mhurhangee/patent-ind-claim-en huggingface dataset:
A three-dimensional fabric with three-layered structure, comprising a backing layer , an intermediate layer , a surface layer , a first connecting portion connecting the backing layer and the intermediate layer , and a second connecting portion connecting the intermediate layer and the surface layer , the layers comprise warp threads interlaced with weft threads, characterized in that said warp threads sequentially form the backing layer , the first connecting portion , the intermediate layer , the second connecting portion , and the surface layer , and then connected to the backing layer to form connecting warp threads and again form the backing layer in an alternating and repeating pattern, and wherein said warp threads are sequentially and simultaneously woven from each of the backing layer , the first connecting portion , the intermediate layer , the second connecting portion , and the surface layer , and the connecting warp threads are cut.
A method implemented by computer for estimating the affinity φ of a first DNA strand, or "probe", to be hybridized with a second DNA strand, or "target", to form a hybrid of length L bp , the method comprising: - in each division of a set of M divisions of the hybrid, counting the number of times in which each hybrid of a set of P DNA strand hybrids is present in the division, said hybrids being of length k less than the length L bp , or " k -hybrids"; - for each combination of mismatches of a set of L combinations of mismatches in a hybrid of length Lbp, determining whether said pair of mismatches is present in said hybrid; and - calculating the affinity φ according to the equation: φ = ∑ m = 1 M ∑ p = 1 P x m , p . β ^ m , p + α an expression in which: - ∀( m , p ) ∈ [1 ,M] × [1, P ], β̂ m,p is a predetermined scalar quantifying the contribution to the affinity φ of the p th k -hybrid of the set of P k -hybrids when this p th k- hybrid is present in the m th area of said division, and x m,p is the number of times in which this p th k -hybrid is counted for said hybrid in the m th area of said division; and - α is a real term. - in each division of a set of M divisions of the hybrid, counting the number of times in which each hybrid of a set of P DNA strand hybrids is present in the division, said hybrids being of length k less than the length L bp , or " k -hybrids"; - for each combination of mismatches of a set of L combinations of mismatches in a hybrid of length Lbp, determining whether said pair of mismatches is present in said hybrid; and - calculating the affinity φ according to the equation: φ = ∑ m = 1 M ∑ p = 1 P x m , p . β ^ m , p + α an expression in which: - ∀( m , p ) ∈ [1 ,M] × [1, P ], β̂ m,p is a predetermined scalar quantifying the contribution to the affinity φ of the p th k -hybrid of the set of P k -hybrids when this p th k- hybrid is present in the m th area of said division, and x m,p is the number of times in which this p th k -hybrid is counted for said hybrid in the m th area of said division; and - α is a real term. - ∀( m , p ) ∈ [1 ,M] × [1, P ], β̂ m,p is a predetermined scalar quantifying the contribution to the affinity φ of the p th k -hybrid of the set of P k -hybrids when this p th k- hybrid is present in the m th area of said division, and x m,p is the number of times in which this p th k -hybrid is counted for said hybrid in the m th area of said division; and - α is a real term.
A stretchable optoelectronic device (100-2; 100-3) comprising: a substrate (S10) that includes an elastomeric polymer and is stretchable; and an optoelectronic device portion (D10a; D10b) on the substrate, the optoelectronic device portion including a graphene layer and an active layer including one of quantum dots, light-emitting nanomaterials, and a transition metal dichalocogenide (TMDC), characterised by the optoelectronic device portion being configured to have a wavy structure to be stretchable; wherein a plastic material layer (P10) is connected to a surface of the optoelectronic device portion, wherein the plastic material layer is between the substrate and the optoelectronic device portion or the optoelectronic device portion is between the substrate and the plastic material layer, and a thickness of the plastic material layer ranges from 0.5 μm to 100 μm. a substrate (S10) that includes an elastomeric polymer and is stretchable; and an optoelectronic device portion (D10a; D10b) on the substrate, the optoelectronic device portion including a graphene layer and an active layer including one of quantum dots, light-emitting nanomaterials, and a transition metal dichalocogenide (TMDC), characterised by the optoelectronic device portion being configured to have a wavy structure to be stretchable; wherein a plastic material layer (P10) is connected to a surface of the optoelectronic device portion, wherein the plastic material layer is between the substrate and the optoelectronic device portion or the optoelectronic device portion is between the substrate and the plastic material layer, and a thickness of the plastic material layer ranges from 0.5 μm to 100 μm.
