mhurhangee/ep-ind-claims huggingface dataset:
Coupling with an electric coupling in particular for a rail vehicle, in which the electric coupling is equipped with a coupling housing with a piston/cylinder unit displaceable this, which are guided on a coupling head, wherein the coupling head having a main air line passing through it with an applied operating pressure for the brakes of the rail vehicles, characterised in that the control of the piston/cylinder unit at least for coupling the electric coupling is effected by means of the compressed air of the main air line, wherein a branch line with a two-way valve or multi-way valve arranged therein, which can be actuated pneumatically, mechanically and/or electrically, leads away from the main air line to a control valve, wherein this control valve, on actuation of the two-way valve or multi-way valve, connects or closes the one or other chamber (26, 27) of the piston/cylinder unit of the electric coupling with a connection line to a separate pressure medium for its coupling and decoupling.
A frame of a weighing conveying apparatus having two endface side elements and a plurality of longitudinal members (31, 37) connecting the two side elements to one another, wherein one of the longitudinal members (31, 37) is configured as a switch cabinet for the weighing conveying apparatus and the width of said switch cabinet extends over the entire clearance between the two side elements, characterized in that the switch cabinet is configured as a lateral upper longitudinal member.
A heater comprising: an insulating base; a resistor buried in the insulating base and having a folded shape; and a pair of leads buried in the insulating base and connected at a front end side thereof to the resistor, the heater including connection portions in which the resistor and each of the leads overlap each other in a direction perpendicular to an axial direction of the lead, and the heater including a portion in which the connection portions overlap each other in the direction perpendicular to the axial direction of the lead, wherein when the portion to which the connection portions overlap each other is seen in a cross section perpendicular to the axial direction, the pair of leads are located more center side of the heater than the resistor and respective boundaries between the resistor and the pair of leads have a curved shape so as to be convex toward the leads, characterized in that, in the cross section, the respective boundaries between the resistor and the pair of leads face each other via the center of the heater with the pair of leads being interposed between the boundaries and without the resistor being interposed between the boundaries. an insulating base; a resistor buried in the insulating base and having a folded shape; and a pair of leads buried in the insulating base and connected at a front end side thereof to the resistor, the heater including connection portions in which the resistor and each of the leads overlap each other in a direction perpendicular to an axial direction of the lead, and the heater including a portion in which the connection portions overlap each other in the direction perpendicular to the axial direction of the lead, wherein when the portion to which the connection portions overlap each other is seen in a cross section perpendicular to the axial direction, the pair of leads are located more center side of the heater than the resistor and respective boundaries between the resistor and the pair of leads have a curved shape so as to be convex toward the leads, characterized in that, in the cross section, the respective boundaries between the resistor and the pair of leads face each other via the center of the heater with the pair of leads being interposed between the boundaries and without the resistor being interposed between the boundaries.
Method for making a hydrogen tank containing a hydrogen storage material, comprising: a) assembly of at least one base plate (9a, 9b) and at least one container, the base plate being provided with at least one access channel (10a, 10b) to the tank, the container containing a hydrogen storage material such as a metal hydride, the assembly being fixed such that at least one element (190a, 190b, 19a) of the base plate called the "first attachment element" and at least one element (180a, 180b, 18'a) of the container called the "second attachment element" cooperate so as to form a sliding link such that it enables a translational displacement of the base plate (9a, 9b) relative to the container 13 then, b) formation of an envelope around the container, the envelope being rigidly fixed to the base plate and delimiting a cavity, the access channel establishing a fluid connection between the interior of the cavity and the exterior of the envelope, the sliding link being configured such that when the container is being filled with hydrogen, the first attachment element can displace relative to the second attachment element so that the container and the base plate can move away from each other. a) assembly of at least one base plate (9a, 9b) and at least one container, the base plate being provided with at least one access channel (10a, 10b) to the tank, the container containing a hydrogen storage material such as a metal hydride, the assembly being fixed such that at least one element (190a, 190b, 19a) of the base plate called the "first attachment element" and at least one element (180a, 180b, 18'a) of the container called the "second attachment element" cooperate so as to form a sliding link such that it enables a translational displacement of the base plate (9a, 9b) relative to the container 13 then, b) formation of an envelope around the container, the envelope being rigidly fixed to the base plate and delimiting a cavity, the access channel establishing a fluid connection between the interior of the cavity and the exterior of the envelope, the sliding link being configured such that when the container is being filled with hydrogen, the first attachment element can displace relative to the second attachment element so that the container and the base plate can move away from each other.
