mhurhangee/ep-ind-claims huggingface dataset:
A collapsible spreader comprising: a hopper is adapted to be movable, the hopper having an opening through which spreadable product carried by the hopper is dispensed; an adjustable and movable closure structure mounted on the hopper for blocking and selectively unblocking the hopper opening, the closure structure including an elongated arm portion and a closure portion; an actuator structure connected to the arm portion of the closure structure for selectively moving the closure portion of the closure structure, the closure structure includes an abutment tab; and a selector structure operatively engagable with the arm portion of the closure structure to establish the extent of movement of the closure portion of the closure structure, characterized in that the selector structure is mounted on the hopper, and the collapsible spreader includes a biasing structure connected to the closure structure for biasing the closure structure into a position to block the hopper opening. a hopper is adapted to be movable, the hopper having an opening through which spreadable product carried by the hopper is dispensed; an adjustable and movable closure structure mounted on the hopper for blocking and selectively unblocking the hopper opening, the closure structure including an elongated arm portion and a closure portion; an actuator structure connected to the arm portion of the closure structure for selectively moving the closure portion of the closure structure, the closure structure includes an abutment tab; and a selector structure operatively engagable with the arm portion of the closure structure to establish the extent of movement of the closure portion of the closure structure, characterized in that the selector structure is mounted on the hopper, and the collapsible spreader includes a biasing structure connected to the closure structure for biasing the closure structure into a position to block the hopper opening.
Low-shaft arc furnace with a shaft cylinder, in which at least one electrode is arranged to be axially movable, a scrap feed (22, 23) into the intermediate space between the furnace shell outer wall and the shaft cylinder, a hearth, which is connected with the lower end of the furnace shell, for receiving molten metal, a tap opening for the slag, a tap opening for the metal and burners directed into the furnace interior, characterised in that - scrap ledges or fingers, which are directed from the outer wall of the furnace shell towards the shaft cylinder and which surround the shaft cylinder at a spacing, are provided in the region of the lower end of the shaft cylinder, - the primary gas burners are arranged above the scrap ledges or fingers for melting the scrap collecting on the scrap ledges, and - the annular space between the scrap ledges and the shaft cylinder is so dimensioned that the liquid metal can flow through the annular space into the hearth, wherein the geometry of the scrap ledges is such that the molten metal can pass into the hearth even when the shell is tilted. - scrap ledges or fingers, which are directed from the outer wall of the furnace shell towards the shaft cylinder and which surround the shaft cylinder at a spacing, are provided in the region of the lower end of the shaft cylinder, - the primary gas burners are arranged above the scrap ledges or fingers for melting the scrap collecting on the scrap ledges, and - the annular space between the scrap ledges and the shaft cylinder is so dimensioned that the liquid metal can flow through the annular space into the hearth, wherein the geometry of the scrap ledges is such that the molten metal can pass into the hearth even when the shell is tilted.
Heat exchanger, in particular for a motor vehicle, having a plurality of interconnected conduit means (3-9, 200), in particular flat tubes, stacked onto each other, each having at their ends one through-hole (222, 224) for supplying or discharging a medium, wherein the conduit means ends are each received in a plug-in shoe, and wherein the conduit means (3-9, 200) are each made of an integrally formed extruded profile element with fluid-tight inner channels (210, 214, 220), characterised in that said through-hole extends beyond an end edge of at least one conduit means, wherein a conduit means end of the one conduit means is received in said plug-in shoe such that by means of the plug-in shoe a fluid-conducting manifold is formed from said through-hole via the end edge of said conduit means to an inner channel on an outer wall of said conduit means.
A method for quantifying a leakage flow on a process control valve that restricts a process stream, wherein: i) an intact reference control valve is used to determine several reference flow values in advance by placing the reference control valve in several reference opening positions, and measuring the respective reference flow value for each reference opening position; ii) when determining the respective reference flow value, a reference mechanical vibration acquired in the environment of the reference control valve is allocated to the respective reference flow value; iii) an instantaneous mechanical vibration is determined on the closed process control valve; iv) the reference mechanical vibration coming the closest to the determined instantaneous mechanical vibration is identified by way of an identity comparison or approximation comparison; v) the instantaneous stream force prevailing on the process control valve is determined to specify the identity comparison or approximation comparison; and vi) the leakage flow to be quantified is equated with the reference flow value allocated to the identified reference mechanical vibration. i) an intact reference control valve is used to determine several reference flow values in advance by placing the reference control valve in several reference opening positions, and measuring the respective reference flow value for each reference opening position; ii) when determining the respective reference flow value, a reference mechanical vibration acquired in the environment of the reference control valve is allocated to the respective reference flow value; iii) an instantaneous mechanical vibration is determined on the closed process control valve; iv) the reference mechanical vibration coming the closest to the determined instantaneous mechanical vibration is identified by way of an identity comparison or approximation comparison; v) the instantaneous stream force prevailing on the process control valve is determined to specify the identity comparison or approximation comparison; and vi) the leakage flow to be quantified is equated with the reference flow value allocated to the identified reference mechanical vibration.
