Modular manual lid that converts limited angular entry movement into lid opening movement. Power-on Adapter System

Abstract

The invention enables the opening of a lid by a limited angular input movement applied by the user. It relates to a modular lid opening adapter system that operates entirely manually. The system consists of a common outer casing (10), an input mechanism (20) that transmits user movement, and an external It can be detached and attached to the outer casing via a common connection interface on the body. positioned in this way and mechanically processing the entry movement, enabling the lid to open. at least one core module (30) and a module that transmits the motion from the core module to the cover It consists of an output element (40). The main novelty of the invention is that the common outer body is separated from each other. They have different mechanical operating principles (gear, cam, spiral groove, energy storage, etc.). It is possible to selectively map core modules via the same connection interface; In one application model, the core module is attached to the outer casing by a linear push-in motion. It has a removable cartridge type structure. Core module (30); motion conversion, energy storage, energy transfer, one-way clutch, release and output transfer sub-systems. It may optionally include one or more of the systems. The invention relates to electricity. without requiring a motor, battery, or electronic control circuit, different versions of the same outer casing By enabling its use with core modules, it allows different cover types and user It offers a cost-effective and portable solution that can be adapted to your needs.

Description

TARIFF THE TITLE OF THE INVENTION Modular manual lid that converts limited angular entry movement into lid opening movement. Power-on Adapter System TECHNICAL FIELD This invention relates to the technical field of manual mechanical lid opening systems. More specifically, the invention mechanically modifies a limited angular input movement applied by the user. It functions as a replaceable device that creates a rotating motion in the opening direction on a lid. A fully manually operated modular lid opener with mechanical core modules. It deals with adapter systems. The invention involves an electric motor, battery, electronic control circuit, or external power source. It is a mechanical system that does not require any additional equipment, and it accommodates rotating gates with different diameters and geometries. It has been developed in a way that can be used for opening purposes. STATE OF THE ART Today, different types of devices are used to help open jars, bottles, and similar containers. Mechanical auxiliary devices are used. Some of these devices are only accessible with a cover. elastomer surfaces designed to increase the gripping force between the user's hand While some are formed using gear or lever mechanisms, others allow the user to... It takes advantage of the force it applies. On the other hand, automatic lid opening systems powered by electric motors are also known. However, these systems require an energy source and have a more complex structure. This results in increased maintenance and production costs. In a significant number of known manual mechanical systems, the internal mechanism is located inside the housing. It is permanently positioned. Therefore, different functions are located within the same body. mechanical mechanisms with specific characteristics that can be modified by the user It is not possible. 1 Furthermore, existing solutions accommodate the limited angular movement applied by the user. Based on the principle of interchangeable core modules that enable processing by mechanical methods It does not offer a common platform structure. Therefore, it is fully modular and adaptable to different usage needs. a new cover capable of using manually operated and replaceable mechanical core modules An opening system is needed. THE PURPOSE OF THE INVENTION AND THE TECHNICAL PROBLEM IT AIMED TO SOLVE The primary aim of this invention is to reduce the limited angular input movement applied by the user. mechanically processed to convert into a controlled outward movement in the direction of lid opening The goal is to develop a modular manual lid opening adapter system. Another aim of the invention is to have cores with different operating principles within the same outer casing. The goal is to create a modular mechanical platform that enables the use of its modules. Another aim of the invention is to create a unique product for different cap types and different user needs. The ability to change the operating characteristics of the system by modifying the kernel module. to provide. The invention also does not require an electric motor, electronic circuit, or external power source. By offering a fully mechanical solution, we aim to increase portability, reduce maintenance requirements, and It aims to reduce production costs. The fundamental technical problem that the invention aims to solve is: within a common external casing, different mechanical operating principles (gear, cam, spiral groove, energy storage) (or a combination thereof) kernel modules having the same connection interface a modular platform architecture that allows for selective attachment and detachment The invention is characterized by the absence of a common outer casing, a replaceable core module, and different mechanical features. the ability to combine core modules with similar principles into the same chassis By offering this, it solves this problem. EXPLANATION OF THE INVENTION The invention mechanically processes the limited angular input movement applied by the user. a modular manual flap that converts a rotational movement into a flap opening motion It is an opening adapter system. 