mhurhangee/patent-ind-claim-en huggingface dataset:
Operating mechanism for opening and closing at least one contact , which operating mechanism comprises: - a base frame ; - a bridge body movable relative to the base frame between a closed position in which the at least one contact is closed and an opened position in which the at least one contact is opened, wherein the bridge body has a contact surface with a length and a width, which contact surface is configured to be in contact with an operating rod of the at least one contact ; - a rod mechanism formed of a first link and a second link, wherein a first end of each of the two links are hinging with each other, wherein a second end of the first link is hinging with the base frame and a second end of the second link is hinging with the bridging body ; - a cam arranged on a shaft , wherein the shaft is arranged adjacent to the rod mechanism such that the cam is in operating contact with a hinging axis of the first ends of the two links , wherein the shaft extends parallel to the hinging axes of the rod mechanism ; characterized by - a locking lever having a first end and a second end , the first end fixedly arranged to the second end of the first link , wherein the locking lever moves with the first link between a locked position and an unlocked position; - a control shaft having a D-shaft portion with a flat surface portion and a semi cylindrical surface portion ; wherein the D-shaft portion can be rotated between a pass position, in which a path of the second end of the locking lever is positioned outside of the circumference of the cross-section of the D-shaft portion , and a lock position in which the path of the second end of the locking lever intersects with the circumference of the cross-section of the D-shaft portion . - a base frame ; - a bridge body movable relative to the base frame between a closed position in which the at least one contact is closed and an opened position in which the at least one contact is opened, wherein the bridge body has a contact surface with a length and a width, which contact surface is configured to be in contact with an operating rod of the at least one contact ; - a rod mechanism formed of a first link and a second link, wherein a first end of each of the two links are hinging with each other, wherein a second end of the first link is hinging with the base frame and a second end of the second link is hinging with the bridging body ; - a cam arranged on a shaft , wherein the shaft is arranged adjacent to the rod mechanism such that the cam is in operating contact with a hinging axis of the first ends of the two links , wherein the shaft extends parallel to the hinging axes of the rod mechanism ; characterized by - a locking lever having a first end and a second end , the first end fixedly arranged to the second end of the first link , wherein the locking lever moves with the first link between a locked position and an unlocked position; - a control shaft having a D-shaft portion with a flat surface portion and a semi cylindrical surface portion ;
A robot control method applicable to a mobile terminal, wherein the mobile terminal establishes connection with a robot via a local area network by scanning a two-dimensional code of the robot, wherein the method comprises following steps of: acquiring operation instruction information from a user on an operation interface, wherein the operation instruction information comprises a control parameter and an action execution parameter; setting the control parameter and the action execution parameter; generating first control instruction information according to a set control parameter and a set action execution parameter; and sending the first control instruction information to the robot via a wireless communication network, such that the robot executes a corresponding action according to the first control instruction information; characterized in that the method further comprises following steps of: acquiring working information of the robot; and sending the working information via a wide area network to a remote monitoring center; wherein the sending the working information via a wide area network to a remote monitoring center comprises: interrupting a local area network connection with the robot; establishing connection with the remote monitoring center via the wide area network, and sending the working information to the remote monitoring center; and reestablishing the local area network connection with the robot after information has been sent. acquiring operation instruction information from a user on an operation interface, wherein the operation instruction information comprises a control parameter and an action execution parameter; setting the control parameter and the action execution parameter; generating first control instruction information according to a set control parameter and a set action execution parameter; and sending the first control instruction information to the robot via a wireless communication network, such that the robot executes a corresponding action according to the first control instruction information; characterized in that the method further comprises following steps of: acquiring working information of the robot; and sending the working information via a wide area network to a remote monitoring center; acquiring working information of the robot; and sending the working information via a wide area network to a remote monitoring center; wherein the sending the working information via a wide area network to a remote monitoring center comprises: interrupting a local area network connection with the robot; establishing connection with the remote monitoring center via the wide area network, and sending the working information to the remote monitoring center; and reestablishing the local area network connection with the robot after information has been sent. interrupting a local area network connection with the robot; establishing connection with the remote monitoring center via the wide area network, and sending the working information to the remote monitoring center; and reestablishing the local area network connection with the robot after information has been sent.
