mhurhangee/patent-ind-claim-en huggingface dataset:
A microcontroller device comprising a plurality of slave modules , wherein at least one of said slave modules is a processor , said microcontroller device further comprising one or more peripheral systems connected to at least one of said slave modules , and a resource supply module wherein the processor and the one or more peripheral systems are each arranged to generate a signal when they require power and/or a clock signal and wherein said signals stimulate the resource supply module to supply the requested resource, characterised in that the device further comprises two master modules each connected to a plurality of slave modules , a first of the master modules being connected to the resource supply module , and a second of the master modules being connected to the first master module such that request signals from peripherals connected to the second master module are passed to the first master module via a master-master interface .
Building monitoring apparatus having at least one monitoring device , in particular an interior camera, and at least one remote control unit , remote from the monitoring device , that is provided at least for activation of the at least one monitoring device by at least one user , characterized in that the monitoring device has at least one output unit , in the form of an electronic unit integrated in the monitoring device , that is provided so as, when the monitoring device is activated by means of the remote control unit , to output a visually and/or audibly perceptible signal uniquely associated with the remote control unit and/or with a user of the remote control unit .
A method of producing an anti-EGFR monoclonal antibody, wherein the anti-EGFR monoclonal antibody comprises a light chain comprising the amino acid sequence of SEQ ID NO: 2 and a heavy chain comprising the amino acid sequence of SEQ ID NO: 4, said method comprising: a) providing a nucleic acid encoding the light chain and the heavy chain of the anti-EGFR monoclonal antibody; b) constructing recombinant plasmid using the nucleic acid of a), transfecting host cell, screening for a high-expressing clone; wherein said host cell is eukaryotic mammalian CHO cell; and culturing the high-expressing clone in large scale to produce an anti-EGFR monoclonal antibody, isolating and purifying; wherein the cell culture growth medium is serum-free cell culture growth media and wherein said host cell is cultured in serum-free condition; the cell culture temperature is 34°C, the pH of the cell culture growth media is 6.6 and the osmotic pressure of the cell culture growth media is 290-350 mOsm/kg; wherein the antibody obtained does not comprise an N-glycolylneuraminic acid (NGNA), does not comprise a Gal-α -Gal glycan, and includes a Gal-α(2, 3/6)-Gal glycan. a) providing a nucleic acid encoding the light chain and the heavy chain of the anti-EGFR monoclonal antibody; b) constructing recombinant plasmid using the nucleic acid of a), transfecting host cell, screening for a high-expressing clone; wherein said host cell is eukaryotic mammalian CHO cell; and culturing the high-expressing clone in large scale to produce an anti-EGFR monoclonal antibody, isolating and purifying; wherein the cell culture growth medium is serum-free cell culture growth media and wherein said host cell is cultured in serum-free condition; the cell culture temperature is 34°C, the pH of the cell culture growth media is 6.6 and the osmotic pressure of the cell culture growth media is 290-350 mOsm/kg; wherein the antibody obtained does not comprise an N-glycolylneuraminic acid (NGNA), does not comprise a Gal-α -Gal glycan, and includes a Gal-α(2, 3/6)-Gal glycan.
An axial flow fan (20; 120) for use with a vehicle cooling system, the axial flow fan comprising: a hub defining an axis of rotation (A); and a plurality of blades supported on the hub, the plurality of blades including at least five blades, each blade comprising: a leading edge (24-3); a trailing edge (24-4) opposite the leading edge; a pressure side (24-1) extending between the leading edge and the trailing edge; a suction side (24-2) opposite the pressure side; a tip (24-5); and a root (24-6) opposite the tip along a blade length, wherein a solidity of the axial flow fan, measured as a percentage of an annular flow area between an outer diameter of the hub and an outer diameter of the tips of the plurality of blades projected onto a plane perpendicular to the axis of rotation that is occupied by the plurality of blades, is less than 40%, and wherein a total turning angle varies along the blade length of each of the plurality of blades, characterized in that a maximum total turning angle along the blade length of each of the plurality of blades is greater than or equal to 80°. a hub defining an axis of rotation (A); and a plurality of blades supported on the hub, the plurality of blades including at least five blades, each blade comprising: a leading edge (24-3); a trailing edge (24-4) opposite the leading edge; a pressure side (24-1) extending between the leading edge and the trailing edge; a suction side (24-2) opposite the pressure side; a tip (24-5); and a root (24-6) opposite the tip along a blade length, a leading edge (24-3); a trailing edge (24-4) opposite the leading edge; a pressure side (24-1) extending between the leading edge and the trailing edge; a suction side (24-2) opposite the pressure side; a tip (24-5); and a root (24-6) opposite the tip along a blade length, wherein a solidity of the axial flow fan, measured as a percentage of an annular flow area between an outer diameter of the hub and an outer diameter of the tips of the plurality of blades projected onto a plane perpendicular to the axis of rotation that is occupied by the plurality of blades, is less than 40%, and wherein a total turning angle varies along the blade length of each of the plurality of blades, characterized in that a maximum total turning angle along the blade length of each of the plurality of blades is greater than or equal to 80°.
