mhurhangee/ep-ind-claims huggingface dataset:
Hanging arrangement for items of electrical operating equipment (9, 11), having an upper fastening means for suspending the hanging arrangement, a plurality of items of operating equipment (9, 11) being arranged so as to hang in a parallel manner from said upper fastening means, and a lower fastening means which is arranged so as to hang from the items of operating equipment (9, 11), wherein the items of operating equipment (9, 11) are connected to the fastening means (2, 3) in each case by flexible contact means, characterized in that an item of special operating equipment has a lower main plate and an upper main plate and the lower main plate is connected to the lower fastening means by means of rigid contact elements and the upper main plate is non-rigidly connected to the upper fastening means via an electrically conductive connection.
A method of decoding video data, the method comprising: parsing from a picture parameter set a first syntax element for a first picture, wherein a first value for the first syntax element indicates that short slice headers are enabled for slices of the first picture; in response to the first syntax element having the first value, decoding, in respective slice headers of slices in the first picture, a second syntax element indicating whether that respective slice header is a short slice header for which slice header syntax elements are not included which can be inherited from a full slice header of a slice that precedes the respective slice in decoding order, otherwise not decoding the second syntax element; and; in response to the first syntax element having the first value and a respective second syntax element, for a first slice of the first picture, having a value indicating that the first slice should inherit fields from the full slice header of the slice that precedes the respective slice in decoding order, decoding the first slice of the first picture using the inherited fields of the full slice header of the slice that precedes the first slice in decoding order. parsing from a picture parameter set a first syntax element for a first picture, wherein a first value for the first syntax element indicates that short slice headers are enabled for slices of the first picture; in response to the first syntax element having the first value, decoding, in respective slice headers of slices in the first picture, a second syntax element indicating whether that respective slice header is a short slice header for which slice header syntax elements are not included which can be inherited from a full slice header of a slice that precedes the respective slice in decoding order, otherwise not decoding the second syntax element; and; in response to the first syntax element having the first value and a respective second syntax element, for a first slice of the first picture, having a value indicating that the first slice should inherit fields from the full slice header of the slice that precedes the respective slice in decoding order, decoding the first slice of the first picture using the inherited fields of the full slice header of the slice that precedes the first slice in decoding order.
A patch delivery device with a bottom housing part, a delivery element for subcutaneous delivery of a liquid to a patient, an adhesive patch for adhering the bottom housing part to the skin of the patient, a capacitive sensor with a plurality of electrodes (20, 21, 22, 23) connected to a capacitance measuring unit, and a release liner covering a patient-side adhesive layer of the adhesive patch prior to adhering, characterized in that the release liner includes a conductive area (311, 312) printed or coated or glued or otherwise applied onto a surface of a non-conducting layer of the release liner.
A product comprising: a dispenser housing a folded stack containing a plurality of sheets formed from a sheet-material; wherein the folded stack has a maximum folded stack width, Wf, and a maximum folded stack length, Lf; wherein Lf is greater than Wf; the folded stack being formed from a flat stack having a maximum length, Ls, a maximum height, Hs, and a maximum width, Ws; characterised in that the folded stack is an arch-shaped folded stack, in that a ratio of a maximum dispenser length, Ld to the maximum flat stack length, Ls, as a percentage, is between about 55% to about 80%, and in that an aspect ratio of the maximum height to the maximum width, Hs/Ws, is between about 0.55 to about 0.9. a dispenser housing a folded stack containing a plurality of sheets formed from a sheet-material; wherein the folded stack has a maximum folded stack width, Wf, and a maximum folded stack length, Lf; wherein Lf is greater than Wf; the folded stack being formed from a flat stack having a maximum length, Ls, a maximum height, Hs, and a maximum width, Ws; characterised in that the folded stack is an arch-shaped folded stack, in that a ratio of a maximum dispenser length, Ld to the maximum flat stack length, Ls, as a percentage, is between about 55% to about 80%, and in that an aspect ratio of the maximum height to the maximum width, Hs/Ws, is between about 0.55 to about 0.9.
