mhurhangee/patent-ind-claim-en huggingface dataset:
A tomography imaging apparatus comprising: a data acquirer configured to acquire first X-ray data of an object for each of a plurality of energy bands; an image preprocessor configured to perform a beam hardening correction on the first X-ray data for each of the energy bands, to generate second X-ray data of the object; and an image reconstructor configured to reconstruct a tomography image of the object based on the second X-ray data, CHARACTERISED IN THAT the image preprocessor is further configured to: set beam hardening correction coefficients corresponding to each of the energy bands to have different values according to the energy bands to which the beam hardening correction coefficients correspond, wherein the set beam hardening correction coefficients corresponding to low energy bands are set to result in a greater magnitude of correction than the set beam hardening correction coefficients corresponding with high energy bands; and perform the beam hardening correction on the first X-ray data for each of the energy bands, based on the set beam hardening correction coefficients corresponding to the energy bands. a data acquirer configured to acquire first X-ray data of an object for each of a plurality of energy bands; an image preprocessor configured to perform a beam hardening correction on the first X-ray data for each of the energy bands, to generate second X-ray data of the object; and an image reconstructor configured to reconstruct a tomography image of the object based on the second X-ray data, CHARACTERISED IN THAT the image preprocessor is further configured to: set beam hardening correction coefficients corresponding to each of the energy bands to have different values according to the energy bands to which the beam hardening correction coefficients correspond, wherein the set beam hardening correction coefficients corresponding to low energy bands are set to result in a greater magnitude of correction than the set beam hardening correction coefficients corresponding with high energy bands; and perform the beam hardening correction on the first X-ray data for each of the energy bands, based on the set beam hardening correction coefficients corresponding to the energy bands. set beam hardening correction coefficients corresponding to each of the energy bands to have different values according to the energy bands to which the beam hardening correction coefficients correspond, wherein the set beam hardening correction coefficients corresponding to low energy bands are set to result in a greater magnitude of correction than the set beam hardening correction coefficients corresponding with high energy bands; and perform the beam hardening correction on the first X-ray data for each of the energy bands, based on the set beam hardening correction coefficients corresponding to the energy bands.
A method of thermal management in a computing device using a management controller , comprising: obtaining, via at least two virtual management controllers , monitoring information of one or more thermally sensitive components of the computing device unable to communicate directly to the management controller , the monitoring information comprising temperature information of the one or more thermally sensitive components ; transmitting, via the at least two virtual management controllers , the monitoring information to the management controller via a system interface of the management controller ; adjusting, via the management controller , operation of at least one thermal management component of the computing device tethered to the management controller , managing, by a virtual baseboard management controller manager , messages received at the management controller from at least two virtual management controllers , and the at least two virtual management controllers obtaining monitoring information from at least two different thermally sensitive components ; and wherein the at least two virtual management controllers run on a hypervisor that runs on a CPU of the computing device, and the CPU is connected to the thermally sensitive components. obtaining, via at least two virtual management controllers , monitoring information of one or more thermally sensitive components of the computing device unable to communicate directly to the management controller , the monitoring information comprising temperature information of the one or more thermally sensitive components ; transmitting, via the at least two virtual management controllers , the monitoring information to the management controller via a system interface of the management controller ; adjusting, via the management controller , operation of at least one thermal management component of the computing device tethered to the management controller , managing, by a virtual baseboard management controller manager , messages received at the management controller from at least two virtual management controllers , and the at least two virtual management controllers obtaining monitoring information from at least two different thermally sensitive components ; and wherein the at least two virtual management controllers run on a hypervisor that runs on a CPU of the computing device, and the CPU is connected to the thermally sensitive components.