Laminated glass (10A, 10B) comprising: a pair of glass plates (1A, 1B) facing each other; and an intermediate film (2A, 2B) sandwiched between the pair of glass plates, wherein in the intermediate film skin layers (41, 42, 43, 44) each having a glass transition point of 15°C or higher and core layers (31, 32, 33) each having a glass transition point of lower than 15°C are alternately laminated, and three or more core layers are included, wherein each of the skin layers and core layers contain a polyvinyl acetal resin and a plasticizer, wherein a plasticizer amount per unit area of a principal surface of the intermediate film which is measured in a region from 5 mm to 6 mm inside from an end portion of the intermediate film is 0.3 mg/mm 2 or more, and wherein the intermediate film has a thickness of 1.10 mm or more. a pair of glass plates (1A, 1B) facing each other; and an intermediate film (2A, 2B) sandwiched between the pair of glass plates, wherein in the intermediate film skin layers (41, 42, 43, 44) each having a glass transition point of 15°C or higher and core layers (31, 32, 33) each having a glass transition point of lower than 15°C are alternately laminated, and three or more core layers are included, wherein each of the skin layers and core layers contain a polyvinyl acetal resin and a plasticizer, wherein a plasticizer amount per unit area of a principal surface of the intermediate film which is measured in a region from 5 mm to 6 mm inside from an end portion of the intermediate film is 0.3 mg/mm 2 or more, and wherein the intermediate film has a thickness of 1.10 mm or more.
A mobile station apparatus configured to communicate with a base station apparatus using an Enhanced Physical Downlink Control CHannel, EPDCCH, the mobile station apparatus comprising: a radio resource control unit configured to, for receiving a localized EPDCCH, set, on the basis of at least an index of an Enhanced Control Channel Element, ECCE, to which a signal of the EPDCCH is mapped and Radio Resource Control, RRC, signaling which is transmitted from the base station apparatus, an antenna port used for demodulation of the signal mapped to the ECCE, wherein a first ECCE, a second ECCE, a third ECCE, and a fourth ECCE are constituted of resources obtained by dividing one physical resource block pair, indices of the first ECCE, the second ECCE, the third ECCE, and the fourth ECCE are consecutive natural numbers, characterized in that one of a reference signal corresponding to a first antenna port and a reference signal corresponding to a second antenna port is to be used for demodulation of signals mapped to the first ECCE and the second ECCE, one of a reference signal corresponding to a third antenna port and a reference signal corresponding to a fourth antenna port is to be used for demodulation of signals mapped to the third ECCE and the fourth ECCE, a first antenna port set is constituted of the first antenna port and the third antenna port, a second antenna port set is constituted of the second antenna port and the fourth antenna port, and the RRC signaling indicates one of the first antenna port set and the second antenna port set, which includes the antenna port which the radio resource control unit sets. a radio resource control unit configured to, for receiving a localized EPDCCH, set, on the basis of at least an index of an Enhanced Control Channel Element, ECCE, to which a signal of the EPDCCH is mapped and Radio Resource Control, RRC, signaling which is transmitted from the base station apparatus, an antenna port used for demodulation of the signal mapped to the ECCE, wherein a first ECCE, a second ECCE, a third ECCE, and a fourth ECCE are constituted of resources obtained by dividing one physical resource block pair, indices of the first ECCE, the second ECCE, the third ECCE, and the fourth ECCE are consecutive natural numbers, characterized in that one of a reference signal corresponding to a first antenna port and a reference signal corresponding to a second antenna port is to be used for demodulation of signals mapped to the first ECCE and the second ECCE, one of a reference signal corresponding to a third antenna port and a reference signal corresponding to a fourth antenna port is to be used for demodulation of signals mapped to the third ECCE and the fourth ECCE, a first antenna port set is constituted of the first antenna port and the third antenna port, a second antenna port set is constituted of the second antenna port and the fourth antenna port, and the RRC signaling indicates one of the first antenna port set and the second antenna port set, which includes the antenna port which the radio resource control unit sets.
