mhurhangee/ep-ind-claims huggingface dataset:
Sealing device for a camshaft adjuster which can be driven with the aid of a belt and has a directional control valve with a piston, characterized in that the sealing device has a first fastening section which can be fixedly arranged on the camshaft adjuster, has a second fastening section which can be fixedly arranged on the piston side, and has a flexible diaphragm section which is arranged between the first fastening section and the second fastening section.
An electrical protector with a central axis, comprising: a cap defining a top and a downwardly extending cap wall adapted for receiving a sealant; an insert defining a ring and an upwardly extending insert wall; a plurality of castellations for maintaining a gap between the ring and a surface on which the electrical protector sits; and at least one protrusion extending inwardly from an interior surface of the insert wall toward the central axis; wherein the cap wall connects to the insert wall, and wherein the at least one protrusion is adapted to engage a structure, thereby securing the electrical protector onto the structure. a cap defining a top and a downwardly extending cap wall adapted for receiving a sealant; an insert defining a ring and an upwardly extending insert wall; a plurality of castellations for maintaining a gap between the ring and a surface on which the electrical protector sits; and at least one protrusion extending inwardly from an interior surface of the insert wall toward the central axis; wherein the cap wall connects to the insert wall, and wherein the at least one protrusion is adapted to engage a structure, thereby securing the electrical protector onto the structure.
A tool comprising: a switch that is configured to cause an electric component to operate; and a controller, wherein the switch includes: a switch manipulation part that is configured to manipulate the switch; and a load sensor that is configured to detect a load corresponding to a pressing force according to a manipulation of the switch manipulation part, and characterised in that the controller is configured to correct an output corresponding to the load detected by the load sensor, and wherein the switch is configured to cause the electric component to operate based on the output corrected by the controller. a switch that is configured to cause an electric component to operate; and a controller, wherein the switch includes: a switch manipulation part that is configured to manipulate the switch; and a load sensor that is configured to detect a load corresponding to a pressing force according to a manipulation of the switch manipulation part, and characterised in that the controller is configured to correct an output corresponding to the load detected by the load sensor, and a switch manipulation part that is configured to manipulate the switch; and a load sensor that is configured to detect a load corresponding to a pressing force according to a manipulation of the switch manipulation part, and characterised in that the controller is configured to correct an output corresponding to the load detected by the load sensor, and wherein the switch is configured to cause the electric component to operate based on the output corrected by the controller.
Device for gripping and retaining PET bottles in filling systems or the like, comprising a passive clamping system having pivotable gripping arms acted on by a spring and/or permanent magnets, wherein the device comprises a compression spring, wherein the gripping arms comprise, on the other side of the respective pivot axis, extensions having rod-shaped or rail-shaped receptacles, for guiding at least the compression springs and for applying a bending force onto the compression springs or onto sub-segments of the pressure springs, characterised in that arranged in the receptacles of the compression springs in each case is a permanent magnet.
Radial pneumatic vehicle tire, in particular a tire of a commercial vehicle, having a belt assembly comprising at least three plies (8, 9, 10), to be specific two working plies (8, 9) and a protective ply arranged radially outside with respect to the working plies (8, 9), each belt ply (8, 9, 10) having reinforcements comprising one or more steel filaments, the reinforcements in each belt ply (8, 9, 10) being respectively arranged parallel to one another and spaced apart from one another, wherein the steel filaments of the reinforcements of the protective ply have a filament diameter of between 0.10 mm and 0.35 mm, wherein the reinforcement diameter is between 0.20 mm and 0.85 mm, wherein the protective ply has a rupture strength of between 15 kN/dm and 95 kN/dm and wherein these reinforcements are arranged in the protective ply with a density of between 50 and 120 ends per decimeter (epdm), wherein the reinforcements of the protective ply are steel cords of twisted together steel filaments, characterized in that the steel cords have the construction 2×0.30, 2+2×0.32, 2+2×0.28, 2×0.15 or 3×0.10.
