mhurhangee/patent-ind-claim-en huggingface dataset:
A cured product formed of an acrylic resin composition, wherein the composition comprises 1 to 60 parts by weight of an acrylic oligomer; and 30 to 100 parts by weight of a monomer, wherein the cured product has a surface gloss of 9 or less under a 60° gloss condition using a gloss meter by irradiating the resin composition, in a first irradiation step, with light having a wavelength in the region of 300 nm or less in a nitrogen (N 2 ) atmosphere including 10 to 10,000 ppm of oxygen (O 2 ) and shrinking the resin composition or a surface of the cured product by an excimer generated by irradiated light to activate the resin composition, irradiating the activated composition, in a second light irradiation step, with light having a wavelength of 700 nm or higher to thermally cure the composition, and irradiating the thermally cured composition, in a third light irradiation step, with light having a wavelength of 400 nm or less to optically cure the composition, and an average color coordinate deviation (ΔE) before and after iodine contamination of a surface of the cured product that has been contaminated with one or two drops of an iodine (I 2 ) test solution (reagent name: iodine tincture) dissolved in methanol at a concentration of 1 vol% at 22 ± 1°C and 50 ± 5% RH and, after 60 minutes, washed for stain resistance evaluation is 1 or less. wherein the composition comprises 1 to 60 parts by weight of an acrylic oligomer; and 30 to 100 parts by weight of a monomer, wherein the cured product has a surface gloss of 9 or less under a 60° gloss condition using a gloss meter by irradiating the resin composition, in a first irradiation step, with light having a wavelength in the region of 300 nm or less in a nitrogen (N 2 ) atmosphere including 10 to 10,000 ppm of oxygen (O 2 ) and shrinking the resin composition or a surface of the cured product by an excimer generated by irradiated light to activate the resin composition, irradiating the activated composition, in a second light irradiation step, with light having a wavelength of 700 nm or higher to thermally cure the composition, and irradiating the thermally cured composition, in a third light irradiation step, with light having a wavelength of 400 nm or less to optically cure the composition, and an average color coordinate deviation (ΔE) before and after iodine contamination of a surface of the cured product that has been contaminated with one or two drops of an iodine (I 2 ) test solution (reagent name: iodine tincture) dissolved in methanol at a concentration of 1 vol% at 22 ± 1°C and 50 ± 5% RH and, after 60 minutes, washed for stain resistance evaluation is 1 or less.
Patient support device that is connectable to a positioning system , such as a multi-joint robot , the patient support device comprising: a patient support region , comprising a front area which defines a support plane (S) for supporting and/or contacting a patient (P) and an underside area substantially facing away from the front area ; and a coupling region that is configured to be coupled to the positioning system , wherein the support plane (S) at least partially extends between the coupling region and the underside area , wherein the coupling region and patient support region are connected by a connecting region , characterized in that the connecting region comprises an upright central section , a top section and a lower section , wherein the central section extends at an angle to the support plane (S) and is connected to the coupling region by way of the top section , the top section extends for the most part in parallel to the support plane (S), and the lower section extends largely in parallel to the support plane (S) and merges into the central section , such that the connecting region defines an overall C-shape. a patient support region , comprising a front area which defines a support plane (S) for supporting and/or contacting a patient (P) and an underside area substantially facing away from the front area ; and a coupling region that is configured to be coupled to the positioning system , wherein the support plane (S) at least partially extends between the coupling region and the underside area , wherein the coupling region and patient support region are connected by a connecting region , characterized in that the connecting region comprises an upright central section , a top section and a lower section , wherein the central section extends at an angle to the support plane (S) and is connected to the coupling region by way of the top section , the top section extends for the most part in parallel to the support plane (S), and the lower section extends largely in parallel to the support plane (S) and merges into the central section , such that the connecting region defines an overall C-shape.