Method for producing a concrete component or construction section according to planning data, wherein the method comprises: - providing a formwork element to form a mould for at least one reinforcement element and concrete, - providing the reinforcement element , wherein the formwork element has an information carrier , wherein based on the information carrier of the formwork element , the position of the formwork element in space is determined, characterized in that the reinforcement element has an information carrier , and after determining the position of the formwork element in space, a virtual reinforcement element is projected into the formwork element according to the planning data, depending on the position of the formwork element , and then the reinforcement element is arranged in the mould , wherein a sensor interacting with the information carriers of the formwork element and the reinforcement element determines the actual relative position of the formwork element to the reinforcement element in space depending on the planning data, wherein the actual position of the formwork element determined relative to the reinforcement element in space is compared with the planning data. - providing a formwork element to form a mould for at least one reinforcement element and concrete, - providing the reinforcement element , wherein the formwork element has an information carrier , wherein based on the information carrier of the formwork element , the position of the formwork element in space is determined, characterized in that the reinforcement element has an information carrier , and after determining the position of the formwork element in space, a virtual reinforcement element is projected into the formwork element according to the planning data, depending on the position of the formwork element , and then the reinforcement element is arranged in the mould , wherein a sensor interacting with the information carriers of the formwork element and the reinforcement element determines the actual relative position of the formwork element to the reinforcement element in space depending on the planning data, wherein the actual position of the formwork element determined relative to the reinforcement element in space is compared with the planning data.
Lamella arrangement , having: - a first rack having a plurality of teeth ; - a first cover rack strip arranged on the first rack and having a plurality of teeth ; - a second rack having a plurality of teeth ; - a second cover rack strip arranged on the second rack and having a plurality of teeth ; and - a plurality of lamellae which are fastened between the teeth of the racks and the cover rack strips . - a first rack having a plurality of teeth ; - a first cover rack strip arranged on the first rack and having a plurality of teeth ; - a second rack having a plurality of teeth ; - a second cover rack strip arranged on the second rack and having a plurality of teeth ; and - a plurality of lamellae which are fastened between the teeth of the racks and the cover rack strips .
Coupling for connecting and/or holding together two parts, in particular for a bicycle trailer, having a first and a second coupling part which interact and can be released from one another, one of which is an insert piece connected to one of the parts and the other of which is a sleeve connected to the other of the parts, the sleeve being suitable for at least partially engaging around the insert piece , and the first coupling part having at least one locking groove , at least one locking shaft being mounted on or in the second coupling part, which locking shaft has at least one locking segment which, in the circumferential direction, has at least one locking section and one unlocking section , the locking section having a greater radial extent than the unlocking section , the locking shaft having a rotation axis which is arranged substantially transversely to a direction of insertion of the insert piece into the sleeve, preferably parallel to the locking groove , and the locking shaft being arranged such that the locking section can engage in the locking groove when the insert piece is inserted into the sleeve and the unlocking section cannot engage in the locking groove , wherein means are provided for rotating the locking section into the locking position, for holding the locking section in the locking position, and for releasing the locking section from the locking position, characterized in that a spring acting on the locking shaft is provided as means for rotating the locking shaft into the locking position, and the locking shaft is arranged such that the locking portion of the locking shaft is deflected by the insert piece against a spring force of the spring when the insert piece is inserted into the sleeve and is then automatically rotated into the locking groove of the insert piece by the tensioned spring as soon as the insert piece is inserted far enough into the sleeve .
Pond pump to make water flow through the pond pump , having an inlet hole for water to be drawn in and having a filter arranged in the flow upstream of the inlet hole , where the filter delimits a filter chamber that is at least partly surrounded by a filter surface that lets water through, in such a way that raw water that has not been filtered is provided for outside the filter surface and clean water that has been filtered is provided for inside the filter chamber , where a filter shaft extends inside the filter chamber and where the pond pump incorporates a swirl element that is mounted movably and driven rotarily, in such a way that on the outer, so-called raw side of the filter surface that is oriented towards the raw water swirls are set up that impede or hinder the deposit of solid matter on the raw side of the filter surface , characterised in that the filter surface is mounted so as to be movable relative to the filter shaft and can be contactlessly made to rotate and forms the swirl element .
A method of preparing a nano-sized copper based catalyst, comprising: dissolving, in an aqueous solution, a copper precursor, a zinc precursor, and an aluminium precursor, and then performing stirring, thus obtaining a stirred mixture solution; precipitating the stirred mixture solution by sequentially using Na 2 CO 3\ and NaOH as precipitants, thus forming a catalyst precursor precipitate; and washing and filtering the formed catalyst precursor precipitate. dissolving, in an aqueous solution, a copper precursor, a zinc precursor, and an aluminium precursor, and then performing stirring, thus obtaining a stirred mixture solution; precipitating the stirred mixture solution by sequentially using Na 2 CO 3\ and NaOH as precipitants, thus forming a catalyst precursor precipitate; and washing and filtering the formed catalyst precursor precipitate.
