mhurhangee/patent-ind-claim-en huggingface dataset:
Composite powder for use in an anode of a lithium ion battery, whereby the particles of the composite powder comprise a carbon matrix material and silicon particles embedded in this matrix material, whereby the composite powder further comprises silicon carbide; whereby the ordered domain size of the silicon carbide, as determined by the Scherrer equation applied to the X-ray diffraction SiC peak having a maximum at 2θ between 35.4° and 35.8°, when measured with a copper anticathode producing Kα1 and Kα2 X-rays with a wavelength equal to 0.15418 nm, is at most 15 nm, characterized in that the composite powder has a particle size distribution with a d 10 , d 50 and d 90 value, whereby (d 90 - d 10 )/d 50 is 3 or lower.
A vaccine pharmaceutical composition for use in inducing cellular immunity, comprising: an antigen; and a bisphosphonate, wherein said composition is to be administered transdermally or transmucosally. an antigen; and a bisphosphonate, wherein said composition is to be administered transdermally or transmucosally.
A system for acquiring biometric data from the iris(es) of an individual located at a capturing distance d cap comprised in a range of capturing distances which belong to a group of predefined distance ranges, comprising at least a first camera which is adapted to continuously acquire a flow of images and to determine the 3D position of the eye of the individual, at least a second high-resolution camera , a positioning means for at least one camera, a central unit UC which is adapted to control the cameras and the positioning means: • at least the second high-resolution camera is controlled as a function of a first setpoint value C1 in terms of position, the value C1 being determined from the 3D position of the eye, • the second high-resolution camera has at least one active lens which is adapted to carry out a focusing f 0 of the optical system, the value of f 0 is controlled as a function of a second value C2 which is determined from the distance of the eye relative to the second camera, characterised in that the active lens is adapted to carry out permanent oscillations or scanning of the focusing in a range around this focusing value f 0 , the length of the range and the pitch of the permanent oscillations in this range are controlled as a function of this second value C2. • at least the second high-resolution camera is controlled as a function of a first setpoint value C1 in terms of position, the value C1 being determined from the 3D position of the eye, • the second high-resolution camera has at least one active lens which is adapted to carry out a focusing f 0 of the optical system, the value of f 0 is controlled as a function of a second value C2 which is determined from the distance of the eye relative to the second camera, characterised in that the active lens is adapted to carry out permanent oscillations or scanning of the focusing in a range around this focusing value f 0 , the length of the range and the pitch of the permanent oscillations in this range are controlled as a function of this second value C2.
Drive belt with an endless carrier and a number of consecutive transverse members mounted slidable on the endless carrier , each provided with a front main body surface and with a rear main body surface , where between the transverse member extends in thickness direction, and with pulley contact faces mutually diverging in radial outward direction and destined for contact with sheaves of pulleys of a transmission wherein the drive belt can be applied, where between the transverse member extends in width direction, of which transverse members at least two types having a mutually different dimension in the thickness direction are included in the drive belt , characterized in that a dimension in the width direction of the type of transverse members having the largest dimension in the thickness direction is smaller than the corresponding dimension in the width direction of the type of transverse members (32") having the smallest dimension in the thickness direction.
Dynamo-electric rotary machine having: a stator which has a winding system positioned in slots and a rotor which is magnetically or electrically excited and is spaced from the stator by an air gap , wherein the rotor rotates about an axis due to electromagnetic interactions with the stator , wherein the stator has a plurality of teeth, each of which have axially layered laminations and thus form partial laminated cores, wherein the teeth of the stator point to the air gap , wherein the partial laminated cores of the teeth each have two axial end faces, wherein the teeth are each surrounded by a coil , wherein insulation material is provided at least between the coil and the respective tooth, wherein the insulation material is embodied as a coil former which consists of two parts per tooth, which, starting from the respective end faces of the respective tooth, overlap on at least one axial section of the partial laminated core of the tooth, in particular the side walls of said tooth, characterised in that the first part of the coil former of a tooth engages in the recess of the axial partial laminated core, and wherein the second part of the coil former of said tooth engages in a notch in the first part of the coil former .
