mhurhangee/ep-ind-claims huggingface dataset:
A monitor device for monitoring a lighting arrangement of lighting elements of unknown electrical load, wherein the lighting arrangement is associated with a switch arrangement for coupling a DC voltage to the lighting arrangement, wherein the switch arrangement comprises a set of switches, each of which is for connection to a sub-set (2a-2e) of the lighting elements, wherein the monitor device comprises: a controller for providing control signals for controlling the switch arrangement using pulse width modulation, wherein the controller is adapted to: apply a set of duty cycles to the set of switches at the same time thereby to create a user-selected light output; monitor a current to the lighting arrangement at a plurality of times within an individual duty cycle period thereby to detect a plurality of current plateaus within the duty cycle period; determine a power consumption of the lighting arrangement based on the detected current plateaus and the set of duty cycles; and adjust the duty cycles according to the detected current plateaus. a controller for providing control signals for controlling the switch arrangement using pulse width modulation, wherein the controller is adapted to: apply a set of duty cycles to the set of switches at the same time thereby to create a user-selected light output; monitor a current to the lighting arrangement at a plurality of times within an individual duty cycle period thereby to detect a plurality of current plateaus within the duty cycle period; determine a power consumption of the lighting arrangement based on the detected current plateaus and the set of duty cycles; and adjust the duty cycles according to the detected current plateaus. apply a set of duty cycles to the set of switches at the same time thereby to create a user-selected light output; monitor a current to the lighting arrangement at a plurality of times within an individual duty cycle period thereby to detect a plurality of current plateaus within the duty cycle period; determine a power consumption of the lighting arrangement based on the detected current plateaus and the set of duty cycles; and adjust the duty cycles according to the detected current plateaus.
A method of automatically tracing food items transported by a transporting means, comprising: • acquiring at least one first attribute data for said food items at at least one first position and associate the acquired at least one first attribute data to the food items, • acquiring at least one second attribute data of same or comparable type(s) as said at least first attribute data for said food items at at least one second position and associate the acquired at least one second attribute data to the food items, • performing a correlation between said at least one first attribute data and said at least one second attribute data for said food items, where a match between at least one first attribute data and at least one second attribute data indicates that the food item having said associated at least one first attribute data and the food item having said associated at least one second attribute data is one and the same food item, wherein said step of performing said correlation between said at least one first attribute data and said at least one second attribute data for said food items is performed within a pre-defined correlation window around an estimated arrival point at said at least one second position, characterized in that said second attribute data further includes a correction factor correcting for predicted deviations in the attribute data for the food items from said first position until the food items reach said second position. • acquiring at least one first attribute data for said food items at at least one first position and associate the acquired at least one first attribute data to the food items, • acquiring at least one second attribute data of same or comparable type(s) as said at least first attribute data for said food items at at least one second position and associate the acquired at least one second attribute data to the food items, • performing a correlation between said at least one first attribute data and said at least one second attribute data for said food items, where a match between at least one first attribute data and at least one second attribute data indicates that the food item having said associated at least one first attribute data and the food item having said associated at least one second attribute data is one and the same food item, wherein said step of performing said correlation between said at least one first attribute data and said at least one second attribute data for said food items is performed within a pre-defined correlation window around an estimated arrival point at said at least one second position, characterized in that said second attribute data further includes a correction factor correcting for predicted deviations in the attribute data for the food items from said first position until the food items reach said second position.
A wind power generation facility, comprising: a wind farm including a plurality of wind turbine generators each of which includes a synchronous generator; a local grid to which the wind farm is connected; a direct-current transmission channel disposed between the local grid and a grid; a sending end converter for converting alternate current from the local grid into direct current and supplying the direct current to the direct-current transmission channel; a receiving end converter for converting the direct current from the direct-current transmission channel into alternate current and supplying the alternate current to the grid; an abnormality detection part for detecting an abnormal event of the grid; and characterized in that it comprises a first WF controller for controlling the sending end converter and adjusting a local-grid voltage phase (D SEC) of the local grid so as to reduce a load angle (D i) which indicates a difference between a generator voltage phase (d i) of the synchronous generator of each wind turbine generator and the local-grid voltage phase (D SEC), when the abnormal event of the grid is detected by the abnormality detection part. a wind farm including a plurality of wind turbine generators each of which includes a synchronous generator; a local grid to which the wind farm is connected; a direct-current transmission channel disposed between the local grid and a grid; a sending end converter for converting alternate current from the local grid into direct current and supplying the direct current to the direct-current transmission channel; a receiving end converter for converting the direct current from the direct-current transmission channel into alternate current and supplying the alternate current to the grid; an abnormality detection part for detecting an abnormal event of the grid; and
Apparatus for moving a folding flap which is movably received on a furniture carcass and which is composed of at least two flap elements (3a, 3b) that are connected in an articulated manner, having a force unit which by means of a first actuating arm of the apparatus, said first actuating arm being arranged on a first flap element in the assembled state, at least assists the opening of the folding flap by action of force, and having a second actuating arm which is connected to a second flap element in the assembled state, wherein at least one of the two actuating arms (6a, 6b) comprises two actuating arm portions (8a, 8b) which are connected to one another by means of an adjustment device (14, 16), characterized in that an adjustment element with a spiral-shaped adjustment contour is rotatably mounted on the first actuating arm portion, and in that an engagement structure which is configured for engagement into the adjustment contour is configured on the second actuating arm portion.
