mhurhangee/patent-ind-claim-en huggingface dataset:
An antenna to be arranged on a window glass of a vehicle, the antenna characterized by : a core-side power feeding unit ; an earth-side power feeding unit ; a first element extending from the core-side power feeding unit; and a second element extending at an angle of approximately 90 degrees with respect to the first element from the core-side power feeding unit, the first element having a length of 3 αλ /4+ δ and the second element having a length of αλ /4- δ , or the first element having a length of 3 αλ /4- δ and the second element having a length of αλ /4+ δ , where λ refers to a wavelength of a reception frequency, α refers to a wavelength shortening rate of glass, and δ refers to an offset length for each of the first element and the second elements. a core-side power feeding unit ; an earth-side power feeding unit ; a first element extending from the core-side power feeding unit; and a second element extending at an angle of approximately 90 degrees with respect to the first element from the core-side power feeding unit, the first element having a length of 3 αλ /4+ δ and the second element having a length of αλ /4- δ , or the first element having a length of 3 αλ /4- δ and the second element having a length of αλ /4+ δ , where λ refers to a wavelength of a reception frequency, α refers to a wavelength shortening rate of glass, and δ refers to an offset length for each of the first element and the second elements.
An adaptive prefetcher for a shared system cache of a processing system including a plurality of requestors , the adaptive prefetcher comprising: a cache miss monitor that is configured to monitor requests for information to be stored in the shared system cache and to identify one of the plurality of requestors for which an identified cache line is requested; and a prefetch controller that is configured to submit an adaptive request to request a subsequent cache line to be stored in the shared system cache for the identified requestor, wherein the subsequent cache line is determined based on a latency comparison between a loop latency of the prefetch controller and a stream latency of the identified requestor; wherein the loop latency includes a decision delay of the prefetch controller plus a latency of a switch fabric coupled between the plurality of requestors and the shared system cache and the stream latency is a delay between successive operations of the identified requestor. a cache miss monitor that is configured to monitor requests for information to be stored in the shared system cache and to identify one of the plurality of requestors for which an identified cache line is requested; and a prefetch controller that is configured to submit an adaptive request to request a subsequent cache line to be stored in the shared system cache for the identified requestor, wherein the subsequent cache line is determined based on a latency comparison between a loop latency of the prefetch controller and a stream latency of the identified requestor; wherein the loop latency includes a decision delay of the prefetch controller plus a latency of a switch fabric coupled between the plurality of requestors and the shared system cache and the stream latency is a delay between successive operations of the identified requestor.
A method performed by a wireless device for enabling a single Random Access, RA, preamble to be received by a first Access Node, AN, and by a second AN , which first and second ANs are asynchronous ANs, wherein the wireless device and the first and second ANs are operating in a wireless communications network , and wherein the method comprises: - receiving a first signal (S1) from the first AN and a second signal (S2) from the second AN ; - based on the received first and second signals (S1,S2), determining an overlapping time window during which a transmission from the wireless device is receivable by the first and second ANs ; and - transmitting , a single RA preamble (S3) to the first and second ANs during the determined overlapping time window. - receiving a first signal (S1) from the first AN and a second signal (S2) from the second AN ; - based on the received first and second signals (S1,S2), determining an overlapping time window during which a transmission from the wireless device is receivable by the first and second ANs ; and - transmitting , a single RA preamble (S3) to the first and second ANs during the determined overlapping time window.
A non-contact method to positively locate the edge position of a cutting blade used in the fabrication of barbed sutures comprising the steps of: i. setting a blade in a blade housing at an initial desired position, the blade housing having a hole through it and defining a measurement axis that extends through the hole, where the blade edge is disposed at least partially into the measurement axis; ii. positioning a light emitting device at a first side of the blade housing and aligned with the measurement axis iii. positioning a light receiving device at a second side of the blade housing and aligned with the measurement axis, where the blade housing is located between the first side and second side; iv. emitting light along the measurement axis from the light emitting device, through the hole, and received by the light receiving device; v. measuring the amount of light received by the light receiving device and providing a calibration value based upon the amount of light received. i. setting a blade in a blade housing at an initial desired position, the blade housing having a hole through it and defining a measurement axis that extends through the hole, where the blade edge is disposed at least partially into the measurement axis; ii. positioning a light emitting device at a first side of the blade housing and aligned with the measurement axis iii. positioning a light receiving device at a second side of the blade housing and aligned with the measurement axis, where the blade housing is located between the first side and second side; iv. emitting light along the measurement axis from the light emitting device, through the hole, and received by the light receiving device; v. measuring the amount of light received by the light receiving device and providing a calibration value based upon the amount of light received.
