mhurhangee/patent-ind-claim-en huggingface dataset:
Method for charging a battery of a motor vehicle with an electric drive , wherein, for charging, an external connecting device of a charging station is coupled with a vehicle connecting device of the motor vehicle and is latchable on this, with the steps of: - checking, according to at least one predetermined criterion, whether readiness for charging exists, - latching of the external connecting device on the vehicle connecting device upon the establishing of readiness for charging, - starting of charging after latching, characterised by the steps of: - identifying of a transponder key carried, on the person, by a motor vehicle driver , - automatic ending of the charging process, when the vehicle driver comes close to the motor vehicle with the transponder key , - continuation of the charging process by means of a control device after a predetermined length of time, provided that there is no recognising by the control device , that the motor vehicle driver pulls a plug out of a bush and/or that the motor vehicle driver locks a tank cap and/or that the continuation of the charging process is otherwise rendered impossible. - checking, according to at least one predetermined criterion, whether readiness for charging exists, - latching of the external connecting device on the vehicle connecting device upon the establishing of readiness for charging, - starting of charging after latching, - identifying of a transponder key carried, on the person, by a motor vehicle driver , - automatic ending of the charging process, when the vehicle driver comes close to the motor vehicle with the transponder key , - continuation of the charging process by means of a control device after a predetermined length of time, provided that there is no recognising by the control device , that the motor vehicle driver pulls a plug out of a bush and/or that the motor vehicle driver locks a tank cap and/or that the continuation of the charging process is otherwise rendered impossible.
A head mounted display device, characterized by : a left eye display unit (LD) which displays an image (LI) for a left eye and is at least partially disposed along a trajectory of a left eye ellipse (EL1) having a first eccentricity; and a left eye lens (LLS) which faces the left eye (LE) display unit (LD) and refracts the image (LI) for the left eye in a direction of a user's left eye (LE); characterized in that the left eye ellipse (EL1) defines a first left eye focus (LF1) and a second left eye focus (LF2), and the left eye lens (LLS) overlaps at least one of the first left eye focus (LF1) and the second left eye focus (LF2) on a plane on which the left eye ellipse (EL1) is disposed, so that light (LRF1, LRF2) emitted by the left display unit, reflected from the surfaces of the left eye lens and reflected again by the left display unit surface propagates toward the other of the first and second left eye foci (LF1, LF2), such that is not provided to the user's left eye LE. a left eye display unit (LD) which displays an image (LI) for a left eye and is at least partially disposed along a trajectory of a left eye ellipse (EL1) having a first eccentricity; and a left eye lens (LLS) which faces the left eye (LE) display unit (LD) and refracts the image (LI) for the left eye in a direction of a user's left eye (LE); characterized in that the left eye ellipse (EL1) defines a first left eye focus (LF1) and a second left eye focus (LF2), and the left eye lens (LLS) overlaps at least one of the first left eye focus (LF1) and the second left eye focus (LF2) on a plane on which the left eye ellipse (EL1) is disposed, so that light (LRF1, LRF2) emitted by the left display unit, reflected from the surfaces of the left eye lens and reflected again by the left display unit surface propagates toward the other of the first and second left eye foci (LF1, LF2), such that is not provided to the user's left eye LE.
