mhurhangee/ep-ind-claims huggingface dataset:
Method for predicting a channel between a transceiver and a connected vehicle, said vehicle comprising at least one antenna, known as "main antenna", dedicated to exchanges of payload data with said transceiver, and at least one other antenna, known as "predictor antenna", placed in front of the main antenna, an estimate of the radio channel at a current position of the predictor antenna making it possible to predict the radio channel that the main antenna will be dealing with when the main antenna reaches the current position of the predictor antenna, characterized in that it comprises the following steps: - selecting, on the basis of an initial conjecture of a speed and of an acceleration of the vehicle, for a given multiplet of channel samples measured at the main antenna, a multiplet of channel samples measured at the predictor antenna, each sample of the predictor antenna being selected such that it corresponds to a given sample of the main antenna subsequently measured at the same position, assuming that the vehicle has moved at said speed and said acceleration of said initial conjecture, - calculating a criterion associating said multiplet of samples measured at the main antenna with said multiplet of samples measured at the predictor antenna, - determining a speed/acceleration pair that optimizes said criterion, and, - in order to predict the channel between the transceiver and the main antenna, selecting samples of the predictor antenna by way of said determined speed/acceleration pair. - selecting, on the basis of an initial conjecture of a speed and of an acceleration of the vehicle, for a given multiplet of channel samples measured at the main antenna, a multiplet of channel samples measured at the predictor antenna, each sample of the predictor antenna being selected such that it corresponds to a given sample of the main antenna subsequently measured at the same position, assuming that the vehicle has moved at said speed and said acceleration of said initial conjecture, - calculating a criterion associating said multiplet of samples measured at the main antenna with said multiplet of samples measured at the predictor antenna, - determining a speed/acceleration pair that optimizes said criterion, and, - in order to predict the channel between the transceiver and the main antenna, selecting samples of the predictor antenna by way of said determined speed/acceleration pair.
Process for the production of fully or partially hydrogenated nitrile rubber containing aminomethyl groups and having from 10 - 50% by weight, preferably from 18 - 48% by weight, particularly preferably from 22 - 46% by weight and very particularly preferably from 26 - 44% by weight, content of α,β-unsaturated nitriles, preferably acrylonitrile, based in each case on the hydrogenated nitrile rubber containing aminomethyl groups, and with Mooney viscosity (ML 1+4/100°C) from 10 to 150 MU, preferably from 20 to 130 MU, particularly preferably from 39 to 100 MU, by bringing fully or partially hydrogenated nitrile rubber into contact with hydrogen in the presence of Raney cobalt, where (i) the contact takes place in the presence of from 0.01 to 5% by weight of one or more sulphidic additives, preferably one or more aliphatic sulphides, particularly preferably alkyl sulphides, and very particularly preferably dodecyl sulphide, and/or (ii) prior to the contact, the Raney cobalt used has been dried via a combination with a dried solvent followed by isolation of Raney cobalt. (i) the contact takes place in the presence of from 0.01 to 5% by weight of one or more sulphidic additives, preferably one or more aliphatic sulphides, particularly preferably alkyl sulphides, and very particularly preferably dodecyl sulphide, and/or (ii) prior to the contact, the Raney cobalt used has been dried via a combination with a dried solvent followed by isolation of Raney cobalt.
Device for three-dimensional vibration insulation between structures or industrial equipment in general and the foundations thereof, in particular structures or equipment with discrete supports, the device can be used together with two or more of other similar devices on equal number of discrete supports of the structure or equipment, comprising: an insulation mechanism comprised of: a frame of six metal plates, an upper horizontal one, a lower horizontal one and two pairs of inclined lateral plates at each side, which configure the mantle of an hexagonal prism and which is able to be supported on one of its faces on the foundations, wherein the plates are connected by means of hinges or similar means; at least one spring (5, 6) arranged for limiting the relative movement of the plates; and at least one energy damper for damping the relative movement of the plates (1, 2, 3); and a connecting element between the insulation mechanism and the structure or equipment, characterized in that the connecting element is arranged on the upper plate so as to pivot about a rotation axis parallel in direction to the transverse axis of the device, the transverse axis being defined as the horizontal axis perpendicular to the axis of the hinges. an insulation mechanism comprised of: a frame of six metal plates, an upper horizontal one, a lower horizontal one and two pairs of inclined lateral plates at each side, which configure the mantle of an hexagonal prism and which is able to be supported on one of its faces on the foundations, wherein the plates are connected by means of hinges or similar means; at least one spring (5, 6) arranged for limiting the relative movement of the plates; and at least one energy damper for damping the relative movement of the plates (1, 2, 3); and a connecting element between the insulation mechanism and the structure or equipment, characterized in that the connecting element is arranged on the upper plate so as to pivot about a rotation axis parallel in direction to the transverse axis of the device, the transverse axis being defined as the horizontal axis perpendicular to the axis of the hinges. a frame of six metal plates, an upper horizontal one, a lower horizontal one and two pairs of inclined lateral plates at each side, which configure the mantle of an hexagonal prism and which is able to be supported on one of its faces on the foundations, wherein the plates are connected by means of hinges or similar means; at least one spring (5, 6) arranged for limiting the relative movement of the plates; and at least one energy damper for damping the relative movement of the plates (1, 2, 3); and a connecting element between the insulation mechanism and the structure or equipment, characterized in that the connecting element is arranged on the upper plate so as to pivot about a rotation axis parallel in direction to the transverse axis of the device, the transverse axis being defined as the horizontal axis perpendicular to the axis of the hinges.
