mhurhangee/ep-ind-claims huggingface dataset:
A method for transferring ordered data from a source device to a target device in a data processing network, where the source device is coupled to a Request Node of the data processing network, the method comprising: receiving, by the Request Node, a first write request from the source device, where the first write request is targeted to the target device and is associated with a stream identifier; sending, by the Request Node to a Home Node of the data processing network, a second write request; sending, by the Home Node to the Request Node responsive to the second write request, a write data buffer credit message, identifying a data buffer for receiving data to be written, and a completion message indicating completion by the Home Node; sending, by the Request Node to the Home Node responsive to the write data buffer credit message, the data to be written; sending, by the Request Node to the Home Node responsive to the completion message, a first completion acknowledgement message; sending, by the Home Node to the target device responsive to the first completion acknowledgement message, the data to be written; and sending, by the target device to the Home Node responsive to receiving the data to be written, a second completion acknowledgement message, where the first completion acknowledgement message is not sent by the Request Node until completion messages for all write requests older than the first write request and having the same stream identifier as the first write request have been received by the Request Node. receiving, by the Request Node, a first write request from the source device, where the first write request is targeted to the target device and is associated with a stream identifier; sending, by the Request Node to a Home Node of the data processing network, a second write request; sending, by the Home Node to the Request Node responsive to the second write request, a write data buffer credit message, identifying a data buffer for receiving data to be written, and a completion message indicating completion by the Home Node; sending, by the Request Node to the Home Node responsive to the write data buffer credit message, the data to be written; sending, by the Request Node to the Home Node responsive to the completion message, a first completion acknowledgement message; sending, by the Home Node to the target device responsive to the first completion acknowledgement message, the data to be written; and sending, by the target device to the Home Node responsive to receiving the data to be written, a second completion acknowledgement message,
Cooling system for cooling rolling stock, comprising a number of cooling bars for applying a coolant to the rolling stock, exactly one dedicated coolant supply line for each of the cooling bars and a feed line system for directing the coolant to the coolant supply lines, wherein each of the cooling bars is connected to the feed line system by way of its dedicated coolant supply line, and a bypass line (48, 52) for discharging a coolant flow from the feed line system, which is connected on the input side to a connection element (51, 53) of the feed line system, characterized by a coolant reservoir, to which the feed line system is connected, a scale channel, a scale settling tank connected to the scale channel and a further bypass line (48, 52), which is connected on the input side to another connection element (51, 53) of the feed line system, wherein one of the two bypass lines (48, 52) is connected on the output side to the coolant reservoir or to a further connection element of the feed line system and the other of the two bypass lines (48, 52) opens out on the output side into the scale channel or into the scale settling tank.
An adhesive composition for a skin- adhering medical device comprising a) a pressure- sensitive adhesive selected from the group consisting of natural rubbers, synthetic rubbers, styrene block copolymers, polyvinyl ethers, poly(meth) acrylates (including both acrylates and methacrylates), polyolefins and silicones, singly or in a combination of two or more, and b) a high molecular weight polymeric buffer composition comprising a non-neutralized high molecular weight cross-linked polyacrylic acid and a partially neutralized high molecular weight cross-linked polyacrylic acid having a degree of neutralization of between 50% - 100%, both as dry powders; and said high molecular weight polymeric acids provide both pH buffering to maintain pH of the skin under said device in the presence of physiological fluids, in the range of pH 4.0 to 5.5, and fluid absorption. a) a pressure- sensitive adhesive selected from the group consisting of natural rubbers, synthetic rubbers, styrene block copolymers, polyvinyl ethers, poly(meth) acrylates (including both acrylates and methacrylates), polyolefins and silicones, singly or in a combination of two or more, and b) a high molecular weight polymeric buffer composition comprising a non-neutralized high molecular weight cross-linked polyacrylic acid and a partially neutralized high molecular weight cross-linked polyacrylic acid having a degree of neutralization of between 50% - 100%, both as dry powders;
A vehicle comprising: a front wheel (12a, 12b); a rear wheel (14a, 14b) provided at a more rearward position than the front wheel (12a, 12b); a floor panel provided between the front wheel (12a, 12b) and the rear wheel (14a, 14b); an engine including a cylinder body, and provided at a rearward position of the floor panel; and a shroud covering the cylinder body; wherein the floor panel includes: a panel main body; an opening provided at a front portion of the panel main body; characterized in that a groove portion provided in an upper surface of the panel main body so as to communicate with the opening and extend in a fore-aft direction of the panel main body for supplying external air from the opening into the shroud; wherein the groove portion is made by forming the floor panel so that the panel main body has a downward recess in its upper surface, so that the recess opens in the upper surface of the panel main body, not in the lower surface. a front wheel (12a, 12b); a rear wheel (14a, 14b) provided at a more rearward position than the front wheel (12a, 12b); a floor panel provided between the front wheel (12a, 12b) and the rear wheel (14a, 14b); an engine including a cylinder body, and provided at a rearward position of the floor panel; and a shroud covering the cylinder body; wherein the floor panel includes: a panel main body; an opening provided at a front portion of the panel main body; characterized in that a groove portion provided in an upper surface of the panel main body so as to communicate with the opening and extend in a fore-aft direction of the panel main body for supplying external air from the opening into the shroud; wherein the groove portion is made by forming the floor panel so that the panel main body has a downward recess in its upper surface, so that the recess opens in the upper surface of the panel main body, not in the lower surface.
