mhurhangee/ep-ind-claims huggingface dataset:
A linear actuator comprising a roller screw mechanism guided in rotation with respect to a structure by means of a first and a second angular-contact ball bearing (33a, 33b); the roller screw mechanism comprising rollers interposed between an endless screw and a first and a second threaded ring (29a, 29b) which are joined together in rotation and free in translation, characterized in that the first and second threaded rings (29a, 29b) are secured to a respective inner ring of the first and of the second angular-contact ball bearings (33a, 33b), and in that the linear actuator comprises a single preloading device (36, 52) capable of applying a load between two outer rings (32a, 32b) of the first and of the second angular-contact ball bearings (33a, 33b) respectively, simultaneously allowing the loading of the roller screw mechanism and the rotational guidance of the roller screw mechanism with respect to the structure.
A mutant protein of PQQ-dependent s-GDH characterized in that in at least one of the positions 122 and 124 the amino acid lysine is present, wherein these positions correspond to the amino acid positions known from the A. calcoaceticus s-GDH wild-type sequence SEQ ID NO: 2, wherein said mutant has greater stability as compared to the protein not having these substitutions and wherein said protein is to at least 90% identical to SEQ ID NO: 2.
Motor vehicle having at least one optical environment sensor which has a detection zone in a detection direction, characterised in the motor vehicle further has a deflection arrangement for the environment sensor, said deflection arrangement comprising: - an optical arrangement for deflecting the detection direction and the entire detection zone, and - an adjustment apparatus for optionally moving the optical arrangement into and out of the detection zone of the environment sensor, wherein the adjustment apparatus is designed to extend and/or pivot out the optical arrangement from a basic position recessed in the bodywork of the motor vehicle into a deflection position, wherein the optical arrangement is arranged in the basic position behind a flap which can be opened by the adjustment apparatus and/or by a movement of the optical arrangement. - an optical arrangement for deflecting the detection direction and the entire detection zone, and - an adjustment apparatus for optionally moving the optical arrangement into and out of the detection zone of the environment sensor, wherein the adjustment apparatus is designed to extend and/or pivot out the optical arrangement from a basic position recessed in the bodywork of the motor vehicle into a deflection position, wherein the optical arrangement is arranged in the basic position behind a flap which can be opened by the adjustment apparatus and/or by a movement of the optical arrangement.
