mhurhangee/ep-ind-claims huggingface dataset:
A card (1, 101, 201, 301, 401, 501, 601, 701, 801, 901, 1001, 1101) formed by bonding layers with each other by pressing comprising: a substrate (30, 230, 330, 430, 530, 630, 730); an upper layer (50, 250, 350, 450, 550, 650, 750, 850, 950, 1050, 1150) that has an outline larger than an outline of the substrate (30, 230, 330, 430, 530, 630, 730) and is disposed above the substrate (30, 230, 330, 430, 530, 630, 730); and a lower layer (10, 210, 310, 410, 510, 610, 810, 910, 1010, 1110) that has an outline larger than the outline of the substrate (30, 230, 330, 430, 530, 630, 730) and is disposed below the substrate (30, 230, 330, 430, 530, 630, 730); and a thickness adjustment layer (11, 51, 211, 251, 311, 351, 411, 451, 551, 651, 751, 811, 851) provided in a substrate outer region (S1, S201, S301, S401, S501, S601, S701, S801, S901, S1001, S1101) that is a region between the upper layer (50, 250, 350, 450, 550, 650, 750, 850, 950, 1050, 1150) and the lower layer (10, 210, 310, 410, 510, 610, 810, 910, 1010, 1110) and in an outer side of the outline of the substrate (30, 230, 330, 430, 530, 630, 730), the thickness adjustment layer (11, 51, 211, 251, 311, 351, 411, 451, 551, 651, 751, 811, 851) being provided by printing on at least one layer among layers forming the card (1, 101, 201, 301, 401, 501, 601, 701, 801, 901, 1001, 1101) and adjusting thickness in the substrate outer region (S1, S201, S301, S401, S501, S601, S701, S801, S901, S1001, S1101). a substrate (30, 230, 330, 430, 530, 630, 730); an upper layer (50, 250, 350, 450, 550, 650, 750, 850, 950, 1050, 1150) that has an outline larger than an outline of the substrate (30, 230, 330, 430, 530, 630, 730) and is disposed above the substrate (30, 230, 330, 430, 530, 630, 730); and a lower layer (10, 210, 310, 410, 510, 610, 810, 910, 1010, 1110) that has an outline larger than the outline of the substrate (30, 230, 330, 430, 530, 630, 730) and is disposed below the substrate (30, 230, 330, 430, 530, 630, 730); and a thickness adjustment layer (11, 51, 211, 251, 311, 351, 411, 451, 551, 651, 751, 811, 851) provided in a substrate outer region (S1, S201, S301, S401, S501, S601, S701, S801, S901, S1001, S1101) that is a region between the upper layer (50, 250, 350, 450, 550, 650, 750, 850, 950, 1050, 1150) and the lower layer (10, 210, 310, 410, 510, 610, 810, 910, 1010, 1110) and in an outer side of the outline of the substrate (30, 230, 330, 430, 530, 630, 730), the thickness adjustment layer (11, 51, 211, 251, 311, 351, 411, 451, 551, 651, 751, 811, 851) being provided by printing on at least one layer among layers forming the card (1, 101, 201, 301, 401, 501, 601, 701, 801, 901, 1001, 1101) and adjusting thickness in the substrate outer region (S1, S201, S301, S401, S501, S601, S701, S801, S901, S1001, S1101).
A method for fabricating a three-dimensional object, the method comprising: forming a powder layer including fabrication powder; discharging droplets of fabrication liquid onto the powder layer; repeating the forming and the discharging; and controlling the discharging to discharge a plurality of the droplets onto an identical position on a surface of the powder layer so that a thickness of the powder layer is smaller than a distance between the nearest two of the droplets landed on the powder layer, wherein the droplets discharged onto the powder layer permeate the powder layer and contact the droplets in a lower layer of the powder layer, and the droplets contact the lower layer of the powder layer before the nearest two of the droplets contact each other. forming a powder layer including fabrication powder; discharging droplets of fabrication liquid onto the powder layer; repeating the forming and the discharging; and controlling the discharging to discharge a plurality of the droplets onto an identical position on a surface of the powder layer so that a thickness of the powder layer is smaller than a distance between the nearest two of the droplets landed on the powder layer, wherein the droplets discharged onto the powder layer permeate the powder layer and contact the droplets in a lower layer of the powder layer, and the droplets contact the lower layer of the powder layer before the nearest two of the droplets contact each other.
A cooling element for use in a cooling device having a front face and a rear face and four side faces, wherein the rear face of the cooling element is substantially planar, and the front face has reinforcing elements, wherein the reinforcing elements prevent deformation of the cooling element during cooling and freezing, and wherein the cooling element has a recess on the front face, characterized in that the cooling element has a plate-like insulation element which can be inserted into the recess, and the insulation element is made of a foamed plastic or is a vacuum element.
