mhurhangee/ep-ind-claims huggingface dataset:
A surgical robotic system comprising: a robotic arm; a surgical instrument configured to couple to the robotic arm; and a controller configured to: access usage data pertaining to the surgical instrument, wherein the usage data includes maximum life data and previous use data, characterized in that: the maximum life data includes a maximum number of uses and a maximum use time, and the previous use data includes a number of previous uses, a previous use time, and an expired flag; and the controller is further configured to: calculate an average use time for the surgical instrument based on the previous use time and the number of previous uses; calculate a use time remaining for the surgical instrument based on the previous use time and the maximum use time; calculate a predicted number of uses remaining for the surgical instrument based on the use time remaining and the average use time; and disable the surgical instrument if the use time remaining is less than the average use time. a robotic arm; a surgical instrument configured to couple to the robotic arm; and a controller configured to: access usage data pertaining to the surgical instrument, wherein the usage data includes maximum life data and previous use data, characterized in that: the maximum life data includes a maximum number of uses and a maximum use time, and the previous use data includes a number of previous uses, a previous use time, and an expired flag; and the controller is further configured to: calculate an average use time for the surgical instrument based on the previous use time and the number of previous uses; calculate a use time remaining for the surgical instrument based on the previous use time and the maximum use time; calculate a predicted number of uses remaining for the surgical instrument based on the use time remaining and the average use time; and disable the surgical instrument if the use time remaining is less than the average use time. the maximum life data includes a maximum number of uses and a maximum use time, and the previous use data includes a number of previous uses, a previous use time, and an expired flag; and the controller is further configured to: calculate an average use time for the surgical instrument based on the previous use time and the number of previous uses; calculate a use time remaining for the surgical instrument based on the previous use time and the maximum use time; calculate a predicted number of uses remaining for the surgical instrument based on the use time remaining and the average use time; and disable the surgical instrument if the use time remaining is less than the average use time. calculate an average use time for the surgical instrument based on the previous use time and the number of previous uses; calculate a use time remaining for the surgical instrument based on the previous use time and the maximum use time; calculate a predicted number of uses remaining for the surgical instrument based on the use time remaining and the average use time; and disable the surgical instrument if the use time remaining is less than the average use time.
Ball-striking device, in particular a tennis, squash or badminton racquet, with a head frame, encompassing a striking surface, which is hollow and made from plastic, in particular a fibre-reinforced plastic, as well as, formed thereon, a handle with a grip, wherein the striking surface is determined by at least one cross-stretched string which essentially forms string sections fasted essentially in parallel to each other on the head frame, wherein anchoring of the string sections on the head frame takes place by way of retaining brackets which are fastened to the inside of the head frame in such a way that they each extend essentially perpendicularly to the striking surface through which the ends of the string sections clamped into the retaining brackets are laterally deflectable when stuck by a ball, wherein the retaining brackets (20; 23) are open towards one of the two sides of the striking surface and/or are freely accessible from one of the two sides of the striking surface for clamping in the string defining the striking surface, characterised in that a fastening section of each retaining bracket (20; 23) is embedded between two frame halves (4, 6) defining the head frame.
A child safety seat assembly comprising: a child seat; a base adapted to assemble with the child seat,and an abuttal support connected with the base, the base including a storage pocket and an enlarged bottom surface for resting on a vehicle seat, characterized in that, a portion of the base has said storage pocket that is opened at a top thereof; and the abuttal support is slidable relative to the base between a first position stowed in the storage pocket and a second position deployed outward above the top of the base and at a front of the child seat, the portion of the base in which is provided the storage pocket and the abuttal support in the secondposition rising above the bottom surface generally along a same direction of extension. a child seat; a base adapted to assemble with the child seat,and an abuttal support connected with the base, the base including a storage pocket and an enlarged bottom surface for resting on a vehicle seat, a portion of the base has said storage pocket that is opened at a top thereof; and the abuttal support is slidable relative to the base between a first position stowed in the storage pocket and a second position deployed outward above the top of the base and at a front of the child seat, the portion of the base in which is provided the storage pocket and the abuttal support in the secondposition rising above the bottom surface generally along a same direction of extension.