A compound of Formula I: with: i, j 0, 1 m 1 - 5 n 0-3 R H, CH 3 AS Natural or artificial amino acid, Z: -CO 2 H, -SO 2 H, -SO 3 H, -SO 4 H, -PO 2 H, -PO 3 H, -PO 4 H 2 X: Naphthyl, Phenyl, Biphenyl, Indolyl (=2,3-benzopyrrolyl), Benzothiazolyl, Quinoyl Y: Aryl, Alkylaryl, Cyclopentyl, Cyclohexyl, Cycloheptyl, N -Piperidyl and N-methylated Piperidyl salt 18 F-Tag: With: x = 1-5 Carboydrate: R 1: Any alkyl, aryl or arylalkyl linker especially methyl, 2-ethyl, 3-propyl, 2-,3-,4-phenyl, 2-,3-,4-phenylmethyl, 2-,3-,4-phenylpropyl R 2: Any alkyl or aryl group especially methyl isopropyl, tert -butyl, phenyl or 1-naphtyl R 1: Any alkyl, aryl or arylalkyl linker especially methyl, 2-ethyl, 3-propyl, 2-,3-,4-phenyl, 2-,3-,4-phenylmethyl, 2-,3-,4-phenylpropyl R 2: Any alkyl or aryl group especially methyl isopropyl, tert -butyl, phenyl or 1-naphtyl R 1: Any alkyl, aryl or arylalkyl linker especially methyl, 2-ethyl, 3-propyl, 2-,3-,4-phenyl, 2-,3-,4-phenylmethyl, 2-,3-,4-phenylpropyl R 2: Any alkyl or aryl group especially methyl isopropyl, tert -butyl, phenyl or 1-naphtyl R 1: Any alkyl, aryl or arylalkyl linker especially methyl, 2-ethyl, 3-propyl, 2-,3-,4-phenyl, 2-,3-,4-phenylmethyl, 2-,3-,4-phenylpropyl R 2: Any alkyl or aryl group especially methyl isopropyl, tert -butyl, phenyl or 1-naphtyl R 1: Any alkyl, aryl or arylalkyl linker especially methyl, 2-ethyl, 3-propyl, 2-,3-,4-phenyl, 2-,3-,4-phenylmethyl, 2-,3-,4-phenylpropyl R 2: Any alkyl or aryl group especially methyl isopropyl, tert -butyl, phenyl or 1-naphtyl R 1: Any alkyl, aryl or arylalkyl linker especially methyl, 2-ethyl, 3-propyl, 2-,3-,4-phenyl, 2-,3-,4-phenylmethyl, 2-,3-,4-phenylpropyl R 2: Any alkyl or aryl group especially methyl isopropyl, tert -butyl, phenyl or 1-naphtyl R 1: Any alkyl, aryl or arylalkyl linker especially methyl, 2-ethyl, 3-propyl, 2-,3-,4-phenyl, 2-,3-,4-phenylmethyl, 2-,3-,4-phenylpropyl R 2: Any alkyl or aryl group especially methyl isopropyl, tert -butyl, phenyl or 1-naphtyl
Composition for producing a thermoplastic molding compound, wherein the composition contains or consists of the following constituents: A) 50% to 70% by weight of at least one aromatic polycarbonate, B) 16% to 40% by weight of at least one polyalkylene terephthalate, C) 8% to 22% by weight of at least one talc-based mineral filler, D) 0.0110% to 0.0280% by weight of phosphorous acid, E) 0% to 8.0% by weight of at least one additive. A) 50% to 70% by weight of at least one aromatic polycarbonate, B) 16% to 40% by weight of at least one polyalkylene terephthalate, C) 8% to 22% by weight of at least one talc-based mineral filler, D) 0.0110% to 0.0280% by weight of phosphorous acid, E) 0% to 8.0% by weight of at least one additive.
Method for improving the inertial navigation of a projectile equipped with a mediocre-quality inertial unit and fired from a carrier equipped with a precision inertial unit, said method wherein - before the firing of said projectile from the carrier, the mean biases of the accelerometers and of the gyrometers of the inertial unit of said projectile are determined by means of the inertial unit of said carrier; characterised in that: - during the inertial navigation of said projectile, after the firing, the accelerometric and gyrometric measurements provided by said inertial unit of said projectile are corrected by said mean biases determined before firing. - before the firing of said projectile from the carrier, the mean biases of the accelerometers and of the gyrometers of the inertial unit of said projectile are determined by means of the inertial unit of said carrier; - during the inertial navigation of said projectile, after the firing, the accelerometric and gyrometric measurements provided by said inertial unit of said projectile are corrected by said mean biases determined before firing.
