mhurhangee/ep-ind-claims huggingface dataset:
A process for converting hydrocarbons comprising contacting a hydrocarbonaceous feed under hydrocarbon converting conditions with a catalyst comprising a molecular sieve, the molecular sieve having a MTT-type framework, a mole ratio of 20 to 70 of silicon oxide to aluminum oxide, a total micropore volume of between 0.005 and 0.02 cc/g; and a H-D exchangeable acid site density of up to 50% relative to SSZ-32, wherein the molecular sieve is obtainable by: (a) providing as-made, structure directing agent-containing molecular sieve SSZ-32x having a silicon-to-alumina ratio of 20 to 70; (b) subjecting the molecular sieve to a pre-calcination step at a temperature below the full decomposition temperature of the structure directing agent, for a time sufficient to convert at least a portion of the structure directing agent to a decomposition residue; (c) ion-exchanging the pre-calcined molecular sieve to remove extra-framework cations; and (d) subjecting the molecular sieve to a post-calcination step at a temperature below the full decomposition temperature of the structure directing agent, for a time sufficient to convert at least a portion of the structure directing agent to a decomposition residue; wherein the post-calcined molecular sieve has a cumulative weight loss of 0 < CWL ≤ 10 wt.% and a total micropore volume of between 0.005 and 0.02 cc/g. (a) providing as-made, structure directing agent-containing molecular sieve SSZ-32x having a silicon-to-alumina ratio of 20 to 70; (b) subjecting the molecular sieve to a pre-calcination step at a temperature below the full decomposition temperature of the structure directing agent, for a time sufficient to convert at least a portion of the structure directing agent to a decomposition residue; (c) ion-exchanging the pre-calcined molecular sieve to remove extra-framework cations; and (d) subjecting the molecular sieve to a post-calcination step at a temperature below the full decomposition temperature of the structure directing agent, for a time sufficient to convert at least a portion of the structure directing agent to a decomposition residue; wherein the post-calcined molecular sieve has a cumulative weight loss of 0 < CWL ≤ 10 wt.% and a total micropore volume of between 0.005 and 0.02 cc/g.
Apparatus adapted for the manufacture of a coil comprising multiple α-windings, the apparatus comprising: a winding core; a spindle shaft on a tip end of which the winding core is removably mounted and which rotates together with the winding core; a wire rod feeding flyer which is adapted to feed a wire rod while rotating around the winding core mounted on the spindle shaft; a winding core removal mechanism which is adapted to remove the winding core from the spindle shaft by moving the winding core in an axial direction; a supporting member which faces the spindle shaft and which is adapted to support a plurality of the winding cores removed by the winding core removal mechanism at desired intervals in the axial direction; and a support member moving mechanism which is adapted to move the supporting member supporting the winding cores from a position facing the spindle shaft in a direction away from the spindle shaft. a winding core; a spindle shaft on a tip end of which the winding core is removably mounted and which rotates together with the winding core; a wire rod feeding flyer which is adapted to feed a wire rod while rotating around the winding core mounted on the spindle shaft; a winding core removal mechanism which is adapted to remove the winding core from the spindle shaft by moving the winding core in an axial direction; a supporting member which faces the spindle shaft and which is adapted to support a plurality of the winding cores removed by the winding core removal mechanism at desired intervals in the axial direction; and a support member moving mechanism which is adapted to move the supporting member supporting the winding cores from a position facing the spindle shaft in a direction away from the spindle shaft.
Reflector arrangement (1,2) for position determination and/or marking of target points, in particular for industrial or geodetic surveying, having • a retroreflector (4, 5, 6) for position determination for the reflector arrangement (1, 2) using parallel, in particular coaxial, beam reflection and • a sensor arrangement (10,10a-b,20a-d,30a-b), characterized in that the sensor arrangement (10,10a-b,20a-d,30a-b) has • a code element (31,41,55) with a code pattern (32,53) and • a sensor (11, 11a, 52) which is sensitive with respect to at least one wavelength range, with a reception direction that is orthogonal to the detection surface thereof, wherein the code element (31, 41, 55) and the sensor (11, 11a, 52) are rigidly connected, with a defined spacing (d), such that it is possible using the sensor (11, 11a, 52) to determine a location, which is angle-dependent with respect to the reception direction, of a projection of the code pattern (32, 52) onto the detection surface. • a retroreflector (4, 5, 6) for position determination for the reflector arrangement (1, 2) using parallel, in particular coaxial, beam reflection and • a sensor arrangement (10,10a-b,20a-d,30a-b), • a code element (31,41,55) with a code pattern (32,53) and • a sensor (11, 11a, 52) which is sensitive with respect to at least one wavelength range, with a reception direction that is orthogonal to the detection surface thereof,
An installation for processing articles, the installation comprising a first processing station, a second processing station, and an article-transfer device extending between the two processing stations, the transfer device comprising a rail having at least one rectilinear segment and defining a closed travel path for carriages that are mounted on the rail to move freely therealong, each of which is provided with means for driving at least one article, the transfer device comprising a screw extending along the rectilinear segment of the rail and having a thread that co-operates with fingers secured to the carriages in order to drive the carriages along the rectilinear segment, the carriages being in contact with one another for spacing the articles one relative the other at a first spacing when the carriages are not co-operating with the screw, along the rest of the rail and to push against one another along the rest of the rail under the effect of the movement imparted by the screw to each carriage leaving the screw and coming into contact with its predecessor, and the thread of the screw is arranged to hold the carriages at at least one second spacing that is greater than the first spacing.
