mhurhangee/patent-ind-claim-en huggingface dataset:
A straddled vehicle comprising: a meter unit , the meter unit comprising: a first display provided with a first screen on which a first image is displayable or displayed; and a second display provided with a second screen on which a second image is displayable or displayed, the first screen being located leftward of a vehicle center plane (C) perpendicular with respect to a transverse direction (Y) of the vehicle, the second screen being located rightward of the vehicle center plane (C), the second screen being substantially equal to the first screen in size, the first screen and the second screen being each inclined forward and upward at an angle (θ1) of 45 degrees or more relative to a horizontal plane (G), the first screen being inclined leftward and rearward in plan view of the vehicle, the second screen being inclined rightward and rearward in plan view of the vehicle, the first display and the second display being arranged side-by-side in the vehicle transverse direction (Y) of the vehicle and being spaced apart from each other, and the meter unit forming a center space (S) positioned rightward of a first case of the first display and leftward of a second case of the second display . , the center space (S) being formed between the first case and the second case such that the driver can visibly recognize a road surface and other vehicles in front of the straddled vehicle through the center space (S). a meter unit , the meter unit comprising: a first display provided with a first screen on which a first image is displayable or displayed; and a second display provided with a second screen on which a second image is displayable or displayed, a first display provided with a first screen on which a first image is displayable or displayed; and a second display provided with a second screen on which a second image is displayable or displayed, the first screen being located leftward of a vehicle center plane (C) perpendicular with respect to a transverse direction (Y) of the vehicle, the second screen being located rightward of the vehicle center plane (C), the second screen being substantially equal to the first screen in size, the first screen and the second screen being each inclined forward and upward at an angle (θ1) of 45 degrees or more relative to a horizontal plane (G), the first screen being inclined leftward and rearward in plan view of the vehicle, the second screen being inclined rightward and rearward in plan view of the vehicle, the first display and the second display being arranged side-by-side in the vehicle transverse direction (Y) of the vehicle and being spaced apart from each other, and the meter unit forming a center space (S) positioned rightward of a first case of the first display and leftward of a second case of the second display . , the center space (S) being formed between the first case and the second case such that the driver can visibly recognize a road surface and other vehicles in front of the straddled vehicle through the center space (S).
A mixing apparatus comprising: a hopper defining first and second chambers , the first chamber disposed adjacent to the second chamber ; a reel disposed within the first chamber , the reel including first and second hubs configured to rotate about a common axis of rotation; at least one primary member being a connecting member connecting the first hub to the second hub and configured to sweep a cylindrical volume while the first and second hubs rotate; at least one auger disposed in the second chamber; the apparatus being characterized in that it comprises at least one secondary member disposed at a non-zero angle relative to the axis of rotation of the first and second hubs such that the secondary member passes through said cylindrical volume while the first and second hubs rotate. a hopper defining first and second chambers , the first chamber disposed adjacent to the second chamber ; a reel disposed within the first chamber , the reel including first and second hubs configured to rotate about a common axis of rotation; at least one primary member being a connecting member connecting the first hub to the second hub and configured to sweep a cylindrical volume while the first and second hubs rotate; at least one auger disposed in the second chamber; the apparatus being characterized in that it comprises at least one secondary member disposed at a non-zero angle relative to the axis of rotation of the first and second hubs such that the secondary member passes through said cylindrical volume while the first and second hubs rotate.
A medical needle, catheter, and integrated package grip device , comprising: an introducer needle assembly , comprising: an introducer needle comprising a proximal end and a distal tip ; and a needle hub connected to the proximal end of the introducer needle ; a package coupled to the needle hub, the package comprising a body , wherein the body defines an internal-cavity and an opening and includes external lateral sides; and a hinge assembly disposed within the cavity of the package , wherein the introducer needle assembly is hingedly coupled to the package at the hinge assembly , wherein the hinge assembly facilitates rotation of the distal tip of the introducer needle from a closed position in which the distal tip is contained within the package to an open position in which the distal tip extends longitudinally through the body at opening for insertion into vasculature of the patient and wherein the package doubles as a grip; and a catheter having a proximal end and a distal end, wherein the catheter is coaxially and slidably disposed about the introducer needle, and wherein the introducer needle and the catheter are contained within the cavity defined by the package prior to use. an introducer needle comprising a proximal end and a distal tip ; and a needle hub connected to the proximal end of the introducer needle ; a package coupled to the needle hub, the package comprising a body , wherein the body defines an internal-cavity and an opening and includes external lateral sides; and a hinge assembly disposed within the cavity of the package , wherein the introducer needle assembly is hingedly coupled to the package at the hinge assembly , wherein the hinge assembly facilitates rotation of the distal tip of the introducer needle from a closed position in which the distal tip is contained within the package to an open position in which the distal tip extends longitudinally through the body at opening for insertion into vasculature of the patient and wherein the package doubles as a grip; and a catheter having a proximal end and a distal end, wherein the catheter is coaxially and slidably disposed about the introducer needle, and wherein the introducer needle and the catheter are contained within the cavity defined by the package prior to use.
