mhurhangee/patent-ind-claim-en huggingface dataset:
Computer-implemented method for automatically calculating an improvement evaluation result (r) for operating a set of applications, which are adapted for processing standardized data in a platform infrastructure (P), wherein the method comprises: - Providing a set of registered applications (A) for improvement evaluation, wherein registering (S1) an application comprises adding a self-declaration interface (A.1), which is used to provide a self-declaration of the application by means of a formula (f), wherein the self-declaration is a digital structure comprising at least one variable or parameter of the formula, indicating, whether the registered application (A) is operated successfully; - Collecting (S2) measurement data during runtime of at least one registered application (A), to be introduced (S3) in the formula (f) of the at least one registered application (A); - Transferring (S4) the formula (f) with the collected measurement data to an evaluation unit (P.2); - Accessing the evaluation unit (P.2) for evaluating (S5) the formula (f) according to pre-defined criteria, wherein the evaluation comprises a ranking of the registered application (A) in the context of the set of registered applications (A); - Providing (S6) an improvement evaluation result (r), reflecting an improvement potential for the registered application (A) to be operated in the set of applications, wherein the improvement evaluation result (r) is a data set representing whether or not the registered application (A) is operated successfully or under successful operation conditions; and wherein the formula (f) comprises a plurality of pre-configurable data fields, yielding different operating conditions of the registered application (A). - Providing a set of registered applications (A) for improvement evaluation, wherein registering (S1) an application comprises adding a self-declaration interface (A.1), which is used to provide a self-declaration of the application by means of a formula (f), wherein the self-declaration is a digital structure comprising at least one variable or parameter of the formula, indicating, whether the registered application (A) is operated successfully; - Collecting (S2) measurement data during runtime of at least one registered application (A), to be introduced (S3) in the formula (f) of the at least one registered application (A); - Transferring (S4) the formula (f) with the collected measurement data to an evaluation unit (P.2); - Accessing the evaluation unit (P.2) for evaluating (S5) the formula (f) according to pre-defined criteria, wherein the evaluation comprises a ranking of the registered application (A) in the context of the set of registered applications (A); - Providing (S6) an improvement evaluation result (r), reflecting an improvement potential for the registered application (A) to be operated in the set of applications, wherein the improvement evaluation result (r) is a data set representing whether or not the registered application (A) is operated successfully or under successful operation conditions; and wherein
A cap configured to come into contact with a discharging head including a nozzle plate provided with a plurality of nozzle columns configured to discharge liquid, and to cover the nozzle plate, the cap comprising: support parts , which have a plate shape, configured to come into contact with an area between the nozzle columns and to support the nozzle plate, wherein the cap has a box shape including a bottom and no lid and formed with a side wall having a frame shape and a bottom plate, where the bottom plate includes a discharge port configured to discharge ink in the cap, the support parts define regions surrounding the nozzle columns, and in a case where the cap is in contact with the nozzle plate, the regions are in communication with one another, and characterised in that the support parts, which are perpendicular to the bottom plate of the cap, are configured to be detachably attached to the side wall forming the outer circumference of the cap, and positions for the support parts to be mounted are adjustable. support parts , which have a plate shape, configured to come into contact with an area between the nozzle columns and to support the nozzle plate, wherein the cap has a box shape including a bottom and no lid and formed with a side wall having a frame shape and a bottom plate, where the bottom plate includes a discharge port configured to discharge ink in the cap, the support parts define regions surrounding the nozzle columns, and in a case where the cap is in contact with the nozzle plate, the regions are in communication with one another, and characterised in that the support parts, which are perpendicular to the bottom plate of the cap, are configured to be detachably attached to the side wall forming the outer circumference of the cap, and positions for the support parts to be mounted are adjustable.
