mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling an on-board crane on a watercraft, the watercraft having a deck, the on-board crane having no mast, the on-board crane being directly connected to the deck of the watercraft via a base, the base being movable parallel to the deck, the method comprising the steps of: a) Detecting the movement of the watercraft with the first motion sensor, b) Transmitting motion data from the first motion sensor to the control device, c) Detection of the position of a crane load by means of the detection device, d) Transferring position data of the crane load from the detection device to the control device. e) Determine a compensating countermovement, f) Control of the on-board crane according to the determined countermovement, wherein in step e) a movement of the base parallel to the deck is taken into account as a compensating movement. a) Detecting the movement of the watercraft with the first motion sensor, b) Transmitting motion data from the first motion sensor to the control device, c) Detection of the position of a crane load by means of the detection device, d) Transferring position data of the crane load from the detection device to the control device. e) Determine a compensating countermovement, f) Control of the on-board crane according to the determined countermovement,
A device for the decontamination of hollow objects which are at least partially translucent to UV radiations and which have a cavity, such as caps, comprising: - positioning means for positioning the objects into a decontamination zone with their cavity in a predefined orientation, - first exposure means comprising at least a UV radiation source and/or a reflector for directing a UV radiation, said first exposure means being oriented toward the cavity of the positioned objects and being arranged for producing a direct exposure to UV radiations of surfaces inside said cavity, the device further comprising second exposure means comprising at least a UV radiation source and/or a reflector for directing an UV radiation, said second exposure means being placed on the opposite side relative to the cavity of said positioned objects and being arranged for exposing surfaces inside the objects cavity to UV radiations by diffusion and/or transmission of UV radiations through the walls surrounding said objects cavity, said first and second exposure means (4, 1) cooperating for producing a global exposure to UV radiations of the surfaces inside said objects cavity, characterized in that the positioning means are positioning means with hollow tubes, the device further comprising means for changing the pressure inside said hollow tubes, and means for detecting a pressure change caused by a breakage of said hollow tubes. - positioning means for positioning the objects into a decontamination zone with their cavity in a predefined orientation, - first exposure means comprising at least a UV radiation source and/or a reflector for directing a UV radiation, said first exposure means being oriented toward the cavity of the positioned objects and being arranged for producing a direct exposure to UV radiations of surfaces inside said cavity,
A removable applique armour system comprising, a rigid frame formed from two side walls (112c,d), said frame arranged to be attached to a vehicle, wherein a plurality of armour plates is arranged in the frame, wherein said armour plates are abutted along their longest dimension so as to provide a repeating arrangement, and arranged at an angle (α) between two abutting armour plates in the range of from 40° to 130°, wherein said plurality of armour plates provides the outermost facing armoured surface of the armour system, characterised in that the rigid frame is also formed by a top wall and a bottom wall, said plurality of armour plates comprises a plurality of perforations, said armour plate arrangement provides a repeating upwards and downwards angled, chevron arrangement.
A composite article, comprising: i) a distributed phase in the composite article that includes a plurality of segmented forms selected from fibers, platelets, flakes, whiskers, or any combination thereof; and ii) a polymeric matrix in the composite article in which the distributed phase is distributed, the polymeric matrix including at least 25% by weight of the polymeric matrix of a thermoplastic polymer having at least one epoxide functional group and being a reaction product of a diepoxide and a mono primary amine or a di-secondary amine; wherein the material of at least a portion of the distributed phase is substantially the same as the material of the polymeric matrix; wherein the composite article forms at least a portion of a carrier adapted for use as a baffle, as a structural reinforcement, or as both. i) a distributed phase in the composite article that includes a plurality of segmented forms selected from fibers, platelets, flakes, whiskers, or any combination thereof; and ii) a polymeric matrix in the composite article in which the distributed phase is distributed, the polymeric matrix including at least 25% by weight of the polymeric matrix of a thermoplastic polymer having at least one epoxide functional group and being a reaction product of a diepoxide and a mono primary amine or a di-secondary amine; wherein the material of at least a portion of the distributed phase is substantially the same as the material of the polymeric matrix; wherein the composite article forms at least a portion of a carrier adapted for use as a baffle, as a structural reinforcement, or as both.
A body of transparent glass which is at least portion-wise faceted, comprising at least one light-generating device which is arranged invisibly in or on the body and which has at least one inorganic semiconductor chip, wherein a microhole is provided in the body for at least partially receiving the semiconductor chip and wherein at least the semiconductor chip is transparent.
