mhurhangee/ep-ind-claims huggingface dataset:
First Connector for use in making a connection with a complementary second connector to provide a detachable interface between an electrically powered medical instrument (105, 106) and a control system for the medical instrument (105, 106), the first connector including: (a) a first connector body; (b) a first optical data conduit extending through the first connector body and terminating at a first conduit end within the first connector body; (c) a first optical lens operatively aligned with the first conduit end within the first connector body; (d) a first electrical power transfer element mounted within the first connector body; and (e) a cable connected to the connector body, characterised in that: (f) the first electrical power transfer element is configured so that electrical power can be transferred inductively to or received inductively from a second electrical power transfer element in the complementary second connector, (g) all electrical circuits (227, 228) included in the first connector are electrically isolated within the connector body aside from electrical continuity to a power conductor arrangement within the cable. (a) a first connector body; (b) a first optical data conduit extending through the first connector body and terminating at a first conduit end within the first connector body; (c) a first optical lens operatively aligned with the first conduit end within the first connector body; (d) a first electrical power transfer element mounted within the first connector body; and (e) a cable connected to the connector body, (f) the first electrical power transfer element is configured so that electrical power can be transferred inductively to or received inductively from a second electrical power transfer element in the complementary second connector, (g) all electrical circuits (227, 228) included in the first connector are electrically isolated within the connector body aside from electrical continuity to a power conductor arrangement within the cable.
Rotating electrical machine comprising a stator provided with teeth around which are wound a set of coils, an annular interconnector bearing on a bundle of plates of the stator provided with tongues to which are welded ends (191, 192) of the coils to form phases (U, V, W) of the electrical machine, a closing flange of a casing containing the stator, and at least one damper produced in a deformable material, characterized in that said damper is intended to be mounted compressed between the interconnector and the closing flange of the machine.
A camera stabilization apparatus having an elongate pendulum arm which can be gimballed via a coupling apparatus and which has a camera holder apparatus at a first side of the coupling apparatus, wherein the camera holder apparatus comprises: - a first ring element; - a second ring element supported rotatably about a roll axis, in particular concentrically to the first ring element, within the first ring element; - a camera fastening apparatus fastened to the second ring element; and - a stabilization arrangement comprising at least one motion sensor for detecting movements affecting a camera fastened to the camera fastening apparatus, drive means (18, 21) which can be controlled to rotate the second ring element about the roll axis, and a control device which is configured to compensate movements of the camera detected by means of the at least one motion sensor from a desired alignment by controlling the drive means (18, 21), characterized in that the camera holder apparatus further comprises an outer holding frame which is fastened to the pendulum arm, with the first ring element being supported in the holding frame and being rotatable about a tilt axis, with the roll axis of the second ring element being perpendicular to the tilt axis, and with the drive means (18, 21) further being able to be controlled to rotate the first ring element about the tilt axis. - a first ring element; - a second ring element supported rotatably about a roll axis, in particular concentrically to the first ring element, within the first ring element; - a camera fastening apparatus fastened to the second ring element; and - a stabilization arrangement comprising at least one motion sensor for detecting movements affecting a camera fastened to the camera fastening apparatus, drive means (18, 21) which can be controlled to rotate the second ring element about the roll axis, and a control device which is configured to compensate movements of the camera detected by means of the at least one motion sensor from a desired alignment by controlling the drive means (18, 21),
A fuel cell module, comprising: a cell stack device comprising a cell stack comprising an array of a plurality of fuel cells which carry out power generation by using an oxygen-containing gas and a fuel gas, a manifold which supplies a fuel gas to each of the fuel cells, and a reformer which reforms a raw fuel and produces the fuel gas; an oxygen-containing gas flow channel through which the oxygen-containing gas flows; an oxygen-containing gas introduction plate which supplies the oxygen-containing gas to each of the plurality of fuel cells; a housing comprising an accommodation chamber which accommodates the cell stack device and the oxygen-containing gas introduction plate; and a plurality of insertion members inserted from an outside of the housing into the accommodation chamber, the plurality of insertion members being inserted through one surface of the housing. a cell stack device comprising a cell stack comprising an array of a plurality of fuel cells which carry out power generation by using an oxygen-containing gas and a fuel gas, a manifold which supplies a fuel gas to each of the fuel cells, and a reformer which reforms a raw fuel and produces the fuel gas; an oxygen-containing gas flow channel through which the oxygen-containing gas flows; an oxygen-containing gas introduction plate which supplies the oxygen-containing gas to each of the plurality of fuel cells; a housing comprising an accommodation chamber which accommodates the cell stack device and the oxygen-containing gas introduction plate; and a plurality of insertion members inserted from an outside of the housing into the accommodation chamber, the plurality of insertion members being inserted through one surface of the housing.
