mhurhangee/ep-ind-claims huggingface dataset:
Tire for a heavy goods vehicle, this tire comprising a carcass reinforcement surmounted by a crown reinforcement, this crown reinforcement extending on either side of an equatorial plane XX' dividing the tire into two equal or substantially equal parts, and, radially outside this crown reinforcement, a tread having a rolling surface with a width W and a total thickness E, this total thickness E corresponding to the total thickness of material measured on the equatorial plane XX' between the rolling surface and the radially outermost part of the crown reinforcement, this tread having a maximum thickness PMU of material intended to become worn during running, this maximum thickness PMU being at the most equal to the total thickness E, the crown reinforcement being formed by at least two working plies (31, 32) and a protection ply positioned radially outside the working plies and radially inside the tread, the narrowest working ply having a width in the range from 70% to 90% of the width W of the tread, the tread comprising grooves only in the part radially outside the protection ply, each circumferentially orientated groove have a depth of at least 75% of the maximum thickness intended to become worn PMU,this tread comprising at least one generally circumferentially orientated channel, running around the whole of the tire and intended to form at least one new groove after partial wear equal to at least 50% of the maximum thickness of material intended to become worn PMU, this channel being formed in such a way that the minimum distances between this channel and the working plies (31, 32) and the protection ply are different from zero,this tire being characterized in that the protection ply has a width at most equal to 70% of the width of the narrowest working ply, and in that the channel is formed axially on one side of the equatorial plane between an axial end of the narrowest working ply and an axial end of the protection ply, these two ends being located on the same side as the channel with respect to the equatorial plane.
A polycarbonate resin laminate which comprises at least a surface layer and a resin layer and is characterized by satisfying the following conditions: (i) the surface layer is a layer made of a polycarbonate resin composition which comprises at least a polycarbonate resin (a) having at least structural units represented by the following formula and a polycarbonate resin (b) having structural units different from the polycarbonate resin (a) and having at least structural units represented by the following formula, (ii) the mass ratio of the polycarbonate resin (a) to the polycarbonate resin (b) in the surface layer is within a range of from 45:55 to 99:1, and (iii) the pencil hardness of the polycarbonate resin laminate as specified by ISO 15184 and measured from the surface layer side is at least H, (iv) the polycarbonate resin (a) contains structural units derived from a compound represented by the following formula, and the content of such structural units is at least 40 ppm and at most 600 ppm: in the formula, X represents wherein each of R 3 and R 4 which are independent of each other, is a hydrogen atom or a methyl group, and Z is a group forming, as bonded to C, a C 6-12 alicyclic hydrocarbon which may have a substituent; and (i) the surface layer is a layer made of a polycarbonate resin composition which comprises at least a polycarbonate resin (a) having at least structural units represented by the following formula and a polycarbonate resin (b) having structural units different from the polycarbonate resin (a) and having at least structural units represented by the following formula, (ii) the mass ratio of the polycarbonate resin (a) to the polycarbonate resin (b) in the surface layer is within a range of from 45:55 to 99:1, and (iii) the pencil hardness of the polycarbonate resin laminate as specified by ISO 15184 and measured from the surface layer side is at least H, (iv) the polycarbonate resin (a) contains structural units derived from a compound represented by the following formula, and the content of such structural units is at least 40 ppm and at most 600 ppm: in the formula, X represents wherein each of R 3 and R 4 which are independent of each other, is a hydrogen atom or a methyl group, and Z is a group forming, as bonded to C, a C 6-12 alicyclic hydrocarbon which may have a substituent; and
A survey system for performing a multifan bathymetric survey, the survey system including a multibeam echo sounder system for installation on a water going vehicle, the survey system comprising: an acoustic transceiver for use with plural transducers in a single projector array and plural transducers in a single hydrophone array; the projector and hydrophone arrays in a Mills Cross arrangement; the transceiver comprising a transceiver transmitter for generating a message including N>= 3 coded message components for ensonifying respective fans (312, Aft B, Aft A, Center, Forward A, Forward B) on a waterbody bottom using the plural transducers in the single projector array; the transceiver further comprising a transceiver receiver having a receiver operating frequency range, the receiver for receiving returns from the ensonified fans that overlap in time and frequency, using the plural transducers in the single hydrophone array; the survey system further comprising N matched filters in the receiver, each matched filter selectively detecting a respective fan return; and, the operating frequency range of the receiver including a message component frequency band; wherein the message components overlap in time and frequency. an acoustic transceiver for use with plural transducers in a single projector array and plural transducers in a single hydrophone array; the projector and hydrophone arrays in a Mills Cross arrangement; the transceiver comprising a transceiver transmitter for generating a message including N>= 3 coded message components for ensonifying respective fans (312, Aft B, Aft A, Center, Forward A, Forward B) on a waterbody bottom using the plural transducers in the single projector array; the transceiver further comprising a transceiver receiver having a receiver operating frequency range, the receiver for receiving returns from the ensonified fans that overlap in time and frequency, using the plural transducers in the single hydrophone array; the survey system further comprising N matched filters in the receiver, each matched filter selectively detecting a respective fan return; and, the operating frequency range of the receiver including a message component frequency band; wherein the message components overlap in time and frequency.
