EP3485097A2

EP3485097A2 - Vibrofloatation device

Info

Publication number: EP3485097A2
Application number: EP17745674.6A
Authority: EP
Inventors: Alexander Degen; Wilhelm Degen
Original assignee: Individual
Current assignee: Individual
Priority date: 2016-07-15
Filing date: 2017-07-17
Publication date: 2019-05-22
Anticipated expiration: 2037-07-17
Also published as: DE102016113140A1; PH12019500300A1; US10961678B2; US20210388569A1; CA3030067A1; ES2966101T3; CN110036156A; EP3926099A1; EP3485097B1; EP3926099C0; US20190169813A1; PL3926099T3; JP2019525044A; US20230121538A1; US11970832B2; WO2018011435A2; EP3926099B1; WO2018011435A3; CA3030067C

Abstract

A vibrator assembly is described. Said vibrator assembly comprises a feed pipe that has a longitudinal axis as well as a first end and a second end. The vibrator assembly can further comprise a vibrator unit that is mechanically coupled to the feed pipe, and a filling assembly which extends into the feed pipe at the first end and is designed to pick up material and direct same into the feed pipe, the feed pipe having at least two separate channels from the first end to the second end and parallel to the longitudinal axis.

Description

RÜTTLER ARRANGEMENT FOR THE MANUFACTURE OF STOPPERS AND METHOD FOR THE PRODUCTION OF STOPPERS

The invention relates to a Rüttleranordnung for producing Stopfsäulen and a method for operating such Rüttleranordnung.

Tamping columns are introduced into the ground material columns that are used in construction to improve the soil properties for subsequent development. For the production of Stopfsäulen vibrator arrangements can be used, which partially penetrate by means of vibrations in the ground and produce a hole in the ground. Subsequently, via the Rüttleranordnung material, such as dry concrete, recycled concrete, scree, sand, gravel or a mixture thereof passed into the well and then compacted the material. By repeating this process several times, the stuffing column of material is filled piece by piece to the surface of the soil. The time required for the production of Stopfsäulen is significantly determined by the time required to load the Rüttleranordnung and the decay of Stopfsäulen.

Known Rüttleranordnungen have the disadvantage that only a limited amount of material per unit time can be passed into the borehole.

The object underlying the invention can thus be seen to provide an improved Rüttleranordnung, which allows to conduct more material per unit time in the borehole.

The above object is achieved by a Rüttleranordnung according to claims 1 and 17 and by a method according to claim 36. Different examples and further developments of the invention are the subject of the dependent claims.

An exemplary vibrator assembly includes a silo tube having a longitudinal axis and a first end and a second end. Additionally, the vibrator assembly may include a vibrator unit mechanically coupled to the silo tube and a fill assembly opening into the silo tube at the first end. The filling arrangement can be designed to receive material and to carry it into the silo tube. th, wherein the silo tube from the first end to the second end and parallel to the longitudinal axis has at least two separate channels.

In another example of a vibrator arrangement, the vibrator arrangement comprises a silo tube having a longitudinal axis and a first end and a second end. In addition, the Rüttleranordnung may have a Rüttler unit, which is mechanically coupled to the silo tube and a filling arrangement, which opens at the first end in the Silorohr and is adapted to receive material and to conduct into the Silorohr. Furthermore, the vibrator arrangement can have a supply unit which is designed to convey material into the filling arrangement of the vibrator arrangement, wherein the supply unit is arranged at least in such a way on the silo tube or on the filling arrangement that it can move parallel to the longitudinal axis of the silo tube.

An exemplary method for operating a Rüttleranordnung according to any one of claims 17 to 35 comprises the following steps: placing the silo tube on a substrate, producing a borehole by cyclically moving up and down the silo tube at least on the ground or in the borehole and supplying the Silo tube through the supply unit with material for the breakdown of the borehole, wherein the movements of the supply unit along the silo tube are controlled independently of the movements of the silo tube.

The invention will be explained in more detail with reference to the examples shown in the figures. The illustrations are not necessarily to scale and the invention is not limited to the illustrated examples and aspects. Rather, emphasis is placed on representing the principles underlying the invention.

FIG. 1 shows a sectional view of an exemplary vibrator arrangement;

Figure 2 is a perspective view of an exemplary four channel vibrator assembly; Figure 3 is a perspective view of the exemplary vibrator assembly in Figure 2;

Figure 4 is a sectional view of the exemplary vibrator assembly in Figures 2 and 3;

Figure 5 is a sectional view of an exemplary vibrator arrangement with a channel;

Figure 6 is a sectional view of an exemplary vibrator arrangement with two channels;

Figure 7 is a perspective view of an exemplary vibrator assembly;

Figure 8 is a perspective detail view of an upper part of an exemplary vibrator assembly;

FIG. 9 shows a sectional view of an exemplary vibrator arrangement;

FIG. 10 shows a further sectional illustration of the exemplary vibrator arrangement in FIG. 9;

FIG. 11 shows a perspective view of an exemplary supply unit;

FIG. 12 shows a plan view of an exemplary vibrator arrangement with a supply unit;

Figure 13 shows an upper part of another exemplary vibrator arrangement; Figure 14 is a perspective view of an exemplary hopper;

Figure 15 shows another perspective view of the exemplary

Pouring funnel in Figure 14;

FIG. 16 is a sectional view of an exemplary vibrator assembly having a hopper;

FIG. 17 shows a detailed view of a valve of the pouring funnel in FIG

16;

FIG. 18 shows a detailed view of another exemplary valve of the invention

Pouring funnel in Figure 16;

Figure 19 shows a hopper with struts on a Rüttleranordnung;

FIG. 20 shows a detail view of the pouring funnel in FIG. 19 with a

Guiding device;

FIG. 21 shows exemplary methods for filling the vibrator arrangement with material.

In the figures, like reference numerals designate the same or similar components with the same or similar meaning or function.

FIG. 1 shows two sectional views of an exemplary vibrator arrangement. The vibrator assembly may include a silo tube 110 having a longitudinal axis 101 and a first end 111 and a second end 112. The silo tube 110 and a filling arrangement 150 can be rotationally symmetrical with respect to the longitudinal axis 101. The silo tube 110 is that part of the vibrator assembly that is configured to operate during operation of the vibrator nanotube. at least partially into the soil. At the first end 111 of the silo tube 110, the filling arrangement 150 may be arranged, which opens into the first end 111 of the silo tube 110 and which may be adapted to receive material and to guide it into the silo tube 110. The filling arrangement 150 and the silo tube 110 can have different cross-sectional shapes and cross-sectional sizes in each case in a cross-sectional plane. The cross-sectional planes can run perpendicular to the longitudinal axis 101 of the silver tube 110. The material may be, for example, scree, sand, gravel or a mixture thereof.

The silo tube 110 may be divided into at least two channels 121 and 122 from the first end 111 to the second end 112 and parallel to and / or along the longitudinal axis 101 of the silo tube 110. FIG. 1 shows two such channels. The channels 121 and 122 may be separated from one another, for example, by a bridge 131. The channels 121 and 122 may also be gas-tightly separated from one another and may have at least approximately equal surface areas in a cross-sectional plane which is perpendicular to the longitudinal axis 101 of the silver tube 110.