A magnetizer for magnetizing a tissue-penetrating medical device comprising: a base segment having one or more magnets and a first central cavity; one or more movable segments (330, 340) having one or more magnets stacked in a vertical configuration on top of the base segment, the one or more movable segments (330, 340) having a second central cavity; characterised in that the magnetizer further comprises: a hinge having a vertical axis not in contact with the first central cavity and second central cavity, the hinge connecting the one or more movable segments (330, 340) and the base segment, and wherein movement of the one or more moveable segments adjusts a distance between a bottom of the cavity and a top of the magnetizer; wherein a length of the magnetizer adjusts to a tissue penetrating device of different lengths. a base segment having one or more magnets and a first central cavity; one or more movable segments (330, 340) having one or more magnets stacked in a vertical configuration on top of the base segment, the one or more movable segments (330, 340) having a second central cavity; characterised in that the magnetizer further comprises: a hinge having a vertical axis not in contact with the first central cavity and second central cavity, the hinge connecting the one or more movable segments (330, 340) and the base segment, and wherein movement of the one or more moveable segments adjusts a distance between a bottom of the cavity and a top of the magnetizer; wherein a length of the magnetizer adjusts to a tissue penetrating device of different lengths. a hinge having a vertical axis not in contact with the first central cavity and second central cavity, the hinge connecting the one or more movable segments (330, 340) and the base segment, and wherein movement of the one or more moveable segments adjusts a distance between a bottom of the cavity and a top of the magnetizer; wherein a length of the magnetizer adjusts to a tissue penetrating device of different lengths.
Method for communication between an external computer and a charging cable with an in-cable control box for charging battery-electric vehicles, wherein the charging cable has a data line for communication with the vehicle and a hardware interface between the in-cable control box of the charging cable and the computer allows access to the data line by means of the computer, wherein data for the in-cable control box of the charging cable are sent from the computer to the hardware interface, are modulated to the signal of the data line by the hardware interface and thus forwarded to the in-cable control box of the charging cable, whereas data for the computer are sent by the in-cable control box of the charging cable via the signal of the data line, converted by the hardware interface and sent to the computer, wherein the data from the in-cable control box of the charging cable to the computer are modulated by the in-cable control box of the charging cable by a modification of the pulse width of the signal of the data line and sent to the hardware interface, which forwards the data to the computer, wherein the data from the computer to the in-cable control box of the charging cable are modulated onto the signal of the data line by the hardware interface by a modification of the voltage level, in particular by amplitude shift keying, characterized in that in order to send data from the computer to the in-cable control box of the charging cable, only the negative part of the voltage level is modified to implement the data exchange between the in-cable control box of the charging cable and the computer in parallel with a charging operation of a battery-electric vehicle via the charging cable.
A molecular exchange device comprising; a casing, extending from a proximal end to a distal end, supporting at least two fluid passageways (7a, 7b) extending from the proximal end to the distal end; the casing comprising at least two exchange apertures (9a, 9b) between the distal end and the proximal end, wherein a portion of each of the at least two fluid passageways (7a, 7b) exposed by the exchange aperture (9a, 9b) is porous, the at least two fluid passageways (7a, 7b) are in fluid communication with one another; and the distal end of the casing is formed as a tip containing a flow chamber to allow flow from one end of one of the at least two fluid passageways into the end of the other of the at least two fluid passageways. a casing, extending from a proximal end to a distal end, supporting at least two fluid passageways (7a, 7b) extending from the proximal end to the distal end; the casing comprising at least two exchange apertures (9a, 9b) between the distal end and the proximal end, wherein a portion of each of the at least two fluid passageways (7a, 7b) exposed by the exchange aperture (9a, 9b) is porous, the at least two fluid passageways (7a, 7b) are in fluid communication with one another; and the distal end of the casing is formed as a tip containing a flow chamber to allow flow from one end of one of the at least two fluid passageways into the end of the other of the at least two fluid passageways.
A panel formed of an array of cells intended to be used in a nanoprojector, each cell comprising a liquid crystal layer surrounded with upper and lower transparent electrodes, a MOS control transistor being arranged above the upper electrode, each transistor being covered with at least three metallization levels (75, 76, 77), characterized in that: the transistor of each cell extends in a corner of the cell so that the transistors of an assembly of four adjacent cells are arranged in a central region of said assembly; the upper metallization level extends above the transistors of each said assembly of four adjacent cells; and the panel comprises, for each said assembly of four adjacent cells, a first conductive ring surrounding the transistors, the first ring extending from the lower metallization level to the upper electrode of each cell with an interposed insulating material. the transistor of each cell extends in a corner of the cell so that the transistors of an assembly of four adjacent cells are arranged in a central region of said assembly; the upper metallization level extends above the transistors of each said assembly of four adjacent cells; and the panel comprises, for each said assembly of four adjacent cells, a first conductive ring surrounding the transistors, the first ring extending from the lower metallization level to the upper electrode of each cell with an interposed insulating material.
