mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for supplying cables to robots at non-static locations, comprising: a work platform for supporting one or more humans; a base platform for movably supporting one or more robots independently of the work platform , wherein the work platform is positioned above the base platform , a plurality of cables of a cable carrier system, positioned above the base platform and underneath the work platform , for supplying the one or more robots along a side of the work platform , which cables are stacked and nested so that they do not interfere with each other and so that a first one of the cables reaches any location aft of a second one of the cables and the second one of the cables reaches any location forward of the first one of the cables, wherein the work platform is mounted on one or more risers above the base platform , and the risers include a support section for the cables , thereby holding the cables far enough away from an opposite side of the work platform to allow for a double bend in the cables , in order to allow the one or more robots to reach all available positions and for the cables to be fully extended and retracted as the one or more robots are positioned. a work platform for supporting one or more humans; a base platform for movably supporting one or more robots independently of the work platform , wherein the work platform is positioned above the base platform , a plurality of cables of a cable carrier system, positioned above the base platform and underneath the work platform , for supplying the one or more robots along a side of the work platform , which cables are stacked and nested so that they do not interfere with each other and so that a first one of the cables reaches any location aft of a second one of the cables and the second one of the cables reaches any location forward of the first one of the cables, wherein the work platform is mounted on one or more risers above the base platform , and the risers include a support section for the cables , thereby holding the cables far enough away from an opposite side of the work platform to allow for a double bend in the cables , in order to allow the one or more robots to reach all available positions and for the cables to be fully extended and retracted as the one or more robots are positioned.
Ozone sanitizing device comprising: - a supporting frame , positionable inside a room to be sanitized; - ozone sanitizing means mounted on said supporting frame and configured to release ozone into said room; - deozonization means configured to deozonize said room subsequently to said ozone sanitization; wherein said deozonization means comprises at least: - a fluid-operated deozonizing circuit provided with an inlet port for taking the air to be deozonized from said room and an outlet port for introducing the deozonized air into said room, - filtering means , arranged along said fluid-operated deozonizing circuit and positioned between said inlet port and said outlet port , configured to remove said ozone from said air to be deozonized; characterized by the fact that said filtering means comprise at least one filtering fluid comprising at least water and adapted to deozonize said air taken from said room. - a supporting frame , positionable inside a room to be sanitized; - ozone sanitizing means mounted on said supporting frame and configured to release ozone into said room; - deozonization means configured to deozonize said room subsequently to said ozone sanitization; wherein said deozonization means comprises at least: - a fluid-operated deozonizing circuit provided with an inlet port for taking the air to be deozonized from said room and an outlet port for introducing the deozonized air into said room, - filtering means , arranged along said fluid-operated deozonizing circuit and positioned between said inlet port and said outlet port , configured to remove said ozone from said air to be deozonized; - a fluid-operated deozonizing circuit provided with an inlet port for taking the air to be deozonized from said room and an outlet port for introducing the deozonized air into said room, - filtering means , arranged along said fluid-operated deozonizing circuit and positioned between said inlet port and said outlet port , configured to remove said ozone from said air to be deozonized; characterized by the fact that said filtering means comprise at least one filtering fluid comprising at least water and adapted to deozonize said air taken from said room.
A vaccine comprising an IgM protease antigen of Streptococcus suis, for use in a method for protecting piglets having maternally derived anti -Streptococcus suis antibodies against Streptococcus suis, by administering the vaccine to the piglets at an age of at most 28 days.
