mhurhangee/patent-ind-claim-en huggingface dataset:
A method for measuring the amount of an analyte in a sandwich assay using a surface plasmon excitation enhanced fluorescence spectroscopy [SPFS], wherein the sandwich assay uses a solid phase primary antibody immobilized in and outside a solid phased layer having a three dimensional structure and a lectin labeled with a fluorescent dye is used as a secondary antibody, wherein said solid phased layer comprises a polymer composed of at least one monomer selected from the group consisting of glucose; carboxymethylated glucose; and monomers contained in any of vinyl esters, acrylic acid esters, methacrylic acid esters, olefins, styrenes, crotonic acid esters, itaconic acid diesters, maleic acid diesters, fumaric acid diesters, allyl compounds, vinyl ethers and vinyl ketones; and wherein the reaction between said lectin and said analyte is carried out simultaneously with measurement of the amount of the fluorescence by the SPFS.
A mechanical X-Y planar isotropic harmonic oscillator comprising a fixed frame , a first stage comprising parallel springs (131a to 131d) holding a mass ; a second stage comprising parallel springs (132a to 132d) holding a mass , a third stage comprising parallel springs (133a to 133d) holding a mass and a fourth stage comprising parallel springs (134a to 134d) holding a mass , wherein said stages are successively located above each other such that the second stage is above the first stage , the third stage is above the second stage and the fourth stage is above the third stage ; wherein each stage is arranged with a relative anticlockwise 90° rotation with respect to the stage above which it is placed, wherein the masses of the first and second stages are attached to each other and the masses of the third and fourth stages are attached to each other; wherein two of said stages (131,134 or 132,133) are attached together to form an orbiting mass and two other of said stages (132,133 or 131,134) are attached to said fixed frame wherein the two stages forming the orbiting mass are the first and fourth stage and wherein the two stages attached to the fixed frame are the second and the third stage or wherein the two stages forming the orbiting mass are the second and third stage and wherein said two stages attached to the fixed frame are the first and the fourth stage . a first stage comprising parallel springs (131a to 131d) holding a mass ; a second stage comprising parallel springs (132a to 132d) holding a mass , a third stage comprising parallel springs (133a to 133d) holding a mass and a fourth stage comprising parallel springs (134a to 134d) holding a mass , wherein said stages are successively located above each other such that the second stage is above the first stage , the third stage is above the second stage and the fourth stage is above the third stage ; wherein each stage is arranged with a relative anticlockwise 90° rotation with respect to the stage above which it is placed, wherein the masses of the first and second stages are attached to each other and the masses of the third and fourth stages are attached to each other; wherein two of said stages (131,134 or 132,133) are attached together to form an orbiting mass and two other of said stages (132,133 or 131,134) are attached to said fixed frame wherein the two stages forming the orbiting mass are the first and fourth stage and wherein the two stages attached to the fixed frame are the second and the third stage or wherein the two stages forming the orbiting mass are the second and third stage and wherein said two stages attached to the fixed frame are the first and the fourth stage .
Apparatus comprising: a first thin-film transistor TFT (110; 210; 310; 410; 1810) comprising a first source (111; 211; 311; 411), a first gate (112; 212; 312; 412) and a first drain (113; 213; 313; 413), the first drain being configured to receive a reference current; and a second TFT (120; 210; 310; 410; 1820) comprising a second source (121; 211; 311; 411), a second gate (122; 212; 312; 412) and a second drain (123; 213; 313; 413), the first and second gates both being configured to receive the same gate voltage, characterised in that the first and second TFTs are configured such that a temperature dependence of the first TFT differs from a temperature dependence of the second TFT, such that an output current at the second TFT and the second drain is dependent on temperature. a first thin-film transistor TFT (110; 210; 310; 410; 1810) comprising a first source (111; 211; 311; 411), a first gate (112; 212; 312; 412) and a first drain (113; 213; 313; 413), the first drain being configured to receive a reference current; and a second TFT (120; 210; 310; 410; 1820) comprising a second source (121; 211; 311; 411), a second gate (122; 212; 312; 412) and a second drain (123; 213; 313; 413), the first and second gates both being configured to receive the same gate voltage, characterised in that the first and second TFTs are configured such that a temperature dependence of the first TFT differs from a temperature dependence of the second TFT, such that an output current at the second TFT and the second drain is dependent on temperature.
