GRADUAL CABLE FIXING, SPEED-LIMITED REWINDING AND WITH EXCESSIVE TENSILE LOAD LIMITING AND TRANSFER MECHANISM. POWER OUTLET SYSTEM

Abstract

The invention relates to a socket system with an integrated cable management structure that enables the transfer of electrical energy to one or more electrical and electronic devices and allows the unused portion of the power cord to be neatly stored within the socket housing. The system includes a cable winding reel that moves depending on the user's pulling of the power cord, a rewinding mechanism that stores mechanical energy during the pulling motion, a stepped locking mechanism that allows selective fixing of the power cord at different usage lengths, and a release mechanism that allows the lock to be removed by user intervention.The rewinding movement that occurs after release is mechanically controlled to limit the uncontrolled and high-speed pulling of the cable into the socket housing; the cable routing structure, in relation to the reel movement, changes the winding position of the cable, ensuring that the cable is distributed evenly on the reel. The system also includes an over-tension load limiting and transfer structure that, when the end of the usable pulling distance of the power cable is reached, directs the tensile load to the mechanically load-bearing areas instead of transmitting it to the electrical connection areas, thus functionally separating the mechanical load transfer path from the electrical transmission path. During the bidirectional movement of the reel, the continuity of electrical transmission between the movable cable section and the fixed socket structure is maintained via a rotating electrical transmission structure.The invention also provides for a thermal safety structure to detect any temperature increase that may occur when the cable is used under electrical load, whether coiled or partially coiled, and to limit or interrupt the transmission of electrical energy if the safe operating conditions are exceeded. Thus, the adjustment of the cable's usable length, selective fixing, controlled rewinding, orderly placement on the reel, mechanical resistance to excessive tensile loads, maintenance of electrical transmission continuity during rotation, and thermal safety are all integrated within the same socket system.

Description

1 TARIFF GRADUAL CABLE FIXING, SPEED-LIMITED REWINDING AND WITH EXCESSIVE TENSILE LOAD LIMITING AND TRANSFER MECHANISM. POWER OUTLET SYSTEM Technological Field: 5 The invention relates to the transmission of electrical energy to one or more electrical and electronic devices. and wired power outlet systems used in their distribution, and the power cables belonging to these systems Cable winding that enables mechanical management according to varying usage distances, It relates to the technological field of positioning, fixing, and motion control mechanisms. The invention specifically relates to a cable winding reel located inside the socket housing, 10 the power cord should be pulled out according to the required usage distance and different The system allows for gradual locking in the pulling positions, with user intervention. the rotation of the reel during the removal of the fastening and the retraction of the cable the cable's speed is limited by its rewind motion. It controls the winding position on the reel and the usable cable pull. 15 the excessive tensile force that occurs when the end of the distance is reached with the cable limiting the creation of mechanical stress in electrical connection areas The invention relates to socket systems with integrated cable management mechanisms. over time, with the movable cable structure during the bidirectional movement of the cable winding reel maintaining the continuity of electrical transmission between the fixed socket structure and reel 20 from the use of the power cord wrapped around it under electrical load electrical and thermal measures to limit potential thermal effects. The technological field encompasses power outlet systems that include safety devices. The invention also involves the interlocking of the pulley movement caused by pulling the power cord. Mechanically 25 with rewind, speed limiting and cable routing functions. associated with; the mechanical load occurring at the final pull position of the power cable where the electrical conduction element is separated from the mechanical load path and electrical transmission continuity and thermal operational safety of the movable pulley structure integrated electromechanical cable management maintained within the same system architecture The systems are also related to the technological field. 