Device for directed animal traffic, comprising at least three sectors (1, 2, 3, 4, 5), a round passage which is connected to the sectors (1, 2, 3, 4, 5), in each case having a segment (7, 8, 9, 10) of the round passage, which segment forms a transition region from a sector (1, 2, 3, 4, 5) into the round passage, wherein the segment (7, 8, 9, 10) has a swinging gate (18, 19, 20, 21), which permits entry of an animal from a sector (1, 2, 3, 4, 5) into the round passage and only one direction of movement of the animal in the round passage, and a selection unit (22, 23, 24, 25, 26) which is arranged downstream of the swinging gate (18, 19, 20, 21), as viewed in the direction of movement of the animal, and by means of which the animal is directed into the sector (1, 2, 3, 4, 5) or can move further along the round passage.
Automatic manufacturing station for workpieces, in particular for vehicle body components, which has a manufacturing region having a workstation and having a plurality of programme-controlled manufacturing robots, wherein the workpieces are fed from externally to the manufacturing station on production load carriers, characterized in that the manufacturing station has a plurality of workstations (10, 11, 12, 13) and a station-bound transport means for transporting the production load carriers within the manufacturing station, wherein one or more manufacturing robots are designed to transport a workpiece between the workstations (10, 11, 12, 13).
A braking system for an agricultural vehicle, the braking system comprising: a first master cylinder associated with a first brake pedal to control a left wheel brake, and a second master cylinder associated with a second brake pedal to control a right wheel brake, wherein the system comprises a central selection valve to selectively apply brake fluid from a brake fluid supply to the left wheel brake, to the right wheel brake, or to both the left and right wheel brakes (26a, b), wherein the operation of the central selection valve is based on the difference between the first master cylinder pressure and the second master cylinder pressure, characterised in that the system further comprises a central proportional valve to supply brake fluid from the brake fluid supply to the central selection valve, wherein the operation of the central proportional valve is configured such that: when the pressure of the first and second master cylinders (A1, A2) is greater than an upper threshold value, brake fluid is supplied via the central proportional valve to the central selection valve; and when the pressure of the first and second master cylinders (A1, A2) is less than the upper threshold value, brake fluid is not supplied via the central proportional valve to the central selection valve. a first master cylinder associated with a first brake pedal to control a left wheel brake, and a second master cylinder associated with a second brake pedal to control a right wheel brake, wherein the system comprises a central selection valve to selectively apply brake fluid from a brake fluid supply to the left wheel brake, to the right wheel brake, or to both the left and right wheel brakes (26a, b), wherein the operation of the central selection valve is based on the difference between the first master cylinder pressure and the second master cylinder pressure, characterised in that the system further comprises a central proportional valve to supply brake fluid from the brake fluid supply to the central selection valve, wherein the operation of the central proportional valve is configured such that: when the pressure of the first and second master cylinders (A1, A2) is greater than an upper threshold value, brake fluid is supplied via the central proportional valve to the central selection valve; and when the pressure of the first and second master cylinders (A1, A2) is less than the upper threshold value, brake fluid is not supplied via the central proportional valve to the central selection valve. when the pressure of the first and second master cylinders (A1, A2) is greater than an upper threshold value, brake fluid is supplied via the central proportional valve to the central selection valve; and when the pressure of the first and second master cylinders (A1, A2) is less than the upper threshold value, brake fluid is not supplied via the central proportional valve to the central selection valve.
A DNA polymerase having at least 80% sequence identity with SEQ ID NO:1 and having increased reverse transcriptase efficiency compared with a control DNA polymerase, wherein the amino acid of the DNA polymerase corresponding to position 698 of SEQ ID NO:1 is F, and wherein the control DNA polymerase has the same amino acid sequence as the DNA polymerase except that the amino acid of the control DNA polymerase corresponding to position 698 of SEQ ID NO:1 is Y.
