mhurhangee/ep-ind-claims huggingface dataset:
A method of training a machine learning, ML, algorithm to control a watercraft, wherein the watercraft is a submarine or a submersible submerged in water, the method implemented, at least in part, by a computer, comprising a processor and a memory, aboard the watercraft, the method comprising: obtaining training data including respective sets of environmental parameters and corresponding actions of a set of communicatively isolated watercraft, including a first watercraft; and training the ML algorithm comprising determining relationships between the respective sets of environmental parameters and the corresponding actions of the watercraft of the set thereof, wherein determining the relationships between the respective sets of environmental parameters and the corresponding actions of the watercraft of the set thereof comprises detecting boundaries related to the environmental parameters and relating the corresponding actions to the detected boundaries, the method characterised in that: the detecting boundaries related to the environmental parameters comprises detecting a thermocline based on a sensed temperature and/or density of the water, and the corresponding actions account for changes in density of the water to maintain a constant depth, buoyancy and/or a trajectory of the watercraft through the thermocline, and wherein the watercraft is a communicatively isolated watercraft. obtaining training data including respective sets of environmental parameters and corresponding actions of a set of communicatively isolated watercraft, including a first watercraft; and training the ML algorithm comprising determining relationships between the respective sets of environmental parameters and the corresponding actions of the watercraft of the set thereof, wherein determining the relationships between the respective sets of environmental parameters and the corresponding actions of the watercraft of the set thereof comprises detecting boundaries related to the environmental parameters and relating the corresponding actions to the detected boundaries, the method characterised in that: the detecting boundaries related to the environmental parameters comprises detecting a thermocline based on a sensed temperature and/or density of the water, and the corresponding actions account for changes in density of the water to maintain a constant depth, buoyancy and/or a trajectory of the watercraft through the thermocline, and wherein the watercraft is a communicatively isolated watercraft. the detecting boundaries related to the environmental parameters comprises detecting a thermocline based on a sensed temperature and/or density of the water, and the corresponding actions account for changes in density of the water to maintain a constant depth, buoyancy and/or a trajectory of the watercraft through the thermocline, and wherein the watercraft is a communicatively isolated watercraft.
An alloy having the following composition: Cu 47at%-(x+y+z) (Ti a Zr b) c Ni 7at%+x Sn 1at%+y Si z wherein c = 43 - 47 at%, a = 0.65-0.85, b=0.15-0.35, wherein a+b=1.00; x = 5-7 at%; y = 0-2 at%, z = 0-2 at%, wherein y+z ≤ 4 at%; wherein the alloy optionally contains oxygen in a maximum concentration of 1.7 at%, and the remainder is unavoidable impurities. Cu 47at%-(x+y+z) (Ti a Zr b) c Ni 7at%+x Sn 1at%+y Si z wherein c = 43 - 47 at%, a = 0.65-0.85, b=0.15-0.35, wherein a+b=1.00; x = 5-7 at%; y = 0-2 at%, z = 0-2 at%, wherein y+z ≤ 4 at%;
An extremities immobilization device comprising: an elongated main body comprising a plurality of panels with a hinged panel connection between a first of said plurality of panels and an adjacent panel, wherein: each of said plurality of panels comprises a plurality of segments with a hinged segment connection between a first of said plurality of segments and an adjacent segment; a panel connection angle is defined by a geometric angle between said first panel and said adjacent panel; and a segment connection angle is defined by a geometric angle between said first segment and said adjacent segment, the immobilization device characterized in that: said main body includes a pinch point, said pinch point being defined by opposed angle segments of adjacent segments of adjacent panels, the pinch point being configured to establish and maintain the panel connection angle at a predetermined angle when the opposed angle segments are folder over one another. each of said plurality of panels comprises a plurality of segments with a hinged segment connection between a first of said plurality of segments and an adjacent segment; a panel connection angle is defined by a geometric angle between said first panel and said adjacent panel; and a segment connection angle is defined by a geometric angle between said first segment and said adjacent segment, the immobilization device characterized in that: said main body includes a pinch point, said pinch point being defined by opposed angle segments of adjacent segments of adjacent panels, the pinch point being configured to establish and maintain the panel connection angle at a predetermined angle when the opposed angle segments are folder over one another.
