mhurhangee/patent-ind-claim-en huggingface dataset:
A method for performing role switch between a first device operating as a master and a second device operating as a slave, the method comprising: receiving , by the first device , packets from a host device ; forwarding the received packets from the first device to the second device ; performing a first stage role switch at the first and second devices , the first stage role switch comprising: establishing a communication link between the second device and the host device ; and notifying the host device that the second device is operating as a new master; receiving, by the second device , packets from the host device ; and forwarding the received packets from the second device to the first device according to a preset schedule ; characterized in that when audio buffers for the received packets of the first device and the second device reach a predetermined level, performing a second stage role switch at the first and second devices , the second stage role switch comprising passing, from the first device to the second device , control of timing for sending packets from the second device as the new master to the first device as the new slave; the method further comprising: increasing , prior to the first stage role switch, a central processing unit, CPU, clock rate in each of the first device and the second device ; and decreasing, after the second stage role switch, the CPU clock rates in the first and second devices . receiving , by the first device , packets from a host device ; forwarding the received packets from the first device to the second device ; performing a first stage role switch at the first and second devices , the first stage role switch comprising: establishing a communication link between the second device and the host device ; and notifying the host device that the second device is operating as a new master; establishing a communication link between the second device and the host device ; and notifying the host device that the second device is operating as a new master; receiving, by the second device , packets from the host device ; and forwarding the received packets from the second device to the first device according to a preset schedule ; characterized in that when audio buffers for the received packets of the first device and the second device reach a predetermined level, performing a second stage role switch at the first and second devices , the second stage role switch comprising passing, from the first device to the second device , control of timing for sending packets from the second device as the new master to the first device as the new slave; the method further comprising: increasing , prior to the first stage role switch, a central processing unit, CPU, clock rate in each of the first device and the second device ; and decreasing, after the second stage role switch, the CPU clock rates in the first and second devices . increasing , prior to the first stage role switch, a central processing unit, CPU, clock rate in each of the first device and the second device ; and decreasing, after the second stage role switch, the CPU clock rates in the first and second devices .
An insulated glass unit comprising: a first glass pane having an outer surface and an inner surface ; a second glass pane having an outer surface and an inner surface , wherein the second glass pane comprises a laminate structure; wherein any one or more of the first glass pane and the second glass pane is fusion-formed and has a thickness of 0.4 mm to not greater than 1.5 mm, a third glass pane disposed between the first and second glass panes , wherein the third glass pane is fusion-formed and comprises a thickness of at least 0.4 mm to not greater than 0.7 mm, a first sealed gap space defined between the first glass pane and the second glass pane ; a second sealed gap space defined between the first glass pane and the third glass pane ; a third sealed gap space defined between the second glass pane and the third glass pane ; wherein the sealed gap spaces are filled with an inert gas; and wherein the third glass pane has a channel or opening allowing the gas in the second sealed gap space to contact the gas in the third sealed gap space . a first glass pane having an outer surface and an inner surface ; a second glass pane having an outer surface and an inner surface , wherein the second glass pane comprises a laminate structure; wherein any one or more of the first glass pane and the second glass pane is fusion-formed and has a thickness of 0.4 mm to not greater than 1.5 mm, a third glass pane disposed between the first and second glass panes , wherein the third glass pane is fusion-formed and comprises a thickness of at least 0.4 mm to not greater than 0.7 mm, a first sealed gap space defined between the first glass pane and the second glass pane ; a second sealed gap space defined between the first glass pane and the third glass pane ; a third sealed gap space defined between the second glass pane and the third glass pane ; wherein the sealed gap spaces are filled with an inert gas; and wherein the third glass pane has a channel or opening allowing the gas in the second sealed gap space to contact the gas in the third sealed gap space .