An isolator system including a main isolator in which an aseptic operation is performed, and a subisolator connectable to the main isolator, characterized by comprising: a first opening connector which is formed at the main isolator and through which an item can be loaded and unloaded; a first opening/closing member which opens and closes the first opening connector in the main isolator; a first blocking member which blocks the first opening connector outside of the main isolator; and a first decontamination mechanism which supplies a decontamination medium into the main isolator to perform decontamination; a second opening connector which is formed at the subisolator and through which the item can be loaded and unloaded; and a second opening and closing member which opens and closes the second opening connector in the subisolator; and connection means for connecting the first opening connector and the second opening connector to each other, and causing an inside of the main isolator and an inside of the subisolator to communicate with each other in a state where inflow of an external atmosphere is blocked, wherein when the inside of the main isolator is decontaminated, the first opening connector is not connected with the second opening connector, and the first opening connector is blocked with the first blocking member from an outside. a first opening connector which is formed at the main isolator and through which an item can be loaded and unloaded; a first opening/closing member which opens and closes the first opening connector in the main isolator; a first blocking member which blocks the first opening connector outside of the main isolator; and a first decontamination mechanism which supplies a decontamination medium into the main isolator to perform decontamination; a second opening connector which is formed at the subisolator and through which the item can be loaded and unloaded; and a second opening and closing member which opens and closes the second opening connector in the subisolator; and connection means for connecting the first opening connector and the second opening connector to each other, and causing an inside of the main isolator and an inside of the subisolator to communicate with each other in a state where inflow of an external atmosphere is blocked, wherein when the inside of the main isolator is decontaminated, the first opening connector is not connected with the second opening connector, and the first opening connector is blocked with the first blocking member from an outside.
A device for measuring a biological signal, comprising a net-like stretchable holder which is configured to be used as a cap, an electrode, a signal cable , and a brainwave analyzer, wherein the electrode is a comb-shaped biological electrode which is configured to measure a biological signal and includes a conductive composite fiber including a conductive polymer, wherein the comb-shaped biological electrode includes contacts composed of the conductive composite polymer fiber, arcuate first frames , wherein both ends of the contacts are connected with both ends of the first frames , the signal cable being connected between a terminal of each contact and the brainwave analyzer, a second frame which functions as a beam, which is laid across the first frames and fixes the first frames . a net-like stretchable holder which is configured to be used as a cap, an electrode, a signal cable , and a brainwave analyzer, wherein the electrode is a comb-shaped biological electrode which is configured to measure a biological signal and includes a conductive composite fiber including a conductive polymer, wherein the comb-shaped biological electrode includes contacts composed of the conductive composite polymer fiber, arcuate first frames , wherein both ends of the contacts are connected with both ends of the first frames , the signal cable being connected between a terminal of each contact and the brainwave analyzer, a second frame which functions as a beam, which is laid across the first frames and fixes the first frames . contacts composed of the conductive composite polymer fiber, arcuate first frames , wherein both ends of the contacts are connected with both ends of the first frames , the signal cable being connected between a terminal of each contact and the brainwave analyzer, a second frame which functions as a beam, which is laid across the first frames and fixes the first frames .
Substrate comprising a surface at least one part of which is coated with an epilame agent, said epilame agent comprising at least one compound in the form of a copolymer comprising V units, N units, optionally at least one M unit and optionally at least one P unit, linked by covalent bonds by their main chains, wherein V is N is M is P is where R 1 , R 2 , R 3 , R 4 , which may be identical or different, are H, a C 1 -C 10 alkyl group, C 1 -C 10 alkenyl group, and preferably H, CH 3 W, X, Y, Z, which may be identical or different, are spacer arms formed of a heteroatom or of a hydrocarbon chain that may contain at least one linear or branched heteroatom comprising at least one carbon atom L, which may be identical or different, is a halogenated, preferably fluorinated, C 1 -C 20 carbon moiety A, which may be identical or different, forms an anchoring moiety for the substrate, and is chosen from the group comprising thiols, thioethers, thioesters, sulphides, thioamides, silanols, alkoxysilanes, silane halides, hydroxyls, phosphates, protected or non-protected phosphonic acids, protected or non-protected phosphonates, amines, ammoniums, nitrogenated heterocycles, carboxylic acids, anhydrides, catechol Q, which may be identical or different, is H, CH 3 , a hydrocarbon chain different from T that may contain at least one linear or branched, saturated or unsaturated heteroatom, comprising at least 2 carbon atoms; characterized in that T, which may be identical or different, is a tracer group arranged to determine the concentration of epilame agent in an epilame-coating bath, T being a UV-absorbing group derived from a compound selected from the group comprising benzotriazoles, triazines, phenones, acylphosphine oxides or a fluorophore moiety derived from a compound chosen from the group comprising fluorescein, a naphtyl, anthracene, coumarin, rhodamine, a fluorobenzoate.
