mhurhangee/patent-ind-claim-en huggingface dataset:
A microfluidic cartridge configured to perform sequencing operations on a nucleic acid sample comprising: (a) a flow cell including a reaction site area encompassing a plurality of reaction sites, wherein the flow cell comprises a sequencing chamber; (b) fluidics channels for delivering reactants to and/or removing reactants from the reaction site area; (c) a biosensor including a solid state imaging device having an active area configured to detect signals of biological reactions in the reaction site area, wherein the detected signals of biological reactions are indicative of nucleotide base types involved in the biological reactions, wherein the reaction site area is proximal to the active area, the reaction site area spans substantially all of the active area, wherein the fluidics channels do not substantially overlap with the active area, and wherein the microfluidic cartridge comprises a stack of fluidics layers comprising: (a) a sequencing chamber layer comprising a sequencing chamber area configured for carrying out clustering and sequencing reactions; (b) a sequencing chamber bottom layer disposed under the sequencing chamber layer, wherein the sequencing chamber bottom layer has an opening configured to hold the solid-state imaging device with the active area disposed under the sequencing chamber area; (c) a flexible printed circuit board (PCB) layer under the sequencing chamber bottom layer; and (d) a fluidics channels layer disposed under the flexible printed circuit board (PCB) layer, wherein the fluidics channels layer comprises the fluidic channels wherein the fluidic channels are configured to deliver reactants to the sequencing chamber area. (a) a flow cell including a reaction site area encompassing a plurality of reaction sites, wherein the flow cell comprises a sequencing chamber; (b) fluidics channels for delivering reactants to and/or removing reactants from the reaction site area; (c) a biosensor including a solid state imaging device having an active area configured to detect signals of biological reactions in the reaction site area, wherein the detected signals of biological reactions are indicative of nucleotide base types involved in the biological reactions, (a) a sequencing chamber layer comprising a sequencing chamber area configured for carrying out clustering and sequencing reactions; (b) a sequencing chamber bottom layer disposed under the sequencing chamber layer, wherein the sequencing chamber bottom layer has an opening configured to hold the solid-state imaging device with the active area disposed under the sequencing chamber area; (c) a flexible printed circuit board (PCB) layer under the sequencing chamber bottom layer; and (d) a fluidics channels layer disposed under the flexible printed circuit board (PCB) layer, wherein the fluidics channels layer comprises the fluidic channels wherein the fluidic channels are configured to deliver reactants to the sequencing chamber area.
A tire having a tread portion, wherein the cap rubber layer forming the tread portion contains styrene-butadiene rubber (SBR), isoprene-based rubber, and silica; the content of the styrene-butadiene rubber (SBR) in 100 parts by mass of the rubber component is 40 parts by mass or more and 60 parts by mass or less, and the styrene content of the styrene-butadiene rubber (SBR) is 25% by mass or less; the content of the isoprene-based rubber in 100 parts by mass of the rubber component is more than 30 parts by mass; the content of the silica with respect to 100 parts by mass of the rubber component is 60 parts by mass or less; and the thickness of the tread portion is 9.4 mm or less. the cap rubber layer forming the tread portion contains styrene-butadiene rubber (SBR), isoprene-based rubber, and silica; the content of the styrene-butadiene rubber (SBR) in 100 parts by mass of the rubber component is 40 parts by mass or more and 60 parts by mass or less, and the styrene content of the styrene-butadiene rubber (SBR) is 25% by mass or less; the content of the isoprene-based rubber in 100 parts by mass of the rubber component is more than 30 parts by mass; the content of the silica with respect to 100 parts by mass of the rubber component is 60 parts by mass or less; and the thickness of the tread portion is 9.4 mm or less.
A robotic picking and storage system comprising a first set of parallel rails or tracks and a second set of parallel rails or tracks extending transverse to the first set in a substantially horizontal plane to form a grid pattern comprising a plurality of grid spaces; a plurality of storage containers arranged in stacks, located beneath the rails; at least one load handling device disposed on the grid, the load handling device arranged to move laterally above the stacks on the rails , the load handling device comprising a lifting device arranged to lift at least one storage container from a stack ; wherein the robotic picking and storage system further comprises at least one cleaning container comprising cleaning means adapted to clean spillages and configured to be lifted and conveyed by the load handling device in the same manner as a storage container , for removing liquids from beneath the robotic picking and storage system, wherein said cleaning means are an absorbent means ; characterised in that the absorbent means comprises a layer which covers one or more sides of the cleaning container .
