mhurhangee/patent-ind-claim-en huggingface dataset:
Automatic online polymer analysis system, suitable for controlling the manufacturing process in a polymer processing plant, containing: a. A sampling system with one or more sampling locations , suitable for taking fluid samples, b. A multi-inlet sample collection unit with a controlled multi-inlet sampling valve with at least two sample inlets, c. A sheet-forming unit , d. A transfer device , e. A fully automated polymer analysis unit and f. A process control unit , wherein the transfer device of the step d. is configured to transfer the sheet of step c. to the polymer analysis unit of step e., wherein the polymer analysis unit contains a fully automated sample-handling device and a fully automated solution viscosity measuring device; characterized in that the fully automated solution viscosity measuring device is a turn table unit with a rotatable support disc and a certain number of sample cups , rotating in an arrangement of at least the following processing stations: g. Sample inserting station , h. Dispersing station with magnetic stirrer drive , i. Dissolving station with magnetic stirrer drive , j. Automated capillary viscometer station with an automated cleaning and drying device , k. Cup cleaning station with magnetic stirrer drive , l. Cup drying station . a. A sampling system with one or more sampling locations , suitable for taking fluid samples, b. A multi-inlet sample collection unit with a controlled multi-inlet sampling valve with at least two sample inlets, c. A sheet-forming unit , d. A transfer device , e. A fully automated polymer analysis unit and f. A process control unit , wherein the transfer device of the step d. is configured to transfer the sheet of step c. to the polymer analysis unit of step e., wherein the polymer analysis unit contains a fully automated sample-handling device and a fully automated solution viscosity measuring device; characterized in that the fully automated solution viscosity measuring device is a turn table unit with a rotatable support disc and a certain number of sample cups , rotating in an arrangement of at least the following processing stations: g. Sample inserting station , h. Dispersing station with magnetic stirrer drive , i. Dissolving station with magnetic stirrer drive , j. Automated capillary viscometer station with an automated cleaning and drying device , k. Cup cleaning station with magnetic stirrer drive , l. Cup drying station . g. Sample inserting station , h. Dispersing station with magnetic stirrer drive , i. Dissolving station with magnetic stirrer drive , j. Automated capillary viscometer station with an automated cleaning and drying device , k. Cup cleaning station with magnetic stirrer drive , l. Cup drying station .
An outboard motor configured to be attached to a marine vessel comprising: an outboard motor body ; a steering shaft ; a steering cylinder including a piston rod configured to extend in a first direction of the outboard motor body , a piston fixed to the piston rod , and a cylindrical cylinder body including an oil chamber therein and configured to allow the piston to be provided in the cylinder body , the steering cylinder being configured to rotate the steering shaft and rotate the outboard motor body in the first direction by adjusting an amount of oil in the oil chamber and moving the cylinder body in the first direction; and an oil passage provided inside the piston rod and connected to the oil chamber , a swivel bracket configured to allow the outboard motor body to be attached thereto, the swivel bracket being configured to be rotatable in an second direction that is substantially perpendicular to the first direction; and a clamp bracket configured to be fixed to a hull of the marine vessel and configured to allow the swivel bracket to be attached thereto such that the swivel bracket is rotatable in the second direction; wherein the steering cylinder is rotatably attached to the clamp bracket , a rotation device is configured to rotate the swivel bracket and the outboard motor body in the second direction about a tilt shaft for rotating the outboard motor body in an upward-downward direction, characterized in that the piston rod with the oil passage being provided therein is substantially coaxial with the tilt shaft . an outboard motor body ; a steering shaft ; a steering cylinder including a piston rod configured to extend in a first direction of the outboard motor body , a piston fixed to the piston rod , and a cylindrical cylinder body including an oil chamber therein and configured to allow the piston to be provided in the cylinder body , the steering cylinder being configured to rotate the steering shaft and rotate the outboard motor body in the first direction by adjusting an amount of oil in the oil chamber and moving the cylinder body in the first direction; and an oil passage provided inside the piston rod and connected to the oil chamber , a swivel bracket configured to allow the outboard motor body to be attached thereto, the swivel bracket being configured to be rotatable in an second direction that is substantially perpendicular to the first direction; and a clamp bracket configured to be fixed to a hull of the marine vessel and configured to allow the swivel bracket to be attached thereto such that the swivel bracket is rotatable in the second direction; wherein the steering cylinder is rotatably attached to the clamp bracket , a rotation device is configured to rotate the swivel bracket and the outboard motor body in the second direction about a tilt shaft for rotating the outboard motor body in an upward-downward direction, characterized in that the piston rod with the oil passage being provided therein is substantially coaxial with the tilt shaft .
