mhurhangee/ep-ind-claims huggingface dataset:
A method of protecting memory assets in an integrated circuit, the method comprising: sampling a value of each of a plurality of one-time programmable memory arrays (124, 128); comparing the sampled value of each OTP memory array of the plurality of OTP memory arrays with the sampled value of each other OTP memory array of the plurality of OTP memory arrays and with an unprogrammed OTP memory array value wherein the unprogrammed OTP memory array value corresponds to n bits all of a same logic value associated with an as-manufactured OTP memory array, n being a number of memory devices in each of the plurality of OTP memory arrays; determining that an integrated circuit performance fault has occurred if the sampled value of each OTP memory array is equal to the unprogrammed OTP memory array value; and operating the integrated circuit with access to memory (184, 188) determined by the fault occurrence determination. sampling a value of each of a plurality of one-time programmable memory arrays (124, 128); comparing the sampled value of each OTP memory array of the plurality of OTP memory arrays with the sampled value of each other OTP memory array of the plurality of OTP memory arrays and with an unprogrammed OTP memory array value wherein the unprogrammed OTP memory array value corresponds to n bits all of a same logic value associated with an as-manufactured OTP memory array, n being a number of memory devices in each of the plurality of OTP memory arrays; determining that an integrated circuit performance fault has occurred if the sampled value of each OTP memory array is equal to the unprogrammed OTP memory array value; and operating the integrated circuit with access to memory (184, 188) determined by the fault occurrence determination.
A method of performing tomographic imaging of a sample in a charged-particle microscope, comprising the following steps: - Providing a beam of charged particles; - Providing the sample on a sample holder that can be tilted relative to said beam; - Directing the beam through the sample and so as to form an image of the sample at an image detector; - Repeating this procedure at each of a first series of sample tilts so as to acquire a corresponding set of images; - Mathematically combining images from said set so as to construct a composite image; - Selecting a second series of sample tilts; - At each of said second series of sample tilts, using a spectral detector to accrue a spectral map of said sample, thus acquiring a collection of spectral maps; - Analyzing said spectral maps to derive compositional data pertaining to the sample, characterized by: - Employing said compositional data together with said images in a hybrid sinogram in constructing said composite image. - Providing a beam of charged particles; - Providing the sample on a sample holder that can be tilted relative to said beam; - Directing the beam through the sample and so as to form an image of the sample at an image detector; - Repeating this procedure at each of a first series of sample tilts so as to acquire a corresponding set of images; - Mathematically combining images from said set so as to construct a composite image; - Selecting a second series of sample tilts; - At each of said second series of sample tilts, using a spectral detector to accrue a spectral map of said sample, thus acquiring a collection of spectral maps; - Analyzing said spectral maps to derive compositional data pertaining to the sample, characterized by: - Employing said compositional data together with said images in a hybrid sinogram in constructing said composite image. - Employing said compositional data together with said images in a hybrid sinogram in constructing said composite image.
A method in a first wireless device for enabling a second wireless device to synchronize timing of the second wireless device to a timing derived from the first wireless device, the method comprising: transmitting a primary device to device synchronization signal, PD2DSS to the second wireless device; and transmitting a secondary device-to-device synchronization signal, SD2DSS, to the second wireless device, where the power of the SD2DSS is set to be less than the power of the PD2DSS. transmitting a primary device to device synchronization signal, PD2DSS to the second wireless device; and transmitting a secondary device-to-device synchronization signal, SD2DSS, to the second wireless device, where the power of the SD2DSS is set to be less than the power of the PD2DSS.