A hot melt wetness indicator composition comprising: about 1 to about 80% by weight of a base polymer; about 15 to about 75% by weight of a tackifier; a pH adjuster in an amount sufficient to cause the pH of the composition to be less than 6, preferably between 4 and 6, more preferably between 5 and 6, and most preferably between 5.5 and 6; and about 0.01 to about 5% by weight of a pH indicating agent consisting of nitrazine yellow. about 1 to about 80% by weight of a base polymer; about 15 to about 75% by weight of a tackifier; a pH adjuster in an amount sufficient to cause the pH of the composition to be less than 6, preferably between 4 and 6, more preferably between 5 and 6, and most preferably between 5.5 and 6; and about 0.01 to about 5% by weight of a pH indicating agent consisting of nitrazine yellow.
A method for in vitro predicting the outcome of an individual having a multiple myeloma,comprising the steps of: - a) measuring the expression level of 16 genes encoding a ROS detoxifying (AOX) protein consisting of AKR1B1, ARNT, CAT, CBR1, DHCR24, EGLN1, GLRX2, HIF1A, MGST1, MSRB1, PRDX6, SLC7A11, SOD1, SRXN1, TALDO1 and TXN, and/or the expression level of 11 genes encoding ROS producing (ROS) protein consisting of CYBA, CYB5A, CYC1, NCF4, NCF1B, NCF1C, NDUFA12, NDUFS2, NDUFS8, SHC1 and UQCR10, is measured at step a), in a biological sample obtained from said individual; - b) calculating an AOX score value and/or a ROS score value from the said respective expression level(s) obtained at step a); - c) classifying the said individual as having a good prognosis status or a bad prognosis status, by comparing the score value obtained at step b) with a reference score value. - a) measuring the expression level of 16 genes encoding a ROS detoxifying (AOX) protein consisting of AKR1B1, ARNT, CAT, CBR1, DHCR24, EGLN1, GLRX2, HIF1A, MGST1, MSRB1, PRDX6, SLC7A11, SOD1, SRXN1, TALDO1 and TXN, and/or the expression level of 11 genes encoding ROS producing (ROS) protein consisting of CYBA, CYB5A, CYC1, NCF4, NCF1B, NCF1C, NDUFA12, NDUFS2, NDUFS8, SHC1 and UQCR10, is measured at step a), in a biological sample obtained from said individual; - b) calculating an AOX score value and/or a ROS score value from the said respective expression level(s) obtained at step a); - c) classifying the said individual as having a good prognosis status or a bad prognosis status, by comparing the score value obtained at step b) with a reference score value.
Method for reducing hexavalent chromium Cr(VI) in a hot gas, the method comprising the steps of: - providing a hot gas containing an amount of Cr(VI) ; - guiding the hot gas containing an amount of Cr(VI) over a titanium oxide surface of a titanium containing catalytic element containing metallic titanium in a bulk material; - letting Cr(VI) in the hot gas containing an amount of Cr(VI) react with the titanium oxide surface of the titanium containing catalytic element, thereby reducing Cr(VI) to trivalent chromium Cr(III), and thus forming a hot gas having a reduced amount of Cr(VI), wherein the hot gas containing an amount of Cr(VI) has a temperature above 400 degree Celsius. - providing a hot gas containing an amount of Cr(VI) ; - guiding the hot gas containing an amount of Cr(VI) over a titanium oxide surface of a titanium containing catalytic element containing metallic titanium in a bulk material; - letting Cr(VI) in the hot gas containing an amount of Cr(VI) react with the titanium oxide surface of the titanium containing catalytic element, thereby reducing Cr(VI) to trivalent chromium Cr(III), and thus forming a hot gas having a reduced amount of Cr(VI), wherein the hot gas containing an amount of Cr(VI) has a temperature above 400 degree Celsius.
