mhurhangee/patent-ind-claim-en huggingface dataset:
Method for establishing a vehicle network from at least two access points and a WLAN client, characterized by the following steps: a) the WLAN client acquires connection data of an access point of a first vehicle and of an access point of a second vehicle , in each case comprising a radio network identifier of the relevant access point, b) the WLAN client connects to the access point of the second vehicle , c) the WLAN client sends the connection data of the access point of the first vehicle , including the radio network identifier of the access point of the first vehicle , to the access point of the second vehicle , d) the access point of the second vehicle accepts the radio network identifier of the access point of the first vehicle , connects to the access point of the first vehicle via WDS and thus forms a single network visible to the WLAN client with the access point of the first vehicle . a) the WLAN client acquires connection data of an access point of a first vehicle and of an access point of a second vehicle , in each case comprising a radio network identifier of the relevant access point, b) the WLAN client connects to the access point of the second vehicle , c) the WLAN client sends the connection data of the access point of the first vehicle , including the radio network identifier of the access point of the first vehicle , to the access point of the second vehicle , d) the access point of the second vehicle accepts the radio network identifier of the access point of the first vehicle , connects to the access point of the first vehicle via WDS and thus forms a single network visible to the WLAN client with the access point of the first vehicle .
A chemical compound having a structure represented by Formula (A) below: wherein: Backbone is a molecule which is not a drug moiety and which comprises at least three available binding positions or sites for the conjugation of a first carrier, a second carrier, and a third carrier, said Backbone being selected from a group consisting of glycerol, diamines, triamines, tetraamines, polyamines, aminoalcohols, aminodiols, aminotriols, triols, tetraols, and carboxyl-containing diols; Lipid is a lipophilic first carrier group covalently bonded to Backbone, said Lipid being selected from a group consisting of fatty acids, sterols, stanols, cholecalciferols, ergocalciferol, retinoids, carotenoids, tocopherols, and tocotrienols; mPEG is a polymeric second carrier group covalently bonded to Backbone, said mPEG being a methoxy terminated polyethylene glycol polymer; CD is a cyclodextrin third carrier group covalently bonded to Backbone, said CD being selected from a group consisting of α-cyclodextrin, β-cyclodextrin, and γ-cyclodextrin; and wherein: each said available binding position or site of the Backbone comprises an amino, hydroxyl, acryloyl or carboxylic group; each of said first carrier, said second carrier, and said third carrier is respectively bound to one of said available binding positions or sites of the Backbone comprising an amino, hydroxyl, acryloyl or carboxylic group. Backbone is a molecule which is not a drug moiety and which comprises at least three available binding positions or sites for the conjugation of a first carrier, a second carrier, and a third carrier, said Backbone being selected from a group consisting of glycerol, diamines, triamines, tetraamines, polyamines, aminoalcohols, aminodiols, aminotriols, triols, tetraols, and carboxyl-containing diols; Lipid is a lipophilic first carrier group covalently bonded to Backbone, said Lipid being selected from a group consisting of fatty acids, sterols, stanols, cholecalciferols, ergocalciferol, retinoids, carotenoids, tocopherols, and tocotrienols; mPEG is a polymeric second carrier group covalently bonded to Backbone, said mPEG being a methoxy terminated polyethylene glycol polymer; CD is a cyclodextrin third carrier group covalently bonded to Backbone, said CD being selected from a group consisting of α-cyclodextrin, β-cyclodextrin, and γ-cyclodextrin; and each said available binding position or site of the Backbone comprises an amino, hydroxyl, acryloyl or carboxylic group; each of said first carrier, said second carrier, and said third carrier is respectively bound to one of said available binding positions or sites of the Backbone comprising an amino, hydroxyl, acryloyl or carboxylic group.
A computer-implemented method for configuring an MRI system , the method comprising: - providing a set of one or more parameters for configuring the MRI system, each parameter of the set having predefined values; - selecting from the predefined values a set of values of the set of parameters; - setting the set of parameters using the selected set of values, resulting in an operational configuration of the MRI system; - controlling the MRI system to operate in accordance with the operational configuration, thereby determining an operating status of the MRI system , wherein the steps of selecting, setting and controlling are repeated for mulitple patients and wherein the selected set of values is different for different patients; - repeatedly performing the selecting, setting and controlling until a desired operating status of the MRI system can be determined based on the operating statuses resulting from the controlling and selecting and setting of the set of parameters for multiple patients. - providing a set of one or more parameters for configuring the MRI system, each parameter of the set having predefined values; - selecting from the predefined values a set of values of the set of parameters; - setting the set of parameters using the selected set of values, resulting in an operational configuration of the MRI system; - controlling the MRI system to operate in accordance with the operational configuration, thereby determining an operating status of the MRI system , wherein the steps of selecting, setting and controlling are repeated for mulitple patients and wherein the selected set of values is different for different patients; - repeatedly performing the selecting, setting and controlling until a desired operating status of the MRI system can be determined based on the operating statuses resulting from the controlling and selecting and setting of the set of parameters for multiple patients.
