A sliding vibrating plow.

Abstract

The invention relates to a sliding plow (1) system that operates by being attached to a tractor (A) and is mounted on the main carrier chassis (2). The system includes the classic plowing components such as the tractor coupling unit (3), plow foot (4), cutting element group (5) including the scraper blade and side scraper, transfer mirror (6), side plate (7), front cutting element (8), depth adjustment wheel (9) and safety mechanism (10). The distinctive feature of the invention is that it enables controlled and continuous vibration to be applied to the cutting element group (5) that performs the plowing operation by means of air vibration units (11) positioned separately on each plow foot (4). The vibration energy is generated by the compressed air produced by the air generator compressor (12) located on the main carrier chassis (2) and transmitted to each vibration unit (11) in parallel via the air distribution line (13). The compressor (12) is configured to receive mechanical power from the PTO drive linkage (21) of the tractor (A). The generated vibration is transmitted directly to the cutting element group (5) forming the plow foot via the main connection vibration transmission element (14) and the spring steel connection plate (17). The compression spring (15) and spring guide (16), positioned between the vibration unit (11) and the main carrier chassis (2), absorb the vibration-induced dynamic forces through elastic deformation, control the natural frequency of the system, and ensure balanced transmission of the vibration. In addition, the rear support wedge (18) located at the rear of the vibration unit (11) and the rubber front bumper (19) and rubber rear bumper (20) located in the front and rear sections of the chassis (2) increase the stability of the system by damping the rebound and impact forces. Thanks to this holistic structure, the contact conditions between the cutting element group (5) and the soil are changed; the static friction regime is brought closer to the dynamic friction regime, the soil shear resistance is reduced and the traction force required by the tractor (A) is reduced. Thanks to the application of independent vibration to each leg (4), the load distribution is balanced, asymmetric stresses on the chassis are reduced and the system efficiency is increased. In conclusion, the invention is an innovative vibrating tillage system that reduces energy losses, lowers fuel consumption, shortens tillage time, and minimizes mechanical stress in sliding plow systems through its modular, parallel air-fed, and locally spring-assisted vibration architecture.

Description

A sliding vibrating plow. Technical Area This invention relates to the technical field of agricultural machinery; specifically, to tractors. a switch plow used in tillage and soil preparation activities It includes an improvement to their systems. The invention relates to the cutting, lifting, and turning of soil during plowing. local and controlled vibration to the working organs that perform the operations a vibration-assisted tillage system based on its application It is related. More specifically, the invention is a scraper blade (tip) in classic sliding plow systems. cutting the ground by the iron, through the transfer mirror (ear). Ground resistance encountered during the process of lifting and turning the object over and over. friction forces, soil resistance during transfer, and adhesion. It offers a mechanical improvement solution aimed at reducing its effects. Especially heavy-textured, high moisture content or highly cohesive, dry and In high-resistance soil conditions, the static relationship between the working organ and the soil... The friction regime and surface adhesion increase the traction force requirement; this This situation increases the tractor's power requirements, fuel consumption, and energy loss. Within the scope of the invention, a device is positioned on each sliding plow foot and Through vibrating units powered by compressed air, the scraper blades and The transfer mirrors are directly and independently connected to each main leg. Vibration is applied. Each main unit to which the scraping blades and soil-turning feet are attached. Vibration generated while standing; elastic interconnecting elements and spring-supported equalization. 2 through its mechanisms in a controlled, balanced and damped manner It is communicated to the working body. This transmission enables micro-scale dynamic movement on the contact surface. This is created so that the static friction regime is reduced, thus improving soil tillage. The resistance generated during this process is reduced, and energy efficiency is increased. Thanks to this structure, soil shear resistance and friction forces are reduced, The need for traction is reduced, fuel consumption is minimized, and driving performance is improved. Efficiency is increased. The invention can be integrated into sliding plow systems. Modular, foot-independent vibration architecture for agricultural soil tillage. an innovative mechanical device aimed at improving performance in machines It is of that nature. State of the art A plow is used for tilling and turning over the soil. Technically, these systems are classified into four main groups: moldboard plows, Disc plows, rotary moldboard (profile) plows, and sliding plows. Moldboard plows are the most commonly used classic type; they plow the soil to a specific depth. cut straight across and turn sideways over the ear (transmission mirror) It overturns. Disc plows, on the other hand, use concave discs instead of cutting blades. used especially in hard, stony, deeply rooted or highly adhesive-prone areas. They are preferred in these soils. Rotary moldboard (profile) plows have double-sided moldboard. It has a structure and, thanks to the mechanical return mechanism at the end of the field, the trunk By changing the direction, the