mhurhangee/ep-ind-claims huggingface dataset:
A cam follower, comprising: - a tappet made of synthetic material, which is moveable back and forth along a longitudinal axis - a pin extending along a first axis perpendicular to the longitudinal axis and comprising two opposite pin ends (36, 37), each adapted to be fitted in partial bores (24, 25) of the tappet for radial retention of the pin relative to the first axis, and - a roller element movable in rotation relative to the pin around the first axis, wherein the cam follower comprises two ribs (26, 27) for axial retention of the pin along the first axis, whereby the ribs have respective inner faces (26a, 27a) and whereby the pin ends are in contact with the faces (26a, 27a) and with the partial bores (24, 25); and wherein the tappet has metal inserts (101, 102) for reducing wear of the tappet during sliding within a bore, whereby the metal inserts are provided in grooves (181, 182) which extend fully or partly around the longitudinal axis. - a tappet made of synthetic material, which is moveable back and forth along a longitudinal axis - a pin extending along a first axis perpendicular to the longitudinal axis and comprising two opposite pin ends (36, 37), each adapted to be fitted in partial bores (24, 25) of the tappet for radial retention of the pin relative to the first axis, and - a roller element movable in rotation relative to the pin around the first axis,
A method for estimating a loading state of a vehicle, wherein a loading state is estimated by determining the loading state which is among a rearwardly loaded state, a centrally loaded state, and a forwardly loaded state, the method comprsing the steps of: predetermining a relationship among various loading states, stability factor of the vehicle (Kh) and lateral acceleration of the vehicle (Gy) and storing the relationship in a storage unit as a reference relationship; acquiring information regarding a lateral acceleration of the vehicle; calculating an estimated value of the stability factor of the vehicle on the basis of vehicle travelling data when turning; and characterised by estimating a loading state of the vehicle on the basis of the relationship between the estimated value of the stability factor and the lateral acceleration of the vehicle which is at the same point in time as the vehicle travelling data provided for the calculation of the estimated value and the reference relationship. predetermining a relationship among various loading states, stability factor of the vehicle (Kh) and lateral acceleration of the vehicle (Gy) and storing the relationship in a storage unit as a reference relationship; acquiring information regarding a lateral acceleration of the vehicle; calculating an estimated value of the stability factor of the vehicle on the basis of vehicle travelling data when turning; and characterised by estimating a loading state of the vehicle on the basis of the relationship between the estimated value of the stability factor and the lateral acceleration of the vehicle which is at the same point in time as the vehicle travelling data provided for the calculation of the estimated value and the reference relationship.
A method, comprising: receiving, from an external computing device, a request to provision a stack of network resources (108 -) based at least in part on a template received from the external computing device, the template comprising: one or more parameters associated with each of the network resources (108 -); and instructions effective at least in part to provision the stack of network resources (108 -) according to the one or more parameters; parsing the template to: identify each of the network resources (108 -) requested for provisioning; identify each of the associated one or more parameters; and determine an order to provision each of the network resources (108 -) based on respective dependencies of the network resources (108 -) identified in the template; and executing a stack management workflow comprising attempting to provision each of the network resources (108 -) according to the one or more parameters and the determined order. one or more parameters associated with each of the network resources (108 -); and instructions effective at least in part to provision the stack of network resources (108 -) according to the one or more parameters; parsing the template to: identify each of the network resources (108 -) requested for provisioning; identify each of the associated one or more parameters; and determine an order to provision each of the network resources (108 -) based on respective dependencies of the network resources (108 -) identified in the template; and executing a stack management workflow comprising attempting to provision each of the network resources (108 -) according to the one or more parameters and the determined order. identify each of the network resources (108 -) requested for provisioning; identify each of the associated one or more parameters; and determine an order to provision each of the network resources (108 -) based on respective dependencies of the network resources (108 -) identified in the template; and executing a stack management workflow comprising attempting to provision each of the network resources (108 -) according to the one or more parameters and the determined order.
