mhurhangee/ep-ind-claims huggingface dataset:
A method for extracting low molecular weight nucleic acid from a sample comprising a mixture of low molecular weight nucleic acid and high molecular weight nucleic acid, which comprises: (a) mixing the sample, a salt and a solid support capable of reversibly binding nucleic acid, thereby forming a first binding solution, wherein the salt is present at a concentration at which the high molecular weight nucleic acid selectively adsorbs to the solid support; (b) separating the solid support from the first binding solution, thereby yielding a fraction separated from the solid support; (c) mixing the fraction separated from the solid support in (b) with additional salt, whereby the salt is present at a higher concentration than that of the first binding solution in (a); (d) introducing additional solid support to the mixture in (c), thereby forming a second binding solution, wherein the low molecular weight nucleic acid selectively adsorbs to the additional solid support; and (e) separating the additional solid support from the second binding solution, thereby extracting low molecular weight nucleic acid from the sample, wherein the low molecular weight nucleic acid comprises less than 1200 base pairs and the high molecular weight nucleic acid comprises 1200 or more base pairs. (a) mixing the sample, a salt and a solid support capable of reversibly binding nucleic acid, thereby forming a first binding solution, wherein the salt is present at a concentration at which the high molecular weight nucleic acid selectively adsorbs to the solid support; (b) separating the solid support from the first binding solution, thereby yielding a fraction separated from the solid support; (c) mixing the fraction separated from the solid support in (b) with additional salt, whereby the salt is present at a higher concentration than that of the first binding solution in (a); (d) introducing additional solid support to the mixture in (c), thereby forming a second binding solution, wherein the low molecular weight nucleic acid selectively adsorbs to the additional solid support; and (e) separating the additional solid support from the second binding solution, thereby extracting low molecular weight nucleic acid from the sample, wherein the low molecular weight nucleic acid comprises less than 1200 base pairs and the high molecular weight nucleic acid comprises 1200 or more base pairs.
Dispenser for fluid product, the dispenser comprising a dispenser body, the dispenser body comprising a discharge outlet defining an outlet opening and an outlet closure valve with a closure mechanism comprising a closure member which in a closed position closes the discharge outlet; an outlet attachment, the outlet attachment defining an outlet conduit having a nozzle opening, and which can be coupled to the dispenser at the discharge outlet by a coupling structure, the coupling structure comprising respective coupling elements of the dispenser body and outlet attachment which interfit, and so that in a coupled condition fluid product can be dispensed from the dispenser through the outlet attachment; said coupling structure providing that the coupling of the outlet attachment to the dispenser comprises a completion movement to reach said coupled condition in which fluid product can be dispensed from the dispenser through the outlet attachment, characterised in that the dispenser comprises additionally a security mechanism, the security mechanism comprising respective cooperating elements of the dispenser body and outlet attachment, and the security mechanism being controllably adjustable between a blocking condition, in which said cooperating elements co-operate to block the completion movement, and an access condition in which said cooperating elements allow the completion movement.
A method for producing a three-dimensional decoration piece of thermoplastic synthetic resin comprising: putting an upper layer material (11a,), on which metal has been deposited by evaporation, on a first table operating as cathode; lowering an upper mold operating as anode onto the first table to press the upper layer material, emitting a high frequency wave for induction heating, to form a three-dimensionally formed body from the upper layer material by molding and fusion-cutting by machining means and temporarily holding the three-dimensionally formed body to the upper mold; stopping the high frequency induction heating; moving a second table carrying a lower layer material having a tacky bonding property to below the upper mold temporarily holding the three-dimensionally formed body; said second table having a flat top surface; said second table being provided on the top surface thereof with recessed sections, each of which being transversally and inwardly separated from a position where an edge of the machining means contacts, by 0.2mm to 1mm; and a cushion member being arranged in the respective recessed sections; and lowering said upper mold onto the second table to press the three-dimensionally formed body, cutting the lower layer material and tacky bonding the three-dimensionally formed body and the lower layer material. putting an upper layer material (11a,), on which metal has been deposited by evaporation, on a first table operating as cathode; lowering an upper mold operating as anode onto the first table to press the upper layer material, emitting a high frequency wave for induction heating, to form a three-dimensionally formed body from the upper layer material by molding and fusion-cutting by machining means and temporarily holding the three-dimensionally formed body to the upper mold; stopping the high frequency induction heating; moving a second table carrying a lower layer material having a tacky bonding property to below the upper mold temporarily holding the three-dimensionally formed body; said second table having a flat top surface; said second table being provided on the top surface thereof with recessed sections, each of which being transversally and inwardly separated from a position where an edge of the machining means contacts, by 0.2mm to 1mm; and a cushion member being arranged in the respective recessed sections; and lowering said upper mold onto the second table to press the three-dimensionally formed body, cutting the lower layer material and tacky bonding the three-dimensionally formed body and the lower layer material.