Micromechanical component having a membrane structure which is realized in a layered structure on a substrate, • the membrane structure comprising a membrane, which is integrated in the layered structure by way of at least one spring element, • the membrane spanning a cavity, so that at least one portion of the membrane edge extends to beyond the edge region of the cavity; and • at least one anchoring structure being formed in the overlapping region between the membrane and the cavity edge region, characterized in that the anchoring structure comprises at least one anchoring element and a through-opening of the membrane for the anchoring element, the anchoring element being structured out of the layered structure over the cavity edge region, and the through-opening for the anchoring element being formed in the edge region of the membrane, so that between the anchoring element and the through-opening there is a clearance that allows a relaxation of the mechanical stress of the membrane. • the membrane structure comprising a membrane, which is integrated in the layered structure by way of at least one spring element, • the membrane spanning a cavity, so that at least one portion of the membrane edge extends to beyond the edge region of the cavity; and • at least one anchoring structure being formed in the overlapping region between the membrane and the cavity edge region,
A method of controlling a mobile terminal, the method comprising: entering (S10; S41; S50) the mobile terminal into a touch-lock mode to lock an entire display area on a touch screen but not locking an area of the touch screen; displaying a touch-lock release application execution icon in said unlocked area of the touch screen; characterized by receiving (S15; S42; S55) an unlock signal corresponding to a touch pattern of at least two different touch patterns on the touch-lock release application execution icon; and executing (S30; S44; S80) an application associated with the touch pattern wherein the two different touch patterns are being touched more than a predetermined amount of time and touched twice in a short amount of time, and the two different touch pattern are associated with different applications respectively, wherein the touch pattern, which is being touched more than the predetermined amount of time, executes a phone call application. entering (S10; S41; S50) the mobile terminal into a touch-lock mode to lock an entire display area on a touch screen but not locking an area of the touch screen; displaying a touch-lock release application execution icon in said unlocked area of the touch screen; characterized by receiving (S15; S42; S55) an unlock signal corresponding to a touch pattern of at least two different touch patterns on the touch-lock release application execution icon; and executing (S30; S44; S80) an application associated with the touch pattern wherein the two different touch patterns are being touched more than a predetermined amount of time and touched twice in a short amount of time, and the two different touch pattern are associated with different applications respectively, wherein the touch pattern, which is being touched more than the predetermined amount of time, executes a phone call application.
A flap fitting for an item of furniture, comprising a lever mechanism having multiple levers for guiding a flap of the item of furniture and a damping unit having at least one damper for damping the flap as it approaches a closed end position, wherein the damping unit is arranged inside a housing of the flap fitting, wherein the flap fitting comprises a spring unit, which holds the flap unit in an open and/or closed position, whereby the lever mechanism contains five levers and forms a seven-joint mechanism by which the five levers are attached each other and the housing, respectively, via seven joints, whereby one of the levers is the transmission lever which is connected to the other levers of the lever-mechanism by three joints, characterized in that the damping unit comprises a stop, against which one of the levers of the lever mechanism rests to damp the movement of the flap, and a spring unit, which acts via a pressure roller on a control section of the lever mechanism, that the stop of the damping unit is actuated by the control section of the lever mechanism during the closing of the flap fitting, and that the lever at the stop is a lever of the lever mechanism.
A method for controlling an articulated vehicle combination (100, 500, 600) comprising a plurality of self-powered vehicle units (110, 120, 130, 140), wherein each self-powered vehicle unit (110, 120, 130, 140) comprises a propulsion device (230, 720) and a regenerative braking device (270, 710) connected to an energy source (210, 250, 725), the method comprising determining a current state of charge associated with an energy source of a target vehicle unit comprised in the plurality of self-powered vehicle units (110, 120, 130, 140), and if the current state of charge is below a desired state of charge, issuing a request for energy transfer by the target vehicle unit, generating a negative torque by the regenerative braking device of the target vehicle unit, where generating the negative torque is postponed until at least one source vehicle unit acknowledges the request, and compensating at least partly for the generated negative torque by generating a positive torque by the propulsion device of at least one source vehicle unit comprised in the plurality of self-powered vehicle units (110, 120, 130, 140), thereby transferring an amount of energy from the energy source of the at least one source vehicle unit to the energy source of the target vehicle unit. determining a current state of charge associated with an energy source of a target vehicle unit comprised in the plurality of self-powered vehicle units (110, 120, 130, 140), and if the current state of charge is below a desired state of charge, issuing a request for energy transfer by the target vehicle unit, generating a negative torque by the regenerative braking device of the target vehicle unit, where generating the negative torque is postponed until at least one source vehicle unit acknowledges the request, and compensating at least partly for the generated negative torque by generating a positive torque by the propulsion device of at least one source vehicle unit comprised in the plurality of self-powered vehicle units (110, 120, 130, 140), thereby transferring an amount of energy from the energy source of the at least one source vehicle unit to the energy source of the target vehicle unit.