The filling arrangement 150, which opens into the first end 111 of the silo tube 110 may have one or more chambers. In the example shown, the filling arrangement 150 has two chambers 151 and 152. The number of chambers may be selected depending on the number of channels in the silo tube 110. In the example shown, the chambers 151 and 152 are separated from each other gas-tight. In each case a chamber 151 or 152 of the filling arrangement 150 can be connected to a respective channel 121 or 122 of the silo tube 110. Via the chambers 151 and 152 of the filling arrangement 150, material can be conducted into the channels 121 and 122 of the silo tube 110. The chambers 151 and 152 may be configured to receive and deliver a predetermined amount of material into the channels 121 and 122 of the silver tube 110. The chambers 151 and 152 may include one or more funnels 153 facilitating the filling of the chambers 151 and 152.

In the example of Figure 1, each of the chambers 151 and 152 of the filling assembly 150 both by a respective first valve 154 and 155 and by a respective second valve 156 and 157 are opened or closed. In each case the first valves 154 and 155 form with each second valves 156 and 157 a gas-tight lock. You can seal the silo tube 110 and the chambers 151 and 152 from the outside environment gas-tight. By alternately opening and closing the first valves 154 and 155 and the second valves 156 and 157, as already known from pressure locks, it is possible to fill the filling assembly 150 with material and at the same time to prevent gas out of the silo tube 110 in an uncontrolled manner or flows into the silo tube 110. The gas may be, for example, compressed air or a pressurized gas mixture.

The Rüttleranordnung may include a Rüttlereinheit 140, which may be disposed at the second end 112 and optionally also partially inside the silo tube 110 and / or may be mechanically coupled thereto. The vibrator unit 140 can generate mechanical vibrations that propagate mainly in the transverse direction of the silo tube 110. The vibrator unit 140 can penetrate into the soil in advance with the vibrator unit 140 during operation. The channels 121 and 122 of the silo tube 110 may be disposed axially of the longitudinal axis 101 around the vibrator unit 140. In the left-hand illustration of FIG. 1, the valves 154 and 155 are opened and material can flow out of the funnel 153 into the chambers 151 and 152. The valves 156 and 157 are closed. In the right-hand illustration of FIG. 1, the valves 156 and 157 are opened and material from the chambers 151 and 152 can flow into the silo tube 110, in particular into the channels 121 and 122. The valves 154 and 155 are closed. The channels 121 and 122 may be designed such that they fit as closely as possible to an outer contour of the Rüttlereinheit 140 or nestle.

Figures 2 and 3 show perspective views of the silver tube 110 in another example. The silo tube 110 may include one or more channels 121, 122, 123, and 124 (four channels shown in the figures) and may have one or more supply channels that are parallel to the longitudinal axis 101 and partially internal to the silo tube 110. In the illustrated example, the silo tube 110 has four supply channels. In Figure 3, two out of four supply channels 125 and 126 can be seen. The supply channels 125 and 126 can be gas-tight in the silo tube 110 and For example, via a web 131 or a pipe from the channels 121, 122, 123 and 124 of the Silo tube 110 may be separated. In the interior of the supply channels 125 and 126, lines such as compressed air lines, electric lines, hydraulic lines, data lines or water lines can be arranged. For example, the vibrator unit 140 can be supplied with electrical voltage via an electric line leading from the first end 111 of the silo tube 110 through the supply channels to the vibrator unit 140. In one example of the vibrator assembly, water may be directed to the second end 112 of the silo tube 110 through the supply channels 125 and 126 or through a water line located in the supply channels 125 and 126. The vibrator assembly may also include separate compressors for each channel 121, 122, 123 and 124 of the silo tube 110 for generating compressed air. The supply channels may be arranged around the vibrator unit 140 and evenly distributed.

The supply channels 125 and 126 or the lines in the supply channels 125 and 126 may open in the region of the Rüttlereinheit 140 in at least one of the channels 121, 122, 123 and 124 of the Silo tube 110. Alternatively, the supply channels 125 and 126 or the lines in the supply channels 125 and 127 may open into at least one of the channels 121, 122, 123 and 124 of the silo tube 110 also in the area of the first end 111 of the silo tube 110. Furthermore, it is possible that at least a part of the supply channels 125 and 126 or the lines in the supply channels 125 and 126 at the second end 112 of the silo tube 110 lead out of this. In addition, the supply channels 125 and 126 or the lines in the supply channels 125 and 126 at several points in the channels 121, 122, 123 and 124 of the Silo tube 110 open.

FIG. 4 shows a sectional view of the silver tube 110. It can be seen from FIG. 4 that the silo tube 110 has four channels 121, 122, 123 and 124. The channels 121, 122, 123, and 124 of the silver tube 110 may be passed around the vibrator unit 140 and enclose the vibrator unit 140. The supply channels 125 and 126 may also be disposed around the vibrator unit 140. Via a supply channel 127, the Rüttlereinheit 140 with electrical Be supplied with electricity. Compressed air in the region of a plane 160 is introduced into the channel 121 via the supply channel 125. In addition, in the region of a plane 161, which is arranged perpendicular to the longitudinal axis 101 of the silo tube 110, compressed air can be introduced into the channel 121. The silo tube 110 according to FIG. 4 can have a circular cross-section in a plane which is oriented perpendicular to the longitudinal axis 101. The circular arrangement makes it possible to accommodate a plurality of supply channels in the silo tube 110. In the illustrated example, these are the supply channels 125, 126, 127, 128, 129, 171, 172, 173 and 174. Via the supply channels 125, 126, 127, 128, 129, 171, 172, 173 and 174, for example, water in the Borehole be routed.

Figure 5 shows a sectional view of an exemplary silo tube 110 with only one channel 121 and two supply channels 125 and 126. About the supply channel 126, the Rüttlereinheit 140 can be supplied with electric current. Compressed air in the region of a plane 160 is introduced into the channel 121 via the supply channel 125. In addition, in the region of a plane 161, which is arranged perpendicular to the longitudinal axis 101 of the silo tube 110, compressed air can be introduced into the channel 121. It is possible to select between a compressed air supply in the region of the plane 160 and a compressed air supply in the region of the plane 161 and to control them independently.

Figure 6 shows a sectional view of an exemplary silo tube 110 with two channels 123 and 124 and two supply channels 125 and 126. About the supply channel 127, the Rüttlereinheit 140 can be supplied with electric current. Compressed air in the region of the plane 160 and / or in the plane 161 in each case one of the channels 123 and 124 can be introduced via the supply channels 125 and 126. The channels 123 and 124 are separated from each other gas-tight and can be supplied by a separate compressor and independently with compressed air. This can ensure that both channels 123 and 124 can be supplied with the same pressure and the same volume flow of compressed air. Clogging of a single channel can thereby be reliably prevented. The pressure and the volume flow of the compressed air can in both channels 123 and 124 be different. Alternatively, the compressed air supply to the two channels via a common compressor. In this case, a valve can be used that distributes the pressure and the volume flow of the compressed air to both channels, in particular evenly. It is to be prevented that substantially more compressed air escapes through one of the two channels 123 or 124 than via the other channel 123 or 124.