2 The system, whose general view is given in Figure 1, basically consists of; outer casing (10), inlet assembly (20), en It consists of at least one core module (30) and at least one output element (40). Outer Casing The outer casing (10) forms the main load-bearing element of the system. The outer casing (10) is mechanical. ensuring loads are met, internal components are protected, and the core module is secure. It is designed in a way that will allow it to be positioned in this manner. In one application form, the outer casing (10) is made of metal, polymer, composite material or of these. They can be produced from combinations of these. There is at least one core slot (11) inside the outer casing (10). Core slot (11) to ensure the kernel module is placed in the correct position It can be formed. The core cavity (11) is shown in the cross-sectional view in Figure 2. At least one guide element (12) may be located on the core housing (11). Guide element (12), placement of the core module only in the predetermined direction This helps prevent faulty assembly. Core housing (11) and guide element (12), outer casing (10) and core module (30) It forms a common mechanical connection interface between them; thanks to this common interface, they can be separated from each other. Core modules with different mechanical operating principles are on the same outer shell (10) It can be attached and detached optionally. In one application form, the guide element (12) is a groove, rail, pin, channel, wedge or similar. It may consist of one or more mechanical steering elements. To prevent the core module from shifting during operation, the outer casing (10) It may have at least one locking element (13). Locking element (13), latch, pin, spring lock, rotary lock or similar mechanical connection It can be accomplished with its components. If necessary, the moving parts inside the outer casing (10) have lower friction. Bearing surfaces (14) that enable its operation can be created. Inlet Mechanism 3 Input mechanism (20) allows the mechanical movement created by the user to enter the system. It is the section that enables the transfer. Different ergonomic applications of the input mechanism (20) This is shown in Figure 10. Input mechanism (20); user contact surface (21), motion transmission shaft (22) and optional It may include an ergonomic adjustment element (23). The user contact surface (21) can be designed with an ergonomic structure that can be gripped by hand. User contact surface in the form of an application (21); rotary knob, T-type handle, articulated The handle may consist of a telescopic arm or similar ergonomic structure. The motion transmission shaft (22) transmits the input motion created by the user to the core module. Ergonomic adjustment element (23) for different users' hand size or usage They can adjust the input mechanism according to their habits. Kernel Module One of the most important innovations of the invention is the interchangeable kernel module (30) structure. The core module (30) can be removed and installed inside the outer casing (10). They are positioned; this positioning principle is shown in Figure 8. Thus, the same outer shell (10), with different core modules having different operating characteristics It is available for use. First core module (30A) and second core module (30B) in the form of an application They may have different mechanical operating principles; multiple subsystems working together. A hybrid kernel module implementation, in which it is located, is shown in Figure 7. The first kernel The first core module (30A) is removed from the outer casing (10) and the second core module (30B) is connected to the same connection. The steps for connecting to the interface are shown sequentially in Figure 11. This allows the entire system to be connected. The difference is made by modifying only the kernel module, without needing to change anything else. A mechanical structure suitable for the usage needs can be obtained. In the form of an application, the kernel module (30) can be created in a cartridge-type structure. This In practice, the core module (30) is placed in the core slot (11) on the outer casing (10) and It is placed on the guide element (12) with a linear push motion and in the same direction It can be removed by pulling it out; the user can do so without needing any tools. It can be replaced by. Cartridge type core module, common connection with outer casing (10). 4 It matches via the interface; this allows cartridge types with different mechanical operating principles to be matched. Core modules can be used sequentially or interchangeably on the same external chassis. The core module (30), depending on its intended use; motion conversion subsystem (31), energy storage subsystem (32), energy transfer subsystem (33), one-way clutch subsystem (34), release subsystem (35), output transfer subsystem (36) one of the components or it may include several of them. These subsystems do not necessarily have to be located within the same core; they can be different. They can be used in various combinations in different applications. Motion Conversion Subsystem Motion conversion subsystem (31), user-generated limited angular input This subsystem converts its movement into a mechanical exit movement suitable for opening the lid. A schematic view is given in Figure 4. In one application, this subsystem consists of a gear mechanism (311), a cam mechanism (312), It may consist of a spiral groove mechanism (313) or combinations thereof. Thanks to these mechanisms, the input motion is transmitted mechanically instead of directly. It is processed and transferred to the output system. Energy Storage Subsystem In one implementation form, the core module (30) includes at least one energy storage subsystem. (32) may include; the schematic view of this subsystem is given in Figure 6. The energy storage subsystem (32) is accessed by the user via the input device (20). the temporary storage of energy generated during the applied mechanical motion and its appropriate This can ensure that it is transferred to the output system in time. An energy storage subsystem in the form of an application (32) has at least one torsion spring (321) It may include. Torsion spring (321) undergoes elastic deformation during input motion. By undergoing this process, it can store elastic potential energy. In another application form, the energy storage subsystem (32) has at least one spiral spring (322) It may include a spiral spring (322), storing energy during rotational motion and output motion. This can contribute to its creation in a more controlled manner. The energy storage subsystem (32) is limited to only torsion spring (321) or spiral spring (322). not only, but also with different elastic mechanical elements that can perform the same technical function. realizable. Energy storage subsystem (32) in the form of an application, motion conversion subsystem (31) By working together, different amounts of energy are applied depending on the characteristics of the input motion. It can allow for storage. Energy Transmission Subsystem The core module (30) has at least one energy transfer subsystem (33) in an implementation form. may include. Energy transfer subsystem (33) stored by energy storage subsystem (32) enabling mechanical energy to be transmitted to the output transmission subsystem (36) at the appropriate time It may consist of mechanical fasteners. Energy transmission subsystem (33), gears, shafts, connecting elements, cam surfaces, linkage It may include one or