mhurhangee/ep-ind-claims huggingface dataset:
A method of registering on a passive optical network, characterized in that, the method comprises: during a registration of each Optical Network Unit, ONU, of a plurality of ONUs to an Optical Line Terminal, OLT, receiving, by the OLT, registration information continuously sent by each ONU of the plurality of ONUs, via a preset wavelength pair, wherein the registration information sent by each ONU of the plurality of ONUs is continuously sent to the OLT after the ONU performs random latency; and performing, by the OLT, a registration processing according to the received registration information; wherein performing, by the OLT, the registration processing according to the received registration information comprises: in a case where the OLT does not correctly analyzes the registration information sent by each ONU of the plurality of ONUs, determining that an operation of allocating a wavelength pair is not performed and indicating each ONU of the plurality of ONUs to re-send continuously registration information in random latency. during a registration of each Optical Network Unit, ONU, of a plurality of ONUs to an Optical Line Terminal, OLT, receiving, by the OLT, registration information continuously sent by each ONU of the plurality of ONUs, via a preset wavelength pair, wherein the registration information sent by each ONU of the plurality of ONUs is continuously sent to the OLT after the ONU performs random latency; and performing, by the OLT, a registration processing according to the received registration information; wherein performing, by the OLT, the registration processing according to the received registration information comprises: in a case where the OLT does not correctly analyzes the registration information sent by each ONU of the plurality of ONUs, determining that an operation of allocating a wavelength pair is not performed and indicating each ONU of the plurality of ONUs to re-send continuously registration information in random latency.
A communications interface for communications between participants having respective screens available to them, said interface including a two-dimensional virtual space and two-dimensional graphical avatars (2, 3, 4, 5, 6, 7, 8, 9, 10, 11) that firstly represent respective ones of said participants and secondly are designed to move in said virtual space, said virtual space and said graphical avatars (2, 3, 4, 5, 6, 7, 8, 9, 10, 11) being designed to be displayed on said screens, said communications interface also including control means enabling each of the participants to control the movements of their respective graphical avatars (2, 3, 4, 5, 6, 7, 8, 9, 10, 11), said communications interface sets up a discussion channel automatically between two of said participants when the distances (d') between a graphical object (12, 13, 14) positioned in said virtual space and each of the two graphical avatars (2, 3) representing respective ones of said two participants are less than or equal to a second predetermined value, setting up said discussion channel enabling said two participants to converse with each other, in real time, by audio-video communication with a video window popping up in the graphical avatar of each participant in question, said graphical object (12, 13, 14) being an activable/deactivable window designed to be activated for all of said participants who are represented by respective graphical avatars when the distance (d') between each of said respective graphical avatars and said graphical object is less than or equal to a second predetermined value, activation of said graphical object enabling interaction to take place between said graphical object and each of said participants having their respective avatars distant from said graphical object (12, 13, 14) by said distance (d') less than or equal to the second predetermined value, said activation corresponding to broadcasting of an audiovisual content which is perceived only by said participants having their respective avatars at a distance (d') from said graphical object (12, 13, 14) which is less than or equal to said second predetermined value, broadcasting ceasing automatically for participants moving their graphical avatars away from the graphical object (12, 13, 14) to distances (d') greater than the second predetermined value, the other participants who have their avatars at a distance (d') from said graphical object (12, 13, 14) which is less than or equal to said second predetermined value still having access to the content being broadcast.
Independently manageable display panel in a size of DIN-A1 to DIN-A5, for example a price labelling panel, with a flexurally rigid, plate-like carrier part as a support for an information element, for example a written or printed sheet of paper, and a transparent cover formed by a film and covering the information element, the cover being designed as part of a pocket part which is firmly seated on the carrier part merely by adhesion and has a film-like back connected to the cover, characterized in that the back is set to be smaller in area than the cover in order to offer cover edge adhesion, in that the cover is designed on the edge side for directly releasable adhesive connection with the carrier part in that the rear side of the back which interacts with the carrier part is formed by an applied soft PVC layer, and in that the cover is formed on the edge side by the upper transparent film, a non-detachably bonded stiffening layer arranged underneath, and a soft PVC layer applied to the stiffening layer, essentially in three layers.