A class of compounds shown in general formula or, salts thereof or their mixtures. In the general formula: X 1 is H or CO 2 H; X 2 is OH or phenyl group with 0-2 sulfonic acid substituents, and the sulfonic acid substituents are located at random positions of a benzene ring; When X 2 is OH, X 1 is H; When X 2 is phenyl with 0-2 sulfonic acid substituents, X 1 is H or CO 2 H; n is an integer of 0-2; In the general formula, n and m are respectively an integer of 0-2. X 1 is H or CO 2 H; X 2 is OH or phenyl group with 0-2 sulfonic acid substituents, and the sulfonic acid substituents are located at random positions of a benzene ring; When X 2 is OH, X 1 is H; When X 2 is phenyl with 0-2 sulfonic acid substituents, X 1 is H or CO 2 H; n is an integer of 0-2; In the general formula, n and m are respectively an integer of 0-2.
A switching device, wherein the switching device comprises: a reverse voltage conduction module, configured to conduct a first voltage provided by a terminal device; and a switching circuit, configured to switch, by using the first voltage conducted by the reverse voltage conduction module, a device connected to the terminal device from a source device to a target device, so that the terminal device reversely supplies power to the target device, wherein the source device forward supplies power to the terminal device before the switching circuit switches the device connected to the terminal device from the source device to the target device, wherein an output end of the reverse voltage conduction module is connected to an input end of the switching circuit, and an output end of the switching circuit is connected to an input end of the target device. a reverse voltage conduction module, configured to conduct a first voltage provided by a terminal device; and a switching circuit, configured to switch, by using the first voltage conducted by the reverse voltage conduction module, a device connected to the terminal device from a source device to a target device, so that the terminal device reversely supplies power to the target device, wherein the source device forward supplies power to the terminal device before the switching circuit switches the device connected to the terminal device from the source device to the target device, wherein an output end of the reverse voltage conduction module is connected to an input end of the switching circuit, and an output end of the switching circuit is connected to an input end of the target device.
A traveling vehicle system comprising a plurality of traveling vehicles for traveling on a travel route (4, 6) including at least a diverging section (D1 to D15) and at least a merging section (M1 - M15) and at least a controller on a ground, the traveling vehicles traveling along the travel route (4, 6) under control of the controller; the traveling vehicles having means for recognizing a position of own traveling vehicle, means for obtaining a position of other traveling vehicles by communication, and a distance sensor for detecting a distance to a traveling vehicle ahead of the own traveling vehicle; the travel route (4, 6) comprising an inter-vehicle distance control area (21, 31), comprising an blocking area (20, 30), an entrance of a diverging section (D1 to D15), an exit of a diverging lane of the diverging section (D1 to D15), a curved entrance to the merging section (M1 - M15), an exit from the merging section (M1 - M15), and a curved segment (C1 - C4), wherein the blocking area (20, 30) comprises the diverging section (D1 to D15) and the merging section (M1 - M15), wherein the traveling vehicles are configured to control the velocity of the traveling vehicles in the inter-vehicle control area (21, 31) by determining an inter-vehicle distances between the traveling vehicles based on the position of other traveling vehicles obtained by the communication and the recognized position of the own traveling vehicle, to control the velocity of the traveling vehicles in the traveling route other than the inter- vehicle control area (21, 31) based on distances detected by the distance sensor instead of the positions of other traveling vehicles obtained by communication, and to enter the blocking area (20, 30) with obtaining permissions from the controller.
A medical device (10, 80, 90) comprising: an elongated shaft portion; a plurality of electrically independent electrode portions disposed on a distal side of the shaft portion, extending along a length direction of the shaft portion, and deformable in a radial direction of the shaft portion; and a plurality of electrically independent conductors including a buried portion buried in the shaft portion, and allowing a current to flow to the electrode portions, characterised in that each of the plurality of conductors has a protruding portion protruding from a distal surface of the shaft portion and connected to the electrode portion and each of the protruding portions is connected to each of the electrode portions different from each other, wherein each of the protruding portions is parallel to an axis of the shaft portion, and at least a portion of the buried portion has a spiral shape wound around the axis of the shaft portion. an elongated shaft portion; a plurality of electrically independent electrode portions disposed on a distal side of the shaft portion, extending along a length direction of the shaft portion, and deformable in a radial direction of the shaft portion; and a plurality of electrically independent conductors including a buried portion buried in the shaft portion, and allowing a current to flow to the electrode portions, characterised in that each of the plurality of conductors has a protruding portion protruding from a distal surface of the shaft portion and connected to the electrode portion and each of the protruding portions is connected to each of the electrode portions different from each other, wherein each of the protruding portions is parallel to an axis of the shaft portion, and at least a portion of the buried portion has a spiral shape wound around the axis of the shaft portion.
