mhurhangee/ep-ind-claims huggingface dataset:
A method for retrieving and presenting objects in an automated Surface Mount Device warehouse adapted to obtain information related to upcoming SMT jobs, said automated SMD warehouse comprising at least one actuator, such as a robot or robotic arm, configured to automatically handling objects within said automated Surface Mount Device warehouse, the method comprising: - receiving at least one of input data and a parameter representing, or used by said automated Surface Mount Device warehouse for determining, a position within said automated Surface Mount Device warehouse; - retrieving, by the use of at least one of said at least one actuator, a bin comprising a plurality of slots or compartments each configured for holding a bin load unit, each bin load unit comprises or constitutes a component tape reel, from said position within said automated SMD warehouse at least partly based on said at least one of input data and/or a parameter representing said position within said automated Surface Mount Device warehouse, wherein the method is characterized in that the retrieving of the bin is performed based on an upcoming SMT job and said bin has been pre-loaded with bin load units based on said SMT job; and - presenting, by the use of at least one of said at least one actuator, said retrieved bin at, or close to, an output port, such as an opening, of said automated Surface Mount Device warehouse. - receiving at least one of input data and a parameter representing, or used by said automated Surface Mount Device warehouse for determining, a position within said automated Surface Mount Device warehouse; - retrieving, by the use of at least one of said at least one actuator, a bin comprising a plurality of slots or compartments each configured for holding a bin load unit, each bin load unit comprises or constitutes a component tape reel, from said position within said automated SMD warehouse at least partly based on said at least one of input data and/or a parameter representing said position within said automated Surface Mount Device warehouse, wherein the method is characterized in that the retrieving of the bin is performed based on an upcoming SMT job and said bin has been pre-loaded with bin load units based on said SMT job; and - presenting, by the use of at least one of said at least one actuator, said retrieved bin at, or close to, an output port, such as an opening, of said automated Surface Mount Device warehouse.
A direct electrical heating flow system including at least one flow pipe and at least one cable disposed along said at least one flow pipe and providing heating to said at least one flow pipe, said cable including an inner conductive region made of one or more annular layers of copper wires, surrounded by an annular insulating region (190, 200) and peripheral thereto an outer annular conductive region; characterized in that said inner conductive region encloses a central core comprising a steel tube centrally disposed within said inner conductive region, forming an optical fibre waveguide region and including at least one optical fibre waveguide for conveying at least one information-bearing signal said optical fibre waveguide region being surrounded by a soft bedding sheath located between said steel tube and said one or more annular layers of copper wires.
Wind power gearbox having two oil chambers (16, 17) for receiving oil, wherein each of the oil chambers (16, 17) has an opening (161, 171) to allow oil to pass through, wherein the two oil chambers (16, 17) are connected to one another by a pipe (38, 38a, 38b) for routing oil, which is arranged with one end in each of the openings (161, 171), characterised in that the openings (161, 171) each have a conicity with an inner cone, which opens away from the respective oil chamber (16, 17), and the ends of the pipe (38, 38a, 38b) arranged in the openings (161, 171) have a corresponding conicity with an outer cone, wherein at least one static sealing element (381, 382) is arranged in each case between the inner cone of the openings (161, 171) and the outer cone of the pipe ends for sealing purposes.
A pharmaceutical composition comprising a polyclonal or monoclonal antibody, or antigen binding fragment, that specifically binds to a TMEM154 polypeptide comprising at least one of SEQ ID NOS: 10, 5, 62 or 63, in a pharmaceutically acceptable carrier, and a second medicament, wherein said antibody and said second medicament are provided in a single dosage form or separately, and wherein said second medicament is selected from the group consisting of bortezomib; melphalan; doxorubicin and dexamethasone.