A planetary gear system comprising: a sun gear having external teeth; a ring gear which is formed as a double helical gear having a pair of helical gears with internal teeth, said pair of helical gears being aligned in an axial direction, and a first annular groove is formed between the pair of helical gears; at least one planet gear having, at its outer circumferential face, external teeth and a second annular groove , the external teeth being meshed with the external teeth of the sun gear and the internal teeth of the ring gear and being formed of a pair of sets of teeth aligned in the axial direction, the second annular groove being formed between the pair of sets of teeth; a fixed support shaft provided for each of the at least one planet gear and configured to rotatably support the planet gear via a bearing , the bearing including a pair of rolling element rows aligned in the axial direction; an oil supply path (LP) through which lubricating oil is supplied, at an inner side of the planet gear , to the pair of rolling element rows ; and an oil discharge path which extends through the planet gear and through which the lubricating oil is discharged to the second annular groove from space between the pair of rolling element rows which are provided at the inner side of the planet gear ; multiple outlets which extend through the ring gear in a radial direction and through which the lubricating oil is discharged from the first annular groove in the radial direction. a sun gear having external teeth; a ring gear which is formed as a double helical gear having a pair of helical gears with internal teeth, said pair of helical gears being aligned in an axial direction, and a first annular groove is formed between the pair of helical gears; at least one planet gear having, at its outer circumferential face, external teeth and a second annular groove , the external teeth being meshed with the external teeth of the sun gear and the internal teeth of the ring gear and being formed of a pair of sets of teeth aligned in the axial direction, the second annular groove being formed between the pair of sets of teeth; a fixed support shaft provided for each of the at least one planet gear and configured to rotatably support the planet gear via a bearing , the bearing including a pair of rolling element rows aligned in the axial direction; an oil supply path (LP) through which lubricating oil is supplied, at an inner side of the planet gear , to the pair of rolling element rows ; and an oil discharge path which extends through the planet gear and through which the lubricating oil is discharged to the second annular groove from space between the pair of rolling element rows which are provided at the inner side of the planet gear ; multiple outlets which extend through the ring gear in a radial direction and through which the lubricating oil is discharged from the first annular groove in the radial direction.
A projection display system, comprising: a first light source configured to emit a first light; a first light modulation system configured to receive the first light and modulate the first light into a first image light; a supplementary light source configured to emit at least a supplementary light, a spectrum of the first light comprising a spectrum of the supplementary light; a second light modulation system configured to receive the supplementary light and modulate the supplementary light into a supplementary image light; a light combining device positioned in an emergent light path of the first light modulation system and an emergent light path of the second light modulation system, and configured to combine the first image light and the supplementary image light, a beam cross-sectional area of the first image light being greater than a beam cross-sectional area of the supplementary image light at a light combining position; and a projection lens system positioned in the emergent light path of the first light modulation system and the emergent light path of the second light modulation system, and configured to image and overlap the first image light and the supplementary image light at a predetermined position. a first light source configured to emit a first light; a first light modulation system configured to receive the first light and modulate the first light into a first image light; a supplementary light source configured to emit at least a supplementary light, a spectrum of the first light comprising a spectrum of the supplementary light; a second light modulation system configured to receive the supplementary light and modulate the supplementary light into a supplementary image light; a light combining device positioned in an emergent light path of the first light modulation system and an emergent light path of the second light modulation system, and configured to combine the first image light and the supplementary image light, a beam cross-sectional area of the first image light being greater than a beam cross-sectional area of the supplementary image light at a light combining position; and a projection lens system positioned in the emergent light path of the first light modulation system and the emergent light path of the second light modulation system, and configured to image and overlap the first image light and the supplementary image light at a predetermined position.
