mhurhangee/patent-ind-claim-en huggingface dataset:
A device for introducing a tissue transplant into a hollow organ comprising a support having a surface for supporting the tissue transplant and a protective element for protecting the tissue transplant while the device being introduced into the hollow organ characterized in that the device comprises: - a first tube that serves as a protective element and has an open proximal end ; - a second tube that serves as a support and can be inserted into the first tube and has a first portion having the surface for supporting the tissue transplant and being able to be expanded by supplying a fluid; and - a third tube that can be guided through the second tube and the open proximal end of the first tube , wherein the third tube at its proximal end has a second portion being able to be expanded by supplying a fluid. - a first tube that serves as a protective element and has an open proximal end ; - a second tube that serves as a support and can be inserted into the first tube and has a first portion having the surface for supporting the tissue transplant and being able to be expanded by supplying a fluid; and - a third tube that can be guided through the second tube and the open proximal end of the first tube , wherein the third tube at its proximal end has a second portion being able to be expanded by supplying a fluid.
An unmanned aerial vehicle, comprising: an antenna device comprising: a hinge , coupled to the unmanned aerial vehicle ; a housing ; and a flat panel antenna disposed within the housing and pivotably coupled to the hinge to change a pitch of the flat panel antenna , wherein the housing encloses the pivotable flat panel antenna and the flat panel antenna pivots relative to the housing . a hinge , coupled to the unmanned aerial vehicle ; a housing ; and a flat panel antenna disposed within the housing and pivotably coupled to the hinge to change a pitch of the flat panel antenna , wherein the housing encloses the pivotable flat panel antenna and the flat panel antenna pivots relative to the housing .
A method for printing a web of packaging material for packages holding liquid food products, wherein the web comprises a number of blanks placed after one another, wherein each blank corresponds to one package, wherein each of the blanks comprises a first area that is pre-printed and a second area to be printed, the method comprising receiving the web of packaging material, identifying a first register mark using a first sensor , determining a first register mark position based on the first register mark , determining a second register mark position area based on the first register mark position, identifying a second register mark within the second register mark position area using a second sensor and determining a second register mark position for the second register mark, determining a second area position of the second area based on the second register mark position, adjusting the web in relation to printer bars in accordance with the second area position, and printing the second area by using the printer bars . receiving the web of packaging material, identifying a first register mark using a first sensor , determining a first register mark position based on the first register mark , determining a second register mark position area based on the first register mark position, identifying a second register mark within the second register mark position area using a second sensor and determining a second register mark position for the second register mark, determining a second area position of the second area based on the second register mark position, adjusting the web in relation to printer bars in accordance with the second area position, and printing the second area by using the printer bars .
A polyamide resin comprising a diamine-derived structural unit and a dicarboxylic acid-derived structural unit, wherein 50 mol% or more of the diamine-derived structural units are structural units derived from p-benzenediethanamine, and wherein from 65 mol% to 97 mol% of the dicarboxylic acid-derived structural units are structural units derived from an aromatic dicarboxylic acid, and from 3 to 35 mol% are structural units derived from an alicyclic dicarboxylic acid, and wherein 90 mol% or more of the structural units derived from an alicyclic dicarboxylic acid are structural units derived from a cyclohexane dicarboxylic acid. wherein 50 mol% or more of the diamine-derived structural units are structural units derived from p-benzenediethanamine, and wherein from 65 mol% to 97 mol% of the dicarboxylic acid-derived structural units are structural units derived from an aromatic dicarboxylic acid, and from 3 to 35 mol% are structural units derived from an alicyclic dicarboxylic acid, and wherein 90 mol% or more of the structural units derived from an alicyclic dicarboxylic acid are structural units derived from a cyclohexane dicarboxylic acid.
An information processing apparatus comprising: a sound pickup sensor that has a sound pickup function; a communicating part that wirelessly transmits audio data picked up by the sound pickup sensor to an outside; a control part that controls the sound pickup sensor and the communicating part; a power source part that supplies a power source to at least one of the sound pickup sensor, the communicating part, or the control part; a housing part that accommodates therein at least one of the sound pickup sensor, the communicating part, the control part, or the power source part; and an adhering part that fixes the housing part to a skin of the body of a user of the information processing apparatus; characterized by further comprising: a biological sensor that detects biological information of the user, wherein the control part controls processing of the audio data picked up by the sound pickup sensor on a basis of the biological information detected by the biological sensor. a sound pickup sensor that has a sound pickup function; a communicating part that wirelessly transmits audio data picked up by the sound pickup sensor to an outside; a control part that controls the sound pickup sensor and the communicating part; a power source part that supplies a power source to at least one of the sound pickup sensor, the communicating part, or the control part; a housing part that accommodates therein at least one of the sound pickup sensor, the communicating part, the control part, or the power source part; and an adhering part that fixes the housing part to a skin of the body of a user of the information processing apparatus; characterized by further comprising: a biological sensor that detects biological information of the user, wherein the control part controls processing of the audio data picked up by the sound pickup sensor on a basis of the biological information detected by the biological sensor. a biological sensor that detects biological information of the user, wherein the control part controls processing of the audio data picked up by the sound pickup sensor on a basis of the biological information detected by the biological sensor.
