mhurhangee/ep-ind-claims huggingface dataset:
A fuel control device for an internal combustion engine that at least comprises: - a boost coil connected to a DC voltage source and being configured to boost a voltage of the DC voltage source; - a switching element configured to cause a boost current to flow to the boost coil; - a boosting capacitor configured to store energy generated by the boost coil; - a boost voltage detection unit configured to detect a boost voltage of the boosting capacitor; and - a boost circuit configured to perform a boosting operation of storing the energy stored in the boost coil in the boosting capacitor when the boost voltage detected by the boost voltage detection unit decreases to a prescribed value or lower using a boost control unit which performs control of repeating turning on and off of the switching element until the boost voltage reaches the prescribed value, characterized in that the boost control unit is configured to execute an intermittent measurement mode in which a boost voltage value detected when no current flows to the boosting capacitor at least during the boosting operation is taken as a legitimate boost voltage value, and to compare the detected legitimate boost voltage value with the prescribed value to control the boosting operation, and in that an ambient temperature of the boosting capacitor is determined, and the boost control unit is configured to execute the intermittent measurement mode when said ambient temperature of the boosting capacitor is a predetermined value or lower, and in that the boost control unit is configured to execute a constant measurement mode when ambient temperature of the boosting capacitor is a predetermined value or higher. - a boost coil connected to a DC voltage source and being configured to boost a voltage of the DC voltage source; - a switching element configured to cause a boost current to flow to the boost coil; - a boosting capacitor configured to store energy generated by the boost coil; - a boost voltage detection unit configured to detect a boost voltage of the boosting capacitor; and - a boost circuit configured to perform a boosting operation of storing the energy stored in the boost coil in the boosting capacitor when the boost voltage detected by the boost voltage detection unit decreases to a prescribed value or lower using a boost control unit which performs control of repeating turning on and off of the switching element until the boost voltage reaches the prescribed value,
st Second scissor element for a scissor mechanism (Sa, Sb) for a seal with a lowerable sealing strip (13, 14), wherein the scissor mechanism (Sa, Sb) has a first scissor element (6a, 6b) and the second scissor element (7a, 7b) which are mounted pivotably on one another, characterized in that the second scissor element is of substantially H-shaped form and is of integral design. wherein the scissor mechanism (Sa, Sb) has a first scissor element (6a, 6b) and the second scissor element (7a, 7b) which are mounted pivotably on one another, characterized in that the second scissor element is of substantially H-shaped form and is of integral design.
An ophthalmic lens comprising a transparent substrate with a front main face and with a rear main face, at least one of the main faces being coated with a multilayered antireflective coating comprising a stack of at least one high refractive index layer, HI, having a refractive index higher than or equal to 1.55 and at least one low refractive index layer, LI, having a refractive index lower than 1.55, wherein - said at least one high refractive index layer, HI, and said at least one low refractive index layer, LI, are adjacent, forming a bilayer, said bilayer is, in the direction moving away from said transparent substrate, in penultimate place in said multilayered antireflective coating and has a physical thickness lower than or equal to 60 nm, preferably lower than or equal to 30 nm, and said at least one -the high refractive index layer, HI, has a physical thickness lower than or equal to 30 nm; - said multilayered antireflective coating has a mean reflection factor R UV between 280 nm and 380 nm, lower than 5% for an angle of incidence in the range from 20°to 50°, characterized in that the antireflective coating has a ΔE76 for angles of incidence of 15° and 45° defined by the colorimetric CIE 1976 L*a*b* which is lower than or equal to 12. - said at least one high refractive index layer, HI, and said at least one low refractive index layer, LI, are adjacent, forming a bilayer, said bilayer is, in the direction moving away from said transparent substrate, in penultimate place in said multilayered antireflective coating and has a physical thickness lower than or equal to 60 nm, preferably lower than or equal to 30 nm, and said at least one -the high refractive index layer, HI, has a physical thickness lower than or equal to 30 nm; - said multilayered antireflective coating has a mean reflection factor R UV between 280 nm and 380 nm, lower than 5% for an angle of incidence in the range from 20°to 50°, characterized in that the antireflective coating has a ΔE76 for angles of incidence of 15° and 45° defined by the colorimetric CIE 1976 L*a*b* which is lower than or equal to 12.