An autoinjector comprising a lower body (1010; 2010) receiving a tank, said tank containing fluid product and comprising a piston and a needle, such as a pre-filled syringe (A), said autoinjector comprising injection means (1005; 1008) to distribute said fluid product and an actuating sleeve (1011; 2011) comprising a contact end designed to make contact with the body of the user, said actuating sleeve (1011; 2011) being moveable relative to said lower body (1010; 2010) between projected positions, in which said actuating sleeve (1011; 2011) at least partially projects out of said lower body (1010; 2010), and an actuation position in which said actuating sleeve (1011; 2011) is axially moved towards the interior of said lower body (1010; 2010), said actuating sleeve (1011; 2011) being in a first projected position prior to actuation of the autoinjector and in a second projected position after actuation of the autoinjector, one from among said lower body (1010; 2010) and said actuating sleeve (1011; 2011) comprising a flexible foot (1110; 2110) adapted to deform laterally relative to the other from among said lower body (1010; 2010) and said actuating sleeve (1011; 2011) when said actuating sleeve is moved from its first projected position towards its actuation position and then back from its actuation position towards its second projected position, characterized in that the other from among said lower body (1010; 2010) and actuation sleeve (1011; 2011) comprises a final reception zone (105; 2105) offset axially and laterally relative to an opening (103; 2103), said opening (103; 2103) being connected to said final reception zone (105; 2105) by a laterally inclined groove (104;2104), an axial shoulder (106; 2106) being provided between said final reception zone (105; 2105) and said inclined groove (104; 2104), said flexible foot (1110; 2110) comprising a head adapted to slide in said laterally inclined groove (104; 2104) when said actuating sleeve (1011; 2011) returns from its actuation position towards its second projected position, laterally deforming said flexible foot (1110; 2110), said head shapping in under said axial shoulder (106; 2106) when said actuating sleeve reaches its second projected position, after use, thus locking said actuating sleeve (1011; 2011) relative to said lower body (1010; 2010), said flexible foot (1110; 2110) being deformed laterally when said actuating sleeve (1011; 2011) is moved from its first projected position, prior to actuation, towards its actuation position, and said flexible foot is deformed laterally when said actuating sleeve (1011; 2011) is moved from its actuation position towards its second projected position, at the end of use, said head of the flexible foot (1110; 2110) having to overcome a resistance to deform laterally at the beginning of the actuation.
Device for converting an electrical signal into a mechanical movement, in particular for triggering a triggering device retaining large forces, comprising at least one contact device disposed in a base body and clampingly grasping a fusible wire , wherein a securing bolt is fixed in a securing position by the fusible wire , characterised in that the clamping force of the contact device exerted on the fusible wire can be adjusted by a clamp at least partially surrounding the base body .
A partially diffusion-alloyed steel powder comprising an iron-based powder and Mo diffusionally adhered to a surface of the iron-based powder, wherein the partially diffusion-alloyed steel powder contains Mo: 0.2 mass% to 2.0 mass%, Ni: 0.1 mass% or less, Cr: 0.1 mass% or less, Si: 0.1 mass% or less, C: 0.02 mass% or less, O: 0.3 mass% or less, N: 0.004 mass% or less, S: 0.03 mass% or less, and P: 0.1 mass% or less, with the balance being Fe and inevitable impurities; a weight-based median size D50, measured by sieving, is 40 μm or more and 120 μm or less, among particles contained in the partially diffusion-alloyed iron powder, those particles having an equivalent circular diameter of 50 μm to 200 μm have a number average of solidity of 0.70 to 0.86, the solidity being defined as particle cross-sectional area/envelope-inside area, and the iron-based powder is an atomized powder and optionally contains at least one selected from the group consisting of Cu, Mo, and Mn in a pre-alloyed manner, wherein the Mn content in the iron-based powder is 0.5 mass% or less and the Mo content in the entire partially diffusion-alloyed steel powder is also set to 0.2 mass% to 2.0 mass%, and wherein the number average of solidity is obtained by measuring particle cross-sectional area and envelope-inside area for at least 10,000 particles having an equivalent circular diameter of 50 μm to 200 μm through image interpretation of the projected image of each of the particles using Malvern Morphologi G3, obtaining the solidity by calculating cross-sectional area/envelope-inside area for each of the particles, and calculating the number average thereof. Mo: 0.2 mass% to 2.0 mass%, Ni: 0.1 mass% or less, Cr: 0.1 mass% or less, Si: 0.1 mass% or less, C: 0.02 mass% or less, O: 0.3 mass% or less, N: 0.004 mass% or less, S: 0.03 mass% or less, and P: 0.1 mass% or less, with the balance being Fe and inevitable impurities; a weight-based median size D50, measured by sieving, is 40 μm or more and 120 μm or less, among particles contained in the partially diffusion-alloyed iron powder, those particles having an equivalent circular diameter of 50 μm to 200 μm have a number average of solidity of 0.70 to 0.86, the solidity being defined as particle cross-sectional area/envelope-inside area, and the iron-based powder is an atomized powder and optionally contains at least one selected from the group consisting of Cu, Mo, and Mn in a pre-alloyed manner, wherein the Mn content in the iron-based powder is 0.5 mass% or less and the Mo content in the entire partially diffusion-alloyed steel powder is also set to 0.2 mass% to 2.0 mass%, and wherein the number average of solidity is obtained by measuring particle cross-sectional area and envelope-inside area for at least 10,000 particles having an equivalent circular diameter of 50 μm to 200 μm through image interpretation of the projected image of each of the particles using Malvern Morphologi G3, obtaining the solidity by calculating cross-sectional area/envelope-inside area for each of the particles, and calculating the number average thereof.
