mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle for load handling, which comprises: - a supporting chassis having a front section provided with a front axle equipped with a pair of front wheels and a rear section provided with a rear axle equipped with a pair of rear wheels ; - a load lifting arm articulated to the rear section of the supporting chassis with the possibility of rotating around at least one swing axis (O) and having a longitudinal axis (B) parallel to a longitudinal axis (A) of the supporting chassis ; - a driver's cab supported by the supporting chassis and positioned on the side of an axial portion of the lifting arm ; and - a powertrain supported inside an engine compartment of the supporting chassis at least partially positioned vertically below an axial portion of the lifting arm , wherein the powertrain comprises an engine equipped with a crankshaft positioned with a rotation axis (R1) orthogonal to the longitudinal axis (A) of the supporting chassis , wherein the powertrain comprises a pumping unit equipped with at least one pump equipped with a respective rotary shaft rotatably connected to the engine crankshaft ; characterized in that the pumping unit is positioned on the side of the engine and wherein the rotary shaft of the pump is parallel and eccentric with respect to the engine crankshaft . - a supporting chassis having a front section provided with a front axle equipped with a pair of front wheels and a rear section provided with a rear axle equipped with a pair of rear wheels ; - a load lifting arm articulated to the rear section of the supporting chassis with the possibility of rotating around at least one swing axis (O) and having a longitudinal axis (B) parallel to a longitudinal axis (A) of the supporting chassis ; - a driver's cab supported by the supporting chassis and positioned on the side of an axial portion of the lifting arm ; and - a powertrain supported inside an engine compartment of the supporting chassis at least partially positioned vertically below an axial portion of the lifting arm , wherein the powertrain comprises an engine equipped with a crankshaft positioned with a rotation axis (R1) orthogonal to the longitudinal axis (A) of the supporting chassis , wherein the powertrain comprises a pumping unit equipped with at least one pump equipped with a respective rotary shaft rotatably connected to the engine crankshaft ;
A pallet holder of a screen printing machine, the pallet being a screen printing pallet for supporting an article for screen printing, said pallet holder characterized by comprising a releasably attached toothed fitting coupling the pallet to the pallet holder such that the pallet coupling position relative to the pallet holder is stepwise adjustable by teeth of said fitting , wherein the toothed fitting is replaceable and comprises a support (6.1) for releasably attaching the fitting to a pallet holder and a toothed rack (6.2) attached to said support, wherein said teeth are formed in said toothed rack (6.2).
A biomass of Tetraselmis chuii ( T. chuii ) or a pharmaceutical composition comprising the biomass of T. chuii for use in the treatment of infertility in a male patient.
Hydraulic control arrangement for an arrangement of hydraulically couplable mobile machines , having an interface (58; 158) for the hydraulic coupling of the machines , and having a hydraulic machine for supplying pressure medium to at least one hydraulic consumer of the machines in accordance with requirements, wherein an electronic control device is provided, by means of which it is possible, in accordance with a load of the consumer , to generate an electronic control signal, which can be converted by a transducer (56; 156) of the control arrangement into a hydraulic control signal, in accordance with which the hydraulic machine can be operated, characterized in that the transducer (56; 156) and the hydraulic machine are connected either on the near side or the far side of the interface (58; 158), and in that they can be arranged on the same machine .
An installation box for the electrical installation, consisting of a pot-shaped box having an inner insert , - the dimensions of the inner insert being adapted for a form-fitting insert into the interior of the pot-shaped box , - the inner insert consisting at least partially of an intumescent material, characterized in that a form-fitting locking snap connection having at least one resiliently mounted locking means is arranged on the inner insert or the pot-shaped box , the locking means interacting with a counter-locking means on the pot-shaped box or the inner insert . - the dimensions of the inner insert being adapted for a form-fitting insert into the interior of the pot-shaped box , - the inner insert consisting at least partially of an intumescent material,
Multi-channel audio decoder for processing a downmix audio signal derived in a matrix compatible way and for processing first parametric data describing a first portion of a multi-channel signal, wherein for a second portion of the multi-channel signal no parametric data or second parametric data is processed, the second parametric data requiring less information units than the first parametric data when describing an identical portion of the multi-channel signal, comprising: a processor for deriving an intermediate signal from the downmix audio signal , using a first deriving rule for deriving a first portion of the intermediate signal , the first portion of the intermediate signal corresponding to the first portion of the multi-channel audio signal, wherein the first deriving rule is depending on the first parametric data ; and using a second deriving rule for deriving a second portion of the intermediate signal , the second deriving rule using no parametric data or the second parametric data , wherein the first portion and the second portion are a time portion or a frequency portion. using a first deriving rule for deriving a first portion of the intermediate signal , the first portion of the intermediate signal corresponding to the first portion of the multi-channel audio signal, wherein the first deriving rule is depending on the first parametric data ; and using a second deriving rule for deriving a second portion of the intermediate signal , the second deriving rule using no parametric data or the second parametric data , wherein the first portion and the second portion are a time portion or a frequency portion.