Method for recycling tire waste, wherein said method comprises: - placing in contact: ∘ at least one tire waste comprising rubber and a load; ∘ with a chemical degradation agent selected from cleavage agents that are specific for double bonds; and a transfer agent in presence of a Grubbs 2nd generation catalyst, a Grubbs 3rd generation catalyst or a Hoveyda-Grubbs catalyst; at a temperature ranging from 15 to 40°C, at ambient pressure; leading to a composition comprising telechelic oligomers bearing reactive functions at their ends; and - a subsequent step for separating the solid phase and the liquid phase of said composition, wherein the liquid phase containing the telechelic oligomers is recovered. - placing in contact: ∘ at least one tire waste comprising rubber and a load; ∘ with a chemical degradation agent selected from cleavage agents that are specific for double bonds; and a transfer agent in presence of a Grubbs 2nd generation catalyst, a Grubbs 3rd generation catalyst or a Hoveyda-Grubbs catalyst; at a temperature ranging from 15 to 40°C, at ambient pressure; leading to a composition comprising telechelic oligomers bearing reactive functions at their ends; and ∘ at least one tire waste comprising rubber and a load; ∘ with a chemical degradation agent selected from cleavage agents that are specific for double bonds; and a transfer agent in presence of a Grubbs 2nd generation catalyst, a Grubbs 3rd generation catalyst or a Hoveyda-Grubbs catalyst; - a subsequent step for separating the solid phase and the liquid phase of said composition, wherein the liquid phase containing the telechelic oligomers is recovered.
An apparatus for diagnosing optic neuropathic diseases including glaucoma, by measuring a thickness of a retinal nerve fiber layer (RNFL), the apparatus comprising: a scanning unit adapted to scan along an optic nerve margin in the proximity of an optic nerve head; a pattern analyzing unit adapted to compute a regression equation based on the pattern of the RNFL scanned by the scanning unit and adapted to analyze the thickness at each location of the scanned RNFL appearing as a peak and a trough, wherein the pattern analyzing unit is adapted to compute the regression equation based on locations and thicknesses of a first peak and a second peak of a superior region of the optic nerve head, and locations and thickness of troughs appearing between the first and second peaks; and a disease determining unit adapted to determine a presence of the disease based on the pattern of the RNFL analyzed by the pattern analyzing unit. a scanning unit adapted to scan along an optic nerve margin in the proximity of an optic nerve head; a pattern analyzing unit adapted to compute a regression equation based on the pattern of the RNFL scanned by the scanning unit and adapted to analyze the thickness at each location of the scanned RNFL appearing as a peak and a trough, wherein the pattern analyzing unit is adapted to compute the regression equation based on locations and thicknesses of a first peak and a second peak of a superior region of the optic nerve head, and locations and thickness of troughs appearing between the first and second peaks; and a disease determining unit adapted to determine a presence of the disease based on the pattern of the RNFL analyzed by the pattern analyzing unit.
A method for managing graphic elements in a system comprising a user device and a server, the user device being configured to display video content and run an application associated with the video content, wherein said application is designed to interact with a user of said user device and cause a display of at least one graphic element overlaid on said video content, the graphic element being part of a graphical interface that characterises the application at a certain time instant, the method comprising the steps of: - sending a request message relating to the application from the user device to the server; - generating, in the server, at least said one graphic element and positioning information for said at least one graphic element based on the first request message, wherein generating said at least one graphic element includes generating the graphic element on the basis of at least one graphic part and at least one text element, generating includes rendering the graphic element on the server side, and the positioning information indicates where to position the graphic element on a screen; - sending a response message containing said at least one graphic element and the positioning information from the server to the user device; - displaying, in the user device, said at least one graphic element based on the positioning information, wherein the positioning information is generated on the basis of a portion of an area of images of the video content determined to be less dynamic, wherein an area is determined to be less dynamic when it includes a group of pixels included in a first frame and in a second frame that varies less compared to other groups of pixels included in the first frame and the second frame, where said first frame and said second frame follow one another or are sufficiently near, and wherein the positioning information indicates to place the graphic element on said area determined to be less dynamic. - sending a request message relating to the application from the user device to the server; - generating, in the server, at least said one graphic element and positioning information for said at least one graphic element based on the first request message, wherein generating said at least one graphic element includes generating the graphic element on the basis of at least one graphic part and at least one text element, generating includes rendering the graphic element on the server side, and the positioning information indicates where to position the graphic element on a screen; generating said at least one graphic element includes generating the graphic element on the basis of at least one graphic part and at least one text element, generating includes rendering the graphic element on the server side, and the positioning information indicates where to position the graphic element on a screen; - sending a response message containing said at least one graphic element and the positioning information from the server to the user device; - displaying, in the user device, said at least one graphic element based on the positioning information, wherein
A motorcycle tyre tread portion comprising a crown longitudinal groove extending in a tyre circumferential direction, a shoulder longitudinal groove extending in the tyre circumferential direction on a side of a first tread edge, and a middle groove extending in a tyre circumferential direction on a side of a tyre equator and arranged between the crown longitudinal groove and the shoulder longitudinal groove, wherein the middle groove includes a plurality of middle main groove portions arranged in the tyre circumferential direction and each protruding toward the tyre equator (c) or the first tread edge, and each of the middle main groove portions is formed in a bent line shape or in an arc shape by three or more linear elements connected with each other, characterized in that each of the middle main groove portions includes a shallow bottom portion having a groove depth (d3a) smaller than a maximum groove depth of the shoulder longitudinal groove and a maximum groove depth of the crown longitudinal groove. the middle groove includes a plurality of middle main groove portions arranged in the tyre circumferential direction and each protruding toward the tyre equator (c) or the first tread edge, and each of the middle main groove portions is formed in a bent line shape or in an arc shape by three or more linear elements connected with each other, characterized in that each of the middle main groove portions includes a shallow bottom portion having a groove depth (d3a) smaller than a maximum groove depth of the shoulder longitudinal groove and a maximum groove depth of the crown longitudinal groove.