An emulsified oil comprising lecithin, an edible oil and one or more extracts containing a polyphenol ingredient as anti-oxidant, wherein the one or more extracts is (are) selected from the group consisting of a molasses extract and an extract of raw sugar-ion resin reclaimed water; wherein the content of the molasses extract or the extract of raw sugar-ion resin reclaimed water is 5 to 19% (w/w), the content of the edible oil is 80 to 90% (w/w), and a content of the lecithin is 1 to 5% (w/w).
A working machine comprising: a machine body ; a dozer including a blade ; a boom pivotably supported by the machine body such that the boom is swingable upward and downward; an arm pivotably supported by the boom such that the arm is swingable in an arm crowd direction toward the boom and an arm dump direction away from the boom; a working tool pivotably supported by a pivot on the arm such that the working tool is swingable about the pivot between a working-tool crowd position at which a distal end portion of the working tool is closest to the arm and a working-tool dump position at which the distal end portion of the working tool is farthest from the arm; a boom cylinder that causes the boom to swing; an arm cylinder that causes the arm to swing in the arm crowd direction and the arm dump direction; an arm crowd restricting unit that imposes a restriction on a stroke (S1) of the arm cylinder in the arm crowd direction so that a swing track of the distal end portion of the working tool is spaced from the boom cylinder; characterised by a crowd restriction releasing unit that releases the restriction on the stroke of the arm cylinder to enable the arm to swing to an end of a swing range in the arm crowd direction when the boom is at a swing position at which the working tool in an operating position close to the working-tool dump position is disposed in a vicinity of the blade. a machine body ; a dozer including a blade ; a boom pivotably supported by the machine body such that the boom is swingable upward and downward; an arm pivotably supported by the boom such that the arm is swingable in an arm crowd direction toward the boom and an arm dump direction away from the boom; a working tool pivotably supported by a pivot on the arm such that the working tool is swingable about the pivot between a working-tool crowd position at which a distal end portion of the working tool is closest to the arm and a working-tool dump position at which the distal end portion of the working tool is farthest from the arm; a boom cylinder that causes the boom to swing; an arm cylinder that causes the arm to swing in the arm crowd direction and the arm dump direction; an arm crowd restricting unit that imposes a restriction on a stroke (S1) of the arm cylinder in the arm crowd direction so that a swing track of the distal end portion of the working tool is spaced from the boom cylinder; characterised by a crowd restriction releasing unit that releases the restriction on the stroke of the arm cylinder to enable the arm to swing to an end of a swing range in the arm crowd direction when the boom is at a swing position at which the working tool in an operating position close to the working-tool dump position is disposed in a vicinity of the blade.
A frequency divider comprising: a signal generation stage arranged to receive or to generate a clock signal at a clock frequency, and to employ the clock signal to provide a first reference signal (REF1), the signal generation stage is arranged to employ the clock signal to provide a second reference signal (REF2), the second reference signal (REF2) corresponding to the first reference signal (REF1) delayed by half a period of the clock signal, characterized in that the frequency divider also comprises a synchronisation stage coupled to the signal generation stage , arranged to receive the first reference signal (REF1) and the second reference signal (REF2), and arranged to generate an output signal, synchronised to the clock signal, having a desired output frequency divided from the clock frequency and having a constant duty cycle, the output signal being generated by switching between the first reference signal (REF1) and the second reference signal (REF2) once per period of the output signal wherein the output signal has the period that is a desired multiple of half the period of the clock signal. a signal generation stage arranged to receive or to generate a clock signal at a clock frequency, and to employ the clock signal to provide a first reference signal (REF1), the signal generation stage is arranged to employ the clock signal to provide a second reference signal (REF2), the second reference signal (REF2) corresponding to the first reference signal (REF1) delayed by half a period of the clock signal, characterized in that the frequency divider also comprises a synchronisation stage coupled to the signal generation stage , arranged to receive the first reference signal (REF1) and the second reference signal (REF2), and arranged to generate an output signal, synchronised to the clock signal, having a desired output frequency divided from the clock frequency and having a constant duty cycle, the output signal being generated by switching between the first reference signal (REF1) and the second reference signal (REF2) once per period of the output signal wherein the output signal has the period that is a desired multiple of half the period of the clock signal.