A saw comprising: a housing having first and second vents; a motor disposed within the housing and including a stationary member and a rotatable member; a fan attached to the rotatable member and rotatable therewith relative to the housing; and a blower housing disposed within the housing and including a baffle, the baffle including a stem, a body and a chute, the stem engaging the stationary member of the motor and including an opening extending therethrough, the body including a recess in communication with the opening and the chute, the fan being rotatable within the recess; wherein the housing and the blower housing cooperate to define an airflow pathway through which air is forced by the fan in use, the airflow pathway extending from the first vent, between the stationary and rotatable members of the motor, and through each of the opening, the recess, the chute and the second vent; characterised in that the stem, body and chute form a monolithic body. a housing having first and second vents; a motor disposed within the housing and including a stationary member and a rotatable member; a fan attached to the rotatable member and rotatable therewith relative to the housing; and a blower housing disposed within the housing and including a baffle, the baffle including a stem, a body and a chute, the stem engaging the stationary member of the motor and including an opening extending therethrough, the body including a recess in communication with the opening and the chute, the fan being rotatable within the recess; wherein the housing and the blower housing cooperate to define an airflow pathway through which air is forced by the fan in use, the airflow pathway extending from the first vent, between the stationary and rotatable members of the motor, and through each of the opening, the recess, the chute and the second vent; characterised in that the stem, body and chute form a monolithic body.
A method for adjusting one or more Industrial, Scientific and Medical ISM transceivers (106, 108, 110) by a user equipment UE, comprising: determining a high priority communication HPC activity state by detecting HPC activity on a Long Term Evolution LTE transceiver, wherein the HPC activity includes Commercial Mobile Alert System CMAS which is delivered via System Information Block Type 12; receiving the HPC activity state from the LTE transceiver by an ISM controller; determining, by the ISM controller, adjustments to be made to the one or more ISM transceivers (106, 108, 110) to account for the HPC activity; and sending commands adjusting settings of the one or more ISM transceivers (106, 108, 110) from the ISM controller to the one or more ISM transceivers (106, 108, 110), wherein the step of determining adjustments to be made to the one or more ISM transceivers (106, 108, 110) includes (i) a step of providing a configuration set by a user, and (ii) disabling functions of transceivers, except for the LTE transceiver, until the configuration set by the user is provided. determining a high priority communication HPC activity state by detecting HPC activity on a Long Term Evolution LTE transceiver, wherein the HPC activity includes Commercial Mobile Alert System CMAS which is delivered via System Information Block Type 12; receiving the HPC activity state from the LTE transceiver by an ISM controller; determining, by the ISM controller, adjustments to be made to the one or more ISM transceivers (106, 108, 110) to account for the HPC activity; and sending commands adjusting settings of the one or more ISM transceivers (106, 108, 110) from the ISM controller to the one or more ISM transceivers (106, 108, 110), wherein the step of determining adjustments to be made to the one or more ISM transceivers (106, 108, 110) includes (i) a step of providing a configuration set by a user, and (ii) disabling functions of transceivers, except for the LTE transceiver, until the configuration set by the user is provided. (i) a step of providing a configuration set by a user, and (ii) disabling functions of transceivers, except for the LTE transceiver, until the configuration set by the user is provided.
