mhurhangee/patent-ind-claim-en huggingface dataset:
Permanent magnet configured for insertion into a groove of a rotor of an electrical machine, in particular of an electric motor or generator, wherein the rotor having a main body which has a diameter D, wherein the grooves are configured essentially U-shaped or V-shaped, wherein the permanent magnet being produced by means of a metal injection moulding process or an additive process, wherein the permanent magnet is configured substantially U-shaped or V-shaped and having two arms extending from a base , characterised in that the base of the permanent magnet is configured to rest on the ground of the groove and the arms extending from the base enclose an angle of the groove opening outwards from a longitudinal axis of the rotor and the length of the arms is selected such that their outer surfaces project beyond the circumferential surface of the main body of the rotor and the two arms represent opposing poles.
A packaged sensor apparatus comprising: a substrate; a semiconductor device disposed over the substrate, the semiconductor device including: an array of sensors, each sensor including: a chemical field effect transistor having a gate electrode structure; and a surface electrode structure forming at least part of the gate electrode structure; a saccharide coating formed over each surface electrode structure of the semiconductor device; and a flow cell lid over the substrate and defining a flow cell between the flow cell lid and the substrate; and wherein the saccharide coating is configured to be removed prior to use of the sensor apparatus. a substrate; a semiconductor device disposed over the substrate, the semiconductor device including: an array of sensors, each sensor including: a chemical field effect transistor having a gate electrode structure; and a surface electrode structure forming at least part of the gate electrode structure; a saccharide coating formed over each surface electrode structure of the semiconductor device; and an array of sensors, each sensor including: a chemical field effect transistor having a gate electrode structure; and a surface electrode structure forming at least part of the gate electrode structure; a chemical field effect transistor having a gate electrode structure; and a surface electrode structure forming at least part of the gate electrode structure; a saccharide coating formed over each surface electrode structure of the semiconductor device; and a flow cell lid over the substrate and defining a flow cell between the flow cell lid and the substrate; and wherein the saccharide coating is configured to be removed prior to use of the sensor apparatus.
A modular battery system for a material handling vehicle , the modular battery system comprising: a battery assembly including a battery base configured to support a power source , the battery base including a battery attachment interface; a counterweight assembly including a counterweight base with a counterweight attachment interface configured to slidably engage the battery attachment interface to selectively secure the battery assembly to the counterweight assembly ; and a retention pin configured to be manually engaged with a first opening in the battery attachment interface and a second opening in the counterweight attachment interface to restrict movement of the battery assembly relative to the counterweight assembly . a battery assembly including a battery base configured to support a power source , the battery base including a battery attachment interface; a counterweight assembly including a counterweight base with a counterweight attachment interface configured to slidably engage the battery attachment interface to selectively secure the battery assembly to the counterweight assembly ; and a retention pin configured to be manually engaged with a first opening in the battery attachment interface and a second opening in the counterweight attachment interface to restrict movement of the battery assembly relative to the counterweight assembly .
Fibre-laying machine for producing fibrous non-wovens, comprising a tool table for infeeding a workpiece along an infeed direction (x); a depositing head for applying fibres to the workpiece ; and a fibre-supply unit for infeeding a plurality of fibre strands to the depositing head ; wherein the plurality of fibre strands on the depositing head are unified so as to form a fibrous web to be applied to the workpiece ; wherein the depositing head in a laying direction (y) is movable relative to the fibre-supply unit , wherein a clamping device for releasably clamping the fibre strands is disposed on the depositing head , wherein laying of a portion of the fibrous web on the workpiece takes place once the fibre strands by means of the depositing head have been advanced by an advancing stroke such that no fibres are drawn from the fibre-supply unit while the fibres are being applied to the workpiece .
A light barrier arrangement for detecting objects in a monitoring area, having a transmitting unit which has at least one transmitter emitting light beams , having a receiving unit which has at least one receiver receiving light beams , and having an evaluation unit in which an object detection signal is generated as a function of received signals from the receiver , a transmitter arrangement being integrated in the transmitting unit and/or in the receiving unit , which emits visible pilot light beams in a predetermined direction relative to beam axes of the transmitter or receiver and which forms a means for aligning the transmitter unit relative to the receiver unit , characterised in that said or each transmitter arrangement has a transmitter element emitting pilot light beams and an optical element , the transmitting element being arranged in the focus of the optical element , and in that an optical arrangement is assigned to the transmitter or transmitters on the one hand and to the receiver or receivers on the other hand, the optical element of said at least one transmitter arrangement being a component of an optical arrangement.