Method of controlling a metallurgical production plant for producing a product from a metallic steel alloy and/or iron alloy, wherein the production process is controlled at least partly by means of a structure simulator and/or structure monitor and/or structure model, which comprises a program calculating at least one mechanical strength property of the produced product containing the metallic steel and/or iron alloy, by means of which program the at least one mechanical strength property is calculated in dependence on a respective process chain on the basis of calculated metallurgical phase components and/or the respective proportions thereof at the resulting metallurgical structure of the produced product, wherein the process chain of the metallurgical production plant comprises a hot rolling mill and/or heavy plate rolling mill with a concluding cooling path and operating parameters of the metallurgical production plant, on which the obtained at least one mechanical strength property depends, together with at least partly preset, adaptable start values are included in the calculation of the at least one mechanical strength property, characterised in that the respective mass proportion of at least one alloying element, preferably all alloying elements, present in the chemical composition of the metallic steel and/or iron alloy used is detected as operating parameter, which is included in the calculation of the at least one strength property, of the metallurgical production plant and at least one cooling rate arising in the context of cooling carried out after a rolling process is detected as further operating parameter, and an increase, which is achievable or achieved by a change in at least this further operating parameter, particularly an increase in the cooling rate, of the relevant strength property of the produced product is at least partly compensated for and/or evened out by a reduction in the mass proportion of one or more of the alloying elements of the chemical composition of the metallic steel and/or iron alloy used, wherein the respective detected mass proportion of alloying element or elements and the respectively detected cooling rate are evaluated by a countable number of an evaluating unit reproducing an evaluation scale and by means of the program the respective summation values of the countable evaluating units, which for the respective relevant strength property in the case of different combinations respectively result from a mass proportion of alloying medium or media evaluated by a number of countable evaluating units and from a cooling rate evaluated by a number of countable evaluating units, are ascertained and/or represented, wherein the program comprises a mathematical term and/or algorithm by means of which the respective number of evaluating units and/or the differently determined summation values are compared with one another.
A packet transmission method, comprising: determining, by a sending node, whether an unrecoverable failure occurs in an active link, wherein the active link is any one of multiple communication links between the sending node and a receiving node; if the sending node determines that the unrecoverable failure occurs in the active link, selecting, by the sending node from the multiple communication links, at least one standby link except the active link; and sending, by the sending node, a packet to the receiving node by using the standby link, characterized in that said sending is to cause the receiving node to send, in the receiving node, the packet from a standby link receive end to a receive end of the active link, wherein the packet is a packet in a retransmission buffer of a transmit end of the active link. determining, by a sending node, whether an unrecoverable failure occurs in an active link, wherein the active link is any one of multiple communication links between the sending node and a receiving node; if the sending node determines that the unrecoverable failure occurs in the active link, selecting, by the sending node from the multiple communication links, at least one standby link except the active link; and sending, by the sending node, a packet to the receiving node by using the standby link, characterized in that said sending is to cause the receiving node to send, in the receiving node, the packet from a standby link receive end to a receive end of the active link, wherein the packet is a packet in a retransmission buffer of a transmit end of the active link.
A rotor blade of a wind power installation comprising: - a heating device for heating the rotor blade, arranged in the rotor blade in the area of its rotor blade surface, wherein - the heating device has electrically conductive heating wires, and - the heating wires run in a sinusoidal, wave-like and/or zigzag-shaped way, with - an amplitude, defining a sinusoidal amplitude, wave height or respectively spike height, and - a wavelength defining a period length, wavelength or respectively a distance between spikes, wherein - the amplitude and/or wavelength varies along the heating wires in order to be able to vary the specific areal heating performance of the heating device in sections, characterized in that - the heating wires are divided into heating groups of several heating wires connected in parallel, and - two or more heating groups are connected with each other in series. - a heating device for heating the rotor blade, arranged in the rotor blade in the area of its rotor blade surface, wherein - the heating device has electrically conductive heating wires, and - the heating wires run in a sinusoidal, wave-like and/or zigzag-shaped way, with - an amplitude, defining a sinusoidal amplitude, wave height or respectively spike height, and - a wavelength defining a period length, wavelength or respectively a distance between spikes, wherein - the amplitude and/or wavelength varies along the heating wires in order to be able to vary the specific areal heating performance of the heating device in sections, - the heating wires are divided into heating groups of several heating wires connected in parallel, and - two or more heating groups are connected with each other in series.
A surface modification method for modifying a surface of an oxide, the method comprising: producing a surface modification composition; and applying the surface modification composition onto a surface of an oxide layer, wherein in producing the surface modification composition, a modifier having a perfluoropolyether chain is mixed with: a first modification accelerator containing an inorganic acid; and a second modification accelerator containing at least one selected from the group consisting of a metal, a metal salt and an organometallic compound, wherein the first modification accelerator is a phosphoric acid. producing a surface modification composition; and applying the surface modification composition onto a surface of an oxide layer, wherein in producing the surface modification composition, a modifier having a perfluoropolyether chain is mixed with: a first modification accelerator containing an inorganic acid; and a second modification accelerator containing at least one selected from the group consisting of a metal, a metal salt and an organometallic compound, wherein the first modification accelerator is a phosphoric acid. a first modification accelerator containing an inorganic acid; and a second modification accelerator containing at least one selected from the group consisting of a metal, a metal salt and an organometallic compound, wherein the first modification accelerator is a phosphoric acid.