The vibrator arrangement described in connection with FIGS. 1-6 can be used for producing stuffing columns. For this purpose, the vibrator assembly with the filling assembly 150 can be hung on a crane or other lifting device (not shown). Subsequently, the vibrator assembly can be transported with the crane to the desired position of Stopfsäule. The vibrator unit 140 can be turned on and the second end 112 of the silo tube 110 can be brought into contact with the soil. Under the influence of the intrinsic weight of the vibrator assembly and the vibrations generated by the vibrator unit 140, the silo tube 110 of the vibrator assembly penetrates into the soil to a predefined depth, thereby creating a wellbore (not shown). During the penetration of the silo tube 110 into the ground, water can be blown out at the second end 112 of the silo tube 110. By doing so, the second end 112 of the silo tube 110 is cooled and the well is kept clear. The water can also flow between the silo tube 110 and the soil and from the second end 112 of the silo tube 110 in the direction of the earth's surface. As a result, the friction between the silo tube 110 and the soil can be reduced.

Once the silo tube 110 has penetrated into the pre-filled depth into the soil, the crane can lift the vibrator assembly a predefined distance from the wellbore and direct material from the channels 121 and 122 of the silo tube 110 into the wellbore. The material can be delivered under the action of gas, in particular compressed air from the channels 121 and 122. In one example, compressed air is introduced into the channels 121 and 122 in the region of the first end 112 of the silo tube 110 via one or more upper compressed air supply lines. The number of upper compressed air supply lines may vary depending on the number of channels 121 and 122 in the Silo tube 110 can be selected. In the interior of the channels 121 and 122, this results in an overpressure, which causes the material in the channels 121 and 122 is pressed into the borehole. At the same time the supply of compressed air into the channels 121 and 122 prevents penetration of soil and mud into the channels 121 and 122. In addition, in the region of the plane 160 located between the vibrator unit 140 and the first end of the silo tube 110, one or more lower compressed air supply lines (not shown) may open into the channels 121 and 122 of the silo tube 110 and compressed air at least partially into the channels 121 and 122 or via the channels 121 and 122 out of the second end 112 of the Silo tube 110 out. The plane 160 may be arranged perpendicular to the longitudinal axis 101. The number of lower compressed air supply lines can be selected depending on the number of channels 121 and 122 in the silo tube 110. The conduit or the supply channel 125 or 126, which introduces compressed air into the channels 121 and 122 in the area of the second end 112 of the silo tube 110, can also be referred to as an injection line.

The use of an injection line has the effect that the material from the channels 121 and 122 is entrained by the air flow and wedging of the material parts due to dilatancy can be avoided or mitigated. Dilatancy is understood to mean an increase in the volume and thus an increase in the viscosity of a granulate, such as material. The dilatancy occurs in dense granular material, which is subject to high shear forces. This is the case insofar as the material is blown out of the channels 121 and 122 only via the upper compressed air supply. As a result, there is a blockage of the channels 121 and 122 in the region of the second end 112 of the silo tube 110. By the additional use of the injection line, an unhindered discharge of the material from the channels 121 and 122 can be ensured in the borehole. The pressure and volume flow introduced into the channels 121 and 122 via the injection line can be controlled. Depending on the nature of the material, the pressure and the volume flow in the injection line (lower compressed air supply) can be regulated. In addition, the pressure and the volume flow of the upper compressed air supply can be regulated. By supplying compressed air via the upper compressed air supply and / or the lower Compressed air supply can form a material-air mixture in the silo tube 110. By the lower compressed air supply, the proportion of air in the material-air mixture can be increased. As a result, there is a loosening of the material-air mixture, whereby its viscosity decreases and the material-air mixture can be easily discharged from the silo tube 110.

After the material has been introduced into the borehole, the vibrator assembly is again introduced into the borehole at a predefined distance and the introduced material is thereby clogged and compacted laterally into the soil. The described process steps can be repeated until the stuffing column is finished in the desired diameter.

FIG. 7 shows a perspective view of a vibrator arrangement according to another example. This vibrator assembly includes a silo tube 510, a fill assembly 550 for loading the silo tube 510 with material, and a supply unit 520 for feeding material into the fill assembly 550. The material may be, for example, gravel, sand, gravel, or a mixture thereof. The silo tube 510 has a longitudinal axis 501 and a first end 511 and a second end 512. The silo tube 510 and the filling arrangement 550 of the vibrator arrangement can be rotationally symmetrical with respect to the longitudinal axis 501. The filling assembly 550 opens at the first end 511 into the silo tube 510 and can receive material and lead into the silo tube 510. The supply unit 520 can convey and fill material to the filling arrangement 550 of the silo tube 510. For this purpose, the supply unit 520 can be arranged at least in such a way on the silo tube 510 or on the filling arrangement 550 that the supply unit 520 can move parallel to the longitudinal axis 501 of the silo tube 510. The vibrator assembly may include a vibrator unit 540 which may be mounted in the region of the second end 517 and inside the silo tube 510.

The silo tube 510 may have at least two channels 513, 514, as explained with reference to FIGS. 1-6. This is just one example. The silo tube 510 may also be configured to have only one or more channels. The vibrator assembly may include a support frame 560 disposed on one side of the fill assembly 550 that faces away from the first side of the silo tube 510. About the support frame 560, the vibrator assembly can be hung on a crane. The support frame 560 may be constructed as a lattice tube frame and may include one or more winches 530 and 531. The winches 530 and 531 may be fixed in position and orientation to the support frame 560 on the support frame 560 and have ropes 532 and 533 attached at one end to the respective winch 530 and 531 and at another end to the supply unit 520.

In the example of Figure 7, the vibrator arrangement two winches 530 and 531 with the ropes 532 and 533. The ropes 532 and 533 may each be passed over a pulley 534 (another pulley attached to the winch 531 on the support frame 560 is not shown) attached to the support frame 560. In addition, the cables 532 and 533 can be guided via further deflection rollers 535, 536, 538 and 539, which are fastened to the supply unit 520. The support frame 560 and the supply unit 520 may each have a cross section perpendicular to the longitudinal axis 501 of the silver tube 510. The cross sections of the support frame 560 and the supply unit 520 may be of rectangular shape. For a stable as possible, in particular with respect to the longitudinal axis 501 torsionally stable guidance of the supply unit 520 on the silo tube 510 and the filling 530, the pulleys 534, 535, 536, 538, 539 and the further pulley as far away from the longitudinal axis 501 of the silo tube on the support frame 560 and be arranged on the supply unit 520.

