mhurhangee/ep-ind-claims huggingface dataset:
A conveyor belt module of the type having eye parts (2,2',3,4) projecting outwardly from both sides of a central portion, said eye parts (2,2',3,4) having hinge connection means (10,10'), wherein a plurality of interconnected belt modules define a transport plane, wherein the eye parts (2,2',3,4) are offsetly spaced along opposing sides of the central portion, such that eye parts (2,2') on one belt module may be interfitted between eye parts (3,4) on an adjacent module and mutually connected in a hinge-like manner by the hinge connection means (10,10'), wherein a first type of eye parts arranged on one side of the central portion has a central opening in a direction orthogonal to the transport plane with parallel sides (7,8) delimiting the sides of the eye part, and a connecting bridge connecting the sides of the eye part furthest away from the central portion, and wherein a second type of eye parts (2,2') arranged on the other side of the central portion, said second type of eye-parts (2,2') having a central opening (9,9') in a direction orthogonal to the transport plane with parallel sides (11,12) delimiting the eye part (2,2'), and a connecting bridge connecting the sides (11,12) of the eye part (2,2') furthest away from the central portion, characterised in that adjacent the distal end of the second type of eye parts (2,2'), cams (20,20',20",20'''), projecting away from the sides (11,12) of the eye part (2,2') are provided, where said cams (20,20',20",20''') are provided in a lower part of the eye parts (2,2'), below the hinge connection means (10,10'), and where the extent of the cams (20,20',20",20''') in the module's intended travelling direction coincides with the extent of the hinge connection means (10,10') in the same direction.
A touch-screen interface circuit, configured to operate in at least a first, a second and a third mode, comprising a first resistive x-plate having at least a first x-terminal connected in said first mode to a voltage supply and a second x-terminal connected in said first mode to a circuit ground; a voltage regulator circuit (80, 84) comprising a floating reference voltage source connected in said first mode to said second x-terminal, and to a first input of a touch-screen reference buffer circuit having a second input connected in said first mode to said first x-terminal; said voltage regulator circuit arranged to control in said first mode a connection between said voltage supply and said first x-terminal; and a second resistive y-plate having at least a first y-terminal and being arranged to apply a local wiper contact to said first x-plate in response to an applied force, said wiper contact having an x-position, a y-position and a pressure, and wherein the touch-screen interface circuit is configured to determine the x-position in the first mode, determine the y-position in the second mode, and determine the pressure of the wiper contact in the third mode. a first resistive x-plate having at least a first x-terminal connected in said first mode to a voltage supply and a second x-terminal connected in said first mode to a circuit ground; a voltage regulator circuit (80, 84) comprising a floating reference voltage source connected in said first mode to said second x-terminal, and to a first input of a touch-screen reference buffer circuit having a second input connected in said first mode to said first x-terminal; said voltage regulator circuit arranged to control in said first mode a connection between said voltage supply and said first x-terminal; and at least a first x-terminal connected in said first mode to a voltage supply and a second x-terminal connected in said first mode to a circuit ground; a voltage regulator circuit (80, 84) comprising a floating reference voltage source connected in said first mode to said second x-terminal, and to a first input of a touch-screen reference buffer circuit having a second input connected in said first mode to said first x-terminal; said voltage regulator circuit arranged to control in said first mode a connection between said voltage supply and said first x-terminal; and a second resistive y-plate having at least a first y-terminal and being arranged to apply a local wiper contact to said first x-plate in response to an applied force, said wiper contact having an x-position, a y-position and a pressure, and wherein the touch-screen interface circuit is configured to determine the x-position in the first mode, determine the y-position in the second mode, and determine the pressure of the wiper contact in the third mode. the touch-screen interface circuit is configured to determine the x-position in the first mode, determine the y-position in the second mode, and determine the pressure of the wiper contact in the third mode.
An electric heater for a machine for preparing hot beverages, comprising - a metal body; - at least one electric heating element (3, 4), in particular adapted to generate heat when it is crossed by an electric current, arranged in the metal body; - a tube for the passage of a liquid to be heated, arranged in the metal body; characterized in that an inner surface of said tube has surface roughness (Ra), or arithmetical mean roughness, greater than 0.8 μm. - a metal body; - at least one electric heating element (3, 4), in particular adapted to generate heat when it is crossed by an electric current, arranged in the metal body; - a tube for the passage of a liquid to be heated, arranged in the metal body; characterized in that an inner surface of said tube has surface roughness (Ra), or arithmetical mean roughness, greater than 0.8 μm.
