mhurhangee/patent-ind-claim-en huggingface dataset:
A brake testing device for a vehicle , comprising at least one drivable axle (12, 14; 200, 202) having a differential (36, 36H; 204, 230) and having a drive (28, 30; 208, 226) for the differential, in which brake testing device the drive can be rotationally fixedly held during the brake test, wherein the wheel (60L, 60R, 66L, 66R; 220VI, 220VR; 220HL, 220HR) or the wheels at the one side of the tested axle (12, 14; 200, 202) can be driven by at least one device drivable by a motor , preferably by a roller pair , in a forward-directed rotational direction, while the other wheel (60L, 60R, 66L, 66R; 220VI, 220VR; 220HL, 220HR) or the wheels at the other side of the tested axle can be driven by at least one further device drivable by a motor , preferably by a roller pair (in the other rotational direction), characterized in that the brake testing device has, for both sides of the tested axle (12, 14; 200, 202), a respective sensor device which can be attached to the respective wheel (60L, 60R, 66L, 66R; 220VI, 220VR; 220HL, 220HR) in any desired orientation and which generates rotary signals of the wheel with respect to an at least substantially horizontal axis, in that at least one signal processor (μC, 244; 256) is provided which forms rotary angle vectors from the rotary signals of the sensor devices and forms a difference value from the rotary angle vectors, and in that the difference value or a value proportional thereto can be applied to a control which is associated with the brake testing device and which controls the rotational speed of one of the devices (80L, 82L; 80R, 82R) drivable by the motor such that, during a brake test, the rotary angle difference of the wheels (60L, 60R, 66L, 66R; 220VI, 220VR; 220HL, 220HR) at the two sides of the tested axle at least substantially at most corresponds to the backlash of the tested axle.
A hinge assembly for an apparatus, wherein the hinge assembly comprises: a first hinge part configured to be fixed to a first frame member and a second hinge part configured to be fixed to a second frame member , the first and second hinge parts being arranged to pivot about a first eccentrically mounted pivot pin which is sufficiently off-set above an axis (L1, L2) of the first and second frame members to allow the first and second frame members to pivot between an unfolded condition in which the first and second frame members are generally aligned and located on opposite sides of the hinge assembly and a folded condition in which the first and second members are generally parallel and located on the same side of the hinge assembly; and a third hinge part configured to be fixed to a third frame member and arranged to pivot about a second pivot pin which is sufficiently off-set from the first pivot pin to allow pivotal movement of the third frame member relative to the first and second frame members between an unfolded condition in which the third frame member is angled relative to the first and second frame members and a folded condition in which the third frame member is generally parallel with the first and second frame members and located on the same side of the hinge assembly as the first and second frame members, characterised in that the first hinge part has an asymmetric profile relative to the first pivot pin and pivotal movement of the first and second hinge parts between the unfolded and the folded conditions varies the spacing between the asymmetric profile and the second pivot pin . a first hinge part configured to be fixed to a first frame member and a second hinge part configured to be fixed to a second frame member , the first and second hinge parts being arranged to pivot about a first eccentrically mounted pivot pin which is sufficiently off-set above an axis (L1, L2) of the first and second frame members to allow the first and second frame members to pivot between an unfolded condition in which the first and second frame members are generally aligned and located on opposite sides of the hinge assembly and a folded condition in which the first and second members are generally parallel and located on the same side of the hinge assembly; and a third hinge part configured to be fixed to a third frame member and arranged to pivot about a second pivot pin which is sufficiently off-set from the first pivot pin to allow pivotal movement of the third frame member relative to the first and second frame members between an unfolded condition in which the third frame member is angled relative to the first and second frame members and a folded condition in which the third frame member is generally parallel with the first and second frame members and located on the same side of the hinge assembly as the first and second frame members, characterised in that the first hinge part has an asymmetric profile relative to the first pivot pin and pivotal movement of the first and second hinge parts between the unfolded and the folded conditions varies the spacing between the asymmetric profile and the second pivot pin .