A method for testing a vibration damper of a motor vehicle in the installed state, comprising the following steps: setting start values of a damping constant kA, a spring rate cA for a wheel of a motor vehicle , and a motor vehicle body mass mA; inducing a vertical vibration of the motor vehicle by means of a defined excitation of one wheel on an axle of the motor vehicle ; optically detecting the positions of the wheel sR real and the body shell of the motor vehicle at a plurality of detection instants during the vibration; determining a theoretical body vibration excursion sA Modell by a simulation model based on the differential equation mA ⋅ s ̈ A Modell + kA ⋅ s ̇ A Modell − s ̇ R real + cA ⋅ sA Modell − sR real = 0 using as parameters the position of said one wheel sR real , the body mass mA for the respective wheel of the motor vehicle , the damping constant kA and the spring rate cA; minimizing the error function Δ = ∑ i = 1 n sA real , i − sA Modell , i 2 obtained from the deviations between the theoretical body vibration excursion sA Modell and the observed body vibration excursion sA real at said detection instants, and determining the damping constant kA, the spring rate cA and the body mass mA therefrom; and determining the damping measure θ = kA 2 cA ⋅ mA of the vibration damper. setting start values of a damping constant kA, a spring rate cA for a wheel of a motor vehicle , and a motor vehicle body mass mA; inducing a vertical vibration of the motor vehicle by means of a defined excitation of one wheel on an axle of the motor vehicle ; optically detecting the positions of the wheel sR real and the body shell of the motor vehicle at a plurality of detection instants during the vibration; determining a theoretical body vibration excursion sA Modell by a simulation model based on the differential equation mA ⋅ s ̈ A Modell + kA ⋅ s ̇ A Modell − s ̇ R real + cA ⋅ sA Modell − sR real = 0 using as parameters the position of said one wheel sR real , the body mass mA for the respective wheel of the motor vehicle , the damping constant kA and the spring rate cA; minimizing the error function Δ = ∑ i = 1 n sA real , i − sA Modell , i 2 obtained from the deviations between the theoretical body vibration excursion sA Modell and the observed body vibration excursion sA real at said detection instants, and determining the damping constant kA, the spring rate cA and the body mass mA therefrom; and determining the damping measure θ = kA 2 cA ⋅ mA of the vibration damper.
A broadband antenna , comprising: a matching network ; a conductive layer being arranged on a first substrate ; a ground layer being arranged on a second substrate ; a shorting via , the shorting via connecting the conductive layer to the ground layer through the first and the second substrate ; a first loop, the first loop having a first port and a second port , the first loop connected at the first port to the matching network and connected at the second port to the shorting via , the first loop including a first circuit element, the first loop being tunable by adjusting at least one of the first circuit element, a shape of the first loop, a shape of the conductive layer , the matching network and a position of the shorting via ; and a second loop, having a third port and a fourth port , the second loop connected at the third port to the matching network and connected at the fourth port to the shorting via , the second loop including a second circuit element, the second loop being tunable by adjusting at least one of the second circuit element, a shape of the second loop, a shape of the conductive layer , the matching network and the position of the shorting via . a matching network ; a conductive layer being arranged on a first substrate ; a ground layer being arranged on a second substrate ; a shorting via , the shorting via connecting the conductive layer to the ground layer through the first and the second substrate ; a first loop, the first loop having a first port and a second port , the first loop connected at the first port to the matching network and connected at the second port to the shorting via , the first loop including a first circuit element, the first loop being tunable by adjusting at least one of the first circuit element, a shape of the first loop, a shape of the conductive layer , the matching network and a position of the shorting via ; and a second loop, having a third port and a fourth port , the second loop connected at the third port to the matching network and connected at the fourth port to the shorting via , the second loop including a second circuit element, the second loop being tunable by adjusting at least one of the second circuit element, a shape of the second loop, a shape of the conductive layer , the matching network and the position of the shorting via .
A modified-release composition comprising orlistat and acarbose, comprising individually distinct parts with different release patterns: a) a first part, G1, comprising acarbose and one or more of: a hydrophobic polymer, a lipid and a wax, and G1 comprises from 5 to 70% w/w of the total dose of acarbose; b) a second part, G2, comprising acarbose, orlistat, an enteric polymer and a surfactant, and G2 comprises from 30 to 95% w/w of the total dose of acarbose, and from 10 to 90% w/w of the total dose of orlistat; and c) a third part, G3, comprising orlistat and one or more of a surfactant and a water-soluble polymer, and G3 comprises from 10 to 80% w/w of the total dose of orlistat; and the total concentration of acarbose and orlistat, respectively, in the composition is 100% w/w. a) a first part, G1, comprising acarbose and one or more of: a hydrophobic polymer, a lipid and a wax, and G1 comprises from 5 to 70% w/w of the total dose of acarbose; b) a second part, G2, comprising acarbose, orlistat, an enteric polymer and a surfactant, and G2 comprises from 30 to 95% w/w of the total dose of acarbose, and from 10 to 90% w/w of the total dose of orlistat; and c) a third part, G3, comprising orlistat and one or more of a surfactant and a water-soluble polymer, and G3 comprises from 10 to 80% w/w of the total dose of orlistat; and the total concentration of acarbose and orlistat, respectively, in the composition is 100% w/w.
