mhurhangee/ep-ind-claims huggingface dataset:
A diblock copolymer of the formula: wherein: R 1 is a poly(alkyleneoxide) group of the formula, -(CHR-CH 2 -O) p -R', wherein p = 2-6, R is H or methyl, and R' is H, a C 1 -C 6 alkyl group, or a C 3 -C 11 cycloalkyl group; R 2 is a C 1 -C 22 alkyl group or a C 3 -C 11 cycloalkyl group; one of R 3 and R 4 is a C 6 -C 14 aryl group or a heteroaryl group, optionally substituted with a substituent selected from hydroxy, halo, amino, and nitro, and the other of R 3 and R 4 is a C 1 -C 22 alkoxy group, optionally substituted with a substituent selected from carboxy, amino, mercapto, alkynyl, alkenyl, halo, azido, and heterocyclyl; and n and m are independently 2 to 2000; wherein the volume fraction of the monomer bearing R 2 to the volume fraction of the monomer bearing R 1 in the diblock copolymer is 2.8:1. R 1 is a poly(alkyleneoxide) group of the formula, -(CHR-CH 2 -O) p -R', wherein p = 2-6, R is H or methyl, and R' is H, a C 1 -C 6 alkyl group, or a C 3 -C 11 cycloalkyl group; R 2 is a C 1 -C 22 alkyl group or a C 3 -C 11 cycloalkyl group; one of R 3 and R 4 is a C 6 -C 14 aryl group or a heteroaryl group, optionally substituted with a substituent selected from hydroxy, halo, amino, and nitro, and the other of R 3 and R 4 is a C 1 -C 22 alkoxy group, optionally substituted with a substituent selected from carboxy, amino, mercapto, alkynyl, alkenyl, halo, azido, and heterocyclyl; and n and m are independently 2 to 2000; wherein the volume fraction of the monomer bearing R 2 to the volume fraction of the monomer bearing R 1 in the diblock copolymer is 2.8:1.
A climb-optimized takeoff system for an aircraft comprising: sensors to be disposed on the aircraft, said sensors being configured to detect aircraft flight conditions; at least one processor to be disposed on said aircraft and operatively connected to said sensors, said processor being configured to automatically track instantaneous airplane pitch attitude (θ) during the aircraft air transition phase of takeoff; and a flight management computer configured to control an elevator of said aircraft to allow the aircraft to rotate to an optimized pitch attitude (θ) at and after takeoff rotation speed V R while ensuring that the minimum required takeoff climb gradient γ and the geometric limitations of the aircraft are being respected; characterized in that said processor is configured to continuously evaluate an optimized takeoff pitch angle θ TO = minimum(θ TS; θ GR) during a takeoff run to result in a variable pitch target to be followed at and after takeoff rotation; wherein θ TO is the takeoff pitch angle θ TS is a tail strike pitch angle, and θ GR is a minimum required takeoff climb gradient. sensors to be disposed on the aircraft, said sensors being configured to detect aircraft flight conditions; at least one processor to be disposed on said aircraft and operatively connected to said sensors, said processor being configured to automatically track instantaneous airplane pitch attitude (θ) during the aircraft air transition phase of takeoff; and a flight management computer configured to control an elevator of said aircraft to allow the aircraft to rotate to an optimized pitch attitude (θ) at and after takeoff rotation speed V R while ensuring that the minimum required takeoff climb gradient γ and the geometric limitations of the aircraft are being respected; characterized in that said processor is configured to continuously evaluate an optimized takeoff pitch angle θ TO = minimum(θ TS; θ GR) during a takeoff run to result in a variable pitch target to be followed at and after takeoff rotation; wherein θ TO is the takeoff pitch angle θ TS is a tail strike pitch angle, and θ GR is a minimum required takeoff climb gradient.