The ropes 532 and 533 can be wound or unwound by the winches 530 and 531. Provided that the silo tube 510 is approximately perpendicular to the ground, the supply unit 520 can move away from the support frame 560 along the longitudinal axis 501 of the silo tube 510 as the ropes 532 and 533 unwind from the winches 530 and 531. When winding up, the reverse applies. As an alternative to the cable winch concept described, the vibrator arrangement can also have three or more cable winches. In one example, the vibrator arrangement Have four winches, whereby a tilting of the supply unit 520 can be ensured without the use of pulleys. The four cables of the four cable winches can be mechanically connected at the points directly to the supply unit 520, to which in the previous example the deflection rollers 535, 536, 538 and 539 are mounted.

In one example of the vibrator assembly, the silo tube 510 of the vibrator assembly may be replaced with the silo tube 110 described in connection with FIGS. 1-6. The Rüttleranordnung can be suspended via a pulley 570 on a crane or an excavator. The pulley 570 may also be referred to as a roller head.

FIG. 8 shows an exemplary vibrator arrangement in a perspective view. It can be seen from FIG. 8 that the supply unit 520 can be a lattice frame in which one or more material containers 521 or 522 are arranged. The supply unit 520 may surround the filling arrangement 550 of the vibrator arrangement and be arranged thereon. The supply unit 520 may have guide elements 523 which abut against an outer side of the filling arrangement 550 and guide the supply unit 520 to the filling arrangement 550. The filling arrangement 550 and the silo tube 510 can have different cross-sectional areas and cross-sectional shapes perpendicular to the longitudinal axis 501 of the silo tube 510. For example, the silo tube 510 may have a circular cross section and the fill assembly 550 may have an elliptical shape.

The guide elements 523 can be designed so that they can adapt to the different cross-sections and the supply unit 520 can lead to both the filling arrangement 550 and the silo tube 510. For example, the guide elements 523 may be rollers or runners, which are pressed by a spring perpendicular to the longitudinal axis 501 of the silo tube 510 against the filling arrangement 550 or the silo tube 510. In one example of the vibrator arrangement, the guide elements 523 can also be embodied such that the supply unit 520 can not rotate about the longitudinal axis 501 of the silo tube 510. For example, NEN the guide elements 523 have a rail system. It is also possible for both the silo tube 501 and the supply unit 520 to be arranged and guided on a broker (not shown).

In Figures 9 and 10, the supply unit 520 is shown in section. During operation of the vibrator arrangement, the longitudinal axis 501 can be parallel to an effective direction of gravity and / or thus approximately perpendicular to the earth's surface. The two material containers 521 and 522 may be arranged on opposite sides of the silo tube 510 relative to the longitudinal axis 501 of the silo tube 510. Furthermore, it can be achieved by the design of the two material containers 521 and 522 that the material added to them in its weight distribution is also approximately equal parts by weight to the left and right of the longitudinal axis 501. By virtue of this symmetrical arrangement relative to the weight, the weight of the supply unit 520 can be balanced so that the center of gravity of the supply unit 520 lies on the longitudinal axis 501 of the silo tube 510 during operation of the vibrator arrangement and also moves along this longitudinal axis 501, both in the filled state and in the filled state in the empty state of the material containers 521 and 522. The supply unit 520 thereby transmits no bending moment on the silo tube 510 or on the filling arrangement 550, which would lead to an at least undesirable but often also impermissible deviation from the verticality in the production of material pillars. The design can also ensure that the orientation of the longitudinal axis 501 with respect to the earth's surface does not change regardless of a loading state of the material containers 521 and 522. The material containers 521 and 522 can also be replaced by a material container (not shown) designed as an integral component. The comments on the material containers 521 and 522 apply equally to the material container as an integral component, which can also be referred to as a hopper.

It can also be seen from FIGS. 9 and 10 that the material containers 521 and 522 taper in the direction of the silo tube 510 and can open into the filling arrangement 550. In the filling arrangement 550, a tube piece 551 and 553 is arranged for each material container 521 and 522 such that the material from the material container 521 and 522 flows at least into the filling arrangement 550 or into the silo tube 510. tet. On the sides of the pipe sections 551 and 553, which face the silo tube 510, a material valve 552 or 554 can be arranged in each case, which releases or blocks the inflow of material into the silo tube 510. The material in the material containers 521 and 522 may be emptied into the fill assembly 550 via closures opening into the tube pieces 551 and 553. The closures can be, for example, flap closures, conical closures or slide closures. The closures can be both active and passive components.

Figures 11 and 12 show an exemplary vibrator arrangement in a perspective view and in a plan view. In the illustrated example, the silo tube 510 has two channels 521 and 522 extending along the longitudinal axis 501 of the silver tube 510 and separated by a ridge 561. In the web 561 and between the two channels 521 and 522, a supply channel 525 may be arranged, which can accommodate, for example, compressed air lines, water pipes, hydraulic lines or electric lines. The supply channel 525 may also be a water line per se, which conducts water to the second end 512 of the silo tube 510.

In the exemplary vibrator arrangement in FIG. 12, it can be seen that the two pipe sections 551 and 553 are arranged offset relative to one another in the silo tube 510. This arrangement has the effect that the tube pieces 551 and 553 can continue to protrude into the interior of the silo tube 510, thereby facilitating the filling of the silo tube 510 with material from the material containers 521 and 522.

During operation of the vibrator arrangement, the silo tube 510 of the vibrator arrangement can at least partially penetrate into the soil. During the subsequent production of a stuffing column, material is introduced via the silo tube 510 into a borehole (not shown) formed by the silo tube 510. For this purpose, the supply unit 520 is drained from the cable winches 530 and 531 along the silver tube 510 to the surface of the soil. The ropes 532 and 533, while the supply unit 520 is grounded, are held taut by the winches 530 and 531 by a slight bias. As long as the supply unit 520 is located on the ground or in the vicinity of the soil, the material containers 521 and 522 can be filled, for example by a wheel loader with material. In one example of the vibrator arrangement, the hopper 610 may be configured such that it can be loaded completely and without restriction only from one side of the material container. The same also applies to an exemplary supply unit 520 with two or more material containers 521 and 522. In these cases, the material containers 521 and 522 can be designed and mechanically coupled to one another such that all material containers 521 and 522 of the supply unit 520 start from one side of the supply unit 520 can be loaded. For example, the material containers 521 and 522 may be funnel-shaped for this purpose and connected to one another via a channel which conducts material from one to the other material container 521 and 522.

After the material containers 521 and 522 have been loaded, they can be pulled by the cable winches 530 and 531 along the silver tube 510 in the direction of the first end 511 of the silo tube 510 to the filling arrangement 550. The winches 530 and 531 pull the supply unit 520 exactly to the filling arrangement 550 so that the material containers 521 and 522 can be emptied into the filling arrangement 550 via the closures. Via the valves 552 and 554, the material is then at least partially directed into the filling arrangement 550 or into the silo tube 510. After the material from the material containers 521 and 522 has been at least partially directed into the filling assembly 550 or into the silo tube 510, the supply unit 520 can be moved back to the ground by the winches 530 and 531. There, the material containers 521 and 522 can be refilled and conveyed to the filling arrangement 550 of the vibrator arrangement. By mounted on the Rüttleranordnung winches 530 and 531, the vibrator assembly, regardless of filling the material containers 521 and 522 further penetrate into the ground, expire the well or compact the material in the well. This process can be repeated until the stuffing column is completely filled.