A pharmaceutical formulation, containing: a botulinum toxin type A, a first stabilizer, and a second stabilizer, wherein the first stabilizer is arginine, and wherein the second stabilizer is glutamic acid, or aspartic acid. wherein the first stabilizer is arginine, and wherein the second stabilizer is glutamic acid, or aspartic acid.
A layered product having at least a substrate (i) and a foamed layer (ii) which is formed from a urethane resin composition containing a urethane resin (A), water (B), and a film forming auxiliary (C), wherein the film forming auxiliary (C) is a polyethylene glycol (c1) and/or a polyethylene glycol (c2) having an alkoxy group having 11 or less carbon atoms.
A vessel for the transport of liquefied gas, comprising: - a hull; - at least one cargo storage tank arranged in the hull for storing liquefied gas; - at least one engine to propel the vessel; - at least one compressor having a compressor inlet connected to a vapour space of the at least one cargo storage tank for receiving boil-off gas at a first pressure (P 1 ) and a compressor outlet for supplying pressurized boil-off gas to the at least one engine at a second pressure (P 2 ) exceeding the first pressure; and - a boil off gas (BOG) recovery system for recovery of boil off gas, the BOG recovery system comprising: - a cooling section having a cooling section inlet connected to the compressor outlet to recondense at least part of the pressurized boil-off gas and a cooling section outlet for providing recondensed pressurized boil-off gas; and - at least one recovery tank having a recovery tank inlet connected to the cooling section outlet for storing the recondensed pressurized boil-off gas; characterized in that the recovery tank has a total volume for storing the recondensed pressurized boil-off gas of about 0.5% to 5% of the total volume of the at least one cargo tank ; and in that the recovery tank has a first outlet connected to the at least one engine . - a hull; - at least one cargo storage tank arranged in the hull for storing liquefied gas; - at least one engine to propel the vessel; - at least one compressor having a compressor inlet connected to a vapour space of the at least one cargo storage tank for receiving boil-off gas at a first pressure (P 1 ) and a compressor outlet for supplying pressurized boil-off gas to the at least one engine at a second pressure (P 2 ) exceeding the first pressure; and - a boil off gas (BOG) recovery system for recovery of boil off gas, the BOG recovery system comprising: - a cooling section having a cooling section inlet connected to the compressor outlet to recondense at least part of the pressurized boil-off gas and a cooling section outlet for providing recondensed pressurized boil-off gas; and - at least one recovery tank having a recovery tank inlet connected to the cooling section outlet for storing the recondensed pressurized boil-off gas;
A method for treating radioactive iodine contained in steam discharged from a nuclear power facility , which method comprises: a filling step of filling an air-permeable container with a granulated radioactive iodine adsorbent (K); a flow passing step of passing a flow of the steam discharged from the nuclear power facility , through the container filled with the granulated radioactive iodine adsorbent (K); a step of removing hydrogen and the iodine from the steam discharged from the nuclear power facility when it generates hydrogen molecules, wherein the granulated radioactive iodine adsorbent (K) is of zeolite 13X, having 97% or more of the ion exchange sites substituted with silver and not substituted with any material other than silver and having a silver content of 36 wt% or more when dried, a particle size of 10 × 20 mesh, a hardness of 94% or more as measured in accordance with JIS K 1474-4-7, and a water content of 12 wt% or less when dried at 150°C for 3 h and thereby reduced in weight. a filling step of filling an air-permeable container with a granulated radioactive iodine adsorbent (K); a flow passing step of passing a flow of the steam discharged from the nuclear power facility , through the container filled with the granulated radioactive iodine adsorbent (K); a step of removing hydrogen and the iodine from the steam discharged from the nuclear power facility when it generates hydrogen molecules, wherein the granulated radioactive iodine adsorbent (K) is of zeolite 13X, having 97% or more of the ion exchange sites substituted with silver and not substituted with any material other than silver and having a silver content of 36 wt% or more when dried, a particle size of 10 × 20 mesh, a hardness of 94% or more as measured in accordance with JIS K 1474-4-7, and a water content of 12 wt% or less when dried at 150°C for 3 h and thereby reduced in weight.
