mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a feed tube couplable to a source of molten metal; a primary nozzle located at a distal end of the feed tube, wherein the primary nozzle is submersible in a molten sump for delivering the molten metal to the molten sump and wherein the primary nozzle includes an exit opening through which the molten metal passes; and a secondary nozzle submersible in the molten sump and positionable adjacent the primary nozzle , wherein the secondary nozzle includes a restriction shaped to generate a low pressure area to circulate the molten sump in response to the molten metal from the exit opening of the primary nozzle passing through the restriction . a feed tube couplable to a source of molten metal; a primary nozzle located at a distal end of the feed tube, wherein the primary nozzle is submersible in a molten sump for delivering the molten metal to the molten sump and wherein the primary nozzle includes an exit opening through which the molten metal passes; and a secondary nozzle submersible in the molten sump and positionable adjacent the primary nozzle , wherein the secondary nozzle includes a restriction shaped to generate a low pressure area to circulate the molten sump in response to the molten metal from the exit opening of the primary nozzle passing through the restriction .
A combination of a developing apparatus and a developer including a toner and a magnetic carrier, said developing apparatus comprising: a developer carrying member for carrying said developer to develop a latent image formed on an image bearing member , said developer carrying member including a surface having a plurality of grooves extending in a longitudinal direction; a magnet , provided inside said developer carrying member , for attracting said developer on the surface of said developer carrying member ; a regulating member , provided spaced from said developer carrying member , for regulating an amount of said developer carried on said developer carrying member , wherein said regulating member consists of a non-magnetic member such that an amount M/S (mg/mm 2 ) of said developer carried on a unit area of said developer carrying member after passing by said regulating member , a gap SB (mm) between a free end of said regulating member and said developer carrying member , a density G (mg/mm 3 ) of said developer, a groove ratio α which is a ratio of the portion of the peripheral surface of the developer carrying member occupied by the grooves, relative to the entirety of the peripheral surface of the developer carrying member , and a depth D (mm) of the groove satisfy, 0.1 ≤ M / S mg / mm 2 ≤ 0.45 , and 0.2 ≤ SB mm ; characterized in that M / S mg / mm 2 × 1 / 4 ≤ α × SB mm + D mm × G mg / mm 3 < M / S mg / mm 2 , and 0.06 < α < 0.229 . a developer carrying member for carrying said developer to develop a latent image formed on an image bearing member , said developer carrying member including a surface having a plurality of grooves extending in a longitudinal direction; a magnet , provided inside said developer carrying member , for attracting said developer on the surface of said developer carrying member ; a regulating member , provided spaced from said developer carrying member , for regulating an amount of said developer carried on said developer carrying member , wherein said regulating member consists of a non-magnetic member such that an amount M/S (mg/mm 2 ) of said developer carried on a unit area of said developer carrying member after passing by said regulating member , a gap SB (mm) between a free end of said regulating member and said developer carrying member , a density G (mg/mm 3 ) of said developer, a groove ratio α which is a ratio of the portion of the peripheral surface of the developer carrying member occupied by the grooves, relative to the entirety of the peripheral surface of the developer carrying member , and a depth D (mm) of the groove satisfy, 0.1 ≤ M / S mg / mm 2 ≤ 0.45 , and 0.2 ≤ SB mm ; characterized in that M / S mg / mm 2 × 1 / 4 ≤ α × SB mm + D mm × G mg / mm 3 < M / S mg / mm 2 , and
A mouse having in its genome: (a) an unrearranged human genomic sequence comprising a single human V H gene segment, one or more human D H gene segments, and one or more human J H gene segments, wherein the single human V H gene segment, one or more human D H gene segments, and one or more human J H gene segments are operably linked to a mouse immunoglobulin heavy chain constant region gene, and wherein the single human V H gene segment is V H 1-2, V H 1-69, V H 2-26, V H 2-70, or a polymorphic variant thereof; and (b) a sequence that encodes a mouse ADAM6a protein or a functional fragment thereof and a sequence that encodes a mouse ADAM6b protein or a functional fragment thereof, wherein the mouse ADAM6a protein or functional fragment thereof and the mouse ADAM6b protein or functional fragment thereof are functional in a male mouse, wherein said encoding sequences are located at a position different than an ADAM6 locus of a wild-type mouse so that, in response to exposure to an antigen, B cells of the mouse express human heavy chain variable domains expressed from a human heavy chain variable region sequence including a V H gene segment that is identical to, or a somatically hypermutated version of, V H 1-2, V H 1-69, V H 2-26, V H 2-70, or a polymorphic variant thereof; wherein said mouse lacks a functional endogenous ADAM6 gene. (a) an unrearranged human genomic sequence comprising a single human V H gene segment, one or more human D H gene segments, and one or more human J H gene segments, wherein the single human V H gene segment, one or more human D H gene segments, and one or more human J H gene segments are operably linked to a mouse immunoglobulin heavy chain constant region gene, and wherein the single human V H gene segment is V H 1-2, V H 1-69, V H 2-26, V H 2-70, or a polymorphic variant thereof; and (b) a sequence that encodes a mouse ADAM6a protein or a functional fragment thereof and a sequence that encodes a mouse ADAM6b protein or a functional fragment thereof, wherein the mouse ADAM6a protein or functional fragment thereof and the mouse ADAM6b protein or functional fragment thereof are functional in a male mouse, wherein said encoding sequences are located at a position different than an ADAM6 locus of a wild-type mouse