A home heating radiator using a heat transfer fluid operating in phase change form, comprising: ▪ a reservoir of said heat transfer fluid; ▪ a heat source, consisting of an electric resistance, for raising the temperature of said heat transfer fluid to a temperature such as to cause a phase change of said fluid; ▪ a heating body where heat transfer takes place with the ambient air, comprising a number n of channels, communicating in the lowermost part of the reservoir, where n may be equal to 1, ▪ for each channel, a connecting zone of said channel with the reservoir of the heat reansfer fluid; characterized: • in that the cross section S of each of the connecting zones separating the heat transfer fluid reservoir from the channels constituting the heating body, is equal to or greater than the expression: A × P / 5 4 n where: - P denotes the power of the electric resistance in W/cm 2; - and A is a constant (expressed in cm 2.W -4/5) which depends on the type of fluid and the temperature thereof; • in that the cross section S of each of the connecting zones is equal to or lower than the cross section of the channels; • in thath the heat transfer fluid is water; • and in that A is equal to 0,0106 when the temperature of the heat transfer fluid is 20 °C. ▪ a reservoir of said heat transfer fluid; ▪ a heat source, consisting of an electric resistance, for raising the temperature of said heat transfer fluid to a temperature such as to cause a phase change of said fluid; ▪ a heating body where heat transfer takes place with the ambient air, comprising a number n of channels, communicating in the lowermost part of the reservoir, where n may be equal to 1, ▪ for each channel, a connecting zone of said channel with the reservoir of the heat reansfer fluid; • in that the cross section S of each of the connecting zones separating the heat transfer fluid reservoir from the channels constituting the heating body, is equal to or greater than the expression: A × P / 5 4 n where: - P denotes the power of the electric resistance in W/cm 2; - and A is a constant (expressed in cm 2.W -4/5) which depends on the type of fluid and the temperature thereof; - P denotes the power of the electric resistance in W/cm 2; - and A is a constant (expressed in cm 2.W -4/5) which depends on the type of fluid and the temperature thereof; • in that the cross section S of each of the connecting zones is equal to or lower than the cross section of the channels; • in thath the heat transfer fluid is water; • and in that A is equal to 0,0106 when the temperature of the heat transfer fluid is 20 °C.
An in-vehicle electronic device, comprising a host having a receiving cavity; a first camera movably connected to the host, and configured to capture at least one image of an interior of a vehicle; a first driving device connected to the first camera, wherein the first camera is movable between an extended position and a retracted position by means of drive of the first driving device, so that when the first camera is at the extended position, the first camera is located outside the host, and when the first camera is at the retracted position, the first camera is located in the receiving cavity; characterized by comprising: a base; and a second driving device connected to the base and the host, wherein the host is rotatable horizontally relative to the base by means of drive of the second driving device. a host having a receiving cavity; a first camera movably connected to the host, and configured to capture at least one image of an interior of a vehicle; a first driving device connected to the first camera, wherein the first camera is movable between an extended position and a retracted position by means of drive of the first driving device, so that when the first camera is at the extended position, the first camera is located outside the host, and when the first camera is at the retracted position, the first camera is located in the receiving cavity; a base; and a second driving device connected to the base and the host, wherein the host is rotatable horizontally relative to the base by means of drive of the second driving device.