30 State of the Art: The transmission of electrical energy to multiple electrical and electrical systems from a single power connection point. Multi-socket and extension cord systems that enable the distribution of electricity to electronic devices; 2 in homes, workplaces, workshops, educational settings and similar uses It is widely used in these areas. In these systems, the socket housing is fixed. so that it can be connected to an energy source and transported to different points of use. Power cables of a specific length are used. In common multi-socket systems, the power cord is usually a fixed length and the socket is 5. It is located freely outside the housing. The power connection of the socket system. the unnecessary section of the cable if used in close proximity to the point It can remain exposed in its area of ​​use; it can fold itself over, it can move around, It can be tied in a knot or attached to surrounding objects. Usage If the distance changes, the usable length of the cable will be system 10. Because it cannot be mechanically adjusted, the user uses the unused cable. in case of manually collecting, wrapping or separately storing the part It can remain. In order to increase the functionality of multi-socket power strip systems in the current state of the art. on / off switches, illuminated indicators showing operating status, various electrical 15 Outputs, USB connections, and electrical protection elements are used. The structures are primarily for the distribution of electrical energy and the connection points for users. by being controlled by or supplying power to various electrical and electronic devices related to, mechanically, the varying usage distances of the power cable. management and controlled storage of the unused cable section within the socket housing 20 It alone does not eliminate the problems of preservation. In the known state of the technology, electrical cables were also wound onto a reel. for storage, removal from the reel when needed, and use. various cable winding mechanisms for rewinding the cable back onto the reel. It is located. In these mechanisms, the pulley can be rotated manually, as well as 25 movement in the rewind direction via a spring or similar force-generating element It can be done; the cable can be held in specific positions after it is pulled out. a ratchet, latch, clutch, brake or similar device that limits the rotation of the pulley for this purpose Mechanical elements can be used. However, the power cord is wound on a reel inside the socket housing at 30 preservation, eliminating all technical problems arising from cable management. It does not eliminate the need to remove the power cord from the body. securing the cable for its intended use, removing the securing, and reconnecting the cable. 3 Cable, reel, rewinding elements, locking mechanism during enclosure. elements, cable exit area and electrical connections, repetitive mechanical Interaction occurs. Therefore, not only wrapping the cable or Beyond structures that rely on the rotation of the pulley, the entire movement cycle of the cable It needs to be managed in a controlled manner. 5 Specifically, the direct and uncontrolled transfer of the rewind force to the cable. In this case, the pulley, when released from the locked position, quickly reaches a high angular velocity. it can reach and the power cord moves uncontrollably back towards the socket housing. This can cause the cable to hit the housing, resulting in a sudden impact at the cable exit point. bending and stresses occur, and the high pressure of the pulley and bearing elements is 10 exposed to rotational speeds and shocks in moving mechanism elements This can cause mechanical loads to occur. Therefore, rewinding... In addition to performing the operation, the reel rotation speed during rewinding and Restricting cable movement in this context is another separate technical requirement. It constitutes. 15 Another problem that arises during cable rewinding is the power cord getting tangled in the reel. The inability to control the distribution of the cable on the surface. The cable's continuous The windings tending to move towards the same area of ​​the reel causes the windings to overlap or clump together. by placing it crosswise on top; as a result, the usable winding volume reduction, cable compression and irregular friction during subsequent pulling operations and 20 This can cause resistance changes to occur. Therefore, the cable... During the rewinding motion, the winding position on the reel changes depending on the rotation of the reel. It needs to be managed in a way that is consistent with the movement. At the end of the usable pull distance when removing the power cord. Reaching it also presents a separate mechanical problem. The user's last pull is 25. if it continues to apply pulling force to the cable after reaching that position The force in question is applied to the connection of the cable on the reel, to the reel mechanism. or can be transferred to electrical connection areas. Repeated excessive pull-out loads. deformation in the cable sheath, mechanical stress on the conductors, electrical This can lead to loosening of the links and damage to the pulley mechanism. 30 This is possible. Therefore, it is not enough to simply stop the cable pulling distance; The mechanical load generated at the final pull position is due to sensitive electrical connections. It is important to remove the load and transfer it to a structure capable of carrying mechanical loads. 4 The use of a rotating cable reel inside the socket housing facilitates electrical transmission. This also creates a technical requirement in terms of the cable's outer casing. It performs a repeated rotational movement in two directions during its winding and rewinding. Torsion between the movable cable section and the fixed electrical structure in the socket housing and This can create mechanical stress. While maintaining the pulley's freedom of movement, 5 ensuring the continuity of electrical conduction and constant electrical rotation of the motion The transmission of torsional forces to the connections must be limited. In addition, a significant portion of the power cord is wound on the reel. its use under electrical load, due to the current passing through the cable This can make it difficult for the heat generated to transfer to the environment. Cables that are too close together... 