mhurhangee/patent-ind-claim-en huggingface dataset:
A solid state disconnect comprising: a hollow vertical tube having an outer diameter of no more than 4.5 inches (11.43 centimetres); an SSD device installed within the vertical tube; a disconnect switch provided on an above-ground SSD test panel of the solid state disconnect , the disconnect switch being switchable between an operating configuration and a testing configuration; a plurality of SSD cables interconnecting the SSD device with the disconnect switch , with a metallic underground pipeline , and with an underground grounding conductor ; wherein when the disconnect switch is in the operating configuration, the SSD device functions as an AC mitigation device by providing AC conductivity between the underground pipeline and the underground grounding conductor , while blocking DC conductivity between the underground pipeline and the underground grounding conductor ; wherein when the disconnect switch is in the testing configuration, the SSD device is disconnected from at least one of the underground pipeline and the underground grounding conductor , thereby interrupting the AC conductivity between the underground pipeline and the underground grounding conductor ; and wherein the solid state disconnect further comprises visible indicia that are similar or identical to indicia that are applied to a conventional pipeline location marker or pipeline corrosion test station. a hollow vertical tube having an outer diameter of no more than 4.5 inches (11.43 centimetres); an SSD device installed within the vertical tube; a disconnect switch provided on an above-ground SSD test panel of the solid state disconnect , the disconnect switch being switchable between an operating configuration and a testing configuration; a plurality of SSD cables interconnecting the SSD device with the disconnect switch , with a metallic underground pipeline , and with an underground grounding conductor ; wherein when the disconnect switch is in the operating configuration, the SSD device functions as an AC mitigation device by providing AC conductivity between the underground pipeline and the underground grounding conductor , while blocking DC conductivity between the underground pipeline and the underground grounding conductor ; wherein when the disconnect switch is in the testing configuration, the SSD device is disconnected from at least one of the underground pipeline and the underground grounding conductor , thereby interrupting the AC conductivity between the underground pipeline and the underground grounding conductor ; and wherein the solid state disconnect further comprises visible indicia that are similar or identical to indicia that are applied to a conventional pipeline location marker or pipeline corrosion test station.
A foam comprising: i) 80 to 95 wt.% of water, and ii) 1 to 20 wt.% native rapeseed protein isolate comprising 40 to 65 wt.% cruciferins and 35 to 60 wt.% napins and having a solubility of at least 88% over a pH range from 3 to 10 at a temperature of 23±2°C, iii) a second protein selected from the group consisting of whey protein, casein or milk protein, isolates of any thereof, concentrates of any thereof and combinations of any thereof, wherein the ratio between said rapeseed protein isolate and said second protein is from 95:5 (w:w) to 5:95 (w:w), wherein i) + ii) + iii) add up to 100 wt.% or less. i) 80 to 95 wt.% of water, and ii) 1 to 20 wt.% native rapeseed protein isolate comprising 40 to 65 wt.% cruciferins and 35 to 60 wt.% napins and having a solubility of at least 88% over a pH range from 3 to 10 at a temperature of 23±2°C, iii) a second protein selected from the group consisting of whey protein, casein or milk protein, isolates of any thereof, concentrates of any thereof and combinations of any thereof, wherein the ratio between said rapeseed protein isolate and said second protein is from 95:5 (w:w) to 5:95 (w:w),
An internal reinforcement element for a thermoplastic tank comprising at least two external parts provided to be welded to the tank wall, said at least two external parts being connected by at least n intermediate units with n being an integer greater or equal to 3, wherein said intermediate units are connected together by less than 40%, preferably less than 30%, more preferably less than 20%, of their sides length and/or faces area, characterized in that the ratio between the smallest section area of at least one of the intermediate units and the area of at least one external part provided to be in contact with the tank wall is comprised between 0.05% and 3%, preferably between 0,05% and 2%, more preferably between 0,05% and 1%, and in that at least two of the n intermediate units are solidarized by at least one connecting means located at the extremities of the at least two of the n intermediate units and between the extremities of the at least two of the n intermediate units and at least one of the at least two external parts , preferably the at least two of the n intermediate units and the at least one connecting means constitute a monoblock structure.
