Abstract: A load or a generator is connected to an energy line, e.g. a ring feeder of an energy distribution network by using a switching system. For this purpose, the switching system has a thyristor circuit, which is connected in parallel to a disconnect switch and connects the transformer of the switching system to an energy line. Thereby an efficient disconnect switch can be realized, which can be dimensioned depending on the power of the load or generator.

Abstract: The invention relates to a caster (1) having a casting ladle (2), a distribution device (4), and a horizontally moveable transport belt (5) having side limitation elements (13, 14), wherein liquid metal, preferably steel, can flow out of the casting ladle (2) onto the distribution device (4), and from there can be applied to the horizontal transport belt (5), the side limitation elements (13, 14) of the horizontal transport belt (5) being adjustable over the width of the horizontal transport belt. The invention further relates to a corresponding method.

Abstract: A device and a method for measuring thickness in horizontal strip casting installations for casting strip or sections. A measuring device measures the thickness of the liquid or pasty melt in the mold. The measuring device operates without contact by a laser and an optical sensor that are arranged so that the surface of the liquid or pasty melt is monitored, whereby the thickness distribution over an entire width of the melt is measured. A measuring signal is generated, and a control signal is generated based on the measuring signal in order to control a device for distributing the melt.

Abstract: A load or a generator is connected to an energy line, e.g. a ring feeder of an energy distribution network by using a switching system. For this purpose, the switching system has a thyristor circuit, which is connected in parallel to a disconnect switch and connects the transformer of the switching system to an energy line. Thereby an efficient disconnect switch can be realized, which can be dimensioned depending on the power of the load or generator.

Abstract: A melt charging system for the horizontal strip casting of a molten metal with a run-out element, in particular with a nozzle (9), is characterized in that at least one heating device (21, 22; 28) is arranged in the region of the run-out element for heating up the run-out element.

Abstract: A casting system (1) having a reservoir (2) for a fluid (3), such as, in particular, liquid metal, a dispensing chamber (5) connectable by a connection (4) with the reservoir, and an application device (7) with which the fluid is spreadable to a predetermined width and with which it is spread on a movable strip (9), with the connection between the dispensing chamber and the application device being formed as a closed tubular connection including a plurality of tubes (6) arranged in a pattern corresponding to a pattern of a spread hand-held fan.

Abstract: The invention relates to a method for casting steel having a chromium content of more than 15 wt.-%, which is characterized in that the steel is cast in a horizontal strip casting system (1) comprising a melting furnace (2), foundry ladle (3) and conveyor belt (5) for receiving and for cooling a liquid steel strip flowing from the foundry ladle (3).

Abstract: The invention relates to a device and a method for the measurement of a thickness, particularly for use in casting systems for strips or profiles, having a measuring device, wherein the thickness of a liquid or pasty melt, or of a solidified cast product is measured on a die, or in a vessel.

Abstract: An apparatus for casting near-net-shape, rectangular metal strands includes a horizontally circulating metal conveyor belt (7) with a cooled bottom a melt feeder (3?) for casting the metal onto the conveyor belt(7), and an arrangement for feeding the solidified pre-strip under mechanical tension to a driver (16). A cooled pressure device (11, 12, 13) is arranged above the cast product (4) in a region of the deflection roller (8) of the metal conveyor belt (7) which is located downstream in a casting direction, for applying an adjustable pressure from above to the cast product (4) solidifying into the pre-strip (5); and immediately behind the metal conveyor belt (7) a cooling device (17, 19, 19?)for cooling the bottom of the pre-strip (5) over its entire width.

Abstract: A method of casting near-net-shape, rectangular metal strands includes providing a horizontally circulating metal conveyor belt (7) with a cooled bottom and a melt feeder (3?) for casting the metal melt onto the conveyor belt (7), smooth/pinch rollers (14) for feeding the solidified pre-strip under mechanical tension to a driver (16), a pressure device (11, 12, 13) arranged above the cast product (4) in a region of the deflection roller (8) of the metal conveyor belt (7) which is located downstream in a casting direction, for applying an adjustable pressure from above to the cast product (4) solidifying into the pre-strip (5). Immediately behind the metal conveyor belt (7) and upstream of the pinch rollers, a cooling device (17, 19, 19?) is provided for cooling the bottom of the pre-strip (5) after the pre-strip leaves the conveyor belt.

