mhurhangee/patent-ind-claim-en huggingface dataset:
A C-arm , comprising a connection component , a driving component, a first support component , and a second support component , wherein the first support component is configured to support a radiation generator , the second support component is configured to support a radiation detector , the first support component and the second support component are movably connected to the connection component , the driving component is configured to drive a movement of the first support component and the second support component relative to the connection component , and the driving component includes a driving assembly configured to drive the first support component and the second support component to move toward or away from each other, the C-arm being characterized in that the driving assembly drives the first support component to move at a first speed and drives the second support component to move at a second speed, the first speed being different from the second speed to make a position of a center of gravity of the C-arm during movements of the first support component and the second support component relative to the connection component being constant. the first support component is configured to support a radiation generator , the second support component is configured to support a radiation detector , the first support component and the second support component are movably connected to the connection component , the driving component is configured to drive a movement of the first support component and the second support component relative to the connection component , and the driving component includes a driving assembly configured to drive the first support component and the second support component to move toward or away from each other, the C-arm being characterized in that the driving assembly drives the first support component to move at a first speed and drives the second support component to move at a second speed, the first speed being different from the second speed to make a position of a center of gravity of the C-arm during movements of the first support component and the second support component relative to the connection component being constant.
Production line having a printing press and a further-processing section positioned downstream of the printing press in the printing material path, wherein the printing press comprises at least one printing assembly (200; 400), by means of which a web-type or sheet-type printing material can be printed on at least one of its sides with print images of print pages of a printed product (P; P(Z); P(T); P(S)) to be produced in a printing process without printing formes, and in the further-processing section a printed printing material can be processed to form the printed products (P; P(Z); P(T); P(S)), wherein the further-processing section comprises a printing material channelling line , via which the printing material (002'; 002'), in the form of single-layer or multilayer printing material sections (002',k), is or can be transferred, acted on by one or more further-processing stages (502; 503; 504; 506; 507; 508; 509; 511; 512; 513) provided in the printing material channelling line , at an output to a finishing line for further processing the printing material sections (002',k), wherein the finishing line comprises as further-processing stages (601; 602; 603) at least one collecting device (601; 603), which has a collecting cylinder and by means of which single-layer or multilayer printing material sections (002',k) can be collected to form a bundle or bundles can be collected to form a bundle stack , and also a cross-folding device which is arranged functionally downstream of the at least one collecting device (601; 603), by means of which the bundles (617; 617') or bundle stacks exiting the at least one collecting device (601; 603) can be cross-folded relative to the intake-side transport direction (F), and wherein the collecting device (601; 603) comprises retaining means (626; 651) embodied as grippers or group of grippers, and in that a drive that controls the movement of the grippers or group of grippers is embodied as mechanically independent of a drive that drives the collecting cylinder (623; 649), characterised in that the printing material channelling line comprises as further-processing stage (502; 503; 504; 508) at least one joining device (502; 503; 504; 508) in the guide path of at least two strands formed by webs or partial webs , by means of which the at least two strands can be guided one on top of the other to form a multilayer strand, and the finishing line comprises, as further further-processing stage , a collecting device arranged downstream of the cross-folding device , by means of which collecting device two or more intermediate products that have been cross-folded upstream by means of the cross-folding device can be combined, one on top of the other, to form a bundle .
An electronic device comprising: a first housing including a first surface and a second surface that faces and is spaced apart from the first surface; a second housing including a third surface and a fourth surface that faces and is spaced apart from the third surface; a folding part pivotably connecting a side surface of the first housing with a side surface of the second housing that faces the side surface of the first housing; a flexible display disposed on the first surface and the third surface across the folding part and including a first area corresponding to the first surface and a second area corresponding to the third surface; and a processor , wherein the processor is configured to: display a first screen within the first area and a second screen within the second area in a first state in which the first housing and the second housing are folded out about the folding part; identify that the electronic device is changed from the first state to a second state in which the first housing and the second housing are folded in about the folding part; cease, in response to the identifying, displaying the second screen within the second area; detect an input to the second area while the display of the second screen within the second area is ceased; and display the second screen instead of the first screen within the first area, in response to the detecting. a first housing including a first surface and a second surface that faces and is spaced apart from the first surface; a second housing including a third surface and a fourth surface that faces and is spaced apart from the third surface; a folding part pivotably connecting a side surface of the first housing with a side surface of the second housing that faces the side surface of the first housing; a flexible display disposed on the first surface and the third surface across the folding part and including a first area corresponding to the first surface and a second area corresponding to the third surface; and a processor , display a first screen within the first area and a second screen within the second area in a first state in which the first housing and the second housing are folded out about the folding part; identify that the electronic device is changed from the first state to a second state in which the first housing and the second housing are folded in about the folding part; cease, in response to the identifying, displaying the second screen within the second area; detect an input to the second area while the display of the second screen within the second area is ceased; and display the second screen instead of the first screen within the first area, in response to the detecting.
