mhurhangee/patent-ind-claim-en huggingface dataset:
A transmission housing comprising a housing body delimiting an enclosure , and, arranged at least partially inside said enclosure , an input shaft , an output shaft and a mechanism for transmitting the movement from the input shaft to the output shaft , this movement transmission mechanism comprising at least one clutch , the clutch comprising a driving element and a driven element , the driven element being mounted secured in rotation with the output shaft , at least one of the driven or driving elements of the clutch being mounted movably for the passage of the driving and driven elements of the clutch from a position separated from one another corresponding to the disengaged position of the clutch to a position close to one another corresponding to the engaged position of the clutch , the movement transmission mechanism further comprising a sleeve coaxial with the output shaft , the sleeve being inserted between the output shaft and the housing body , characterized in that the driven element of the clutch comprises a clutch active part carried by the sleeve , the clutch active part being in bearing contact with the driving element of the clutch in the engaged position of the clutch , the sleeve being mounted secured in rotation with the output shaft and made in a single piece with the active part of the driven element .
A piece of furniture, in particular seating furniture, having several wooden struts ('20, 20', 20") arranged spaced apart from each other which are coupled to each other via connection means to form a flat component , wherein a threaded rod which is fixedly arranged in a cavity of the wooden struts ('20, 20', 20") is provided as the connection means, wherein the cavities of neighboring wooden struts ('20, 20', 20") are arranged such that they are aligned with each other, characterized in that the cavity of the wooden struts is formed as a continuous bore which extends between two opposing flat sides of the wooden strut , and in that the bores of the wooden struts extending in the plane of extent are arranged such that they are aligned with each other for receiving the threaded rod , in that a first end-side wooden strut of the flat component has a threaded insert having a wide-pitch external thread for connection with the bore of the first end-side wooden strut and a narrow-pitch internal thread for connection with a first end of the threaded rod , and in that a second end-side wooden strut (20") of the same flat component has a recess for receiving an attachment nut which is in screwed connection with a second end of the threaded rod in an assembly position of the flat component .
Method of operating a laboratory sample distribution system , wherein the laboratory sample distribution system comprises: - a plurality of sample container carriers , wherein the sample container carriers are adapted to carry a laboratory sample container , - a transport plane , wherein the transport plane is adapted to support the sample container carriers , and - a plurality of drive elements , wherein the drive elements are adapted to move the sample container carriers on the transport plane , characterized in that the method comprises the steps: - a) planning a movement path (MP) for one of the sample container carriers from a start (ST) to a goal (GA) on the transport plane , wherein the transport plane is logically modelled by a plurality of nodes , wherein the nodes are free for at least one time-window (fTW) or reserved for at least one-time window (rTW), wherein the planning comprises analyzing the reachability out of a free time-window (fTW) of one of the nodes (ni) to free time-windows (fTW) of at least one next node (nj) and at least one at least over-next node (nk), such that a planned movement of the one sample container carrier is nonstop from the one node (ni) over the next node (nj) to the at least one at least over-next node (nk), and reserving the planned movement path (MP) comprising a sequence of time-windows (TW) of nodes (111, ni, nj, nk), and - b) executing by controlling at least one of the drive elements , such that the one sample container carrier moves along the reserved movement path (MP) on the transport plane . - a plurality of sample container carriers , wherein the sample container carriers are adapted to carry a laboratory sample container , - a transport plane , wherein the transport plane is adapted to support the sample container carriers , and - a plurality of drive elements , wherein the drive elements are adapted to move the sample container carriers on the transport plane , - a) planning a movement path (MP) for one of the sample container carriers from a start (ST) to a goal (GA) on the transport plane , wherein the transport plane is logically modelled by a plurality of nodes , wherein the nodes are free for at least one time-window (fTW) or reserved for at least one-time window (rTW), wherein the planning comprises analyzing the reachability out of a free time-window (fTW) of one of the nodes (ni) to free time-windows (fTW) of at least one next node (nj) and at least one at least over-next node (nk), such that a planned movement of the one sample container carrier is nonstop from the one node (ni) over the next node (nj) to the at least one at least over-next node (nk), and reserving the planned movement path (MP) comprising a sequence of time-windows (TW) of nodes (111, ni, nj, nk), and - b) executing by controlling at least one of the drive elements , such that the one sample container carrier moves along the reserved movement path (MP) on the transport plane .