A method for producing a conductive ink for offset printing, characterized in that the method comprises: a) the preparation of an oily dispersion medium, in a percentage of 20 to 45% by total weight, formed by the mixture of: I. a solvent, in a percentage of 1 to 4% by total weight; II. an anti-drying additive, in a percentage of 7 to 17% by total weight, and III. a resin, in a percentage of 10 to 25% by total weight; b) adding, to the oily dispersion medium, metal particles with a size smaller than 3 microns, in a percentage of 55 to 80% by total weight, these particles being: IV. in a percentage of 55 to 80%, copper particles coated with silver, and V. in a percentage of 0 to 25%, silver particles; c) introducing the assembly into a three-cylinder mill for 15 to 60 minutes, until attaining finenesses smaller than 3 microns. a) the preparation of an oily dispersion medium, in a percentage of 20 to 45% by total weight, formed by the mixture of: I. a solvent, in a percentage of 1 to 4% by total weight; II. an anti-drying additive, in a percentage of 7 to 17% by total weight, and III. a resin, in a percentage of 10 to 25% by total weight; I. a solvent, in a percentage of 1 to 4% by total weight; II. an anti-drying additive, in a percentage of 7 to 17% by total weight, and III. a resin, in a percentage of 10 to 25% by total weight; b) adding, to the oily dispersion medium, metal particles with a size smaller than 3 microns, in a percentage of 55 to 80% by total weight, these particles being: IV. in a percentage of 55 to 80%, copper particles coated with silver, and V. in a percentage of 0 to 25%, silver particles; IV. in a percentage of 55 to 80%, copper particles coated with silver, and V. in a percentage of 0 to 25%, silver particles; c) introducing the assembly into a three-cylinder mill for 15 to 60 minutes, until attaining finenesses smaller than 3 microns.
Illuminated ceiling with a frame in which a translucent front foil and a back wall are provided, wherein lamps are provided between the front foil and the back wall, wherein the lamps are associated with blinds on the side of the lamp facing the front foil and wherein the blinds are designed to protrude from frame sections of the frame into the interior of the frame, characterised in that an opaque foil is provided between the front foil and the back wall, that the lamps are disposed between the front foil and the opaque foil, that an undercut groove is provided next to the blinds, in which the lamps are fixed via supports, that the grooves', on their sides facing the front foil, are delimited by the blind and in that a reflecting surface is provided which extends away from the blind towards the front foil creating an acute angle with the front foil.
The method of commissioning with the automatic device for commissioning where at least one of a commissioned first object is transferred from a source loading unit to a target loading unit with use of a catching device in following stages: Scanning of a source loading unit and marking a choice position of a lifted object by a catching device in a source loading unit, Lifting of a first object in a source loading unit, Calculating of a given put away position for a first object in a target loading unit where given put away position adjoins with an edge of a target loading unit and/or with at least one other object, present in a target loading unit, Displacement of a first object to a temporary position where a temporary position is a result from calculated given put away position in a target loading unit and a safety distance from an edge of a target loading unit or at least one other object present in a target loading unit and Exiting from a temporary position, displacement of a first object with use of a catching device in a direction of a given put away position until reaching a given put away position, until stopping movement due to pushing against an edge of a target loading unit or pushing against other object in a current put away position. Scanning of a source loading unit and marking a choice position of a lifted object by a catching device in a source loading unit, Lifting of a first object in a source loading unit, Calculating of a given put away position for a first object in a target loading unit where given put away position adjoins with an edge of a target loading unit and/or with at least one other object, present in a target loading unit, Displacement of a first object to a temporary position where a temporary position is a result from calculated given put away position in a target loading unit and a safety distance from an edge of a target loading unit or at least one other object present in a target loading unit and Exiting from a temporary position, displacement of a first object with use of a catching device in a direction of a given put away position until reaching a given put away position, until stopping movement due to pushing against an edge of a target loading unit or pushing against other object in a current put away position.
A protein hydrolyzate consisting of free and peptide-bound amino acids, wherein 8.0-25 wt% of the amino acids are arginine and 4.5-25 wt% of the amino acids are lysine.