A method for calibration of the center steering angle of at least one propulsion unit of a marine vessel providing a straight path of travel of said vessel, the at least one propulsion unit being arranged to provide a propulsive force to the vessel, the at least one propulsion unit being adjustable so as to change a respective steering angle of the at least one propulsion unit in relation to a hull of the vessel, the method being characterized by - determining (S1) a base steering angle (AAC1, ABC1) of the at least one propulsion unit presumed to provide a straight path of travel of the vessel ; - putting (S2) the vessel in the water; - selecting (S3) a first course over ground (HD1) as a desired course over ground (HD); - controlling (S4) the at least one propulsion unit so as to provide at least one acceleration sequence, wherein the vessel is accelerated stepwise or continuously in each acceleration sequence, - adjusting (S5), continuously or repeatedly, during the acceleration sequence, the steering angle of the at least one propulsion unit , to align an actual course over ground (HA) of the vessel with the first course over ground (HD1) to keep the path of the vessel straight during the acceleration sequence, - registering (S6), during the acceleration sequence, a plurality of values (AA, AB) of the respective steering angle of the at least one propulsion unit , and - determining (S11), based at least partly on the registered steering angle values (AA, AB), a respective reference steering angle (AAC2, ABC2) of the at least one propulsion unit , which reference steering angle (AAC2, ABC2) minimizes a deviation of the actual course over ground (HA) of the vessel from the desired course over ground (HD) of the vessel . - determining (S1) a base steering angle (AAC1, ABC1) of the at least one propulsion unit presumed to provide a straight path of travel of the vessel ; - putting (S2) the vessel in the water; - selecting (S3) a first course over ground (HD1) as a desired course over ground (HD); - controlling (S4) the at least one propulsion unit so as to provide at least one acceleration sequence, wherein the vessel is accelerated stepwise or continuously in each acceleration sequence, - adjusting (S5), continuously or repeatedly, during the acceleration sequence, the steering angle of the at least one propulsion unit , to align an actual course over ground (HA) of the vessel with the first course over ground (HD1) to keep the path of the vessel straight during the acceleration sequence, - registering (S6), during the acceleration sequence, a plurality of values (AA, AB) of the respective steering angle of the at least one propulsion unit , and - determining (S11), based at least partly on the registered steering angle values (AA, AB), a respective reference steering angle (AAC2, ABC2) of the at least one propulsion unit , which reference steering angle (AAC2, ABC2) minimizes a deviation of the actual course over ground (HA) of the vessel from the desired course over ground (HD) of the vessel .
A method comprising: - transmitting , over a first wavelength and by an optical line terminal OLT , a first frame of data to a first optical network unit, ONU ; - transmitting , over a second wavelength and by the OLT , a first portion of a second frame of data to a second ONU while the first frame of data is being transmitted to the first ONU over the first wavelength; and - after transmission of the first frame of data over the first wavelength has completed and while the first portion of the second frame of data is still being transmitted to the second ONU over the second wavelength, transmitting a second portion of the second frame of data to the second ONU over the first wavelength. - transmitting , over a first wavelength and by an optical line terminal OLT , a first frame of data to a first optical network unit, ONU ; - transmitting , over a second wavelength and by the OLT , a first portion of a second frame of data to a second ONU while the first frame of data is being transmitted to the first ONU over the first wavelength; and - after transmission of the first frame of data over the first wavelength has completed and while the first portion of the second frame of data is still being transmitted to the second ONU over the second wavelength, transmitting a second portion of the second frame of data to the second ONU over the first wavelength.