An apparatus for supporting a wheel of a vehicle, comprising: a) a base ; b) a support for supporting the wheel of the vehicle, the support movably mounted over the base , the support having a topside and an underside; c) a first locating member ; and d) an actuator coupled to at least one of the first locating member , support and the base , so that when the actuator is in a first position the support is movable relative to the base ; characterised in that the first locating member is positioned underneath the base , and in that when the actuator is in a second position the first locating member bears upwardly against the base so that the support is held in a predetermined position relative to the base . a) a base ; b) a support for supporting the wheel of the vehicle, the support movably mounted over the base , the support having a topside and an underside; c) a first locating member ; and d) an actuator coupled to at least one of the first locating member , support and the base , so that when the actuator is in a first position the support is movable relative to the base ; characterised in that the first locating member is positioned underneath the base , and in that when the actuator is in a second position the first locating member bears upwardly against the base so that the support is held in a predetermined position relative to the base .
An air duct structure of a clothes drying apparatus, comprising: a hollow air duct , disposed between a heating device and an air inlet of the clothes drying apparatus, the air inlet being configured for introducing air into a drum of the clothes drying apparatus; and an air guiding structure , arranged inside the hollow air duct and operative to separate the hollow air duct partially into a first bypass duct and a second bypass duct that are arranged side by side; characterized in that , wherein a single original hot air flow heated by the heating device is divided by the air guiding structure into two split hot air flows, wherein a first split hot air flow is guided and accelerated by the first bypass duct , and a second split hot air flow is guided and decelerated by the second bypass duct , and the accelerated split hot air flow and the decelerated split hot air flow are converged at the air inlet to form a turbulent hot air flow; wherein a cross-sectional area of the first bypass duct is gradually decreased along a flowing direction of the hot air flow, and a cross-sectional area of the second bypass duct is gradually increased along the flowing direction of the hot air flow. a hollow air duct , disposed between a heating device and an air inlet of the clothes drying apparatus, the air inlet being configured for introducing air into a drum of the clothes drying apparatus; and an air guiding structure , arranged inside the hollow air duct and operative to separate the hollow air duct partially into a first bypass duct and a second bypass duct that are arranged side by side; characterized in that , wherein a single original hot air flow heated by the heating device is divided by the air guiding structure into two split hot air flows, wherein a first split hot air flow is guided and accelerated by the first bypass duct , and a second split hot air flow is guided and decelerated by the second bypass duct , and the accelerated split hot air flow and the decelerated split hot air flow are converged at the air inlet to form a turbulent hot air flow; wherein a cross-sectional area of the first bypass duct is gradually decreased along a flowing direction of the hot air flow, and a cross-sectional area of the second bypass duct is gradually increased along the flowing direction of the hot air flow.
A method for limiting wireless connectivity roaming of a multi-function device, MFD, comprising: detecting, by a processor of the MFD , that a connection to a current access point of a wireless network is disconnected; attempting, by the processor, to re-authenticate on the current access point; receiving, by the processor, a notification that a blacklist value of the MFD for the current access point exceeds a predefined threshold to prevent re-authentication to the current access point, wherein the blacklist value for the current access point is incremented as a result of failed re-authentication attempts; accessing, by the processor, a list of access points within a user defined boundary; selecting, by the processor, an access point in the list of access points that was not previously blacklisted based on a parameter of the access points; and establishing, by the processor, a wireless communication path with the access point. detecting, by a processor of the MFD , that a connection to a current access point of a wireless network is disconnected; attempting, by the processor, to re-authenticate on the current access point; receiving, by the processor, a notification that a blacklist value of the MFD for the current access point exceeds a predefined threshold to prevent re-authentication to the current access point, wherein the blacklist value for the current access point is incremented as a result of failed re-authentication attempts; accessing, by the processor, a list of access points within a user defined boundary; selecting, by the processor, an access point in the list of access points that was not previously blacklisted based on a parameter of the access points; and establishing, by the processor, a wireless communication path with the access point.
Dishwasher, in particular a domestic dishwasher, comprising a washing container which provides a washing chamber and has a feed opening for loading items to be washed, which feed opening can be sealed in a fluid-tight manner by means of a pivotably mounted door, comprising a device for automatically partially opening the door and comprising a fan for generating an air flow , with a through-opening for allowing part of the air flow generated by the fan to pass through being provided on the door side between the washing container and a worktop arranged on top of the washing container , and comprising a seal which is arranged on the washing container side and has a sealing lip which interacts with the through-opening , characterised in that the seal is movable, it being possible to seal the through-opening by means of the seal , and the sealing lip which interacts with the through-opening being pivotable, the sealing lip being pivotable between a sealing position in which the sealing lip seals the through-opening and a release position that releases the through-opening , the sealing lip being designed to sealingly rest against the underside of the worktop in the sealing position.