more plates or similar mechanical transmission elements. In one application form, the energy transfer subsystem (33), stored elastic potential It can enable energy to be directed to the output system either suddenly or in a controlled manner. In another application form, the energy transfer subsystem (33) is the motion conversion subsystem. By working in coordination with (31), it can increase the continuity of the exit movement. One-Way Coupling Subsystem The core module (30) has at least one unidirectional coupling subsystem in the form of an implementation. (34) may include; the schematic view of this subsystem is given in Figure 5. The one-way clutch subsystem (34) allows input movement only in a predetermined direction. It can enable transmission to the output system. Thus, even if the user moves the input mechanism (20) forward and backward, the output element (40) It can only be rotated in the direction the lid opens. One-way clutch subsystem in one application form (34), at least one ratchet mechanism (341) may include. 6 In another application form, the one-way clutch subsystem (34) has at least one one-way bearing. (342) may include. The one-way clutch subsystem (34) is not limited to these elements but also uses the same technique. This result can also be achieved with different one-way mechanical clutch mechanisms. Thanks to this structure, every input movement of the user contributes to the output system, while the reverse movement does not occur. The actions will not cause the system to reverse. Release Subsystem In one implementation form, the kernel module (30) has at least one release subsystem (35) may include. Release subsystem (35), stored by energy storage subsystem (32) energy is transferred to the output transmission subsystem (36) when a certain operating condition is met It can facilitate the transfer. A release subsystem in the form of an application (35), mechanical latch, cam profile, spring It may consist of a locking mechanism or similar mechanical devices. The release subsystem (35) enables the system to operate more controllably under sudden load It can reduce their variations. Output Transfer Subsystem In one implementation form, the core module (30) has at least one output transfer subsystem (36) may include. Output transmission subsystem (36), motion conversion subsystem (31), energy transmission subsystem (33) and the mechanical motion generated by the one-way clutch subsystem (34) output It transmits to its member (40). In one application form, the output transmission subsystem (36) consists of a shaft, gear, clutch element or It can consist of similar mechanical connections. The output transfer subsystem (36) is a common system that can work compatibly with different core modules. It may have a connection interface. Exit Element 7 The output element (40) transmits the mechanical movement from the core module (30) directly to the cover. It is the transferring section. Different applications of the output element (40) are shown in Figure 9. The outlet element (40) may include at least one cover contact element (41). The cover contact element (41) will provide sufficient mechanical grip to the outer surface of the cover. It can be formed in this way. In one application form, the contact surface is an elastomer material, rough. The surface may include replaceable coupling parts or similar mechanical solutions. The outlet element (40) is optionally designed to be used with covers of different diameters. Depending on the situation, it may include at least one diameter adjustment mechanism (42). Diameter adjustment mechanism (42), sliding joints, articulated elements, replaceable adapter This can be achieved through rings or similar mechanical devices. In one application form, the output element (40), cover contact elements with different geometries It is interchangeable with (41). Thus, the same system can be used on different types of covers. HOW THE INVENTION WAS APPLIED TO INDUSTRY The invention concerns a modular manual lid opening adapter system, manufactured using plastic injection molding. It is capable of being mass-produced using metal processing or composite manufacturing techniques. The outer casing (10) and the core module (30) can be manufactured and stockpiled independently; In this way, the same outer casing platform can be paired with different core modules, allowing for a variety of uses. Product variants that cater to different user profiles can be created. Since the system does not require an electric motor or external power source, it is suitable for homes, kitchens, and food production. in the packaging, health / rehabilitation products and general consumer goods sectors It is directly applicable. Thanks to its modular structure, the system can be viewed not as a single product, but as different core modules. It can also be marketed as an expandable accessory / platform product; core module (30), It can also be supplied and sold as a separate spare part, independent of the outer casing (10). It is of a certain quality. DESCRIPTION OF THE FIGURES Figure 1: General perspective view of the system. 8 Figure 2: Cross-sectional view of the outer body (10). Figure 3: View of the inlet setup (20). Figure 4: Schematic view of the motion conversion subsystem (31). Figure 5: Schematic view of the one-way clutch subsystem (34). Figure 6: Schematic view of the energy storage subsystem (32). Figure 7: Schematic view of the hybrid kernel module implementation. Figure 8: Placement of the core module (30) into the core slot (11) on the outer casing (10). An appearance that demonstrates the principle. Figure 9: View of different applications of the output element (40). Figure 10: View of different ergonomic applications of the entrance arrangement (20). Figure 11: Removal of the first core module (30A) from the outer casing (10) and the second Sequential mechanical diagram showing the core module (30B) being plugged into the same connection interface. appearance. EXPLANATION OF REFERENCES IN THE FIGURES 10. Outer casing 11. Core socket 12. Guiding element 13. Locking element 14. Bearing surface 20. Input mechanism 21. User contact surface 22. Motion transmission shaft 23. Ergonomic adjustment element 30. Core module 30A. First core module. 30B. Second core module. 31. Motion conversion subsystem 311. Gear mechanism 9 312. Cam mechanism 313. Spiral groove mechanism 32. Energy storage subsystem 321. Torsion spring 322. Spiral spring 33. Energy transmission subsystem 34. One-way clutch subsystem 341. Latch mechanism 342. One-way bearing 35. Release subsystem 36. Output transmission subsystem 40. Output element 41. Cover contact element 42. Diameter adjustment mechanism

