mhurhangee/patent-ind-claim-en huggingface dataset:
A medical implant for closure of a defect aperture, a vessel, an organ path or another aperture in a human or animal body, comprising: a base body and at least one fibre , wherein the base body is reversibly transformable against elastic material forces from a secondary shape into a primary shape, wherein in the primary shape the base body has an elongated shape and in the secondary shape is at least partially coiled and comprises a cone shape , wherein the at least one fibre is at least at two points connected to the base body such that the at least one fibre in the secondary shape of the base body extends at least once, preferably several times, transversely through the cone shape and forming a net-like structure in the cone shape . a base body and at least one fibre , wherein the base body is reversibly transformable against elastic material forces from a secondary shape into a primary shape, wherein in the primary shape the base body has an elongated shape and in the secondary shape is at least partially coiled and comprises a cone shape , wherein the at least one fibre is at least at two points connected to the base body such that the at least one fibre in the secondary shape of the base body extends at least once, preferably several times, transversely through the cone shape and forming a net-like structure in the cone shape .
A drive device in the form of a pivot and/or rotary drive for material-transferring devices such as excavators, comprising an engine reversible in its direction of rotation, a transmission that is connected to the engine and is lubricated by a transmission lubricant, and a circulation filter device for filtering the transmission lubricant in circulation, wherein the circulation filter device has a circulation pump integrated into the transmission for circulating the transmission lubricant, characterized in that the circulation pump comprises a pump wheel , which is arranged for conjoint rotation with a transmission element , in the form of a peripheral wheel that has peripherally provided blades and is accommodated in a pump chamber formed by the transmission housing , wherein the blades of the peripheral wheel are configured flat and are set radially and in parallel to the axis of rotation of the peripheral wheel in such a way that the peripheral wheel exhibits at least approximately the same pumping performance in opposing directions of rotation and in that a hydraulic rectifier is connected to the circulation pump and specifies a fixed pressure port and a fixed suction port , regardless of the direction of rotation of the circulation pump , and thus specifies a fixed direction of circulation for the transmission lubricant.
An additive manufacturing method of components in accordance with a set program., comprising: forming a body of component by direct deposition of a substance in a form of granules of metal or non-metal, wherein the substance comes from a reservoir under the influence of gravity and electromagnetic forces and is directed to a bath melt, produced by heat energy of at least one laser or electron beam, and subsequently crystallizes; adjusting path and rate of said substance to reach the desired bath melt location by acting on neutral and / or charged said granules by means of an electromagnetic field. forming a body of component by direct deposition of a substance in a form of granules of metal or non-metal, wherein the substance comes from a reservoir under the influence of gravity and electromagnetic forces and is directed to a bath melt, produced by heat energy of at least one laser or electron beam, and subsequently crystallizes; comes from a reservoir under the influence of gravity and electromagnetic forces and is directed to a bath melt, produced by heat energy of at least one laser or electron beam, and subsequently crystallizes; adjusting path and rate of said substance to reach the desired bath melt location by acting on neutral and / or charged said granules by means of an electromagnetic field.
A cutter clamp (37, 37', 37") that comprises a first arm part and a second arm part (40, 40', 40"), where the arm parts (39, 40; 39', 40', 40") are arcuate and arranged to adjustably at least partially enclose a major part of a circumference having a center , where the cutter clamp (37, 37', 37") comprises at least one hollow rod arranged for receiving a mounting rod of a power cutter in a pivoting manner, the arm parts (39, 40, 39', 40', 40") comprise a corresponding first end and second end , where a first arm second end is attached to the second arm (40, 40', 40") in a pivoting manner by means of an arm attachment rod between a second arm first end and a second arm second end , where the second arm part (40, 40', 40") comprises a first screw holder in the form of a pivoting rod positioned between the first arm second end and the second arm second end , wherein - the smaller circumference the arm parts (39, 40, 40") are adjusted for, the closer to the center said hollow rod is moved, and the second arm part (40, 40', 40") comprises a further hollow rod positioned between the first screw holder and the second arm second end , or - the second arm part (40, 40', 40") comprises only a hollow rod positioned between the first screw holder and the second arm second end . - the smaller circumference the arm parts (39, 40, 40") are adjusted for, the closer to the center said hollow rod is moved, and the second arm part (40, 40', 40") comprises a further hollow rod positioned between the first screw holder and the second arm second end , or - the second arm part (40, 40', 40") comprises only a hollow rod positioned between the first screw holder and the second arm second end .