An illumination apparatus for a vehicle, the illumination apparatus comprising: a projector configured to project an image of visible light; an obstacle detection apparatus configured to detect an obstacle; and a processing apparatus configured to predict a travel area of the vehicle after a predetermined time or a predetermined distance of travel, and project a first image of visible light with the projector in the predicted travel area upon no obstacle in the predicted travel area being detected by the obstacle detection apparatus, wherein the processing apparatus is further configured to project a second image of visible light , which is different from the first image, with the projector in the predicted travel area upon the obstacle in the predicted travel area being detected by the obstacle detection apparatus, characterized in that the second image is formed such that the obstacle as a whole is featured with respect to a surrounding area, and the second image includes a first image portion and a second image portion, the first image portion being a checkered pattern and projected on an area where the obstacle as a whole is featured in the travel area, the second image portion being projected on another area in the travel area. a projector configured to project an image of visible light; an obstacle detection apparatus configured to detect an obstacle; and a processing apparatus configured to predict a travel area of the vehicle after a predetermined time or a predetermined distance of travel, and project a first image of visible light with the projector in the predicted travel area upon no obstacle in the predicted travel area being detected by the obstacle detection apparatus, wherein predict a travel area of the vehicle after a predetermined time or a predetermined distance of travel, and project a first image of visible light with the projector in the predicted travel area upon no obstacle in the predicted travel area being detected by the obstacle detection apparatus, wherein the processing apparatus is further configured to project a second image of visible light , which is different from the first image, with the projector in the predicted travel area upon the obstacle in the predicted travel area being detected by the obstacle detection apparatus, characterized in that the second image is formed such that the obstacle as a whole is featured with respect to a surrounding area, and the second image includes a first image portion and a second image portion, the first image portion being a checkered pattern and projected on an area where the obstacle as a whole is featured in the travel area, the second image portion being projected on another area in the travel area.
A device comprising: a receiver configured to receive a bitstream that includes an encoded mid channel of an audio signal and an inter-channel prediction gain ; a low-band mid channel decoder configured to decode a low-band portion of the encoded mid channel to generate a decoded low-band mid channel ; a low-band mid channel filter configured to filter the decoded low-band mid channel according to one or more filter coefficients to generate a low-band filtered mid channel ; an inter-channel predictor configured to generate an inter-channel predicted signal based on the low-band filtered mid channel and the inter-channel prediction gain; an up-mix processor configured to generate a low-band left channel and a low-band right channel based on an up-mix factor , the decoded low-band mid channel, and the inter-channel predicted signal; a high-band mid channel decoder configured to decode a high-band portion of the encoded mid channel to generate a decoded high-band mid channel ; an inter-channel prediction mapper configured to generate a predicted high-band side channel based on the inter-channel prediction gain and a filtered version of the decoded high-band mid channel ; and an inter-channel bandwidth extension decoder configured to generate a high-band left channel and a high-band right channel based on the decoded high-band mid channel and the predicted high-band side channel. a receiver configured to receive a bitstream that includes an encoded mid channel of an audio signal and an inter-channel prediction gain ; a low-band mid channel decoder configured to decode a low-band portion of the encoded mid channel to generate a decoded low-band mid channel ; a low-band mid channel filter configured to filter the decoded low-band mid channel according to one or more filter coefficients to generate a low-band filtered mid channel ; an inter-channel predictor configured to generate an inter-channel predicted signal based on the low-band filtered mid channel and the inter-channel prediction gain; an up-mix processor configured to generate a low-band left channel and a low-band right channel based on an up-mix factor , the decoded low-band mid channel, and the inter-channel predicted signal; a high-band mid channel decoder configured to decode a high-band portion of the encoded mid channel to generate a decoded high-band mid channel ; an inter-channel prediction mapper configured to generate a predicted high-band side channel based on the inter-channel prediction gain and a filtered version of the decoded high-band mid channel ; and an inter-channel bandwidth extension decoder configured to generate a high-band left channel and a high-band right channel based on the decoded high-band mid channel and the predicted high-band side channel.
