mhurhangee/ep-ind-claims huggingface dataset:
A transmitting electronic apparatus for communicating data streams with a receiving electronic apparatus, the transmitting electronic apparatus comprising: a camera for recording a first video data stream; a memory for storing at least a portion of a second video data stream; and a control system that, after sensing a user feedback, provides a first user-maintained mode for controlling transmission of one of the first and the second video data streams to the receiving electronic apparatus when at least the other of the first and the second video data streams is being sent to the receiving electronic apparatus; a first display area for viewing the video data stream sent to the receiving electronic apparatus; wherein the control system is adapted to transmit one of the first and the second video data streams to the receiving electronic apparatus and to suspend the other of the first and the second video data streams while the first user-maintained mode actively senses the user feedback; and wherein the control system is adapted to synchronise video data displayed in the first display area with the one of the first and the second video data streams transmitted to the receiving electronic apparatus to allow users of the transmitting and receiving electronic apparatuses to share the video data in a coordinated manner. a camera for recording a first video data stream; a memory for storing at least a portion of a second video data stream; and a control system that, after sensing a user feedback, provides a first user-maintained mode for controlling transmission of one of the first and the second video data streams to the receiving electronic apparatus when at least the other of the first and the second video data streams is being sent to the receiving electronic apparatus; a first display area for viewing the video data stream sent to the receiving electronic apparatus; wherein the control system is adapted to transmit one of the first and the second video data streams to the receiving electronic apparatus and to suspend the other of the first and the second video data streams while the first user-maintained mode actively senses the user feedback; and wherein the control system is adapted to synchronise video data displayed in the first display area with the one of the first and the second video data streams transmitted to the receiving electronic apparatus to allow users of the transmitting and receiving electronic apparatuses to share the video data in a coordinated manner.
A method for controlling a pump system, multi-component material being dispensed under pressure using a mixer and a spray gun of the pump system, component material (48, 49, 50) being pumped using at least two pumps (13, 14, 15) of the pump system, said component material being stored in liquid tanks (19, 20, 21) of the pump system each allocated to the pumps, said component material being dosed using dosage valves (16, 17, 18, 39, 40, 41) of the pump system each allocated to the pumps, said pump system being controlled by means of a control unit of the pump system, characterized in that the dosage valves are each regulated using an electric regulating device (24, 25, 26, 42, 43, 44) of the control unit, a mixing ratio of the component materials being regulated using a control device of the control unit, said regulating devices being regulated by means of the control device, an actual volume flow of component material of the respective pump being measured, the control device capturing the respective actual volume flows and specifying a target volume flow for the respective regulating device according to the mixing ratio.
A recombinant antigen-P-domain monomer comprising a Norovirus P-domain monomer having at least one surface loop that includes an inserted foreign protein or polypeptide antigen.
A respirator mask for protecting a wearer against inhalation of noxious agents, the respirator mask comprising: - a facepiece; - a visor connected to the facepiece; and - a filter mount (56 1) for mounting a filter (52, 53) to the respirator mask, the filter mount allowing a plurality of different types of filters (52, 53) to be mounted to the filter mount; characterized in that: the different types of filters include a threaded filter screwable into the filter mount and a threadless filter mountable to the filter mount without being screwed into the filter mount; and the filter mount comprises a threaded connector (58 1) for connecting the threaded filter and a threadless connector (58 2) for connecting the threadless filter. - a facepiece; - a visor connected to the facepiece; and - a filter mount (56 1) for mounting a filter (52, 53) to the respirator mask, the filter mount allowing a plurality of different types of filters (52, 53) to be mounted to the filter mount;