In one example of the vibrator assembly, driving the silo tube 510, controlling the winches 530 and 531 and the material valves 552 and 554 of FIG an at least partially automated controller (not shown) are taken over. In addition, it is possible that the process of backfilling the borehole and loading the silo tube 510 with material can be accomplished simultaneously by the crane operator without any coordination effort. It is thereby possible to convey larger amounts of material per unit of time into the silo tube 510 than would be possible without such control. In addition, it is possible that the processes of backfilling the borehole and loading the silo tube 510 with material may occur simultaneously.

As an alternative to the cable winches 530 and 531, the supply unit 520 can also be moved by a further winch along the silo tube 510. This alternative may also be referred to as a riding procedure of the supply unit 520. For a rotationally secure attachment and / or the cable guide when using the other winch, the vibrator assembly can be attached via a twin head on the crane and electronically controlled. The electronic control can be designed, for example, to compensate for movement of the silo tube 510 into or out of the borehole through the further cable winch. A driver of the crane can completely control the jogging arrangement via simple commands. A manual and separate control of vibrator, crane and supply unit can be omitted.

For example, the supply unit 520 can be controlled via the further cable winch such that the supply unit 520 does not move or moves only in a predefined manner relative to the silo tube 510. The movements of the silver tube 510 may be synchronized with the movements of the supply unit 520. In this alternative, the weight of the supply unit 520 is absorbed by the further winch. The supply unit 520 can be transferred to at least the silo tube 510 or the filling assembly 550 in this alternative, only a very little to no bending moment. The center of gravity of the supply unit 520 can therefore also lie outside the longitudinal axis 501 and move outside the longitudinal axis 501 without causing a noteworthy bending moment on the silo tube 510 or filling arrangement 550. FIG. 13 shows an upper side of an exemplary vibrator arrangement, which has the deflection roller 570 and four winches 571, 572, 573 and 574. Via the deflection roller 570, the vibrator arrangement can be suspended on a crane or an excavator. The vibrator arrangements illustrated in FIGS. 7 to 12 each have two cable winches 530 and 531 with which, for example, the supply unit 520 is moved along the silver tube. In contrast, the exemplary vibrator arrangement in FIG. 13 additionally has two further winches. The illustrated cable winches 571, 572, 573 and 574 are used to move the supply unit 520. The cables of the cable winches 571, 572, 573 and 574 may be attached to the four outermost corners of the supply unit 520 so as to minimize the rotation of the supply unit about the longitudinal axis (not shown in Fig. 13). A synchronous winding or unwinding of the cable winches 571, 572, 573 and 574 moves the supply unit 520 along the silo tube.

FIG. 14 shows a perspective view of an exemplary hopper 610. The hopper 610 may include one or more material pits 621 and 622 and one or more guide rails 631. By means of the guide rails, the hopper 610 can be guided at least on the silo tube 510 or on the filling arrangement 550.

The two material pits 621 and 622 can be arranged parallel to one another and with a predefined distance from one another and can be surface-symmetrical with respect to a predefined plane. Each of the material pits 621 and 622 may have a first side surface, wherein the two first side surfaces are really parallel to each other and also parallel to the predefined plane. The two material pits 621 and 622 may be mechanically connected via a drain plate 611 to a U-shaped, in particular horseshoe-shaped hopper 610. For this purpose, the flow plate 611 connects the two first ends of the material pits 621 and 622. A U-shaped hopper 610 can be understood to be at least the silo tube 510 when installed and moving along at least the silo tube 510 or the fill assembly 550 or the filling arrangement 550 U-shaped surrounds. For example, the U-shaped hopper 610 may be the silo tube 510 or enclose the filling assembly 550 at an angle of 160 ° to 300 °, an angle of 160 ° to 200 ° or an angle of about 180 °. The same applies to a horseshoe-shaped hopper.

The drainage plate 611 may be in the form of a two-sided ramp. In each case one side of the two-sided ramp drops in the direction of one of the material pits 621 and 622, so that material is distributed to the two material pits 621 and 622 during filling in the region of the drainage plate 611. The highest point of the two-sided ramp may lie in the predefined plane and thereby be arranged simultaneously parallel to the two side surfaces.

The hopper 610 may also be housed in the supply unit 520 or be hinged directly by the winches 530 and 531. The hopper 610 can be articulated and moved via the winches 530 and 531 in the same way as has already been described in connection with the supply unit 520. For example, the hopper 610 may be suspended by pulleys at at least four of its outer corners and moved along the shaker assembly by winches 530 and 531. The material pits 621 and 622 are arranged such that they are arranged on the vibrator arrangement on opposite sides of at least the silo tube 510 or the filling arrangement 550 in the mounted state of the funnel 610.

The drain plate 611 can be used to facilitate filling of the hopper 610. The flow sheet 611 may be designed so that a uniform filling of the hopper 610 is promoted and the material when filling into the hopper 610 evenly distributed to both material pits 621 and 622. In addition, the geometric shape of the material pits 621 and 622 may be designed such that the material deposits to a great extent such that its center of gravity lies approximately in the axis 501.

FIG. 15 shows the pouring funnel 610 in a further perspective view. Each of the material pits 621 and 622 may include one or more closures 641 and 642. In the example shown, the two closures 641 and 642 Flap closures, wherein the closure 641 is shown in the open state. In addition, other types of closure, such as cones or slide closures can be provided. The closures may be active or passive components and may also be referred to as valves.

In one example, the shutters 641 and 642 may be spring-loaded shutters, in particular flapper valves. These can be designed so that they are already biased in the closed state in the opening direction. These springs can be used, which are clamped when closing the closures 641 and 642. After the hopper 610 has reached a predefined position in the region of the filling assembly 550, the shutters 641 and 642 can be unlocked via a suitable unlocking mechanism. Due to the force of the springs, the shutters 641 and 642 open automatically and the material can flow out of the hopper 610 and into the filling assembly 550. If the hopper 610 again leaves its predefined position in the region of the filling arrangement 550, the closures 641 and 642 can be closed again automatically by means of a suitable mechanical device and under tensioning of the springs.

FIG. 16 shows a sectional view of a vibrator arrangement with a silo tube 651 and a longitudinal axis 650 of the silo tube 651. A filling arrangement 652 is arranged on the silo tube 651 on a first side of the silo tube 651. The filling arrangement 652 runs parallel to the longitudinal axis 650. The vibrator arrangement can also be one of the vibrator arrangements otherwise described.

