mhurhangee/patent-ind-claim-en huggingface dataset:
A spindle-mounting head for a machine tool, comprising: - a supporting body comprising a first and a second arm protruding from a base portion and defining a forked structure; said first arm protruding up to its own end portion ; - a tool-mounting spindle rotatably connected to the first arm within the forked structure to rotate about an axis of oscillation (A); the spindle comprising a tool-mounting body rotatable about its own machining axis (B) at right angles to the axis of oscillation (A); - movement means operatively interposed between the first arm and the spindle to put it in rotation about the axis of oscillation (A); the movement means comprising at least one gear constrained to the spindle and coaxial to the axis of oscillation (A); wherein the movement means comprise a first and a second motor both housed in the first arm and coupled to the gear at, respectively, a first and a second angular position in order to transmit rotary motion to the gear about the axis of oscillation (A); the movement means also comprising a control unit associated with the first and the second motor and configured to control the motors in a complementary fashion to move the gear and at the same time reduce the clearances, characterised in that it comprises a motion transmission unit operatively associated with the tool mounting body to put it in rotation about its own machining axis (B); the transmission unit being housed in the second arm of the supporting body . - a supporting body comprising a first and a second arm protruding from a base portion and defining a forked structure; said first arm protruding up to its own end portion ; - a tool-mounting spindle rotatably connected to the first arm within the forked structure to rotate about an axis of oscillation (A); the spindle comprising a tool-mounting body rotatable about its own machining axis (B) at right angles to the axis of oscillation (A); - movement means operatively interposed between the first arm and the spindle to put it in rotation about the axis of oscillation (A); the movement means comprising at least one gear constrained to the spindle and coaxial to the axis of oscillation (A);
Ground vehicle comprising a supercharged internal combustion engine equipped with after treatment system (ATS) and an exhaust gas recirculation system, the engine (E) comprising - an intake manifold , - exhaust manifolds , at least one of said exhaust manifolds being connected to the intake manifold to recirculate an exhaust gas flow rate (EGR) according to predetermined operating conditions (rpm, T) of the engine (E), - means of injection, in the ATS, of an aqueous additive for reducing pollutant emissions, - control unit configured to control continuously said exhaust gas recirculation and said aqueous additive injection, maximizing a distance to be covered based on residual quantities of the fuel and of the additive; characterized in that said control unit is configured, in case of maximum power required to the engine, to regulate said aqueous additive injection at a maximum saturation level, and also to regulate said exhaust gas recirculation as a function of an advance value of the fuel injection time in cylinders of the internal combustion engine. - an intake manifold , - exhaust manifolds , at least one of said exhaust manifolds being connected to the intake manifold to recirculate an exhaust gas flow rate (EGR) according to predetermined operating conditions (rpm, T) of the engine (E), - means of injection, in the ATS, of an aqueous additive for reducing pollutant emissions, - control unit configured to control continuously said exhaust gas recirculation and said aqueous additive injection, maximizing a distance to be covered based on residual quantities of the fuel and of the additive;
Method for determining the gas content in the medium flowing through a Coriolis mass flowmeter , wherein the Coriolis mass flowmeter has at least one measuring tube , at least one oscillation generator , at least two oscillation sensors and at least one control and evaluation unit , wherein the method is carried out during operation of the Coriolis mass flowmeter , wherein in a ρ 100 -step the density value ρ 100 of the gasless medium is determined and wherein in a ρ mess step the density value ρ mess of the medium flowing through the measuring tube is measured, characterized in that in a GVQ step the density value ρ 100 of the gasless medium and the density value ρ mess of the medium flowing through the measuring tube are used to calculate a measure GVQ for the gas fraction of the medium flowing through the measuring tube , and that the measure GVQ is output for the gas fraction of the medium flowing through the measuring tube . that in a GVQ step the density value ρ 100 of the gasless medium and the density value ρ mess of the medium flowing through the measuring tube are used to calculate a measure GVQ for the gas fraction of the medium flowing through the measuring tube , and that the measure GVQ is output for the gas fraction of the medium flowing through the measuring tube .