System for generating a beat signal, comprising: - a frequency comb source as a first light source with a spectrum comprising a plurality of equidistant optical modes, - a second light source , which second light source is a CW laser, - at least one coupler and filter arrangement with a first port for coupling in light from the first light source , and a second port for coupling in light from the second light source , - a detector adapted to receive, from the coupler and filter arrangement , light of the first light source and light of the second light source , wherein a super-imposition of the light of the first and second light sources generates a beat-frequency in the radio-frequency range on the detector ; the coupler and filter arrangement comprising: - a spectral filter for filtering out one or several modes from the multimode spectrum of the first light source , and - a first fiber-optical coupler for coupling the light of the second light source and the light of the first light source , the coupler and filter arrangement being furthermore configured to be fiber-optical, and wherein at least input fibers at the first port and the second port and/or fiber sections leading into the first fiber-optical coupler are polarization maintaining optical fibers. - a frequency comb source as a first light source with a spectrum comprising a plurality of equidistant optical modes, - a second light source , which second light source is a CW laser, - at least one coupler and filter arrangement with a first port for coupling in light from the first light source , and a second port for coupling in light from the second light source , - a detector adapted to receive, from the coupler and filter arrangement , light of the first light source and light of the second light source , wherein a super-imposition of the light of the first and second light sources generates - a spectral filter for filtering out one or several modes from the multimode spectrum of the first light source , and - a first fiber-optical coupler for coupling the light of the second light source and the light of the first light source ,
An X-ray backscatter indication and detection system (100; 1400; 1900) comprising: an X-ray generator (300; 1406; 1922); an object (1402; 1902) disposed with respect to a target area (304; 1404; 1904) targeted by X-rays (1408; 1906) from the X-ray generator (300; 1406; 1922), such that backscattered X-rays (1412; 1908) that backscatter from the target area (304; 1404; 1904) strike a surface of the object (1402; 1902), wherein the surface of the object (1402; 1902) includes an X-ray sensitive indicator substance (1410; 1912) that fluoresces with a visible light when contacted by backscattered X-rays (1412; 1908) ; wherein the object (1402; 1902) comprises: - a first panel (308; 1424; 1924) in front of but to a first side of the X-ray generator (300; 1406; 1922); - a second panel (310; 1426; 1926) in front of but to a second side of the X-ray generator (300; 1406; 1922), opposite the first side; - a third panel (314; 1428; 1928) about perpendicular to the first panel (308; 1424; 1924) at a first far end of the first panel , relative to the X-ray generator (300; 1406; 1922); - a fourth panel (316; 1430; 1930) about perpendicular to the second panel at a second far end of the second panel (310; 1426; 1926), relative to the X-ray generator (300; 1406; 1922); - the panels being coated with the X-rays sensitive indicator substance and placed around the target in a manner to provide a measurement of the distribution of the energy and flux of the X-ray scatter on either side of the target . an X-ray generator (300; 1406; 1922); an object (1402; 1902) disposed with respect to a target area (304; 1404; 1904) targeted by X-rays (1408; 1906) from the X-ray generator (300; 1406; 1922), such that backscattered X-rays (1412; 1908) that backscatter from the target area (304; 1404; 1904) strike a surface of the object (1402; 1902), - a first panel (308; 1424; 1924) in front of but to a first side of the X-ray generator (300; 1406; 1922); - a second panel (310; 1426; 1926) in front of but to a second side of the X-ray generator (300; 1406; 1922), opposite the first side; - a third panel (314; 1428; 1928) about perpendicular to the first panel (308; 1424; 1924) at a first far end of the first panel , relative to the X-ray generator (300; 1406; 1922); - a fourth panel (316; 1430; 1930) about perpendicular to the second panel at a second far end of the second panel (310; 1426; 1926), relative to the X-ray generator (300; 1406; 1922); - the panels being coated with the X-rays sensitive indicator substance and placed around the target in a manner to provide a measurement of the distribution of the energy and flux of the X-ray scatter on either side of the target .