In the example shown, a hopper 653 is located in a predefined position on the filling arrangement 652, in which material from the hopper 653 can flow into the filling arrangement 652. This position can be called a filling position. The hopper 653 may be the hopper 610 already described. The material can independently flow into or from the feed hopper 652 via at least one valve 660 from the hopper 653, whereby the valve 660 can be a slide valve with a slide plate 662. The valve 660 may also be or may be referred to as a guillotine valve. the principle of operation of the valve is similar to that of a guillotine. It may be attached to the filler assembly 652 or to the hopper 653. If the valve 660 is attached to the hopper 653, so it moves in operation with this parallel to the longitudinal axis 650th

FIG. 17 shows a detail view of the valve 660. The illustration shows the valve 660 in the filling position of the hopper 653. The valve 660 is therefore shown in the open state and material can flow from the hopper 653 into the filling arrangement 652. The valve 660 may be biased in the closed state by the action of a spring 663 in the closing direction. In the example shown, the closing direction runs parallel to the longitudinal axis 650 and away from the first end of the silver tube 651. The spring 663 may be connected at a first end to the slide plate 662 and at a second end to the hopper 653. The spring 663 may be mounted with its second end to the hopper 653. The bias by the spring 663 allows reliable closing of the valve 660, provided that the hopper 653 is not at the predefined filling position but is moved along the vibrator assembly, for example. If the hopper 653 moves from the silo tube 651 in the direction of the filling position, a side of the slide plate 662 opposite the spring 663 is the first to abut on a stop point 664 on the filling arrangement 652. If the hopper 653 then moves further in the direction of the filling position, the slide plate 662 is pressed against the force of the spring 663. As a result, an opening 665 in the slide plate 662 also moves against the force of the spring 663 and opens a passage for material from the hopper 653 in the Einfüllanordnung 652. If the hopper 653 moves away from the predefined filling position so causes the force of the spring an automatic Close the passage. This is accomplished by moving the opening 665 to its home position and preventing the gate 662 from leaking material from the hopper 653. According to an example shown in FIG. 18, the slide plate 662 can also be moved via a linear drive 666. The linear drive 666 may be a hydraulic, an electric or a pneumatic linear drive. An emptying of the material in the hopper 653 in the filling assembly 652 is done mechanically and automatically by moving the hopper 653 in the predefined filling position. The valves 660 and 661 may be identical in construction and function to identical valves and disposed on opposite sides of the filler assembly 652. FIG. 19 illustrates an exemplary supply unit 700 with a silo tube 701 and a hopper 710. The hopper 710 is guided via a guide system 720 to the silo tube 701 and connected via cables 711 and 712 to at least one winch (not shown). By means of the cables 711 and 712, the hopper 710 can be moved along the silo tube 701. When moving the hopper 710, the guide system 720 may prevent tilting of the hopper 710 relative to the silo tube 701.

The hopper 710 and the guide system 720 may also be connected to a frame 730. At the side facing away from the hopper 710 side of the frame 730 may be mounted at least one strut. In the illustrated example, four struts 740, 741, 742 and 743 are shown, which are directed to the earth's surface or to the substrate to be processed. When the hopper 710 is moved along the tube 701, if it has to be refilled, it is placed on the surface to be processed. The spring struts 740, 741, 742 and 743 are intended to cushion a placement on the substrate to be processed and thus protect the entire vibrator arrangement and in particular the hopper 710 from damage. The struts 740, 741, 742 and 743 may be spring damper legs in addition to pure struts, whereby an additionally induced by the placement vibration is damped.

FIG. 20 shows an enlarged sectional view of FIG. 19. The guide system 720 has two guide arms 721 and 722, each of which can be designed as a double scissor linkage. The two guide arms 721 and 722 are pressed against each other via springs, hydraulic linear drives or a gas pressure damper 723 and thus surround the silo tube 701 in each case on one side. Between the two guide arms 721 and 722 there is an opening 724, through which the silo tube 701 projects in the closed state of the guide arms 721 and 722. At each of the The silo tube 701 facing side of the guide arms 721 and 722, a guide roller 725 may be mounted in each case. By means of this guide roller 725, the guide arms 721 and 722 can roll along an outer side of the silo tube 701 during movement of the funnel 710. The guide arms 721 and 722 can thereby guide the pouring funnel 710 wear-resistant on the silo tube 701 or on a filling arrangement 550 attached to the silo tube 701.

FIG. 21 shows exemplary methods for filling the silo tubes of the described vibrator arrangements. FIGS. 21a to 21d show method steps of a first method variant. The vibrator arrangement shown has a silo tube 810 and a supply unit 820, wherein each of the silo tube 810 via a cable 811 and the supply unit 820 via a cable 821 separately connected to a crane or excavator and can be suspended from this. For this purpose, a winch may be provided on the crane or excavator both for the rope 811 and for the rope 821. The suspended silo tube 810 is then placed on a substrate 800 to be machined and then a hole 801 introduced into this. In FIGS. 21 a to 21 d, the silo tube 810 is constantly moved up and down via the cable 811, while the supply unit 820 thereof can be moved independently via the cable 821 relative to the silo tube 810. In FIG. 21 a, the supply unit 820 is drained in the direction of the substrate 800. If the supply unit 820 has reached the ground 800, then the movement of the cable 821 is stopped and the supply unit 820 stands alone on the ground 800 by its own weight. The supply unit 820 can be filled with new material. FIG. 21c shows how the supply unit 820 is again pulled upwards along the silver tube 810 and away from the substrate 800 after being filled via the cable 821. In FIG. 21d, the supply unit 820 has arrived at its predefined filling position on the silo tube 810 or on the filling arrangement attached thereto. The cable 821 is moved in such a way that the supply unit 820 moves synchronously with the silo tube 810. As a result, a synchronization between the silo tube 810 and the supply unit 820 is achieved, which permits a reliable transfer of the material from the supply unit 820 into the silo tube 810. Figures 21e to 21h show process steps of a second variant of the method. In this example, the silo tube 810 is suspended by a rope 811 on an excavator or a crane. The silo tube 810 also has a support frame 830 that is mechanically connected to the silo tube 810. On the support frame 830, the supply unit 820 is attached via at least one cable 821. Via the cable 821, the supply unit 820 can be moved relative to the support frame 830 and thus also relative to the silo tube 810. For this purpose, at least one winch may be mounted on or in the support frame 830. In FIG. 21e, the supply unit 820 is lowered in the direction of the substrate 800, during which time the silver tube 810 is moved up and down via the cable 811. In FIG. 21f, the supply unit 820 stands on the ground 800 while the silo tube 810 is moved up and down. The ropes 821 of the supply unit 820 move countercyclically to the movement of the silo tube 810 during this process step. By this it can be understood that the ropes 821 are pulled up in the direction of the support frame 830 while the silo tube 810 moves in the direction of the subsurface 800. The same applies vice versa. When the silo tube 810 moves out of the borehole 801, the ropes 821 are unrolled from the support frame toward the ground. The winch on crane or excavator moves the rope 811 in this state always opposite to the direction of movement of the rope 821. In Figure 21g, the silo tube 810 continues to move up and down, whereas the supply unit 820 is raised via the ropes 821 away from the ground 800. In FIG. 21h, the supply unit 820 has arrived at its predefined filling position on the silo tube 810 or on the filling arrangement attached thereto. The movement of the rope 821 is stopped and the supply unit 820 then moves in synchronism with the silo tube 810. As a result, a synchronization between the silo tube 810 and the supply unit 820 is achieved, which permits a reliable transfer of the material from the supply unit 820 into the silo tube 810. Also during refilling, the silo tube 810 is moved up and down the wellbore.