An apparatus that enables backup service layer entities, the apparatus comprising: a processor; and a memory coupled with the processor, the memory comprising executable instructions stored thereon that when executed by the processor cause the processor to effectuate operations comprising: obtaining, from an application entity, a request message to register with the apparatus, wherein the apparatus is a service layer registrar entity ; based on the request message, reporting the request message to a server ; based on the reported request message, obtaining a list of one or more inactive service layer entities that are used as backup for the application entity, wherein the reported request message comprises a reliability requirement for active service layer entities or inactive service layer entities; sending an inactive registration request to create an inactive service layer entity for the application entity; and triggering the created inactive service layer entity of the list of one or more inactive service layer entities to become active when the apparatus is non-functional, wherein a determination of non-functional is based on the apparatus not meeting the reliability requirement. a processor; and a memory coupled with the processor, the memory comprising executable instructions stored thereon that when executed by the processor cause the processor to effectuate operations comprising: obtaining, from an application entity, a request message to register with the apparatus, wherein the apparatus is a service layer registrar entity ; based on the request message, reporting the request message to a server ; based on the reported request message, obtaining a list of one or more inactive service layer entities that are used as backup for the application entity, wherein the reported request message comprises a reliability requirement for active service layer entities or inactive service layer entities; sending an inactive registration request to create an inactive service layer entity for the application entity; and triggering the created obtaining, from an application entity, a request message to register with the apparatus, wherein the apparatus is a service layer registrar entity ; based on the request message, reporting the request message to a server ; based on the reported request message, obtaining a list of one or more inactive service layer entities that are used as backup for the application entity, wherein the reported request message comprises a reliability requirement for active service layer entities or inactive service layer entities; sending an inactive registration request to create an inactive service layer entity for the application entity; and triggering the created inactive service layer entity of the list of one or more inactive service layer entities to become active when the apparatus is non-functional, wherein a determination of non-functional is based on the apparatus not meeting the reliability requirement.
A polyphenol-oxidiser composition for use in antimicrobial therapy, the composition comprising: a. a water-soluble extract of a plant tissue containing polyphenols including a tannin; and b. an exogenous reactive oxygen species including hydrogen peroxide; and wherein the composition is substantially free of active reducing agents and enzymes. a. a water-soluble extract of a plant tissue containing polyphenols including a tannin; and b. an exogenous reactive oxygen species including hydrogen peroxide; and
An isolated nucleic acid molecule that confers glyphosate tolerance to a plant comprising a polynucleotide operably linked to a promoter, wherein the polynucleotide encodes a 5-enolpyruvylshikimate-3-phosphate synthase (EPSPS) linked to a chloroplast transit peptide (CTP), wherein the EPSPS is at least 90% identical to SEQ ID NO:1, and wherein the EPSPS comprises an alanine at the position corresponding to position 84 of SEQ ID NO:1.
A method for autonomous segmentation of three-dimensional, 3D, nervous system structure from raw medical images, the method comprising: receiving a 3D scan volume comprising a set of medical scan images of a region of the anatomy; receiving bony structure segmentation data comprising segmentation of a bony structure in the 3D scan volume; characterized by further comprising the steps of: autonomously processing a subsection of the 3D scan volume as a 3D region of interest, ROI, by combining the raw medical scan images and the bony structure segmentation data, wherein the 3D ROI contains a subvolume of the bony structure with a portion of surrounding tissues including the nervous system structure, wherein the 3D ROI includes 3D matrices, each 3D matrix containing information about voxel distribution along X, Y and Z axes with bone density obtained from the 3D scan volume and classification information data for the bony structure; and autonomously segmenting the nervous system structure by processing the ROI to determine the 3D shape, location, and size of the nervous system structure by a pre-trained convolutional neural network, CNN, . receiving a 3D scan volume comprising a set of medical scan images of a region of the anatomy; receiving bony structure segmentation data comprising segmentation of a bony structure in the 3D scan volume; characterized by further comprising the steps of: autonomously processing a subsection of the 3D scan volume as a 3D region of interest, ROI, by combining the raw medical scan images and the bony structure segmentation data, wherein the 3D ROI contains a subvolume of the bony structure with a portion of surrounding tissues including the nervous system structure, wherein the 3D ROI includes 3D matrices, each 3D matrix containing information about voxel distribution along X, Y and Z axes with bone density obtained from the 3D scan volume and classification information data for the bony structure; and autonomously segmenting the nervous system structure by processing the ROI to determine the 3D shape, location, and size of the nervous system structure by a pre-trained convolutional neural network, CNN, .