A repair tool for applying a coating patch comprising: a heating element; a flexible bladder disposed adjacent the heating element; an inflexible shell disposed about the flexible bladder, the inflexible shell defining a negative space corresponding to a plurality of sides of an aircraft component; and a controller communicatively coupled to the heating element and the bladder, the controller being configured to control a temperature of the heating element and a pressure of the flexible bladder, characterised in that the heating element includes a curvature at a patching position and the curvature is a 180 degree bend, and the pressure tool is configured, using the flexible bladder and heating element respectively, to apply a pressure to the patch in the range of 172 to 207 kPa (25 to 30 psi) and maintain a temperature at the patch of approximately 149 C (300 F) a heating element; a flexible bladder disposed adjacent the heating element; an inflexible shell disposed about the flexible bladder, the inflexible shell defining a negative space corresponding to a plurality of sides of an aircraft component; and a controller communicatively coupled to the heating element and the bladder, the controller being configured to control a temperature of the heating element and a pressure of the flexible bladder, characterised in that the heating element includes a curvature at a patching position and the curvature is a 180 degree bend, and the pressure tool is configured, using the flexible bladder and heating element respectively, to apply a pressure to the patch in the range of 172 to 207 kPa (25 to 30 psi) and maintain a temperature at the patch of approximately 149 C (300 F)
A computer implemented method of estimating soil properties for a specific geo-location comprising: using a soil preprocessing module in a server computer system, receiving one or more soil spectrum data records that represent a mean soil spectrum of the specific geo-location of a specified area of land; using the soil preprocessing module, removing interference signals from the one or more soil spectrum data records to create one or more soil spectral bands, wherein the interference signals include at least one of a baseline drift effect, particle deviation, and surface heterogeneity; using a soil regression module, predicting soil property datasets based upon the one or more soil spectral bands by way of inputting the one or more soil spectral bands into an appropriate preconfigured soil model that is programmed to determine relevant soil properties related to the soil spectrum data; using the soil regression module, selecting the soil property datasets that best represent the soil properties of the specific geo-location, wherein the specific soil property dataset includes soil property data and spectral band data for spectral bands used to determine the soil property data; wherein using the soil regression module, first retrieving the appropriate preconfigured soil model from a model and field data repository, said model and field data repository storing soil prediction models previously created based upon earlier soil spectrum data related to one or more measured geo-locations and preselected spectral bands. using a soil preprocessing module in a server computer system, receiving one or more soil spectrum data records that represent a mean soil spectrum of the specific geo-location of a specified area of land; using the soil preprocessing module, removing interference signals from the one or more soil spectrum data records to create one or more soil spectral bands, wherein the interference signals include at least one of a baseline drift effect, particle deviation, and surface heterogeneity; using a soil regression module, predicting soil property datasets based upon the one or more soil spectral bands by way of inputting the one or more soil spectral bands into an appropriate preconfigured soil model that is programmed to determine relevant soil properties related to the soil spectrum data; using the soil regression module, selecting the soil property datasets that best represent the soil properties of the specific geo-location, wherein the specific soil property dataset includes soil property data and spectral band data for spectral bands used to determine the soil property data; wherein using the soil regression module, first retrieving the appropriate preconfigured soil model from a model and field data repository, said model and field data repository storing soil prediction models previously created based upon earlier soil spectrum data related to one or more measured geo-locations and preselected spectral bands.
A method for organizing devices in a policy hierarchy, executed by a processor, the method comprising: creating a first node; assigning a first policy to the first node; creating a second node, the second node referencing the first node as a parent node such that the second node inherits the first policy of the first node; assigning a second policy to the second node such that the second node is assigned the first policy and the second policy; registering a first device (150a, 150b) to the first node such that the first device (150a, 150b) is bound by the first policy of the first node; registering a second device (150a, 150b) to the second node such that the second device (150a, 150b) is bound by the first and second policies of the second node; and receiving an encryption key having a key attribute; wherein the first policy and the second policy dictate acceptability of an encryption key based on security and cryptographic considerations of the encryption key. creating a first node; assigning a first policy to the first node; creating a second node, the second node referencing the first node as a parent node such that the second node inherits the first policy of the first node; assigning a second policy to the second node such that the second node is assigned the first policy and the second policy; registering a first device (150a, 150b) to the first node such that the first device (150a, 150b) is bound by the first policy of the first node; registering a second device (150a, 150b) to the second node such that the second device (150a, 150b) is bound by the first and second policies of the second node; and receiving an encryption key having a key attribute; wherein the first policy and the second policy dictate acceptability of an encryption key based on security and cryptographic considerations of the encryption key.
