mhurhangee/ep-ind-claims huggingface dataset:
Method for increasing efficiency of an inductive energy transmission device, with which electrical energy is converted contactlessly into electrical energy using a magnetic field, in order to electrically excite a rotor of an electrical machine, comprising the step of: arranging an additional electrically conductive material layer on at least one active part (12, 19, 35, 45) of the energy transmission device, wherein an active part of the energy transmission device is a part of the energy transmission device which is at least partially exposed to the magnetic field used for energy transmission, wherein the electrical conductivity of the additional material layer is greater than the electrical conductivity of the at least one active part (12, 19, 35, 45), characterized in that the arranged additional material layer has a layer thickness which is selected depending on a predetermined frequency of the magnetic field used for energy transmission. arranging an additional electrically conductive material layer on at least one active part (12, 19, 35, 45) of the energy transmission device, wherein an active part of the energy transmission device is a part of the energy transmission device which is at least partially exposed to the magnetic field used for energy transmission, wherein the electrical conductivity of the additional material layer is greater than the electrical conductivity of the at least one active part (12, 19, 35, 45), characterized in that the arranged additional material layer has a layer thickness which is selected depending on a predetermined frequency of the magnetic field used for energy transmission.
A method for generating media information, comprising: dividing media code streams of m types of code rate, which are generated by adaptive HTTP streaming, AHS, into h groups and generating code stream group information, wherein the code rate is used to indicate a code stream of different quality, and the code stream is formed by multiple code stream segments; wherein a process of the dividing media code streams of m types of code rate, which are generated by AHS, into h groups specifically comprises: dividing the media code streams according to code stream quality/a code stream similarity principle, wherein each group comprises m/h types of code stream, the m indicates m different types of quality, a value of the m/h is 2 x, and the x is greater than or equal to 1; embedding a tracing code into the code stream segments, wherein the tracing codes are used to generate a traceable code stream corresponding to the code stream; wherein the embedding a tracing code into the code stream segments comprises: embedding a tracing code whose length is K into each of the code stream segments, wherein the K is determined by code stream grouping; and embedding the different tracing codes into the code stream segments of different code rates in a same group; storing the tracing codes embedded into the code stream segments, and the code stream group information in a media presentation description file, MPD, and generating a traceable media presentation description file, TMPD; and receiving a request of a terminal for media content, and sending the TMPD to the terminal. dividing media code streams of m types of code rate, which are generated by adaptive HTTP streaming, AHS, into h groups and generating code stream group information, wherein the code rate is used to indicate a code stream of different quality, and the code stream is formed by multiple code stream segments; dividing the media code streams according to code stream quality/a code stream similarity principle, wherein each group comprises m/h types of code stream, the m indicates m different types of quality, a value of the m/h is 2 x, and the x is greater than or equal to 1; embedding a tracing code into the code stream segments, wherein the tracing codes are used to generate a traceable code stream corresponding to the code stream; embedding a tracing code whose length is K into each of the code stream segments, wherein the K is determined by code stream grouping; and embedding the different tracing codes into the code stream segments of different code rates in a same group; storing the tracing codes embedded into the code stream segments, and the code stream group information in a media presentation description file, MPD, and generating a traceable media presentation description file, TMPD; and receiving a request of a terminal for media content, and sending the TMPD to the terminal.
Mold insert (210, 220, 230) for use in a mold for the manufacture of a sole for a shoe, in particular a midsole, a. wherein the sole is manufactured from particles of an expanded material, b. wherein an electromagnetic field is used as an energy carrier to fuse the particle surfaces, c. wherein the mold insert has been manufactured using an additive manufacturing method, and d. wherein the mold insert is adapted to locally adjust the field strength of the electromagnetic field inside a molding cavity of the mold, based at least in part on the geometry of the sole, e. wherein the local adjustment of the field strength inside the molding cavity is at least partially caused by a local variation in the dielectric properties of the mold insert, f. wherein the local adjustment of the field strength inside the molding cavity is at least partially caused by a local variation in the permittivity of the mold insert, g. wherein the local variation in the permittivity of the mold insert is at least partially caused by a local variation in the density of the material of the mold insert. a. wherein the sole is manufactured from particles of an expanded material, b. wherein an electromagnetic field is used as an energy carrier to fuse the particle surfaces, c. wherein the mold insert has been manufactured using an additive manufacturing method, and d. wherein the mold insert is adapted to locally adjust the field strength of the electromagnetic field inside a molding cavity of the mold, based at least in part on the geometry of the sole, e. wherein the local adjustment of the field strength inside the molding cavity is at least partially caused by a local variation in the dielectric properties of the mold insert, f. wherein the local adjustment of the field strength inside the molding cavity is at least partially caused by a local variation in the permittivity of the mold insert, g. wherein the local variation in the permittivity of the mold insert is at least partially caused by a local variation in the density of the material of the mold insert.
