mhurhangee/patent-ind-claim-en huggingface dataset:
Thermal container comprising at least one planar rear cushion and a planar front cushion extending in a different plane above the rear cushion , which cushions are interconnected on opposite lateral edges and on a further lateral edge of the thermal container and are formed in one piece or pass over into one another via a connecting piece, such that a cavity is formed between the rear cushion and the front cushion , characterized in that the rear cushion and the front cushion are each formed from at least one bag and a fibrous material located in the at least one bag , wherein the at least one bag is made of a non-woven fabric made of thermoplastic material and the fibrous material is a stack of a plurality of individual layers of creped fibrous material lying on top of one another in a planar manner, wherein each of the individual layers comprises a creping height of ≥ 0.3 mm.
A data transmission method based on an orthogonal frequency division multiplexing technology, the method comprising: processing input data to obtain a modulated signal, wherein the modulated signal comprises continuous subcarriers in multiple frequency domains (step 101); grouping the continuous subcarriers in the multiple frequency domains according to grouping information, to obtain multiple carrier groups, wherein each carrier group comprises at least one of the subcarriers, the grouping information is related to a correspondence between a non-linear noise and a frequency, and a difference between non-linear noises corresponding to subcarriers in each carrier group is in a threshold range (step 102); separately performing differential phase encoding on the subcarriers in each carrier group, to obtain encoded subcarriers of the subcarriers (step 103); adjusting, according to a sequence, the encoded subcarriers of the continuous subcarriers to frequency locations that are symmetric on a positive frequency side and a negative frequency side, to obtain a to-be-transmitted signal (step 104); and performing frequency-to-time conversion processing on the to-be-transmitted signal, and sending a signal to a receiver by using a non-linear optical channel (step 105). processing input data to obtain a modulated signal, wherein the modulated signal comprises continuous subcarriers in multiple frequency domains (step 101); grouping the continuous subcarriers in the multiple frequency domains according to grouping information, to obtain multiple carrier groups, wherein each carrier group comprises at least one of the subcarriers, the grouping information is related to a correspondence between a non-linear noise and a frequency, and a difference between non-linear noises corresponding to subcarriers in each carrier group is in a threshold range (step 102); separately performing differential phase encoding on the subcarriers in each carrier group, to obtain encoded subcarriers of the subcarriers (step 103); adjusting, according to a sequence, the encoded subcarriers of the continuous subcarriers to frequency locations that are symmetric on a positive frequency side and a negative frequency side, to obtain a to-be-transmitted signal (step 104); and performing frequency-to-time conversion processing on the to-be-transmitted signal, and sending a signal to a receiver by using a non-linear optical channel (step 105).
A stall reduction propeller comprising at least one blade connected to an axis , where the propeller comprises: • ducts arranged along the length of the blade ; • nozzles arranged on the surface of the blade and connected to the ducts ; • a hub connected to the ducts ; characterized in that the nozzles are located on the middle front part of the extrados ; and • a compressor is connected to the axis and located inside the hub ; where the compressor generates a controlled airflow which is ducted through the hub and the ducts until it is expelled trough the nozzles , providing an additional airflow over the extrados of the blade which forces the airflow to become laminar, thus allowing the propeller to maintain the boundary layer over the blade. • ducts arranged along the length of the blade ; • nozzles arranged on the surface of the blade and connected to the ducts ; • a hub connected to the ducts ; characterized in that the nozzles are located on the middle front part of the extrados ; and • a compressor is connected to the axis and located inside the hub ; where the compressor generates a controlled airflow which is ducted through the hub and the ducts until it is expelled trough the nozzles , providing an additional airflow over the extrados of the blade which forces the airflow to become laminar, thus allowing the propeller to maintain the boundary layer over the blade.
