mhurhangee/patent-ind-claim-en huggingface dataset:
An augment device for a joint endoprosthesis, in particular a tibial augment for a knee joint endoprosthesis, comprising a sleeve having a sleeve top and a sleeve bottom , a distance between the sleeve top and the sleeve bottom being an entire height of the sleeve , wherein the sleeve surrounds a channel extending through the sleeve from the sleeve top to the sleeve bottom , the sleeve being formed of a porous material which is configured for ingrowth of bony material, the sleeve comprising an inner face and an outer face , the inner face defining the channel and a distance between the inner face and the outer face defining a thickness, wherein the sleeve further comprises a wall surrounding the channel , the wall being made of solid material configured for blocking cement flow between the inner face and the outer face , characterized in that the wall further comprises an inner porous material on the inner face of the sleeve , wherein the wall is located at an intermediate position along a direction of the thickness such that the porous material is formed on an inward facing and outward facing side of the wall. a sleeve having a sleeve top and a sleeve bottom , a distance between the sleeve top and the sleeve bottom being an entire height of the sleeve , wherein the sleeve surrounds a channel extending through the sleeve from the sleeve top to the sleeve bottom , the sleeve being formed of a porous material which is configured for ingrowth of bony material, the sleeve comprising an inner face and an outer face , the inner face defining the channel and a distance between the inner face and the outer face defining a thickness, wherein the sleeve further comprises a wall surrounding the channel , the wall being made of solid material configured for blocking cement flow between the inner face and the outer face , characterized in that the wall further comprises an inner porous material on the inner face of the sleeve , wherein the wall is located at an intermediate position along a direction of the thickness such that the porous material is formed on an inward facing and outward facing side of the wall.
A method for the production of cast bodies made of an electrically conductive material with the levitation melting method, wherein for the realization of the levitation state of a batch electromagnetic alternating fields are used which are generated with at least one pair of induction coils being oppositely arranged and having a core made of a ferromagnetic material , comprising the following steps of: - introducing a batch of a starting material into the zone of influence of at least one electromagnetic alternating field so that the batch is held in a levitation state, - melting the batch , - positioning a casting mold in a filling zone below the levitating batch , - casting the whole batch into the casting mold , - removing the solidified cast body from the casting mold , characterized in that the casting of the whole batch into the casting mold is carried out by inserting an annular element made of an electrically conductive material into the zone of the electromagnetic alternating field between the induction coils . - introducing a batch of a starting material into the zone of influence of at least one electromagnetic alternating field so that the batch is held in a levitation state, - melting the batch , - positioning a casting mold in a filling zone below the levitating batch , - casting the whole batch into the casting mold , - removing the solidified cast body from the casting mold ,
A method for the preparation of deuterated imidazole diketone compounds, characterized in that it includes the following steps: wherein R 1 and R 2 are independently selected from C 1 -C 4 alkyls; R 3 , R 4 , and R 5 are selected from hydrogen and deuterium, in which at least one of them is deuterium; using a compound of formula (I) and compounds of formula (II) as starting material, wherein compounds of formula (III) are obtained by a substitution reaction; Compounds of formula (IV) are prepared by esterification of the carboxyl group in compounds of formula (III), wherein R is selected from C 1 -C 6 alkyls; Cyclization of compounds of formula (IV) and compound of formula (V) provides compounds of formula (VI); Compounds of formula (VI) are deesterified to produce compounds of formula (VII); compounds of formula (VII) and compounds of formula (VIII) are reacted, wherein the deuterated imidazole diketone compounds of formula (IX) are obtained by a condensation reaction forming an amide bond. wherein R 1 and R 2 are independently selected from C 1 -C 4 alkyls; R 3 , R 4 , and R 5 are selected from hydrogen and deuterium, in which at least one of them is deuterium; using a compound of formula (I) and compounds of formula (II) as starting material, wherein compounds of formula (III) are obtained by a substitution reaction; Compounds of formula (IV) are prepared by esterification of the carboxyl group in compounds of formula (III), wherein R is selected from C 1 -C 6 alkyls; Cyclization of compounds of formula (IV) and compound of formula (V) provides compounds of formula (VI); Compounds of formula (VI) are deesterified to produce compounds of formula (VII); compounds of formula (VII) and compounds of formula (VIII) are reacted, wherein the deuterated imidazole diketone compounds of formula (IX) are obtained by a condensation reaction forming an amide bond. using a compound of formula (I) and compounds of formula (II) as starting material, wherein compounds of formula (III) are obtained by a substitution reaction; Compounds of formula (IV) are prepared by esterification of the carboxyl group in compounds of formula (III), wherein R is selected from C 1 -C 6 alkyls; Cyclization of compounds of formula (IV) and compound of formula (V) provides compounds of formula (VI); Compounds of formula (VI) are deesterified to produce compounds of formula (VII); compounds of formula (VII) and compounds of formula (VIII) are reacted, wherein the deuterated imidazole diketone compounds of formula (IX) are obtained by a condensation reaction forming an amide bond.