A base station (eNB 2; eNB 4) configured to control a wireless communications network cell (100 2; 100 4) of a wireless communications network; wherein the base station is configured to establish a first connection to a first user equipment (UE 1) and to establish a second connection to a second user equipment (UE 2) using a random access process; and to maintain the first connection to the first user equipment (UE 1) and the second connection to the second user equipment (UE 2) at a same time; wherein, to establish the first connection to the first user equipment (UE 1), the base station is configured to transmit a radio signal to the first user equipment (UE 1), the radio signal comprising information indicating that the first user equipment (UE 1) is instructed to transmit a sequence having a first length (T SEQ1); the base station configured to receive and use a first sequence being incorporated into a first random access preamble, the first sequence having the first length (T SEQ1); and wherein, to establish the second connection to the second user equipment (UE 2), the base station is configured to transmit a radio signal to the second user equipment (UE 2), the radio signal comprising information indicating that the second user equipment (UE 2) is instructed to transmit a sequence having a second, different length (T SEQ1), the base station configured to receive and use a second sequence being incorporated into a second random access preamble, the second sequence having the second length (T SEQ2); wherein a length of a sequence relates to a number of symbols or samples to be transmitted for transmitting the sequence. wherein the base station is configured to establish a first connection to a first user equipment (UE 1) and to establish a second connection to a second user equipment (UE 2) using a random access process; and to maintain the first connection to the first user equipment (UE 1) and the second connection to the second user equipment (UE 2) at a same time; wherein, to establish the first connection to the first user equipment (UE 1), the base station is configured to transmit a radio signal to the first user equipment (UE 1), the radio signal comprising information indicating that the first user equipment (UE 1) is instructed to transmit a sequence having a first length (T SEQ1); the base station configured to receive and use a first sequence being incorporated into a first random access preamble, the first sequence having the first length (T SEQ1); and wherein, to establish the second connection to the second user equipment (UE 2), the base station is configured to transmit a radio signal to the second user equipment (UE 2), the radio signal comprising information indicating that the second user equipment (UE 2) is instructed to transmit a sequence having a second, different length (T SEQ1), the base station configured to receive and use a second sequence being incorporated into a second random access preamble, the second sequence having the second length (T SEQ2); wherein a length of a sequence relates to a number of symbols or samples to be transmitted for transmitting the sequence.
An atomic layer deposition system for providing a coating or treatment to a plurality of three dimensional objects simultaneously, the atomic layer deposition system being a plasma enhanced atomic layer deposition system comprising - a dielectric tube adapted for containing the plurality of objects under vacuum, - at least one inlet for providing a gaseous material in the dielectric tube, - an RF radiation generator adjacent the dielectric tube that enables plasma enhanced deposition or treatment of the plurality of objects, and wherein the system comprises a rotation mechanism for rotating the dielectric tube which is rotatably mounted so as to be able to rotate the plurality of objects under vacuum during atomic layer deposition for providing a coating or treatment on the plurality of objects, characterised in that the system comprises a second dielectric tube contained within and fixed to the rotatable dielectric tube containing the plurality of objects, and mechanical indentations in the dielectric tube that cause the plurality of objects to tumble and to be maintained within a reaction area for at least a predetermined amount of time that are furthermore positioned downstream a region of plasma generation, but adjacent thereto. - a dielectric tube adapted for containing the plurality of objects under vacuum, - at least one inlet for providing a gaseous material in the dielectric tube, - an RF radiation generator adjacent the dielectric tube that enables plasma enhanced deposition or treatment of the plurality of objects, and wherein the system comprises a rotation mechanism for rotating the dielectric tube which is rotatably mounted so as to be able to rotate the plurality of objects under vacuum during atomic layer deposition for providing a coating or treatment on the plurality of objects,
Damping means for absorbing structural vibrations or high excitation frequencies between a first component of a turbomachine, for example a gas turbine, and a second component of said turbomachine, which second component is connected to or passed through a wall of said first component, the damping means comprises of at least one wire mesh element (200, 210, 210a, 210b); characterized in that a housing (250,260) is fixedly connected to the first component and an axially movable sliding sleeve is inserted into the housing, the wire mesh element (200, 210, 210a, 210b) is inserted into the sleeve with a radially outer surface of the wire mesh element being compressed by a radially inner surface of the sleeve, and a radially inner surface of the wire mesh element closely surrounding the second component.