Rechargeable battery pack for an electrical device having at least one printed circuit board, at least one rechargeable battery cell and at least one temperature sensor for measuring the temperature of at least one rechargeable battery cell, characterized in that the printed circuit board is populated with the temperature sensor such that the temperature sensor is applied directly to the printed circuit board, wherein a section of the printed circuit board forms a carrier element, which is formed in one piece with the printed circuit board and to which the temperature sensor is applied, and wherein the carrier element at least in the mounted state of the rechargeable battery pack extends in a different plane to the rest of the printed circuit board, characterized in that the rechargeable battery pack also comprises a cell holder and/or a housing, wherein a holding structure is provided on the cell holder or the housing, said holding structure in the mounted state of the rechargeable battery pack holding the temperature sensor that is fixed to the printed circuit board in contact with at least one rechargeable battery cell in such a way that the temperature sensor is able to measure the temperature of the adjacent rechargeable battery cell.
Shower-base element which, at least in a provided drain region, is made of a cuttable material, preferably a foam, such as in particular particle foam, and which comprises a preferably substantially flat undersurface on the underside thereof, the shower-base element specifying, by means of a marking in the form of one or more indentations, grooves or lines, a drain-channel receiving region that can be formed by cutting, the shower-base element further being designed to be installed so to be level and flush with the ground, comprising a sloped surface on the top, and comprising hollows (23, 24, 25, 38) that are distributed as evenly as possible, an elongate depression that is substantially square in plan view being provided with a cutting outlet region, for example in the form of a vertically continuous opening, that is formed over a portion of the plan-view surface area, the shower-base element also comprising said hollows in the region in which a drain channel is intended to be inserted, and some hollows also being used as a cutting outlet opening for cutting out the opening provided ultimately for the specific drain channel or a specific drain, characterised in that the depression is formed at least in part by a cutting cover that extends at a distance from the undersurface of the shower-base element, which distance leaves a free space.
Device for locating and catching fish, comprising a floating body from which tackle containing bait is hung, the floating body being substantially polygonal in shape, with reduced thickness in comparison to the main dimensions thereof, said device characterised in that is made in a core of highly floatable material covered in an highly resistant external surface layer, where said floating body has a plurality of first openings near the edges of the same and a group of second openings located in the central area of the same.
Apparatus for producing packages, wherein a base is placed thereunder, and wherein a folding station folds protruding edges of the base in the direction towards the packaging unit, characterised in that at least the folding station is configured as a linear conveyor with a closed moving track, on which movement elements in the form of carriages or trolleys circulate in a common direction, wherein at least one folding head is arranged on each respective movement element, wherein the linear conveyor is configured as an electromagnetic direct power takeoff.
An electrochemical capacitor, comprising a silicon-on-insulator layer made of silicon on an insulator layer; a trench in the silicon-on-insulator layer; a bottom layer of the silicon-on-insulator layer on a surface of the insulator layer to form a portion of a bottom surface of the trench; pores in the silicon-on-insulator layer for making inner surfaces of the trench porous and forming a first porous portion at a first side of the trench and a second porous portion at a second side of the trench; a trench extension through the bottom layer, wherein the trench and the trench extension separate a first rigid piece of the silicon-on-insulator layer having the first porous portion and a second rigid piece of the silicon-on-insulator layer having the second porous portion; a first electrode comprising the first rigid piece having the first porous portion; a second electrode comprising the second rigid piece having the second porous portion; a cover bonded to the first rigid piece and the second rigid piece, wherein the first rigid piece, the second rigid piece, the insulator layer and the cover enclose a cavity; and an electrolyte filling said cavity and in contact with the first porous portion and the second porous portion. a silicon-on-insulator layer made of silicon on an insulator layer; a trench in the silicon-on-insulator layer; a bottom layer of the silicon-on-insulator layer on a surface of the insulator layer to form a portion of a bottom surface of the trench; pores in the silicon-on-insulator layer for making inner surfaces of the trench porous and forming a first porous portion at a first side of the trench and a second porous portion at a second side of the trench; a trench extension through the bottom layer, wherein the trench and the trench extension separate a first rigid piece of the silicon-on-insulator layer having the first porous portion and a second rigid piece of the silicon-on-insulator layer having the second porous portion; a first electrode comprising the first rigid piece having the first porous portion; a second electrode comprising the second rigid piece having the second porous portion; a cover bonded to the first rigid piece and the second rigid piece, wherein the first rigid piece, the second rigid piece, the insulator layer and the cover enclose a cavity; and an electrolyte filling said cavity and in contact with the first porous portion and the second porous portion.