10 Due to the limited internal volume of the socket housing and its coils, the resulting thermal load is distributed to specific areas. This can lead to concentration. Therefore, in a roller socket system, the mechanical In addition to cable management, the electrical use of coiled power cords Potential thermal conditions should also be considered in terms of safe working practices. It is necessary. 15 Also includes cable winding reel, locking mechanism, rewinding mechanism, speed. Limiting mechanism, cable routing elements and over-tension protection. the addition of its components as independent structures to the socket housing; part increasing the number and volume of moving elements, mechanically between the moving parts. This can lead to mismatches and conflicts of friction, compression, or movement. This can lead to problems. Therefore, different cable management functions are necessary. It's not just about being within the same housing, it depends on the cable's usage scenarios. It is important that they work together in a functional relationship. In conclusion, in the known state of the technology, multi-socket systems, cable winding reels, Rewind mechanisms are designed to hold the cable at specific usage lengths. mechanical locking elements, cable routing structures and electrical protection While solutions exist, such as unplugging the power cord and reassembling the socket housing; managing the entire work cycle from start to finish It is needed. Especially in stages at different pulling positions of the cable. fixing, removal of fixing by user intervention, released 30 Limiting the return speed of the reel, the retrieved cable on the reel winding position is directed in relation to reel movement and final pull excessive pulling force occurring at that location from electrical connections the functions of removing and transferring the mechanical load to the load-bearing structure are interconnected. It must be carried out in a coordinated manner. The technical requirement here is that the functions in question are only independent of each other. It's not simply a matter of placing the components inside the same socket housing. The mechanical energy required for rewinding the pulley movement caused by pulling the cable is 5. storage and positioning of the stepped locking structure; the lock's user its removal by intervention initiates the unwinding movement; the unwinding movement Simultaneous management by speed limiting and cable routing structures and The charge created in the final pull position is a mechanical charge separated from the electrical transmission path. It needs to be transferred to the load path. Therefore, the need is for individual cable collection and 10 Rather than bringing together protective elements, it's about combining different work phases in the same way. They are technically and functionally related to each other depending on the cable movement cycle. It is geared towards an integrated system architecture in which it is implemented. Accordingly, the cable is pulled, gradually secured, and removed from the locked position. The stages of extraction and rewinding at a limited speed are linked together in a 15-part sequence. This is accomplished within the mechanical work cycle; the cable rewinds onto the reel during rewinding. It precisely manages the distribution of the mechanical load generated at the final tensile position. despite the two-way movement of the reel, it distances itself from electrical connections. maintaining the continuity of electrical transmission and the coiled cable under electrical load 20 that ensures safe operation against thermal conditions that may arise from its use. There is a need to develop an integrated power outlet system. The purpose of the invention: The purpose of the invention is to convert electrical energy into one or more electrical and electronic devices. In wired power outlet systems that enable power transfer, the power cable is needed where required. Depending on the usage distance, it is taken out and put back into the socket housing 25 controlling the movement cycle that takes place until the cable is collected; different It can be gradually locked in position, released by user intervention. release, limit the reel rotation speed during rewinding, the cable the orientation of the winding position on the reel and the final pull position The excessive pulling force that occurs is removed from the electrical connections by 30 The mechanisms that enable the transfer of mechanical load to the load-bearing structure are functional with each other. a power outlet structure with an integrated cable management system that connects them It is about developing. 6 One purpose of the invention is to keep the unused portion of the power cord inside the socket housing. the cable should be stored on the cable reel and only the cable that is needed should be stored on it. by allowing its length to be extended outside the housing, leaving it free outside the socket. Tangling, knotting, snagging, and bending that may occur due to excessive cable length. and to reduce problems with improper storage. 