A surfactant composition comprising the following components,, and: 45.0% by mass or more and 70.0% by mass or less of an internal olefin sulfonate having 16 or more and 18 or less carbon atoms, 0.5% by mass or more and 25.0% by mass or less of an alpha-olefin sulfonate having 12 or more and 14 or less carbon atoms, and water, wherein the total content of the component and the component is 66.0% by mass or more and 71.0% by mass or less. 45.0% by mass or more and 70.0% by mass or less of an internal olefin sulfonate having 16 or more and 18 or less carbon atoms, 0.5% by mass or more and 25.0% by mass or less of an alpha-olefin sulfonate having 12 or more and 14 or less carbon atoms, and water,
Use of an input apparatus for capacitive, touch-sensitive displays of so-called tablet computers or smartphones, for realisation of charge displacement between user and display by the input apparatus for generating an input function, wherein a conduction interruption is formed between a hand of the user and an insert of the input apparatus, wherein the conduction interruption is constructed in the form of a capacitor/dielectric, wherein the input apparatus is a simple pen, wherein the simple pen is constructed so as to be able to be pointed, wherein the input apparatus is present as an insert with a casing, wherein the insert is constructed to be electrically conductive, wherein the insert has conductive components or additives, wherein the conductive components or additives are present as graphite, carbonfibre, carbon black, metal fibres, 'carbon nano tubes', copper pigments, silvered copper pigments, antistatics and/or silver powder, wherein a contacting element for a tablet/display is formed at one end of the input apparatus, wherein the contacting element is constructed as an electrically conductive material and wherein an electrically conductive contact is formed between the contacting element and the insert.
Method for producing a cold-rolled flat steel product of up to 0.5 mm in thickness for deep-drawing and ironing applications, comprising the following working steps: a) producing a metal melt which (in wt%) comprises up to 0.008 % C, up to 0.005 % Al, up to 0.043 % Si, 0.15 - 0.5 % Mn, up to 0.02 % P, up to 0.03 % S, up to 0.020 % N and in each case optionally up to 0.03 % Ti and up to 0.03 % Nb and, as a remainder, iron and unavoidable impurities, the contents of which are to be attributed to up to 0.08 % Cr, up to 0.08 % Ni, up to 0.08 % Cu, up to 0.02 % Sn, up to 0.01 % Mo, up to 0.0020 % V, up to 0.007 % B, up to 0.05 % Co and up to 0.0060 % Ca, wherein the steel melt is, with the omission of a Ca treatment, subjected to a secondary metallurgical treatment which, in addition to a vacuum treatment, comprises a ladle furnace treatment and during which the steel melt to be treated is kept under a slag, the Mn content %Mn and Fe content %Fe are defined by %Mn + %Fe < 15 wt%; b) continuously casting the metal melt to form a strand, and severing a thin slab from the strand, or to form a cast strip; c) hot-rolling the thin slab or the cast strip to form a hot strip with a thickness of less than 2.5 mm; d) winding the hot strip to form a coil; e) cold-rolling the hot strip to form the cold-rolled flat steel product of up to 0.5 mm in thickness. a) producing a metal melt which (in wt%) comprises up to 0.008 % C, up to 0.005 % Al, up to 0.043 % Si, 0.15 - 0.5 % Mn, up to 0.02 % P, up to 0.03 % S, up to 0.020 % N and in each case optionally up to 0.03 % Ti and up to 0.03 % Nb and, as a remainder, iron and unavoidable impurities, the contents of which are to be attributed to up to 0.08 % Cr, up to 0.08 % Ni, up to 0.08 % Cu, up to 0.02 % Sn, up to 0.01 % Mo, up to 0.0020 % V, up to 0.007 % B, up to 0.05 % Co and up to 0.0060 % Ca, wherein the steel melt is, with the omission of a Ca treatment, subjected to a secondary metallurgical treatment which, in addition to a vacuum treatment, comprises a ladle furnace treatment and during which the steel melt to be treated is kept under a slag, the Mn content %Mn and Fe content %Fe are defined by %Mn + %Fe < 15 wt%; b) continuously casting the metal melt to form a strand, and severing a thin slab from the strand, or to form a cast strip; c) hot-rolling the thin slab or the cast strip to form a hot strip with a thickness of less than 2.5 mm; d) winding the hot strip to form a coil; e) cold-rolling the hot strip to form the cold-rolled flat steel product of up to 0.5 mm in thickness.
Process for manufacturing a nitrile compound through chain elongation of an alkylene amine compound containing three or more amine units in which at least two amine units are protected by a cyclic urea unit and at least one amine unit is not protected, by reacting the at least one amine unit that is not protected with glycolonitrile or with the combination of formaldehyde and a cyanide compound selected from HCN and inorganic cyanide salts, to add at least one acetonitrile group to the at least one amine unit that is not protected.