Radar sensor system , comprising: - a defined number of RF components (10a...10d), each of the RF components (10a...10d) comprising at least one antenna for transmitting and/or receiving radar waves and at least one antenna controller for operating the at least one antenna; and - a synchronization network , to which all of the RF components (10a...10d) are functionally linked, that is used to provide an RF signal for all of the RF components (10a...10d); wherein - at least two RF components (10a...10n) each comprise a self-supply device (21a...21d; 22a... 22d) for feeding back a defined proportion of power in the RF signal supplied to the synchronization network , the RF signal for all of the RF components (10a...10d) being generated at a defined time by an RF component (10a...10d) that is operated as a master RF component (10a...10d), wherein - the radar sensor system is functionally divided into at least two sensor subsystems , characterized in that the RF components (10a...10n) comprising a self-supply device (21a...21d; 22a...22d) are operated as non-concurrently operated master RF components (10a...10n) that are each arranged in one of the sensor subsystems together with at least one RF component (10a...10n) that is operated as a slave RF component (10a...10d), the RF component that is not operated as a master RF component (10a...10d) being operated as a slave RF component (10a...10n). - a defined number of RF components (10a...10d), each of the RF components (10a...10d) comprising at least one antenna for transmitting and/or receiving radar waves and at least one antenna controller for operating the at least one antenna; and - a synchronization network , to which all of the RF components (10a...10d) are functionally linked, that is used to provide an RF signal for all of the RF components (10a...10d); wherein - at least two RF components (10a...10n) each comprise a self-supply device (21a...21d; 22a... 22d) for feeding back a defined proportion of power in the RF signal supplied to the synchronization network , the RF signal for all of the RF components (10a...10d) being generated at a defined time by an RF component (10a...10d) that is operated as a master RF component (10a...10d), wherein - the radar sensor system is functionally divided into at least two sensor subsystems , characterized in that the RF components (10a...10n) comprising a self-supply device (21a...21d; 22a...22d) are operated as non-concurrently operated master RF components (10a...10n) that are each arranged in one of the sensor subsystems together with at least one RF component (10a...10n) that is operated as a slave RF component (10a...10d), the RF component that is not operated as a master RF component (10a...10d) being operated as a slave RF component (10a...10n).
A method, comprising: at an electronic device with a touch-sensitive display : while displaying a user interface that includes a first region that corresponds to a first software application and a second region that corresponds to a second software application that is distinct from the first software application, wherein a boundary region of the first region is included in the first region and located between a non-boundary region of the first region and the second region in the user interface : receiving a first touch input, on the touch-sensitive display , that originates from a first location on the touch-sensitive display that corresponds to the first region of the user interface and extends to a second location on the touch-sensitive display that corresponds to the second region of the user interface , wherein the first location is in the boundary region of the first region ; in response to detecting the first touch input at the first location on the touch-sensitive display , sending a touch began event (709-1) to the first software application; and, subsequent to sending the touch began event to the first software application: in response to detecting that the first touch input is no longer associated with the first region of the user interface on the touch-sensitive display, sending a touch cancel event (709-3) to the first software application; and, in response to detecting that the first touch input has entered the second region of the user interface on the touch-sensitive display , sending a touch began event (709-4) to the second software application. receiving a first touch input, on the touch-sensitive display , that originates from a first location on the touch-sensitive display that corresponds to the first region of the user interface and extends to a second location on the touch-sensitive display that corresponds to the second region of the user interface , wherein the first location is in the boundary region of the first region ; in response to detecting the first touch input at the first location on the touch-sensitive display , sending a touch began event (709-1) to the first software application; and, subsequent to sending the touch began event to the first software application: in response to detecting that the first touch input is no longer associated with the first region of the user interface on the touch-sensitive display, sending a touch cancel event (709-3) to the first software application; and, in response to detecting that the first touch input has entered the second region of the user interface on the touch-sensitive display , sending a touch began event (709-4) to the second software application. in response to detecting that the first touch input is no longer associated with the first region of the user interface on the touch-sensitive display, sending a touch cancel event (709-3) to the first software application; and, in response to detecting that the first touch input has entered the second region of the user interface on the touch-sensitive display , sending a touch began event (709-4) to the second software application.
A non-therapeutic method of inducing collagen synthesis in skeletal muscle in a mammal comprising orally administering to the mammal in need of such treatment a therapeutically effective amount of Shilajit, wherein the body of the mammal synthesizes new collagen and optionally one or more proteins selected from the group consisting of tenascin, decorin, elastin, myoferlin, fibrillin, and fibronectin; wherein the Shilajit comprises not less than 0.3% dibenzo-α-pyrones; not less than 10.0% dibenzo-α-pyrones conjugated with chromoproteins; not less than 50% of fulvic acids having a dibenzo-α-pyrone nucleus; less than 1 ppm of lead; less than 1 ppm of arsenic; and less than 0.1 ppm of mercury; and wherein the induction of collagen synthesis in skeletal muscle and the one or more proteins is increased synergistically with exercise.
