mhurhangee/ep-ind-claims huggingface dataset:
Computer tomograph with: - a scanning unit, which comprises a radiation source and a detector unit connected to the latter for detecting a conical beam emitted by the radiation source after passing through an examination area or through an object placed in the latter on a support plate and for generating corresponding CT data, - a drive arrangement (2, 5) for generating a relative movement including a rotation about an axis of rotation and a feed movement parallel to the axis of rotation in the form of a helix between the scanning unit (8,16) and the examination area or the object, - a reconstruction unit for reconstructing a three-dimensional CT image from the readings produced by the detector unit, - a control unit for controlling the radiation source and the drive arrangement (2, 5) in such a way that the emission of the beam by the radiation source begins at such a start position and/or ends at such a stop position that the areas, which at the beginning and/or end of the emission of the beam are not hit by the beam in a manner sufficient for reconstruction, are larger below the support plate in the direction of the axis of rotation than above the support plate, wherein the radiation source in the start position defines a plane with the axis of rotation which forms an angle α with a perpendicular plane through the axis of rotation against the circumferential direction of the radiation source, which corresponds to half the beam angle of the beam in a plane perpendicular to the axis of rotation or is smaller than half the beam angle, and wherein the radiation source in the stop position defines a plane with the axis of rotation which forms an angle α with a perpendicular plane through the axis of rotation in circumferential direction of the radiation source which corresponds to half the beam angle of the beam in a plane perpendicular to the axis of rotation or is smaller than half the beam angle. - a scanning unit, which comprises a radiation source and a detector unit connected to the latter for detecting a conical beam emitted by the radiation source after passing through an examination area or through an object placed in the latter on a support plate and for generating corresponding CT data, - a drive arrangement (2, 5) for generating a relative movement including a rotation about an axis of rotation and a feed movement parallel to the axis of rotation in the form of a helix between the scanning unit (8,16) and the examination area or the object, - a reconstruction unit for reconstructing a three-dimensional CT image from the readings produced by the detector unit, - a control unit for controlling the radiation source and the drive arrangement (2, 5) in such a way that the emission of the beam by the radiation source begins at such a start position and/or ends at such a stop position that the areas, which at the beginning and/or end of the emission of the beam are not hit by the beam in a manner sufficient for reconstruction, are larger below the support plate in the direction of the axis of rotation than above the support plate,
A tire that comprises a tread, the tire defining lateral and longitudinal directions, said tread having central and shoulder portions and tread elements with sipes that are located in its central, and shoulder regions, a profiled undertread (100, 200) and a first, second and third breaking belt (208, 210, 206), wherein: the longitudinal distance (Dctr) from one sipe to an adjacent sipe in a tread element found in the center region is in the range of 5 - 9 mm; the longitudinal distance (Dshl) from one sipe to an adjacent sipe in a tread element found in a shoulder region is in the range of 15 - 35 mm; the inflated profile droop (Ddrp) is in the range of 5 - 9 mm as measured from the center of the tread to an edge of the rolling tread width; and the profiled undertread has at least 1 mm thickness reduction from a shoulder region of the profiled undertread to a center region of the profiled undertread. the longitudinal distance (Dctr) from one sipe to an adjacent sipe in a tread element found in the center region is in the range of 5 - 9 mm; the longitudinal distance (Dshl) from one sipe to an adjacent sipe in a tread element found in a shoulder region is in the range of 15 - 35 mm; the inflated profile droop (Ddrp) is in the range of 5 - 9 mm as measured from the center of the tread to an edge of the rolling tread width; and the profiled undertread has at least 1 mm thickness reduction from a shoulder region of the profiled undertread to a center region of the profiled undertread.
Foot valve for drip chambers of medical infusion or transfusion apparatuses, having an annular valve seat with which a float obturator which is axially displaceable between a closed position and an open position of the valve seat cooperates, characterised in that it comprises a containment cage bush having a flat base forming said annular valve seat and an elastically deformable lateral wall formed by a crown of elastically deformable axial sectors within which said float floats in a guided fashion, the lateral wall of the containment bush and the float having respective mutually facing diverging surfaces (14, 16; 14, 18) whereby a radial deformation of the containment bush applies through said diverging surfaces (14, 16; 14, 18) an axial thrust to the float in the direction of moving it apart from said annular valve seat.
