mhurhangee/patent-ind-claim-en huggingface dataset:
A medical robot comprising an insertion member held by the medical robot in a rotatable manner, and a rotation position detection unit detecting a rotation position of the insertion member, wherein the rotation position detection unit comprises: a motor ; a drive-side pulley that is connected to the motor and rotationally driven by the motor around a drive shaft of the motor ; a driven-side pulley that rotates around a first axis of rotation (Ad); a transmission belt that transmits rotational drive of the drive-side pulley to the driven-side pulley ; a rotary encoder that is connected to the first axis of rotation (Ad) and detects a rotation angle of the driven-side pulley ; and a control unit that controls drive of the motor and to which a detection result by the rotary encoder is input, wherein the insertion member rotates in association with rotation of the drive-side pulley , a diameter of the drive-side pulley is smaller than a diameter of the driven-side pulley , and the control unit calculates the rotation position of the insertion member based on the rotation angle of the driven-side pulley and a pulley ratio obtained by dividing the diameter of the drive-side pulley by the diameter of the driven-side pulley . a motor ; a drive-side pulley that is connected to the motor and rotationally driven by the motor around a drive shaft of the motor ; a driven-side pulley that rotates around a first axis of rotation (Ad); a transmission belt that transmits rotational drive of the drive-side pulley to the driven-side pulley ; a rotary encoder that is connected to the first axis of rotation (Ad) and detects a rotation angle of the driven-side pulley ; and a control unit that controls drive of the motor and to which a detection result by the rotary encoder is input, wherein the insertion member rotates in association with rotation of the drive-side pulley , a diameter of the drive-side pulley is smaller than a diameter of the driven-side pulley , and the control unit calculates the rotation position of the insertion member based on the rotation angle of the driven-side pulley and a pulley ratio obtained by dividing the diameter of the drive-side pulley by the diameter of the driven-side pulley .
A marine vessel having a door incorporated into a hull of the vessel, the marine vessel comprising a hull , a door opening provided in the hull and extending between an exterior surface of the hull and an area within the hull , and a door , wherein the door is hingedly mounted to the hull within the door opening by a hinge mechanism having a hinge axis (X-X) which extends laterally across the door between opposite sides of the door , the door being pivotally movable about the hinge axis between a closed position in which a periphery of the door is surrounded by a door frame of the door opening and an open position in which the door is in a substantially horizontal orientation and extends outwardly away from the exterior surface of the hull , wherein the hinge mechanism has first and second hinge elements extending outwardly from respective opposite sides of the door into respective hinge mounts within the hull , an inner face of the door has a pair of sockets with open ends oriented towards the inner face of the door , each socket being located in the vicinity of both an upper or lower edge of the door and a respective one of the opposite sides of the door , and a pair of retractable pin mechanisms fitted to the hull , each retractable pin mechanism comprising a pin , which is movable within a housing fitted to the door frame , between a retracted position, in which the pin is located substantially within the door frame , and an extended position, in which the pin extends forwardly from the door frame in a transverse direction oriented towards the exterior surface of the hull and, when the door is in the closed position, is received within a respective socket to form a structural load-bearing assembly therebetween, and an actuator mechanism for moving the pins between the retracted and extended positions.
An automatic actuator-controlled hinged towing device comprising a towing arm , a needle bearing , a mount of the rotary shaft , locking cap , a towing device beam , a towing device beam flange , balls , at least one end switch , a cam , an expansion spindle , main spring and backup spring , an actuator , a cam pins and outer ring with - a rotary shaft , to which at one end the towing arm is pressed on, wherein the needle bearing is mounted in the middle section of the rotary shaft , wherein behind the needle bearing , there is the mount for the rotary shaft , wherein the mount is connected to the outer ring of the needle bearing and on the other side it is connected to the locking cap , wherein the outer ring and the locking cap are firmly connected to the towing device beam flange , wherein in the bottom section of the rotary shaft behind the mount , there are holes perpendicular to the rotary shaft rotation axis, wherein the rotary shaft forms a guide for the balls , wherein at least one of the balls is in the respective geometrical arrangement of the locking cap opposite to the at least one end switch , wherein on the other end, there is an extension , which is connected to the cam , characterized