mhurhangee/ep-ind-claims huggingface dataset:
A composite structure, comprising: an inner stack (3, 4) comprising a plurality of inserts (3, 4) stacked on top of each other and at least one of the plurality of inserts (3, 4) comprises a metallic material; and an outer ring annularly surrounding the inner stack (3, 4), and the composite structure further comprises a separator disposed between the outer ring and the inner stack (3, 4) separating the outer ring from the inner stack (3, 4) and separating the plurality of inserts (3, 4) from each other for retaining the inner stack (3, 4) within the outer ring, the composite structure being characterized in that the outer ring comprises a metallic material and that the composite structure is a striked composite structure. an inner stack (3, 4) comprising a plurality of inserts (3, 4) stacked on top of each other and at least one of the plurality of inserts (3, 4) comprises a metallic material; and an outer ring annularly surrounding the inner stack (3, 4), and the composite structure further comprises a separator disposed between the outer ring and the inner stack (3, 4) separating the outer ring from the inner stack (3, 4) and separating the plurality of inserts (3, 4) from each other for retaining the inner stack (3, 4) within the outer ring, the composite structure being characterized in that the outer ring comprises a metallic material and that the composite structure is a striked composite structure.
Heterophasic propylene copolymer (HECO) comprising a) a propylene homopolymer having a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 100 to 200 g/10 min, and b) an elastomeric propylene-ethylene copolymer,, wherein the heterophasic propylene copolymer (HECO) (i) has a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 15 to 35 g/10 min, (ii) comprises a xylene cold soluble fraction in an amount from 26 to 36 wt.-%, based on the total weight of the heterophasic propylene copolymer (HECO), wherein further the xylene cold soluble fraction of the heterophasic propylene copolymer (HECO) has (iii)an intrinsic viscosity measured according to DIN ISO 1628/1 in the range of 2.8 to 3.8 dl/g, and (iv) an ethylene content of 35 to 50 wt.-% based on the total weight of the xylene cold soluble fraction of the heterophasic propylene copolymer (HECO). a) a propylene homopolymer having a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 100 to 200 g/10 min, and b) an elastomeric propylene-ethylene copolymer,, (i) has a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 15 to 35 g/10 min, (ii) comprises a xylene cold soluble fraction in an amount from 26 to 36 wt.-%, based on the total weight of the heterophasic propylene copolymer (HECO), (iii)an intrinsic viscosity measured according to DIN ISO 1628/1 in the range of 2.8 to 3.8 dl/g, and (iv) an ethylene content of 35 to 50 wt.-% based on the total weight of the xylene cold soluble fraction of the heterophasic propylene copolymer (HECO).
A transmission signal generation method comprising: generating first symbols for transmitting data comprising an in-phase or quadrature component by using a first modulation scheme selected from a plurality of modulation schemes; generating a second symbol being a pilot symbol by using a second modulation scheme; generating third symbols, different from the first symbols, for transmitting data by using a third modulation scheme, the third symbols being used to be arranged immediately before and immediately after the second symbol, wherein the first modulation scheme, the second modulation scheme and the third modulation scheme are different from each other; and determining an interval of inserting said second symbol into the first symbols; characterized by arranging, on an in-phase and quadrature plane, a signal point of the third symbol on a virtual line that links the origin of the in-phase and quadrature plane and the signal point of the second symbol, the second symbol comprising an in-phase or quadrature component. generating first symbols for transmitting data comprising an in-phase or quadrature component by using a first modulation scheme selected from a plurality of modulation schemes; generating a second symbol being a pilot symbol by using a second modulation scheme; generating third symbols, different from the first symbols, for transmitting data by using a third modulation scheme, the third symbols being used to be arranged immediately before and immediately after the second symbol, wherein the first modulation scheme, the second modulation scheme and the third modulation scheme are different from each other; and determining an interval of inserting said second symbol into the first symbols; characterized by arranging, on an in-phase and quadrature plane, a signal point of the third symbol on a virtual line that links the origin of the in-phase and quadrature plane and the signal point of the second symbol, the second symbol comprising an in-phase or quadrature component.