Ballistic armour for protecting a platform, the armour comprising a liquid, a container for containing the liquid, said container having a forward threat-facing wall, a rear platform-facing wall and at least one shock-reflecting layer of material contained within the container, wherein the shock-reflecting layer comprises a foam material, the shock-reflecting layer having a shock impedance differing from that of the liquid with which the container is filled and being positioned at an angle to the threat-facing wall whereby the ballistic armour is configured to reflect shock waves created in the liquid by passage of a projectile through the liquid back towards the projectile and across the trajectory of the projectile to induce tumbling of the projectile within the container, wherein the shock-reflecting layer comprises material having a lower shock impedance than the liquid, and the shock-reflecting layer is positioned at an angle between 80° and 90° with respect to the threat-facing wall.
A composite battery cell, comprising: a plurality of electricity supply element groups electrically connected to each other in parallel, and a pack case, housing the electricity supply element groups; wherein each of the electricity supply element groups includes a plurality of electricity supply elements electrically connected to each other in series, wherein each of the electricity supply elements is configured as an independent module and comprises a separator; two active material layers (12, 13) disposed on two sides of the separator respectively, and an electrolyte system impregnated therein; two current collectors (14, 15), disposed on outer sides of the active material layers (12, 13) respectively; and a sealing layer, disposed between the edges of the two current collectors (14, 15) to adhere the two current collectors (14, 15) and seal the electrolyte system therebetween, so that the electrolyte system of each electricity supply element does not circulate between the electricity supply elements; wherein the electricity supply element groups are stacked to alternately face up and face down, so that the adjacent current collectors (14, 15) of the outermost electricity supply elements of two adjacent electricity supply element groups having the same polarity are directly contacted to each other to form an electrical connection; wherein a charge transfer is occurred between the adjacent electricity supply elements without electrochemical reactions. a plurality of electricity supply element groups electrically connected to each other in parallel, and a pack case, housing the electricity supply element groups; wherein each of the electricity supply element groups includes a plurality of electricity supply elements electrically connected to each other in series, wherein each of the electricity supply elements is configured as an independent module and comprises a separator; two active material layers (12, 13) disposed on two sides of the separator respectively, and an electrolyte system impregnated therein; two current collectors (14, 15), disposed on outer sides of the active material layers (12, 13) respectively; and a sealing layer, disposed between the edges of the two current collectors (14, 15) to adhere the two current collectors (14, 15) and seal the electrolyte system therebetween, so that the electrolyte system of each electricity supply element does not circulate between the electricity supply elements; wherein the electricity supply element groups are stacked to alternately face up and face down, so that the adjacent current collectors (14, 15) of the outermost electricity supply elements of two adjacent electricity supply element groups having the same polarity are directly contacted to each other to form an electrical connection; wherein a charge transfer is occurred between the adjacent electricity supply elements without electrochemical reactions.