Ergometer which is to be placed on an installation surface, whereby a horizontal plane is defined, which ergometer has a backrest against which a user can support his back while he is driving the ergometer, whereby a back plane is defined, and which ergometer has a drive device against which the user can support at least one foot while he is driving the ergometer, whereby a leg plane is defined by a leg of the user that is thereby outstretched, wherein a first angle extends between the horizontal plane and the back plane and wherein a second angle extends between the horizontal plane and the leg plane, and wherein the vertex of the first and of the second angle (62; 80) is the hip joint of the user, characterised in that the first angle is between 0° and 20° and the second angle is between 60° and 80°.
A steel plate having a chemical composition comprising, in terms of mass%: C: 0.01% to 0.12%; Si: 0.01% to 0.30%; Mn: 0.4% to 2.0%; Ni: 6.6% to 7.4%; Al: 0.002% to 0.08% N: 0.0050% or less; P: 0.05% or less; S: 0.008% or less; Cu: 0% to 1.00%; Cr: 0% to 1.00%; Mo: 0% to 0.50%; V: 0% to 0.10%; B: 0% to 0.0050%; Nb: 0% to 0.10%; Ti: 0% to 0.10%; Sn: 0% to 0.50%; Ca: 0% to 0.004%; Mg: 0% to 0.0020%; REM: 0% to 0.0020%; and the remainder: Fe and impurities, wherein an amount of retained γ at a (1/4)t location regarding a plate thickness t of the steel plate is 4.0 to 20.0 volume%, the retained γ has a form in which an upper limit of an average of an aspect ratio thereof is 2.5 and an upper limit of an average of a major axis thereof is 0.85 μm, and an average Mn concentration in the retained γ and an average Ni concentration in the retained γ satisfy Expression 1 and Expression 2, respectively, Mn retained γ > Mn α × 1.4 Ni retained γ > Ni α × 1.4 and the [Mn] retained γ indicates the average Mn concentration in the retained γ, the [Mn] α indicates an average Mn concentration in ferrite in the steel plate, the [Ni] retained γ indicates the average Ni concentration in the retained γ, and the [Ni] α indicates an average Ni concentration in the ferrite in the steel plate. C: 0.01% to 0.12%; Si: 0.01% to 0.30%; Mn: 0.4% to 2.0%; Ni: 6.6% to 7.4%; Al: 0.002% to 0.08% N: 0.0050% or less; P: 0.05% or less; S: 0.008% or less; Cu: 0% to 1.00%; Cr: 0% to 1.00%; Mo: 0% to 0.50%; V: 0% to 0.10%; B: 0% to 0.0050%; Nb: 0% to 0.10%; Ti: 0% to 0.10%; Sn: 0% to 0.50%; Ca: 0% to 0.004%; Mg: 0% to 0.0020%; REM: 0% to 0.0020%; and the remainder: Fe and impurities, wherein an amount of retained γ at a (1/4)t location regarding a plate thickness t of the steel plate is 4.0 to 20.0 volume%, the retained γ has a form in which an upper limit of an average of an aspect ratio thereof is 2.5 and an upper limit of an average of a major axis thereof is 0.85 μm, and an average Mn concentration in the retained γ and an average Ni concentration in the retained γ satisfy Expression 1 and Expression 2, respectively, Mn retained γ > Mn α × 1.4 Ni retained γ > Ni α × 1.4 and the [Mn] retained γ indicates the average Mn concentration in the retained γ, the [Mn] α indicates an average Mn concentration in ferrite in the steel plate, the [Ni] retained γ indicates the average Ni concentration in the retained γ, and the [Ni] α indicates an average Ni concentration in the ferrite in the steel plate.
Method of monitoring and/or controlling a beverage-making machine, more particularly a fully automated coffee machine, comprising a plurality of sub-systems (12, 13, 16, 20, 21, 21', 24, 25, 28, 31, 32), in which method the function and operating statuses of the sub-systems (12, 13, 16, 20, 21, 21', 24, 25, 28, 31, 32) are monitored by sensor and the results of the monitoring are used, if necessary, for controlling the operating procedure, characterised in that the monitoring of several functions and/or operating status of the sub-systems (12, 13, 16, 20, 21, 21', 24, 25, 28, 31, 32) takes place through recording sounds and/or bulk vibrations emitted by the monitored sub-systems.