A system for retrieving material or objects from a biological vessel comprising: (a) a catheter having a conduit; (b) an elongated braid structure configured for transitioning between collapsed and expanded states, said elongated braid structure having a cover surrounding a lumen having a distal opening and a proximal portion connected to said catheter conduit to thereby enable application of a suction to said lumen from a suction source; and (c) a closure wire positioned along a length of said elongated structure, said closure wire being actuatable to pull inward a distal portion of said elongated braid structure and thereby at least partially close said distal opening; wherein said closure wire is positioned such that said distal portion of said elongated braid structure is not pulled inward when said elongated structure is bent along said length; characterized in that the elongated braid structure is configured for transitioning between collapsed and expanded states via self-expansion; wherein said closure wire is spiraled along said length of said elongated braid structure. (a) a catheter having a conduit; (b) an elongated braid structure configured for transitioning between collapsed and expanded states, said elongated braid structure having a cover surrounding a lumen having a distal opening and a proximal portion connected to said catheter conduit to thereby enable application of a suction to said lumen from a suction source; and (c) a closure wire positioned along a length of said elongated structure, said closure wire being actuatable to pull inward a distal portion of said elongated braid structure and thereby at least partially close said distal opening; wherein said closure wire is positioned such that said distal portion of said elongated braid structure is not pulled inward when said elongated structure is bent along said length; characterized in that the elongated braid structure is configured for transitioning between collapsed and expanded states via self-expansion; wherein said closure wire is spiraled along said length of said elongated braid structure.
A method of managing memory backup in a computing device having a baseboard management controller, a main processor, and a memory controller operatively coupled to a hybrid memory device by a data bus, the hybrid memory device having a volatile memory module, a non-volatile memory module, and a module controller operatively coupled to the volatile memory module and the non-volatile memory module, the method comprising: monitoring, with the baseboard management controller, for a system error in the computing device; and in response to a system error being detected, with the baseboard management controller, controlling actions of a switch on the data bus between the memory controller and the hybrid memory device and between the baseboard management controller and the hybrid memory device to disengage the memory controller from communicating with and controlling the hybrid memory device and engage the baseboard management controller to the hybrid memory device; and subsequent to the memory controller being disengaged from communicating with and controlling the hybrid memory device, with the baseboard management controller, causing the module controller of the hybrid memory device to copy data from the volatile memory module to the non-volatile memory module and persistently store in the nonvolatile memory module of the hybrid memory device the copied data from the volatile memory module, without operating the main processor or the memory controller. monitoring, with the baseboard management controller, for a system error in the computing device; and in response to a system error being detected, with the baseboard management controller, controlling actions of a switch on the data bus between the memory controller and the hybrid memory device and between the baseboard management controller and the hybrid memory device to disengage the memory controller from communicating with and controlling the hybrid memory device and engage the baseboard management controller to the hybrid memory device; and subsequent to the memory controller being disengaged from communicating with and controlling the hybrid memory device, with the baseboard management controller, causing the module controller of the hybrid memory device to copy data from the volatile memory module to the non-volatile memory module and persistently store in the nonvolatile memory module of the hybrid memory device the copied data from the volatile memory module, without operating the main processor or the memory controller.
A honeycomb filter production apparatus used for producing a honeycomb filter, the apparatus comprising: a workpiece securing section for securing a base of a honeycomb filter; a powder transfer section that is disposed on one side of the workpiece securing section, and transfers a powder together with an air current by utilizing pressurized gas; an introduction section which is an open space provided between the powder transfer section and the workpiece securing section, the powder transferred from the powder transfer section together with the air current being mixed with another gas in the introduction section, and introduced into the base secured by the workpiece securing section when the apparatus is used; a suction section that is disposed on the other side of the workpiece securing section, and sucks the gas that has passed through the base secured by the workpiece securing section by reducing pressure on the other side of the workpiece securing section as compared with the one side of the workpiece securing section using suction means (33, 34); a cleaning section for removing a surplus powder adhering to an end face (11 a) of the base after the introduction of the powder; a judgment section for judging an amount of power adhering to the base; and a workpiece transfer section driven by a driving mechanism and transferring the base among the workpiece securing section, the cleaning section, and the judgment section. a workpiece securing section for securing a base of a honeycomb filter; a powder transfer section that is disposed on one side of the workpiece securing section, and transfers a powder together with an air current by utilizing pressurized gas; an introduction section which is an open space provided between the powder transfer section and the workpiece securing section, the powder transferred from the powder transfer section together with the air current being mixed with another gas in the introduction section, and introduced into the base secured by the workpiece securing section when the apparatus is used; a suction section that is disposed on the other side of the workpiece securing section, and sucks the gas that has passed through the base secured by the workpiece securing section by reducing pressure on the other side of the workpiece securing section as compared with the one side of the workpiece securing section using suction means (33, 34); a cleaning section for removing a surplus powder adhering to an end face (11 a) of the base after the introduction of the powder; a judgment section for judging an amount of power adhering to the base; and a workpiece transfer section driven by a driving mechanism and transferring the base among the workpiece securing section, the cleaning section, and the judgment section.