An ultraviolet (UV) catheter connection disinfection system , comprising a first connector comprising a UV transparent region at a first end of the first connector , a sealing plunger positioned proximal to the first end of the first connector , and a piercing member ; and a second connector comprising a leading membrane surface and a sealing surface for sealing against the UV transparent region at a first end of the second connector , wherein the piercing member is configured to pierce the leading membrane surface , a deflector is configured to deflect the sealing plunger into a flow position, the first end of the second connector is configured to mate with the first end of the first connector in a first disinfection position in which the leading membrane surface is intact and the sealing plunger is blocking flow through the first connector and a second flow position in which the leading membrane surface is punctured by the piercing member and the sealing plunger is deflected into the flow position by the deflection member, and wherein, in the first disinfection position, a disinfection zone is bounded by the leading membrane surface , an inner surface of the UV transparent region , the sealing surface , and the sealing plunger .
A method for determining temperature changes of an optical fibre having Fiber Bragg Grating (FBG) patterns provided in at least one portion (Portion 1) of said optical fibre , said optical fibre being connected between a first detector arrangement and a second detector arrangement , wherein said first detector arrangement comprises a first light emitting device , a first light detecting device and a first control arrangement (233; 500), wherein said second detector arrangement comprises a second light emitting device , a second light detecting device and a second control arrangement (243; 500), the optical fibre comprises a core and a casing, wherein the length of the core of the optical fibre is longer than the casing of the optical fibre ; the method comprising the steps of: - emitting (s410) light into said optical fibre in a first direction (D1) from said first detector arrangement , receiving reflections from said (FBG) patterns of such emitted light by said first detector arrangement , and processing said reflections for determining a current temperature change related to said optical fibre ; - on the basis of predetermined criteria, emitting (s440) light into said optical fibre in an opposite, second, direction (D2) from said second detector arrangement , receiving reflections from said (FBG) patterns of such emitted light by said second detector arrangement , and processing said reflections for determining a current temperature change related to said optical fibre . - emitting (s410) light into said optical fibre in a first direction (D1) from said first detector arrangement , receiving reflections from said (FBG) patterns of such emitted light by said first detector arrangement , and processing said reflections for determining a current temperature change related to said optical fibre ; - on the basis of predetermined criteria, emitting (s440) light into said optical fibre in an opposite, second, direction (D2) from said second detector arrangement , receiving reflections from said (FBG) patterns of such emitted light by said second detector arrangement , and processing said reflections for determining a current temperature change related to said optical fibre .
Centrifugal pellet dryer, comprising a housing accommodating a rotor surrounded by a screen , said screen including at least one porous screen member (5a, 5b ... 5n) and supported by a screen support holding the screen relative to the housing wherein said screen support includes at least one damper for dampening vibrations of the screen and/or isolating screen vibrations from the housing , characterized in that at least one damper forming a rubber-like elastic bearing piece configured to be connected to the housing and/or to be received in a recess in an interior wall of the housing .
A method for producing a product selected from a biopolymer expressed by a cell, an intracellular or extracellular product produced by a cell or microorganism, a periplasmatic product produced by a cell or microorganism, a cell or a microorganism in a bioreactor in a high-density chemostat fermentation process, wherein said bioreactor comprises: i) a first outlet having a separation device allowing impurities with a size below the size of the product, and medium to be removed while retaining the product in the bioreactor; (ii) a second outlet having a product harvest module allowing the product, cells, impurities and medium to be removed; and (iii) an inlet for adding a medium; wherein the method comprises the following steps: (a) fermenting the cell expressing the biopolymer, the cell or microorganism producing the intracellular product, the cell, or microorganism producing the periplasmatic product, the cell, or the microorganism in the bioreactor in a suitable medium under suitable conditions, wherein during the fermentation impurities and medium are removed via the separation device, the product, cells, impurities and medium are removed via the product harvest module and new medium is added to replenish nutrients consumed by the cells or microorganisms and to equilibrate the medium removed during removal of impurities and harvesting the product; and (b) the product is isolated from the harvested medium; and wherein the cell density in the bioreactor during the fermentation reaches at least 5 million cells per ml medium. i) a first outlet having a separation device allowing impurities with a size below the size of the product, and medium to be removed while retaining the product in the bioreactor; (ii) a second outlet having a product harvest module allowing the product, cells, impurities and medium to be removed; and (iii) an inlet for adding a medium; (a) fermenting the cell expressing the biopolymer, the cell or microorganism producing the intracellular product, the cell, or microorganism producing the periplasmatic product, the cell, or the microorganism in the bioreactor in a suitable medium under suitable conditions, wherein during the fermentation impurities and medium are removed via the separation device, the product, cells, impurities and medium are removed via the product harvest module and new medium is added to replenish nutrients consumed by the cells or microorganisms and to equilibrate the medium removed during removal of impurities and harvesting the product; and (b) the product is isolated from the harvested medium; and
A method of fabricating an object in layers, the method comprising, for at least one layer : dispensing a building material formulation to form a first portion of said layer, and leveling said first portion by a leveling device ; increasing a vertical distance (Δ) between said first portion and said leveling device; and while a topmost surface of said first portion is exposed and beneath a segment of said leveling device: dispensing a building material formulation to form a second portion of said layer, laterally displaced from said first portion along an indexing direction, and leveling said second portion by said leveling device. dispensing a building material formulation to form a first portion of said layer, and leveling said first portion by a leveling device ; increasing a vertical distance (Δ) between said first portion and said leveling device; and while a topmost surface of said first portion is exposed and beneath a segment of said leveling device: dispensing a building material formulation to form a second portion of said layer, laterally displaced from said first portion along an indexing direction, and leveling said second portion by said leveling device.