soil is ensured to continuously fall in the same direction, creating a furrow. Its formation is prevented. Sliding plows, on the other hand, change direction at the end of the field with the help of a sliding mechanism. An oval shovel with a blade and a mirror-like section, flat on both edges, used for digging the soil from the side. 3 These are systems in the form of rotary moldboard plows. They are lighter and more durable compared to rotary moldboard plows. Rotary plows have become popular in recent years due to their greater practicality in terms of use. It is becoming increasingly popular as an alternative. Especially the smooth-surfaced version, without gaps. They offer advantages in terms of land reform and mechanical simplicity. In standard practice, the method used for plowing fields with all the plow types in question... The basic principle is that the plowshare and the scraper blade penetrate the soil to a specific depth. by cutting, lifting and transferring the soil, and turning it using a transfer mirror. It is based on the principle of changing the soil and the metal surface. During this process, the soil and the metal surface are in contact. the friction force, adhesion effect and soil resistance that occur between them because of this, the working organ is subjected to a significant resistive force. It remains. This counteracting force is due to the higher traction power of the towing tractor. This makes it necessary to produce more; this leads to increased fuel consumption, and lack of progress. This leads to a decrease in speed and an increase in processing time per unit area. This occurs especially in heavy, moist, clayey, or highly cohesive soil conditions. Friction and adhesion effects increase significantly; energy efficiency is negatively affected. is affected. Therefore, at the current technical level, the relationship between the soil and the working organ... It will reduce the disadvantages caused by friction and adhesion; lower energy. faster and more efficient release with lower consumption. Systematic solutions are needed to ensure its implementation. One of the improvements included in the current technology is numbered US3386517A. The document titled "Vibratory ripper plows" describes how compressed air is applied to the working organ. The device is operated by applying impact-type vibrations, especially on hard and compacted surfaces. The aim is to increase the digging effect. However, the solution in question does not improve digging. It focuses on the tip of the plow; it's not a plow, just a subsoiler. A modular structure that provides separate, balanced, and continuous vibration for each foot. 4 It does not. The impact-based operating principle reduces abrasion on some soil types. It has the potential to increase the ratio and ensure even distribution of vibration throughout the system. It is limited. Similarly, in the document titled "Vibrating ripper plow" with number US3838740A, it is stated that The main task is still subsurface blasting, but there is no system for turning over and processing the soil. On the other hand, the vibration is caused by an eccentric located close to the blade area. This is achieved by rotating the masses using hydraulic drive. Hydraulics System components include additional lines, connections, and sealing elements. Because of the requirements, it creates complexity in terms of maintenance and integration, too much. This creates limitations in terms of scalability in floor-standing systems. Furthermore, it is a multi-vibration unit architecture based on an independent air production system. It is not foreseen. In the "Vibratory plow" document numbered US4087982A, vibration is described as eccentric. They are produced by means of masses and using neutral axis and bearing elements. Efforts are being made to reduce the transmission of vibrations to the towing vehicle. However, Mechanical eccentric-based vibration generation; rotary mass balance, bearing wear, and This creates design constraints in terms of service requirements. Each plow Modular approach based on independent vibration generation and distribution for the foot It is not clearly stated. In the 2025 study titled "Vibratory-Enhanced Plowing System," a three-eared classical system will be used. Reducing traction force and fuel consumption by applying vibration to the plow. It has been examined. Although an increase in efficiency has been observed, the system architecture; Continuous, balanced, and foot-independent vibration transmission under varying ground conditions. It does not detail the holistic integration approach that will provide this. Vibration Since it is applied to all classic plow bodies, it saves energy. This will be necessary; the vibration will also be transmitted to the pulling tractor. Applied in sliding plows. It is not a system, as it efficiently supports vibration-independent main legs. It has not been sent. In the "locally vibrating plough" approach, instead of a plow tilling the soil, a subsoiler is used. It was applied to the blasting device. The vibration is a hydraulic system placed directly on the blade. It is produced locally with an actuator. However, the hydraulic-based structure; pressure line management, sealing and simultaneous control in multi-legged systems It has disadvantages in this respect. In the study "Pneumatic looseners of vibration action on plow bodies", the classical It is a system applied in moldboard plows, where the vibration is only transmitted to the scraper tip, pneumatically. This was done via a hammer blow. No vibration was applied to the mirrors that were turning the ground, and The accumulated soil pressure has remained the same. A loosening device powered by compressed air. Although the components have been suggested, the system utilizes the tractor's existing compressed air. It depends on the infrastructure. This situation requires multiple vibration units to be