A luminous device, in particular for a motor vehicle, comprising a light guide , the light guide comprising a first element , referred to as the main branch, and a second element , referred to as the intermediate branch, the main branch comprising two free ends and extending longitudinally from one free end to the other , the intermediate branch extending between two zones of the main branch , called connection zones, the connection zones being at a distance from each other and distinct from the free ends of the main branch , the intermediate branch being joined in continuity of material to both of the connection zones , characterized in that the luminous device also comprises a light-emitting connector intended to be arranged between two areas of the main branch , called connection areas, the light-emitting connector being designed to extend from one of the connection areas , 302) to the other connection region , the connection regions being spaced apart from one another and separate from the free ends of the main branch , the light-emitting connection being designed to be supplied with light via the intermediate branch , the light-emitting connector being designed to be fitted on the light guide .
A method of controlling the temperature of a hair iron to prevent damage to hair being ironed by the hair iron , the method comprising: whilst the hair iron is being applied to the hair, determining a temperature change of one or more plates of the hair iron over a time period starting from an initial application of the hair iron to the hair being ironed; and if the temperature change of the one or more plates over the time period is larger than a threshold, reducing the power supplied to the one or more plates . whilst the hair iron is being applied to the hair, determining a temperature change of one or more plates of the hair iron over a time period starting from an initial application of the hair iron to the hair being ironed; and if the temperature change of the one or more plates over the time period is larger than a threshold, reducing the power supplied to the one or more plates .
Device for reinforcing a structural element in a motor vehicle, comprising: a reinforcing element which has a longitudinal axis and can be arranged in a cavity of the structural element, wherein the reinforcing element comprises side walls , which extend in the direction of the longitudinal axis , wherein a fastening element for the preliminary fixing of the reinforcing element on the structural element is arranged on a first side wall , characterized in that , at a location opposite the fastening element , a side wall located opposite the first side wall has a closed surface for connecting to the structural element , and in that the reinforcing element has a front and a rear wall , arranged transversely in relation to the longitudinal axis , and in that the reinforcing element comprises ribs , which connect at least two side walls to one another. a reinforcing element which has a longitudinal axis and can be arranged in a cavity of the structural element, wherein the reinforcing element comprises side walls , which extend in the direction of the longitudinal axis , wherein a fastening element for the preliminary fixing of the reinforcing element on the structural element is arranged on a first side wall , characterized in that , at a location opposite the fastening element , a side wall located opposite the first side wall has a closed surface for connecting to the structural element , and in that the reinforcing element has a front and a rear wall , arranged transversely in relation to the longitudinal axis , and in that the reinforcing element comprises ribs , which connect at least two side walls to one another.
Hood for a taphole and a tapping spout in a submerged arc furnace in the production of silicon wherein the hood has at least two suction ducts which are placed asymmetrically on either side of the hood .
A process for cleaning recyclable plastic material comprising the following steps: (a) providing a contaminated recyclable non-styrene based plastic material; (b) contacting the contaminated recyclable plastic material at a temperature in the range of from 5-35 °C with a liquid mixture which comprises a water phase and a separate solvent phase to remove contaminants from the contaminated recyclable plastic material, whereby the solvent phase comprises a fatty acid ester and is present in the form of droplets which are at least partly distributed in the water phase, wherein the fatty acid ester in the solvent phase has the general formula (I) of R 1 -(C=O)-R 2 wherein R 1 is an alkyl group comprising between 8-24 carbon atoms, and R 2 is an alkyl-alcohol group comprising between 1-4 carbon atoms, and wherein the water phase is present in an amount of more than 50 wt. %, based on total weight of the liquid mixture; (c) separating at least part of recyclable plastic material as obtained in step (b) from the liquid mixture as obtained in step (b) which contains contaminants removed from the contaminated recyclable plastic material; (d) allowing at least part of the liquid mixture as obtained in step (c) to phase-separate into a water phase and a solvent phase which contains contaminants removed from the contaminated recyclable plastic material; and (e) recycling at least part of the water phase as obtained in step (d) to step (b). (a) providing a contaminated recyclable non-styrene based plastic material; (b) contacting the contaminated recyclable plastic material at a temperature in the range of from 5-35 °C with a liquid mixture which comprises a water phase and a separate solvent phase to remove contaminants from the contaminated recyclable plastic material, whereby the solvent phase comprises a fatty acid ester and is present in the form of droplets which are at least partly distributed in the water phase, wherein the fatty acid ester in the solvent phase has the general formula (I) of R 1 -(C=O)-R 2 wherein R 1 is an alkyl group comprising between 8-24 carbon atoms, and R 2 is an alkyl-alcohol group comprising between 1-4 carbon atoms, and wherein the water phase is present in an amount of more than 50 wt. %, based on total weight of the liquid mixture; (c) separating at least part of recyclable plastic material as obtained in step (b) from the liquid mixture as obtained in step (b) which contains contaminants removed from the contaminated recyclable plastic material; (d) allowing at least part of the liquid mixture as obtained in step (c) to phase-separate into a water phase and a solvent phase which contains contaminants removed from the contaminated recyclable plastic material; and (e) recycling at least part of the water phase as obtained in step (d) to step (b).