Leading steering device for a wheel chair , wherein the leading steering device comprises at least one wheel that is steerable via a steering shaft , with a hollow body , wherein the hollow body comprises: a seat for an upper steering head bearing for mounting the steering shaft , a seat for a lower steering head bearing for mounting the steering shaft , a steering shaft duct for receiving the steering shaft , at least one entry point for at least one function control transmission element , and at least one exit point for at least one function control transmission element , wherein a function control transmission element is an element of a group of elements, comprising a hydraulic or pneumatic control line , an electric line , or an element for the mechanical transmission of forces, characterized by a monocoque component designed as a self-supporting uniform component comprising the hollow body with a hollow body main part and a connection part , wherein the connection part serves to connect the leading steering device to the wheel chair , and wherein a wall is embodied in the hollow body main part which defines, together with a corresponding part of an outer wall of the hollow body main part , a steering shaft duct for receiving the steering shaft. a seat for an upper steering head bearing for mounting the steering shaft , a seat for a lower steering head bearing for mounting the steering shaft , a steering shaft duct for receiving the steering shaft , at least one entry point for at least one function control transmission element , and at least one exit point for at least one function control transmission element , wherein a function control transmission element is an element of a group of elements, comprising a hydraulic or pneumatic control line , an electric line , or an element for the mechanical transmission of forces, characterized by a monocoque component designed as a self-supporting uniform component comprising the hollow body with a hollow body main part and a connection part , wherein the connection part serves to connect the leading steering device to the wheel chair , and wherein a wall is embodied in the hollow body main part which defines, together with a corresponding part of an outer wall of the hollow body main part , a steering shaft duct for receiving the steering shaft.
A three dimensional neural network accelerator comprising: a first neural network accelerator tile comprising a first transmission coil ; and a second neural network accelerator tile comprising a second transmission coil , wherein the first neural network accelerator tile is adjacent to and aligned vertically with the second neural network accelerator tile , wherein the first transmission coil is configured to establish wireless communication with the second transmission coil via inductive coupling, and wherein the first transmission coil is further configured to establish a ThruChip Interface, TCI, connection with the second transmission coil to form a vertical ring-bus, and wherein the first neural network accelerator tile and the second neural network accelerator tile are configured to carry out a computation of a neural network. a first neural network accelerator tile comprising a first transmission coil ; and a second neural network accelerator tile comprising a second transmission coil , wherein the first neural network accelerator tile is adjacent to and aligned vertically with the second neural network accelerator tile , wherein the first transmission coil is configured to establish wireless communication with the second transmission coil via inductive coupling, and wherein the first transmission coil is further configured to establish a ThruChip Interface, TCI, connection with the second transmission coil to form a vertical ring-bus, and wherein the first neural network accelerator tile and the second neural network accelerator tile are configured to carry out a computation of a neural network.
A two-dimensional code error correction decoding method, comprising: preprocessing a two-dimensional code image to obtain a data codeword for decoding (S11); setting an initial variable based on an information codeword weight and an error correction codeword weight in the data codeword, updating the initial variable through fitting and iteration, and taking the updated initial variable as a number of interpolation; performing interpolation at a self-defined initial interpolation point based on the number of interpolation to construct a binary polynomial (S12); obtaining an information codeword based on the binary polynomial (S13); and performing data decoding based on the information codeword to obtain original information corresponding to the two-dimensional code image (S14). preprocessing a two-dimensional code image to obtain a data codeword for decoding (S11); setting an initial variable based on an information codeword weight and an error correction codeword weight in the data codeword, updating the initial variable through fitting and iteration, and taking the updated initial variable as a number of interpolation; performing interpolation at a self-defined initial interpolation point based on the number of interpolation to construct a binary polynomial (S12); obtaining an information codeword based on the binary polynomial (S13); and performing data decoding based on the information codeword to obtain original information corresponding to the two-dimensional code image (S14).