A data processing method, comprising: receiving a data flow, wherein the data flow comprises multiple data points, and data information of each data point comprises a collection time point at which the data point is collected and an element collected at the collection time point; generating a triplet set according to the data flow, wherein each triplet in the set comprises three items, the first item is a first element in the data flow, the second item comprises a first time point at which the first element appears in the data flow and a first quantity of times that the first element appears in the data flow by the first time point, and the third item comprises a second time point at which the first element appears in the data flow and a second quantity of times that the first element appears in the data flow by the second time point, wherein the second time point is later than the first time point; and performing (S 103) data processing on the data flow according to the triplet set. receiving a data flow, wherein the data flow comprises multiple data points, and data information of each data point comprises a collection time point at which the data point is collected and an element collected at the collection time point; generating a triplet set according to the data flow, wherein each triplet in the set comprises three items, the first item is a first element in the data flow, the second item comprises a first time point at which the first element appears in the data flow and a first quantity of times that the first element appears in the data flow by the first time point, and the third item comprises a second time point at which the first element appears in the data flow and a second quantity of times that the first element appears in the data flow by the second time point, wherein the second time point is later than the first time point; and performing (S 103) data processing on the data flow according to the triplet set.
A method of assembling a camshaft assembly for an internal combustion engine having the steps of placing an inner shaft having holes within a hollow outer shaft having slots; such that the slots on the outer shaft are aligned with the holes on the inner shaft, fixing a first set of cam lobes 6 to the outer shaft and placing a second set of cam lobes with a clearance fit over slots on the outer shaft; mounting a variable cam timing device (30, 100) to the inner shaft and the outer shaft of the camshaft, such that the position of the inner shaft is adjustable relative to the outer shaft, and swelling centers of hollow pins within an inner diameter of the inner shaft, further comprising the steps of: inserting the hollow pins into a hole defined by the second set of cam lobes, through the slot in the outer shaft and the hole in the inner shaft, continuing through the axis of rotation to an other side of the second set of cam lobes; and characterized by inserting a plug into a first end of the hollow pin; and wherein the swelling of the centers of the hollow pins within an inner diameter of the inner shaft is by introducing fluid under pressure into the hollow pins through a second end of the hollow pin after inserting the plug into the first end of the hollow pin inserting the hollow pins into a hole defined by the second set of cam lobes, through the slot in the outer shaft and the hole in the inner shaft, continuing through the axis of rotation to an other side of the second set of cam lobes; and characterized by inserting a plug into a first end of the hollow pin; and wherein the swelling of the centers of the hollow pins within an inner diameter of the inner shaft is by introducing fluid under pressure into the hollow pins through a second end of the hollow pin after inserting the plug into the first end of the hollow pin
A positioning frame structure, 100, for the centering and positioning of an integrated circuit, 200, comprising a magnetic sensor, in which the positioning frame structure comprises: an IC carrier, 101, having a first chamber, 103, and a second chamber, 104; an IC holder, 300, configured to receive the IC; and an IC positioning magnet, 102, wherein the IC positioning magnet is disposed in the first chamber, and the IC holder is fixedly and removably disposed in the second chamber so that the IC holder is disposed above the IC positioning magnet disposed within the first chamber so as to center and position the IC relative to the IC positioning magnet, wherein a size of the IC positioning magnet is larger than a size of the IC, wherein a size of the second chamber is larger than a size of the first chamber, wherein the IC holder comprises a receiving portion, the IC being held in the receiving portion, the receiving portion being sized and shaped to correspond to the size and shape of the IC so that the IC can be fixedly disposed in the receiving portion, wherein the first chamber comprises an open top, and wherein the second chamber comprises: a bottom comprising a shoulder formed between the top of the first chamber and the circumference of the second chamber, the IC holder abutting against the shoulder; a circumference comprising a plurality of walls extending from an outer circumference of the shoulder; and an open top. an IC carrier, 101, having a first chamber, 103, and a second chamber, 104; an IC holder, 300, configured to receive the IC; and an IC positioning magnet, 102, wherein the IC positioning magnet is disposed in the first chamber, and the IC holder is fixedly and removably disposed in the second chamber so that the IC holder is disposed above the IC positioning magnet disposed within the first chamber so as to center and position the IC relative to the IC positioning magnet, wherein a size of the IC positioning magnet is larger than a size of the IC, wherein a size of the second chamber is larger than a size of the first chamber, wherein the IC holder comprises a receiving portion, the IC being held in the receiving portion, the receiving portion being sized and shaped to correspond to the size and shape of the IC so that the IC can be fixedly disposed in the receiving portion, wherein the first chamber comprises an open top, and wherein the second chamber comprises: a bottom comprising a shoulder formed between the top of the first chamber and the circumference of the second chamber, the IC holder abutting against the shoulder; a circumference comprising a plurality of walls extending from an outer circumference of the shoulder; and an open top. a bottom comprising a shoulder formed between the top of the first chamber and the circumference of the second chamber, the IC holder abutting against the shoulder; a circumference comprising a plurality of walls extending from an outer circumference of the shoulder; and an open top.
