mhurhangee/patent-ind-claim-en huggingface dataset:
A process for preparing two mixtures of epoxidized fatty acid esters, comprising in the order given: 1) epoxidation of a vegetable oil, followed by 2) transesterification of the epoxidized vegetable oil, followed by 3) short path distillation of the transesterified epoxidized vegetable oil, followed by 4) selection of the non-vaporized fraction of process step 3) as the first mixture of epoxidized fatty acid esters and 5) selection of the vaporized fraction of process step 3) as the second mixture of epoxidized fatty acid esters. 1) epoxidation of a vegetable oil, followed by 2) transesterification of the epoxidized vegetable oil, followed by 3) short path distillation of the transesterified epoxidized vegetable oil, followed by 4) selection of the non-vaporized fraction of process step 3) as the first mixture of epoxidized fatty acid esters and 5) selection of the vaporized fraction of process step 3) as the second mixture of epoxidized fatty acid esters.
A vehicle seat frame (F1) comprising: a seat cushion frame ; a seat back frame ; a first coupling bracket configured to couple a first cushion side frame as a side frame of the seat cushion frame on one side and a first seat back side frame as a side frame of the seat back frame on the one side; and a second coupling bracket configured to couple a second cushion side frame as a side frame of the seat cushion frame on the other side and a second seat back side frame as a side frame of the seat back frame on the other side, characterized in that the deformability upon impact absorption is different between a first weak portion provided at the first coupling bracket and a second weak portion provided at the second coupling bracket . a seat cushion frame ; a seat back frame ; a first coupling bracket configured to couple a first cushion side frame as a side frame of the seat cushion frame on one side and a first seat back side frame as a side frame of the seat back frame on the one side; and a second coupling bracket configured to couple a second cushion side frame as a side frame of the seat cushion frame on the other side and a second seat back side frame as a side frame of the seat back frame on the other side,
Auxiliary device for arranging and attaching a secondary construction comprising an anode cage in a desired position on an already present offshore primary construction comprising a foundation pile or transition piece of an offshore wind turbine, the auxiliary device comprising a peripheral support body equipped with coupling means from which it can be suspended from a hoisting means , carried into the vicinity of the primary construction , and positioned around the primary construction , wherein the support body further comprises remotely controlled tools (13, 17-19, 37), which remotely controlled tools (13, 17-19, 37) comprise: - a tool ( configured to engage the secondary construction and provide it into the desired position, and then release it in the desired position; - further tools configured for realizing an electrical and mechanical connection between the secondary and the primary construction; - positioning tools configured to position the secondary construction relative to the primary construction , and to guide the secondary construction along the primary construction ; wherein the coupling means of the auxiliary device allow, after the electrical and mechanical connection between the secondary and the primary construction has been realized by said further tools, moving the auxiliary device out of the vicinity of the primary construction by hoisting it using the hoisting means , leaving the first and second construction mutually connected. - a tool ( configured to engage the secondary construction and provide it into the desired position, and then release it in the desired position; - further tools configured for realizing an electrical and mechanical connection between the secondary and the primary construction; - positioning tools configured to position the secondary construction relative to the primary construction , and to guide the secondary construction along the primary construction ;
A method comprising: identifying a uniform resource locator, URL , indicated in a request for a first resource; parsing the URL into a plurality of substrings; based on evaluating the plurality of substrings, determining a representative token with which to replace a first substring of the plurality of substrings of the URL ; generating a representative pattern for the URL based on replacing the first substring in the URL with the representative token; determining if a pattern which matches the representative pattern can be identified among a plurality of patterns previously generated from known malicious URLs; and based on identifying a first pattern of the plurality of patterns which at least partially matches the representative pattern, indicating that the URL is malicious. identifying a uniform resource locator, URL , indicated in a request for a first resource; parsing the URL into a plurality of substrings; based on evaluating the plurality of substrings, determining a representative token with which to replace a first substring of the plurality of substrings of the URL ; generating a representative pattern for the URL based on replacing the first substring in the URL with the representative token; determining if a pattern which matches the representative pattern can be identified among a plurality of patterns previously generated from known malicious URLs; and based on identifying a first pattern of the plurality of patterns which at least partially matches the representative pattern, indicating that the URL is malicious.
