mhurhangee/ep-ind-claims huggingface dataset:
A method of in-line optical inspection of transparent or translucent containers traveling at a high rate between a linear camera and a light source presenting continuous variation in light intensity with a periodic pattern (7 1) of spatial period T along at least one variation direction, the light source and the linear camera being connected to a control and image processing unit, said method being characterized by the following steps: • for each movement increment ( k) of the inspected container, a sequence of N successive image lines (Li(k)) of the container is acquired cyclically for i lying in the range 1 to N, where N is not less than 3, such that for each image line (Li(k)), the following steps are performed: • illuminating the container with the light source; • acquiring the image line (Li(k)) of the container; and • shifting the periodic pattern (7 1) for the next line (Li+1(k)) in the variation direction through the distance equal to T/N; • for each increment ( k) of the container, calculating at least one phase image line (LP(k)) from the N image lines (L1(k) to LN(k)); and • analyzing the phase image lines (LP(k)) in order to deduce therefrom as a characteristic of the container, at least the presence of a light refracting defect or the quality of the distribution of the material constituting the container. • for each movement increment ( k) of the inspected container, a sequence of N successive image lines (Li(k)) of the container is acquired cyclically for i lying in the range 1 to N, where N is not less than 3, such that for each image line (Li(k)), the following steps are performed: • illuminating the container with the light source; • acquiring the image line (Li(k)) of the container; and • shifting the periodic pattern (7 1) for the next line (Li+1(k)) in the variation direction through the distance equal to T/N; • illuminating the container with the light source; • acquiring the image line (Li(k)) of the container; and • shifting the periodic pattern (7 1) for the next line (Li+1(k)) in the variation direction through the distance equal to T/N; • for each increment ( k) of the container, calculating at least one phase image line (LP(k)) from the N image lines (L1(k) to LN(k)); and • analyzing the phase image lines (LP(k)) in order to deduce therefrom as a characteristic of the container, at least the presence of a light refracting defect or the quality of the distribution of the material constituting the container.
A method for configuring a network slice, wherein the method comprises: receiving, by a terminal, network slice information sent by a core network; determining, by the terminal, whether the network slice information sent by the core network matches reference network slice information; characterized in that the method further comprises: if the terminal determines that the network slice information sent by the core network does not match the reference network slice information, storing, by the terminal, the network slice information that does not match the reference network slice information; and in a case that the terminal sends a network slice request message to the core network, indicating in the network slice request message that the network slice information that does not match the reference network slice information needs to be excluded from network slice information that is requested. receiving, by a terminal, network slice information sent by a core network; determining, by the terminal, whether the network slice information sent by the core network matches reference network slice information; characterized in that the method further comprises: if the terminal determines that the network slice information sent by the core network does not match the reference network slice information, storing, by the terminal, the network slice information that does not match the reference network slice information; and in a case that the terminal sends a network slice request message to the core network, indicating in the network slice request message that the network slice information that does not match the reference network slice information needs to be excluded from network slice information that is requested.
A process for inhibiting scale produced during wet process phosphoric acid production, the process comprising: adding a scale-inhibiting amount of a reagent comprising a primary amine-containing polymer, or salt thereof, to at least one stage of a wet process phosphoric acid production process, wherein said primary amine-containing polymer comprises an A mer according to Formula: where R is H, C 1 -C 6 alkyl, C 2 -C 6 alkenyl, halide, or carboxyl; R 1 is H, C 1 -C 6 alkyl, or C 2 -C 6 alkenyl; R 2 is H or an A mer according to Formula; R 3 is chosen from a direct bond or a C 1 -C 12 alkyl, C 2 -C 12 alkenyl, or a C 6 -C 12 aryl group; and n is an integer chosen to provide a weight average molecular weight of the primary amine-containing polymer of at least 300 Daltons, and wherein the percentage of primary amine in the polymer is from 30 mole % to 100 mole % based on the total percentage of mer units in the polymer. adding a scale-inhibiting amount of a reagent comprising a primary amine-containing polymer, or salt thereof, to at least one stage of a wet process phosphoric acid production process, wherein said primary amine-containing polymer comprises an A mer according to Formula: where R is H, C 1 -C 6 alkyl, C 2 -C 6 alkenyl, halide, or carboxyl; R 1 is H, C 1 -C 6 alkyl, or C 2 -C 6 alkenyl; R 2 is H or an A mer according to Formula; R 3 is chosen from a direct bond or a C 1 -C 12 alkyl, C 2 -C 12 alkenyl, or a C 6 -C 12 aryl group; and n is an integer chosen to provide a weight average molecular weight of the primary amine-containing polymer of at least 300 Daltons, and R is H, C 1 -C 6 alkyl, C 2 -C 6 alkenyl, halide, or carboxyl; R 1 is H, C 1 -C 6 alkyl, or C 2 -C 6 alkenyl; R 2 is H or an A mer according to Formula; R 3 is chosen from a direct bond or a C 1 -C 12 alkyl, C 2 -C 12 alkenyl, or a C 6 -C 12 aryl group; and n is an integer chosen to provide a weight average molecular weight of the primary amine-containing polymer of at least 300 Daltons, and wherein the percentage of primary amine in the polymer is from 30 mole % to 100 mole % based on the total percentage of mer units in the polymer.