An image forming apparatus including a photosensitive member and light-irradiation means configured to expose and scan a plurality of sections in a main scanning direction with laser light at a non-constant scanning velocity based on image data indicating image density to form a latent image on the photosensitive member, the image forming apparatus comprising: emission time control means configured to control, based on which section in the main scanning direction laser light corresponds to, an emission time for emitting the laser light to scan a predetermined width on the photosensitive member with the laser light; the image forming apparatus being characterised in that it further comprises: density control means configured to control a piece of the image data to control density based on which section in the main scanning direction the piece of the image data corresponds to, wherein the emission time control means controls an emission time of the laser light to scan the predetermined width to be a first time in a first section in the main scanning direction to be exposed and scanned at a first scanning velocity, and the density control means controls a piece of the image data corresponding to the first section to be first density (FOh), wherein the emission time control means controls an emission time of the laser light to scan the predetermined width to be a second time in a second section in the main scanning direction to be exposed and scanned at a second scanning velocity faster than the first scanning velocity, and the density control means controls a piece of the image data corresponding to the second section to be second density (F8h), and wherein the second time is shorter than the first time, and the second density (F8h) is higher than the first density (FOh). emission time control means configured to control, based on which section in the main scanning direction laser light corresponds to, an emission time for emitting the laser light to scan a predetermined width on the photosensitive member with the laser light; density control means configured to control a piece of the image data to control density based on which section in the main scanning direction the piece of the image data corresponds to, wherein the emission time control means controls an emission time of the laser light to scan the predetermined width to be a first time in a first section in the main scanning direction to be exposed and scanned at a first scanning velocity, and the density control means controls a piece of the image data corresponding to the first section to be first density (FOh), wherein the emission time control means controls an emission time of the laser light to scan the predetermined width to be a second time in a second section in the main scanning direction to be exposed and scanned at a second scanning velocity faster than the first scanning velocity, and the density control means controls a piece of the image data corresponding to the second section to be second density (F8h), and wherein the second time is shorter than the first time, and the second density (F8h) is higher than the first density (FOh).
A composition, comprising: almond butter; water; and one or more hydrocolloids selected from the group consisting of: gellan gum; guar gum; locust bean gum; and xanthan gum; one or more salts; and lecithin; characterized in that the composition further comprises almond skin extract. almond butter; water; and one or more hydrocolloids selected from the group consisting of: gellan gum; guar gum; locust bean gum; and xanthan gum; gellan gum; guar gum; locust bean gum; and xanthan gum; one or more salts; and lecithin; characterized in that the composition further comprises almond skin extract.
A process for the preparation of carbon-coated lithium transition metal phosphate, wherein the lithium transition metal phosphate has the formula Li 0.9+x M y Mn 1-y PO 4 wherein M is at least one element of the group of Fe, Co, Ni, Mg, Zn, Ti, Ca, Sr, Ba, Al, Zr 0 ≤ x ≤ 0.2 0 ≤ y ≤ 1.0 said process comprising the steps: a) dispersing or dissolving at least one starting material compound selected from the group consisting of at least one lithium source, at least one M source, if present, at least one manganese source, if present, and at least one phosphorous source, in a medium which comprises more than 50% water to obtain a starting material dispersion or solution and heating the starting material dispersion or solution; b) adding remaining starting material compounds selected from the group consisting of at least one lithium source, at least one M source, if present, at least one manganese source, if present, and at least one phosphorus source, said remaining starting material compounds not being present in the starting material dispersion or solution obtained in step a), to the starting material dispersion or solution obtained in step a) to provide a precursor mixture; c) subjecting the precursor mixture obtained in step b) to at least one wet milling step in the presence of at least one electrically conducting material or at least one precursor of an electrically conducting material to obtain a wet milled suspension; d) drying the wet milled suspension obtained in step c) to obtain a solid compound; and e) heat treating the solid compound obtained in step d). a) dispersing or dissolving at least one starting material compound selected from the group consisting of at least one lithium source, at least one M source, if present, at least one manganese source, if present, and at least one phosphorous source, in a medium which comprises more than 50% water to obtain a starting material dispersion or solution and heating the starting material dispersion or solution; b) adding remaining starting material compounds selected from the group consisting of at least one lithium source, at least one M source, if present, at least one manganese source, if present, and at least one phosphorus source, said remaining starting material compounds not being present in the starting material dispersion or solution obtained in step a), to the starting material dispersion or solution obtained in step a) to provide a precursor mixture; c) subjecting the precursor mixture obtained in step b) to at least one wet milling step in the presence of at least one electrically conducting material or at least one precursor of an electrically conducting material to obtain a wet milled suspension; d) drying the wet milled suspension obtained in step c) to obtain a solid compound; and e) heat treating the solid compound obtained in step d).