An article of clothing comprising a knitted clothing fabric comprising through holes that pass through the fabric in a thickness direction and arranged along a direction of a wearer's height, wherein a water-repellent or hydrophobic region is arranged at least at part of the fabric in contact with the through holes , and a hydrophilic region is arranged at the other portions, wherein the through holes are arrayed along a warp direction of the fabric , knitted fabric portions using hydrophilic fiber yarn are thick and knitted fabric portions using water-repellent or hydrophobic fiber yarn are thin, so that groove portions are formed in the direction along which the through holes are arrayed, holes that pass through the fabric in a thickness direction and arranged along a direction of a wearer's height, wherein a water-repellent or hydrophobic region is arranged at least at part of the fabric in contact with the through holes , and a hydrophilic region is arranged at the other portions, wherein the through holes are arrayed along a warp direction of the fabric , knitted fabric portions using hydrophilic fiber yarn are thick and knitted fabric portions using water-repellent or hydrophobic fiber yarn are thin, so that groove portions are formed in the direction along which the through holes are arrayed,
A method, comprising: receiving, by a first device from a second device, configuration information for resource-saving transmission; determining, by the first device, that the resource-saving transmission is to be used to transmit data over one or more of a plurality of subbands where listen-before-talk, LBT, succeeds in at least one of the plurality of subbands and LBT fails in at least one other of the plurality of subbands in an unlicensed spectrum, according to the received configuration information for resource-saving transmission; receiving, by a higher layer of the first device from a lower layer of the first device, an indication of a LBT failure in a subband of the plurality of subbands; determining, by the higher layer of the first device, the data to be transmitted over the plurality of subbands, according to the indication of the LBT failure; and performing, by the higher layer, the resource-saving transmission to transmit the data over the plurality of subbands. receiving, by a first device from a second device, configuration information for resource-saving transmission; determining, by the first device, that the resource-saving transmission is to be used to transmit data over one or more of a plurality of subbands where listen-before-talk, LBT, succeeds in at least one of the plurality of subbands and LBT fails in at least one other of the plurality of subbands in an unlicensed spectrum, according to the received configuration information for resource-saving transmission; receiving, by a higher layer of the first device from a lower layer of the first device, an indication of a LBT failure in a subband of the plurality of subbands; determining, by the higher layer of the first device, the data to be transmitted over the plurality of subbands, according to the indication of the LBT failure; and performing, by the higher layer, the resource-saving transmission to transmit the data over the plurality of subbands.
A method in an access device for use in synchronization, comprising: - transmitting (S310), to a terminal device , information relating to transmitted Synchronization Signal, SS, blocks, the method being characterized in that the information indicates at least one of: - a range for the number of transmitted beams; or - a range for each SS burst duration. - transmitting (S310), to a terminal device , information relating to transmitted Synchronization Signal, SS, blocks, - a range for the number of transmitted beams; or - a range for each SS burst duration.
A method for monitoring a structure , which separates a first medium from a second medium , wherein a) the first medium exerts a higher pressure on the structure than the second medium and b1) wherein at least one first sensor on the higher pressure side and b2) at least one second sensor on the lower pressure side each capture at least one physical quantity concerning this structure , c) wherein a dependency in terms of a physical correlation exists between these physical quantities and relates to a real transfer function, and wherein one computing device transmits respective measured values concerning the corresponding physical quantities, wherein d) on the basis of the measured value of the first sensor a data value of the second sensor is modeled by using a linear transfer function model , based on regression data sets , prediction data sets and mean value data sets , wherein the prediction data sets are generated based on both the measured values of the first and second sensor from the past and their chronological sequence; e) wherein the modeled data value and the measured value of the second sensor are used for assessment of the structure ; f) wherein from a comparison of the prediction data set with the measured values of the at least one second sensor a deviation is determined and wherein the comparison is conducted in time-steps . a) the first medium exerts a higher pressure on the structure than the second medium and b1) wherein at least one first sensor on the higher pressure side and b2) at least one second sensor on the lower pressure side each capture at least one physical quantity concerning this structure , c) wherein a dependency in terms of a physical correlation exists between these physical quantities and relates to a real transfer function, and wherein one computing device transmits respective measured values concerning the corresponding physical quantities, wherein d) on the basis of the measured value of the first sensor a data value of the second sensor is modeled by using a linear transfer function model , based on regression data sets , prediction data sets and mean value data sets , wherein the prediction data sets are generated based on both the measured values of the first and second sensor from the past and their chronological sequence; e) wherein the modeled data value and the measured value of the second sensor are used for assessment of the structure ; f) wherein from a comparison of the prediction data set with the measured values of the at least one second sensor a deviation is determined and wherein the comparison is conducted in time-steps .
