mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical navigation probe assembly comprising: a receiver having: a receiver channel extending in a longitudinal direction and configured to receive a navigation probe shaft in a proximal open end of the receiver channel, and limit movement of the navigation probe shaft in a lateral direction that is perpendicular to the longitudinal direction, and a first threaded surface ; and a lock having: a central passage extending in the longitudinal direction, and a second threaded surface ; wherein the lock and receiver are movable between a first configuration in which the lock and receiver allow the navigation probe shaft to move relative to the lock and receiver along the longitudinal direction, and a second configuration in which the lock and receiver prevent the navigation probe from moving relative to the lock and receiver along the longitudinal direction; and, wherein the lock is rotatable relative to the receiver to engage the first threaded surface with the second threaded surface to thereby move the lock and receiver between the first configuration and the second configuration. a receiver having: a receiver channel extending in a longitudinal direction and configured to receive a navigation probe shaft in a proximal open end of the receiver channel, and limit movement of the navigation probe shaft in a lateral direction that is perpendicular to the longitudinal direction, and a first threaded surface ; and a receiver channel extending in a longitudinal direction and configured to receive a navigation probe shaft in a proximal open end of the receiver channel, and limit movement of the navigation probe shaft in a lateral direction that is perpendicular to the longitudinal direction, and a first threaded surface ; and a lock having: a central passage extending in the longitudinal direction, and a second threaded surface ; wherein the lock and receiver are movable between a first configuration in which the lock and receiver allow the navigation probe shaft to move relative to the lock and receiver along the longitudinal direction, and a second configuration in which the lock and receiver prevent the navigation probe from moving relative to the lock and receiver along the longitudinal direction; and, wherein the lock is rotatable relative to the receiver to engage the first threaded surface with the second threaded surface to thereby move the lock and receiver between the first configuration and the second configuration. a central passage extending in the longitudinal direction, and a second threaded surface ; wherein the lock and receiver are movable between a first configuration in which the lock and receiver allow the navigation probe shaft to move relative to the lock and receiver along the longitudinal direction, and a second configuration in which the lock and receiver prevent the navigation probe from moving relative to the lock and receiver along the longitudinal direction; and, wherein the lock is rotatable relative to the receiver to engage the first threaded surface with the second threaded surface to thereby move the lock and receiver between the first configuration and the second configuration.
An LED lighting device for the irradiation of a cultivated surface comprising: - a support made of thermally conductive material, having a lower face , intended to be turned toward the cultivated surface, and an opposite upper face , provided with a plurality of holes passing from the upper face to the lower face , wherein inlet openings of said holes on the upper face collectively occupy a hole region of said upper face ; - a plurality of optical bodies suitable to concentrate or distribute a light emission cone, each optical body being inserted in a respective hole so as to concentrate or distribute the emission cone exiting the lower face ; - a thin and flexible membrane , in contact with the upper face of the support ; - an LED board comprising a plurality of LEDs , superimposed on and in contact with the membrane , configured so that each LED is turned toward the membrane and aligns with the respective optical body characterized in that the membrane covers said hole region of said upper face of said support - a support made of thermally conductive material, having a lower face , intended to be turned toward the cultivated surface, and an opposite upper face , provided with a plurality of holes passing from the upper face to the lower face , wherein inlet openings of said holes on the upper face collectively occupy a hole region of said upper face ; - a plurality of optical bodies suitable to concentrate or distribute a light emission cone, each optical body being inserted in a respective hole so as to concentrate or distribute the emission cone exiting the lower face ; - a thin and flexible membrane , in contact with the upper face of the support ; - an LED board comprising a plurality of LEDs , superimposed on and in contact with the membrane , configured so that each LED is turned toward the membrane and aligns with the respective optical body characterized in that the membrane covers said hole region of said upper face of said support
Laser system for irrigation, including debriding, cleaning and decontamination, of anatomical cavities filled with a liquid , the laser system comprising a laser source for generating a laser beam , and an optical delivery system for the laser beam , wherein the delivery system includes a treatment handpiece and an exit component , wherein the treatment handpiece and the exit component are configured to irrigate the anatomical cavity filled with the liquid and having a liquid-to-air surface, wherein a wavelength of the laser beam is in a range from above 0.4 μm to 11.0 μm inclusive, wherein the laser system is adapted to be operated in pulsed operation with pulse sets containing at least two and maximally twenty individual pulses (p) of a temporally limited pulse length (t p ), wherein a temporal separation (t s ) between the pulse sets is ≥ 20 ms, and wherein the individual pulses (p) follow one another with a temporal pulse period (T P ) within a range of 50 μs, inclusive, to 1000 μs, inclusive, characterized in, that the laser system further comprises a feedback system to determine a bubble oscillation intensity of at least one vapor bubble generated within the liquid when irradiated with the laser beam , and that adjusting means are provided for adjusting the temporal pulse period (T P ) to achieve at least approximately a bubble oscillation intensity maximum to produce effective irrigation, including debriding, cleaning and decontamination of an anatomical cavity.