Installation for manufacturing fibre boards or chipboards with - a spreading device for forming a pressing material mat of wood fibres or wood chips, - a continuous furnace for the continuous preheating of the pressing material mat , - a continuously operating press in which the pressing material mat is pressed, utilising pressure and heat, into a fibreboard or chipboard, wherein the continuous furnace comprises a tunnel-shaped housing , through the inner space of which the pressing material mat can be passed, and comprises one or more microwave generators for producing microwaves which can be beamed into the inner space of the housing by means of one or more waveguides , characterised in that the waveguides are designed, at least in sections, as slotted waveguide antennas which each comprise a plurality of outlet slots for coupling the microwaves into the interior space , in that the slotted waveguide antennas each have at least one antenna wall in which the outlet slots are arranged, and in that the waveguides and/or their slotted waveguide antennas are each closed at the ends facing away from the microwave generators with an end wall so that a standing wave is formed within the slotted waveguide antenna . - a spreading device for forming a pressing material mat of wood fibres or wood chips, - a continuous furnace for the continuous preheating of the pressing material mat , - a continuously operating press in which the pressing material mat is pressed, utilising pressure and heat, into a fibreboard or chipboard, wherein the continuous furnace comprises a tunnel-shaped housing , through the inner space of which the pressing material mat can be passed, and comprises one or more microwave generators for producing microwaves which can be beamed into the inner space of the housing by means of one or more waveguides , characterised in that the waveguides are designed, at least in sections, as slotted waveguide antennas which each comprise a plurality of outlet slots for coupling the microwaves into the interior space , in that the slotted waveguide antennas each have at least one antenna wall in which the outlet slots are arranged, and in that the waveguides and/or their slotted waveguide antennas are each closed at the ends facing away from the microwave generators with an end wall so that a standing wave is formed within the slotted waveguide antenna .
A method of preparing a rectangular substrate for use in imprint lithography, comprising the steps of: providing a starting rectangular substrate having front and back surfaces and four ground side surfaces , and pressing a rotary polishing pad perpendicularly against a said side surface of the substrate under a constant pressure, and relatively moving the rotary polishing pad and the substrate parallel to the side surface, thereby polishing the side surface of the substrate characterized in that the moving speed of the relative parallel movement of the rotary polishing pad and the substrate along the side surface is faster when the center of the rotary polishing pad is positioned at a longitudinal edge region of the substrate side surface than when the center of the rotary polishing pad is positioned at the longitudinal central region of the substrate side surface. providing a starting rectangular substrate having front and back surfaces and four ground side surfaces , and pressing a rotary polishing pad perpendicularly against a said side surface of the substrate under a constant pressure, and relatively moving the rotary polishing pad and the substrate parallel to the side surface, thereby polishing the side surface of the substrate characterized in that the moving speed of the relative parallel movement of the rotary polishing pad and the substrate along the side surface is faster when the center of the rotary polishing pad is positioned at a longitudinal edge region of the substrate side surface than when the center of the rotary polishing pad is positioned at the longitudinal central region of the substrate side surface.
A rotary encoder comprising a bearing configuration , a bearing housing (230; 430; 530) and a stator , the bearing configuration comprises a shaft , a number of bearing units and a rotor , wherein the bearing housing (230; 430; 530) is arranged to receive the bearing configuration (290; 210, 220a, 220b, 240, 250) internally when the bearing housing is in a deformed state, in which deformed state insertion and positioning of the bearing configuration is possible due to an increased internal diameter of the bearing housing (230; 430; 530), and wherein the bearing housing (230; 430; 530) is arranged to fixedly secure the received bearing configuration in a pre-stressed state in a non-deformed state.
A surgical instrument , comprising a first arm and a second arm pivoted to form substantially a first-class lever, wherein said surgical instrument is configured to assume an open configuration, a closed configuration and a retaining clamped configuration for retaining a straight needle; the first arm comprising a first handle grip at a proximal end thereof and a first plate at a distal end thereof, the first plate having an outer dissecting surface and an inner retaining surface; the second arm comprising a second handle grip at a proximal end thereof and a second plate at a distal end thereof, the second plate having an outer dissecting surface and an inner retaining surface; at least one of the inner retaining surfaces being knurled so as to retain said needle in the retaining configuration; the plates have a form tapered towards the distal end and a rounded outer surface; said instrument also comprises a guide channel for guiding the straight surgical needle towards the distal end of at least one of said first arm and said second arm . said surgical instrument is configured to assume an open configuration, a closed configuration and a retaining clamped configuration for retaining a straight needle; the first arm comprising a first handle grip at a proximal end thereof and a first plate at a distal end thereof, the first plate having an outer dissecting surface and an inner retaining surface; the second arm comprising a second handle grip at a proximal end thereof and a second plate at a distal end thereof, the second plate having an outer dissecting surface and an inner retaining surface; at least one of the inner retaining surfaces being knurled so as to retain said needle in the retaining configuration; the plates have a form tapered towards the distal end and a rounded outer surface; said instrument also comprises a guide channel for guiding the straight surgical needle towards the distal end of at least one of said first arm and said second arm .