A method of synthesizing a molecular sieve of *MRE framework type, the method comprising: (a) providing a reaction mixture comprising: a zeolite of FAU framework type; a source of a Group 1 or Group 2 metal; a source of hydroxide ions; a structure directing agent comprising hexamethonium cations; water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to convert the zeolite of FAU framework type to a molecular sieve of *MRE framework type; wherein the reaction mixture has a composition, in terms of molar ratios, as follows: SiO 2 /Al 2 O 3 60 to 80 M/SiO 2 0.05 to 0.20 Q/SiO 2 0.01 to 0.10 OH/SiO 2 0.12 to 0.20 H 2 O/SiO 2 15 to 40. (a) providing a reaction mixture comprising: a zeolite of FAU framework type; a source of a Group 1 or Group 2 metal; a source of hydroxide ions; a structure directing agent comprising hexamethonium cations; water; and a zeolite of FAU framework type; a source of a Group 1 or Group 2 metal; a source of hydroxide ions; a structure directing agent comprising hexamethonium cations; water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to convert the zeolite of FAU framework type to a molecular sieve of *MRE framework type; wherein the reaction mixture has a composition, in terms of molar ratios, as follows: SiO 2 /Al 2 O 3 60 to 80 M/SiO 2 0.05 to 0.20 Q/SiO 2 0.01 to 0.10 OH/SiO 2 0.12 to 0.20 H 2 O/SiO 2 15 to 40.
An anti-CD19 antibody modified to comprise a variant human IgG1 Fc region, wherein this variant region comprises modifications consisting of an amino acid substitution at each of the amino acid positions Phe243, Arg292, Tyr300, Val305 and Pro396 of the human IgG1 Fc region, wherein the numbering of the amino acid residues in the Fc region is the one of Kabat, wherein the antibody has been produced in wild-type rodent cells, wherein: Phe243 is substituted by Leu, Arg292 is substituted by Pro, Tyr300 is substituted by Leu, Val305 is substituted by Leu, Pro396 is substituted by Leu, wherein the antibody comprises VH amino acid sequence SEQ ID NO: 27 and VL amino acid sequence SEQ ID NO: 29, and wherein the antibody has ADCC function but no CDC function, and triggers programmed cell death. Phe243 is substituted by Leu, Arg292 is substituted by Pro, Tyr300 is substituted by Leu, Val305 is substituted by Leu, Pro396 is substituted by Leu,
An apparatus, comprising: a controller configured to configure one or more zone groups each comprising one or more playback zones, wherein each playback zone is associated with one or more media playback devices; a user interface configured to display one or more zone group icons (800, 802, 804, 806, 808, 810) respectively representative of one or more zone groups; a detector configured to monitor the user interface for an input for dragging and dropping at least one of a zone group icon (800, 802, 804, 806, 808, 810) and a zone icon from a first position to a second position; and a configuration implementer; characterized in that: the user interface is configured to display the one or more zone group icons (800, 802, 804, 806, 808, 810) each including displayed therein one or more zone icons (816, 818) respectively representative of one or more zones comprised by the respective zone group; and the configuration implementer is configured to, in response to a detected input for dragging and dropping a first zone icon representative of a first playback zone from a first position located within a first zone group icon representative of a first zone group comprising the first zone to a second position located within a second zone group icon representative of a second zone group comprising at least a second zone, to add the first zone to the second zone group such that the playback devices of the first and at least second zones play back in synchrony. a controller configured to configure one or more zone groups each comprising one or more playback zones, wherein each playback zone is associated with one or more media playback devices; a user interface configured to display one or more zone group icons (800, 802, 804, 806, 808, 810) respectively representative of one or more zone groups; a detector configured to monitor the user interface for an input for dragging and dropping at least one of a zone group icon (800, 802, 804, 806, 808, 810) and a zone icon from a first position to a second position; and a configuration implementer; the user interface is configured to display the one or more zone group icons (800, 802, 804, 806, 808, 810) each including displayed therein one or more zone icons (816, 818) respectively representative of one or more zones comprised by the respective zone group; and the configuration implementer is configured to, in response to a detected input for dragging and dropping a first zone icon representative of a first playback zone from a first position located within a first zone group icon representative of a first zone group comprising the first zone to a second position located within a second zone group icon representative of a second zone group comprising at least a second zone, to add the first zone to the second zone group such that the playback devices of the first and at least second zones play back in synchrony.
A transportation unit store for cable transportation systems wherein the store comprises a track for successively housing a given number of transportation units, the track having a closed end, and an open end at which to feed the transportation units in and out; the store further comprising a transfer conveyor extending from the track to tranfer the transportation units between the track and the cable transportation system, characterized by comprising an endless conveyor, which extends along the track, is operable by the transfer conveyor, and serves to feed the transportation units along the track.