A lockable connection component comprising: a coupling nut configured to rotatably couple the lockable connection component 2. to a complementary mating component at a connection interface, the coupling nut having at least one locking collar interface ; a connector body arranged within a longitudinal bore of the coupling nut and configured to be non-rotatably attached to the lockable connection component ; and a locking collar having at least one coupling nut interface , the locking collar being configured to non-rotatably slide over the connector body and interface with the coupling nut such that the at least one coupling nut interface engages the at least one locking collar interface of the coupling nut , thereby preventing the coupling nut from rotating and disconnecting from the complementary mating component, wherein the locking collar comprises at least one raised element arranged on the at least one coupling nut interface , wherein the coupling nut comprises at least one recess complementary to the at least one raised element , wherein the at least one raised element is seated in the at least one recess when the at least one coupling nut interface engages the at least one locking collar interface , thereby preventing the locking collar from moving away from the coupling nut , characterized in that the connector body includes a locking collar interface configured to engage with a corresponding connector body interface of the locking collar to prevent rotation of the locking collar about the connector body . a coupling nut configured to rotatably couple the lockable connection component 2. to a complementary mating component at a connection interface, the coupling nut having at least one locking collar interface ; a connector body arranged within a longitudinal bore of the coupling nut and configured to be non-rotatably attached to the lockable connection component ; and a locking collar having at least one coupling nut interface , the locking collar being configured to non-rotatably slide over the connector body and interface with the coupling nut such that the at least one coupling nut interface engages the at least one locking collar interface of the coupling nut , thereby preventing the coupling nut from rotating and disconnecting from the complementary mating component, wherein the locking collar comprises at least one raised element arranged on the at least one coupling nut interface , wherein the coupling nut comprises at least one recess complementary to the at least one raised element , wherein the at least one raised element is seated in the at least one recess when the at least one coupling nut interface engages the at least one locking collar interface , thereby preventing the locking collar from moving away from the coupling nut , characterized in that the connector body includes a locking collar interface configured to engage with a corresponding connector body interface of the locking collar to prevent rotation of the locking collar about the connector body .
A ridable saddle vehicle comprising a front portion of said vehicle and a windshield fixed to said front portion , the front portion and the windshield being configured so as to define a duct therebetween for conveying air, configured to be passed through by an air flow (F1) during the motion of said vehicle , said duct comprising an inlet port configured to direct the air flow (F1) into said duct and an outlet port configured to allow the outflow of the air flow (F1) from said duct , the inlet port and the outlet port having, respectively, an inlet section and an outlet section ; wherein the windshield comprises an inner face facing said front portion and an opposite outer face , a lower edge , an opposite upper edge and a pair of side edges joining said lower and upper edges , and wherein said inlet port is defined, at least partially, by said lower edge of the windshield ; wherein the front portion of said vehicle comprises two protruding fixing supports to which the windshield is fixed, said duct being defined at the bottom by said front portion , at the top by the inner face of the windshield and at the sides by said fixing supports ; characterized by the inlet section being greater than the outlet section . wherein the windshield comprises an inner face facing said front portion and an opposite outer face , a lower edge , an opposite upper edge and a pair of side edges joining said lower and upper edges , and wherein said inlet port is defined, at least partially, by said lower edge of the windshield ; wherein the front portion of said vehicle comprises two protruding fixing supports to which the windshield is fixed, said duct being defined at the bottom by said front portion , at the top by the inner face of the windshield and at the sides by said fixing supports ; characterized by the inlet section being greater than the outlet section .