A flat bag having a bag upper side and a bag underside, the bag walls of which are made from an air-permeable filter material and wherein an inlet opening for the air to be filtered is provided in the upper side of the bag, wherein at least one diffuser which forms an intermediate plane is disposed in the interior of the flat bag between the bag upper side and the bag underside, which diffuser consists of at least two individual strips of material disposed relative to each other and/or sheet material structures, which have oblong-shaped flow openings, and wherein the at least one diffuser is connected to the bag walls on at least one side, wherein the oblong-shaped flow openings of the sheet-like structures have a meandering or zigzag configuration and/or have different lengths.
A method 2. for authenticating a sender comprising: receiving a radar signal comprising first identity information; determining a first position associated with the radar signal; associating the first position with the first identity information; receiving information on a non-radar channel comprising second identity information; determining a second position associated with the information on the non-radar channel; determining that the radar signal and the information on the non-radar channel are sent from a first sender when the first and second identity information correspond; and determining that the first position and the second position correspond. receiving a radar signal comprising first identity information; determining a first position associated with the radar signal; associating the first position with the first identity information; receiving information on a non-radar channel comprising second identity information; determining a second position associated with the information on the non-radar channel; determining that the radar signal and the information on the non-radar channel are sent from a first sender when the first and second identity information correspond; and determining that the first position and the second position correspond.
A composition, comprising: a first hairpin monomer comprising: a first input domain comprising a first toehold portion and a first stem section, and a first output domain comprising a first hairpin loop and a complement to the first stem section; a second hairpin monomer comprising: a second input domain comprising a second toehold portion and a second stem section, and a second output domain comprising a second hairpin loop and a complement to the second stem section; a first fractional initiator probe comprising a first fractional initiator capable of hybridizing to a first portion of the first input domain; and a second fractional initiator probe comprising a second fractional initiator capable of hybridizing to a second portion of the first input domain adjacent to said first portion. a first hairpin monomer comprising: a first input domain comprising a first toehold portion and a first stem section, and a first output domain comprising a first hairpin loop and a complement to the first stem section; a first input domain comprising a first toehold portion and a first stem section, and a first output domain comprising a first hairpin loop and a complement to the first stem section; a second hairpin monomer comprising: a second input domain comprising a second toehold portion and a second stem section, and a second output domain comprising a second hairpin loop and a complement to the second stem section; a first fractional initiator probe comprising a first fractional initiator capable of hybridizing to a first portion of the first input domain; and a second fractional initiator probe comprising a second fractional initiator capable of hybridizing to a second portion of the first input domain adjacent to said first portion. a second input domain comprising a second toehold portion and a second stem section, and a second output domain comprising a second hairpin loop and a complement to the second stem section; a first fractional initiator probe comprising a first fractional initiator capable of hybridizing to a first portion of the first input domain; and a second fractional initiator probe comprising a second fractional initiator capable of hybridizing to a second portion of the first input domain adjacent to said first portion.