A device for a laser machining system, comprising: a laser beam optics with an arrangement of optical elements comprising a collimator optics and a focusing optics, wherein the optical elements are arranged one after the other on an axis of the arrangement, wherein a first closing optical element closes off the arrangement of optical elements in the direction of the axis on a laser beam input side of the laser beam optics and consists of a material with a thermal conductivity coefficient k T of 2 W/(m·K) or more, wherein a second closing optical element closes off the arrangement of optical elements on the laser beam output side and is a protective glass made of quartz glass, and wherein the arrangement of optical elements further comprises an inner protective glass consisting of a material with a higher thermal conductivity coefficient k T than quartz glass between the focusing optics and the second closing optical element. a laser beam optics with an arrangement of optical elements comprising a collimator optics and a focusing optics, wherein the optical elements are arranged one after the other on an axis of the arrangement, wherein a first closing optical element closes off the arrangement of optical elements in the direction of the axis on a laser beam input side of the laser beam optics and consists of a material with a thermal conductivity coefficient k T of 2 W/(m·K) or more, wherein a second closing optical element closes off the arrangement of optical elements on the laser beam output side and is a protective glass made of quartz glass, and wherein the arrangement of optical elements further comprises an inner protective glass consisting of a material with a higher thermal conductivity coefficient k T than quartz glass between the focusing optics and the second closing optical element.
A peptide library composition comprising: a) a library of nucleic acid sequences encoding a library of peptides; b) one or more control vectors comprising: 1) a nucleic acid sequence encoding a control binding target of a control binding molecule, wherein the control binding target is identical for each of the control vectors, and 2) a unique nucleic acid sequence, wherein the unique nucleic acid sequence is specific for each of the control vectors. a) a library of nucleic acid sequences encoding a library of peptides; b) one or more control vectors comprising: 1) a nucleic acid sequence encoding a control binding target of a control binding molecule, wherein the control binding target is identical for each of the control vectors, and 2) a unique nucleic acid sequence, wherein the unique nucleic acid sequence is specific for each of the control vectors. 1) a nucleic acid sequence encoding a control binding target of a control binding molecule, wherein the control binding target is identical for each of the control vectors, and 2) a unique nucleic acid sequence, wherein the unique nucleic acid sequence is specific for each of the control vectors.
A display device comprising: a flexible substrate; a display unit on the flexible substrate and configured to display an image; and a compensation layer between the flexible substrate and the display unit; and a driving unit between the compensation layer and the display unit; wherein: the compensation layer comprises an alleviation layer having smaller Young's modulus than the flexible substrate, the compensation layer contacts the driving unit the driving unit comprises a plurality of thin film transistors wherein at least one of the thin film transistors is in a bending area, the display unit comprises organic light emitting diodes connected to the thin film transistors, and the alleviation layer of the compensation layer is cracked at the bending area. a flexible substrate; a display unit on the flexible substrate and configured to display an image; and a compensation layer between the flexible substrate and the display unit; and a driving unit between the compensation layer and the display unit; the compensation layer comprises an alleviation layer having smaller Young's modulus than the flexible substrate, the compensation layer contacts the driving unit the driving unit comprises a plurality of thin film transistors wherein at least one of the thin film transistors is in a bending area, the display unit comprises organic light emitting diodes connected to the thin film transistors, and the alleviation layer of the compensation layer is cracked at the bending area.
Method for processing an aluminium strip (20, 30) for lithographic printing plate supports having the following steps: - providing an aluminium strip (20, 30) for lithographic printing plate supports, - coating the aluminium strip (20, 30) on one side with a protective layer (26, 36), - wherein the aluminium strip (20, 30) is coated on the underside with the protective layer (26, 36) in an ungrained and unanodised state and before a roughening of the upper side of the aluminium strip by means of electrograining and/or an anodizing. - providing an aluminium strip (20, 30) for lithographic printing plate supports, - coating the aluminium strip (20, 30) on one side with a protective layer (26, 36), - wherein the aluminium strip (20, 30) is coated on the underside with the protective layer (26, 36) in an ungrained and unanodised state and before a roughening of the upper side of the aluminium strip by means of electrograining and/or an anodizing.