used simultaneously and This can create limitations in terms of controlled feeding. In sliding plows It is not a holistic system that is implemented. Our invention aims to overcome the technical limitations mentioned above. It has been developed and is designed especially for application on sliding plow systems. a designed, holistic and integrated vibration-assisted tillage architecture It offers. Accordingly, an independent unit positioned on a sliding plow. The necessary compressed air is produced by means of an air generator compressor, for each plow. A separate vibration unit is installed for each foot, and these units are connected to the distribution line. It is nourished through this means. The generated vibration is transmitted to the working organ via elastic connecting elements. The power is being transferred, and controlled transmission is ensured along the main connecting rod and chassis; via a balance spring positioned at the front and an industrial wedge located at the rear The system is dynamically balanced. Thanks to this structure, the working organ and By transforming the static friction regime between the soil and the ground into a dynamic one at the micro scale. Adhesion effect is reduced; tensile resistance is lowered, energy per unit area is increased. Consumption is reduced and release time is shortened. 6 Thus, the invention differs from known vibrating classical plow approaches. In sliding plows, each leg where the scraper section and the tilting mirrors are located An integrated system providing independent, modular, air-fed, and balanced vibration transmission. It represents a technical advancement through its system architecture. Advantages of the Invention The invention is a sliding plow used in agricultural soil tillage activities. in systems, the application of controlled and continuous vibration to the working organ an integrated and dynamically balanced mechanical system architecture based on It offers a system that is independently integrated onto a sliding plow chassis. air generator compressor, vibration placed separately on each plow foot units, distribution line that provides compressed air to those units, enabling the transmission of vibration to the working organ through the main connecting elements. mechanical transmission system with a balance spring located at the front and at the rear It consists of industrial wedge-type damping elements. Thanks to this holistic structural design, the vibrational energy produced is controlled and balanced. and the energy is continuously transmitted directly to the scraper blade and mirror area, by the system Overall, unwanted resonance and uncontrolled oscillations are prevented. The invention's fundamental technical advantage lies in the contact between the working organ and the ground. This is due to the change in the physical regime of the conditions. Classic sliding In plow systems, the resistance generated at the soil-metal interface is largely static. It exhibits frictional characteristics. Static according to the Coulomb friction model. The coefficient of friction (μs) is greater than the dynamic coefficient of friction (μk). This Therefore, the resistance force required to initiate movement and during the cutting-and-turning process is greater. It is high. The continuous and controlled vibration applied in the present invention creates microscopic contact surfaces. Creating scaled separation-recontact cycles to prevent static friction. interrupting and effectively bringing the system into a dynamic friction regime. 7 This effect causes the effective friction coefficient to approach the desired level. It is decreasing, and the required traction force under the same ground conditions is also decreasing. The effect of vibration not only reduces surface friction, but also... Over time, it also directly affects the internal structure of the soil. Soil mechanics soil resistance in terms of internal friction angle (φ) and cohesion (c) parameters. It is defined as the application of continuous vibration, between the soil particles. It weakens the bonding forces and reduces the effective shear strength. When evaluated within the framework of the Mohr–Coulomb strength criterion, the effect of vibration... The resistance stress required to cut through the ground underneath decreases; therefore The resistance force of the plow blade in the direction of advancement is reduced. This situation affects both both the shear force and the force generated during the overturning of the soil over the mirrors. This means a reduction in friction forces. Furthermore, the vibrational motion becomes particularly noticeable in damp and clayey soils. This weakens the adhesion force. In classical systems, soil accumulation and Due to adhesion, additional resistance is created on the metal surface. Continuous micro Vibration interrupts the contact surface, disrupting the continuity of adhesion bonds. It disrupts and reduces soil accumulation on the surface. This effect facilitates soil transfer. It allows it to be toppled over with lower energy via its mirror and It exhibits behavior similar to fluidization. The invention in terms of dynamic system behavior; Newton's laws of motion a structure that balances action-reaction force pairs in a controlled manner within its framework It presents. Periodic dynamic forces resulting from vibration, in front It is elastically damped via a positioned balance spring; at the rear The recoil forces are absorbed by the industrial wedge located in this area. Thanks to this regulation, the system is prevented from entering uncontrolled oscillation, chassis The load distribution on the vehicle is balanced, and harmful vibrations transmitted to the tractor are reduced. is being minimized. 