mhurhangee/patent-ind-claim-en huggingface dataset:
A repeater system comprising: repeater circuitry configured to repeat signals between a device and a first base station , the repeater circuitry including receiver circuitry configured to receive downlink signals from the first base station and a second base station and to receive uplink signals from the device , and transmitter circuitry configured to transmit uplink signals to the first base station ; controller circuitry configured to monitor at least one downlink signal parameter from the first base station and the second base station and at least one uplink signal parameter from the device , the controller circuitry configured to compare the monitored downlink signal parameters from the first base station and the second base station to each other to determine a comparison value; the controller circuitry further configured to determine whether transmitted uplink signals from the repeater system will desensitize the operation of a receiver of the second base station based on the monitored downlink signal parameters and the determined comparison value and operable to adjust the power level of the transmitted uplink signals from the repeater system when it is determined that transmitted uplink signals from the repeater system will desensitize the operation of the receiver of the second base station . repeater circuitry configured to repeat signals between a device and a first base station , the repeater circuitry including receiver circuitry configured to receive downlink signals from the first base station and a second base station and to receive uplink signals from the device , and transmitter circuitry configured to transmit uplink signals to the first base station ; controller circuitry configured to monitor at least one downlink signal parameter from the first base station and the second base station and at least one uplink signal parameter from the device , the controller circuitry configured to compare the monitored downlink signal parameters from the first base station and the second base station to each other to determine a comparison value; the controller circuitry further configured to determine whether transmitted uplink signals from the repeater system will desensitize the operation of a receiver of the second base station based on the monitored downlink signal parameters and the determined comparison value and operable to adjust the power level of the transmitted uplink signals from the repeater system when it is determined that transmitted uplink signals from the repeater system will desensitize the operation of the receiver of the second base station .
Decorative part for a motor vehicle, comprising: - a substrate, preferably a plastic substrate, - an electroplated layer array on the substrate - a coloring cover layer applied to the outer surface of the electroplated layer array by means of physical vapor deposition, characterized in that the coloring cover layer is part of a PVD layer system that comprises, between the substrate and the cover layer, an adhesive layer and that comprises, between the adhesive layer and the cover layer, a mixed layer, wherein the mixed layer comprises a first metal Me1 and a second metal Me2 and elements X in the mixed layer, wherein X is one or more elements from the group consisting of nitrogen, carbon and oxygen, wherein X comprises both nitrogen and carbon, wherein the mixed layer is formed according to the formula (Me1aMe2b) uXv, wherein a+b=1, and v is selected in proportion to u in such a way that X is not represented in an overstoichiometric manner, and wherein Me1 is chromium and Me2 is zirconium. - a substrate, preferably a plastic substrate, - an electroplated layer array on the substrate - a coloring cover layer applied to the outer surface of the electroplated layer array by means of physical vapor deposition,
A method for manufacturing a brush handle, comprising the steps of: processing a wood material into a predetermined shape; forming a first primer layer on the processed wood material; forming a metal deposition layer by depositing metal on the first primer layer; and forming a second primer layer on the metal deposition layer, wherein the processed wood material has a marginal length of 1 to 6 cm, and wherein the method further comprises the step of cutting the marginal length, after the second primer layer forming step. processing a wood material into a predetermined shape; forming a first primer layer on the processed wood material; forming a metal deposition layer by depositing metal on the first primer layer; and forming a second primer layer on the metal deposition layer, wherein the processed wood material has a marginal length of 1 to 6 cm, and wherein the method further comprises the step of cutting the marginal length, after the second primer layer forming step.
An electrolysis cell comprising: - an anode; - a cathode in spaced relation from the anode; - a molten electrolyte bath in liquid communication with the anode and the cathode; and - a cell body comprising at least one sidewall and a bottom; wherein the molten electrolyte bath forms a bath-vapor interface with the ambient; wherein the cell body is configured to retain the molten electrolyte bath; and wherein the at least one sidewall comprises a polarized sidewall portion, wherein the polarized sidewall portion comprises not greater than 95% of the sidewall and is in liquid communication with the molten electrolyte bath, wherein the sidewall is from 5mm thick to 500 mm thick. - an anode; - a cathode in spaced relation from the anode; - a molten electrolyte bath in liquid communication with the anode and the cathode; and - a cell body comprising at least one sidewall and a bottom; wherein the molten electrolyte bath forms a bath-vapor interface with the ambient; wherein the cell body is configured to retain the molten electrolyte bath; and wherein the at least one sidewall comprises a polarized sidewall portion, wherein the polarized sidewall portion comprises not greater than 95% of the sidewall and is in liquid communication with the molten electrolyte bath, wherein the sidewall is from 5mm thick to 500 mm thick.