A winch comprising an overwinding prevention, OP, unit , wherein the OP unit comprises: an OP trigger for triggering preventing a load from being raised further by the winch ; and an OP trigger activator, OPTA, moveable between a first OPTA position and a second OPTA position relative to the OP trigger ; wherein the OP trigger is in a deactivated state when the OPTA is in the first OPTA position, and wherein the OP trigger is in an activated state, to trigger preventing the load from being raised further by the winch , when the OPTA is in the second OPTA position; wherein the OPTA is contactable by the load such that the OPTA is moveable from the first OPTA position to the second OPTA position upon the load being raised by the winch ; characterized in that the winch is configured to automatically lower the load upon activation of the OP trigger . an OP trigger for triggering preventing a load from being raised further by the winch ; and an OP trigger activator, OPTA, moveable between a first OPTA position and a second OPTA position relative to the OP trigger ; wherein the OP trigger is in a deactivated state when the OPTA is in the first OPTA position, and wherein the OP trigger is in an activated state, to trigger preventing the load from being raised further by the winch , when the OPTA is in the second OPTA position; wherein the OPTA is contactable by the load such that the OPTA is moveable from the first OPTA position to the second OPTA position upon the load being raised by the winch ; characterized in that the winch is configured to automatically lower the load upon activation of the OP trigger .
A method performed by a Broadcast Multicast Service Center, BMSC, in a Multimedia Broadcast/Multicast Service, MBMS, system deciding on switching between unicast and broadcast delivery of content to User Equipments, UEs, connected to the MBMS, comprising the steps of: • receiving counts on the consumption of said content by UEs from a counter having a receiver for receiving reports from UEs consuming user services, a register per user service for counting the number of UEs that report consummation of user services; • adjusting first applied thresholds on basis of the availability of resources for broadcast delivery of content, and • deciding to switch content from unicast to broadcast delivery when the counts of UEs consuming said content exceeds said first adjusted thresholds. • receiving counts on the consumption of said content by UEs from a counter having a receiver for receiving reports from UEs consuming user services, a register per user service for counting the number of UEs that report consummation of user services; • adjusting first applied thresholds on basis of the availability of resources for broadcast delivery of content, and • deciding to switch content from unicast to broadcast delivery when the counts of UEs consuming said content exceeds said first adjusted thresholds.
Laser machining system with a control unit , a laser ablation apparatus and a gas supply , wherein the laser ablation apparatus comprises a laser for generating a laser beam , a laser head including a re-directing arrangement for directing the laser beam of the laser onto a surface of a workpiece to be machined, wherein the workpiece is disposed in an accommodation device , placed in a working chamber , wherein a positioning arrangement is provided for a relative movement between the laser head and the workpiece and wherein the working chamber comprises at least one inlet and at least one outlet for a gas, characterized in that the gas supply is configured to provide a flow of the gas in the working chamber and a temperature system is provided to adjust the temperature of the gas flow , wherein the temperature system comprising at least one device to adjust the temperature of the gas flow and at least one temperature sensor configured to determine thermal values of the workpiece and/or of the gas in the working chamber , wherein these thermal values are utilized by the control unit to adjust the temperature of the incoming gas flow.
An image processing apparatus configured to perform noise reduction on an image obtained by radiography in a recursive way, comprising: an image input unit receiving frame-by-frame images obtained by the radiography; a motion detection image generating unit configured to generate a motion detection image comprising motion detection information for each pixel of a subtraction image obtained by a subtraction of a current frame image and a previous frame image; a motion probability image generating unit configured to generate a motion probability image based on the generated motion detection image and the motion detection images accumulated up to a previous frame; and an output image generating unit configured to generate an output image of a current frame by mixing the current frame image and the output image of the previous frame based on the motion probability image, wherein the motion probability image generating unit is configured to generate the motion probability image by summing the motion detection image of the current frame and at least one of the motion detection images up to the previous frame, and wherein the output image generating unit is configured to variably determine a mixing ratio between the current frame image and the previous output frame image depending on a value indicating a degree of a motion of each pixel of the motion probability image. an image input unit receiving frame-by-frame images obtained by the radiography; a motion detection image generating unit configured to generate a motion detection image comprising motion detection information for each pixel of a subtraction image obtained by a subtraction of a current frame image and a previous frame image; a motion probability image generating unit configured to generate a motion probability image based on the generated motion detection image and the motion detection images accumulated up to a previous frame; and an output image generating unit configured to generate an output image of a current frame by mixing the current frame image and the output image of the previous frame based on the motion probability image, wherein the motion probability image generating unit is configured to generate the motion probability image by summing the motion detection image of the current frame and at least one of the motion detection images up to the previous frame, and wherein the output image generating unit is configured to variably determine a mixing ratio between the current frame image and the previous output frame image depending on a value indicating a degree of a motion of each pixel of the motion probability image.
