mhurhangee/patent-ind-claim-en huggingface dataset:
A control unit for controlling an engine torque (CM) making it possible to exit a freewheel operating mode of a motor vehicle provided with an acceleration member and a braking member , the exit from the freewheel operating mode being able to be triggered by the depression of the acceleration member or by the actuation of the braking member , the control unit being provided with a speed regulator , this speed regulator being configured to calculate an engine torque level (CM) to be controlled by the control unit for reaching the target engine speed, this control unit being characterized in that it is configured, as long as the target engine speed is not reached, to - compare the engine torque level (CM) calculated by the speed regulator against a predefined engine torque threshold level; - control the engine torque level given by the minimum value between the engine torque threshold level and the engine torque level calculated by the speed regulator , the engine torque threshold level being associated with an interval of degrees of depression of the acceleration member and with an interval of instantaneous engine speeds of the motor vehicle. - compare the engine torque level (CM) calculated by the speed regulator against a predefined engine torque threshold level; - control the engine torque level given by the minimum value between the engine torque threshold level and the engine torque level calculated by the speed regulator , the engine torque threshold level being associated with an interval of degrees of depression of the acceleration member and with an interval of instantaneous engine speeds of the motor vehicle.
A protection device for the protection of people in a station area from moving rail vehicles, whereby the station area contains at least one platform , whereby the platform contains at least one platform edge and on a first side of the platform edge tracks for a rail vehicle are arranged and on a second side of the platform edge a platform plateau exists, which is designed as a waiting area for people, whereby a protective wall is situated directly adjacent or near to the platform edge and is adjustable between a retracted state and an extended state in such a way that in the extended state of the protective wall an access to the tracks is obstructed, in the retracted state the access to the tracks is free, characterized in that the protective wall comprises an inner protective wall and an outer protective wall , whereby the inner protective wall is installed at a greater distance from the platform edge , the protective wall being accommodated in a cavity in the retracted state, whereby the cavity is arranged below the platform plateau .
A method of producing a corrosion resistant coating system on a cast iron substrate preferably in the shape of a brake disc, the coating system being completed by a thermally sprayed top layer, characterised in that the cast iron substrate is first subjected to activation by means of a pulsed water jet after completion of machining which increases the surface roughness of the surface thus treated, whereupon the surface is nitrocarburized so that a corresponding diffusion layer is formed on it, whereupon the surface is subjected to an oxidation process in a next step and only then the top layer is applied by thermal spraying, and in that the pulsed water jet is exposed to ultrasound in such a way that cavitation beads are formed in the water jet, whereas the water jet is tuned such that the beads are thrown against the surface to be treated, implode there so that the surface roughness is increased.
A zoom lens comprising in order from an object side to an image side: a first lens unit (U1) having a positive refractive power and configured not to be moved for zooming; a second lens unit (U2) having a negative refractive power and configured to be moved during zooming; a third lens unit (U3) configured to be moved during zooming; a stop; (SP); and a fixed lens unit (U5) having a positive refractive power and configured not to be moved for zooming, wherein the first lens unit comprises in order from the object side to the image side: a first lens sub-unit (U11) configured not to be moved for focusing; a second lens sub-unit (U12) having a positive refractive power and configured to be moved toward the object side during focusing to an object at short distance from an object at infinite distance; and a third lens sub-unit (U13) having a positive refractive power and configured to be moved during focusing, wherein the second lens sub-unit and the third lens sub-unit are configured to be moved along respective loci different from each other during focusing, and wherein the second lens sub-unit includes a negative meniscus lens having a convex surface facing the image side. a first lens unit (U1) having a positive refractive power and configured not to be moved for zooming; a second lens unit (U2) having a negative refractive power and configured to be moved during zooming; a third lens unit (U3) configured to be moved during zooming; a stop; (SP); and a fixed lens unit (U5) having a positive refractive power and configured not to be moved for zooming, wherein the first lens unit comprises in order from the object side to the image side: a first lens sub-unit (U11) configured not to be moved for focusing; a second lens sub-unit (U12) having a positive refractive power and configured to be moved toward the object side during focusing to an object at short distance from an object at infinite distance; and a third lens sub-unit (U13) having a positive refractive power and configured to be moved during focusing, wherein the second lens sub-unit and the third lens sub-unit are configured to be moved along respective loci different from each other during focusing, and wherein the second lens sub-unit includes a negative meniscus lens having a convex surface facing the image side. a first lens sub-unit (U11) configured not to be moved for focusing; a second lens sub-unit (U12) having a positive refractive power and configured to be moved toward the object side during focusing to an object at short distance from an object at infinite distance; and a third lens sub-unit (U13) having a positive refractive power and configured to be moved during focusing, wherein the second lens sub-unit and the third lens sub-unit are configured to be moved along respective loci different from each other during focusing, and wherein the second lens sub-unit includes a negative meniscus lens having a convex surface facing the image side.