A compound selected from the group consisting of and or a pharmaceutically acceptable salt thereof.
A system comprising: a base station device configured to connect to a plurality of mobile stations and to relay data between the plurality of mobile stations and a mobile backhaul network; a plurality of wireless transmission devices each configured to function as a radio station configured to perform wireless transmission for connecting the base station device to the mobile backhaul network; and a data transfer device configured to be connected to each of the plurality of wireless transmission devices via a first communication cable and connected to the base station device via a second communication cable , the data transfer device being configured to function as a router or a switch and transfer data packets or data frames between the base station device and the plurality of wireless transmission devices , wherein the base station device is accommodated in a first enclosure configured to provide protection from ingress of water and dust and is configured to be installed outdoors, wherein each of the plurality of wireless transmission devices is accommodated in a second enclosure configured to provide protection from ingress of water and dust and is configured to be installed outdoors, wherein the data transfer device is accommodated in a third enclosure configured to provide protection from ingress of water and dust and is configured to be installed outdoors, and wherein the first enclosure , the second enclosure , and the third enclosure are distinct from one another. a base station device configured to connect to a plurality of mobile stations and to relay data between the plurality of mobile stations and a mobile backhaul network; a plurality of wireless transmission devices each configured to function as a radio station configured to perform wireless transmission for connecting the base station device to the mobile backhaul network; and a data transfer device configured to be connected to each of the plurality of wireless transmission devices via a first communication cable and connected to the base station device via a second communication cable , the data transfer device being configured to function as a router or a switch and transfer data packets or data frames between the base station device and the plurality of wireless transmission devices , wherein the base station device is accommodated in a first enclosure configured to provide protection from ingress of water and dust and is configured to be installed outdoors, wherein each of the plurality of wireless transmission devices is accommodated in a second enclosure configured to provide protection from ingress of water and dust and is configured to be installed outdoors, wherein the data transfer device is accommodated in a third enclosure configured to provide protection from ingress of water and dust and is configured to be installed outdoors, and wherein the first enclosure , the second enclosure , and the third enclosure are distinct from one another.
Bacteriophage strains specific against bacteria belonging to the species Proteus mirabilis, deposited with the Polish Collection of Microorganisms (PCM) under the access numbers: F/00084 (72APm5211), F/00085 (39APmC32), F/00086 (65APm2833), for use in therapy.
Solar cell comprising a layer system wherein at least one layer of the layer system is a light absorbing layer, wherein said light absorbing layer comprises a compound of general formula I or II: wherein • R3, R4 and R5 are independently H or a radical selected from aryl, alkyl, fluorinated or partly fluorinated alkyl, unsaturated alkyl and • R8 and R9 are independently selected from halogen, alkyl, fluorinated or partly fluorinated alkyl, alkenyl, alkynyl, alkoxy, aryl or heteroaryl characterized in that • R1 and R2, and R6 and R7 in each case together, form a heterocyclic 5-membered ring or 6-membered ring having at least one heteroatom selected from S, O, N and P, or R1 and R2, and R6 and R7 form a homocyclic 6-membered ring having no further fusion, wherein preferably, at least three of the four remaining bonding sites on the homocyclic ring remain unsubstituted and the compound of general formula I or II is a donor of an donor-acceptor-heteojunction. • R3, R4 and R5 are independently H or a radical selected from aryl, alkyl, fluorinated or partly fluorinated alkyl, unsaturated alkyl and • R8 and R9 are independently selected from halogen, alkyl, fluorinated or partly fluorinated alkyl, alkenyl, alkynyl, alkoxy, aryl or heteroaryl • R1 and R2, and R6 and R7 in each case together, form a heterocyclic 5-membered ring or 6-membered ring having at least one heteroatom selected from S, O, N and P, or R1 and R2, and R6 and R7 form a homocyclic 6-membered ring having no further fusion, wherein preferably, at least three of the four remaining bonding sites on the homocyclic ring remain unsubstituted and the compound of general formula I or II is a donor of an donor-acceptor-heteojunction.
