mhurhangee/ep-ind-claims huggingface dataset:
Control valve for an indirectly acting compressed-air brake of a rail vehicle, comprising a pneumatic relay valve for controlling a brake cylinder pressure via a pilot-control circuit for generating a temporally defined pilot-control pressure (c V) for the proportional activation of the relay valve, wherein, connected upstream of the pilot-control circuit, there is provided a device for generating the braking and release times of the compressed-air brake, which device, for generating uniform braking and release times of the compressed-air brake, has means for realizing a volume flow with constant pressure change for the compressed-air supply and the deaeration of the pilot-control circuit, characterized in that the means for realizing a volume flow with constant pressure change in the pilot-control circuit comprise a variable throttle, controlled by the pilot-control pressure (c V), of the compressed-air supply and deaeration of the pilot-control circuit (c V), wherein a pneumatic comparison diaphragm for the variable throttling of the compressed-air supply and deaeration of the pilot-control circuit (c V) is provided, said pneumatic comparison diaphragm being acted on on one side by the pilot-control pressure (c V) and on the other side by a comparison pressure of a defined volume.
A handheld device for slip processing, comprising: an imaging unit that images an object; a barcode scanner that reads a one-dimensional barcode; a storage unit; and a processor configured to perform the following: causing the barcode scanner to scan a one-dimensional barcode on a slip to obtain identification information on the slip determining whether the obtaining of the identification information has succeeded; when the obtaining of the identification information has succeeded, causing the imaging unit to image the slip to obtain a slip image; characterized by determining whether the one-dimensional barcode is present within the slip image that has been obtained, when it is determined that the one-dimensional barcode is present, detecting an inclination of the one-dimensional barcode, causing a horizontal correction process to be applied to the slip image in accordance with the inclination that has been detected; and causing the identification information that has been obtained and the slip image that has been corrected to be stored in association with each other in the storage unit. an imaging unit that images an object; a barcode scanner that reads a one-dimensional barcode; a storage unit; and a processor configured to perform the following: causing the barcode scanner to scan a one-dimensional barcode on a slip to obtain identification information on the slip determining whether the obtaining of the identification information has succeeded; when the obtaining of the identification information has succeeded, causing the imaging unit to image the slip to obtain a slip image; characterized by causing the barcode scanner to scan a one-dimensional barcode on a slip to obtain identification information on the slip determining whether the obtaining of the identification information has succeeded; when the obtaining of the identification information has succeeded, causing the imaging unit to image the slip to obtain a slip image; characterized by determining whether the one-dimensional barcode is present within the slip image that has been obtained, when it is determined that the one-dimensional barcode is present, detecting an inclination of the one-dimensional barcode, causing a horizontal correction process to be applied to the slip image in accordance with the inclination that has been detected; and causing the identification information that has been obtained and the slip image that has been corrected to be stored in association with each other in the storage unit. when it is determined that the one-dimensional barcode is present, detecting an inclination of the one-dimensional barcode, causing a horizontal correction process to be applied to the slip image in accordance with the inclination that has been detected; and causing the identification information that has been obtained and the slip image that has been corrected to be stored in association with each other in the storage unit.
A process of stripping a dispersion of core-shell organic extender particles with volatile organic compounds, comprising a dispersion of core-shell organic extender particles with volatile organic compounds, which particles comprise, when dry, one or more voids; mixing the dispersion of core-shell organic extender particles with a binder comprising an acrylic emulsion polymer, having an average particle size of from 30 nm to 400 nm to form an aqueous polymer composition, wherein the dry weight ratio of the binder to the dispersion of core-shell organic extender particles is in the range of 5:95 to 95:5 as measured by a Brookhaven BI-90 Particle Size Analyzer; and steam stripping the aqueous polymer composition.
