 32) comprises one indentation and one anti-wear material in the indentation per facet.
A modulator, comprising: a substrate; a first insulator (224A, 700B) on at least a portion of the substrate; a non-linear electro-optical material (220, 700C) where a change of an index of refraction of the non-linear electro-optical material varies proportionally with a change in electric field across the non-linear electro-optical material, and having a side on the at least a portion of the first insulator, and a first edge and a second edge; where the first insulator and the non-linear electro-optical material form an unbent optical waveguide having an input and an output; wherein the first edge has a Bragg grating with substantially a π phase shift substantially in the center of the Bragg grating; wherein the Bragg grating on the first edge has periodic surfaces which are substantially perpendicular to the side of the non-linear optical material; wherein the second edge has a Bragg grating with substantially a π phase shift substantially in the center of the Bragg grating; wherein the Bragg grating on the second edge has periodic surfaces which are substantially perpendicular to the side of the non-linear optical material; a first electrode having a side over the substrate and having an edge substantially perpendicular to the periodic surfaces of the Bragg grating on the first edge; and a second electrode having a side over the substrate and having an edge substantially perpendicular to the periodic surfaces of the Bragg grating on the second edge. a substrate; a first insulator (224A, 700B) on at least a portion of the substrate; a non-linear electro-optical material (220, 700C) where a change of an index of refraction of the non-linear electro-optical material varies proportionally with a change in electric field across the non-linear electro-optical material, and having a side on the at least a portion of the first insulator, and a first edge and a second edge; where the first insulator and the non-linear electro-optical material form an unbent optical waveguide having an input and an output; wherein the first edge has a Bragg grating with substantially a π phase shift substantially in the center of the Bragg grating; wherein the Bragg grating on the first edge has periodic surfaces which are substantially perpendicular to the side of the non-linear optical material; wherein the second edge has a Bragg grating with substantially a π phase shift substantially in the center of the Bragg grating; wherein the Bragg grating on the second edge has periodic surfaces which are substantially perpendicular to the side of the non-linear optical material; a first electrode having a side over the substrate and having an edge substantially perpendicular to the periodic surfaces of the Bragg grating on the first edge; and a second electrode having a side over the substrate and having an edge substantially perpendicular to the periodic surfaces of the Bragg grating on the second edge.
A solvent borne pigment paste comprising an alkyd and one or more iron oxide pigments wherein the alkyd is obtainable by a process comprising the steps of a. producing an OH-functional alkyd from a non-drying oil or fatty acid, one or more polyols, and a first anhydride; wherein the non-drying oil or fatty acid has an iodine number ≤ 115; b. esterification of the OH-functional alkyd with trimellitic anhydride at a temperature ≤ 220 °C to obtain an alkyd with esterified TMA residues, wherein at least 80% of the esterified TMA residues have two free carboxylic groups, preferably wherein at least 85%, 90%, 95%, or even at least 98% of the esterified TMA residues have two free carboxylic groups, wherein the acid value of the alkyd is between 15 and 30 mg KOH/g, wherein the iodine number is determined according to ISO 3961 and the acid value is determined according to ISO 2114. a. producing an OH-functional alkyd from a non-drying oil or fatty acid, one or more polyols, and a first anhydride; wherein the non-drying oil or fatty acid has an iodine number ≤ 115; b. esterification of the OH-functional alkyd with trimellitic anhydride at a temperature ≤ 220 °C to obtain an alkyd with esterified TMA residues, wherein at least 80% of the esterified TMA residues have two free carboxylic groups, preferably wherein at least 85%, 90%, 95%, or even at least 98% of the esterified TMA residues have two free carboxylic groups,
A terminal comprising: a receiving section configured to receive a first Downlink Control Information, DCI, including a cancellation indication on Physical Uplink Shared Channel, PUSCH, transmission and a second DCI including a parameter indicating a priority of the PUSCH transmission; and a control section configured to control to cancel the PUSCH transmission, based on the priority indicated by the parameter and a time domain resource and frequency domain resource indicated by the cancellation indication. a receiving section configured to receive a first Downlink Control Information, DCI, including a cancellation indication on Physical Uplink Shared Channel, PUSCH, transmission and a second DCI including a parameter indicating a priority of the PUSCH transmission; and a control section configured to control to cancel the PUSCH transmission, based on the priority indicated by the parameter and a time domain resource and frequency domain resource indicated by the cancellation indication.
An electricity storage module comprising: a housing filled with a coolant; a plurality of electricity storage elements that include electrode terminals located above a liquid surface of the coolant and that are accommodated in the housing; and a plurality of absorption sheets that absorb the coolant and are in contact with an outer surface of at least one of the plurality of electricity storage elements, wherein the electrode terminals include a connection portion that electrically connects the electrode terminals of the adjacent electricity storage elements of the plurality of electricity storage elements and that is integral with or separate from the electrode terminal, and each of the plurality of absorption sheets comprises a contact portion that is in contact with the connection portion; characterized in that the contact portion protrudes upward at least one end in a front-rear direction of an upper end edge of the absorption sheet, and the contact portions are bent and placed one on top of the other and arranged on the connection portion. a housing filled with a coolant; a plurality of electricity storage elements that include electrode terminals located above a liquid surface of the coolant and that are accommodated in the housing; and a plurality of absorption sheets that absorb the coolant and are in contact with an outer surface of at least one of the plurality of electricity storage elements, wherein the electrode terminals include a connection portion that electrically connects the electrode terminals of the adjacent electricity storage elements of the plurality of electricity storage elements and that is integral with or separate from the electrode terminal, and each of the plurality of absorption sheets comprises a contact portion that is in contact with the connection portion; characterized in that the contact portion protrudes upward at least one end in a front-rear direction of an upper end edge of the absorption sheet, and the contact portions are bent and placed one on top of the other and arranged on the connection portion.
A can decorator comprising: a spindle disc configured to (i) receive beverage cans from an infeed and (ii) carry and rotate each can body on a corresponding spindle; the spindle disc being driven by a spindle disc motor having an encoder; a blanket drum configured to (i) apply ink to printing cylinders and (ii) rotate the printing cylinders in registration with beverage cans on the spindle disc to decorate the cans; the blanket drum being driven by a blanket drum motor having an encoder; a transfer wheel configured to receive beverage cans from the spindle disc after decoration by the blanket drum; the transfer wheel being driven by a transfer wheel motor having an encoder; a pin chain drive configured to receive cans from the transfer wheel and transport the cans on a chain through an oven; the pin chain drive being driven by a pin chain drive motor having an encoder; and a controller configured to receive encoder information and match or adjust speeds of the spindle disc motor, the blanket drum motor, the transfer wheel motor, and the pin chain drive motor, wherein the motors are independently drivable with respect to one another. a spindle disc configured to (i) receive beverage cans from an infeed and (ii) carry and rotate each can body on a corresponding spindle; the spindle disc being driven by a spindle disc motor having an encoder; a blanket drum configured to (i) apply ink to printing cylinders and (ii) rotate the printing cylinders in registration with beverage cans on the spindle disc to decorate the cans; the blanket drum being driven by a blanket drum motor having an encoder; a transfer wheel configured to receive beverage cans from the spindle disc after decoration by the blanket drum; the transfer wheel being driven by a transfer wheel motor having an encoder; a pin chain drive configured to receive cans from the transfer wheel and transport the cans on a chain through an oven; the pin chain drive being driven by a pin chain drive motor having an encoder; and a controller configured to receive encoder information and match or adjust speeds of the spindle disc motor, the blanket drum motor, the transfer wheel motor, and the pin chain drive motor, wherein the motors are independently drivable with respect to one another.