A method of characterizing a sample of plurality of protein aggregates, comprising: flowing the sample through an observation volume of a holographic microscope; generating a first set of holograms based upon holographic video microscopy of a first set of protein aggregates within the observation volume at a first time; characterizing each of the protein aggregates of the first set of protein aggregates as a sphere; and determining the refractive index and the radius for characterized sphere of the first set of protein aggregates; generating a second set of holograms based upon holographic video microscopy of a second set of protein aggregates within the observation volume at a second time; characterizing each of the protein aggregates of the second set of protein aggregate as a sphere; and determining the refractive index and the radius for each of the protein aggregates of the second set of protein aggregates; wherein the characterizing of each of the protein aggregates of the first set and the second set further comprises modeling each of the protein aggregates of the first set and of the second set as a fractal cluster of fractal dimension D where: φ a p = a 0 a p 3 − D . Hereby, Φ is the volume fraction of proteins, a 0 is the protein radius, and a p is the protein aggregate radius. flowing the sample through an observation volume of a holographic microscope; generating a first set of holograms based upon holographic video microscopy of a first set of protein aggregates within the observation volume at a first time; characterizing each of the protein aggregates of the first set of protein aggregates as a sphere; and determining the refractive index and the radius for characterized sphere of the first set of protein aggregates; generating a second set of holograms based upon holographic video microscopy of a second set of protein aggregates within the observation volume at a second time; characterizing each of the protein aggregates of the second set of protein aggregate as a sphere; and determining the refractive index and the radius for each of the protein aggregates of the second set of protein aggregates; wherein the characterizing of each of the protein aggregates of the first set and the second set further comprises modeling each of the protein aggregates of the first set and of the second set as a fractal cluster of fractal dimension D where: φ a p = a 0 a p 3 − D . Hereby, Φ is the volume fraction of proteins, a 0 is the protein radius, and a p is the protein aggregate radius.
A computing system , comprising: a display ; a sensor system including a plurality of sensors distributed at respective locations relative to the display to detect a presence of a structural feature of a camera device ; and a computing device programmed to: receive an output from one or more sensors of the sensor system indicative of the presence of the structural feature of the camera device ; determine a location of the camera device relative to the display based on the output received from the one or more sensors; and present a graphical user interface (GUI) window for the camera device via the display at a location that is based on the location of the camera device ; characterized in that the structural feature of the camera device includes one or more magnetic elements ; and wherein the plurality of sensors include one or more sensors configured to vary an output voltage responsive to the presence of the one or more magnetic elements of the camera device . a display ; a sensor system including a plurality of sensors distributed at respective locations relative to the display to detect a presence of a structural feature of a camera device ; and a computing device programmed to: receive an output from one or more sensors of the sensor system indicative of the presence of the structural feature of the camera device ; determine a location of the camera device relative to the display based on the output received from the one or more sensors; and present a graphical user interface (GUI) window for the camera device via the display at a location that is based on the location of the camera device ; characterized in that the structural feature of the camera device includes one or more magnetic elements ; and wherein the plurality of sensors include one or more sensors configured to vary an output voltage responsive to the presence of the one or more magnetic elements of the camera device . receive an output from one or more sensors of the sensor system indicative of the presence of the structural feature of the camera device ; determine a location of the camera device relative to the display based on the output received from the one or more sensors; and present a graphical user interface (GUI) window for the camera device via the display at a location that is based on the location of the camera device ; characterized in that the structural feature of the camera device includes one or more magnetic elements ; and
A method for performing event-driven diagnostics and/or prognostics of a network behaviour of a hierarchical optical network comprising the steps of: (a) recording (S1) at least one set of historical multi-level events representing different hierarchy levels of said optical network ; (b) mining (S2) of machine learned event patterns within the recorded multi-level events; (c) mapping (S3) the determined mined event patterns to a multi-level network topology of said optical network and/or to a channel connectivity of channels through said optical network ; and (d) matching (S4) observed real-time multi-level target events of said optical network with at least one of the previously determined mined event patterns and performing a unified cause and effect analysis of network states and/or network components of said optical network for a recognized matching event pattern using the network topology and/or channel connectivity associated with the matching event pattern, wherein lower-level events are aggregated according to the hierarchy levels of said optical network and the matching is performed on the basis of aggregated high-level events. (a) recording (S1) at least one set of historical multi-level events representing different hierarchy levels of said optical network ; (b) mining (S2) of machine learned event patterns within the recorded multi-level events; (c) mapping (S3) the determined mined event patterns to a multi-level network topology of said optical network and/or to a channel connectivity of channels through said optical network ; and (d) matching (S4) observed real-time multi-level target events of said optical network with at least one of the previously determined mined event patterns and performing a unified cause and effect analysis of network states and/or network components of said optical network for a recognized matching event pattern using the network topology and/or channel connectivity associated with the matching event pattern, wherein lower-level events are aggregated according to the hierarchy levels of said optical network and the matching is performed on the basis of aggregated high-level events.