A system , comprising: a processor ; and a memory system in communication with the processor , the memory system storing instructions that when executed by the processor result in the system being operable to identify a system hazard boundary of a monitored system and a system nuisance boundary of the monitored system , the system also being operable to determine a must-trip condition based on the system hazard boundary and a must-not-trip condition based on the system nuisance boundary , and the system further being operable to output a protection margin (M P ) for the monitored system based on the system hazard boundary and a difference between the must-trip condition and the must-not-trip condition , characterized in that the system is further operable to confirm that a selected confirmation time for the monitored system is between a nuisance confirmation time limit and a protection confirmation time limit, and wherein a monitor determines whether monitored inputs of an input signal management exceeds or is below a selected threshold , thus, incrementing or decrementing a confirmation counter , wherein the value of the confirmation counter is compared to the selected confirmation time , to decide whether to set a fault or not. a processor ; and a memory system in communication with the processor , the memory system storing instructions that when executed by the processor result in the system being operable to identify a system hazard boundary of a monitored system and a system nuisance boundary of the monitored system , the system also being operable to determine a must-trip condition based on the system hazard boundary and a must-not-trip condition based on the system nuisance boundary , and the system further being operable to output a protection margin (M P ) for the monitored system based on the system hazard boundary and a difference between the must-trip condition and the must-not-trip condition , characterized in that the system is further operable to confirm that a selected confirmation time for the monitored system is between a nuisance confirmation time limit and a protection confirmation time limit, and wherein a monitor determines whether monitored inputs of an input signal management exceeds or is below a selected threshold , thus, incrementing or decrementing a confirmation counter , wherein the value of the confirmation counter is compared to the selected confirmation time , to decide whether to set a fault or not.
An electronic component module with leads, comprising: an electronic component having terminal electrodes formed at both ends of said electronic component's body; and first and second leads formed by covering metal wires with insulating members and arranged side-by-side, said first and second leads are electrically connected to said terminal electrodes , respectively, wherein metal wire exposed portions where the metal wires are exposed respectively from said first and second leads are provided on joint surfaces of said first and second leads on the same side which is used for jointing to said terminal electrodes , and said metal wire exposed portion of said first lead and said metal wire exposed portion of said second lead are spaced apart from each other by a predetermined interval in a lead length direction, said terminal electrodes are electrically connected to said metal wire exposed portions of said first and second leads , respectively, by soldering, characterized in that said metal wire exposed portion of said first lead does not extend over the entire circumference of the first lead , and said metal wire exposed portion of said second lead does not extend over the entire circumference of the second lead . an electronic component having terminal electrodes formed at both ends of said electronic component's body; and first and second leads formed by covering metal wires with insulating members and arranged side-by-side, said first and second leads are electrically connected to said terminal electrodes , respectively, wherein metal wire exposed portions where the metal wires are exposed respectively from said first and second leads are provided on joint surfaces of said first and second leads on the same side which is used for jointing to said terminal electrodes , and said metal wire exposed portion of said first lead and said metal wire exposed portion of said second lead are spaced apart from each other by a predetermined interval in a lead length direction, said terminal electrodes are electrically connected to said metal wire exposed portions of said first and second leads , respectively, by soldering, characterized in that said metal wire exposed portion of said first lead does not extend over the entire circumference of the first lead , and said metal wire exposed portion of said second lead does not extend over the entire circumference of the second lead .
A method for producing a processed plastics material from used plastics material originating from domestic waste, packaging waste and/or industrial plastics waste and comprises at least 95 wt.% polypropylene, characterised in that the method comprises the following steps: (a) determining the type and content of the polymer constituents of the used plastics material and determining chemical changes to said constituents by spectroscopic analysis, (b) determining the melt flow rate according to ISO 1133 (230°C; 2.16 kg load), the tensile load according to ISO 527, the flexural modulus according to ISO 178 and/or the impact resistance according to ISO 180/1a of the used plastics material, and (c) processing the used plastics material to change the melt flow rate, the tensile strength, the flexural modulus and/or the impact resistance, wherein (i) the melt flow rate is changed by adding from 0.2 to 0.5 wt.% of an organic peroxide; (ii) the tensile strength and/or the flexural modulus are changed by adding from 2 to 10 wt.