mhurhangee/ep-ind-claims huggingface dataset:
A grounded filter regulator lubricator for treating a pressurized air supply, comprising: a housing which is made from at least in part a metal base material and has an inlet and an outlet for passing fluid therethrough and a connecting mechanism for connecting to a collector bowl; the collector bowl being made from a metal base material and having a closed distal end and an open end with a connecting mechanism; and the housing having a flange that is electrically conductive and extends downwardly at an exterior side of said collector bowl; characterized by at least one grounding clip member (50, 150, 250, 350) made from electrically conductive material, which has an exterior mounting end (56, 156, 256, 356) attached to the flange of the housing for electrical connectivity thereto and a radially inner end (60, 160, 260, 360) that comes to a contact point (62, 162, 262, 362) for being in an electrically grounding contact with the metal base material of the collector bowl to connect the metal base materials (13, 15) of the collector bowl and the housing. a housing which is made from at least in part a metal base material and has an inlet and an outlet for passing fluid therethrough and a connecting mechanism for connecting to a collector bowl; the collector bowl being made from a metal base material and having a closed distal end and an open end with a connecting mechanism; and the housing having a flange that is electrically conductive and extends downwardly at an exterior side of said collector bowl; characterized by at least one grounding clip member (50, 150, 250, 350) made from electrically conductive material, which has an exterior mounting end (56, 156, 256, 356) attached to the flange of the housing for electrical connectivity thereto and a radially inner end (60, 160, 260, 360) that comes to a contact point (62, 162, 262, 362) for being in an electrically grounding contact with the metal base material of the collector bowl to connect the metal base materials (13, 15) of the collector bowl and the housing.
A method for prompting a message in a terminal, wherein the terminal comprises multiple operating systems and a management system, the management system is configured to manage the multiple operating systems, the management system comprises a cross-system application database, and the method comprises: when a first operating system in the multiple operating systems runs in a foreground, and a second operating system in the multiple operating systems runs in a background, if the second operating system receives a first message of a first application in the second operating system, sending, by the second operating system, a notification message to the management system according to the first message, wherein the notification message carries at least one of operating system information corresponding to the first message, application information corresponding to the first message, or a message quantity corresponding to the first message; storing, by the management system, the notification message into the cross-system application database, wherein the cross-system application database is monitored by a thread enabled by a message manager service module (12, 22) in each of the first operating system and the second operating system; and listening, by the thread enabled by the message manager service module in the first operating system, on the cross-system application database, and outputting a prompt of the first message when listening and obtaining the notification message. when a first operating system in the multiple operating systems runs in a foreground, and a second operating system in the multiple operating systems runs in a background, if the second operating system receives a first message of a first application in the second operating system, sending, by the second operating system, a notification message to the management system according to the first message, wherein the notification message carries at least one of operating system information corresponding to the first message, application information corresponding to the first message, or a message quantity corresponding to the first message; storing, by the management system, the notification message into the cross-system application database, wherein the cross-system application database is monitored by a thread enabled by a message manager service module (12, 22) in each of the first operating system and the second operating system; and listening, by the thread enabled by the message manager service module in the first operating system, on the cross-system application database, and outputting a prompt of the first message when listening and obtaining the notification message.