An Exendin variant conjugate having the activity of GLP-1 receptor agonist, wherein the Exendin variant has an amino acid sequence in which one or more amino acid residues are substituted by cysteine, in comparison with wild-type Exendin sequence, wherein one or more polymer moieties are conjugated to the cysteine residue of the Exendin variant, wherein the one or more polymer moieties are each independently polyethylene glycol and wherein the one or more polymer moieties have a molecular weight of from 21 kDa to 29 kDa.
A resin-coated Al sheet for a drawn and ironed can exhibiting excellent luster, the resin-coated Al sheet being formed into a can body by drawing and ironing, wherein an Al surface which forms an outer surface of the can and has an arithmetical mean roughness (Ra) of 0.5 μm or less is covered with an outer surface resin layer having a thickness which falls within a range of 0.02 μm to 6 μm, wherein any one of following conditions is satisfied: an arithmetical mean roughness (Ra) of the Al surface being less than 0.2 μm and a thickness of the resin layer being 6 μm or less, the arithmetical mean roughness (Ra) of the Al surface being within a range from 0.2 μm to less than 0.3 μm and the thickness of the resin layer being 4 μm or less, and the arithmetical mean roughness (Ra) of the Al surface being within a range from 0.3 μm to 0.5 μm and the thickness of the resin layer being 2 μm or less, wherein the arithmetical mean roughness (Ra) is measured in the direction perpendicular to the rolling direction of the Al sheet in accordance with ISO-'97; wherein a glass transition temperature of the outer surface resin layer is 40°C or more, wherein the glass transition temperature is measured in accordance with JIS C 6481-1996; wherein the number of peaks of recessed portions having a peak height of 0.1 μm or more is 10 pieces/mm or less, wherein the number of peaks is measured as defined in the description; wherein the resin layer has a rupture elongation of 5% or more at 25°C when measured in accordance with ASTM D-882, and wherein the resin layer has a Martens hardness of 50 N/mm 2 or more at 28°C, wherein the Martens hardness is a value obtained by measuring the Martens hardness of a resin layer with a maximum load which satisfies a condition that a pushing depth of a Berkovich indenter is equal to or less than 1/10 of a measurement coating film in accordance with ISO 14577-2002 using the ultrafine pushing hardness tester ENT-1100a made by ELIONIX INC., wherein a Berkovich indenter is used wherein a correction length (Δhc) indicative of wear of the indenter is 15 nm or less. an arithmetical mean roughness (Ra) of the Al surface being less than 0.2 μm and a thickness of the resin layer being 6 μm or less, the arithmetical mean roughness (Ra) of the Al surface being within a range from 0.2 μm to less than 0.3 μm and the thickness of the resin layer being 4 μm or less, and the arithmetical mean roughness (Ra) of the Al surface being within a range from 0.3 μm to 0.5 μm and the thickness of the resin layer being 2 μm or less, wherein the arithmetical mean roughness (Ra) is measured in the direction perpendicular to the rolling direction of the Al sheet in accordance with ISO-'97;
A disposable hospital gown adapted to assume a wearing configuration and a disposable configuration, the disposable hospital gown in the wearing configuration comprising: a main body; the main body having a front area, a back area, and including an inner surface and an outer surface; a pliable wrapper for receiving and holding the hospital gown when bundled; the pliable wrapper forming a panel of sheet material that is secured to the inner surface of the main body of the disposable gown and wherein the panel extends across the inner surface of the main body of the gown; the disposable hospital gown in the disposable configuration comprising: a bundle formed by the hospital gown, wherein the bundle lies adjacent the inner surface of the main body; and characterised in that the wrapper is reversible so as to assume an inside - outward configuration such that when inside-outward the wrapper forms a pouch that receives and holds the bundled gown; an outer surface of the pouch being defined by an inner surface of the wrapper, and an inner surface of the pouch being defined by an outer surface of the wrapper. a main body; the main body having a front area, a back area, and including an inner surface and an outer surface; a pliable wrapper for receiving and holding the hospital gown when bundled; the pliable wrapper forming a panel of sheet material that is secured to the inner surface of the main body of the disposable gown and wherein the panel extends across the inner surface of the main body of the gown; the disposable hospital gown in the disposable configuration comprising: a bundle formed by the hospital gown, wherein the bundle lies adjacent the inner surface of the main body; and characterised in that the wrapper is reversible so as to assume an inside - outward configuration such that when inside-outward the wrapper forms a pouch that receives and holds the bundled gown; a bundle formed by the hospital gown, wherein the bundle lies adjacent the inner surface of the main body; and characterised in that the wrapper is reversible so as to assume an inside - outward configuration such that when inside-outward the wrapper forms a pouch that receives and holds the bundled gown; an outer surface of the pouch being defined by an inner surface of the wrapper, and an inner surface of the pouch being defined by an outer surface of the wrapper.