A solid state microarray, comprising: an addressable network of working electrodes and counter electrodes integral to said microarray, wherein said working electrodes comprise chemically-functionalized surfaces comprising functional groups, wherein said working electrodes are bound to a plurality of biomolecular complexes, wherein said biomolecular complexes comprise at least 2 amplified electrochemiluminescent (AECL) tags, wherein at least 2 AECL tags comprise a metal chelate bound to tyramide.
Suspension of a wheelset of a railway car including - at least one wheelset comprising at least one axle , together with wheels , bearings , and axle boxes , - helical springs fitted to the ends of the axle on both sides of the axle's axle box , in order to support the frame of the railway car or the frame of a bogie of the railway car, characterized by further including a slider on the side of the upper end of each helical spring and arranged to be moveably attached to the axle's axle box , and in which there is at least one curved guide surface , which curved guide surface is cylindrical and has at least one radius of curvature around an axis parallel to the axle of the wheelset, and a friction damper fitted to the upper end of the helical springs , which comprises a counter surface supported on the curved guide surface of the slider of the axle box , the shape of which corresponds to the shape of the curved guide surface , a spring plate , which contains a head cup for supporting the upper end of the helical spring , and at least one planar slanting friction surface , which is arranged to be supported on a planar slanting counter surface in the frame of the bogie/car and to correspond to this slanting counter surface . - at least one wheelset comprising at least one axle , together with wheels , bearings , and axle boxes , - helical springs fitted to the ends of the axle on both sides of the axle's axle box , in order to support the frame of the railway car or the frame of a bogie of the railway car, characterized by further including a slider on the side of the upper end of each helical spring and arranged to be moveably attached to the axle's axle box , and in which there is at least one curved guide surface , which curved guide surface is cylindrical and has at least one radius of curvature around an axis parallel to the axle of the wheelset, and a friction damper fitted to the upper end of the helical springs , which comprises a counter surface supported on the curved guide surface of the slider of the axle box , the shape of which corresponds to the shape of the curved guide surface , a spring plate , which contains a head cup for supporting the upper end of the helical spring , and at least one planar slanting friction surface , which is arranged to be supported on a planar slanting counter surface in the frame of the bogie/car and to correspond to this slanting counter surface .
A method of forming an organic polymeric particle, comprising: forming a core of an organic hydrophilic polymer with monomers that contain an acid group, a latent acid group, or a combination thereof; forming a shell that comprises an organic polymer with monomers that contain an acid group, a latent acid group, or a combination thereof to encapsulate the core, the organic polymer including monomers selected from the group consisting of styrene, methyl methacrylate and acrylonitrile, and 1 to 25 weight parts of monomers that contain a latent acid group; wherein the latent acid groups of the organic polymer include methyl acrylate or butyl acrylate, where the shell has an initial size; expanding the core to form a hollow porous structure from the shell, where the hollow porous structure has an expanded size larger than an initial size of the shell, and hydrolysing the acid group, latent acid group, or combination thereof of the hollow porous structure and of the organic hydrophilic polymer, to give the organic polymeric particle a void volume fraction of 40 percent to 85 percent. forming a core of an organic hydrophilic polymer with monomers that contain an acid group, a latent acid group, or a combination thereof; forming a shell that comprises an organic polymer with monomers that contain an acid group, a latent acid group, or a combination thereof to encapsulate the core, the organic polymer including monomers selected from the group consisting of styrene, methyl methacrylate and acrylonitrile, and 1 to 25 weight parts of monomers that contain a latent acid group; wherein the latent acid groups of the organic polymer include methyl acrylate or butyl acrylate, where the shell has an initial size; expanding the core to form a hollow porous structure from the shell, where the hollow porous structure has an expanded size larger than an initial size of the shell, and hydrolysing the acid group, latent acid group, or combination thereof of the hollow porous structure and of the organic hydrophilic polymer, to give the organic polymeric particle a void volume fraction of 40 percent to 85 percent.