mhurhangee/patent-ind-claim-en huggingface dataset:
An axle drive unit for an electric power-driven vehicle with at least one drive axle , comprising at least one electric motor for generating drive torque and at least one transmission for transmitting the drive torque to the drive axle , wherein the electric motor and the transmission form an assembly , and power electronics for supplying power to the at least one electric motor forms an integral part of the assembly , characterized in that an inductive charging receiver for a battery system is integrated into the assembly , wherein the power electronics is electrically connected to the inductive charging receiver and adapted to rectify an AC voltage that can be induced into the inductive charging receiver.
A process for forming an α,β-unsaturated carboxylic acid or a salt thereof, the process comprising: a) contacting in any order i) a transition metal precursor compound comprising at least one first ligand; ii) optionally, at least one second ligand; iii) an olefin; iv) carbon dioxide (CO 2 ); v) a diluent; and vi) a metal-treated chemically-modified solid oxide to provide a reaction mixture, wherein the chemically-modified solid oxide comprises a sulfur oxoacid anion-modified solid oxide, a phosphorus oxoacid anion-modified solid oxide, or a halide ion-modified solid oxide; and b) subjecting the reaction mixture to reaction conditions suitable to form the α,β-unsaturated carboxylic acid or the salt thereof; wherein the transition metal precursor compound is present in the reaction mixture at a concentration of less than 0.2 mM (millimolar). a) contacting in any order i) a transition metal precursor compound comprising at least one first ligand; ii) optionally, at least one second ligand; iii) an olefin; iv) carbon dioxide (CO 2 ); v) a diluent; and vi) a metal-treated chemically-modified solid oxide to provide a reaction mixture, wherein the chemically-modified solid oxide comprises a sulfur oxoacid anion-modified solid oxide, a phosphorus oxoacid anion-modified solid oxide, or a halide ion-modified solid oxide; and i) a transition metal precursor compound comprising at least one first ligand; ii) optionally, at least one second ligand; iii) an olefin; iv) carbon dioxide (CO 2 ); v) a diluent; and vi) a metal-treated chemically-modified solid oxide to provide a reaction mixture, wherein the chemically-modified solid oxide comprises a sulfur oxoacid anion-modified solid oxide, a phosphorus oxoacid anion-modified solid oxide, or a halide ion-modified solid oxide; and b) subjecting the reaction mixture to reaction conditions suitable to form the α,β-unsaturated carboxylic acid or the salt thereof;
A wall outlet, comprising a panel , and a bottom cover which is provided behind the panel ; wherein the panel provides a power slot and two USB charging sockets ; an accommodating space formed by the panel and the bottom cover provides a USB charging device, a live wire metallic strip , a null wire metallic strip and an earth wire metallic strip ; the USB charging device further comprises two USB ports , and a USB charging circuit board which is connected to the USB ports ; the two USB ports correspond to the two USB charging sockets in terms of location, respectively; the power slot provides through-holes respectively which are corresponding to the live wire metallic strip , the null wire metallic strip and the earth wire metallic strip in terms of location and shape; characterised in that the center of the power slot deviates from the center of the panel by 2-5 mm towards the lower end such that the live wire metallic strip , the null wire metallic strip and the earth wire metallic strip are all moved downwards; the two USB charging sockets are provided inclined at two upper corners of the panel respectively, a USB bracket is provided on top of the earth wire metallic strip , appearing in "II" shape overall, and a step is provided at the contact part of the earth wire metallic strip and the USB bracket to make them adapt to each other; the USB charging circuit board comprises a first circuit board and a second circuit board , which are connected to each other, two first circuit boards are provided to connect to the two USB ports respectively, and are inclined at the two ends of the upper part of the USB bracket , the second circuit board provides a transformer , wherein the second circuit board and the transformer are located at the upper part of the live wire metallic strip and the null wire metallic strip ; contact position between external power and the live wire metallic strip is provided in the backside; and the USB charging socket is provided above the power slot .