A method of inducing cell cycle exit and terminal differentiation of cells undergoing differentiation from stem cells into pancreatic beta cells, comprising the steps of: a. sequentially differentiating the stem cells to obtain pancreatic endocrine progenitor cells; and b. contacting or incubating the pancreatic endocrine progenitor cells with an agent which interferes with DNA replication, wherein the contact or incubation inhibits entry of the pancreatic endocrine progenitor cells into the S-phase of the cell cycle and arrests the cells at G1 phase a. sequentially differentiating the stem cells to obtain pancreatic endocrine progenitor cells; and b. contacting or incubating the pancreatic endocrine progenitor cells with an agent which interferes with DNA replication, wherein the contact or incubation inhibits entry of the pancreatic endocrine progenitor cells into the S-phase of the cell cycle and arrests the cells at G1 phase
A subcutaneous implantable device for guiding a vascular access member, the device comprising: a channel defined by a through-hole extending from a top surface to an opposing bottom surface of the device , the device also comprising a sidewall extending between the top surface and the opposing bottom surface , wherein the channel is configured to guide the vascular access member therethrough to a vascular site; and anchoring means comprising holes arranged on the sidewall of the device , the holes adapted to attach the device to at least one of a dermis or a subcutaneous tissue at a position underneath the dermis to allow repeated access of the vascular access member through the channel to the vascular site, wherein the device is dimensioned to allow the device to be attached through the anchoring means for anchoring the entire device at a distance away from the vascular site. a channel defined by a through-hole extending from a top surface to an opposing bottom surface of the device , the device also comprising a sidewall extending between the top surface and the opposing bottom surface , wherein the channel is configured to guide the vascular access member therethrough to a vascular site; and anchoring means comprising holes arranged on the sidewall of the device , the holes adapted to attach the device to at least one of a dermis or a subcutaneous tissue at a position underneath the dermis to allow repeated access of the vascular access member through the channel to the vascular site, wherein the device is dimensioned to allow the device to be attached through the anchoring means for anchoring the entire device at a distance away from the vascular site.
Automatic or manual splitting machine for cutting/splitting natural stone and/or concrete material blocks , wherein said machine comprises a powered or not powered conveyor belt , adapted to receive said blocks to be cut/split positioned thereon and to transport them towards at least one cutting/split station of said blocks provided with at least one cutting/splitting device , characterized in that said machine further comprises a carriage provided with a plurality of arms able to, independently one each other, vertically slide from a first rest position wherein the arm is not in contact with the block to be cut/split to a second gripping position onto the block , wherein said carriage is adapted to move along the conveyor belt from a first locking position wherein the block is blocked to a second position at said cutting/splitting station , and vice versa.
A method of fabricating a book-like document of value and/or security document , in particular a passport-document, having a front-side and a rear-side binding or book cover , a plurality of data pages , and at least one security laminate including personalisation data, with at least the data pages and the security laminate being adhered to each other along the gutter edges or gutter folding edges, which are arranged parallel to each other in a stack, by means of an adhesive , with a plurality of perforation holes being disposed at least in the area of the gutter edges or gutter folding edges of the security laminate und/or the data pages before the latter are joined to the adhesive , and with the gutter edges or gutter folding edges of the data pages and, optionally, of the security laminate being adhered to each other by means of the adhesive realised in the form of an elastomeric polymer , said polymer passing through, or entering into said perforation holes , characterised in that in the area of the book spine, the front-side and rear-side bindings or book covers are both adhered to the gutter edges or gutter folding edges of the security laminate and of the data pages by means of the adhesive realised in the form of an elastomeric polymer .