A method of determining the maximum permissible speed applicable to a motor vehicle, hereinafter referred to as a host vehicle , the method comprising the steps of: - determining a first speed limit, based on map data from a navigation system equipping the host vehicle ; - determining a second speed limit, based on the detection of speed limit signs on images provided by a camera equipped with the host vehicle ; - determine a third speed limit, based on the measurement of the speed of vehicles located in the environment of the host vehicle ; - determining the maximum authorized speed applicable to the host vehicle , the latter being equal to the first limit speed or to the second limit speed, characterized in that the third limit speed is used to choose between the first and the second limit speeds when these two speeds are different. - determining a first speed limit, based on map data from a navigation system equipping the host vehicle ; - determining a second speed limit, based on the detection of speed limit signs on images provided by a camera equipped with the host vehicle ; - determine a third speed limit, based on the measurement of the speed of vehicles located in the environment of the host vehicle ; - determining the maximum authorized speed applicable to the host vehicle , the latter being equal to the first limit speed or to the second limit speed, characterized in that the third limit speed is used to choose between the first and the second limit speeds when these two speeds are different.
Device for withdrawing body fluid with a lancing element that can puncture the skin of a body part which has a receiving structure for body fluid obtained from the skin puncture which in particular acts as a capillary and a lancing drive for a forward and retracting movement of the lancing element , wherein the duration of the retracting movement is longer than the duration of the forward movement and the lancing element is moved in a first retraction phase (R1) of the rectracting movement at a maximum retraction speed of more than 0.02 m/s, characterized in that the lancing drive is designed to pull back the lancing element (14 during the first retraction phase (R1) by a constant first partial distance (Δd) from the deepest puncture position into an intermediate position situated under the skin surface independently of the lancing depth, and to retract the lancing element from the skin during a second retraction phase (R2) for collecting body fluid into the receiving structure which follows the first retraction phase in such a manner that the collecting period is in a range between 0.3 and 0.8 s and the retraction speed is between 0.6 and 2 mm/s.
Device for avoiding a collision during the driving of at least two movers over a drive surface , wherein each mover has at least one magnetic field generator for generating a magnetic field, wherein the device has a plurality of plate-shaped sectors , wherein the sectors each have at least one electrical magnetic field generator for generating magnetic fields, wherein the sectors form the drive surface , wherein the sectors are connected to a control unit , wherein the control unit is designed to generate the magnetic fields, through appropriate control of a power supply of the magnetic field generators of the sectors , such that the movers are able to be moved at least in one direction over the drive surface , wherein the control unit is designed to perform path planning for the movers , wherein the control unit is designed to ascertain travel paths for the movers such that a collision between the movers is avoided, wherein the control unit is designed to activate the magnetic field generators of the sectors with power such that the movers are able to be moved over the drive surface along the ascertained travel paths , characterized in that the control unit is designed, when ascertaining a travel path for a first mover , to take into consideration respectively estimated travel paths for the further movers , wherein, when there is a risk of collision between the movers, the travel paths of the movers are amended in accordance with priorities allocated to the movers, defining right of way and diversion rules, wherein only for movers of lower priority is a change of their travel path made based on the estimate of the travel paths of movers of higher priority, and wherein the estimated travel paths of the further movers are ascertained repeatedly or received repeatedly at predefined time intervals and taken into consideration repeatedly at the predefined time intervals when ascertaining the travel path for the first mover .
Method for operating a modular multilevel converter which has a plurality of converter branches in each of which series circuits of bridge modules are arranged, the bridge modules each having a bridge circuit in the form of a half-bridge or a full bridge composed of power semiconductors and at least one capacitor which can be switched via the bridge circuit, the method providing an output AC voltage (v ac ) with an output frequency at an output side of the converter, characterized in that the desired temporal amplitude profile of the output AC voltage (v ac ) of the converter is set by means of two-point control, in which all series-connected bridge modules of a respective converter branch are always switched on and switched off again, is synthesized by a modulation AC voltage generated by the bridge modules of one or more converter branches at a modulation frequency which is higher than the output frequency, the modulation AC voltage alternately exceeding and falling below the output AC voltage (v ac ) in time with the modulation frequency, and the switching times of the power semiconductors of the bridge modules of a converter branch are controlled by means of an energy controller assigned to each converter branch with the control objective of minimizing the energy variation of the converter branch by generating and controlling a circular current (i cir ) in the converter.