Electronic trip device comprising: - a processing unit having inputs for receiving electrical signals representative of electrical quantities and an output for supplying a trip signal to a trip relay, and - a human-machine interface connected to the processing unit to supply setting parameters and display trip information and curves on a screen, the trip device being characterized in that the human-machine interface comprises setting parameter display means which modify the visual appearance of at least one portion (13, 24) of a curve representative of a parameter (14, 25) being set, said setting parameter display means frame at least one information item (14, 25) displayed on the screen representative of a parameter being set, the human-machine interface comprising selection means comprising function keys (15, 16, 17) associated with indicator lamps (21, 22, 23) for displaying a function selected by a key, said function keys (15, 16, 17) comprise at least one first key for selecting a measurement function, at least one second key for selecting a maintenance function, and a third key for selecting a setting function. - a processing unit having inputs for receiving electrical signals representative of electrical quantities and an output for supplying a trip signal to a trip relay, and - a human-machine interface connected to the processing unit to supply setting parameters and display trip information and curves on a screen,
A bicycle hub apparatus comprising: an axle; a hub member supported for rotation around the hub axle; a sensor shaft supported for rotation around the hub axle and having a first portion and a second portion, wherein the first portion of the sensor shaft is structured to receive an external rotational driving force, and wherein the second portion of the sensor shaft is coupled to the hub member for communicating the rotational driving force to the hub member; a force sensor unit disposed on the sensor shaft; the bicycle hub apparatus being characterized by a dynamo disposed within the hub member, wherein the dynamo receives rotational driving force from at least one of the sensor shaft or the hub member, the bicycle hub apparatus further comprising an intermediate drive member supported for rotation around the hub axle and having a first portion and a second portion, wherein the first portion of the intermediate drive member is structured to receive the external rotational driving force, and wherein the second portion of the intermediate drive member communicates rotational drive force to the first portion of the sensor shaft. an axle; a hub member supported for rotation around the hub axle; a sensor shaft supported for rotation around the hub axle and having a first portion and a second portion, wherein the first portion of the sensor shaft is structured to receive an external rotational driving force, and wherein the second portion of the sensor shaft is coupled to the hub member for communicating the rotational driving force to the hub member; a force sensor unit disposed on the sensor shaft; the bicycle hub apparatus being characterized by a dynamo disposed within the hub member, wherein the dynamo receives rotational driving force from at least one of the sensor shaft or the hub member, the bicycle hub apparatus further comprising an intermediate drive member supported for rotation around the hub axle and having a first portion and a second portion, wherein the first portion of the intermediate drive member is structured to receive the external rotational driving force, and wherein the second portion of the intermediate drive member communicates rotational drive force to the first portion of the sensor shaft.
An electronic device comprising a field-effect transistor, the field-effect transistor comprising: a semiconductor active layer comprising a semiconductor material; a source electrode and a drain electrode; a gate electrode; and an insulating material disposed between the gate electrode and the semiconductor active layer, the insulating material consisting essentially of a hybrid silica-silicone material, wherein the hybrid silica-silicone material comprises from 70% to 95% silicon dioxide and 30% to 5% siloxane polymer; the device further comprising a back channel passivation layer consisting essentially of a hybrid silica-silicone material, the back channel passivation layer in physical contact with the semiconductor active layer. a semiconductor active layer comprising a semiconductor material; a source electrode and a drain electrode; a gate electrode; and an insulating material disposed between the gate electrode and the semiconductor active layer, the insulating material consisting essentially of a hybrid silica-silicone material, wherein the hybrid silica-silicone material comprises from 70% to 95% silicon dioxide and 30% to 5% siloxane polymer;
Method for installing a fluid tank in a vehicle, in particular an industrial or commercial or agriculture or any other vehicle, wherein the fluid tank has a torus or quasi-torus shape defining a hollow passage and the vehicle is provided with a spare wheel and a vehicular spare wheel supporting flange, the method comprising - the preliminary step of preparing first connection means comprising a first portion intended to be connected to said supporting flange, a second intermediated and elongated portion intended to fit across such hollow passage and a third portion, opposite to said first portion with respect to said intermediate portion, comprising an auxiliary flange intended to support said rim plate of the spare wheel and - the step of connecting the fluid tank to said spare wheel vehicular supporting flange so that the fluid tank is between the spare wheel and its vehicular supporting flange by connecting the spare wheel to the supporting flange through said first connection means by exploiting said hollow passage and said fluid tank to the spare wheel supporting flange through second connection means, different from said fluid tank or said first connection means. - the preliminary step of preparing first connection means comprising a first portion intended to be connected to said supporting flange, a second intermediated and elongated portion intended to fit across such hollow passage and a third portion, opposite to said first portion with respect to said intermediate portion, comprising an auxiliary flange intended to support said rim plate of the spare wheel and - the step of connecting the fluid tank to said spare wheel vehicular supporting flange so that the fluid tank is between the spare wheel and its vehicular supporting flange by connecting the spare wheel to the supporting flange through said first connection means by exploiting said hollow passage and said fluid tank to the spare wheel supporting flange through second connection means, different from said fluid tank or said first connection means.
