mhurhangee/ep-ind-claims huggingface dataset:
An organic electro-luminescent display comprising: a first transparent substrate and a second transparent substrate which are arranged to face each other while being spaced apart from each other by a predetermined distance by means of a spacer formed on the second transparent substrate; a transistor formed on the first transparent substrate; an anode formed on the light emitting region of the second transparent substrate; an organic electro-luminescent layer (32 - 36) formed on the anode portion formed on the light emitting region of the second transparent substrate, except for the spacer; and a cathode formed on the organic electro-luminescent layer (32 - 36); characterized in that the spacer is formed around a light emitting region; the anode is also formed on the spacer such that the anode has a portion formed on the light emitting region, and a portion covering the spacer, the anode portion covering the spacer being electrically connected to the transistor; and a barrier formed around the spacer. a first transparent substrate and a second transparent substrate which are arranged to face each other while being spaced apart from each other by a predetermined distance by means of a spacer formed on the second transparent substrate; a transistor formed on the first transparent substrate; an anode formed on the light emitting region of the second transparent substrate; an organic electro-luminescent layer (32 - 36) formed on the anode portion formed on the light emitting region of the second transparent substrate, except for the spacer; and a cathode formed on the organic electro-luminescent layer (32 - 36); characterized in that the spacer is formed around a light emitting region; the anode is also formed on the spacer such that the anode has a portion formed on the light emitting region, and a portion covering the spacer, the anode portion covering the spacer being electrically connected to the transistor; and a barrier formed around the spacer.
A method for automatic detection of far-field ventricular activity using unipolar and bipolar signals, the method comprising: receiving a bipolar signal sensed by a pair of electrodes (22a, 22b) at a location in a heart of a patient; receiving a unipolar signal sensed by an electrode at the location in the heart; computing a derivative of the received bipolar signal; computing a derivative of the received unipolar signal; evaluating a ratio between the derivative of the bipolar signal and the derivative of the unipolar signal at local minima of the derivative of the unipolar signal; wherein receiving the bipolar signal comprises receiving multiple bipolar signals from multiple electrode pairs of a multielectrode catheter, and comprising comparing time differences between the multiple bipolar signals, and when the ratio is smaller than a preset threshold ratio value, and when the time differences are smaller than a prespecified value, indicating an occurrence of far-field ventricular activity. receiving a bipolar signal sensed by a pair of electrodes (22a, 22b) at a location in a heart of a patient; receiving a unipolar signal sensed by an electrode at the location in the heart; computing a derivative of the received bipolar signal; computing a derivative of the received unipolar signal; evaluating a ratio between the derivative of the bipolar signal and the derivative of the unipolar signal at local minima of the derivative of the unipolar signal; wherein receiving the bipolar signal comprises receiving multiple bipolar signals from multiple electrode pairs of a multielectrode catheter, and comprising comparing time differences between the multiple bipolar signals, and when the ratio is smaller than a preset threshold ratio value, and when the time differences are smaller than a prespecified value, indicating an occurrence of far-field ventricular activity.
An aircraft landing gear component comprising a first base member (32, 34) and a second base member (32, 34) separated along a first longitudinal axis, characterized in that it comprises: a plurality of first parallel hoops, each first hoop lying along the first longitudinal axis and aligned in a plane oriented at a first non-zero angle to the first longitudinal axis, and a plurality of second parallel hoops, each second hoop lying along the first longitudinal axis and aligned in a plane oriented at a second non-zero angle to the first longitudinal axis, the second non-zero angle being different from the first non-zero angle, wherein each of the first hoops intersects with and is fixed to at least one of the second hoops, and wherein each of the second hoops intersects with and is fixed to at least one of the first hoops such that the first and second hoops form a rigid structure extending between the first and second base members (32, 34).