A horological component comprising a first opening intended to receive a member when the latter is driven into the first opening, the component comprising an axis (A1; 1A1) centered in the first opening and at least two structures (10; 110) intended to receive the member, each receiving structure comprising: - a receiving element (4b; 14b) intended to come into contact with the member and extending at least substantially orthoradially relative to the axis (A1; 1A1), - a first connecting element (4c; 14c) extending at least substantially radially relative to the axis (A1; 1A1) from a first end of the receiving element, - a second connecting element (4d; 14d) extending at least substantially radially relative to the axis (A1; 1A1) from a second end of the receiving element, - a first elastically deformable element (4a; 14a) extending at least substantially orthoradially relative to the axis (A1; 1A1), and - a second elastically deformable element (4a'; 14a') extending at least substantially orthoradially relative to the axis (A1; 1A1), the first connecting element mechanically connecting the first end of the receiving element to the first elastically deformable element and the second connecting element mechanically connecting the second end of the receiving element to the second elastically deformable element, characterized in that a same elastically deformable element constitutes the first elastically deformable element and the second elastically deformable element of two adjacent receiving structures. - a receiving element (4b; 14b) intended to come into contact with the member and extending at least substantially orthoradially relative to the axis (A1; 1A1), - a first connecting element (4c; 14c) extending at least substantially radially relative to the axis (A1; 1A1) from a first end of the receiving element, - a second connecting element (4d; 14d) extending at least substantially radially relative to the axis (A1; 1A1) from a second end of the receiving element, - a first elastically deformable element (4a; 14a) extending at least substantially orthoradially relative to the axis (A1; 1A1), and - a second elastically deformable element (4a'; 14a') extending at least substantially orthoradially relative to the axis (A1; 1A1),
A power machine , comprising: a machine frame ; first (305-1) and second (305-2) track frames each positioned on different sides of the machine frame; first (340-1) and second (340-2) front mounting structures each mounting one of the first and second track frames to the machine frame, each of the first and second front mounting structures comprising: a front torsion shaft coupled to the machine frame; a front arm coupled to the front torsion shaft, the front arm oriented to extend forward and upward from the front torsion shaft ; and a front axle coupled between the front arm and the corresponding first or second track frame (305-1; 350-2); and first (350-1) and second (350-2) rear mounting structures each mounting one of the first and second track frames to the machine frame rearward of the front mounting structures, each of the first and second rear mounting structures comprising: a rear torsion shaft coupled to the machine frame; a rear arm coupled to the rear torsion shaft; a rear axle coupled to the rear arm ; a link coupled to the rear axle ; and a pin coupled between the link and the corresponding first or second track frame. a machine frame ; first (305-1) and second (305-2) track frames each positioned on different sides of the machine frame; first (340-1) and second (340-2) front mounting structures each mounting one of the first and second track frames to the machine frame, each of the first and second front mounting structures comprising: a front torsion shaft coupled to the machine frame; a front arm coupled to the front torsion shaft, the front arm oriented to extend forward and upward from the front torsion shaft ; and a front axle coupled between the front arm and the corresponding first or second track frame (305-1; 350-2); and a front torsion shaft coupled to the machine frame; a front arm coupled to the front torsion shaft, the front arm oriented to extend forward and upward from the front torsion shaft ; and a front axle coupled between the front arm and the corresponding first or second track frame (305-1; 350-2); and first (350-1) and second (350-2) rear mounting structures each mounting one of the first and second track frames to the machine frame rearward of the front mounting structures, each of the first and second rear mounting structures comprising: a rear torsion shaft coupled to the machine frame; a rear arm coupled to the rear torsion shaft; a rear axle coupled to the rear arm ; a link coupled to the rear axle ; and a pin coupled between the link and the corresponding first or second track frame. a rear torsion shaft coupled to the machine frame; a rear arm coupled to the rear torsion shaft; a rear axle coupled to the rear arm ; a link coupled to the rear axle ; and a pin coupled between the link and the corresponding first or second track frame.
Method for carrying out distance measurements between the vehicles (PV1, PV2, PV3, PL) of a convoy, in which the distances (d) between the vehicles (PV1, PV2, PV3, PL) of the convoy are controlled automatically, wherein for distance measurement a UWB ranging method, corresponding to ultra-wide band ranging, is used, in which, per individual distance measurement, a message is sent to a vehicle in front or a vehicle behind (PV1, PV2, PV3, PL) which, following receipt of this message, sends an immediate response back to the first vehicle (PV1, PV2, PV3, PL), characterized in that coordination of the time sequence of the individual distance measurements between each two vehicles (PV1, PV2, PV3, PL) of the convoy is carried out such that a planned time is assigned to each individual distance measurement at which it is to take place starting from a coordination event, wherein the coordination event corresponds to the transmission of a distance measurement coordination message (SM) from a control station or a vehicle (PV1, PV2, PV3, PL) of the convoy, wherein starting time points for the individual distance measurements between the vehicles (PV1, PV2, PV3, PL) of the convoy are coordinated so that the individual distance measurements are carried out in succession, wherein the individual distance measurements are carried out starting from the rear end of the convoy towards the front or starting from the front end of the convoy towards the rear.