Claims

REQUESTS 1. Opening a lid with a limited angular input movement applied by the user. It is a modular manual lid opening adapter system that provides a common outer casing. (10); transferring the mechanical movement created by the user into the system an input device (20) providing; a common connection interface located on the outer casing (10) attached to the outer casing (10) via a removable and attachable connection and from the inlet mechanism (20) by mechanically processing the limited angular movement received, opening the lid in the direction of opening. at least one core module (30) that generates rotational motion; and from the core module (30) It includes an output element (40) that transmits the incoming motion to the cover; and the common outer body (10), They have different mechanical motion conversion principles, and each has an input. The tripping transmitted to the output element (40) by the limited angular movement taken from the mechanism (20). multiple that change the mode of kinematic transmission between rotational motion in one direction It can be selectively paired with the core module (30) via the same connection interface. It is of a certain quality.

2. The system is according to claim 1 and its characteristic is that the core module (30) is linear to the outer shell (10). It can be designed in a cartridge-type structure that can be attached and detached with a push motion.

3. The system is according to claim 1 and its feature is that the outer casing (10) and the core module (30) are correct. at least one core slot (11) and core module that enables placement in the location grooves, rails, pins, channels or ors that ensure placement only in a predetermined direction. It contains at least one guide element (12) consisting of a wedge.