Monitoring device intended to be arranged on an electrical line conductor and comprising: - a protective housing , - a mechanism for hooking said housing to the line conductor , - an electronic monitoring circuit , and - a voltage measurement sensor comprising a measurement electrode connected to said electronic circuit , characterized in that it comprises a protection device surrounding the voltage measurement electrode and extending outside the housing so as to prevent rainwater from completely covering the voltage measurement electrode and/or the housing containing said electrode, said protection device comprising an electrical screen in order to stabilize electrical field variations around the voltage measurement electrode caused by external conditions, said electrical screen being intended to be electrically connected to the line conductor . - a protective housing , - a mechanism for hooking said housing to the line conductor , - an electronic monitoring circuit , and - a voltage measurement sensor comprising a measurement electrode connected to said electronic circuit ,
A temperature sensor , comprising: a first substrate having an upper surface , a first support surface elevated above the upper surface , and a second support surface elevated above the upper surface , the first support surface being spaced apart from the second support surface ; a first platinum member including a first base portion positioned on the first support surface and including a first prong and a second prong extending from the first base portion to the second support surface , the first prong and the second prong being suspended over the upper surface of the first substrate ; and a first post extending from the first support surface and restricting movement of the first base portion relative to the first support surface . a first substrate having an upper surface , a first support surface elevated above the upper surface , and a second support surface elevated above the upper surface , the first support surface being spaced apart from the second support surface ; a first platinum member including a first base portion positioned on the first support surface and including a first prong and a second prong extending from the first base portion to the second support surface , the first prong and the second prong being suspended over the upper surface of the first substrate ; and a first post extending from the first support surface and restricting movement of the first base portion relative to the first support surface .
Positioning device for cranial bone portions for relative positioning of the cranial bone portions to each other and for obtaining a predefined overall shape and overall contour to achieve a target cranial shape, with a primary body designed to support the cranial bone portions, wherein the primary body is created based on representatively individual patient data specific for the patient to be treated and supplemented by modified anatomical data, which is obtained by adjusting the statistically detected, undeformed skull shapes to deformed parts of the skull, taking into account the variations of the skull shape, wherein the primary body has a carrying structure , characterized in that the carrying structure has an intersecting line-structure.
A method for measuring anti-drug antibodies (ADAs) in an analyte to be measured, the method comprising: a step of providing a sample comprising an analyte to be measured for ADAs, the step comprising adding a corresponding drug to an analyte to be measured for ADAs to prepare a sample with a drug-ADAs immune complex formed; a step of contacting the sample prepared in step with a carrier coated with complement C1q, anti-C3d antibody, or anti-C1q antibody; a step of contacting a labeled or non-labeled anti-drug antibody specifically recognizing the drug with the coated carrier prepared in step ; and a step of quantifying the drug-ADAs immune complex binding to the complement C1q, anti-C3d antibody, or anti-C1q antibody, wherein an amount of the drug to be added in step is larger than an amount of ADAs in the analyte to be measured. a step of providing a sample comprising an analyte to be measured for ADAs, the step comprising adding a corresponding drug to an analyte to be measured for ADAs to prepare a sample with a drug-ADAs immune complex formed; a step of contacting the sample prepared in step with a carrier coated with complement C1q, anti-C3d antibody, or anti-C1q antibody; a step of contacting a labeled or non-labeled anti-drug antibody specifically recognizing the drug with the coated carrier prepared in step ; and a step of quantifying the drug-ADAs immune complex binding to the complement C1q, anti-C3d antibody, or anti-C1q antibody,
A processor device for an endoscope connectable to a specific network, the device comprising: an endoscope data transmission unit configured to: transmit first endoscope-running data to an endoscope data collection server according to claim 8 through the specific network at a first timing, wherein the first timing is set to a specific timing interval so that the first endoscope-running data continues to be transmitted at a specific timing interval during the endoscopy using an endoscope system including the endoscope, and wherein the first endoscope-running data includes at least identification information used to identify the endoscope , a light source device , and a processor body , and transmit to the endoscope data collection server through the specific network second endoscope-running data of which a volume is larger than a volume of the first endoscope-running data at a second timing, different from the first timing, when an error is generated, the error notifying the fact that at least one of the endoscope , a light source device , or a processor body included in the endoscope system does not operate normally, or the fact that an abnormal image difficult to be used for endoscopy is displayed, wherein the second endoscope-running data is device-related information related to operation information, working information, or processing information of the endoscope , the light source device , or the processor body . transmit first endoscope-running data to an endoscope data collection server according to claim 8 through the specific network at a first timing, wherein the first timing is set to a specific timing interval so that the first endoscope-running data continues to be transmitted at a specific timing interval during the endoscopy using an endoscope system including the endoscope, and wherein the first endoscope-running data includes at least identification information used to identify the endoscope , a light source device , and a processor body , and transmit to the endoscope data collection server through the specific network second endoscope-running data of which a volume is larger than a volume of the first endoscope-running data at a second timing, different from the first timing, when an error is generated, the error notifying the fact that at least one of the endoscope , a light source device , or a processor body included in the endoscope system does not operate normally, or the fact that an abnormal image difficult to be used for endoscopy is displayed, wherein the second endoscope-running data is device-related information related to operation information, working information, or processing information of the endoscope , the light source device , or the processor body .