A processor comprising: fetch circuitry to fetch a single instruction having fields to specify an opcode and locations of first source, second source, and destination vectors , the opcode to indicate execution circuitry is to generate products of N pairs of 16-bit floating-point elements of the first and second source vectors , and accumulate the products with previous contents of a corresponding single-precision element of the destination ; decode circuitry to decode the fetched instruction ; and execution circuitry to execute the instruction as per the opcode , wherein a format of the 16-bit floating-point elements is bfloat16, wherein the execution circuitry , in generating products, is to convert each 16-bit floating-point element in each pair to a single precision element by packing the 16 bits of the 16-bit floating-point element into the upper 16 bits of the single precision element, zeroing the lower 16 bits of the single precision element, wherein the execution circuitry is further to saturate the products and the results of the accumulation . fetch circuitry to fetch a single instruction having fields to specify an opcode and locations of first source, second source, and destination vectors , the opcode to indicate execution circuitry is to generate products of N pairs of 16-bit floating-point elements of the first and second source vectors , and accumulate the products with previous contents of a corresponding single-precision element of the destination ; decode circuitry to decode the fetched instruction ; and execution circuitry to execute the instruction as per the opcode , wherein a format of the 16-bit floating-point elements is bfloat16, wherein the execution circuitry , in generating products, is to convert each 16-bit floating-point element in each pair to a single precision element by packing the 16 bits of the 16-bit floating-point element into the upper 16 bits of the single precision element, zeroing the lower 16 bits of the single precision element, wherein the execution circuitry is further to saturate the products and the results of the accumulation .
A method of forming a plurality of lipid bilayers over an array of cells in a nanopore based sequencing chip, each of the cells comprising a well, the method comprising: Flowing a first salt buffer solution with a first osmolarity over a cell in the nanopore based sequencing chip to substantially fill a well in the cell with the first salt buffer solution; Flowing a lipid and solvent mixture over the cell to deposit a lipid membrane over the well that encloses the first salt buffer solution in the well; characterized in that it further comprises: flowing a second salt buffer solution with a second osmolarity above the well to reduce the thickness of the lipid membrane, wherein the second osmolarity is a lower osmolarity than the first osmolarity such that an osmotic imbalance is created between a first volume inside the well and a second volume outside the well. Flowing a first salt buffer solution with a first osmolarity over a cell in the nanopore based sequencing chip to substantially fill a well in the cell with the first salt buffer solution; Flowing a lipid and solvent mixture over the cell to deposit a lipid membrane over the well that encloses the first salt buffer solution in the well; characterized in that it further comprises: flowing a second salt buffer solution with a second osmolarity above the well to reduce the thickness of the lipid membrane, wherein the second osmolarity is a lower osmolarity than the first osmolarity such that an osmotic imbalance is created between a first volume inside the well and a second volume outside the well.
An enlargeable flexible hose for transporting liquids, particularly water, comprising: - at least one inner layer made of a first elastic polymeric material; - at least one outer layer made of a second elastic polymeric material; - at least one textile reinforcement layer interposed between said at least one inner layer and at least one outer layer ; wherein said at least one inner layer and at least one outer layer are reciprocally coupled to form a unitary tubular member , said at least one textile reinforcement layer being embedded therein ; wherein said unitary tubular member has an elasticity such to automatically enlarge upon the working pressure given by the liquid flowing therethrough to increase its original outer diameter and such to automatically recovery once the working pressure stops for assuming again said original outer diameter; wherein said at least one textile reinforcement layer is susceptible to move between a rest configuration that has when no liquid flows through the unitary tubular member and a working configuration that has when said unitary tubular member enlarges upon the working pressure; wherein said unitary tubular member and said at least one textile reinforcement layer cooperate each other so that under a working pressure of 2 bar the hose enlarges its outer diameter of at least 1,3 times with respect to its original outer diameter; wherein said at least one textile reinforcement layer is selected among the group consisting of knitting, weaving or knotting; wherein the hose does not include a spiral or braiding textile reinforcement layer externally placed with respect to said at least one first textile reinforcement layer . - at least one inner layer made of a first elastic polymeric material; - at least one outer layer made of a second elastic polymeric material; - at least one textile reinforcement layer interposed between said at least one inner layer and at least one outer layer ;
A monolithic integrated electro-optical phase modulator , wherein the phase modulator comprises, in an optical modulation region: a silicon-based n-type base layer ; an n-type ridge waveguide for propagating light, wherein the ridge waveguide protrudes from and extends along the n-type base layer and is made of III-V semiconductor material; one or more insulating layers provided on the ridge waveguide , wherein the one or more insulating layers have together a thickness in a range of 1-100 nm; and a silicon-based p-type cover layer provided on the one or more insulating layers at least above the ridge waveguide , wherein the n-type ridge waveguide , the one or more insulating layers , and the p-type cover layer form together a monolithically integrated semiconductor-insulator-semiconductor capacitor for phase modulating the light propagating along the ridge waveguide in the optical modulation region. a silicon-based n-type base layer ; an n-type ridge waveguide for propagating light, wherein the ridge waveguide protrudes from and extends along the n-type base layer and is made of III-V semiconductor material; one or more insulating layers provided on the ridge waveguide , wherein the one or more insulating layers have together a thickness in a range of 1-100 nm; and a silicon-based p-type cover layer provided on the one or more insulating layers at least above the ridge waveguide , wherein the n-type ridge waveguide , the one or more insulating layers , and the p-type cover layer form together a monolithically integrated semiconductor-insulator-semiconductor capacitor for phase modulating the light propagating along the ridge waveguide in the optical modulation region.