Abstract: A continuous casting installation, which has a vertically oriented strand guide arranged below a mold, wherein a drive for driving the cast strand and bending it into the horizontal direction are arranged below the strand guide. A drive that serves exclusively for driving the cast strand is installed below the lower end of the strand guide, and a drive that serves exclusively for bending the cast strand is installed below the drive for driving the cast strand. The drive that serves exclusively for driving the cast strand is installed at least partially in a cassette, which is detachably mounted in the continuous casting installation. The continuous casting installation also has a cooling chamber, and the cassette with the drive that serves exclusively for driving the cast strand is installed in the cooling chamber.

Abstract: The invention essentially relates to a device and a method for casting and rolling metal, wherein at least one first and one second casting line for casting slabs and a rolling train for rolling the casted slabs are provided. The first casting line is designed as a horizontal thin-slab casting system (1) which comprises at least one dispensing vessel (5) for a melt and a conveyor belt (6) running horizontally downstream of the at least one dispensing vessel (5) in the casting direction. The second casting system is likewise designed as a horizontal thin-slab casting system (1) and/or as a vertical thin-slab casting system (2), which comprises at least one mold (4) for vertically casting slabs and a bending and straightening device (7) for bending and straightening the vertically casted slabs into a horizontal position.

Abstract: A caster (1) has a casting ladle (2), a distribution device (4), and a horizontally moveable transport belt (5) having side limitation elements (13, 14) adjustable over the width of the horizontal transport belt.

Abstract: The method of casting near net-shape rectangular strands made of metal and the subsequent further processing the strands into metal strips includes applying pressure from above to the cast product (4) solidifying into the preliminary strip (5), preferably to its strip edges (6) by means of a pressure device (11) disposed at the end of the metal conveyor belt (7) and, additionally cooling of the bottom of the preliminary strip in a predetermined area directly behind the metal conveyor belt (7).

Abstract: The present invention relates to a method and a device for measuring the layer thickness of partially solidified melts, particularly on a conveyor belt, during continuous casting. In order to determine the layer thickness, magnetic fields are used, which are created by means of electromagnetic stirring coils that are present on one side of the layer. The reduced magnetic field is then detected on the other side of the layer and is used for calculating the layer thickness.

Abstract: The invention relates to a casting system (1) having a reservoir (2) for a fluid (3), such as, in particular, liquid metal, a dispensing chamber (5) connectable by a connection (4) with the reservoir, and an application device (7) with which the fluid is spreadable to a predetermined width and with which it is spread on a movable strip (9), wherein the connection between the dispensing chamber and the application device is formed as a closed tubular connection (6).

Abstract: The invention relates to a method of equalizing a solidification process of molten metal produced, in particular, during strand or strip casting, wherein the molten metal (10) is subjected, in particular, to an electromagnetic stirring process, and wherein a magnetic field is applied to metal located upstream of the area of, in particular, the electromagnetic stirring process. According to the invention, it is provided that during the solidification process, at least one magnetic field is applied to an already solidified, at the outside, into a strand, region (11) of the molten metal (10). The invention also relates to a device for carrying out this process.

Abstract: The invention relates to a casting device (1) having a casting ladle (2), a distribution device (4), and a horizontally moveable transport belt (5) having side boundaries (13, 14), wherein liquid metal, preferably steel, can flow out of the casting ladle (2) onto the distribution device (4), and from there can be applied to the horizontal transport belt (5), the side boundaries (13, 14) of the horizontal transport belt (5) being adjustable across the width of the horizontal transport belt. The invention further relates to a corresponding method.

Abstract: In the casting close-to-the final dimension of rectangular strands made of metal and the subsequent further processing thereof into metal strips according to the DSC method (direct strip casting) in a horizontal continuous casting installation the cast product (4) is deformed during the solidification thereof into the preliminary strip (5) due to uneven heat dissipation because the top of the strip is cooled only by convection of ambient air and by heat radiation, while the bottom of said strip is in direct contact with a cooled metal conveyor belt (7). In this manner, the initially complete contact between the cast product (4) and the metal conveyor belt (7) is lost and the strip edges of the cast product arch upwards.