An uplink power control method, comprising determining (S101), by a terminal device, a power control scaling rule of an uplink signal according to a power capability of a terminal device, wherein the power capability of the terminal device comprises: power capability indicated by a power capability indication message sent by the terminal device to the network device; and/or determining, by the terminal device, a power control scaling rule of an uplink signal according to a first instruction message from a network device, wherein the first instruction message carries a first parameter, the first parameter indicates a type of the power control scaling rule, and different types correspond to different power control scaling rules; processing (S105), by the terminal device, transmit power of the uplink signal according to the power control scaling rule, and determining, by the terminal device, transmit power on each antenna port of the uplink signal according to the processed transmit power. determining (S101), by a terminal device, a power control scaling rule of an uplink signal according to a power capability of a terminal device, wherein the power capability of the terminal device comprises: power capability indicated by a power capability indication message sent by the terminal device to the network device; and/or determining, by the terminal device, a power control scaling rule of an uplink signal according to a first instruction message from a network device, wherein the first instruction message carries a first parameter, the first parameter indicates a type of the power control scaling rule, and different types correspond to different power control scaling rules; processing (S105), by the terminal device, transmit power of the uplink signal according to the power control scaling rule, and determining, by the terminal device, transmit power on each antenna port of the uplink signal according to the processed transmit power.
A tyre comprising: a tread portion being provided with a pair of shoulder circumferential grooves on an outer surface thereof and a tread reinforcing layer disposed in the tread portion , the tread reinforcing layer comprising a circumferential belt layer having a plurality of first reinforcing cords oriented along a tyre circumferential direction, the circumferential belt layer comprising a pair of axially spaced first circumferential belt plies extending in radially inner regions (R) of the pair of shoulder circumferential grooves and a pair of axially spaced second circumferential belt plies that is superimposed on the pair of first circumferential belt plies , and the pair of first circumferential belt plies being arranged apart from one another at a distance (L) equal to or more than 20 mm in a tyre axial direction, characterized in that each of the pair of second circumferential belt plies is located outwardly in the tyre axial direction with respect to a respective one of groove centerline positions of the pair of shoulder circumferential grooves . a tread portion being provided with a pair of shoulder circumferential grooves on an outer surface thereof and a tread reinforcing layer disposed in the tread portion , the tread reinforcing layer comprising a circumferential belt layer having a plurality of first reinforcing cords oriented along a tyre circumferential direction, the circumferential belt layer comprising a pair of axially spaced first circumferential belt plies extending in radially inner regions (R) of the pair of shoulder circumferential grooves and a pair of axially spaced second circumferential belt plies that is superimposed on the pair of first circumferential belt plies , and the pair of first circumferential belt plies being arranged apart from one another at a distance (L) equal to or more than 20 mm in a tyre axial direction, characterized in that each of the pair of second circumferential belt plies is located outwardly in the tyre axial direction with respect to a respective one of groove centerline positions of the pair of shoulder circumferential grooves .
Medical device comprising a guide unit having a guide tube (2.2) with a longitudinal axis (A) and a proximal first coupling part (2.1) being fixedly connected to the guide tube (2.2), wherein the guide unit comprises a distal pivoting head (2.3) with a cylindrical surface, wherein the pivoting head (2.3) is pivotable relative to the guide tube via diagonally opposite joints (2.3.1) formed at the distal end of the guide tube (2.2), wherein said medical device also comprising an actuating tube (3.3) which is axially movable in the guide tube (2.2) and is connected to the pivoting head (2.3), causing a pivoting movement of the pivoting head (2.3) by means of a proximal operating element (3.2) wherein the operating element (3.2) is pivotable about the longitudinal axis (A) and causes the pivoting movement of the pivoting head (2.3) with axial displacement of the actuating tube (3.3).