A method for producing a bio-cellulose sheet without a supporting means, the method comprising: preparing a cellulose material comprising coconut; immersing the cellulose material in a culture medium, and inoculating the immersed cellulose material with a strain, thereby producing bio-cellulose; slicing the bio-cellulose to a predetermined thickness; sterilizing the bio-cellulose; soaking the sterilized bio-cellulose in a preservative comprising a plant extract; and dehydrating the preservative-soaked bio-cellulose, and pressing and cutting the dehydrated bio-cellulose without a supporting means. preparing a cellulose material comprising coconut; immersing the cellulose material in a culture medium, and inoculating the immersed cellulose material with a strain, thereby producing bio-cellulose; slicing the bio-cellulose to a predetermined thickness; sterilizing the bio-cellulose; soaking the sterilized bio-cellulose in a preservative comprising a plant extract; and dehydrating the preservative-soaked bio-cellulose, and pressing and cutting the dehydrated bio-cellulose without a supporting means.
An immunoconjugate comprising a humanized anti-ADAM9 antibody or ADAM9-binding fragment thereof that specifically binds to human ADAM9 and cyno ADAM9: wherein said humanized anti-ADAM9 antibody or ADAM9-binding fragment thereof is conjugated to a pharmacological agent; and wherein said humanized anti-ADAM9 antibody or ADAM9-binding fragment thereof comprises a Light Chain Variable Domain and a Heavy Chain Variable Domain, wherein said Heavy Chain Variable Domain comprises a CDR H 1 Domain, a CDR H 2 Domain and a CDR H 3 Domain, and said Light Chain Variable Domain comprises a CDR L 1 Domain, a CDR L 2 Domain, and a CDR L 3 Domain, wherein: said CDR H 1 Domain comprises the amino acid sequence of SEQ ID NO:8 or SEQ ID NO:34; and said CDR H 2 Domain comprises the amino acid sequence of SEQ ID NO: 9, SEQ ID NO:35 or SEQ ID NO:36; and said CDR H 3 Domain comprises amino acid sequence of any one of SEQ ID NO:37, SEQ ID NO:38, SEQ ID NO:39, SEQ ID NO:40, SEQ ID NO:41, SEQ ID NO:42, SEQ ID NO:43, SEQ ID NO:44, SEQ ID NO:45 or SEQ ID NO:46; and wherein: said CDR L 1 Domain has the amino acid sequence of SEQ ID NO:12, SEQ ID NO:62, SEQ ID NO:63, or SEQ ID NO:64; and said CDR L 2 Domain has the amino acid sequence of SEQ ID NO:13; and said CDR L 3 Domain has the amino acid sequence of SEQ ID NO:14 or SEQ ID NO:65. wherein said humanized anti-ADAM9 antibody or ADAM9-binding fragment thereof is conjugated to a pharmacological agent; and wherein said humanized anti-ADAM9 antibody or ADAM9-binding fragment thereof comprises a Light Chain Variable Domain and a Heavy Chain Variable Domain, wherein said Heavy Chain Variable Domain comprises a CDR H 1 Domain, a CDR H 2 Domain and a CDR H 3 Domain, and said Light Chain Variable Domain comprises a CDR L 1 Domain, a CDR L 2 Domain, and a CDR L 3 Domain, wherein: said CDR H 1 Domain comprises the amino acid sequence of SEQ ID NO:8 or SEQ ID NO:34; and said CDR H 2 Domain comprises the amino acid sequence of SEQ ID NO: 9, SEQ ID NO:35 or SEQ ID NO:36; and said CDR H 3 Domain comprises amino acid sequence of any one of SEQ ID NO:37, SEQ ID NO:38, SEQ ID NO:39, SEQ ID NO:40, SEQ ID NO:41, SEQ ID NO:42, SEQ ID NO:43, SEQ ID NO:44, SEQ ID NO:45 or SEQ ID NO:46; and wherein: said CDR L 1 Domain has the amino acid sequence of SEQ ID NO:12, SEQ ID NO:62, SEQ ID NO:63, or SEQ ID NO:64; and said CDR L 2 Domain has the amino acid sequence of SEQ ID NO:13; and said CDR L 3 Domain has the amino acid sequence of SEQ ID NO:14 or SEQ ID NO:65. said CDR H 1 Domain comprises the amino acid sequence of SEQ ID NO:8 or SEQ ID NO:34; and said CDR H 2 Domain comprises the amino acid sequence of SEQ ID NO: 9, SEQ ID NO:35 or SEQ ID NO:36; and said CDR H 3 Domain comprises amino acid sequence of any one of SEQ ID NO:37, SEQ ID NO:38, SEQ ID NO:39, SEQ ID NO:40, SEQ ID NO:41, SEQ ID NO:42, SEQ ID NO:43, SEQ ID NO:44, SEQ ID NO:45 or SEQ ID NO:46; and said CDR L 1 Domain has the amino acid sequence of SEQ ID NO:12, SEQ ID NO:62, SEQ ID NO:63, or SEQ ID NO:64; and said CDR L 2 Domain has the amino acid sequence of SEQ ID NO:13; and said CDR L 3 Domain has the amino acid sequence of SEQ ID NO:14 or SEQ ID NO:65.
