mhurhangee/ep-ind-claims huggingface dataset:
A random mat comprising carbon fibers and a matrix resin, wherein the carbon fibers in the random mat have an average fiber length in a range of 3 mm to 100 mm, and a fiber areal weight of the carbon fibers is 25 to 10,000 g/m 2, wherein carbon fiber bundles A constituted by carbon fibers of the critical number of single fiber or more are present in the random mat, wherein the critical number of single fiber is defined by formula 1, and the random mat further comprises at least one of carbon fibers in a single fiber form and fiber bundles constituted by carbon fibers of less than the critical number of single fiber, a ratio of the carbon fiber bundles A to a total amount of the carbon fibers in the random mat is a range of 20 Vol% to 99 Vol%, an average number N of fibers in the carbon fiber bundles A satisfies the following formula 2, and the random mat is characterized in that a ratio of carbon fiber bundles A having a thickness of 100 μm or more is less than 3% based on the total number of the carbon fiber bundles A: Critical number of single fiber = 600 / D 0.6 × 10 4 / D 2 < N < 1 × 10 5 / D 2 wherein D is an average fiber diameter in μm of single carbon fibers.
A method of intraoperatively verifying the position and orientation of a surgically inserted orthopedic insert, comprising: generating a preoperative three dimensional image data set showing at least a bone in which said insert is to be inserted; generating a plurality of intraoperative two-dimensional fluoroscope images, each taken at a known orientation and position relative to said bone, showing said insert and said bone; reconstructing from said plurality of intraoperative two dimensional fluoroscope images, at least one intraoperative three dimensional image data set including said insert, and determining the three dimensional position of said insert in said images from said image data set; registering said at least one intraoperative three dimensional image data set with said preoperative three dimensional image data set; and using said registration, implanting an image of the insert determined from said intraoperative three dimensional image data set, into images obtained from said preoperative three dimensional image set, such that the intraoperative position of said insert is displayed in the preoperative images obtained without the insert. generating a preoperative three dimensional image data set showing at least a bone in which said insert is to be inserted; generating a plurality of intraoperative two-dimensional fluoroscope images, each taken at a known orientation and position relative to said bone, showing said insert and said bone; reconstructing from said plurality of intraoperative two dimensional fluoroscope images, at least one intraoperative three dimensional image data set including said insert, and determining the three dimensional position of said insert in said images from said image data set; registering said at least one intraoperative three dimensional image data set with said preoperative three dimensional image data set; and using said registration, implanting an image of the insert determined from said intraoperative three dimensional image data set, into images obtained from said preoperative three dimensional image set, such that the intraoperative position of said insert is displayed in the preoperative images obtained without the insert.
Process for producing pyrogenic metal oxides, characterized in that a high-temperature hydrolysis of vaporizable halogen metal compounds of the general formula I MH a R b X c to metal oxides of the general formula II M d O e takes place, with the following possible definitions: M: Si, Al, Ti, Zr, Zn, Ce, Hf, Fe R: an M-C-bonded, C 1 -C 15 hydrocarbon radical, preferably a C 1 -C 8 hydrocarbon radical and more preferably a C 1 -C 3 hydrocarbon radical, or aryl radical, it being possible for each R to be alike or different, X: halogen atom, OR radical, R being as defined above, a: 0, 1, 2, 3, b: 0, 1, 2, 3, c: 1, 2, 3, 4, d: 1, 2, e: 1, 2, 3 with the proviso that the sum a + b + c is 4 for Si, Ti, Zn, Zr, Hf, 3 for Al, Fe, 2 for Zn, the process taking place at a wall temperature of less than 250°C and hydrogen and air serving as combustion gases for obtaining the requisite temperatures. M: Si, Al, Ti, Zr, Zn, Ce, Hf, Fe R: an M-C-bonded, C 1 -C 15 hydrocarbon radical, preferably a C 1 -C 8 hydrocarbon radical and more preferably a C 1 -C 3 hydrocarbon radical, or aryl radical, it being possible for each R to be alike or different, X: halogen atom, OR radical, R being as defined above, a: 0, 1, 2, 3, b: 0, 1, 2, 3, c: 1, 2, 3, 4, d: 1, 2, e: 1, 2, 3 4 for Si, Ti, Zn, Zr, Hf, 3 for Al, Fe, 2 for Zn,
A mop comprising: a mop pole; a lower handle grip mounted around a lower portion of the mop pole and configured to move axially along the mop pole; an upper handle grip at least partially mounted around an upper portion of the mop pole and configured to move axially along the mop pole; and a rotational mechanism capable of imparting rotation into the mop pole in response to the axial movement of the upper handle grip, characterised in that the rotational mechanism comprises two or more inserts attached to internal walls of the upper handle grip, the two or more inserts including prongs; a rotatable portion attached to a top end of the mop pole, the rotatable portion including a set of teeth; and a rotating element having grooves and another set of teeth, wherein as the upper handle grip is moved axially along the mop pole, the prongs of the inserts catch the grooves of the rotating element and cause the rotating element to rotate, and during rotation of the rotating element, the teeth of the rotating element catch the teeth of the rotatable portion thereby imparting a rotation into the mop pole. a mop pole; a lower handle grip mounted around a lower portion of the mop pole and configured to move axially along the mop pole; an upper handle grip at least partially mounted around an upper portion of the mop pole and configured to move axially along the mop pole; and a rotational mechanism capable of imparting rotation into the mop pole in response to the axial movement of the upper handle grip, characterised in that the rotational mechanism comprises two or more inserts attached to internal walls of the upper handle grip, the two or more inserts including prongs; a rotatable portion attached to a top end of the mop pole, the rotatable portion including a set of teeth; and a rotating element having grooves and another set of teeth, wherein as the upper handle grip is moved axially along the mop pole, the prongs of the inserts catch the grooves of the rotating element and cause the rotating element to rotate, and during rotation of the rotating element, the teeth of the rotating element catch the teeth of the rotatable portion thereby imparting a rotation into the mop pole.