5 Another purpose of the invention is to prevent cable winding during the removal of the power cord. a stepped locking mechanism mechanically related to the angular movement of the pulley by means of selectively fixing the cable at different pulling distances and without the need for continuous pulling force to be applied by the user The goal is to ensure the selected usage length is maintained. 10 Another purpose of the invention is to enable the user to control the stepped locking mechanism. depending on the release action performed, it can be unlocked and the unlocking motion in question causes the cable winding reel to move in the reverse direction. Functionally, with a rewind mechanism that allows for controlled passage. The aim is to ensure the connection. 15 Another aim of the invention is to reduce the rewinding force after the cable is released. cable winding to limit the direct and uncontrolled transfer of radiation to the cable a rewind speed limiter that creates mechanical resistance to the return movement of the reel through its arrangement, the angular velocity of the reel and, consequently, the cable's velocity to the socket housing. The correct way is to limit the speed of reverse movement. 20 Another purpose of the invention is to prevent sudden changes in the reel during the initial and ongoing stages of rewinding. by limiting its acceleration, preventing the power cord from entering the socket uncontrollably. impact, sudden bending and stresses occurring in the cable exit area, and Pulley, bearing, locking and cable connection elements withstand shock mechanical loads. The goal is to reduce exposure. 25 Another purpose of the invention is to prevent the power cable from being rewound onto the reel during the winding process. to limit the accumulation of substances in a specific area, either overlapping or diagonally, Cable routing arrangement functionally associated with the rotational movement of the pulley. by changing the winding position of the cable along the reel axis and The aim is to ensure the controlled distribution of the cable across the usable winding surface. 30 Another purpose of the invention is to combine the cable guiding motion with the rewinding motion of the pulley. by coordinating the cable so that it is placed more evenly on the reel, efficient use of available winding volume and in subsequent cable pulling operations 7 potential pinching, crossing, and irregular friction that may occur between the windings The aim is to ensure its reduction. Another objective of the invention is to extend the power cable to the end of its usable pulling distance. excessive withdrawal that is continued to be applied by the user if reached its force is directly transferred to the cable's reel connection, to the rotating electrical transmission system 5 or a mechanical load that restricts transmission to other sensitive electrical connections It is about creating a transmission path. Another objective of the invention is to reduce the mechanical load generated at the final tensile position to the final position. load transfer element of the socket housing via stop and pull load transfer By ensuring that the cable travel distance is mechanically increased to 10, it is transferred to the section that can accommodate it. In addition to being limited as such, repeated pulling of electrical connection areas The aim is to protect them from their burdens. Another purpose of the invention is to create an electrical system where electrical energy is transmitted through a power cable. tensile load applied to the power cable at the final pull position via the transmission path functionally separate the mechanical load paths where they are encountered; thus 15 the same movable and fixed contact elements that enable the electrical transmission of the cable the requirement for them to function as structural elements that carry the final tensile force over time to reduce and maintain electrical contact continuity from mechanical tensile loads as much as possible The aim is to ensure its protection in the most independent manner possible. Another purpose of the invention is to enable the cable winding reel to be taken out and put back in 20 Although it performs a bidirectional rotational movement during its assembly, it is movable. electrical conduction path on the reel and fixed electrical conduction in the socket housing a rotary electrical transmission system that maintains electrical continuity between paths to create and maintain the rotational movement of the pulley in fixed electrical connections, torsion and The goal is to limit the transformation into mechanical stress. 