mhurhangee/ep-ind-claims huggingface dataset:
A system for managing physical assets in a manufacturing system, the system comprising: a plurality of product controllers (305, 405) corresponding to physical assets in the manufacturing system, wherein each product controller (305, 405) corresponds to a distinct product and exists through the entire life cycle including design, production and operation phases of the product and is configured to: store a desired product state for the corresponding product; collect sensor data received from one or more sensors in the manufacturing system, determine an actual product state based on the collected sensor data; determine one or more actions to be performed on one or more products in the manufacture system to yield the desired product state; and transmit control instructions for performing the one or more actions to one or more operation controllers (310, 410) in the manufacturing system. store a desired product state for the corresponding product; collect sensor data received from one or more sensors in the manufacturing system, determine an actual product state based on the collected sensor data; determine one or more actions to be performed on one or more products in the manufacture system to yield the desired product state; and transmit control instructions for performing the one or more actions to one or more operation controllers (310, 410) in the manufacturing system.
An inflatable slide assembly comprising: an inflatable support frame comprising: an elongated first tube formed from a first fabric, the first tube including at least a first outer wall segment defining a first cavity therein; and an elongated second tube spaced laterally from the first tube, the second tube formed from the first fabric including at least a second outer wall segment defining a second cavity therein; a first web formed from a second fabric, and a second web formed from the second fabric, the first web including two or more elongated edges secured to circumferentially spaced interior surfaces of the first outer wall segment such that the first web extends longitudinally along a portion of a first tube length L 1 inside the first cavity to divide the first cavity along first tube length L 1 into at least two sections and to define a first reinforced tube portion; and the second web including two or more elongated edges secured to circumferentially spaced interior surfaces of the second outer wall segment such that the second web extends longitudinally along a portion of a second tube length L 2 inside the second cavity to divide the second cavity along second tube length L 2 into at least two sections and to define a second reinforced tube portion, and further comprising: a slide ramp secured to and supported laterally by at least the first and second tubes. an inflatable support frame comprising: an elongated first tube formed from a first fabric, the first tube including at least a first outer wall segment defining a first cavity therein; and an elongated second tube spaced laterally from the first tube, the second tube formed from the first fabric including at least a second outer wall segment defining a second cavity therein; an elongated first tube formed from a first fabric, the first tube including at least a first outer wall segment defining a first cavity therein; and an elongated second tube spaced laterally from the first tube, the second tube formed from the first fabric including at least a second outer wall segment defining a second cavity therein; a first web formed from a second fabric, and a second web formed from the second fabric, the first web including two or more elongated edges secured to circumferentially spaced interior surfaces of the first outer wall segment such that the first web extends longitudinally along a portion of a first tube length L 1 inside the first cavity to divide the first cavity along first tube length L 1 into at least two sections and to define a first reinforced tube portion; and the second web including two or more elongated edges secured to circumferentially spaced interior surfaces of the second outer wall segment such that the second web extends longitudinally along a portion of a second tube length L 2 inside the second cavity to divide the second cavity along second tube length L 2 into at least two sections and to define a second reinforced tube portion, and further comprising: a slide ramp secured to and supported laterally by at least the first and second tubes.
A pneumatic tire: in which a rubber layer having an excellent air impermeability is disposed as an inner liner at an innermost layer side of the tire and in which a rubber layer disposed between the inner liner and a carcass ply layer and adjacent to the inner liner comprises a rubber composition containing a natural rubber alone or a natural rubber and a synthetic diene rubber as a rubber component, wherein the rubber layer contains: a butyl rubber alone or a blend rubber of a diene rubber and a butyl rubber as a rubber component, and 30 parts by mass or more of the butyl rubber is contained based on 100 parts by mass of the rubber component; the rubber layer is composed of a rubber composition which contains: 0.4 to 1.0 parts by mass of the sulfur, 1.0 part by mass or more of the bismaleimide compound as a cross-linking agent based on 100 parts by mass of the rubber component, and 1.5 to 3.0 parts by mass of a vulcanization accelerator and in which a blend amount of the sulfur and a blend amount of the vulcanization accelerator satisfy the following equation; and an elongation at break after subjected to air heat aging at 100°C for 1000 hours is 150% or more: vulcanization accelerator ≤ − 2.14 × sulfur + 5.43 in which a