A root end transport frame for a transport system for a wind turbine blade having a tip end and a root end with a root end face, the blade further having a bolt circle diameter D at said root end, wherein the root end transport frame is configured to supporting a root end of a wind turbine blade; wherein said root end transport frame has a height H, which is less than the bolt circle diameter D at said root end; and wherein the root end transport frame comprises: a frame body , characterised in that the root end frame further comprises: a root end plate for coupling to the root end face of the wind turbine blade, wherein the root end plate is hingedly coupled to the frame body , and wherein the frame body is configured to extend along the root end face of the wind turbine blade, when the wind turbine blade is connected to the root end transport frame. wherein said root end transport frame has a height H, which is less than the bolt circle diameter D at said root end; and wherein the root end transport frame comprises: a frame body , characterised in that the root end frame further comprises: a root end plate for coupling to the root end face of the wind turbine blade, wherein the root end plate is hingedly coupled to the frame body , and wherein the frame body is configured to extend along the root end face of the wind turbine blade, when the wind turbine blade is connected to the root end transport frame. a root end plate for coupling to the root end face of the wind turbine blade, wherein the root end plate is hingedly coupled to the frame body , and wherein the frame body is configured to extend along the root end face of the wind turbine blade, when the wind turbine blade is connected to the root end transport frame.
A cold rolled and annealed martensitic steel sheet comprising, by weight percent: 0.30 ≤ C ≤ 0.5%; 0.2 ≤ Mn ≤ 1.0%; 0.5 ≤ Si ≤ 3.0%; 0.02 ≤ Ti ≤ 0.05%; 0.001 ≤ N ≤ 0.008%; 0.0010 ≤ B ≤ 0.0030%; 0.01 ≤ Nb ≤ 0.1%; 0.2 ≤ Cr ≤ 2.0%; P ≤ 0.02%; S ≤ 0.005%; Al ≤1%; Mo ≤ 1%; and Ni ≤ 0.5%; the remainder of the composition being iron and unavoidable impurities resulting from melting; the microstructure being 100% martensitic with a prior austenite grain size lower than 20μm, the martensite being tempered martensite; and the steel sheet having a delayed fracture resistance of at least 24 hours during an acid immersion U-bend test, and a tensile strength of at least 1700 MPa, a yield strength of at least 1300 MPa and a total elongation of at least 3%, the tensile strength, the yield strength and the total elongation being measured using the ASTM E 8 standard. 0.30 ≤ C ≤ 0.5%; 0.2 ≤ Mn ≤ 1.0%; 0.5 ≤ Si ≤ 3.0%; 0.02 ≤ Ti ≤ 0.05%; 0.001 ≤ N ≤ 0.008%; 0.0010 ≤ B ≤ 0.0030%; 0.01 ≤ Nb ≤ 0.1%; 0.2 ≤ Cr ≤ 2.0%; P ≤ 0.02%; S ≤ 0.005%; Al ≤1%; Mo ≤ 1%; and Ni ≤ 0.5%; the remainder of the composition being iron and unavoidable impurities resulting from melting; the microstructure being 100% martensitic with a prior austenite grain size lower than 20μm, the martensite being tempered martensite; and the steel sheet having a delayed fracture resistance of at least 24 hours during an acid immersion U-bend test, and a tensile strength of at least 1700 MPa, a yield strength of at least 1300 MPa and a total elongation of at least 3%, the tensile strength, the yield strength and the total elongation being measured using the ASTM E 8 standard.
A unitary airlaid nonwoven material comprising three layers of fibers, the first layer being the top layer, the second layer being the middle layer, and the third layer being the bottom layer, wherein the first layer comprises synthetic fibers, the second layer comprises cellulose fibers and synthetic fibers, and the third layer comprises cellulose fibers and a high core bicomponent fiber having a core to sheath ratio that exceeds 1:1 in that the core forms more than 50% by weight of the high core bicomponent fiber, wherein hardwood bonded natural cellulosic fibers having a coarseness in a range of from 4.2 mg/100 m to 8.8 mg/100 m are contained in the second layer or the third layer, wherein the synthetic fibers of the first layer comprise bicomponent fibers in an eccentric configuration, and wherein the high core bicomponent fiber comprises a polyethylene-based sheath and a core comprising a polymer having a melting point above about 200°C and higher density than the polyethylene sheath, and wherein the synthetic fibers of the second layer comprise low core bicomponent fibers wherein the core forms less than 50% and 30% or more by weight of the low core bicomponent fiber.