A dental mill blank comprising: an inorganic filler containing an inorganic filler A and an inorganic filler B; and a polymer, the inorganic filler A partly forming an aggregate, and the dental mill blank satisfying the following formulae (I) to (III), 0.001 ≤ a < 0.3 0.3 ≤ b ≤ 10 10 ≤ x ≤ 80 where a is an average primary particle diameter of the inorganic filler Ain micrometers, b is an average primary particle diameter of the inorganic filler B in micrometers, and x is an average particle diameter of the aggregate in micrometers and wherein the dental mill blank further comprises an island component containing the aggregate, and a sea component containing the inorganic filler A and the inorganic filler B and wherein the island component has an area fraction of 5 to 20% in a cross section observed with a microscope. an inorganic filler containing an inorganic filler A and an inorganic filler B; and a polymer, the inorganic filler A partly forming an aggregate, and the dental mill blank satisfying the following formulae (I) to (III), 0.001 ≤ a < 0.3 0.3 ≤ b ≤ 10 10 ≤ x ≤ 80 where a is an average primary particle diameter of the inorganic filler Ain micrometers, b is an average primary particle diameter of the inorganic filler B in micrometers, and x is an average particle diameter of the aggregate in micrometers and wherein the dental mill blank further comprises an island component containing the aggregate, and a sea component containing the inorganic filler A and the inorganic filler B and wherein the island component has an area fraction of 5 to 20% in a cross section observed with a microscope.
An adhesive article comprising: a backing material; an adhesive layer disposed on at least a portion of the backing material; a release liner, free of silicon-containing and fluorine-containing material, and having a polyvinyl alcohol layer disposed thereon, and wherein the polyvinyl alcohol layer is disposed on at least a portion of the adhesive layer and remains substantially disposed on said at least a portion of the adhesive layer upon removal of the release liner from the adhesive article, wherein the polyvinyl alcohol layer comprises an amorphous polyvinyl alcohol polymer, wherein the polyvinyl alcohol layer has a thickness from .1 micron to 5 microns. a backing material; an adhesive layer disposed on at least a portion of the backing material; a release liner, free of silicon-containing and fluorine-containing material, and having a polyvinyl alcohol layer disposed thereon, and wherein the polyvinyl alcohol layer is disposed on at least a portion of the adhesive layer and remains substantially disposed on said at least a portion of the adhesive layer upon removal of the release liner from the adhesive article, wherein the polyvinyl alcohol layer comprises an amorphous polyvinyl alcohol polymer, wherein the polyvinyl alcohol layer has a thickness from .1 micron to 5 microns.
Connection terminal for connecting an electrical conductor to a busbar , comprising a housing , a conductor connection element and a current bar , wherein the housing has a conductor insertion opening for inserting the electrical conductor and a busbar receptacle for receiving the busbar , wherein a spring element having at least one leg is arranged in the housing such that the free end of the leg projects into the busbar receptacle if no busbar is arranged in the busbar receptacle , while the spring element is deflected against its spring force when a busbar is arranged in the busbar receptacle , characterized in that a conductor connected by means of the conductor connection element can be electrically conductively connected via the current bar to a busbar arranged in the busbar receptacle , and that the free end of the leg then rests at an acute angle α against the busbar , so that the leg of the spring element must be lifted off the fixed busbar in order to be able to pull the busbar out of the busbar receptacle . wherein a spring element having at least one leg is arranged in the housing such that the free end of the leg projects into the busbar receptacle if no busbar is arranged in the busbar receptacle , while the spring element is deflected against its spring force when a busbar is arranged in the busbar receptacle , characterized in that a conductor connected by means of the conductor connection element can be electrically conductively connected via the current bar to a busbar arranged in the busbar receptacle , and that the free end of the leg then rests at an acute angle α against the busbar , so that the leg of the spring element must be lifted off the fixed busbar in order to be able to pull the busbar out of the busbar receptacle .
Valve for metering in a fluid, in particular fuel injection valve for internal combustion engines, with an electromagnetic actuator and a valve needle which can be actuated by the actuator , an armature of the actuator being guided on the valve needle , a stop element being arranged on the valve needle , which stop element limits a movement of the armature relative to the valve needle , and the armature having a spring support which is open towards the stop element and into which a spring which is supported on the stop element is inserted, the valve needle being guided over the armature and/or the stop element along a longitudinal axis of a housing , and, as viewed along the longitudinal axis , a length (f) of the spring support being smaller than a spring length (F) of the spring in the non-actuated starting state, characterized in that , as viewed along the longitudinal axis , a guide length (s + s' + 1), over which the armature is guided on the valve needle , is not smaller than an armature length (L), and/or in that the guide length, over which the armature is guided on the valve needle , is composed of a length of the armature , which length is shortened by the length (f) of the spring support , plus a length (s) of a guide web and/or a length (s') of a guide extension .