A method of operating a first node (E) in a connection-oriented network in which there is a first working path (W1) and a second working path (W2), the method comprising: receiving signalling at the first node; causing, in response to the received signalling , the first node to allocate resources for a part of a recovery path (R1) for the first working path (W1), the resources being shared by the recovery path (R1) for the first working path (W1) and a recovery path (R2a) for the second working path (W2); storing an association between the shared resources at the first node (E) and an ingress node (A) on the first working path (W1), identified in the signalling , which should be notified when the shared resources at the first node (E) are used by the recovery path (R2a) for the second working path (W2) the method further characterized by forwarding to the ingress node (A) on the first working path notifications from individual nodes used by the recovery path for the second working path that said individual nodes are used by said recovery path for the second working path. receiving signalling at the first node; causing, in response to the received signalling , the first node to allocate resources for a part of a recovery path (R1) for the first working path (W1), the resources being shared by the recovery path (R1) for the first working path (W1) and a recovery path (R2a) for the second working path (W2); storing an association between the shared resources at the first node (E) and an ingress node (A) on the first working path (W1), identified in the signalling , which should be notified when the shared resources at the first node (E) are used by the recovery path (R2a) for the second working path (W2) the method further characterized by forwarding to the ingress node (A) on the first working path notifications from individual nodes used by the recovery path for the second working path that said individual nodes are used by said recovery path for the second working path.
A method for determining process data of a work process carried out by an implement, comprising the following steps: - determining the mass of a payload moved by the implement by means of a weighing system of the implement, - detecting at least one parameter concerning a state of the implement and/or a work step of the current work process, - determining at least one process parameter concerning the current work process by taking account of the determined payload mass and the detected parameter, - determining at least one prediction value concerning a remaining part of the current work process, and - outputting a signal based on the prediction value to the operator of the implement in order to assist the same in the execution of the current work process, wherein the output signal is or relates to a detected parameter, a determined prediction value, a payload mass moved so far, the difference of a payload mass moved so far to a defined or definable target mass and/or a specification for a payload mass to be picked up or to be moved in a future work step. - determining the mass of a payload moved by the implement by means of a weighing system of the implement, - detecting at least one parameter concerning a state of the implement and/or a work step of the current work process, - determining at least one process parameter concerning the current work process by taking account of the determined payload mass and the detected parameter, - determining at least one prediction value concerning a remaining part of the current work process, and - outputting a signal based on the prediction value to the operator of the implement in order to assist the same in the execution of the current work process, wherein the output signal is or relates to a detected parameter, a determined prediction value, a payload mass moved so far, the difference of a payload mass moved so far to a defined or definable target mass and/or a specification for a payload mass to be picked up or to be moved in a future work step.
Method for manufacturing a bismuth based pigment having an improved alkaline resistance, the method comprising: i) obtaining a dried bismuth based pigment; ii) encapsulation of the bismuth based pigment using a chelating agent; iii) final processing of the encapsulated pigment comprising a step of dispersing, milling, separating, purifying, filtering, washing, or a combination thereof; and iv) drying of the pigment. i) obtaining a dried bismuth based pigment; ii) encapsulation of the bismuth based pigment using a chelating agent; iii) final processing of the encapsulated pigment comprising a step of dispersing, milling, separating, purifying, filtering, washing, or a combination thereof; and iv) drying of the pigment.