A computer implemented method for analyzing a gas turbine engine part comprising: providing an initial micrograph of the part to a trained model, wherein the trained model is a neural network; providing a data set representative of operating conditions of the part to the trained model; and outputting an expected state of the part from the trained model based at least in part on the data set and the initial micrograph, wherein the expected state of the part includes at least one simulated micrograph of the part. providing an initial micrograph of the part to a trained model, wherein the trained model is a neural network; providing a data set representative of operating conditions of the part to the trained model; and outputting an expected state of the part from the trained model based at least in part on the data set and the initial micrograph, wherein the expected state of the part includes at least one simulated micrograph of the part.
A polycrystalline nickel-base superalloy having the following composition: 14.75 - 26.5 wt.% cobalt; 4.1 - 4.65 wt. % aluminium; 1.1 - 1.9 wt. % titanium; 3.85 - 6.3 wt. % tantalum; 1.2 - 2.55 wt. % niobium; not more than 0.07 wt. % boron; not more than 0.06 wt. % carbon; not more than 14.0 wt. % chromium; not more than 1.0 wt. % iron; not more than 1.0 wt. % manganese; not more than 4.2 wt. % molybdenum; not more than 0.5 wt. % silicon; not more than 4.9 wt. % tungsten; not more than 0.1 wt. % zirconium; not more than 60 ppm phosphorus; not more than 20 ppm sulphur; the balance being nickel and incidental impurities; the superalloy comprising: a gamma matrix phase including cobalt; a gamma prime phase including aluminium, titanium, tantalum, and niobium; the overall concentration in the alloy of aluminium, titanium, tantalum, and niobium being from 13 to 14 atomic percent; the atomic ratio of aluminium to titanium being from 4.625:1 to 6.333:1. 14.75 - 26.5 wt.% cobalt; 4.1 - 4.65 wt. % aluminium; 1.1 - 1.9 wt. % titanium; 3.85 - 6.3 wt. % tantalum; 1.2 - 2.55 wt. % niobium; not more than 0.07 wt. % boron; not more than 0.06 wt. % carbon; not more than 14.0 wt. % chromium; not more than 1.0 wt. % iron; not more than 1.0 wt. % manganese; not more than 4.2 wt. % molybdenum; not more than 0.5 wt. % silicon; not more than 4.9 wt. % tungsten; not more than 0.1 wt. % zirconium; not more than 60 ppm phosphorus; not more than 20 ppm sulphur; the balance being nickel and incidental impurities; a gamma matrix phase including cobalt; a gamma prime phase including aluminium, titanium, tantalum, and niobium; the overall concentration in the alloy of aluminium, titanium, tantalum, and niobium being from 13 to 14 atomic percent; the atomic ratio of aluminium to titanium being from 4.625:1 to 6.333:1.
Article of furniture, comprising a furniture carcass, wherein the furniture carcass comprises a back wall, a carrier element which can be mounted to the back wall of the furniture carcass of the article of furniture and a movable furniture portion, in particular a drawer, wherein a current consumer is arranged in or on the furniture portion movable in the article of furniture, characterised in that at least one power supply unit for the current consumer is arranged releasably on the carrier element.