An implantable medical device, comprising: a case; circuitry within the case configured to implement the functionality of the implantable medical device; a battery within the case electrically coupled to the circuitry; an insulating sleeve that surrounds at least a portion of the battery, wherein the insulating sleeve comprises at least one hole; and a first adhesive, wherein the first adhesive affixes the battery to the case through the at least one hole, wherein the battery is electrically isolated from the case by the insulating sleeve and the first adhesive. a case; circuitry within the case configured to implement the functionality of the implantable medical device; a battery within the case electrically coupled to the circuitry; an insulating sleeve that surrounds at least a portion of the battery, wherein the insulating sleeve comprises at least one hole; and a first adhesive, wherein the first adhesive affixes the battery to the case through the at least one hole, wherein the battery is electrically isolated from the case by the insulating sleeve and the first adhesive.
Method for linking a UPnP-controller device to a client module, the method being implemented by the client module and including: - a step of broadcasting a search request (SDReq) over a telecommunications network; - a step of receiving and processing at least one first reply (SDRep) to said request, said reply including addressing data (@MAPI) required to communicate with at least one server module (MAPI), fitted to trigger on command an execution by said UPnP-controller device of at least one predefined action. - a step of broadcasting a search request (SDReq) over a telecommunications network; - a step of receiving and processing at least one first reply (SDRep) to said request, said reply including addressing data (@MAPI) required to communicate with at least one server module (MAPI), fitted to trigger on command an execution by said UPnP-controller device of at least one predefined action.
A system for determining an operating mode of a battery, the system comprising: a voltage sensor configured to detect a present voltage across terminals (101, 102) of the battery; a non-transitory memory configured to store previously detected voltages across the terminals of the battery, and a previous operating mode of the battery; and a processor coupled to the voltage sensor and the non-transitory memory and configured to: determine the operating mode of the battery by comparing the present voltage across the terminals of the battery to the previously detected voltages of the battery and based on the previous operating mode of the battery: determine that the battery is in any following mode: a discharge mode, a charge mode, a float mode, a rest mode, an equalize mode, and a crank mode; and determine that the operating mode of the battery is the float mode based on an amount of time between a first change from the discharge mode to the charge mode and a second change from the charge mode to the float mode, and based on a state of charge of the battery at an end of the discharge mode. a voltage sensor configured to detect a present voltage across terminals (101, 102) of the battery; a non-transitory memory configured to store previously detected voltages across the terminals of the battery, and a previous operating mode of the battery; and a processor coupled to the voltage sensor and the non-transitory memory and configured to: determine the operating mode of the battery by comparing the present voltage across the terminals of the battery to the previously detected voltages of the battery and based on the previous operating mode of the battery: determine that the battery is in any following mode: a discharge mode, a charge mode, a float mode, a rest mode, an equalize mode, and a crank mode; and determine that the operating mode of the battery is the float mode based on an amount of time between a first change from the discharge mode to the charge mode and a second change from the charge mode to the float mode, and based on a state of charge of the battery at an end of the discharge mode. determine that the battery is in any following mode: a discharge mode, a charge mode, a float mode, a rest mode, an equalize mode, and a crank mode; and determine that the operating mode of the battery is the float mode based on an amount of time between a first change from the discharge mode to the charge mode and a second change from the charge mode to the float mode, and based on a state of charge of the battery at an end of the discharge mode.
A top drive system for wellbore operations, the top drive system comprising a top drive main shaft (16,160,270), main shaft bearings (160b,252) in contact with the main shaft (16,160,270), a housing enclosing a portion of the top drive main shaft (16,160,270), the portion of the top drive main shaft (16,160,270) having an exterior surface, a bearing retainer adjacent the top drive main shaft (16,160,270) for maintaining the main shaft bearings in position, a raised platform (160c, 290) on the bearing retainer, a seal system (160e, 250) for sealing an interface between the housing and the portion of the top drive main shaft (16,160,270), the seal system (160e, 250) having seal apparatus (160e, 292,294) on and supported by the raised platform (160c, 290), the seal apparatus (160e, 292,294) including at least one seal (160e, 294) between the raised platform (160c, 290) and the exterior surface of the portion of the top drive main shaft (16,160,270) enclosed within the housing, and the at least one seal located so that contaminants are flowable down from the at least one seal.