A method of sealing together two elements of a bipolar battery, the method comprising: interposing an inductive heating element between the two elements; applying a low frequency current of less than 275 kHz to the inductive heating element to generate localised heat to melt material in the vicinity of the heating element to seal the two elements together. interposing an inductive heating element between the two elements; applying a low frequency current of less than 275 kHz to the inductive heating element to generate localised heat to melt material in the vicinity of the heating element to seal the two elements together.
A method of disinfection of sewage sludge by means of vacuum, characterized in that the vacuum is produced by high-speed vacuum-impulse actions through receiver, high-speed response valves and pipelines, with pulse duration of less than 1.0 seconds at a residual pressure of not more than 20 mm Hg; to achieve the required degree of disinfection.
A method for distributed control of a process, comprising: accessing a macro creation module in a design environment, the macro creation module being comprised in the configuration software of a configuration station, the configuration station comprising a design-time library; accessing a plurality of function blocks (80, 82, 100, 102, 104) configured to execute desired arithmetic and/or logical operations based upon inputs to generate outputs; creating a macro via the creation module to encapsulate multiple function blocks of the plurality of function blocks (80, 82, 100, 102, 104) into a single set of add-on instructions, wherein at least one of the inputs and at least one of the outputs of the multiple function blocks are mapped to inputs (92, 94) and outputs of the macro; configuring the macro for a particular automation process; downloading the macro into an automation device, the automation device comprising a processor and a memory module, the memory module storing a run-time library; and storing the macro in the run-time library of the automation device, whereby the macro is added to the main logic for subsequent use in other automation devices. accessing a macro creation module in a design environment, the macro creation module being comprised in the configuration software of a configuration station, the configuration station comprising a design-time library; accessing a plurality of function blocks (80, 82, 100, 102, 104) configured to execute desired arithmetic and/or logical operations based upon inputs to generate outputs; creating a macro via the creation module to encapsulate multiple function blocks of the plurality of function blocks (80, 82, 100, 102, 104) into a single set of add-on instructions, wherein at least one of the inputs and at least one of the outputs of the multiple function blocks are mapped to inputs (92, 94) and outputs of the macro; configuring the macro for a particular automation process; downloading the macro into an automation device, the automation device comprising a processor and a memory module, the memory module storing a run-time library; and storing the macro in the run-time library of the automation device, whereby the macro is added to the main logic for subsequent use in other automation devices.
A compound represented by the following Chemical Formula 1, an geometric isomer or a pharmaceutically acceptable salt thereof: in Chemical Formula 1 above, R a is hydrogen, a hydroxyl group or a C 1 -C 4 alkoxy group, R b is a C 1 -C 6 straight chain or branched chain alkyl group, a C 3 -C 10 cycloalkyl group, or a -(C 1 -C 3 alkyl) C 6 -C 12 aryl group, R c is hydrogen or a C 1 -C 4 alkyl group, n is any integer from 1 to 4; and m is any integer from 1 to 3. R a is hydrogen, a hydroxyl group or a C 1 -C 4 alkoxy group, R b is a C 1 -C 6 straight chain or branched chain alkyl group, a C 3 -C 10 cycloalkyl group, or a -(C 1 -C 3 alkyl) C 6 -C 12 aryl group, R c is hydrogen or a C 1 -C 4 alkyl group, n is any integer from 1 to 4; and m is any integer from 1 to 3.
Method for controlling braking of an electric motor connected to a source of alternating voltage V AC having a period T, the method consisting, at each period of the alternating voltage V AC, of supplying the motor with current, via the firing of a controlled switch (30a, 30b, 30c), with a delay t ret, at a firing angle α, said angle α being measured with respect to the crossing of zero by the alternating voltage V AC, the method comprising a sequence of braking in which, every n periods of the alternating voltage V AC, the following steps are carried out: a) determination of the value of a variation ΔRr of electric resistance of the motor during the preceding n periods of the alternating voltage V AC, b) comparison of the value of the variation ΔRr in electric resistance of the motor, determined in step a), to a threshold resistance value R t, c) increase of the delay t ret if the value of the variation ΔRr in the resistance of the motor is less than the threshold value, the increase in the delay t ret being carried out according to a gamma command as soon as the angle α is in a given range of values, and according to an alpha command in the other cases, the increase in the delay t ret according to the gamma command corresponding to a firing angle γ measured with respect to the crossing of zero of the period considered of the current delivered by the source. a) determination of the value of a variation ΔRr of electric resistance of the motor during the preceding n periods of the alternating voltage V AC, b) comparison of the value of the variation ΔRr in electric resistance of the motor, determined in step a), to a threshold resistance value R t, c) increase of the delay t ret if the value of the variation ΔRr in the resistance of the motor is less than the threshold value, the increase in the delay t ret being carried out according to a gamma command as soon as the angle α is in a given range of values, and according to an alpha command in the other cases, the increase in the delay t ret according to the gamma command corresponding to a firing angle γ measured with respect to the crossing of zero of the period considered of the current delivered by the source.
