A NEW ROTARY TWIN ROTOR CONFIGURATION
Patent Information
- Application Number
- TR202514319U
- Authority / Receiving Office
- TR · TR
- Patent Type
- Utility models
- Current Assignee / Owner
- Filing Date
- 2025-10-01
- Publication Date
- 2026-06-22
- Estimated Expiration
- 2035-10-01
Abstract
Description
1 TARIFF A NEW ROTARY TWIN ROTOR CONFIGURATION Technical Field to Which the Invention Relates: The invention subject of the application is a device used in the agricultural sector and attached to the rear of a tractor. connected to and used in the direction of the tractor's forward movement, receiving power from the tractor's PTO shaft. It is an agricultural machine that gains functionality through movement. Tillage that mixes the soil from the bottom to the surface using horizontally rotating tines. It is a machine used for seedbed preparation, soil aeration, and removing plant waste and weeds. Rotovator 10 is used to break down the soil and ensure it mixes completely with the soil. It is related to the machine. Prior Art Relating to the Invention (Prior Art): Rotary tillers, used for agricultural soil tillage, are mounted on the back of tractors. These are machines that are used by being connected and pulled. 15 The tractor transmits the motion it receives from the power take-off shaft via the transmission located on the machine. The part of the machine called the rotor, which has multiple anchor points on it, has various It is transmitted through mechanisms. The gearbox converts the vertically incoming motion to the lateral direction. It rotates. The transmission's lateral arm outputs can be single-directional or bidirectional. However; In bidirectional outputs, it is connected to a single rotor. The tractor-powered PTO shaft is a single 20 It provides motion to a single rotor in both directional and bidirectional drive systems. The rotary tiller machine needs to run multiple times to complete the soil preparation. These processes result in increased labor costs, time loss, and increased diesel fuel costs per decare. This leads to increased consumption and consequently increased overall costs. As a result... Product costs lead to an increase in product unit prices. 25 Brief Description and Objectives of the Invention The invention aims to eliminate the disadvantages mentioned above and to provide advantages to the relevant technical field. It is about introducing a new rotary tiller with a dual rotor configuration. The purpose of the invention is to create a rotary tiller with a twin rotor, 30, designed for use on agricultural land. Its structure is positioned parallel to the ground. It receives power from the tractor's PTO shaft. The motion is transmitted simultaneously to both rotors via a gearbox, transmission system, and gears. It provides motion. Two rotors are designed parallel to each other. On the rotors 2 Multiple rotor anchor legs, evenly spaced, perform their function simultaneously in a circular motion. by cultivating the land and doing in one go what would normally require two tasks. is provided. The purpose of the invention is to reduce labor costs, prevent time loss, and increase the yield per decare. With reduced diesel consumption and consequently lower overall costs, farmers can increase their yield by 5%. This will lead to an increase in profits. Another purpose of the invention is to perform in one go what would otherwise require two separate steps, thanks to its dual rotor system. soil damage due to adverse or undesirable weather conditions during the farmer's interim tillage period It is the ability to perform perfect soil tillage in a single pass without damaging the soil structure. All the objectives mentioned above and those that will emerge from the detailed explanation below are 10 The invention is designed to perform soil processing in fields after harvest and before planting. A rotary tiller with a dual rotor configuration provides the necessary process for preparing the soil. It is related. Description of the Elements / Parts / Components Constituting the Invention: 15 1. A new rotavator dual rotor configuration. 2. Chassis 2.1 Connection lugs 3. Transmission 4. Shaft 20 5. Rear rotor drive shaft 5.1. Rear rotor drive gear 6. Front rotor drive shaft 6.1 Front rotor drive gear 7. Left bearing hair 25 8. Right bearing plate 9. Rear rotor drive chain 10. Front rotor drive chain 11. Rear rotor 11.1 Rotor blade 30 11.1.1 Rotor blade bolt 11.2 Rear rotor bearing 11.3 Rear rotor gear 12. Front rotor 12.1 Rotor anchor 35 3 12.1.1 Rotor anchor bolt 12.2 Front rotor bearing 12.3 Front rotor gear 13. Rear rotor tensioner gear 14. Front rotor tensioner gear 5 Definitions of the Figures Illustrating the Invention: A self-contained disc harrow structure developed with this invention offers better results. The diagrams prepared to illustrate this are explained below. Figure 1 - Front view of a new rotary tiller twin-rotor configuration. 