A method for generating a positioning image, comprising: determining a source/patient (S/P) relative position for a current X-ray system geometry; determining a detector/patient (D/P) relative position for the current X-ray system geometry; based on the S/P relative position and D/P relative position, determining a projected area on a detector plane of a detector; registering an atlas image to a representation of the patient based on the projected area on the detector plane; and displaying a positioning image corresponding to the atlas image on the representation of the patient, wherein determining the S/P relative position comprises: acquiring one or more images of the patient from a camera positioned on an X-ray system comprising the source, wherein the camera is positioned to correspond to the direction of X-ray emission; and determining the S/P relative position from the one or more images, and wherein determining the D/P relative position comprises: acquiring one or both of camera or sensor data using a camera or sensors provided on the detector; and determining the D/P relative position from one or both of the camera or sensor data. determining a source/patient (S/P) relative position for a current X-ray system geometry; determining a detector/patient (D/P) relative position for the current X-ray system geometry; based on the S/P relative position and D/P relative position, determining a projected area on a detector plane of a detector; registering an atlas image to a representation of the patient based on the projected area on the detector plane; and displaying a positioning image corresponding to the atlas image on the representation of the patient, wherein determining the S/P relative position comprises: acquiring one or more images of the patient from a camera positioned on an X-ray system comprising the source, wherein the camera is positioned to correspond to the direction of X-ray emission; and determining the S/P relative position from the one or more images, and wherein determining the D/P relative position comprises: acquiring one or both of camera or sensor data using a camera or sensors provided on the detector; and determining the D/P relative position from one or both of the camera or sensor data. acquiring one or more images of the patient from a camera positioned on an X-ray system comprising the source, wherein the camera is positioned to correspond to the direction of X-ray emission; and determining the S/P relative position from the one or more images, and wherein determining the D/P relative position comprises: acquiring one or both of camera or sensor data using a camera or sensors provided on the detector; and determining the D/P relative position from one or both of the camera or sensor data. acquiring one or both of camera or sensor data using a camera or sensors provided on the detector; and determining the D/P relative position from one or both of the camera or sensor data.
Fixing element having a fixing nut and a mounting sleeve for fixing an article to a mounting rail, wherein the fixing nut has a length that is greater than its width and its height, wherein the mounting sleeve comprises a collar-like bearing surface for contact with the mounting rail, a nut receiver for receiving the fixing nut and a spacer element having a screw receiver extending along a longitudinal axis, wherein the nut receiver is arranged at the end of the spacer element located opposite the bearing surface, wherein the nut receiver has a receiving opening which is defined by two mutually oppositely located side members (17, 18) between which the fixing nut is held so as to be fixed against rotation relative to the spacer element but axially movable in relation to the longitudinal axis, and wherein the fixing element has a resilient limb which is arranged on a first side member of the nut receiver and which resiliently urges the fixing nut in a direction towards the spacer element, characterised in that on the second side member there is arranged no resilient limb which resiliently urges the fixing nut in a direction towards the spacer element.
Sealing element for a metal sheet of a vehicle having an orifice arranged along an axis, comprising: - a first part covering the orifice; and - a second part having a shape which is substantially complementary to that of the orifice, such that said second part is able to be introduced into said orifice, said second part comprising elastically interlocking assembly means which are able to cooperate with an edge of said orifice; said sealing element further comprising at least one means for fixing to at least one part of the vehicle and being characterised in that: - the at least one part of the vehicle is a pipe; - the at least one means for fixing comprises a tongue arranged substantially parallel to the axis of the orifice, said tongue being provided with two tabs (30, 31) which are able to be elastically deformed, said tabs forming a substantially U-shaped opening which is able to receive the pipe. - a first part covering the orifice; and - a second part having a shape which is substantially complementary to that of the orifice, such that said second part is able to be introduced into said orifice, said second part comprising elastically interlocking assembly means which are able to cooperate with an edge of said orifice; - the at least one part of the vehicle is a pipe; - the at least one means for fixing comprises a tongue arranged substantially parallel to the axis of the orifice,
A data processing system configured to execute computer-executable instructions to implement a method of generating and modifying a virtual model of a set of teeth for manufacturing a physical model of the set of teeth, where the method comprises: obtaining a three-dimensional representation of the set of teeth; generating a virtual model of the set of teeth from said three-dimensional representation, the virtual model of the set of teeth comprising a gingival part comprising a gingiva; and modifying the gingival part based on a virtual model of a restoration to enable insertion of the restoration in a region of the virtual model configured for insertion of the restoration. obtaining a three-dimensional representation of the set of teeth; generating a virtual model of the set of teeth from said three-dimensional representation, the virtual model of the set of teeth comprising a gingival part comprising a gingiva; and modifying the gingival part based on a virtual model of a restoration to enable insertion of the restoration in a region of the virtual model configured for insertion of the restoration.