A system having an ash collecting chamber (8, 8'), a disposal device (7, 24) and a conveying device (9, 12, 12') for transferring ash, accumulated in the ash collecting chamber (8, 8') of a combustion chamber for a solid fuel boiler (6, 20) into the disposal device (7, 24) arranged remotely from the combustion chamber (6, 20), the conveying device (9, 12, 12') extending from the ash collecting chamber (8, 8') of the system to the disposal device (7, 24) of the system, through which conveying device (9, 12, 12') the ash can be conveyed from the ash collecting chamber (8, 8') into the disposal device (7, 24), wherein the conveying device consists of a pneumatic conveying device with a conveying line stretching between the ash collecting chamber (8, 8') and the disposal device (7, 24) and a conveying fan (12, 12') generating a conveying air flow, and the conveying fan (12, 12') is a suction fan, characterised in that the suction fan is arranged in the area at the end (11, 11') of the conveying line on the disposal-device side.
An assembly for securing a portion of a leaf spring to an axle in a vehicle suspension system, the assembly comprising: a spring seat and a top cap, the spring seat comprising a seat portion, configured to be connected to a body of a said axle, and a spring mounting portion associated with an upper end of the seat portion and configured to accommodate a said portion of a leaf spring, the spring mounting portion including an upper surface defining a plurality of bores each configured to receive at least a portion of one of a plurality of mechanical fasteners, whereby the top cap can be connected to the spring seat by said mechanical fasteners with a said portion of a leaf spring positioned between the top cap and the spring seat, and with at least a portion of at least one of the bores positioned directly above the body of a said axle connected to the spring seat. a spring seat and a top cap, the spring seat comprising a seat portion, configured to be connected to a body of a said axle, and a spring mounting portion associated with an upper end of the seat portion and configured to accommodate a said portion of a leaf spring, the spring mounting portion including an upper surface defining a plurality of bores each configured to receive at least a portion of one of a plurality of mechanical fasteners, whereby the top cap can be connected to the spring seat by said mechanical fasteners with a said portion of a leaf spring positioned between the top cap and the spring seat, and with at least a portion of at least one of the bores positioned directly above the body of a said axle connected to the spring seat.
An overhead conductor comprising a bare conductor coated with a dried coating, the dried coating having an emissivity coefficient of 0.5 or greater and comprising: an inorganic binder comprising one or more of a metal silicate, peptized aluminum oxide monohydrate, colloidal silica, and aluminum phosphate; and a heat radiating agent comprising one or more of gallium oxide, cerium oxide, zirconium oxide, silicon hexaboride, carbon tetraboride, silicon tetraboride, silicon carbide, molybdenum disilicide, tungsten disilicide, zirconium diboride, zinc oxide, cupric chromite, magnesium oxide, silicon dioxide, manganese oxide, chromium oxides, iron oxide, boron carbide, boron silicide, copper chromium oxide, tricalcium phosphate, titanium dioxide, aluminum nitride, boron nitride, magnesium oxide, and calcium oxide; and wherein the operating temperature of the overhead conductor is lower than the operating temperature of a bare conductor by at least 5°C, when uncoated and the same current is applied in accordance with ANSI C119.4-2004. an inorganic binder comprising one or more of a metal silicate, peptized aluminum oxide monohydrate, colloidal silica, and aluminum phosphate; and a heat radiating agent comprising one or more of gallium oxide, cerium oxide, zirconium oxide, silicon hexaboride, carbon tetraboride, silicon tetraboride, silicon carbide, molybdenum disilicide, tungsten disilicide, zirconium diboride, zinc oxide, cupric chromite, magnesium oxide, silicon dioxide, manganese oxide, chromium oxides, iron oxide, boron carbide, boron silicide, copper chromium oxide, tricalcium phosphate, titanium dioxide, aluminum nitride, boron nitride, magnesium oxide, and calcium oxide; and wherein the operating temperature of the overhead conductor is lower than the operating temperature of a bare conductor by at least 5°C, when uncoated and the same current is applied in accordance with ANSI C119.4-2004.
Laminated glazing unit comprising at least one first sheet of glass and one second sheet of glass glued to one another via a first adhesive interlayer, the first sheet of glass being intended to constitute the surface of the laminated glazing unit in contact with the outside atmosphere, characterized in that the laminated glazing unit comprises, between the first sheet of glass and the second sheet of glass, an LOC (Localizer) antenna receiving between 100 and 120 MHz and a GLIDE (Slope) antenna receiving between 320 and 340 MHz, each antenna having dimensions that are sufficiently small not to obstruct vision, even to be practically invisible through the laminated glazing unit, and in that the LOC (Localizer) antenna and the GLIDE (Slope) antenna are combined in a single antenna consisting of a conductive metal wire having a diameter of between 10 and 500 μm extending in duplicate in an F-shaped geometry.