A crop growth measurement system for calculating a growth index of a crop based on crop images, comprising: an image taker configured to obtain a plurality of images of a target crop at different positions while moving up and down at preset intervals with respect to the target crop of which the growth index is desired to be calculated; an image processor configured to register the plurality of images of the target crop at the different positions into a single image for the target crop, and an image-taking controller configured to determine a number of images to be obtained by the image taker and a moving interval of the image taker based on the number of images to be obtained, based on information about a distance between the target crop and a background crop which is placed relatively behind the target crop, wherein the image-taking controller determines so that the number of images to be obtained is in inverse proportion to the distance between the background crop and the target crop. an image taker configured to obtain a plurality of images of a target crop at different positions while moving up and down at preset intervals with respect to the target crop of which the growth index is desired to be calculated; an image processor configured to register the plurality of images of the target crop at the different positions into a single image for the target crop, and an image-taking controller configured to determine a number of images to be obtained by the image taker and a moving interval of the image taker based on the number of images to be obtained, based on information about a distance between the target crop and a background crop which is placed relatively behind the target crop, wherein the image-taking controller determines so that the number of images to be obtained is in inverse proportion to the distance between the background crop and the target crop.
A method of passivating facets of an edge-emitting laser diode comprising: a) depositing, in a reaction chamber, one or more passivation layers (22, 24) on bare facet surfaces (12, 14) of the edge-emitting laser diode to form a facet coating of a predetermined thickness; b) removing the edge-emitting laser diode from the reaction chamber; and c) irradiating the facet coating with an external laser energy source for a period of time sufficient to condition the facet coating by forming a crystalline structure through the predetermined thickness; wherein the one or more passivation layers (22, 24) consist of materials selected from the group consisting of: silicon, germanium, antimony, as well as oxides of silicon, germanium, antimony, and nitrides of germanium, antimony. a) depositing, in a reaction chamber, one or more passivation layers (22, 24) on bare facet surfaces (12, 14) of the edge-emitting laser diode to form a facet coating of a predetermined thickness; b) removing the edge-emitting laser diode from the reaction chamber; and c) irradiating the facet coating with an external laser energy source for a period of time sufficient to condition the facet coating by forming a crystalline structure through the predetermined thickness;
An environmental seal between two compartments linked by a passageway containing an electrical cable, the seal comprising: a stop projecting from an interior surface of the passageway; a cable gland body within the passageway and in contact with the stop, the cable gland body encircling a portion of the electrical cable; a compression bushing within the cable gland body and encircling the portion of the electrical cable; a cable gland nut to compress the compression bushing and seal the compression bushing against the electrical cable and against an interior surface of the cable gland body; and a first elastomeric seal to seal between an exterior surface of the cable gland body and the interior surface of the passageway. a stop projecting from an interior surface of the passageway; a cable gland body within the passageway and in contact with the stop, the cable gland body encircling a portion of the electrical cable; a compression bushing within the cable gland body and encircling the portion of the electrical cable; a cable gland nut to compress the compression bushing and seal the compression bushing against the electrical cable and against an interior surface of the cable gland body; and a first elastomeric seal to seal between an exterior surface of the cable gland body and the interior surface of the passageway.
Power supply circuit for electrical equipment, having a positive supply rail and a negative supply rail to which an inrush current limitation module and a capacitive filtering element are connected, the capacitive filtering element being mounted on a secondary line having ends respectively connected to the positive rail and to the negative rail, the circuit comprising a first n-channel MOSFET transistor and a diode mounted in series on the positive rail, the first transistor having a drain connected to a connecting terminal from the positive rail to a device for supplying energy, a source connected to an anode of the diode and a gate connected to the inrush current limitation module, the diode having a cathode connected to the positive rail upstream of the link from the positive rail to the secondary line, characterized in that the diode is an intrinsic diode of a second n-channel MOSFET transistor having a drain connected to the positive rail upstream of the link from the positive rail to the secondary line, a source connected to the source of the first transistor and a gate connected to a control module.