8 The use of an independent vibration unit for each sliding plow foot in the system It provides homogeneous energy distribution. Thanks to this structure, asymmetric loadings are avoided. and torsional moments are reduced, chassis strength is increased, and mechanical The risk of fatigue is reduced. The use of multiple vibration sources also... resonance by allowing controlled adjustment of the system frequency. It limits the risk and increases operational stability. The use of an independent compressor positioned on a sliding plow is another option. vibration generation is independent of the tractor's existing compressed air infrastructure and This ensures continuous pressure and flow rate control. This can be achieved by adjusting the vibration amplitude and frequency under different ground conditions. It can be optimized. Thus, the system adapts to field conditions. It can provide. When examined from an energy transition perspective, classical systems exhibit traction. While a significant portion of its strength is lost due to friction and adhesion losses, the current In this invention, mechanical energy is directly used to cut and overturn through the effect of vibration. It is directed accordingly. When evaluated within the scope of the principle of energy conservation. This means a reduction in energy loss and an increase in system efficiency. As a result, the specific energy consumption per unit area is... Fuel consumption is decreasing, and driving time is shortening. Consequently, the invention concerns the effectiveness of the friction coefficient in sliding plow systems. by reducing the resistance of ground shear and soil overturning, balancing dynamic forces and minimizing energy losses It provides technical advantages based on its principles. These technical achievements Thanks to lower traction, the field is faster, more stable, and more efficient. This makes it possible to reduce fuel consumption and mechanical stress. and the overall performance of the system is significantly improved. 9 Detailed description of the invention The structure developed to achieve the objectives of this invention is as follows: They are numbered, and each element functions within the system as a whole. They are designed to be interconnected. The reference numbers are as follows: A: Tractor 1 – Sliding Plow 2 – Main supporting chassis 3 – Tractor coupling unit (three-point hitch system) 4 – Plowshare (body arm) – Scraper blade 6 – Transfer mirror 7 – Side plate 8 – Front cutting element 9 – Depth adjustment wheel – Safety mechanism 11 – Air vibration unit 12 – Air generator compressor 13 – Air distribution line 14 – Main link vibration transmission element – Compression spring 16-Bow Guide 17-Spring Steel Connecting Plate 18 – Rear support wedge 19 – Rubber Front Bumper – Rubber rear bumper 21 – PTO drive linkage  Located in the connection area (A) to the tractor and on the system a main load-bearing body that forms the supporting body of all structural elements chassis (2),  Located at the front of the main carrier chassis (2) and the sliding plow (1) a tractor coupling that enables mechanical connection to the tractor (A) unit (3),  Fixed on the main carrier chassis (2) and in contact with the ground at the bottom a plow that acts as a vertical carrier arm supporting the working parts of the plow foot (4),  Positioned at the lower front part of the plow foot (4) and to flatten the soil a scraper blade (5) that penetrates the ground by cutting in the plane,  Located at the rear of the scraper blade (5) and lifting the cut soil upwards a curved surface that allows it to be lifted, toppled, and displaced transfer mirror (6),  Positioned on the side of the plow foot (4) and on the side of the soil a side that provides directional stability by balancing against pressure plate (7),  The scraper blade (5) can be positioned at the front and the soil can be scraped vertically. a front cutting element (8) that separates surface residues by cutting in the plane,  Located in the rear section of the main carrier chassis (2) and the drive depth a depth adjustment wheel (9) that keeps it fixed,  Positioned between the plow foot (4) and the main carrier chassis (2) and rigid a system that protects itself when it encounters obstacles such as ground or stone safety mechanism (10),  Each plow foot (4) fixed on the main carrier chassis (2) individually positioned on the carrier arm, it transfers compressed air energy by converting it into linear or oscillatory mechanical vibration energy. Each foot transmits the plowshare (4) directly to the scraper blade (5). (11) an air vibration unit capable of operating independently for (4),  Rigidly positioned on the main carrier chassis (2), the tractor (A) can receive power via the tail shaft drive linkage (21) or 11 designed to operate independently, at specific pressures and flow rates. providing continuous air production at its values ​​and each air vibration capable of providing simultaneous and parallel feed to unit (11) designed air producer compressor (12),  The air is separated from the main air line coming from the air generator compressor (12) and each connecting pipes that extend separately to the carrier arm of the plow foot (4) containing, having a cross-section and connection structure that minimizes pressure loss, an air distribution line providing multiple and parallel air supply (13),  Air vibration unit (11) with carrier arm of each plow foot (4) the vibration motion produced between them is not dampened structural rigidity which allows it to be transmitted directly to the scraper blade (5) an optimized main link vibration transmission element (14),  Between the pneumatic vibration unit (11) and the main carrier chassis (2), the vibration unit positioned vertically along its axis, vibration-induced forward- absorbing linear forces through elastic deformation and by keeping the system's natural frequency under control, resonance formation a pressure spring that blocks (15),  Positioned within or in the center of the printing spring (15), the spring ensuring smooth operation in the axial direction