A nucleic acid construct comprising - an expression unit for the expression of E1B, wherein the expression unit comprises a promoter, a nucleotide sequence coding for E1B, and a 3'UTR, wherein the promoter is operatively linked to the nucleotide sequence coding for E1B, wherein the 3'UTR comprises 30 or less than 30 Exonic Enhancer Elements (ESEs), and wherein the 3' UTR is a non-viral 3'UTR, - an expression unit for the expression of E1A, wherein the expression unit comprises a promoter, a nucleotide sequence coding for E1A, and a 3'UTR and wherein the promoter is operatively linked to the nucleotide sequence coding for E1A, and wherein the expression unit for the expression of E1A and the expression unit for the expression of E1B form a combined expression unit, wherein the combined expression unit comprises a nucleotide sequence according to SEQ ID NO: 9 or SEQ ID NO: 15. - an expression unit for the expression of E1B, wherein the expression unit comprises a promoter, a nucleotide sequence coding for E1B, and a 3'UTR, wherein the promoter is operatively linked to the nucleotide sequence coding for E1B, wherein the 3'UTR comprises 30 or less than 30 Exonic Enhancer Elements (ESEs), and wherein the 3' UTR is a non-viral 3'UTR, - an expression unit for the expression of E1A, wherein the expression unit comprises a promoter, a nucleotide sequence coding for E1A, and a 3'UTR and wherein the promoter is operatively linked to the nucleotide sequence coding for E1A, and
A reflection-type projection screen comprising: a dual-purpose, light reflective and supportive, substrate having a front surface and rear surface comprising at least one sheet having a thickness between about 127 μm and about 381 μm and having a light reflectance of greater than about 85% and a gloss of less than about 10% when measured at a 60° incident angle; and characterized by the at least one sheet being an unpigmented flash-spun plexifilamentary film-fibril sheet; and an optical diffusion layer covering the front surface of the substrate having a thickness between about 5,08 μm and about 381 μm comprising a light transmissive melt-processible polymer containing diffusion-enhancing particles; wherein the projection screen has an optical gain of between about 0.90 and about 2.0 and wherein the optical gain deviates by no more than about 8% over viewing angles between -60° and +60°. a dual-purpose, light reflective and supportive, substrate having a front surface and rear surface comprising at least one sheet having a thickness between about 127 μm and about 381 μm and having a light reflectance of greater than about 85% and a gloss of less than about 10% when measured at a 60° incident angle; and characterized by the at least one sheet being an unpigmented flash-spun plexifilamentary film-fibril sheet; and an optical diffusion layer covering the front surface of the substrate having a thickness between about 5,08 μm and about 381 μm comprising a light transmissive melt-processible polymer containing diffusion-enhancing particles; wherein the projection screen has an optical gain of between about 0.90 and about 2.0 and wherein the optical gain deviates by no more than about 8% over viewing angles between -60° and +60°.
A method, comprising: Encoding a first code block to be transmitted to a first user equipment, also referred to as UE, over a time-frequency resource by a base station; encoding a second code block to be transmitted to a second UE, wherein the second code block transmission is superposed on the same time-frequency resource with the first code block transmission; performing rate matching for the first UE based on a first soft buffer size for the first code block; and performing rate matching for the second UE based on a second soft buffer size for the second code block; characterized by: transmitting encoded information bits of the code blocks to the UEs, wherein the base station also transmits information of the second soft buffer size to the first UE for interference cancellation. Encoding a first code block to be transmitted to a first user equipment, also referred to as UE, over a time-frequency resource by a base station; encoding a second code block to be transmitted to a second UE, wherein the second code block transmission is superposed on the same time-frequency resource with the first code block transmission; performing rate matching for the first UE based on a first soft buffer size for the first code block; and performing rate matching for the second UE based on a second soft buffer size for the second code block; characterized by: transmitting encoded information bits of the code blocks to the UEs, wherein the base station also transmits information of the second soft buffer size to the first UE for interference cancellation.