A method for measurement of neighbouring cells in a cellular mobile telecommunication network wherein a network side of the cellular mobile telecommunication network defines a measurement configuration including a list of neighbouring cells to be measured by a user equipment and which is sent by the network side to the user equipment in preparation of a cell handover, characterized in that the network side adds at least one group of neighbouring cells to the list included in the measurement configuration dependent on an individual measurement processing priority of the group of neighbouring cells defining the order of priority in which the groups of neighbouring cells are included into the list included in the measurment configuration and dependent on a predefined waiting time wherein a group of neighbouring cells is defined by a certain combination of the cell frequency and the supported cell radio access technology and wherein a measurement processing timer starts at the network side after said addition of the at least one group of neighbouring cells to the list included in the measurement configuration and expires after the predefined waiting time wherein a new group of neighbouring cells can only be added to the list included in the measurement configuration after the timer has already expired and wherein a measurement processing time is individually configured for a group of neighbouring cells by the network side and the predefined waiting time is set to the individual measurement processing time of the group of neighbouring cells which has been most recently added to the list included in the measurement configuration.
Method for manufacturing a spectacle lens, the spectacle lens comprising a lens substrate and at least one coating, the method comprising at least - Providing a lens substrate comprising an uncoated or precoated front surface and an uncoated or precoated back surface, - Applying at least one coating to at least one of the surfaces of the lens substrate, partially or completely, - Contacting the surface of the at least one coating, partially or completely, with at least one medium, - Obtaining a spectacle lens comprising a lens substrate and at least one coating, the surface of the at least one coating being modified, characterized in that the modification of the surface of the at least one coating is a diffusion-controlled surface modification resulting in a swelling of the at least one coating, the modification of the surface of the at least one coating is considering the individual peripheral refraction of at least one wearer's eye. - Providing a lens substrate comprising an uncoated or precoated front surface and an uncoated or precoated back surface, - Applying at least one coating to at least one of the surfaces of the lens substrate, partially or completely, - Contacting the surface of the at least one coating, partially or completely, with at least one medium, - Obtaining a spectacle lens comprising a lens substrate and at least one coating, the surface of the at least one coating being modified, the modification of the surface of the at least one coating is a diffusion-controlled surface modification resulting in a swelling of the at least one coating, the modification of the surface of the at least one coating is considering the individual peripheral refraction of at least one wearer's eye.
A heating assembly comprising: a nano alumina fabric comprising a glass fiber matrix; aluminum oxide fibers sized in nanometer dimensions and disposed therein; and a polymer resin impregnating the glass fiber matrix; a first adhesive ; a heating element , wherein the nano alumina fabric is attached to the heating element by the first adhesive ; a second adhesive ; and a glass pre-preg fabric , wherein the glass pre-preg fabric is attached to the heating element by the second adhesive on a side of the heating element opposite the nano alumina fabric . a nano alumina fabric comprising a glass fiber matrix; aluminum oxide fibers sized in nanometer dimensions and disposed therein; and a polymer resin impregnating the glass fiber matrix; a glass fiber matrix; aluminum oxide fibers sized in nanometer dimensions and disposed therein; and a polymer resin impregnating the glass fiber matrix; a first adhesive ; a heating element , wherein the nano alumina fabric is attached to the heating element by the first adhesive ; a second adhesive ; and a glass pre-preg fabric , wherein the glass pre-preg fabric is attached to the heating element by the second adhesive on a side of the heating element opposite the nano alumina fabric .