A secondary battery, comprising: a negative electrode plate, including a negative current collector and a negative electrode film which is arranged on at least one surface of the negative current collector and includes a negative active material; a separation film, including a base material and a coating arranged on at least one surface of the base material; and an electrolyte, including an organic solvent, wherein the negative active material includes a silicon-based material and a carbon material; a thickness of the base material of the separation film is 7μm∼12μm; and the organic solvent includes ethylene carbonate, EC, and a weight ratio of the ethylene carbonate, EC, in the organic solvent is ≤20%, wherein the electrolyte further includes electrolyte salt, and the electrolyte salt includes lithium bisfluorosulfonimide, LiFSI, and lithium hexafluorophosphate, LiPF 6; and molarity of the lithium bisfluorosulfonimide, LiFSI, in the electrolyte is 0.8mol/L~1.3mol/L, and molarity of the lithium hexafluorophosphate, LiPF 6, in the electrolyte is 0.15mol/L~0.4mol/L. a negative electrode plate, including a negative current collector and a negative electrode film which is arranged on at least one surface of the negative current collector and includes a negative active material; a separation film, including a base material and a coating arranged on at least one surface of the base material; and an electrolyte, including an organic solvent, wherein the negative active material includes a silicon-based material and a carbon material; a thickness of the base material of the separation film is 7μm∼12μm; and the organic solvent includes ethylene carbonate, EC, and a weight ratio of the ethylene carbonate, EC, in the organic solvent is ≤20%, wherein the electrolyte further includes electrolyte salt, and the electrolyte salt includes lithium bisfluorosulfonimide, LiFSI, and lithium hexafluorophosphate, LiPF 6; and molarity of the lithium bisfluorosulfonimide, LiFSI, in the electrolyte is 0.8mol/L~1.3mol/L, and molarity of the lithium hexafluorophosphate, LiPF 6, in the electrolyte is 0.15mol/L~0.4mol/L.
A mounting system for mounting machinery, and for isolating vibration therefrom, the system comprising: a support for said machinery, including a plurality of resilient mounts, and a control means for controlling the stiffness of the mounts, each mount comprising a passive resilient means for fully supporting the static load of the machinery, and active isolation means (40; 54; 70) coupled to said control means, characterised in that said control means is a control means for controlling the stiffness of the mounts as a function of frequency, wherein the control means is arranged, below a resonant frequency, so that a performance parameter of each mount is essentially that of the passive resilient means, and that, above said mount resonant frequency and over a desired frequency band, the control means is arranged to maintain a zero stiffness of the mount to excited structural resonances, and to compensate for rigid body modes of movement of the support; and wherein said control means includes a notch filter, in the form of a software patch, to tailor force transmissivity to attenuate the transmission of a specific previously encountered out-of-balance force. a support for said machinery, including a plurality of resilient mounts, and a control means for controlling the stiffness of the mounts, each mount comprising a passive resilient means for fully supporting the static load of the machinery, and active isolation means (40; 54; 70) coupled to said control means, characterised in that said control means is a control means for controlling the stiffness of the mounts as a function of frequency, wherein the control means is arranged, below a resonant frequency, so that a performance parameter of each mount is essentially that of the passive resilient means, and that, above said mount resonant frequency and over a desired frequency band, the control means is arranged to maintain a zero stiffness of the mount to excited structural resonances, and to compensate for rigid body modes of movement of the support; and wherein said control means includes a notch filter, in the form of a software patch, to tailor force transmissivity to attenuate the transmission of a specific previously encountered out-of-balance force.