Control arrangement for the operation of a motor vehicle locking system , wherein the motor vehicle locking system has an electric drive having an electric drive motor , wherein the electric drive is fed, during normal operation, by a normal supply voltage in order to provide a motorized locking function for an adjustable closing element of the motor vehicle , wherein the control arrangement has an energy storage arrangement having at least one energy store in the form of a capacitor , wherein the energy storage arrangement provides an electrical emergency supply voltage (U N ) for the electric drive in an emergency operating mode, in particular in the event of failure of the normal supply voltage, wherein the energy storage arrangement has at least one boost stage , which is connected downstream of the energy store to generate the emergency supply voltage (U N ), wherein the boost stage boosts an electrical input voltage at an input of the boost stage into an electrical output voltage at an output of the boost stage , characterized in that the energy storage arrangement , to generate the emergency supply voltage (U N ), has a first boost stage connected downstream of the energy store for generating the emergency supply voltage (U N ) and a second boost stage connected downstream of the first boost stage . wherein the control arrangement has an energy storage arrangement having at least one energy store in the form of a capacitor , wherein the energy storage arrangement provides an electrical emergency supply voltage (U N ) for the electric drive in an emergency operating mode, in particular in the event of failure of the normal supply voltage, wherein the energy storage arrangement has at least one boost stage , which is connected downstream of the energy store to generate the emergency supply voltage (U N ), wherein the boost stage boosts an electrical input voltage at an input of the boost stage into an electrical output voltage at an output of the boost stage , characterized in that the energy storage arrangement , to generate the emergency supply voltage (U N ), has a first boost stage connected downstream of the energy store for generating the emergency supply voltage (U N ) and a second boost stage connected downstream of the first boost stage .
A method for diagnosing heart failure risk in a subject, comprising: a. obtaining the subject's simplified model factors, wherein the simplified model factors are age, race, and gender. b. obtaining the amount of cardiac Troponin T (cTnT) and NT-pro B-type natriuretic peptide (NT-proBNP) in a biological sample obtained from the subject; c. obtaining a score based on the amount of cTnT and NT-proBNP in the biological sample obtained from the subject and the subject's simplified model factors; d. obtaining the alignment value of the score compared to a clinical model score; and e. providing a diagnosis of heart failure risk if the alignment value exceeds a threshold. a. obtaining the subject's simplified model factors, wherein the simplified model factors are age, race, and gender. b. obtaining the amount of cardiac Troponin T (cTnT) and NT-pro B-type natriuretic peptide (NT-proBNP) in a biological sample obtained from the subject; c. obtaining a score based on the amount of cTnT and NT-proBNP in the biological sample obtained from the subject and the subject's simplified model factors; d. obtaining the alignment value of the score compared to a clinical model score; and e. providing a diagnosis of heart failure risk if the alignment value exceeds a threshold.
A user terminal which protects a core code of an application program, the user terminal comprising: a communication unit configured to communicate with a peripheral through a short-range wireless communication such as Bluetooth, ZigBee, an infrared data association module, or the like, or by wire, and to receive a core code file of the application program by using the short-range wireless communication or the wired communication from the peripheral which stores the core code file when the core code of the application program is authenticated; an encryption-decryption unit configured to encrypt the received core code file and transmit it to the peripheral , and to receive the encrypted core code file from the peripheral and decrypt it when the application program is executed; and an execution unit configured to execute the application program by using the decrypted core code file and a general code file of the application program installed in the user terminal . a communication unit configured to communicate with a peripheral through a short-range wireless communication such as Bluetooth, ZigBee, an infrared data association module, or the like, or by wire, and to receive a core code file of the application program by using the short-range wireless communication or the wired communication from the peripheral which stores the core code file when the core code of the application program is authenticated; an encryption-decryption unit configured to encrypt the received core code file and transmit it to the peripheral , and to receive the encrypted core code file from the peripheral and decrypt it when the application program is executed; and an execution unit configured to execute the application program by using the decrypted core code file and a general code file of the application program installed in the user terminal .
A light-receiving element comprising a substrate having thereon an amplification layer containing silicon (Si), an absorption layer containing germanium (Ge) and an antireflection layer laminated in this order, wherein the amplification layer has an n-doped n-Si layer and a p-doped p-Si layer on the substrate in this order; the absorption layer contains a p-doped p + -Ge layer ; wherein the absorption layer contains an i-Ge layer which is an intrinsic region, and the i-Ge layer and the p-Ge layer are laminated on the amplification layer in this order characterized in that the absorption layer contains a second p-Ge layer between the i-Ge layer and the amplification layer.