A device for transport of a material across a biological barrier of a subject comprising: a plurality of microneedles each having a base end and a tip; a substrate to which the base ends of the microneedles are attached or integrated; and acid-degradable nanoparticles, wherein the nanoparticles encapsulate a drug and a pH altering agent. a plurality of microneedles each having a base end and a tip; a substrate to which the base ends of the microneedles are attached or integrated; and acid-degradable nanoparticles, wherein the nanoparticles encapsulate a drug and a pH altering agent.
A method, comprising: in response to receiving an overload start indication from a network node , composing and sending first signaling to at least one user equipment to indicate that an overload condition exists for the network node and to cause the at least one user equipment to abstain from making a network access attempt; and in response to receiving an overload end indication from the network node , composing and sending second signaling to the at least one user equipment to indicate that the overload condition no longer exists and that the at least one user equipment can make a network access attempt, wherein the first signaling comprises information to indicate what type of network access is allowed by the at least one user equipment , indicating that the at least one user equipment is allowed to make a network access attempt if the at least one user equipment is to make an allowable type of network access. in response to receiving an overload start indication from a network node , composing and sending first signaling to at least one user equipment to indicate that an overload condition exists for the network node and to cause the at least one user equipment to abstain from making a network access attempt; and in response to receiving an overload end indication from the network node , composing and sending second signaling to the at least one user equipment to indicate that the overload condition no longer exists and that the at least one user equipment can make a network access attempt, wherein the first signaling comprises information to indicate what type of network access is allowed by the at least one user equipment , indicating that the at least one user equipment is allowed to make a network access attempt if the at least one user equipment is to make an allowable type of network access.
An arrangement for safely removing surge protection devices (SPD) from the mains, independently of switchgear or backup fuses, in the event of critical operating states, particularly a transition of the surge protection device (SPD) to a fault or overload state, comprising a device for sensing the current flowing through the surge protection device and a switching apparatus electrically connected in series with the surge protection device, the device for sensing the current flowing through the surge protection device being formed as a toroidal coil with or without a ferromagnetic core, characterized in that the design of the toroidal coil is such that fault currents of medium amplitude are detectable which differ from event-induced surge currents, wherein the toroidal coil is in electrical communication with an indicator fuse , the indicator of which is mechanically connected to the switching apparatus in order to trigger same.
A method for determining a reference focus position of a beam of a beam-based machine tool using a control unit, characterized in that the control unit performs the following steps: providing a relative motion trajectory which delimits a discoid area with respect to a surrounding area , the discoid area being connected to the surrounding area via at least one bridge area , performing (step 21) a sequence of test cuts on a workpiece , wherein for each test cut in the workpiece , a cutting structure is cut by guiding the beam along the relative motion trajectory and the cutting is performed along the at least one bridge area of the relative motion trajectory at differently set focus positions, evaluating (step 23) whether for a single cutting structure , the workpiece in the discoid area of the relative motion trajectory has a disc held by at least one bridge or whether the workpiece has, in the discoid area of the relative motion trajectory , an opening in the workpiece formed in accordance with the relative motion trajectory , and assigning (step 25) the reference focus position based on the evaluating of the cutting structures . providing a relative motion trajectory which delimits a discoid area with respect to a surrounding area , the discoid area being connected to the surrounding area via at least one bridge area , performing (step 21) a sequence of test cuts on a workpiece , wherein for each test cut in the workpiece , a cutting structure is cut by guiding the beam along the relative motion trajectory and the cutting is performed along the at least one bridge area of the relative motion trajectory at differently set focus positions, evaluating (step 23) whether for a single cutting structure , the workpiece in the discoid area of the relative motion trajectory has a disc held by at least one bridge or whether the workpiece has, in the discoid area of the relative motion trajectory , an opening in the workpiece formed in accordance with the relative motion trajectory , and assigning (step 25) the reference focus position based on the evaluating of the cutting structures .
A process for the treatment of rinds of plant origin comprising a step of immersion of said rinds in a bath under stirring for a time ranging between 1 hour and 3 days, wherein said bath has a pH between 2 and 8 and comprises an aqueous solution of an agent of treatment selected from the group consisting of glutaraldehyde, acetaldehyde, glyoxal and mixtures thereof, at a concentration of said agent of treatment higher than 2% by weight with respect of the total weight of the solution, wherein said rinds of plant origin are pineapple rinds or melon rinds.
