mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a stabiliser which comprises a stabiliser bar and a stop ring (1 b) which is fixed thereon, the stop ring (1 b) being used to axially fix the stabiliser in positionin a bearing unit which is connected to a motor vehicle; said method comprising the following steps: - providing a strip-shaped metal profile, - finishingeach end portion (2a, 3a) of the metal profile so that the end portions (2a, 3a) are each provided with a closing contour (2b, 3b); - shaping the metal profile in an undulating design, the metal profile (1 a) being provided with at least one undulating portion; - inserting the undulating metal profile in a tool; - providing the stabiliser bar; - introducing the stabiliser bar into the tool, a gap located between the tool and the inserted stabiliser bar being smaller than a thickness, which is measured in the radial direction, of the metal profile, and the stabiliser bar being pressed against the periphery of the undulating portion of the undulating metal profile which is located in the tool; - moulding the undulating portion to the stabiliser bar, the undulating portion being ironed at least in portions as a result of the gap located between the tool and the inserted stabiliser bar and thus being plastically deformed, and the ironed portions entering into extensive, peripheral and thus force-fit contact with the surface of the stabiliser bar; - folding the metal profile around the stabiliser bar; and - connecting the end portions (2a, 3a) of the metal profile (1 a), the closing contours (2b, 3b) corresponding to one another and entering into engagementbyforming a defined inclination to one another, andthe closed stop ring being formed. - providing a strip-shaped metal profile, - finishingeach end portion (2a, 3a) of the metal profile so that the end portions (2a, 3a) are each provided with a closing contour (2b, 3b); - shaping the metal profile in an undulating design, the metal profile (1 a) being provided with at least one undulating portion; - inserting the undulating metal profile in a tool; - providing the stabiliser bar; - introducing the stabiliser bar into the tool, a gap located between the tool and the inserted stabiliser bar being smaller than a thickness, which is measured in the radial direction, of the metal profile, and the stabiliser bar being pressed against the periphery of the undulating portion of the undulating metal profile which is located in the tool; - moulding the undulating portion to the stabiliser bar, the undulating portion being ironed at least in portions as a result of the gap located between the tool and the inserted stabiliser bar and thus being plastically deformed, and the ironed portions entering into extensive, peripheral and thus force-fit contact with the surface of the stabiliser bar; - folding the metal profile around the stabiliser bar; and - connecting the end portions (2a, 3a) of the metal profile (1 a), the closing contours (2b, 3b) corresponding to one another and entering into engagementbyforming a defined inclination to one another, andthe closed stop ring being formed.
A signal generator for providing a first signal on a first output and a second signal on a second output wherein the first signal and the second signal are provided with phase shift relative to each other, the signal generator comprising: a control loop controller; a level comparator comparing a voltage level at a first input to a voltage level at a second input; a phase shifter, an input of which is connected to the output of the comparator, the phase shifter being arranged to provide the first signal on the first output and the second signal on the second output; and a phase error detector, the inputs of which are connected to the outputs (41, 42) of the phase shifter and the output of which is connected to an input of the control loop controller; wherein the output of the control loop controller is connected in a feedback loop to first input of the level comparator, and the second input of the level comparator is arranged to be connected to an alternating current source. a control loop controller; a level comparator comparing a voltage level at a first input to a voltage level at a second input; a phase shifter, an input of which is connected to the output of the comparator, the phase shifter being arranged to provide the first signal on the first output and the second signal on the second output; and a phase error detector, the inputs of which are connected to the outputs (41, 42) of the phase shifter and the output of which is connected to an input of the control loop controller; wherein the output of the control loop controller is connected in a feedback loop to first input of the level comparator, and the second input of the level comparator is arranged to be connected to an alternating current source.
