RU193984U1 - MULTIFUNCTIONAL Dismountable POWER SIMULATOR - Google Patents

Abstract

The multifunctional collapsible simulator belongs to the movable sports equipment and can be used to perform physical exercises on the horizontal bar, parallel bars both in the field and in physical education lessons. The simulator is made in the form of modules, each of which contains outdoor racks (1), inner racks (2), while the outer and inner racks are fastened respectively by the upper beams (5) and lower beams (4). A horizontal bar (3) is installed between the outer posts (1) of each module. The lower beams (4) at the junction with the outer strut (1) rest on the outer support (16), and the other end at the junction (node 10) with the inner strut (2) rest on the inner support (8). Between the outer posts (1) and the lower beams (4), stiffeners (6) are installed. In addition, the stiffeners (7) are installed between the inner struts (2) and the upper beams (5). The diametrically located inner struts (2) below and above are fastened with crosses, respectively (13), (14). At the same time, stiffeners (9) are also installed from below between the crosspiece (13) and the internal struts (2). Spacers (11) are installed between the upper beams of two adjacent modules. The outer racks of each module are perforated to install the horizontal bar (3) to different heights using fasteners (15). The beams of the crosses (13) and (14) at the intersection are interconnected using flanges. The technical result is to expand the functionality of the simulator and ensure its stability when athletes perform dynamic exercises. 5 cp f-ly, 9 ill.

Description

The utility model relates to relocatable sports equipment and can be used to perform physical exercises on the horizontal bar, parallel bars both in the field and in physical education lessons, for training and consolidating skills in performing exercises, increasing strength and static muscle endurance, strengthening the ligament-tendon apparatus, an increase in the range of motion of the spine and joints of the upper shoulder girdle, posture correction for athletes of any age, starting from 5 years and height (from 0.8 meters to 2 meters).

Known power frame (http://www.mfitness.ru), including front and rear vertical struts connected to the sides by upper and lower side beams and a rear lower beam connecting the rear vertical struts. At the same time, the rear vertical racks are equipped with a device for attaching to the wall. A horizontal bar is placed between two front vertical racks, and the front vertical racks are made with holes that enable the horizontal bar to be placed at different heights relative to the floor.

The disadvantage of this solution is the limited functionality in terms of performing exercises, as well as a limited number of people using the simulator at the same time i.e. only one person.

The closest technical solution to the claimed is a collapsible sports complex (RU, patent No. 177180, IPC: A63B 17/00, A63B 17/02, published 02/12/2018), containing a base, racks, crossbars, the base is formed of rectangular pipes pivotally connected to each other in the central part, one of which is made integral and parts of which are rigidly connected using flat metal ties. Racks are fixed on the base with fasteners and are made with supporting elements. Racks contain pads, some of which are designed to install the crossbars, and others - for the bars. The crossbars are fixed to the plates with threaded connections, and the bars are rigidly fixed to the plates with welding.

The disadvantage of this technical solution is the impossibility of simultaneously performing swing exercises by several athletes, which limits its use. In addition, the lack of diagonal connections does not provide a stable static state of the simulator when athletes perform dynamic and swing exercises, which negatively affects the quality of the exercises.

The technical problem to which the proposed utility model is aimed is to develop a simulator that allows several trainees to perform various types of exercises at the same time while maintaining the simulator's stability and ensuring safety for trainees.

The technical result consists in expanding the functionality of the simulator and ensuring its stability when athletes perform dynamic exercises.

To solve this problem, a multifunctional collapsible power simulator containing a base, racks, crossbars, stiffeners, according to a utility model, is made of modules, each of which contains external and internal racks, interconnected respectively by upper and lower beams installed on the supports, while between the upper beams and the inner pillars, as well as between the lower beams and the outer pillars, stiffeners are installed, and diametrically opposite connection nodes The upper beams with inner struts and, accordingly, the connection nodes of the lower beams with the inner struts are connected to each other by means of crosses, in addition, stiffeners are installed between the diametrically opposite inner pillars and the crosses connecting them, and between the upper beams spacers are installed in every two adjacent modules.

Wherein:

- holes for fasteners for installing additional sports equipment are made on the external racks along the entire height;

- bars are installed on the outer racks;

- stops for the rod are installed on the external racks of the modules;

- limiters for the bar are installed on the external racks of the module.

- the number of modules is at least four.

The essence of the claimed technical solution and the possibility of its practical implementation is illustrated by the description and drawings below.

Figure 1 presents a General view of the proposed multifunctional collapsible sports simulator.

In FIG. 2 shows the first stage of assembly of the simulator, in particular the flange connection of the internal supports with pins.

In FIG. 3. shows the second stage of assembly, in particular, the installation of the outer and inner racks on the respective supports.

In FIG. 4 shows the connection of the outer and inner struts with beams and crosses, respectively.