A composition comprising at least one fused thiophene moiety comprising the formula 3, 4, 44 or 45 wherein n in formulae 3 and 44 is an integer greater than 1 and in formulae 4 and 45 is an integer greater than zero; m is no less than one; R 1 and R 2 are, independently, hydrogen or an alkyl group having 1 to 40 carbon atoms and at least one of R 1 and R 2 is such an alkyl group; and each T is, independently, S or SO 2, wherein T is SO 2 in at least one of the central-most rings of the oxidized fused thiophene ring system, wherein the fused thiophene moiety is incorporated in a compound comprising the formula 7, 8, 10A or 10B: wherein Q is, independently, hydrogen, a substituted or unsubstituted alkyl group, an acyl halide, an ester, an aldehyde, a ketone, a hydroxyl group, a thiol group or alkyl substituted thiol group, an alkoxy group, an acrylate group, an amino group, a vinyl ether, or a halide. wherein n in formulae 3 and 44 is an integer greater than 1 and in formulae 4 and 45 is an integer greater than zero; m is no less than one; R 1 and R 2 are, independently, hydrogen or an alkyl group having 1 to 40 carbon atoms and at least one of R 1 and R 2 is such an alkyl group; and each T is, independently, S or SO 2, wherein T is SO 2 in at least one of the central-most rings of the oxidized fused thiophene ring system,
A method for producing an injection molded body by injection molding a fiber reinforced thermoplastic resin composition formed by combining fibrous filler (b) with a thermoplastic resin (a) so that a weight average fiber length in said injection molded body is 300 μm or more and having a skin layer, a core layer and a skin layer in this order in a thickness direction, characterized in that a thickness of said core layer, in which a primary orientation direction of said fibrous filler (b) is 40° or less when a direction perpendicular to a flow direction of said fiber reinforced thermoplastic resin composition at the time of injection molding is set at 0°, is 20% or less relatively to a thickness of said injection molded body, - by injection press molding in which a mold is started to be closed after injection is started, characterized in that injection molding is carried out at a condition where a ratio (t2/t1) of a difference between a time for finishing injection (tif) and a time for finishing to close said mold (tpf) to a difference between a time for starting to close said mold (tps) and said time for finishing injection (tif) becomes 1.1 or more, or - by injection press molding, characterized in that pressing is carried out after 80 vol.% or more of a main cavity volume of a mold is filled with said fiber reinforced thermoplastic resin composition. - by injection press molding in which a mold is started to be closed after injection is started, characterized in that injection molding is carried out at a condition where a ratio (t2/t1) of a difference between a time for finishing injection (tif) and a time for finishing to close said mold (tpf) to a difference between a time for starting to close said mold (tps) and said time for finishing injection (tif) becomes 1.1 or more, or - by injection press molding, characterized in that pressing is carried out after 80 vol.% or more of a main cavity volume of a mold is filled with said fiber reinforced thermoplastic resin composition.
A moisture monitoring system for monitoring wetness in one or more absorbent articles, the system including: an input for receiving one or more sensor signals indicative of a presence of wetness in an absorbent article; a processor for processing the one or more sensor signals; and a user interface for communicating with a user of the system; wherein the processor is adapted to execute an algorithm for performing an analysis of the signals, whereby the algorithm applies the received sensor signals to a pre-determined mathematical model to characterise a wetness event in an absorbent article and to determine a range of predictions based on patterns identified from the sensor signals, and characterised in that parameters of the mathematical model are determined over a training period by the processor (i) continually receiving sensor signals indicating wetness and upon every variation in sensor values, receiving observation data corresponding to (a) changing the pad, (b) examining the pad, and (c) weighing the pad; (ii) performing a regression analysis to formulate parameters for the mathematical model; (iii) feeding the parameters back into the mathematical model to determine a confidence level indicating how accurately the mathematical model estimates the actual events defined by the observation data; and (iv) repeating steps (i) to (iii) until an acceptable confidence level is reached. an input for receiving one or more sensor signals indicative of a presence of wetness in an absorbent article; a processor for processing the one or more sensor signals; and a user interface for communicating with a user of the system; wherein the processor is adapted to execute an algorithm for performing an analysis of the signals, whereby the algorithm applies the received sensor signals to a pre-determined mathematical model to characterise a wetness event in an absorbent article and to determine a range of predictions based on patterns identified from the sensor signals, and characterised in that parameters of the mathematical model are determined over a training period by the processor (i) continually receiving sensor signals indicating wetness and upon every variation in sensor values, receiving observation data corresponding to (a) changing the pad, (b) examining the pad, and (c) weighing the pad; (ii) performing a regression analysis to formulate parameters for the mathematical model; (iii) feeding the parameters back into the mathematical model to determine a confidence level indicating how accurately the mathematical model estimates the actual events defined by the observation data; and (iv) repeating steps (i) to (iii) until an acceptable confidence level is reached.