mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a processing circuitry in a function as a service, FaaS, platform for enabling use of functions in a function as a service platform by third party developers, the method comprising: storing in a function catalogue one or more function descriptions associated with one or more respective functions available for use by third party developers, wherein each function description comprises an intent and a function name of the respective function; receiving a function call from a first function developer comprising an indication of a first intent; preprocessing function source code of the function to search for a keyword indicating that the function is intending to call a third party function using intent invocation; and selecting (303, 705) a first function description from the function catalogue that matches the indicated first intent; wherein the storing comprises receiving function source code of a second function from a second function developer; searching for a keyword in the function source code of the second function indicating that the second function is to be made available to other function developers; and storing the associated function description in the function catalogue in response to the function source code of the second function comprising the keyword. storing in a function catalogue one or more function descriptions associated with one or more respective functions available for use by third party developers, wherein each function description comprises an intent and a function name of the respective function; receiving a function call from a first function developer comprising an indication of a first intent; preprocessing function source code of the function to search for a keyword indicating that the function is intending to call a third party function using intent invocation; and selecting (303, 705) a first function description from the function catalogue that matches the indicated first intent; receiving function source code of a second function from a second function developer; searching for a keyword in the function source code of the second function indicating that the second function is to be made available to other function developers; and storing the associated function description in the function catalogue in response to the function source code of the second function comprising the keyword.
An automated device for manufacturing elastomer stoppers, comprising: a frame, a cutting matrix and a cutting head provided with vertically movable cutting punches that are introduced in cavities of the cutting matrix, die-cutting an elastomer plate and obtaining the stoppers; characterised in that it comprises: a double-cutting matrix mounted on a movable table and which has a number of cavities equal to double the number of punches of the cutting head; runners for movement of the movable table on longitudinal rails of the frame, a spindle that acts on runners of the movable table and that is connected to a motor that causes linear movement of the movable table through a series of work areas, comprising: - a loading and positioning area on the double-cutting matrix of an elastomer plate; - a first cutting area wherein the punches of the cutting head become housed in half of the cavities of the double-cutting matrix, die-cutting a first part of the elastomer sheet; - a second cutting area wherein the punches of the cutting head become housed in the other half of the cavities of the double-cutting matrix, die-cutting a second part of the elastomer sheet; and - a scrap removal area comprising a rotating arm having grippers and responsible for removing the excess material from the die-cutting of the elastomer plate and depositing it in a scrap collecting cart. - a loading and positioning area on the double-cutting matrix of an elastomer plate; - a first cutting area wherein the punches of the cutting head become housed in half of the cavities of the double-cutting matrix, die-cutting a first part of the elastomer sheet; - a second cutting area wherein the punches of the cutting head become housed in the other half of the cavities of the double-cutting matrix, die-cutting a second part of the elastomer sheet; and - a scrap removal area comprising a rotating arm having grippers and responsible for removing the excess material from the die-cutting of the elastomer plate and depositing it in a scrap collecting cart.
A progressive spectacle lens, including: - an upper viewing zone with a distance reference point providing in the specific as-worn position a first refractive power, in particular a first mean refractive power, adapted to distance vision; - a lower viewing zone with a near reference point providing in the specific as-worn position a second refractive power, in particular a second mean refractive power, adapted to near vision, the second refractive power, in particular the second mean refractive power, representing an addition power relative to the first refractive power, in particular the first mean refractive power; - a corridor between the upper viewing zone and the lower viewing zone in which a refractive power, in particular a mean refractive power, gradually changes from the first refractive power, in particular the first mean refractive power, to the second refractive, in particular the second mean refractive power, power in the specific as-worn position; and - a left peripheral zone and a right peripheral zone which are separated by the corridor and the lower viewing zone; and - low mean power zones (10, 11, 12) in the upper viewing zone, the left peripheral zone and the right peripheral zone where the mean refractive power the wearer experiences in the specific as-worn position does not exceed the first refractive power, in particular the first mean refractive power, plus 0.125 D in said low mean power zones (10, 11, 12); characterised in that - the low mean power zones (10, 11, 12) occupy at least 40 % of the area of the progressive spectacle lens. - an upper viewing zone with a distance reference point providing in the specific as-worn position a first refractive power, in particular a first mean refractive power, adapted to distance vision; - a lower viewing zone with a near reference point providing in the specific as-worn position a second refractive power, in particular a second mean refractive power, adapted to near vision, the second refractive power, in particular the second mean refractive power, representing an addition power relative to the first refractive power, in particular the first mean refractive power; - a corridor between the upper viewing zone and the lower viewing zone in which a refractive power, in particular a mean refractive power, gradually changes from the first refractive power, in particular the first mean refractive power, to the second refractive, in particular the second mean refractive power, power in the specific as-worn position; and - a left peripheral zone and a right peripheral zone which are separated by the corridor and the lower viewing zone; and - low mean power zones (10, 11, 12) in the upper viewing zone, the left peripheral zone and the right peripheral zone where the mean refractive power the wearer experiences in the specific as-worn position does not exceed the first refractive power, in particular the first mean refractive power, plus 0.125 D in said low mean power zones (10, 11, 12); characterised in that - the low mean power zones (10, 11, 12) occupy at least 40 % of the area of the progressive spectacle lens.