A vinylidene fluoride polymer composition comprising: - at least one VDF polymer [polymer]; and - at least one additive obtained by treating inorganic particles with a mixture of modifying agents comprising: - at least one fluoro-containing modifying agent [agent] of formula: X 4-m AY m wherein m is an integer from 1 to 3, A is a metal selected from the group consisting of Si, Ti and Zr, each of Y, equal to or different from each other, is a hydrolysable group, each of X, equal to or different from each other is a C 1 -C 24 (hydro)(fluoro)carbon group, with the proviso that at least one of X is a fluorine-containing C 1 -C 24 group; and - at least one hydrogen-containing functional modifying agent [agent] of formula: Z 4-p EY p wherein p is an integer from 1 to 3, E is a metal selected from the group consisting of Si, Ti and Zr, each of Y, equal to or different from each other, is a hydrolysable group, each of Z, equal to or different from each other is a C 1 -C 24 hydrocarbon group, with the proviso that at least one of Z comprises a functional group selected from the group consisting of ethylenically unsaturated group; epoxy group; mercapto group; carboxylic acid group in its acid, ester, amide, anhydride, salt or halide form, sulphonic group in its acid, ester, amide, salt or halide form. - at least one VDF polymer [polymer]; and - at least one additive obtained by treating inorganic particles with a mixture of modifying agents comprising: - at least one fluoro-containing modifying agent [agent] of formula: X 4-m AY m wherein m is an integer from 1 to 3, A is a metal selected from the group consisting of Si, Ti and Zr, each of Y, equal to or different from each other, is a hydrolysable group, each of X, equal to or different from each other is a C 1 -C 24 (hydro)(fluoro)carbon group, with the proviso that at least one of X is a fluorine-containing C 1 -C 24 group; and - at least one hydrogen-containing functional modifying agent [agent] of formula: Z 4-p EY p wherein p is an integer from 1 to 3, E is a metal selected from the group consisting of Si, Ti and Zr, each of Y, equal to or different from each other, is a hydrolysable group, each of Z, equal to or different from each other is a C 1 -C 24 hydrocarbon group, with the proviso that at least one of Z comprises a functional group selected from the group consisting of ethylenically unsaturated group; epoxy group; mercapto group; carboxylic acid group in its acid, ester, amide, anhydride, salt or halide form, sulphonic group in its acid, ester, amide, salt or halide form.
A process for forming a fingerprint-resistant coating on a substrate, comprising: a) activating the substrate by exposing the substrate to a plasma of at least one gas selected from the group consisting of inert gases, N 2, O 2, and a mixture of at least two of the foregoing gases; and b) depositing on the activated substrate of step a) a hydrophobic coating comprising at least one alkylsilane and hydroxyl terminated T8 POSS nanoparticles in acidic or alkaline solution. a) activating the substrate by exposing the substrate to a plasma of at least one gas selected from the group consisting of inert gases, N 2, O 2, and a mixture of at least two of the foregoing gases; and b) depositing on the activated substrate of step a) a hydrophobic coating comprising at least one alkylsilane and hydroxyl terminated T8 POSS nanoparticles in acidic or alkaline solution.
A golf club head comprising: a face having a ball-striking surface configured for striking a ball, the face having a region of highest response that overlaps a geometric center of the face and a plurality of outer edges; a body connected to the face; a first channel in the face having a first end most proximate one of the outer edges of the face and a second end more proximate the geometric center of the face relative to the first end, the first channel extending inwardly in a direction transverse to the one of the plurality of outer edges of the face; and a second channel in the face having a first end most proximate one of the outer edges of the face and a second end more proximate the geometric center of the face relative to the first end, the second channel extending inwardly in a direction transverse to one of the plurality of outer edges of the face, wherein the first channel and the second channel are not located in the region of highest response, and wherein the region of highest response is directionally enlarged toward a point located between the first and second channels, and wherein the first channel and the second channel are filled with a polymer material having a flexibility that is greater than a flexibility of a material of the face. a face having a ball-striking surface configured for striking a ball, the face having a region of highest response that overlaps a geometric center of the face and a plurality of outer edges; a body connected to the face; a first channel in the face having a first end most proximate one of the outer edges of the face and a second end more proximate the geometric center of the face relative to the first end, the first channel extending inwardly in a direction transverse to the one of the plurality of outer edges of the face; and a second channel in the face having a first end most proximate one of the outer edges of the face and a second end more proximate the geometric center of the face relative to the first end, the second channel extending inwardly in a direction transverse to one of the plurality of outer edges of the face,
A method performed by a network node of a wireless communication network for wireless transmission of signals to wireless communication devices (120, 130), the method comprising: selecting an adapted modulation and coding scheme, MCS, for a first signal to be transmitted to a first wireless communication device at a first frequency bandwidth, the MCS being adapted to that a second signal is to be transmitted to a second wireless communication device concurrently with the first signal, the second signal being transmitted at a second frequency bandwidth that is a subset of the first frequency bandwidth, the second frequency bandwidth being narrower than the first frequency bandwidth; sending information to the first wireless communication device indicating that a subset of the first frequency bandwidth is used for sending signals to the second wireless communication device, including an indication of the used subset, wherein, based on the information, the first wireless communication device disregards the information received at the subset of the first frequency bandwidth; transmitting the first signal to the first wireless communication device at the first frequency bandwidth coded with the adapted MCS; and transmitting the second signal to the second wireless communication device at the second frequency bandwidth, the second signal being sent concurrently with the first signal. selecting an adapted modulation and coding scheme, MCS, for a first signal to be transmitted to a first wireless communication device at a first frequency bandwidth, the MCS being adapted to that a second signal is to be transmitted to a second wireless communication device concurrently with the first signal, the second signal being transmitted at a second frequency bandwidth that is a subset of the first frequency bandwidth, the second frequency bandwidth being narrower than the first frequency bandwidth; sending information to the first wireless communication device indicating that a subset of the first frequency bandwidth is used for sending signals to the second wireless communication device, including an indication of the used subset, wherein, based on the information, the first wireless communication device disregards the information received at the subset of the first frequency bandwidth; transmitting the first signal to the first wireless communication device at the first frequency bandwidth coded with the adapted MCS; and transmitting the second signal to the second wireless communication device at the second frequency bandwidth, the second signal being sent concurrently with the first signal.
