mhurhangee/ep-ind-claims huggingface dataset:
A fabric material composite construction, for use as a filter means or media in acoustic applications also providing a protective function, wherein said construction comprises a combination of at least one nanofiber layer supported by a synthetic single-thread squarely knitted precision fabric, wherein said at least one nanofiber layer is coated on said fabric by an electro-spinning coating method and being embedded in said fabric, thereby forming a single or cohesive bound filtering means or media, wherein said nanofiber layer is made of nanofibers having a diameter ranging from 100 to 900 nm, the composite construction preventing the passage of particles having particle size of 1-2 μm.
A home appliance comprising: a selecting unit adapted for receiving a diagnosis command; a displaying unit adapted for outputting an image; and a controller adapted for performing control so that product information is converted into a plurality of images (a1,..., an) according to the diagnosis command entered to the selecting unit and the plurality of images (a1,..., an) are sequentially output through the displaying unit, wherein the controller is adapted to perform control so that the product information is split into a plurality of unit data, each split unit data is encoded into a predetermined control signal, and the displaying unit sequentially outputs images (a1,..., an) corresponding to each unit data according to the control signal. a selecting unit adapted for receiving a diagnosis command; a displaying unit adapted for outputting an image; and a controller adapted for performing control so that product information is converted into a plurality of images (a1,..., an) according to the diagnosis command entered to the selecting unit and the plurality of images (a1,..., an) are sequentially output through the displaying unit, wherein the controller is adapted to perform control so that the product information is split into a plurality of unit data, each split unit data is encoded into a predetermined control signal, and the displaying unit sequentially outputs images (a1,..., an) corresponding to each unit data according to the control signal.
A rim for a bicycle, comprising: a radially outer tire-engaging portion; a radially inner spoke-engaging portion; a first sidewall; a second sidewall spaced apart from the first sidewall, the first sidewall and the second sidewall formed of a first material; and a brake track formed of a second material, the second material different than the first material, and located on the first and second sidewalls (28, 30) including a plurality of grooves formed therein, each of the plurality of grooves having a radially innermost point and a radially outermost point, wherein the radially outermost point is circumferentially aft of the radially innermost point relative to a forward circumferential travel direction of the rim. a radially outer tire-engaging portion; a radially inner spoke-engaging portion; a first sidewall; a second sidewall spaced apart from the first sidewall, the first sidewall and the second sidewall formed of a first material; and a brake track formed of a second material, the second material different than the first material, and located on the first and second sidewalls (28, 30) including a plurality of grooves formed therein, each of the plurality of grooves having a radially innermost point and a radially outermost point, wherein the radially outermost point is circumferentially aft of the radially innermost point relative to a forward circumferential travel direction of the rim.
A battery cell configured to have a structure in which an electrode assembly (210, 510, 520, 530) forming a battery body that can be charged and discharged is mounted in a plate-shaped battery case (220, 420, 501), a cathode terminal and an anode terminal protrude from one end of the battery case (220, 420, 501), the electrode terminals (231, 232) deviate to one side from a vertical central axis of the battery body of the battery cell when viewed in plan view from a direction perpendicular to the vertical central axis, and a depressed portion (250, 450) is formed at one side of the battery body in the plane of the plan view, characterized in that the depressed portion (250, 450) has a depth equivalent to 1/20 to 1/2 a length of the battery body when viewed in the plan view.
An image data sending apparatus, comprising: receiving means for receiving authentication information in a login process of a user, the user being allowed to use a send function provided in the image data sending apparatus if the user is successfully authenticated by checking of the received authentication information; a storage means (203, 210) for storing the authentication information received in the login process of the user; a sending means capable of sending image data by a plurality of different sending protocols; a destination setting means for setting a destination to which the sending means sends image data; and an authentication means for performing processing for authentication required for the sending means to send the image data to the destination set by the destination setting means; characterized in that: in authentication in a first transmission protocol, the authentication means inherits the authentication information stored in the storage means (203, 210), and in authentication in a second transmission protocol, the authentication means does not inherit the authentication information stored in the storage means (203, 210). receiving means for receiving authentication information in a login process of a user, the user being allowed to use a send function provided in the image data sending apparatus if the user is successfully authenticated by checking of the received authentication information; a storage means (203, 210) for storing the authentication information received in the login process of the user; a sending means capable of sending image data by a plurality of different sending protocols; a destination setting means for setting a destination to which the sending means sends image data; and an authentication means for performing processing for authentication required for the sending means to send the image data to the destination set by the destination setting means; characterized in that: in authentication in a first transmission protocol, the authentication means inherits the authentication information stored in the storage means (203, 210), and in authentication in a second transmission protocol, the authentication means does not inherit the authentication information stored in the storage means (203, 210). in authentication in a first transmission protocol, the authentication means inherits the authentication information stored in the storage means (203, 210), and in authentication in a second transmission protocol, the authentication means does not inherit the authentication information stored in the storage means (203, 210).