A reverse current detector circuit for a DCDC converter, the reverse current detector circuit comprising: - a sensing input connected to a reverse-current sensing node of the DCDC converter, - a timing control output of a timing control circuit arranged for controlling a current-flow sequence timing of the DCDC converter, and - a flip-flop circuit for providing to the timing control circuit the direction of a residual current at said reverse-current sensing node; the reverse current detector circuit being characterized in that it comprises a logic gate having a gate output connected to a data input of the flip-flop circuit, a first gate input connected to the sensing input and a second gate input receiving an input gating signal, and in that the logic gate is configured and connected such that, while the input gating signal has a first logic value, the logic state of the gate output depends on the first gate input and, when the input gating signal has a second logic value, the logic gate circuit is in a powered-down state such that the logic state of the gate output is independent of the first gate input. - a sensing input connected to a reverse-current sensing node of the DCDC converter, - a timing control output of a timing control circuit arranged for controlling a current-flow sequence timing of the DCDC converter, and - a flip-flop circuit for providing to the timing control circuit the direction of a residual current at said reverse-current sensing node;
A catheter assembly (1, 1', 1") comprising a catheter, a first tube, and a catheter advancing mechanism (20, 20') comprising an advancing element, the catheter and the first tube each extending in a distal direction from a proximal end to a distal end, and the catheter advancing mechanism (20, 20') being configured to move the catheter assembly telescopically between an unexpanded configuration where the catheter is arranged in a cavity within the first tube and an expanded configuration where at least an insertable part of the catheter is outside the cavity, the catheter advancing mechanism (20, 20') being configured to move the catheter assembly between the unexpanded and the expanded configuration by movement of the advancing element relative to the first tube characterised in the catheter assembly comprises string means attached to the catheter, the string means comprising a first string element (22, 22') extending between the catheter and a first attachment point (33, 33') and being adapted to provide a pulling force in a proximal direction being opposite the distal direction for moving the catheter relative to the first tube in the proximal direction, where the string means further comprises a second string element (23, 23') extending between the catheter and a second attachment point (34. 34') and being adapted to provide a pulling force in the distal direction for moving the catheter relative to the first tube in the distal direction.