A multilayer polymeric film, comprising a first skin layer, a second skin layer, and an intermediate layer, wherein the first skin layer is formed of a first polymer composition, the second skin layer is formed of a second polymer composition, and the intermediate layer is formed of a third polymer composition, wherein each of the first, second and third polymer compositions comprises a base polymer which is a polyolefin; wherein each respective layer has distributed therein particles of titanium dioxide of from 6 percent to 14 percent, more preferably from 8 percent to 12 percent, and even more preferably from 9 percent to 11 percent of the weight of the respective layer; wherein the second skin layer has further distributed therein non-white pigment particles of from 0.050 percent to 0.15 percent, of the weight of the second skin layer; and characterized in that the first skin layer comprises no more than 0.050 percent by weight of non-white pigment particles distributed therein, wherein the non-white pigment particles are inorganic pigment particles selected from the group consisting of cobalt blue, cerulean blue, Han blue, Egyptian blue, phthalo blue, Prussian blue, ultramarine, ultramarine violet, Han purple, cobalt violet and manganese violet, and combinations thereof. wherein the first skin layer is formed of a first polymer composition, the second skin layer is formed of a second polymer composition, and the intermediate layer is formed of a third polymer composition, wherein each of the first, second and third polymer compositions comprises a base polymer which is a polyolefin; wherein each respective layer has distributed therein particles of titanium dioxide of from 6 percent to 14 percent, more preferably from 8 percent to 12 percent, and even more preferably from 9 percent to 11 percent of the weight of the respective layer; wherein the second skin layer has further distributed therein non-white pigment particles of from 0.050 percent to 0.15 percent, of the weight of the second skin layer; and characterized in that the first skin layer comprises no more than 0.050 percent by weight of non-white pigment particles distributed therein, wherein the non-white pigment particles are inorganic pigment particles selected from the group consisting of cobalt blue, cerulean blue, Han blue, Egyptian blue, phthalo blue, Prussian blue, ultramarine, ultramarine violet, Han purple, cobalt violet and manganese violet, and combinations thereof.
A process for relaxing the strain in a heterostructure comprising a single crystal semiconductor substrate, a single crystal semiconductor surface layer disposed on the substrate and an interface between the substrate and the surface layer, the substrate comprising a central axis, a back surface which is perpendicular to the central axis, and a diameter extending across the substrate through the central axis, the process comprising: forming a dislocation source layer in the substrate; and radially compressing the substrate to generate dislocations and glide the dislocations from the dislocation source layer toward the surface layer. forming a dislocation source layer in the substrate; and radially compressing the substrate to generate dislocations and glide the dislocations from the dislocation source layer toward the surface layer.
A method of transferring a plurality of data symbols (300, 703) using a signal modulated to allow automatic compensation for the signal impairment effects of echo reflections and frequency offsets, said method comprising: distributing said plurality of data symbols (300, 703) into one or more NxN symbol matrices, wherein N is greater than 1; receiving from a receiver corrective information pertaining to the echo reflections and frequency offsets; pre-equalizing the one or more NxN symbol matrices using the corrective information, thereby creating one or more pre-equalized NxN symbol matrices so as to compensate for the echo reflections and frequency offsets; using said one or more pre-equalized NxN symbol matrices to control the signal modulation of a transmitter (100, 200, 600), wherein for each said pre-equalized NxN symbol matrix, said transmitter (100, 200, 600) uses each data symbol to weight a unique waveform specific to the data symbol, thereby producing a series of N 2 weighted unique waveforms wherein each unique waveform comprises a data-symbol-specific time and frequency cyclic shift of a basic waveform of duration N time slices over one spreading time interval; and combining and transmitting the N 2 weighted unique waveforms. distributing said plurality of data symbols (300, 703) into one or more NxN symbol matrices, wherein N is greater than 1; receiving from a receiver corrective information pertaining to the echo reflections and frequency offsets; pre-equalizing the one or more NxN symbol matrices using the corrective information, thereby creating one or more pre-equalized NxN symbol matrices so as to compensate for the echo reflections and frequency offsets; using said one or more pre-equalized NxN symbol matrices to control the signal modulation of a transmitter (100, 200, 600), wherein for each said pre-equalized NxN symbol matrix, said transmitter (100, 200, 600) uses each data symbol to weight a unique waveform specific to the data symbol, thereby producing a series of N 2 weighted unique waveforms wherein each unique waveform comprises a data-symbol-specific time and frequency cyclic shift of a basic waveform of duration N time slices over one spreading time interval; and combining and transmitting the N 2 weighted unique waveforms.