A process for producing an auxiliary fuel stream containing a low concentration of sulfur compounds from a primary fuel stream, the process comprising: isolating a first vapor permeate stream (534,535) and a first retentate stream from a primary fuel stream by passing a portion of the primary fuel stream through a first pervaporation membrane separation stage condensing a portion of the first vapor permeate stream (534,535) in a first separation stage partial condenser into a first liquid stage stream (551,552) and a first vapor stage stream; passing the first vapor stage stream through a desulfurization reactor; further comprising: condensing the first vapor stage stream in a second first stage condenser (371; 515) into a second liquid stage stream; isolating a second vapor permeate stream and a second stage retentate stream from the second liquid stage stream by passing the second liquid stage stream through a second membrane separation stage, the membrane being sulfur selective; and mixing the first retentate stream and the second vapor permeate stream and returning the mixture to the primaryfuel stream. isolating a first vapor permeate stream (534,535) and a first retentate stream from a primary fuel stream by passing a portion of the primary fuel stream through a first pervaporation membrane separation stage condensing a portion of the first vapor permeate stream (534,535) in a first separation stage partial condenser into a first liquid stage stream (551,552) and a first vapor stage stream; passing the first vapor stage stream through a desulfurization reactor; further comprising: condensing the first vapor stage stream in a second first stage condenser (371; 515) into a second liquid stage stream; isolating a second vapor permeate stream and a second stage retentate stream from the second liquid stage stream by passing the second liquid stage stream through a second membrane separation stage, the membrane being sulfur selective; and mixing the first retentate stream and the second vapor permeate stream and returning the mixture to the primaryfuel stream. condensing the first vapor stage stream in a second first stage condenser (371; 515) into a second liquid stage stream; isolating a second vapor permeate stream and a second stage retentate stream from the second liquid stage stream by passing the second liquid stage stream through a second membrane separation stage, the membrane being sulfur selective; and mixing the first retentate stream and the second vapor permeate stream and returning the mixture to the primaryfuel stream.
An electronic device, in particular a camera or mobile phone, comprising a connecting device for releasably connecting the electronic device to a further assembly, wherein the connecting device includes a closure module with a vacuum element which in an attachment direction can be connected to an attachment component, which is formed by a housing surface of the electronic device serving as an attachment surface, for connecting the electronic device to the further assembly, and in a connected position interacts with the attachment component in such a way that on loading of the closure module and the attachment component relative to each other against the attachment direction the vacuum element and the attachment component are held at each other due to a vacuum effect between the vacuum element and the attachment component, wherein the closure module includes a first magnetic element for magnetically supporting the connection of the electronic device to the further assembly, wherein the vacuum element is formed by an at least sectionally elastic cup element, wherein the vacuum element can be attached in the attachment direction to an attachment part of an attachment assembly connected to the electronic device and arranged on the attachment component, wherein a second magnetic element is arranged on the attachment part of the attachment assembly and on attachment of the closure module to the attachment assembly interacts in a magnetically attracting manner with the first magnetic element arranged on the vacuum element or an element connected to the vacuum element. a connecting device for releasably connecting the electronic device to a further assembly, wherein the connecting device includes a closure module with a vacuum element which in an attachment direction can be connected to an attachment component, which is formed by a housing surface of the electronic device serving as an attachment surface, for connecting the electronic device to the further assembly, and in a connected position interacts with the attachment component in such a way that on loading of the closure module and the attachment component relative to each other against the attachment direction the vacuum element and the attachment component are held at each other due to a vacuum effect between the vacuum element and the attachment component, wherein the closure module includes a first magnetic element for magnetically supporting the connection of the electronic device to the further assembly, wherein the vacuum element is formed by an at least sectionally elastic cup element, wherein the vacuum element can be attached in the attachment direction to an attachment part of an attachment assembly connected to the electronic device and arranged on the attachment component, wherein a second magnetic element is arranged on the attachment part of the attachment assembly and on attachment of the closure module to the attachment assembly interacts in a magnetically attracting manner with the first magnetic element arranged on the vacuum element or an element connected to the vacuum element.
A coating composition comprising: (a) a resinous binder, (b) up to 10 percent by weight of a phosphatized polyester comprising a reaction product comprising: (i) a polyester having an number average molecular weight (Mn) of 2000 to 10,000, a hydroxyl number of 20 to 75 mg KOH per gram of polyester, and an acid value of 15 to 25 mg KOH per gram of polyester, the polyester comprising a polycondensate of: a polyol component comprising a mixture of diols and triols, a polyacid component comprising an alpha, beta-ethylenically unsaturated polycarboxylic acid, and (ii) a phosphorus acid. (a) a resinous binder, (b) up to 10 percent by weight of a phosphatized polyester comprising a reaction product comprising: (i) a polyester having an number average molecular weight (Mn) of 2000 to 10,000, a hydroxyl number of 20 to 75 mg KOH per gram of polyester, and an acid value of 15 to 25 mg KOH per gram of polyester, the polyester comprising a polycondensate of: a polyol component comprising a mixture of diols and triols, a polyacid component comprising an alpha, beta-ethylenically unsaturated polycarboxylic acid, and (ii) a phosphorus acid. (i) a polyester having an number average molecular weight (Mn) of 2000 to 10,000, a hydroxyl number of 20 to 75 mg KOH per gram of polyester, and an acid value of 15 to 25 mg KOH per gram of polyester, the polyester comprising a polycondensate of: a polyol component comprising a mixture of diols and triols, a polyacid component comprising an alpha, beta-ethylenically unsaturated polycarboxylic acid, and a polyol component comprising a mixture of diols and triols, a polyacid component comprising an alpha, beta-ethylenically unsaturated polycarboxylic acid, and (ii) a phosphorus acid.