% of an inorganic granular material; and (iii) the impact resistance is changed by adding from 5 to 15 wt.% of an elastomer; and wherein, within the scope of the preparation process, 0.1 to 2 wt.% of a stabiliser are added, the stabiliser being a sterically hindered phenol or amine. (a) determining the type and content of the polymer constituents of the used plastics material and determining chemical changes to said constituents by spectroscopic analysis, (b) determining the melt flow rate according to ISO 1133 (230°C; 2.16 kg load), the tensile load according to ISO 527, the flexural modulus according to ISO 178 and/or the impact resistance according to ISO 180/1a of the used plastics material, and (c) processing the used plastics material to change the melt flow rate, the tensile strength, the flexural modulus and/or the impact resistance, wherein (i) the melt flow rate is changed by adding from 0.2 to 0.5 wt.% of an organic peroxide; (ii) the tensile strength and/or the flexural modulus are changed by adding from 2 to 10 wt.% of an inorganic granular material; and (iii) the impact resistance is changed by adding from 5 to 15 wt.% of an elastomer; and wherein, within the scope of the preparation process, 0.1 to 2 wt.% of a stabiliser are added, the stabiliser being a sterically hindered phenol or amine. (i) the melt flow rate is changed by adding from 0.2 to 0.5 wt.% of an organic peroxide; (ii) the tensile strength and/or the flexural modulus are changed by adding from 2 to 10 wt.% of an inorganic granular material; and (iii) the impact resistance is changed by adding from 5 to 15 wt.% of an elastomer; and
A method for planning a refractive treatment of an eye of a patient, the method comprising: deriving an influence matrix from a plurality of prior eye treatments by, for each prior eye treatment of an associated eye: determining an intended refractive correction vector (IRC) characterizing a difference between measured pre-treatment high-order aberrations of the associated eye and a target refraction of the associated eye; and determining a surgically induced refractive correction vector (SIRC) of the associated eye characterizing a difference between the measured pre-treatment aberrations and measured post-treatment aberrations of the associated eye; wherein the influence matrix is derived so as to provide a correlation between the IRCs and the SIRCs; and defining or receiving a patient IRC vector characterizing a difference between measured pre-treatment high-order aberrations of the eye of the patient and a target refraction of the eye of the patient; adjusting the patient IRC vector based on the influence matrix. determining an intended refractive correction vector (IRC) characterizing a difference between measured pre-treatment high-order aberrations of the associated eye and a target refraction of the associated eye; and determining a surgically induced refractive correction vector (SIRC) of the associated eye characterizing a difference between the measured pre-treatment aberrations and measured post-treatment aberrations of the associated eye; wherein the influence matrix is derived so as to provide a correlation between the IRCs and the SIRCs; and defining or receiving a patient IRC vector characterizing a difference between measured pre-treatment high-order aberrations of the eye of the patient and a target refraction of the eye of the patient; adjusting the patient IRC vector based on the influence matrix.
An aluminum alloy product having a graft copolymer pretreatment composition bonded to at least a portion of a surface of the aluminum alloy product, wherein the graft copolymer pretreatment composition, comprises: a polymer backbone; at least one surface binding or bonding moiety attached to the polymer backbone and configured to bind or bond the polymer backbone to a first surface of a the aluminum alloy product, wherein the at least one surface binding or bonding moiety comprises a phosphorous-containing moiety and in particular a phosphoric acid, a phosphonic acid or a phosphonate group; at least one functional moiety attached to the polymer backbone and configured to provide at least a first surface functionalization to the first surface of the aluminum alloy product; and at least one second functional moiety attached to the polymer backbone and configured to provide at least a second surface functionalization to the first surface of the aluminum alloy product, wherein the at least one functional moiety and the at least one second functional moiety provide a multi-functional surface coating and wherein the graft copolymer pretreatment composition is crosslinked with a crosslinking agent, wherein the crosslinking agent is a zirconium salt or a zirconium complex. a polymer backbone; at least one surface binding or bonding moiety attached to the polymer backbone and configured to bind or bond the polymer backbone to a first surface of a the aluminum alloy product, wherein the at least one surface binding or bonding moiety comprises a phosphorous-containing moiety and in particular a phosphoric acid, a phosphonic acid or a phosphonate group; at least one functional moiety attached to the polymer backbone and configured to provide at least a first surface functionalization to the first surface of the aluminum alloy product; and at least one second functional moiety attached to the polymer backbone and configured to provide at least a second surface functionalization to the first surface of the aluminum alloy product, wherein the at least one functional moiety and the at least one second functional moiety provide a multi-functional surface coating and wherein the graft copolymer pretreatment composition is crosslinked with a crosslinking agent, wherein the crosslinking agent is a zirconium salt or a zirconium complex.
