TECHNICAL FIELD

Invention; enables scientists, industrialists and students to experiment and learn with real earthquake by entering data of earthquakes occurred in our world before or by entering data of any requests size of earthquake in a one to one simulation. PREVIOUS TECHNIC

Experiment boards produced with purpose of research and experiment form shakes via one-way or two-ways linear movements. Indeed earthquake formed P (primary) and S (secondary) waves constitute circular movements or ellipsoid movements in the earth's crust. Devastating impact on the buildings and elements on the earth stem from such circular movements. This situation caused by centrifugal forces impacting buildings. Conducting experiments with experiment sets forming linear motion is misleading because they cannot create actual effect.

It is likely that building materials made on the basis of this information claimed to be durable is also wrong.

BRIEF DESCRIPTION OF THE INVENTION

Invention; it is related to researches conducted to develop earthquake resistant products and experiment set which makes to easier tell effects of earthquake to students studying in this field. . Earthquake experiment board allows development of earthquake insulators and conducting performance tests. Seismic insulators are apparatuses that ensure protection of the resistance of buildings against earthquakes and enable to experience minimum damage during earthquakes. Because effect of a real earthquake will affect the element required to be tested due to simulation of circular motion of the earthquake data obtained will be extremely accurate. LIST OF FIGURES

Figure 1. Mounted Top View of Lower chassis

Figure 2. A Detail View

Figure 3. Mounted Front View of Lower chassis

Figure 4. Mounted side-view of Lower chassis

Figure 5. A-A Section View

Figure 6. B Detail View

Figure 7. Mount Top View of Internally moving carcass Figure 8. Mount Front View of Internally moving carcass Figure 9. C Detail View

Figure 10. Mounted Side View of internally moving carcass

Figure 11. B-B Section View

Figure 12. C Detail View

Figure 13. Experiment Table Top View

Figure 14. Experiment Board Front View

Figure 15. D Detail View

Figure 16. Experiment Board Side View

Figure 17. E Detail View

Figure 18. Exploded view of the experiment table

Figure 19. Exploded perspective view of the experiment table

Figure 20. Exploded View of Moving Part

Figure 21. Exploded perspective view of pistons

Figure 22. Piston Perspective Overview

Figure 23. Piston Perspective moving overview

Figure 24. Side View of Pistons

Meanings of part numbers given in figure are as follows.

1. Lower Chassis

2. Bottom Chassis Mounted Sheet

3. Top carcass

4. Floor Fixing Plate

5. Flag Armrest 6. Ground Fixing Stud

7. Piston Front Connection Plate

8. Internal moving carcass

9. Moving lower sheet

10. Pistons Joint Connection

11. Chassis Platform

12. Moving Top Sheet

12.1. Oil Set

13. Mobile Top Platform

13.1. Sheet

14. Pistons

15. Lower Ball Group

16. Top Ball Group

17. Moving Part

18. Top Cover

19. Outer Box Profile

DETAILED DESCRIPTION OF THE INVENTION

Invention consists of; lower chassis (1), sub-chassis top plate (2), the upper carcass (3), floor fixing plate (4), flag armrest(5), ground fixing stud (6), front piston connection plate (7), internally moving carcass (8), moving bottom sheet (9), piston joint connection (10), platform chassis (11 ), moving upper sheet (12), moving upper platform (13), piston (14), lower ball group (15) upper ball group (16), movable part (17), top cover (18) and outer frame profile (19) parts. Moving upper sheet (12) consists of oil set (12.1). The moving upper platform (13) consists of sheet metal (13.1 ).

Lower chassis plate (2) is connected to lower chassis (1) by welding. To secure earthquake experiment board to ground the bottom chassis (1 ) is connected with ground fixing plate (4) by welding. For increasing the strength of ground fixing plate (4) flag rest (5) is secured vertically between lower chassis (1) and ground fixing plate (4) by welding. There are suitable holes on ground fixing bolts (6) to be used for securing earthquake experiment board on ground fixing plate (4). Ground fixing bolts are screwed to these holes. Then upper carcass (3) is secured to lower chassis sheet by screws, spot, smart screws or welding. Front piston connection plate (7) ensuring connection of piston (14) to top carcass (3) is mounted to top carcass (3). Lower balls group (15) is mounted in suitable intervals and pieces on lower chassis sheet (2).

In assembly of movable part (17), at least two pieces internal movable carcass (8) with sufficient space for the piston (14) to move in between and connected to joint connection (10) between them. First moving lower sheet (9) and then moving upper sheet containing oil set (12.1) are mounted to this assembly set. Suitable rate of oil is applied to section where lower balls group (15) and upper ball group (16) are located. There is an oil groove in which balls are put. Then platform chassis (11 ) is connected to internally moving carcass (8) by centering horizontally and vertically moving top sheet (12). Thus installation of moving section (17) is completed.

After the assembly process moving part (17) is placed on lower balls group (15). According to size of experiment board at least one piston (14) is secured to piston joint connection (10) on moving part (17) from side and front and then to piston front connection plate (7) on upper carcass (3). In continuation top balls group (16) is mounted on moving part (17). Top cover (18) is secured to upper carcass (3) by contacting to upper balls group (16).

In continuation of assembly operation is completed by mounting moving platform ( 3) to platform chassis (1 1) assembly.

Earthquake experiment board sampled in technical drawings as square can be designed according to different geometric shapes.

The operation of the earthquake experiment board is as follows:

Earthquake experiment board of which installation is completed is managed by a programmable logic controller (PLC) system. To run the system earthquake data covered by the scenario are entered into the PLC system. Algorithm of PLC system is designed uniquely.

For driving pistons in the system (14) there must be a hydraulic power unit. Experiment board where data are entered into the PLC system and hydraulic power unit is attached is ready and starts to work with the user's command.

Material and building to be experimented in accordance with the earthquake data entered as scenario is mounted on moving top platform (13). Motion of moving top platform (13) acting as Earth's crust as a condition of scenario is calculated by the PLC system and applied. According to the calculated data, pistons (14) connected to moving part (17) are driven so as to create linear and circular movements in line with earthquake magnitude on lower balls group (15) and upper balls group (16) in accordance with axis. Process is repeated in accordance with the set time and magnitude. After completion data are reported by the software and archived.