A coating process , comprising: positioning an article relative to an inductor ; heating the article with the inductor ; then concurrently heating the article and applying a coating material over the article to form a crystalline coating ; wherein the concurrent heating of the article and application of the coating material over the article comprises increasing a first temperature of a surface of the article to a second temperature favoring crystal formation, and the second temperature is maintained by heating with the inductor while applying the coating material , and wherein the crystalline coating is formed without a post-coating heat treatment; and the coating process further comprising relatively manipulating the inductor and the article during the maintaining of the second temperature favoring crystal formation. positioning an article relative to an inductor ; heating the article with the inductor ; then concurrently heating the article and applying a coating material over the article to form a crystalline coating ; wherein the concurrent heating of the article and application of the coating material over the article comprises increasing a first temperature of a surface of the article to a second temperature favoring crystal formation, and the second temperature is maintained by heating with the inductor while applying the coating material , and wherein the crystalline coating is formed without a post-coating heat treatment; and the coating process further comprising relatively manipulating the inductor and the article during the maintaining of the second temperature favoring crystal formation.
A simulation apparatus of a satellite, the apparatus comprising: a communicator configured to receive operational data from a satellite and transmit telecommands to the satellite ; a Flight Dynamics Subsystem (FDS) configured to calculate flight dynamics information of the satellite based on the received operational data; and a simulator ; characterised in that the apparatus comprises an updater configured to update a simulated value of the simulator for simulating an operation of the satellite based on at least one of the operational data , telecommands , and flight dynamics information. a communicator configured to receive operational data from a satellite and transmit telecommands to the satellite ; a Flight Dynamics Subsystem (FDS) configured to calculate flight dynamics information of the satellite based on the received operational data; and a simulator ; characterised in that the apparatus comprises an updater configured to update a simulated value of the simulator for simulating an operation of the satellite based on at least one of the operational data , telecommands , and flight dynamics information.
A method for ground pressure limitation during the operation of a pile driver and/or drill, characterized by the steps: determining a limit value in the form of the maximum permitted ground pressure by manual input by the operator and/or carrying out an automatic measurement; setting the current unit configuration such as in particular the pole length or the ballast; determining the current unit load and calculating the actual ground pressure by a computing model and corresponding sensors; comparing the calculated actual ground pressure with the limit value in the form of the maximum permitted ground pressure; and reporting the comparison result to the operator of the work machine and/or stopping a movement of the work machine that increases the ground pressure when the actual ground pressure exceeds the limit value, whereby the taking into consideration of the limit value in the form of the maximum ground pressure can become the switch-off criteria determining a limit value in the form of the maximum permitted ground pressure by manual input by the operator and/or carrying out an automatic measurement; setting the current unit configuration such as in particular the pole length or the ballast; determining the current unit load and calculating the actual ground pressure by a computing model and corresponding sensors; comparing the calculated actual ground pressure with the limit value in the form of the maximum permitted ground pressure; and reporting the comparison result to the operator of the work machine and/or stopping a movement of the work machine that increases the ground pressure when the actual ground pressure exceeds the limit value, whereby the taking into consideration of the limit value in the form of the maximum ground pressure can become the switch-off criteria
An electrode assembly comprising: a housing having a first end and a second end; an electrode extending from the first end of the housing to a process flow; a contact screw for transmitting the electromotive force sensed by the electrode , wherein an electrical connection is formed between the electrode and the contact screw ; a retainer positioned about the electrode , inside the housing; a cap disposed on the second end of the housing , opposite electrode , which works together with the retainer to hold the electrode and the contact screw in position; and a potting material for filling voids between the components of the electrode assembly between the first end of the housing and the second end of the housing , such that the potting material limits displacement of the electrode when the electrode is subject to pressure from the process flow, wherein the potting material is disposed within voids between the electrode and the cap . a housing having a first end and a second end; an electrode extending from the first end of the housing to a process flow; a contact screw for transmitting the electromotive force sensed by the electrode , wherein an electrical connection is formed between the electrode and the contact screw ; a retainer positioned about the electrode , inside the housing; a cap disposed on the second end of the housing , opposite electrode , which works together with the retainer to hold the electrode and the contact screw in position; and a potting material for filling voids between the components of the electrode assembly between the first end of the housing and the second end of the housing , such that the potting material limits displacement of the electrode when the electrode is subject to pressure from the process flow, wherein the potting material is disposed within voids between the electrode and the cap .