Measurement module for determining a fluid variable relating to a property of a fluid which is situated in a measurement tube , formed separately from the measurement module , or which flows through said measurement tube, and/or of the flow of said fluid, wherein the measurement module comprises a main body , a control device and a first and a second vibration transducer , which vibration transducers are fastened on or in the main body so as to be spaced apart from one another, wherein, by way of the control device , the first and/or the second vibration transducer are/is able to be actuated so as to induce vibration of a or a respective side wall of the measurement tube if a or a respective contact surface of the measurement module is coupled directly or via a coupling layer to the or the respective side wall of the measurement tube , wherein the vibration of the side wall induces compressional oscillations of the fluid that are able to be passed via the fluid to the in each case other vibration transducer and, there, are able to be detected by the control device for determining a measurement variable, wherein the fluid variable is able to be determined by the control device as a function of the measurement variable, characterized in that the main body is or comprises a vibration plate , wherein the contact surface is formed by a first side surface of the vibration plate , wherein the first and second vibration transducers are arranged on a second side surface, opposite the first side surface, of the vibration plate .
Processing apparatus for controlling, measuring, and/or regulating, with an appliance for installation for output and/or input, with an intermediate housing , a unit for display and/or operation, and a main board connected to the unit , wherein the main board has a central processing unit, characterized in that the appliance for installation is intended for use in or for a signaling or signal-processing device, optionally a weighing device, metering device, conveying device, screening device, grinding device, mixing device, filter device, status monitoring device and/or material analysis device, wherein the main board serves as an electronic platform regardless of use and has, for each use, a particular combination of interfaces to the device in question, wherein the main board of the appliance for installation is the same for all devices, wherein the appliance for installation can be used modularly for the several and/or the different uses, characterized in that the appliance for installation is modularly equipped with one or more function modules selected from a plurality of function modules , wherein different functions are realized by connecting the function module(s) to the main board, wherein the specific combination of interfaces comprises at least one analog interface and/or at least one digital interface for data transmission to the respective device, wherein the main board contains one or more receiving interfaces , for receipt and connection of each of the one or more function modules . wherein the main board of the appliance for installation is the same for all devices, wherein the appliance for installation can be used modularly for the several and/or the different uses, characterized in that the appliance for installation is modularly equipped with one or more function modules selected from a plurality of function modules , wherein different functions are realized by connecting the function module(s) to the main board, wherein the specific combination of interfaces comprises at least one analog interface and/or at least one digital interface for data transmission to the respective device, wherein the main board contains one or more receiving interfaces , for receipt and connection of each of the one or more function modules .
A combine harvester comprising an intake arrangement for picking up crop material consisting of grains and non-grain constituents and working assemblies for dividing the crop material throughput at least into a volume grain throughput and into a volume straw throughput, wherein the combine harvester has a throughput measuring arrangement for measuring the volume crop material throughput, wherein the combine harvester has a moisture measuring arrangement for measuring the crop material moisture, characterised in that the combine harvester has a control arrangement in which at least one provision for ascertaining an estimated value for the straw throughput from the crop material throughput and the crop material moisture is mapped and that the control arrangement is adapted to ascertain the estimated value for the straw throughput based on said provision , the crop material throughput and the crop material moisture.
Assembly for a windscreen wiper of a vehicle, notably a motor vehicle, comprising a longitudinal body configured to bear a scraper blade , at least one rigidifying spine extending along said body to ensure the bending thereof, and a deflector extending above said body and having an aerodynamic profile, said body comprising a flat wall , said at least one spine being in contact, for at least a part of a first face, with a face of said wall , and for at least a part of a second face, with the deflector , said body being positioned entirely on the same side relative to said first face, the body and the deflector being produced in two different materials, characterized in that it comprises two spines positioned laterally in the alignment of one another and separated by a partition of the deflector .