Assembly comprising a valve for fluids and a dedicated tool , said valve comprising a body housing a rotatable shutter, a control rod for said shutter projecting from the body and operable by means of a manoeuvring member which can be attached to said rod in several different angular positions by means of an attachment screw , said screw being shaped so as to be able to be screwed/unscrewed with said dedicated tool so as to prevent tampering of the valve, characterised in that the tool comprises a hollow stem , a pin , a spring and a pair of balls , and in that said screw has a threaded shank which screws into a threaded hole at the top of said rod , and an overlying tubular section in which two diametrically opposed holes are provided, designed to partially house the pair of balls during the coupling of the tool to the screw , said balls being housed in slightly conical opposite holes of the hollow stem of the tool in which the pin is inserted, the pin having an end section constantly engaged with said balls under the action of the spring acting between an inner shoulder of the hollow stem and a collar of the pin, adjacent to said end section the pin having a narrowing in diameter determining an annular cavity , designed to house partially said balls without them projecting from the external profile of said hollow stem . characterised in that the tool comprises a hollow stem , a pin , a spring and a pair of balls , and in that said screw has a threaded shank which screws into a threaded hole at the top of said rod , and an overlying tubular section in which two diametrically opposed holes are provided, designed to partially house the pair of balls during the coupling of the tool to the screw , said balls being housed in slightly conical opposite holes of the hollow stem of the tool in which the pin is inserted, the pin having an end section constantly engaged with said balls under the action of the spring acting between an inner shoulder of the hollow stem and a collar of the pin, adjacent to said end section the pin having a narrowing in diameter determining an annular cavity , designed to house partially said balls without them projecting from the external profile of said hollow stem .
An inkjet printing apparatus comprising: a full line print head comprising an ejection opening surface on which ejection openings configured to eject ink are arrayed in a longitudinal direction of the print head, which when the print head is in a printing position, corresponds to a width direction (y) of the printing apparatus and of a printing medium (S) that can be conveyed in a conveying direction; a head holder configured to hold the print head detachably from the printing apparatus; and a guide portion provided in the head holder and configured to guide, in a process of insertion by a user, the print head in the width direction toward a predetermined position in the width direction and further downstream in the width direction to a position corresponding, in the width direction, to the printing position, wherein the guide portion comprises a second pressing member at the predetermined position, which is configured such that, when the print head is inserted with a protective member configured to protect the ejection opening surface being detachably attached to the print head , it prevents the protective member from exceeding the predetermined position while allowing the print head to proceed to the position corresponding to the printing position, thereby enabling the user to remove the protective member. a full line print head comprising an ejection opening surface on which ejection openings configured to eject ink are arrayed in a longitudinal direction of the print head, which when the print head is in a printing position, corresponds to a width direction (y) of the printing apparatus and of a printing medium (S) that can be conveyed in a conveying direction; a head holder configured to hold the print head detachably from the printing apparatus; and a guide portion provided in the head holder and configured to guide, in a process of insertion by a user, the print head in the width direction toward a predetermined position in the width direction and further downstream in the width direction to a position corresponding, in the width direction, to the printing position, wherein the guide portion comprises a second pressing member at the predetermined position, which is configured such that, when the print head is inserted with a protective member configured to protect the ejection opening surface being detachably attached to the print head , it prevents the protective member from exceeding the predetermined position while allowing the print head to proceed to the position corresponding to the printing position, thereby enabling the user to remove the protective member.
Method for enriching and/or isolating nucleic acids from microbial cells, comprising (a) filtering a liquid sample comprising microbial cells through a nucleic acid-binding silica or glass matrix which has a pore size small enough to retain the microbial cells; (b) lysing the microbial cells, preferably bacterial cells, on the matrix to release the nucleic acids from the microbial cells, wherein said lysis does not involve a precipitation of the nucleic acids which are released from the microbial cells; (c) optionally, degrading proteins on the matrix by the addition of an enzyme having proteinase activity; (d) binding the nucleic acids to the matrix by the addition of monovalent or multivalent cations; (e) optionally, washing the matrix to remove any unbound material; and (f) eluting the nucleic acids. (a) filtering a liquid sample comprising microbial cells through a nucleic acid-binding silica or glass matrix which has a pore size small enough to retain the microbial cells; (b) lysing the microbial cells, preferably bacterial cells, on the matrix to release the nucleic acids from the microbial cells, wherein said lysis does not involve a precipitation of the nucleic acids which are released from the microbial cells; (c) optionally, degrading proteins on the matrix by the addition of an enzyme having proteinase activity; (d) binding the nucleic acids to the matrix by the addition of monovalent or multivalent cations; (e) optionally, washing the matrix to remove any unbound material; and (f) eluting the nucleic acids.