mhurhangee/ep-ind-claims huggingface dataset:
A method of preparing a composition comprising one or more antigens modified with glutaraldehyde and adsorbed to tyrosine wherein said method comprises: (i) mixing a solution of one or more antigens modified with glutaraldehyde with a solution of tyrosine in an aqueous acid whilst neutralising the mixture of solutions, thereby forming an adsorbate comprising the one or more antigens and tyrosine; (ii) separating the adsorbate into a buffer by cross-flow filtration thereby forming said composition; and (iii) recovering said composition; wherein steps (i) to (iii) are performed in a sterile environment and within a closed system. (i) mixing a solution of one or more antigens modified with glutaraldehyde with a solution of tyrosine in an aqueous acid whilst neutralising the mixture of solutions, thereby forming an adsorbate comprising the one or more antigens and tyrosine; (ii) separating the adsorbate into a buffer by cross-flow filtration thereby forming said composition; and (iii) recovering said composition;
Wiper blade designed as a flat bar with a wiper strip, the top strip of which is held by lateral retaining profiles of a wiper strip carrier, which retaining profiles engage in longitudinal grooves in the top strip, wherein the wiper strip carrier, on the side facing away from the top strip, has at least one first longitudinal channel for receiving a supporting element with a flat cross section running substantially transversely with respect to the wiper strip, and the first longitudinal channel protrudes with edge regions laterally over the top strip, wherein the wiper strip carrier, in the side walls thereof of the first longitudinal channel, has, at least at one end, in the edge regions protruding laterally over the top strip, cutouts which are open outwards and in which cams of an end cap (48, 50) engage, characterized in that the end cap is composed of an end cap lower part and an end cap upper part, wherein the end cap lower part surrounds the first longitudinal channel from below and on the longitudinal sides by means of guide rails, which are L-shaped in cross section and are connected to each other on the end sides thereof pointing towards the outer side by means of an end wall, and engages in the associated cutouts of the first longitudinal channel by means of cams arranged on the inner sides of said end cap lower part, while the end cap upper part engages in the cutouts of the first longitudinal channel by means of cams from the opposite side.
A method for transferring a rotary tower crane with a mobile crane, in particular crawler crane, wherein the mounted rotary tower crane is lifted by means of the lifting cable of the mobile crane, in order to transfer the same to the target site, and during transfer the rotary tower crane is stabilized by means of one or more connecting points(33, 34) between mobile crane boom and crane tower.
Tight seal system for the packaging of products comprising a transverse welding station of packaging sheets comprising: a first pair of discs connected centrally to a first axis; said first pair of discs rotating about said first axis; at least one first bar (102, 103) is positioned peripherally between said first pair of discs; a first welding jaw is associated with said at least one first bar (102, 103); said first bar (102, 103) rotating so that said first jaw is always facing in the same direction; a second pair of discs connected centrally to a second axis; said second pair of discs rotating about said second axis; at least one second bar (132, 133) is positioned peripherally between said second pair of discs;a second welding jaw is associated with said at least one second bar (132, 133); said second bar (132, 133) rotating so that said second jaw is always facing in the same direction; said first jaw and said second jaw are facing each other so that, rotating said first pair of discs and said second pair of discs, said first jaw and said second jaw come into contact with each other and can perform welding of said packaging sheets; said first welding jaw is associated with said at least one first bar (102, 103) by means of a plurality of pins passing through said first bar (102 103); two pins secured inferiorly to said first bar (102, 103) support a third bar parallel to said first bar (102, 103); a plurality of springs are placed between said plurality of pins and the inner surface of said third bar; said first pair of discs is pivoted and can rotate about said first axis that joins the two centres of said first pair of discs; said second pair of discs is pivoted and can rotate about said second axis that joins the two centres of said second pair of discs.
An energy recovery device comprising: an engine comprising a plurality of elongated Shape Memory Alloy elements fixed at a first end by a holder element and connected at a second end to a drive mechanism wherein the plurality of Shape Memory Alloy (SMAs) elements are arranged as a plurality of wires positioned substantially parallel with each other to define a core, and the Shape Memory Alloy elements are positioned to form a gap between adjacent elements by positioning at least one spacer element to urge the wires away from each other wire characterized in that the outer perimeter of wires is secured utilising a bracket to provide an improved heat transfer from a fluid to each element in the core.