Method for using a system comprising a terminal device and a telecommunications network , wherein the telecommunications network comprises an access network and a core network , wherein, regarding a specific user equipment functionality, the telecommunications network initializes or provides a logical user equipment entity or functionality such that the terminal device , together with the logical user equipment entity or functionality , provides or realizes or is able to provide or realize the specific user equipment functionality, wherein the method comprises the following steps: -- in a first step, a logical user equipment identifier information is assigned by a network node of the telecommunications network to the terminal device , wherein the logical user equipment identifier information comprises a network identifier information, a permanent equipment identifier information related to the terminal device , and an identifier information relating to the logical user equipment entity or functionality , -- in a second step, subsequent to the first step, the logical user equipment identifier information is transmitted by the network node of the telecommunications network to the terminal device , wherein, in a step preceding the first step, the terminal device transmits a disaggregation request message to the telecommunications network , the disaggregation request message being related to the specific user equipment functionality and/or requirements of the specific user equipment functionality, wherein the logical user equipment identifier information is assigned to the terminal device and transmitted to the terminal device depending on the requested disaggregation of the specific user equipment functionality, and wherein the telecommunications network assigns or defines a location or a resource for implementing or realizing the disaggregation of the requested specific user equipment functionality, wherein the telecommunications network informs the terminal device about disaggregated services and pushes this information to the upper application layer, wherein a temporary identity is assigned by the telecommunications network to the disaggregated specific user equipment functionality, the temporary identity being related to or combined with the logical user equipment identifier information. -- in a first step, a logical user equipment identifier information is assigned by a network node of the telecommunications network to the terminal device , wherein the logical user equipment identifier information comprises a network identifier information, a permanent equipment identifier information related to the terminal device , and an identifier information relating to the logical user equipment entity or functionality , -- in a second step, subsequent to the first step, the logical user equipment identifier information is transmitted by the network node of the telecommunications network to the terminal device ,
A yokeless stator for an axial flux electrical machine , comprising: - a housing comprising a circumferential portion (44; 48); - a plurality of discrete stator teeth arranged within the circumferential portion, each discrete stator tooth comprising a ferromagnetic material and an electrical winding wound around said ferromagnetic material; - the housing further comprising a plurality of elongated portions (45; 72) extending in a radially inward direction from said circumferential portion, the elongated portions (45; 72) having a proximal end being mechanically connected to the circumferential portion and being in thermal contact with said circumferential portion, and having a distal portion or distal end being physically located between the electrical windings of adjacent stator teeth ; - an electrically isolating filling material filling empty space within said circumferential portion (44; 48) between said plurality of stator teeth and said plurality of elongated portions (45; 72), wherein said circumferential portion of said housing is made of a first non-ferromagnetic material and said elongated portions are made of a second non-ferromagnetic material, and characterised in that said housing comprises a laminated structure, said laminated structure comprising at least some of said plurality of inwardly directed elongated portions. - a housing comprising a circumferential portion (44; 48); - a plurality of discrete stator teeth arranged within the circumferential portion, each discrete stator tooth comprising a ferromagnetic material and an electrical winding wound around said ferromagnetic material; - the housing further comprising a plurality of elongated portions (45; 72) extending in a radially inward direction from said circumferential portion, - an electrically isolating filling material filling empty space within said circumferential portion (44; 48) between said plurality of stator teeth and said plurality of elongated portions (45; 72),
A method of forming a nipple for a baby bottle, comprising: forming a first conical wall section ; forming a second conical wall section molded adjacent the first conical wall section; preventing inwards depression of the second conical wall section; characterized by forming a vent hole in a side wall of the first conical wall section ; and providing a flap at an end of the vent hole to allow air to enter the nipple when in use but to close the vent hole when suction on the nipple ceases; and cutting an opening through the second conical wall section into an interior section of the nipple while preventing said inwards depression of the second conical wall section. forming a first conical wall section ; forming a second conical wall section molded adjacent the first conical wall section; preventing inwards depression of the second conical wall section; characterized by forming a vent hole in a side wall of the first conical wall section ; and providing a flap at an end of the vent hole to allow air to enter the nipple when in use but to close the vent hole when suction on the nipple ceases; and cutting an opening through the second conical wall section into an interior section of the nipple while preventing said inwards depression of the second conical wall section.
A method for transmitting hybrid automatic repeat request, HARQ, information, comprising: detecting , by a first node, N transmission blocks received from a second node and generating M bits of HARQ information according to a detection result; the M bits of HARQ information being used to indicate a receiving status of the N transmission blocks; among the M bits, M2 bits being used to indicate positions of k erroneous transmission blocks in the N transmission blocks, M2≤M; a length type of M2 including a first length type or a second length type; the first length type indicating a value of M2 being predefined, and the second length type indicating a value of M2 being determined based on k; and transmitting , by the first node, the HARQ information to the second node, wherein if M2<M, then an indication domain of M1 bits of the M bits is used to indicate a value of k or indicate the length type of M2, wherein M1 = M - M2, and wherein if M1 > 1, then the indication domain of the M1 bits is used to indicate the value of k; and if M1=1, then the indication domain of the M1 bits is used to indicate the length type of M2. detecting , by a first node, N transmission blocks received from a second node and generating M bits of HARQ information according to a detection result; the M bits of HARQ information being used to indicate a receiving status of the N transmission blocks; among the M bits, M2 bits being used to indicate positions of k erroneous transmission blocks in the N transmission blocks, M2≤M; a length type of M2 including a first length type or a second length type; the first length type indicating a value of M2 being predefined, and the second length type indicating a value of M2 being determined based on k; and transmitting , by the first node, the HARQ information to the second node, wherein if M2<M, then an indication domain of M1 bits of the M bits is used to indicate a value of k or indicate the length type of M2, wherein M1 = M - M2, and wherein if M1 > 1, then the indication domain of the M1 bits is used to indicate the value of k; and if M1=1, then the indication domain of the M1 bits is used to indicate the length type of M2.
