mhurhangee/ep-ind-claims huggingface dataset:
Medium voltage electric switching device comprising at least two switching devices per phase, each switching device comprising an disconnector placed in an electric line, said disconnector comprising a first contact called a fixed contact and a second contact called a moving contact, one of these two contacts being electrically connected to a current carrying bar, whilst the other contact is connected, respectively for all of the switching devices, to different electrical circuits, each switching device comprising means for carrying out the function of disconnection and means for providing the switching function, and a branch circuit in which a vacuum interrupter providing the switching is placed, said vacuum interrupter being able to be actuated by the intermediary of one or other of several actuating means (12, 13, 14) respectively associated with the different disconnectors (5, 6, 7), in such a way that the branch is inactive in ongoing operating conditions, characterized in that the branch is traversed by the electric current only when one of the disconnectors (5, 6, 7) has started it movement of opening, by a progressive transfer of current from the line comprising the disconnector in the process of opening to the branch line, and in that the moving parts of the aforesaid actuating means (12, 13, 14) are mechanically and electrically connected to each other by a connecting rod, in such a way that the actuation of one of the aforesaid actuating means (12, 13, 14) brings about the actuating of all of the actuating means and that the progressive transfer of the current from the line of the disconnector in the process of opening to the branch line is carried out through the portion of rod situated between the actuating means associated with this disconnector in the process of opening and this branch line.
Rubber mixture characterized by the following composition: - from 20 - 90 phr of at least one natural or synthetic polyisoprene and - from 5 - 40 phr of at least one butadiene rubber and - from 5 - 50 phr of at least one end-group-modified styrene-butadiene rubber and - from 0 - 50 phr of at least one other polar or nonpolar rubber and - from 0 - 7 phr of at least one plasticizer oil and - from 0.1 - 20 phr of amorphous silica and/or precipitated silica and - from 30 to 70 phr of at least one carbon black and - from 2 to 100 phr of other additives, where the glass transition temperature of the styrene-butadiene rubber is from -40°C to 0°C and the styrene-butadiene rubber has end-group modification by amino groups and/or by alkoxysilyl groups and/or by OH groups and/or by epoxy groups and/or by carboxy groups and/or by mercapto groups. - from 20 - 90 phr of at least one natural or synthetic polyisoprene and - from 5 - 40 phr of at least one butadiene rubber and - from 5 - 50 phr of at least one end-group-modified styrene-butadiene rubber and - from 0 - 50 phr of at least one other polar or nonpolar rubber and - from 0 - 7 phr of at least one plasticizer oil and - from 0.1 - 20 phr of amorphous silica and/or precipitated silica and - from 30 to 70 phr of at least one carbon black and - from 2 to 100 phr of other additives,
A method for the production of polyoxazolidinone compounds, comprising the step of reacting an isocyanate compound with an epoxide compound in the presence of a catalyst, wherein the isocyanate compound comprises a isocyanate compound (A 1) wherein the a isocyanate compound (A 1) comprising at least two isocyanate groups (I 1 ≥ 2), preferred two isocyanate groups (I 1 = 2), wherein the epoxide compound comprises a epoxide compound (B 1) and an epoxide compound (B 2), wherein the epoxide compound (B 2) is different from the epoxide compound (B 1) wherein the epoxide compound (B 1) comprising at least two terminal epoxide groups (F 1 ≥ 2), preferred two terminal epoxide groups (F 1 = 2), linked together by a linking group (L 1) and the epoxide compound (B 2) comprising at least two terminal epoxide groups (F 2 ≥ 2)), preferred two terminal epoxide groups (F 2 = 2), linked together by a linking group (L 2), wherein the linking group (L 2) comprises acyclic and covalent bonds to each other free of conjugated multiple bonds within the main chain, wherein the epoxide compound (B 2) is present in the epoxide compounds B 1 and B 2, in an amount of ≥ 0.01 mol-% to ≤ 10 mol-%, preferred 1-9 mol-% more preferred 3-8 mol-% based on the molar ratio the terminal epoxide groups in the epoxide compound (B 1) and of the sum of the terminal epoxide groups in the epoxide compound (B 1) and terminal epoxide groups in the epoxide compound (B 2).