An intrinsically-safe, explosion-proof encoder comprising: a housing including a plurality of sidewalls and a protection partition , the plurality of sidewalls including a first set of one or more sidewalls defining a first zone and a second set of one or more sidewalls defining a second zone exposed to an ambient environment, the protection partition having a first surface oriented toward the first zone and a second surface oriented toward the second zone, the protection partition having a sensor opening defined therethrough between the first zone and the second zone; a board stack assembly including two or more printed circuit boards separated by an elevation of a plurality of elevations, an interface device , an energy-limiting apparatus , a protective wire feedthrough coupled to the two or more printed circuit boards in the first zone, and a support mechanism coupled to the two or more printed circuit boards in the first zone, the protective wire feedthrough extending through the sensor opening between the first zone and the second zone, the support mechanism extending between a first elevation of the plurality of elevations and a second elevation of the plurality of elevations; a sensor device coupled to the protective wire feedthrough in the second zone; and a cover configured to engage the first set of one or more sidewalls such that the cover seals the first zone from the ambient environment. a housing including a plurality of sidewalls and a protection partition , the plurality of sidewalls including a first set of one or more sidewalls defining a first zone and a second set of one or more sidewalls defining a second zone exposed to an ambient environment, the protection partition having a first surface oriented toward the first zone and a second surface oriented toward the second zone, the protection partition having a sensor opening defined therethrough between the first zone and the second zone; a board stack assembly including two or more printed circuit boards separated by an elevation of a plurality of elevations, an interface device , an energy-limiting apparatus , a protective wire feedthrough coupled to the two or more printed circuit boards in the first zone, and a support mechanism coupled to the two or more printed circuit boards in the first zone, the protective wire feedthrough extending through the sensor opening between the first zone and the second zone, the support mechanism extending between a first elevation of the plurality of elevations and a second elevation of the plurality of elevations; a sensor device coupled to the protective wire feedthrough in the second zone; and a cover configured to engage the first set of one or more sidewalls such that the cover seals the first zone from the ambient environment.
A filter media comprising: a fiber web comprising a glass fiber web, wherein the glass fiber web comprises glass fibers and the weight percentage of glass fibers is at least 90% of the total weight of the fiber web, wherein the glass fiber web comprises chopped strand glass fibers and microglass fibers, wherein the filter media has a gamma value of at least 11.5, a BET surface area of less than 1.2 m 2 /g, a pressure drop of less than 245 Pa (25.0 mm H 2 O), a permeability between 2.54 cm 3 /cm 2 /min (5 cfm/sf) and 160 cm 3 /cm 2 /min (250 cfm/sf), a basis weight between 10 gsm and 1000 gsm, and a caliper between 0.10 mm and 50.0 mm. a fiber web comprising a glass fiber web, wherein the glass fiber web comprises glass fibers and the weight percentage of glass fibers is at least 90% of the total weight of the fiber web, wherein the glass fiber web comprises chopped strand glass fibers and microglass fibers, wherein the filter media has a gamma value of at least 11.5, a BET surface area of less than 1.2 m 2 /g, a pressure drop of less than 245 Pa (25.0 mm H 2 O), a permeability between 2.54 cm 3 /cm 2 /min (5 cfm/sf) and 160 cm 3 /cm 2 /min (250 cfm/sf), a basis weight between 10 gsm and 1000 gsm, and a caliper between 0.10 mm and 50.0 mm.
A build material nozzle structure for a 3D printing system comprising: an interface surface to interface with a build material container outlet structure ; a retaining structure to releasably hold the build material container outlet structure in an engagement position with the interface surface of the build material nozzle structure; and a tube extending perpendicularly from the interface surface to engage an outlet opening in the build material container outlet structure to form an aspiration channel , wherein the one or more retaining elements are disposed in an annular region of the build material nozzle structure about the tube, wherein the retaining structure comprises one or more retaining elements (210-1 to 210-3) disposed in the build material nozzle structure to exert an attractive magnetic biasing force on the build material outlet structure to releasably hold the build material container outlet structure in the engagement position with the interface surface of the build material nozzle structure, wherein at least one retaining element in the one or more retaining elements is recessed in the build material nozzle structure. an interface surface to interface with a build material container outlet structure ; a retaining structure to releasably hold the build material container outlet structure in an engagement position with the interface surface of the build material nozzle structure; and a tube extending perpendicularly from the interface surface to engage an outlet opening in the build material container outlet structure to form an aspiration channel , wherein the one or more retaining elements are disposed in an annular region of the build material nozzle structure about the tube, wherein the retaining structure comprises one or more retaining elements (210-1 to 210-3) disposed in the build material nozzle structure to exert an attractive magnetic biasing force on the build material outlet structure to releasably hold the build material container outlet structure in the engagement position with the interface surface of the build material nozzle structure, wherein at least one retaining element in the one or more retaining elements is recessed in the build material nozzle structure.