Polycondensate containing (I) at least a structural unit, which is an aromatic moiety bearing a polyether side chain comprising alkylene glycol units, with the proviso that the number of ethylene glycol units in the side chain is from 9 to 130 and that the content of ethylene glycol units is higher than 80 mol % with respect to all alkylene glycol units in the polyether side chain, (IIa) at least a structural unit, which is an aromatic moiety bearing at least one phosphoric acid monoester group and/or its salt, with the proviso that the molar ratio of (IIa) : (I) is from 0.25 to 8, (IIb) at least a structural unit with a molar mass lower than 200 g/mol, which is an aromatic moiety with 6 carbon atoms bearing at least one hydroxy group attached to the aromatic moiety with the proviso that the molar ratio of (IIa) : (IIb) is from 0.2 to 1.9, (III) at least a methylene unit (-CH 2 -), which is attached to two aromatic structural units Y, where aromatic structural units Y, independently of one another, are identical or different and are represented by structural unit (I), structural unit (IIa), structural unit (IIb) or optionally (IV) aromatic structural units of the polycondensate, which are different from structural unit (I), structural unit (IIa) and structural unit (IIb). (I) at least a structural unit, which is an aromatic moiety bearing a polyether side chain comprising alkylene glycol units, with the proviso that the number of ethylene glycol units in the side chain is from 9 to 130 and that the content of ethylene glycol units is higher than 80 mol % with respect to all alkylene glycol units in the polyether side chain, (IIa) at least a structural unit, which is an aromatic moiety bearing at least one phosphoric acid monoester group and/or its salt, with the proviso that the molar ratio of (IIa) : (I) is from 0.25 to 8, (IIb) at least a structural unit with a molar mass lower than 200 g/mol, which is an aromatic moiety with 6 carbon atoms bearing at least one hydroxy group attached to the aromatic moiety with the proviso that the molar ratio of (IIa) : (IIb) is from 0.2 to 1.9, (III) at least a methylene unit (-CH 2 -), which is attached to two aromatic structural units Y, where aromatic structural units Y, independently of one another, are identical or different and are represented by structural unit (I), structural unit (IIa), structural unit (IIb) or optionally (IV) aromatic structural units of the polycondensate, which are different from structural unit (I), structural unit (IIa) and structural unit (IIb).
A synchronized braking system for a two-wheeled vehicle, the synchronized braking system comprising: a front wheel brake assembly comprising a cam lever , a front wheel brake and a front wheel brake lever , coupled to the front wheel brake through an independent front brake cable , to actuate the front wheel brake during operation; a rear wheel brake ; a combined wheel brake lever , coupled to the front wheel brake through a combined front brake cable and coupled to the rear wheel brake through a rear brake cable , to actuate the front wheel brake and the rear wheel brake , respectively, during operation; and characterized in that , the synchronized braking system further comprising: a friction reduction apparatus for minimizing friction in the front wheel brake on actuation of at least one of the front wheel brake lever and the combined wheel brake lever , the friction reduction apparatus comprising: an insert (512-1, 512-2) mounted on each of the independent front brake cable and the combined front brake cable for preventing direct contact of the cam lever with each of the combined front brake cable and the independent front brake cable , wherein the cam lever slides on the insert (512-1, 512-2) when actuated by at least one of the front wheel brake lever and the combined wheel brake lever . a front wheel brake assembly comprising a cam lever , a front wheel brake and a front wheel brake lever , coupled to the front wheel brake through an independent front brake cable , to actuate the front wheel brake during operation; a rear wheel brake ; a combined wheel brake lever , coupled to the front wheel brake through a combined front brake cable and coupled to the rear wheel brake through a rear brake cable , to actuate the front wheel brake and the rear wheel brake , respectively, during operation; and characterized in that , the synchronized braking system further comprising: a friction reduction apparatus for minimizing friction in the front wheel brake on actuation of at least one of the front wheel brake lever and the combined wheel brake lever , the friction reduction apparatus comprising: an insert (512-1, 512-2) mounted on each of the independent front brake cable and the combined front brake cable for preventing direct contact of the cam lever with each of the combined front brake cable and the independent front brake cable , wherein the cam lever slides on the insert (512-1, 512-2) when actuated by at least one of the front wheel brake lever and the combined wheel brake lever .
