mhurhangee/ep-ind-claims huggingface dataset:
A peripheral component interconnect express interface controller, PEIC,, comprising: a PCI to PCI bridge, P2P, module, configured to receive a first transaction layer packet, TLP, from a root complex, RC, or an endpoint device, EP, and forward the first TLP to a reliable TLP transmission, RTT, module for processing; the RTT module, configured to search a corresponding address forwarding table or ID forwarding table according to a type of the TLP, obtain a destination PEIC number corresponding to the first TLP so as to determine sending links of active and standby PCIE switching units corresponding to the packet,, and send the first TLP to the active and standby PCIE switching units through the sending links at the same time, so that a destination PEIC of the first TLP selectively receives the first TLP forwarded by the active and standby PCIE switching units and sends the first TLP to a destination EP or a destination RC of the first TLP; wherein the destination PEIC of the first TLP and the PEIC connects with the active and standby PCIE switching units respectively. a PCI to PCI bridge, P2P, module, configured to receive a first transaction layer packet, TLP, from a root complex, RC, or an endpoint device, EP, and forward the first TLP to a reliable TLP transmission, RTT, module for processing; the RTT module, configured to search a corresponding address forwarding table or ID forwarding table according to a type of the TLP, obtain a destination PEIC number corresponding to the first TLP so as to determine sending links of active and standby PCIE switching units corresponding to the packet,, and send the first TLP to the active and standby PCIE switching units through the sending links at the same time, so that a destination PEIC of the first TLP selectively receives the first TLP forwarded by the active and standby PCIE switching units and sends the first TLP to a destination EP or a destination RC of the first TLP; wherein the destination PEIC of the first TLP and the PEIC connects with the active and standby PCIE switching units respectively.
An apparatus for charging electric vehicles and having a function for controlled load shedding, which has a connection to a power supply grid, at least one charging connection for at least one electric vehicle, a central processing unit and a receiver device, wherein the central processing unit is configured to optionally reduce the charging current of an electric vehicle connected to the at least one charging connection within a predetermined period of time, characterized in that the apparatus further comprises: a relay element which is configured to process a control signal from the receiver device and to forward it to the central processing unit, in order to signal to the processing unit that the charging current for the electric vehicles connected to the corresponding charging connections is to be reduced, wherein the receiver device is designed as a ripple control receiver and configured to receive a low-frequency ripple control signal from a ripple control transmitter in a power supply grid, and wherein the processing unit is configured to reduce the charging current at each charging connection to zero in an ordered manner within a predetermined period of time. wherein the central processing unit is configured to optionally reduce the charging current of an electric vehicle connected to the at least one charging connection within a predetermined period of time, characterized in that the apparatus further comprises: a relay element which is configured to process a control signal from the receiver device and to forward it to the central processing unit, in order to signal to the processing unit that the charging current for the electric vehicles connected to the corresponding charging connections is to be reduced, wherein the receiver device is designed as a ripple control receiver and configured to receive a low-frequency ripple control signal from a ripple control transmitter in a power supply grid, and wherein the processing unit is configured to reduce the charging current at each charging connection to zero in an ordered manner within a predetermined period of time. a relay element which is configured to process a control signal from the receiver device and to forward it to the central processing unit, in order to signal to the processing unit that the charging current for the electric vehicles connected to the corresponding charging connections is to be reduced, wherein the receiver device is designed as a ripple control receiver and configured to receive a low-frequency ripple control signal from a ripple control transmitter in a power supply grid, and wherein the processing unit is configured to reduce the charging current at each charging connection to zero in an ordered manner within a predetermined period of time.