A system for adjusting a position of an object to compensate for tilt, the system comprising: an object having a first position controlled relative to a first axis, the object stabilized along a second axis; a base (14, 18) operable to support the object; and a single bearing arm movably coupling the object to the base (14, 18), the object movably coupled to the base (14, 18) at the first position relative to a third axis and a fourth axis, the third axis perpendicular to the first axis, the base (14, 18) controlling rotation of the object about the second axis; wherein the bearing arm comprises a first portion and a second portion, the first portion coupled to the object and coincident with the third axis, the second portion coupled to the base (14, 18) and coincident with the fourth axis, the bearing arm operable to adjust the object to a second position to maintain the alignment of the object with the first axis when a tilt angle of the base (14, 18) is detected. an object having a first position controlled relative to a first axis, the object stabilized along a second axis; a base (14, 18) operable to support the object; and a single bearing arm movably coupling the object to the base (14, 18), the object movably coupled to the base (14, 18) at the first position relative to a third axis and a fourth axis, the third axis perpendicular to the first axis, the base (14, 18) controlling rotation of the object about the second axis; wherein the bearing arm comprises a first portion and a second portion, the first portion coupled to the object and coincident with the third axis, the second portion coupled to the base (14, 18) and coincident with the fourth axis, the bearing arm operable to adjust the object to a second position to maintain the alignment of the object with the first axis when a tilt angle of the base (14, 18) is detected.
Supercontinuum light generation apparatus (500, 600, 700, 800), characterized in that the supercontinuum light generation apparatus comprises: a twisted photonic crystal fibre, PCF, arranged to receive circularly polarised pump light and to convert the pump light into circularly polarised supercontinuum light; and a wideband quarter-wave retarder (106, 202) arranged to convert the circularly polarised supercontinuum light into linearly polarised supercontinuum light. a twisted photonic crystal fibre, PCF, arranged to receive circularly polarised pump light and to convert the pump light into circularly polarised supercontinuum light; and a wideband quarter-wave retarder (106, 202) arranged to convert the circularly polarised supercontinuum light into linearly polarised supercontinuum light.
A system comprising: a first monitoring subsystem, said first monitoring subsystem being arranged to detect events within a first field of view using a first detection mechanism; a second monitoring subsystem, said monitoring subsystem being arranged to detect events within a second field of view using a second detection mechanism; a mounting arrangement (302, 506) configured to carry the first and second monitoring subsystems and mount them to a substrate (304, 508); wherein in use, an alignable component of the first monitoring subsystem is configured to be orientated with respect to the mounting arrangement so that the first field of view covers an area to be monitored; the system being characterised in that the orientation of the alignable component of the first monitoring subsystem determines the orientation of the second field of view of the second monitoring subsystem; by any one or more of: • physically orientating an alignable component of the second monitoring subsystem with respect to the mounting arrangement, the alignable component of the second monitoring subsystem being mechanically coupled to the alignable component of the first monitoring subsystem; and / or • assigning a reference orientation for a coordinate system used by the second monitoring subsystem. a first monitoring subsystem, said first monitoring subsystem being arranged to detect events within a first field of view using a first detection mechanism; a second monitoring subsystem, said monitoring subsystem being arranged to detect events within a second field of view using a second detection mechanism; a mounting arrangement (302, 506) configured to carry the first and second monitoring subsystems and mount them to a substrate (304, 508); wherein in use, an alignable component of the first monitoring subsystem is configured to be orientated with respect to the mounting arrangement so that the first field of view covers an area to be monitored; the system being characterised in that the orientation of the alignable component of the first monitoring subsystem determines the orientation of the second field of view of the second monitoring subsystem; by any one or more of: • physically orientating an alignable component of the second monitoring subsystem with respect to the mounting arrangement, the alignable component of the second monitoring subsystem being mechanically coupled to the alignable component of the first monitoring subsystem; and / or • assigning a reference orientation for a coordinate system used by the second monitoring subsystem. • physically orientating an alignable component of the second monitoring subsystem with respect to the mounting arrangement, the alignable component of the second monitoring subsystem being mechanically coupled to the alignable component of the first monitoring subsystem; and / or • assigning a reference orientation for a coordinate system used by the second monitoring subsystem.