A robot cleaner comprising: a main body; a driving unit configured to move the main body; a sensing unit configured to sense information related to an obstacle; and a controller configured to control the driving unit to prevent collision of the main body with the obstacle, characterized in that the controller is configured to operate a stopping process based on a distance between the main body and the obstacle after the information related to the obstacle is sensed, and the controller is configured to control the driving unit to reverse the main body with respect to the obstacle so as to prevent the collision of the main body with the obstacle, based on the distance between the main body and the obstacle, after the stopping process is completed. a main body; a driving unit configured to move the main body; a sensing unit configured to sense information related to an obstacle; and a controller configured to control the driving unit to prevent collision of the main body with the obstacle, characterized in that the controller is configured to operate a stopping process based on a distance between the main body and the obstacle after the information related to the obstacle is sensed, and the controller is configured to control the driving unit to reverse the main body with respect to the obstacle so as to prevent the collision of the main body with the obstacle, based on the distance between the main body and the obstacle, after the stopping process is completed.
An axial compressor, including at least one rotor and at least one stator, the rotor being disposed upstream of the stator in relation to a main flow in the compressor, comprising a device for redirecting a leakage current flowing between the stator and the rotor, having the following features: a sealing element; an outlet opening disposed on the rotor; and a guide (116, 132) configured to direct the leakage current past the sealing element to the outlet opening, characterized in that the sealing element is a sealing element for interrupting the leakage current. a sealing element; an outlet opening disposed on the rotor; and a guide (116, 132) configured to direct the leakage current past the sealing element to the outlet opening, characterized in that the sealing element is a sealing element for interrupting the leakage current.
A computer implemented method comprising: identifying a real-world object in a scene viewed by a camera of a user device; matching the real-world object with a tagged object based at least in part on image recognition and a sharing setting that has been assigned to the tagged object, the tagged object having been tagged with a content item that is distinct from the sharing setting; providing a notification to a user of the user device that the content item is associated with the real-world object; receiving a request from the user for the content item; and providing the content item to the user. identifying a real-world object in a scene viewed by a camera of a user device; matching the real-world object with a tagged object based at least in part on image recognition and a sharing setting that has been assigned to the tagged object, the tagged object having been tagged with a content item that is distinct from the sharing setting; providing a notification to a user of the user device that the content item is associated with the real-world object; receiving a request from the user for the content item; and providing the content item to the user.
A method of integrating virtual and physical network switching devices into a heterogeneous switching domain, characterized by comprising: attaching, by a first switching device, an enhanced header to a packet received from a virtual machine (240A, 240B) linked to the first switching device, wherein the enhanced header includes domain information describing a component of the heterogeneous switching domain and processing to be applied to the packet by components of the heterogeneous switching domain, and wherein the first switching device is a first virtual switching device; processing the packet by the first switching device, wherein the processing is controlled by the enhanced header, and wherein the processing comprises offloading a portion of the packet processing to a switching accelerator engine; and forwarding the processed packet to a physical switching device (130A, 110), wherein the forwarding is controlled by the enhanced header. attaching, by a first switching device, an enhanced header to a packet received from a virtual machine (240A, 240B) linked to the first switching device, wherein the enhanced header includes domain information describing a component of the heterogeneous switching domain and processing to be applied to the packet by components of the heterogeneous switching domain, and wherein the first switching device is a first virtual switching device; processing the packet by the first switching device, wherein the processing is controlled by the enhanced header, and wherein the processing comprises offloading a portion of the packet processing to a switching accelerator engine; and forwarding the processed packet to a physical switching device (130A, 110), wherein the forwarding is controlled by the enhanced header.