rubber layer having an excellent air impermeability is disposed as an inner liner at an innermost layer side of the tire and in which a rubber layer disposed between the inner liner and a carcass ply layer and adjacent to the inner liner comprises a rubber composition containing a natural rubber alone or a natural rubber and a synthetic diene rubber as a rubber component, wherein the rubber layer contains: a butyl rubber alone or a blend rubber of a diene rubber and a butyl rubber as a rubber component, and 30 parts by mass or more of the butyl rubber is contained based on 100 parts by mass of the rubber component; a butyl rubber alone or a blend rubber of a diene rubber and a butyl rubber as a rubber component, and 30 parts by mass or more of the butyl rubber is contained based on 100 parts by mass of the rubber component; the rubber layer is composed of a rubber composition which contains: 0.4 to 1.0 parts by mass of the sulfur, 1.0 part by mass or more of the bismaleimide compound as a cross-linking agent based on 100 parts by mass of the rubber component, and 1.5 to 3.0 parts by mass of a vulcanization accelerator and 0.4 to 1.0 parts by mass of the sulfur, 1.0 part by mass or more of the bismaleimide compound as a cross-linking agent based on 100 parts by mass of the rubber component, and 1.5 to 3.0 parts by mass of a vulcanization accelerator and in which a blend amount of the sulfur and a blend amount of the vulcanization accelerator satisfy the following equation; and an elongation at break after subjected to air heat aging at 100°C for 1000 hours is 150% or more: vulcanization accelerator ≤ − 2.14 × sulfur + 5.43
A method for transmitting uplink data to a base station (20, 1610) in a wireless communication system, the method performed by a User Equipment (10, 1620) comprising: performing a random access procedure with the base station (20, 1610); receiving control information, from the base station (20, 1610) including a first parameter and a second parameter for configuring a transmission power depending on an altitude of the User Equipment from the base station (20, 1610); configuring the transmission power for transmitting first uplink data; and transmitting the first uplink data to the base station (20, 1610) according to the configured transmission power, wherein the transmission power is configured depending on the altitude of the User Equipment (10, 1620), wherein the transmission power is configured according to the first parameter and the second parameter, wherein the first parameter indicates the altitude, and wherein the second parameter is an arbitrary integer value for reducing the transmission power depending on the altitude, wherein the configured transmission power is reduced according to the following mathematical expression depending on the altitude, and wherein 'a' is the first parameter and 'b' is the second parameter in the following mathematical expression, configured transmission power = initial transmission power a^b. performing a random access procedure with the base station (20, 1610); receiving control information, from the base station (20, 1610) including a first parameter and a second parameter for configuring a transmission power depending on an altitude of the User Equipment from the base station (20, 1610); configuring the transmission power for transmitting first uplink data; and transmitting the first uplink data to the base station (20, 1610) according to the configured transmission power, wherein the transmission power is configured depending on the altitude of the User Equipment (10, 1620), wherein the transmission power is configured according to the first parameter and the second parameter, wherein the first parameter indicates the altitude, and wherein the second parameter is an arbitrary integer value for reducing the transmission power depending on the altitude, wherein the configured transmission power is reduced according to the following mathematical expression depending on the altitude, and wherein 'a' is the first parameter and 'b' is the second parameter in the following mathematical expression, configured transmission power = initial transmission power a^b.
An electronic device comprising a plurality of stacked substrates (SM1, SM2, SMn, 1, 1A, 1E, 2C), wherein each of said substrates (SM1, SM2, SMn, 1, 1A, 1E, 2C) includes a semiconductor substrate, a columnar conductor (2A, 3, 3E), and a ring-shaped insulator, said columnar conductor (2A, 3, 3E) extends along a thickness direction of the corresponding said semiconductor substrate (SM1, SM2, SMn, 1, 1A, 1E, 2C), said ring-shaped insulator includes an inorganic insulating layer containing a glass and nm-sized ceramic particles, and said inorganic insulating layer fills a ring-shaped groove that is provided in the corresponding said semiconductor substrate (SM1, SM2, SMn, 1, 1A, 1E, 2C) to surround said columnar conductor (2A, 3, 3E), characterized in that the ceramic material of said nm-sized ceramic particles has a specific resistance at normal temperature of at least 10 14 Ω·cm and a relative permittivity in the range of 4 to 9.
A method for manufacturing an impeller that is mounted rotatably about an axis and features a hub, on which fan blades are arranged, wherein said fan blades are on their radially outer edge provided with at least one transversely protruding flow element and with at least one additional transversely protruding flow element at a radial distance therefrom, characterized in that the additional flow element lies on a suitable diameter for cutting to length the fan blades, and in that the fan blades are severed along the additional flow element such that the additional flow element lies on the outer edge of the shortened fan blade.