A plastic extruded building formwork component comprising first and second spaced sidewalls having two or more webs extending between the first and second spaced sidewalls , each sidewall comprising: a flange extending inwardly along a first edge of the sidewall such that an outer surface of the flange forms a ramp surface ; and a groove extending along an opposing second edge of the sidewall ; wherein the component may be coupled to a like component by relative movement of the components towards each other, whereby the flanges are received in respective grooves of the like component , and characterised in that the ramp surfaces facilitate such coupling by engaging respective second edges of the like component to cause the sidewall adjacent the groove to flex to thereby move the groove inwards and/or ramp surfaces outwards for a snap-locking engagement of the flanges in the grooves ; and one of the two or more webs is located nearest to but spaced from the groove whereby a length of the sidewall extending between the web and the groove is such as to allow the flexing of the sidewall to facilitate the snap-locking engagement of the flange in the groove ; and at least another one of the two or more webs extends between the sidewalls in proximity to the flanges so as to inhibit movement of the sidewalls adjacent to the flanges . a flange extending inwardly along a first edge of the sidewall such that an outer surface of the flange forms a ramp surface ; and a groove extending along an opposing second edge of the sidewall ; wherein the component may be coupled to a like component by relative movement of the components towards each other, whereby the flanges are received in respective grooves of the like component , and characterised in that the ramp surfaces facilitate such coupling by engaging respective second edges of the like component to cause the sidewall adjacent the groove to flex to thereby move the groove inwards and/or ramp surfaces outwards for a snap-locking engagement of the flanges in the grooves ; and one of the two or more webs is located nearest to but spaced from the groove whereby a length of the sidewall extending between the web and the groove is such as to allow the flexing of the sidewall to facilitate the snap-locking engagement of the flange in the groove ; and at least another one of the two or more webs extends between the sidewalls in proximity to the flanges so as to inhibit movement of the sidewalls adjacent to the flanges .
A reconstituted HC-HA/PTX3 (rcHC-HA/PTX3) complex comprising high molecular weight hyaluronan (HA), inter-α-inhibitor (IαI) protein heavy chain 1 (HC1), inter-α-inhibitor (IαI) protein heavy chain 2 (HC2), pentraxin 3 (PTX3) protein, and tumor necrosis factor α-stimulated gene 6 (TSG-6), wherein the complex is obtainable by reconstitution using a molar ratio of at least 3:1 of IαI to TSG-6.
A system for determining the relative locations of a plurality of well boreholes, the system comprising: a processor ; a memory coupled to the processor, wherein the memory comprises instructions executable by the processor; and a fiber optic cable located in a first well borehole and coupled to the processor , wherein the fiber optic cable is adapted to sense acoustic signals from drilling operations for a second well borehole , and wherein the instructions comprise instructions for: receiving data from the fiber optic cable corresponding to the acoustic signals; processing the data; determining, responsive to the data from the fiber optic cable , a location of the second well borehole relative to a location of the first well borehole ; and determining, responsive to the data from the fiber optic cable , a 3D shape of the second well borehole . a processor ; a memory coupled to the processor, wherein the memory comprises instructions executable by the processor; and a fiber optic cable located in a first well borehole and coupled to the processor , wherein the fiber optic cable is adapted to sense acoustic signals from drilling operations for a second well borehole , and wherein the instructions comprise instructions for: receiving data from the fiber optic cable corresponding to the acoustic signals; processing the data; determining, responsive to the data from the fiber optic cable , a location of the second well borehole relative to a location of the first well borehole ; and determining, responsive to the data from the fiber optic cable , a 3D shape of the second well borehole . receiving data from the fiber optic cable corresponding to the acoustic signals; processing the data; determining, responsive to the data from the fiber optic cable , a location of the second well borehole relative to a location of the first well borehole ; and determining, responsive to the data from the fiber optic cable , a 3D shape of the second well borehole .
Filter cartridge for a household appliance, which is provided with a filter housing , the wall of which separates a housing internal side from a housing external side, wherein a filter inlet opening which in the operation of the filter cartridge is open in relation to the external environment of the filter housing is provided, wherein a device for water conduction which comprises at least one filter chamber having at least one filter medium and terminates in a filter outlet opening for suctioning water from the filter cartridge is provided in the interior of the filter housing downstream of the filter inlet opening relative to the flow direction during operation, and wherein a filter connection element having an annular filter port which has an annular filter fixing face for the tight connection of the filter cartridge to a tank fixing face in the water tank is provided, characterized in that the profile of the first filter fixing face along the circumference of the annular filter port has a variable radius in relation to a central axis, so that the first filter fixing face comprises radial convexities and/or radial concavities , wherein the convexities and/or concavities have a round profile and in that the convexities and concavities form a wave shape along a circular line , wherein the wave shape is composed of an alternating sequence of convex circle segments , forming the convexities, and concave circle segments , forming the concavities.