A method for controlling the manufacturing of one or more 3D products in one physical printing batch by additive manufacturing using a layer-by-layer technique using a 3D printing device , said 3D printing device comprising a control unit adapted to govern a plurality of process parameters, said physical printing batch having a physical 3D printing volume, said method comprising the steps of; - providing a virtual 3D printing volume representative of said physical 3D printing volume (PV) of said batch; - partitioning said virtual 3D printing volume into at least a first and a second virtual zone (50a-50h); - assigning said first zone (50a-50h) with a first process parameter, and said second zone (50b-50h) with a second process parameter, the first process parameter and the second process parameter being of the same kind but having different values; whereby said first process parameter is different with respect to said second process parameter - providing a virtual printing batch representative of said physical printing batch, said virtual printing batch consisting of one or more 3D models corresponding to said one or more 3D products; and - arranging said virtual printing batch within said virtual 3D printing volume such that said virtual printing batch is arranged in said virtual 3D printing volume with a first part of said virtual printing batch positioned in said first virtual zone of said virtual 3D printing volume and a second part of said virtual printing batch positioned in said second virtual zone of said virtual 3D printing volume. - providing a virtual 3D printing volume representative of said physical 3D printing volume (PV) of said batch; - partitioning said virtual 3D printing volume into at least a first and a second virtual zone (50a-50h); - assigning said first zone (50a-50h) with a first process parameter, and said second zone (50b-50h) with a second process parameter, the first process parameter and the second process parameter being of the same kind but having different values; whereby said first process parameter is different with respect to said second process parameter - providing a virtual printing batch representative of said physical printing batch, said virtual printing batch consisting of one or more 3D models corresponding to said one or more 3D products; and - arranging said virtual printing batch within said virtual 3D printing volume such that said virtual printing batch is arranged in said virtual 3D printing volume with a first part of said virtual printing batch positioned in said first virtual zone of said virtual 3D printing volume and a second part of said virtual printing batch positioned in said second virtual zone of said virtual 3D printing volume.
A method performed by a communications device for providing an improved channel access procedure for transmission of data, wherein the communications device and an Access Point, AP, are operating in a wireless communications network , and wherein the method comprises: - performing a channel sensing procedure using a second slot counter, Bn, which second slot counter, Bn, is equal to a random backoff value or a first slot counter, Sn; - when a trigger frame is received from the AP during the channel sensing procedure, which trigger frame triggers access to a channel, setting the first slot counter, Sn, equal to the second slot counter, Bn, and transmitting the data to the AP on the channel; and - in the absence of a received trigger frame and when the channel sensing procedure is completed, setting the first slot counter Sn equal to a preset value and transmitting the data to the AP . - performing a channel sensing procedure using a second slot counter, Bn, which second slot counter, Bn, is equal to a random backoff value or a first slot counter, Sn; - when a trigger frame is received from the AP during the channel sensing procedure, which trigger frame triggers access to a channel, setting the first slot counter, Sn, equal to the second slot counter, Bn, and transmitting the data to the AP on the channel; and - in the absence of a received trigger frame and when the channel sensing procedure is completed, setting the first slot counter Sn equal to a preset value and transmitting the data to the AP .