A method performed by a wireless device adapted to operate in a wireless communication system, the method comprising: i) if a media access control, MAC, entity of the wireless device has been configured with a sidelink resource allocation mode 2 to transmit using pools of resources in a carrier, and ii) if the MAC entity of the wireless device has selected to create a selected sidelink grant corresponding to transmissions of multiple MAC protocol data units, PDUs, and sidelink, SL, data is available in a logical channel, considering a set of resources as a selected sidelink grant; performing (S1710) a transmission of a first MAC PDU according to the selected sidelink grant; if the selected sidelink grant is available for a retransmission of the first MAC PDU which has been positively acknowledged, clearing physical sidelink control channel, PSCCH, durations and physical sidelink shared channel, PSSCH, durations corresponding to retransmissions of the first MAC PDU from the selected sidelink grant; and performing (S1740) a transmission of a second MAC PDU according to the selected sidelink grant. i) if a media access control, MAC, entity of the wireless device has been configured with a sidelink resource allocation mode 2 to transmit using pools of resources in a carrier, and ii) if the MAC entity of the wireless device has selected to create a selected sidelink grant corresponding to transmissions of multiple MAC protocol data units, PDUs, and sidelink, SL, data is available in a logical channel, considering a set of resources as a selected sidelink grant; performing (S1710) a transmission of a first MAC PDU according to the selected sidelink grant; if the selected sidelink grant is available for a retransmission of the first MAC PDU which has been positively acknowledged, clearing physical sidelink control channel, PSCCH, durations and physical sidelink shared channel, PSSCH, durations corresponding to retransmissions of the first MAC PDU from the selected sidelink grant; and performing (S1740) a transmission of a second MAC PDU according to the selected sidelink grant. performing (S1710) a transmission of a first MAC PDU according to the selected sidelink grant; if the selected sidelink grant is available for a retransmission of the first MAC PDU which has been positively acknowledged, clearing physical sidelink control channel, PSCCH, durations and physical sidelink shared channel, PSSCH, durations corresponding to retransmissions of the first MAC PDU from the selected sidelink grant; and performing (S1740) a transmission of a second MAC PDU according to the selected sidelink grant.
A glass manufacturing apparatus, comprising: a metallic vessel configured to convey molten glass; an enclosure disposed about the metallic vessel; an electrical flange attached to the metallic vessel, the electrical flange comprising an electrode portion extending away from the metallic vessel and through the enclosure; and an electrical flange support apparatus coupled to the electrode portion. a metallic vessel configured to convey molten glass; an enclosure disposed about the metallic vessel; an electrical flange attached to the metallic vessel, the electrical flange comprising an electrode portion extending away from the metallic vessel and through the enclosure; and an electrical flange support apparatus coupled to the electrode portion.
Inflatable body for drying and/or pressing a piece of textile , wherein the inflatable body has at least one set of a number of chambers connected to one another by means of a moveable connecting element , characterised in that in each case two of the chambers are in contact by way of an overpressure element , preferably an overpressure valve , such that an exchange of air and/or steam is possible between the chambers and the number of chambers can be filled consecutively with air and/or steam starting from a first chamber .
A method for providing channel quality indicator, CQI, reports, the method comprising: providing signal to interference and noise ratio, SINR, values based on bandwidth-specific channel and noise data of a radio channel ; determining a correction factor for the SINR values based on a difference of a noise power value and a time-filtered version of the noise power value ; and providing the CQI reports based on processing the SINR values corrected by the correction factor according to a predetermined CQI metric . providing signal to interference and noise ratio, SINR, values based on bandwidth-specific channel and noise data of a radio channel ; determining a correction factor for the SINR values based on a difference of a noise power value and a time-filtered version of the noise power value ; and providing the CQI reports based on processing the SINR values corrected by the correction factor according to a predetermined CQI metric .
A method of decoding a frame performed at a decoder of a computer device, the method comprising: receiving a second audio frame , wherein the second audio frame follows a first audio frame (131 to 133) in an audio signal, wherein the second audio frame includes a first number of bits allocated to primary coding information associated with the second audio frame , a second number of bits allocated to redundant coding information associated with the first audio frame (131 to 133), and an indicator of a frame type of the first audio frame (131 to 133), wherein the indicator of the frame type of the first audio frame (131 to 133) indicates a category of frame to which the first audio frame (131 to 133) belongs selected from a plurality of categories including: i) an all-predictive frame, ii) a noise-excited linear prediction frame, iii) a no-predictive frame, and iv) a frame carrying no redundant coding information; and in response to a frame erasure condition associated with the first audio frame: determining, based on the indicator of the frame type of the first audio frame (131 to 134) that is included in the second audio frame , the second number of bits of the second audio frame that are allocated to the redundant coding information associated with the first audio frame (131 to 134) and decoding the first audio frame based on the redundant coding information. receiving a second audio frame , wherein the second audio frame follows a first audio frame (131 to 133) in an audio signal, wherein the second audio frame includes a first number of bits allocated to primary coding information associated with the second audio frame , a second number of bits allocated to redundant coding information associated with the first audio frame (131 to 133), and an indicator of a frame type of the first audio frame (131 to 133), wherein the indicator of the frame type of the first audio frame (131 to 133) indicates a category of frame to which the first audio frame (131 to 133) belongs selected from a plurality of categories including: i) an all-predictive frame, ii) a noise-excited linear prediction frame, iii) a no-predictive frame, and iv) a frame carrying no redundant coding information; and in response to a frame erasure condition associated with the first audio frame: determining, based on the indicator of the frame type of the first audio frame (131 to 134) that is included in the second audio frame , the second number of bits of the second audio frame that are allocated to the redundant coding information associated with the first audio frame (131 to 134) and decoding the first audio frame based on the redundant coding information.