Device for detecting electromagnetic radiation, comprising: - a substrate; - at least one thermal detector, placed on the substrate, including a membrane suitable for absorbing the radiation to be detected, which membrane is suspended above the substrate and thermally insulated therefrom by thermally insulating holding elements; - an encapsulating structure encapsulating said at least one thermal detector, including an encapsulating layer extending around and above said at least one thermal detector so as to define with the substrate a cavity in which said at least one thermal detector is located; the encapsulating layer comprising at least one through-orifice that is what is referred to as an exhaust vent, characterized in that each exhaust vent is placed so that at least one thermal detector has a single exhaust vent located perpendicular to the corresponding absorbing membrane, preferably plumb with the centre of said absorbing membrane; and in that said absorbing membrane, facing which is located an exhaust vent, includes a through-orifice located plumb with said exhaust vent and of a size equal to or larger than that of said vent. - a substrate; - at least one thermal detector, placed on the substrate, including a membrane suitable for absorbing the radiation to be detected, which membrane is suspended above the substrate and thermally insulated therefrom by thermally insulating holding elements; - an encapsulating structure encapsulating said at least one thermal detector, including an encapsulating layer extending around and above said at least one thermal detector so as to define with the substrate a cavity in which said at least one thermal detector is located; the encapsulating layer comprising at least one through-orifice that is what is referred to as an exhaust vent, characterized in that each exhaust vent is placed so that at least one thermal detector has a single exhaust vent located perpendicular to the corresponding absorbing membrane, preferably plumb with the centre of said absorbing membrane; and in that said absorbing membrane, facing which is located an exhaust vent, includes a through-orifice located plumb with said exhaust vent and of a size equal to or larger than that of said vent.
A method to break down, destabilize, or destroy an in flight wake vortex shed from an aircraft's wing having a wingtip arrangement with at least one winglet movably mounted to an extremity of the aircraft's wing; a hinge arrangement allowing rotation, oscillation, and/or reciprocation of the winglet about an axis parallel to either the longitudinal, lateral, or vertical axis of the aircraft, a guide means, which extends parallel to a vertical, longitudinal, or lateral axis of the aircraft, the guide means allowing linear translation of the winglet along an axis parallel to the longitudinal axis of the aircraft and actuating means connected to the winglet for actuating in use displacement of the winglet relative to the aircraft's wing, the method comprises: actuating the actuating means to displace the winglet from an initial stationary position, in which the in flight wake vortex shed from the wing is stable, to a continuous moving condition, in which the winglet is displaced to at least one secondary temporary stationary position, the actuating allowing both linear displacement via the guide means and rotation, oscillation, and/or reciprocation of the winglet, via the hinge arrangement from the initial stationary position, and having any angle relative to a plane extending through a vertical, longitudinal, or lateral axis of the aircraft so as to alter the winglet's angle of attack; and persisting in the continuous moving condition as long as it is required to break down, destabilize or destroy the in flight wake vortex. actuating the actuating means to displace the winglet from an initial stationary position, in which the in flight wake vortex shed from the wing is stable, to a continuous moving condition, in which the winglet is displaced to at least one secondary temporary stationary position, the actuating allowing both linear displacement via the guide means and rotation, oscillation, and/or reciprocation of the winglet, via the hinge arrangement from the initial stationary position, and having any angle relative to a plane extending through a vertical, longitudinal, or lateral axis of the aircraft so as to alter the winglet's angle of attack; and persisting in the continuous moving condition as long as it is required to break down, destabilize or destroy the in flight wake vortex.
A wiper blade mounted to a leading end portion of a wiper arm, comprising: a blade rubber which is disposed on a wiper wiping surface; a rubber holder which holds the blade rubber and which is fitted to the wiper arm; a water channel which is provided along a longitudinal direction of the wiper blade and in which washing liquid is distributed; and a plurality of injection ports which are formed in the longitudinal direction of the wiper blade so as to make the water channel and an outside of the wiper blade communicate with each other and which are configured to be opened by water pressure of the washing liquid and inject the washing liquid, wherein an arrangement pitch between the injection ports varies along the longitudinal direction, the arrangement pitch between the injection ports being smaller at the outer end side of the wiper blade than at the inner end side of the wiper blade, characterized in that the injection ports vary in size along the longitudinal direction and an injection amount of the washing liquid to be injected from the injection ports varies along the longitudinal direction of the wiper blade, and in that the water channel is provided inside the rubber holder so as to extend in the longitudinal direction, and the injection ports are formed in the rubber holder. a blade rubber which is disposed on a wiper wiping surface; a rubber holder which holds the blade rubber and which is fitted to the wiper arm; a water channel which is provided along a longitudinal direction of the wiper blade and in which washing liquid is distributed; and a plurality of injection ports which are formed in the longitudinal direction of the wiper blade so as to make the water channel and an outside of the wiper blade communicate with each other and which are configured to be opened by water pressure of the washing liquid and inject the washing liquid, wherein an arrangement pitch between the injection ports varies along the longitudinal direction, the arrangement pitch between the injection ports being smaller at the outer end side of the wiper blade than at the inner end side of the wiper blade,