A laser array , comprising: a plurality of laser diodes arranged and electrically connected to one another on a surface of a non-native substrate , wherein respective subsets of the plurality of laser diodes are electrically connected to respective driver transistors on the non-native substrate and respective laser diodes of the plurality of laser diodes have different orientations relative to one another, wherein the respective laser diodes of the plurality of laser diodes of the laser array are configured to provide coherent light emission in different directions, and wherein the laser array is configured to emit an output beam comprising the coherent light emission from the respective laser diodes ; wherein the laser array is suitable for use in LIDAR device, and wherein said different orientations of the respective laser diodes relative to one another are selected such that the output beam comprises incoherent light having a desired non-uniform intensity distribution over a field of view of the laser array, wherein the output beam includes a superposition of respective coherent light emissions of the laser diodes , and respective phases of the coherent light emission are independent of one another. a plurality of laser diodes arranged and electrically connected to one another on a surface of a non-native substrate , wherein respective subsets of the plurality of laser diodes are electrically connected to respective driver transistors on the non-native substrate and respective laser diodes of the plurality of laser diodes have different orientations relative to one another, wherein the respective laser diodes of the plurality of laser diodes of the laser array are configured to provide coherent light emission in different directions, and wherein the laser array is configured to emit an output beam comprising the coherent light emission from the respective laser diodes ; wherein the laser array is suitable for use in LIDAR device, and wherein said different orientations of the respective laser diodes relative to one another are selected such that the output beam comprises incoherent light having a desired non-uniform intensity distribution over a field of view of the laser array, wherein the output beam includes a superposition of respective coherent light emissions of the laser diodes , and respective phases of the coherent light emission are independent of one another.
A method for amplifying a target nucleic acid comprising the steps of: a) providing a support with a plurality of a nucleic acid capture probe, wherein said plurality of probes is immobilized to the support via the 5' end of the nucleic acid, b) hybridizing a target nucleic acid to the capture nucleic acid probe to form a probe/target complex, c) extending the capture probe nucleic acid with a polymerase wherein the target nucleic acid is used as template for the extension of the capture probe nucleic acid, d) ligating the extended target/probe double stranded nucleic acid to a hairpin nucleic acid, wherein the 5' end of the hairpin nucleic acid is ligated to the 3' end of the extended probe and wherein the 3' end of the hairpin nucleic acid is ligated to the 5' end of the target nucleic acid, wherein the hairpin nucleic acid comprises a restriction site and a primer binding site, wherein the hairpin nucleic acid forms a blunt ended stem or comprises a 5' overhang that is a thymidine, wherein the hairpin nucleic acid is ligated such that a double stranded nucleic acid is obtained which requires no further extension, e) denaturing the target/probe complex with the hairpin, f) allowing the 3' end of the target nucleic acid to bind to a further probe of said plurality of nucleic acid capture probes on said support, g) extending the 3' end of said further probe by a polymerase, h) amplifying the nucleic acid obtained in step g) by repeating steps e) and g), i) cleaving the restriction site in the hairpin. a) providing a support with a plurality of a nucleic acid capture probe, wherein said plurality of probes is immobilized to the support via the 5' end of the nucleic acid, b) hybridizing a target nucleic acid to the capture nucleic acid probe to form a probe/target complex, c) extending the capture probe nucleic acid with a polymerase wherein the target nucleic acid is used as template for the extension of the capture probe nucleic acid, d) ligating the extended target/probe double stranded nucleic acid to a hairpin nucleic acid, wherein the 5' end of the hairpin nucleic acid is ligated to the 3' end of the extended probe and wherein the 3' end of the hairpin nucleic acid is ligated to the 5' end of the target nucleic acid, wherein the hairpin nucleic acid comprises a restriction site and a primer binding site, wherein the hairpin nucleic acid forms a blunt ended stem or comprises a 5' overhang that is a thymidine, wherein the hairpin nucleic acid is ligated such that a double stranded nucleic acid is obtained which requires no further extension, e) denaturing the target/probe complex with the hairpin, f) allowing the 3' end of the target nucleic acid to bind to a further probe of said plurality of nucleic acid capture probes on said support, g) extending the 3' end of said further probe by a polymerase, h) amplifying the nucleic acid obtained in step g) by repeating steps e) and g), i) cleaving the restriction site in the hairpin.