A rotating device, comprising: at least one pair of rotation assemblies; and a gear assembly located between rotation assemblies of one pair of the at least one pair of rotation assemblies, wherein each rotation assembly of the at least one pair of rotation assemblies comprises a support frame and a rotating rack rotatably connected to the support frame, the rotating rack is provided with a driving gear engaging with the gear assembly; and the rotating racks of one pair of rotation assemblies are synchronously rotatable by rotating the rotating rack relative to a corresponding support frame; driving, by the rotation of the rotating rack, a corresponding driving gear to rotate; and further rotating, by the rotation of the corresponding driving gear, the gear assembly, characterized in that, in each rotation assembly of the at least one pair of rotation assemblies, a rotation shaft between the support frame and the rotating rack is a virtual shaft, and an axis of the virtual shaft is located outside the rotation assembly; in each rotation assembly of the at least one pair of rotation assemblies, the support frame and the rotating rack are connected to each other through a first arc-shaped groove and a first rotating rib that are mutually matched with each other, and an axis of the first arc-shaped groove coincides with the axis of the virtual shaft of the rotation assembly. at least one pair of rotation assemblies; and a gear assembly located between rotation assemblies of one pair of the at least one pair of rotation assemblies, wherein each rotation assembly of the at least one pair of rotation assemblies comprises a support frame and a rotating rack rotatably connected to the support frame, the rotating rack is provided with a driving gear engaging with the gear assembly; and the rotating racks of one pair of rotation assemblies are synchronously rotatable by rotating the rotating rack relative to a corresponding support frame; driving, by the rotation of the rotating rack, a corresponding driving gear to rotate; and further rotating, by the rotation of the corresponding driving gear, the gear assembly, characterized in that, in each rotation assembly of the at least one pair of rotation assemblies, a rotation shaft between the support frame and the rotating rack is a virtual shaft, and an axis of the virtual shaft is located outside the rotation assembly; in each rotation assembly of the at least one pair of rotation assemblies, the support frame and the rotating rack are connected to each other through a first arc-shaped groove and a first rotating rib that are mutually matched with each other, and an axis of the first arc-shaped groove coincides with the axis of the virtual shaft of the rotation assembly.
A hold-open assembly for a door, comprising a hazard detector for sending a trigger signal and an electrochemical energy accumulator for supplying electric current to at least one component of the hold-open assembly, a housing for accommodating the hazard detector and/or the electrochemical energy accumulator, wherein a hold-open device of the hold-open assembly is provided for holding at least one door leaf of a door in an open position, wherein the hold-open assembly comprises a control unit, wherein the control unit releases the hold-open device in the event of a fire, so that the door leaf closes, wherein the hold-open assembly comprises a slide rail with a slide element, wherein, while closing the door, the slide element travels in the slide rail, wherein the hold-open device retains the slide element and the control releases the hold-open device and thus the slide element, wherein the slide element is connectable to the door leaf via an arm, wherein the housing of the hold-open device accommodates the control unit and the slide rail, wherein the housing includes at least one screen, an upper cover and a lower cover (81, 82), wherein the screen is configured removable from at least one of the covers (81, 82), characterized in that the energy accumulator is disposed in front of the slide rail, in that the screen forms at least one component of a front side of the housing and in that the lower cover includes a breakthrough, through which the slide element is connectable to the door. a hazard detector for sending a trigger signal and an electrochemical energy accumulator for supplying electric current to at least one component of the hold-open assembly, a housing for accommodating the hazard detector and/or the electrochemical energy accumulator, wherein a hold-open device of the hold-open assembly is provided for holding at least one door leaf of a door in an open position, wherein the hold-open assembly comprises a control unit, wherein the control unit releases the hold-open device in the event of a fire, so that the door leaf closes, wherein the hold-open assembly comprises a slide rail with a slide element, wherein, while closing the door, the slide element travels in the slide rail, wherein the hold-open device retains the slide element and the control releases the hold-open device and thus the slide element, wherein the slide element is connectable to the door leaf via an arm, wherein the housing of the hold-open device accommodates the control unit and the slide rail, wherein the housing includes at least one screen, an upper cover and a lower cover (81, 82), wherein the screen is configured removable from at least one of the covers (81, 82), characterized in that the energy accumulator is disposed in front of the slide rail, in that the screen forms at least one component of a front side of the housing and in that the lower cover includes a breakthrough, through which the slide element is connectable to the door.