and preventing buckling a bow guide (16),  Elastic intermediate connection between the pneumatic vibration unit (11) and the plow foot (4) providing, controlled transmission of vibrations and load a spring steel connecting plate (17) that regulates its transfer,  Positioned on the rear contact surface of the pneumatic vibration unit (11), absorbs the recoil forces generated by vibration, acting as the main carrier. rear support wedge (18) which maintains the integrity of the chassis (2),  On the front of the main carrier chassis (2), the vibration unit's operation a damper that absorbs forward impact effects that may occur in that direction rubber front bumper (19),  Rear side of the main carrier chassis (2), backward impact and vibration a rubber rear bumper (20) that increases system stability by reducing its effects, 12  Air generator compressor (12) from the PTO shaft outlet of the tractor (A) a tail shaft drive linkage (21) that enables mechanical drive It includes. Working Principle of the Invention The system described in the invention is used to plow a field by being pulled by a tractor (A). a sliding plow (1) which performs and is built on the main carrier chassis (2) It includes the arrangement. Traction transmitted by tractor (A) during operation. the force is transferred to the main carrier chassis (2) via the tractor coupling unit (3) The force is transmitted from the main carrier chassis (2) to the plow legs (4). Thanks to the scraper blades (5), they penetrate the soil and perform the cutting operation. It initiates. The soil cut in the horizontal plane by the scraper blade (5) is transferred by the conveyor mirror (6) It is lifted upwards and then toppled over, shifting its position. plate (7) ensures directional stability, front cutting element (8) surface residues to separate, depth adjustment wheel (9) to keep the drive depth constant and safety The mechanism (10) protects the system in possible sudden impact loads. This structure is classical This forms the basic working principle of the plowing system. The technical superiority of the invention lies in the integration of numbers 11–21 into the classical structure. It emerges through various elements. During operation, the air generator compressor (12) drives the tractor's (A) PTO shaft. by receiving mechanical power through its connection (21) or by working independently, certain It continuously produces compressed air at specific pressure and flow rate values. The produced compressed air... air, through the air distribution line (13) in parallel and multiple feeding logic each This structure is transmitted separately to the carrier arm of a plowshare (4). 13 foot-independent and simultaneous vibration production instead of single-point vibration. It makes it possible. Air vibration unit (11) located on each plow foot (4), It converts compressed air energy into mechanical vibration energy. The energy produced... The vibrational motion is transmitted through the main linkage vibration transmission element (14) and spring steel. This transmission is transmitted to the scraper blade (5) via the connecting plate (17). During this process, vibration forces are transmitted in a controlled manner to each scraper. The blade (5) operates under the effect of independent and continuous vibration. On the vertical axis between the vibration unit (11) and the main carrier chassis (2) positioned compression spring (15), forward-backward linear forces caused by vibration. It absorbs through elastic deformation. It is located inside the compression spring (15). The field spring guide (16) ensures that the spring works properly in the axial direction. It provides support and prevents twisting. Thus, the system's natural frequency is controlled. It is kept under control and resonance formation is prevented. Rear support positioned on the rear contact surface of the pneumatic vibration unit (11) The wedge (18) dampens the recoil forces of the main carrier chassis (2) It maintains its integrity. However, on the front of the main carrier chassis (2) positioned rubber front bumper (19) and rubber rear bumper located on the rear side buffer (20), sudden impact that may occur in the working direction of the vibration unit and It improves system stability by absorbing boundary oscillations. Thanks to this structure, the contact between the soil and the scraper blade (5) is static friction. It transforms from a braking regime to a dynamic friction regime. Friction force Coulomb friction principle depends on the coefficient of friction; vibration The effective friction coefficient is reduced as a result of this effect. At the same time, vibration... Mohr–Coulomb soils reduce internal friction and cohesive resistance of the soil. Within the framework of the strength principle, it reduces the shear strength. This situation 14 reducing traction resistance and providing the traction force required by the tractor (A) It reduces it significantly. The separate vibration of each leg (4) ensures the homogenization of the load distribution. and reduces asymmetric stresses on the chassis (2). Parallel air supply Thanks to its structure, all scraper blades (5) vibrate simultaneously and the conveying line A smooth and stable soil flow is achieved throughout. Consequently, in the system described in this invention, vibration energy is directly transferred to each scraper. transmitted to the blade (5); friction force is reduced, ground cutting resistance The traction requirement is reduced and minimized. This technical structure thanks to: Energy consumption per unit area is decreasing, Fuel consumption is decreasing, Processing time is decreasing, Mechanical stress and wear rate are reduced. The invention is a foot-independent, local spring integrated into a sliding plow (1) system. With its supported and parallel air-fed vibration architecture, it is innovative in the technical field. It offers a superior solution.