A last system for making an article of footwear , comprising: a last member made from a first material with an outer surface ; an exterior layer being made of a second material disposed on the outer surface of the last member ; the second material of the exterior layer having a characteristic temperature, wherein the second material is configured to be moldable when heated to a temperature above the characteristic temperature; and a footwear component formed onto the exterior layer , the footwear component having a plurality of braided strands , wherein: the exterior layer is joined with the braided footwear component to form a composite structure; and the braided strands are completely encased within the exterior layer . a last member made from a first material with an outer surface ; an exterior layer being made of a second material disposed on the outer surface of the last member ; the second material of the exterior layer having a characteristic temperature, wherein the second material is configured to be moldable when heated to a temperature above the characteristic temperature; and a footwear component formed onto the exterior layer , the footwear component having a plurality of braided strands , wherein: the exterior layer is joined with the braided footwear component to form a composite structure; and the braided strands are completely encased within the exterior layer . the exterior layer is joined with the braided footwear component to form a composite structure; and the braided strands are completely encased within the exterior layer .
An automated method for analyzing a cell, comprising the following steps, all of which are carried out in a fully automated manner using robotic handling and automated microscopy: - providing a culture of non-adhesively growing plant cells in wells of a multi-well plate; - arranging the non-adhesively growing plant cells in a monolayer and immobilizing them in the monolayer, wherein the immobilization of the non-adhesively growing plant cells in a monolayer is achieved by adding a gelling substance to the non-adhesively growing plant cells, centrifuging the non-adhesively growing plant cells to obtain a monolayer of non-adhesively growing plant cells, and solidifying the gelling substance to form a gel in which the non-adhesively growing plant cells are embedded; and - detecting at least one parameter by microscopic analysis using an automated microscope, wherein said at least one parameter is selected from the group consisting of fluorescence, luminescence, morphology and combinations thereof. - providing a culture of non-adhesively growing plant cells in wells of a multi-well plate; - arranging the non-adhesively growing plant cells in a monolayer and immobilizing them in the monolayer, wherein the immobilization of the non-adhesively growing plant cells in a monolayer is achieved by adding a gelling substance to the non-adhesively growing plant cells, centrifuging the non-adhesively growing plant cells to obtain a monolayer of non-adhesively growing plant cells, and solidifying the gelling substance to form a gel in which the non-adhesively growing plant cells are embedded; and - detecting at least one parameter by microscopic analysis using an automated microscope, wherein said at least one parameter is selected from the group consisting of fluorescence, luminescence, morphology and combinations thereof.
A prepreg that is formed by impregnating a reinforced fiber with an epoxy resin composition so as to have a resin content within a range of 25 to 50 mass%, an elastic modulus of the reinforced fiber being 100 GPa or higher and 900 GPa or lower, wherein the elastic modulus is the flexural modulus as determined according to the method in the description; the epoxy resin composition comprising the following Components A to D: Component A: an epoxy resin having an oxazolidone ring structure in a molecule thereof; Component B: an epoxy resin that is liquid at 30°C; Component C: a diblock copolymer having a B-M structure, wherein block M is a block consisting of a homopolymer of methyl methacrylate, or a copolymer including at least 50 mass% of methyl methacrylate; block B is immiscible with the epoxy resins and the block M, a glass transition temperature Tg of the block B being 20°C or lower, wherein Tg is determined according to the method in the description; the blocks B and M being directly linked to, or being linked via a linker to each other; and Component D: an amine curing agent that is a dicyandiamide or a derivative thereof, wherein formulation in terms of mass ratio of Components A to D satisfies the following formulae: A / A + B = 0.05 to 0.25 C / A + B = 0.12 to 0.19 D / A + B = 0.01 to 0.10 where A to D each represent contents of Components A to D. Component A: an epoxy resin having an oxazolidone ring structure in a molecule thereof; Component B: an epoxy resin that is liquid at 30°C; Component C: a diblock copolymer having a B-M structure, wherein block M is a block consisting of a homopolymer of methyl methacrylate, or a copolymer including at least 50 mass% of methyl methacrylate; block B is immiscible with the epoxy resins and the block M, a glass transition temperature Tg of the block B being 20°C or lower, wherein Tg is determined according to the method in the description; the blocks B and M being directly linked to, or being linked via a linker to each other; and Component D: an amine curing agent that is a dicyandiamide or a derivative thereof, wherein
Press device for the production of wood segments made of wood pieces lying on top of one another with their end faces, with at least one press unit , via which the wood pieces can be transported and by means of which they can be pressed with their end faces abutting agains each other, characterized in that at least one first clamping unit is upstream to the press unit and at least one second clamping unit is downstream from the press unit, and that the clamping units each have at least one clamping element , which can be pressed during strandpressing, thereby exerting clamping pressure onto the wood pieces .