A method for imaging from a distribution of magnetic small particles, the method comprising: - setting the magnetizations of the small particles in a rotation which is asynchronous with respect to the magnetic field using an external magnetic field of suitable field strength and rotation frequency rotating about a longitudinal axis (z), wherein an asynchronous average rotation frequency dependent on the field strength results for a particle ensemble, - applying a magnetic gradient field to impose a position dependency on the asynchronous average rotation frequency of the respective particle ensemble, - recording the frequency components of a superimposed transverse magnetization (M Q) of the particle ensemble and - determining a spatially resolved distribution of the transverse magnetization (M Q) of the small particles using the frequency components and outputting the spatially resolved distribution. - setting the magnetizations of the small particles in a rotation which is asynchronous with respect to the magnetic field using an external magnetic field of suitable field strength and rotation frequency rotating about a longitudinal axis (z), wherein an asynchronous average rotation frequency dependent on the field strength results for a particle ensemble, - applying a magnetic gradient field to impose a position dependency on the asynchronous average rotation frequency of the respective particle ensemble, - recording the frequency components of a superimposed transverse magnetization (M Q) of the particle ensemble and - determining a spatially resolved distribution of the transverse magnetization (M Q) of the small particles using the frequency components and outputting the spatially resolved distribution.
Biodegradable polymeric composition for preparing articles having high heat deflection temperature comprising: i) 50-95% by weight, based on the sum of components i. and ii., of a polyester of lactic acid; ii) 5-50 % by weight, based on the sum of components i. and ii., of at least one aliphatic-aromatic polyester (AAPE) comprising a dicarboxylic component and a dihydroxylic component which comprise the following structural units: -[-O- -O-C - -C -]- -[-O- -O-C - -C -]- wherein the dihydroxylic component comprises units -O- -O- and - O- -O- deriving from diols, wherein R11 e R12 are the same or different and are selected from the group consisting of C2-C14 alkylenes, C5-C10 cycloalkylenes, C2-C12 oxyalkylenes, heterocyclic groups and mixtures thereof, wherein the dicarboxylic component comprises units-C - -C -deriving from aliphatic diacids and units -C - -C - deriving from aromatic diacids, wherein R13 is selected from the group consisting of C0-C20 alkylenes and their mixtures and the molar percentage of the units deriving from aromatic diacids is higher of 50 % and lower than 70% of the dicarboxylic component. iii) 1-25% by weight, with respect to the total weight of the biodegradable polymer composition, of cellulose fibres; iv) 1-10 % by weight, with respect to the total weight of the biodegradable polymer composition, of a nucleating agent selected from polyesters comprising repeating units of 1,4-butylene succinate, talc and mixtures thereof. i) 50-95% by weight, based on the sum of components i. and ii., of a polyester of lactic acid; ii) 5-50 % by weight, based on the sum of components i. and ii., of at least one aliphatic-aromatic polyester (AAPE) comprising a dicarboxylic component and a dihydroxylic component which comprise the following structural units: -[-O- -O-C - -C -]- -[-O- -O-C - -C -]- wherein the dihydroxylic component comprises units -O- -O- and - O- -O- deriving from diols, wherein R11 e R12 are the same or different and are selected from the group consisting of C2-C14 alkylenes, C5-C10 cycloalkylenes, C2-C12 oxyalkylenes, heterocyclic groups and mixtures thereof, wherein the dicarboxylic component comprises units-C - -C -deriving from aliphatic diacids and units -C - -C - deriving from aromatic diacids, wherein R13 is selected from the group consisting of C0-C20 alkylenes and their mixtures and the molar percentage of the units deriving from aromatic diacids is higher of 50 % and lower than 70% of the dicarboxylic component. iii) 1-25% by weight, with respect to the total weight of the biodegradable polymer composition, of cellulose fibres; iv) 1-10 % by weight, with respect to the total weight of the biodegradable polymer composition, of a nucleating agent selected from polyesters comprising repeating units of 1,4-butylene succinate, talc and mixtures thereof.
A computing system, comprising: an application server component, on a server, configured to receive a client request, from a client comprising a browser, requesting a form and to, in response, send the client a static representation of the form; and a form processing component, on the server, configured to generate, based on the client request, dynamic information for the form and send the dynamic information to the client, separately from the static representation; characterized in that the server application component is adapted to execute logic to obtain dynamic information and return it to the browser while a form rendering component of the browser creates a document object model or other structure for the form on the client side using the static information, wherein the execution of the dynamic information at the server application component and creating of the document object model are performed in parallel. an application server component, on a server, configured to receive a client request, from a client comprising a browser, requesting a form and to, in response, send the client a static representation of the form; and a form processing component, on the server, configured to generate, based on the client request, dynamic information for the form and send the dynamic information to the client, separately from the static representation; characterized in that the server application component is adapted to execute logic to obtain dynamic information and return it to the browser while a form rendering component of the browser creates a document object model or other structure for the form on the client side using the static information, wherein the execution of the dynamic information at the server application component and creating of the document object model are performed in parallel.