25 Another purpose of the invention is to connect the power cable located on the cable winding reel. thermal conditions that may arise during use under electrical load detection and deviation from predetermined safe working conditions by limiting or interrupting the transfer of electrical energy, coiled The aim is to increase system safety against thermal risks that the cable may pose. 30 Another purpose of the invention is the cable winding reel, rewinding mechanism, and stepped locking mechanism. mechanism, release mechanism, rewind speed limiter mechanism, cable steering mechanism, over-tension load limiting mechanism and rotary electrical 8 the movement of the transmission mechanism within the limited internal volume of the socket housing will not obstruct and the cable can be pulled, secured, released and rewound. integrated in such a way that it will carry out its stages sequentially and harmoniously The goal is to ensure its proper structuring. The basic purpose of the invention is to create a loop that starts with pulling the power cord out and then plugging it back in. The working cycle, completed by being enclosed within its housing, depends on the pulley movement. stepped locking, user-controlled unlocking, speed-limited rewind, Cable routing coordinated with pulley movement and mechanical operation at the final pull position. to transform it into a controlled mechanical process consisting of load transfer stages; excessive the pulling force reaches the mechanical load of the socket housing before reaching sensitive electrical connections 10 the bearing section is met and the pulley is independent of the bidirectional rotational movement. energy transfer between mobile and stationary electrical transmission paths ensuring continuity, cable management, mechanical protection, electrical continuity and thermal safety functions combined within the same power outlet system. It is about functional integration. 15 Explanation of the Figures Figure 1: Socket housing, socket sockets, power cord, and inside the socket housing. the overall positioning of the integrated cable management system relative to each other This is a perspective view showing the layout of the electrical outlet system. Figure 2: Cable winding 20 that holds the power cable coiled and allows it to be wound back up. The reel and its rewind mechanism; reel hub, reel side limiting surface, pulley shaft, pulley bearing element, return spring element and spring fixing element It is a detailed view showing its mechanical relationship with... Figure 3: Securing the power cable in stages at different usage lengths. It is released by user intervention and the speed of the rewind movement is 25 a stepped locking mechanism, a release mechanism, and a limiting mechanism that allows for its restriction. the mechanical relationship between the rewind speed limiting mechanism and the cable winding reel It is a detailed view showing the situation. Figure 4: Enables the power cord to be guided along the reel during rewinding. The cable routing structure electrically protects against the excessive tensile load that occurs at the final pulling position. load that is separated from the transmission path and transferred to the mechanical load-bearing structure. limiting and transfer structure, between the movable pulley and the fixed socket structure rotary electrical transmission structure and thermal protection that ensures electrical transmission continuity. 9 detailed showing the structural and functional relationships between the security devices It is the appearance. References: 1. Power outlet system 2. Socket housing 5 3. Power outlet 4. Power cord 5. Cable exit opening 6. Integrated cable management system 7. Cable winding reel 10 8. Pulley hub 9. Roller side limiting surface 10. Roller shaft 11. Roller bearing element 12. Rewind mechanism 15 13. Rewind spring element 14. Spring fixing element 15-stage locking mechanism 16. Locking wheel 17. Locking level 20 18. Locking tab 19. Nail printing element 20. Release mechanism 21. Release element 22. Lock release transfer element 25 23. Rewind speed limiter 24. Return resistance element 25. Return resistance contact surface 26. Cable routing system 27. Movable cable guide 30 28. Guide path 29. Roller-guide motion transmission element 30. Over-tensile load limiting device 31. Final pull position stopper 32. Tensile load transfer element 33. Mechanical load bearing area 34. Rotary electrical transmission device 35. Rotary conductive contact element 5 36. Fixed conductive contact element 37. Electrical contact carrier element 38. Thermal safety device 39. Temperature sensing element 40. Thermal cutting element 10 Description of the Invention: The invention involves the conversion of electrical energy into one or more electrical and electronic devices. allowing for transmission and according to the required usage distance of the power cable Removal, fixing in different pulling positions, free with user intervention. 15 that allows it to be released and reassembled into the body in a controlled manner. It relates to a socket system (1) with an integrated cable management arrangement (6). Socket system (1), basically a socket housing (2) that carries at least one socket (3), electrical energy power cable (4) which enables transmission to the socket system (1), power cable (4) socket It is possible to take it out of the socket housing (2) and pull it back into the socket housing (2). 