A shisha consumable article for use with a shisha assembly, the shisha consumable article , comprising: a housing defining a first compartment and a second compartment , the second compartment being adjacent to, and sealed or air impermeable from, the first compartment ; a combustible heat source contained within the first compartment ; and an aerosol-forming substrate contained within the second compartment . a housing defining a first compartment and a second compartment , the second compartment being adjacent to, and sealed or air impermeable from, the first compartment ; a combustible heat source contained within the first compartment ; and an aerosol-forming substrate contained within the second compartment .
A process for determining a first and a second coordinate of the point of contact of a ball on the strings of a ball game racquet with a racquet head and a handle section, wherein the longitudinal axis of the ball game racquet defines an x-coordinate, the transverse axis of the ball game racquet defines a y-coordinate, and the line perpendicular to the strings defines a z-coordinate, comprising the following steps: a) measuring a first kinematic basic parameter in a first direction as a function of time at a first point of the ball game racquet; b) measuring a second kinematic basic parameter in a second direction as a function of time at a second point of the ball game racquet; c) transforming the measured first kinematic basic parameter and the measured second kinematic basic parameter and/or a linear combination of the measured first and second basic parameters into the frequency domain; and d) calculating the first and second coordinates of the point of contact on the basis of the transformed kinematic basic parameter(s) in the frequency domain. a) measuring a first kinematic basic parameter in a first direction as a function of time at a first point of the ball game racquet; b) measuring a second kinematic basic parameter in a second direction as a function of time at a second point of the ball game racquet; c) transforming the measured first kinematic basic parameter and the measured second kinematic basic parameter and/or a linear combination of the measured first and second basic parameters into the frequency domain; and d) calculating the first and second coordinates of the point of contact on the basis of the transformed kinematic basic parameter(s) in the frequency domain.
A process for preparing rotomoulded articles having at least two layers in a rotomoulding machine comprising several separate feeders and several moulds, said process comprising the steps of: a) providing a first polyethylene composition for layer A comprising from 40 to 99 wt% of a polyethylene (PE) resin and from 60 to 1 wt% of a functionalised polyolefin (FPO) or of an ionomer or of a polyolefin (PO) grafted to a non-polyolefin (NPO) in the form of a block copolymer (PO-g-NPO) or of a mixture thereof; b) providing a barrier layer B, said layer B being polyamide or EVOH; d) feeding each resin in a separate feeder of the rotomoulding machine; e) installing one or more moulds of the same or different shapes and sizes; f) starting the automatic rotomoulding cycle; g) automatically demoulding and retrieving the rotomoulded articles; the process being characterized in that the articles are prepared in a robotised rotomoulding machine wherein each mould includes ducts designed to be run through by heat-regulating fluid and said ducts are realised by grooves on the external surfaces of the mould, and in that layer B has an even thickness distribution and a thickness of less than 1 mm. a) providing a first polyethylene composition for layer A comprising from 40 to 99 wt% of a polyethylene (PE) resin and from 60 to 1 wt% of a functionalised polyolefin (FPO) or of an ionomer or of a polyolefin (PO) grafted to a non-polyolefin (NPO) in the form of a block copolymer (PO-g-NPO) or of a mixture thereof; b) providing a barrier layer B, said layer B being polyamide or EVOH; d) feeding each resin in a separate feeder of the rotomoulding machine; e) installing one or more moulds of the same or different shapes and sizes; f) starting the automatic rotomoulding cycle; g) automatically demoulding and retrieving the rotomoulded articles; the process being characterized in that the articles are prepared in a robotised rotomoulding machine wherein each mould includes ducts designed to be run through by heat-regulating fluid and said ducts are realised by grooves on the external surfaces of the mould, and in that layer B has an even thickness distribution and a thickness of less than 1 mm.