A method for device-to-device, D2D, communication by a first terminal (111-116; 610, 630; 814-816) in a wireless communication system, the method comprising: receiving, from a base station, first information on a time offset between a reference scheduling assignment, SA, subframe and a first D2D transport block and second information on a D2D data periodicity between each D2D transport block location during a D2D data period; transmitting, to a second terminal (111-116; 610, 630; 814-816), a time resource periodicity indicator indicating the time offset and the D2D data periodicity; transmitting, to the second terminal (111-116; 610, 630; 814-816), the reference SA subframe in a SA period identified based on a system frame number, SFN, of the reference SA subframe and a subframe index of the reference SA subframe; transmitting, to the second terminal (111-116; 610, 630; 814-816), the first D2D transport block in subframes determined based on the reference SA subframe and the time offset; and transmitting, to the second terminal (111-116; 610, 630; 814-816), a second D2D transport block subsequent to the first D2D transport block in subframes determined based on the first D2D transport block and the D2D data periodicity. receiving, from a base station, first information on a time offset between a reference scheduling assignment, SA, subframe and a first D2D transport block and second information on a D2D data periodicity between each D2D transport block location during a D2D data period; transmitting, to a second terminal (111-116; 610, 630; 814-816), a time resource periodicity indicator indicating the time offset and the D2D data periodicity; transmitting, to the second terminal (111-116; 610, 630; 814-816), the reference SA subframe in a SA period identified based on a system frame number, SFN, of the reference SA subframe and a subframe index of the reference SA subframe; transmitting, to the second terminal (111-116; 610, 630; 814-816), the first D2D transport block in subframes determined based on the reference SA subframe and the time offset; and transmitting, to the second terminal (111-116; 610, 630; 814-816), a second D2D transport block subsequent to the first D2D transport block in subframes determined based on the first D2D transport block and the D2D data periodicity.
A feedback apparatus for inhalation, comprising: - an inhaler interface, wherein the inhaler interface is configured to temporarily attach the feedback apparatus to an inhalation apparatus, wherein the inhalation apparatus is one of a metered dose inhaler, or a soft mist inhaler, or a dry powder inhaler, or a nebulizer, and wherein the inhaler interface comprises a receiving opening for attaching to an outlet opening of the inhalation apparatus; - a feature assigner, wherein the feature assigner is configured to identify an accessory type of the attached inhalation apparatus; - a feedback device, wherein the feedback device is configured to provide a feedback to the user to aid in inhalation with the inhalation apparatus, and wherein the feedback device is configured to provide the feedback in dependency of the identified accessory type, as identified by the feature assigner, to instruct the user to adjust an inhalation maneuver adapted to the attached inhalation apparatus; and a processor adapted to control the feedback device; and wherein the feature assigner is configured to identify the type of a currently used accessory and to assign the type to a predetermined category of accessories comprising at least one of the group of: - valved holding chamber, - intermixing mouthpiece, - nose-covering mask, wherein the feedback is provided in dependency of the assigned accessory. - an inhaler interface, wherein the inhaler interface is configured to temporarily attach the feedback apparatus to an inhalation apparatus, wherein the inhalation apparatus is one of a metered dose inhaler, or a soft mist inhaler, or a dry powder inhaler, or a nebulizer, and wherein the inhaler interface comprises a receiving opening for attaching to an outlet opening of the inhalation apparatus; - a feature assigner, wherein the feature assigner is configured to identify an accessory type of the attached inhalation apparatus; - a feedback device, wherein the feedback device is configured to provide a feedback to the user to aid in inhalation with the inhalation apparatus, and wherein the feedback device is configured to provide the feedback in dependency of the identified accessory type, as identified by the feature assigner, to instruct the user to adjust an inhalation maneuver adapted to the attached inhalation apparatus; and - valved holding chamber, - intermixing mouthpiece, - nose-covering mask,
Cable gland comprising a main body and a compression screw, wherein the main body has an external thread, which matches an internal thread of the compression screw, and an interior space for guiding a cable through, wherein the cable is guided through an elastic sealing insert and a clamping cage, wherein the inner contour of the compression screw, upon tightening, is pressed against the elastic sealing insert and the clamping cage, wherein the clamping cage is integrally formed as a shaped part and has rounded pressure elements which are arranged along a circular ring and are displaced in the direction of the cable by the compression screw, characterized in that the compression screw has an inner contour which tapers at a first point and at a second point, which first point and second point form two separate pressure points, wherein the first pressure point of the compression screw is designed to press the pressure elements against the cable for the purpose of strain relief, and the second pressure point of the compression screw is designed to press the elastic sealing insert onto the cable for the purpose of sealing off.