A computer-implemented method of enhancing data privacy, comprising: Determining , at a processor , one or more tensors of numeric data in dependence on input data; determining , at a processor , a transform in dependence on user-associated data; transforming , at a processor , each of the one or more tensors of numeric data into at least two fragments of data by applying the transform, wherein each of the fragments of data obfuscates the numeric data; and storing , separately, each of the at least two fragments of data at a respective geographically separated storage system , wherein the transforming comprises: dividing each tensor of numeric data into one or more parts; transforming each part of the tensor of numeric data into a transformed part in dependence on the transform; and determining the at least two fragments of data in dependence on each of the transformed parts; wherein the transform is an invertible tensor transformation. Determining , at a processor , one or more tensors of numeric data in dependence on input data; determining , at a processor , a transform in dependence on user-associated data; transforming , at a processor , each of the one or more tensors of numeric data into at least two fragments of data by applying the transform, wherein each of the fragments of data obfuscates the numeric data; and storing , separately, each of the at least two fragments of data at a respective geographically separated storage system , wherein the transforming comprises: dividing each tensor of numeric data into one or more parts; transforming each part of the tensor of numeric data into a transformed part in dependence on the transform; and determining the at least two fragments of data in dependence on each of the transformed parts; wherein the transform is an invertible tensor transformation. dividing each tensor of numeric data into one or more parts; transforming each part of the tensor of numeric data into a transformed part in dependence on the transform; and determining the at least two fragments of data in dependence on each of the transformed parts; wherein the transform is an invertible tensor transformation.
Method for transferring a layer from a single-crystal substrate, called donor substrate , onto a receiver substrate , comprising: - the supply of said single-crystal donor substrate , said substrate having a notch oriented in a first direction of the crystal and a weakness region bounding the layer to be transferred, - the bonding of the single-crystal donor substrate onto the receiver substrate , the main surface of the donor substrate opposite to the weakness region with respect to the layer to be transferred being at the bonding interface, - the detachment of the donor substrate along the weakness region , said method being characterized in that the donor substrate has, on the main surface bonded to the receiver substrate , an array of atomic steps extending essentially in a second direction of the crystal different from said first direction. - the supply of said single-crystal donor substrate , said substrate having a notch oriented in a first direction of the crystal and a weakness region bounding the layer to be transferred, - the bonding of the single-crystal donor substrate onto the receiver substrate , the main surface of the donor substrate opposite to the weakness region with respect to the layer to be transferred being at the bonding interface, - the detachment of the donor substrate along the weakness region ,
A biomagnetism measuring device comprising: a plurality of magnetic sensors having detection surfaces configured to detect magnetism of a living body as a subject to be measured ; a retaining portion including retaining holes configured to hold the plurality of magnetic sensors such that the magnetic sensors can individually move freely; and a movement mechanism configured to move the magnetic sensors individually in directions that approach and separate from the subject to be measured , and thereby is configured to cause the magnetic sensors to come into contact with or separate from the subject to be measured, characterized in that each magnetic sensor of the plurality of magnetic sensors is a giant magnetoresistance sensor (GMR sensor), a tunnel magneto resistance sensor (TMR sensor), an anisotropic magneto resistive sensor (AMR sensor), a magnetic impedance sensor (MI sensor) or a fluxgate sensor, and the magnetic sensors further include additional biological information acquisition means for acquiring biological information selected from the group consisting of electrocardiogram, heart rate, pulse, the number of breaths, and muscle potential. a plurality of magnetic sensors having detection surfaces configured to detect magnetism of a living body as a subject to be measured ; a retaining portion including retaining holes configured to hold the plurality of magnetic sensors such that the magnetic sensors can individually move freely; and a movement mechanism configured to move the magnetic sensors individually in directions that approach and separate from the subject to be measured , and thereby is configured to cause the magnetic sensors to come into contact with or separate from the subject to be measured, characterized in that each magnetic sensor of the plurality of magnetic sensors is a giant magnetoresistance sensor (GMR sensor), a tunnel magneto resistance sensor (TMR sensor), an anisotropic magneto resistive sensor (AMR sensor), a magnetic impedance sensor (MI sensor) or a fluxgate sensor, and the magnetic sensors further include additional biological information acquisition means for acquiring biological information selected from the group consisting of electrocardiogram, heart rate, pulse, the number of breaths, and muscle potential.