An electronic apparatus, comprising: a touch display including a main display area and a curved auxiliary display area which is extended from the main display area to be bent on at least one side of the main display area and is smaller in size than the main display area; and a controller adapted for controlling the touch display such that a user interface extends from the curved auxiliary display area to the main display area based on receiving a touch input (5231, 6212, 8321, 5262, 6222, 6223, 8341) on a sub content displayed on the curved auxiliary display area, wherein the controller is further adapted to, when the main display area is inactivated, display information related with the sub content on the main area when the sub content is touched, by activating a sectional area corresponding to the position of a sub area where the sub content is displayed without activating the whole of the main display area. a touch display including a main display area and a curved auxiliary display area which is extended from the main display area to be bent on at least one side of the main display area and is smaller in size than the main display area; and a controller adapted for controlling the touch display such that a user interface extends from the curved auxiliary display area to the main display area based on receiving a touch input (5231, 6212, 8321, 5262, 6222, 6223, 8341) on a sub content displayed on the curved auxiliary display area, wherein the controller is further adapted to, when the main display area is inactivated, display information related with the sub content on the main area when the sub content is touched, by activating a sectional area corresponding to the position of a sub area where the sub content is displayed without activating the whole of the main display area.
Process for the bonding of two or more plastics parts respectively consisting of thermoplastic polyamides and belonging to an electrical or electronic component, preferably a multipole plug connector, where the plastics parts to be bonded are bonded to one another by means of an adhesive in an adhesive-bonding process, where the adhesive is first applied to the contact areas of the plastics parts that are to be adhesive-bonded, and then the contact areas are pressed together, where the adhesive used comprises a physically setting solution adhesive or physically setting dispersion adhesive respectively formulated to be compatible with the plastic of which the plastics parts to be adhesive-bonded consist, using a polyamide as adhesive polymer at quantitative concentrations of from 18 to 35 percent by mass in the solvent or dispersion medium respectively used from the adhesive, where the morphological properties of the polyamide of the adhesive are similar to the morphological properties of the polyamide of the plastics parts to be bonded, and where formic acid is used as solvent or dispersion medium.
An absorption heat pump comprising a generator or desorber which generates vapour from a first fluid fed through a first line to a first condenser in heat exchange contact with a transmission fluid, downstream of the condenser a second line being provided for feeding refrigerant liquid to an evaporator, upstream of which a first lamination valve is provided, an outlet of the evaporator being connected by a third line to a vapour inlet of a mixer that is part of a low pressure absorber unit, the absorber unit comprising an enriched solution outlet connected to a suction side of a pump, the delivery side of which is connected to the generator by a fourth line for feeding solution, the generator comprising a poor solution outlet connected by a sixth line provided with at least one lamination valve (30, 31) to a poor solution inlet feeding the absorber (100, 200-100), characterised in that the second line is brought into heat exchange contact with the low pressure absorber and comprises a lamination valve upstream thereof, the line opening into a liquid/vapour separator, a separator liquid outlet (51 A) feeding the evaporator via a third line, the vapour outlet of the separator opening into an intermediate pressure absorber unit.
A caliper-arm-position sensor comprising: (a) a compound coil comprising: (i) a first coil having a first end connection and a second end connection, and (ii) a second coil having a first end connection and a second end connection, (iii) wherein the second end connection of the first coil is electrically connected to the first end connection of the second coil; (b) a core positioned adjacent to the coil; (c) a caliper arm mechanically connected to the core; (d) a voltage driver (102, 104; 802, 804) having an alternating-voltage output signal electrically connected to at least one of the group consisting of the first end connection of the first coil, the second end connection of the first coil, and the second end connection of the second coil; (e) an analog-to-digital converter (110; 810) electrically connected to at least one of the group consisting of the first end connection of the first coil, the second end connection of the first coil, and the second end connection of the second coil; and (f) a timer (102; 802); characterised in that: the timer (102; 802) is provided with an output electrically connected to the analog-to-digital converter, wherein the output of the timer is configured to trigger sampling by the analog-to-digital converter at a predetermined period of time relative to a phase point of the alternating-voltage input signal. (a) a compound coil comprising: (i) a first coil having a first end connection and a second end connection, and (ii) a second coil having a first end connection and a second end connection, (iii) wherein the second end connection of the first coil is electrically connected to the first end connection of the second coil; (i) a first coil having a first end connection and a second end connection, and (ii) a second coil having a first end connection and a second end connection, (iii) wherein the second end connection of the first coil is electrically connected to the first end connection of the second coil; (b) a core positioned adjacent to the coil; (c) a caliper arm mechanically connected to the core; (d) a voltage driver (102, 104; 802, 804) having an alternating-voltage output signal electrically connected to at least one of the group consisting of the first end connection of the first coil, the second end connection of the first coil, and the second end connection of the second coil; (e) an analog-to-digital converter (110; 810) electrically connected to at least one of the group consisting of the first end connection of the first coil, the second end connection of the first coil, and the second end connection of the second coil; and (f) a timer (102; 802);