A transfer device for the tobacco-processing industry for transferring rod-shaped articles for the tobacco-processing industry from a rod-making machine, in which the rod-shaped articles for the tobacco-processing industry are conveyed in a direction corresponding to a longitudinal axis of the articles, to a combining machine in which the rod-shaped articles are conveyed transversely to the longitudinal axis thereof, wherein the transfer device has a conveying element, wherein a rotary conveyor device is provided downstream of the conveying element, which is configured to remove the rod-shaped article, which is conveyed longitudinally axially by the conveying element, longitudinally axially and to receive it in a receptacle of the rotary conveyor device, and, following the removal, to rotate said receptacle during a rotation of the rotary conveyor device so that, following the rotation, the receptacle is moved transversely axially during the rotation of the rotary conveyor device, characterized in that a cutting device is in addition provided and that the conveying element acts as a counter-bearing to said cutting device.
A surgical system for performing a surgical procedure, the surgical system comprising: an intelligent surgical device including: a housing (12,14); a power source supported in the housing (12,14); at least one drive motor supported in the housing (12,14) and being in electrical communication with the power source; and control circuitry interfacing with the power source and the at least one drive motor, wherein the control circuitry includes a feedback system for monitoring a condition of the surgical device during a use thereof and for changing an operative parameter of the surgical device when a change in the monitored condition occurs; and at least one non intelligent loading unit configured for selective connection to the housing (12,14) of the surgical device and which is actuatable by the at least one drive motor, the loading unit having at least a first condition and a second condition, wherein, during operation of the surgical device, the at least one drive motor actuates the loading unit from the first condition to at least the second condition; and wherein, when the loading unit achieves the second condition, a change in the monitored condition occurs and an operative parameter of the surgical device is changed, characterized in that the feedback system includes a resistor of a known quantity associated with the voltage being delivered to the at least one drive motor by the power source and the feedback system calculates a current level across the resistor, wherein said current level is the monitored condition. a housing (12,14); a power source supported in the housing (12,14); at least one drive motor supported in the housing (12,14) and being in electrical communication with the power source; and control circuitry interfacing with the power source and the at least one drive motor, wherein the control circuitry includes a feedback system for monitoring a condition of the surgical device during a use thereof and for changing an operative parameter of the surgical device when a change in the monitored condition occurs; and at least one non intelligent loading unit configured for selective connection to the housing (12,14) of the surgical device and which is actuatable by the at least one drive motor, the loading unit having at least a first condition and a second condition, wherein, during operation of the surgical device, the at least one drive motor actuates the loading unit from the first condition to at least the second condition; and wherein, when the loading unit achieves the second condition, a change in the monitored condition occurs and an operative parameter of the surgical device is changed, characterized in that the feedback system includes a resistor of a known quantity associated with the voltage being delivered to the at least one drive motor by the power source and the feedback system calculates a current level across the resistor, wherein said current level is the monitored condition.
An organic light-emitting display apparatus, comprising: a substrate; a first first electrode on the substrate; a first organic functional layer on the first first electrode, the first organic functional layer including a first emission layer; a first second electrode on the first organic functional layer; a second first electrode on the substrate, the second first electrode being spaced apart from the first first electrode; a second organic functional layer on the second first electrode, the second organic functional layer including a second emission layer; a second second electrode on the second organic functional layer; and a self-assembled layer between the first organic functional layer and the second organic functional layer, the self-assembled layer containing fluorine, wherein: the organic light-emitting display apparatus further comprises a pixel-defining layer including an insulating layer and covering an edge of the first first electrode and an edge of the second first electrode; the self-assembled layer is on the pixel-defining layer and surrounds the first organic functional layer and the second organic functional layer, and characterised in that the self-assembled layer is spaced apart from end portions of the first organic functional layer and the second organic functional layer by a pre-set gap.