A dipped and heat-set aramid cord has at least two plies and has spacing(s) between the said cord plies which has less than 2.0cN/dtex TASE at 1.0% elongation (in accordance with ASTM D885-16) is characterized in that , the spacing(s) between the said cord plies is longer than 10% and shorter than 50% of the cord diameter (D).
A non-transitory machine-readable storage medium comprising a plurality of stored sets of spatial features from a respective plurality of touches received on a touch-sensitive surface and determined to be intended touches, and instructions for determining unintended touch rejection, the instructions executable by a processor of a system to: recognize a touch on the touch-sensitive surface; capture a set of data related to the touch, wherein the set of data comprises a set of spatial features relating to a set of shapes of the touch over a set of time intervals including a first time interval and a second time interval; determine whether the recognized touch was intended based on a comparison of a first shape of the touch at the first time interval and a second shape of the touch at the second time interval to a corresponding first set of spatial features relating to a first shape of a stored touch and second set of spatial features relating to a second shape of the stored touch obtained at corresponding first and second time intervals, the first and the second set of spatial features belonging to a subset of the plurality of stored sets of spatial features, wherein the subset of the plurality of stored sets of spatial features has been narrowed from the plurality of stored sets of spatial features based on information related to the recognized touch. recognize a touch on the touch-sensitive surface; capture a set of data related to the touch, wherein the set of data comprises a set of spatial features relating to a set of shapes of the touch over a set of time intervals including a first time interval and a second time interval; determine whether the recognized touch was intended based on a comparison of a first shape of the touch at the first time interval and a second shape of the touch at the second time interval to a corresponding first set of spatial features relating to a first shape of a stored touch and second set of spatial features relating to a second shape of the stored touch obtained at corresponding first and second time intervals, the first and the second set of spatial features belonging to a subset of the plurality of stored sets of spatial features, wherein the subset of the plurality of stored sets of spatial features has been narrowed from the plurality of stored sets of spatial features based on information related to the recognized touch.
A method for use in transferring an assignment of a secure chip of a wireless device from a current subscription manager of a current mobile network operator to a new subscription manager of a new mobile network operator , wherein the method is performed by the current subscription manager , the method comprising: receiving , from the current mobile network operator , a request for transferring the assignment; producing transfer permission data which includes an identifier of the secure chip , an identifier of the current subscription manager , and a digital signature of the current subscription manager ; and sending , from the current subscription manager , to the secure chip a transfer permission message which includes the transfer permission data. receiving , from the current mobile network operator , a request for transferring the assignment; producing transfer permission data which includes an identifier of the secure chip , an identifier of the current subscription manager , and a digital signature of the current subscription manager ; and sending , from the current subscription manager , to the secure chip a transfer permission message which includes the transfer permission data.
A computer-implemented neural network data quantizing method, the method comprising: obtaining local quantization data (960; 1113, 1123) by firstly quantizing, based on a local maximum value for each output channel of a current layer of a neural network, global recovery data (950; 1010, 1020, 1030, 1040; 1112, 1122) obtained by recovering output data (940; 1111, 1121) of an operation of the current layer based on a global maximum value corresponding to a previous layer of the neural network; storing the local quantization (960; 1113, 1123) data in a memory to perform an operation of a next layer of the neural network; obtaining global quantization data (990; 1115, 1125) by secondarily quantizing, based on a global maximum value corresponding to the current layer, local recovery data (980; 1114, 1124) obtained by recovering the local quantization data (960, 970; 1113, 1123) based on the local maximum value for each output channel of the current layer, wherein data recovery means that data is de-quantized into a scale previous to quantization; and providing the global quantization data (990; 1115, 1125) as input data for the operation of the next layer. obtaining local quantization data (960; 1113, 1123) by firstly quantizing, based on a local maximum value for each output channel of a current layer of a neural network, global recovery data (950; 1010, 1020, 1030, 1040; 1112, 1122) obtained by recovering output data (940; 1111, 1121) of an operation of the current layer based on a global maximum value corresponding to a previous layer of the neural network; storing the local quantization (960; 1113, 1123) data in a memory to perform an operation of a next layer of the neural network; obtaining global quantization data (990; 1115, 1125) by secondarily quantizing, based on a global maximum value corresponding to the current layer, local recovery data (980; 1114, 1124) obtained by recovering the local quantization data (960, 970; 1113, 1123) based on the local maximum value for each output channel of the current layer, wherein data recovery means that data is de-quantized into a scale previous to quantization; and providing the global quantization data (990; 1115, 1125) as input data for the operation of the next layer.