A robotic surface treatment system comprising: an omnidirectional base vehicle; a vertical mast extending from the base vehicle; an arm extending from the mast and moveable in relation to the mast a wrist connected to a distal end of the arm; and a surface treatment system extending from the base vehicle to the wrist through an inside of the mast, arm and wrist. wherein the arm is able to rotate, move translationally, and move up or down with respect to the mast. an omnidirectional base vehicle; a vertical mast extending from the base vehicle; an arm extending from the mast and moveable in relation to the mast a wrist connected to a distal end of the arm; and a surface treatment system extending from the base vehicle to the wrist through an inside of the mast, arm and wrist. wherein the arm is able to rotate, move translationally, and move up or down with respect to the mast.
A mechanically controllable valve train assembly for an internal combustion engine comprising at least two cylinders (4, 6), each of the cylinders comprising at least one gas inlet valve (8, 10) and at least one gas outlet valve, at least one transmission arrangement being provided such that one intermediate lever arrangement (22, 24) and one swivel lever arrangement (26, 28) are associated to at least each gas inlet valve (8, 10), wherein an intermediate lever (30, 32) of the intermediate lever arrangement (22, 24) comprises a working curve (38, 40) for operative connection with a swivel lever (46, 48) of the swivel lever arrangement (26, 28), wherein the intermediate lever (30, 32) is in operative connection with a peripheral structure (14, 16) of a camshaft, and wherein the intermediate lever arrangement (22, 24) comprises an engagement element (64, 66) that is in operative connection with a control contour (60, 62) of a valve stroke adjusting device such that different valve strokes are adjustable and a zero stroke adjustment of the gas inlet valves of at least one shut-off cylinder is possible, wherein the valve stroke adjusting device comprises a control shaft on which the control contours (60, 62) are arranged, wherein all control contours (60, 62) for an idle range and a full-load range are substantially identical in design, wherein the control contours for a part-load range of the gas inlet valves of the shut-off cylinder comprise a section designed differently with respect to the control contour for a part-load range of the gas inlet valves of the remaining cylinders, wherein a direct ratio exists between the radius r of a respective control contour (60, 62) and the stroke height h of the at least one gas inlet valve (8, 10), characterized in that the stroke height h of the gas inlet valves (8, 10) of a cylinder (4, 6) has an average pressure p within the cylinder (4, 6) assigned thereto, wherein the radius r 1 of the first control contour is selected dependent on the radius r 2 of the second control contour so that, in the part-load range of the internal combustion engine, a pressure development p ges across each of the cylinders (4, 6) monotonously increases over an adjustment angle of the control shaft.
A slip-reduction control unit (130; 135) employed on an aircraft (2; 102) having a longitudinal axis and a steerable landing gear (8; 108) comprising one or more steerable wheels, wherein the slip-reduction control unit is arranged to receive a steering input signal from which a target steering command output may be ascertained, the slip-reduction control unit is arranged to receive one or more additional input signals (140; 150; 192) concerning at least one of (a) the motion of the aircraft, (b) a steering angle, and (c) a parameter relating to the slip sustained by the steerable landing gear, and characterised in that the slip-reduction control unit is arranged so that, in dependence on the one or more additional input signals, the rate of change of the angle (θ NLG) of the one or more steerable wheels that would otherwise be commanded is reduced.
A system for delivering volatile substances comprising: - a housing inside which a volatile substance is housed; - a ventilation surface placed in said housing provided with ventilation windows; and - a regulating element that can be placed in at least two different positions: a first position of maximum air circulation and a second position of minimum air circulation; so that in said first position, the regulating element opens an additional ventilation opening and in said second position, the regulating element closes said additional ventilation opening, characterised in that said regulating element comprises a skirt provided on its bottom portion with cuts with inclined sides, the central portion of said cuts defining said second closed position of said additional ventilation opening, and said inclined sides defining intermediate positions between said first open position of the additional ventilation opening and said second position. - a housing inside which a volatile substance is housed; - a ventilation surface placed in said housing provided with ventilation windows; and - a regulating element that can be placed in at least two different positions: a first position of maximum air circulation and a second position of minimum air circulation; so that in said first position, the regulating element opens an additional ventilation opening and in said second position, the regulating element closes said additional ventilation opening, characterised in that said regulating element comprises a skirt provided on its bottom portion with cuts with inclined sides, the central portion of said cuts defining said second closed position of said additional ventilation opening, and said inclined sides defining intermediate positions between said first open position of the additional ventilation opening and said second position.