A display device having a pixel, the pixel comprising: a light emitting element; a driving transistor, provided in a path for supplying forward current to the light emitting element, for controlling the amount of forward current flowing into the light emitting element; a switching transistor for controlling input of a video signal; and an AC transistor, provided in a path for supplying reverse current to the light emitting element, for controlling reverse current flowing into the light emitting element, characterized in that the AC transistor has a ratio of a channel length L to a channel width W smaller than that of the driving transistor. a light emitting element; a driving transistor, provided in a path for supplying forward current to the light emitting element, for controlling the amount of forward current flowing into the light emitting element; a switching transistor for controlling input of a video signal; and an AC transistor, provided in a path for supplying reverse current to the light emitting element, for controlling reverse current flowing into the light emitting element, characterized in that the AC transistor has a ratio of a channel length L to a channel width W smaller than that of the driving transistor.
A negative electrode for a lithium ion secondary battery, the negative electrode comprising: a negative electrode electricity collector; and a negative electrode mixture layer formed over the negative electrode electricity collector, wherein the negative electrode mixture layer includes a negative electrode active material including graphite particles A having a particle internal porosity of 10% or lower, graphite particles B having a particle internal porosity of greater than 10%, when the particle intemal porosity is measured using scanning electron microscopy as indicated in the description, and an alloying material which alloys with lithium, the negative electrode mixture layer includes a first layer formed over the negative electrode electricity collector, and a second layer formed over the first layer, the graphite particles A and the alloying material are contained in larger amounts in the second layer than in the first layer, the graphite particles B are contained in a larger amount in the first layer than in the second layer, and a content of the alloying material is 15 mass% or lower with respect to a total amount of the negative electrode active material in the negative electrode mixture layer. a negative electrode electricity collector; and a negative electrode mixture layer formed over the negative electrode electricity collector, wherein the negative electrode mixture layer includes a negative electrode active material including graphite particles A having a particle internal porosity of 10% or lower, graphite particles B having a particle internal porosity of greater than 10%, when the particle intemal porosity is measured using scanning electron microscopy as indicated in the description, and an alloying material which alloys with lithium, the negative electrode mixture layer includes a first layer formed over the negative electrode electricity collector, and a second layer formed over the first layer, the graphite particles A and the alloying material are contained in larger amounts in the second layer than in the first layer, the graphite particles B are contained in a larger amount in the first layer than in the second layer, and a content of the alloying material is 15 mass% or lower with respect to a total amount of the negative electrode active material in the negative electrode mixture layer.
Pump housing of a motor vehicle hydraulic assembly, on which pump housing at least two inlet valve openings, at least two outlet valve openings, at least one wheel pressure sensor connector, at least one master cylinder pressure sensor connector, at least one high pressure control valve opening and at least one switchover valve opening are configured, and in which pump housing the at least two inlet valve openings are arranged in a first row, the at least two outlet valve openings are arranged in a following second row, the at least one wheel pressure sensor connector is arranged in a further following third row, and the at least one high pressure control valve opening and the at least one switchover valve opening are arranged in a further following fourth row, characterized in that the at least one master cylinder pressure sensor connector is arranged in yet a further following row.
A manufacturing process of a sintered bearing having, in an inner periphery, a bearing surface that may form a bearing gap between the bearing surface and a shaft to be supported, and having a radial crushing strength greater than or equal to 300 MPa, the manufacturing process comprising molding and sintering a raw material powder containing: an alloyed powder in which many grains of a copper powder having an average grain size, as measured using a laser diffraction scattering method, smaller than that of an iron powder are partially diffused in the iron powder, the alloyed powder containing 10 to 30 mass% of Cu; a low-melting-point metal powder, and a solid lubricant powder, wherein the alloyed powder has an average grain size less than or equal to 106 μm.
