mhurhangee/ep-ind-claims huggingface dataset:
An exhaust gas treatment device for an exhaust system of a combustion engine, more preferably of a road vehicle, - with a housing, enveloping at least one interior space, - with at least one through-pipe penetrating the interior space without interruption and which is connected to the housing in a fixed manner at two fastening points (6, 7) distant from each other, - wherein the through-pipe between the fastening points (6, 7) comprises at least one expansion compensation section, in which a wall of the through-pipe comprises alternating in circumferential direction strips and slits penetrating the wall, - wherein the strips protrude relative to adjacent wall sections (13, 14) of the through-pipe radially outwards or inwards with respect to the longitudinal centre axis, and are with respect to the longitudinal centre axis radially spring-elastic such that the strips spring-elastically absorb tensile and compressive forces introduced into the through-pipe via the fastening points (6, 7), characterized in that the strips and slits extend parallel to the longitudinal centre axis of the through-pipe. - with a housing, enveloping at least one interior space, - with at least one through-pipe penetrating the interior space without interruption and which is connected to the housing in a fixed manner at two fastening points (6, 7) distant from each other, - wherein the through-pipe between the fastening points (6, 7) comprises at least one expansion compensation section, in which a wall of the through-pipe comprises alternating in circumferential direction strips and slits penetrating the wall, - wherein the strips protrude relative to adjacent wall sections (13, 14) of the through-pipe radially outwards or inwards with respect to the longitudinal centre axis, and are with respect to the longitudinal centre axis radially spring-elastic such that the strips spring-elastically absorb tensile and compressive forces introduced into the through-pipe via the fastening points (6, 7),
Compacting apparatus of waste objects comprising: - a seat having end walls (13', 16') and side walls; - a support assembly (18, 19) of the seat, wherein the support assembly is arranged to support a waste object to be compacted in the seat; - a push member inside the seat, wherein the push member is arranged to be moved inside the seat to compact the waste object against an end wall (13', 16') of the seat; - wherein the support assembly (18, 19) is arranged to be moved from a support position, where the waste object is supported, to a discharge position where a compacted object is discharged by gravity along a direction of discharge; - wherein the support assembly (18, 19) when moving - to said discharge position is arranged to form an aperture for discharging the compacted object; wherein that the support assembly (18, 19) comprises two support members (18, 19) that are arranged to rotate away from each other to discharge the compacted object; the aperture is formed between edges (18', 19') of the two support members when rotating away from each other; characterized in that the support members (18, 19) have a curvilinear concave profile that is arranged to face the seat and whereby the support members (18, 19) at least partially encircle the waste object that is supported within the seat; and in that during said rotating, the edges (18', 19') of the two support members (18, 19) are arranged to move above the aperture (p), opposite the direction of discharge. - a seat having end walls (13', 16') and side walls; - a support assembly (18, 19) of the seat, wherein the support assembly is arranged to support a waste object to be compacted in the seat; - a push member inside the seat, wherein the push member is arranged to be moved inside the seat to compact the waste object against an end wall (13', 16') of the seat; - wherein the support assembly (18, 19) is arranged to be moved from a support position, where the waste object is supported, to a discharge position where a compacted object is discharged by gravity along a direction of discharge; - wherein the support assembly (18, 19) when moving - to said discharge position is arranged to form an aperture for discharging the compacted object; wherein that
An immunizing composition comprising at least one polypeptide having an identity which is equal to or more than 95% with SEQ ID NO: 50 over the length of SEQ ID NO: 50 or a fragment of SEQ ID NO: 50 having an amino acid sequence as shown in SEQ ID NO: 56.
A pharmaceutical association comprising at least one growth factor receptor-binding compound, which activates at least one growth factor receptor of a neoplastic cell, and at least one adhesion protein inhibitor which inhibits at least one transmembrane cell adhesion protein of said neoplastic cell, wherein said growth factor receptor-binding compound comprises a peptide with four amino acids PEP1, and wherein PEP1 is SAIS. wherein said growth factor receptor-binding compound comprises a peptide with four amino acids PEP1, and wherein PEP1 is SAIS.