A method for operating an inverter, the method having the following steps: - by means of a switching unit of the inverter, applying an AC voltage to a phase line in which a filter inductor is arranged, - determining characteristic values of a coil current (i L) and a coil voltage (u L) of the filter inductor in the region of a plurality of measurement points, wherein at least two measurement points are together located on at least one flank of a current ripple, - determining, from the characteristic values, a first value of the inductance (L(l Ly)) of the filter inductor for a first value of the coil current (l Ly), - determining at least one further value of the inductance of the filter inductor for at least one further value of the coil current, - determining at least one inductance profile of the filter inductor with respect to the coil current, using the determined first value of the inductance (L(l Ly)) of the filter inductor, and using the at least one further determined value of the inductance of the filter inductor, wherein the inductance profile describes a dependency of the values of the inductance (L(l Ly)) of the filter inductor on the coil current, - controlling the switching unit of the inverter, by means of a control unit, to generate an alternating current in the phase line, wherein at least one parameter of the control is continuously adapted to the momentary value of the inductance according to a determined current-dependent inductance profile, wherein the inductance profile is determined before the inverter is first put into operation, and optionally additionally at scheduled intervals before a, or before each, startup of the inverter. - by means of a switching unit of the inverter, applying an AC voltage to a phase line in which a filter inductor is arranged, - determining characteristic values of a coil current (i L) and a coil voltage (u L) of the filter inductor in the region of a plurality of measurement points, wherein at least two measurement points are together located on at least one flank of a current ripple, - determining, from the characteristic values, a first value of the inductance (L(l Ly)) of the filter inductor for a first value of the coil current (l Ly), - determining at least one further value of the inductance of the filter inductor for at least one further value of the coil current, - determining at least one inductance profile of the filter inductor with respect to the coil current, using the determined first value of the inductance (L(l Ly)) of the filter inductor, and using the at least one further determined value of the inductance of the filter inductor, wherein the inductance profile describes a dependency of the values of the inductance (L(l Ly)) of the filter inductor on the coil current, - controlling the switching unit of the inverter, by means of a control unit, to generate an alternating current in the phase line, wherein at least one parameter of the control is continuously adapted to the momentary value of the inductance according to a determined current-dependent inductance profile,
Machine with a device for providing machine data, the machine comprising a machine control, in which the machine data Is stored, the machine control being connected via a data connection with the device, whereby the device, which sends the machine data provided by the machine to at least one machine external peripheral device, comprises a machine data interface, which is connected via the data connection with the machine, and at least one microcomputer (10; 10a), which is connected with the machine data interface, wherein the device comprises at least one communication device, which is connected via a further data connection with the at least one microcomputer (10; 10a), and at least one interface (21a, 21b, 21c), via which the device can be connected with at least one peripheral device (P1, P2, P3), characterized in that said at least one microcomputer (10; 10a) comprises a predefined set of instructions, and that a command signal of at least one peripheral device (P1, P2, P3) supplied to the device is sent via the communication device to the microcomputer (10; 10a), that the microcomputer (10; 10a) comprising said predefined set of command is designed in such a way that it only sends a query signal via the data connection to the machine control of the machine when the command signal sent from the peripheral device (P1, P2, P3) to the device corresponds to a signal contained in the predefined set of commands, and that the microcomputer (10; 10a) sends machine data requested from the machine control of the machine via the communication device to the requesting peripheral device (P1, P2, P3), that the data connection and/or the further data connection is defined in such a way that in a first flow direction only a limited transmission of data and/or signals from the device to the machine control and/or from the communication device to the microcomputer (10; 10a) is permitted, and that the data connection and/or the further data connection is designed in such a way that In a second flow direction opposite to the first flow direction the transmission of machine data from the machine control of the machine to the device is permitted.
An asymmetric exhaust port/transfer port inversion device for a two stroke internal combustion engine characterised in that the device includes a hollow flap valve adapted to pivot about a hollow pivot shaft between a closed position and an open position; wherein the hollow pivot shaft is adapted to receive a supply of air or air/fuel mix; and wherein pivoting the device to the open position as a piston begins the compression stroke allows the transfer of air or air/fuel mix to continue after the leading edge of the piston has closed off an exhaust port thereby advancing the timing of the exhaust port closing and extending the duration of air or air/fuel mix transfer from a crankcase primary compression chamber.
A similarity matching method, comprising: obtaining unknown traffic; characterised in that the method further comprises: separately calculating similarities between the unknown traffic and sampled traffic according to N dimensions; and performing weighted harmonic averaging for the calculated similarities that are corresponding to the N dimensions, to obtain a matching similarity between the unknown traffic and the sampled traffic, wherein, N is an integer greater than or equal to 2, and the N dimensions comprise two or more of the following dimensions: n1 dimensions related to packets of the unknown traffic and the sampled traffic and n2 dimensions related to sessions corresponding to the unknown traffic and the sampled traffic, wherein n1 and n2 are positive integers; and if the matching similarity between the sampled traffic and the unknown traffic is greater than a similarity threshold, outputting a traffic identification result indicating that the unknown traffic and the sampled traffic are of a same service type. obtaining unknown traffic; characterised in that the method further comprises: separately calculating similarities between the unknown traffic and sampled traffic according to N dimensions; and performing weighted harmonic averaging for the calculated similarities that are corresponding to the N dimensions, to obtain a matching similarity between the unknown traffic and the sampled traffic, wherein, N is an integer greater than or equal to 2, and the N dimensions comprise two or more of the following dimensions: n1 dimensions related to packets of the unknown traffic and the sampled traffic and n2 dimensions related to sessions corresponding to the unknown traffic and the sampled traffic, wherein n1 and n2 are positive integers; and if the matching similarity between the sampled traffic and the unknown traffic is greater than a similarity threshold, outputting a traffic identification result indicating that the unknown traffic and the sampled traffic are of a same service type. separately calculating similarities between the unknown traffic and sampled traffic according to N dimensions; and performing weighted harmonic averaging for the calculated similarities that are corresponding to the N dimensions, to obtain a matching similarity between the unknown traffic and the sampled traffic, wherein, N is an integer greater than or equal to 2, and the N dimensions comprise two or more of the following dimensions: n1 dimensions related to packets of the unknown traffic and the sampled traffic and n2 dimensions related to sessions corresponding to the unknown traffic and the sampled traffic, wherein n1 and n2 are positive integers; and if the matching similarity between the sampled traffic and the unknown traffic is greater than a similarity threshold, outputting a traffic identification result indicating that the unknown traffic and the sampled traffic are of a same service type.