A method of manufacturing a biochip, the method comprising: providing at least one chassis, wherein the at least one chassis includes, a channel configured to support the at least one membrane structure and at least one microfluidic channel in fluid communication with the channel; providing at least one porous membrane; curving at least one porous membrane into a closed loop of cylindrical cross-section. wherein a round, cylindrical porous duct is formed by curving a first part of a porous membrane and a one or more additional porous membranes form a second part of the duct, and inserting the at least one porous membrane between the at least one chassis. providing at least one chassis, wherein the at least one chassis includes, a channel configured to support the at least one membrane structure and at least one microfluidic channel in fluid communication with the channel; providing at least one porous membrane; curving at least one porous membrane into a closed loop of cylindrical cross-section. wherein a round, cylindrical porous duct is formed by curving a first part of a porous membrane and a one or more additional porous membranes form a second part of the duct, and inserting the at least one porous membrane between the at least one chassis.
Method for utilization of plastic and other waste in the energy industry, whereby the pre-shredded solid plastic and/or rubber waste in the prescribed size is being heated and decomposed by a thermocatalytic decomposition process, and steams and gases, which develop are cooled and are separated into their components in liquid and gas phase, during the method the shredded solid waste is fed in to a melting unit , which is made of two sequentially linked melting equipments , and which comprises a gas and/or steam outlet slot , furthermore, after the first melting equipment via an interconnecting pipeline a second melting equipment is mounted, from where the properly heated high pressure melted feedstock flows into a thermocatalytic reactor , where thermal decomposition of the hydrocarbon polymers in the feedstock takes place, then during the method is followed by the collection and storage of the liquid product oil and gaseous end products as well as the further use thereof, which is characterized by that, the first melting equipment is constructed with an extruder axis with a thread interruption with a length (L2), between a first section with a length (L1) and a second section with a length (L3) of the screw thread on the extruder axis , which thread interruption shall cause solidity of the melted feedstock and formation of a compaction and a plug, thereby forcing the gases and steams to escape from the feedstock via the gas and/or steam outlet slot and to prevent back-flow of gases.
An antenna (100, 100a-d) comprising: a receiver ; a horn having a first end disposed on the receiver and a second end defining an aperture positioned opposite the receiver , the horn defining a slant length and an axial length being half the slant length and having a flare angle of about 45 degrees; and a lens disposed within the aperture of the horn , the lens having a first surface facing inward toward the receiver and a second surface opposite the first surface and facing outward away from the horn ; an anti-reflection layer (210, 210a-e) comprising a dielectric material and disposed on the first surface of the lens , the anti-reflection layer (210, 210a-e) defining holes (220, 220a-c) arranged in an even disbursement of a 50/50 material to void ratio and having a thickness L D of a quarter wavelength of a signal received by the antenna, wherein each hole has a U-shape cross-section defining a hole curvature C a or a triangular cross-sectional shape along the hole thickness direction. a receiver ; a horn having a first end disposed on the receiver and a second end defining an aperture positioned opposite the receiver , the horn defining a slant length and an axial length being half the slant length and having a flare angle of about 45 degrees; and a lens disposed within the aperture of the horn , the lens having a first surface facing inward toward the receiver and a second surface opposite the first surface and facing outward away from the horn ; an anti-reflection layer (210, 210a-e) comprising a dielectric material and disposed on the first surface of the lens , the anti-reflection layer (210, 210a-e) defining holes (220, 220a-c) arranged in an even disbursement of a 50/50 material to void ratio and having a thickness L D of a quarter wavelength of a signal received by the antenna, wherein each hole has a U-shape cross-section defining a hole curvature C a or a triangular cross-sectional shape along the hole thickness direction.
A camera module , comprising: a fixed bracket ; a camera body comprising a lens and an imaging sensor corresponding to the lens in terms of positions, the camera body being further provided with a movable connecting member on an external side surface of the camera body arranged along a circumferential direction of the lens , the fixed bracket being provided with a movable fitting member corresponding to the movable connecting member in terms of positions, the movable fitting member being movably connected with the movable connecting member ; and an anti-shake assembly comprising a space attitude sensor and a driving module electrically connected with the space attitude sensor , the driving module is configured to be fitted with the camera body and to drive the camera body to perform an anti-shake motion relative to the fixed bracket according to shaking information obtained by the space attitude sensor , characterized in that a plurality of movable connecting members are provided, the fixed bracket comprises independent bracket parts arranged at intervals, and an arrangement position of the bracket part corresponds to a position of at least one of the plurality of movable connecting members . a fixed bracket ; a camera body comprising a lens and an imaging sensor corresponding to the lens in terms of positions, the camera body being further provided with a movable connecting member on an external side surface of the camera body arranged along a circumferential direction of the lens , the fixed bracket being provided with a movable fitting member corresponding to the movable connecting member in terms of positions, the movable fitting member being movably connected with the movable connecting member ; and an anti-shake assembly comprising a space attitude sensor and a driving module electrically connected with the space attitude sensor , the driving module is configured to be fitted with the camera body and to drive the camera body to perform an anti-shake motion relative to the fixed bracket according to shaking information obtained by the space attitude sensor , characterized in that a plurality of movable connecting members are provided, the fixed bracket comprises independent bracket parts arranged at intervals, and an arrangement position of the bracket part corresponds to a position of at least one of the plurality of movable connecting members .