A filter having desired passband characteristics, in particular a desired cut-off frequency (f 1), a desired passband attenuation degree and a desired frequency width Δfb of the passband, comprising -) a basic low-pass filter (L 0) with passband width Δfb and having an impulse response function (ψ) configured by a piecewise polynomial with a finite support and using values of the impulse response function (ψ) at connection points between the polynomials as filter coefficients c(k), -) a basic high-pass filter (H 0) with passband width Δfb and having filter coefficients b(k) obtained by inverting the sign of the filter coefficients c(k) alternately, and -) upsampled low-pass filters (L p) and upsampled high-pass filters (H q) combined in a cascade connection, characterized in that -) the upsampled low-pass filters (L p) are formed by upsampling the basic low-pass filter (L 0) by all values of p (p=1,2,...P-1), with p being an upsampling factor in the time domain and P-1 being smaller than M, and -) the upsampled high-pass filters (H q) are formed by upsampling the basic high-pass filter (H 0) by all values of q (q=1,2,... Q-1), with q being an upsampling factor in the time domain and Q-1 being smaller than M, with the maximum upsampling factor M+1 being determined by the ratio of the passband width Δfb of the basic filter to the desired passband width Δfb. -) a basic low-pass filter (L 0) with passband width Δfb and having an impulse response function (ψ) configured by a piecewise polynomial with a finite support and using values of the impulse response function (ψ) at connection points between the polynomials as filter coefficients c(k), -) a basic high-pass filter (H 0) with passband width Δfb and having filter coefficients b(k) obtained by inverting the sign of the filter coefficients c(k) alternately, and -) upsampled low-pass filters (L p) and upsampled high-pass filters (H q) combined in a cascade connection, -) the upsampled low-pass filters (L p) are formed by upsampling the basic low-pass filter (L 0) by all values of p (p=1,2,...P-1), with p being an upsampling factor in the time domain and P-1 being smaller than M, and -) the upsampled high-pass filters (H q) are formed by upsampling the basic high-pass filter (H 0) by all values of q (q=1,2,... Q-1), with q being an upsampling factor in the time domain and Q-1 being smaller than M,
A method comprising: (a) contacting an organic stream with water and carbon dioxide, whereby sodium is extracted from the organic stream; and (b) separating an aqueous sodium salt-containing slurry phase from an organic phase comprising a reduced sodium content relative to the organic stream; wherein the organic stream is a heavy residue formed in the co-production of propylene oxide and styrene. (a) contacting an organic stream with water and carbon dioxide, whereby sodium is extracted from the organic stream; and (b) separating an aqueous sodium salt-containing slurry phase from an organic phase comprising a reduced sodium content relative to the organic stream;
A composite material structure comprising: a first structure having a plurality of laminated fiber reinforced sheets (20a, 20b, 20c, 20d) and curved at a curved portion; and a filler having a plurality of laminated fiber reinforced sheets (20a, 20b, 20c, 20d) and provided in a clearance formed between the curved portion and a second structure arranged side by side along a laminating direction with the first structure, the filler being attached to the curved portion, wherein the plurality of fiber reinforced sheets (20a, 20b, 20c, 20d) included in the first structure have different fiber directions and include a first fiber reinforced sheet whose fiber direction that is a fiber extending direction is a first direction; and, wherein a plurality of fiber reinforced sheets (20a, 20b, 20c, 20d) included in the filler have different fiber directions and include a first fiber reinforced sheet; characterized in that a ratio of a total length in the laminating direction of the first fiber reinforced sheet to a total length in the laminating direction of all the fiber reinforced sheets (20a, 20b, 20c, 20d) in the first structure and a ratio of a total length in the laminating direction of the first fiber reinforced sheet to a total length in the laminating direction of all the fiber reinforced sheets (20a, 20b, 20c, 20d) in the filler are substantially the same. a first structure having a plurality of laminated fiber reinforced sheets (20a, 20b, 20c, 20d) and curved at a curved portion; and a filler having a plurality of laminated fiber reinforced sheets (20a, 20b, 20c, 20d) and provided in a clearance formed between the curved portion and a second structure arranged side by side along a laminating direction with the first structure, the filler being attached to the curved portion, wherein the plurality of fiber reinforced sheets (20a, 20b, 20c, 20d) included in the first structure have different fiber directions and include a first fiber reinforced sheet whose fiber direction that is a fiber extending direction is a first direction; and, wherein a plurality of fiber reinforced sheets (20a, 20b, 20c, 20d) included in the filler have different fiber directions and include a first fiber reinforced sheet; characterized in that a ratio of a total length in the laminating direction of the first fiber reinforced sheet to a total length in the laminating direction of all the fiber reinforced sheets (20a, 20b, 20c, 20d) in the first structure and a ratio of a total length in the laminating direction of the first fiber reinforced sheet to a total length in the laminating direction of all the fiber reinforced sheets (20a, 20b, 20c, 20d) in the filler are substantially the same.