A method of manufacturing an optical fiber base material, comprising: forming a porous glass base material by depositing glass particles; preparing a vessel which employs a composite tube, the composite tube including a synthetic quartz glass tube that is formed by melting a soot deposit formed by depositing glass particles which are produced by hydrolyzing any of SiCl 4, (CH 3)SiCl 3, (CH 3) 2 SiCl 2 or a mixed compound thereof with oxyhydrogen flame, and a natural quartz glass tube that is formed by melting natural quartz with an electric furnace, the natural quartz glass tube jacketing the synthetic quartz glass tube; introducing dehydration reaction gas and inert gas into the vessel; heating the vessel which contains the dehydration reaction gas and the inert gas; inserting the porous glass base material into the heated vessel to dehydrate and sinter the porous glass base material wherein a total amount of time over which the synthetic quartz glass tube of the vessel is subjected to a temperature exceeding 1,400 degrees Celsius is set to be within a time period over which at least a part of the synthetic quartz tube of the vessel is entirely crystallized in the thickness direction or within a time period obtained by multiplying a thickness (mm) of the synthetic quartz glass tube of the vessel by 1,500 (hours/mm). forming a porous glass base material by depositing glass particles; preparing a vessel which employs a composite tube, the composite tube including a synthetic quartz glass tube that is formed by melting a soot deposit formed by depositing glass particles which are produced by hydrolyzing any of SiCl 4, (CH 3)SiCl 3, (CH 3) 2 SiCl 2 or a mixed compound thereof with oxyhydrogen flame, and a natural quartz glass tube that is formed by melting natural quartz with an electric furnace, the natural quartz glass tube jacketing the synthetic quartz glass tube; introducing dehydration reaction gas and inert gas into the vessel; heating the vessel which contains the dehydration reaction gas and the inert gas; inserting the porous glass base material into the heated vessel to dehydrate and sinter the porous glass base material wherein a total amount of time over which the synthetic quartz glass tube of the vessel is subjected to a temperature exceeding 1,400 degrees Celsius is set to be within a time period over which at least a part of the synthetic quartz tube of the vessel is entirely crystallized in the thickness direction or within a time period obtained by multiplying a thickness (mm) of the synthetic quartz glass tube of the vessel by 1,500 (hours/mm).
A device for measurement of a speed of a gas flow, comprising: - a rigid probe intended to be placed in the gas flow, wherein the probe comprises an axial electrode which has one exposed end intended to be in contact with the gas, said exposed end having a radius of curvature suitable to produce an electrical field strengthening through tip effect, and comprises a peripheral electrode which is electrically isolated from the axial electrode and which has an exposed part also intended to be in contact with the gas, located away from the axial electrode; and - an electrical voltage supply source, having two output terminals (HT, G) which are electrically connected to the axial electrode for one of said output terminals and to the peripheral electrode for the other one of said output terminals, characterized in that the supply source produces an alternating voltage, and in that the device further comprises: - a detection circuit, comprising at least one conducting turn arranged around an electrical connection which connects one of the electrodes (1, 2) of the probe to one of the terminals of the supply source, or arranged around the axial electrode, and comprising a counter arranged for counting electrical pulses which are generated in the turn by induction, selectively during at least one time-window during which an electrical potential of the axial electrode is less than an electrical potential of the peripheral electrode, whereby when the probe is supplied with the alternating voltage by the supply source, a number of electrical pulses which are counted by the detection circuit, corresponding to a number of electrical discharges which have appeared between the axial electrode and the peripheral electrode through the gas, constitutes a measurement of the speed of the flow of the gas. - a rigid probe intended to be placed in the gas flow, wherein the probe comprises an axial electrode which has one exposed end intended to be in contact with the gas, said exposed end having a radius of curvature suitable to produce an electrical field strengthening through tip effect, and comprises a peripheral electrode which is electrically isolated from the axial electrode and which has an exposed part also intended to be in contact with the gas, located away from the axial electrode; and - an electrical voltage supply source, having two output terminals (HT, G) which are electrically connected to the axial electrode for one of said output terminals and to the peripheral electrode for the other one of said output terminals, - a detection circuit, comprising at least one conducting turn arranged around an electrical connection which connects one of the electrodes (1, 2) of the probe to one of the terminals of the supply source, or arranged around the axial electrode, and comprising a counter arranged for counting electrical pulses which are generated in the turn by induction, selectively during at least one time-window during which an electrical potential of the axial electrode is less than an electrical potential of the peripheral electrode,
A device for forming transverse ridges in ridge planting, particularly for potato crops, wherein the device has at least two ridging units, each comprising an actuating means configured as a hydraulic cylinder and at least one ridging element which, during operation of the device, alternates between a ridging position for accumulating soil and a second position for positioning the accumulated soil between two ridges, characterized by a control unit, which is configured for mutually independent control of different ridging units as well as for switching off individual ridging units, and which has at least a first valve, which is preferably operable electrically and by means of which a fluid flow to or from the hydraulic cylinder can be controlled, wherein the first valve is actuated or switched by the control unit.