An optical fiber comprising: one or more primary optical cores having a first set of properties; one or more secondary optical cores having a second set of properties; wherein the one or more primary optical cores and the one or more secondary optical cores comprise a first core having a first radius and at least a second core having a second radius greater than the first radius, the cores being helically-wound around a center of the fiber, and wherein the primary set of properties includes a first temperature response and the secondary set of properties includes a second temperature response sufficiently different from the first temperature response to allow a sensing apparatus when coupled to the optical fiber to distinguish between temperature and strain induced by applied twist on the optical fiber. one or more primary optical cores having a first set of properties; one or more secondary optical cores having a second set of properties; wherein the one or more primary optical cores and the one or more secondary optical cores comprise a first core having a first radius and at least a second core having a second radius greater than the first radius, the cores being helically-wound around a center of the fiber, and wherein the primary set of properties includes a first temperature response and the secondary set of properties includes a second temperature response sufficiently different from the first temperature response to allow a sensing apparatus when coupled to the optical fiber to distinguish between temperature and strain induced by applied twist on the optical fiber.
Method for updating firmware in an electronic device, the method comprising receiving an update file comprising new firmware, at least one signature and a certificate, wherein the certificate comprises first verification information that is indicative of those electronic devices that are able to use the new firmware, reading second verification information stored in the electronic device, comparing the first verification information with the second verification information, if the first verification information corresponds to the second verification information, checking the at least one signature, and, if the check on the at least one signature is successful, replacing the firmware of the device with the new firmware, wherein the first verification information and the second verification information each comprise one or more pieces of partial information, and wherein the partial information of the first verification information forms a first domain name, wherein the partial information of the second verification information forms a second domain name and wherein the first verification information corresponds to the second verification information if the first domain name is contained completely in the second domain name, and wherein the second verification information is stored in the firmware of the electronic device and wherein the new firmware comprises new second verification information, and wherein the second verification information recorded in the device is also updated when the firmware is updated. receiving an update file comprising new firmware, at least one signature and a certificate, wherein the certificate comprises first verification information that is indicative of those electronic devices that are able to use the new firmware, reading second verification information stored in the electronic device, comparing the first verification information with the second verification information, if the first verification information corresponds to the second verification information, checking the at least one signature, and, if the check on the at least one signature is successful, replacing the firmware of the device with the new firmware, wherein the first verification information and the second verification information each comprise one or more pieces of partial information, and wherein the partial information of the first verification information forms a first domain name, wherein the partial information of the second verification information forms a second domain name and wherein the first verification information corresponds to the second verification information if the first domain name is contained completely in the second domain name, and wherein the second verification information is stored in the firmware of the electronic device and wherein the new firmware comprises new second verification information, and wherein the second verification information recorded in the device is also updated when the firmware is updated.
Microdosing device for generating a microdosing volume of a fluid sample in the form of a microjet, comprising an air duct that comprises a passage opening , which connects a first air duct section and a second air duct section of the air duct, with the first air duct section comprising a first opening and the second air duct section comprising a second opening , to which a fluid transfer container containing the fluid sample can be connected, a controllable first valve that is configured to selectively keep the passage opening of the air duct in a first state closed, in order to allow for an overpressure in the first air duct section relative to the second air duct section , or in a second state open, and to allow for an abrupt switching from the first to the second state, an electric control device, in which the electrical control device is configured to control said first valve in such a way that said passage opening is opened abruptly by means of the first valve, whereby, due to the pressure equalization between said first and said second air duct , a microvolume of air exits the first air duct section and a microvolume of air (V) exits said air duct through said second opening , so that a microdosing volume, with that volume being determined by the microvolume of air (V), of the fluid sample contained in the fluid transfer container is displaced and emitted in the form of a microjet from the fluid transfer container into an external volume. an air duct that comprises a passage opening , which connects a first air duct section and a second air duct section of the air duct, with the first air duct section comprising a first opening and the second air duct section comprising a second opening , to which a fluid transfer container containing the fluid sample can be connected, a controllable first valve that is configured to selectively keep the passage opening of the air duct in a first state closed, in order to allow for an overpressure in the first air duct section relative to the second air duct section , or in a second state open, and to allow for an abrupt switching from the first to the second state, an electric control device, in which the electrical control device is configured to control said first valve in such a way that said passage opening is opened abruptly by means of the first valve, whereby, due to the pressure equalization between said first and said second air duct , a microvolume of air exits the first air duct section and a microvolume of air (V) exits said air duct through said second opening , so that a microdosing volume, with that volume being determined by the microvolume of air (V), of the fluid sample contained in the fluid transfer container is displaced and emitted in the form of a microjet from the fluid transfer container into an external volume.