mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating a lighting device for a motor vehicle , in which a headlamp of the motor vehicle projects a symbol onto a surface , having the steps: - receiving a predetermined illumination map from a control body in a normal operation of the motor vehicle as intended, wherein by means of the illumination map the projection of the symbol onto the surface and a position in a coordinate system relating to the motor vehicle are predetermined, and by means of the illumination map a brightness value is assigned to several points or coordinates in the coordinate system relating to the motor vehicle , - determining a radiating characteristic for the headlamp such that the symbol is projected onto the surface as predetermined by means of the illumination map , wherein only those regions of the symbol are projected by the headlamp onto the surface which lie in a predetermined illumination region of the headlamp and the predetermined illumination region is selected such that a dazzling of other road users is reduced, and - setting the determined radiating characteristic for the headlamp , wherein the motor vehicle is one of a grouping of several motor vehicles and the illumination map is received by the grouping of several motor vehicles as a control body and by means of the illumination map a further radiating characteristic of a headlamp of a further motor vehicle of the several motor vehicles is synchronised with the determined radiating characteristic, wherein the motor vehicle exchanges data for creating the illumination map with one or several motor vehicles from the grouping of the several motor vehicles . - receiving a predetermined illumination map from a control body in a normal operation of the motor vehicle as intended, wherein by means of the illumination map the projection of the symbol onto the surface and a position in a coordinate system relating to the motor vehicle are predetermined, and by means of the illumination map a brightness value is assigned to several points or coordinates in the coordinate system relating to the motor vehicle , - determining a radiating characteristic for the headlamp such that the symbol is projected onto the surface as predetermined by means of the illumination map , wherein only those regions of the symbol are projected by the headlamp onto the surface which lie in a predetermined illumination region of the headlamp and the predetermined illumination region is selected such that a dazzling of other road users is reduced, and - setting the determined radiating characteristic for the headlamp , wherein
A method of performing hyperspectral detection of a scene, comprising: capturing a digital context imageof at least a portion of the scene, by a context camera , over a field of regard (FoR); capturing a spectral image of the scene, by an imaging spectrometer , over an instantaneous field of view (iFoV) that falls within the FoR, and wherein the width of the iFoV is less than half of the FoR, the spectral image being a hyperspectral image having one dimension of contiguous spectral bands; panning the spectral image over the scene and within the FoR to capture one or more spectral signatures at different locations within the scene; fusing the context image and the spectral image to form a fused image; and comparing the one or more spectral signatures to one or more reference spectral signatures and marking one or more locations of the one or more spectral signatures within the context image; characterized by displaying on a display in real-time the fused image and the one or more marked locations, wherein the context camera is supported by a support member for supporting a smart-phone whose digital camera serves as context camera, wherein the support member is attached to the imaging spectrometer , such as to form a hyperspectral detection system sized to be hand-held. capturing a digital context imageof at least a portion of the scene, by a context camera , over a field of regard (FoR); capturing a spectral image of the scene, by an imaging spectrometer , over an instantaneous field of view (iFoV) that falls within the FoR, and wherein the width of the iFoV is less than half of the FoR, the spectral image being a hyperspectral image having one dimension of contiguous spectral bands; panning the spectral image over the scene and within the FoR to capture one or more spectral signatures at different locations within the scene; fusing the context image and the spectral image to form a fused image; and comparing the one or more spectral signatures to one or more reference spectral signatures and marking one or more locations of the one or more spectral signatures within the context image; characterized by displaying on a display in real-time the fused image and the one or more marked locations, wherein the context camera is supported by a support member for supporting a smart-phone whose digital camera serves as context camera, wherein the support member is attached to the imaging spectrometer , such as to form a hyperspectral detection system sized to be hand-held.