20 It includes an integrated cable management system (6) that provides The socket housing (2) carries together the electrical and mechanical components of the socket system (1). It forms the main structure. Socket housing (2), integrated cable management will limit the direct contact of the moving components of the system (6) with the external environment and 25 that will provide the range of motion required by the components in question during operation It is constructed in this way. The geometry of the socket body (2) is designed to accommodate the use of the socket system (1). It can be implemented in different ways depending on the area and the number of sockets (3). and the integrated cable management system (6) which is essential in terms of invention, at least a significant part of it is protected inside the socket housing (2) It is positioning. 30 The socket housing (2) has one or more socket sockets (3). Socket socket (3), the electrical energy transmitted to the socket system (1) via the power cable (4) is connected It allows the transfer of power to electrical or electronic devices. Socket sockets (3) 11 the number, geometry and placement on the socket body (2) depending on the intended use It is modifiable. Therefore, the technical structure of the invention relating to cable management is specific to a particular socket. The number or placement of nests (3) is not limited. The power cable (4) is connected at one end to the electrical structure of the socket system (1) and at the other end It is designed so that it can be connected to an external electrical power source at one end. Power 5 the unused part of the cable (4) is the cable winding inside the socket housing (2) It is kept wound on its reel (7). The user plugs the socket system (1) When you want to use the power cord (4) at different distances from the power source Only the required length of cable is needed by pulling it out through the outlet opening (5) to the socket. It can extend its body (2) outside. 10 Cable outlet opening (5), cable winding of the power cord (4) inside the socket housing (2) It forms the transition zone between the reel (7) and the outside environment. Cable exit opening (5) allows movement of the cable during pulling and rewinding of the power cable (4). will give, however, the cable will come uncontrollably to the edges of the socket housing (2) 15 in a way that will limit friction or sharp bending. It can be configured. The geometry of the cable exit opening (5) is the power cable (4) It can be modified according to its cross-section, outer diameter, and usage conditions. Integrated cable management system (6); the power cable (4) inside the socket housing (2) cable winding reel (7) to manage the mechanical motion cycle, rewinding mechanism (12), stepped locking mechanism (15), release mechanism (20), rewind speed 20 limiting device (23), cable routing device (26) and over-tensile load is functionally related to the limiting mechanism (30). These mechanisms are only not as independent structures located within the same socket housing (2) but as the power cable (4) following each other during pulling, fixing, releasing and rewinding. It is designed to create the mechanical working conditions that will occur. 25 Within the scope of the invention, the working relationship in the socket system (1) is basically mechanical. via the path of motion, the path of mechanical load transfer, and the path of electrical conduction It can be evaluated. The mechanical movement path depends on the pulling of the power cable (4). as the cable winding reel (7) rotates, the rewinding spring element (13) is loaded, The stepped locking mechanism (15) holds the roller position, release 30 the mechanism (20) removes the locking and the rewind speed during rewinding the movement of the pulley of the limiting device (23) and the cable routing device (26) It occurs through its management. The mechanical load transfer path is in the final tension position. 12 the final tensile position stopper (31) of the resulting tensile load and the tensile load transfer by directing the mechanical load bearing area (33) through the element (32). It occurs. The electrical transmission path is the electricity taken from the power cable (4). its energy through the rotary electrical transmission device (34) to the socket sockets (3) This structure enables the transmission of the pulley's movement, allowing for the management of the last 5 steps. The pull load is met and electrical energy is transmitted using the same socket system (1) Although performed within, the motion, load, and electrical transmission connections are designed to support each other's safe operation. It is being organized. Cable winding reel (7), the unused part of the power cord (4) socket housing (2) 10 It is a rotating structure that allows the cable to be stored coiled inside. Cable winding. The reel (7) is powered by a reel hub (8) around which the power cable (4) is wound. at least one reel that restricts the cable from separating laterally from the winding area (4). It includes the side limiting surface (9). The reel hub (8) contains the power cable (4) It creates a suitable winding surface for successive windings to settle around it. 15 bringing; the side limiting surface of the reel (9) is the cable windings of the reel hub. (8) contributes to keeping it within the usable winding area. The cable winding reel (7) can rotate around the reel shaft (10) It is supported by a bearing. The reel shaft (10) rotates on the axis of rotation of the cable winding reel (7). determining and pulling the cable reel (7) outwards and back 20 It allows it to move in the winding direction. Roller bearing element (11), rotation between the reel shaft (10) and the cable winding reel (7) and / or socket housing (2) It ensures that the relationship is carried out in a controlled manner. Roller bearing element (11) reduces friction and off-axis during the repetitive rotational motion of the pulley. It contributes to the restriction of movement. 