A method for switching a personal network gateway, PN GW, in a personal network, PN, by a first device which is currently in a personal network element, PNE, mode from a second device which is currently in a PN GW mode or a PNE and PN GW, BOTH, mode, the method comprising: transmitting, by the first device, a first message for request of PN GW switching to the second device; receiving, by the first device, a second message from the second device in response to the first message, the second message including a value indicating success; switching, by the first device, a mode of the first device from the PNE mode to the PN GW mode or the BOTH mode; transmitting, by the first device, a third message for request of PN GW switching to a CPNS server; receiving, by the first device, a fourth message in response to the third message from the CPNS server; transmitting, by the first device, a PN GW change notification message to all PNEs in the personal network, PN; and resuming, by the first device, a service suspended by the second device. transmitting, by the first device, a first message for request of PN GW switching to the second device; receiving, by the first device, a second message from the second device in response to the first message, the second message including a value indicating success; switching, by the first device, a mode of the first device from the PNE mode to the PN GW mode or the BOTH mode; transmitting, by the first device, a third message for request of PN GW switching to a CPNS server; receiving, by the first device, a fourth message in response to the third message from the CPNS server; transmitting, by the first device, a PN GW change notification message to all PNEs in the personal network, PN; and resuming, by the first device, a service suspended by the second device.
A method for analyzing AFP glycopeptide to provide information useful for liver cancer diagnosis which comprises the following steps: 1) separating α-fetoprotein by using an anti-AFP antibody from a sample obtained from a subject; 2) obtaining AFP glycopeptide by hydrolyzing the AFP separated in step 1); 3) analyzing the mass and quantity of the AFP glycopeptide obtained in step 2); 4) selecting the glycopeptide containing a sequence composed of Val-Asn-Phe-Thr-Glu-Ile-Gln-Lys(VNFTEIQK, SEQ. ID. NO: 1) and having a molecular weight of 2600.1±0.5, 2746.2±0.5, 2891.2±0.5, 3037.2±0.5, 3182.3±0.5, or 3328.3±0.5 Da; and 5) calculating the rate of fucosylation of the glycopeptide selected in step 4) and comparing the calculation result with that of a sample obtained from a subject having liver cirrhosis or hepatitis. 1) separating α-fetoprotein by using an anti-AFP antibody from a sample obtained from a subject; 2) obtaining AFP glycopeptide by hydrolyzing the AFP separated in step 1); 3) analyzing the mass and quantity of the AFP glycopeptide obtained in step 2); 4) selecting the glycopeptide containing a sequence composed of Val-Asn-Phe-Thr-Glu-Ile-Gln-Lys(VNFTEIQK, SEQ. ID. NO: 1) and having a molecular weight of 2600.1±0.5, 2746.2±0.5, 2891.2±0.5, 3037.2±0.5, 3182.3±0.5, or 3328.3±0.5 Da; and 5) calculating the rate of fucosylation of the glycopeptide selected in step 4) and comparing the calculation result with that of a sample obtained from a subject having liver cirrhosis or hepatitis.