A self-testing hazard sensing device (100, 200, 300, 400), comprising: a sensor (304, 404); a coil-shaped wire (132, 232) that has been temporarily dipped in a material (134, 234) before being installed in the hazard sensing device such that the material (134, 234) is in direct contact with and between the coils of the coil-shaped wire (132, 232); a controller configured to provide a current to the coil-shaped wire (132, 232) to heat the material (134, 234) and generate aerosol and/or carbon monoxide; and an airflow generator (116, 216, 316, 416) configured to provide the aerosol and/or carbon monoxide to the sensor (304, 404); wherein the controller is configured to determine whether the self-testing hazard sensing device (100, 200, 300, 400) is functioning properly using the aerosol and/or carbon monoxide provided to the sensor (304, 404). a sensor (304, 404); a coil-shaped wire (132, 232) that has been temporarily dipped in a material (134, 234) before being installed in the hazard sensing device such that the material (134, 234) is in direct contact with and between the coils of the coil-shaped wire (132, 232); a controller configured to provide a current to the coil-shaped wire (132, 232) to heat the material (134, 234) and generate aerosol and/or carbon monoxide; and an airflow generator (116, 216, 316, 416) configured to provide the aerosol and/or carbon monoxide to the sensor (304, 404); wherein the controller is configured to determine whether the self-testing hazard sensing device (100, 200, 300, 400) is functioning properly using the aerosol and/or carbon monoxide provided to the sensor (304, 404).
A vehicle wash component, comprising: a rotatable hub portion (44, 30) having an axis of rotation and a hollow middle portion; a drive mechanism in communication with the hub portion (44, 50) to effectuate rotation thereof about the axis of rotation; a plurality of wash media elements (46, 52) engaged with the hub portion (44, 50) that are configured to engage a vehicle surface as the hub portion (44, 50) rotates, the plurality of wash media elements (46, 52) being arranged in a plurality of spaced apart arrays, which define open areas between the adjacent ones of the plurality of spaced apart arrays; one or more lighting elements disposed on the hub portion and in an open area of the hub portion (44, 50); characterised in that the vehicle wash component further comprises a slip ring assembly having an electrical connection and a plurality of channels, the electrical connection passing through the hollow middle portion of the hub portion (44, 50) and the plurality of the channels allowing power to be supplied from a power source to each of the lighting elements to permit their illumination and rotation while the hub portion rotates about the axis of rotation. a rotatable hub portion (44, 30) having an axis of rotation and a hollow middle portion; a drive mechanism in communication with the hub portion (44, 50) to effectuate rotation thereof about the axis of rotation; a plurality of wash media elements (46, 52) engaged with the hub portion (44, 50) that are configured to engage a vehicle surface as the hub portion (44, 50) rotates, the plurality of wash media elements (46, 52) being arranged in a plurality of spaced apart arrays, which define open areas between the adjacent ones of the plurality of spaced apart arrays; one or more lighting elements disposed on the hub portion and in an open area of the hub portion (44, 50); characterised in that the vehicle wash component further comprises a slip ring assembly having an electrical connection and a plurality of channels, the electrical connection passing through the hollow middle portion of the hub portion (44, 50) and the plurality of the channels allowing power to be supplied from a power source to each of the lighting elements to permit their illumination and rotation while the hub portion rotates about the axis of rotation.
Soft material separator having a perforated drum, which is perforated on the circumference, and having a squeezing band, which is guided along a circumferential section of the perforated drum and can be operated together with the perforated drum, and having a feed zone, from which a substance mixture consisting of substance components (12, 13) of different consistencies is drawn in between the perforated drum and the squeezing band for isolating and separating the substance components (12, 13), characterized by a detection system for quantitatively determining the filling state of the feed zone and a control device, which is connected to the detection system and is intended for adapting the speed of the perforated drum and the squeezing band depending on the filling state.