Vibration exciter for a ground compacting device having - a first unbalanced shaft on which at least one first unbalanced mass (4a, 4b) is disposed, - a second unbalanced shaft which is disposed axially in parallel with the first unbalanced shaft, is coupled in a form-locking manner to the first unbalanced shaft in a counter-rotatable manner and on which at least one second unbalanced mass is disposed, - a drive device for rotatably driving one of the unbalanced shafts (3, 7), and having - a turning device (11a, 11b) which can be actuated by an actuation device (12a, 22a, 12b, 22b) in order to turn the second unbalanced mass relative to the first unbalanced mass (4a, 4b), wherein - the second unbalanced shaft has at least one cavity, - the actuation device (12a, 22a, 12b, 22b) is disposed at least partially within the cavity, - the second unbalanced shaft comprises a first unbalanced shaft half, supporting the second unbalanced mass, and a second unbalanced shaft half disposed coaxially with respect to the first unbalanced shaft half, able to turn relative to the first unbalanced shaft half and supporting a third unbalanced mass, - by means of the turning device the first unbalanced shaft half can be turned relative to the second unbalanced shaft half, and wherein - the actuation device (12a, 22a, 12b, 22b) comprises a piston/cylinder unit, characterised in that the piston/cylinder unit (12a, 12b, 22a, 22b) is decoupled from a rotation of the second unbalanced shaft by a rotation decoupling device (18a, 18b). - a first unbalanced shaft on which at least one first unbalanced mass (4a, 4b) is disposed, - a second unbalanced shaft which is disposed axially in parallel with the first unbalanced shaft, is coupled in a form-locking manner to the first unbalanced shaft in a counter-rotatable manner and on which at least one second unbalanced mass is disposed, - a drive device for rotatably driving one of the unbalanced shafts (3, 7), and having - a turning device (11a, 11b) which can be actuated by an actuation device (12a, 22a, 12b, 22b) in order to turn the second unbalanced mass relative to the first unbalanced mass (4a, 4b), wherein - the second unbalanced shaft has at least one cavity, - the actuation device (12a, 22a, 12b, 22b) is disposed at least partially within the cavity, - the second unbalanced shaft comprises a first unbalanced shaft half, supporting the second unbalanced mass, and a second unbalanced shaft half disposed coaxially with respect to the first unbalanced shaft half, able to turn relative to the first unbalanced shaft half and supporting a third unbalanced mass, - by means of the turning device the first unbalanced shaft half can be turned relative to the second unbalanced shaft half, and wherein - the actuation device (12a, 22a, 12b, 22b) comprises a piston/cylinder unit,
A bus repeater for open-drain bus communication comprising a repeating unit, the repeating unit having an A-side terminal configured to be electrically connected to an A-side open-drain bus line, and a B-side terminal configured to be electrically connected to a B-side open-drain bus line, the repeating unit being operable in a first mode in which the repeating unit is configured to receive a signal at the A-side terminal and to produce a signal at the B-side terminal based on the signal received at the A-side terminal, wherein the repeating unit comprises a B-side accelerator element electrically connected to the B-side terminal, wherein the repeating unit further comprises a first control unit configured to, when the repeating unit is operating in the first mode, control the B-side accelerator element to pull up a voltage at the B-side terminal when the voltage at the A-side terminal surpasses a first threshold voltage during a rising edge of said voltage, and to subsequently control the B-side accelerator element to stop pulling up the voltage at the B-side terminal when the voltage at the B-side terminal surpasses a second threshold voltage. wherein the repeating unit comprises a B-side accelerator element electrically connected to the B-side terminal, wherein the repeating unit further comprises a first control unit configured to, when the repeating unit is operating in the first mode, control the B-side accelerator element to pull up a voltage at the B-side terminal when the voltage at the A-side terminal surpasses a first threshold voltage during a rising edge of said voltage, and to subsequently control the B-side accelerator element to stop pulling up the voltage at the B-side terminal when the voltage at the B-side terminal surpasses a second threshold voltage.