4. The system is in accordance with claim 1 and its characteristic is that the kernel module (30) is located during operation. To prevent it from being altered, a latch, pin, spring lock or rotary lock is installed on the outer casing (10). It is the presence of at least one locking element (13) consisting of a lock.

5. The system according to claim 1, and its features are; input mechanism (20), rotary knob, T-type handle, A user contact surface consisting of an articulated handle or telescopic arm (21), entrance a motion transmission shaft (22) and input assembly that transmits its motion to the core module (30) It includes an ergonomic adjustment element (23) that allows it to be adjusted according to the user.

6. The system is as per claim 1, and its feature is; the core module (30), motion conversion sub system (31), energy storage subsystem (32), energy transfer subsystem (33), one-way from the clutch subsystem (34), release subsystem (35) and output transmission subsystem 11 (36) includes at least one of the selected subsystems and these subsystems have different applications in different applications. The ability to be used together in combinations.

7. The system according to claim 6, and its feature is; the motion conversion subsystem (31), gear mechanism (311), cam mechanism (312), spiral groove mechanism (313) or these It consists of a combination of these elements.

8. The system is according to claim 6 and its characteristic is; the input movement of the energy storage subsystem (32). at least one torsion spring (321) that stores elastic potential energy during or at least one It contains a spiral spring (322).

9. The system is in accordance with claim 6 and its characteristic is that the energy transfer subsystem (33) and the energy storage subsystem transmitting the mechanical energy stored by the system (32) to the output transmission subsystem (36) It consists of gears, shafts, connecting elements, or cam surfaces.

10. The system according to claim 6, and its feature is; the one-way coupling subsystem (34), input minimum that ensures the movement is transmitted to the output system only in a predetermined direction it includes a ratchet mechanism (341) or at least one one-way bearing (342).

11. The system is according to claim 6 and its feature is; the release subsystem (35), energy storage When a certain operating condition is met, the energy stored by the subsystem (32) mechanical latch, cam profile or which enables the transfer to the output transmission subsystem (36) It consists of a spring locking mechanism.

12. The system is according to claim 6 and its feature is; the output transmission subsystem (36), motion conversion subsystem (31), energy transfer subsystem (33) and one-way clutch subsystem Shaft, gear or (34) transmits the mechanical motion generated by the (34) to the output element (40) It consists of a gripping element.

13. The system is according to claim 1 and its feature is that the output element (40) is attached to the outer surface of the cover. providing at least one cover contact element (41) and use with covers of different diameters It contains at least one diameter adjustment mechanism (42) which provides.

14. The system is defined in accordance with claim 1 and consists of different mechanical components within the outer casing (10). The first core module (30A) and the second core module have the same operating principles. (30B) It can be used optionally. 12 15. The system is in accordance with claim 1 and its characteristic is that the core module (30) is, alternatively, a single piece. It can also be formed in a (mono-block) body structure.

16. It is a system according to claim 1, and its characteristic is the connection between the outer casing (10) and the core module (30). the common connection interface shall include at least one guidance and positioning element the creation of core modules with different operating principles, thus enabling the same They are in the correct position via the interface and interchangeable with each other. It is the ability to be placed.

17. The system is according to claim 13 and its feature is that the output element (40) has different standard covers. with interchangeable cover contact elements (41) to accommodate their diameters It is usability.

18. The system is according to claim 5 and its feature is; the input mechanism (20) user contact surface (21), different options include rotary knob, T-type handle, articulated handle and telescopic handle. The advantage is that they can be designed with ergonomically designed, interchangeable components.

19. The system according to claim 1, and its feature is; the core module (30), common connection interface Thanks to this, it can function as a separate part independently of the outer casing (10) and It is capable of being replaced with a new one.

20. The system is in accordance with claim 1 and its feature is that the kernel module (30) is controlled by the user. alternatives available later and having different mechanical operating characteristics It is interchangeable with core modules.

21. The system is in accordance with claim 1 and its feature is that it is compatible with the same outer casing (10) and different from each other. Common connection of multiple core modules (30) with mechanical working principles It is compatible with this outer casing (10) thanks to its interface. 13

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