Receiving device for an electronically scanned antenna array radar, comprising an analogue reception filter, said device furthermore comprising digital filtering (51, 52) able to separate the received signals depending on their frequency, characterized in that said analogue reception filter is adapted to the entire operating band of said radar, said digital filtering comprising a digital filtering adapted to the instantaneous frequency band of the reception function and a digital filtering covering the available remainder of said entire frequency band, one portion of the frequency band of said entire frequency band being allocated to the radar reception function and the available being allocated to an RESM reception function.
A system, comprising: at least one rotary blade having a blade portion and a tip portion, wherein the tip portion comprises a tip shroud having a patterned structure of beams and cavities, the tip shroud protruding away from the blade portion of the at least one rotary blade in a crosswise direction relative to a longitudinal axis of the blade portion, characterized in that the tip shroud comprises a radially inner plate portion and a radially outer plate portion disposed about the patterned structure. at least one rotary blade having a blade portion and a tip portion, wherein the tip portion comprises a tip shroud having a patterned structure of beams and cavities, the tip shroud protruding away from the blade portion of the at least one rotary blade in a crosswise direction relative to a longitudinal axis of the blade portion, characterized in that the tip shroud comprises a radially inner plate portion and a radially outer plate portion disposed about the patterned structure.
Underwater drilling arrangement for making a bore in a bed of a water body, with - a service platform which can be lowered for placing on the bed of the water body, - a drill drive which is mounted so that it can be axially displaced on the service platform, and - a drill rod with drill head which can be rotatably driven via the drill drive, characterized in that - the drill rod being rotatably driven comprises a double pipe with a feeding channel for feeding a conveying fluid and a central conveying channel, through which the conveying fluid can be conveyed upwards together with excavated drill cuttings, and the drill rod is led through the drill drive, - the service platform for guiding the drill drive comprises a guide pipe, inside which the drill drive is guided in a displaceable manner, - an ejection line adapted as rigid line is connected to the drill rod and fluidically connected with the conveying channel above the drill drive via a clutch element, and - the ejection line extends upwards and a discharge opening is provided, via which the conveying fluid can be discharged underwater together with the excavated drill cuttings above the drill drive and above the service platform with the guide pipe. - a service platform which can be lowered for placing on the bed of the water body, - a drill drive which is mounted so that it can be axially displaced on the service platform, and - a drill rod with drill head which can be rotatably driven via the drill drive, - the drill rod being rotatably driven comprises a double pipe with a feeding channel for feeding a conveying fluid and a central conveying channel, through which the conveying fluid can be conveyed upwards together with excavated drill cuttings, and the drill rod is led through the drill drive, - the service platform for guiding the drill drive comprises a guide pipe, inside which the drill drive is guided in a displaceable manner, - an ejection line adapted as rigid line is connected to the drill rod and fluidically connected with the conveying channel above the drill drive via a clutch element, and - the ejection line extends upwards and a discharge opening is provided, via which the conveying fluid can be discharged underwater together with the excavated drill cuttings above the drill drive and above the service platform with the guide pipe.
A metal container consisting of a lateral wall defining a hollow body, to the upper and lower end edges of which there are secured, by seam-joining, a base and a lid consisting of a metal annular band to the inner edge of which a flexible sheet is secured, extending into a tab bent to face the sheet, wherein said lid comprises at least one hole, characterised in that said one hole is provided in the sheet and is maintained closed by said sheet when the container is in the closed configuration and is brought into the open configuration by operating said tab such as to detach said sheet from said annular band and wherein said hole is closed by a glue spot which also secures said tab),
A shelf-stocking device (10, 10a) for stocking shelves with goods, having supporting elements that can be located above the shelves, having a gripper system (16, 16a) that can travel along the supporting elements and has a frame, characterized in that the gripper system can be pivoted out of a non-use position located above the shelves, in which position the frame is in an essentially horizontal orientation, into a position for use located in front of the respective shelf to be stocked, in which position the frame is oriented essentially vertically, and the gripper system (16, 16a) has a gripper unit, which can travel in a travel plane formed by the frame, the gripper unit having gripper means (36, 38, 50, 56) with which, in the position for use, the shelf can be stocked.