An isolated antisense oligonucleotide for inhibiting the activity of GLDC in a GLDC-expressing cancer cell, wherein the oligonucleotide is capable of inhibiting the expression of GLDC by inducing exon-skipping of a GLDC pre-mRNA or mature mRNA to induce cell cycle arrest or apoptosis, and the antisense oligonucleotide consists of a sequence selected from the group consisting of SEQ ID NOs: 1 to 94.
Process for absorbing acid compounds contained in a gaseous effluent, in which the gaseous effluent is brought into contact with an aqueous solution comprising at least one amine and at least one compound for inhibiting the degradation of the amine, characterized in that : - the degradation-inhibiting compound is a triazole or a tetrazole, comprising at least one substituent comprising a sulfur atom; - a stainless steel of 1.4462 or 1.4410 or 1.4547 grade, which is resistant to corrosion when it is in contact with said amine degradation-inhibiting compound, is selected beforehand; - equipment is used, the surfaces of which in contact with said aqueous solution are manufactured from said stainless steel. - the degradation-inhibiting compound is a triazole or a tetrazole, comprising at least one substituent comprising a sulfur atom; - a stainless steel of 1.4462 or 1.4410 or 1.4547 grade, which is resistant to corrosion when it is in contact with said amine degradation-inhibiting compound, is selected beforehand; - equipment is used, the surfaces of which in contact with said aqueous solution are manufactured from said stainless steel.
Method for producing a control system , in particular driver assistance system, of a motor vehicle , having the following steps: - providing a first control device , - setting vehicle-specific operating parameters for the motor vehicle in the first control device in order to code it, - providing a second control device and connecting the second control device to the first control device using signalling, - transmitting the coding of the first control device to the second control device , which is then available as a redundant control device in the control system . - providing a first control device , - setting vehicle-specific operating parameters for the motor vehicle in the first control device in order to code it, - providing a second control device and connecting the second control device to the first control device using signalling, - transmitting the coding of the first control device to the second control device , which is then available as a redundant control device in the control system .
Method for the production of three-dimensional silk products, wherein native silk fibres are formed to a three-dimensional silk product and the silk product formed is subjected to a degumming step wherein a borate buffer is used as degumming agent and wherein the silk product formed is preferably contacted with an aqueous ethanol buffer prior to the degumming step, wherein the smallest dimension of the three-dimensional silk product is not less than 1/100 of the largest dimension of this product and wherein the diameter of the product in the smallest dimension is at least 0.5 mm, wherein the degumming step is performed so that no sericin colouring is visible in the product in a picrocarmine sericin staining assay, as described in of the description ("Picrocarmine staining").
Regulating method for improving the adhesion of a rail vehicle by way of conditioning of a selected axle/selected axles, comprising the steps: - detecting of whether a higher total brake force (F_Sum_B) can be achieved by way of a change of the wheel slip actuating variable at at least one unit (I) from a current starting wheel slip (slpl) to a forced wheel slip (slpFcd) (state A), if this is the case: - changing of the wheel slip at at least one unit (I) from the current starting wheel slip (slp1) to the forced wheel slip (slpFcd), by way of regulating the brake application force control variable at said unit (I), as a result of which the friction characteristics between the wheel and the rail change at following units (II, III), - regulating of the brake application force control variable at the following units (II, III), in order to regulate the wheel slip at said units (II, III), which has likewise changed as a result of the changed friction characteristics, to the unchanged starting wheel slip actuating variable (slpl) again, brake forces (Fbr_I*, Fbr_II*, Fbr_III*) which are optimised resulting at the units (I, II, III), - the sum (F_Sum_B) of the optimised brake forces (Fbr_I*, Fbr_II*, Fbr_III*) at the units (I, II, III) after the preceding method steps (state B) being greater than the sum (F_Sum_A) of the preceding brake forces (Fbr_I, Fbr_II, Fbr_III). - detecting of whether a higher total brake force (F_Sum_B) can be achieved by way of a change of the wheel slip actuating variable at at least one unit (I) from a current starting wheel slip (slpl) to a forced wheel slip (slpFcd) (state A), - changing of the wheel slip at at least one unit (I) from the current starting wheel slip (slp1) to the forced wheel slip (slpFcd), by way of regulating the brake application force control variable at said unit (I), as a result of which the friction characteristics between the wheel and the rail change at following units (II, III), - regulating of the brake application force control variable at the following units (II, III), in order to regulate the wheel slip at said units (II, III), which has likewise changed as a result of the changed friction characteristics, to the unchanged starting wheel slip actuating variable (slpl) again, brake forces (Fbr_I*, Fbr_II*, Fbr_III*) which are optimised resulting at the units (I, II, III), - the sum (F_Sum_B) of the optimised brake forces (Fbr_I*, Fbr_II*, Fbr_III*) at the units (I, II, III) after the preceding method steps (state B) being greater than the sum (F_Sum_A) of the preceding brake forces (Fbr_I, Fbr_II, Fbr_III).