A deposition system comprising: an alternating current power supply including a first output and a second output; a first triaxial cable that is grounded, the first triaxial cable comprising a first center conductor and a first inner shield conductor ; a second triaxial cable that is grounded, the second triaxial cable comprising a second center conductor and a second inner shield conductor ; a deposition chamber having a first terminal (A) and a second terminal (B); the first output coupled with the first center conductor and the second output coupled with the first inner shield conductor , the first output coupled with the second inner shield conductor and the second output coupled with the second center conductor ; the first center conductor coupled with the first terminal (A) and the second inner shield conductor coupled with the first terminal (A); and the first inner shield conductor coupled with the second terminal (B) and the second center conductor coupled with the second terminal (B). an alternating current power supply including a first output and a second output; a first triaxial cable that is grounded, the first triaxial cable comprising a first center conductor and a first inner shield conductor ; a second triaxial cable that is grounded, the second triaxial cable comprising a second center conductor and a second inner shield conductor ; a deposition chamber having a first terminal (A) and a second terminal (B); the first output coupled with the first center conductor and the second output coupled with the first inner shield conductor , the first output coupled with the second inner shield conductor and the second output coupled with the second center conductor ; the first center conductor coupled with the first terminal (A) and the second inner shield conductor coupled with the first terminal (A); and the first inner shield conductor coupled with the second terminal (B) and the second center conductor coupled with the second terminal (B).
A filling system configured to perform a filling process for filling a vessel (V) with liquid, comprising: a liquid tank for storing liquid; a compressor for pressurizing the inside of the liquid tank; a filling head having a seal member adapted to be pressed against a mouth (Vm) of the vessel and channeling the liquid stored inside the liquid tank to the vessel through a liquid passageway while the mouth of the vessel is sealed by the seal member during the filling process; a liquid valve provided in the liquid passageway ; a gas passageway connecting a headspace of the liquid tank to an interior of the vessel abutting against the seal member; a gas valve provided in the gas passageway; a snifting passage provided with a snifting valve and connecting the interior of the vessel abutting against the seal member to the outside; and a flowmeter for detecting the amount of liquid supplied to the vessel, the filling system having a first mode for filling non-fizzy liquids, in which the liquid valve is opened to allow the liquid to fill the vessel while the liquid tank is pressurized, the gas valve is closed and the snifting valve is opened, wherein the closed and open conditions of the gas valve and the snifting valve are maintained during the vessel filling process. a liquid tank for storing liquid; a compressor for pressurizing the inside of the liquid tank; a filling head having a seal member adapted to be pressed against a mouth (Vm) of the vessel and channeling the liquid stored inside the liquid tank to the vessel through a liquid passageway while the mouth of the vessel is sealed by the seal member during the filling process; a liquid valve provided in the liquid passageway ; a gas passageway connecting a headspace of the liquid tank to an interior of the vessel abutting against the seal member; a gas valve provided in the gas passageway; a snifting passage provided with a snifting valve and connecting the interior of the vessel abutting against the seal member to the outside; and a flowmeter for detecting the amount of liquid supplied to the vessel, the filling system having a first mode for filling non-fizzy liquids, in which the liquid valve is opened to allow the liquid to fill the vessel while the liquid tank is pressurized, the gas valve is closed and the snifting valve is opened, wherein the closed and open conditions of the gas valve and the snifting valve are maintained during the vessel filling process.
Method for driving an electric machine in motor start-up mode by means of power electronics , in particular for use in a motor vehicle , wherein the power electronics have a plurality of driveable power switches , which are connected to the electric machine for the purpose of supplying the electric machine with electric power (I) in multi-phase form, wherein the power electronics are driven in such a way that the stationary or starting electric machine outputs a stationary or starting torque (t), wherein the power electronics for outputting the stationary or starting torque (t) are driven in such a way that the switching position of at least two of the power switches is changed, so that the power switches are loaded uniformly, characterized in that the driving is carried out in a field-oriented manner, wherein space vectors for outputting the starting torque (t) are changed incrementally, and wherein the space vector is a current vector which, to output the starting torque (t), is rotated incrementally along a line (t q ) of constant torque.