A water repellent composition characterized by comprising a copolymer (A) having structural units based on the following monomer (a) and structural units based on the following monomer (b), a polymer (B) having, as a pendant group, an amino group, an ammonium salt group or an amide group (but excluding the same one as the copolymer (A)), and an aqueous medium, Monomer (a): a compound represented by the following formula (m1): R F -Q-Z-C(O)C(R)=CH 2 (m1). wherein R F is a C 4-6 perfluoroalkyl group, Q is a divalent hydrocarbon group having no fluorine atom, or a single bond, Z is -O- or NH-, and R is a hydrogen atom, a methyl group or a chlorine atom, Monomer (b): a (meth)acrylate having no polyfluoroalkyl group and having a C 12-22 alkyl group; wherein, in the polymer (B), the structural units based on a monomer having at least one type of group selected from the group consisting of an amino group, an ammonium salt group and an amide group are at least one type of structural units selected from the group consisting of the following structural units (u1) to (u17) Monomer (a): a compound represented by the following formula (m1): R F -Q-Z-C(O)C(R)=CH 2 (m1). wherein R F is a C 4-6 perfluoroalkyl group, Q is a divalent hydrocarbon group having no fluorine atom, or a single bond, Z is -O- or NH-, and R is a hydrogen atom, a methyl group or a chlorine atom, Monomer (b): a (meth)acrylate having no polyfluoroalkyl group and having a C 12-22 alkyl group;
A gene delivery system for coexpressing a granulocyte-macrophage stimulating factor (GM-CSF), Flt3L-TRAIL, shTGF-β and shHSP, comprising: a GM-CSF gene; a F1t3L-TRAIL fusion gene; shRNA inhibiting TGF-β expression (shTGF-β) and shRNA inhibiting HSP expression (shHSP).
A scintillator comprising: a host material having the chemical formula: A 2 BX 6 , wherein A includes a monovalent ion, B includes a tetravalent ion, and X includes a halide ion selected from the group consisting of: Cl, Br, and I.
Method for producing metal wire by sheathing a wire with an elastomer compound coming from an extruder comprising a feed canal feeding a sheathing die through which the said wire is made to pass at a pre-established nominal speed Vn, characterized in that the temperature of the downstream end of the sheathing die is varied for a predetermined duration and independently of the rest of this die when the measured speed Vm at which the wire is moving is other than Vn.
An optical lens, consisting of a first lens (E1), a second lens (E2) and a third lens (E3), wherein the first lens (E1) is a convexo-convex lens with positive focal power; the second lens (E2) is a lens having a convex object-side surface and a concave image-side surface with negative focal power; and the third lens (E3) is a lens having a convex object-side surface on an optical axis of the optical lens and a concave image-side surface on the optical axis of the optical lens with negative focal power, and wherein at least one surface among the first lens (E1), the second lens (E2) and the third lens (E3) is aspheric, and wherein the optical lens satisfies the following conditional expressions: 0.8<TTL/f<2.5, where TTL is a distance between a central point of the object-side surface of the first lens (E1) and an imaging surface of the optical lens; f is a focal length of the optical lens, and 5.329≤|f3|/f≤5.709, where |f3| is an absolute value of a focal length of the third lens (E3), and f is the focal length of the optical lens. 0.8<TTL/f<2.5, where TTL is a distance between a central point of the object-side surface of the first lens (E1) and an imaging surface of the optical lens; f is a focal length of the optical lens, and 5.329≤|f3|/f≤5.709, where |f3| is an absolute value of a focal length of the third lens (E3), and f is the focal length of the optical lens.