Polymers which contain hydroxyl groups and acrylate groups and are obtainable by reacting - at least one dicarbonyl compound having just two carbonyl groups, selected from the group consisting of -- aldehyde groups (a1a) and -- keto groups (a1b), and - at least one diacrylate compound, the two carbonyl groups in the compound being connected to one another through an aliphatic, cycloaliphatic or aromatic hydrocarbon radical or simply through a single bond. - at least one dicarbonyl compound having just two carbonyl groups, selected from the group consisting of -- aldehyde groups (a1a) and -- keto groups (a1b), and -- aldehyde groups (a1a) and -- keto groups (a1b), - at least one diacrylate compound,
A driver circuit comprising: a mains input; a switch mode power converter for delivering an output derived from the mains input by switching using a pulse width modulation signal, wherein the switch mode power converter comprises a pulse width controller for controlling the pulse width and/or duty cycle of the pulse width modulation signal; and a monitor (22,24) for monitoring the pulse width and/or duty cycle of the pulse width modulation signal and for detecting a surge event from the pulse width and/or duty cycle, wherein the monitor (22,24) is for detecting the surge event from changes in the pulse width and/or duty cycle over time, and comprises a monitor circuit for detecting the surge event based on: a second pulse width changing to a first pulse width, remaining at the first pulse width for a time period falling within a first threshold range and then returning to the second pulse width, wherein the first pulse width is narrower than the second pulse width; or a second duty cycle changing to a first duty cycle, remaining at the first duty cycle for a time period falling within a first threshold range and then returning to the second duty cycle, wherein the first duty cycle is smaller than the second duty cycle. a mains input; a switch mode power converter for delivering an output derived from the mains input by switching using a pulse width modulation signal, wherein the switch mode power converter comprises a pulse width controller for controlling the pulse width and/or duty cycle of the pulse width modulation signal; and a monitor (22,24) for monitoring the pulse width and/or duty cycle of the pulse width modulation signal and for detecting a surge event from the pulse width and/or duty cycle, wherein the monitor (22,24) is for detecting the surge event from changes in the pulse width and/or duty cycle over time, and comprises a monitor circuit for detecting the surge event based on: a second pulse width changing to a first pulse width, remaining at the first pulse width for a time period falling within a first threshold range and then returning to the second pulse width, wherein the first pulse width is narrower than the second pulse width; or a second duty cycle changing to a first duty cycle, remaining at the first duty cycle for a time period falling within a first threshold range and then returning to the second duty cycle, wherein the first duty cycle is smaller than the second duty cycle. a second pulse width changing to a first pulse width, remaining at the first pulse width for a time period falling within a first threshold range and then returning to the second pulse width, wherein the first pulse width is narrower than the second pulse width; or a second duty cycle changing to a first duty cycle, remaining at the first duty cycle for a time period falling within a first threshold range and then returning to the second duty cycle, wherein the first duty cycle is smaller than the second duty cycle.
Drive train having an internal combustion engine with a crankshaft and a transmission with at least one transmission input shaft and a torque transmission device which is received on the crankshaft and is supported rotatably on the at least one transmission input shaft by means of a radial bearing, characterized in that an axial bearing (1, 1a) with a radial offset compensation means, containing a first bearing ring which is arranged on the engine side and a second bearing ring (4, 4a) which is arranged on the transmission side and rolling bodies which roll between the bearing rings (3, 4, 4a) is arranged between an outer ring of the radial bearing and that of the torque transmission device, anti-friction bearing surfaces (24, 25) which are arranged distributed over the circumference and are provided in each case with a first rolling radius (10, 11) being arranged in the bearing rings (3, 4, 4a), on which anti-friction surfaces (24, 25) tilt pins which are configured in each case as rolling bodies roll such that they can be tilted to a limited extent about their longitudinal axis by means of second rolling radii (13, 14) which are provided on both sides of the end sides and are complementary in each case with respect to the first rolling radii (10, 11).
A cushion for use in providing a regimen of respiratory therapy to a patient, the cushion comprising: a hollow base defining a main cavity therein, the hollow base defining at least one aperture for receiving a flow of breathing gas generated by a pressure generating device; and a pair of nasal pillows each extending from the hollow base, each nasal pillow having a generally cone-shaped head that tapers inward and upward from a base portion, that extends directly from the base, to a top opening, wherein each cone shaped head is structured to sealingly engage an inner portion of a nare of the patient with the top opening thereof positioned within the nare of the patient, wherein each cone-shaped head defines a passage there through that extends between the main cavity and the top opening and is structured to further convey the flow of breathing gas from the main cavity to a nasal passage of the patient, and characterized in that each base portion includes an inner edge positioned near the center of the cushion that merges with the hollow base and an opposite outer edge that is disposed at an outer portion of the cushion and spaced a distance (d) upward from an outer surface of the hollow base. a hollow base defining a main cavity therein, the hollow base defining at least one aperture for receiving a flow of breathing gas generated by a pressure generating device; and a pair of nasal pillows each extending from the hollow base, each nasal pillow having a generally cone-shaped head that tapers inward and upward from a base portion, that extends directly from the base, to a top opening, wherein each cone shaped head is structured to sealingly engage an inner portion of a nare of the patient with the top opening thereof positioned within the nare of the patient, wherein each cone-shaped head defines a passage there through that extends between the main cavity and the top opening and is structured to further convey the flow of breathing gas from the main cavity to a nasal passage of the patient, and characterized in that each base portion includes an inner edge positioned near the center of the cushion that merges with the hollow base and an opposite outer edge that is disposed at an outer portion of the cushion and spaced a distance (d) upward from an outer surface of the hollow base.