An optical fiber structure comprising a cylindrical resin body , and a plurality of circumferential arrays of optical fiber bare wires disposed within the cylindrical resin body and extending along a longitudinal direction (X) of the resin body, characterized in that the resin body comprises: a plurality of linear slits arranged at regular intervals in a circumferential direction, each of the liner slits provided at a location intermediate a length of the resin body, wherein each of the linear slits extends from an outer surface to an inner bore of the resin body, and extends substantially parallel to the bare wires; and elongated portions each sandwiched between two adjacent linear slits of the plurality of linear slits in the resin body, the elongated portions being overlapped so that the resin body has a narrower outer circumference. a plurality of linear slits arranged at regular intervals in a circumferential direction, each of the liner slits provided at a location intermediate a length of the resin body, wherein each of the linear slits extends from an outer surface to an inner bore of the resin body, and extends substantially parallel to the bare wires; and elongated portions each sandwiched between two adjacent linear slits of the plurality of linear slits in the resin body, the elongated portions being overlapped so that the resin body has a narrower outer circumference.
Method for forwarding a call from a first communication device to a second communication device , the method comprises the steps of: detecting the second communication device ; forwarding an established call from the first communication device to the second communication device ; characterized in that a movement of the first communication device is measured, the measured movement is compared with a predetermined movement characteristic, and if such a predetermined movement characteristic is detected in the measured movement, the second communication device is selected among one or more detected communication devices to forward the call on the basis of a direction of the measured movement of the first communication device relative to the second communication device , wherein the predetermined movement corresponds to a movement of a hand performing a throw movement. detecting the second communication device ; forwarding an established call from the first communication device to the second communication device ; characterized in that a movement of the first communication device is measured, the measured movement is compared with a predetermined movement characteristic, and if such a predetermined movement characteristic is detected in the measured movement, the second communication device is selected among one or more detected communication devices to forward the call on the basis of a direction of the measured movement of the first communication device relative to the second communication device , wherein the predetermined movement corresponds to a movement of a hand performing a throw movement.
Setting tool , for bolt anchors , having: - a first, especially hollow-cylindrical, main body having a first end , a holding device for a bolt anchor , especially having a clamping device , which holding device is arranged at the first end , a second end , a first receiving device , especially a polygonal receiving device, which is arranged at the second end , - and a second, especially solid-cylindrical, main body for hammered introduction and clamping of the bolt anchor in a solid substrate , having a first end , a tool device having a frontal tool striking face , which tool device is arranged at the first end , a second end , a frontal bolt striking face arranged at the second end , and a second receiving device which is complementary to the first receiving device of the first main body , - wherein a first cylinder axis of the first main body and a second cylinder axis of the second main body are substantially coaxial, and the second main body is guided so as to be axially displaceable with the second receiving device in the first receiving device of the first main body and is held fixed against rotation with respect to the first main body , characterised in that the first main body has an opening as a first, especially slot-like, stop element which is especially oriented parallel to the first cylinder axis , which first stop element is complementary to a second, especially pin-like, stop element on the second main body , which second stop element is spring-loaded in a radial direction, and limits a movement of the first and second main bodies relative to one another in an axial direction. - a first, especially hollow-cylindrical, main body having a first end , a holding device for a bolt anchor , especially having a clamping device , which holding device is arranged at the first end , a second end , a first receiving device , especially a polygonal receiving device, which is arranged at the second end , - and a second, especially solid-cylindrical, main body for hammered introduction and clamping of the bolt anchor in a solid substrate , having a first end , a tool device having a frontal tool striking face , which tool device is arranged at the first end , a second end , a frontal bolt striking face arranged at the second end , and a second receiving device which is complementary to the first receiving device of the first main body , - wherein a first cylinder axis of the first main body and a second cylinder axis of the second main body are substantially coaxial, and the second main body is guided so as to be axially displaceable with the second receiving device in the first receiving device of the first main body and is held fixed against rotation with respect to the first main body ,