An apparatus for processing image data, the apparatus comprising: a buffer configured to receive image signals from one or more sources; a processor configured to encode the image signals to create a group of pictures structure, wherein the processor is further configured to encode the image signals to create forward error correction code capable of correcting errors in the GOP structure; and a driver configured to transmit the GOP structure and the FEC code, wherein the FEC code lags the GOP structure by a lag time selected in dependence on a transmission time taken to send the GOP structure, wherein the transmission time is dependent on the data size of the GOP structure, so as to allow a device receiving the GOP structure and the FEC code to utilize both the GOP structure and the FEC code during a channel-change event to recreate portions of data of the GOP structure that were missed due to the channel-change event occurring during the transmission of the GOP structure, thereby decreasing channel-change time. a buffer configured to receive image signals from one or more sources; a processor configured to encode the image signals to create a group of pictures structure, wherein the processor is further configured to encode the image signals to create forward error correction code capable of correcting errors in the GOP structure; and a driver configured to transmit the GOP structure and the FEC code, wherein the FEC code lags the GOP structure by a lag time selected in dependence on a transmission time taken to send the GOP structure, wherein the transmission time is dependent on the data size of the GOP structure, so as to allow a device receiving the GOP structure and the FEC code to utilize both the GOP structure and the FEC code during a channel-change event to recreate portions of data of the GOP structure that were missed due to the channel-change event occurring during the transmission of the GOP structure, thereby decreasing channel-change time.
An electrode structure, comprising: a transparent electrode; a light blocking pattern provided on the transparent electrode; an auxiliary electrode pattern provided on the light blocking pattern; and an organic insulating pattern covering the light blocking pattern and the auxiliary electrode pattern, wherein a line width of the light blocking pattern is 2.0 μm to 1.0 mm and is larger than a line width (W 1) of the auxiliary electrode pattern, the line with of the auxiliary electrode pattern being 1.5 μm or more and 1 mm or less, wherein a line width (W 3) of the organic insulating pattern is larger than a line width of the light blocking pattern by 0.5 μm or more and 2 μm or less, wherein an opposite surface of a surface of the organic insulating pattern that is in contact with the light blocking pattern and the auxiliary electrode pattern is a curved surface being a streamline shape surface having no angular part. a transparent electrode; a light blocking pattern provided on the transparent electrode; an auxiliary electrode pattern provided on the light blocking pattern; and an organic insulating pattern covering the light blocking pattern and the auxiliary electrode pattern, wherein a line width of the light blocking pattern is 2.0 μm to 1.0 mm and is larger than a line width (W 1) of the auxiliary electrode pattern, the line with of the auxiliary electrode pattern being 1.5 μm or more and 1 mm or less, wherein a line width (W 3) of the organic insulating pattern is larger than a line width of the light blocking pattern by 0.5 μm or more and 2 μm or less, wherein an opposite surface of a surface of the organic insulating pattern that is in contact with the light blocking pattern and the auxiliary electrode pattern is a curved surface being a streamline shape surface having no angular part.