A quantum dot-chain transfer agent (QD-CTA) resin, the resin comprising: quantum dots; a chain transfer agent (CTA); a methyl(acrylate) monomer; a photoinitiator; and a crosslinker. quantum dots; a chain transfer agent (CTA); a methyl(acrylate) monomer; a photoinitiator; and a crosslinker.
Speed setting system for setting a driving speed (v) of a vehicle , the speed setting system comprising: - a driver actuation device for actuation by the driver and inputting of an actuation parameter (α) by the driver, - an actuation sensor for detecting the actuation parameter (α) and outputting a sensor signal (S1), - a speed control device for recording the sensor signal (S1) and evaluating the driver actuation, characterized in that - the speed control device is designed to compare the actuation parameter (α) with a reference value (α0) and depending on the comparison - if the actuation parameter (α) is greater than the reference value (α0), to output a request signal (S2, S102) to a motor control device , and - if the actuation parameter (α) is smaller than the reference value (α0), to output a brake request signal (S3, S4) to at least one control device of a brake system . - a driver actuation device for actuation by the driver and inputting of an actuation parameter (α) by the driver, - an actuation sensor for detecting the actuation parameter (α) and outputting a sensor signal (S1), - a speed control device for recording the sensor signal (S1) and evaluating the driver actuation, - the speed control device is designed to compare the actuation parameter (α) with a reference value (α0) and depending on the comparison - if the actuation parameter (α) is greater than the reference value (α0), to output a request signal (S2, S102) to a motor control device , and - if the actuation parameter (α) is smaller than the reference value (α0), to output a brake request signal (S3, S4) to at least one control device of a brake system .
A photographing lens consisting of: a first lens (L1) having a negative refractive power and being meniscus shaped, the first lens having a surface convex toward an object side; a second lens (L2) having a positive refractive power and being a biconvex lens; a third lens (L3) having a negative refractive power and being a biconcave lens; a fourth lens (L4) having a positive refractive power and having a surface convex toward an image side, the fourth lens being a biconvex lens; a fifth lens (L5) having a negative refractive power, having a surface concave toward the image side, and including at least one aspheric surface; and an iris (ST) arranged between the second lens (L2) and the third lens (L3), the iris being configured to adjust the diameter of an aperture for passing light, wherein the first through fifth lenses are sequentially arranged from the object side toward the image side, and the photographing lens satisfies the Expression below: 1.0 mm < APE − L 5 − MAX < 6.0 mm 80 degrees < FoV < 160 degrees 1 .0 < EFL / EPD > 2 .0 IND − L5 > 1 .6 Vd − L5 < 30 , wherein APE-L5-MAX denotes a diameter of a maximum effective aperture of the fifth lens (L5), FoV denotes a field of view of the photographing lens, EFL denotes an effective focal length of the photographing lens, EPD denotes a diameter of an entrance pupil of the photographing lens, IND-L5 denotes a refractive index of the fifth lens (L5), and Vd-L5 denotes an Abbe's number of the fifth lens (L5). a first lens (L1) having a negative refractive power and being meniscus shaped, the first lens having a surface convex toward an object side; a second lens (L2) having a positive refractive power and being a biconvex lens; a third lens (L3) having a negative refractive power and being a biconcave lens; a fourth lens (L4) having a positive refractive power and having a surface convex toward an image side, the fourth lens being a biconvex lens; a fifth lens (L5) having a negative refractive power, having a surface concave toward the image side, and including at least one aspheric surface; and an iris (ST) arranged between the second lens (L2) and the third lens (L3), the iris being configured to adjust the diameter of an aperture for passing light, wherein the first through fifth lenses are sequentially arranged from the object side toward the image side, and the photographing lens satisfies the Expression below: 1.0 mm < APE − L 5 − MAX < 6.0 mm 80 degrees < FoV < 160 degrees 1 .0 < EFL / EPD > 2 .0 IND − L5 > 1 .6 Vd − L5 < 30 , wherein APE-L5-MAX denotes a diameter of a maximum effective aperture of the fifth lens (L5), FoV denotes a field of view of the photographing lens, EFL denotes an effective focal length of the photographing lens, EPD denotes a diameter of an entrance pupil of the photographing lens, IND-L5 denotes a refractive index of the fifth lens (L5), and Vd-L5 denotes an Abbe's number of the fifth lens (L5).