A silencer (1A-1C) for a leaf spring assembly, the silencer (1A-1C) being configured for disposal between adjacent leaf springs (101, 102), the silencer (1A-1C) comprising: a multilayer structure in which layers proximate to each other are integrally formed; wherein the multilayer structure comprises one outermost layer as a fixing layer and another outermost layer as a sliding layer; and a projection portion which is formed at the fixing layer and configured to closely fit into a hole formed in one of the leaf springs (101, 102), wherein the projection portion has an engagement portion which, when passed through the hole, projects from the hole of the leaf spring (101, 102) and engages with a surface of the leaf spring (101, 102) and has a flange portion that has a larger diameter than that of the hole at an end thereof on the sliding layer side, the engagement portion has a peripheral surface which is tapered such that the diameter thereof increases toward the sliding layer side, and has a pair of notch portions, characterized in that the fixing layer has a tensile strength higher than the sliding layer, and the sliding layer has a hardness lower than the fixing layer. a multilayer structure in which layers proximate to each other are integrally formed; wherein the multilayer structure comprises one outermost layer as a fixing layer and another outermost layer as a sliding layer; and a projection portion which is formed at the fixing layer and configured to closely fit into a hole formed in one of the leaf springs (101, 102), wherein the projection portion has an engagement portion which, when passed through the hole, projects from the hole of the leaf spring (101, 102) and engages with a surface of the leaf spring (101, 102) and has a flange portion that has a larger diameter than that of the hole at an end thereof on the sliding layer side, the engagement portion has a peripheral surface which is tapered such that the diameter thereof increases toward the sliding layer side, and has a pair of notch portions, characterized in that the fixing layer has a tensile strength higher than the sliding layer, and the sliding layer has a hardness lower than the fixing layer.
An ageing unit comprising: - a thermoconstant container, in which a technological bath is arranged, - on the sides of the bath there are guides for moving a self-propelled platform, on which mixers with vertical screw conveyors are mounted, covering the entire cross-section of the bath; - at the top of the chamber there is at least one sensor for monitoring loading and discharging, - and in the bottom of the bath 21 there is at least one discharging device arranged along the axis of the bath; - wherein the unit has a device for loading raw materials and a device for loading a biological activator. - a thermoconstant container, in which a technological bath is arranged, - on the sides of the bath there are guides for moving a self-propelled platform, on which mixers with vertical screw conveyors are mounted, covering the entire cross-section of the bath; - at the top of the chamber there is at least one sensor for monitoring loading and discharging, - and in the bottom of the bath 21 there is at least one discharging device arranged along the axis of the bath; - wherein the unit has a device for loading raw materials and a device for loading a biological activator.
A method for manufacturing a silicon carbide semiconductor device, comprising the steps of: thermally etching a silicon carbide layer by supplying said silicon carbide layer with a process gas that is able to chemically react with silicon carbide at a temperature of not less than 700°C and not more than 1200°C, while heating said silicon carbide layer, a carbon film being formed on said silicon carbide layer by the step of thermally etching; and after the step of thermally etching providing heat treatment to said silicon carbide layer to diffuse carbon from said carbon film into said silicon carbide layer. thermally etching a silicon carbide layer by supplying said silicon carbide layer with a process gas that is able to chemically react with silicon carbide at a temperature of not less than 700°C and not more than 1200°C, while heating said silicon carbide layer, a carbon film being formed on said silicon carbide layer by the step of thermally etching; and after the step of thermally etching providing heat treatment to said silicon carbide layer to diffuse carbon from said carbon film into said silicon carbide layer.