A method to automatically control a drivetrain provided with a servo-assisted transmission ; wherein the drivetrain belongs to a vehicle driven by a driver and provided also with an internal combustion engine , with an accelerator pedal , and with a brake pedal ; the control method comprises the steps of: measuring a rotation speed (ω E ) of the internal combustion engine ; carrying out a downshift of the servo-assisted transmission in an autonomous manner and independently of an intervention of the driver, when the rotation speed (ω E ) of the internal combustion engine reaches a lower threshold (TH DOWN ) ; and carrying out an upshift of the servo-assisted transmission in an autonomous manner and independently of an intervention of the driver, when the rotation speed (ω E ) of the internal combustion engine reaches an upper threshold (TH UP ); the control method is characterized in that it comprises the further steps of: detecting a release of the accelerator pedal in a first instant (t 1 ); waiting, starting from the first instant (t 1 ), a time interval (TO) until a second instant (t 2 ), which is subsequent to the first instant (t 1 ); and increasing a value of the lower threshold (TH DOWN ) starting from the second instant (t 2 ) until a following pressing of the accelerator pedal , if in the second instant (t 2 ) the rotation speed (ω E ) of the internal combustion engine still exceeds the lower threshold (TH DOWN ) . measuring a rotation speed (ω E ) of the internal combustion engine ; carrying out a downshift of the servo-assisted transmission in an autonomous manner and independently of an intervention of the driver, when the rotation speed (ω E ) of the internal combustion engine reaches a lower threshold (TH DOWN ) ; and carrying out an upshift of the servo-assisted transmission in an autonomous manner and independently of an intervention of the driver, when the rotation speed (ω E ) of the internal combustion engine reaches an upper threshold (TH UP ); the control method is characterized in that it comprises the further steps of: detecting a release of the accelerator pedal in a first instant (t 1 ); waiting, starting from the first instant (t 1 ), a time interval (TO) until a second instant (t 2 ), which is subsequent to the first instant (t 1 ); and increasing a value of the lower threshold (TH DOWN ) starting from the second instant (t 2 ) until a following pressing of the accelerator pedal , if in the second instant (t 2 ) the rotation speed (ω E ) of the internal combustion engine still exceeds the lower threshold (TH DOWN ) . detecting a release of the accelerator pedal in a first instant (t 1 ); waiting, starting from the first instant (t 1 ), a time interval (TO) until a second instant (t 2 ), which is subsequent to the first instant (t 1 ); and increasing a value of the lower threshold (TH DOWN ) starting from the second instant (t 2 ) until a following pressing of the accelerator pedal , if in the second instant (t 2 ) the rotation speed (ω E ) of the internal combustion engine still exceeds the lower threshold (TH DOWN ) .