A wedge shaped spiral ring (300,114,214) including: an outer circumferential face configured to contact a wellbore casing or liner; a conical, inner circumferential face configured to contact a retainer (110,210), wherein the conical, inner circumferential face is angled relative to the outer circumferential face and the outer circumferential face is configured to be parallel with the wellbore casing or liner; and an axial end face configured to contact a packing element (112,212), wherein the axial end face is perpendicular to the outer circumferential face, wherein the wedge shaped spiral ring is cut as one continuous spiral. an outer circumferential face configured to contact a wellbore casing or liner; a conical, inner circumferential face configured to contact a retainer (110,210), wherein the conical, inner circumferential face is angled relative to the outer circumferential face and the outer circumferential face is configured to be parallel with the wellbore casing or liner; and an axial end face configured to contact a packing element (112,212), wherein the axial end face is perpendicular to the outer circumferential face, wherein the wedge shaped spiral ring is cut as one continuous spiral.
A method for screening personalized anticancer agents, the method comprising the steps of: (a) selecting candidate anticancer agents based on clinical and genetic information of a patient with cancer; (b) treating cancer cells from a patient with candidate anticancer agents in vitro, measuring the anticancer activity of the treated candidate anticancer agents, and selecting a group of personalized anticancer agent candidates having anticancer activity in vitro, from the candidate anticancer agents; and (c) treating a immunodeficient rodent model containing cancer cells from the patient with the selected candidate group of personalized anticancer agent candidates of step (b) to verify the anticancer effect of the candidate group in vivo, wherein steps (a) and (b) are performed with an avatar scanner apparatus, wherein the avatar scanner apparatus comprises a first means for selecting suitable candidate anticancer agents from the genetic information of the cancer, a second means for collecting cancer cells from a cancer tissue of the patient, and a third means for treating the cancer cells with the selected candidate anticancer agents and analyzing the effect of the candidate anticancer agents, wherein the avatar scanner apparatus includes a culture system, candidate anticancer agent reservoir, a candidate anticancer agent dispenser, a cell survival rate-measuring device, a data storage unit and a data analysis unit, wherein the culture system includes a medium reservoir, a cell dispenser, a medium exchanger, an incubator, a stirrer and a waste discharge unit. (a) selecting candidate anticancer agents based on clinical and genetic information of a patient with cancer; (b) treating cancer cells from a patient with candidate anticancer agents in vitro, measuring the anticancer activity of the treated candidate anticancer agents, and selecting a group of personalized anticancer agent candidates having anticancer activity in vitro, from the candidate anticancer agents; and (c) treating a immunodeficient rodent model containing cancer cells from the patient with the selected candidate group of personalized anticancer agent candidates of step (b) to verify the anticancer effect of the candidate group in vivo, wherein steps (a) and (b) are performed with an avatar scanner apparatus, wherein the avatar scanner apparatus comprises a first means for selecting suitable candidate anticancer agents from the genetic information of the cancer, a second means for collecting cancer cells from a cancer tissue of the patient, and a third means for treating the cancer cells with the selected candidate anticancer agents and analyzing the effect of the candidate anticancer agents, wherein the avatar scanner apparatus includes a culture system, candidate anticancer agent reservoir, a candidate anticancer agent dispenser, a cell survival rate-measuring device, a data storage unit and a data analysis unit, wherein the culture system includes a medium reservoir, a cell dispenser, a medium exchanger, an incubator, a stirrer and a waste discharge unit.
A processing device for processing stacked processed goods having an evacuatable processing chamber for receiving a process gas, which comprises a tempering device in order to keep at least a partial region of a wall of the processing chamber at a predetermined temperature, a gas conveying device (46, 50) for creating a circulating gas flow in the processing chamber by forced convection, a heating device arranged in the circulating gas flow created by the gas conveying device (46, 50) for heating up the gas, and a gas guiding device which is configured for receiving the processed goods stack and which is arranged in the processing chamber such that at least part of the circulating gas flow which is created extends through the gas guiding device, wherein the inside of the processing chamber wall is provided with a thermal insulating material which is unreactive under processing conditions.
A method for determining a spectrum to be used for a wireless in-cabin communication between a user equipment and a network node which are within an aircraft, the method comprising: - obtaining flight information indicating a position of the aircraft; - determining one or more available spectrums based on a regulation on an allowed spectrum corresponding to the flight information at the position; and - sending, to at least one of the user equipment and the network node, an instruction to use the one or more available spectrums for the wireless in-cabin communication. - obtaining flight information indicating a position of the aircraft; - determining one or more available spectrums based on a regulation on an allowed spectrum corresponding to the flight information at the position; and - sending, to at least one of the user equipment and the network node, an instruction to use the one or more available spectrums for the wireless in-cabin communication.