A display device for a motor vehicle, comprising at least a first and a second screen (14, 16), configured to present respective display content; wherein an extendable screen is arranged in a housing of the display device and is shiftable by an adjustment device between an extended position, in which the extendable screen is extended out of the housing, and a retracted position, in which the extendable screen is substantially recessed in the housing, characterized in that the display device further comprises a control unit configured to activate the adjustment device to shift the extendable screen into the extended position, and to display a display content on the extendable screen, when a user action to move the display content from the second screen onto the first screen is detected. wherein an extendable screen is arranged in a housing of the display device and is shiftable by an adjustment device between an extended position, in which the extendable screen is extended out of the housing, and a retracted position, in which the extendable screen is substantially recessed in the housing, characterized in that the display device further comprises a control unit configured to activate the adjustment device to shift the extendable screen into the extended position, and to display a display content on the extendable screen, when a user action to move the display content from the second screen onto the first screen is detected.
Compound of the formula I, wherein R 1 is one of the following structures: R 2 is one of the following structures: R 3 is R 4 is H, D, methyl, ethyl, F, Br or Cl D is deuterium and physiologically acceptable salts, derivatives, solvates and stereoisomers thereof, including mixtures thereof in all ratios. R 1 is one of the following structures: R 2 is one of the following structures: R 3 is R 4 is H, D, methyl, ethyl, F, Br or Cl D is deuterium
A reader for a smart card, comprising - acquisition means for acquiring biometric data from a user, - derivation means (128, 130) for deriving an identifier from the biometric data, - release means (120, 128, 136) for releasing a smart card function with the identifier, - communication means (120, 144) for enabling communication between a computer and the smart card for use of the smart card function by the computer, wherein the derivation means are designed to carry out a one-way function in order to derive the identifier from the biometric data, wherein the one-way function is a HASH function, which is designed to derive a HASH value as identifier from the biometric data, wherein the derivation means have a memory region for storing program instructions, by which the derivation of the identifier is implemented, and comprising update means for receiving update data for updating the program instructions in order to improve or replace the one-way function, wherein the update data are signed, and comprising means (158, 162) for checking the signature of the update data, wherein the update means are designed such that the program instructions are updated with the aid of the update data only if the signature is valid, wherein a certificate belongs to the signature of the update data, wherein the certificate contains a rights definition, which defines whether the authority that has signed the update data is authorised to carry out an update of the program instructions, and wherein the update means are designed such that the program instructions are updated with the aid of the update data only if the rights definition in the certificate allows the update to be performed. - acquisition means for acquiring biometric data from a user, - derivation means (128, 130) for deriving an identifier from the biometric data, - release means (120, 128, 136) for releasing a smart card function with the identifier, - communication means (120, 144) for enabling communication between a computer and the smart card for use of the smart card function by the computer,
A method for making a polymer composition for blow molding, the method comprising: obtaining a waste high-density polyethylene material from a waste separator, thereby also including material from an inorganic coating of the waste separator; and combining the waste high-density polyethylene material with a new high-density polyethylene material having a melt flow index of 0.01 to 5 g/10 min as measured in accordance with ASTM D1238 (190°C, 2.16 kg), wherein an inorganic content of the polymer composition for blow molding, corresponding to the material from the inorganic coating, is 3 to 20 wt% with respect to the total weight of the polymer composition for blow molding. obtaining a waste high-density polyethylene material from a waste separator, thereby also including material from an inorganic coating of the waste separator; and combining the waste high-density polyethylene material with a new high-density polyethylene material having a melt flow index of 0.01 to 5 g/10 min as measured in accordance with ASTM D1238 (190°C, 2.16 kg), wherein an inorganic content of the polymer composition for blow molding, corresponding to the material from the inorganic coating, is 3 to 20 wt% with respect to the total weight of the polymer composition for blow molding.
A method for centralizing a coiled tubing in a wellbore, the method comprising: supplying a roller set to a roller set assembly system located at a surface, the roller set comprising a first half and a second half, the roller set assembly system comprising a first guide cable and a second guide cable; installing the first half to the first guide cable and the second half to the second guide cable; securing the first half and the second half to the coiled tubing such that the roller set is fixed to the coiled tubing; and injecting the coiled tubing into the wellbore. supplying a roller set to a roller set assembly system located at a surface, the roller set comprising a first half and a second half, the roller set assembly system comprising a first guide cable and a second guide cable; installing the first half to the first guide cable and the second half to the second guide cable; securing the first half and the second half to the coiled tubing such that the roller set is fixed to the coiled tubing; and injecting the coiled tubing into the wellbore.