Test arrangement for in-situ partial discharge measurements in distribution transformers , comprising at least • one test system having at least the following test components: • an AC voltage source for producing a variable test voltage, • a measuring apparatus for recording current pulses caused by partial discharge, • an evaluation apparatus for the recorded current pulses, • an earthed test container in which at least some of the test components are arranged, • and a distribution transformer connected to the AC voltage source as a test object, characterized in that provision is made of insulation means on which the test object is arranged in an electrically insulated and elevated manner, wherein the insulation means form a distance which ensures that the test object is electrically insulated with respect to its standing area, and in that the test object is at least predominantly connected to the potential of the earthed test container by those parts of the test object which need to be earthed during normal operation. • one test system having at least the following test components: • an AC voltage source for producing a variable test voltage, • a measuring apparatus for recording current pulses caused by partial discharge, • an evaluation apparatus for the recorded current pulses, • an AC voltage source for producing a variable test voltage, • a measuring apparatus for recording current pulses caused by partial discharge, • an evaluation apparatus for the recorded current pulses, • an earthed test container in which at least some of the test components are arranged, • and a distribution transformer connected to the AC voltage source as a test object,
A particulate flavouring composition comprising at least 60 wt.% of plated lactate particles, the plated lactate particle comprising (i) a lactate particle containing calcium lactate and optionally edible acid; and (ii) a liquid flavouring that is absorbed onto the lactate particle, said liquid flavouring being liquid at 20°C and atmospheric pressure; the plated lactate particle containing: • 25-99.5 wt.% calcium lactate; • 0-60 wt.% edible acid; and • 0.5-40 wt.% of the liquid flavouring; and wherein the combination of calcium lactate, edible acid and the liquid flavouring constitutes at least 90 wt.%, preferably at least 95 wt.% of the plated lactate particle. • 25-99.5 wt.% calcium lactate; • 0-60 wt.% edible acid; and • 0.5-40 wt.% of the liquid flavouring; and
An apparatus configured to provide a protocol that specifies a power-sourcing voltage range that indicates power sourcing capabilities and for communicating additional power sourcing capabilities using voltage variations within the power-sourcing voltage range, wherein the power-sourcing voltage range comprises one of a plurality of different non-overlapping voltage ranges that each correspond to a different maximum current level that a power-sourcing device is capable of providing, the apparatus comprising: the power-sourcing device configured to provide power to an external power-sinking device over a wired connection containing a plurality of wires , the power-sourcing device including: a voltage control circuit configured to drive a voltage over a wire of the plurality of wires ; and processing circuitry configured to: communicate, using the voltage control circuit , first power-sourcing capabilities to the external power-sinking device by setting the voltage over the wire to a value within the power-sourcing voltage range; and communicate, using the voltage control circuit , the additional power sourcing capabilities of the power-sourcing device using voltage variations on the wire to encode data describing the additional power-sourcing capabilities, the voltage variations maintaining voltage on the wire within the power-sourcing voltage range. the power-sourcing device configured to provide power to an external power-sinking device over a wired connection containing a plurality of wires , the power-sourcing device including: a voltage control circuit configured to drive a voltage over a wire of the plurality of wires ; and processing circuitry configured to: communicate, using the voltage control circuit , first power-sourcing capabilities to the external power-sinking device by setting the voltage over the wire to a value within the power-sourcing voltage range; and communicate, using the voltage control circuit , the additional power sourcing capabilities of the power-sourcing device using voltage variations on the wire to encode data describing the additional power-sourcing capabilities, the voltage variations maintaining voltage on the wire within the power-sourcing voltage range. communicate, using the voltage control circuit , first power-sourcing capabilities to the external power-sinking device by setting the voltage over the wire to a value within the power-sourcing voltage range; and communicate, using the voltage control circuit , the additional power sourcing capabilities of the power-sourcing device using voltage variations on the wire to encode data describing the additional power-sourcing capabilities, the voltage variations maintaining voltage on the wire within the power-sourcing voltage range.
A method of testing the oxidation resistance of a superalloy or a coating alloy comprising the steps of:- a) applying a layer of salt on the surface of the superalloy or a coating alloy with a controlled salt flux, b) placing the superalloy or a coating alloy in a furnace , the furnace being at a predetermined temperature of at least 1000°C and containing an oxygen containing gas, c) maintaining the superalloy or a coating alloy in the furnace at the predetermined temperature for a predetermined period of time, d) removing the superalloy or a coating alloy from the furnace and allowing the alloy to cool to ambient temperature or other suitable temperature, e) repeating steps a) to d) for a predetermined number of times such that the salt is applied to the surface of the superalloy or a coating alloy at a salt flux level of 0.5 to 30μg cm -2 h -1 , and f) weighing the alloy periodically to determine the oxidation resistance of the superalloy or a coating alloy, comprising at least weighing the alloy before the test and weighing the superalloy or a coating alloy at the end of the test. a) applying a layer of salt on the surface of the superalloy or a coating alloy with a controlled salt flux, b) placing the superalloy or a coating alloy in a furnace , the furnace being at a predetermined temperature of at least 1000°C and containing an oxygen containing gas, c) maintaining the superalloy or a coating alloy in the furnace at the predetermined temperature for a predetermined period of time, d) removing the superalloy or a coating alloy from the furnace and allowing the alloy to cool to ambient temperature or other suitable temperature, e) repeating steps a) to d) for a predetermined number of times such that the salt is applied to the surface of the superalloy or a coating alloy at a salt flux level of 0.5 to 30μg cm -2 h -1 , and f) weighing the alloy periodically to determine the oxidation resistance of the superalloy or a coating alloy, comprising at least weighing the alloy before the test and weighing the superalloy or a coating alloy at the end of the test.