A method of producing a smooth, shelf-stable food product, which is shelf-stable for at least two months comprising: aseptically thermally processing a mixture comprising at least one food component and at least one shear sensitive thickener, wherein the at least one food component is a dairy product selected from the group consisting of pudding, yogurt, sour cream, buttermilk, and combinations thereof, wherein the at least one food component has a protein content of 2 wt% or greater, wherein the shear sensitive thickener is citrus fiber, and wherein the step of aseptically thermally processing the mixture comprises heating the mixture at a temperature in a range of from 132.2°C (270°F) to 143.3°C (290°F); at least partially cooling the mixture after the step of aseptically thermally processing the mixture, wherein the mixture is at least partially cooled to a temperature in a range of from 48.9°C (120°F) to 71.1°C (160°F); and aseptically homogenizing the mixture after the step of cooling the mixture, the obtained mixture being the food product. aseptically thermally processing a mixture comprising at least one food component and at least one shear sensitive thickener, wherein the at least one food component is a dairy product selected from the group consisting of pudding, yogurt, sour cream, buttermilk, and combinations thereof, wherein the at least one food component has a protein content of 2 wt% or greater, wherein the shear sensitive thickener is citrus fiber, and wherein the step of aseptically thermally processing the mixture comprises heating the mixture at a temperature in a range of from 132.2°C (270°F) to 143.3°C (290°F); at least partially cooling the mixture after the step of aseptically thermally processing the mixture, wherein the mixture is at least partially cooled to a temperature in a range of from 48.9°C (120°F) to 71.1°C (160°F); and aseptically homogenizing the mixture after the step of cooling the mixture, the obtained mixture being the food product.
Method for determining an indication value for the efficiency of an industrial truck, wherein the industrial truck has data recording means for determining a lifting height of a lifting device, data recording means for determining a load weight and data recording means for determining the acceleration and/or speed and/or distance travelled by the industrial truck, and the indication value is determined by a data recording computer , characterized in that the data recording computer determines the indication value from the sum of lifting work and transportation work over a measuring time period, wherein the lifting work corresponds to the product of the load weight and raised lifting height , and the transportation work corresponds to the energy necessary to move the load weight.
A liquid resin composition for sealing, comprising an aliphatic epoxy compound (A), an epoxy compound (B) having an aromatic ring in a molecule, a nitrogen-containing heterocyclic compound (C), and an inorganic filler (D), wherein a percentage content of the inorganic filler (D) is 77% by mass or more with respect to a total mass of the composition, wherein the epoxy compound (B) having an aromatic ring in a molecule comprises at least one of N,N-diglycidylorthotoluidine or N,N-bis(2,3-epoxypropyl)-4-(2,3-epoxypropoxy)aniline, wherein the nitrogen-containing heterocyclic compound (C) comprises an imidazole, and wherein a percentage content of the aliphatic epoxy compound (A) is from 3% by mass to 40% by mass with respect to the total amount of compounds having an epoxy group. wherein a percentage content of the inorganic filler (D) is 77% by mass or more with respect to a total mass of the composition, wherein the epoxy compound (B) having an aromatic ring in a molecule comprises at least one of N,N-diglycidylorthotoluidine or N,N-bis(2,3-epoxypropyl)-4-(2,3-epoxypropoxy)aniline, wherein the nitrogen-containing heterocyclic compound (C) comprises an imidazole, and wherein a percentage content of the aliphatic epoxy compound (A) is from 3% by mass to 40% by mass with respect to the total amount of compounds having an epoxy group.
A can body printing system comprising: a plurality of printing devices installed in different locations, each performing printing on a can body by inkjet printing; a management device managing the plurality of printing devices ; and a client device and a prototype printer device both set at an ordering center, wherein a design image from an orderer in the ordering center is transmitted from the client device to the management device , the management device performs image processing on the obtained design image to be printed on the can body and creates print image data to be used in the plurality of printing devices , and the prototype printer device performs inkjet printing on an unprinted can based on the print image data created by the management device . a plurality of printing devices installed in different locations, each performing printing on a can body by inkjet printing; a management device managing the plurality of printing devices ; and a client device and a prototype printer device both set at an ordering center, wherein a design image from an orderer in the ordering center is transmitted from the client device to the management device , the management device performs image processing on the obtained design image to be printed on the can body and creates print image data to be used in the plurality of printing devices , and the prototype printer device performs inkjet printing on an unprinted can based on the print image data created by the management device .