A mobile terminal comprising: a body of the mobile terminal configured to be wearable on a part of a user's body; a wireless communication unit configured to connect to an e-Call system of a vehicle when the user who wears the mobile terminal enters the vehicle; a detecting unit configured to detect a biometric signal of the user that is sensed by at least one sensor provided in the body of the mobile terminal; and a controller configured to: receive information related to a state of the vehicle when the mobile terminal is connected to the e-Call system , based on an accident event of the vehicle being detected from the received information related to the state of the vehicle, analyze the detected biometric signal to obtain state information of the user, and when a predetermined condition is satisfied as a result of the analysis, transmit the obtained state information of the user and the information related to the state of the vehicle to a call center . a body of the mobile terminal configured to be wearable on a part of a user's body; a wireless communication unit configured to connect to an e-Call system of a vehicle when the user who wears the mobile terminal enters the vehicle; a detecting unit configured to detect a biometric signal of the user that is sensed by at least one sensor provided in the body of the mobile terminal; and a controller configured to: receive information related to a state of the vehicle when the mobile terminal is connected to the e-Call system , based on an accident event of the vehicle being detected from the received information related to the state of the vehicle, analyze the detected biometric signal to obtain state information of the user, and when a predetermined condition is satisfied as a result of the analysis, transmit the obtained state information of the user and the information related to the state of the vehicle to a call center . receive information related to a state of the vehicle when the mobile terminal is connected to the e-Call system , based on an accident event of the vehicle being detected from the received information related to the state of the vehicle, analyze the detected biometric signal to obtain state information of the user, and when a predetermined condition is satisfied as a result of the analysis, transmit the obtained state information of the user and the information related to the state of the vehicle to a call center .
A method (100") for evaluating a weight of a vehicle, the method comprises: obtaining during a learning period and by vehicle sensors, vehicle sensor measurements regarding driving sessions of the vehicle, wherein the vehicle sensor measurement comprise (a) height measurements of paths related to the driving sessions, (b) fuel consumption measurements related to the driving sessions, (c) length measurements of the of road segments related to the driving sessions; and (d) velocity measurements related to the driving sessions; and calculating, based on the vehicle sensor measurements, an evaluated weight of the vehicle; wherein the calculating is based on values of energy coefficients that are indicative of energy wasted by the vehicle; characterized in that the calculating comprises (a) searching for values of the energy coefficients that provide at least one distribution related to weight estimates of the vehicle, the at least one distribution fulfills at least one predefined statistical significance criterion; and (b) determining weight estimates for each path segment of the plurality of path segments and for different values of the energy coefficients. obtaining during a learning period and by vehicle sensors, vehicle sensor measurements regarding driving sessions of the vehicle, wherein the vehicle sensor measurement comprise (a) height measurements of paths related to the driving sessions, (b) fuel consumption measurements related to the driving sessions, (c) length measurements of the of road segments related to the driving sessions; and (d) velocity measurements related to the driving sessions; and calculating, based on the vehicle sensor measurements, an evaluated weight of the vehicle; wherein the calculating is based on values of energy coefficients that are indicative of energy wasted by the vehicle; characterized in that the calculating comprises (a) searching for values of the energy coefficients that provide at least one distribution related to weight estimates of the vehicle, the at least one distribution fulfills at least one predefined statistical significance criterion; and (b) determining weight estimates for each path segment of the plurality of path segments and for different values of the energy coefficients.
A damper assembly for a bicycle wheel assembly , the damper assembly comprising: a first damper configured to be disposed about a hub assembly of the bicycle wheel assembly , the first damper configured to apply a first damping force (F 1 ) against a spoke segment of at least one spoke of a plurality of spokes of the bicycle wheel assembly , characterized in that the spoke segment extends between a first spoke segment end and a second spoke segment end , the first spoke segment end spaced apart from one of first and second spoke attachment members of the hub assembly , the second spoke segment end located at a first distance (D S ) from one of the first and second spoke attachment members , the first distance (D S ) equal to one-third of a second distance (D T ) between one of the first and second spoke attachment members and a spoke end of the at least one spoke connected to a rim of the bicycle wheel assembly . a first damper configured to be disposed about a hub assembly of the bicycle wheel assembly , the first damper configured to apply a first damping force (F 1 ) against a spoke segment of at least one spoke of a plurality of spokes of the bicycle wheel assembly ,