Projecting device for configuring and/or parameterizing automation components (10,20, 30) of an automation system, with a user interface and a network interface, wherein the projecting device - is suitable for creating a target configuration and/or target parameterization for an automation system, - is designed for automatic recognition of accesses to the target configuration and/or the target parameterization on the basis of predefinable access types, - is connectable via the network interface to a network of an actual automation system, - is suitable for analyzing a connected actual automation system with regard to its actual configuration and/or actual parameterization, and - is adapted to automatically trigger and perform the analyzing in response to a detected access and/or in response to a signal which is a predefinable regularly recurring signal; characterized in that the projecting device - is adapted for automatically segmenting the actual configuration and/or actual parameterization on the basis of an available analysis result of the analyzing and for the automatically analyzing individual segments of the actual configuration and/or actual parameterization, and - is designed to analyze several segments of the actual configuration and/or actual parameterization simultaneously in parallel analysis threads (72, 73). - is suitable for creating a target configuration and/or target parameterization for an automation system, - is designed for automatic recognition of accesses to the target configuration and/or the target parameterization on the basis of predefinable access types, - is connectable via the network interface to a network of an actual automation system, - is suitable for analyzing a connected actual automation system with regard to its actual configuration and/or actual parameterization, and - is adapted to automatically trigger and perform the analyzing in response to a detected access and/or in response to a signal which is a predefinable regularly recurring signal; characterized in that the projecting device - is adapted for automatically segmenting the actual configuration and/or actual parameterization on the basis of an available analysis result of the analyzing and for the automatically analyzing individual segments of the actual configuration and/or actual parameterization, and - is designed to analyze several segments of the actual configuration and/or actual parameterization simultaneously in parallel analysis threads (72, 73).
A method of selectively patterning a device component, the method comprising: forming on a surface of a substrate a partial layer of resist which leaves at least one area of the substrate surface exposed, the partial resist layer having a top-surface lying substantially parallel to the substrate's surface and an inner side-surface extending from the top-surface to the substrate's surface, so as to create a boundary of the exposed area where the side-surface meets the substrate's surface; forming a shadow wall in the exposed area from wall material deposited on the inner side-surface of the resist layer, the wall material extending to the exposed area of the substrate surface for supporting the shadow wall when the resist layer is removed which surrounds it; removing the partial resist layer from the substrate thereby leaving the shadow wall supported by the substrate; and using a deposition beam to selectively deposit a layer of deposition material on a device component supported by the substrate adjacent to the shadow wall, the deposition beam having a non-zero angle of incidence relative to a normal to the surface of the substrate and an orientation in the plane of the substrate's surface, such that the shadow wall prevents deposition on a surface portion of the device component within a shadow region defined by the shadow wall. forming on a surface of a substrate a partial layer of resist which leaves at least one area of the substrate surface exposed, the partial resist layer having a top-surface lying substantially parallel to the substrate's surface and an inner side-surface extending from the top-surface to the substrate's surface, so as to create a boundary of the exposed area where the side-surface meets the substrate's surface; forming a shadow wall in the exposed area from wall material deposited on the inner side-surface of the resist layer, the wall material extending to the exposed area of the substrate surface for supporting the shadow wall when the resist layer is removed which surrounds it; removing the partial resist layer from the substrate thereby leaving the shadow wall supported by the substrate; and using a deposition beam to selectively deposit a layer of deposition material on a device component supported by the substrate adjacent to the shadow wall, the deposition beam having a non-zero angle of incidence relative to a normal to the surface of the substrate and an orientation in the plane of the substrate's surface, such that the shadow wall prevents deposition on a surface portion of the device component within a shadow region defined by the shadow wall.
Piston of an internal combustion engine, the piston having a force accumulator and a sliding shoe, the sliding shoe having a channel for receiving cooling oil into a cavity of the piston, the force accumulator being arranged in a radially circumferential channel formed by the piston, in which the sliding shoe is guided, wherein the sliding shoe is partially guided within the force accumulator, and wherein the radially circumferential channel receives, in addition to the force accumulator, at least one radially circumferential guide element of the sliding shoe, which is displaceably mounted in the radially circumferential channel.