A method for managing at least one user label (EtU) that is associated with a multimedia object (ObM) held by a user and saved in an application server, the user label (EtU) being accessible to at least one other user over a telecommunications network, the method comprising the following steps in the application server: semantically analyzing the contents of an expression included in the user label (EtU) to determine a structured set (VoS) of privacy labels (EtC), whenever another user accesses the user label (EtU), determining the social category of another user with respect to the user, and selecting a privacy label (EtC) in the structured set (VoS) related to the user label (EtU) based on the determined social category, sending the selected privacy label (EtC) to the other user. semantically analyzing the contents of an expression included in the user label (EtU) to determine a structured set (VoS) of privacy labels (EtC), whenever another user accesses the user label (EtU), determining the social category of another user with respect to the user, and selecting a privacy label (EtC) in the structured set (VoS) related to the user label (EtU) based on the determined social category, sending the selected privacy label (EtC) to the other user.
A tubewire injection system for injecting tubewire into coiled tubing, the system comprising: a tubewire injector having a drive mechanism to apply an axial pushing force to inject the tubewire; coiled tubing having an inner diameter and presenting an open whip end into which the tubewire is injected; and a tubewire buckling mitigation assembly located between the injector and the coiled tubing and comprising a passageway which receives the tubewire from the injector, the passageway providing: a small diameter passage having an interior diameter that inhibits buckling of the tubewire; an intermediate diameter section having an interior diameter that permits limited buckling of the tubewire; and a first tapered transition section disposed between the small diameter passage and the intermediate diameter section. a tubewire injector having a drive mechanism to apply an axial pushing force to inject the tubewire; coiled tubing having an inner diameter and presenting an open whip end into which the tubewire is injected; and a tubewire buckling mitigation assembly located between the injector and the coiled tubing and comprising a passageway which receives the tubewire from the injector, the passageway providing: a small diameter passage having an interior diameter that inhibits buckling of the tubewire; an intermediate diameter section having an interior diameter that permits limited buckling of the tubewire; and a first tapered transition section disposed between the small diameter passage and the intermediate diameter section. a small diameter passage having an interior diameter that inhibits buckling of the tubewire; an intermediate diameter section having an interior diameter that permits limited buckling of the tubewire; and a first tapered transition section disposed between the small diameter passage and the intermediate diameter section.
A method performed by a device having an application processor configured to function based on an operating System and a co-processor configured to receive data from a plurality of sensors of the device, the method comprising: determining an interrupt by a given sensor of the plurality of sensors of the device, wherein the interrupt is indicative of the given sensor having data for output; providing, by the co-processor, a timestamp of the interrupt by the given sensor that is indicative of a time that the given sensor has data for output; receiving, by the co-processor, the data for output from the given sensor; associating the timestamp of the interrupt by the given sensor with the received data from the given sensor; associating together data received from the plurality of sensors into data structures based on timestamps of the data as provided by the co-processor; and providing, by the co-processor, the data structures to the application processor in sequence based on the timestamps of the data. determining an interrupt by a given sensor of the plurality of sensors of the device, wherein the interrupt is indicative of the given sensor having data for output; providing, by the co-processor, a timestamp of the interrupt by the given sensor that is indicative of a time that the given sensor has data for output; receiving, by the co-processor, the data for output from the given sensor; associating the timestamp of the interrupt by the given sensor with the received data from the given sensor; associating together data received from the plurality of sensors into data structures based on timestamps of the data as provided by the co-processor; and providing, by the co-processor, the data structures to the application processor in sequence based on the timestamps of the data.
A bioconjugate comprising a carrier protein linked to a hybrid oligosaccharide or polysaccharide having a structure n -A→ wherein A is an oligosaccharide repeat unit of a Streptococcus pneumoniae capsular saccharide containing at least 2, 3, 4, 5, 6, 7 or 8 monosaccharides, with a hexose monosaccharide derivative at the reducing end (indicated by arrow); wherein B is an oligosaccharide repeat unit containing at least 2, 3, 4, 5, 6, 7 or 8 monosaccharides; wherein A and B are different oligosaccharide repeat units; and wherein n is at least 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, or at least 20, wherein the oligosaccharide repeat unit of A and the oligosaccharide repeat unit of B differ only by containing a different monosaccharide at the reducing end of the repeat, wherein the B oligosaccharide repeat contains a hexose monosaccharide at the reducing end of the repeat. wherein A is an oligosaccharide repeat unit of a Streptococcus pneumoniae capsular saccharide containing at least 2, 3, 4, 5, 6, 7 or 8 monosaccharides, with a hexose monosaccharide derivative at the reducing end (indicated by arrow); wherein B is an oligosaccharide repeat unit containing at least 2, 3, 4, 5, 6, 7 or 8 monosaccharides; wherein A and B are different oligosaccharide repeat units; and wherein n is at least 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, or at least 20, wherein the oligosaccharide repeat unit of A and the oligosaccharide repeat unit of B differ only by containing a different monosaccharide at the reducing end of the repeat, wherein the B oligosaccharide repeat contains a hexose monosaccharide at the reducing end of the repeat.