Coupling comprising a plurality of discs which form a disc pack, wherein disc bores are formed in the discs and are arranged so as to be in alignment with at least one mounting opening, wherein a bushing produced from a metallic material is received in the at least one mounting opening, wherein the bushing is connected to a ring in at least one first end region and is configured to form a connection with the ring that is form-fitting in an axial direction, characterized in that the bushing and/or the ring are/is of deformable configuration to form a releasable connection, and the bushing can be reused after release.
A method of communicating feelings of a mobile terminal user, comprising the following steps performed by a transmitting side mobile terminal: collecting bio-information of the mobile terminal user; generating feeling data indicating a feeling of the mobile terminal user using the bio-information; encoding the generated feeling data on a currently used communication signal; transmitting the generated feeling data with the communication signal; and the following steps performed by a receiving side mobile terminal extracting the feeling data from the transmitted communication signal; comparing the extracted feeling data with data in a look-up table; and outputting an indication of the feeling of the mobile terminal user based on the comparison to the data in the look-up table, wherein the bio-information includes biorhythm information based on a date of birth of the mobile terminal user, said biorhythm information being computed by said trasmitting side mobile terminal. collecting bio-information of the mobile terminal user; generating feeling data indicating a feeling of the mobile terminal user using the bio-information; encoding the generated feeling data on a currently used communication signal; transmitting the generated feeling data with the communication signal; and the following steps performed by a receiving side mobile terminal extracting the feeling data from the transmitted communication signal; comparing the extracted feeling data with data in a look-up table; and outputting an indication of the feeling of the mobile terminal user based on the comparison to the data in the look-up table, wherein the bio-information includes biorhythm information based on a date of birth of the mobile terminal user, said biorhythm information being computed by said trasmitting side mobile terminal.
Projector, having a lighting system for lighting an image element, and having a projection lens with which the image element can be projected onto a building surface or partial building surface, characterised in that at least one LED (33, 33a, 33b, 33c, 33d 33e, 33f, 33g) is provided as a light source of the lighting system, in that at least one first lens element designed as a collimating lens is arranged between the image element and the light source, and in that the image element is provided by a framing attachment.
A rotor assembly of an electric motor comprising a cylindrical heat sink, wherein the heat sink encloses rotor components of the electric motor, and at least one cover with an axial inlet opening is arranged on the heat sink on an axial end face, and cooling webs extend between the heat sink and the cover, which cooling webs respectively form, between themselves, the axial end face of the heat sink, and the cover, a radially outwardly extending cooling channel, thereby enabling a radially outwardly extending cooling air flow to occur from the inlet opening of the cover through the cooling channel when the rotor assembly rotates, wherein the cover is embodied as a concentric inlet nozzle, and wherein it extends in the vicinity of an inlet opening section having the inlet opening so as to be retracted axially outward at least in sections, thereby reducing the cross-sectional area of the inlet opening section toward the inlet opening, wherein the cooling webs are bent or rounded at least in sections in their radially outer edge region on their axial end faces facing toward the cover, so that their respective axial extension is reduced at least in this region, and wherein the cover is embodied in this region so as to be retracted axially inward in the direction of the cooling webs and adapted to the geometry of the cooling webs.
A catalyst for production of unsaturated carboxylic acid in which the catalytically active component comprising molybdenum and vanadium as the essential ingredients, and inorganic fibers, are supported on an inert carrier, and which is characterized in that it comprises as the inorganic fibers at least an inorganic fiber having an average diameter less than 1.0 μm and another inorganic fiber having an average diameter ranging from 1.5 to 7 μm, wherein the shape of the inert carrier is selected from the group consisting of spherical, cylindrical and ring-formed and the ratio of the supported amount of the catalytically active component to the inert carrier is in a range from 10 to 300 mass%, and the shape of the catalyst is selected from the group consisting of spherical and pelletized, wherein the inorganic fiber having an average diameter less than 1.0 μm is SiC whiskers and the inorganic fiber having an average diameter ranging from 1.5 to 7 μm is selected from the group consisting of silica-alumina fibers and alumina fibers, wherein the total content of the inorganic fibers ranges from 0.5 to 30 mass% to the catalytically active component, and the average length of the inorganic fibers is within a range of from 1 to 1,000 μm. wherein the shape of the inert carrier is selected from the group consisting of spherical, cylindrical and ring-formed and the ratio of the supported amount of the catalytically active component to the inert carrier is in a range from 10 to 300 mass%, and the shape of the catalyst is selected from the group consisting of spherical and pelletized, wherein the inorganic fiber having an average diameter less than 1.0 μm is SiC whiskers and the inorganic fiber having an average diameter ranging from 1.5 to 7 μm is selected from the group consisting of silica-alumina fibers and alumina fibers, wherein the total content of the inorganic fibers ranges from 0.5 to 30 mass% to the catalytically active component, and the average length of the inorganic fibers is within a range of from 1 to 1,000 μm.