A battery cell, comprising: an electrode assembly, having a first tab; a housing, having an opening, with the housing configured to receive the electrode assembly; and an end cap, configured to connect with the housing and covering the opening, wherein the end cap has an abutting surface and a welding groove, the abutting surface is configured to abut against the first tab, the welding groove is recessed from one side of the end cap away from the electrode assembly towards the abutting surface, the end cap forms a connection part between the abutting surface and a bottom surface of the welding groove, and the connection part is configured to be welded with the first tab, wherein the end cap is provided with a reinforcing part, the reinforcing part is protruded from the bottom surface, and the reinforcing part is configured to enhance strength of the connection part, characterized in that the connection part is welded with the first tab to form a weld mark, the weld mark comprises a first part and a second part that are continuously arranged, and the first part is formed at the reinforcing part, and the second part is formed on the connection part. an electrode assembly, having a first tab; a housing, having an opening, with the housing configured to receive the electrode assembly; and an end cap, configured to connect with the housing and covering the opening, wherein the end cap has an abutting surface and a welding groove, the abutting surface is configured to abut against the first tab, the welding groove is recessed from one side of the end cap away from the electrode assembly towards the abutting surface, the end cap forms a connection part between the abutting surface and a bottom surface of the welding groove, and the connection part is configured to be welded with the first tab, wherein the end cap is provided with a reinforcing part, the reinforcing part is protruded from the bottom surface, and the reinforcing part is configured to enhance strength of the connection part, characterized in that the connection part is welded with the first tab to form a weld mark, the weld mark comprises a first part and a second part that are continuously arranged, and the first part is formed at the reinforcing part, and the second part is formed on the connection part.
A compound of the following formula: in which each of R 1 R 2, R 5, R 8, R 9, and R 10, independently, is H, halo, nitro, amino, cyano, hydroxy, alkyl containing 1-10 carbon atoms, alkenyl containing 2-10 carbon atoms, alkynyl containing 2-10 carbon atoms, 6 carbon monocyclic, 10 carbon bicyclic or 14 carbon tricyclic aryl, cycloalkyl containing 3-12 carbon atoms, 3-8 membered monocyclic, 8-12 membered bicyclic or 11-14 membered tricyclic heterocycloalkyl, 5-8 membered monocyclic, 8-12 membered bicyclic or 11-14 membered tricyclic heteroaryl, alkoxy, alkylthio, alkylcarbonyl, carboxy, alkoxycarbonyl, aminocarbonyl or aminosulfonyl; wherein each of R 3 and R 4 is alkoxy; R 6 is alkyl; R 7 is -C NR a R b, each of R a and R b, independently, being H, alkyl, alkenyl, alkynyl, aryl, cycloalkyl, heterocycloalkyl, or heteroaryl, or R a and R b, together with the nitrogen atom to which they are attached, represent a 3-8 membered ring containing 1-3 heteroatoms; X is O; and Z is N; wherein each of alkyl, alkenyl, alkynyl, cycloalkyl, heterocycloalkyl, aryl, heteroaryl, and alkoxy include both substituted and unsubstituted moieties, wherein substituents are chosen from halo, hydroxyl, amino, cyano, nitro, mercapto, alkoxycarbonyl, amido, carboxy, alkanesulfonyl, alkylcarbonyl, carbamido, carbamyl, carboxyl, thioureido, thiocyanato, sulfonamido, alkyl, alkenyl, alkynyl, alkyloxy, aryl, heteroaryl, cycloalkyl and heterocycloalkyl. R 6 is alkyl; R 7 is -C NR a R b, each of R a and R b, independently, being H, alkyl, alkenyl, alkynyl, aryl, cycloalkyl, heterocycloalkyl, or heteroaryl, or R a and R b, together with the nitrogen atom to which they are attached, represent a 3-8 membered ring containing 1-3 heteroatoms; X is O; and Z is N; wherein each of alkyl, alkenyl, alkynyl, cycloalkyl, heterocycloalkyl, aryl, heteroaryl, and alkoxy include both substituted and unsubstituted moieties, wherein substituents are chosen from halo, hydroxyl, amino, cyano, nitro, mercapto, alkoxycarbonyl, amido, carboxy, alkanesulfonyl, alkylcarbonyl, carbamido, carbamyl, carboxyl, thioureido, thiocyanato, sulfonamido, alkyl, alkenyl, alkynyl, alkyloxy, aryl, heteroaryl, cycloalkyl and heterocycloalkyl.
A contactless transponder device comprising: - a first integrated circuit, IC, that includes a first contactless transponder interface circuit configured and arranged to respond to a contactless field by providing a first identifier of the first IC using near-field wireless communications; - a second IC that includes a second contactless transponder circuit configured and arranged to respond to the contactless field by providing a second identifier of the second IC using near-field wireless communications; and - a controller configured and arranged to determine, in response to a first received communication request, that a previous state of the first IC allowed the first IC to respond using near-field wireless communications; - in response to the determination, inhibit the first IC from responding to the contactless field using near-field wireless communications; and - allow, in response to a second received communication request, the first IC to respond using near-field wireless communications. - a first integrated circuit, IC, that includes a first contactless transponder interface circuit configured and arranged to respond to a contactless field by providing a first identifier of the first IC using near-field wireless communications; - a second IC that includes a second contactless transponder circuit configured and arranged to respond to the contactless field by providing a second identifier of the second IC using near-field wireless communications; and - a controller configured and arranged to determine, in response to a first received communication request, that a previous state of the first IC allowed the first IC to respond using near-field wireless communications; - in response to the determination, inhibit the first IC from responding to the contactless field using near-field wireless communications; and - allow, in response to a second received communication request, the first IC to respond using near-field wireless communications.