A wireless communication method, comprising: receiving, by a user equipment, a message that restricts an area for the user equipment to perform a minimization drive test, MDT, wherein the user equipment is configured to operate on a non-public network, NPN, and wherein the message includes: one or more stand-alone non-public network, SNPN, identifiers that equal to a public land mobile network, PLMN, identifier plus a network identifier, or a closed access group, CAG, list which includes one or more PLMN identifiers associated with the CAG list; and performing a measurement for the MDT based on the message. receiving, by a user equipment, a message that restricts an area for the user equipment to perform a minimization drive test, MDT, wherein the user equipment is configured to operate on a non-public network, NPN, and wherein the message includes: one or more stand-alone non-public network, SNPN, identifiers that equal to a public land mobile network, PLMN, identifier plus a network identifier, or a closed access group, CAG, list which includes one or more PLMN identifiers associated with the CAG list; and wherein the user equipment is configured to operate on a non-public network, NPN, and wherein the message includes: one or more stand-alone non-public network, SNPN, identifiers that equal to a public land mobile network, PLMN, identifier plus a network identifier, or a closed access group, CAG, list which includes one or more PLMN identifiers associated with the CAG list; and one or more stand-alone non-public network, SNPN, identifiers that equal to a public land mobile network, PLMN, identifier plus a network identifier, or a closed access group, CAG, list which includes one or more PLMN identifiers associated with the CAG list; and performing a measurement for the MDT based on the message.
A printing apparatus comprising: a printing portion which is able to print on a medium (M); a transport portion which transports the medium; and a transport guiding portion on which a transport surface on which the medium is transported is formed and which has a plurality of bent portions , wherein the transport guiding portion is provided with a first guiding member which has a bent portion and forms the transport surface on a transport direction upstream side of the medium and a second guiding member which has a bent portion and forms the transport surface on a transport direction downstream side of the medium, wherein the first guiding member and the second guiding member are supported by a common member at an end portion in a direction which intersects with the transport direction, and characterized in that a flat portion of a second transport surface of the second guiding member has a lower height in a direction normal to the transport surface than an adjacent flat portion of a first transport surface of the first guiding member. a printing portion which is able to print on a medium (M); a transport portion which transports the medium; and a transport guiding portion on which a transport surface on which the medium is transported is formed and which has a plurality of bent portions , wherein the transport guiding portion is provided with a first guiding member which has a bent portion and forms the transport surface on a transport direction upstream side of the medium and a second guiding member which has a bent portion and forms the transport surface on a transport direction downstream side of the medium, wherein the first guiding member and the second guiding member are supported by a common member at an end portion in a direction which intersects with the transport direction, and characterized in that a flat portion of a second transport surface of the second guiding member has a lower height in a direction normal to the transport surface than an adjacent flat portion of a first transport surface of the first guiding member.
A method of edging a spectacle lens that performs beveling to a spectacle lens using a lens edger based on frame shape data of a spectacle frame obtained by measuring a frame shape of the spectacle frame using a probe of a spectacle frame measuring machine ; characterized in that the method comprises: a recognizing step of recognizing a positional relation between a groove shape of the spectacle frame whose frame shape data is measured and a measurement reference point being a point that specifies passing locus data of which point of the probe is employed as the frame shape data when the frame shape data is measured, and a positional relation between a beveling instruction reference point being a point that specifies which position of the bevel is selected to define the beveling size when the beveling instruction is given to the lens edger and a bevel shape obtained by the beveling; a beveling amount correcting step (S4) of correcting a beveling amount so that the bevel shape is fitted into the groove shape based on the recognized each positional relation when the beveling instruction is given to the lens edger ; and a beveling instruction step (S5) of giving an instruction of beveling to the lens edger based on the beveling amount after being corrected by the beveling amount correcting part. a recognizing step of recognizing a positional relation between a groove shape of the spectacle frame whose frame shape data is measured and a measurement reference point being a point that specifies passing locus data of which point of the probe is employed as the frame shape data when the frame shape data is measured, and a positional relation between a beveling instruction reference point being a point that specifies which position of the bevel is selected to define the beveling size when the beveling instruction is given to the lens edger and a bevel shape obtained by the beveling; a beveling amount correcting step (S4) of correcting a beveling amount so that the bevel shape is fitted into the groove shape based on the recognized each positional relation when the beveling instruction is given to the lens edger ; and a beveling instruction step (S5) of giving an instruction of beveling to the lens edger based on the beveling amount after being corrected by the beveling amount correcting part.