Examples of the vibrator arrangements described are listed below.

Example 1. A vibrator assembly comprising: a silo tube having a longitudinal axis and a first end and a second end; a vibrator unit, the mechanical coupled to the silo tube, and a filling assembly opening into the silo tube at the first end and configured to receive and direct material into the silo tube, the silo tube having at least two separate channels from the first end to the second end and parallel to the longitudinal axis having.

Example 2. Rüttleranordnung according to Example 1, wherein the silo tube has at least two supply channels, which open into each one of the channels and are adapted to introduce compressed air into the channels.

Example 3. Rüttleranordnung according to Example 2, wherein the pressure and flow rate of the introduced compressed air for each channel can be controlled separately.

Example 4. A vibrator arrangement according to any one of Examples 1 to 3, wherein the silo tube has three or more channels.

Example 5. Vibrating arrangement according to one of Examples 1 to 4, wherein the at least two channels are separated from each other gas-tight.

Example 6. Jogger arrangement according to one of the preceding examples, wherein the channels are separated by one or more webs.

Example 7. Rüttleranordnung according to one of the preceding examples, wherein the filling arrangement has at least two chambers, each of which opens into one of the at least two channels.

Example 8. Vibrating arrangement according to Example 7, in which each of the at least two chambers has at least two valves.

Example 9. Vibrating arrangement according to one of the preceding examples, further comprising: at least one upper compressed air supply, which opens in the region of the first end of the silo tube in one of the at least two channels and is adapted to compressed air in the interior of the one channel conduct.

Example 10 Rattler arrangement according to Example 9, which has a number of channels corresponding number of upper compressed air supply, wherein each of the above Ren compressed air feeds in the region of the first end of the silo tube in each one of the at least two channels opens.

Example 11. Rüttleranordnung according to one of the preceding examples, further comprising: at least one lower compressed air supply, which opens in the region of a plane of the silo tube in one of the at least two channels and is adapted to direct compressed air into the interior of the one channel ,

Example 12. Rattler arrangement according to Example 11, which has a number of channels corresponding number of lower compressed air supply, each of the lower compressed air supply leads in the region of the second end of the silo tube in each one of the at least two channels.

Example 13. Vibrating arrangement according to one of the preceding examples, in which the silo tube has at least one supply channel which runs parallel to the longitudinal axis and inside the silo tube.

Example 14. Rüttleranordnung according to Example 13, wherein the at least one supply channel is adapted to receive at least one compressed air line or an electric line.

Example 15. Vibrating arrangement according to one of the preceding examples, wherein the Rüttlereinheit is attached to the second end of the Silo tube.

Example 16. A vibrating arrangement according to one of the preceding examples, wherein the at least two channels of the silo tube have at least approximately equal surface areas in a cross-sectional plane which is perpendicular to the longitudinal axis of the silo tube.

Example 17. A vibrator assembly comprising: a silo tube having a longitudinal axis and a first end and a second end; a vibrator unit mechanically coupled to the silo tube; a filling arrangement which opens into the silo tube at the first end and is designed to receive material and to guide material into the silo tube, and a supply unit which is designed to convey material into the filling arrangement; tion of the vibrator to promote, wherein the supply unit is arranged at least in such a way on the silo tube or on the filling that they can move parallel to the longitudinal axis of the silo tube.

Example 18. Rüttleranordnung according to Example 17, wherein the supply unit is arranged at least on the silo tube or on the filling arrangement, that moves the center of gravity of the supply unit along the longitudinal axis of the Silo tube.

Example 19. Rüttleranordnung according to Example 17 or 18, further comprising: guide elements that guide the supply unit, at least at the filling or on the silo tube.

Example 20. A vibrator arrangement according to one of the examples 17 or 19, wherein the supply unit has at least one material container which is adapted to receive material and deliver it into the filling arrangement.

Example 21. Vibrating arrangement according to Example 20, in which the at least one material container is a pouring funnel.

Example 22. Rüttleranordnung according to Example 21, in which the hopper has two each other surface symmetrical material pits, which are designed so that filled material evenly distributed on both material pits and the center of gravity of the supply unit coincides even in a filled state with the longitudinal axis.

Example 23. Vibrating arrangement according to Example 22, in which the material pits are connected to one another via a flow plate.

Example 24. Vibrating arrangement according to Example 23, in which the material pits together with the flow sheet form a U-shaped hopper.

Example 25. Vibrating arrangement according to one of examples 21 to 24, in which the hopper is designed to enclose the silo tube or the filling arrangement in a U-shaped or horseshoe-shaped manner. Example 26. Vibrating arrangement according to one of Examples 21 to 25, in which the hopper is mechanically connected via a frame with a strut and is adapted to absorb a placement of the supply unit on a substrate to be processed.

Example 27. Rüttleranordnung according to Example 26, wherein the strut additionally comprises a damper.

Example 28. Rüttleranordnung according to Example 27, wherein the supply unit comprises two guide arms, which surround the silo tube each half side and are adapted to lead the supply unit to the silo tube.

Example 29. Jogger arrangements according to Example 28, in which the two guide arms are scissors linkage with gas pressure dampers, which are designed to press the guide arms in the direction of the silo tube.

Example 30. Rüttleranordnung according to any one of Examples 17 to 29, wherein the material container has a closure, via which the material can be at least partially emptied into the filling or the Silorohr.

Example 31. Rüttleranordnung according to one of Examples 17 to 30, wherein the hopper has a closure, via which the material can be at least partially emptied into the filling or the Silorohr.

Example 32. Jogger assembly according to Example 29 or 31, in which the shutters are flapper valves or slide valves.

Example 33. Jogger arrangement according to one of Examples 29 to 32, in which the closures are biased in the closed state in the closing direction or in the opening direction by the action of force of a spring.

Example 34. Jogger arrangement according to one of examples 29 to 32, in which the closures are connected to a hydraulic, electric or pneumatic linear drive, which is designed to open and close the closures. Example 35. A vibrator assembly according to any one of Examples 17 to 34, comprising a support frame mechanically connected to the fill assembly and the support frame having at least one winch.

Example 36. Rüttleranordnung according to Example 35, wherein the supply unit is connected via the cable winch or the rope winch at least with the support frame or the filling.

Example 37. A method of operating a vibrator assembly according to any of Examples 17 to 36, comprising the steps of: placing the silo tube on a substrate; Producing a borehole by cyclically moving the silo tube up and down at least on the ground or in the borehole; Supplying the silo tube with material for decaying the borehole through the supply unit, whereby the movements of the supply unit along the silo tube are controlled independently of the movements of the silo tube.

Claims

A vibrator arrangement comprising

a silo tube (110) having a longitudinal axis (101) and a first end (111) and a second end (112);

a vibrator unit (140) mechanically coupled to the silo tube (110), and

a filling arrangement (150) which opens at the first end (111) into the silo tube (110) and is adapted to receive material and to lead into the silo tube (110), wherein

the silo tube (110) has at least two separate channels (121, 122) from the first end (111) to the second end (112) and parallel to the longitudinal axis (101).