A method comprising reacting methanol with carbon monoxide in a reaction mixture in the presence of: a rhodium compound; an iodide containing compound; lithium iodide, LiI at a concentration higher than 1.0 M and a phosphate of the formula: MxHyPO4 wherein: M is a metal cation; x is 0, 1, or 2; and y is an integer equal to 3-x; under conditions sufficient to cause carbonylation of methanol to form acetic acid. a rhodium compound; an iodide containing compound; lithium iodide, LiI at a concentration higher than 1.0 M and a phosphate of the formula: MxHyPO4 wherein: M is a metal cation; x is 0, 1, or 2; and y is an integer equal to 3-x; under conditions sufficient to cause carbonylation of methanol to form acetic acid. M is a metal cation; x is 0, 1, or 2; and y is an integer equal to 3-x; under conditions sufficient to cause carbonylation of methanol to form acetic acid.
A coupling member for an engageable coupling assembly, the coupling member having a centerline through a center of the coupling member, the coupling member comprising: a coupling face having at least one pocket, each pocket being sized and shaped to receive and nominally retain a locking strut that lays down in its pocket during an overrunning condition of the coupling assembly when an angular velocity of the coupling member about a rotational axis of the coupling assembly is greater than a strut laydown speed, and characterised in that, each pocket has an outer wall having a draft angle (Θ), the draft angle (Θ) being a positive draft angle (Θ) which increases the strut laydown speed, and each pocket further has a pocket axis angled outwardly with respect to a normal to the centerline which decreases the strut laydown speed thereby compensating for the increase in the strut laydown speed due to the positive draft angle (Θ).
A push button lock comprising: a housing on which a plurality of depressible push buttons are located; a plurality of lock pins engageable with and disengageable from the push buttons and movable coaxially with the push buttons; a lock plate formed with plate key holes and plate lock holes, the plate key holes into which the lock pins are insertable and the plate lock holes that contact the lock pins; a reset plate arranged in parallel with the lock plate and provided inside with reset springs, thereby enabling axial displacement of the lock pins inserted via the reset springs to be maintained and released; a driving cam rotatably and engageably provided in a movement area of the lock plate and linked to a deadbolt lock, whereby controlling a movement of the lock plate via the lock pins upon pressing of the push buttons and making the lock plate and the driving cam disengageable; characterized by a security-code controller which receives the reset plate and the lock plate slidably and in parallel to each other, wherein the security code controller exclusively receives the lock plate, the reset plate, and the lock pins, a memory set plate, a memory change intermediate plate, and a memory reset plate, and the outer sides of the memory set plate and the lock plate are closely fixed by a controller case and a controller cover, and the security-code controller is detachably attached to the housing. a housing on which a plurality of depressible push buttons are located; a plurality of lock pins engageable with and disengageable from the push buttons and movable coaxially with the push buttons; a lock plate formed with plate key holes and plate lock holes, the plate key holes into which the lock pins are insertable and the plate lock holes that contact the lock pins; a reset plate arranged in parallel with the lock plate and provided inside with reset springs, thereby enabling axial displacement of the lock pins inserted via the reset springs to be maintained and released; a driving cam rotatably and engageably provided in a movement area of the lock plate and linked to a deadbolt lock, whereby controlling a movement of the lock plate via the lock pins upon pressing of the push buttons and making the lock plate and the driving cam disengageable; a security-code controller which receives the reset plate and the lock plate slidably and in parallel to each other, wherein the security code controller exclusively receives the lock plate, the reset plate, and the lock pins, a memory set plate, a memory change intermediate plate, and a memory reset plate, and the outer sides of the memory set plate and the lock plate are closely fixed by a controller case and a controller cover, and the security-code controller is detachably attached to the housing.
A ball bearing on rollers comprising a rotating outer ring having a spherical rolling track, the bearing comprising first and second annular rows of rollers (54a, 54b), respectively associated with first and second rotary cages (56a, 56b) for holding said rollers, the first cage has an outer surface provided with at least one baffle for discharging lubricant to a first side of the bearing in a first axial direction from the second cage to the first cage, said baffle extending beyond the rollers associated with the first cage, in a second axial direction opposite the first, characterized in that said baffle extends in the second axial direction also beyond the first cage, so as to cover a portion of the second cage.
A method of forming a silica film coated on a substrate including the steps of: (a) producing a liquid silica precursor by adding silicic acid tetramethyl ester homopolymer to a solvent; (b) coating a substrate with the liquid silica precursor; and (c) curing the liquid silica precursor solution onto the substrate by exposing the liquid silica precursor solution substrate to a vaporous ammoniacal environment. (a) producing a liquid silica precursor by adding silicic acid tetramethyl ester homopolymer to a solvent; (b) coating a substrate with the liquid silica precursor; and (c) curing the liquid silica precursor solution onto the substrate by exposing the liquid silica precursor solution substrate to a vaporous ammoniacal environment.