An apparatus for controlling passage of a pressure signal, the apparatus including: a first passageway for a first fluid therein; a second passageway for a second fluid therein; a chamber interposed between the first and second passageways ; a first, movable diaphragm located across a junction of the first passageway and the chamber , the first diaphragm being movable to plural positions; a second, movable diaphragm located across a junction of the second passageway and the chamber , the second diaphragm being movable to plural positions; a third fluid , the first and second diaphragms bounding the third fluid there between and interposed between the first and second passageways at the chamber; and a device for varying a volume of the third fluid bound between the first and second diaphragms and interposed between the first and second passageways at the chamber, a variation of the volume of the third fluid moving the first and second diaphragms; the first and second diaphragms each having at least one position that permits passage of a pressure signal between the first fluid in the first passageway and the second fluid in the second passageway through the third fluid bound between the first and second diaphragms, and the first and second diaphragms each having at least one position corresponding to an increase in volume of the third fluid between the first and second diaphragms by the device that prohibits passage of a pressure signal between the first fluid in the first passageway and the second fluid in the second passageway through the third fluid bound between the first and second diaphragms. a first passageway for a first fluid therein; a second passageway for a second fluid therein; a chamber interposed between the first and second passageways ; a first, movable diaphragm located across a junction of the first passageway and the chamber , the first diaphragm being movable to plural positions; a second, movable diaphragm located across a junction of the second passageway and the chamber , the second diaphragm being movable to plural positions; a third fluid , the first and second diaphragms bounding the third fluid there between and interposed between the first and second passageways at the chamber; and a device for varying a volume of the third fluid bound between the first and second diaphragms and interposed between the first and second passageways at the chamber, a variation of the volume of the third fluid moving the first and second diaphragms; the first and second diaphragms each having at least one position that permits passage of a pressure signal between the first fluid in the first passageway and the second fluid in the second passageway through the third fluid bound between the first and second diaphragms, and the first and second diaphragms each having at least one position corresponding to an increase in volume of the third fluid between the first and second diaphragms by the device that prohibits passage of a pressure signal between the first fluid in the first passageway and the second fluid in the second passageway through the third fluid bound between the first and second diaphragms.
A computed tomography (CT) detector array comprising: a monolithic scintillator that comprises: at least a first scintillator region , a second scintillator region , and an optically reflective barrier therebetween; wherein the detector array is configured to detect X-ray radiation traversing an examination region and impinging the monolithic scintillator and generate first projection data indicative of an energy of x-ray radiation absorbed by the first scintillator region and second projection data indicative of an energy of x-ray radiation traversing the first scintillator region and absorbed by the second scintillator region, and wherein the optically reflective barrier is oriented parallel to a surface of the detector array configured to initially receive X-ray radiation; and wherein the optically reflective barrier comprises two barriers parallel to the surface of the detector array configured to initially receive the X-ray radiation, wherein the two barriers of the optically reflective barrier are located at the outer parts of the optically reflective barrier, wherein a crystal structure of the two barriers of the optically reflective barrier has been structurally altered by laser, and wherein the two barriers of the optically reflective barrier are separated by a distance between 2 microns and 100 microns, and; wherein a material of the optically reflective barrier between the two barriers of the optically reflective barrier is of the same physical bulk as a material of the monolithic scintillator, wherein the material of the monolithic scintillator is a physically connected material. at least a first scintillator region , a second scintillator region , and an optically reflective barrier therebetween; wherein the detector array is configured to detect X-ray radiation traversing an examination region and impinging the monolithic scintillator and generate first projection data indicative of an energy of x-ray radiation absorbed by the first scintillator region and second projection data indicative of an energy of x-ray radiation traversing the first scintillator region and absorbed by the second scintillator region, and wherein the optically reflective barrier is oriented parallel to a surface of the detector array configured to initially receive X-ray radiation; and wherein the optically reflective barrier comprises two barriers parallel to the surface of the detector array configured to initially receive the X-ray radiation, wherein the two barriers of the optically reflective barrier are located at the outer parts of the optically reflective barrier, wherein a crystal structure of the two barriers of the optically reflective barrier has been structurally altered by laser, and wherein the two barriers of the optically reflective barrier are separated by a distance between 2 microns and 100 microns, and; wherein a material of the optically reflective barrier between the two barriers of the optically reflective barrier is of the same physical bulk as a material of the monolithic scintillator, wherein the material of the monolithic scintillator is a physically connected material.
An electrophotographic photosensitive member comprising a support, an electrically conductive layer, and a photosensitive layer in this order, wherein the electrically conductive layer contains a binder material and particles represented by General Formula . Nb 2.00 O 5.00-X N Y ......... (In Formula , Nb is a niobium atom, O is an oxygen atom, N is a nitrogen atom, and 0.00 < Y < X ≤ 4.00.)
Integrated optical switch made in and on a semiconductor substrate, including a photoconductive body (PC) comprising a first end configured to receive an input electrical signal and a second end configured to deliver an output electrical signal, the photoconductive body (PC) being configured to have an electrically conductive state activated by the presence of an optical signal (SO) and an electrically blocked state activated by the absence of the optical signal (SO), wherein the direction from the first end to the second end defines a longitudinal direction (D3), characterised in that the photoconductive body has a cross section orthogonal to the longitudinal direction (D3) decreasing in the longitudinal direction (D3) from the first end to the second end .