A wheeled suitcase comprising: o a rigid or semi-rigid suitcase body, mounted on wheels, said body comprising at least three rigid or semi-rigid lateral faces (5, 9) separated by two edges, and o a telescopic twin rod comprising two arms, a handle and two tubes, the arms being connected to the handle and slidingly mounted in both tubes, wherein the two tubes are disposed along the two edges outside the body of said suitcase, said suitcase being characterized in that, in said suitcase, each of the two edges is recessed, presenting a concavity facing the outside of the suitcase body, and wherein the tubes are received in the recessed edges. o a rigid or semi-rigid suitcase body, mounted on wheels, said body comprising at least three rigid or semi-rigid lateral faces (5, 9) separated by two edges, and o a telescopic twin rod comprising two arms, a handle and two tubes, the arms being connected to the handle and slidingly mounted in both tubes,
A vacuum mixing device for bone cement, comprising a mixing container, which can be connected to a vacuum source, and a monomer container including a vial containing a monomer, the monomer container being coupleable to the mixing container, wherein at least 20% of the volume of the vial is filled with a gas when a vacuum is not present in the mixing container such that the monomer flows from the monomer container into the mixing container when a vacuum is present in the mixing container, and wherein the vacuum mixing device is closed such that ambient air cannot penetrate the vial or the mixing container, characterized in that the vacuum mixing device includes a safety bolt that upon removal releases the monomer container toward a coupled state with the mixing container.
A method for producing a mixture of hydrocarbons, the method comprising the steps of: (a) providing a renewable paraffin composition containing more than 70 wt-% isoparaffins and more than 20 wt-% multiple branched isoparaffins; (b) combining fossil naphtha with the renewable paraffin composition to form a blend; and (c) thermally cracking the blend to produce a mixture of hydrocarbons. (a) providing a renewable paraffin composition containing more than 70 wt-% isoparaffins and more than 20 wt-% multiple branched isoparaffins; (b) combining fossil naphtha with the renewable paraffin composition to form a blend; and (c) thermally cracking the blend to produce a mixture of hydrocarbons.
A user equipment, comprising: a processor; and a memory, storing instructions, wherein the processor executes the instructions to: receive a sidelink scheduling information via Downlink Control Information, DCI, format 3_0, wherein a time domain resource assignment in the sidelink scheduling information indicates a number N of sidelink resource(s), determine a value of a time domain resource assignment field for Sidelink Control Information, SCI, corresponding to i th (1≤i≤N) sidelink resource, the value of the time domain resource assignment field in the SCI indicating i th, (i+1) th,..., N th sidelink resource(s), transmit a Physical Sidelink Control Channel, PSCCH, with the SCI. a processor; and a memory, storing instructions, wherein the processor executes the instructions to: receive a sidelink scheduling information via Downlink Control Information, DCI, format 3_0, wherein a time domain resource assignment in the sidelink scheduling information indicates a number N of sidelink resource(s), determine a value of a time domain resource assignment field for Sidelink Control Information, SCI, corresponding to i th (1≤i≤N) sidelink resource, the value of the time domain resource assignment field in the SCI indicating i th, (i+1) th,..., N th sidelink resource(s), transmit a Physical Sidelink Control Channel, PSCCH, with the SCI. receive a sidelink scheduling information via Downlink Control Information, DCI, format 3_0, wherein a time domain resource assignment in the sidelink scheduling information indicates a number N of sidelink resource(s), determine a value of a time domain resource assignment field for Sidelink Control Information, SCI, corresponding to i th (1≤i≤N) sidelink resource, the value of the time domain resource assignment field in the SCI indicating i th, (i+1) th,..., N th sidelink resource(s), transmit a Physical Sidelink Control Channel, PSCCH, with the SCI.
A gas turbine engine blade containment system, comprising: a generally cylindrical casing being made of a first material; and a generally cylindrical ring being made of a second material coaxially surrounding the casing, at least some portion of the ring being metallurgically bonded to the casing; characterized in that a gap is positioned between the casing and the ring. a generally cylindrical casing being made of a first material; and a generally cylindrical ring being made of a second material coaxially surrounding the casing, at least some portion of the ring being metallurgically bonded to the casing; characterized in that a gap is positioned between the casing and the ring.