Device for levelling out a screed recess for the installation of a shower tray or bathtub comprising a supporting structure, which receives at least one support plate, wherein the supporting structure has a support frame adjustable in length and/or width, on which at least four supports infinitely adjustable in length are arranged and which is provided with intermediate struts, whose position is adjustable within the support frame and to which the at least one support plate can be attached, wherein the supporting structure has at least two support plates and wherein the frame struts and the intermediate struts have support webs (211, 221) complementing each other to form receptacles, into which at least one support plate is inserted in each case.
A vehicle steering device in which a steering operation mechanism that steers steered wheels is driven by a steering motor with a steering member to be operated for steering operation and the steering operation mechanism not mechanically coupled to each other, the vehicle steering device comprising: an input shaft coupled to the steering member; a torsion bar, one end of which is coupled to the input shaft; an output shaft coupled to the other end of the torsion bar; a reaction force motor coupled to the output shaft to apply a reaction force to the steering member; a torque detector that detects steering torque applied to the steering member; and a reaction force motor controller, characterized in that the reaction force motor controller that sets a target rotational angle for the output shaft and that controls the reaction force motor such that a rotational angle of the output shaft is equal to the target rotational angle, wherein the reaction force motor controller includes a target rotational angle setter that sets the target rotational angle for the output shaft at a position close to a side of a neutral position of the output shaft with respect to the rotational angle of the output shaft corresponding to a steered angle limit value by a rotational angle matching the steering torque which is detected by the torque detector when a steered angle of the steered wheels has reached the steered angle limit value and the steering torque that is larger than the steering torque at a time when the steered angle limit value was reached is applied to the steering member. an input shaft coupled to the steering member; a torsion bar, one end of which is coupled to the input shaft; an output shaft coupled to the other end of the torsion bar; a reaction force motor coupled to the output shaft to apply a reaction force to the steering member; a torque detector that detects steering torque applied to the steering member; and a reaction force motor controller, characterized in that the reaction force motor controller that sets a target rotational angle for the output shaft and that controls the reaction force motor such that a rotational angle of the output shaft is equal to the target rotational angle, wherein the reaction force motor controller includes a target rotational angle setter that sets the target rotational angle for the output shaft at a position close to a side of a neutral position of the output shaft with respect to the rotational angle of the output shaft corresponding to a steered angle limit value by a rotational angle matching the steering torque which is detected by the torque detector when a steered angle of the steered wheels has reached the steered angle limit value and the steering torque that is larger than the steering torque at a time when the steered angle limit value was reached is applied to the steering member.
An indicator anti-correction system for a timepiece, the system comprising a correction mechanism of the indicator and a correction gear configured to mesh with said indicator, the correction mechanism being configured to be connected to a manual correction actuation system and to mesh with the correction gear in a first correction position, the correction mechanism being movably mounted between the first correction position and a second non-correction position, the system further comprising a component mounted movable in rotation about an axis, said component having a first end configured to cooperate with at least one protuberance provided on the date indicator or the hour wheel, said component having a second end, characterised in that said second end is configured to cooperate with the correction mechanism so as to block the mechanism in an anti-correction position when the first end of the component cooperates with said at least one protuberance.
An image forming apparatus comprising: an image carrier; a toner image forming unit (PY, PM, PC, PK) configured to form a toner image on the image carrier; an endless transfer belt configured to convey a recording medium; a transfer roller forming a transfer portion configured to urge toward the image carrier from an inner circumferential surface of the transfer belt across the transfer belt; a first stretch roller stretching the transfer belt, disposed at a position adjacent to and downstream in a moving direction of the transfer belt of the transfer portion, and including a first straight area disposed at a center part in a direction of axis of rotation thereof where a diameter is substantially constant and first tapered areas disposed on both end parts in the direction of axis of rotation where the diameter is smaller than the first straight area such that the closer to the both ends, the smaller the diameter become; and a second stretch roller stretching the transfer belt, disposed at a position adjacent to and downstream in the moving direction of the transfer belt of the first stretch roller, and including a second straight area disposed at a center part in a direction of axis of rotation thereof where a diameter is substantially constant and second tapered areas disposed on both end parts in the direction of axis of rotation where the diameter is larger than the second straight area such that the closer to the both ends, the larger the diameter become. an image carrier; a toner image forming unit (PY, PM, PC, PK) configured to form a toner image on the image carrier; an endless transfer belt configured to convey a recording medium; a transfer roller forming a transfer portion configured to urge toward the image carrier from an inner circumferential surface of the transfer belt across the transfer belt; a first stretch roller stretching the transfer belt, disposed at a position adjacent to and downstream in a moving direction of the transfer belt of the transfer portion, and including a first straight area disposed at a center part in a direction of axis of rotation thereof where a diameter is substantially constant and first tapered areas disposed on both end parts in the direction of axis of rotation where the diameter is smaller than the first straight area such that the closer to the both ends, the smaller the diameter become; and a second stretch roller stretching the transfer belt, disposed at a position adjacent to and downstream in the moving direction of the transfer belt of the first stretch roller, and including a second straight area disposed at a center part in a direction of axis of rotation thereof where a diameter is substantially constant and second tapered areas disposed on both end parts in the direction of axis of rotation where the diameter is larger than the second straight area such that the closer to the both ends, the larger the diameter become.