A motor-adjustable steering column for a motor vehicle, comprising an outer casing which is held by a support unit that is attachable to a vehicle body and in which an actuator unit is received so as to be telescopically adjustable in the longitudinal direction, a steering spindle being coaxially mounted in a casing tube in said actuator unit so as to be rotatable about a longitudinal axis, wherein an adjustment drive, which has a threaded spindle which is at least in part disposed within the actuator unit and which so as to be drivable in a rotating manner by an electric servomotor engages in a spindle nut, is disposed between the outer casing and the actuator unit, wherein the threaded spindle is disposed at a spacing (a) from the longitudinal axis, and wherein the actuator unit has an opening that receives the steering spindle, and the threaded spindle is disposed in a spindle tunnel that is configured so as to be separate from the opening, characterized in that the opening and the spindle tunnel are configured in the casing tube of the actuator unit.
Filling head having a filler stub for a pump nozzle, having: a magnet element for releasing an automatic pump nozzle mechanism of the pump nozzle, characterized in that the magnet element is formed from a magnetic plastics material. a magnet element for releasing an automatic pump nozzle mechanism of the pump nozzle, characterized in that the magnet element is formed from a magnetic plastics material.
Dynamic scale for bulk material having two swivel arms, which can be moved individually or in unison, two hydraulic cylinders and at least one load holding arm per swivel arm, characterised in that - means are available in each swivel arm to measure the shear stress in said swivel arm, - each independently movable swivel arm carries an acceleration sensor, with which the determination of mass can be corrected by the current acceleration value. - means are available in each swivel arm to measure the shear stress in said swivel arm, - each independently movable swivel arm carries an acceleration sensor, with which the determination of mass can be corrected by the current acceleration value.
A balancing group for the rotor of a fluid rotary machine, wherein said rotor comprises at least one shaft equipped with an internal pass-through hole which develops along the longitudinal axis of the shaft, the balancing group including at least a first inner element and at least a second outer element, said first inner element being engaged, by interference, in the direction of said longitudinal axis inside said second outer element, said balancing group being suitable for insertion, in the direction of said longitudinal axis, inside the pass-through hole of said shaft, characterized in that on the front side of said second outer element there is a protruding end which, during the rotation of said shaft, creates the imbalance necessary for balancing said rotor in the area in which said protruding end is situated.
A compound of formula wherein X is N or CH; R 1 is thiazolyl; R 2 is 2-furanyl; and R 3 is p-C 6 H 4 -CONH 2. X is N or CH; R 1 is thiazolyl; R 2 is 2-furanyl; and R 3 is p-C 6 H 4 -CONH 2.
A method for producing a hot forged material, wherein both an upper die and a lower die are made of Ni-based super heat-resistant alloy, and a material for hot forging is pressed by the lower die and the upper die in the air to form the hot forged material, the method comprising: a raw material heating step of heating the material for hot forging in a furnace to a heating temperature within a range of 1000 to 1150°C; a jig heating step of heating a holding jig for holding the material for hot forging within a temperature range of 50°C lower than and 100°C higher than the heating temperature of the material for hot forging; a die heating step of heating the upper die and the lower die to a heating temperature within a range of 950 to 1100°C; and a transferring step of transferring the material for hot forging onto the lower die by using the holding jig attached to a manipulator after the completion of the raw material heating step, the jig heating step, and the die heating step, and placing the material for hot forging on the lower die heated in the die heating step, a surface temperature of the material for hot forging being higher than a surface temperature of the die. a raw material heating step of heating the material for hot forging in a furnace to a heating temperature within a range of 1000 to 1150°C; a jig heating step of heating a holding jig for holding the material for hot forging within a temperature range of 50°C lower than and 100°C higher than the heating temperature of the material for hot forging; a die heating step of heating the upper die and the lower die to a heating temperature within a range of 950 to 1100°C; and a transferring step of transferring the material for hot forging onto the lower die by using the holding jig attached to a manipulator after the completion of the raw material heating step, the jig heating step, and the die heating step, and placing the material for hot forging on the lower die heated in the die heating step, a surface temperature of the material for hot forging being higher than a surface temperature of the die.