A gas turbine engine comprising: a fan delivering air into a bypass duct (B) as bypass air and into a core engine, said core engine including a high pressure compressor (52; 101), a combustor (56; 110), and a turbine section including a fan drive turbine driving a fan rotor through a gear reduction , said high pressure compressor (52; 101) having a downstream most location and air in a chamber radially outward of said combustor (56;110) being air downstream of said downstream most location in said high pressure compressor (52; 101); and a tap for tapping compressed air and moving compressed air through a heat exchanger , then returning said compressed air back into a core engine housing and passing the returned air through a conduit radially outwardly of said combustor (56;110), and said air passing from said conduit radially inwardly to cool said turbine section , characterised in that : said conduit is defined between inner and outer housing walls and extends in an upstream direction to be aligned with a compressor diffuser positioned downstream of said downstream most location in said high pressure compressor (52;101). a fan delivering air into a bypass duct (B) as bypass air and into a core engine, said core engine including a high pressure compressor (52; 101), a combustor (56; 110), and a turbine section including a fan drive turbine driving a fan rotor through a gear reduction , said high pressure compressor (52; 101) having a downstream most location and air in a chamber radially outward of said combustor (56;110) being air downstream of said downstream most location in said high pressure compressor (52; 101); and a tap for tapping compressed air and moving compressed air through a heat exchanger , then returning said compressed air back into a core engine housing and passing the returned air through a conduit radially outwardly of said combustor (56;110), and said air passing from said conduit radially inwardly to cool said turbine section ,
An optical system of multi LiDAR scanner using mirror rotation, the system comprising: a first mirror configured to form a predetermined first angle with a horizontal surface and having a first hollow hole; a light source configured to output a pulse laser from a bottom surface of the first mirror ; a second mirror to be rotated with the first mirror and so arranged as to form a predetermined second angle with the first mirror in order to allow the pulse laser to advance to a measurement target by passing through the first hollow hole; a light receiving lens ; a light detection part configured to convert a light signal received from the light receiving lens to an electric signal; and a motor to rotate the first mirror ; characterized by at least two path control mirrors (212-214) configured to reflect the pulse laser in order to form a light path of the pulse laser using a reflection surface of the second mirror ; wherein the light receiving lens is configured to receive, from a bottom surface of the first mirror , a light reflected through the first mirror ; the motor is configured to be arranged between the light receiving lens and the first mirror ; the light source , the light receiving lens and the light detection part are arranged on a same block disposed at a bottom surface of the first mirror ; and wherein the motor is configured to drive the first mirror at 360°. a first mirror configured to form a predetermined first angle with a horizontal surface and having a first hollow hole; a light source configured to output a pulse laser from a bottom surface of the first mirror ; a second mirror to be rotated with the first mirror and so arranged as to form a predetermined second angle with the first mirror in order to allow the pulse laser to advance to a measurement target by passing through the first hollow hole; a light receiving lens ; a light detection part configured to convert a light signal received from the light receiving lens to an electric signal; and a motor to rotate the first mirror ; characterized by at least two path control mirrors (212-214) configured to reflect the pulse laser in order to form a light path of the pulse laser using a reflection surface of the second mirror ; wherein the light receiving lens is configured to receive, from a bottom surface of the first mirror , a light reflected through the first mirror ; the motor is configured to be arranged between the light receiving lens and the first mirror ; the light source , the light receiving lens and the light detection part are arranged on a same block disposed at a bottom surface of the first mirror ; and wherein the motor is configured to drive the first mirror at 360°.
A scroll compressor comprising: a rotating shaft body that is installed in a housing and rotates around an axis of the housing; a movable scroll revolving around an eccentric shaft integrated with the rotating shaft body to revolve around the axis at a position eccentric to an axis of the rotating shaft body; and a fixed scroll fixed to the housing; and bearings that slidably support the rotating shaft body and the eccentric shaft, the bearings being installed within the housing, wherein at least one of the bearings is a sliding bearing including a back metal , and a sliding layer formed on the back metal by baking, the sliding layer includes 5 to 60 wt% of graphite including particles, with a balance of at least one of polyamide-imide resin and polyimide resin, characterized in that the particles have an average diameter of 5 to 50 μm, a graphitization degree of 0.6 or more, and 50 % or more of the particles in a number ratio have a particle ratio more than or equal to 0.5; wherein the particle ratio is the ratio between a graphite minor axis and major axis. a rotating shaft body that is installed in a housing and rotates around an axis of the housing; a movable scroll revolving around an eccentric shaft integrated with the rotating shaft body to revolve around the axis at a position eccentric to an axis of the rotating shaft body; and a fixed scroll fixed to the housing; and bearings that slidably support the rotating shaft body and the eccentric shaft, the bearings being installed within the housing, wherein at least one of the bearings is a sliding bearing including a back metal , and a sliding layer formed on the back metal by baking, a back metal , and a sliding layer formed on the back metal by baking, the sliding layer includes 5 to 60 wt% of graphite including particles, with a balance of at least one of polyamide-imide resin and polyimide resin, characterized in that the particles have an average diameter of 5 to 50 μm, a graphitization degree of 0.6 or more, and 5 to 60 wt% of graphite including particles, with a balance of at least one of polyamide-imide resin and polyimide resin, characterized in that the particles have an average diameter of 5 to 50 μm, a graphitization degree of 0.6 or more, and 50 % or more of the particles in a number ratio have a particle ratio more than or equal to 0.5; wherein the particle ratio is the ratio between a graphite minor axis and major axis.