A method, in a packing and filling machine, of manufacturing a packaging container from a packaging laminate sleeve with at least one inner layer of thermoplastic, the packaging container, in addition to the packaging laminate sleeve, including a shoulder portion connected to the packaging laminate sleeve, and a neck portion connected to the shoulder portion, with associated pouring aperture, comprising the steps of: - disposing the packaging laminate sleeve in association with an inner moulding tool, - disposing an outer moulding tool outside the inner moulding tool for the formation of a cavity between the moulding tools, - injecting at least one melt of a first material into the cavity, characterised by the steps of: - disposing the neck portion of the packaging container between said inner and outer moulding tools, in contact with the cavity, the melt filling out the cavity and fusing together with the neck and a portion of the inner layer of thermoplastic located at the end of the packaging laminate sleeve, wherein the shoulder portion manufactured from thermoplastic extends past an upper edge of the packaging laminate sleeve, on the outside of the sleeve, so that the upper end of the sleeve is enclosed on three sides by the shoulder portion, and - opening the moulding tools and displacing the packaging container further to additional processing. - disposing the packaging laminate sleeve in association with an inner moulding tool, - disposing an outer moulding tool outside the inner moulding tool for the formation of a cavity between the moulding tools, - injecting at least one melt of a first material into the cavity, - disposing the neck portion of the packaging container between said inner and outer moulding tools, in contact with the cavity, the melt filling out the cavity and fusing together with the neck and a portion of the inner layer of thermoplastic located at the end of the packaging laminate sleeve, wherein the shoulder portion manufactured from thermoplastic extends past an upper edge of the packaging laminate sleeve, on the outside of the sleeve, so that the upper end of the sleeve is enclosed on three sides by the shoulder portion, and - opening the moulding tools and displacing the packaging container further to additional processing.
A method for making PET objects comprising: reacting a first PET precursor and a second PET precursor to produce a PET melt; flowing said PET melt to a distribution system having multiple outlets; flowing said PET melt from the distribution system having multiple outlets to a die forming system and a side chip stream ; controlling individually the mass flow of the PET melt in each of the die forming system and the side chip stream with a combination feedback and feed forward control system on the die forming system and the side chip stream, wherein said controlling individually the mass flow of the PET melt comprises controlling the pressure of said PET melt with pressure control loops prior to said forming said PET objects; forming said PET objects from said PET melt; and wherein the method further comprises: flowing said PET from one of said multiple outlets to the side chip stream for forming pellets. reacting a first PET precursor and a second PET precursor to produce a PET melt; flowing said PET melt to a distribution system having multiple outlets; flowing said PET melt from the distribution system having multiple outlets to a die forming system and a side chip stream ; controlling individually the mass flow of the PET melt in each of the die forming system and the side chip stream with a combination feedback and feed forward control system on the die forming system and the side chip stream, wherein said controlling individually the mass flow of the PET melt comprises controlling the pressure of said PET melt with pressure control loops prior to said forming said PET objects; forming said PET objects from said PET melt; and wherein the method further comprises: flowing said PET from one of said multiple outlets to the side chip stream for forming pellets.
A vessel for culturing cells comprising: a vessel main body defined by a bottom having rounded edges that is integral with a conically-shaped sidewall that tapers inward to a top surface ; an integral elongate annular neck extending upwardly from the top surface to a vessel opening ; and two or more interior baffles configured to disrupt a liquid vortex of a liquid media contained within the vessel during agitation of the liquid media, wherein the baffles have a V-shaped cross-section, characterised in that : the sidewall is tapered inward with an inclination angle of 4-10°; and the baffles have a sidewall angle of 80°-110° . a vessel main body defined by a bottom having rounded edges that is integral with a conically-shaped sidewall that tapers inward to a top surface ; an integral elongate annular neck extending upwardly from the top surface to a vessel opening ; and two or more interior baffles configured to disrupt a liquid vortex of a liquid media contained within the vessel during agitation of the liquid media, wherein the baffles have a V-shaped cross-section, the sidewall is tapered inward with an inclination angle of 4-10°; and the baffles have a sidewall angle of 80°-110° .