A touch display panel, comprising: an array substrate and a cell alignment substrate arranged oppositely, a touch driving electrode, a first touch sensitive electrode and a second touch sensitive electrode; wherein the first touch sensitive electrode is on the cell alignment substrate, and the second touch sensitive electrode is on the array substrate, the touch driving electrode is between the first touch sensitive electrode and the second touch sensitive electrode such that mutual capacitances are generated between the touch driving electrode with each of the first touch sensitive electrode and the second touch sensitive electrode; wherein each of the array substrate and the cell alignment substrate comprises a base substrate (101/201); the touch driving electrode is on a side of the base substrate of the array substrate facing toward the cell alignment substrate; the first touch sensitive electrode is on a side of the base substrate of the cell alignment substrate facing toward the array substrate or facing away from the array substrate; the second touch sensitive electrode is on a side of the base substrate of the array substrate facing toward the cell alignment substrate or facing away from the cell alignment substrate;wherein the array substrate further comprises a common electrode; the touch driving electrode comprises a first touch driving electrode; the first touch driving electrode and the common electrode are made of the same material and arranged in the same layer; wherein the touch driving electrode further comprises a second touch driving electrode; the second touch driving electrode is in a different layer from the first touch driving electrode such that a mutual capacitance is generated between the first touch driving electrode and the first touch sensitive electrode and a mutual capacitance is generated between the second touch driving electrode and the second touch sensitive electrode; wherein the array substrate further comprising a thin film transistor; the second touch driving electrode is a shutter bar between the thin film transistor and the base substrate of the array substrate and configured for shielding a channel of the thin film transistor in order to prevent lights from illuminating the channel of the thin film transistor
A method comprising: controlling a charging module to begin charging a rechargeable power source of an implantable medical device with a high power level, wherein the high power level is higher than a non-zero low power level; determining, by a processor, an estimated heat loss based on power initially delivered to the rechargeable power source when beginning the charging with the high power level; characterised by selecting, by the processor, a boost period based on the estimated heat loss; and continuing to control the charging module to charge the rechargeable power source with the high power level for a duration of the boost period. controlling a charging module to begin charging a rechargeable power source of an implantable medical device with a high power level, wherein the high power level is higher than a non-zero low power level; determining, by a processor, an estimated heat loss based on power initially delivered to the rechargeable power source when beginning the charging with the high power level; characterised by selecting, by the processor, a boost period based on the estimated heat loss; and continuing to control the charging module to charge the rechargeable power source with the high power level for a duration of the boost period.
Apparatus for coating (1; 1') manufactured articles, such as panels made of wood, fiberglass, ceramic or the like, on which a photosensitive paint is applied beforehand, wherein said manufactured article has un upper surface (Ps), a head surface (Pt), a tail surface (Pc), two side surfaces and a lower surface (Pi), comprising at least one radiation source (41, 61) for the treatment of said photosensitive paint, a conveying system, on which said manufactured article is movable in a forward direction, and an inert chamber, in which an inert atmosphere is maintained, characterized in that said conveying system comprises a first conveyor belt and a second conveyor belt, arranged adjacent and in series, so that the manufactured article may move from said first conveyor belt to said second conveyor belt, while it moves in said forward direction, in that said first conveyor belt is arranged, at least mostly, outside said inert chamber, and in that said second conveyor belt is arranged, at least mostly, inside said inert chamber. at least one radiation source (41, 61) for the treatment of said photosensitive paint, a conveying system, on which said manufactured article is movable in a forward direction, and an inert chamber, in which an inert atmosphere is maintained, characterized in that said conveying system comprises a first conveyor belt and a second conveyor belt, arranged adjacent and in series, so that the manufactured article may move from said first conveyor belt to said second conveyor belt, while it moves in said forward direction, in that said first conveyor belt is arranged, at least mostly, outside said inert chamber, and in that said second conveyor belt is arranged, at least mostly, inside said inert chamber.
Thermoplastic molding compositions comprising a) 77.7 to 99.7% by weight of one or more styrene copolymers, as component A, wherein use is made as component A of a copolymer of acrylonitrile, styrene and/or α-methylstyrene, phenylmaleimide, methyl methacrylate or mixtures thereof, b) 0.1 to 10% by weight of the compounds of the formulae I, II, III, IV, and V, or isomers thereof, as component B: c) 0.2 to 0.9% by weight of a compound of the formula, as component C: d) 0.2 to 0.7% by weight of a mixture of the formula, as component D: e) 0 to 0.5% by weight of a compound of the formula (VIII) as component E: or 0 to 0.5% by weight of a compound of the formula: or 0 to 0.5% by weight of a compound of the formula: or 0 to 0.5% by weight of a compound of the formula: f) 0 to 10% by weight of one or more additives which are different from components C, D, and E, as component F, wherein the percentage by weight being based in each case on the total weight of components A to F and together making up 100% by weight. a) 77.7 to 99.7% by weight of one or more styrene copolymers, as component A, wherein use is made as component A of a copolymer of acrylonitrile, styrene and/or α-methylstyrene, phenylmaleimide, methyl methacrylate or mixtures thereof, b) 0.1 to 10% by weight of the compounds of the formulae I, II, III, IV, and V, or isomers thereof, as component B: c) 0.2 to 0.9% by weight of a compound of the formula, as component C: d) 0.2 to 0.7% by weight of a mixture of the formula, as component D: e) 0 to 0.5% by weight of a compound of the formula (VIII) as component E: or 0 to 0.5% by weight of a compound of the formula: or 0 to 0.5% by weight of a compound of the formula: or 0 to 0.5% by weight of a compound of the formula: f) 0 to 10% by weight of one or more additives which are different from components C, D, and E, as component F,
A surgical implant, comprising: an outer ring having an outer wall and an inner wall, the outer ring disposed about a central axis; a substantially hollow pliable ring adjacent the inner wall, the ring extending annularly from the inner wall towards the central axis, the pliable ring defining an opening disposed about the central axis, the opening having a closed position and an open position; a plurality of magnets having a hole therein, the plurality of magnets positioned substantially within the pliable ring; a plurality of spacers between the plurality of magnets having holes therein; and a flexible cord passing through the magnet holes and spacer holes. an outer ring having an outer wall and an inner wall, the outer ring disposed about a central axis; a substantially hollow pliable ring adjacent the inner wall, the ring extending annularly from the inner wall towards the central axis, the pliable ring defining an opening disposed about the central axis, the opening having a closed position and an open position; a plurality of magnets having a hole therein, the plurality of magnets positioned substantially within the pliable ring; a plurality of spacers between the plurality of magnets having holes therein; and a flexible cord passing through the magnet holes and spacer holes.