A method of operating a terminal for vector quantization of feedback components, the method comprising: identifying a grouping method for grouping channel coefficients into vectors for vector quantization and identifying a vector quantization codebook for vector quantization of grouped channel coefficients based on one or more control signals received from a base station; computing channel coefficients based on at least one channel measurement; grouping the computed channel coefficients according to the identified grouping method to form a set of vectors, wherein each vector is a group of channel coefficients; performing at least two different types of vector quantization for quantization of the grouped channel coefficients based on different levels of correlations within a channel using the identified vector quantization codebook, wherein the at least two different types of vector quantization are performed either in a cascade or independently; processing the quantized channel coefficients into one or more feedback signals; and transmitting the one or more feedback signals to the base station. identifying a grouping method for grouping channel coefficients into vectors for vector quantization and identifying a vector quantization codebook for vector quantization of grouped channel coefficients based on one or more control signals received from a base station; computing channel coefficients based on at least one channel measurement; grouping the computed channel coefficients according to the identified grouping method to form a set of vectors, wherein each vector is a group of channel coefficients; performing at least two different types of vector quantization for quantization of the grouped channel coefficients based on different levels of correlations within a channel using the identified vector quantization codebook, wherein the at least two different types of vector quantization are performed either in a cascade or independently; processing the quantized channel coefficients into one or more feedback signals; and transmitting the one or more feedback signals to the base station.
A method for operating a building information modeling BIM system, comprising: at a BIM server, in response to receiving a save data command from a client computing device requesting associative mapping of identification data in each of a building model, a hierarchical structure of building model data and a Construction Operation Building information exchange COBie spreadsheet, associatively mapping the identification data in each of said building model, said hierarchical structure of building model data, and said COBie spreadsheet, the associative mapping of the identification data includes linking a common identification number embedded in data structures (300, 302, 304) in each of the COBie spreadsheet, the building model, and the hierarchical structure of building model data; and storing a representation of the associative mapping of the identification data for display in at least one of the BIM server and a client computing device in electronic communication with the server over a network. at a BIM server, in response to receiving a save data command from a client computing device requesting associative mapping of identification data in each of a building model, a hierarchical structure of building model data and a Construction Operation Building information exchange COBie spreadsheet, associatively mapping the identification data in each of said building model, said hierarchical structure of building model data, and said COBie spreadsheet, the associative mapping of the identification data includes linking a common identification number embedded in data structures (300, 302, 304) in each of the COBie spreadsheet, the building model, and the hierarchical structure of building model data; and storing a representation of the associative mapping of the identification data for display in at least one of the BIM server and a client computing device in electronic communication with the server over a network.
A method for production of a nonwoven web, comprising: preparing a homogeneous mixture consisting of defibrated wood pulp and staple fibers being either viscose or lyocell; passing the homogeneous mixture through a perforated rotating cylinder onto a foraminous carrier; airforming the mixture to obtain at least one homogeneous airlaid web; hydroentangling the airlaid web to consolidate the web on at least one side; and drying the hydroentangled web to obtain the nonwoven web; wherein the airforming and hydroentangling is conducted in a continuous operation, a content of the defibrated wood pulp in the mixture is no less than 50 % by weight and a content of the staple fibers is no more than 50 % by weight, no binder, adhesive or thermal bonding fibers are utilized, a fiber length of the defibrated wood pulp is no more than 3.5 mm, a fiber length of the staple fibers is no less than 8.0 mm, a basis weight of the nonwoven web is from 20 g/m 2 to 100 g/m 2, and a thickness of the nonwoven web is from 0.25 mm to 2 mm. preparing a homogeneous mixture consisting of defibrated wood pulp and staple fibers being either viscose or lyocell; passing the homogeneous mixture through a perforated rotating cylinder onto a foraminous carrier; airforming the mixture to obtain at least one homogeneous airlaid web; hydroentangling the airlaid web to consolidate the web on at least one side; and drying the hydroentangled web to obtain the nonwoven web; wherein the airforming and hydroentangling is conducted in a continuous operation, a content of the defibrated wood pulp in the mixture is no less than 50 % by weight and a content of the staple fibers is no more than 50 % by weight, no binder, adhesive or thermal bonding fibers are utilized, a fiber length of the defibrated wood pulp is no more than 3.5 mm, a fiber length of the staple fibers is no less than 8.0 mm, a basis weight of the nonwoven web is from 20 g/m 2 to 100 g/m 2, and a thickness of the nonwoven web is from 0.25 mm to 2 mm.