characterized in that the towing arm is secured by the pins and in that in the longitudinal axis of the rotary shaft , the rotary shaft comprising a hole receiving the expansion spindle , the main spring and the backup spring , wherein the expansion spindle is actuated in one direction by the springs and in the other direction by the axial cam connected to the actuator stored in the cam . - a rotary shaft , to which at one end the towing arm is pressed on, wherein the needle bearing is mounted in the middle section of the rotary shaft , wherein behind the needle bearing , there is the mount for the rotary shaft , wherein the mount is connected to the outer ring of the needle bearing and on the other side it is connected to the locking cap , wherein the outer ring and the locking cap are firmly connected to the towing device beam flange , wherein in the bottom section of the rotary shaft behind the mount , there are holes perpendicular to the rotary shaft rotation axis, wherein the rotary shaft forms a guide for the balls , wherein at least one of the balls is in the respective geometrical arrangement of the locking cap opposite to the at least one end switch , wherein on the other end, there is an extension , which is connected to the cam ,
A rubber composition comprising: 5 to 30 parts by mass of a terpene resin having a softening point of 100 to 118°C and a molecular weight (Mw) of 500 to 10,000, and 7 to 40 parts by mass of an α-methyl styrene resin having a molecular weight (Mw) of 700 to 3,000, based on 100 parts by mass of a rubber component comprising 60 to 95% by mass of an aromatic olefin rubber and 5 to 40% by mass of a diene olefin rubber, wherein a ratio of a content of the terpene resin to a content of the α-methyl styrene resin (a content of the terpene resin / a content of the α-methyl styrene resin) is from 0.2 to 5. 5 to 30 parts by mass of a terpene resin having a softening point of 100 to 118°C and a molecular weight (Mw) of 500 to 10,000, and 7 to 40 parts by mass of an α-methyl styrene resin having a molecular weight (Mw) of 700 to 3,000, based on 100 parts by mass of a rubber component comprising 60 to 95% by mass of an aromatic olefin rubber and 5 to 40% by mass of a diene olefin rubber, wherein a ratio of a content of the terpene resin to a content of the α-methyl styrene resin (a content of the terpene resin / a content of the α-methyl styrene resin) is from 0.2 to 5.
A system for data processing, comprising: a camera configured to record image data (D img ) within a view field , which image data (D img ) represents at least one specific body portion of an animal (A), a reader unit configured to register identity data (D ID ) from a data carrier on the animal (A) of which the camera is configured to record the image data (D img ), and a data processor configured to associate the recorded image data (D img ) with the registered identity data (D ID ), characterized in that the system further comprises: a passageway configured to only allow a single animal (A) at the time within the view field of the camera , the camera being arranged so that the view field covers an identification zone (Z) within the passageway , and the data processor is configured to: detect the presence of any animal (A) within the view field of the camera based on the recorded image data (D img ), generate a trigger signal (TS) if and only if an animal (A) is detected within the identification zone (Z), the trigger signal (TS) being configured to activate the reader unit , maintain the reader unit in an active state during a given interval after having generated the trigger signal (TS), and to cause the given interval to end when: the identity data (D ID ) has been registered, a particular time has elapsed since the trigger signal (TS) was generated, or the recorded image data (D img ) reflects that the animal (A) no longer is located within the identification zone (Z). a camera configured to record image data (D img ) within a view field , which image data (D img ) represents at least one specific body portion of an animal (A), a reader unit configured to register identity data (D ID ) from a data carrier on the animal (A) of which the camera is configured to record the image data (D img ), and a data processor configured to associate the recorded image data (D img ) with the registered identity data (D ID ), detect the presence of any animal (A) within the view field of the camera based on the recorded image data (D img ), generate a trigger signal (TS) if and only if an animal (A) is detected within the identification zone (Z), the trigger signal (TS) being configured to activate the reader unit , maintain the reader unit in an active state during a given interval after having generated the trigger signal (TS), and to cause the given interval to end when: the identity data (D ID ) has been registered, a particular time has elapsed since the trigger signal (TS) was generated, or the recorded image data (D img ) reflects that the animal (A) no longer is located within the identification zone (Z). the identity data (D ID ) has been registered, a particular time has elapsed since the trigger signal (TS) was generated, or the recorded image data (D img ) reflects that the animal (A) no longer is located within the identification zone (Z).