A liquid-cooled gas sampling probe comprising: - a probe tube through which cooling liquid flows and having an outer jacket and an inner jacket which are connected to one another in a sealed manner and form an enclosure of a flow space, - at least one tubular filter (19, 20) made of sintered material, which is arranged inside the inner jacket of the probe tube, wherein measuring gas entering the inner jacket of the probe tube through the free end of the probe tube flows through the tubular filter (19, 20) from the outside to the inside, - at least one measuring chamber with at least one measuring sensor, into which the measuring gas enters after flowing through the tubular filter (19, 20), - an ejector plate which is arranged in the region of the free end of the probe tube and is axially displaceable within the inner jacket, wherein during the measurement operation, a narrow annular gap between the exterior of the ejector plate and the inner jacket of the probe tube allows measuring gas to flow into the probe tube, characterized in that a connecting element is arranged between the filter (19, 20) and the ejection plate, the diameter of the connecting element being several millimeters smaller than the inner diameter of the inner jacket, so that an annular space is formed between the connecting element and the inner jacket, the radial extent of the annular space corresponding to a multiple of the radial extent of the annular gap between the ejection plate and the inner jacket. - a probe tube through which cooling liquid flows and having an outer jacket and an inner jacket which are connected to one another in a sealed manner and form an enclosure of a flow space, - at least one tubular filter (19, 20) made of sintered material, which is arranged inside the inner jacket of the probe tube, wherein measuring gas entering the inner jacket of the probe tube through the free end of the probe tube flows through the tubular filter (19, 20) from the outside to the inside, - at least one measuring chamber with at least one measuring sensor, into which the measuring gas enters after flowing through the tubular filter (19, 20), - an ejector plate which is arranged in the region of the free end of the probe tube and is axially displaceable within the inner jacket, wherein during the measurement operation, a narrow annular gap between the exterior of the ejector plate and the inner jacket of the probe tube allows measuring gas to flow into the probe tube, characterized in that a connecting element is arranged between the filter (19, 20) and the ejection plate, the diameter of the connecting element being several millimeters smaller than the inner diameter of the inner jacket, so that an annular space is formed between the connecting element and the inner jacket, the radial extent of the annular space corresponding to a multiple of the radial extent of the annular gap between the ejection plate and the inner jacket.
Nozzle for a vacuum cleaner, the nozzle comprising: - a rotatable member for picking up particles from a surface to be cleaned, the rotatable member being arranged around a longitudinal axis, and - a cleaning arrangement for removing articles entangled to the rotatable member, the nozzle being characterized in that it further comprises: - a nozzle cover that at least partly is made of transparent material such that the rotatable member may be visible through the nozzle cover. - a rotatable member for picking up particles from a surface to be cleaned, the rotatable member being arranged around a longitudinal axis, and - a cleaning arrangement for removing articles entangled to the rotatable member, the nozzle being characterized in that it further comprises: - a nozzle cover that at least partly is made of transparent material such that the rotatable member may be visible through the nozzle cover.
Non-metallic interference pigments based on a flake-form non-metallic support, where the pigments have a particle size with a volume-weighted d 90 value of < 25 μm, the support has a coating comprising one or more successive layers of a colourless material having a refractive index n of n ≥ 1.8 with a geometrical overall layer thickness of at most 70 nm, and where the pigments have an outermost layer which has a geometrical layer thickness in the range from 0.5 to 5 nm and consists of at least 95% by weight, based on the weight of this layer, of carbon and comprises crystalline carbon in the form of graphite and/or graphene, and where the interference pigments have a specific powder resistance of less than 1x10 6 ohm*cm.