A plug connector (1, 1"', 1""), to which a multicore cable having at least two or more individual conductors can be connected, • wherein the plug connector (1, 1"', 1"") has, on one side of an insulating body of the plug connector (1, 1"', 1""), two signal transmission means (13, 14, 13', 14', 13", 14") for contactless signal transmission, • wherein the plug connector (1, 1'", 1"") has a microchip , wherein the microchip can be electrically connected to the individual conductors and is electrically connected to the signal transmission means (13, 14, 13', 14', 13", 14"), wherein the microchip is an active microchip , which is arranged for processing and passing on incoming signals by using a multiplexing technique, wherein one signal transmission means (13, 13', 13") is provided in the form of a ring-shaped capacitor (13, 13', 13") and the other signal transmission means(14, 14', 14") is provided in the form of a circular capacitor plate (14, 14', 14"), wherein the circular capacitor plate (14, 14', 14")is arranged concentrically with the ring-shaped capacitor (13, 13', 13"), wherein the insulating body has, in side view, a shape that substantially corresponds to a "T", wherein the insulating body is, in one half of the crossbeam of the "T", folded back on itself, wherein the microchip is arranged in this folded region and lies opposite to the signal transmission means (13, 14, 13', 14', 13", 14") • wherein the plug connector (1, 1"', 1"") has, on one side of an insulating body of the plug connector (1, 1"', 1""), two signal transmission means (13, 14, 13', 14', 13", 14") for contactless signal transmission, • wherein the plug connector (1, 1'", 1"") has a microchip , wherein the microchip can be electrically connected to the individual conductors and is electrically connected to the signal transmission means (13, 14, 13', 14', 13", 14"),
A method of transmitting an acknowledgment signal in a mobile telecommunications system, the system comprising a base station and a terminal operable to communicate with the base station via a wireless interface, the wireless interface having a first frequency band and a second frequency band, wherein the first frequency band is different from the second frequency band and the method comprises: determining that, at a time t, an acknowledgment signal is to be transmitted by the base station to the terminal in the second frequency band; characterised in that when it is determined that, at the time t, a downlink signal is to be transmitted to the terminal, the downlink signal comprising a physical downlink shared channel, PDSCH, scheduled for the terminal wherein the downlink signal is to be transmitted to the terminal in the first frequency band, then transmitting a multiplexed signal by multiplexing the acknowledgment signal with the downlink signal and transmitting the multiplexed signal in the first frequency band. determining that, at a time t, an acknowledgment signal is to be transmitted by the base station to the terminal in the second frequency band; characterised in that when it is determined that, at the time t, a downlink signal is to be transmitted to the terminal, the downlink signal comprising a physical downlink shared channel, PDSCH, scheduled for the terminal wherein the downlink signal is to be transmitted to the terminal in the first frequency band, then transmitting a multiplexed signal by multiplexing the acknowledgment signal with the downlink signal and transmitting the multiplexed signal in the first frequency band.
An apparatus comprising: one or more processors configured to implement a plurality of operations for an operating system (OS) platform including a kernel and a user application; one or more memory blocks shared by the kernel and the user application; and one or more locks shared by the kernel and the user application corresponding to the shared memory blocks, wherein the user application is configured to synchronize accesses to the shared memory blocks between a user thread and a kernel thread by directly accessing the locks without using a system call to the kernel, wherein the shared memory blocks comprise a zero-copy socket that is shared between the kernel and the user application, wherein the user application shares the shared memory blocks by mapping the data of the shared memory blocks from a kernel space into a user space and operating on the mapped data, wherein the operations for the OS include a plurality of kernel threads and user threads that are categorized according to priority, and wherein the kernel threads that have higher priority are allowed to remove the locks set by the user threads that have lower priority by terminating the user threads, and wherein the shared locks are initialized in a kernel space and used by the user threads and the kernel threads. one or more processors configured to implement a plurality of operations for an operating system (OS) platform including a kernel and a user application; one or more memory blocks shared by the kernel and the user application; and one or more locks shared by the kernel and the user application corresponding to the shared memory blocks, wherein the user application is configured to synchronize accesses to the shared memory blocks between a user thread and a kernel thread by directly accessing the locks without using a system call to the kernel, wherein the shared memory blocks comprise a zero-copy socket that is shared between the kernel and the user application, wherein the user application shares the shared memory blocks by mapping the data of the shared memory blocks from a kernel space into a user space and operating on the mapped data, wherein the operations for the OS include a plurality of kernel threads and user threads that are categorized according to priority, and wherein the kernel threads that have higher priority are allowed to remove the locks set by the user threads that have lower priority by terminating the user threads, and wherein the shared locks are initialized in a kernel space and used by the user threads and the kernel threads.