A cutter system for profile milling, the cutter system comprising: a cylindrical cutter head (10, 50, 60, 70) provided with a slot (11, 51, 61, 71) transverse its circumference, the slot (11, 51, 61, 71) having opposite side wall surfaces (12, 13), and an insert knife (20, 52, 62, 72) arranged in the slot (11, 51, 61, 71) and extending in an outward direction (54a, 54b, 54c, 64a, 64b, 64c) as seen in a cross-section of the cutter head (10, 50, 60, 70), the insert knife (20, 52, 62, 72) comprising a cutting edge which protrudes past a first of the opposite side wall surfaces of the slot as seen in the outward direction (54a, 54b, 54c, 64a, 64b, 64c), wherein the insert knife (20, 52, 62, 72) further comprises a first surface abutting the first of the opposite side wall surfaces of the slot (11, 51, 61, 71), characterized in that the first surface has a ridged first portion, comprising a plurality of ridges, and a flat second portion, that the insert knife (20, 52, 62, 72) is oriented with the flat second portion farther out than the ridged first portion, and that the first surface of the insert knife abuts the first of the opposite side wall surfaces of the slot (11, 51, 61, 71) by that at least some of the plurality of ridges are received in complementary grooves in the first of the opposite side wall surfaces and by that the flat second portion abuts a flat portion of the first of the opposite side wall surfaces. a cylindrical cutter head (10, 50, 60, 70) provided with a slot (11, 51, 61, 71) transverse its circumference, the slot (11, 51, 61, 71) having opposite side wall surfaces (12, 13), and an insert knife (20, 52, 62, 72) arranged in the slot (11, 51, 61, 71) and extending in an outward direction (54a, 54b, 54c, 64a, 64b, 64c) as seen in a cross-section of the cutter head (10, 50, 60, 70), the insert knife (20, 52, 62, 72) comprising a cutting edge which protrudes past a first of the opposite side wall surfaces of the slot as seen in the outward direction (54a, 54b, 54c, 64a, 64b, 64c), wherein the insert knife (20, 52, 62, 72) further comprises a first surface abutting the first of the opposite side wall surfaces of the slot (11, 51, 61, 71), characterized in that the first surface has a ridged first portion, comprising a plurality of ridges, and a flat second portion, that the insert knife (20, 52, 62, 72) is oriented with the flat second portion farther out than the ridged first portion, and that the first surface of the insert knife abuts the first of the opposite side wall surfaces of the slot (11, 51, 61, 71) by that at least some of the plurality of ridges are received in complementary grooves in the first of the opposite side wall surfaces and by that the flat second portion abuts a flat portion of the first of the opposite side wall surfaces.
A non-contact seal assembly, comprising: a plurality of seal shoes arranged about a centerline in an annular array, the seal shoes including a first seal shoe extending axially along the centerline between a first shoe end and a second shoe end; a seal base circumscribing the annular array of the seal shoes; and a plurality of spring elements, each of the spring elements radially between and connecting a respective one of the seal shoes with the seal base, where the seal base and the plurality of spring elements are formed of a first material and the plurality of seal shoes are formed of a second material, where the first and second materials are joined together, characterized in that the second material has a density lower than the first material, and that the second material comprises one of cobalt alloy or aluminum. a plurality of seal shoes arranged about a centerline in an annular array, the seal shoes including a first seal shoe extending axially along the centerline between a first shoe end and a second shoe end; a seal base circumscribing the annular array of the seal shoes; and a plurality of spring elements, each of the spring elements radially between and connecting a respective one of the seal shoes with the seal base, where the seal base and the plurality of spring elements are formed of a first material and the plurality of seal shoes are formed of a second material, where the first and second materials are joined together, characterized in that the second material has a density lower than the first material, and that the second material comprises one of cobalt alloy or aluminum.
Accumulator arrangement comprising a plurality of separate accumulator devices for accumulating electrical energy, wherein each accumulator device is received in a rod-shaped hollow profiled section that forms a device housing, wherein said hollow profiled sections are interconnected so as to form a solid composite, characterised in that in tshat the composite of hollow profiled sections is enclosed in a frame, wherein at least two opposite struts of the frame run parallel to the end faces of the enclosed hollow profiled sections.