A roll of a polyvinyl chloride film-backed pressure-sensitive adhesive sheet for binding electrical cords, said roll being produced by providing a pressure-sensitive adhesive layer on a first side of a polyvinyl chloride film support and rolling the resultant sheet so as to bring the surface of the pressure-sensitive adhesive layer to come in contact with a second side of the film support, said second side being the side opposite to the first side provided with the pressure-sensitive adhesive layer, wherein the adhesive layer is formed of an aqueous dispersion-type pressure-sensitive adhesive composition, and wherein: the polyvinyl chloride film is obtained by molding a film-forming composition comprising polyvinyl chloride and metal soap; the metal soap comprises alkali earth metal soap and zinc soap; at least part of the alkali earth metal soap is an alkali earth metal salt of stearic acid; and at least part of the zinc soap is zinc laurate. the polyvinyl chloride film is obtained by molding a film-forming composition comprising polyvinyl chloride and metal soap; the metal soap comprises alkali earth metal soap and zinc soap; at least part of the alkali earth metal soap is an alkali earth metal salt of stearic acid; and at least part of the zinc soap is zinc laurate.
A tension sensor comprising: a plate comprising a magnetoelastic region, wherein the magnetoelastic region is magnetized and is symmetrical about a centerpoint of the magnetoelastic region; at least one pair of sensors (154A, 154B, 154C, 154D) disposed above the magnetoelastic region, wherein the at least one pair of sensors is configured to sense a change in a magnetic field produced by the magnetoelastic region in response to a strain parallel to the plate imposed by a tension acting on the plate. a plate comprising a magnetoelastic region, wherein the magnetoelastic region is magnetized and is symmetrical about a centerpoint of the magnetoelastic region; at least one pair of sensors (154A, 154B, 154C, 154D) disposed above the magnetoelastic region, wherein the at least one pair of sensors is configured to sense a change in a magnetic field produced by the magnetoelastic region in response to a strain parallel to the plate imposed by a tension acting on the plate.
A curable composition comprising a liquid polysulfide polymer containing 8% by weight or more of thiol groups in one molecule, an epoxy resin, and an amine, in which the liquid polysulfide polymer is HS-(R-S x) n -R-SH wherein R is a two valent or three valent organic group containing a -O-CH 2 -O- bond, the average of n is less than 10, x is an integer of 1 to 5, and the average of x is 1 to 2.5, and the amine is selected from alicyclic tertiary amines and aromatic tertiary amines.
A thermoplastic resin composition comprising: a polycarbonate resin; a rubber-modified aromatic vinyl copolymer; and metal particles, wherein the rubber-modified aromatic vinyl copolymer comprises a rubbery polymer having an average particle size of 0.5 μm to 20 μm, the average particle size is a number average diameter that is a measurement of D50, characterized in, that the rubber-modified aromatic vinyl copolymer includes 30 to 100 weight% of a first rubber-modified aromatic vinyl copolymer (B-1), which comprises a rubbery polymer having an average particle size of 0.5 μm to 20 μm and ≥ 0 to 70 weight% of a second rubber-modified aromatic vinyl copolymer (B-2), which comprises a rubbery polymer having an average particle size of 0.1 μm to less than 0.5 μm; wherein the first rubber-modified aromatic vinyl copolymer (B-1) comprises 5 to 30 weight% of the rubbery polymer based on 100 weight% of the first rubber-modified aromatic vinyl copolymer (B-1); wherein the second rubber-modified aromatic vinyl copolymer (B-2) comprises 30 to 80 weight% of the rubbery polymer based on 100 weight% of the second rubber-modified aromatic vinyl copolymer (B-2); wherein a molded article of the thermoplastic resin composition has a degree of gloss of 20 to 80 GU measured at an angle of 60° by an evaluation method according to ASTM D523.