A diverter valve device, in particular for a washing machine, such as a dishwasher, comprising: - a valve body, in which a chamber is defined, which is able to be passed through by a pressurized fluid flow; - a rotatory plug, which is mounted on said body and is adapted to rotate about a rotation axis (X-X); - at least one inlet for said fluid flow, which is provided in said body and is fluidly arranged upstream of said chamber; and - at least one pair of outlets (20a, 20b) for said fluid flow, which exit from said body and are fluidly arranged downstream of said chamber; wherein said body has, furthermore, a substantially axial valve seat and a substantially radial valve seat fluidly arranged between said chamber and one of said outlets and respectively the other one of said outlets; said plug being arranged for assuming at least a first and a second operating condition, in which it frees and respectively obstructs said substantially axial valve seat as well as obstructs and respectively frees said substantially radial valve seat; said device comprising, furthermore, actuator means, for controlling the rotation of said plug between said operating conditions; said device being characterized in that it comprises, furthermore, transmission means, which cooperate with said actuator means and adapted to axially transfer a mechanical power through said other one of said outlets. - a valve body, in which a chamber is defined, which is able to be passed through by a pressurized fluid flow; - a rotatory plug, which is mounted on said body and is adapted to rotate about a rotation axis (X-X); - at least one inlet for said fluid flow, which is provided in said body and is fluidly arranged upstream of said chamber; and - at least one pair of outlets (20a, 20b) for said fluid flow, which exit from said body and are fluidly arranged downstream of said chamber;
A socket assembly, comprising: a housing with an inner bore which extends along a central axis; a stud with a first portion that is disposed in said inner bore of said housing and with a shank portion that extends out of said inner bore through an open end of said housing; and a boot including a boot body that is made of an elastomeric material and that extends from a first boot end to a second boot end, said second boot end being operatively sealed with said shank portion of said ball stud, said boot further including an insert including a plurality of raised sections that are circumferentially spaced from one another by a plurality of recessed sections and including a plurality of connecting sections that interconnect adjacent ones of said raised and recessed sections; charaterised in that said first boot end is received in said inner bore of said housing and is operatively sealed with said housing, and in that said boot includes an insert that is in an overmolding engagement with said first boot end of said elastomeric boot body. a housing with an inner bore which extends along a central axis; a stud with a first portion that is disposed in said inner bore of said housing and with a shank portion that extends out of said inner bore through an open end of said housing; and a boot including a boot body that is made of an elastomeric material and that extends from a first boot end to a second boot end, said second boot end being operatively sealed with said shank portion of said ball stud, said boot further including an insert including a plurality of raised sections that are circumferentially spaced from one another by a plurality of recessed sections and including a plurality of connecting sections that interconnect adjacent ones of said raised and recessed sections; charaterised in that said first boot end is received in said inner bore of said housing and is operatively sealed with said housing, and in that said boot includes an insert that is in an overmolding engagement with said first boot end of said elastomeric boot body.
(Amended) A macromer comprising: a siloxane backbone; a graft attached to the siloxane backbone, the graft comprising a polymerizable functional group; and a concentration of grafts comprising hydrophilic groups sufficient to render the macromer at least partially hydrophilic, wherein the macromer is of the Formula: where M is a hydrophilic group or segment; L is a hydrophilic or hydrophobic linkage; N is a hydrophilic or hydrophobic group or segment. Q is a polymerizable functional group; x is zero or an integer greater than zero; y is zero or an integer greater than zero; v an integer greater than zero; and z is greater than zero; when the L group is a hydrophilic linkage, L can be the same as or different than the hydrophilic M group. a siloxane backbone; a graft attached to the siloxane backbone, the graft comprising a polymerizable functional group; and a concentration of grafts comprising hydrophilic groups sufficient to render the macromer at least partially hydrophilic, wherein the macromer is of the Formula:
A method of producing an electrolyte membrane, the method comprising: providing a dispersion solution that includes a crosslinked perfluorinated ionomer material and a linear perfluorinated ionomer material dispersed in a carrier fluid or mixture of carrier fluids, the crosslinked perfluorinated ionomer material having an equivalent weight of 750 g/mol or less with respect to proton exchange acid groups, and the linear perfluorinated ionomer material having an equivalent weight of 750 g/mol or more with respect to proton exchange acid groups; and removing at least a portion of the carrier fluid or carrier fluids from the dispersion solution to thereby form an electrolyte membrane with the crosslinked perfluorinated ionomer material and the linear perfluorinated ionomer material. providing a dispersion solution that includes a crosslinked perfluorinated ionomer material and a linear perfluorinated ionomer material dispersed in a carrier fluid or mixture of carrier fluids, the crosslinked perfluorinated ionomer material having an equivalent weight of 750 g/mol or less with respect to proton exchange acid groups, and the linear perfluorinated ionomer material having an equivalent weight of 750 g/mol or more with respect to proton exchange acid groups; and removing at least a portion of the carrier fluid or carrier fluids from the dispersion solution to thereby form an electrolyte membrane with the crosslinked perfluorinated ionomer material and the linear perfluorinated ionomer material.