A bicomponent extruded mesh for use on a papermaking machine, comprising: a first layer of relatively inelastic parallel strands running in the machine direction; a second layer of parallel strands on one side of the first layer, the second layer's strands running in the cross machine direction and comprising elastomeric strands; and a third layer of relatively inelastic parallel strands on the opposite of the second layer as the first layer and running in the same direction as those of the first layer, wherein the first, second, and third layers are co-extruded such that the strands in the first layer are positioned or aligned within the space between strands in the third layer, wherein the first, second and third layers form a structure having a desired thickness, wherein under a compressive load the second layer stretches to enable the strands of the first and third layers to nest between each other in substantially the same plane, and wherein upon release of the compressive load elasticity of the second layer causes the first and third layers to spring back returning the structure to substantially the desired thickness. a first layer of relatively inelastic parallel strands running in the machine direction; a second layer of parallel strands on one side of the first layer, the second layer's strands running in the cross machine direction and comprising elastomeric strands; and a third layer of relatively inelastic parallel strands on the opposite of the second layer as the first layer and running in the same direction as those of the first layer, wherein the first, second, and third layers are co-extruded such that the strands in the first layer are positioned or aligned within the space between strands in the third layer, wherein the first, second and third layers form a structure having a desired thickness, wherein under a compressive load the second layer stretches to enable the strands of the first and third layers to nest between each other in substantially the same plane, and wherein upon release of the compressive load elasticity of the second layer causes the first and third layers to spring back returning the structure to substantially the desired thickness.
A helical-bladed cutting reel comprising: - a central shaft having a central axis of rotation, and - a plurality of helical blades , - each of the helical blades extends along a respective helical path on an outer surface of the central shaft , wherein a direction of each respective helical path has both an axial component and a circumferential component relative to the central axis of the central shaft as it extends across the outer surface of the central shaft , - each of the helical blades has a leading outer surface defining a helical cutting edge configured to bear against a cutting knife, characterized in that : each of the helical blades is welded directly to the central shaft . - a central shaft having a central axis of rotation, and - a plurality of helical blades , - each of the helical blades extends along a respective helical path on an outer surface of the central shaft , wherein a direction of each respective helical path has both an axial component and a circumferential component relative to the central axis of the central shaft as it extends across the outer surface of the central shaft , - each of the helical blades has a leading outer surface defining a helical cutting edge configured to bear against a cutting knife,
A Compton camera for medical imaging, the Compton camera comprising: a bed for a patient space having an iso center axis; a first module having a first scatter detector and a first catcher detector spaced from the first scatter detector , the first scatter detector having an outer surface facing the iso center axis where the outer surface is away from orthogonal by an angle of at least 20 degrees to a radial line extending perpendicular from the iso center axis through a center of the first scatter detector , the first catcher detector forming a substantially semi-spherical surround behind the first scatter detector relative to the patient space; an image processor configured to determine angles of incidence for Compton events from the first scatter detector and the first catcher detector ; wherein the first scatter detector comprises a series of plates in an accordion arrangement. a bed for a patient space having an iso center axis; a first module having a first scatter detector and a first catcher detector spaced from the first scatter detector , the first scatter detector having an outer surface facing the iso center axis where the outer surface is away from orthogonal by an angle of at least 20 degrees to a radial line extending perpendicular from the iso center axis through a center of the first scatter detector , the first catcher detector forming a substantially semi-spherical surround behind the first scatter detector relative to the patient space; an image processor configured to determine angles of incidence for Compton events from the first scatter detector and the first catcher detector ; wherein the first scatter detector comprises a series of plates in an accordion arrangement.
A communication method, comprising: sending (S101), by a first communication device, a transmission frame to a second communication device, the transmission frame comprises a first part and a second part, wherein: sending the first part of the transmission frame by using a first quantity of subcarriers, sending the second part of the transmission frame by using a second quantity of subcarriers, the first quantity is not equal to the second quantity; a transmission bandwidth used by the first part of the transmission frame and a transmission bandwidth used by the second part of the transmission frame are equal; the first quantity is less than the second quantity, the spacing of the first quantity of subcarriers is 3 12.5kHz; the second part of the transmission frame comprises a data part of the transmission frame, the data part of the transmission frame comprises control information and the data information, wherein the control information comprises scheduling information. sending the first part of the transmission frame by using a first quantity of subcarriers, sending the second part of the transmission frame by using a second quantity of subcarriers, the first quantity is not equal to the second quantity; a transmission bandwidth used by the first part of the transmission frame and a transmission bandwidth used by the second part of the transmission frame are equal; the first quantity is less than the second quantity, the spacing of the first quantity of subcarriers is 3 12.5kHz; the second part of the transmission frame comprises a data part of the transmission frame, the data part of the transmission frame comprises control information and the data information, wherein the control information comprises scheduling information.