A tandem rotor disk apparatus comprising: a rotor disk body concentric about an axis (A-A'); a first blade extending radially outward of the rotor disk body ; and a second blade extending radially outward of the rotor disk body ; wherein the first blade is offset from the second blade in a direction parallel to the axis (A-A'), characterized in that one of the first blade and the second blade is coupled to the rotor disk body and the other of the first blade and the second blade is integrally formed with the rotor disk body , wherein the one of the first blade and the second blade is coupled via tangential engagement to the rotor disk body . a rotor disk body concentric about an axis (A-A'); a first blade extending radially outward of the rotor disk body ; and a second blade extending radially outward of the rotor disk body ; wherein the first blade is offset from the second blade in a direction parallel to the axis (A-A'), characterized in that one of the first blade and the second blade is coupled to the rotor disk body and the other of the first blade and the second blade is integrally formed with the rotor disk body , wherein the one of the first blade and the second blade is coupled via tangential engagement to the rotor disk body .
Assembly for a turbomachine including an exhaust cone and an exhaust case including an annular inner shell , the exhaust cone and the exhaust case extending about an axis (X), the exhaust cone including a radially outer skin extending in the projection of said inner shell and a radially inner skin defining a chamber with the outer skin , the upstream end of the cone being fastened to the inner shell via connecting lugs , the assembly including an annular fairing located radially outside said lugs and extending axially between the inner shell of the exhaust case and the outer skin of the exhaust cone , said fairing extending in the projection of said inner shell and of the outer skin , characterized in that the fairing is segmented and consists of several angular segments arranged circumferentially end to end, and in that it includes an annular seal extending radially between the downstream end of the fairing and the cone ..
A system for determining if a two-dimensional matrix symbol is decodable without using a fixed pattern, the two-dimensional matrix symbol including data modules to be located without using a fixed pattern and each data module having a module value and a module position, the system comprising: an imaging device , the imaging device configured to acquire an image containing the two-dimensional matrix symbol ; a processor , the processor operatively coupled to the imaging device , the processor configured to execute a data reading algorithm, wherein the data reading algorithm receives the image, characterized in that the data reading algorithm locates at least a portion of the data modules within the image, fits a model of at least a portion of the module positions from the image, extrapolates the model resulting in predicted module positions, determines module values from the image at the predicted module positions, and extracts a module value matrix from the module values, wherein the data reading algorithm includes a frequency-domain analysis. an imaging device , the imaging device configured to acquire an image containing the two-dimensional matrix symbol ; a processor , the processor operatively coupled to the imaging device , the processor configured to execute a data reading algorithm, wherein the data reading algorithm receives the image, characterized in that the data reading algorithm locates at least a portion of the data modules within the image, fits a model of at least a portion of the module positions from the image, extrapolates the model resulting in predicted module positions, determines module values from the image at the predicted module positions, and extracts a module value matrix from the module values, wherein the data reading algorithm includes a frequency-domain analysis.
Friction clutch for a drive train of a motor vehicle, having a cover (), on which a lever spring is mounted via a lever spring bolt , the lever spring bolt having a shank which has a head which is enlarged with respect to the external diameter of the shank , and the shank being surrounded at least partially by a bush, the bush being fixed in a non-positive or positively locking manner on the shank or on the head , characterized in that a thread is used between the inner side of the bush and the outer side of the shank , or the bush comprising magnetizable material which interacts with magnetizable material of the shank and/or the head in a manner which utilizes a magnetic force, or the shank has a non-positive reinforcing element which is separate from it and is used between the inner side of the bush and the outer side of the shank , or an integrally joined connection is realised by means of a welded connection, or the head is engaged around by bush material.