A gearbox mounting link (22, 24, 26) between a gas turbine engine structure and a gearbox mounting location, the mounting link comprising: first and second engine attachment brackets (102a, 102b) configured to be secured to the gas turbine engine structure; characterized by comprising: an attachment plate rotatably secured to and extending between the first and second engine attachment brackets, the attachment plate comprising: a fusibly separable section configured to attach to the gearbox, so as to constrain motion of the gearbox in two degrees of freedom; a static section formed integrally with the fusibly separable section; and shear necks connecting the static section to the fusibly separable section; a secondary retention sleeve supported by and secured to the static section; and a secondary retention fastener supported by the secondary retention sleeve, and disposed through an oversized fastener passage through the fusibly separable section, thereby loosely retaining the fusibly separable section in at least one of the two degrees of freedom after separation of the fusibly separable section from the static section. first and second engine attachment brackets (102a, 102b) configured to be secured to the gas turbine engine structure; characterized by comprising: an attachment plate rotatably secured to and extending between the first and second engine attachment brackets, the attachment plate comprising: a fusibly separable section configured to attach to the gearbox, so as to constrain motion of the gearbox in two degrees of freedom; a static section formed integrally with the fusibly separable section; and shear necks connecting the static section to the fusibly separable section; a fusibly separable section configured to attach to the gearbox, so as to constrain motion of the gearbox in two degrees of freedom; a static section formed integrally with the fusibly separable section; and shear necks connecting the static section to the fusibly separable section; a secondary retention sleeve supported by and secured to the static section; and a secondary retention fastener supported by the secondary retention sleeve, and disposed through an oversized fastener passage through the fusibly separable section, thereby loosely retaining the fusibly separable section in at least one of the two degrees of freedom after separation of the fusibly separable section from the static section.
A vortex generator device (70, 70A, 70B, 70C) for a wind turbine blade (10, 10A), the vortex generator device comprising: - a base with an inner side and an outer side; and - a first fin protruding from the outer side and extending along a first fin axis, wherein the vortex generator device is a single-fin vortex generator device, and the base has a first edge part and a second edge part, the first edge part and the second edge part being straight, the first edge part and the second edge part forming a primary angle in the range from 5 degrees to 60 degrees, and the base having a first leading corner edge part between the first edge part and the second edge part, characterised in that the first leading corner edge part is curved. - a base with an inner side and an outer side; and - a first fin protruding from the outer side and extending along a first fin axis,
A crystalline anhydrous form of lenalidomide, which is characterized by a powder XRD pattern comprising the following peaks: Angle d value Intensity % 2-Theta ° Angstrom % 7.879 11.21187 31.9 10.175 8.68633 14.9 11.269 7.84565 13.2 14.327 6.17721 71.0 14.825 5.97072 6.2 15.772 5.61449 20.3 16.277 5.44134 14.2 17.646 5.02198 27.3 20.099 4.41442 24.9 20.508 4.32723 100.0 22.703 3.91356 4.5 23.728 3.74678 41.9 24.098 3.69015 41.6 24.796 3.58779 7.9 25.230 3.52703 11.6 25.987 3.42594 31.9 28.320 3.14885 19.0 28.936 3.08320 4.5 31.338 2:85215 6.0 31.901 2.80303 4.3 32.595 2.74494 20.3 33.516 2.67156 9.7 38.133 2.35805 3.9