A measuring device for measuring a body temperature of a living being, in particular of a human being, with a measuring unit for measuring the body temperature, having a heat-conducting element , by means of which a heat flow is formable between a body of the living being and the measuring unit during the use of the measuring device as intended having an outer layer , which is arranged on an upper side of the measuring device opposite to the body during use as intended, and which is adhered to an outer adhesive layer of the measuring device , and having a first adhesive layer for fastening the measuring device on the body of the living being, wherein the first adhesive layer is arranged at a side of the measuring device facing the body intended therefor, wherein the heat-conducting element is made of metal, the measuring device includes a skin-compatible protective layer , characterized in that the skin-compatible protective layer is arranged between the first adhesive layer and the measuring unit and the heat-conducting element is arranged between the skin-compatible protective layer and the measuring unit , and the outer layer and the outer adhesive layer project laterally beyond the protective layer and the first adhesive layer in edge regions of the measuring device . with a measuring unit for measuring the body temperature, having a heat-conducting element , by means of which a heat flow is formable between a body of the living being and the measuring unit during the use of the measuring device as intended having an outer layer , which is arranged on an upper side of the measuring device opposite to the body during use as intended, and which is adhered to an outer adhesive layer of the measuring device , and having a first adhesive layer for fastening the measuring device on the body of the living being, wherein the first adhesive layer is arranged at a side of the measuring device facing the body intended therefor, wherein the heat-conducting element is made of metal, the measuring device includes a skin-compatible protective layer , characterized in that the skin-compatible protective layer is arranged between the first adhesive layer and the measuring unit and the heat-conducting element is arranged between the skin-compatible protective layer and the measuring unit , and the outer layer and the outer adhesive layer project laterally beyond the protective layer and the first adhesive layer in edge regions of the measuring device .
A stopper for use in a cartridge or syringe of a medical device, the stopper configured to be disposed within a container closure system , the stopper comprising: a shell comprising a closed end and an open end with sidewalls extending between the closed end and the open end along a longitudinal axis of the shell , the open end defining a cavity and the sidewalls defining an exterior surface sized and shaped to fit inside the container closure system ; and an insert configured to be inserted into the cavity , the insert sized and shaped to receive a force from a plunger rod and distribute the force to the shell in order to advance the shell into the container closure system , wherein the closed end of the shell in the cavity defines a convex surface configured to be contacted and deflected by the insert upon insertion into the cavity , and wherein the closed end of the shell is made of an elastic and/or plastic deformable material and characterised in that the cavity comprises at least one venting channel extending from the closed end of the shell towards the open end of the shell , the at least one venting channel being sized and positioned to enable air and/or fluid in the cavity to be expelled though the at least one venting channel during insertion of the insert into the cavity . a shell comprising a closed end and an open end with sidewalls extending between the closed end and the open end along a longitudinal axis of the shell , the open end defining a cavity and the sidewalls defining an exterior surface sized and shaped to fit inside the container closure system ; and an insert configured to be inserted into the cavity , the insert sized and shaped to receive a force from a plunger rod and distribute the force to the shell in order to advance the shell into the container closure system , wherein the closed end of the shell in the cavity defines a convex surface configured to be contacted and deflected by the insert upon insertion into the cavity , and wherein the closed end of the shell is made of an elastic and/or plastic deformable material and characterised in that the cavity comprises at least one venting channel extending from the closed end of the shell towards the open end of the shell , the at least one venting channel being sized and positioned to enable air and/or fluid in the cavity to be expelled though the at least one venting channel during insertion of the insert into the cavity .
A packaged green tea beverage comprising the following components (a) to (c): (a) 50 to 400 ppm of a catechin, (b) 0.5 to 100 ppm of valine, (c) 0.1 to 4.0 ppm of methionine. (a) 50 to 400 ppm of a catechin, (b) 0.5 to 100 ppm of valine, (c) 0.1 to 4.0 ppm of methionine.
A method for use in a user equipment accessing a communication network (S30), the user equipment using an extended discontinuous reception (DRX) when the user equipment is in a connected mode with the communication network, wherein the extended DRX comprises extended DRX cycles and offsets, which are based on a value of a specific DRX cycle, the method comprising: receiving (S31) signaling from the communication network, the signaling comprising an extended DRX cycle indication and an offset value; calculating (S32) an extended DRX cycle from the extended DRX cycle indication and an offset from the offset value, using the value of the specific DRX cycle, wherein the calculating (S32) comprises multiplication of the offset value by the value of the specific DRX cycle; and executing (S33) the DRX when the user equipment is in the connected mode with the extended DRX cycle calculated and the offset calculated. receiving (S31) signaling from the communication network, the signaling comprising an extended DRX cycle indication and an offset value; calculating (S32) an extended DRX cycle from the extended DRX cycle indication and an offset from the offset value, using the value of the specific DRX cycle, wherein the calculating (S32) comprises multiplication of the offset value by the value of the specific DRX cycle; and executing (S33) the DRX when the user equipment is in the connected mode with the extended DRX cycle calculated and the offset calculated.