10 Figure 2 - Rear view of a new rotary tiller twin-rotor configuration. Figure 3 - Bottom view of a new rotary tiller twin-rotor configuration. Figure 4 - Left side view of a new rotary tiller twin-rotor configuration. Figure 5 - Right side view of a new rotary tiller twin-rotor configuration. Figure 6 - View of the left bearing plate of a new rotary tiller twin rotor configuration. 15 Figure 7 - View of the right bearing plate of a new rotary tiller twin-rotor configuration. Figure 8 Side view of the front rotor diameter of a novel rotary tiller twin-rotor configuration. Figure 9 Side view of the rear rotor blade of a novel rotavator dual rotor configuration. Detailed Description of the Invention: 20 This detailed explanation of the invention's innovation not only helps to better understand the subject matter. This is explained with examples that will not create any limiting effect. Accordingly, Mixing plant residues into the soil after harvest in fields and similar areas; post-harvest cleaning. To prevent stubble burning, which is done for this purpose and disrupts the organic structure of the soil, 25 after chemical or organic fertilization to enrich the soil's organic structure mixing, incorporating weeds into the soil before planting, crumbling the soil before planting A new rotavator twin rotor configuration (1) will be created to be used for pre-preparation. The structural elements that bring about this are described. A front view of a novel rotavator twin rotor configuration (1) is given, with reference to Figure 1. A new Rotovator twin rotor configuration (1); 30 located on the upper side of the chassis (2) It is connected to the tractor with connecting lugs (2.1). Transmission on the chassis (2) (3) is located. The tractor PTO shaft that drives the gearbox (3) There is a connected shaft linkage shaft (4). 4 Referring to Figure 2; A new Rotovator twin rotor configuration (1) rear view is given. The movement coming from the shaft connecting shaft (4) is driven by the rear rotor drive located on the right side of the gearbox (3). Movement is provided by the shaft (5) and the front rotor drive shaft (6) located on the left side. Chassis (2) Right bearing plate (7) and chassis (2) attached to the right side Left 5 attached to the left side The bearing plate (8) is positioned. The rear rotor receives the motion from the drive shaft (5) from the rear The rear rotor drive chain (9) provides the transmission to the rotor (11) from the front rotor drive shaft (6). The front rotor drive chain (10) provides the transmission of the received motion. Referring to Figure 3; A new Rotovator twin rotor configuration (1) Bottom view is given. Right bearing plate (7) and Left bearing plate (8) Rear rotor (11) and Front rotor (12) 10 It is supported by a new rotary tiller twin rotor configuration (1) for soil tillage. Rotor blades (11.1) are positioned at specific intervals on the rear rotor (11) This is provided by. A new rotavator twin rotor configuration to achieve high efficiency in a short time (1) Multiple rotor anchors (12.1) are positioned at specific intervals on the front rotor (12). 15 With this, tillage becomes perfect. For detailed explanation purposes, the rear rotor drive chain (9) transmits motion to the rear rotor (11). The front rotor drive chain (10) which transmits motion to the front rotor (12) is shown. Referring to Figure 4; A new Rotovator twin rotor configuration (1) left side view is given. The motion received from the shaft connection shaft (4) is transferred to the end of the rear rotor drive shaft (5) Rear rotor 20 The drive gear (5.1) is mounted. The rear rotor drive gear (5.1) transmits to the rear rotor (11). The rear rotor drive chain (9) is used for the rear rotor (11) end part. The rear rotor gear (11.3) is assembled. It provides tensioning for the rear rotor drive chain (9). The rear rotor tension gear (13) moves along the side surface of the left bearing plate (7). It is combined. Front rotor bearing (12.2) combined with left bearing plate (7) Front rotor 25 (12) provides bedding. Referring to Figure 5; A new Rotovator twin rotor configuration (1) right side view is given. The motion received from the shaft connecting shaft (4) is transferred to the end of the front rotor drive shaft (6) by the front rotor. The drive gear (6.1) is mounted. The front rotor drive gear (6.1) transmits to the front rotor (12). The front rotor drive chain (10) is used. The front rotor gear (12.3) 30 is attached to the end of the front rotor (12). The front rotor tension gear (14) which provides tension to the front rotor drive chain (10) is combined. The right bearing plate (8) is attached to the lateral surface in a movable manner. To the right bearing plate (8) The combined rear rotor bearing (11.2) provides support for the rear rotor (11). Referring to Figure 6; View of the left bearing plate of a novel rotator twin rotor configuration (1) It has been given. Rear rotor drive shaft (5) with holes drilled in specific locations on the left bearing plate (7) rear rotor drive gear bearing (5.2) which enables the rotation of the rear rotor (11) The rear rotor bearing (11.2) enables the front rotor (12) to rotate on its axis. Front rotor 5 The bearing (12.2) is assembled. The rear rotor tension gear (13) is mounted on the left bearing plate (7). It is fixed in a rotating position. Referring to Figure 7; A new Rotovator twin rotor configuration (1) right bearing plate Its appearance is given. Front rotor drive shaft (6) 10 holes drilled at specific locations on the right bearing plate (8). front rotor drive gear bearing (6.2) which enables the rotation of the front rotor (12) front rotor bearing (11.2), rear rotor bearing which enables the rear rotor (11) to rotate on its axis. (11.2) is assembled. The front rotor tension gear (14) rotates on the right bearing plate (8). It is fixed in this way. Figure 8 Side view of a new Rotovator twin rotor configuration (1) front rotor diameter 15 It has been given. Multiple Rotor anchors (12.1) are attached to the front rotor (12) with Rotor anchor bolts (12.1.1). combined. Figure 9 A novel Rotovator twin rotor configuration (1) rear rotor blade side Its appearance is given. 20 Rear rotor (11) with multiple rotor blades (11.1) and rotor blade bolt (11.1.1) combined. The industrial application of the invention 25 A new rotary tiller that successfully solved the technical problem mentioned above. The twin rotor configuration (1) is a product that will be produced like other machines.
Claims
6 REQUESTS 1. Invention: For agricultural purposes; a device pulled by a tractor, receiving power from the tractor's PTO shaft. A plant that works by movement, mixing the soil from the bottom to the surface in agricultural fields, and sowing seeds. Preparing the bed, aerating the soil, and breaking down plant debris and weeds. 5 and a new pair of rotovators used to ensure it mixes completely into the soil. The rotor configuration is (1) and its feature is; -The front rotor (12) consists of two separate groups positioned parallel to each other and The rear rotor (11) includes the elements.
2. The Front rotor (12) and the Rear rotor (10) consist of two separate groups positioned parallel to each other. It has a rotor (11). According to Claim 1, a new rotavator twin rotor configuration (1) Its feature is that it receives the motion from the rear rotor drive shaft (5) through the rear rotor drive gear (5.1) It includes a rear rotor drive chain (9) which transmits to the rear rotor (11).
3. A new rotavator twin rotor configuration (1) according to claim 1 or claim 2, and its feature is; The motion it receives from the front rotor drive shaft (6) is transmitted to the front rotor drive gear (6.1) by the front rotor drive gear (6.1). It includes a front rotor drive chain (10) which transmits to the rotor (12).
4. A new rotavator twin rotor configuration (1) according to Claim 1, 2 or 3, and its feature is; Front Multiple Rotor anchors positioned at specific intervals on the rotor (12) (12.1) is that it has.
5. A new rotavator twin rotor configuration (1) according to Claim 1, 2, 3 or 4, and its feature is; 20 Rear rotor bearing located on the left bearing plate (7) and the right bearing plate (8). It has a front rotor bearing (12.2) positioned parallel to (11.2).
6. A new rotavator twin rotor configuration (1) according to claims 1, 2, 3, 4 or 5, and its feature is; Front rotor bearing (12.2) located on the left bearing plate (7) and the right bearing plate (8) It has a rear rotor bearing (11.2) positioned parallel to the 25.
7. A new rotavator twin rotor configuration (1) according to claims 1, 2, 3, 4, 5 or 6 Feature; Front rotor gear associated with the front rotor drive chain (10) for the rotation of the front rotor (12). (12.3) is what it has.
8. A new rotavator twin rotor configuration (1) according to claims 1, 2, 3, 4, 5, 6 or 7 Feature; Rear rotor 30 associated with the rear rotor drive chain (9) for rear rotor (11) rotation. It has a gear (11.3).