A computer tomograph comprising a static radiator-detector ring which is constructed from an odd number (n) of radiator-detector elements (11, 12, 13, 14, 26), a single radiator-detector element thereof being displaceable, by opening the radiator-detector ring, in relation to the remaining radiator-detector elements (11, 12, 13, 14) which together describe a C-shape, wherein each radiator-detector element (11, 12, 13, 14, 26) has an anode arrangement which is provided for the emission of X-rays and which extends over an angle α of at least 0.9 × 360°/n on the circumference of the radiator-detector ring, as well as a detector which is provided for detecting X-rays and which extends within the same radiator-detector element (11, 12, 13, 14, 26) thereof over an angle β of at least 0.95 × 360°/n, and wherein each anode arrangement is part of a radiator arrangement which comprises a plurality of electron emitters (5, 25) and in which each electron emitter (5, 25) is configured in cooperation with an electrode arrangement to generate a focal spot (BF-, BF, BF+) at one of at least three selectable positions on the anode arrangement.
Digital printed glass comprising: a first glass layer; an organic ink layer bound to the glass; metal decorative applications wherein the metallic decorative applications are engraved in the organic ink layer using an airbrush; wherein said organic ink layer is bounded to the glass by an aqueous fixative solution for bounding the organic ink layer on the glass; wherein the said aqueous fixative solution comprises methoxipropanol, water and a silane. a first glass layer; an organic ink layer bound to the glass; metal decorative applications wherein the metallic decorative applications are engraved in the organic ink layer using an airbrush; wherein said organic ink layer is bounded to the glass by an aqueous fixative solution for bounding the organic ink layer on the glass; wherein the said aqueous fixative solution comprises methoxipropanol, water and a silane.
A device (100, 200, 300) for imaging of a microscopic object, the device (100, 200, 300) comprising: an array of light sensitive areas (122, 222, 322, 422), each of the light sensitive areas (122, 222, 322, 422) being sensitive to detect light spanning a wavelength range of at least 400-1200 nm; at least one light source (110, 210, 310) comprising at least a first point of operation in which the at least one light source (110, 210, 310) is configured to generate light in a visible part of the wavelength range, and a second point of operation in which the at least one light source (110, 210, 310) is configured to generate light in an infrared part of the wavelength range, the at least one light source (110, 210, 310) being arranged to illuminate the microscopic object with the generated light such that at least part of the light is scattered by the microscopic object, forming scattered light; wherein the device (100, 200, 300) is configured to transmit the scattered light and non-scattered light, from the same light source (110, 210, 310), to the array of light sensitive areas (122, 222, 322, 422), wherein the array of light sensitive areas (122, 222, 322, 422) is configured to detect an interference pattern formed by interference between the scattered light and the non-scattered light; and wherein the device (100, 200, 300) is further configured to be set in a selected point of operation from the at least first and second points of operation, for detecting the interference pattern for imaging the microscopic object at a wavelength defined by the selected point of operation. an array of light sensitive areas (122, 222, 322, 422), each of the light sensitive areas (122, 222, 322, 422) being sensitive to detect light spanning a wavelength range of at least 400-1200 nm; at least one light source (110, 210, 310) comprising at least a first point of operation in which the at least one light source (110, 210, 310) is configured to generate light in a visible part of the wavelength range, and a second point of operation in which the at least one light source (110, 210, 310) is configured to generate light in an infrared part of the wavelength range, the at least one light source (110, 210, 310) being arranged to illuminate the microscopic object with the generated light such that at least part of the light is scattered by the microscopic object, forming scattered light; wherein the device (100, 200, 300) is configured to transmit the scattered light and non-scattered light, from the same light source (110, 210, 310), to the array of light sensitive areas (122, 222, 322, 422), wherein the array of light sensitive areas (122, 222, 322, 422) is configured to detect an interference pattern formed by interference between the scattered light and the non-scattered light; and wherein the device (100, 200, 300) is further configured to be set in a selected point of operation from the at least first and second points of operation, for detecting the interference pattern for imaging the microscopic object at a wavelength defined by the selected point of operation.