A hydraulic fluid composition comprising a polysiloxane compound and a diphosphonate compound, wherein the polysiloxane compound is represented by a compound of Formula 1: wherein y is an integer selected from 1 to 40; R 1, R 2, R 3, and R 4, are each independently selected from the group consisting of C 1-10 alkyl, aryl, and C 1-10 alkylaryl; each R 5 and each R 6 is independently selected from the group consisting of C 1-10 alkyl, aryl, and C 1-10 alkylaryl; and wherein at least one of R 1 to R 4, or at least one R 5 and R 6 from at least one of the y units, is selected from at least one of C 1-10 alkylaryl and aryl; wherein the diphosphonate compound is: (a) represented by a compound of Formula 2: wherein X is selected from a group consisting of an aryl, C 1-20 alkyl, C 1-20 alkylaryl, and C 1-20 dialkylaryl; and R 11, R 12, R 13, and R 14, are each independently selected from a group consisting of C 1-20 alkyl, aryl, and C 1-20 alkylaryl; or (b) represented by a compound of Formula 2(a)(i): wherein m is an integer selected from 1 to 10; R 11, R 12, R 13, and R 14, are each independently selected from the group consisting of C 1-20 alkyl, aryl, and C 1-20 alkylaryl; and each R 15 and R 16 is independently selected from the group consisting of hydrogen, C 1-20 alkyl, aryl, and C 1-20 alkylaryl; wherein: a) the amount of polysiloxane compound, based on weight % of the composition, is provided at between about 10 and 90%; and b) the volume ratio of the polysiloxane compound and the diphosphonate compound is 95:5 to 5:95. y is an integer selected from 1 to 40; R 1, R 2, R 3, and R 4, are each independently selected from the group consisting of C 1-10 alkyl, aryl, and C 1-10 alkylaryl; each R 5 and each R 6 is independently selected from the group consisting of C 1-10 alkyl, aryl, and C 1-10 alkylaryl; and wherein at least one of R 1 to R 4, or at least one R 5 and R 6 from at least one of the y units, is selected from at least one of C 1-10 alkylaryl and aryl; (a) represented by a compound of Formula 2: wherein X is selected from a group consisting of an aryl, C 1-20 alkyl, C 1-20 alkylaryl, and C 1-20 dialkylaryl; and R 11, R 12, R 13, and R 14, are each independently selected from a group consisting of C 1-20 alkyl, aryl, and C 1-20 alkylaryl; or X is selected from a group consisting of an aryl, C 1-20 alkyl, C 1-20 alkylaryl, and C 1-20 dialkylaryl; and R 11, R 12, R 13, and R 14, are each independently selected from a group consisting of C 1-20 alkyl, aryl, and C 1-20 alkylaryl; or (b) represented by a compound of Formula 2(a)(i): m is an integer selected from 1 to 10; R 11, R 12, R 13, and R 14, are each independently selected from the group consisting of C 1-20 alkyl, aryl, and C 1-20 alkylaryl; and each R 15 and R 16 is independently selected from the group consisting of hydrogen, C 1-20 alkyl, aryl, and C 1-20 alkylaryl; a) the amount of polysiloxane compound, based on weight % of the composition, is provided at between about 10 and 90%; and b) the volume ratio of the polysiloxane compound and the diphosphonate compound is 95:5 to 5:95.
A light-emitting diode comprising: - a first electrode; - a first layer of semiconductor doped to a first conductivity type and comprising a first face arranged on the first electrode side; - a second layer of semiconductor doped to a second conductivity type, opposite to the first conductivity type; - a region of radiative recombination of electric charge carriers of the first and second conductivity types arranged between, or at the interface of, a second face, opposite the first face, of the first layer and a first face of the second layer; - a third layer of semiconductor doped to the second conductivity type; - a fourth layer of semiconductor arranged between a second face, opposite the first face, of the second layer and the third layer; - a second electrode arranged against at least part of at least one side face of the third layer and against only part of at least one side face of the fourth layer; and wherein the semiconductor of the fourth layer forms, in relation to the semiconductor of the third layer, an energy barrier of at least 100 MeV against a flow of electric charge carriers of the second conductivity type from the second electrode to the second layer. - a first electrode; - a first layer of semiconductor doped to a first conductivity type and comprising a first face arranged on the first electrode side; - a second layer of semiconductor doped to a second conductivity type, opposite to the first conductivity type; - a region of radiative recombination of electric charge carriers of the first and second conductivity types arranged between, or at the interface of, a second face, opposite the first face, of the first layer and a first face of the second layer; - a third layer of semiconductor doped to the second conductivity type; - a fourth layer of semiconductor arranged between a second face, opposite the first face, of the second layer and the third layer; - a second electrode arranged against at least part of at least one side face of the third layer and against only part of at least one side face of the fourth layer; and wherein the semiconductor of the fourth layer forms, in relation to the semiconductor of the third layer, an energy barrier of at least 100 MeV against a flow of electric charge carriers of the second conductivity type from the second electrode to the second layer.