Container for transporting a substance, the container comprising the following: a) a container body ; b) an opening for removing the substance; c) a connecting device via which the substance can be removed, the connecting device being at least partly inserted into the opening ; characterized in that - the connecting device has a first mating component and the opening has a second mating component , the first mating component being interlockingly inserted into the second mating component , at least in portions, such that the first mating component together with the second mating component forms a lock-and-key principle, and the opening being formed in a cap of the container ; and - in that the connecting device has a plug-shaped insertion body and a locking ring that is movable relative to the insertion body and braces the insertion body in the opening , the first mating component being formed on the locking ring . a) a container body ; b) an opening for removing the substance; c) a connecting device via which the substance can be removed, the connecting device being at least partly inserted into the opening ; - the connecting device has a first mating component and the opening has a second mating component , the first mating component being interlockingly inserted into the second mating component , at least in portions, such that the first mating component together with the second mating component forms a lock-and-key principle, and the opening being formed in a cap of the container ; and - in that the connecting device has a plug-shaped insertion body and a locking ring that is movable relative to the insertion body and braces the insertion body in the opening , the first mating component being formed on the locking ring .
A fabrication method for fabricating a pattern for lost pattern casting, the method comprising the following steps: S1A) providing at least one insert ; S1B) providing at least two pattern portions , said at least two portions being made of a material that can be eliminated; and S2) assembling said at least two pattern portions together around at least a portion of said at least one insert in sealed manner so as to make said pattern . S1A) providing at least one insert ; S1B) providing at least two pattern portions , said at least two portions being made of a material that can be eliminated; and S2) assembling said at least two pattern portions together around at least a portion of said at least one insert in sealed manner so as to make said pattern .
Fruit press for citrus fruit, having a press head which performs a press stroke and comprises two receiving dies which are arranged on both sides of a blade and can be pivoted in opposite directions via parallel shafts between an upper receiving position and a lower pressing position, each die being intended for half of a piece of fruit, and comprises two slide guides , for the fruit halves , extending on both sides of the blade and following the outer circumferential path of the receiving dies , and the fruit press having stamps which are allocated to the press head and cooperate with the receiving dies in the lower pressing position of the press head , characterised in that the slide guides comprise bending-elastic slide tracks protruding into the effective range of the stamps , which tracks can be bent out by the stamps into the receiving dies during the press stroke.
A door hinge assembly , comprising: a door frame defining a frame opening and a jamb at one side of the frame opening, the jamb including two frame corners protruding into the frame opening and a jamb brace connecting the two frame corners across the frame opening, the jamb brace defining two spaced-apart hinge holes therethrough; a door movable to selectively provide access through the frame opening, the door comprising two broad side surfaces connected by door edges including a jamb edge , the door defining: two corner recesses configured to receive the two protruding frame corners of the jamb; and two hinge passages , each hinge passage extending from the jamb edge to a respective passage opening at one of the broad side surfaces of the door; and an elastic cord connecting the door to the door frame, the cord extending sequentially through a first of the two hinge passages , through a first of two passage openings at the jamb edge, through a first of the two hinge holes , across the jamb brace , through a second of the two hinge holes , through a second of the two passage openings at the jamb edge, and through the second of the two hinge passages . a door frame defining a frame opening and a jamb at one side of the frame opening, the jamb including two frame corners protruding into the frame opening and a jamb brace connecting the two frame corners across the frame opening, the jamb brace defining two spaced-apart hinge holes therethrough; a door movable to selectively provide access through the frame opening, the door comprising two broad side surfaces connected by door edges including a jamb edge , the door defining: two corner recesses configured to receive the two protruding frame corners of the jamb; and two hinge passages , each hinge passage extending from the jamb edge to a respective passage opening at one of the broad side surfaces of the door; and two corner recesses configured to receive the two protruding frame corners of the jamb; and two hinge passages , each hinge passage extending from the jamb edge to a respective passage opening at one of the broad side surfaces of the door; and an elastic cord connecting the door to the door frame, the cord extending sequentially through a first of the two hinge passages , through a first of two passage openings at the jamb edge, through a first of the two hinge holes , across the jamb brace , through a second of the two hinge holes , through a second of the two passage openings at the jamb edge, and through the second of the two hinge passages .