A cleaning composition comprising a surfactant combination which comprises (i) an amine oxide amphoteric surfactant; (ii) a first anionic surfactant comprising a poly(oxyalkylene) alkyl ether sulfate: and (iii) a second anionic surfactant comprising an alkyl ethoxy carboxylate, wherein the amount of anionic surfactant by weight in the surfactant combination is no more than 15% by weight of the composition, wherein the amine oxide amphoteric surfactant is present in an amount of 2 to 20% by weight of the composition, and wherein the surfactant combination is present in an amount of 5 to 30% by weight of the composition. (i) an amine oxide amphoteric surfactant; (ii) a first anionic surfactant comprising a poly(oxyalkylene) alkyl ether sulfate: and (iii) a second anionic surfactant comprising an alkyl ethoxy carboxylate,
A vacuum cleaner including a suction portion configured to suck foreign materials on a surface to be cleaned, wherein the suction portion comprises: a case (25, 26) having an air hole formed on a flow path; a frame accommodated in the case (25, 26), and configured to open or close the air hole, and a button mounted on the case (25, 26), and configured to be operated to move the frame, wherein an interference rib protrudes from the button, and a sliding portion (274, 275) contacting the interference rib is provided in the case (25,26), characterized in that the the sliding portion (274, 275) comprises a first sliding portion extending in one direction and a second sliding portion bent downward from the first sliding portion, and wherein when the button is pressed, the interference rib is configured to move in one direction or in the other direction along the sliding portion (274, 275), and to move upward and downward based on the change in height (h) between the first sliding portion and the second sliding portion to move the frame. a case (25, 26) having an air hole formed on a flow path; a frame accommodated in the case (25, 26), and configured to open or close the air hole, and a button mounted on the case (25, 26), and configured to be operated to move the frame, wherein an interference rib protrudes from the button, and a sliding portion (274, 275) contacting the interference rib is provided in the case (25,26), characterized in that the the sliding portion (274, 275) comprises a first sliding portion extending in one direction and a second sliding portion bent downward from the first sliding portion, and wherein when the button is pressed, the interference rib is configured to move in one direction or in the other direction along the sliding portion (274, 275), and to move upward and downward based on the change in height (h) between the first sliding portion and the second sliding portion to move the frame.
A cooling fan, wherein the words "above", "highest", "top" and "bottom" refer to a position of the fan in which the rotation axis of the fan wheel is vertical, the fan comprising: a base; a lid arranged above the base; a fan wheel having a shaft rotatably coupling with the base and a highest point spaced from the lid by a first gap; and an auxiliary shaft assembly arranged between a top of a hub of the fan wheel and a bottom face of the lid, wherein the second gap is formed between the auxiliary shaft assembly and the top of the hub or between the auxiliary shaft assembly and the bottom face of the lid and wherein the second gap is smaller than the first gap characterized in that a protective plate is mounted on the base above blades of the fan wheel, with a third gap formed between the highest point and a bottom face of the protective plate, wherein the second gap is smaller than the third gap. a base; a lid arranged above the base; a fan wheel having a shaft rotatably coupling with the base and a highest point spaced from the lid by a first gap; and an auxiliary shaft assembly arranged between a top of a hub of the fan wheel and a bottom face of the lid, wherein the second gap is formed between the auxiliary shaft assembly and the top of the hub or between the auxiliary shaft assembly and the bottom face of the lid and wherein the second gap is smaller than the first gap
A seal tape, comprising: a base layer; and a pressure-sensitive adhesive layer including a cured material of the pressure-sensitive adhesive composition which is formed on one surface of the base layer, wherein the pressure-sensitive adhesive composition, comprises: a polymer having a polymerization unit derived from a (meth)acrylic acid ester monomer, a monomer represented by Formula 1 and a crosslinkable monomer containing a crosslinkable functional group, wherein the polymer includes 30 to 300 parts by weight of the monomer represented by Formula 1 and 0.1 to 10 parts by weight of the crosslinkable monomer with respect to 100 parts by weight of a (meth)acrylic acid ester monomer in a polymerized form: where R 1 represents hydrogen or an alkyl group having 1 to 12 carbon atoms, R 2 represents an alkylene group having 1 to 6 carbon atoms, R 3 represents an alkyl group having 1 to 12 carbon atoms, an aryl group having 6 to 24 carbon atoms or an arylalkyl group having 6 to 48 carbon atoms, and n is 1 or more. a base layer; and a pressure-sensitive adhesive layer including a cured material of the pressure-sensitive adhesive composition which is formed on one surface of the base layer, wherein the pressure-sensitive adhesive composition, comprises: a polymer having a polymerization unit derived from a (meth)acrylic acid ester monomer, a monomer represented by Formula 1 and a crosslinkable monomer containing a crosslinkable functional group, wherein the polymer includes 30 to 300 parts by weight of the monomer represented by Formula 1 and 0.1 to 10 parts by weight of the crosslinkable monomer with respect to 100 parts by weight of a (meth)acrylic acid ester monomer in a polymerized form: a polymer having a polymerization unit derived from a (meth)acrylic acid ester monomer, a monomer represented by Formula 1 and a crosslinkable monomer containing a crosslinkable functional group, wherein the polymer includes 30 to 300 parts by weight of the monomer represented by Formula 1 and 0.1 to 10 parts by weight of the crosslinkable monomer with respect to 100 parts by weight of a (meth)acrylic acid ester monomer in a polymerized form:
A photoelectric conversion element comprising: a substrate; a first electrode; an electron-transporting layer; a photoelectric conversion layer; a hole-transporting layer; and a second electrode, where the first electrode, the electron-transporting layer, the photoelectric conversion layer, the hole-transporting layer, and the second electrode are disposed on or above the substrate, characterised in that the photoelectric conversion layer includes an organic material represented by General Formula below, and a N-type semiconductor material, where, in General Formula, R 1 and R 2 are each independently an alkyl group having 6 or more but 22 or less carbon atoms, n is each independently an integer of from 1 through 3, X is each independently a halogen atom, and m is each independently 1 or 2. a substrate; a first electrode; an electron-transporting layer; a photoelectric conversion layer; a hole-transporting layer; and a second electrode, where the first electrode, the electron-transporting layer, the photoelectric conversion layer, the hole-transporting layer, and the second electrode are disposed on or above the substrate, characterised in that the photoelectric conversion layer includes an organic material represented by General Formula below, and a N-type semiconductor material, where, in General Formula, R 1 and R 2 are each independently an alkyl group having 6 or more but 22 or less carbon atoms, n is each independently an integer of from 1 through 3, X is each independently a halogen atom, and m is each independently 1 or 2.
Control device of a heating device for diesel fuel of a combustion engine, wherein the control device has two mechanical control elements (6, 7), in particular a pressure-sensitive and a temperature-sensitive control element, which are formed in such a way and are coupled to each other to form a composite part serving as an actuator for an electrical actuator switch of the heating device in such a way that the composite part holds the electrical switch closed if the following two conditions are fulfilled together - a fuel pressure acts on the pressure-sensitive control element, said fuel pressure lying above a predeterminable pressure limit value, - a temperature acts on the temperature-sensitive control element, said temperature lying below a predeterminable temperature limit value, whilst this electrical switch is opened if at least one of the two conditions is not fulfilled, characterised in that the temperature-sensitive control element is formed in such a way that, above or below the fuel limit temperature, it arches in the same direction as the pressure-sensitive control element below or above the fuel limit pressure respectively, and an actuator pin thereby moves accordingly. - a fuel pressure acts on the pressure-sensitive control element, said fuel pressure lying above a predeterminable pressure limit value, - a temperature acts on the temperature-sensitive control element, said temperature lying below a predeterminable temperature limit value, whilst this electrical switch is opened if at least one of the two conditions is not fulfilled, characterised in that the temperature-sensitive control element is formed in such a way that, above or below the fuel limit temperature, it arches in the same direction as the pressure-sensitive control element below or above the fuel limit pressure respectively, and an actuator pin thereby moves accordingly.
An RF amplifier system, comprising: a first amplifier having automatic gain control, controllable to vary the first amplifier gain in a first set of gain steps and to provide a target gain value; a second amplifier having a gain controllable in a second set of gain steps; a controller coupled to the first amplifier and the second amplifier, the controller being configured to control the gain of the first amplifier in place of the automatic gain control during a calibration phase, and to adjust the gain of the first amplifier in steps during the calibration phase such that the gain of the amplifier system varies in a range including the target gain value, thereby controlling the gain of the first amplifier such that the amplifier system has a gain which varies on each side of the target gain value; a measurement unit for measuring a signal strength at an output of the system at different gain settings of the first amplifier and at different RF frequencies; and a memory for storing gain steps derived from the measurements taken by the measurement unit for a plurality of different RF frequencies; wherein the controller is further configured to control the gain of the second amplifier based on the gain steps of the first amplfier stored in the memory. a first amplifier having automatic gain control, controllable to vary the first amplifier gain in a first set of gain steps and to provide a target gain value; a second amplifier having a gain controllable in a second set of gain steps; a controller coupled to the first amplifier and the second amplifier, the controller being configured to control the gain of the first amplifier in place of the automatic gain control during a calibration phase, and to adjust the gain of the first amplifier in steps during the calibration phase such that the gain of the amplifier system varies in a range including the target gain value, thereby controlling the gain of the first amplifier such that the amplifier system has a gain which varies on each side of the target gain value; a measurement unit for measuring a signal strength at an output of the system at different gain settings of the first amplifier and at different RF frequencies; and a memory for storing gain steps derived from the measurements taken by the measurement unit for a plurality of different RF frequencies; wherein the controller is further configured to control the gain of the second amplifier based on the gain steps of the first amplfier stored in the memory.