Computer-implemented method for determining an optimum assignment of module types to an assembly line, having a first cycle time, selected with regard to its assembly capacity from a predefined set of assembly lines for assembling modules of these module types with components of one or more component types and to at least one remaining assembly line, having a second cycle time which differs from the first, from said set of assembly lines, comprising the following steps: a) ascertaining an expected production time for each module type of the modules to be assembled and for each assembly line, taking into consideration an acquired respective cycle time of the module type on the assembly lines and taking into consideration a parts number of modules to be assembled that is predefined per module type; b) assigning a set of module types of said set of module types to a predefined number of fixed-setup setup families containing respectively associated fixed setups, such that a module of a module type of a fixed-setup setup family is able to be assembled on the selected assembly line by way of components of component types of the fixed setup; c) optimizing the assignment from b), taking into consideration an external cycle time, such that, for all module types that are assigned to the fixed-setup setup families, the sum of the differences between the expected production time per module type, if it were to be assembled on one of the at least one remaining assembly lines with the minimum production time out of the at least one remaining assembly line, and the expected production time on the selected assembly line is maximized; and d) outputting the optimized assignment in a form suitable for controlling and/or for regulating the assembly of the modules. a) ascertaining an expected production time for each module type of the modules to be assembled and for each assembly line, taking into consideration an acquired respective cycle time of the module type on the assembly lines and taking into consideration a parts number of modules to be assembled that is predefined per module type; b) assigning a set of module types of said set of module types to a predefined number of fixed-setup setup families containing respectively associated fixed setups, such that a module of a module type of a fixed-setup setup family is able to be assembled on the selected assembly line by way of components of component types of the fixed setup; c) optimizing the assignment from b), taking into consideration an external cycle time, such that, for all module types that are assigned to the fixed-setup setup families, the sum of the differences between the expected production time per module type, if it were to be assembled on one of the at least one remaining assembly lines with the minimum production time out of the at least one remaining assembly line, and the expected production time on the selected assembly line is maximized; and d) outputting the optimized assignment in a form suitable for controlling and/or for regulating the assembly of the modules.
A pneumatic tire comprising: a tread portion provided with a circumferentially and continuously extending zigzag shoulder main groove located adjacent to a tread edge (Te) to define a shoulder portion axially outward of the shoulder main groove and a central lateral groove extending axially inwardly from the shoulder main groove, wherein the tread edge (Te) refers to an axially outermost edge of the ground contacting patch of the tread portion which occurs under a normally inflated loaded condition when the camber angle of the tire is zero and wherein the tread width is defined as the width measured under the normally inflated unloaded condition, as the axial distance between the tread edges (Te) and (Te); the shoulder portion comprising a top surface having an axially inner edge facing the shoulder main groove and a sidewall extending radially inwardly from the inner edge, the sidewall of the shoulder portion being provided with a shoulder dent portion dented axially outwardly from the shoulder main groove; and the central lateral groove being located so that an extended portion in which the central lateral groove is extended axially outwardly overlaps with the shoulder dent portion at least partially; characterized in that an axial distance from a tire equator to an axially outer end of the shoulder dent portion is in a range of from 0.55 to 0.66 times a tread half width (TWh) which is an axial distance from the tire equator to the tread edge (Te). a tread portion provided with a circumferentially and continuously extending zigzag shoulder main groove located adjacent to a tread edge (Te) to define a shoulder portion axially outward of the shoulder main groove and a central lateral groove extending axially inwardly from the shoulder main groove, wherein the tread edge (Te) refers to an axially outermost edge of the ground contacting patch of the tread portion which occurs under a normally inflated loaded condition when the camber angle of the tire is zero and wherein the tread width is defined as the width measured under the normally inflated unloaded condition, as the axial distance between the tread edges (Te) and (Te); the shoulder portion comprising a top surface having an axially inner edge facing the shoulder main groove and a sidewall extending radially inwardly from the inner edge, the sidewall of the shoulder portion being provided with a shoulder dent portion dented axially outwardly from the shoulder main groove; and the central lateral groove being located so that an extended portion in which the central lateral groove is extended axially outwardly overlaps with the shoulder dent portion at least partially; characterized in that an axial distance from a tire equator to an axially outer end of the shoulder dent portion is in a range of from 0.55 to 0.66 times a tread half width (TWh) which is an axial distance from the tire equator to the tread edge (Te).