2. vibrator arrangement according to claim 1, wherein the silo tube (110) at least two supply channels (125; 126) which open into each one of the channels (121; 122) and are adapted to compressed air in the channels (121; 122) initiate.

3. vibrator assembly according to claim 2, wherein the pressure and flow rate of the introduced compressed air for each channel (121; 122) can be controlled separately.

A vibrator arrangement according to any one of claims 1 to 3, wherein the silo tube (110) has three or more channels (121; 122; 123; 124).

5. vibrator arrangement according to one of claims 1 to 4, wherein the at least two channels (121; 122) are gas-tight separated from each other.

A vibrator arrangement according to any one of the preceding claims, wherein the channels (121; 122) are separated by one or more webs (131).

A vibrator arrangement according to any one of the preceding claims, wherein the filling arrangement (150) comprises at least two chambers (151; 152), each of which opens into one of the at least two channels (121; 122).

A vibrator assembly according to claim 7, wherein each of said at least two chambers (151; 152) comprises at least two valves (154; 155; 156; 157).

A vibrator arrangement according to any one of the preceding claims, further comprising:

at least one upper compressed air supply, which opens in the region of the first end (111) of the silo tube (110) in one of the at least two channels (121; 122) and is adapted to direct compressed air into the interior of the one channel (121; 122) ,

10. vibrator arrangement according to claim 9, which has a number of channels corresponding number of upper compressed air supply, each of the upper compressed air supply in the region of the first end (111) of the silo tube in each one of the at least two channels (121, 122) opens.

at least one lower compressed air supply, which opens in the region of a plane (160) of the silo tube (110) in one of the at least two channels (121; 122) and is adapted to direct compressed air into the interior of the one channel (121; 122).

12. Rüttleranordnung according to claim 11, which has a number of channels corresponding number of lower compressed air supply, each of the lower compressed air supply in the region of the second end (112) of the silo tube (110) in each case one of the at least two channels (121; empties.

A vibrator arrangement according to any one of the preceding claims, wherein the silo tube (110) has at least one supply channel (125; 126; 127; 128; 129; 171; 172; 173; 174) which runs parallel to the longitudinal axis (101) and inside the silo tube (110).

14. A vibrator arrangement according to claim 13, wherein the at least one supply channel (125; 126; 127; 128; 129; 171; 172; 173; 174) is designed to receive at least one compressed-air line or one electrical line.

A vibrator assembly according to any one of the preceding claims, wherein the vibrator unit is mounted on the second end (111) of the silo tube (110).

A vibrator assembly according to any one of the preceding claims, wherein the at least two channels (121; 122) of the silo tube (110) have at least approximately equal areas in a cross-sectional plane perpendicular to the longitudinal axis of the silo tube (110).

17. vibrator arrangement comprising:

a silo tube (510) having a longitudinal axis (501) and a first (511) end and a second end (512);

a vibrator unit (540) mechanically coupled to the silo tube (510); a fill assembly (550) opening into the silo tube (510) at the first end (511) and adapted to receive and direct material into the silo tube (510), and

a supply unit (520) adapted to convey material into the filling arrangement (550) of the vibrator arrangement, wherein

the supply unit (520) is arranged at least on the silo tube (510) or on the filling arrangement (550) so that it can move parallel to the longitudinal axis (501) of the silo tube (510).

18. shaker arrangement according to claim 17, wherein the supply unit (520) is arranged at least on the silo tube (510) or on the filling arrangement (550), the center of gravity of the supply unit (520) moves along the longitudinal axis (501) of the silo tube (510).

The vibrator arrangement according to claim 17 or 18, further comprising:

Guide elements (523), the supply unit (520) at least at the

Feed the filling assembly (550) or the silo tube (510).

A vibrator assembly according to any one of claims 17 or 19, wherein the supply unit (520) comprises at least one material container (521; 522) adapted to receive and discharge material into the filling assembly (550).

A vibrator assembly according to claim 20, wherein the at least one material container (521; 522) is a hopper (610; 653).

22. shaker arrangement according to claim 21, wherein the hopper (610; 653) has two material symmetrical to each other pits (621; 622), which are formed so that filled material evenly distributed on both material pits (621; 622) and the center of gravity of the Supply unit (520) also coincides in a filled state with the longitudinal axis (501).

23. A vibrator arrangement according to claim 22, wherein the material pits (621, 622) are connected to one another via a flow plate (611).

A vibrator arrangement according to claim 23, wherein the material pits (621; 622) together with the drain plate (611) form a U-shaped hopper (610; 653).

A vibrator assembly according to any of claims 21 to 24, wherein the hopper (610; 650) is adapted to enclose the silo tube (510) or the fill assembly (550) in a U-shape or horseshoe shape.

A vibrator arrangement according to any one of claims 21 to 25, wherein the hopper (610; 653) is mechanically connected to a strut (740; 741; 742; 743) via a frame (730) and adapted to seat the supply unit (520) to cushion on a substrate to be processed.

27. vibrator arrangement according to claim 26, wherein the supply unit (520) has two guide arms, which surround the silo tube each half-side and are adapted to lead the supply unit (520) on the silo tube.

28. A vibrator arrangement according to claim 27, wherein the two guide arms are scissors linkage with gas pressure dampers, which are adapted to press the guide arms in the direction of the silo tube.

A vibrator arrangement according to any one of claims 17 to 28, wherein the material container (521; 522) has a closure over which the material can be at least partially emptied into the filling assembly (550) or the silo tube (510).

A vibrator arrangement according to any one of claims 17 to 29, wherein the hopper (610; 653) has a closure over which the material may be at least partially emptied into the fill assembly (550) or the silo tube (510).

A vibrator assembly according to claim 29 or 30, wherein the shutters are flapper valves (641; 642) or spool valves (660; 661).

32. vibrator arrangement according to one of claims 29 to 31, wherein the closures in the closed state in the closing direction or in the opening direction by force of a spring (663) are biased.

A vibrator assembly according to any one of claims 29 to 31, wherein the shutters are connected to a hydraulic, electric or pneumatic linear actuator (666) adapted to open and close the shutters.

A vibrator assembly according to any one of claims 17 to 33 including a support frame (560) mechanically connected to the filling assembly (550) and the support frame (560) having at least one winch (530; 531).

35. A vibrator arrangement according to claim 34, wherein the supply unit (520) is connected to at least the support frame (560) or the filling arrangement (550) via the winch (530; 531).

36. A method for operating a vibrator arrangement according to one of claims 17 to 35, comprising the following steps:

Placing the silo tube (810) on a substrate (800);

Producing a wellbore by cyclically moving the silo tube (810) up and down at least on the subsurface (800) or in the wellbore;

Supplying the Silo tube (810) through the supply unit (520; 820) with material for collapse of the borehole, wherein

the movements of the supply unit (520, 820) along the silo tube (810) are controlled independently of the movements of the silo tube (810).