Claims

1) -Located in the connection area (A) on the tractor and on the system a main load-bearing body that forms the supporting body of all structural elements chassis (2), - Positioned at the front of the main carrier chassis (2) and the sliding plow (1) a tractor coupling that enables mechanical connection to the tractor (A) unit (3), - Fixed on the main carrier chassis (2) and in contact with the ground at the bottom. a plow that acts as a vertical carrier arm supporting the working parts of the plow foot (4), - Positioned at the lower front part of the plow foot (4) and the soil horizontally a scraper blade (5) that penetrates the ground by cutting in the plane, - The back of the scraper blade (5) lifts the soil that is cut upwards. a curved surface that allows it to be lifted, toppled, and displaced transfer mirror (6), - Positioned on the side of the plow foot (4) and on the side of the soil a side that provides directional stability by balancing against pressure plate (7), - The scraper blade (5) can be positioned at the front and the soil can be scraped vertically. a front cutting element (8) that separates surface residues by cutting in the plane, - Located in the rear section of the main carrier chassis (2) and the drive depth a depth adjustment wheel (9) that keeps it fixed, - Positioned between the plow foot (4) and the main carrier chassis (2) and rigid a system that protects itself when it encounters obstacles such as ground or stone containing safety mechanism (10) and - Each plow foot (4) fixed on the main carrier chassis (2) individually positioned on the carrier arm, it transfers compressed air energy by converting it into linear or oscillatory mechanical vibration energy. 16 Each foot transmits the plowshare (4) directly to the scraper blade (5). (11) an air vibration unit capable of operating independently for (4), - Rigidly positioned on the main carrier chassis (2), of the tractor (A) can receive power via the tail shaft drive linkage (21) or designed to operate independently, at specific pressures and flow rates. providing continuous air production at its values ​​and each air vibration capable of providing simultaneous and parallel feed to unit (11) designed air producer compressor (12), - The air is separated from the main air line coming out of the air generator compressor (12) and each connecting pipes that extend separately to the carrier arm of the plow foot (4) containing, having a cross-section and connection structure that minimizes pressure loss, an air distribution line providing multiple and parallel air supply (13), - Air vibration unit (11) with carrier arm of each plow foot (4) the vibration motion produced between them is not dampened structural rigidity which allows it to be transmitted directly to the scraper blade (5) an optimized main link vibration transmission element (14), - Between the pneumatic vibration unit (11) and the main carrier chassis (2), the vibration unit positioned vertically along its axis, vibration-induced forward- absorbing linear forces through elastic deformation and by keeping the system's natural frequency under control, resonance formation a pressure spring that blocks (15), - Positioned within or center of the printing spring (15), the spring ensuring smooth operation in the axial direction and preventing buckling a bow guide (16), - Elastic intermediate connection between the pneumatic vibration unit (11) and the plowshare (4). providing, controlled transmission of vibrations and load a spring steel connecting plate (17) that regulates its transfer, - Located on the rear contact surface of the pneumatic vibration unit (11), absorbs the recoil forces generated by vibration, acting as the main carrier. rear support wedge (18) which maintains the integrity of the chassis (2), 17 - On the front of the main carrier chassis (2), the vibration unit is operational. a damper that absorbs forward impact effects that may occur in that direction rubber front bumper (19), - Rearward impact and vibration on the rear side of the main carrier chassis (2). a rubber rear bumper (20) that increases system stability by reducing its effects And - Air generator compressor (12) from tractor (A) PTO shaft outlet a tail shaft drive linkage (21) that enables mechanical drive a vibrating sliding plow characterized by containing (1).