A method for checking at least one function of a medical functional device, which is inserted into a medical treatment apparatus and connected and pressed thereto, and/or one function of this treatment apparatus, wherein at least one fluid communication is established between a hydraulic device or a pneumatic unit of the treatment apparatus and the functional device, the method comprising the steps of: - building up a pressure by means of the hydraulic device or a pneumatic unit within the fluid communication; - measuring a pressure rise within the fluid communication, characterized in that at least one function of a valve for an addition point for substituate in pre-dilution and of a valve for an addition point for substituate in post-dilution is tested; and in that the method comprises the step of: - making a statement about the checked function of the functional device based on a comparison of the measured pressure rise with previously stored values, threshold values, ranges or changes, wherein the addition points (13, 14) or the valves for the addition points (13, 14) for substituate liquid in pre-dilution or post-dilution, are designed as phantom valves, respectively. - building up a pressure by means of the hydraulic device or a pneumatic unit within the fluid communication; - measuring a pressure rise within the fluid communication, - making a statement about the checked function of the functional device based on a comparison of the measured pressure rise with previously stored values, threshold values, ranges or changes, wherein the addition points (13, 14) or the valves for the addition points (13, 14) for substituate liquid in pre-dilution or post-dilution, are designed as phantom valves, respectively.
Control apparatus for controlling a brake system for a vehicle, the control apparatus having the following features: an actuable control valve for loading at least one brake device of the brake system with a brake pressure (pb); a pressure vessel connector for connecting the control apparatus to a pressure vessel in order to provide a supply pressure (pv); and characterised in that a pressure limiting valve between the control valve and the pressure vessel connector in order to limit the supply pressure (pv) to the brake pressure (pb). an actuable control valve for loading at least one brake device of the brake system with a brake pressure (pb); a pressure vessel connector for connecting the control apparatus to a pressure vessel in order to provide a supply pressure (pv); and characterised in that a pressure limiting valve between the control valve and the pressure vessel connector in order to limit the supply pressure (pv) to the brake pressure (pb).
A scooter-type vehicle, comprising: a vehicle body frame comprising a head pipe; a steering shaft rotatably supported on the head pipe; a front wheel supported on the vehicle body frame via the steering shaft; a handlebar supported on an upper end portion of the steering shaft; a metering unit having a transparent cover; a front cover disposed in front of the head pipe; and a headlamp disposed in a lower portion of the front cover; wherein a front end of the headlamp is located further forward than an axle of the front wheel, the metering unit is mounted to the center, in a vehicle width direction, of the handlebar, the metering unit is mounted to a concave portion of the handle, a lower end of the metering unit is located further below than a grip portion of the handlebar, the front cover has a front cover upper portion located at the center in the vehicle width direction of an upper portion thereof, and, in a vehicle width direction, at least partially located between one end and the other end in the vehicle width direction of the metering unit and extending backwards and upwards, a rear end (41 R) of the center in the vehicle width direction of the front cover upper portion is located further forward than the metering unit and located further below than an upper end of the metering unit, characterized in that the rear end (41 R) of the center in the vehicle width direction of the front cover upper portion is located further above than a lower end of the metering unit, an in a side view, an extension line of the center in the vehicle width direction of the front cover passes through a position further forward than the metering unit, the extension line is a straight line that connects a front end and a rear end of a front edge of the center in the vehicle width direction of the front cover, a tilt angle Θ1 of the extension line relative to the horizontal line in a side view, is set in a manner passing through a position further forward than the metering unit.