An unmanned aircraft produced for a single flight having a drive unit for enabling the flight of the aircraft in air space and having a flight control unit, which is configured to receive control information from a radio remote control or to control positions of the aircraft in air space that are characterized by stored position information in order to control the flight course of the aircraft, characterized in that there is provided a modular swarm control unit formed only within a housing, which has a first interface with the flight control unit and a second radio interface with a swarm ground control unit or with swarm control units of other aircrafts, wherein the swarm control unit has signal generating means for generating or sending means for sending control information corresponding to the radio remote control and is configured to output, via the first interface, swarm control information relevant for the swarm formation flight of at least two aircrafts to the flight control unit.
A multi-point fuel injection device for an aircraft engine, comprising: - an intake line, at least two injection lines (11, 12) and a purge line, - a fuel distributor connected to each line and comprising a movable element which includes an injection passage, wherein the movable element further includes a purge passage and is configured to assume: - a first range of positions wherein the injection passage interconnects the intake line and the injection lines (11, 12), and - a second range of positions wherein the injection passage interconnects the intake line and at least one first injection line while the purge passage interconnects the purge line and at least a second injection line, the device being characterized in that it further comprises - an actuator suitable for moving the movable element, - a position sensor configured to measure a position of the movable element, - a controller suitable for receiving the position measured by the sensor, to control the movement of the movable element by the actuator based on a distribution command and a purge command in such a way as to move the movable element into a safety position upon detecting a failure of the fuel distributor, the injection passage interconnecting, in said safety position of the movable element, the intake line and at least one of the injection lines while the purge passage does not interconnect the purge line with any of the injection lines. - an intake line, at least two injection lines (11, 12) and a purge line, - a fuel distributor connected to each line and comprising a movable element which includes an injection passage, - a first range of positions wherein the injection passage interconnects the intake line and the injection lines (11, 12), and - a second range of positions wherein the injection passage interconnects the intake line and at least one first injection line while the purge passage interconnects the purge line and at least a second injection line, - an actuator suitable for moving the movable element, - a position sensor configured to measure a position of the movable element, - a controller suitable for receiving the position measured by the sensor, to control the movement of the movable element by the actuator based on a distribution command and a purge command in such a way as to move the movable element into a safety position upon detecting a failure of the fuel distributor, the injection passage interconnecting, in said safety position of the movable element, the intake line and at least one of the injection lines while the purge passage does not interconnect the purge line with any of the injection lines.
An injection molding press for molding preforms, which comprises a supporting footing for a molding device which comprises a fixed mold part and a movable mold part, said movable mold part being supported so that it can slide along a movement direction with respect to the footing in order to pass on command between a condition in which it is close to the fixed mold part, in which it cooperates with said fixed mold part to define the injection cavities of said preforms and in which said molding device is in the closed condition, and a spaced-apart condition, in which said molding device is in the open condition, said movable mold part being associated with an extraction plate configured to perform the operations to extract said preforms from said mold parts (4, 5) with said molding device in the open condition, a hydraulic actuation circuit being provided which is configured to actuate at least one actuator associated with said extraction plate and/or said movable mold part, said movable mold part comprising a plurality of plungers which define respective male elements which cooperate with respective female elements supported by said fixed mold part in order to define respective molding cavities of said preforms, characterized in that said plunger elements are associated with means for movement on command for their movement, when said molding device is in the closed condition, along a direction that is substantially parallel to the movement direction of said movable mold part, said means for movement on command of said plungers comprising a hydraulic actuation unit connected to said hydraulic actuation circuit.