A unit pixel , comprising: a transparent substrate ; a plurality of light emitting devices arranged on the transparent substrate; an adhesive layer bonding the light emitting devices to the transparent substrate; a step adjusting layer covering the light emitting devices and bonded to the adhesive layer; connection layers disposed on the step adjustment layer and electrically connected to the light emitting devices, characterized in that the step adjustment layer has a concave-convex pattern along an edge thereof. a transparent substrate ; a plurality of light emitting devices arranged on the transparent substrate; an adhesive layer bonding the light emitting devices to the transparent substrate; a step adjusting layer covering the light emitting devices and bonded to the adhesive layer; connection layers disposed on the step adjustment layer and electrically connected to the light emitting devices, characterized in that the step adjustment layer has a concave-convex pattern along an edge thereof.
A non-oriented electrical steel sheet, comprising a chemical composition represented by: in mass%, C: 0.0030% or less; Si: 2.00% to 4.00%; Al: 0.10% to 3.00%; Mn: 0.10% to 2.00%; S: 0.0030% or less; one kind or more selected from a group consisting of Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, and Cd: 0.0015% to 0.0100% in total; a parameter Q represented by an equation 1 when the Si content in mass% is set to [Si], the Al content in mass% is set to [Al], and the Mn content in mass% is set to [Mn]: 2.00 or more; Sn: 0.00% to 0.40%; Cu: 0.0% to 1.0%; Cr: 0.0% to 10.0%; and a balance: Fe and impurities, wherein: the total mass of S contained in sulfides or oxysulfides of Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, or Cd is 40% or more of the total mass of S contained in the non-oriented electrical steel sheet; a crystal orientation intensity is 3.0 or more, which is measured in accordance with the description; a thickness is 0.15 mm to 0.30 mm; and an average crystal grain diameter is 65 μm to 100 μm wherein Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, and Cd are referred to as "coarse precipitate generating elements" wherein a grain diameter of a precipitate of the coarse precipitate generating element is 1 μm to 2 μm, Q = Si + 2 Al − Mn in mass%, C: 0.0030% or less; Si: 2.00% to 4.00%; Al: 0.10% to 3.00%; Mn: 0.10% to 2.00%; S: 0.0030% or less; one kind or more selected from a group consisting of Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, and Cd: 0.0015% to 0.0100% in total; a parameter Q represented by an equation 1 when the Si content in mass% is set to [Si], the Al content in mass% is set to [Al], and the Mn content in mass% is set to [Mn]: 2.00 or more; Sn: 0.00% to 0.40%; Cu: 0.0% to 1.0%; Cr: 0.0% to 10.0%; and a balance: Fe and impurities, wherein: the total mass of S contained in sulfides or oxysulfides of Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, or Cd is 40% or more of the total mass of S contained in the non-oriented electrical steel sheet; a crystal orientation intensity is 3.0 or more, which is measured in accordance with the description; a thickness is 0.15 mm to 0.30 mm; and an average crystal grain diameter is 65 μm to 100 μm the total mass of S contained in sulfides or oxysulfides of Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, or Cd is 40% or more of the total mass of S contained in the non-oriented electrical steel sheet; a crystal orientation intensity is 3.0 or more, which is measured in accordance with the description; a thickness is 0.15 mm to 0.30 mm; and an average crystal grain diameter is 65 μm to 100 μm
Epicyclic gear train comprising a toothed planet wheel and an external ring gear , said epicyclic gear train being provided with a plurality of toothed planetary gears which are carried by the same planetary carrier , the planetary carrier comprising a support and a plurality of crank pins carried by said support , each crank pin comprising a fastening portion which moves away from said support to a distal end in one direction , each planetary gear being arranged around said fastening portion and having a degree of rotational freedom about an axis of extension (AX) of said fastening portion , characterised in that said epicyclic gear train comprises a retaining link which is carried by said crank pins and connects the crank pins , each planetary gear being arranged in a zone between the support and the retaining link , each crank pin having a restricted freedom of movement with respect to the retaining link , said retaining link comprising a centring pin for each crank pin , each crank pin and an associated said centring pin being nested axially at least partially one within the other along the axis of extension (AX) of said crank pin , said centring pin entering a cavity in the associated crank pin or said crank pin entering a cavity in said associated centring pin , a radial clearance separating a crank pin and the associated centring pin perpendicularly to said axis of extension (AX) of the crank pin when at rest.