A spider for handling/gripping well components for use with a subterranean well, the spider comprising: multiple slip assemblies distributed circumferentially about a central axis of the spider , characterised in that each slip assembly comprises: a) a slip carrier radially displaceable relative to the central axis , b) a slip displaceable relative to the slip carrier , and c) a slip actuator operable to displace the slip relative to the slip carrier , the slip actuator being disposed at least partially internal to the slip carrier . a) a slip carrier radially displaceable relative to the central axis , b) a slip displaceable relative to the slip carrier , and c) a slip actuator operable to displace the slip relative to the slip carrier , the slip actuator being disposed at least partially internal to the slip carrier .
An image processing apparatus comprising: an acquisition unit configured to acquire an image generated by image pickup through an optical system; and a processor configured to: acquire, for a plurality of specific image heights, two-dimensional point spread function data of the optical system corresponding to an image-pickup condition of the optical system for a position of the image corresponding to a respective specific image height, and provide, for each of the plurality of specific image heights, unsharp mask processing to the image by using a filter, which is generated from the two-dimensional point spread function data for the position of the image corresponding to the respective specific image height, and wherein the filter includes two-dimensional tap data which is rotationally asymmetrically distributed due to rotational asymmetry of the two-dimensional point spread function data. an acquisition unit configured to acquire an image generated by image pickup through an optical system; and a processor configured to: acquire, for a plurality of specific image heights, two-dimensional point spread function data of the optical system corresponding to an image-pickup condition of the optical system for a position of the image corresponding to a respective specific image height, and provide, for each of the plurality of specific image heights, unsharp mask processing to the image by using a filter, which is generated from the two-dimensional point spread function data for the position of the image corresponding to the respective specific image height, and acquire, for a plurality of specific image heights, two-dimensional point spread function data of the optical system corresponding to an image-pickup condition of the optical system for a position of the image corresponding to a respective specific image height, and provide, for each of the plurality of specific image heights, unsharp mask processing to the image by using a filter, which is generated from the two-dimensional point spread function data for the position of the image corresponding to the respective specific image height, and wherein the filter includes two-dimensional tap data which is rotationally asymmetrically distributed due to rotational asymmetry of the two-dimensional point spread function data.
A touch device , comprising: a base ; a membrane pressure sensor arranged on the base, configured to generate a pressure signal related to the force applied to the membrane pressure sensor; a touch sensing layer with its lower surface covering the membrane pressure sensor; and a force feedback structure arranged on the lower surface of the touch sensing layer and electrically connected to the membrane pressure sensor, configured to receive the pressure signal and generate a feedback force corresponding to the pressure signal; characterised in that : the membrane pressure sensor comprises an upper membrane , a lower membrane , a support structure , and a pressure sensing element ; the upper membrane and the lower membrane are connected by the support structure to form a cavity ; and the pressure sensing element is arranged in the cavity and comprises: an upper electrode disposed on the lower surface of the upper membrane, a lower electrode disposed on the upper surface of the lower membrane, and a variable resistance elastic body disposed on the lower electrode. a base ; a membrane pressure sensor arranged on the base, configured to generate a pressure signal related to the force applied to the membrane pressure sensor; a touch sensing layer with its lower surface covering the membrane pressure sensor; and a force feedback structure arranged on the lower surface of the touch sensing layer and electrically connected to the membrane pressure sensor, configured to receive the pressure signal and generate a feedback force corresponding to the pressure signal; characterised in that : the membrane pressure sensor comprises an upper membrane , a lower membrane , a support structure , and a pressure sensing element ; the upper membrane and the lower membrane are connected by the support structure to form a cavity ; and the pressure sensing element is arranged in the cavity and comprises: an upper electrode disposed on the lower surface of the upper membrane, a lower electrode disposed on the upper surface of the lower membrane, and a variable resistance elastic body disposed on the lower electrode. the membrane pressure sensor comprises an upper membrane , a lower membrane , a support structure , and a pressure sensing element ; the upper membrane and the lower membrane are connected by the support structure to form a cavity ; and the pressure sensing element is arranged in the cavity and comprises: an upper electrode disposed on the lower surface of the upper membrane, a lower electrode disposed on the upper surface of the lower membrane, and a variable resistance elastic body disposed on the lower electrode. an upper electrode disposed on the lower surface of the upper membrane, a lower electrode disposed on the upper surface of the lower membrane, and a variable resistance elastic body disposed on the lower electrode.