A method for manufacturing a light armored curved laminated glazing intended to be fitted in an opening of a transport vehicle suitable for the massproduction fitting of a curved laminated glazing containing two glass sheets, characterized in that use is made of at least three constituent curved glass sheets of such mass-produced curved laminated glazing containing two glass sheets, including both sheets from one and the same such mass-produced curved laminated glazing containing two glass sheets, which have been previously bent together by gravity and in that joined to the two glass sheets forming said one and the same mass-produced curved laminated glazing, on the side of the outer sheet thereof, is at least one outer glass sheet intended for another mass-produced curved laminated glazing containing two glass sheets, and/or on the side of the inner sheet thereof, is at least one inner glass sheet intended for another mass-produced curved laminated glazing containing two glass sheets, or even in that joined to the two glass sheets forming said one and the same mass-produced curved laminated glazing, on one side or the other thereof, are two glass sheets having been bent together in pairs by gravity, in an adjacent position, intended for at least another mass-produced curved laminated glazing containing two glass sheets.
An electrical device comprising a crosslinked layer obtained from a crosslinkable polymer composition comprising a polymer material and particles having polyhedral structure, characterized in that the particles have a melting point of no more than 200 °C, and the polymer material comprises one or more olefin polymers.
A server node for controlling access to a licensed component, the server node comprising a processor configured to: receive a license creation message comprising a license creation parameter; acquire, from a blockchain, a license factory smart contract in response to receipt of the license creation message, the license factory smart contract comprising license factory logic executable to generate a license smart contract; generate, based on the license creation parameter and execution of the license factory logic, the license smart contract comprising licensing logic executable to validate an access event corresponding to a licensed component configured on a remote device; append a datablock to the blockchain, the datablock comprising the license smart contract; synchronize the blockchain across a plurality of network nodes; and control access to the licensed component configured on the remote device by execution of the licensing logic. receive a license creation message comprising a license creation parameter; acquire, from a blockchain, a license factory smart contract in response to receipt of the license creation message, the license factory smart contract comprising license factory logic executable to generate a license smart contract; generate, based on the license creation parameter and execution of the license factory logic, the license smart contract comprising licensing logic executable to validate an access event corresponding to a licensed component configured on a remote device; append a datablock to the blockchain, the datablock comprising the license smart contract; synchronize the blockchain across a plurality of network nodes; and control access to the licensed component configured on the remote device by execution of the licensing logic.
A device-implemented method of modeling a dose of radiation in a subject in an applied magnetic field, wherein a portion of the modeled dose includes a return electron effect, the modeling including computer-simulated electrons leaving and returning to a region due to a modeled Lorentz force induced by the simulated applied magnetic field, the method comprising: receiving stored image data including higher density voxels and lower density voxels; calculating, using a computer processor circuit accessing the stored image data, a cumulative path length datum of a computer-simulated electron leaving a higher density voxel and entering a lower density voxel, and setting the cumulative path length datum to zero when the computer-simulated electron returns from a lower density voxel to a higher density voxel; and when the cumulative path length datum is determined by the computer processor circuit to exceed a specified path length threshold datum in one or more lower density voxels in the applied magnetic field, modeling a trajectory of the electron in the one or more lower density voxels as linear ballistic motion aligned with the applied magnetic field. receiving stored image data including higher density voxels and lower density voxels; calculating, using a computer processor circuit accessing the stored image data, a cumulative path length datum of a computer-simulated electron leaving a higher density voxel and entering a lower density voxel, and setting the cumulative path length datum to zero when the computer-simulated electron returns from a lower density voxel to a higher density voxel; and when the cumulative path length datum is determined by the computer processor circuit to exceed a specified path length threshold datum in one or more lower density voxels in the applied magnetic field, modeling a trajectory of the electron in the one or more lower density voxels as linear ballistic motion aligned with the applied magnetic field.