A solid, particulate, urea-based blend composition comprising a urea-based compound in particulate form, one or more components in particulate form, selected from the group of nitrates, phosphates, sulphates and chlorides, and a urease inhibitor of the type phosphoric triamide, wherein the urea-based blend composition is further characterized in that it comprises 0.0001 to 5 weight%, relative to the total weight of the composition, of one or more reactive alkaline or alkaline-forming inorganic or organic compounds, wherein the one or more reactive alkaline or alkaline-forming inorganic or organic compounds is able to interact with said one or more components selected from the group of nitrates, phosphates, sulphates and chlorides, with the proviso that the alkaline-forming compound is not an organic alkaline solvent, used as inert carrier for the urease inhibitor of the type phosphoric triamide and the one or more reactive alkaline or alkaline-forming inorganic or organic compounds is selected from the group of metal oxides, carbonates, hydroxides, acetates, and any mixture thereof; said composition optionally further comprising an anti-caking and/or moisture repellent and/or anti-dust coating.
A light-steering optic , comprising: a dielectric substrate characterized in that : the dielectric substrate has a series of mutually parallel trenches formed therein, a wall of each trench extending up the trench to an adjacent land portion of the dielectric substrate, the land portion separating that trench from a neighboring trench in the series; and the light-steering optic further comprises: for each trench, an adherent electrode extending up the wall of the trench and onto a corresponding contact zone , the contact zone partly covering the land portion adjacent to that wall; liquid crystal within each trench; and a series of transparent conductors crossing over the series of parallel trenches, each transparent conductor selectively contacting one or more of the electrodes at a corresponding one or more contact zones. for each trench, an adherent electrode extending up the wall of the trench and onto a corresponding contact zone , the contact zone partly covering the land portion adjacent to that wall; liquid crystal within each trench; and a series of transparent conductors crossing over the series of parallel trenches, each transparent conductor selectively contacting one or more of the electrodes at a corresponding one or more contact zones.
A filter assembly capable of adjusting elimination of solid materials using a flow-variable bypass flow path, the filter assembly comprising: a filter portion ; and a filter cartridge header ; characterized in that : the filter portion comprises a cover portion formed on top tohave a shape in which a bypass flow pipe and a water discharge pipe sequentially surrounds a perimeter of a vertically protruding original water inflow pipe in a stepped structure and accommodates a filter body therein, wherein the cover portion of the filter portion is accommodated below the filter cartridge header and the filter cartridge header comprises a bypass flow rate control unit capable of adjusting an inflow amount of original water flowing into the bypass flow pipe . a filter portion ; and a filter cartridge header ; characterized in that : the filter portion comprises a cover portion formed on top tohave a shape in which a bypass flow pipe and a water discharge pipe sequentially surrounds a perimeter of a vertically protruding original water inflow pipe in a stepped structure and accommodates a filter body therein, wherein the cover portion of the filter portion is accommodated below the filter cartridge header and the filter cartridge header comprises a bypass flow rate control unit capable of adjusting an inflow amount of original water flowing into the bypass flow pipe . the filter portion comprises a cover portion formed on top tohave a shape in which a bypass flow pipe and a water discharge pipe sequentially surrounds a perimeter of a vertically protruding original water inflow pipe in a stepped structure and accommodates a filter body therein, wherein the cover portion of the filter portion is accommodated below the filter cartridge header and the filter cartridge header comprises a bypass flow rate control unit capable of adjusting an inflow amount of original water flowing into the bypass flow pipe .