A method comprising: receiving (206; 304-b; 404-b), by a wireless device from a wireless access network node , an indication of a supported extended emergency information, EEI, type supported by a wireless local area network, WLAN , wherein the supported EEI type is selected from among a plurality of different EEI types; sending (210; 308; 408) to a Registered Public Land Mobile Network, RPLMN, by the wireless device, a Session Initiation Protocol, SIP, message relating to an emergency call, the message including an extended emergency location, EEL, data set, the EEL data set comprising the supported EEI type and EEL information according to the supported EEI type, wherein the EEL information provides information enabling determination of a location of the wireless device ; and sending, by the wireless device, the EEL data set in a message to a node for updating by the node an EEL data set entry of an Extended Medium Access Control, E-MAC, database of the node; wherein the EEI type is used as an index to the entry of the E-MAC database for the EEL information. receiving (206; 304-b; 404-b), by a wireless device from a wireless access network node , an indication of a supported extended emergency information, EEI, type supported by a wireless local area network, WLAN , wherein the supported EEI type is selected from among a plurality of different EEI types; sending (210; 308; 408) to a Registered Public Land Mobile Network, RPLMN, by the wireless device, a Session Initiation Protocol, SIP, message relating to an emergency call, the message including an extended emergency location, EEL, data set, the EEL data set comprising the supported EEI type and EEL information according to the supported EEI type, wherein the EEL information provides information enabling determination of a location of the wireless device ; and sending, by the wireless device, the EEL data set in a message to a node for updating by the node an EEL data set entry of an Extended Medium Access Control, E-MAC, database of the node; wherein the EEI type is used as an index to the entry of the E-MAC database for the EEL information.
A backflush device for filters of a sampling system having a connecting element , which is passed through by a retrieval line that is connectable to the filter and which has at least one backflush line ending in the retrieval line , having a check valve arranged at or in the backflush line , wherein the check valve is connectable to a pressure line for a pressurized flush medium such that in the case of an open check valve the backflush line may be flown through by the flush medium in a backflush direction oriented towards the retrieval line , wherein the backflush line ends in the retrieval line at an obtuse angle (α), observed in the direction of the backflush direction , wherein the connecting element has a plurality of backflush lines , which are arranged radially about the retrieval line .
Use of a separating medium comprising or consisting of at least one essential oil for separating at least two layers of a multilayer composite that are bonded to one another over their area by at least one polyurethane-based adhesion promoter and/or at least one polyurethane-based adhesive polymer, the essential oil being selected from the group consisting of phenylpropanoids.
Medical device for bidirectional perfusion with oxygen-enriched blood, the device comprising a tubular body and being configured such that the tubular body can be inserted into a blood vessel , wherein the tubular body extends from a first end to a second end to allow oxygen-enriched blood to flow from an inlet at the first end in a forward direction to an outlet at the second end and to be dispensed from the outlet in the forward direction , wherein between the inlet of the tubular body and the outlet of the tubular body there is at least one side hole in the tubular body with a deflecting body which is located on the outside of the tubular body above the side hole , in order to deflect oxygen-enriched blood emerging from the side hole in a backward direction directed opposite to the forward direction , wherein the device is configured such that in operation the oxygen-enriched blood flows from the inlet both via the at least one side hole in the backward direction and from the outlet in the forward direction into the blood vessel , wherein the oxygen-enriched blood flows mainly in the forward direction from the outlet into the blood vessel , characterized in that the deflecting body surrounds the tubular body in the circumferential direction.