Use of an unsaturated polyalpha-olefin material as a chemical intermediate for making PAO materials bearing functional groups thereon, the unsaturated polyalpha-olefin material comprising an olefin mixture of vinylidene olefins, 1,2-di-substituted vinylene olefins, and tri-substituted vinylene olefins, the olefin mixture having: (I) an isotacticity of at least 50%, expressed as the mole percentage of (m,m)-triads as measured by using 13C NMR; (II) a number-average molecular weight from 100 to 10,000; (III) a polydispersity index in the range from 1.0 to 2.0; (IV) a kinematic viscosity at 100°C in the range from 20 to 1000 cSt; and (V) based on the total moles of the vinylidene olefins, 1,2-di-substituted vinylene olefins, and tri-substituted vinylene olefins, as measured by 1H-NMR: a concentration of the vinylidene olefins in the range from 3 to 80 mol%; a concentration of the 1,2-di-substituted vinylene olefins in the range from 10 - 70 mol%; and a concentration of the tri-substituted vinylene olefins in the range from 5 to 60 mol%. (I) an isotacticity of at least 50%, expressed as the mole percentage of (m,m)-triads as measured by using 13C NMR; (II) a number-average molecular weight from 100 to 10,000; (III) a polydispersity index in the range from 1.0 to 2.0; (IV) a kinematic viscosity at 100°C in the range from 20 to 1000 cSt; and (V) based on the total moles of the vinylidene olefins, 1,2-di-substituted vinylene olefins, and tri-substituted vinylene olefins, as measured by 1H-NMR: a concentration of the vinylidene olefins in the range from 3 to 80 mol%; a concentration of the 1,2-di-substituted vinylene olefins in the range from 10 - 70 mol%; and a concentration of the tri-substituted vinylene olefins in the range from 5 to 60 mol%. a concentration of the vinylidene olefins in the range from 3 to 80 mol%; a concentration of the 1,2-di-substituted vinylene olefins in the range from 10 - 70 mol%; and a concentration of the tri-substituted vinylene olefins in the range from 5 to 60 mol%.
The protection system for vehicle or mobile component, comprising: - protective equipment fitted to the vehicle or mobile component, comprising at least one inflatable sealed safety structure associated with at least one gas generator that can be activated by an external command, and - an automated system responsible for the safety-critical functions of a vehicle or mobile component, said external command comprising an electrical signal from the automated system, and corresponding to information predictive of an impact, the automated system being configured to control the activation over time of the inflatable structure alone or in combination with other protective equipment of the vehicle or mobile component on the basis of information received before and during the impact, characterized in that the gas generator is configured to generate a gas over a time such that the total inflation time of the inflatable structure is greater than 50 milliseconds, and in that the inflatable structure comprises bags assembled together and in fluid communication with one another via regulated vents. - protective equipment fitted to the vehicle or mobile component, comprising at least one inflatable sealed safety structure associated with at least one gas generator that can be activated by an external command, and - an automated system responsible for the safety-critical functions of a vehicle or mobile component, said external command comprising an electrical signal from the automated system, and corresponding to information predictive of an impact, the automated system being configured to control the activation over time of the inflatable structure alone or in combination with other protective equipment of the vehicle or mobile component on the basis of information received before and during the impact,
A method for the production of cast iron starting from pre-reduced iron ore DRI by means of an electric arc furnace EAF, comprising the following steps: a. preparing a charge of pre-reduced iron ore DRI having a metallization higher than 90% and containing over 2.8% by weight of carbon, wherein at least 80% of said carbon is combined with the iron to form iron carbide Fe 3 C, b. charging the charge of pre-reduced iron ore DRI into the electric arc furnace EAF, c. melting the DRI charge to form liquid cast iron wherein said liquid cast iron has a predetermined actual content of carbon, said actual carbon content of the cast iron deriving from the carbon in the charge of pre-reduced iron ore DRI, the method expressly excluding the addition of carbon both in the melting chamber and subsequently, and wherein step c. is carried out in a reducing atmosphere and in a melting chamber of the electric arc furnace EAF subjected to a positive internal pressure generated by gases produced by reduction reactions that develop in step c. a. preparing a charge of pre-reduced iron ore DRI having a metallization higher than 90% and containing over 2.8% by weight of carbon, wherein at least 80% of said carbon is combined with the iron to form iron carbide Fe 3 C, b. charging the charge of pre-reduced iron ore DRI into the electric arc furnace EAF, c. melting the DRI charge to form liquid cast iron wherein said liquid cast iron has a predetermined actual content of carbon, said actual carbon content of the cast iron deriving from the carbon in the charge of pre-reduced iron ore DRI, the method expressly excluding the addition of carbon both in the melting chamber and subsequently, and wherein step c. is carried out in a reducing atmosphere and in a melting chamber of the electric arc furnace EAF subjected to a positive internal pressure generated by gases produced by reduction reactions that develop in step c. wherein said liquid cast iron has a predetermined actual content of carbon, said actual carbon content of the cast iron deriving from the carbon in the charge of pre-reduced iron ore DRI, the method expressly excluding the addition of carbon both in the melting chamber and subsequently, and wherein step c. is carried out in a reducing atmosphere and in a melting chamber of the electric arc furnace EAF subjected to a positive internal pressure generated by gases produced by reduction reactions that develop in step c.