A method for programming a plurality of non-volatile analog neuromorphic memory cells based on a programming speed characteristic of the cell comprising: determining the programming speed characteristic of a neuromorphic memory cell; if the programming speed characteristic of the cell is identified as being fast, performing a first programming tuning algorithm on the cell comprising: adding a first amount of charge to a floating gate of the cell during a programming operation; verifying the charge level on the floating gate of the cell (4304, 4305); and repeating the adding and verifying steps until a desired charge level on the floating gate of the cell is achieved; and if the programming speed characteristic of the cell is identified as being slow, performing a second programming tuning algorithm on the cell comprising: adding a second amount of charge less than the first amount of charge to a floating gate of the cell during a programming operation; verifying the charge level on the floating gate of the cell (4309, 4310); and repeating the adding and verifying steps until the desired charge level on the floating gate of the cell is achieved. determining the programming speed characteristic of a neuromorphic memory cell; if the programming speed characteristic of the cell is identified as being fast, performing a first programming tuning algorithm on the cell comprising: adding a first amount of charge to a floating gate of the cell during a programming operation; verifying the charge level on the floating gate of the cell (4304, 4305); and repeating the adding and verifying steps until a desired charge level on the floating gate of the cell is achieved; and adding a first amount of charge to a floating gate of the cell during a programming operation; verifying the charge level on the floating gate of the cell (4304, 4305); and repeating the adding and verifying steps until a desired charge level on the floating gate of the cell is achieved; and if the programming speed characteristic of the cell is identified as being slow, performing a second programming tuning algorithm on the cell comprising: adding a second amount of charge less than the first amount of charge to a floating gate of the cell during a programming operation; verifying the charge level on the floating gate of the cell (4309, 4310); and repeating the adding and verifying steps until the desired charge level on the floating gate of the cell is achieved. adding a second amount of charge less than the first amount of charge to a floating gate of the cell during a programming operation; verifying the charge level on the floating gate of the cell (4309, 4310); and repeating the adding and verifying steps until the desired charge level on the floating gate of the cell is achieved.
An apparatus comprising: first conveyance means (311, 312) configured to convey a sheet; a first guide located downstream of the first conveyance means (311, 312) in a conveyance direction and configured to guide a first side end of the conveyed sheet; a second guide configured to contact a second side end opposite the first side end to guide the second side end; and second conveyance means (411, 412) located downstream of the first guide in the conveyance direction; characterized in that the apparatus further comprises skew means (316, 317) configured to convey the sheet in an oblique direction to come closer to the first guide; and control means configured to perform control so that, after conveying the sheet by the skew means (316, 317) with the first guide contacting the first side end while the second guide is separated from the second side end, the second guide moves to a position close to the second side end. first conveyance means (311, 312) configured to convey a sheet; a first guide located downstream of the first conveyance means (311, 312) in a conveyance direction and configured to guide a first side end of the conveyed sheet; a second guide configured to contact a second side end opposite the first side end to guide the second side end; and second conveyance means (411, 412) located downstream of the first guide in the conveyance direction; characterized in that the apparatus further comprises skew means (316, 317) configured to convey the sheet in an oblique direction to come closer to the first guide; and control means configured to perform control so that, after conveying the sheet by the skew means (316, 317) with the first guide contacting the first side end while the second guide is separated from the second side end, the second guide moves to a position close to the second side end.
Method for adjusting the power range of a buttermaking machine to a cream inflow amount, the buttermaking machine comprising a buttermaking cylinder (1, 21, 41, 61, 81) with a housing (11, 31, 71) and a dasher (2, 22, 42, 62, 82), which is arranged rotatably about an axis of rotation, comprising the following steps: a. introducing the cream inflow amount into the buttermaking cylinder (1, 21, 41, 61, 81); b. converting cream into butter grain and buttermilk; and c. discharging the buttermilk/butter-grain mixture from the buttermaking cylinder (1, 21, 41, 61, 81) d. the introduction of the cream inflow amount into the buttermaking cylinder (1, 21, 41, 61, 81) may take place and/or takes place at at least two different points (5a, 5b, 5c, B, 45a, 45b, 45c, 65a, 65b, 65c, 85a-c) along the axis of rotation of the dasher (2, 22, 42, 62, 82), characterized in that e. the introduction of the cream takes place through at least two inlets (5a, 5b, 5c, 45a, 45b, 45c, 65a, 65b, 65c, 85a-c), which are arranged fixedly on the housing (11, 71) of the buttermaking cylinder (1, 41, 61, 81), or f. the introduction of the cream takes place through preferably one inlet (25, 26), which is arranged movably on the housing of the buttermaking cylinder and directs cream to a space inside the buttermaking cylinder at any desired position along the axis of rotation. a. introducing the cream inflow amount into the buttermaking cylinder (1, 21, 41, 61, 81); b. converting cream into butter grain and buttermilk; and c. discharging the buttermilk/butter-grain mixture from the buttermaking cylinder (1, 21, 41, 61, 81) d. the introduction of the cream inflow amount into the buttermaking cylinder (1, 21, 41, 61, 81) may take place and/or takes place at at least two different points (5a, 5b, 5c, B, 45a, 45b, 45c, 65a, 65b, 65c, 85a-c) along the axis of rotation of the dasher (2, 22, 42, 62, 82), characterized in that e. the introduction of the cream takes place through at least two inlets (5a, 5b, 5c, 45a, 45b, 45c, 65a, 65b, 65c, 85a-c), which are arranged fixedly on the housing (11, 71) of the buttermaking cylinder (1, 41, 61, 81), or f. the introduction of the cream takes place through preferably one inlet (25, 26), which is arranged movably on the housing of the buttermaking cylinder and directs cream to a space inside the buttermaking cylinder at any desired position along the axis of rotation.