A sprayer having a boom assembly, a spray assembly mounted to the boom assembly comprising: at least one feed pipe (50, 50A, 50B) operationally coupled to a spray material supply; at least one spray pipe (52, 52A, 52B) having a unitary tubular body extending along a first axis between opposite ends, the tubular body having at least one facial feed opening therein between the ends opening about a second axis at an angle to the first axis; at least one saddle fitting mounted to the tubular body of the at least one spray pipe (52, 52A, 52B), the at least one saddle fitting defining a first passageway extending along the first axis and receiving the tubular body and defining a second passageway extending along the second axis in registration with the at least one facial feed opening and receiving spray material from the at least one feed pipe (50, 50A, 50B); and at least one nozzle coupled to the tubular body of the at least one spray pipe (52, 52A, 52B) in communication with the first and second passageways (86, 90), characterized in including an aspirator at least in part received within an open end of the tubular body of the at least one spray pipe (52, 52A, 52B). at least one feed pipe (50, 50A, 50B) operationally coupled to a spray material supply; at least one spray pipe (52, 52A, 52B) having a unitary tubular body extending along a first axis between opposite ends, the tubular body having at least one facial feed opening therein between the ends opening about a second axis at an angle to the first axis; at least one saddle fitting mounted to the tubular body of the at least one spray pipe (52, 52A, 52B), the at least one saddle fitting defining a first passageway extending along the first axis and receiving the tubular body and defining a second passageway extending along the second axis in registration with the at least one facial feed opening and receiving spray material from the at least one feed pipe (50, 50A, 50B); and at least one nozzle coupled to the tubular body of the at least one spray pipe (52, 52A, 52B) in communication with the first and second passageways (86, 90), characterized in including an aspirator at least in part received within an open end of the tubular body of the at least one spray pipe (52, 52A, 52B).
A plasmid comprising the following units: - an endonuclease restriction site, - a promotorless endonuclease expression cassette, - a promoter, - a sequence coding for an enzyme that catalyzes site-specific recombination, - at least two recognition sequences for the enzyme catalyzing site-specific recombination, and - a sequence of interest and an element preventing the expression of the endonuclease which are both arranged between said recognition sequences for the enzyme catalyzing site-specific recombination, wherein the functional units are arranged on the plasmid such that the endonuclease expression cassette is placed under control of the promoter only after recombination at the specific recognition sequences. - an endonuclease restriction site, - a promotorless endonuclease expression cassette, - a promoter, - a sequence coding for an enzyme that catalyzes site-specific recombination, - at least two recognition sequences for the enzyme catalyzing site-specific recombination, and - a sequence of interest and an element preventing the expression of the endonuclease which are both arranged between said recognition sequences for the enzyme catalyzing site-specific recombination,
Transport device for transporting goods, with a basic structure which comprises at least one frame profile and a base plate arranged in the frame profile, wherein the base plate has at least one upper outer layer and at least one lower outer layer and a core layer arranged between the outer layers (4a, 4b), wherein the frame profile has a separate upper profile wall and a lower profile wall, wherein the frame profile is not of a one-piece construction, wherein the base plate is arranged between the upper profile wall and the lower profile wall, characterized in that the upper profile wall and the lower profile wall are connected by fastening means in such a way that the base plate is held between the profile walls (2a, 2b) in a frictionally engaging manner, wherein a shock absorbing profile, which is held by the upper profile wall and the lower profile wall, is arranged at least partially on the periphery of the frame profile.
A time-of-flight mass spectrometer comprising: an ion deflector configured to deflect ions to different positions in a first array of positions at different times, wherein the ion deflector is configured to deflect the ions so that the ions exit the ion deflector along different axes in an array of parallel axes at different times; a position sensitive ion detector; characterized by ion optics arranged and configured to guide ions from the first array of positions to the position sensitive detector so as to map ions from the first array of positions to a second array of positions on the position sensitive detector; wherein the ion optics include either: (i) at least two ion mirrors arranged and configured such that the ions are reflected by each of the mirrors and between the mirrors a plurality of times before reaching the detector; or (ii) at least one ion mirror for reflecting ions and at least one electrostatic or magnetic sector for receiving ions and guiding the ions into the at least one ion mirror; wherein the at least one ion mirror and at least one sector are configured such that the ions are transmitted from the at least one sector into each mirror a plurality of times such that the ions are reflected by said each ion mirror a plurality of times. an ion deflector configured to deflect ions to different positions in a first array of positions at different times, wherein the ion deflector is configured to deflect the ions so that the ions exit the ion deflector along different axes in an array of parallel axes at different times; a position sensitive ion detector; characterized by ion optics arranged and configured to guide ions from the first array of positions to the position sensitive detector so as to map ions from the first array of positions to a second array of positions on the position sensitive detector; wherein the ion optics include either: (i) at least two ion mirrors arranged and configured such that the ions are reflected by each of the mirrors and between the mirrors a plurality of times before reaching the detector; or (ii) at least one ion mirror for reflecting ions and at least one electrostatic or magnetic sector for receiving ions and guiding the ions into the at least one ion mirror; wherein the at least one ion mirror and at least one sector are configured such that the ions are transmitted from the at least one sector into each mirror a plurality of times such that the ions are reflected by said each ion mirror a plurality of times. (i) at least two ion mirrors arranged and configured such that the ions are reflected by each of the mirrors and between the mirrors a plurality of times before reaching the detector; or (ii) at least one ion mirror for reflecting ions and at least one electrostatic or magnetic sector for receiving ions and guiding the ions into the at least one ion mirror; wherein the at least one ion mirror and at least one sector are configured such that the ions are transmitted from the at least one sector into each mirror a plurality of times such that the ions are reflected by said each ion mirror a plurality of times.