Absorber tube, in particular for solar collectors in solar thermal power plants, having at least one collector mirror, comprising - a metal tube for conducting and heating a heat carrier medium, - an envelope tube which surrounds the metal tube and which serves to form an evacuable annular space, - a first container which is arranged in the annular space and which is filled with inert gas, wherein the first container has an outlet opening which is closed off by means of a closure material which, under external action, opens up the outlet opening for the introduction of the inert gas into the annular space, wherein the external action can be imparted by an activatable opening unit for opening up the outlet opening, and - an outer ring and a transition element which surround the metal tube for the purpose of the sealing off of the annular space, characterized in that the first container is fixed in the annular space by means of a retention device, wherein the retention device is arranged on the outer ring and/or on the transition element, wherein the retention device comprises one or more braze points formed from metallic braze, and in that at least one of the braze points for fixing the first container in the annular space also closes off the outlet opening. - a metal tube for conducting and heating a heat carrier medium, - an envelope tube which surrounds the metal tube and which serves to form an evacuable annular space, - a first container which is arranged in the annular space and which is filled with inert gas, wherein the first container has an outlet opening which is closed off by means of a closure material which, under external action, opens up the outlet opening for the introduction of the inert gas into the annular space, wherein the external action can be imparted by an activatable opening unit for opening up the outlet opening, and - an outer ring and a transition element which surround the metal tube for the purpose of the sealing off of the annular space,
A method for changing a termination point of a radio bearer, the method being performed by a target base station (104A/B, 106A/B) and comprising the steps of: determining, by one or more processors, a change in the termination point from a source base station (104A/B, 106A/B) to a target base station for the radio bearer with a current count value according to data unit sequencing, the current count value including a hyper frame number and a packet data convergence protocol sequence number; determining, by the one or more processors, whether the data unit sequencing changes as a result of the change in the termination point, wherein the change in the termination point results in a packet data convergence protocol version change, and wherein the change in the termination point is from an evolved node B to a 5G node B, from a 5G node B to an evolved node B, or from an evolved node B to another evolved node B; receiving, from the source base station, a sequence number status transfer message including the current count value; in a first instance, in response to determining that the data unit sequencing does not change, applying the current count value to the radio bearer; and in a second instance, in response to determining that the data unit sequencing changes, ignoring the current count value and applying a new count value different from the current count value to the radio bearer. determining, by one or more processors, a change in the termination point from a source base station (104A/B, 106A/B) to a target base station for the radio bearer with a current count value according to data unit sequencing, the current count value including a hyper frame number and a packet data convergence protocol sequence number; determining, by the one or more processors, whether the data unit sequencing changes as a result of the change in the termination point, wherein the change in the termination point results in a packet data convergence protocol version change, and wherein the change in the termination point is from an evolved node B to a 5G node B, from a 5G node B to an evolved node B, or from an evolved node B to another evolved node B; receiving, from the source base station, a sequence number status transfer message including the current count value; in a first instance, in response to determining that the data unit sequencing does not change, applying the current count value to the radio bearer; and in a second instance, in response to determining that the data unit sequencing changes, ignoring the current count value and applying a new count value different from the current count value to the radio bearer.
Storage yarn feeder comprising a body having a drum onto which winds a yarn forming at least one coil, said yarn coming from a reel, being provided with a braking organ cooperating with said drum to brake the yarn leaving said drum, said braking organ comprising braking means capable of cooperating with the yarn when it detaches from the drum as it leaves the feeder and heads towards a textile machine, characterised in that the drum comprises a first and a second portion, the latter provided for directly supporting the yarn coils and supporting a first body of the braking organ, said first body being connected to the second portion of the drum and to a second body movable in relation to the first body and cooperating therewith to brake the yarn interposed between said first body and second body and the first body being in the form of a cup, fitted onto a terminal end of the second portion of the drum and being provided with mechanical or magnetic means of securing said first body to said end, the second portion being separable from the first portion so as to be capable of being replaced, said first portion being connected to the body of the feeder.
Throttle ring for a piston compressor, having an axially extending ring axis (Ar), an axial height (h), a radially inner running surface and a radially outer circumferential surface, as well as an upper flank and a lower flank, wherein the upper flank faces the compression chamber of the piston compressor when the throttle ring is used as intended, wherein the running surface has at least one circumferential groove in the circumferential direction, which is connected to the radially outer circumferential surface by at least one radial bore, and wherein the throttle ring is designed as an endless ring.
Computer implemented method for detecting whether a seat belt is used in a vehicle, the method comprising the following steps carried out by computer hardware components: acquiring an image of an interior of the vehicle; determining a plurality of sub-images based on the image; detecting, for at least one of the sub-images, whether a portion of the seat belt is present in the respective sub-image; and determining whether the seat belt is used based on the detecting; wherein the detecting is carried out sequentially, wherein processing the detecting is stopped and it is determined that the seat belt is not used, if for the present sub-image, it is detected that a portion of the seat belt is not present in the present sub-image. acquiring an image of an interior of the vehicle; determining a plurality of sub-images based on the image; detecting, for at least one of the sub-images, whether a portion of the seat belt is present in the respective sub-image; and determining whether the seat belt is used based on the detecting; wherein the detecting is carried out sequentially, wherein processing the detecting is stopped and it is determined that the seat belt is not used, if for the present sub-image, it is detected that a portion of the seat belt is not present in the present sub-image.