A service robot , comprising: a robot main body ; a robot housing , the robot main body being arranged in the robot housing , and the robot housing being configured to be fixed on the robot main body by means of a fastener; and a shielding structure being configured to be fit on the robot housing to block the fastener, characterized in that the shielding structure comprises a second shielding member , the robot housing has a display through-hole , the service robot further has a front display , the front display faces directly the display through-hole , an inner wall of the display through-hole is connected with a fixed edge extending to the inside of the robot housing , the fixed edge is configured to be fastened with the robot main body by means of the fastener, and the second shielding member is configured to be fitted with the display through-hole to shield the fixed edge and the fastener. a robot main body ; a robot housing , the robot main body being arranged in the robot housing , and the robot housing being configured to be fixed on the robot main body by means of a fastener; and a shielding structure being configured to be fit on the robot housing to block the fastener, characterized in that the shielding structure comprises a second shielding member , the robot housing has a display through-hole , the service robot further has a front display , the front display faces directly the display through-hole , an inner wall of the display through-hole is connected with a fixed edge extending to the inside of the robot housing , the fixed edge is configured to be fastened with the robot main body by means of the fastener, and the second shielding member is configured to be fitted with the display through-hole to shield the fixed edge and the fastener.
Device for transforming energy, in which incident solar radiation is transformed both into electric current and into heat and also in which the electric current is generated by at least one solar cell which is designed as a combination of elements or supports and connecting elements and is provided with electrical contact-making means, and also in which at least one channel for conducting a fluid, for example refrigerant, for heat transfer is arranged in the region of the respective elements or the supports , wherein the elements or the supports are designed as a plug-in module, wherein the plug-in module is provided both with at least one cooling channel and with at least one electrical contact and wherein at least two plug-in modules are joined in a longitudinal direction, wherein both the cooling bores and the electrical contact-making means are joined by being pushed together in the longitudinal direction in one working step, wherein at least one socket and at least one projection which is matched to the socket are used for coupling the channels , wherein the sockets are arranged as bores in the elements or supports , wherein the elements or supports have steps, wherein lateral overlappings of the elements or supports with the connecting elements are realized and wherein overlapping laying of the elements or the supports in the longitudinal direction is realized by the steps , wherein the lateral overlappings of the elements or supports with the connecting elements are realized by profilings in the region of longitudinal sides of the elements or the supports , and wherein the connecting elements are arranged for establishing a connection between elements or supports arranged next to each other, wherein the connecting elements are designed in a manner corresponding to the profiled configurations of the elements or supports in the region of their longitudinal sides , and wherein the steps form stop edges, and wherein the elements or supports have at least one projection or at least one U-profile for assisting fastening.
A computer-implemented method for determining a degree of blurring to be applied to image data in a privacy area of an image, the image depicting a scene and being captured by an image capturing device , the method comprising the steps of: receiving (S702) input relating to coordinates of the privacy area of the image; receiving (S704) input relating to a threshold spatial resolution of image data corresponding to content of the scene located beyond a threshold distance from the image capturing device in the scene, said image data being within the privacy area of the image; calculating (S706) a maximum spatial resolution of the image data of the image corresponding to content of the scene located on or beyond the threshold distance from the image capturing device; calculating (S708) a difference (306a-c) between the maximum spatial resolution and the threshold spatial resolution; determining (S710) a degree of blurring based on the calculated difference, such that for a first difference being larger than a second difference, the degree of blurring determined based on the first difference is larger than the degree of blurring determined for the second difference; applying (S712) the degree of blurring to the image data in the privacy area of the image. receiving (S702) input relating to coordinates of the privacy area of the image; receiving (S704) input relating to a threshold spatial resolution of image data corresponding to content of the scene located beyond a threshold distance from the image capturing device in the scene, said image data being within the privacy area of the image; calculating (S706) a maximum spatial resolution of the image data of the image corresponding to content of the scene located on or beyond the threshold distance from the image capturing device; calculating (S708) a difference (306a-c) between the maximum spatial resolution and the threshold spatial resolution; determining (S710) a degree of blurring based on the calculated difference, such that for a first difference being larger than a second difference, the degree of blurring determined based on the first difference is larger than the degree of blurring determined for the second difference; applying (S712) the degree of blurring to the image data in the privacy area of the image.