An insulating resin composition comprising: an epoxy resin; an amine-based curing agent containing a first amine compound represented by Formula (A-1) and a second amine compound represented by Formula (A-2), wherein, in the amine-based curing agent, a ratio (M 2 /M 1 ) of a total number M 2 of -NHR 1 's to a total number M 1 of -NH 2 's is 0.05 to 0.30; and an inorganic filler having a thermal conductivity of 20 W/mK or higher, wherein a content of the inorganic filler is 30 to 80 volume%, wherein the content of components other than the epoxy resin, the amine-based curing agent and the inorganic filler is 2 mass% or less based on the total amount of the insulating resin composition, [in Formula (A-1), n 1 represents an integer of 0 to 4, and X 1 represents an alkanediyl group, an oxygen atom, or a sulfur atom; and when n 1 is 1 or more, plural X 1 's may be the same as or different from each other,] [in Formula (A-2), n 2 represents an integer of 0 to 4, X 2 represents an alkanediyl group, an oxygen atom, or a sulfur atom, and Y represents a group represented by -NH 2 or -NHR 1 (R 1 represents a group represented by Formula (Y-1)); plural Y's may be the same as or different from each other, provided that at least one of Y's is -NHR 1 ; and when n 2 is 1 or more, plural X 2 's may be the same as or different from each other, and] [in Formula (Y-1), R 2 represents an alkyl group]. an epoxy resin; an amine-based curing agent containing a first amine compound represented by Formula (A-1) and a second amine compound represented by Formula (A-2), wherein, in the amine-based curing agent, a ratio (M 2 /M 1 ) of a total number M 2 of -NHR 1 's to a total number M 1 of -NH 2 's is 0.05 to 0.30; and an inorganic filler having a thermal conductivity of 20 W/mK or higher, wherein a content of the inorganic filler is 30 to 80 volume%, wherein the content of components other than the epoxy resin, the amine-based curing agent and the inorganic filler is 2 mass% or less based on the total amount of the insulating resin composition, [in Formula (A-1), n 1 represents an integer of 0 to 4, and X 1 represents an alkanediyl group, an oxygen atom, or a sulfur atom; and when n 1 is 1 or more, plural X 1 's may be the same as or different from each other,] [in Formula (A-2), n 2 represents an integer of 0 to 4, X 2 represents an alkanediyl group, an oxygen atom, or a sulfur atom, and Y represents a group represented by -NH 2 or -NHR 1 (R 1 represents a group represented by Formula (Y-1)); plural Y's may be the same as or different from each other, provided that at least one of Y's is -NHR 1 ; and when n 2 is 1 or more, plural X 2 's may be the same as or different from each other, and] [in Formula (Y-1), R 2 represents an alkyl group].
A refrigerator door with an ice maker comprising: a frame provided on a rear side of the refrigerator door ; an ice tray , the ice tray is rotatably installed in the frame and includes: a plurality of ice cavities ; a rotational shaft extending from a short side surface of the ice tray ; a tray cover provided to the frame and selectively opening/closing the ice tray as the ice tray rotates, a water flood prevention rib extending upward from each of upper edges of long side surfaces of the ice tray and preventing water stored in the ice cavities from flooding while the refrigerator door rotates; and a rotation guide extending upward from each of upper edges of the short side surfaces of the ice tray , to guide rotation of the ice tray , wherein the tray cover is formed to correspond to a rotation trace of the ice tray, and the rotation guide moves along an inner surface of the tray cover while the ice tray rotates. a frame provided on a rear side of the refrigerator door ; an ice tray , the ice tray is rotatably installed in the frame and includes: a plurality of ice cavities ; a rotational shaft extending from a short side surface of the ice tray ; a plurality of ice cavities ; a rotational shaft extending from a short side surface of the ice tray ; a tray cover provided to the frame and selectively opening/closing the ice tray as the ice tray rotates, a water flood prevention rib extending upward from each of upper edges of long side surfaces of the ice tray and preventing water stored in the ice cavities from flooding while the refrigerator door rotates; and a rotation guide extending upward from each of upper edges of the short side surfaces of the ice tray , to guide rotation of the ice tray , wherein the tray cover is formed to correspond to a rotation trace of the ice tray, and the rotation guide moves along an inner surface of the tray cover while the ice tray rotates.