Method for producing a hollow glass body by means of an IS machine in the press and blow, narrow-neck press and blow or blow and blow process, with a driving means that moves a plunger axially, characterised by the process steps: - Aligning and attaching a positioning ring directly or via intermediate elements on the IS machine, on which positioning ring a positioning device is provided, - Aligning a guide tube, on the outer jacket surface of which a guide device is worked, which interacts with the positioning device of the positioning ring in the assembled condition, - Aligning a plunger with a non-rotationally symmetrical plunger head with a guide device worked onto it, which interacts with a positioning device provided in the assembled condition on or in the inner jacket surface of the guide tube, in such a way that the non-rotationally symmetrical outer contour of the plunger head passes through an aperture tool allocated to the IS machine during the press or blow procedure, and that the contours of the plunger head and of the aperture tool generate the profile of the inner or outer wall of the hollow glass body. - Aligning and attaching a positioning ring directly or via intermediate elements on the IS machine, on which positioning ring a positioning device is provided, - Aligning a guide tube, on the outer jacket surface of which a guide device is worked, which interacts with the positioning device of the positioning ring in the assembled condition, - Aligning a plunger with a non-rotationally symmetrical plunger head with a guide device worked onto it, which interacts with a positioning device provided in the assembled condition on or in the inner jacket surface of the guide tube, in such a way that the non-rotationally symmetrical outer contour of the plunger head passes through an aperture tool allocated to the IS machine during the press or blow procedure, and that the contours of the plunger head and of the aperture tool generate the profile of the inner or outer wall of the hollow glass body.
A seal comprising an elongate hollow body which is sealed at at least one end by a sealing wall, wherein the hollow body has a minimum wall thickness X and the sealing wall has a maximum wall thickness Y, characterised in that Y<X.
A headlamp for stationary mounting in an interior or exterior space, in particular a stadium headlamp, the headlamp comprising a plurality of clusters (2, 6, 7, 11) each having a plurality of LEDs, the clusters being arranged in the headlamp at a distance from one another, wherein individual ones of the LEDs in each of the clusters can be switched on and off and/or dimmed independently of at least some of the remaining LEDs in the cluster, wherein each of the clusters has its own optical system for all the LEDs in the relevant cluster in each case, and wherein the LED clusters each have an arrangement of LEDs which is symmetrical to two mirror planes, wherein the mirror planes have the perpendicular bisector through the cluster as common degrees of intersection and are perpendicular to one another, characterized in that the LEDs in each of the clusters can be switched and/or dimmed separately in different patterns, which are each symmetrical with respect to said mirror planes, and the LEDs can also be switched or dimmed in patterns which are asymmetrical with respect to said mirror planes, wherein asymmetrical switching of the LEDs within the symmetrical arrangement achieves an asymmetrical light distribution curve.
An apparatus for calibrating a probe that includes an image sensor and a magnetic field sensor, the apparatus comprising: a jig configured to hold the probe; a magnetic field generator configured to generate at least one magnetic field having a predefined direction in alignment with the jig; an optical target aligned with the jig so that the image sensor in the probe is able to capture an image of the optical target while the probe is held in the jig; and processing circuitry configured to receive from the probe a signal output by the magnetic field sensor in response to the at least one magnetic field and the image captured by the image sensor while the probe is held in the jig, and to calibrate an alignment of the image sensor relative to the magnetic field sensor responsively to the received signal and the received image. a jig configured to hold the probe; a magnetic field generator configured to generate at least one magnetic field having a predefined direction in alignment with the jig; an optical target aligned with the jig so that the image sensor in the probe is able to capture an image of the optical target while the probe is held in the jig; and processing circuitry configured to receive from the probe a signal output by the magnetic field sensor in response to the at least one magnetic field and the image captured by the image sensor while the probe is held in the jig, and to calibrate an alignment of the image sensor relative to the magnetic field sensor responsively to the received signal and the received image.
Container cleaning machine comprising a container basket that is movable in a running direction, and a spraying device for internal spraying of containers, which are arranged upside down in container cells of the container basket moving in the running direction, with a spraying medium, wherein the spraying device comprises: a hollow shaft with at least one row of multiple spray nozzles along the hollow shaft; a supply device for supplying the hollow shaft with the spraying medium; at least one servomotor for moving the hollow shaft within the container cleaning machine relative to and independently of the container basket, characterised in that one of the at least one servomotors is designed to rotate the hollow shaft about its longitudinal axis in the one and in the other direction. a hollow shaft with at least one row of multiple spray nozzles along the hollow shaft; a supply device for supplying the hollow shaft with the spraying medium; at least one servomotor for moving the hollow shaft within the container cleaning machine relative to and independently of the container basket, characterised in that one of the at least one servomotors is designed to rotate the hollow shaft about its longitudinal axis in the one and in the other direction.