Apparatus for setting a distance (A) between a first electrode and a second electrode of a spark plug , comprising: - at least one counterbearing , one spacer plate and one punch which are arranged along a longitudinal axis (X-X), - wherein the counterbearing is designed to support the spark plug , - wherein the spacer plate is arranged between the counterbearing and the punch in the direction of the longitudinal axis (X-X), - wherein the spacer plate is designed to be arranged between the first electrode and the second electrode , and - wherein the punch is designed to apply a shaping force to the second electrode in the direction of the longitudinal axis (X-X), - characterized in that the apparatus has a force limiter which limits a maximum shaping force of the punch . - at least one counterbearing , one spacer plate and one punch which are arranged along a longitudinal axis (X-X), - wherein the counterbearing is designed to support the spark plug , - wherein the spacer plate is arranged between the counterbearing and the punch in the direction of the longitudinal axis (X-X), - wherein the spacer plate is designed to be arranged between the first electrode and the second electrode , and - wherein the punch is designed to apply a shaping force to the second electrode in the direction of the longitudinal axis (X-X), - characterized in that the apparatus has a force limiter which limits a maximum shaping force of the punch .
A system for vacuum forming a rotor blade segment of a wind turbine , the system comprising: a plurality of mold segments removably coupled together to define a mold cavity configured for forming the rotor blade segment , the plurality of the mold segments defining a plurality of vacuum chambers of the system , wherein each of the plurality of mold segments defines a vacuum chamber of the plurality of vacuum chambers, at least one of the vacuum chambers being fluidly isolated from the other vacuum chambers , one or more of the plurality of mold segments further defining a plurality of vacuum passages fluidly coupling the mold cavity and the corresponding vacuum chamber .
An ultrasound transducer comprising: an active acoustic element having a top surface and a bottom surface opposite the top surface; a first electrode deposited on the top surface of the active acoustic element; a second electrode deposited on the bottom surface of the active acoustic element; and a passive layer having a first surface, a second surface opposite the first surface, and side surfaces extending from the first surface to the second surface, wherein the second electrode is attached to the first surface of the passive layer, characterized in that the passive layer comprises: backing layer that attenuates ultrasound energy propagation below the active acoustic element; and a conductive post embedded in the backing layer and electrically connected to the second electrode, wherein the conductive post has a side surface that is exposed on a side surface of the passive layer and a second surface that is exposed on the second surface of the passive layer. an active acoustic element having a top surface and a bottom surface opposite the top surface; a first electrode deposited on the top surface of the active acoustic element; a second electrode deposited on the bottom surface of the active acoustic element; and a passive layer having a first surface, a second surface opposite the first surface, and side surfaces extending from the first surface to the second surface, wherein the second electrode is attached to the first surface of the passive layer, characterized in that the passive layer comprises: backing layer that attenuates ultrasound energy propagation below the active acoustic element; and a conductive post embedded in the backing layer and electrically connected to the second electrode, wherein the conductive post has a side surface that is exposed on a side surface of the passive layer and a second surface that is exposed on the second surface of the passive layer.
An operating room lighthead , said lighthead comprising a plurality of light sources for generating a light field on a site of surgical operation to be illuminated on a patient, as well as adjustment elements for modifying features of said light field, said adjustment elements comprising a user interface for modifying features of the light field by the actions of a lighthead operator , characterized in that the user interface further comprises projection elements for projecting, around the light field, adjustment instructions related to a feature of the lighthead-generated light field, and the lighthead is further provided with at least one laser light source specifically for projecting said adjustment instructions, and the projection elements comprise a light-transmitting optical film which is adapted to produce an adjustment instruction from light generated by said at least one laser light source , said film comprising diffractive and/or refractive optical microstructures for producing adjustment instructions.