A valving system comprising: a fluid duct; a control; a valve member received within the fluid duct to control the flow of fluid between a duct inlet to a duct outlet; an actuator member connected to move with an actuator piston and change the position of the valve member, said actuator piston moving within a housing, said housing defining a smaller face fluid chamber acting on a small area piston face, and there being a larger face fluid chamber, acting on a larger face of the actuator piston, said larger face being on a remote side of said actuator piston from said small area piston face of said actuator piston; a torque motor comprising an armature and a flapper caused to move by current received at the armature from the control, said flapper moving between two fluid ports (52, 54) to control the opening of the two fluid ports and control the pressure in the larger face fluid chamber, said flapper further having a positioning extension, and said positioning extension engaging a first feedback spring operable between it and the larger face of said actuator piston providing a spring force in combination with a spring force from the positioning extension; and said control being operable to provide current to said armature to control the fluid received in said larger face fluid chamber from said first and second fluid ports, said control being programmed to associate the current supplied to the armature to an actual position of the valve member. a fluid duct; a control; a valve member received within the fluid duct to control the flow of fluid between a duct inlet to a duct outlet; an actuator member connected to move with an actuator piston and change the position of the valve member, said actuator piston moving within a housing, said housing defining a smaller face fluid chamber acting on a small area piston face, and there being a larger face fluid chamber, acting on a larger face of the actuator piston, said larger face being on a remote side of said actuator piston from said small area piston face of said actuator piston; a torque motor comprising an armature and a flapper caused to move by current received at the armature from the control, said flapper moving between two fluid ports (52, 54) to control the opening of the two fluid ports and control the pressure in the larger face fluid chamber, said flapper further having a positioning extension, and said positioning extension engaging a first feedback spring operable between it and the larger face of said actuator piston providing a spring force in combination with a spring force from the positioning extension; and said control being operable to provide current to said armature to control the fluid received in said larger face fluid chamber from said first and second fluid ports, said control being programmed to associate the current supplied to the armature to an actual position of the valve member.
A resistance welding high frequency transformer, including: - a transformer shell, - exactly two sub-transformers, wherein each of the two sub-transformers has an own magnetic core and exactly two transformer units, wherein each transformer unit has one primary coil unit (A, B, B; 1, 2, 3) and one secondary coil unit (4, 5), wherein all primary coil units of the resistance welding high frequency transformer are in parallel connection, wherein each primary coil unit (A, B, B; 1, 2, 3) includes exactly two primary B coils and exactly one primary A coil, wherein the two primary B coils are in parallel connection and then in series connection with the one primary A coil, wherein all secondary coil units of the resistance welding high frequency transformer are in parallel connection, wherein each secondary coil unit includes exactly two secondary coils (4, 5) and has a tap where the two secondary coils (4, 5) are connected end to end to each other, - a full wave rectifier having rectifier diodes, - cooling water pipes, - a heat sink for fixing the rectifier diodes, - a first center tap (8, Q) connected to the tap of each of the secondary coil units, - a positive and a negative output terminal, wherein either the negative or the positive output terminal is connected to the first center tap (8, Q). - a transformer shell, - exactly two sub-transformers, wherein each of the two sub-transformers has an own magnetic core and exactly two transformer units, wherein each transformer unit has one primary coil unit (A, B, B; 1, 2, 3) and one secondary coil unit (4, 5), wherein all primary coil units of the resistance welding high frequency transformer are in parallel connection, wherein each primary coil unit (A, B, B; 1, 2, 3) includes exactly two primary B coils and exactly one primary A coil, wherein the two primary B coils are in parallel connection and then in series connection with the one primary A coil, wherein all secondary coil units of the resistance welding high frequency transformer are in parallel connection, wherein each secondary coil unit includes exactly two secondary coils (4, 5) and has a tap where the two secondary coils (4, 5) are connected end to end to each other, - a full wave rectifier having rectifier diodes, - cooling water pipes, - a heat sink for fixing the rectifier diodes, - a first center tap (8, Q) connected to the tap of each of the secondary coil units, - a positive and a negative output terminal, wherein either the negative or the positive output terminal is connected to the first center tap (8, Q).