An apparatus for generating broadcast beams, configured to: select out of an antenna element array (1, 1', 1") a first set of dual polarized antenna elements and a third set of dual polarized antenna elements each being arranged in a different half of the antenna element array (1, 1', 1"), wherein the antenna element array is a symmetrical antenna element array, comprising two halves, which are symmetrical to each other; select out of the antenna element array (1, 1', 1") a second set of dual polarized antenna elements and a fourth set of dual polarized antenna elements each being arranged in a different half of the antenna element array (1, 1', 1"); generate a first broadcast beam by feeding with a first broadcast beam signal the first set of dual polarized antenna elements at their respective first inputs for a first polarization and the second set of dual polarized antenna elements at their respective second inputs for a second polarization; generate a second broadcast beam by feeding with a second broadcast beam signal the third set of dual polarized antenna elements at their respective first inputs for the first polarization and the fourth set of dual polarized antenna elements at their respective second inputs for the second polarization; wherein the second polarization is orthogonal to the first polarization. select out of an antenna element array (1, 1', 1") a first set of dual polarized antenna elements and a third set of dual polarized antenna elements each being arranged in a different half of the antenna element array (1, 1', 1"), wherein the antenna element array is a symmetrical antenna element array, comprising two halves, which are symmetrical to each other; select out of the antenna element array (1, 1', 1") a second set of dual polarized antenna elements and a fourth set of dual polarized antenna elements each being arranged in a different half of the antenna element array (1, 1', 1"); generate a first broadcast beam by feeding with a first broadcast beam signal the first set of dual polarized antenna elements at their respective first inputs for a first polarization and the second set of dual polarized antenna elements at their respective second inputs for a second polarization; generate a second broadcast beam by feeding with a second broadcast beam signal the third set of dual polarized antenna elements at their respective first inputs for the first polarization and the fourth set of dual polarized antenna elements at their respective second inputs for the second polarization; wherein the second polarization is orthogonal to the first polarization.
A method for determining an amount of ink used by first inkjet printhead cartridge of a first inkjet printer connected to a network to which second inkjet printers are connected, comprising the step of: (a) accessing by the first inkjet printer a first printhead identification value of the first inkjet printhead cartridge ; and characterized in further comprising the following steps: (b) requesting by the first inkjet printer the second inkjet printers to seek information related to the first printhead identification value; (c) receiving by the first inkjet printer one or more historical record values associated with the first printhead identification value from the one or more of the second inkjet printers ; (d) storing by the first inkjet printer a latest historical record value received from the one or more of the second inkjet printers ; and (e) incrementing a first historical record value of the first inkjet printer based on a number of ink dots ejected from the first inkjet printhead cartridge when printing is performed after the first inkjet printhead cartridge is installed in the first inkjet printer . (a) accessing by the first inkjet printer a first printhead identification value of the first inkjet printhead cartridge ; (b) requesting by the first inkjet printer the second inkjet printers to seek information related to the first printhead identification value; (c) receiving by the first inkjet printer one or more historical record values associated with the first printhead identification value from the one or more of the second inkjet printers ; (d) storing by the first inkjet printer a latest historical record value received from the one or more of the second inkjet printers ; and (e) incrementing a first historical record value of the first inkjet printer based on a number of ink dots ejected from the first inkjet printhead cartridge when printing is performed after the first inkjet printhead cartridge is installed in the first inkjet printer .
A storage device with two pole storage elements for electrical charges, with inverter groups including full bridges connected in series, wherein exactly one of the full bridges of each of the inverter groups is connected with poles of each of the storage elements , with a control unit configured to determine storage conditions and optimize charge and discharge processes of the storage elements through the full bridges based on a respective storage condition, and with a respective two-pole connection at each of the inverter groups , characterized in that the control unit includes control modules connected with one another by a data bus , further characterized by storage modules , wherein the full bridges form part of the storage modules , each of the storage modules with a bus connection configured to connect with the data bus , further with exactly one of the storage elements , and further with one of the control modules that determines its storage condition and optimizes its charging and discharging processes and that includes an interface with four control conductors to one of the full bridges for each of the inverter groups , wherein the storage device is configured to apply a DC voltage at the connections of at least two of the inverter groups . with two pole storage elements for electrical charges, with inverter groups including full bridges connected in series, wherein exactly one of the full bridges of each of the inverter groups is connected with poles of each of the storage elements , with a control unit configured to determine storage conditions and optimize charge and discharge processes of the storage elements through the full bridges based on a respective storage condition, and with a respective two-pole connection at each of the inverter groups , characterized in that the control unit includes control modules connected with one another by a data bus , further characterized by storage modules , wherein the full bridges form part of the storage modules , each of the storage modules with a bus connection configured to connect with the data bus , further with exactly one of the storage elements , and further with one of the control modules that determines its storage condition and optimizes its charging and discharging processes and that includes an interface with four control conductors to one of the full bridges for each of the inverter groups , wherein the storage device is configured to apply a DC voltage at the connections of at least two of the inverter groups .