A fuel conduit for a fuel injector, comprising: a coiled tube , having: a longitudinal segment arranged along a flow axis; and a coil segment in fluid communication with the longitudinal segment and extending about the flow axis, wherein wall thickness of at least one of the longitudinal and the coil segment increases at a thickness transition location offset from minimum radius of curvature segment defined along the fuel conduit to limit stress in the fuel conduit; wherein the minimum radius of curvature segment has a wall thickness that is greater than a wall thickness of the coil segment, the minimum radius of curvature segment being a location where rate of change in direction of the flow axis is the greatest between the fluidly coupled longitudinal segment and coil segment. a longitudinal segment arranged along a flow axis; and a coil segment in fluid communication with the longitudinal segment and extending about the flow axis, wherein wall thickness of at least one of the longitudinal and the coil segment increases at a thickness transition location offset from minimum radius of curvature segment defined along the fuel conduit to limit stress in the fuel conduit; wherein the minimum radius of curvature segment has a wall thickness that is greater than a wall thickness of the coil segment, the minimum radius of curvature segment being a location where rate of change in direction of the flow axis is the greatest between the fluidly coupled longitudinal segment and coil segment.
A structure for controlling water passage switching and on-off of an electrical circuit using a single button, the structure comprising: an operating member , a transmission member , a water passage switching member and an electrical circuit controlling module; and the operating member drives the water passage switching member to rotate to achieve the water passage switching through the transmission member , and the water passage switching member drives the electrical circuit controlling module during a process of the water passage switching, wherein the electrical circuit controlling module comprises a positive conductive column and a negative conductive column , the water passage switching member comprises one or more abutting blocks , and the one or more abutting blocks enable the positive conductive column to be in communication with the negative conductive column during the process of the water passage switching. an operating member , a transmission member , a water passage switching member and an electrical circuit controlling module; and the operating member drives the water passage switching member to rotate to achieve the water passage switching through the transmission member , and the water passage switching member drives the electrical circuit controlling module during a process of the water passage switching, wherein the electrical circuit controlling module comprises a positive conductive column and a negative conductive column , the water passage switching member comprises one or more abutting blocks , and the one or more abutting blocks enable the positive conductive column to be in communication with the negative conductive column during the process of the water passage switching.
A method of producing alkylate, comprising: passing methanol and/or dimethylether (DME) into a reaction chamber; passing butane into the reaction chamber; wherein the reactor comprises a catalyst that is a crystalline zeotype material in which tetrahedral [TiO 4 ] and [SiO 4 ] units are arranged in a MFI structure with a three-dimensional system of channels having a molecular dimension of 4.9 to 5.9 Å, preferably 5.1-5.6 Å, and at least 0.5 mass% Ti, more preferably at least 1% Ti, in some embodiments in the range of 1 to 5 mass%Ti; reacting the methanol and/or DME and the butane in the reaction chamber in the presence of the catalyst to make olefins under steady state conditions where the reaction is adiabatic or nearly adiabatic such that 200 kJ/(kg olefin produced) or less is transferred from the reaction chamber preferably 100 or less, more preferably 50, and preferably 10 kJ/(kg olefin produced) or less is transferred from the reaction chamber; and reacting the olefins with iso-butane to form alkylate in a separate reactor. passing methanol and/or dimethylether (DME) into a reaction chamber; passing butane into the reaction chamber; wherein the reactor comprises a catalyst that is a crystalline zeotype material in which tetrahedral [TiO 4 ] and [SiO 4 ] units are arranged in a MFI structure with a three-dimensional system of channels having a molecular dimension of 4.9 to 5.9 Å, preferably 5.1-5.6 Å, and at least 0.5 mass% Ti, more preferably at least 1% Ti, in some embodiments in the range of 1 to 5 mass%Ti; reacting the methanol and/or DME and the butane in the reaction chamber in the presence of the catalyst to make olefins under steady state conditions where the reaction is adiabatic or nearly adiabatic such that 200 kJ/(kg olefin produced) or less is transferred from the reaction chamber preferably 100 or less, more preferably 50, and preferably 10 kJ/(kg olefin produced) or less is transferred from the reaction chamber; and reacting the olefins with iso-butane to form alkylate in a separate reactor.