A paper roll without core, comprising a curl-resistant paper tape , the curl-resistant paper tape being crimped into cylinder shape with an end, a thin paper tape , a front end of the thin paper tape is fixed with the end of the curl-resistant paper tape; and a thermal-sensitive paper tape , a front end of the thermal-sensitive paper tape is fixed with an end of the thin paper tape, and the thermal-sensitive paper tape is wrapped around an outer circumference of the curl-resistant paper tape. a curl-resistant paper tape , the curl-resistant paper tape being crimped into cylinder shape with an end, a thin paper tape , a front end of the thin paper tape is fixed with the end of the curl-resistant paper tape; and a thermal-sensitive paper tape , a front end of the thermal-sensitive paper tape is fixed with an end of the thin paper tape, and the thermal-sensitive paper tape is wrapped around an outer circumference of the curl-resistant paper tape.
Sealing arrangement sealing off a gap between a machine element and a housing , wherein at least the machine element or at least a part of the housing is electrically conductive, comprising at least the machine element, the housing and a seal with at least one sealing lip , which seals off the gap between the machine element and the housing , comprising a main body composed of elastic elastomeric material, wherein the main body is electrically conductive and, at the outside, is covered at least partially by a covering shell composed of electrically insulating material, wherein the covering shell is assigned at least to those regions of the main body which are in contact with the machine element and with the housing , and wherein provision is made of evaluation electronics which detect the electrical capacitance (C) between the main body and the machine element or the housing .
Heat exchanger matrix , in particular for a turbomachine , the matrix comprising at least three passages for at least three respective fluids, the passages being such as to allow each oof the fluids to exchange heat with each of the other fluids, the passages leading the fluids to circulate in at least three respective mean flow directions which intersect two by two, the passages being delimited by walls through which a heat exchange takes place between each of the fluids, characterised in that at least one of the passages is formed by a network of tubes , the walls of the tubes being on the inside directly in contact with one of the fluids and on the outside directly in contact with at least two of the other fluids.
A method for handling flat material and/or strip material wound on supply rolls , in which method - at least one function marking is applied in a defined relative position onto an externally arranged free end section of the flat material and/or strip material on a supply roll ; - the supply roll is positioned on a holding mandrel ; - the location of the at least one function marking is optically identified; - the free end section is aligned based on the optical identification; - the free end section is temporally thereafter gripped and extracted from the supply roll . - at least one function marking is applied in a defined relative position onto an externally arranged free end section of the flat material and/or strip material on a supply roll ; - the supply roll is positioned on a holding mandrel ; - the location of the at least one function marking is optically identified; - the free end section is aligned based on the optical identification; - the free end section is temporally thereafter gripped and extracted from the supply roll .
An organic amine salt, which is a salt of an organic amine compound represented by the following Formula (A) and an acid represented by the following Formula (B): wherein, in Formula (A), each of R 1 , R 2 , R 3 and R 4 represents a hydrogen atom and R 5 represents a methyl group; wherein, in Formula (B), each of R 6 and R 7 represents a hydroxyl group. wherein, in Formula (A), each of R 1 , R 2 , R 3 and R 4 represents a hydrogen atom and R 5 represents a methyl group; wherein, in Formula (B), each of R 6 and R 7 represents a hydroxyl group.
A method for qualifying a wireless device as a frequency hopping device, the method comprising, at an access point: determining a frequency hopping pattern, unique to the wireless device, so that the wireless device complies with applicable power spectral density limits imposed on frequency hopping devices; allocating a unique sequence of resource units to the wireless device based on the unique frequency hopping pattern, each of the resource units of the unique sequence including a different set of frequency subcarriers; transmitting, to the wireless device, a trigger frame that allocates the unique sequence of resource units to the wireless device and instructs the wireless device to successively frequency hop across the resource units of the unique sequence based on the unique frequency hopping pattern, wherein the unique frequency hopping pattern is included in a Common Info field of the trigger frame or an information element, IE, appended to the trigger frame; and receiving , from the wireless device, a series of uplink orthogonal frequency-division multiple access, OFDMA, transmissions on the unique sequence of resource units during a sequence period, wherein each of the resource units of the unique sequence is associated with a corresponding one of a series of transmit opportunities, TXOPs, and wherein the resource unit associated with a respective one of the TXOPs is not allocated to another wireless device during the respective TXOP. determining a frequency hopping pattern, unique to the wireless device, so that the wireless device complies with applicable power spectral density limits imposed on frequency hopping devices; allocating a unique sequence of resource units to the wireless device based on the unique frequency hopping pattern, each of the resource units of the unique sequence including a different set of frequency subcarriers; transmitting, to the wireless device, a trigger frame that allocates the unique sequence of resource units to the wireless device and instructs the wireless device to successively frequency hop across the resource units of the unique sequence based on the unique frequency hopping pattern, wherein the unique frequency hopping pattern is included in a Common Info field of the trigger frame or an information element, IE, appended to the trigger frame; and receiving , from the wireless device, a series of uplink orthogonal frequency-division multiple access, OFDMA, transmissions on the unique sequence of resource units during a sequence period, wherein each of the resource units of the unique sequence is associated with a corresponding one of a series of transmit opportunities, TXOPs, and wherein the resource unit associated with a respective one of the TXOPs is not allocated to another wireless device during the respective TXOP.