Circuitry for an implantable medical device, comprising: a first charging path comprising a source powered by an input voltage and for producing power to charge a battery at a battery terminal node (Vbat), and an overvoltage switch for gating the produced power to the battery terminal node, wherein the overvoltage switch is opened if an overvoltage signal is asserted; a second charging path for passively charging the battery using the input voltage, wherein the second charging path couples to the battery terminal node (Vbat) by at least one first diode; and at least one load switch (152; 154) coupled between the battery terminal node (Vbat) and a load within the implantable medical device, wherein the at least one load switch is opened at least if a battery undervoltage signal is asserted. a first charging path comprising a source powered by an input voltage and for producing power to charge a battery at a battery terminal node (Vbat), and an overvoltage switch for gating the produced power to the battery terminal node, wherein the overvoltage switch is opened if an overvoltage signal is asserted; a second charging path for passively charging the battery using the input voltage, wherein the second charging path couples to the battery terminal node (Vbat) by at least one first diode; and at least one load switch (152; 154) coupled between the battery terminal node (Vbat) and a load within the implantable medical device, wherein the at least one load switch is opened at least if a battery undervoltage signal is asserted.
A device for controlling the position of nodes between the upper thread and bobbin thread when sewing a sewing material with a sewing machine, comprising a thread tensioning device having an actuator, wherein the resulting tractive force F AR exerted on the node during the tightening of the node of the upper thread and the bobbin thread can be influenced by this actuator, characterized in that the guide variable for the actuator for each stitch or for each group of several successive stitches can be individually predefined by a calculation unit of the sewing machine, in that the calculation unit comprises a program memory and a reference variable memory, wherein the program memory comprises processing instructions for processing at least one reference value stored in the reference value memory for the guide variable of the actuator and values of several input variables, on which the node position L 1 is dependent during sewing, into a guide value for actuating the actuator, and in that each of the input variables comprises a value of one of the following parameters, which is valid at the time of forming the current stitch or a preceding stitch or a following stitch: swivel position of the needle bar, stitch width, stitch length, amount and/or direction of the change in the swivel position of the needle bar relative to the swivel position during the execution of the preceding stitch, sewing speed or control variable of the foot-operated starter.
A process for the preparation of a product comprising one or more nanoparticles of calcium phosphate (CaP-NP) with a negative surface charge having a ζ-potential determined by Electrophoretic Light Scattering in the range from - 41.0 mV to -27.0 mV, comprising the steps of: a) maintaining a mixture having a pH in the range from 7 to 10 and comprising an aqueous solution of calcium, an aqueous solution of phosphate and a solution of citrate ions at a temperature in the range from 20°C to 40°C for a time in the range from 30 seconds to 10 minutes; b) removing non-reacted ions from the obtained solution of step a), thus obtaining a suspension of one or more nanoparticles of calcium phosphate (CaP-NP); c) recovering the product of one or more nanoparticles of calcium phosphate (CaP-NP) from the suspension of step b), wherein in the mixture of step a) an aqueous solution of one or more therapeutic/diagnostic compounds is also present and the nanoparticles of calcium phosphate (CaP-NP) have a Z-average determined by Dynamic Light Scattering in the range from 150 to 231 nm, or the one or more nanoparticles of calcium phosphate (CaP-NP) recovered from step c) are surface functionalized with one or more therapeutic/diagnostic compounds and have a splitting factor of at most 1.76,calculated from the FT-IR spectra of the NP according to Weiner S. and Bar-Yosef O., and wherein said diagnostic/therapeutic compounds are selected from the group consisting of: nucleic acids, peptides, synthetic compounds, and diagnostic probes. a) maintaining a mixture having a pH in the range from 7 to 10 and comprising an aqueous solution of calcium, an aqueous solution of phosphate and a solution of citrate ions at a temperature in the range from 20°C to 40°C for a time in the range from 30 seconds to 10 minutes; b) removing non-reacted ions from the obtained solution of step a), thus obtaining a suspension of one or more nanoparticles of calcium phosphate (CaP-NP); c) recovering the product of one or more nanoparticles of calcium phosphate (CaP-NP) from the suspension of step b), wherein in the mixture of step a) an aqueous solution of one or more therapeutic/diagnostic compounds is also present and the nanoparticles of calcium phosphate (CaP-NP) have a Z-average determined by Dynamic Light Scattering in the range from 150 to 231 nm, or the one or more nanoparticles of calcium phosphate (CaP-NP) recovered from step c) are surface functionalized with one or more therapeutic/diagnostic compounds and have a splitting factor of at most 1.76,calculated from the FT-IR spectra of the NP according to Weiner S. and Bar-Yosef O., and wherein said diagnostic/therapeutic compounds are selected from the group consisting of: nucleic acids, peptides, synthetic compounds, and diagnostic probes.