An aircraft incorporating main engines and a power unit adapted for generating electric, pneumatic and/or hydraulic power for the aircraft, wherein the power unit comprises: a heat engine having at least one drive shaft and an exhaust for evacuating combustion gases out of the heat engine , a Rankine cycle system for recovering thermal energy from a heat source of the power unit , as mechanical energy for the assistance of the heat engine , and wherein the Rankine cycle system comprises: an expander mechanically coupled with the drive shaft , a first Ram-air intake and a condenser thermally coupled with the Ram-air intake to cool down a Rankine system fluid, and a heat exchanger thermally coupled with the heat source for transferring heat to the Rankine system fluid, characterized in that the power unit further comprises: at least one load compressor mechanically coupled with the drive shaft to provide a flow of compressed air, and a Ram-air intake in fluid communication with the load compressor to feed Ram air to the load compressor, wherein the output of the load compressor is fluidly communicated with a pneumatic system of the aircraft, to supply pressurized air to that system, and wherein the heat exchanger of the Rankine cycle system is thermally coupled with the output of the load compressor , so that the pressurized air provided by the load compressor is used as heat source for the Rankine cycle system . a heat engine having at least one drive shaft and an exhaust for evacuating combustion gases out of the heat engine , a Rankine cycle system for recovering thermal energy from a heat source of the power unit , as mechanical energy for the assistance of the heat engine , and wherein the Rankine cycle system comprises: an expander mechanically coupled with the drive shaft , a first Ram-air intake and a condenser thermally coupled with the Ram-air intake to cool down a Rankine system fluid, and a heat exchanger thermally coupled with the heat source for transferring heat to the Rankine system fluid, at least one load compressor mechanically coupled with the drive shaft to provide a flow of compressed air, and a Ram-air intake in fluid communication with the load compressor to feed Ram air to the load compressor,
A transportable magnifier camera assembly comprising: a base adapted to support the magnifier camera and an object to be viewed; a housing pivotally connected to the base , the housing having an interior compartment, and a lighting panel; a monitor for displaying images of the object to be viewed; a U-shaped monitor arm having a first end pivotally connected to the housing and a second end pivotally connected to the monitor , the U-shaped monitor arm providing a space; a camera arm rotating along with the U-shaped monitor arm ; a camera pivotally connected to the magnifier camera by way of the camera arm ; the magnifier camera assembly having a stowed orientation wherein the camera arm is positioned within the space provided by the U-shaped monitor arm and the monitor arm and monitor are accepted within the interior compartment, and wherein the monitor is in facing relation to the base , the magnifier camera assembly also having a deployed orientation wherein the base , housing , monitor arm , and monitor are all angled with respect to one another. a base adapted to support the magnifier camera and an object to be viewed; a housing pivotally connected to the base , the housing having an interior compartment, and a lighting panel; a monitor for displaying images of the object to be viewed; a U-shaped monitor arm having a first end pivotally connected to the housing and a second end pivotally connected to the monitor , the U-shaped monitor arm providing a space; a camera arm rotating along with the U-shaped monitor arm ; a camera pivotally connected to the magnifier camera by way of the camera arm ; the magnifier camera assembly having a stowed orientation wherein the camera arm is positioned within the space provided by the U-shaped monitor arm and the monitor arm and monitor are accepted within the interior compartment, and wherein the monitor is in facing relation to the base , the magnifier camera assembly also having a deployed orientation wherein the base , housing , monitor arm , and monitor are all angled with respect to one another.
An apparatus comprising: a carrier having a seat , the seat including: a ridge extending from the seat ; and a collar extending from the seat ; and a container supported on the seat , the container movable between (A) a locked position in which the ridge fixedly engages the container to non-rotatably couple the container to the seat and (B) an unlocked position in which the container is disengaged from the ridge and the container is rotatable about the collar . a carrier having a seat , the seat including: a ridge extending from the seat ; and a collar extending from the seat ; and a ridge extending from the seat ; and a collar extending from the seat ; and a container supported on the seat , the container movable between (A) a locked position in which the ridge fixedly engages the container to non-rotatably couple the container to the seat and (B) an unlocked position in which the container is disengaged from the ridge and the container is rotatable about the collar .
A cannula for conducting a liquid, in particular blood, comprising: - a tube element including a front end region and a rear end region, wherein a channel extends through the tube element from the front end region of the tube element to the rear end region the of tube element ; - a tensioning ring , wherein the tensioning ring axially overlaps the front end region of the tube element and is firmly connected to the front end region of the tube element , wherein in a basic state of the cannula , in which no external forces act upon the front end region of the tube element or on the tensioning ring , the tube element is biased by a force exerted by the tensioning ring radially outward on the front end region of the tube element , wherein the cannula includes a seal ring , wherein the seal ring axially overlaps the front end region of the tube element and is arranged axially behind the tensioning ring . - a tube element including a front end region and a rear end region, wherein a channel extends through the tube element from the front end region of the tube element to the rear end region the of tube element ; - a tensioning ring , wherein the tensioning ring axially overlaps the front end region of the tube element and is firmly connected to the front end region of the tube element , wherein in a basic state of the cannula , in which no external forces act upon the front end region of the tube element or on the tensioning ring , the tube element is biased by a force exerted by the tensioning ring radially outward on the front end region of the tube element , wherein the cannula includes a seal ring , wherein the seal ring axially overlaps the front end region of the tube element and is arranged axially behind the tensioning ring .