Vehicle comprising an engine , an electric power supply circuit and a chassis , the chassis representing the electric mass of the vehicle, the electric power supply circuit including: - at least a first alternator and a second alternator , - at least one battery set (30; 30, 32), - at least two electric loads (L1, L2), the alternators being connected in series by an electric link between the negative pole (N14) of the first alternator and the positive pole (P15) of the second alternator, the vehicle chassis being electrically connected to the electric link, the positive pole (P14) of the first alternator being connected to the first electric load (L1), the negative pole (N15) of the second alternator being connected to the second electric load (L2); characterized in that said first alternator is configured to be driven by a motor driven shaft of the engine such that the motor driven shaft rotates at a first frequency (F1) depending on a speed of the engine and in that a set of pulleys is mounted between the motor driven shaft and a driven shaft of the second alternator in order to drive the second alternator at a frequency different from said first frequency (F1). - at least a first alternator and a second alternator , - at least one battery set (30; 30, 32), - at least two electric loads (L1, L2),
Apparatus for integrating, in or on a wall, system parts for detecting deposits on lateral inner surfaces of the walls which are covered by a medium from which the deposits are deposited, having a sensor which is composed of a plurality of components and is inserted into the lateral inner surfaces of the wall in a flush manner, and an evaluation unit , to which the sensor forwards its signals and which determines the degree of deposit formation by means of a comparison with reference data, wherein the sensor comprises two components which are two temperature-dependent resistors which are in the form of pins, are parallel next to one another and are at a distance from one another and can project into the medium by way of a tip, wherein the first component is used to locally heat the medium and to measure the temperature of the medium in the region of this component, and the second component is used to measure the temperature of the medium at a location which is not heated by the sensor , and measurement data without deposit formation are used as reference data.
An apparatus for evacuating persons from an elevator car (5.1, 5.2), comprising - the elevator car (5.1, 5.2), - a tread element , which tread element defines a lower end of an evacuation passage in the elevator car (5.1, 5.2), and - a walkway comprising a first end, it being possible to attach, preferably hook, the walkway onto the tread element by means of the first end, characterized in that the apparatus comprises at least one rung (47.0, 48.0, 49.0) that can be attached above the tread element , the rung (47.0, 48.0, 49.0) being designed/used as a step, and it being possible to alternatively attach, preferably hook, the first end of the walkway onto the rung (47.0, 48.0, 49.0) rather than onto the tread element . - the elevator car (5.1, 5.2), - a tread element , which tread element defines a lower end of an evacuation passage in the elevator car (5.1, 5.2), and - a walkway comprising a first end, it being possible to attach, preferably hook, the walkway onto the tread element by means of the first end, characterized in that the apparatus comprises at least one rung (47.0, 48.0, 49.0) that can be attached above the tread element , the rung (47.0, 48.0, 49.0) being designed/used as a step, and it being possible to alternatively attach, preferably hook, the first end of the walkway onto the rung (47.0, 48.0, 49.0) rather than onto the tread element .
An agitator mill for treating flowable material to be ground, comprising - a grinding container and a grinding chamber which is bounded by a container wall of the grinding container and is at least partially filled with grinding bodies, and - an agitator with a rotor rotatable about a central longitudinal axis arranged substantially vertically during operation, and - an inner stator arranged inside the rotor , and - wherein a ground material discharge channel is formed between the rotor and an outer wall of the inner stator , through which the material to be ground is passed through a grinding body separating device in the direction of a discharge pipe , wherein a ground material discharge chamber is formed downstream of the grinding body separating device in the direction of flow of the material to be ground, - characterized in that a device for reducing the volume of the ground material discharge chamber is arranged in the ground material discharge chamber, wherein the device for reducing the volume closes in a product-tight manner with a discharge bottom of the agitator mill and has an overflow height h of the product in the vertical direction, wherein the height H of the grinding body separating device is greater than the overflow height h, wherein h is greater than or equal to 0.85 H. - a grinding container and a grinding chamber which is bounded by a container wall of the grinding container and is at least partially filled with grinding bodies, and - an agitator with a rotor rotatable about a central longitudinal axis arranged substantially vertically during operation, and - an inner stator arranged inside the rotor , and - wherein a ground material discharge channel is formed between the rotor and an outer wall of the inner stator , through which the material to be ground is passed through a grinding body separating device in the direction of a discharge pipe , wherein a ground material discharge chamber is formed downstream of the grinding body separating device in the direction of flow of the material to be ground, - characterized in that a device for reducing the volume of the ground material discharge chamber is arranged in the ground material discharge chamber, wherein the device for reducing the volume closes in a product-tight manner with a discharge bottom of the agitator mill and has an overflow height h of the product in the vertical direction, wherein the height H of the grinding body separating device is greater than the overflow height h, wherein h is greater than or equal to 0.85 H. wherein the device for reducing the volume closes in a product-tight manner with a discharge bottom of the agitator mill and has an overflow height h of the product in the vertical direction, wherein the height H of the grinding body separating device is greater than the overflow height h, wherein h is greater than or equal to 0.85 H.