An elongated aerosol-generating device capable of receiving an aerosol-generating article , comprising: a heater for heating the aerosol-generating article, the heater extending longitudinally with respect to the elongated aerosol-generating device and being configured for penetrating an internal portion of the aerosol-generating article; and an extractor for extracting the aerosol-generating article received in the aerosol-generating device, the extractor being slidable within the aerosol-generating device, the extractor being slidable between a first position and a second position, the first position being an operating position defined by the heater being in contact with the aerosol-generating article, and the second position being an extraction position defined by the heater being separated from the aerosol-generating article, wherein the extractor is capable of being removed from the aerosol-generating device for cleaning, wherein the extractor comprises a cavity for receiving the aerosol-generating article, a first aperture being defined through an end-wall of the cavity for allowing the heater to penetrate the cavity when the extractor is moved between the second position and the first position, in which the extractor further defines an air-flow channel for allowing air flow into the cavity, an inlet of the air-flow channel being positioned radially-outward of the first aperture; wherein the inlet of the air-flow channel is defined in a side-wall of the cavity. a heater for heating the aerosol-generating article, the heater extending longitudinally with respect to the elongated aerosol-generating device and being configured for penetrating an internal portion of the aerosol-generating article; and an extractor for extracting the aerosol-generating article received in the aerosol-generating device, the extractor being slidable within the aerosol-generating device, the extractor being slidable between a first position and a second position, the first position being an operating position defined by the heater being in contact with the aerosol-generating article, and the second position being an extraction position defined by the heater being separated from the aerosol-generating article, wherein the extractor is capable of being removed from the aerosol-generating device for cleaning, wherein the extractor comprises a cavity for receiving the aerosol-generating article, a first aperture being defined through an end-wall of the cavity for allowing the heater to penetrate the cavity when the extractor is moved between the second position and the first position, in which the extractor further defines an air-flow channel for allowing air flow into the cavity, an inlet of the air-flow channel being positioned radially-outward of the first aperture; wherein the inlet of the air-flow channel is defined in a side-wall of the cavity.
A method for enhancing the chemiluminescent signal of a chemiluminogenic compound in a chemiluminescent reaction mixture in a chemiluminescent reaction which comprises oxidizing the chemiluminogenic compound in the presence of an effective amount of an enhancer to obtain an enhanced chemiluminescent signal, wherein the chemiluminogenic compound is an acridinium compound, preferably an acridinium ester or an acridinium sulfonamide, wherein said enhancer is a compound or a mixture of two, three or more compounds, and wherein said enhancer compound or each of the enhancer compounds is selected from the group consisting of quarternary amine cationic substances of formula (I) wherein R 1 is C 3 - C 20 alkyl or alkenyl; and R 2 and R 3 are independently from each other C 1 - C 4 alkyl or alkenyl; and R 4 , R 5 , R 6 , R 7 and R 8 are independently from each other hydrogen, alkyl, alkenyl; and X 1- is halogenide or hydroxyl-ion, preferably chloride or bromide. wherein the chemiluminogenic compound is an acridinium compound, preferably an acridinium ester or an acridinium sulfonamide, wherein said enhancer is a compound or a mixture of two, three or more compounds, and wherein said enhancer compound or each of the enhancer compounds is selected from the group consisting of quarternary amine cationic substances of formula (I) wherein R 1 is C 3 - C 20 alkyl or alkenyl; and R 2 and R 3 are independently from each other C 1 - C 4 alkyl or alkenyl; and R 4 , R 5 , R 6 , R 7 and R 8 are independently from each other hydrogen, alkyl, alkenyl; and X 1- is halogenide or hydroxyl-ion, preferably chloride or bromide.