A check valve comprising: a valve housing defining a first valve opening and a second valve opening; a first flapper pivotably mounted around a first axis (X 1) for rotation relative to the housing between an open position in which it permits fluid flow through the first valve opening and a closed position in which it prevents fluid flow through the first valve opening; and a second flapper pivotably mounted around a second axis (X 2) for rotation relative to the housing between an open position in which it permits fluid flow through the second valve opening and a closed position in which it prevents fluid flow through the second valve opening, wherein the first axis (X 1) is spaced laterally from to the second axis (X 2); characterised in that: the check valve further comprises a stop pin arranged such that the flappers (14, 16) will contact the stop pin in their open positions; the housing comprises a pair of opposed mounts, each mount comprising a mounting post; the stop pin extends across the valve housing between the mounting posts; the first and second flappers (14, 16) are pivotably mounted between the mounts by means of respective flapper spindles (22, 24); each one of the pair of mounts comprises a bore; and each of the flapper spindles (22, 24) is received within a respective bore. a valve housing defining a first valve opening and a second valve opening; a first flapper pivotably mounted around a first axis (X 1) for rotation relative to the housing between an open position in which it permits fluid flow through the first valve opening and a closed position in which it prevents fluid flow through the first valve opening; and a second flapper pivotably mounted around a second axis (X 2) for rotation relative to the housing between an open position in which it permits fluid flow through the second valve opening and a closed position in which it prevents fluid flow through the second valve opening, wherein the first axis (X 1) is spaced laterally from to the second axis (X 2); characterised in that: the check valve further comprises a stop pin arranged such that the flappers (14, 16) will contact the stop pin in their open positions; the housing comprises a pair of opposed mounts, each mount comprising a mounting post; the stop pin extends across the valve housing between the mounting posts; the first and second flappers (14, 16) are pivotably mounted between the mounts by means of respective flapper spindles (22, 24); each one of the pair of mounts comprises a bore; and each of the flapper spindles (22, 24) is received within a respective bore. the check valve further comprises a stop pin arranged such that the flappers (14, 16) will contact the stop pin in their open positions; the housing comprises a pair of opposed mounts, each mount comprising a mounting post; the stop pin extends across the valve housing between the mounting posts; the first and second flappers (14, 16) are pivotably mounted between the mounts by means of respective flapper spindles (22, 24); each one of the pair of mounts comprises a bore; and each of the flapper spindles (22, 24) is received within a respective bore.
A support system for a display device comprising: a first arm having a lower connection member; a second arm rotatably connected to the first arm about a first axis; a joint rotatably connected to the second arm about a second axis; and a biasing system including a biasing member having a first end positioned in the first arm and a second end positioned in the second arm, the biasing member providing a force to balance a load applied to the second arm, characterized in that the biasing member includes an elastomeric spring including a thermoplastic material that has undergone a pre-stretch treatment. a first arm having a lower connection member; a second arm rotatably connected to the first arm about a first axis; a joint rotatably connected to the second arm about a second axis; and a biasing system including a biasing member having a first end positioned in the first arm and a second end positioned in the second arm, the biasing member providing a force to balance a load applied to the second arm, characterized in that the biasing member includes an elastomeric spring including a thermoplastic material that has undergone a pre-stretch treatment.
A gearshift assembly having two shifting gates, the gearshift assembly comprising base, a shift lever having an overmoulded ball portion which is received in a socket fixed in the base, the socket having a sidewall with an inner surface forming part of a sphere to provide a pivotal mounting for the ball portion for pivotal movement of the shift lever over a pivotal movement range about a first axis along one of the shifting gates and for pivotal movement about a second axis perpendicular to the first axis between the two shifting gates, wherein a vertical direction is defined as being perpendicular to the first and second axes, the socket having vertical slots in the sidewall which have parallel vertical side edges (24, 26) and which are open at their upper ends to allow a sidewall portion between adjacent vertical slots to elastically flex outwardly during insertion of the ball portion into the socket, the ball portion comprising a pattern of recesses having straight sidewalls, characterized in that the sidewalls of the pattern of recesses are arranged such that all sidewalls of the recesses (12, 14, 16, 18) are inclined with respect to side edges (24, 26) of the vertical slots over the pivotal movement range of the shift lever.