An apparatus configured to generate one or more polynomial kernels to cancel a non-linear behavior in a full-duplex communication mode, comprising: a transceiver, comprising a transmitter and a receiver, configured to transmit and receive signals in a signal processing pipeline configured to cancel self-interference originating from a transmitter path of the transmitter; a polynomial kernel generator, via a controller, configured to perform a polynomial computation in a log domain, generate a plurality of kernels in the log domain that model the nonlinear behavior of the transmitter path and cancel, via the plurality of kernels, a self-interference caused by the nonlinear behavior of a non-linear component of the transmitter path in a receiver path; a memory storing executable components; a processor, coupled to the memory, configured to execute or facilitate execution of the executable components, comprising the polynomial kernel generator, wherein the polynomial kernel generator comprises a plurality of adders (202; 204; 206) coupled to one another along the signal processing pipeline configured to process an in-phase component and a quadrature component of an input signal; a plurality of log computation components (212; 214) configured to generate a log output in the log domain to at least two of the plurality of adders; and a plurality of anti-log components (216; 2018), respectively coupled to the plurality of log computation components, configured to generate an anti-log output from a logarithmic input provided by the at least two of the plurality of adders. a transceiver, comprising a transmitter and a receiver, configured to transmit and receive signals in a signal processing pipeline configured to cancel self-interference originating from a transmitter path of the transmitter; a polynomial kernel generator, via a controller, configured to perform a polynomial computation in a log domain, generate a plurality of kernels in the log domain that model the nonlinear behavior of the transmitter path and cancel, via the plurality of kernels, a self-interference caused by the nonlinear behavior of a non-linear component of the transmitter path in a receiver path; a memory storing executable components; a processor, coupled to the memory, configured to execute or facilitate execution of the executable components, comprising the polynomial kernel generator, wherein the polynomial kernel generator comprises a plurality of adders (202; 204; 206) coupled to one another along the signal processing pipeline configured to process an in-phase component and a quadrature component of an input signal; a plurality of log computation components (212; 214) configured to generate a log output in the log domain to at least two of the plurality of adders; and a plurality of anti-log components (216; 2018), respectively coupled to the plurality of log computation components, configured to generate an anti-log output from a logarithmic input provided by the at least two of the plurality of adders.
A method for determining transmission quality of a node, comprising: acquiring data transmission information on a preset number of data slices transmitted from a first peer node to a second peer node and before a first slice in the data slices, the data transmission information comprising total data amount of each of the data slices, valid time of each of the data slices, and actual transmission data amount of each of the data slices within the valid time; determining, a transmission success weight value of each of the preset number of data slices before the first slice, according to the total data amount of each of the data slices and the actual transmission data amount of each of the data slices; calculating, according to the transmission success weight values of each of the data slices, a data transmission success rate factor corresponding to the first slice; determining, according to the data transmission information, a transmission speed factor corresponding to the first slice; and determining, according to the data transmission success rate factor and the transmission speed factor, transmission quality of data transmitted from the first peer node to the second peer node. acquiring data transmission information on a preset number of data slices transmitted from a first peer node to a second peer node and before a first slice in the data slices, the data transmission information comprising total data amount of each of the data slices, valid time of each of the data slices, and actual transmission data amount of each of the data slices within the valid time; determining, a transmission success weight value of each of the preset number of data slices before the first slice, according to the total data amount of each of the data slices and the actual transmission data amount of each of the data slices; calculating, according to the transmission success weight values of each of the data slices, a data transmission success rate factor corresponding to the first slice; determining, according to the data transmission information, a transmission speed factor corresponding to the first slice; and determining, according to the data transmission success rate factor and the transmission speed factor, transmission quality of data transmitted from the first peer node to the second peer node.
An insulin analogue comprising a single chain polypeptide containing an insulin A-chain polypeptide and an insulin B-chain polypeptide connected by a truncated linker, wherein the truncated linker is a polypeptide selected from the group consisting of: a polypeptide having the sequence GGGPRR (SEQ ID NO. 19), a polypeptide having the sequence GGPRR (SEQ ID NO. 20), a polypeptide having the sequence GSEQRR (SEQ ID NO. 21), a polypeptide having the sequence RREQR (SEQ ID NO. 22), a polypeptide having the sequence RREALQKR (SEQ ID NO. 23), a polypeptide having the sequence GAGPRR (SEQ ID NO. 24), a polypeptide having the sequence GPRR (SEQ ID NO. 25), wherein the insulin B-chain polypeptide optionally contains one or more of: an aspartate substitution at the position corresponding to position B10 of insulin, a lysine or an aspartate substitution at the position corresponding to position B28 of insulin, and a proline substitution at the position corresponding to position B29 of insulin, and wherein the insulin A-chain polypeptide contains a histidine substitution at the position corresponding to position A8 of insulin. a polypeptide having the sequence GGGPRR (SEQ ID NO. 19), a polypeptide having the sequence GGPRR (SEQ ID NO. 20), a polypeptide having the sequence GSEQRR (SEQ ID NO. 21), a polypeptide having the sequence RREQR (SEQ ID NO. 22), a polypeptide having the sequence RREALQKR (SEQ ID NO. 23), a polypeptide having the sequence GAGPRR (SEQ ID NO. 24), a polypeptide having the sequence GPRR (SEQ ID NO. 25), wherein the insulin B-chain polypeptide optionally contains one or more of: an aspartate substitution at the position corresponding to position B10 of insulin, a lysine or an aspartate substitution at the position corresponding to position B28 of insulin, and a proline substitution at the position corresponding to position B29 of insulin, and wherein the insulin A-chain polypeptide contains a histidine substitution at the position corresponding to position A8 of insulin.