Use of a polypeptide having DNase activity for preventing, reducing or removing static electricity from an item on which static electricity may accumulate, wherein the item is a textile or a hard surface.
A razor comprising a cartridge; a handle coupled to said cartridge; a loop shaped spring member (10, 30a, 30b, 38, 40a, 40b, 40c, 50a, 50b, 60a, 60b, 92, 122, 124) disposed in an assembly (72, 72a, 72b), said assembly (72, 72a, 72b) having one or more movable portions (72a, 72b), said one or more movable portions (72a, 72b) providing an angular rotation of said handle to said cartridge, characterized in that said loop shaped spring member (10, 30a, 30b, 38, 40a, 40b, 40c, 50a, 50b, 60a, 60b, 92, 122, 124) has overlapping end portions.
Trailed agricultural machine fitted with a front rotor and a rear rotor, each rotor (2, 3) comprising fingers able to rake a product lying on the ground such as cut grass, each rotor (2, 3) rolling over the ground by means of a respective undercarriage (5, 6), the machine being also fitted with a drawbar, which can be connected to a tractor by a coupling device, a front beam mounted to pivot with the drawbar along a horizontally oriented front axis, on which is mounted the front rotor, a rear beam mounted to pivot with the front beam along a first vertically oriented axis and a second horizontally oriented axis, the rear rotor being mounted on the rear beam, the machine being able to occupy a work configuration in which the rear beam is close to the ground, and a manoeuvring configuration in which the rear beam is further away from the ground, machine characterized in that a central actuator, articulated to the front beam on one hand and to the rear beam on the other hand, enables a downward force to be exerted on the undercarriage of the front rotor.
A poppet valve, comprising: a valve body comprising an inlet and an outlet; a first orifice disposed fluidically between the inlet and the outlet; a second orifice disposed fluidically between the inlet and the outlet, wherein the second orifice and the first orifice have a common central longitudinal axis; and a poppet assembly comprising a valve stem having a first end for cooperating with a valve actuator and a second end longitudinally opposite the first end; a first valve member coupled to the valve stem in a longitudinally fixed position and having a first side configured to sealingly engage the first orifice and a second side opposite the first side; a second valve member coupled to the valve stem, wherein the second valve member has a first side configured to sealingly engage the second orifice and a second side opposite the first side; a first coupler for coupling the second valve member to the valve stem, wherein the first coupler is coupled to the second side of the second valve member; a seal configured to couple to the first coupler and the valve stem; and a second coupler configured to couple to the first coupler; wherein the valve stem is disposed at least partially through the second valve member and the first coupler; wherein the first coupler, the second coupler and the seal are configured to sealingly couple the second valve member to the valve stem; wherein the first valve member is disposed longitudinally between the second valve member and whichever of the first and second ends of the valve stem is farthest from the second valve member; and wherein the seal is a tubular ferrule disposed about the valve stem and wherein the first and second couplers (128. 130) are threaded couplers configured to compress the ferrule radially inwardly onto the valve stem.
An e-vapor device, comprising: a reservoir configured to hold a pre-vapor formulation, the reservoir defining an outlet configured to release the pre-vapor formulation therefrom; a heater configured to heat the pre-vapor formulation released from the reservoir to generate a vapor; and a bimetallic actuator configured to seal the outlet of the reservoir when vaping is not occurring and configured to unseal the outlet when vaping is occurring, wherein the bimetallic actuator is configured to unseal the outlet of the reservoir upon application of a current to the bimetallic actuator. a reservoir configured to hold a pre-vapor formulation, the reservoir defining an outlet configured to release the pre-vapor formulation therefrom; a heater configured to heat the pre-vapor formulation released from the reservoir to generate a vapor; and a bimetallic actuator configured to seal the outlet of the reservoir when vaping is not occurring and configured to unseal the outlet when vaping is occurring, wherein the bimetallic actuator is configured to unseal the outlet of the reservoir upon application of a current to the bimetallic actuator.