In FIG. 5 shows the installation locations of the stiffeners.

In FIG. 6 shows the simulator fully assembled with additional equipment, in particular, hooks for rods, bars, stops for the rod.

In FIG. 7 shows the installation of the bars on an outdoor rack.

In FIG. Figure 8 shows the installation of hooks for the bar on an external rack.

In FIG. Figure 9 shows the installation of the bar stops on an outer rack.

 The simulator is made in the form of modules, each of which contains external racks 1, internal racks 2, while the external and internal racks are fastened respectively by the upper beams 5 and lower beams 4. A horizontal bar 3 is installed between the external racks 1 of each module. The lower beams 4 at the junction with the outer strut 1 rest on the outer support 16, and the other end at the junction (node 10) with the inner strut 2 rest on the inner support 8. Between the outer struts 1 and the lower beams 4 are installed stiffeners 6. In addition, the elements stiffeners 7 are installed between the inner struts 2 and the upper beams 5. The diametrically located inner racks 2 are fastened from below and above by crosses 13, 14 respectively. At the same time, stiffeners 9 are also installed between the crosspiece 13 and the inner struts 2 below. Between the upper beams of two adjacent modules spacers 11. The outer racks of each module are perforated to install the horizontal bar 3 at different heights using fasteners 15. The beams of the crosses 13 and 14 at the intersection are interconnected using flanges.

On the outer racks 1, bars 17 (Fig. 4. 5), hooks 18 (Fig. 6) for training with a bar, various stops for mounted sports equipment 19 (Fig. 6, 9) are installed.

The external racks of the simulator are equipped with overlays, using which, using threaded connections, rails, bars and other sports equipment are installed on the racks.

For the manufacture of the simulator, steel pipes of rectangular cross section are used. The connection of all elements of the simulator is carried out using bolts, the tightening of which is carried out after the complete assembly of the simulator.

The assembly of the simulator is as follows. A crosspiece 13 is installed, the parts of which are fastened together, for example, using a flange connection. On the pins of the internal supports, the internal racks 2 are installed and fastened together with the fasteners to the assembly 10. On the external supports 16, the pins are also made on which the external posts 1 are mounted and fixed. Temporarily install the horizontal bar 3 on the outer posts 1 at chest level. Connect the outer 1 and inner 2 racks using the upper beams 5. To the nodes of the connection of the upper beams 5 fasten the ends of the cross 14. On top of the internal racks 2 strengthen the nodes of the connection 12 of the upper beams 5 with the cross 14.

After complete assembly of the simulator, the final stretching of the bolts is performed.

The implementation of the simulator in the form of separate modules, firmly connected to each other, allows you to provide training for several athletes at the same time with the performance without restrictions of various types of exercises.

The stability of the proposed simulator is ensured by high structural rigidity, due to a significant number of supporting elements. In addition, the installation of stiffeners between the outer vertical struts and the lower beams, as well as between the inner vertical struts and the upper beams, between the crosses and the inner vertical struts also provide structural rigidity and, as a result, its stability. An important role in imparting stability to the design of the simulator is played by the connections between diametrically installed internal vertical uprights in their upper and lower parts using crosses, i.e. connecting several modules into a single bundle, installing spacers between two adjacent modules, all this gives high stability to the simulators and the safety of athletes during various exercises.

The proposed simulator is mobile, quickly disassembled, easily transported and quickly assembled anywhere on a flat surface, including field conditions.

The proposed utility model meets the criterion of "novelty," because the prior art did not identify technical solutions with the proposed set of features, and the criterion of "industrial applicability", because The proposed simulator passed an experimental test with a positive result.

Claims (6)

1. A multifunctional collapsible power simulator containing a base, racks, crossbars, stiffeners, characterized in that it is made of modules, each of which contains external and internal racks, interconnected respectively by upper and lower beams mounted on supports, while the stiffeners are installed between the upper beams and the inner pillars, as well as between the lower beams and the outer pillars, and the diametrically opposite nodes connecting the upper beams with the inner pillars accordingly, the nodes of the connection of the lower beams with the internal struts are interconnected by means of crosses, while all the lower beams are installed on the supports on both sides, in addition, stiffeners are installed between the diametrically opposite internal racks and the supports connecting them, and between the upper beams of each two adjacent modules installed spacers. 2. The power simulator according to claim 1, characterized in that on the external racks are made along the entire height of the hole for fasteners for installing additional sports equipment. 3. The power simulator according to claim 1, characterized in that the bars are installed on the external racks. 4. The power simulator according to claim 1, characterized in that the stops for the bar are installed on the external racks of the modules. 5. The power simulator according to claim 1, characterized in that the limiters for the bar are installed on the external racks of the module. 6. The power simulator according to claim 1, characterized in that the number of modules is at least four.

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