A hot fluid expansion engine comprising a central shaft and a plurality of actuator modules arranged in a star configuration around the central shaft , each module (100; 200; 300; 400; 500) comprising: • a drive piston (110; 210; 310; 410; 510) movable in a first enclosure , the drive piston defining a working chamber of variable volume in said first enclosure; and • a displacement piston (150; 250; 350; 450; 550) movable in a second enclosure , the displacement piston separating a low temperature chamber of variable volume from a high temperature chamber of variable volume in said second enclosure, the low temperature chamber communicating with the working chamber ; the drive piston and the displacement piston of each actuator module being connected to the central shaft via respective first and second eccentric transmission devices (1120, 112; 1540, 154, 153, 152), each suitable for causing the corresponding piston to perform reciprocating motion in translation, the motion of the drive piston having a phase lag of 90° relative to the motion of the displacement piston, each module (100; 200; 300; 400; 500) being driven in rotation about a central shaft so as to accelerate the cooling of the fluid in the working chamber; wherein each actuator module (100; 200; 300; 400; 500), the drive piston (110; 210; 310; 410; 510) and the displacement piston (150; 250; 350; 450; 550) are arranged in adjacent manner in a common plane perpendicular to the axis of the central shaft , characterized in that said the engine further includes a fluid heater device , each high temperature chamber communicating with the fluid heater device and each working chamber being connected to said fluid heater device via a fluid circulation circuit , and in that the fluid circulation circuit of each actuator module includes a gas regenerator extending around the high temperature chamber , and in that each displacement piston (150; 250; 350; 450; 550) is connected to a first end of a rocker (153; 253; 353; 453; 553) via a guide rod (152; 252; 352; 452; 552), the second end of the rocker being connected to one end of a control rod (154; 254; 354; 454; 554), the opposite end of the control rod being connected to a cam follower mounted on a cam secured to the central shaft . • a drive piston (110; 210; 310; 410; 510) movable in a first enclosure , the drive piston defining a working chamber of variable volume in said first enclosure; and • a displacement piston (150; 250; 350; 450; 550) movable in a second enclosure , the displacement piston separating a low temperature chamber of variable volume from a high temperature chamber of variable volume in said second enclosure, the low temperature chamber communicating with the working chamber ;
A method for selecting ventilation devices (VD) to a ventilation system of a space from a group of ventilation devices (VD), which ventilation devices have an air throw pattern (TP) and produce airborne noise during operation of the ventilation system, said method characterized in that , - a total supply air need and/or extract air need of the space is selected from the ventilation plans of the building, - a first subgroup of possible ventilation devices is chosen based on the total supply air need and/or extract air need of the space, - an acceptable noise level L pA1 of the space is selected, - a location for at least one first ventilation device (VD1) in the space and the air throw pattern (TP) of the at least one possible first ventilation device (VD1) inside the space is/are determined, - an estimated noise level L pA,est produced by a ventilation device (VD) of the first subgroup in the space is calculated and - at least one first ventilation device (VD1) to the ventilation system is chosen from those ventilation devices (VD) of the first subgroup, which produce an estimated noise level L pA, est lower than the acceptable noise level L pA1 , wherein - at least one noise evaluation point (EP) inside an air throw pattern (TP) of the at least first ventilation device (VD1) is/are determined and - the estimated noise level L pA,est produced by a ventilation device of the first subgroup is calculated in said noise evaluation point (EP). - a total supply air need and/or extract air need of the space is selected from the ventilation plans of the building, - a first subgroup of possible ventilation devices is chosen based on the total supply air need and/or extract air need of the space, - an acceptable noise level L pA1 of the space is selected, - a location for at least one first ventilation device (VD1) in the space and the air throw pattern (TP) of the at least one possible first ventilation device (VD1) inside the space is/are determined, - an estimated noise level L pA,est produced by a ventilation device (VD) of the first subgroup in the space is calculated and - at least one first ventilation device (VD1) to the ventilation system is chosen from those ventilation devices (VD) of the first subgroup, which produce an estimated noise level L pA, est lower than the acceptable noise level L pA1 , - at least one noise evaluation point (EP) inside an air throw pattern (TP) of the at least first ventilation device (VD1) is/are determined and - the estimated noise level L pA,est produced by a ventilation device of the first subgroup is calculated in said noise evaluation point (EP).
A screw anchor assembly used in spinal screw fixation, comprising: a screw having screw threads in a lengthwise direction; and a screw anchor which is inserted into a predefined position of spine, and has anchor threads on an inner surface defining a receiving part into which the screw is inserted, the receiving part being expanded during screw coupling with the screw, wherein the screw anchor includes a plurality of divisions formed along a lengthwise direction, and has overlapping parts between adjacent divisions in the plurality of divisions. a screw having screw threads in a lengthwise direction; and a screw anchor which is inserted into a predefined position of spine, and has anchor threads on an inner surface defining a receiving part into which the screw is inserted, the receiving part being expanded during screw coupling with the screw, wherein the screw anchor includes a plurality of divisions formed along a lengthwise direction, and has overlapping parts between adjacent divisions in the plurality of divisions.
Pressurization device for exhaust gases of a turbine power plant , wherein the pressurization device has at least one fluid working machine which is configured to compress gaseous fractions of the exhaust gases and/or to pressurize liquid fractions of the exhaust gases, the fluid working machine having a drive shaft which is configured to be coupled to an output shaft of a main turbine of the power plant for torque transmission; characterized in that the pressurization device comprises a power transmission element which is connected to the drive shaft of the fluid working machine and which has at least one hydrodynamic gear mechanism element and which can be connected to the output shaft of the main turbine.