A thermoelectric generator for an exhaust system of an internal combustion engine; the thermoelectric generator comprising: at least two superimposed feeding elements, each of which is provided with at least one duct designed to be flown through by the exhaust gases, developing along a feeding direction between an inlet opening and an outlet opening and having at least one first heat exchange wall, which is parallel to the feeding direction; at least one cooling element, which is designed to remove heat, is close to the duct and has at least one second heat exchange wall, which is parallel to the first heat exchange wall of a feeding element; and at least one thermoelectric cell, which is interposed between the duct and the cooling element and has a hot side resting against the first heat exchange wall of a feeding element and a cold side resting against the second heat exchange wall; wherein each feeding element comprises a front wall, which is rigidly integral to the duct, is perpendicular to the duct and to the first heat exchange wall and has the central inlet opening; and wherein each feeding element comprises a rear wall, which is rigidly integral to the duct, is perpendicular to the duct and to the first heat exchange wall, is parallel to the front wall and has the central outlet opening; the thermoelectric generator being characterized in that an upper edge or a lower edge of the front wall or of the rear wall of each feeding element is flared to provide a mechanical interlocking between the two superimposed feeding elements. at least two superimposed feeding elements, each of which is provided with at least one duct designed to be flown through by the exhaust gases, developing along a feeding direction between an inlet opening and an outlet opening and having at least one first heat exchange wall, which is parallel to the feeding direction; at least one cooling element, which is designed to remove heat, is close to the duct and has at least one second heat exchange wall, which is parallel to the first heat exchange wall of a feeding element; and at least one thermoelectric cell, which is interposed between the duct and the cooling element and has a hot side resting against the first heat exchange wall of a feeding element and a cold side resting against the second heat exchange wall; wherein each feeding element comprises a front wall, which is rigidly integral to the duct, is perpendicular to the duct and to the first heat exchange wall and has the central inlet opening; and wherein each feeding element comprises a rear wall, which is rigidly integral to the duct, is perpendicular to the duct and to the first heat exchange wall, is parallel to the front wall and has the central outlet opening; the thermoelectric generator being characterized in that an upper edge or a lower edge of the front wall or of the rear wall of each feeding element is flared to provide a mechanical interlocking between the two superimposed feeding elements.
A mobile station comprising: a receiver unit configured to receive a PDCP, Packet Data Convergence Protocol, -PDU with a PDCP-SN added as a header at a PDCP layer from a radio base station; and a transmitter unit configured to transmit a PDCP-PDU at the PDCP layer to the radio base station, wherein the receiver unit is configured to perform deciphering processing on the received PDCP-PDU by using a COUNT value composed by an HFN, Hyper Frame Number, and the PDCP-SN added as the header to the received PDCP-PDU, and the transmitter unit is configured to, if an HFN report trigger is detected, send the radio base station a PDCP Status Report including a COUNT value to be used in the deciphering processing on the next PDCP-PDU. a receiver unit configured to receive a PDCP, Packet Data Convergence Protocol, -PDU with a PDCP-SN added as a header at a PDCP layer from a radio base station; and a transmitter unit configured to transmit a PDCP-PDU at the PDCP layer to the radio base station, wherein the receiver unit is configured to perform deciphering processing on the received PDCP-PDU by using a COUNT value composed by an HFN, Hyper Frame Number, and the PDCP-SN added as the header to the received PDCP-PDU, and the transmitter unit is configured to, if an HFN report trigger is detected, send the radio base station a PDCP Status Report including a COUNT value to be used in the deciphering processing on the next PDCP-PDU.
A recombinant N-oligosaccharyl transferase which is PglB of Campylobacter jejuni (PglB Cj) or PglB of Campylobacter lari (PglB Cl), wherein the recombinant N-oligosaccharyl transferase (N-OST) can detectably link an oligosaccharide or polysaccharide lacking an N-acetyl sugar at the reducing end to a carrier protein at an N-glycosylation consensus sequence wherein one or more amino acids selected from the group consisting of Y77, S80, S196, N311, Y462, K482, D483 and G477 of PglB Cj are modified.