A 3D printing device with an extrusion port having a variable size, comprising: a feeding portion having an inlet and an outlet for a material; a discharging portion having an extrusion port, wherein the extrusion port is capable of being in fluid communication with the outlet of the feeding portion, so as to extrude the material, and the extrusion port is partitioned into a plurality of hole channels; and a control portion, configured to control, in a process of filling a single-communication region by utilizing the extrusion port, the feeding portion and the discharging portion to move relative to each other, so as to change a quantity of hole channels in communication with the outlet of the feeding portion in the plurality of hole channels, thereby changing a size of the extrusion port; characterized in that, the feeding portion is an inner cylinder, and the discharging portion is a sleeve of the inner cylinder; and the control portion is configured to control the inner cylinder and the sleeve to move along an axial direction of the inner cylinder, so as to change a length of the extrusion port. a feeding portion having an inlet and an outlet for a material; a discharging portion having an extrusion port, wherein the extrusion port is capable of being in fluid communication with the outlet of the feeding portion, so as to extrude the material, and the extrusion port is partitioned into a plurality of hole channels; and a control portion, configured to control, in a process of filling a single-communication region by utilizing the extrusion port, the feeding portion and the discharging portion to move relative to each other, so as to change a quantity of hole channels in communication with the outlet of the feeding portion in the plurality of hole channels, thereby changing a size of the extrusion port; characterized in that, the feeding portion is an inner cylinder, and the discharging portion is a sleeve of the inner cylinder; and the control portion is configured to control the inner cylinder and the sleeve to move along an axial direction of the inner cylinder, so as to change a length of the extrusion port.
A PDE3A modulator selected from the group consisting of 6-(4-(diethylamino)-3-nitrophenyl)-5-methyl-4,5-dihydropyridazin-3 -one (DNMDP), -5-methyl-6-[4-(morpholin-4-yl)phenyl]-4,5-dihydropyridazin-3 -one (compound 3), zardaverine and anagrelide, or a pharmaceutically acceptable salt thereof for use in a method of treating cancer by killing or reducing the survival of a cancer cell selected as responsive to said compound, the method comprising contacting the cell with said compound, wherein the cell was selected by having an increase in the level of a phosphodiesterase 3A (PDE3A) and a Schlafen 12 (SLFN12) polypeptide or polynucleotide relative to the level present in a corresponding healthy control cell, thereby reducing the survival of the cancer cell.
A socket comprising a plurality of contacts (10, 11, 12, 20, 21, 22) arranged for electrical connection with a plug, the plurality of contacts comprising a first set of a plurality of first electrical contacts (10, 11, 12) each having a contact face (14, 14', 14") in a plane substantially parallel to the longitudinal axis of the socket and a second set of a plurality of second electrical contacts (20, 21, 22) each having a contact face (24, 24', 24") extending in a plane substantially perpendicular to the longitudinal axis of the socket, each of said contact faces arranged for making electrical contact with the plug, wherein the socket further comprises a frontplate having an externally facing surface, the contacts being disposed substantially flush with or behind the externally facing surface, wherein when the contacts are behind the externally facing surface then apertures (80, 81, 82) are provided through the externally facing surface to receive plug contacts (110, 111, 112), the apertures (80, 81, 82) positioned in the frontplate over the respective contacts (10, 11, 12) in order to allow access to the contacts such that the plug contacts may make electrical contact with a corresponding socket contact when a plug is inserted in the socket, characterised in that the first set of contacts (10, 11, 12) is radially disposed about the longitudinal axis of the socket at a first pitch circle radius, and the second set of contacts (20, 21, 22) is radially disposed about the longitudinal axis of the socket at a second pitch circle radius and each contact of the plurality of second electrical contacts (20, 21, 22) extends out along said pitch circle, wherein the first pitch circle radius is less than the second pitch circle radius, and/or wherein at least one aperture for the first set of contacts is of a different shape to at least another aperture (81, 82) for that set of contacts.
Operator control apparatus for a motor vehicle, comprising an operator control element, comprising a detection device for detecting an operator control input which is carried out on the operator control element, and comprising a drive device by means of which the operator control element can be moved, depending on the operator control input which is detected by the detection device, for outputting haptic feedback, wherein the drive device has an electromagnet and a movement element which can be moved by actuating the electromagnet, wherein the electromagnet and the movement element are arranged in relation to one another in such a way that, during movement of the movement element, a predetermined distance remains between the electromagnet and the movement element, characterized in that the drive device comprises an elastic element which can be deformed from a stable state to a metastable state by the movement of the movement element.