A method for power interrupt management in a memory system comprising: updating a transaction log (238, 338, 538) to recreate a corrupt last page of the transaction log (238, 338, 538) by using write look ahead information to determine transaction log information associated with the corrupt last page and writing the determined transaction log information associated with the corrupt last page to the transaction log (238, 338, 538), wherein the write look ahead information includes first information about a first location where data would have next been written in the memory system and second information about a second location where data had most recently been written in the memory system; and updating a logical address 'LA' table (234-C, 336, 736) in a solid state non-volatile memory (210, 310) using the transaction log information associated with the corrupt last page. updating a transaction log (238, 338, 538) to recreate a corrupt last page of the transaction log (238, 338, 538) by using write look ahead information to determine transaction log information associated with the corrupt last page and writing the determined transaction log information associated with the corrupt last page to the transaction log (238, 338, 538), wherein the write look ahead information includes first information about a first location where data would have next been written in the memory system and second information about a second location where data had most recently been written in the memory system; and updating a logical address 'LA' table (234-C, 336, 736) in a solid state non-volatile memory (210, 310) using the transaction log information associated with the corrupt last page.
A method of driving a telecommunication distributed feedback DFB laser diode, comprising: providing a telecommunication DFB laser diode having a laser diode chip, an active region, the active region comprising a thickness of less than 1 μm; an active region cross-section of less than 7 μm 2, and a ratio of active region volume to total laser diode volume of less than 1/300; and selectively and rapidly heating the active region and an immediate vicinity containing an optical feedback structure of the telecommunication DFB laser diode by applying current pulses to perform a wavelength sweep of emitted optical radiation, the wavelength sweep comprises a wavelength range of greater than 5 nm, wherein the selectively and rapidly heating comprises applying a current pulse amplitude of larger than five times than a maximum declared continuous DC drive current of the telecommunication DFB laser diode, the maximum declared continuous DC drive current being within a range of between 50 mA and 100 mA, and applying a short-duration drive current pulse having a pulse duration of less than 50 μs such that a temperature of the active region is at least 40 degrees C higher at the end of a duration of the current pulse than before application of the current pulse and to increase an average temperature of the laser diode chip by less than 10 degrees at the end of a duration of the current pulse than before application of the current pulse. providing a telecommunication DFB laser diode having a laser diode chip, an active region, the active region comprising a thickness of less than 1 μm; an active region cross-section of less than 7 μm 2, and a ratio of active region volume to total laser diode volume of less than 1/300; and selectively and rapidly heating the active region and an immediate vicinity containing an optical feedback structure of the telecommunication DFB laser diode by applying current pulses to perform a wavelength sweep of emitted optical radiation, the wavelength sweep comprises a wavelength range of greater than 5 nm, wherein the selectively and rapidly heating comprises applying a current pulse amplitude of larger than five times than a maximum declared continuous DC drive current of the telecommunication DFB laser diode, the maximum declared continuous DC drive current being within a range of between 50 mA and 100 mA, and applying a short-duration drive current pulse having a pulse duration of less than 50 μs such that a temperature of the active region is at least 40 degrees C higher at the end of a duration of the current pulse than before application of the current pulse and to increase an average temperature of the laser diode chip by less than 10 degrees at the end of a duration of the current pulse than before application of the current pulse.
A communication device configured to conduct wireless radio frequency based communication with an implantable medical device, comprising: a transmitter connected to an RF antenna; a receiver connected to an RF antenna; a wakeup processor connected to said transmitter and configured to generate wakeup messages (30, 40), characterized in that said wakeup processor is configured to generate first wakeup messages comprising a first identifier code associated with said implantable medical device and second wakeup messages comprising a second, different identifier code associated with said implantable medical device, and said transmitter is configured to transmit said first wakeup messages and transmit said second wakeup messages. a transmitter connected to an RF antenna; a receiver connected to an RF antenna; a wakeup processor connected to said transmitter and configured to generate wakeup messages (30, 40), characterized in that said wakeup processor is configured to generate first wakeup messages comprising a first identifier code associated with said implantable medical device and second wakeup messages comprising a second, different identifier code associated with said implantable medical device, and said transmitter is configured to transmit said first wakeup messages and transmit said second wakeup messages.