A method for outputting a notification at an electronic device (101, 701, 801) including a display (110, 710), the method comprising: recognizing that the electronic device (101, 701, 801) is at a first state, the first state including the electronic device (101, 701, 801) being in an overturned state or a predetermined amount of the display (110, 710) being covered; detecting an event in the first state; and outputting, in the first state, a visual notification associated with the detected event through a portion (111, 711) of the display, the portion (111, 711) of the display (110, 710) wrapping around a side edge of the electronic device (101, 701, 801), wherein the portion (111, 711) of the display (110, 710) is divided into a plurality of sections (711a -711c), and outputting the visual notification further comprises: outputting the visual notification through at least one of the plurality of sections (711a-711c) based on a type of application associated with the detected event, and wherein the visual notification output through the at least one of the plurality of sections is colour notification in accordance with a specific time sequence. recognizing that the electronic device (101, 701, 801) is at a first state, the first state including the electronic device (101, 701, 801) being in an overturned state or a predetermined amount of the display (110, 710) being covered; detecting an event in the first state; and outputting, in the first state, a visual notification associated with the detected event through a portion (111, 711) of the display, the portion (111, 711) of the display (110, 710) wrapping around a side edge of the electronic device (101, 701, 801), wherein the portion (111, 711) of the display (110, 710) is divided into a plurality of sections (711a -711c), and outputting the visual notification further comprises: outputting the visual notification through at least one of the plurality of sections (711a-711c) based on a type of application associated with the detected event, and wherein the visual notification output through the at least one of the plurality of sections is colour notification in accordance with a specific time sequence. outputting the visual notification through at least one of the plurality of sections (711a-711c) based on a type of application associated with the detected event, and wherein the visual notification output through the at least one of the plurality of sections is colour notification in accordance with a specific time sequence.
Multi-part lid (100, 110, 120, 130, 150, 170, 80) composed of a paper material, having a single-piece main body (102, 82) which has a lid plate (158, 178, 88) and an encircling lid collar (154, 162, 90) proceeding from the lid plate, wherein the lid collar, in the state when placed onto a container to be closed, extends upwards away from the container, and having a reinforcing ring (104, 134, 174, 84) which is connected to the lid collar by means of an encircling frame (22, 26, 36), wherein the reinforcing ring has a circumferentially encircling bead in the region below the lid plate, that is to say on a side of the lid plate that is opposite to the lid collar, wherein an inner diameter of the reinforcing ring at the lower border is greater than an outer diameter of the encircling frame (22, 26, 36) at the upper border, characterized in that the encircling frame (22, 26, 36) is of frustoconical configuration above the lid plate and tapers in a direction away from the lid play, and in that the reinforcing ring (104, 134, 174, 84) is of frustoconical configuration in the region of its lower border and widens in a direction away from the lid plate.
A design method for design of an individually customized implant, based on a 3D virtual model of an implant, the design method comprising: - identifying a damage area of a joint, wherein said identifying of a damage area is performed by taking CT, CBCT or MRI images of the joint; - presenting a virtual 3D view of said identified damage area; - creating a 3D virtual implant comprising virtually placing in said virtual 3D view at least two overlapping circular shapes, wherein each circular shape partly overlaps at least one other circular shape, so that the combined area of the overlapping circular shapes covers, or partly covers, said identified damage area, and wherein said step of creating a 3D virtual implant from placing said at least two overlapping circular shapes in said virtual 3D view further comprises creating a simulated repair surface which is individually customized in that it mimics a non-damaged cartilage surface of the joint for which said damage area was identified. - identifying a damage area of a joint, wherein said identifying of a damage area is performed by taking CT, CBCT or MRI images of the joint; - presenting a virtual 3D view of said identified damage area; - creating a 3D virtual implant comprising virtually placing in said virtual 3D view at least two overlapping circular shapes, wherein each circular shape partly overlaps at least one other circular shape, so that the combined area of the overlapping circular shapes covers, or partly covers, said identified damage area, and wherein said step of creating a 3D virtual implant from placing said at least two overlapping circular shapes in said virtual 3D view further comprises creating a simulated repair surface which is individually customized in that it mimics a non-damaged cartilage surface of the joint for which said damage area was identified.
A vehicle, comprising a chassis structure including an upper (12, 16) and a lower (14, 18) load-bearing tubular chassis member which extend longitudinally within the vehicle, characterised in that; at least one crush structure (42, 44, 46, 48, 62, 126) is mounted to the upper chassis member and located laterally outside of the chassis members (12, 14, 16, 18); the crush structure (42, 44, 46, 48, 62, 126) having an upper (48, 54, 62, 64, 70, 74, 84, 86, 94, 96, 106, 126) and a lower (50, 56, 58, 66, 68, 72, 76, 88, 98, 108, 116) extent that overlap with an upper and lower extent of the upper chassis member (12, 16).
Insulation system for electrical machines, comprising a solid and porous insulating material and a catalytically and/or thermally curable impregnating resin, wherein the impregnating resin is acid anhydride-free and comprises any desired reactive resin having oxirane functionalities, or a mixture of different reactive resins having oxirane functionalities, and the insulation system comprises at least one thermally activatable and/or encapsulated hardener component, the hardener component induces ionic, i.e., cationic or anionic, polymerization of the reactive resin, and the hardener component is selected from the group of the following compounds: organic salts, such as organic ammonium, sulfonium, phosphonium, iodonium, or imidazolium salts, metal complex compounds, tertiary amines, imidazole compounds and/or organic heterocycles.