A machine of the folder-gluer type for producing packages, processing flat objects being cut-outs, formed by a succession of modules, each one performing one or several folding and gluing operations, entering into the process of production, in view of making folding boxes, a module comprising a support structure (1, 2, 3, 4) on top of which the flat objects are transported along a given transport path, characterised in that the module comprises, in addition, a system for releasing such objects, able to release any flat object falling under the transport path.
A computing device to perform a secure boot, the computing device comprising: a security engine of the computing device comprising a secure boot module to: (i) consecutively determine a hash value for each block of a plurality of blocks of initial boot firmware, wherein to consecutively determine the hash values comprises to (a) retrieve each block of the plurality of blocks from a memory of the computing device, (b) store each retrieved block in a secure memory of the security engine, and (c) determine the hash value for each block stored in the secure memory; and (ii) generate an aggregated hash value from the hash value determined for each block of the initial boot firmware; and a processor comprising a Cache as RAM and a processor initialization module to (i) compare the aggregated hash value to a reference checksum value associated with the initial boot firmware to determine whether the aggregated hash value matches the reference checksum value and (ii) complete initialization of the processor in response to a determination that the aggregated hash value matches the reference checksum value, wherein the secure boot module or the processor initialization module to copy each block stored in the secure memory to the Cache as RAM of the processor. a security engine of the computing device comprising a secure boot module to: (i) consecutively determine a hash value for each block of a plurality of blocks of initial boot firmware, wherein to consecutively determine the hash values comprises to (a) retrieve each block of the plurality of blocks from a memory of the computing device, (b) store each retrieved block in a secure memory of the security engine, and (c) determine the hash value for each block stored in the secure memory; and (ii) generate an aggregated hash value from the hash value determined for each block of the initial boot firmware; and a processor comprising a Cache as RAM and a processor initialization module to (i) compare the aggregated hash value to a reference checksum value associated with the initial boot firmware to determine whether the aggregated hash value matches the reference checksum value and (ii) complete initialization of the processor in response to a determination that the aggregated hash value matches the reference checksum value, wherein the secure boot module or the processor initialization module to copy each block stored in the secure memory to the Cache as RAM of the processor.
A process for the preparation of tenofovir comprising: dealkylating -9-[2-(di-Alk-phosphonomethoxy) propyl] adenine of Formula II with a suitable dealkylating Ionic complex; wherein "Alk" represents C 1-4 alkyl and the suitable dealkylating Ionic complex is selected from the group consisting of a complex of an amide and an acid, a complex of an aluminium salt and an amide-acid reagent and a complex of an aluminium salt and an amine. dealkylating -9-[2-(di-Alk-phosphonomethoxy) propyl] adenine of Formula II with a suitable dealkylating Ionic complex; wherein "Alk" represents C 1-4 alkyl and the suitable dealkylating Ionic complex is selected from the group consisting of a complex of an amide and an acid, a complex of an aluminium salt and an amide-acid reagent and a complex of an aluminium salt and an amine.
A blind rivet nut for connecting two components (110, 120) by means of a screw connection, having a rivet shank with an internal thread, at the axial first end of which a deformation portion for producing the riveted joint is arranged, characterised in that at the axial second end of the rivet shank there is arranged a rivet head with a contact face for an adjacent component face to lie against, the supporting surface having a radial extent which is designed to be greater than or equal to 1.5 times and less than or equal to approx. 2 times the radial extent of the rivet shank.