An electrical power supply device for an aircraft on the ground, the device comprising two electricity generators (216, 218) driven by an auxiliary power unit, the first generator being for powering an electrical taxiing network including electric motors for driving wheels of the aircraft, and the second generator being for powering an aircraft electricity network, the power supply device being characterized in that the first generator is connected by selective connection/disconnection means to the aircraft and taxiing networks, and is suitable for delivering a first AC voltage to the aircraft network when it is connected to that network, or a second AC voltage, higher than the first AC voltage or a power supply to the taxiing network when it is connected to that network, and in that the second generator is connected by connection/disconnection means to the aircraft network in order to deliver the first AC voltage to that network solely when the first generator is powering the electrical taxiing network of the aircraft.
A method of determining a distance travelled by a mine vehicle provided with positioning, the mine vehicle comprising: a chassis; several wheels; an engine; power transmission for transmitting a torque from the engine to at least one wheel; and a control system including at least a first control unit arranged in the vehicle; and means for determining the distance travelled; and the method comprising: monitoring rotation of at least one wheel and calculating the length of the distance travelled in the control system on the basis of the monitoring result and the diameter of the wheel monitored; storing an environmental model of topographical surface profiles surrounding the planned route in the control system; monitoring environmental data on the profiles of the surfaces surrounding the vehicle during use; performing a positioning check by comparing the monitored environmental data to the environmental model stored in the control system; determining the real position of the vehicle on the basis of the comparison and determining the deviation from the planned route; characterized by calculating a distance correction in the driving direction of the vehicle; determining a correction factor, based upon a trend in a change in the wheel diameter; correcting the value of the distance travelled obtained by calculating the value determined by the rotation of the wheels by means of the correction factor; and updating the value of the correction factor at predetermined intervals by the result of the distance correction defined by comparison of the monitored environmental data to the environmental model.
An electronic component package for installation on a tool, the package comprising: a solid molded housing configured to hold an electronic component support structure and surround electronic components disposed on the support structure; the housing including a first portion configured to hold the support structure, and a second portion forming a cavity around the electronic components disposed on the support structure and isolating the electronic components from contact with the housing; and a viscoelastic damping layer disposed within the first portion, the viscoelastic damping layer configured to damp vibrations and strain transmitted from the tool, the viscoelastic damping layer forming a constrained layer between the support structure and the first portion and configured to isolate the support structure from the solid molded housing, characterized in that: the viscoelastic damping layer includes a plurality of holes (50, 52) extending therethrough and configured to allow for relief of hydrostatically thermal expansion stresses of the constrained viscoelastic damping layer. a solid molded housing configured to hold an electronic component support structure and surround electronic components disposed on the support structure; the housing including a first portion configured to hold the support structure, and a second portion forming a cavity around the electronic components disposed on the support structure and isolating the electronic components from contact with the housing; and a viscoelastic damping layer disposed within the first portion, the viscoelastic damping layer configured to damp vibrations and strain transmitted from the tool, the viscoelastic damping layer forming a constrained layer between the support structure and the first portion and configured to isolate the support structure from the solid molded housing, characterized in that: the viscoelastic damping layer includes a plurality of holes (50, 52) extending therethrough and configured to allow for relief of hydrostatically thermal expansion stresses of the constrained viscoelastic damping layer. the viscoelastic damping layer includes a plurality of holes (50, 52) extending therethrough and configured to allow for relief of hydrostatically thermal expansion stresses of the constrained viscoelastic damping layer.
A device for aiding communication in the aeronautical domain, said device comprising: - at least one microphone; - at least one loudspeaker; - means for processing and transmitting data relating to an audio communication, which are connected to said microphone and to said loudspeaker and which are able to emit outgoing communications and to receive incoming communications corresponding to audio messages; - transcription means transcribing, in real time, each of said audio messages into a textual message; and - display means for displaying, on at least one screen, each textual message (M1,M2,M3,M4) generated by said transcription means, while indicating moreover the source (ATC,P1,P2) at the origin of this message, characterized in that it further comprises: - recording means for recording audio messages corresponding to all the incoming and outgoing audio communications, transmitted by said means processing and transmitting data; - playback means which are able to carry out audio playback of any audio message recorded by said recording means; and - activation means able to be activated by an operator to identify and trigger the playback by the playback means of a recorded audio message. - at least one microphone; - at least one loudspeaker; - means for processing and transmitting data relating to an audio communication, which are connected to said microphone and to said loudspeaker and which are able to emit outgoing communications and to receive incoming communications corresponding to audio messages; - transcription means transcribing, in real time, each of said audio messages into a textual message; and - display means for displaying, on at least one screen, each textual message (M1,M2,M3,M4) generated by said transcription means, while indicating moreover the source (ATC,P1,P2) at the origin of this message, characterized in that it further comprises: - recording means for recording audio messages corresponding to all the incoming and outgoing audio communications, transmitted by said means processing and transmitting data; - playback means which are able to carry out audio playback of any audio message recorded by said recording means; and - activation means able to be activated by an operator to identify and trigger the playback by the playback means of a recorded audio message.