Container management system with a number of containers , to which electrically readable codings characterising these are assigned, and with a number of emptying/filling stations constructed to empty a liquid from the container or feed a liquid thereto, characterised in that assigned to the emptying/filling stations are electronic reading units by means of which codings of containers are readable, data read by electronic reading units are fed to a cloud-based computer system configured for storage and evaluation of the data, and control commands for emptying and/or filling processes are generated by means of the cloud-based computer system in dependence on data transmitted by electronic reading units, wherein the control commands are issued by the cloud-based computer system to control units .
Detection device for detecting properties of a medium or the filling level of the medium in a vessel , having - a sensor unit through which the medium flows, having at least one pressure sensor for detecting pressure values of the medium in the sensor unit and for outputting a detection signal, and - a control device which is configured to receive the detection signal of the sensor unit and to form pressure characteristic curves (K1, K2) of the determined pressure course in the sensor unit , wherein - the sensor unit can be inserted into a process system (P) in which the medium is located, and the process system (P) has at least the vessel for receiving the medium as well as a pump , which is intermittently operated, for removing the medium from the vessel , - the sensor unit can be inserted between the vessel and the pump , and wherein - the determined pressure course comprises pressure values of the medium in the sensor unit during operation of the pump and outside operation of the pump . - a sensor unit through which the medium flows, having at least one pressure sensor for detecting pressure values of the medium in the sensor unit and for outputting a detection signal, and - a control device which is configured to receive the detection signal of the sensor unit and to form pressure characteristic curves (K1, K2) of the determined pressure course in the sensor unit , wherein - the sensor unit can be inserted into a process system (P) in which the medium is located, and the process system (P) has at least the vessel for receiving the medium as well as a pump , which is intermittently operated, for removing the medium from the vessel , - the sensor unit can be inserted between the vessel and the pump , and wherein - the determined pressure course comprises pressure values of the medium in the sensor unit during operation of the pump and outside operation of the pump .
A method for locking/unlocking a removable module in/from a fixed mounting plate having a wall for supporting said removable module that has two tenons each provided with a hole , these tenons extending out from the removable module so that they can be inserted into openings formed in the mounting plate , this method consisting, in the locking phase, in: - placing the removable module on the wall of the mounting plate , inserting the two tenons into the openings in the support wall of the mounting plate ; - activating a lever with eccentric cams toward a locked position, this lever being mounted in rotation between the openings beneath the support wall between an unlocked position and the locked position; - driving, by this rotation, two pins in opposite translational movements, each pin cooperating with an eccentric cam while being secured to an extension that extends transversely to the support wall such that the extensions pass through the holes in the tenons of the removable module perpendicularly, and - reversibly blocking the lever in the locked position; and, in the unlocking phase, in: - unblocking the lever from its locked position; - activating the reverse rotation of the lever until it is in the unlocked position so as to cause the extensions to be withdrawn from the holes via the reverse translation of the pins , and - removing the module from the mounting plate . - placing the removable module on the wall of the mounting plate , inserting the two tenons into the openings in the support wall of the mounting plate ; - activating a lever with eccentric cams toward a locked position, this lever being mounted in rotation between the openings beneath the support wall between an unlocked position and the locked position; - driving, by this rotation, two pins in opposite translational movements, each pin cooperating with an eccentric cam while being secured to an extension that extends transversely to the support wall such that the extensions pass through the holes in the tenons of the removable module perpendicularly, and - reversibly blocking the lever in the locked position; and, in the unlocking phase, in: - unblocking the lever from its locked position; - activating the reverse rotation of the lever until it is in the unlocked position so as to cause the extensions to be withdrawn from the holes via the reverse translation of the pins , and - removing the module from the mounting plate . - unblocking the lever from its locked position; - activating the reverse rotation of the lever until it is in the unlocked position so as to cause the extensions to be withdrawn from the holes via the reverse translation of the pins , and - removing the module from the mounting plate .