Electromagnetic transfer system having a preferably closed carrier path, along which a multiplicity of individually activatable induction coils are arranged, and having conveying elements (30, 30a to 30e), which are arranged such that they can move on the carrier path and each have a driver element, which is used to convey in each case at least one article from a first conveying device along a conveying section in the region of the transfer system into a second conveying device arranged downstream, the driver elements being in touching contact with the at least one article, at least along the conveying section, the conveying element (30, 30a to 30e) having, as drive element, at least one permanent magnet element arranged in operative connection with the induction coils, the driver element being arranged on the conveying element (30, 30a to 30e) such that it can be moved to be brought into touching contact and out of touching contact with the at least one article, and the movement of the driver element being carried out by means of at least one actuating element (43; 43a, 44; 44a) arranged at a fixed location on the carrier path, characterized in that the driver element is arranged such that it can be pivoted on the conveying element (30, 30a to 30e) and has a locking element which keeps the driver element in a conveying position, in that the locking element is formed as a spring element arranged on a carrier element, and in that the carrier element is formed as a format part and is arranged replaceably on the conveying element (30, 30a to 30e).
A computer-implemented method for analysing echocardiograms, the method comprising: obtaining a plurality of pairs of consecutive echocardiograms for a plurality of subjects from a database, each echocardiogram having an associated indication, comprising one or more observational or diagnostic statements input by a user of the content of the echocardiogram; analysing each pair of consecutive echocardiograms to determine an associated class by automatic comparison between said observational or diagnostic statements associated with each of the pair of consecutive echocardiograms, the class indicating whether there is a change or no change between the consecutive echocardiograms in the pair, said change between the consecutive echocardiograms refers to a change in the cardiac function and/or structure of the heart as represented in the consecutive echocardiograms; for each pair of consecutive echocardiograms, determining an abstract representation of each echocardiogram by performing at layers of a convolutional deep learning network one or more convolutions and/or reductions on the echocardiograms in the pair, the abstract representation comprising one or more features indicative of the class of the pair; and training a predictive model to determine the class for a new pair of echocardiograms based on the abstract representations for the plurality of pairs of consecutive echocardiograms. obtaining a plurality of pairs of consecutive echocardiograms for a plurality of subjects from a database, each echocardiogram having an associated indication, comprising one or more observational or diagnostic statements input by a user of the content of the echocardiogram; analysing each pair of consecutive echocardiograms to determine an associated class by automatic comparison between said observational or diagnostic statements associated with each of the pair of consecutive echocardiograms, the class indicating whether there is a change or no change between the consecutive echocardiograms in the pair, said change between the consecutive echocardiograms refers to a change in the cardiac function and/or structure of the heart as represented in the consecutive echocardiograms; for each pair of consecutive echocardiograms, determining an abstract representation of each echocardiogram by performing at layers of a convolutional deep learning network one or more convolutions and/or reductions on the echocardiograms in the pair, the abstract representation comprising one or more features indicative of the class of the pair; and training a predictive model to determine the class for a new pair of echocardiograms based on the abstract representations for the plurality of pairs of consecutive echocardiograms.
A packaging container (81, 281) comprising a tubular housing (83, 283) and a plunger stopper (82, 282) moveable within the housing (83, 283), wherein at least a section of an outer surface of the plunger stopper (82, 282) being in contact with an inner surface of the housing (83, 283) comprises a silicone-free coating (88, 288) which reduces break loose and/or gliding forces, characterised in that the packaging container housing (83, 283) comprises glass, and in that the packaging container housing (83, 283) comprises a coating at least at a part of its inner surface comprising silicone, which is bound at the inner surface of the housing by annealing.
Housing part for an explosion-protected housing, with a passage in which a flameproof porous body is inserted to form a pressure-relief device in order to limit an explosion pressure in an interior of the housing, wherein the porous body provides a gas-permeable connection between an inside of the porous body assigned to the interior of the housing, and an outside of the porous body assigned to the environment of the housing, characterised in that the porous body consists of an alloyed steel which is temperature-resistant up to at least 400°C and has a hydrophobic coating to form a hydrophobic surface.