A method for determining a parameter indicative of a road capability of a road segment supporting a vehicle , said vehicle comprising a plurality of ground engaging members , said method comprising: - for each ground engaging member in a sub-set of said plurality of ground engaging members , setting a contact force (N 14,S , N 42,S ) between said ground engaging member and said road segment ; - determining a target global load vector (G) to be imparted to said vehicle , said target global load vector (G) comprising at least a vertical load and an inclining moment, - determining contact forces (N 12 , N 16 , N 38 , N 40 ) for the ground engaging members of said plurality of ground engaging members which are not in said sub-set such that the contact forces (N 12 , N 14,S , N 16 , N 38 , N 40 , N 42,S ) for said plurality of ground engaging members together result in a resulting global load vector (R), a difference measure (DM) between said resulting global load vector (R) and said target global load vector (G) being equal to or lower than a predetermined difference measure threshold , - applying said contact force (N 12 , N 14,S , N 16 , N 38 , N 40 , N 42,S ) to each ground engaging member of said plurality of ground engaging members , - for at least one ground engaging member in said sub-set, determining a parameter indicative of the road capability of the road segment associated with the ground engaging member . - for each ground engaging member in a sub-set of said plurality of ground engaging members , setting a contact force (N 14,S , N 42,S ) between said ground engaging member and said road segment ; - determining a target global load vector (G) to be imparted to said vehicle , said target global load vector (G) comprising at least a vertical load and an inclining moment, - determining contact forces (N 12 , N 16 , N 38 , N 40 ) for the ground engaging members of said plurality of ground engaging members which are not in said sub-set such that the contact forces (N 12 , N 14,S , N 16 , N 38 , N 40 , N 42,S ) for said plurality of ground engaging members together result in a resulting global load vector (R), a difference measure (DM) between said resulting global load vector (R) and said target global load vector (G) being equal to or lower than a predetermined difference measure threshold , - applying said contact force (N 12 , N 14,S , N 16 , N 38 , N 40 , N 42,S ) to each ground engaging member of said plurality of ground engaging members , - for at least one ground engaging member in said sub-set, determining a parameter indicative of the road capability of the road segment associated with the ground engaging member .
A variable vane assembly for a gas turbine engine comprising: a case (70; 170) having a bore and a recess , the case (70;170) providing a first portion of a flow path surface; a vane including a journal extending along an axis from a vane end (114; 214) and received in the bore ; and an insert (104; 204) arranged in the recess and providing a second portion of the flow path surface adjacent to the first flow path surface, the insert (104; 204) including a pocket (110; 210) that slidably receives the vane end (114; 214), the vane end (114; 214) being configured to move axially relative to the insert (104; 204) with respect to the vane axis, characterized in that the vane and insert are configured to rotate together about the vane axis with respect to the case (70; 170), the insert (104; 204) includes axially opposing sides, and the pocket (110; 210) is provided on one side, and a neck is provided on the other side and includes an aperture through which the journal extends, the neck has a portion that extends radially inward into the aperture to provide a first face , and the journal includes a collar that provides a second face , a spring is arranged between the first and second faces and is configured to bias the insert (104; 204) and the vane end (114; 214) axially apart from one another. a case (70; 170) having a bore and a recess , the case (70;170) providing a first portion of a flow path surface; a vane including a journal extending along an axis from a vane end (114; 214) and received in the bore ; and an insert (104; 204) arranged in the recess and providing a second portion of the flow path surface adjacent to the first flow path surface, the insert (104; 204) including a pocket (110; 210) that slidably receives the vane end (114; 214), the vane end (114; 214) being configured to move axially relative to the insert (104; 204) with respect to the vane axis, characterized in that the vane and insert are configured to rotate together about the vane axis with respect to the case (70; 170), the insert (104; 204) includes axially opposing sides, and the pocket (110; 210) is provided on one side, and a neck is provided on the other side and includes an aperture through which the journal extends, the neck has a portion that extends radially inward into the aperture to provide a first face , and the journal includes a collar that provides a second face , a spring is arranged between the first and second faces and is configured to bias the insert (104; 204) and the vane end (114; 214) axially apart from one another.
A method for installing a tubular metal pile in a rocky ground, comprising: drilling the rocky ground in order to form a cavity of predetermined diameter and depth; then filling the cavity with a granular material ; then arranging the granular material present in the cavity by vibration; and installing the pile in the cavity. drilling the rocky ground in order to form a cavity of predetermined diameter and depth; then filling the cavity with a granular material ; then arranging the granular material present in the cavity by vibration; and installing the pile in the cavity.
Bearing part for a weapon barrel in a weapon barrel holder , wherein the bearing part has a tubular form and an inner diameter which is uniform over the length of the bearing part , wherein the bearing part is divided into three portions (3.1, 3.2, 3.3), a first portion (3.1), an encircling annular second portion (3.2) which is of greater outer diameter than the first portion (3.1) and a following third portion (3.3), wherein the third portion (3.3) has at least one slot running towards the second portion (3.2), characterized in that the slot does not extend into the region of the first portion (3.1).