An internal combustion engine including an EGR system having an EGR valve and a check valve in an EGR passage, characterized in that the internal combustion engine comprises, a control device expressing a relationship between an opening degree of the EGR valve and a mass flow rate of an EGR gas by using a first volume flow rate of the EGR gas that is expressed by using an isentropic flow equation of an effective opening area of the EGR valve and a second volume flow rate of the EGR gas pumped out by the check valve.
Stocking device for resilient stockings comprising: a ring made of deformable material such that it has a variable section, for supporting a stocking rolled in a substantially toroidal shape; a support of extended shape, being insertable into a stocking and allowing the stocking to be rolled on itself and on the ring, once the support has been inserted into the stocking, characterized in that the stocking device for resilient stockings further comprises a retractor tool upon which the stocking rolled on the ring is positionable, said retractor tool comprising an annular portion and a handle, wherein the annular portion may vary its diameter thereby enlarging the toroidal portion of the rolled stocking, in order to aid the insertion on the limb. a ring made of deformable material such that it has a variable section, for supporting a stocking rolled in a substantially toroidal shape; a support of extended shape, being insertable into a stocking and allowing the stocking to be rolled on itself and on the ring, once the support has been inserted into the stocking,
Apparatus for calibrating a multi-beam satellite system comprising a beam forming network providing a plurality of signal paths, the apparatus comprising: a calibration processor configured to determine the phase and amplitude shift of a test path of the plurality of signal paths relative to a reference path of the plurality of signal paths from a first signal extracted from the test path and a second signal extracted from the reference path, the first and second extracted signals corresponding to a calibration tone, the calibration processor being configured to correlate the first signal with the second signal or being configured to correlate each of the first signal and the second signal with a third signal corresponding to the calibration tone to find the phase and amplitude shifts for the test path and the reference path and compare said phase and amplitude shifts for the test path and the reference path, and the calibration processor further being configured to determine the phase and amplitude shift of the test path relative to the reference path for at least two calibration tones of at least two different frequencies, and to transmit the determined phase and amplitude to a ground station, and to receive, from the ground station, a phase and amplitude offset of the test path for a signal of a frequency within an operational frequency range of the multi-beam satellite system, extrapolated from the transmitted phase and amplitude shift for the at least two calibration tones. a calibration processor configured to determine the phase and amplitude shift of a test path of the plurality of signal paths relative to a reference path of the plurality of signal paths from a first signal extracted from the test path and a second signal extracted from the reference path, the first and second extracted signals corresponding to a calibration tone, the calibration processor being configured to correlate the first signal with the second signal or being configured to correlate each of the first signal and the second signal with a third signal corresponding to the calibration tone to find the phase and amplitude shifts for the test path and the reference path and compare said phase and amplitude shifts for the test path and the reference path, and the calibration processor further being configured to determine the phase and amplitude shift of the test path relative to the reference path for at least two calibration tones of at least two different frequencies, and to transmit the determined phase and amplitude to a ground station, and to receive, from the ground station, a phase and amplitude offset of the test path for a signal of a frequency within an operational frequency range of the multi-beam satellite system, extrapolated from the transmitted phase and amplitude shift for the at least two calibration tones.
Device for continuously picking up and subsequently processing horizontal stalk crops, in particular grass or straw, during a travelling motion of the device in which the stalk crops, which lie in front of the device in a direction of travel, are picked up from the ground by a driveable intake device which is equipped with tines, and are fed into a feed passage of the device, a movable holding device which acts on the horizontal stalk crops being positioned upstream of the intake device in the direction of travel, the holding device being equipped with entraining elements which are designed such that they engage from above into the stalk crops that have not yet been captured by the intake device, a plurality of entraining elements of the holding device being provided which extend next to one another in rows, transversely to the direction of travel, characterised in that the holding device comprises at least one cleaner between adjacent rows of entraining elements, which cleaner extends above an engagement region of the entraining elements into the horizontal stalk crops as far as a region of the device above the intake device.