25 The cable winding reel (7) is used to pull the power cable (4) out through the cable outlet opening (5). During the first rotation direction, the power cord (4) is inserted back into the socket housing (2) During the acquisition process, it moves in the opposite direction, in the reverse rewind. Thus... the usable length of the power cable (4) located outside the cable winding reel (7) It varies depending on its angular position and the amount of cable remaining coiled on it. 30 Moving the cable winding reel (7) in the rewind direction rewind mechanism (12) is provided by means of the rewinding mechanism (12) to the cable winding reel (7) at least one rewind spring element (13) that applies rotational force in the rewind direction 13 It includes a rewind spring element (13) during the pulling out of the power cord (4). It stores elastic energy and generates power depending on the pulley movement that occurs. When the cable (4) is allowed to be retrieved, the stored energy is transferred to the cable winding. It converts the reel (7) to rotate in the reverse direction. At least one part of the rewind spring element (13) is secured by means of the spring fixing element (14) 5 cable winding reel (7), reel shaft (10), socket housing (2) or mechanically with them It can be attached to a fixed carrier region. The spring fixing element (14), back the winding spring element (13) is loaded in a controlled manner during the pulling of the cable and transferring the force it creates during rewinding to the cable winding reel (7) It provides. 10 Despite the return force generated by the rewind mechanism (12), the power The cable (4) can be kept outside at the length specified by the user in stages. This is provided by the locking mechanism (15). The stepped locking mechanism (15) is provided by the cable a locking wheel (16) associated with the rotational movement of the winding reel (7), locking wheel (16) Multiple lockings created on or mechanically associated with it 15 level (17) interacts selectively with the said locking levels (17). locking tab (18) and tab pressure that forces the locking tab (18) in the locking direction. It includes element (19). Locking wheel (16) together with the cable winding reel (7) or the cable winding reel (7) It is arranged so that it can rotate depending on the movement of the locking wheel (16) 20 around or in the appropriate section where the locking action takes place more than one There are locking stages (17). The locking stages (17) are different from each other. Thanks to its location in angularly separated positions, the power cable (4) has only one not in a pulled-out position, but in different usage lengths corresponding to multiple uses. It is possible to keep them in these locations. 25 The locking tab (18) locks one of the locking stages (17) of the locking wheel (16). When mechanically interacting, the cable winding reel (7) at least rewinds It restricts its movement in that direction. The claw pressure element (19) locks the claw. (18) locking by providing mechanical force that directs the locking wheel (16) towards the locking wheel. 30 helps the claw (18) to interact with the appropriate locking stage (17) The nail press element (19) is an element that can generate elastic force or another mechanical structure that can direct the locking tab (18) to the locking position It can be done in this way. 14 The stepped locking mechanism (15) corresponds to the removal of the power cord (4). through the locking stages (17) of the locking tab (18) in the direction of rotation of the pulley allowing it to pass or temporarily disconnect from interaction with the levels in question will give; conversely, the reel formed in the reverse direction when the cable is released. 5 in the movement of the locking claw (18) with the relevant locking stage (17) It can be configured in such a way as to allow passage. For this purpose, the locking stages (17) The contact geometry and the contact surface of the locking tab (18) in the pull direction of the pulley the direction that allows its movement and selectively restricts its movement in the reverse direction. This can create a dependent mechanical interaction. Thus, the user can connect the power cord... (4) can be pulled out by passing it through successive locking positions and the pulling motion is 10 After stopping the process, the cable length can be fixed at the appropriate level. When the user pulls the power cord (4) out of the socket housing (2), the cable winding reel (7) rotates in the opening direction, the rewind spring element (13) depends on this movement loading and locking wheel (16) depending on the movement of the cable winding reel (7) The position changes. The user uses the cable for a specific length of 15 minutes. If released, the locking claw (18) will be under the influence of the claw pressure element (19) The cable winding of the rewinding mechanism (12) interacts with a locking stage (17). This prevents the reel (7) from rotating freely. Thus, the power cable (4), selected without the need for continuous pulling force to be applied by the user It can be kept for the length of time it is used. 20 Releasing the stepped locking mechanism (15) from the locked position This is accomplished through the mechanism (20). The release mechanism (20), A release element that the user can control directly or indirectly. (21) and the lock that transmits the movement of the release element (21) to the locking tab (18) It includes the separation transfer element (22). 