A canned motor (1-100, 2-100, 4-100) configured to be coupled to a vacuum pump and to be used as a rotary driving source for the vacuum pump, the canned motor (1-100, 2-100, 4-100) comprising: a stator core (1-111, 1-411, 1-511, 2-111, 4-111); a rotor (1-120, 2-120, 4-120) provided on an inner side of the stator core; and a non-conductive can (1-130, 1-230, 1-330, 1-430, 1-530, 2-130, 4-130, 4-230) provided between the stator core and the rotor, the non-conductive can being configured to separate the stator core and the rotor from each other in a state in which the non-conductive can is held in contact with the stator core, the non-conductive can being made of resin, ceramic, or composite material thereof, characterized in that: the non-conductive can is bonded to the stator core with an adhesive through an underlayer formed on a radially outer surface of the non-conductive can; and the underlayer is formed of non-conductive material having a higher affinity for the adhesive than the non-conductive can. a stator core (1-111, 1-411, 1-511, 2-111, 4-111); a rotor (1-120, 2-120, 4-120) provided on an inner side of the stator core; and a non-conductive can (1-130, 1-230, 1-330, 1-430, 1-530, 2-130, 4-130, 4-230) provided between the stator core and the rotor, the non-conductive can being configured to separate the stator core and the rotor from each other in a state in which the non-conductive can is held in contact with the stator core, the non-conductive can being made of resin, ceramic, or composite material thereof, characterized in that: the non-conductive can is bonded to the stator core with an adhesive through an underlayer formed on a radially outer surface of the non-conductive can; and the underlayer is formed of non-conductive material having a higher affinity for the adhesive than the non-conductive can. the non-conductive can is bonded to the stator core with an adhesive through an underlayer formed on a radially outer surface of the non-conductive can; and the underlayer is formed of non-conductive material having a higher affinity for the adhesive than the non-conductive can.
A method of manufacturing a heterojunction bipolar transistor, comprising: providing a substrate comprising an active region bordered by shallow trench insulation regions; depositing a stack of a dielectric layer and a polysilicon layer over the substrate; forming a base window in said stack, said base window extending over the active region and part of the shallow trench insulation regions, said base window comprising a trench extending vertically between the active region and one of said shallow trench insulation regions; growing an epitaxial base material (16', 16") in said base window; forming a spacer on the side walls of the base material; and filling the base window with an emitter material. providing a substrate comprising an active region bordered by shallow trench insulation regions; depositing a stack of a dielectric layer and a polysilicon layer over the substrate; forming a base window in said stack, said base window extending over the active region and part of the shallow trench insulation regions, said base window comprising a trench extending vertically between the active region and one of said shallow trench insulation regions; growing an epitaxial base material (16', 16") in said base window; forming a spacer on the side walls of the base material; and filling the base window with an emitter material.
A process for manufacture of a dispensing capsule, the process comprising the steps of: a) providing a continuous feed belt of a plurality of articulated mesh tool sets contoured to a preform shape of the dispensing capsule and adapted to be drawn without interruption through a tank containing a suspension that includes water and pulp fibres; b) inclining said belt to allow continuous partial immersion and partial withdrawal of said belt from said suspension; and c) applying a vacuum (11, 12) to said mesh tool sets so as to draw pulp fibres from the suspension onto said plurality of mesh tool sets immersed in said suspension to form a preform pulp fibre. a) providing a continuous feed belt of a plurality of articulated mesh tool sets contoured to a preform shape of the dispensing capsule and adapted to be drawn without interruption through a tank containing a suspension that includes water and pulp fibres; b) inclining said belt to allow continuous partial immersion and partial withdrawal of said belt from said suspension; and c) applying a vacuum (11, 12) to said mesh tool sets so as to draw pulp fibres from the suspension onto said plurality of mesh tool sets immersed in said suspension to form a preform pulp fibre.
A communication apparatus, comprising: power receiving means for receiving electrical power wirelessly supplied from another communication apparatus; first communication means for performing, in response to a first power receiving operation, in which power is received from said another communication apparatus, by the power receiving means, communication for requesting a supply of electrical power via a second power receiving operation, in which power is received from said another communication apparatus, using electrical power received via the first power receiving operation; second communication means for performing wireless communication, wherein the second communication means differs from the first communication means; and control means for controlling the second communication means to operate using electrical power received via the second power receiving operation by the power receiving means. power receiving means for receiving electrical power wirelessly supplied from another communication apparatus; first communication means for performing, in response to a first power receiving operation, in which power is received from said another communication apparatus, by the power receiving means, communication for requesting a supply of electrical power via a second power receiving operation, in which power is received from said another communication apparatus, using electrical power received via the first power receiving operation; second communication means for performing wireless communication, wherein the second communication means differs from the first communication means; and control means for controlling the second communication means to operate using electrical power received via the second power receiving operation by the power receiving means.