A method for providing a secure digital copy of a motion picture to a remote receiver, the method comprising: preparing an encoded file by encoding a digital copy of a motion picture; encrypting the encoded file using a first encryption method having a fixed key and encrypting the fixed key using the public key of a public/private key pair to prepare encrypted content, wherein the private key has been provided to the remote receiver; transmitting the encrypted fixed key to the remote receiver; using an archiver to divide the encrypted content into sections before transmitting, to calculate an integrity check for the sections, and to scramble each section with a password; transmitting the password to the remote receiver; and separately transmitting the content in said scrambled sections to the remote receiver, wherein the encrypted content for transmission is transmitted via a first channel, and the password is transmitted to the receiver via a back channel separate from the first channel. preparing an encoded file by encoding a digital copy of a motion picture; encrypting the encoded file using a first encryption method having a fixed key and encrypting the fixed key using the public key of a public/private key pair to prepare encrypted content, wherein the private key has been provided to the remote receiver; transmitting the encrypted fixed key to the remote receiver; using an archiver to divide the encrypted content into sections before transmitting, to calculate an integrity check for the sections, and to scramble each section with a password; transmitting the password to the remote receiver; and separately transmitting the content in said scrambled sections to the remote receiver, wherein the encrypted content for transmission is transmitted via a first channel, and the password is transmitted to the receiver via a back channel separate from the first channel.
A method of introducing an electric conductor , especially a heating wire, into foam cladding of a steering wheel frame , comprising the following steps of: - introducing at least one cut into the foam cladding by means of a cutting tool during a first method step, and characterized by - simultaneously introducing the electric conductor into the produced cut during a second method step. - introducing at least one cut into the foam cladding by means of a cutting tool during a first method step, and characterized by - simultaneously introducing the electric conductor into the produced cut during a second method step.
Method for identifying an edge contour of an opening formed on a processing head , in particular an opening of a processing nozzle , characterised by : temporally successive recording of a plurality of images (B(n), B(n-1),...), which each contain a part-region of a preferably illuminated reference face which is monitored through the opening and which is spaced apart from the processing head , and a region on the processing head which surrounds the opening , wherein between recording times (n, n-1,...) of the images (B(n), B(n-1),...) the brightness properties of the reference face are changed, and identifying the edge contour by means of comparative evaluation of the recorded images (B(n), B(n-1),...). temporally successive recording of a plurality of images (B(n), B(n-1),...), which each contain a part-region of a preferably illuminated reference face which is monitored through the opening and which is spaced apart from the processing head , and a region on the processing head which surrounds the opening , wherein between recording times (n, n-1,...) of the images (B(n), B(n-1),...) the brightness properties of the reference face are changed, and identifying the edge contour by means of comparative evaluation of the recorded images (B(n), B(n-1),...).
Linear electromechanical servocontrol comprising a translationally movable power rod , said servocontrol comprises a single linear electric jack provided with at least one electric motor connected by a mechanical link to the power rod , the servocontrol comprising an anchor rigidly connected to the electric jack , said at least one electric motor being controlled by a computer , characterised in that said anchor has an anchor rod that is translationally movable relative to a body of the servocontrol , said anchor having at least one anchor brake that is configured to immobilise the anchor rod relative to the electric jack in a normal operating mode (MODA, MODIA) and to allow free movement of the servocontrol by allowing the electric jack to move relative to the anchor rod in a safe operating mode (MODS) at the request of the computer . said servocontrol comprises a single linear electric jack provided with at least one electric motor connected by a mechanical link to the power rod , the servocontrol comprising an anchor rigidly connected to the electric jack , said at least one electric motor being controlled by a computer , characterised in that said anchor has an anchor rod that is translationally movable relative to a body of the servocontrol , said anchor having at least one anchor brake that is configured to immobilise the anchor rod relative to the electric jack in a normal operating mode (MODA, MODIA) and to allow free movement of the servocontrol by allowing the electric jack to move relative to the anchor rod in a safe operating mode (MODS) at the request of the computer .