A processor comprising: at least one core; a level one cache; a translation lookaside buffer, TLB; and a level two cache; characterized by: a page tracker buffer, PTB, the PTB including a plurality of entries to store an address to a cache page, an access signature and a reuse signature, the access signature to indicate lines of a page in TLB that were accessed by the at least one core in a prior addressing of the page in TLB 110, and the reuse signature to indicate lines of the page that were accessed multiple times by the at least one core in a prior addressing of the page in TLB; and a PTB handler, the PTB handler to: load entries into the PTB after a TLB miss, use a retrieved access signature for prefetching, and prioritize, in a replacement policy, cache lines of the page indicated by the reuse signature as having been previously accessed multiple times. at least one core; a level one cache; a translation lookaside buffer, TLB; and a level two cache; a page tracker buffer, PTB, the PTB including a plurality of entries to store an address to a cache page, an access signature and a reuse signature, the access signature to indicate lines of a page in TLB that were accessed by the at least one core in a prior addressing of the page in TLB 110, and the reuse signature to indicate lines of the page that were accessed multiple times by the at least one core in a prior addressing of the page in TLB; and a PTB handler, the PTB handler to: load entries into the PTB after a TLB miss, use a retrieved access signature for prefetching, and prioritize, in a replacement policy, cache lines of the page indicated by the reuse signature as having been previously accessed multiple times. load entries into the PTB after a TLB miss, use a retrieved access signature for prefetching, and prioritize, in a replacement policy, cache lines of the page indicated by the reuse signature as having been previously accessed multiple times.
A piezoelectric body (1, 1A) represented by a chemical formula Al 1-X-Y Mg X Ta Y N, wherein X + Y is less than 1, X is in a range of more than 0 and less than 1, Y is in a range of more than 0 and less than 1, and Ta includes tetravalent tantalum, characterised in that the tetravalent tantalum is contained in a largest amount compared to that of tantalum having a valence other than the tetravalent one. X + Y is less than 1, X is in a range of more than 0 and less than 1, Y is in a range of more than 0 and less than 1, and Ta includes tetravalent tantalum, characterised in that the tetravalent tantalum is contained in a largest amount compared to that of tantalum having a valence other than the tetravalent one.
A resin system comprising: (i) a thermosetting resin precursor component comprising one or more multi-functional epoxy resin precursor(s) having a functionality of at least three, and less than 10 wt%, based on the total weight of the resin system, of epoxy resin precursors with a functionality of less than three, wherein said multifunctional precursor(s) are selected from a tri-functional epoxy resin precursor and a tetra-functional epoxy resin precursor; (ii) a thermoplastic polyamide particle component comprising polyamide particles having a melting temperature T PA; where T PA is the effective melting temperature which is defined as the position in degrees Celsius of the endothermic melting peak present in the DSC thermogram (acquired at 10°C/min under nitrogen) of a 25wt% blend of the polyamide in meta-substituted tri-glycidyl amino phenol (m-TGAP); and (iii) one or more curing agent(s), wherein said resin precursor component, said thermoplastic particle and said curing agent(s) are selected such that gelation of the epoxy matrix during the cure cycle of the resin system occurs at a gelation temperature T GEL which is at or below T PA, where T GEL is the temperature at which the viscosity of the resin system tends to infinity; and wherein the resin system is thermally curable using a curing temperature T C in the range of from 140 to 200°C, and all thermoplastic particles in the resin system have a melting temperature T PA that is not higher than the curing temperature T C. (i) a thermosetting resin precursor component comprising one or more multi-functional epoxy resin precursor(s) having a functionality of at least three, and less than 10 wt%, based on the total weight of the resin system, of epoxy resin precursors with a functionality of less than three, wherein said multifunctional precursor(s) are selected from a tri-functional epoxy resin precursor and a tetra-functional epoxy resin precursor; (ii) a thermoplastic polyamide particle component comprising polyamide particles having a melting temperature T PA; where T PA is the effective melting temperature which is defined as the position in degrees Celsius of the endothermic melting peak present in the DSC thermogram (acquired at 10°C/min under nitrogen) of a 25wt% blend of the polyamide in meta-substituted tri-glycidyl amino phenol (m-TGAP); and (iii) one or more curing agent(s),