A vacuuming robot comprising a base mounted on wheels, a dust separator and a floor nozzle disposed on the base for receiving an air stream into the vacuuming robot, the floor nozzle being height adjustable with respect to the base, wherein the floor nozzle can be brought into a position inclined with respect to the base, wherein the floor nozzle is pivotably articulated to the base, the floor nozzle having a floor plate with a base surface which, in operation of the vacuuming robot, faces the surface to be cleaned, the floor plate having in the base surface an air flow channel through which air to be cleaned enters the floor nozzle, the vacuuming robot comprising a stepping motor or a servo motor for adjusting the height of the floor nozzle with respect to the base.
A method of blocking non-specific interactions with a nucleic acid of interest in a sample, the method comprising contacting the sample with a multivalent blocker, said multivalent blocker comprising at least two negatively charged polymers linked to a scaffold, wherein the multivalent blocker binds to positively charged compounds or materials in the sample, thereby blocking non-specific interactions with the nucleic acid of interest, wherein the negatively charged polymers are linked to the scaffold covalently or noncovalently, optionally wherein the nucleic acid of interest is DNA or RNA.
Device for harmonization of mechanical and electromagnetic oscillations, comprising an outer body and an inner body both of axially symmetric shape relative to an axis (x), wherein the inner body is received inside a first cavity of the outer body so as to be firmly connected to the latter, wherein one of the outer body and the inner body is made of steel and the other is made of copper, wherein the outer body and/or the inner body have on their lateral surfaces respective pluralities of circumferential grooves (22, 24) and wherein the characteristic dimensions of the device, including an outside diameter of the outer body, a diameter of the first cavity, an inside diameter of at least one of the grooves (22, 24) and a distance between each pair of adjacent grooves (22, 24), are such that their ratios are either integers, or fractions thereof, or numbers corresponding to powers of Φ and/or of π.
Method for treating a surface of a workpiece, wherein the workpiece having the surface to be treated is a particle board, comprising the steps of providing a material produced during working of a semi-finished product, preferably wood material, in particular wood chips or wood dust, mixing the material produced with a binder so as to form a curable mixture, applying the curable mixture to the surface of the workpiece to be treated, and at least partially curing the mixture, wherein the surface is reworked by means of machining after the curable mixture has cured.
A computer-implemented method for automatically detecting pole-like objects for a location along a region of a roadway, the method comprising: receiving point cloud data related to a three-dimensional volume associated with the location along the region of a roadway; identifying horizontal slices of point cloud data based on a predetermined horizontal slice thickness or a predetermined resolution; generating a 3D occupancy grid made of horizontal layers and representing the 3D volume, wherein the horizontal layers are two-dimensional occupancy grids representing the identified horizontal slices of point cloud data, and wherein each cell of the 3D occupancy grid is marked as either occupied or unoccupied based on whether point cloud data is received for the respective cell volume; generating two-dimensional occupancy images for the horizontal slices of point cloud data based on the respective 2D occupancy grids, wherein each 2D occupancy image for a respective horizontal slice of point cloud data thereby represents a finite height of point cloud data; detecting vertical clusters of point cloud data by identifying similar occupied regions between adjacent 2D occupancy images; calculating features that represent the vertical clusters' shape, orientation, size, and point density; inputting the features into a pre-trained machine learning algorithm to determine whether the vertical clusters of point cloud data represent pole-like objects; and modeling the vertical clusters of point cloud data determined to represent pole-like objects as cylinders. receiving point cloud data related to a three-dimensional volume associated with the location along the region of a roadway; identifying horizontal slices of point cloud data based on a predetermined horizontal slice thickness or a predetermined resolution; generating a 3D occupancy grid made of horizontal layers and representing the 3D volume, wherein the horizontal layers are two-dimensional occupancy grids representing the identified horizontal slices of point cloud data, and wherein each cell of the 3D occupancy grid is marked as either occupied or unoccupied based on whether point cloud data is received for the respective cell volume; generating two-dimensional occupancy images for the horizontal slices of point cloud data based on the respective 2D occupancy grids, wherein each 2D occupancy image for a respective horizontal slice of point cloud data thereby represents a finite height of point cloud data; detecting vertical clusters of point cloud data by identifying similar occupied regions between adjacent 2D occupancy images; calculating features that represent the vertical clusters' shape, orientation, size, inputting the features into a pre-trained machine learning algorithm to determine whether the vertical clusters of point cloud data represent pole-like objects; and modeling the vertical clusters of point cloud data determined to represent pole-like objects as cylinders.