A method comprising: generating (304, 306), at an audio processing device, a stream of frequency coefficients based on input encoded audio data, wherein generating the stream of frequency coefficients comprises partially decoding the encoded audio data to generate the stream of frequency coefficients; embedding a digital watermark into the stream of frequency coefficients to generate a modified stream of frequency coefficients; and processing the modified stream of frequency coefficients to generate output audio data, wherein the output audio data is decoded audio data. generating (304, 306), at an audio processing device, a stream of frequency coefficients based on input encoded audio data, wherein generating the stream of frequency coefficients comprises partially decoding the encoded audio data to generate the stream of frequency coefficients; embedding a digital watermark into the stream of frequency coefficients to generate a modified stream of frequency coefficients; and processing the modified stream of frequency coefficients to generate output audio data, wherein the output audio data is decoded audio data.
A method of controlling a drilling process of a drilling machine, wherein the drilling machine comprises a control unit, at least one sensor, a percussive element and a tool, wherein an end of the tool comprises a drill bit configured to strike rock, wherein the percussive element is configured to impact the tool and the tool is configured to transfer impulse energy generated by the percussive element to the drill bit characterized in that the method during drilling comprises: - collecting measured data depending on force fed into the rock and indentation depth into the rock at an impact of the percussive element, wherein said collected data comprises data related to strain of the tool in operation, - determining a force-displacement curve based on the collected data, - determining a deviation between the force-displacement curve and a reference force-displacement curve determined based on a desired drilling process, - adjusting one or more drilling parameters related to the drilling process based on the deviation. - collecting measured data depending on force fed into the rock and indentation depth into the rock at an impact of the percussive element, wherein said collected data comprises data related to strain of the tool in operation, - determining a force-displacement curve based on the collected data, - determining a deviation between the force-displacement curve and a reference force-displacement curve determined based on a desired drilling process, - adjusting one or more drilling parameters related to the drilling process based on the deviation.
A perforation system, comprising: a laser system comprising a laser, and an optical beamlet generator (560;590), wherein said optical beamlet generator (560;590) is configured to output a plurality of beamlets from a laser beam input to said optical beamlet generator (560;590); and a scanner configured to simultaneously direct said plurality of beamlets from said optical beamlet generator (560;590) toward a substrate and to simultaneously move said plurality of beamlets relative to the substrate in a first dimension and second dimension that are orthogonal to one another, wherein each beamlet of said plurality of beamlets simultaneously defines a two-dimensional perforation on a surface of the substrate by operation of said scanner, and wherein an optical path extends from said laser to the substrate, being characterised in that: the laser system further comprises a beam expander and a beam homogeniser, wherein said beam expander is located between said laser and said optical beamlet generator (560;590) proceeding along said optical path; said beam homogenizer is located between said beam expander and said optical beamlet generator (560;590) proceeding along said optical path; and said optical beamlet generator is located between said beam homogenizer and said scanner proceeding along said optical path. a laser system comprising a laser, and an optical beamlet generator (560;590), wherein said optical beamlet generator (560;590) is configured to output a plurality of beamlets from a laser beam input to said optical beamlet generator (560;590); and a scanner configured to simultaneously direct said plurality of beamlets from said optical beamlet generator (560;590) toward a substrate and to simultaneously move said plurality of beamlets relative to the substrate in a first dimension and second dimension that are orthogonal to one another, wherein each beamlet of said plurality of beamlets simultaneously defines a two-dimensional perforation on a surface of the substrate by operation of said scanner, and wherein an optical path extends from said laser to the substrate, being characterised in that: the laser system further comprises a beam expander and a beam homogeniser, wherein said beam expander is located between said laser and said optical beamlet generator (560;590) proceeding along said optical path; said beam homogenizer is located between said beam expander and said optical beamlet generator (560;590) proceeding along said optical path; and said optical beamlet generator is located between said beam homogenizer and said scanner proceeding along said optical path.