Data logger having an electronic part , a battery part and a contact region , wherein the electronic part has a sensor signal-processing device and a measuring sensor connected thereto, and the battery part has a battery for supplying at least the sensor signal-processing device , wherein the electronic part is arranged in an electronic housing part , and the battery part is arranged in a battery housing part , wherein the battery housing part can be detachably connected to the electronic housing part via a coupling , wherein a sealing means is formed on the coupling , by means of which sealing means the contact region is sealed with respect to the outside with contacts of the electronic part and corresponding mating contacts of the battery part in the coupled state of the coupling , and wherein in the uncoupled state of the coupling the contacts are electrically isolated from the corresponding mating contacts , characterized in that the contacts and the corresponding mating contacts are arranged symmetrically about a plug-in axis and/or rotational axis which is predefined and distinguished with respect to coupling by the relative movement, which ensures that the formation of contact can be established in a plurality of orientations of the battery part with respect to the electronic part .
A kit comprising at least two separate compartments: a first compartment comprising a reservoir that comprises a single application dosage of a topical medicament; and a second compartment at least partially sharing at least one wall with the first compartment, the second compartment comprising either a single lumen glove configured to cover a single digit or two digits of a hand of a user, or a dual lumen glove configured to cover two digits of the hand of the user, wherein the glove comprises a distal portion that contacts substantially all of the perimeter area of the finger and a proximal skirt portion having a greater diameter than the distal portion that fans out and covers a part of the hand that is adjacent to the finger within the distal portion; wherein the glove is configured to allow a portion of the proximal end of the glove to be presented to and available to the user to grasp in order to remove the glove from the second compartment without the user having to contact other portions of the exterior of the glove; and wherein the kit is configured for a single use prior to disposal. a first compartment comprising a reservoir that comprises a single application dosage of a topical medicament; and a second compartment at least partially sharing at least one wall with the first compartment, the second compartment comprising either a single lumen glove configured to cover a single digit or two digits of a hand of a user, or a dual lumen glove configured to cover two digits of the hand of the user, wherein the glove comprises a distal portion that contacts substantially all of the perimeter area of the finger and a proximal skirt portion having a greater diameter than the distal portion that fans out and covers a part of the hand that is adjacent to the finger within the distal portion; wherein the glove is configured to allow a portion of the proximal end of the glove to be presented to and available to the user to grasp in order to remove the glove from the second compartment without the user having to contact other portions of the exterior of the glove; and wherein the kit is configured for a single use prior to disposal.
Tyre comprising a tread , the tyre comprising at least one channel that is intended to open up after a given amount of wear in order to form a groove, this channel comprising two opposite walls connected by a bottom and at least one wear indicator on this bottom, the wear indicator comprising a contact face that is intended to come into contact with a road surface when the tyre reaches a wear limit, this tread being characterized in that the contact face of the wear indicator comprises means that give it lightness known as first lightness (L*1), the bottom of the channel comprising means that give it lightness known as second lightness (L*2), the lightness being expressed using a scale that ranges from 0 to 100 according to the L*a*b* colour model established by the International Commission on Illumination, this tread being such that the first lightness is less than the second lightness in order to create a contrast between the bottom of the channel and the contact face of the wear indicator, the means for obtaining the first lightness corresponding to a texture formed by integrally formed motifs with a repetitive mean spacing at least equal to 0.1 mm and at most equal to 0.6 mm.
A process for making a carbon article comprising the steps of: (a) providing a carbon powder; (b) depositing a layer of the powder, wherein the step of depositing a layer of powder provides a powder packing density of at least 40%; (c) ink-jet depositing a binder onto the layer in a pattern that corresponds to a slice of the article; (d) repeating the steps (b) and (c) for additional layers of the powder and additional patterns, each of which additional patterns corresponds to an additional slice of the article, until a powder version of the article is completed; and (e) curing the powder version of the article at a temperature at which at least a portion of the binder cures, wherein the cured printed article has a binder content ranging from 1% to 5% by weight. (a) providing a carbon powder; (b) depositing a layer of the powder, wherein the step of depositing a layer of powder provides a powder packing density of at least 40%; (c) ink-jet depositing a binder onto the layer in a pattern that corresponds to a slice of the article; (d) repeating the steps (b) and (c) for additional layers of the powder and additional patterns, each of which additional patterns corresponds to an additional slice of the article, until a powder version of the article is completed; and (e) curing the powder version of the article at a temperature at which at least a portion of the binder cures, wherein the cured printed article has a binder content ranging from 1% to 5% by weight.