A liquid material applicator comprising a discharge unit which includes a screw type dispenser for discharging a liquid material, a table on which a work piece is placed, a drive mechanism for relatively moving the discharge unit and the work piece , a measurement unit for measuring a discharge amount (Lω) of the liquid material applied to the work piece , and a control module for controlling operations of those components, wherein the control module has a response time calculating function being capable of, prior to the start of application, calculating a response delay time (Td) generated with change of the discharge amount (Lω) of the liquid material when the work piece and the discharge unit are relatively moved at non-constant speeds and the liquid material is continuously applied into a drawing pattern with the liquid material discharged in a non-constant amount, the response time calculating function including a first step of transmitting a signal for changing the discharge amount (Lω) to the discharge unit during the application in which a relative moving speed is held constant, and storing the time of the signal transmission, a second step of calculating the time at which the discharge amount (Lω) starts to be changed, by measuring the applied liquid material, and storing the calculated time, and a third step of storing a differential value between the time stored in the first step and the time stored in the second step as the response delay time (Td) generated when the discharge amount (Lω) of the liquid material is changed. wherein the control module has a response time calculating function being capable of, prior to the start of application, calculating a response delay time (Td) generated with change of the discharge amount (Lω) of the liquid material when the work piece and the discharge unit are relatively moved at non-constant speeds and the liquid material is continuously applied into a drawing pattern with the liquid material discharged in a non-constant amount, the response time calculating function including a first step of transmitting a signal for changing the discharge amount (Lω) to the discharge unit during the application in which a relative moving speed is held constant, and storing the time of the signal transmission, a second step of calculating the time at which the discharge amount (Lω) starts to be changed, by measuring the applied liquid material, and storing the calculated time, and a third step of storing a differential value between the time stored in the first step and the time stored in the second step as the response delay time (Td) generated when the discharge amount (Lω) of the liquid material is changed.
A light emitting device comprising: a light emitting element having a first face , a second face opposing the first face, a plurality of side faces extending between the first face and the second face , a plurality of corners where the second face meets two of the plurality of side faces , and a pair of electrodes on a second face side of the light emitting element ; a light transmissive member covering a portion of at least one of the side faces , a portion of an edge where said at least one side face meets the second face , and a portion of an edge where the at least one side face meets another side face adjacent to the at least one side face such that at least one of the plurality of corners is exposed from the light transmissive member , and a covering member covering the at least one exposed corner of the light emitting element and the exterior of the light transmissive member such that the pair of electrodes are exposed from the covering member , wherein a thermal expansion coefficient difference between the covering member and the light emitting element is smaller than a thermal expansion coefficient difference between the light transmissive member and the light emitting element . a light emitting element having a first face , a second face opposing the first face, a plurality of side faces extending between the first face and the second face , a plurality of corners where the second face meets two of the plurality of side faces , and a pair of electrodes on a second face side of the light emitting element ; a light transmissive member covering a portion of at least one of the side faces , a portion of an edge where said at least one side face meets the second face , and a portion of an edge where the at least one side face meets another side face adjacent to the at least one side face such that at least one of the plurality of corners is exposed from the light transmissive member , and a covering member covering the at least one exposed corner of the light emitting element and the exterior of the light transmissive member such that the pair of electrodes are exposed from the covering member , wherein a thermal expansion coefficient difference between the covering member and the light emitting element is smaller than a thermal expansion coefficient difference between the light transmissive member and the light emitting element .
A fusion polypeptide comprising, from an amino-terminal position to a carboxyl-terminal position, ApoA1-L1-D, wherein: ApoA1 is a first polypeptide segment comprising an amino acid sequence having at least 90% or at least 95% identity with amino acid residues 19-267 or 25-267 of SEQ ID NO:2, wherein said first polypeptide segment has cholesterol efflux activity, optionally wherein said first polypeptide segment has the amino acid sequence shown in residues 19-267 or 25-267 of SEQ ID NO:2; L1 is a first polypeptide linker comprising at least five amino acid residues; and D is an immunoglobulin Fc region; wherein the fusion polypeptide has increased ApoA1 cholesterol efflux activity as compared to either an ApoA1-Fc fusion polypeptide with a 2 amino acid linker or an ApoA1-Fc fusion polypeptide without a linker. ApoA1 is a first polypeptide segment comprising an amino acid sequence having at least 90% or at least 95% identity with amino acid residues 19-267 or 25-267 of SEQ ID NO:2, wherein said first polypeptide segment has cholesterol efflux activity, optionally wherein said first polypeptide segment has the amino acid sequence shown in residues 19-267 or 25-267 of SEQ ID NO:2; L1 is a first polypeptide linker comprising at least five amino acid residues; and D is an immunoglobulin Fc region; wherein the fusion polypeptide has increased ApoA1 cholesterol efflux activity as compared to either an ApoA1-Fc fusion polypeptide with a 2 amino acid linker or an ApoA1-Fc fusion polypeptide without a linker.