A method for multi-level assessment of content popularity to optimize caching, comprising: re-directing a first cache-miss request, associated with a first cache server, for a content identifier in a first semi-popular portion of a first meta-cache comprising a plurality of last-requested content identifiers, to a second cache server in response to determining that the content identifier is not present in the first semi-popular portion of the first meta-cache; and re-directing a second cache-miss request associated with the second cache server, for the content identifier in a second semi-popular portion of a second meta-cache, comprising a plurality of last-requested content identifiers, to an origin server hosting a content associated with the content identifier in response to determining that the content identifier is not present in the second semi-popular portion of the second meta-cache, the second cache-miss request having been issued consequent to the re-directing of the first cache-miss request, the method further comprising specifying a first threshold parameter, for partitioning the first meta-cache into a first popular portion and the first semi-popular portion, and a second threshold parameter for partitioning the second meta-cache into a second popular portion and the second semi-popular portion, wherein the first meta-cache is communicatively coupled to the first cache server and the second meta-cache is communicatively coupled to the second cache server. re-directing a first cache-miss request, associated with a first cache server, for a content identifier in a first semi-popular portion of a first meta-cache comprising a plurality of last-requested content identifiers, to a second cache server in response to determining that the content identifier is not present in the first semi-popular portion of the first meta-cache; and re-directing a second cache-miss request associated with the second cache server, for the content identifier in a second semi-popular portion of a second meta-cache, comprising a plurality of last-requested content identifiers, to an origin server hosting a content associated with the content identifier in response to determining that the content identifier is not present in the second semi-popular portion of the second meta-cache, the second cache-miss request having been issued consequent to the re-directing of the first cache-miss request, the method further comprising specifying a first threshold parameter, for partitioning the first meta-cache into a first popular portion and the first semi-popular portion, and a second threshold parameter for partitioning the second meta-cache into a second popular portion and the second semi-popular portion, wherein the first meta-cache is communicatively coupled to the first cache server and the second meta-cache is communicatively coupled to the second cache server.
A dual-specific ligand comprising a first single immunoglobulin variable domain having a binding specificity to a first antigen which is human serum albumin and a second complementary immunoglobulin single variable domain having a binding activity to a second antigen, wherein the first or second single variable domain is a V H domain and the other complementary single variable domain is a V L domain.
A method comprising: receiving information regarding a status change of a protocol data unit session associated with a mobile communication system, said status change of a protocol data unit session being associated with a status change of a bridge port associated with a bridge; and causing transmission, towards a centralized network controller of a time sensitive network, of information regarding said status change of a bridge port, wherein said bridge enables integration of said mobile communication system with said time sensitive network, wherein said bridge port comprises a bridge port at a user equipment side of said bridge associated with a user equipment of said mobile communication system. receiving information regarding a status change of a protocol data unit session associated with a mobile communication system, said status change of a protocol data unit session being associated with a status change of a bridge port associated with a bridge; and causing transmission, towards a centralized network controller of a time sensitive network, of information regarding said status change of a bridge port, wherein said bridge enables integration of said mobile communication system with said time sensitive network, wherein said bridge port comprises a bridge port at a user equipment side of said bridge associated with a user equipment of said mobile communication system.