A liquid discharge apparatus comprising: a liquid discharge head configured to discharge liquid to a recording medium to form a liquid application surface; an irradiator configured to emit active energy rays toward the liquid application surface; a carriage mounted with the liquid discharge head and the irradiator; and a conveyance controller configured to convey the carriage or the recording medium in a main scanning direction, wherein the irradiator includes a first irradiator that is provided on one side surface of the carriage in the main scanning direction and a second irradiator that is provided on another side surface of the carriage in the main scanning direction and the first irradiator and the second irradiator partially overlap in the main scanning direction; characterized in that a position of the first irradiator and a position of the second irradiator in the sub-scanning direction, on irradiation of the active energy rays, are different from each other and the first irradiator has a non-overlapping portion not overlapping with any other irradiator in the sub-scanning direction. a liquid discharge head configured to discharge liquid to a recording medium to form a liquid application surface; an irradiator configured to emit active energy rays toward the liquid application surface; a carriage mounted with the liquid discharge head and the irradiator; and a conveyance controller configured to convey the carriage or the recording medium in a main scanning direction, wherein the irradiator includes a first irradiator that is provided on one side surface of the carriage in the main scanning direction and a second irradiator that is provided on another side surface of the carriage in the main scanning direction and the first irradiator and the second irradiator partially overlap in the main scanning direction; characterized in that a position of the first irradiator and a position of the second irradiator in the sub-scanning direction, on irradiation of the active energy rays, are different from each other and the first irradiator has a non-overlapping portion not overlapping with any other irradiator in the sub-scanning direction.
A device for the display of information in a vehicle, especially in a commercial vehicle, having a display screen disposed in the vehicle, by means of which information can be visually displayed, wherein a device is associated with the display screen, by means of which a face of an observer looking at the display screen that is recorded by means of at least one camera can be displayed on the display screen in the manner of a mirror image, wherein a face detection device is associated with the display screen as a device that is designed such that the same displays the face recorded by means of at least one camera of the face detection device on the display screen in the manner of a mirror image in the presence of defined specified criteria, characterized in that it can be determined by the face detection device, as a criterion for a face display on the display screen, whether a face is facing the display screen for a defined period of time and/or whether the face is within a defined distance of the display screen, and/or in that the face detection device is coupled to an activation device, which deactivates the face detection device when the vehicle is moving and enables the activation of the face detection device when the vehicle is stationary.
A method for manufacturing a motor vehicle equipment item, comprising a step for assembling a spacer plastically deformable between a first and a second skin, characterized in that it includes a step for inserting at least one reinforcing element into the spacer, comprising the deformation of the spacer so as to form a cavity with dimensions complementary to those of the reinforcing element and in that the assembly step includes the gluing of the spacer comprising the reinforcement with the first and second skins.
An electrical plug comprising a plug housing, a contact holder and two pin-shaped contact elements, wherein the contact holder is arranged in the plug housing, wherein the respective pin-shaped contact element has a first contact region at a first end and a second contact region at a second end, wherein a middle region extends therebetween and the first contact region is aligned along a plug-in axis of the electrical plug, wherein the contact holder has two recesses which extend from its surface into the contact holder and which are configured to receive and hold the middle region of the respective pin-shaped contact element, characterized in that the recesses extend towards one another in a first plane, which is spanned by the plug-in axis and a second axis at a right angle to the plug-in axis, from oppositely disposed regions of the surface, along a third axis which is arranged at a right angle to the plug-in axis and at a right angle to the second axis, into the contact holder, in that the two pin-shaped contact elements are held in the two recesses which extend from oppositely disposed sides of the contact holder into the material of the contact holder, in that the two pin-shaped contact elements are arranged in parallel with and spaced apart from one another, and in that each recess extends from a first contact holder end, which adjoins the first contact region, up to a second contact holder end which adjoins the second contact region. the recesses extend towards one another in a first plane, which is spanned by the plug-in axis and a second axis at a right angle to the plug-in axis, from oppositely disposed regions of the surface, along a third axis which is arranged at a right angle to the plug-in axis and at a right angle to the second axis, into the contact holder, in that the two pin-shaped contact elements are held in the two recesses which extend from oppositely disposed sides of the contact holder into the material of the contact holder, in that the two pin-shaped contact elements are arranged in parallel with and spaced apart from one another, and in that each recess extends from a first contact holder end, which adjoins the first contact region, up to a second contact holder end which adjoins the second contact region.