A method for controlling an electrical motor comprising a rotor with associated magnets and a stator, the method comprising: during a characterization of the motor , recording a reference magnetic flux linkage level λ f R at a reference operating condition at ambient temperature, estimating a change in temperature of the magnets associated with the rotor of the motor based on an operational magnetic flux linkage level λ f O that is compared to the recorded reference magnetic flux linkage level λ f R ; establishing a relationship between the estimated change in the temperature of the magnets and a magnetic torque component of a target output torque of the motor consistent with the operating speed of the motor ; the target output torque comprising a magnetic torque component and a reluctance torque component, and adjusting a command for the motor to compensate for shaft torque variation associated with the estimated change in the temperature of the magnets in conformance with the established relationship. during a characterization of the motor , recording a reference magnetic flux linkage level λ f R at a reference operating condition at ambient temperature, estimating a change in temperature of the magnets associated with the rotor of the motor based on an operational magnetic flux linkage level λ f O that is compared to the recorded reference magnetic flux linkage level λ f R ; establishing a relationship between the estimated change in the temperature of the magnets and a magnetic torque component of a target output torque of the motor consistent with the operating speed of the motor ; the target output torque comprising a magnetic torque component and a reluctance torque component, and adjusting a command for the motor to compensate for shaft torque variation associated with the estimated change in the temperature of the magnets in conformance with the established relationship.
A compound selected from Formula 1, N-oxides and salts thereof, wherein Q is selected from r is 1; Z is O or S; R 1 is independently halogen, cyano, C 1 -C 4 alkyl, C 1 -C 4 haloalkyl, C 1 --C 4 alkoxy, C 1 -C 4 haloalkoxy or SO n R 1A ; R 2 is halogen or C 1 --C 4 alkyl; each R 3 is independently halogen, cyano, C 1 --C 4 alkyl, C 2 -C 4 alkenyl, C 2 -C 4 alkynyl, C 1 -C 4 haloalkyl, C 2 -C 6 alkylcarbonyl, C 2 -C 6 haloalkylcarbonyl, C 2 -C 6 alkoxycarbonyl, C 1 -C 4 alkoxy, C 1 -C 4 haloalkoxy, C 2 -C 6 alkoxyalkyl or C 2 -C 6 haloalkoxyalkyl; m is 0 or 1; each n is independently 0, 1 or 2; and each R 1A is independently C 1 -C 4 alkyl or C 1 -C 4 haloalkyl. Q is selected from r is 1; Z is O or S; R 1 is independently halogen, cyano, C 1 -C 4 alkyl, C 1 -C 4 haloalkyl, C 1 --C 4 alkoxy, C 1 -C 4 haloalkoxy or SO n R 1A ; R 2 is halogen or C 1 --C 4 alkyl; each R 3 is independently halogen, cyano, C 1 --C 4 alkyl, C 2 -C 4 alkenyl, C 2 -C 4 alkynyl, C 1 -C 4 haloalkyl, C 2 -C 6 alkylcarbonyl, C 2 -C 6 haloalkylcarbonyl, C 2 -C 6 alkoxycarbonyl, C 1 -C 4 alkoxy, C 1 -C 4 haloalkoxy, C 2 -C 6 alkoxyalkyl or C 2 -C 6 haloalkoxyalkyl; m is 0 or 1; each n is independently 0, 1 or 2; and each R 1A is independently C 1 -C 4 alkyl or C 1 -C 4 haloalkyl.