An agricultural machine, suitable for the harvesting of crops, equipped with a height-adjustable feeder that on its rear side is linked to the machine and to which on its front side a first cutting or collection system for the plants can be attached, and equipped with a hydraulic lifting device in order to be able to control the height of the feeder with respect to the machine, the lifting device containing at least one lifting system, which comprises a hydraulic cylinder and a beam-shaped element which is connected by hinges to said feeder in a first hinge point located at the front of the feeder, and wherein the cylinder is configured to exert a force on the beam-shaped element at one end of the cylinder in a second hinge point which is located on the beam-shaped element, at a distance behind the first hinge point, characterised in that the lifting system is further equipped with a bracket, which is connected by hinges to the machine in a third hinge point, and wherein the cylinder at the other end of the cylinder is connected by hinges to the bracket in a fourth hinge point.
A composition comprising self-assembling peptides 11 amino acids in length and comprising a sequence of SEQ ID NO: 1, wherein X1 is glutamic acid and wherein the self-assembling peptides have at least 72% sequence identity to a peptide consisting of SEQ ID NO: 6, wherein the self-assembling peptides are capable of self-assembly at a pH below 7.5 and at least physiologic ionic strength, for use in treating periodontitis or peri-implantitis in a subject.
A system for selective image reconstruction, comprising: a non-transitory memory device for storing computer readable program code; and a processor in communication with the memory device, the processor being operative with the computer readable program code to perform steps including (i) receiving at least one first image that is reconstructed at a first spatial resolution, (ii) identifying at least one region of interest in the at least one first image, (iii) selectively reconstructing at least one second image of the region of interest at a second spatial resolution that is higher than the first spatial resolution, and (iv) generating results based on the at least one second image, characterized in that the steps further comprise automatically identifying the region of interest, wherein automatically identifying the region of interest comprises propagating the region of interest from a previously acquired image to the first image. a non-transitory memory device for storing computer readable program code; and a processor in communication with the memory device, the processor being operative with the computer readable program code to perform steps including (i) receiving at least one first image that is reconstructed at a first spatial resolution, (ii) identifying at least one region of interest in the at least one first image, (iii) selectively reconstructing at least one second image of the region of interest at a second spatial resolution that is higher than the first spatial resolution, and (iv) generating results based on the at least one second image, (i) receiving at least one first image that is reconstructed at a first spatial resolution, (ii) identifying at least one region of interest in the at least one first image, (iii) selectively reconstructing at least one second image of the region of interest at a second spatial resolution that is higher than the first spatial resolution, and (iv) generating results based on the at least one second image,
A detector for detecting a fire and gas, comprising: a detector cover that receives hot air current; a fire sensor, placed inside the detector cover, for detecting a fire; and an electrochemical gas sensor, placed inside the detector cover, for detecting gas with an electrode by contacting the gas with an electrolyte solution, wherein, in the detector cover, a container for containing a detecting space section for detecting a fire by the fire sensor is provided and an intake for causing the hot air current to flow into the container is formed, and wherein an opening hole for introducing gas included in the hot air current into the electrochemical gas sensor is formed so as to be open to a flow path of the hot air current from a surface of the detector cover through the intake to the detecting space section. wherein the opening hole is formed in the surface of the detector cover. a detector cover that receives hot air current; a fire sensor, placed inside the detector cover, for detecting a fire; and an electrochemical gas sensor, placed inside the detector cover, for detecting gas with an electrode by contacting the gas with an electrolyte solution, wherein, in the detector cover, a container for containing a detecting space section for detecting a fire by the fire sensor is provided and an intake for causing the hot air current to flow into the container is formed, and wherein an opening hole for introducing gas included in the hot air current into the electrochemical gas sensor is formed so as to be open to a flow path of the hot air current from a surface of the detector cover through the intake to the detecting space section. wherein the opening hole is formed in the surface of the detector cover.
Fluid delivery device comprising at least one area onto which a support element including at least one well may be placed in a defined position, the fluid delivery device further comprising at least one pipetting device, said at least one pipetting device including a connector to releasably connect said at least one pipetting device with a disposable tip as well as a fluid displacement element which allows the aspiration and ejection of a defined volume of liquid to or from said disposable tip, said at least one pipetting device being movable in a vertical and preferably in at least one horizontal direction, wherein said fluid delivery device further comprises a blowing element with more than one aperture (8; 8.1 - 8.6) coupled to a source of pressurized gas, said at least one blowing element being movable in a vertical and preferably in at least one horizontal direction, characterized in that each of the apertures (8; 8.1 - 8.6) is connected by means of a tube to a common valve which is in turn connected to the source of pressurized gas, wherein each tube includes a pressure sensor.