A method of isolating an industrial yeast strain that degrades L-asparagine under non-inducing conditions comprising: a) subculturing a wild-type industrial yeast strain, which expresses or has the capacity to express a cell-wall associated Asparaginase, in the presence of selective media; wherein the selective media contains D-asparagine as the sole nitrogen source; b) continuously subculturing, tracking growth rate and subjecting to physical or chemical mutagenesis weekly; c) selecting cultures of b) when the growth rate is comparable to growth rate on non-selective media; d) continuously subculturing cells in selective media containing methylamine, tracking growth rate, and mutagenizing weekly until growth rate in the presence of methylamine reaches that in selective media without methylamine; e) isolating individual colonies of d) by plating on selective media containing methylamine, growing said colonies and selecting large and fast growing colonies; f) assaying selected colonies of e) for the ability to degrade L-asparagine under non-inducing conditions and selecting at least one colony with high L-asparagine degradation activity, as compared to cells at the start of d); wherein non-inducing conditions are conditions in which extracellular L-asparagine degradation is repressed in wild-type yeast; g) repeating steps d) through f), increasing methylamine concentration each time, until L-asparagine degradation activity reaches a plateau; h) isolating the industrial yeast strain from g) in which L-asparagine degradation activity has reached a plateau. a) subculturing a wild-type industrial yeast strain, which expresses or has the capacity to express a cell-wall associated Asparaginase, in the presence of selective media; wherein the selective media contains D-asparagine as the sole nitrogen source; b) continuously subculturing, tracking growth rate and subjecting to physical or chemical mutagenesis weekly; c) selecting cultures of b) when the growth rate is comparable to growth rate on non-selective media; d) continuously subculturing cells in selective media containing methylamine, tracking growth rate, and mutagenizing weekly until growth rate in the presence of methylamine reaches that in selective media without methylamine; e) isolating individual colonies of d) by plating on selective media containing methylamine, growing said colonies and selecting large and fast growing colonies; f) assaying selected colonies of e) for the ability to degrade L-asparagine under non-inducing conditions and selecting at least one colony with high L-asparagine degradation activity, as compared to cells at the start of d); wherein non-inducing conditions are conditions in which extracellular L-asparagine degradation is repressed in wild-type yeast; g) repeating steps d) through f), increasing methylamine concentration each time, until L-asparagine degradation activity reaches a plateau; h) isolating the industrial yeast strain from g) in which L-asparagine degradation activity has reached a plateau.
A method comprising: receiving , at a device , a copy command , wherein the copy command comprises a first indication (102a; 202a) of a first amount of source data and a second indication (102b; 202b) of a second amount of source data, wherein the first and second indications (102a, 102b; 202a, 202b) are provided in the form of source ranges of logical block addresses, LBAs; determining , based on the first indication (102a; 202a), an amount of destination space; storing the first indication (102a; 202a) to generate a stored first indication (102a; 202a) in a first memory location, blocking at least a portion of the amount of destination space, reading the stored first indication (102a; 202a); writing, based on the reading the stored first indication (102a; 202a), in the at least a portion of the amount of destination space, at least a portion of the first amount of source data; and subsequent to said writing the at least a portion of the first amount of source data, freeing the first memory location, and looping through the steps of reading, writing, freeing, for the second indication. receiving , at a device , a copy command , wherein the copy command comprises a first indication (102a; 202a) of a first amount of source data and a second indication (102b; 202b) of a second amount of source data, wherein the first and second indications (102a, 102b; 202a, 202b) are provided in the form of source ranges of logical block addresses, LBAs; determining , based on the first indication (102a; 202a), an amount of destination space; storing the first indication (102a; 202a) to generate a stored first indication (102a; 202a) in a first memory location, blocking at least a portion of the amount of destination space, reading the stored first indication (102a; 202a); writing, based on the reading the stored first indication (102a; 202a), in the at least a portion of the amount of destination space, at least a portion of the first amount of source data; and subsequent to said writing the at least a portion of the first amount of source data, freeing the first memory location, and looping through the steps of reading, writing, freeing, for the second indication.