A polymeric conjugate having the structure V: wherein: POLY is a polyethylene glycol which may contain a linker moiety linking it to (CR 2 R 3) m; R 1 is selected from H, alkyl, hydroxyalkyl, and alkoxyalkyl; m is 0 - 12; and each R 2 and R 3 is independently selected from H, alkyl, alkylene, hydroxy, amino, alkoxy, hydroxyalkyl, alkoxyalkyl, alkoxyalkylene, aminoalkyl, iminoalkyl, carboxylic acid, alkylcarboxylic acid, phosphate, alkylphosphate, and a further water soluble polymer, wherein at most one R 2 or R 3 group is a water soluble polymer, and wherein two substituents R 2 and R 3 in -(CR 2 R 3) m - can together form a ring, and -NH-B represents the residue of an amine-containing biologically active compound. POLY is a polyethylene glycol which may contain a linker moiety linking it to (CR 2 R 3) m; R 1 is selected from H, alkyl, hydroxyalkyl, and alkoxyalkyl; m is 0 - 12; and each R 2 and R 3 is independently selected from H, alkyl, alkylene, hydroxy, amino, alkoxy, hydroxyalkyl, alkoxyalkyl, alkoxyalkylene, aminoalkyl, iminoalkyl, carboxylic acid, alkylcarboxylic acid, phosphate, alkylphosphate, and a further water soluble polymer, wherein at most one R 2 or R 3 group is a water soluble polymer, and wherein two substituents R 2 and R 3 in -(CR 2 R 3) m - can together form a ring, and -NH-B represents the residue of an amine-containing biologically active compound.
Electric switch, in particular an electric circuitbreaker, having a switch housing, a rotor housing that can be turned to an ON and an OFF position, and at least one electric contact arm (50, 51) that is mounted rotatably in the rotor housing and can be swivelled jointly with as well as relatively to the rotor housing, wherein with a rotor housing in its ON position the contact arm (50, 51) can be swivelled to an OFF position, characterised by a display element that is coupled indirectly or directly to the rotor housing and which, independently of a respective actual position of the contact arm (50, 51), in one display position indicates the ON position of the rotor housing, in which position the display element projects from the switch housing, and in another display position indicates the OFF position of the rotor housing, in which position the display element does not project from the switch housing. at least one electric contact arm (50, 51) that is mounted rotatably in the rotor housing and can be swivelled jointly with as well as relatively to the rotor housing, wherein with a rotor housing in its ON position the contact arm (50, 51) can be swivelled to an OFF position, characterised by a display element that is coupled indirectly or directly to the rotor housing and which, independently of a respective actual position of the contact arm (50, 51), in one display position indicates the ON position of the rotor housing, in which position the display element projects from the switch housing, and in another display position indicates the OFF position of the rotor housing, in which position the display element does not project from the switch housing.
A liposome composition comprising: a first liposome having an outer membrane comprised of a multilayered lipid bilayer; and a plurality of second liposomes accommodated in a first liposome inner region defined by the outer membrane, the second liposomes each having an outer membrane comprised of a multilayered lipid bilayer, wherein the liposome composition has second liposome inner regions each defined by the outer membrane of each of the second liposomes, and an ion gradient is formed at least between each of the second liposome inner regions and the outside of the first liposome, wherein lipid membranes of the first liposome and the second liposomes are each comprised of lipid including phospholipid and cholesterol, and wherein the liposome composition is prepared as defined in claim 11. a first liposome having an outer membrane comprised of a multilayered lipid bilayer; and a plurality of second liposomes accommodated in a first liposome inner region defined by the outer membrane, the second liposomes each having an outer membrane comprised of a multilayered lipid bilayer, wherein the liposome composition has second liposome inner regions each defined by the outer membrane of each of the second liposomes, and an ion gradient is formed at least between each of the second liposome inner regions and the outside of the first liposome,