Method for air-conditioning a vehicle , in particular a rail vehicle, in which a first air stream is generated by an air-conditioning system for air-conditioning an interior space , whereby cooled air is fed as supply air in a cooling mode, and heated air is fed as supply air in a heating mode, to the interior space of the vehicle , wherein a second air stream generated by an additional air recirculation device is fed to the interior space of the vehicle such that the second air stream influences the first air stream , in particular with respect to flow direction and flow intensity; characterized in that , in the region of the interior space, there is arranged a plurality of inflow channels for the feeding of the second air stream into the interior space ; wherein the second air stream is fed to the interior space such that, for the influencing of the first air stream , a Coanda air flow is generated, wherein, in the region of the interior space, at least one inflow channel for the feeding of the second air stream into the interior space is in the form of a convexly shaped Coanda inflow opening and is arranged in the interior space such that the first air stream , in accordance with the Coanda effect, comes into contact with surfaces in the interior space such that the first air stream influenced by the second air stream does not pass directly into seat regions of the interior space .
A device comprising: a substrate having an edge ; a first waveguide on the substrate , the first waveguide comprising a constant-width region and a tapered region terminating at the edge of the substrate , the tapered region having a smaller width at the edge than at the constant-width region ; a pair of second waveguides on the substrate , and located on either side of the tapered region of the first waveguide , each of the pair of the second waveguides terminating at the edge at a first end and extending to a second end adjacent the constant-width region of the first waveguide , the second end distal the first end ; at least a portion of each of the pair of second waveguides being tapered, and optically coupled to the first waveguide to transition a mode of an optical signal in the first waveguide from an elliptical mode at the edge towards a confined mode in the first waveguide in the constant-width region , characterized in that each of the pair of second waveguides has a larger width at the edge than adjacent an interface between the constant-width region and the tapered region of the first waveguide , the width of each of the pair of second waveguides decreasing over the length of tapered region . a substrate having an edge ; a first waveguide on the substrate , the first waveguide comprising a constant-width region and a tapered region terminating at the edge of the substrate , the tapered region having a smaller width at the edge than at the constant-width region ; a pair of second waveguides on the substrate , and located on either side of the tapered region of the first waveguide , each of the pair of the second waveguides terminating at the edge at a first end and extending to a second end adjacent the constant-width region of the first waveguide , the second end distal the first end ; at least a portion of each of the pair of second waveguides being tapered, and optically coupled to the first waveguide to transition a mode of an optical signal in the first waveguide from an elliptical mode at the edge towards a confined mode in the first waveguide in the constant-width region , characterized in that each of the pair of second waveguides has a larger width at the edge than adjacent an interface between the constant-width region and the tapered region of the first waveguide , the width of each of the pair of second waveguides decreasing over the length of tapered region .
An intelligent composite system provided with a laboratory dropper and at least one color test machine , wherein the at least one dropper is used to drip out a required dye solution to a plurality of staining cups ; wherein the intelligent composite system comprises: at least one control unit ; at least one dye preparation area adjacent to said at least one dropper , each said dye preparation area comprising a plurality of sample cloths to be dyed and defining a cup cap placing area and a staining cup combination temporary storage area ; at least one robotic arm adjacent to said at least one dye preparation area ; wherein the at least one color test machine is adjacent to said at least one robotic arm , each said color test machine comprising a plurality of color test machine staining cup positions ; wherein said at least one control unit is electrically connected to said at least one dropper , said at least one robotic arm and said at least one color test machine ; and wherein, according to the process step instructions set by said at least one control unit , said at least one robotic arm picks up each said staining cup that has completed the dripping operation and places the said staining cup in said staining cup combination temporary storage area , picks up one said sample cloth and puts the said sample cloth into the said staining cup , takes out one cup cap from said cup cap placing area and locks said cup cap to the said staining cup , and then puts the said staining cup into one designated color test machine staining cup position of said color test machine . wherein the at least one dropper is used to drip out a required dye solution to a plurality of staining cups ; wherein the intelligent composite system comprises: at least one control unit ; at least one dye preparation area adjacent to said at least one dropper , each said dye preparation area comprising a plurality of sample cloths to be dyed and defining a cup cap placing area and a staining cup combination temporary storage area ; at least one robotic arm adjacent to said at least one dye preparation area ; wherein the at least one color test machine is adjacent to said at least one robotic arm , each said color test machine comprising a plurality of color test machine staining cup positions ; wherein said at least one control unit is electrically connected to said at least one dropper , said at least one robotic arm and said at least one color test machine ; and wherein, according to the process step instructions set by said at least one control unit , said at least one robotic arm picks up each said staining cup that has completed the dripping operation and places the said staining cup in said staining cup combination temporary storage area , picks up one said sample cloth and puts the said sample cloth into the said staining cup , takes out one cup cap from said cup cap placing area and locks said cup cap to the said staining cup , and then puts the said staining cup into one designated color test machine staining cup position of said color test machine .