An occupant support system for enabling an occupant to control an object when the occupant either sits, partially or fully reclines or stands on a support device, comprising: i) the support device comprising: a plurality of support members (110L/110R) configured to support an occupant; and a corresponding plurality of independently movably supported suspension systems (120L/120R) such to provide at least one independent motion selected from vertical, lateral, tilt and azimuthal motions and longitudinal roll motion of the support members; ii) a plurality of sensors which are operatively coupled with the support members (110L/110R) and configured to measure a parameter which is indicative of an input provided by the occupant, while occupying the device, in a hands-free manner and to produce a signal, wherein the input changes a state of the support device; iii) a memory module comprising computer-executable instructions; and iv) a processor operative to receive the produced signal and determine a state of the support device based on the produced signal and the computer-executable instructions and to provide instructions for controlling the object, characterized in that the memory module is configured to record a weight shifting pattern and/or load distribution pattern imparted by the occupant on the support device for identifying and/or authenticating the occupant. i) the support device comprising: a plurality of support members (110L/110R) configured to support an occupant; and a corresponding plurality of independently movably supported suspension systems (120L/120R) such to provide at least one independent motion selected from vertical, lateral, tilt and azimuthal motions and longitudinal roll motion of the support members; a plurality of support members (110L/110R) configured to support an occupant; and a corresponding plurality of independently movably supported suspension systems (120L/120R) such to provide at least one independent motion selected from vertical, lateral, tilt and azimuthal motions and longitudinal roll motion of the support members; ii) a plurality of sensors which are operatively coupled with the support members (110L/110R) and configured to measure a parameter which is indicative of an input provided by the occupant, while occupying the device, in a hands-free manner and to produce a signal, wherein the input changes a state of the support device; iii) a memory module comprising computer-executable instructions; and iv) a processor operative to receive the produced signal and determine a state of the support device based on the produced signal and the computer-executable instructions and to provide instructions for controlling the object,
A method for determining a route in a navigation system, the method comprising: providing three-dimensional environmental model data representing a terrain environment; selecting criteria by a user of the navigation system, wherein the selected criteria correspond to an environmental parameter, the environmental parameter including a weather condition, elevations in the environment, a shadow and a slope of a road, wherein the environmental parameter is derived from the three-dimensional environmental model data; mathematically calculating the route by using the three-dimensional environmental model data and the selected criteria in a navigation algorithm; and guiding a user of the navigation system according to the calculated route. providing three-dimensional environmental model data representing a terrain environment; selecting criteria by a user of the navigation system, wherein the selected criteria correspond to an environmental parameter, the environmental parameter including a weather condition, elevations in the environment, a shadow and a slope of a road, wherein the environmental parameter is derived from the three-dimensional environmental model data; mathematically calculating the route by using the three-dimensional environmental model data and the selected criteria in a navigation algorithm; and guiding a user of the navigation system according to the calculated route.
A display control device for controlling a displaying part , the displaying part provided on a structure of a vehicle body that hinders a field of view of a vehicle driver, and the display control device comprising: an obstacle identifying part that is configured to identify an obstacle area (R') that comprises an obstacle (S) in an image acquired from an imaging part that captures images around a vehicle ; a driver information acquiring part that is configured to acquire driver information regarding the field of view of the vehicle driver; a blocked area identifying part that is configured to identify a blocked area (N') based on driver information where the field of view of the driver is blocked by the structure; a displaying controlling part that is configured to control the image displayed on the displaying part ; characterized in that a blocked area ratio calculating part that is configured to calculate a blocked area ratio, the blocked area ratio being a ratio of an area that the blocked area (N') overlaps the obstacle area (R') out of a total area of the obstacle area (R'); and wherein the display controlling part is configured to: display a driver's point of view image obtained by converting a viewpoint of the image captured by the imaging part based on the driver information when the blocked area ratio equals to a predetermined value or higher; and not to display the driver's point of view image on the displaying part when the blocked area ratio is less than the predetermined value. an obstacle identifying part that is configured to identify an obstacle area (R') that comprises an obstacle (S) in an image acquired from an imaging part that captures images around a vehicle ; a driver information acquiring part that is configured to acquire driver information regarding the field of view of the vehicle driver; a blocked area identifying part that is configured to identify a blocked area (N') based on driver information where the field of view of the driver is blocked by the structure; a displaying controlling part that is configured to control the image displayed on the displaying part ; characterized in that a blocked area ratio calculating part that is configured to calculate a blocked area ratio, the blocked area ratio being a ratio of an area that the blocked area (N') overlaps the obstacle area (R') out of a total area of the obstacle area (R'); and wherein the display controlling part is configured to: display a driver's point of view image obtained by converting a viewpoint of the image captured by the imaging part based on the driver information when the blocked area ratio equals to a predetermined value or higher; and not to display the driver's point of view image on the displaying part when the blocked area ratio is less than the predetermined value. display a driver's point of view image obtained by converting a viewpoint of the image captured by the imaging part based on the driver information when the blocked area ratio equals to a predetermined value or higher; and not to display the driver's point of view image on the displaying part when the blocked area ratio is less than the predetermined value.