A DC power supply system comprising first and second DC power distribution bus sections (S 1, S2) and a DC power switching assembly wherein a first terminal of the assembly is electrically coupled to the first DC bus section (S1) of the power distribution bus and the second terminal is electrically coupled to the second DC bus section (S2) of the power distribution bus; wherein the DC power switching assembly comprises a plurality of series connected power switching units ; each power switching unit comprising a first terminal of the unit and a second terminal of the unit and a power switching sub-unit electrically coupled between the first terminal and the second terminal to control current flow between the first terminal and the second terminal; wherein the first terminal and the second terminal have the same polarity; wherein the sub-unit comprises at least one semiconductor device (Q1, Q2), which conducts in normal operation and no longer conducts in the event of a fault arising at one of the first and second terminals, characterised in that each power switching unit further comprises a current limiter (L1, L2) and a pair of series connected diodes (D1, D11; D2, D21) in parallel with the current limiter, wherein the series connected diodes and current limiter are connected to one terminal of the semiconductor device (Q1, Q2); wherein the series connected diodes allow current flow to continue until the current limiter (L1, L2) has discharged, if the semiconductor device no longer conducts; and wherein a voltage blocking capacitor (C1, C2) is connected to the other terminal of the semiconductor device (Q1, Q2) to block voltage when the semiconductor devices no longer conduct. the DC power switching assembly comprises a plurality of series connected power switching units ; each power switching unit comprising a first terminal of the unit and a second terminal of the unit and a power switching sub-unit electrically coupled between the first terminal and the second terminal to control current flow between the first terminal and the second terminal; wherein the first terminal and the second terminal have the same polarity; wherein the sub-unit comprises at least one semiconductor device (Q1, Q2), which conducts in normal operation and no longer conducts in the event of a fault arising at one of the first and second terminals, characterised in that each power switching unit further comprises a current limiter (L1, L2) and a pair of series connected diodes (D1, D11; D2, D21) in parallel with the current limiter, wherein the series connected diodes and current limiter are connected to one terminal of the semiconductor device (Q1, Q2); wherein the series connected diodes allow current flow to continue until the current limiter (L1, L2) has discharged, if the semiconductor device no longer conducts; and wherein a voltage blocking capacitor (C1, C2) is connected to the other terminal of the semiconductor device (Q1, Q2) to block voltage when the semiconductor devices no longer conduct.
(Amended) A physical quantity sensor , comprising: a detection element including a drive electrode and a detection electrode ; an integrated circuit (IC) which processes an output signal provided by the detection electrode; a case which has an opening, and houses the detection element and the IC; a lid which has a rectangular parallelepiped shape, and occludes the opening of the case; a power electrode , a ground (GND) electrode , and an output electrode , which are disposed on an outer bottom surface of the case; and a metal frame disposed on an upper surface of the case, wherein the lid is joined to the metal frame, characterized in that the lid includes two bent portions formed by changing a shape of a portion of the lid to protrude in a more interior position on the lid than a joint portion corresponding to only a longitudinal side, in a top view, among sides of the lid which are joined to the metal frame, and along the joint portion corresponding to only the longitudinal side. a detection element including a drive electrode and a detection electrode ; an integrated circuit (IC) which processes an output signal provided by the detection electrode; a case which has an opening, and houses the detection element and the IC; a lid which has a rectangular parallelepiped shape, and occludes the opening of the case; a power electrode , a ground (GND) electrode , and an output electrode , which are disposed on an outer bottom surface of the case; and a metal frame disposed on an upper surface of the case, wherein the lid is joined to the metal frame, characterized in that the lid includes two bent portions formed by changing a shape of a portion of the lid to protrude in a more interior position on the lid than a joint portion corresponding to only a longitudinal side, in a top view, among sides of the lid which are joined to the metal frame, and along the joint portion corresponding to only the longitudinal side.
Fastening device , with - at least two receiving sections , which are spaced apart and each have a material projection and a receiving recess enclosed by the wall of the material projection for receiving a fastening element; and - a connecting structure which connects the at least two receiving sections to one another; characterized in that the material projections have a varying material thickness and the connecting structure comprises two opposite elongate connecting bars , which are each curved within a region of curvature , wherein the material projections and the two opposed elongate connecting bars are integral parts of a one-piece body. - at least two receiving sections , which are spaced apart and each have a material projection and a receiving recess enclosed by the wall of the material projection for receiving a fastening element; and - a connecting structure which connects the at least two receiving sections to one another;