A base station antenna unit , comprising: a first base station antenna that includes: a first housing ; a first radome having a front surface that is positioned in front of the first housing; a first vertically-disposed linear array of low-band frequency band radiating elements mounted behind the front surface of the first radome; a second vertically-disposed linear array (330-1, 330-2) of mid-band frequency band radiating elements mounted behind the front surface of the first radome; a second base station antenna that includes: a second housing that is separate from the first housing; a second radome having a front surface that is positioned in front of the second housing; a third array of high-band frequency band radiating elements mounted behind the front surface of the second radome, the second radome being separate from the first radome, wherein the first and second base station antennas are mounted in a vertically stacked arrangement, wherein a horizontal width of the first radome is substantially the same as a horizontal width of the second radome, and wherein a lowermost portion of the second base station antenna is located within 10.16 cm [4 inches] of an uppermost portion of the first base station antenna and wherein vertical disposition and vertically stacked arrangement correspond to a vertical direction that is perpendicular relative to the plane defined by the horizon when the base station antennas are mounted for use. a first housing ; a first radome having a front surface that is positioned in front of the first housing; a first vertically-disposed linear array of low-band frequency band radiating elements mounted behind the front surface of the first radome; a second vertically-disposed linear array (330-1, 330-2) of mid-band frequency band radiating elements mounted behind the front surface of the first radome; a second base station antenna that includes: a second housing that is separate from the first housing; a second radome having a front surface that is positioned in front of the second housing; a third array of high-band frequency band radiating elements mounted behind the front surface of the second radome, the second radome being separate from the first radome, a second housing that is separate from the first housing; a second radome having a front surface that is positioned in front of the second housing; a third array of high-band frequency band radiating elements mounted behind the front surface of the second radome, the second radome being separate from the first radome, wherein the first and second base station antennas are mounted in a vertically stacked arrangement, wherein a horizontal width of the first radome is substantially the same as a horizontal width of the second radome, and wherein a lowermost portion of the second base station antenna is located within 10.16 cm [4 inches] of an uppermost portion of the first base station antenna and wherein vertical disposition and vertically stacked arrangement correspond to a vertical direction that is perpendicular relative to the plane defined by the horizon when the base station antennas are mounted for use.
A plated fiber-reinforced member , comprising: a fiber-reinforced member formed of a composite fiber material in which multiple reinforcing fibers are dispersed in a resin , wherein some of the multiple reinforcing fibers are allowed so that portions thereof protruding from a surface of the resin ; and an electroless-plated layer formed on the fiber-reinforced member to cover the surface of the resin and the portions of the reinforcing fibers protruding from the surface of the resin , characterized in that a surface roughness Ra of the resin is 3 μm or more and 8 μm or less. a fiber-reinforced member formed of a composite fiber material in which multiple reinforcing fibers are dispersed in a resin , wherein some of the multiple reinforcing fibers are allowed so that portions thereof protruding from a surface of the resin ; and an electroless-plated layer formed on the fiber-reinforced member to cover the surface of the resin and the portions of the reinforcing fibers protruding from the surface of the resin , characterized in that a surface roughness Ra of the resin is 3 μm or more and 8 μm or less.
A processing module for an Impulse-Radio Ultra-WideBand, I-R UWB, receiver device, the processing module configured to: receive a signal comprising one or more frames, each frame comprising a synchronization-symbol-portion , a secure-training-sequence-portion (STS), and a data-payload-portion , wherein each data bit is spread over multiple chips and wherein the STS-portion is unknown at the receiver and not spread; and perform a carrier recovery process on the signal, wherein at least part of the secure-training-sequence-portion of each of the one or more frames is excluded from the carrier recovery process by pausing the carrier recovery process for a duration of the at least part of the secure-training-sequence-portion. receive a signal comprising one or more frames, each frame comprising a synchronization-symbol-portion , a secure-training-sequence-portion (STS), and a data-payload-portion , wherein each data bit is spread over multiple chips and wherein the STS-portion is unknown at the receiver and not spread; and perform a carrier recovery process on the signal, wherein at least part of the secure-training-sequence-portion of each of the one or more frames is excluded from the carrier recovery process by pausing the carrier recovery process for a duration of the at least part of the secure-training-sequence-portion.