Converter (10, 20) for symmetrical reactive power compensation having a first, a second and a third phase path (1, 2, 3), wherein each of the three phase paths (1, 2, 3) is connectable to an associated phase of a three-phase AC power supply and the three phase paths (1, 2, 3) are connected to one another in an isolated star point circuit, wherein the first phase path is submodule free and the second and third phase paths (2, 3) each comprise a phase module (7, 9) having a series circuit comprising two-pole submodules, wherein each submodule has an energy store and also at least one power semiconductor and is actuatable such that the poles of the submodule have at least one positive submodule voltage, at least one negative submodule voltage or a voltage having the value zero dropped across them, wherein the converter (10, 20) further comprises a feedback control device for regulating phase module currents, wherein the feedback control device can be used to determine voltages (Uconv2, Uconv3) that need to be set on each phase module (7, 9), characterized in that the feedback control device comprises a decoupling unit that is set up to compute correction voltages for each phase module (7, 9) on the basis of - a first supply voltage between the first and second phase paths, - a second supply voltage between the second and third phase paths and also - a first and/or a second control voltage (Ustell2, Ustell3), each derived from nominal currents and the phase module currents of the second and third phase paths, respectively, so that the voltages (Uconv2, Uconv3) that are to be set are derivable from the control voltages (Ustell2, Ustell3) and the correction voltages. - a first supply voltage between the first and second phase paths, - a second supply voltage between the second and third phase paths and also - a first and/or a second control voltage (Ustell2, Ustell3), each derived from nominal currents and the phase module currents of the second and third phase paths, respectively,
An electronic device comprising: a first panel with first one or more components thereon; a second panel with second one or more components thereon; a first wire that communicatively couples the first one or more components and the second one or more components; and a hinge mechanism that couples the first panel with the second panel, wherein the first wire passes through the hinge mechanism and the hinge mechanism includes a first tensioning mechanism to provide tension to the first wire when the electronic device is in an open position and a closed position; and characterized in that: the first panel comprises a first flexible printed circuit, FPC, that is physically and communicatively coupled with the first one or more components; and the second panel comprises a second flexible printed circuit, FPC, that is physically and communicatively coupled with the second one or more components, wherein the first wire is physically coupled between the first FPC and the second FPC; and wherein the first wire is physically coupled with the first FPC such that the first wire is between the first FPC and a stiffener of the first FPC. a first panel with first one or more components thereon; a second panel with second one or more components thereon; a first wire that communicatively couples the first one or more components and the second one or more components; and a hinge mechanism that couples the first panel with the second panel, wherein the first wire passes through the hinge mechanism and the hinge mechanism includes a first tensioning mechanism to provide tension to the first wire when the electronic device is in an open position and a closed position; and the first panel comprises a first flexible printed circuit, FPC, that is physically and communicatively coupled with the first one or more components; and the second panel comprises a second flexible printed circuit, FPC, that is physically and communicatively coupled with the second one or more components, wherein the first wire is physically coupled between the first FPC and the second FPC; and wherein the first wire is physically coupled with the first FPC such that the first wire is between the first FPC and a stiffener of the first FPC.
An air conditioner in which a remote controller and an indoor unit are configured to be able to communicate with each other, wherein the indoor unit comprises: i) a switch to switch a function setting of the air conditioner; and ii) a memory to store therein a setting value of the function setting, wherein the function setting of the air conditioner is defined by the setting value stored in the memory, characterized in that the indoor unit is configured such that the setting value stored in the memory is rewritable according to an instruction from the remote controller. i) a switch to switch a function setting of the air conditioner; and ii) a memory to store therein a setting value of the function setting,