Method for operating a parking brake system of a vehicle, comprising steps in which the switching state of a monostable parking brake actuating element, which can be switched into at least two switching states, is recorded by an electronic control unit and the speed of the vehicle is recorded by the electronic control unit and the current actual parking brake force generated by the parking brakes of the parking brake system is recorded, wherein an actual parking brake force of 0 Newton corresponds to released parking brakes and a maximum actual parking brake force corresponds to applied parking brakes, and wherein a target parking brake force is set as a function of the speed, the actual parking brake force and the switching state of the PBB and input for generation by the parking brakes, characterised in that the scalar deflection state of a monostable service brake actuating element deflectable to a continuous spectrum of possible scalar deflection states is recorded by the electronic control unit and the deflection state of the BBB is taken into account when setting the target parking brake force.
A method of producing an active material for batteries, said method comprising the following steps a) to d) or consisting of these steps: a) providing electrochemically active particles, b) optionally comminuting the electrochemically active particles to an average particle size, as measured using scanning electron microscopy, of less than 2 μm, c) adding an organic carbon compound, optionally in a suitable organic solvent, and mixing, d) heating the mixture under protective gas to a temperature above the decomposition limit of the organic compound and below the decomposition temperature of the electrochemically active particles, whereby the organic carbon compound decomposes into carbon and this carbon deposits as a homogeneous layer on the surface of the electrochemically active particles, characterized in that the electrochemically active particles used comprise Li 2 S. a) providing electrochemically active particles, b) optionally comminuting the electrochemically active particles to an average particle size, as measured using scanning electron microscopy, of less than 2 μm, c) adding an organic carbon compound, optionally in a suitable organic solvent, and mixing, d) heating the mixture under protective gas to a temperature above the decomposition limit of the organic compound and below the decomposition temperature of the electrochemically active particles, whereby the organic carbon compound decomposes into carbon and this carbon deposits as a homogeneous layer on the surface of the electrochemically active particles,
Process for the preparation of a tube with an outer diameter in the range of from 10 μm to 250 μm consisting of a composition comprising a thermoplastic polyurethane, the process comprising the steps (i) melting a thermoplastic polyurethane in an extruder at a temperature of 160°C to 230°C; (ii) to the molten thermoplastic polyurethane, adding a composition comprising a cross linker comprising isocyanate groups and mixing the resulting mixture to form a melt; (iii) extruding the melt through a spinneret heated at 180 °C to 230 °C to obtain a melt-spun elastic tube; (iv) cooling the melt spun elastic tube in a cooling section; (v) bringing the cooled melt spun elastic tube in contact with finish oil in a finishing section, the finish oil being selected from the group consisting of mineral oil and silicone oil; wherein the extruder, the cooling section and the finishing section are arranged in a vertical setting. (i) melting a thermoplastic polyurethane in an extruder at a temperature of 160°C to 230°C; (ii) to the molten thermoplastic polyurethane, adding a composition comprising a cross linker comprising isocyanate groups and mixing the resulting mixture to form a melt; (iii) extruding the melt through a spinneret heated at 180 °C to 230 °C to obtain a melt-spun elastic tube; (iv) cooling the melt spun elastic tube in a cooling section; (v) bringing the cooled melt spun elastic tube in contact with finish oil in a finishing section, the finish oil being selected from the group consisting of mineral oil and silicone oil;
Use of a standard, comprising an inorganic nanoparticle having a size of from 2 to 200 nm, on the surface of which either by way of i) maleimide- spacer carboxylic acids or by way of ii) NHS-ester monomers of the protein aggregrate for the protein misfolding disease to be detected have been bonded, in the detection of a protein aggregate, in particular in the detection of potentially toxic aggregates and/or oligomers of Alzheimer's dementia, wherein a sample with an unknown number of binding sites and the standard with a known number of binding sites are treated with a fluorescent antibody or peptide and from the result of the standard the number of the binding sites in the sample is deduced. i) maleimide- spacer carboxylic acids or by way of ii) NHS-ester