A motor, fan and cyclonic separation apparatus arrangement for a vacuum cleaner , the arrangement comprising: a motor coupled to a fan for generating air flow; a dirt container ; a cyclonic separation apparatus located in a path of the air flow generated by the fan; and a pre-fan filter located in the path of the air flow downstream of the cyclonic separation apparatus and upstream of the fan , wherein the cyclonic separation apparatus comprises at least one cyclone comprising: a cyclone body with a longitudinal axis ; a cylindrical vortex finder arranged inside the cyclone body an air inlet port arranged tangentially through a side of the cyclone body; and an air outlet port through a longitudinal end of the cylindrical vortex finder , and characterised in that : the pre-fan filter is arranged upon the air outlet port of the or each cyclone ; and the cyclonic separation apparatus and the pre-fan filter are located inside the dirt container . a motor coupled to a fan for generating air flow; a dirt container ; a cyclonic separation apparatus located in a path of the air flow generated by the fan; and a pre-fan filter located in the path of the air flow downstream of the cyclonic separation apparatus and upstream of the fan , wherein the cyclonic separation apparatus comprises at least one cyclone comprising: a cyclone body with a longitudinal axis ; a cylindrical vortex finder arranged inside the cyclone body an air inlet port arranged tangentially through a side of the cyclone body; and an air outlet port through a longitudinal end of the cylindrical vortex finder , and characterised in that : a cyclone body with a longitudinal axis ; a cylindrical vortex finder arranged inside the cyclone body an air inlet port arranged tangentially through a side of the cyclone body; and an air outlet port through a longitudinal end of the cylindrical vortex finder , and characterised in that : the pre-fan filter is arranged upon the air outlet port of the or each cyclone ; and the cyclonic separation apparatus and the pre-fan filter are located inside the dirt container .
A machine vision system comprising: a processor configured to run a computer program stored in memory that is configured to cause the processor to: receive an intermediate image generated by removing a first transform of a homography matrix from a distorted image, wherein the homography matrix is associated with the distorted image and the homography matrix comprises the first transform and a second transform, wherein the first transform relates the distorted image to the intermediate image and the second transform relates the intermediate image to a rectified image; and generate, using a homography removal module , a rectified image by removing a second transform of the homography matrix from the intermediate image, wherein the second transform is constrained to map pixels along a first dimension of the rectified image to equi-distant locations along a first dimension of the intermediate image. receive an intermediate image generated by removing a first transform of a homography matrix from a distorted image, wherein the homography matrix is associated with the distorted image and the homography matrix comprises the first transform and a second transform, wherein the first transform relates the distorted image to the intermediate image and the second transform relates the intermediate image to a rectified image; and generate, using a homography removal module , a rectified image by removing a second transform of the homography matrix from the intermediate image, wherein the second transform is constrained to map pixels along a first dimension of the rectified image to equi-distant locations along a first dimension of the intermediate image.