A dose detection module (82, 400, 600, 800) for removable attachment to a dose button (402, 470, 480, 502, 601, 712) of a medication delivery device, the dose button having a button sidewall (404, 472, 482, 504, 604), the device comprising a sensed component ring (152, 902, 706) rotatable during dose dispensing, said module comprising: a housing including a proximal wall (412, 626, 802), a distal wall (414, 606, 806), and a module sidewall (416, 604, 804) extending therebetween about a module longitudinal axis to define an interior compartment, the module sidewall extending distally beyond the distal wall, the distal wall defining a plurality of recesses (476, 623, 842) disposed equi-angularly relative to one another, the housing configured to couple around said button sidewall; and an electronics assembly (610, 810) comprising a processor and a plurality of sensors (160, 906) operably coupled to the processor, wherein each of the sensors is disposed securely within a corresponding said recess (476, 623, 842), wherein the sensors are configured to detect rotational movement of the sensed component ring to generate position signals, the processor configured to receive the position signals in order to determine data indicative of an amount of dose dispensed based on the position signal, wherein the sensed component ring (152, 902, 706) comprises a bipolar magnetic ring, and the sensors (160, 906) comprise magnetic sensors disposed at an arrangement to overlap an outer circumference of said bipolar magnetic ring. a housing including a proximal wall (412, 626, 802), a distal wall (414, 606, 806), and a module sidewall (416, 604, 804) extending therebetween about a module longitudinal axis to define an interior compartment, the module sidewall extending distally beyond the distal wall, the distal wall defining a plurality of recesses (476, 623, 842) disposed equi-angularly relative to one another, the housing configured to couple around said button sidewall; and an electronics assembly (610, 810) comprising a processor and a plurality of sensors (160, 906) operably coupled to the processor, wherein each of the sensors is disposed securely within a corresponding said recess (476, 623, 842), wherein the sensors are configured to detect rotational movement of the sensed component ring to generate position signals, the processor configured to receive the position signals in order to determine data indicative of an amount of dose dispensed based on the position signal, wherein the sensed component ring (152, 902, 706) comprises a bipolar magnetic ring, and the sensors (160, 906) comprise magnetic sensors disposed at an arrangement to overlap an outer circumference of said bipolar magnetic ring.
A dual band antenna for integration into a portable processing device, comprising: an electronic display metal support frame forming a ground plate; a first (704, 708, 901) and a second (702, 703, 801) radiating element extending from the support frame wherein the first radiating element (704, 708, 901) is a non-fed slot antenna and resonates in a first frequency and the second radiating element (702, 703, 801) is a fed slot antenna and radiates in a second frequency band that is different from the first frequency band, and wherein the first and second radiating elements are concentric and arranged in one plane with the first radiating element disposed within the second radiating element; and means for conducting a signal comprising a feed conductor for carrying a signal connected to the second radiating element (702, 703, 801) and a ground conductor that is connected to the support frame an electronic display metal support frame forming a ground plate; a first (704, 708, 901) and a second (702, 703, 801) radiating element extending from the support frame wherein the first radiating element (704, 708, 901) is a non-fed slot antenna and resonates in a first frequency and the second radiating element (702, 703, 801) is a fed slot antenna and radiates in a second frequency band that is different from the first frequency band, and wherein the first and second radiating elements are concentric and arranged in one plane with the first radiating element disposed within the second radiating element; and means for conducting a signal comprising a feed conductor for carrying a signal connected to the second radiating element (702, 703, 801) and a ground conductor that is connected to the support frame