An engine room structure for a vehicle comprising: a partitioning wall configured to partition a storage space in which an engine (EG1, EG2) is storable from a piping space in which an intake passage for supplying air to a combustion chamber of the engine (EG1, EG2) is formed; and an intake pipe (120, 120A) which partially forms the intake passage in the piping space, wherein the intake pipe (120, 120A) extends along the partitioning wall, characterized in that the intake pipe (120, 120A) is integrally formed with the partitioning wall. a partitioning wall configured to partition a storage space in which an engine (EG1, EG2) is storable from a piping space in which an intake passage for supplying air to a combustion chamber of the engine (EG1, EG2) is formed; and an intake pipe (120, 120A) which partially forms the intake passage in the piping space, wherein the intake pipe (120, 120A) extends along the partitioning wall, characterized in that the intake pipe (120, 120A) is integrally formed with the partitioning wall.
A method of handling network traffic, comprising: - a user equipment receiving incoming data packets from one of a plurality of bearers (52, 54); - the user equipment detecting a new flow in the received incoming data packets, the incoming data packets of the new flow including a first Internet Protocol 5-tuple including a source address and a destination address; - in response to detecting the new flow, the user equipment automatically generating a packet filter (62, 64) which operates on the basis of a complementary second Internet Protocol 5-tuple which includes a source address equal to the destination address of the first Internet Protocol 5-tuple and a destination address equal to the source address of the first Internet Protocol 5-tuple; - by means of the packet filter (62, 64), the user equipment detecting outgoing data packets which include said second Internet Protocol 5-tuple and routing the detected outgoing data packets having said second Internet Protocol 5-tuple to the same bearer (52, 54) from which the incoming data packets having said first Internet Protocol 5-tuple are received, wherein said detecting, said routing of the outgoing data packets, and said automatic generation of the packet filter (62, 64) is selectively activated on the basis of a control signal. - a user equipment receiving incoming data packets from one of a plurality of bearers (52, 54); - the user equipment detecting a new flow in the received incoming data packets, the incoming data packets of the new flow including a first Internet Protocol 5-tuple including a source address and a destination address; - in response to detecting the new flow, the user equipment automatically generating a packet filter (62, 64) which operates on the basis of a complementary second Internet Protocol 5-tuple which includes a source address equal to the destination address of the first Internet Protocol 5-tuple and a destination address equal to the source address of the first Internet Protocol 5-tuple; - by means of the packet filter (62, 64), the user equipment detecting outgoing data packets which include said second Internet Protocol 5-tuple and routing the detected outgoing data packets having said second Internet Protocol 5-tuple to the same bearer (52, 54) from which the incoming data packets having said first Internet Protocol 5-tuple are received,
An electric motor, comprising: a field case in which a stator and an armature are disposed, the armature disposed in the stator; the stator having field coils and the armature having coils; the armature having a shaft to which a fan is affixed; a fan baffle disposed about the fan; charcterised in that the fan baffle has an air flow direction member that extends into a gap between circumferential sides of the field coils at axial ends of the field coils to direct airflow into a passage between the armature and the stator. a field case in which a stator and an armature are disposed, the armature disposed in the stator; the stator having field coils and the armature having coils; the armature having a shaft to which a fan is affixed; a fan baffle disposed about the fan; charcterised in that the fan baffle has an air flow direction member that extends into a gap between circumferential sides of the field coils at axial ends of the field coils to direct airflow into a passage between the armature and the stator.