After Treatment System for an internal combustion engine comprising a following group (T-ATS) of components arranged in sequence according to an exhaust gas flow direction: - a first Diesel oxidation catalyst; - a diesel particulate filter; - a first active selective Catalytic reduction device comprising a first doser arranged immediately upstream of the first SCR to introduce an urea-based reducing agent therein; wherein the ATS further comprises a second DOC (pre-DOC) followed by a second active SCR (T-SCR), both arranged upstream of said group (T-ATS) and wherein said second active SCR has - a second doser arranged immediately upstream thereof to introduce an urea-based reducing agent therein and - bypass means (B1, B2, V) arranged to force an exhaust gas to cross also the second SCR during ATS warm up and to bypass said second SCR only, after ATS warm up; and wherein said second doser is arranged to introduce an excess of urea-based reducing agent immediately before bypassing of the second SCR in order to store NH3 ready for a next ATS use. - a first Diesel oxidation catalyst; - a diesel particulate filter; - a first active selective Catalytic reduction device comprising a first doser arranged immediately upstream of the first SCR to introduce an urea-based reducing agent therein; - a second doser arranged immediately upstream thereof to introduce an urea-based reducing agent therein and - bypass means (B1, B2, V) arranged to force an exhaust gas to cross also the second SCR during ATS warm up and to bypass said second SCR only, after ATS warm up;
A MSE-type zeolite which has a Si/Al ratio of 55 or more, is a proton-type zeolite, and is obtained by transforming a raw material MSE-type zeolite synthesized without using a structure directing agent into an ammonium-type zeolite through ion exchange, then, exposing the MSE-type zeolite to water vapor at 150°C to 1000°C for 1 hour to 48 hours, and subjecting the exposed MSE-type zeolite to an acid treatment at 40°C to 100°C for 1 hour to 24 hours using mineral acid.
A flying machine capable of hovering, the flying machine comprising: a body; at least one energy bank, said at least one energy bank being one of a battery pack and a fuel tank; a robotic arm extending from the body, the robotic arm comprising a plurality of links, one or more joints, and an effector, the links of the plurality of links being connected by the one or more joints, the robotic arm ending in the effector; one or more main rotor assemblies supported by the body and operatively connected to said at least one energy bank; a landing gear; and characterized by further comprising a balancing rotor assembly located above the effector to provide lift compensating for the weight of payload carried by the effector. a body; at least one energy bank, said at least one energy bank being one of a battery pack and a fuel tank; a robotic arm extending from the body, the robotic arm comprising a plurality of links, one or more joints, and an effector, the links of the plurality of links being connected by the one or more joints, the robotic arm ending in the effector; one or more main rotor assemblies supported by the body and operatively connected to said at least one energy bank; a landing gear; and characterized by further comprising a balancing rotor assembly located above the effector to provide lift compensating for the weight of payload carried by the effector.
A method for making a tubular medical device comprising a hybrid polymeric structure, the method comprising: forming a tubular body comprising: forming a non-woven fibrous matrix about a mandrel, the non-woven fibrous matrix comprising a plurality of randomly oriented nanofibers made at least in part of a first polymeric material and pores formed between at least a portion of the nanofibers; disposing a second polymeric material about at least a portion of the non-woven fibrous matrix such that at least a portion of the second polymeric material embeds into the pores of the non-woven fibrous matrix; disposing a hydrogel made of a third polymeric material about at least a portion of the non-woven fibrous matrix such that at least a portion of the third polymeric material embeds into the pores of the non-woven fibrous matrix, wherein the hydrogel comprises a hydrophilic material selected from the group consisting of PEG, PVP, PVA, PHPMA, polyethylene/oligoethylene, polyHEMA, polytetraglyme, hyaluronic acid, chitosan; and crosslinking the hydrogel to form a cross-linked hydrophilic coating in at least a portion of the non-woven fibrous matrix, wherein disposing the third polymeric material about at least a portion of the non-woven fibrous matrix and cross-linking the hydrogel to form the cross-linked hydrophilic coating results in the tubular body having a surface formed of the cross-linked hydrophilic coating. forming a non-woven fibrous matrix about a mandrel, the non-woven fibrous matrix comprising a plurality of randomly oriented nanofibers made at least in part of a first polymeric material and pores formed between at least a portion of the nanofibers; disposing a second polymeric material about at least a portion of the non-woven fibrous matrix such that at least a portion of the second polymeric material embeds into the pores of the non-woven fibrous matrix; disposing a hydrogel made of a third polymeric material about at least a portion of the non-woven fibrous matrix such that at least a portion of the third polymeric material embeds into the pores of the non-woven fibrous matrix, wherein the hydrogel comprises a hydrophilic material selected from the group consisting of PEG, PVP, PVA, PHPMA, polyethylene/oligoethylene, polyHEMA, polytetraglyme, hyaluronic acid, chitosan; and crosslinking the hydrogel to form a cross-linked hydrophilic coating in at least a portion of the non-woven fibrous matrix, wherein disposing the third polymeric material about at least a portion of the non-woven fibrous matrix and cross-linking the hydrogel to form the cross-linked hydrophilic coating results in the tubular body having a surface formed of the cross-linked hydrophilic coating.