An item of furniture, comprising: - a furniture carcass, - at least one door wing movably-supported relative to the furniture carcass, - at least one furniture hinge for movably supporting the at least one door wing, the furniture hinge being hingedly connected to the door wing, - a receiving compartment arranged in or on the furniture carcass for at least partially receiving the at least one door wing, the receiving compartment being defined by at least one sidewall of the furniture carcass, - at least one cover configured to be moved at least between a first operating position, in which the cover at least partially covers the receiving compartment, and a second position, in which the cover unblocks the receiving compartment, - wherein the furniture hinge includes at least one control member for moving the cover between the two operating positions upon an at least partial movement of the at least one door wing within the receiving compartment, - and wherein the cover can be pressurized by a force of a force storage member in a direction of the first operating position, characterized in that - the at least one sidewall has a vertically extending edge about which the at least one door wing can be moved, and wherein the cover 11 is arranged on the at least one sidewall of the furniture carcass, and - the control member of the furniture hinge includes at least one control curve for glidingly supporting the cover. - a furniture carcass, - at least one door wing movably-supported relative to the furniture carcass, - at least one furniture hinge for movably supporting the at least one door wing, the furniture hinge being hingedly connected to the door wing, - a receiving compartment arranged in or on the furniture carcass for at least partially receiving the at least one door wing, the receiving compartment being defined by at least one sidewall of the furniture carcass, - at least one cover configured to be moved at least between a first operating position, in which the cover at least partially covers the receiving compartment, and a second position, in which the cover unblocks the receiving compartment, - wherein the furniture hinge includes at least one control member for moving the cover between the two operating positions upon an at least partial movement of the at least one door wing within the receiving compartment, - and wherein the cover can be pressurized by a force of a force storage member in a direction of the first operating position, - the at least one sidewall has a vertically extending edge about which the at least one door wing can be moved, and wherein the cover 11 is arranged on the at least one sidewall of the furniture carcass, and - the control member of the furniture hinge includes at least one control curve for glidingly supporting the cover.
A method, comprising: initiating circulation of a mud in a pipe string from a mud pit through a surface port in the pipe string to a downhole diverter sub, wherein the pipe string is suspended in a wellbore extending into a subterranean formation; operating a downhole pump to pump formation fluid from the subterranean formation, wherein the formation fluid contains at least one of a free gas and a dissolved gas; and mixing the formation fluid that has been pumped with the mud that has been circulated to form a mixture of formation fluid and mud such that a proportion of the at least one of the free gas and the dissolved gas in the mud is maintained below a threshold value. initiating circulation of a mud in a pipe string from a mud pit through a surface port in the pipe string to a downhole diverter sub, wherein the pipe string is suspended in a wellbore extending into a subterranean formation; operating a downhole pump to pump formation fluid from the subterranean formation, wherein the formation fluid contains at least one of a free gas and a dissolved gas; and mixing the formation fluid that has been pumped with the mud that has been circulated to form a mixture of formation fluid and mud such that a proportion of the at least one of the free gas and the dissolved gas in the mud is maintained below a threshold value.
Method for modifying a turbine having, arranged in a housing of conical form, rotor blade rings (3a, 3b, 3c, 3d) and guide blade rings (4a, 4b, 4c, 4d), in which method an original rotor blade ring (3a, 3b, 3c, 3d) at a first rotor blade position is replaced by a replacement rotor blade ring at a second rotor blade position, wherein, while keeping the housing, the second rotor blade position is arranged spaced apart from the first rotor blade position along a direction of extent of a rotor shaft of the turbine in the flow direction of a working medium flowing through the turbine, wherein the replacement rotor blade ring has a larger outer diameter than the original rotor blade ring (3a, 3b, 3c, 3d).
Method for image processing comprising the steps of acquiring initial image data, preferably from an image sensor; deconstructing the image data in a plurality of N image pyramid layers, wherein N>2; collapsing the N-layer with the (N-1)-layer in order to create an intermediate layer; collapsing the intermediate layer with the subsequent layer to create a new intermediate layer and repeating this step until collapsing the last intermediate layer with the first layer to generate the final image; wherein a tone-mapping operator is applied (S032, S034) to at least one intermediate layer. deconstructing the image data in a plurality of N image pyramid layers, wherein N>2; collapsing the N-layer with the (N-1)-layer in order to create an intermediate layer; collapsing the intermediate layer with the subsequent layer to create a new intermediate layer and repeating this step until collapsing the last intermediate layer with the first layer to generate the final image; wherein a tone-mapping operator is applied (S032, S034) to at least one intermediate layer.