Plug connector , in particular direct plug connector for contacting contact openings of a circuit board , - with a contact carrier which can have encoding means, in particular encoding pins and a reverse polarity fuse , in particular in the form of polarity projections , - with conductor insert channels formed by the contact carrier to receive connecting conductors and contact recesses to receive plug contacts , - with a retaining cover which surrounds the contact carrier , wherein the contact carrier can be shifted displaceably between an assembly position and a pre-assembly position in the retaining cover in the plug-in direction of the plug connector , - with a primary fuse holding the plug connector on the circuit board , said primary fuse being part of the retaining cover , wherein the primary fuse can be shifted from a lock position into a release position, - with a contact carrier , which, in its assembly position inside the retaining cover , holds the primary fuse in its lock position, characterised in that the plug connector is provided with a primary fuse , which comprises at least one locking arm arranged on the retaining cover , which extends in the plug-in direction, the contact carrier is arranged in its assembly position in the space in which the locking arm is to be shifted to adopt the release position and thus locks the shifting movement of the locking arm into the release position. - with a contact carrier which can have encoding means, in particular encoding pins and a reverse polarity fuse , in particular in the form of polarity projections , - with conductor insert channels formed by the contact carrier to receive connecting conductors and contact recesses to receive plug contacts , - with a retaining cover which surrounds the contact carrier , wherein the contact carrier can be shifted displaceably between an assembly position and a pre-assembly position in the retaining cover in the plug-in direction of the plug connector , - with a primary fuse holding the plug connector on the circuit board , said primary fuse being part of the retaining cover , wherein the primary fuse can be shifted from a lock position into a release position, - with a contact carrier , which, in its assembly position inside the retaining cover , holds the primary fuse in its lock position,
A method of estimating the ageing of a catalyst for an internal combustion engine in a vehicle, said catalyst being mounted in a gas exhaust line (LE) having at least one oxygen probe located downstream of said catalyst , the method comprising the steps of : a) calculating (23, S10) the value of a behavior index (IC) of said catalyst at each occurrence (CI, 22) of a fuel injection cut-off event which satisfies predefined conditions (S1, S2, S3, S9), said behavior index (IC) being based on an area ratio between first and second areas (A1, A1-As ; A2, A2-As) obtained by integrating over a predetermined integration time (TA) an estimated oxygen storage rate (E OSC ) of said catalyst and a probe measurement signal (MS2) provided by said oxygen probe , respectively, and b) determining an ageing factor (FV) representative of the ageing (V) of said catalyst by statistical calculation from a set of values of said behaviour index (IC) calculated over a plurality of occurrences (CI, 22) of said fuel injection cut-off event. a) calculating (23, S10) the value of a behavior index (IC) of said catalyst at each occurrence (CI, 22) of a fuel injection cut-off event which satisfies predefined conditions (S1, S2, S3, S9), said behavior index (IC) being based on an area ratio between first and second areas (A1, A1-As ; A2, A2-As) obtained by integrating over a predetermined integration time (TA) an estimated oxygen storage rate (E OSC ) of said catalyst and a probe measurement signal (MS2) provided by said oxygen probe , respectively, and b) determining an ageing factor (FV) representative of the ageing (V) of said catalyst by statistical calculation from a set of values of said behaviour index (IC) calculated over a plurality of occurrences (CI, 22) of said fuel injection cut-off event.
A sensor package comprising: a lead frame having a sensor mounting area , a first lead , and a second lead , wherein said sensor mounting area , said first lead , and said second lead comprise a first side and a second side , said second side being parallel and opposite to said first side ; a sensor component attached to said first side of said sensor mounting area ; and a first capacitor interconnected between said first and second leads (40, 100; 42, 102), said first capacitor being attached to said first side of each of said first and second leads (40, 100; 42, 102); characterized in that the sensor package further comprises a second capacitor interconnected between said first and second leads, said second capacitor being attached to said second side of said each of said first and second leads (40, 100; 42, 102). a lead frame having a sensor mounting area , a first lead , and a second lead , wherein said sensor mounting area , said first lead , and said second lead comprise a first side and a second side , said second side being parallel and opposite to said first side ; a sensor component attached to said first side of said sensor mounting area ; and a first capacitor interconnected between said first and second leads (40, 100; 42, 102), said first capacitor being attached to said first side of each of said first and second leads (40, 100; 42, 102); characterized in that the sensor package further comprises a second capacitor interconnected between said first and second leads, said second capacitor being attached to said second side of said each of said first and second leads (40, 100; 42, 102).
A control system , comprising: a model-less controller configured to control operation of a plant or process, wherein the model-less controller comprises a proportional-integral-derivative, PID, controller; and an automation controller operatively connected for access to a model of the plant or process being controlled by the model-less controller, wherein the automation controller is configured to modify parameter trajectories of the model-less controller over a prediction horizon via an explicit optimization procedure, wherein the automation controller comprises a model predictive controller configured to use a model of the plant or process being controlled to modify PID coefficients of the PID controller during operation of the plant or process. a model-less controller configured to control operation of a plant or process, wherein the model-less controller comprises a proportional-integral-derivative, PID, controller; and an automation controller operatively connected for access to a model of the plant or process being controlled by the model-less controller, wherein the automation controller is configured to modify parameter trajectories of the model-less controller over a prediction horizon via an explicit optimization procedure, wherein the automation controller comprises a model predictive controller configured to use a model of the plant or process being controlled to modify PID coefficients of the PID controller during operation of the plant or process.