A method comprising: forming nano- and/or micro-replication directly embossed in a surface of a bulk solidifying amorphous alloy comprising a metal alloy by superplastic forming of the surface of the bulk solidifying amorphous alloy at a temperature greater than a glass transition temperature (Tg) of the metal alloy, comprising: heating a mold comprising a pattern corresponding to the nano- and/or micro-replication to a temperature within Tg and a melting temperature of the metal alloy (Tm); and applying the mold to the surface of an article comprising the bulk solidifying amorphous alloy, thereby locally heating the surface of the article to at least Tg and imprinting the pattern on the particle; wherein the nano- and/or micro-replication comprise a hologram and during the forming nano- and/or micro-replication, a temperature of the bulk solidifying amorphous alloy is below Tg. forming nano- and/or micro-replication directly embossed in a surface of a bulk solidifying amorphous alloy comprising a metal alloy by superplastic forming of the surface of the bulk solidifying amorphous alloy at a temperature greater than a glass transition temperature (Tg) of the metal alloy, comprising: heating a mold comprising a pattern corresponding to the nano- and/or micro-replication to a temperature within Tg and a melting temperature of the metal alloy (Tm); and applying the mold to the surface of an article comprising the bulk solidifying amorphous alloy, thereby locally heating the surface of the article to at least Tg and imprinting the pattern on the particle; heating a mold comprising a pattern corresponding to the nano- and/or micro-replication to a temperature within Tg and a melting temperature of the metal alloy (Tm); and applying the mold to the surface of an article comprising the bulk solidifying amorphous alloy, thereby locally heating the surface of the article to at least Tg and imprinting the pattern on the particle; wherein the nano- and/or micro-replication comprise a hologram and during the forming nano- and/or micro-replication, a temperature of the bulk solidifying amorphous alloy is below Tg.
A precoding method, comprising: determining a generalized inverse matrix H m + of a channel value matrix H m of K users in an m th iteration in J iteration operations, wherein m=1, 2,..., J, 1≤J≤M-K+1, J is an integer, and M is a quantity of antennas; selecting, from a set S 1 m-1 based on H m +, an antenna index n m and an update coefficient α m corresponding to n m, wherein S 1 m-1 is a set of n unselected in antenna indexes n of the M antennas until an (m-1) th iteration ends; determining a weight matrix W m based on H m + and α m; and assigning a row that is in W m and that corresponds to n m to a row that is in a final weight matrix W opt and that corresponds to n m, wherein W opt is used to adjust transmit powers of at least J of the M antennas to a preset maximum transmit power P after the J iteration operations end, wherein the determining a weight matrix W m based on H m + and α m comprises: calculating W m by using a formula W m = W m − 1 + α m H m +, wherein W m-1 is a weight matrix used in the (m-1) th iteration. determining a generalized inverse matrix H m + of a channel value matrix H m of K users in an m th iteration in J iteration operations, wherein m=1, 2,..., J, 1≤J≤M-K+1, J is an integer, and M is a quantity of antennas; selecting, from a set S 1 m-1 based on H m +, an antenna index n m and an update coefficient α m corresponding to n m, wherein S 1 m-1 is a set of n unselected in antenna indexes n of the M antennas until an (m-1) th iteration ends; determining a weight matrix W m based on H m + and α m; and assigning a row that is in W m and that corresponds to n m to a row that is in a final weight matrix W opt and that corresponds to n m, wherein W opt is used to adjust transmit powers of at least J of the M antennas to a preset maximum transmit power P after the J iteration operations end, wherein the determining a weight matrix W m based on H m + and α m comprises: calculating W m by using a formula W m = W m − 1 + α m H m +, wherein W m-1 is a weight matrix used in the (m-1) th iteration.
A self-propelling work machine, in particular a tracked vehicle such as a bulldozer, having an electric drive comprising at least one electric motor, having a generator drivable by an internal combustion engine and for supplying the electric drive with electrical energy, and having at least one auxiliary unit, connected to the internal combustion engine, in the form of a hydraulic pump which is not required for the travel operation and conveys in idle circulation on driving or is swiveled to conveying a quantity of zero as well as having a braking apparatus for braking the work machine, wherein the named braking apparatus provides a regenerative braking by the electric drive and comprises a feedback apparatus for the feedback of electrical motor braking power of the electric motor to the generator, wherein the motor braking power of the at least one electric motor is transferred, at least up to the reaching of the retard capacity of the internal combustion engine and of the at least one auxiliary unit, completely to the generator connected to the internal combustion engine and the mechanical drive power generated by the generator is transferred completely to the internal combustion engine, characterized in that a control apparatus is provided for the automatic increasing and/or decreasing of the power pickup of the hydraulic pump in dependence on the electrical motor braking power fed back to the internal combustion engine and/or on the operating state of the internal combustion engine acted on by fed back motor braking power, with the control apparatus having a regulator for regulating the power pick-up of the hydraulic system such that the internal combustion engine is maintained at a predefined speed or comes as close as possible to the predefined speed.