Curing bladder for a tyre having a shape of revolution around a central axis and comprising a flexible wall made of crosslinked rubber, the surface of the wall being covered with a coating film made of a non-stick composition and, when the bladder is in a non-inflated state, the wall of said bladder exhibiting zones which are intended to be more stressed in deformation by elongation than other zones of said wall when the bladder is inflated in order to cause said bladder to change from the non-inflated state to an opened-out state in which the surface of the bladder comes into contact with the tyre, characterized in that , in the non-inflated state, the coating film has a predetermined thickness which, on the one hand, is between 5 μm and 100 μm and which, on the other hand, is variable over said surface so that the coating film is thicker in said zones of the wall which are intended to be more stressed in deformation by elongation than in said other zones of the wall, in order for said coating film to be able to exhibit an unvarying thickness in the opened-out state.
A method of purifying nanowires, the method comprising: providing a plurality of nanowires in solution; filtering the nanowires in solution by cross-flow filtration, wherein the step of filtering the nanowires in solution by cross-flow filtration includes the step of passing the solution comprising nanowires through a cross-flow filter, the step of passing the solution comprising nanowires through a cross-flow filter includes passing the solution through a cross-flow filter having a mean mesh size of 20 to 40 μm; wherein the nanowires are metallic and include Ag, Au, Pt, Cu, Co, Fe and/or Ni; wherein the nanowires have a length of from 30 μm to 90 μm, wherein the length defines the longest dimension; and, wherein the nanowires have a width of from 80 nm to 150 nm, wherein the width defines the shortest dimension. providing a plurality of nanowires in solution; filtering the nanowires in solution by cross-flow filtration, wherein the step of filtering the nanowires in solution by cross-flow filtration includes the step of passing the solution comprising nanowires through a cross-flow filter, the step of passing the solution comprising nanowires through a cross-flow filter includes passing the solution through a cross-flow filter having a mean mesh size of 20 to 40 μm; wherein the nanowires are metallic and include Ag, Au, Pt, Cu, Co, Fe and/or Ni; wherein the nanowires have a length of from 30 μm to 90 μm, wherein the length defines the longest dimension; and, wherein the nanowires have a width of from 80 nm to 150 nm, wherein the width defines the shortest dimension.
An ultrasonic fluid meter comprising: a conduit in which a fluid can flow; an ultrasonic measuring device comprising an upstream transducer and a downstream transducer which are piezoelectric transducers and which are configured to emit and receive ultrasonic signals in the conduit, the ultrasonic measuring device being configured to evaluate a current flow rate of the fluid from times of flight of the ultrasonic signals between the upstream transducer and the downstream transducer; a valve positioned along a length of the conduit between the upstream transducer and the downstream transducer, the valve comprising a movable member which extends in the conduit and for which a current position can be regulated in order to control the current flow rate of the fluid; a position sensor configured to measure the current position of the movable member; characterized in that the fluid meter further comprises : a processing circuit which, if the current position of the movable member is such that the current flow rate cannot be measured by the ultrasonic measuring device, is configured to evaluate the current flow rate as a function of the current position of the movable member and of a pressure value which is representative of a difference between a second pressure of the fluid in the conduit downstream of the valve and a first pressure of the fluid in the conduit upstream of the valve, the first pressure being evaluated from a first electrical impedance of the upstream transducer and the second pressure being evaluated from a second electrical impedance of the downstream transducer. a conduit in which a fluid can flow; an ultrasonic measuring device comprising an upstream transducer and a downstream transducer which are piezoelectric transducers and which are configured to emit and receive ultrasonic signals in the conduit, the ultrasonic measuring device being configured to evaluate a current flow rate of the fluid from times of flight of the ultrasonic signals between the upstream transducer and the downstream transducer; a valve positioned along a length of the conduit between the upstream transducer and the downstream transducer, the valve comprising a movable member which extends in the conduit and for which a current position can be regulated in order to control the current flow rate of the fluid; a position sensor configured to measure the current position of the movable member;