Method for conversion fed with a 1,4-butanediol feedstock, wherein said method comprises at least: a) An esterification step that comprises a reaction section that is fed with the 1,4-butenediol feedstock and a flow that comprises for the most part carboxylic acid, also comprising at least one separation section that separates the effluent from the reaction section into at least one 1,4-butanediol diester effluent, a water effluent, and a carboxylic acid effluent, with said reaction section being implemented in the presence of an acid catalyst at a pressure of between 0.01 and 1.0 MPa and at a molar flow rate of diol feeding said section with a catalyst mol number in said section of between 0.05 and 25 h -1; b) A step for pyrolysis comprising a pyrolysis reactor that is fed with at least said 1,4-butanediol diester effluent that is obtained from the esterification step a) in such a way as to produce a pyrolysis effluent, with said step for pyrolysis also comprising at least one separation section in which said pyrolysis effluent is cooled to a temperature that is less than 100°C in such a way as to produce at least one liquid pyrolysis effluent and one vapor pyrolysis effluent, with said vapor pyrolysis effluent being compressed and/or cooled in such a way as to condense 1,3-butadiene into a 1,3-butadiene effluent. a) An esterification step that comprises a reaction section that is fed with the 1,4-butenediol feedstock and a flow that comprises for the most part carboxylic acid, also comprising at least one separation section that separates the effluent from the reaction section into at least one 1,4-butanediol diester effluent, a water effluent, and a carboxylic acid effluent, with said reaction section being implemented in the presence of an acid catalyst at a pressure of between 0.01 and 1.0 MPa and at a molar flow rate of diol feeding said section with a catalyst mol number in said section of between 0.05 and 25 h -1; b) A step for pyrolysis comprising a pyrolysis reactor that is fed with at least said 1,4-butanediol diester effluent that is obtained from the esterification step a) in such a way as to produce a pyrolysis effluent, with said step for pyrolysis also comprising at least one separation section in which said pyrolysis effluent is cooled to a temperature that is less than 100°C in such a way as to produce at least one liquid pyrolysis effluent and one vapor pyrolysis effluent, with said vapor pyrolysis effluent being compressed and/or cooled in such a way as to condense 1,3-butadiene into a 1,3-butadiene effluent.
An electronic device comprising a semiconductor layer in contact with a number of electrodes, wherein the semiconductor layer includes a small molecular thiophene compound consisting of: at least one divalent linkage; and a plurality of thiophene units, wherein the number of thiophene units ranges from 6 to 25, each thiophene unit being represented by structure wherein each thiophene unit is bonded at either or both of the second ring position and the fifth ring position, wherein m is 0, 1, or 2, wherein each thiophene unit is the same or different from each other in terms of substituent number, substituent identity, and substituent position, wherein each R 1 is independently selected from the group consisting of: (a) a hydrocarbon group, (b) a heteroatom containing group, and (c) a halogen, wherein there is at least one thiophene unit where R 1 is present at the third ring position or the fourth ring position, or at both the third ring position and the fourth ring position, wherein for any two adjacent thiophene units as represented by structure: there is excluded the simultaneous presence of the same or different R 1 at the 3-position of one thiophene unit and at the 3'-position of the other thiophene unit, and wherein the divalent linkage is selected from the group consisting of: -CH=CH- -O- wherein n is 1, 2, 3, or 4, and when n is at least 2, the substituents of R 4 are the same or different from each other. at least one divalent linkage; and a plurality of thiophene units, wherein the number of thiophene units ranges from 6 to 25, each thiophene unit being represented by structure wherein each thiophene unit is bonded at either or both of the second ring position and the fifth ring position, wherein m is 0, 1, or 2, wherein each thiophene unit is the same or different from each other in terms of substituent number, substituent identity, and substituent position, wherein each R 1 is independently selected from the group consisting of: (a) a hydrocarbon group, (b) a heteroatom containing group, and (c) a halogen, (a) a hydrocarbon group, (b) a heteroatom containing group, and (c) a halogen, wherein there is at least one thiophene unit where R 1 is present at the third ring position or the fourth ring position, or at both the third ring position and the fourth ring position, wherein for any two adjacent thiophene units as represented by structure: there is excluded the simultaneous presence of the same or different R 1 at the 3-position of one thiophene unit and at the 3'-position of the other thiophene unit, and wherein the divalent linkage is selected from the group consisting of: -CH=CH- -O-
Method for strapping objects, the method comprising the following steps: • conveying an object (7, 7') to a strapping station using a conveying device (13, 14), • forming at least one loop of strapping tape around the object (7, 7') using a strapping device, • connecting the ends of the loop with one another, • controlling strapping parameters using a control unit, • storing data sets comprising reference values for the strapping parameters in a data memory connected with the control unit, • selection of a data set comprising reference values for the strapping parameters by the control unit for each strapping operation, characterized in that the strapping parameters comprise at least the strapping position and that the control unit includes a microcontroller. • conveying an object (7, 7') to a strapping station using a conveying device (13, 14), • forming at least one loop of strapping tape around the object (7, 7') using a strapping device, • connecting the ends of the loop with one another, • controlling strapping parameters using a control unit, • storing data sets comprising reference values for the strapping parameters in a data memory connected with the control unit, • selection of a data set comprising reference values for the strapping parameters by the control unit for each strapping operation, characterized in that the strapping parameters comprise at least the strapping position and that the control unit includes a microcontroller.