A multi-port load sharing method, comprising: receiving packets destined for a destination; searching an address port mapping table for corresponding logical egress port information according to destination address information carried in the packets; searching a logical port table for information about a corresponding load sharing group according to the logical egress port information, wherein the load sharing group comprises at least two physical ports and each physical port corresponds to at least two subchannels; and encapsulating the packets into at least one subchannel corresponding to each physical port in the load sharing group respectively according to a preset load sharing policy, and forwarding the packets to the destination through the corresponding physical port. receiving packets destined for a destination; searching an address port mapping table for corresponding logical egress port information according to destination address information carried in the packets; searching a logical port table for information about a corresponding load sharing group according to the logical egress port information, wherein the load sharing group comprises at least two physical ports and each physical port corresponds to at least two subchannels; and encapsulating the packets into at least one subchannel corresponding to each physical port in the load sharing group respectively according to a preset load sharing policy, and forwarding the packets to the destination through the corresponding physical port.
An applicator implement that enables application of an application liquid to a target object by bringing an applying part of an applicator body impregnated with the application liquid into contact with the target object, comprising: an applicator body formed with a flat applying surface in an applying part; and, an applicator cover that is attached to the applicator body to cover the applying part, formed with a slit that creates communication from an outside to an inside, wherein under a condition in which the applicator cover covers the applying part, the applying surface of the applying part is positioned inside the slit so that the applying surface can apply an application liquid to a predetermined portion of a target object by inserting a target object through the slit, characterized in that a depressed step is formed in the approximate center of the applicator body in the axial direction so that the step is housed inside a barrel cylinder when the applicator cover is assembled to cover the applicator body. an applicator body formed with a flat applying surface in an applying part; and, an applicator cover that is attached to the applicator body to cover the applying part, formed with a slit that creates communication from an outside to an inside, under a condition in which the applicator cover covers the applying part, the applying surface of the applying part is positioned inside the slit so that the applying surface can apply an application liquid to a predetermined portion of a target object by inserting a target object through the slit, a depressed step is formed in the approximate center of the applicator body in the axial direction so that the step is housed inside a barrel cylinder when the applicator cover is assembled to cover the applicator body.
A mobile object comprising: a movement-enabling region normal line detection section configured to detect a normal direction of a plane constituting a movement-enabling region for a mobile object; a position identification section configured to identify a position of a point on the plane constituting the movement-enabling region; a plane identification section configured to identify the plane constituting the movement-enabling region on a basis of the normal direction of the movement-enabling region and the position of the point in the movement-enabling region; a polarization camera configured to acquire polarized images in a plurality of polarizing directions, wherein the movement-enabling region normal line detection section detects, on a basis of the polarized images, the normal direction of the plane constituting the movement-enabling region for the mobile object; an environmental mapping section configured to generate an environmental map on a basis of the plane identified by the plane identification section; a planning section configured to plan a movement route on a basis of the environmental map generated by the environmental mapping section; and a control section configured to control an operation of the mobile object on a basis of the movement route planned by the planning section. a movement-enabling region normal line detection section configured to detect a normal direction of a plane constituting a movement-enabling region for a mobile object; a position identification section configured to identify a position of a point on the plane constituting the movement-enabling region; a plane identification section configured to identify the plane constituting the movement-enabling region on a basis of the normal direction of the movement-enabling region and the position of the point in the movement-enabling region; a polarization camera configured to acquire polarized images in a plurality of polarizing directions, wherein the movement-enabling region normal line detection section detects, on a basis of the polarized images, the normal direction of the plane constituting the movement-enabling region for the mobile object; an environmental mapping section configured to generate an environmental map on a basis of the plane identified by the plane identification section; a planning section configured to plan a movement route on a basis of the environmental map generated by the environmental mapping section; and a control section configured to control an operation of the mobile object on a basis of the movement route planned by the planning section.