A thermal cracking system , characterized by comprising: a driving unit having an automated overhead crane assembly; a material treatment unit ; a preparation unit ; and a thermal cracking treatment unit , wherein: the driving unit is connected to the material treatment unit , the preparation unit , and the thermal cracking treatment unit separately, and the driving unit is configured to deliver or feed a material to the material treatment unit , the preparation unit , and the thermal cracking treatment unit ; the material treatment unit comprises a crushing device and a plurality of stock containers , and the stock containers are adjacent to an output end of the crushing device ; the preparation unit comprises a plurality of combustion devices , a plurality of driving assemblies , and a plurality of bases , and each said base is mounted with a said driving assembly so that each said combustion device , when mounted on any one of the driving assemblies , is able to be raised and lowered with respect to the base of the any one of the driving assemblies ; and the thermal cracking treatment unit comprises a thermal cracking module , a collection device , a condensation module , and an auxiliary fuel module , and each said combustion device of the preparation unit is configured to be mounted on the thermal cracking module in order to operate under control of the thermal cracking module and be adjacent to the collection device , and the thermal cracking module is in communication with the condensation module and the auxiliary fuel module separately. a driving unit having an automated overhead crane assembly; a material treatment unit ; a preparation unit ; and a thermal cracking treatment unit , wherein: the driving unit is connected to the material treatment unit , the preparation unit , and the thermal cracking treatment unit separately, and the driving unit is configured to deliver or feed a material to the material treatment unit , the preparation unit , and the thermal cracking treatment unit ; the material treatment unit comprises a crushing device and a plurality of stock containers , and the stock containers are adjacent to an output end of the crushing device ; the preparation unit comprises a plurality of combustion devices , a plurality of driving assemblies , and a plurality of bases , and each said base is mounted with a said driving assembly so that each said combustion device , when mounted on any one of the driving assemblies , is able to be raised and lowered with respect to the base of the any one of the driving assemblies ; and the thermal cracking treatment unit comprises a thermal cracking module , a collection device , a condensation module , and an auxiliary fuel module , and each said combustion device of the preparation unit is configured to be mounted on the thermal cracking module in order to operate under control of the thermal cracking module and be adjacent to the collection device , and the thermal cracking module is in communication with the condensation module and the auxiliary fuel module separately.
A material comprising a transparent substrate coated with a stack of thin layers comprising at least one silver-based functional metal layer, characterized in that the stack comprises: - a dielectric layer based on silicon and/or aluminum nitride having a thickness higher than or equal to 25 nm, located above a silver-based functional metal layer, - an upper protective layer based on zirconium titanium oxide located above and in contact with the dielectric layer based on silicon and/or aluminum nitride and exhibiting a ratio by weight of titanium to zirconium Ti/Zr of between 60/40 and 80/20 and wherein the total thickness of all the layers of oxides present in the stack is less than 10 nm. - a dielectric layer based on silicon and/or aluminum nitride having a thickness higher than or equal to 25 nm, located above a silver-based functional metal layer, - an upper protective layer based on zirconium titanium oxide located above and in contact with the dielectric layer based on silicon and/or aluminum nitride and exhibiting a ratio by weight of titanium to zirconium Ti/Zr of between 60/40 and 80/20 and
A method of operating an agricultural system having a tractor and an implement connected to the tractor, the method comprising - connecting an implement to a tractor ; - connecting a tractor control network and an implement control network through a data bus of an agricultural system control network comprising the tractor control network and the implement control network ; and - transmitting control signals over a signal line of the data bus between the tractor control network and the implement control network ; characterized by - providing a driving power supply by a tractor power supply to a working unit of the implement connected to the implement control network through a driving power supply line, the tractor power supply being configured to provide a plurality of different DC driving voltages; - receiving driving power supply control signals in the tractor control network , the driving power supply control signals being sent from the implement control network over the signal line and indicating a present DC driving voltage which is selected for driving the working unit and is one of the plurality of different DC driving voltages; - supplying the present DC driving voltage over the driving power supply line to the working unit ; and - operating the working unit by applying the present DC driving voltage. - connecting an implement to a tractor ; - connecting a tractor control network and an implement control network through a data bus of an agricultural system control network comprising the tractor control network and the implement control network ; and - transmitting control signals over a signal line of the data bus between the tractor control network and the implement control network ; - providing a driving power supply by a tractor power supply to a working unit of the implement connected to the implement control network through a driving power supply line, the tractor power supply being configured to provide a plurality of different DC driving voltages; - receiving driving power supply control signals in the tractor control network , the driving power supply control signals being sent from the implement control network over the signal line and indicating a present DC driving voltage which is selected for driving the working unit and is one of the plurality of different DC driving voltages; - supplying the present DC driving voltage over the driving power supply line to the working unit ; and - operating the working unit by applying the present DC driving voltage.