A power-saving driving device that is provided for a device (23, 23A, 23B, 23C) repeatedly operated in a same load pattern for a cycle and driven by a motor (21, 21A, 21B, 21C) receiving electric power from an inverter (19, 19A, 19B, 19C), characterized by the power-saving driving device comprising a DC-DC converter driven by a battery and the inverter (19, 19A, 19B, 19C) driven by an output of the DC-DC converter, and further comprising: a voltage measuring device configured to measure a voltage (V(t)) applied to the DC-DC converter by the battery; a current measuring device configured to measure an electric current (l(t)) flowing from the battery to the DC-DC converter; a command value generator configured to output a cycle start signal (Cs) and a cycle end signal (Ce) at starting time and ending time of the cycle, respectively; an electric power amount calculator configured to perform time integration of a value obtained by multiplying the measured voltage (V(t)) by the measured current (l(t)) from time when the cycle start signal (Cs) is input to time when the cycle end signal (Ce) is input, and thereby calculate a received electric power amount flowing from the battery to the DC-DC converter in the cycle; and a parameter selection/instruction unit configured to cause a parameter of the inverter (19, 19A, 19B, 19C) to change for each of the cycles and thereby change to be a plurality of values, compare the received electric power amounts respectively corresponding to the values of the parameter, select the parameter value minimizing the received electric power amount, and instruct the selected parameter value to the inverter (19, 19A, 19B, 19C). a voltage measuring device configured to measure a voltage (V(t)) applied to the DC-DC converter by the battery; a current measuring device configured to measure an electric current (l(t)) flowing from the battery to the DC-DC converter; a command value generator configured to output a cycle start signal (Cs) and a cycle end signal (Ce) at starting time and ending time of the cycle, respectively; an electric power amount calculator configured to perform time integration of a value obtained by multiplying the measured voltage (V(t)) by the measured current (l(t)) from time when the cycle start signal (Cs) is input to time when the cycle end signal (Ce) is input, and thereby calculate a received electric power amount flowing from the battery to the DC-DC converter in the cycle; and a parameter selection/instruction unit configured to cause a parameter of the inverter (19, 19A, 19B, 19C) to change for each of the cycles and thereby change to be a plurality of values, compare the received electric power amounts respectively corresponding to the values of the parameter, select the parameter value minimizing the received electric power amount, and instruct the selected parameter value to the inverter (19, 19A, 19B, 19C).
A compound of formula having an argyrodite-type crystal structure: Li x Fe y Q w P z S u X t wherein: X is absent or is selected from the group consisting of Cl, Br and I, x is 8-22, y is 0.1-3, w is 0, z is 0.1-3, u is 7-20, and t is 0-8. X is absent or is selected from the group consisting of Cl, Br and I, x is 8-22, y is 0.1-3, w is 0, z is 0.1-3, u is 7-20, and t is 0-8.
A system, comprising: a heating element; an imaging system having an imaging device; a computing system having one or more processors and one or more memory devices; and an airflow generator; wherein the one or more processors are configured to: cause the heating element to traverse relative to a component having a coating; cause the heating element to heat the component as the heating element traverses relative to the component; cause, as the heating element traverses relative to the component and applies heat thereto, the airflow generator to pulse an airflow through one or more interior passages of the component; cause the imaging device to capture a plurality of images of the component as the heating element traverses relative to the component and applies heat thereto, the plurality of captured images indicating a transient thermal response of the component; and detect one or more coating defects in the coating of the component based at least in part on the transient thermal response of the component captured in the plurality of images. a heating element; an imaging system having an imaging device; a computing system having one or more processors and one or more memory devices; and an airflow generator; wherein the one or more processors are configured to: cause the heating element to traverse relative to a component having a coating; cause the heating element to heat the component as the heating element traverses relative to the component; cause, as the heating element traverses relative to the component and applies heat thereto, the airflow generator to pulse an airflow through one or more interior passages of the component; cause the imaging device to capture a plurality of images of the component as the heating element traverses relative to the component and applies heat thereto, the plurality of captured images indicating a transient thermal response of the component; and detect one or more coating defects in the coating of the component based at least in part on the transient thermal response of the component captured in the plurality of images. cause the heating element to traverse relative to a component having a coating; cause the heating element to heat the component as the heating element traverses relative to the component; cause, as the heating element traverses relative to the component and applies heat thereto, the airflow generator to pulse an airflow through one or more interior passages of the component; cause the imaging device to capture a plurality of images of the component as the heating element traverses relative to the component and applies heat thereto, the plurality of captured images indicating a transient thermal response of the component; and detect one or more coating defects in the coating of the component based at least in part on the transient thermal response of the component captured in the plurality of images.