A metal-ion battery , comprising: a positive electrode , wherein the positive electrode comprises intercalated carbon material; a first negative electrode ; a first separator disposed between the positive electrode and the first negative electrode ; a second negative electrode ; a second separator disposed between the first negative electrode and the second negative electrode ; an electrolyte , wherein the electrolyte comprises an ionic liquid and a metal halide; and a control element coupled to the first negative electrode and the second negative electrode , wherein the control element determines whether to electrically connect the first negative electrode to the second negative electrode , the first negative electrode comprises a first metal or an alloy thereof and the second negative electrode comprises a second metal , the reduction potential of the second metal is smaller than the reduction potential of the first metal , and the first metal is nickel and the second metal is aluminum, zinc, or iron. a positive electrode , wherein the positive electrode comprises intercalated carbon material; a first negative electrode ; a first separator disposed between the positive electrode and the first negative electrode ; a second negative electrode ; a second separator disposed between the first negative electrode and the second negative electrode ; an electrolyte , wherein the electrolyte comprises an ionic liquid and a metal halide; and a control element coupled to the first negative electrode and the second negative electrode , wherein the control element determines whether to electrically connect the first negative electrode to the second negative electrode , the first negative electrode comprises a first metal or an alloy thereof and the second negative electrode comprises a second metal , the reduction potential of the second metal is smaller than the reduction potential of the first metal , and the first metal is nickel and the second metal is aluminum, zinc, or iron.
A multilayer film for labeling comprising a first skin layer, a second skin layer and a core layer between the first skin layer and the second skin layer, wherein the core layer comprises copolymer of ethylene and butyl acrylate, and wherein at least one of the first skin layer and the second skin layer comprises propylene terpolymer, wherein the core layer comprises copolymer of ethylene and butyl acrylate in the range of 10 to 90% by weight, wherein the copolymer of ethylene and butyl acrylate is a block or random copolymer, comprising a n-butyl acrylate content in the range of 5% to 30% by weight, and the multilayer film is stretched in a direction of orientation and shrinks in the direction of orientation of the multilayer film at least 25% at a temperature range between 65 and 85° C. the copolymer of ethylene and butyl acrylate is a block or random copolymer, comprising a n-butyl acrylate content in the range of 5% to 30% by weight, and the multilayer film is stretched in a direction of orientation and shrinks in the direction of orientation of the multilayer film at least 25% at a temperature range between 65 and 85° C.
An analyte monitoring system, comprising: a glucose sensor for positioning in a transcutaneous manner such that at least a portion thereof is in fluid contact with an analyte of a user for monitoring a glucose level of the user; and a data processing unit coupled to the glucose sensor, and configured to generate glucose data from signals generated by the glucose sensor , wherein the data processing unit is configured to pair with a remote device using an encrypted communication key, for establishing bi-directional communication between the data processing unit and the remote device , the data processing unit being configured to transmit identification information of the data processing unit to the remote device and the encrypted communication key being generated by the remote device based on the identification information of the data processing unit , and the data processing unit being further configured to receive the encrypted communication key from the remote device , wherein, after the bi-directional communication is established and the data processing unit is paired with the remote device , the data processing unit is configured to transmit sensor related data with the encrypted communication key to the remote device at predetermined time intervals, wherein the data processing unit is configured to separate non-urgent data from urgent data, and to parse the non-urgent data into a number of data segments; and wherein each transmission of sensor related data comprises all urgent data and a segment of non-urgent data. a glucose sensor for positioning in a transcutaneous manner such that at least a portion thereof is in fluid contact with an analyte of a user for monitoring a glucose level of the user; and a data processing unit coupled to the glucose sensor, and configured to generate glucose data from signals generated by the glucose sensor , wherein the data processing unit is configured to pair with a remote device using an encrypted communication key, for establishing bi-directional communication between the data processing unit and the remote device , the data processing unit being configured to transmit identification information of the data processing unit to the remote device and the encrypted communication key being generated by the remote device based on the identification information of the data processing unit , and the data processing unit being further configured to receive the encrypted communication key from the remote device , wherein, after the bi-directional communication is established and the data processing unit is paired with the remote device , the data processing unit is configured to transmit sensor related data with the encrypted communication key to the remote device at predetermined time intervals, wherein the data processing unit is configured to separate non-urgent data from urgent data, and to parse the non-urgent data into a number of data segments; and wherein each transmission of sensor related data comprises all urgent data and a segment of non-urgent data.