A computer-implemented method for analyzing digital holographic microscopy, DHM, data for hematology applications, the method comprising: receiving a plurality of DHM images acquired using a digital holographic microscopy system, each DHM image comprising depictions of one or more cell objects and background; generating a reference image based on the plurality of DHM images comprising only contributions from the background of the plurality of DHM images; using the reference image to reconstruct a fringe pattern in the DHM image into an optical depth map, the method is characterized in that : wherein the reference image is generated by: under conditions where the reference image is expected to change slowly during acquisition of the plurality of DHM images, applying a filtering algorithm to the plurality of DHM images to dynamically estimate the reference image, wherein applying the filtering algorithm comprises: computing intensity statistics for each pixel across the plurality of DHM images; selecting stable distribution values from the intensity statistics, wherein selected stable distribution values correspond to the background. receiving a plurality of DHM images acquired using a digital holographic microscopy system, each DHM image comprising depictions of one or more cell objects and background; generating a reference image based on the plurality of DHM images comprising only contributions from the background of the plurality of DHM images; using the reference image to reconstruct a fringe pattern in the DHM image into an optical depth map, computing intensity statistics for each pixel across the plurality of DHM images; selecting stable distribution values from the intensity statistics, wherein selected stable distribution values correspond to the background.
A mask comprising: an air chamber ; a filter ; a fan arrangement for ventilating the mask; a sensor arrangement for detecting a breathing cycle of a user ; and a controller which is adapted to: identify a normal cyclic breathing period from the sensor arrangement output, and in response control the fan arrangement in a first mode in synchronism with the cyclic breathing; and characterized in that the controller is further adapted to: identify a disturbed breathing period from the sensor arrangement output, and in response control the fan arrangement in a second mode which is not in synchronism with the timing of inhalation and exhalation. an air chamber ; a filter ; a fan arrangement for ventilating the mask; a sensor arrangement for detecting a breathing cycle of a user ; and a controller which is adapted to: identify a normal cyclic breathing period from the sensor arrangement output, and in response control the fan arrangement in a first mode in synchronism with the cyclic breathing; and characterized in that the controller is further adapted to: identify a disturbed breathing period from the sensor arrangement output, and in response control the fan arrangement in a second mode which is not in synchronism with the timing of inhalation and exhalation. identify a normal cyclic breathing period from the sensor arrangement output, and in response control the fan arrangement in a first mode in synchronism with the cyclic breathing; and characterized in that the controller is further adapted to: identify a disturbed breathing period from the sensor arrangement output, and in response control the fan arrangement in a second mode which is not in synchronism with the timing of inhalation and exhalation.
Ion implantation machine comprising: - an enclosure which is connected to a pumping device , - a plasma source (115-121-122, 304-320, 330-340, 405-406), - a bias supply , - a gas inlet arranged on this enclosure, - a substrate support connected to the negative pole of this bias supply and arranged in said enclosure, characterized in that : - said substrate support consists of at least two parallel plates (105-106, 305-306-307-308-309), - a reference electrode consists of at least one blade (110, 321-322-323-324), this reference electrode being connected to the positive pole of said bias supply, - said blade being inserted between the two plates. - an enclosure which is connected to a pumping device , - a plasma source (115-121-122, 304-320, 330-340, 405-406), - a bias supply , - a gas inlet arranged on this enclosure, - a substrate support connected to the negative pole of this bias supply and arranged in said enclosure, - said substrate support consists of at least two parallel plates (105-106, 305-306-307-308-309), - a reference electrode consists of at least one blade (110, 321-322-323-324), this reference electrode being connected to the positive pole of said bias supply, - said blade being inserted between the two plates.
A rail vehicle having a cladding arrangement for cladding an interior in the region of a functional device , having a first cladding element , fastening means for fastening the first cladding element to a bodyshell structure and a recess in the first cladding element for the passage of the functional device , a second cladding element having a recess for receiving the functional device being provided, wherein the second cladding element is designed to overlap the recess in the first cladding element at the edge in the mounted state of the cladding arrangement , characterized in that the second cladding element is arranged between a body shell structure of the vehicle body and the first cladding element when the cladding arrangement is mounted, wherein the functional device is a lighting device, a spray device or a sound device.