An image forming apparatus comprising: a circulating member that is a part of a transport path (A) that transports a recording medium (P); a holding member that is fixed to the circulating member , configured to circulate, and configured to hold a leading end portion (P1) of the recording medium (P); an image forming section that is configured to form an image on the recording medium (P) at an image forming position in a circulation path (D) of the circulating member ; and a feeding section that is configured to feed out the recording medium (P) to a holding position where the holding member holds the leading end portion (P1) of the recording medium (P), the image forming apparatus being characterized in that : when a circulation velocity Vg is defined as a velocity at which the circulating member circulates the holding member , a transport velocity of the recording medium (P) is reduced from a first transport velocity V1, which is higher than the circulation velocity Vg, to a second transport velocity V2, which is lower than the first transport velocity V1, before the leading end portion (P1) of the recording medium (P) enters the holding position. a circulating member that is a part of a transport path (A) that transports a recording medium (P); a holding member that is fixed to the circulating member , configured to circulate, and configured to hold a leading end portion (P1) of the recording medium (P); an image forming section that is configured to form an image on the recording medium (P) at an image forming position in a circulation path (D) of the circulating member ; and a feeding section that is configured to feed out the recording medium (P) to a holding position where the holding member holds the leading end portion (P1) of the recording medium (P), the image forming apparatus being characterized in that : when a circulation velocity Vg is defined as a velocity at which the circulating member circulates the holding member , a transport velocity of the recording medium (P) is reduced from a first transport velocity V1, which is higher than the circulation velocity Vg, to a second transport velocity V2, which is lower than the first transport velocity V1, before the leading end portion (P1) of the recording medium (P) enters the holding position.
An imaging apparatus comprising: an image sensor ; an optical system ; a controlling unit configured to change a tilt angle between the image sensor and a plane orthogonal to an optical axis of the optical system by tilting at least one of the image sensor and the optical system , and to set a plurality of areas in an image (301-1, 302-1, 701-1, 702-1) captured by the image sensor ; an evaluation value acquiring unit configured to acquire for each area a plurality of area contrast evaluation values by changing the tilt angle through the controlling unit ; an evaluation area determining unit configured to acquire, for each of the plurality of areas , an optimal area tilt angle corresponding to a maximum area contrast evaluation value in the area, and to determine an evaluation area (701-4, 702-4, 1101-1, 1101-2) comprising the most areas with coincident optimal area tilt angles; and a tilt angle determining unit configured to determine a target tilt angle based on the coincident optimal area tilt angles of the evaluation area (701-4, 702-4, 1101-1, 1101-2); wherein the controlling unit is further configured to change the tilt angle based on the target tilt angle. an image sensor ; an optical system ; a controlling unit configured to change a tilt angle between the image sensor and a plane orthogonal to an optical axis of the optical system by tilting at least one of the image sensor and the optical system , and to set a plurality of areas in an image (301-1, 302-1, 701-1, 702-1) captured by the image sensor ; to change a tilt angle between the image sensor and a plane orthogonal to an optical axis of the optical system by tilting at least one of the image sensor and the optical system , and to set a plurality of areas in an image (301-1, 302-1, 701-1, 702-1) captured by the image sensor ; an evaluation value acquiring unit configured to acquire for each area a plurality of area contrast evaluation values by changing the tilt angle through the controlling unit ; an evaluation area determining unit configured to acquire, for each of the plurality of areas , an optimal area tilt angle corresponding to a maximum area contrast evaluation value in the area, and to determine an evaluation area (701-4, 702-4, 1101-1, 1101-2) comprising the most areas with coincident optimal area tilt angles; and to acquire, for each of the plurality of areas , an optimal area tilt angle corresponding to a maximum area contrast evaluation value in the area, and to determine an evaluation area (701-4, 702-4, 1101-1, 1101-2) comprising the most areas with coincident optimal area tilt angles; and a tilt angle determining unit configured to determine a target tilt angle based on the coincident optimal area tilt angles of the evaluation area (701-4, 702-4, 1101-1, 1101-2); wherein the controlling unit is further configured to change the tilt angle based on the target tilt angle.
A cutting tool, in particular a milling cutter, boring tool or reamer, comprising a tool head , which can rotate about its central axis and comprises a front end face and a circumferential surface , a plurality of cutting elements and associated flutes that are arranged on the circumferential surface so as to be distributed in the circumferential direction, and a channel system , which runs through the tool head and supplies coolant to the cutting elements , wherein the end face of the tool head is provided with coolant grooves , each of which leads from an outlet of the channel system to a mouth in a flute , and wherein the longitudinal openings in the coolant grooves are covered by a baffle disk that is fixed to the end face of the tool head , characterized in that the baffle disk is formed by a toothed ring, the radially projecting toothed segments of which cover the coolant grooves .