A method for distributing transmission path information, comprising: acquiring, by a first routing bridge which stores a media access control, MAC, address of a host on a local link, first information, the first information being used for expressing that a second routing bridge of the local link substitutes the first routing bridge to serve as an appointed forwarding routing bridge of the local link, and the first information comprising identification information of the second routing bridge; after the first routing bridge acquires the first information, distributing, by the first routing bridge, transmission path information of the host on the local link to a remote routing bridge of a non-local link, the transmission path information comprising the MAC address of the host on the local link and the identification information of the second routing bridge. acquiring, by a first routing bridge which stores a media access control, MAC, address of a host on a local link, first information, the first information being used for expressing that a second routing bridge of the local link substitutes the first routing bridge to serve as an appointed forwarding routing bridge of the local link, and the first information comprising identification information of the second routing bridge; after the first routing bridge acquires the first information, distributing, by the first routing bridge, transmission path information of the host on the local link to a remote routing bridge of a non-local link, the transmission path information comprising the MAC address of the host on the local link and the identification information of the second routing bridge.
A process for regenerating an exhaust gas after-treatment device adapted to be fitted in an exhaust line of an internal combustion engine arrangement, wherein the exhaust gas after-treatment device comprises a particle filter, characterized in that the process comprising the steps of: a) setting the temperature of the exhaust gases at the particle filter within a first temperature range (TaNO2) comprised between 420 and 550 degrees Celsius; b) maintaining the temperature of the exhaust gases at the particle filter at the first temperature range (TaNO2) during a first period of time; c) after the first period of time, further gradually increasing the temperature at the particle filter to a second temperature range which is over 550° degrees Celsius, characterized in that during step c), the temperature at the particle filter is increased at a variable rate of temperature increase over time (R1, R2, R3, R'2, R"2), the variation of which is controlled as a function of a soot loading determination of the particle filter at the end of the first period of time. a) setting the temperature of the exhaust gases at the particle filter within a first temperature range (TaNO2) comprised between 420 and 550 degrees Celsius; b) maintaining the temperature of the exhaust gases at the particle filter at the first temperature range (TaNO2) during a first period of time; c) after the first period of time, further gradually increasing the temperature at the particle filter to a second temperature range which is over 550° degrees Celsius,
Method for the covalent grafting of a polyarylene film on a part P1 of an electrically conductive or semi-conductive surface comprising part P1 and a part P2, which method comprises immersing, for a predetermined time t, the electrically conductive or semi-conductive surface in a solution comprising an aryldiazonium salt or precursors thereof in an organic solvent or in a hydro-organic solvent comprising no more than 50% in volume of water, then removing the electrically conductive or semi-conductive surface from this solution, and characterized in that, during immersing the electrically conductive or semi-conductive surface in said solution: - part P2 of the electrically conductive or semi-conductive surface is put in physical contact with an element made of an electrically conductive material that has a standard redox potential at least 0,15 volt below the standard redox potential of the surface; and - the solution containing the aryldiazonium salt or precursors thereof is kept at a temperature at least equal to 20°C. - part P2 of the electrically conductive or semi-conductive surface is put in physical contact with an element made of an electrically conductive material that has a standard redox potential at least 0,15 volt below the standard redox potential of the surface; and - the solution containing the aryldiazonium salt or precursors thereof is kept at a temperature at least equal to 20°C.
A joint for a robot comprising a safety brake comprising a solenoid which upon activation of the brake displaces a ratchet into engagement with an annular member mounted on the motor axle, where the annular member can rotate relative to the motor axle, but with friction between the annular member and the motor axle.
A method of additive manufacturing of a three-dimensional object, comprising sequentially forming a plurality of layers in a configured pattern corresponding to the shape of the object, thereby forming the object, wherein said formation of each layer comprises dispensing at least one uncured building material, and at least partially curing said uncured building material, and wherein for at least one layer of said layers, said curing is initiated at least t seconds after commencement of curing of a layer immediately preceding said at least one layer, said t being longer than an overall time required for said formation; characterized in that said method further comprises receiving characteristic heat deflection temperature data of said at least one cured building material, and selecting a value of said t responsively to said HDT.