A synchronizing mechanism for a correlated seat/backrest movement of an office chair, having a base support which is placeable on a chair column, a seat support and a backrest support, - wherein the seat support is articulated directly on a first pivot bearing of the base support, wherein the first pivot bearing, as seen in the longitudinal direction of the seat, is arranged at the rear end of the base support, - wherein the backrest support is articulated directly on a second pivot bearing of the base support, - wherein the backrest support is connected to the seat support via an articulation, and - wherein the articulation axis of the articulation, as seen in the longitudinal direction of the seat, is arranged in front of the pivot axis of the second pivot bearing, such that a pivoting movement of the backrest to the rear about the pivot axis of the second pivot bearing induces a rotation of the seat support about the pivot axis of the first pivot bearing and thus a lifting movement of the front region of the seat support. - wherein the seat support is articulated directly on a first pivot bearing of the base support, wherein the first pivot bearing, as seen in the longitudinal direction of the seat, is arranged at the rear end of the base support, - wherein the backrest support is articulated directly on a second pivot bearing of the base support, - wherein the backrest support is connected to the seat support via an articulation, and - wherein the articulation axis of the articulation, as seen in the longitudinal direction of the seat, is arranged in front of the pivot axis of the second pivot bearing, such that a pivoting movement of the backrest to the rear about the pivot axis of the second pivot bearing induces a rotation of the seat support about the pivot axis of the first pivot bearing and thus a lifting movement of the front region of the seat support.
A method for adjusting a time advance TA, comprising: receiving, by a terminal, a random access resource allocation message sent by a primary base station, wherein the random access resource allocation message comprises a serial number of a random access preamble code and a serial number of a physical random access channel mask code; sending, by the terminal, a random access request message to a secondary base station by using a sending resource that is determined according to the serial number of the physical random access channel mask code, wherein the random access request message comprises the random access preamble code that is determined according to the serial number of the random access preamble code; receiving, by the terminal, a random access response message sent by the primary base station, wherein the random access response message comprises a time advance command TAC that is sent by the secondary base station to the primary base station and is determined by the secondary base station according to the random access request message; and adjusting, by the terminal according to the TAC, time advance TA of the terminal on a secondary serving cell corresponding to the secondary base station. receiving, by a terminal, a random access resource allocation message sent by a primary base station, wherein the random access resource allocation message comprises a serial number of a random access preamble code and a serial number of a physical random access channel mask code; sending, by the terminal, a random access request message to a secondary base station by using a sending resource that is determined according to the serial number of the physical random access channel mask code, wherein the random access request message comprises the random access preamble code that is determined according to the serial number of the random access preamble code; receiving, by the terminal, a random access response message sent by the primary base station, wherein the random access response message comprises a time advance command TAC that is sent by the secondary base station to the primary base station and is determined by the secondary base station according to the random access request message; and adjusting, by the terminal according to the TAC, time advance TA of the terminal on a secondary serving cell corresponding to the secondary base station.
A heat exchanger module comprising at least one first layer for a first fluid to flow therein between a first inlet and a first outlet, and at least one second layer for a second fluid to flow therein between a second inlet and a second outlet, wherein the at least one first layer and the at least one second layer are separated by a parting plate, the first layer comprising a first wall meandering between opposite sides (31, 32) of the first layer in order to define first channels extending between the first inlet and the first outlet, the second layer comprising a second wall meandering between opposite sides (31, 32) of the second layer in order to define second channels extending between the second inlet and the second outlet, characterized in that a pitch of the first wall is less than a pitch of the second wall, a thickness of the first wall is less than a thickness of the second wall, and a ratio of the pitch to a height of the first wall is less than a ratio of the pitch to a height of the second wall.
Sitting gaming apparatus with a chair having a seat, a backrest and at least one armrest, wherein a money and/or monetary value processing payment and/or dispensing device is provided on the armrest, which is at least partially covered by an armrest cover, wherein the armrest cover is designed to be movable between a closed position and an open position, wherein the payment and/or dispensing device, when the armrest cover is in the open position, is moved or can be moved into a maintenance position and is exposed on several sides and wherein the armrest cover is formed by a drawer-like movable receptacle for the payment and/or dispensing device.