A method for detecting a light signal level of a specific dye spectrum emanating from a reaction vessel in the course of a chemical or biochemical reaction, said method comprising: conducting said reaction in the reaction vessel, which is arranged so that light having a spectrum including the specific dye spectrum and other dye spectra emanating from the reaction vessel is received by a detector comprising a plurality of photosensors in an array, wherein each photosensor is activated by light falling within a particular waveband range only, and where photosensors activated by light in each of the different waveband ranges are distributed throughout the array, monitoring the outputs from a plurality of respective subsets of those photosensors which respectively receive wavebands which contribute to the said specific dye spectrum, each subset comprising more than one photosensor whereby the photosensors within a subset are activated by light falling within a specific waveband range only and a plurality of subsets corresponding to different waveband ranges are provided and deconvolving the overlapping other dye spectra and the specific dye spectrum in the received light by utilising knowledge of the expected spectra of each dye concerning the relative spectral intensities of the specific dye spectrum and the other dye spectra in the different wavebands and the outputs of the plurality of subsets so as to differentiate between different spectra and thereby detect the light signal level of the specific dye spectrum. conducting said reaction in the reaction vessel, which is arranged so that light having a spectrum including the specific dye spectrum and other dye spectra emanating from the reaction vessel is received by a detector comprising a plurality of photosensors in an array, wherein each photosensor is activated by light falling within a particular waveband range only, and where photosensors activated by light in each of the different waveband ranges are distributed throughout the array, monitoring the outputs from a plurality of respective subsets of those photosensors which respectively receive wavebands which contribute to the said specific dye spectrum, each subset comprising more than one photosensor whereby the photosensors within a subset are activated by light falling within a specific waveband range only and a plurality of subsets corresponding to different waveband ranges are provided and deconvolving the overlapping other dye spectra and the specific dye spectrum in the received light by utilising knowledge of the expected spectra of each dye concerning the relative spectral intensities of the specific dye spectrum and the other dye spectra in the different wavebands and the outputs of the plurality of subsets so as to differentiate between different spectra and thereby detect the light signal level of the specific dye spectrum.
A cooling system for spraying a coolant on a work piece to be cooled, comprising: - a reservoir for the coolant; - a spray unit; - a pump for pumping coolant from the reservoir to the spray unit; the spray unit comprising: - a chamber which has an inlet for coupling the spray unit to a pipe for the coolant coming from the reservoir, as well as an outlet; - at least a single elongated channel having an inlet and an outlet; - a flow guide whose one end is attached to the chamber at the outlet and whose other end is attached to the channel at the inlet, which flow guide comprises a cavity that widens starting from a coupling between the channel and the flow guide toward the chamber over a non-zero length in a direction perpendicular to a longitudinal direction of the channel, characterized in that an inside of the flow guide is provided with a spiral-shaped rib or groove (9; 60) extending in longitudinal direction of the channel. - a reservoir for the coolant; - a spray unit; - a pump for pumping coolant from the reservoir to the spray unit; - a chamber which has an inlet for coupling the spray unit to a pipe for the coolant coming from the reservoir, as well as an outlet; - at least a single elongated channel having an inlet and an outlet; - a flow guide whose one end is attached to the chamber at the outlet and whose other end is attached to the channel at the inlet, which flow guide comprises a cavity that widens starting from a coupling between the channel and the flow guide toward the chamber over a non-zero length in a direction perpendicular to a longitudinal direction of the channel,
A crystal growing method comprising the steps of: forming a flat and clean SiC surface; growing AlN under high vacuum by feeding Al and N atoms, wherein feeding of Ga or In as surface control element for controlling the mode of crystal growth of said AlN is started before starting said growing; and characterized in that feeding of Ga or In for controlling the mode of crystal growth of said AlN is terminated after said growing is started. forming a flat and clean SiC surface; growing AlN under high vacuum by feeding Al and N atoms, wherein feeding of Ga or In as surface control element for controlling the mode of crystal growth of said AlN is started before starting said growing; and characterized in that feeding of Ga or In for controlling the mode of crystal growth of said AlN is terminated after said growing is started.
Method for the heat treatment of a light metal casting alloy component, preferably of a light metal casting alloy component produced by die casting, preferably having mechanical properties of R p0.2 ≥ 120 MPa and an elongation at break A of greater than 5%, characterized in that • the light metal casting alloy component is brought to an age-hardening temperature T A above the room temperature T R directly after being demoulded at a demoulding temperature T E, • wherein the light metal casting alloy component is cooled down to the age-hardening temperature T A with checking and regulation, and, • directly after it has been cooled down, the light metal casting alloy component is kept at the age-hardening temperature T A for a defined age-hardening time t A, • wherein, after being demoulded and prior to being cooled down to room temperature or between demoulding and reaching the room temperature T R, the light metal casting alloy component does not undergo any further increase in temperature. • the light metal casting alloy component is brought to an age-hardening temperature T A above the room temperature T R directly after being demoulded at a demoulding temperature T E, • wherein the light metal casting alloy component is cooled down to the age-hardening temperature T A with checking and regulation, and, • directly after it has been cooled down, the light metal casting alloy component is kept at the age-hardening temperature T A for a defined age-hardening time t A, • wherein, after being demoulded and prior to being cooled down to room temperature or between demoulding and reaching the room temperature T R, the light metal casting alloy component does not undergo any further increase in temperature.