A method for homogeneously mixing a catalyst precursor having a relatively low viscosity into a heavy oil feedstock having a relatively high viscosity, comprising: dividing the heavy oil feedstock into two or three portions; pre-mixing a catalyst precursor comprised of an oil soluble metal salt with a hydrocarbon diluent to substantially homogeneously disperse the catalyst precursor throughout the hydrocarbon diluent and form a diluted catalyst precursor, the hydrocarbon diluent having a boiling point of at least about 150°C and comprising one or more of a first portion of the heavy oil feedstock, vacuum gas oil, decant oil, cycle oil, start up diesel, or light gas oil; mixing the diluted catalyst precursor with a first or second portion of the heavy oil feedstock so as to form a blended oil feedstock composition by means of at least one static low shear in-line mixer comprised of a plurality of internal baffles or other elements inside of a tube or other housing followed by at least one high shear mixer comprised of a vessel with a propeller or turbine impeller; introducing the blended oil feedstock composition into a surge tank with a second or third portion of the heavy oil feedstock to cause the catalyst precursor to be homogeneously dispersed within the heavy oil feedstock to form a conditioned feedstock; and pumping the conditioned feedstock from the surge tank to a hydroprocessing reactor by one or more multi-stage high pressure pumps having multiple compression stages, the multi-stage high pressure pumps further mixing the conditioned feedstock and dispersing the catalyst precursor throughout the heavy oil feedstock. dividing the heavy oil feedstock into two or three portions; pre-mixing a catalyst precursor comprised of an oil soluble metal salt with a hydrocarbon diluent to substantially homogeneously disperse the catalyst precursor throughout the hydrocarbon diluent and form a diluted catalyst precursor, the hydrocarbon diluent having a boiling point of at least about 150°C and comprising one or more of a first portion of the heavy oil feedstock, vacuum gas oil, decant oil, cycle oil, start up diesel, or light gas oil; mixing the diluted catalyst precursor with a first or second portion of the heavy oil feedstock so as to form a blended oil feedstock composition by means of at least one static low shear in-line mixer comprised of a plurality of internal baffles or other elements inside of a tube or other housing followed by at least one high shear mixer comprised of a vessel with a propeller or turbine impeller; introducing the blended oil feedstock composition into a surge tank with a second or third portion of the heavy oil feedstock to cause the catalyst precursor to be homogeneously dispersed within the heavy oil feedstock to form a conditioned feedstock; and pumping the conditioned feedstock from the surge tank to a hydroprocessing reactor by one or more multi-stage high pressure pumps having multiple compression stages, the multi-stage high pressure pumps further mixing the conditioned feedstock and dispersing the catalyst precursor throughout the heavy oil feedstock.
A mobile station configured to establish an uplink wireless connection by transmitting a random access signal through a random access channel after receiving a synchronization channel transmitted from a radio base station in a handover destination; characterised by: a preamble generating unit for restricting a CAZAC sequence used as a preamble of the random access signal to a prescribed CAZAC sequence from among a plurality of CAZAC sequences with different indexes, and generating the preamble of the random access signal using the prescribed CAZAC sequence; wherein a Zadoff-Chu sequence that is expressed by c k n = exp j 2 π k L n + n n + 1 2 if L is odd if L is even c k n = exp j 2 π k L n + n 2 2 is used as the CAZAC sequence, where L represents a sequence length and k represents a sequence index, and a sequence for which a value of the sequence index is selected from a range of between 1 and L/3, L/2-L/16 and L/2+L/16, and 2L/3 and L-1 is used as the prescribed CAZAC sequence. a preamble generating unit for restricting a CAZAC sequence used as a preamble of the random access signal to a prescribed CAZAC sequence from among a plurality of CAZAC sequences with different indexes, and generating the preamble of the random access signal using the prescribed CAZAC sequence; wherein a Zadoff-Chu sequence that is expressed by c k n = exp j 2 π k L n + n n + 1 2 if L is odd if L is even c k n = exp j 2 π k L n + n 2 2 is used as the CAZAC sequence, where L represents a sequence length and k represents a sequence index, and a sequence for which a value of the sequence index is selected from a range of between 1 and L/3, L/2-L/16 and L/2+L/16, and 2L/3 and L-1 is used as the prescribed CAZAC sequence.
An arrangement for realising the vacuum operation for the at least one finished form (1, 2) of an I.S. machine, comprising a vacuum line (5, 6) which supplies the finished form (1, 2) and which is connected to a vacuum pump, characterised in that the vacuum line (5, 6) is attached to the base region (3, 4) of the finished form (1, 2), here the volume of the finished form (1, 2) which is not filled by a parison (7, 8) being subjected to a vacuum, in that a valve (17, 18) is arranged in the course of the vacuum line (5, 6), in that, in order to measure the pressure in the finished form (1, 2), a vacuum sensor (13, 14) is provided, in that the vacuum sensor (13, 14) is operatively connected via a microcontroller (15, 16) to the valve (17, 18) and an I.S. machine control, and in that the microcontroller (15, 16) is configured to interrupt, via the valve (17, 18), the application of a vacuum to the finished form (1, 2).