Process for producing a rigid polyurethane-polyisocyanurate foam C, comprising the step of reacting (i) an isocyanate-terminated prepolymer B with (ii) an activator component A comprising at least one trimerisation catalyst A1 and at least one blowing agent A3 in a reaction mixture to form a foam, characterised in that - there is used an isocyanate-terminated prepolymer B obtained from a reaction of an isocyanate B1 having a mean isocyanate functionality of from ≥ 2.3 to ≤ 2.9 with a polyol component B2, and - the activator component A comprises water as the blowing agent A3 in an amount of from ≥ 5 wt.% to ≤ 50 wt.%, - the isocyanate index in the reaction mixture is in a range of from ≥ 400 to ≤ 1500, - the isocyanate content of the prepolymer B is in a range of from ≥ 21 wt.% to ≤ 30 wt.%, based on the total mass of the prepolymer B, and - wherein in the reaction of the prepolymer B and the activator component A, a conversion contribution to polyisocyanurate of ≤ 75% is achieved. (i) an isocyanate-terminated prepolymer B with (ii) an activator component A comprising at least one trimerisation catalyst A1 and at least one blowing agent A3 in a reaction mixture to form a foam, characterised in that - there is used an isocyanate-terminated prepolymer B obtained from a reaction of an isocyanate B1 having a mean isocyanate functionality of from ≥ 2.3 to ≤ 2.9 with a polyol component B2, and - the activator component A comprises water as the blowing agent A3 in an amount of from ≥ 5 wt.% to ≤ 50 wt.%, - the isocyanate index in the reaction mixture is in a range of from ≥ 400 to ≤ 1500, - the isocyanate content of the prepolymer B is in a range of from ≥ 21 wt.% to ≤ 30 wt.%, based on the total mass of the prepolymer B, and - wherein in the reaction of the prepolymer B and the activator component A, a conversion contribution to polyisocyanurate of ≤ 75% is achieved. - there is used an isocyanate-terminated prepolymer B obtained from a reaction of an isocyanate B1 having a mean isocyanate functionality of from ≥ 2.3 to ≤ 2.9 with a polyol component B2, and - the activator component A comprises water as the blowing agent A3 in an amount of from ≥ 5 wt.% to ≤ 50 wt.%, - the isocyanate index in the reaction mixture is in a range of from ≥ 400 to ≤ 1500, - the isocyanate content of the prepolymer B is in a range of from ≥ 21 wt.% to ≤ 30 wt.%, based on the total mass of the prepolymer B, and - wherein in the reaction of the prepolymer B and the activator component A, a conversion contribution to polyisocyanurate of ≤ 75% is achieved.
A real time variable voltage programmable electronic cigarette system, comprising an electronic cigarette, the electronic cigarette comprising: a main body having a first end and a second end, the first end comprising an atomizer connector adapted to engage a mouthpiece, and the second end being adapted to receive a cap with spring; a power source adapted to fit inside the main body; an electronic control unit; a housing for storing the electronic control unit and for electrically coupling the power source and a universal atomizer connector, the housing adapted to fit inside the main body; the electronic control unit comprising: a multidirectional joystick adapted to operate and program the electronic cigarette, a visual indicator adapted to provide a light signal, a USB connector exposed from the main body and adapted to provide computer connectivity, a controller adapted to process input data from the joystick, and a memory adapted to keep at least one vaping profile; a mouthpiece adapted to provide a path for a gaseous product, the mouthpiece further comprising an atomizer and a tank, the atomizer is adapted to act as an electrical heating element, and the tank being adapted to store an evaporable liquid solution; wherein the USB connector is adapted to receive information from a computer application; and wherein the joystick is adapted to be directed in a plurality of directions for directing a user interface. a main body having a first end and a second end, the first end comprising an atomizer connector adapted to engage a mouthpiece, and the second end being adapted to receive a cap with spring; a power source adapted to fit inside the main body; an electronic control unit; a housing for storing the electronic control unit and for electrically coupling the power source and a universal atomizer connector, the housing adapted to fit inside the main body; a multidirectional joystick adapted to operate and program the electronic cigarette, a visual indicator adapted to provide a light signal, a USB connector exposed from the main body and adapted to provide computer connectivity, a controller adapted to process input data from the joystick, and a memory adapted to keep at least one vaping profile; a mouthpiece adapted to provide a path for a gaseous product, the mouthpiece further comprising an atomizer and a tank, the atomizer is adapted to act as an electrical heating element, and the tank being adapted to store an evaporable liquid solution;