25 The release occurs when the release element (21) is moved by the user. The incoming mechanical movement is transmitted through the lock release transmission element (22) to the locking tab. (18) is transferred. The lock release transfer element (22) is transferred to the locking tab (18) By releasing the locking wheel (16) and its associated locking stage (17), This releases the cable winding reel (7) in the reverse direction. Thus, 30 release mechanism (20), the force created by the rewind mechanism (12) on the cable It creates a controlled transition that allows the winding reel (7) to move again. It brings. The release element (21) is accessible to the user from the socket housing (2) It can be positioned in this section and operated by pressing, sliding, turning, or similar mechanical means. It can be operated with one of the user movements. Lock release transfer element (22) the position of the release element (21) and the position of the locking tab (18) a lever, pusher, connecting piece or equivalent that will provide the mechanical connection between them 5 It can be implemented as one of the mechanical motion transmission structures. Thus, the user Access position and placement of the locking mechanism inside the socket housing (2) They can be designed independently of each other. The release mechanism (20) allows the user to release the element (21) in an application. Locking the locking tab (18) during the time it is being interfered with. It can be performed in such a way as to keep it in a position separated from its levels (17). An alternative In practice, a single user release element (21) is released. His intervention can move the locking tab (18) to the free position allowing rewinding and Locking after completion of the rewind cycle of the cable winding reel (7) The claw (18) can return to the position ready to be relocked. Thus, release 15 While the function can be adapted to different user interfaces, the stepped locking mechanism (15) The basic working relationship is preserved. Rewind after the locking tab (18) is released from the locking stage (17) The elastic energy stored in the spring element (13) rewinds the cable winding reel (7). It moves in the direction of the return spring element (13) 20 The stored energy is directly converted into reel movement, especially in the power cable. (4) high return speeds occur when a significant portion is outside Because of the reasons for the rewinding motion, the invention includes a rewinding speed limiting device (23) It is controlled through this method. The rewind speed limiter (23) sets the rewind speed of the cable winding reel (7) in the direction of 25 at least one rotational resistance element that generates controlled mechanical resistance to the movement. (24) and the rotational resistance contact with which the said rotational resistance element (24) interacts. It includes the surface (25). The rotational resistance element (24) and the rotational resistance contact surface (25) The interaction between them occurs immediately after the release of the cable winding reel (7). a counterforce or resistance that will limit its uncontrolled acceleration 30 It constitutes. The turning resistance element (24) is used to wind the cable reel (7), the reel shaft (10) or the cable the rotation of another mechanical element that moves together with the winding reel (7) 16 It can be associated with the movement. The rotational resistance contact surface (25) is the rotational resistance. in the form of a fixed or movable surface with which the element (24) can make controlled contact can be adjusted. Between the rotational resistance element (24) and the rotational resistance contact surface (25) Friction, pressure or mechanical resistance effect occurs when the rewind spring element (13) is damaged. the entire rotational force it generates is instantly converted into pulley speed 5 It restricts. The turning resistance element (24) is used in an application for a cable winding reel (7) or reel shaft. (10) and the rotational resistance contact surface (25) in the form of a mechanical element that creates a counter-moment due to friction by making contact It can be realized. In alternative applications, the turning resistance element (24), cable winding 10 the rotational movement of the pulley (7) directly or through a motion transmission element operating depending on the direction, the acceleration of the rotational motion, at least in the reverse direction. It can be arranged in a structure that creates mechanical resistance capable of limiting the rotation. The resistance contact surface (25) is the continuous or certain rotational contact surface with the said resistance element. socket housing (2), reel shaft (10), cable winding 15 in such a way that it can make contact under these conditions It can be formed on a pulley (7) or a fixed support structure associated with them. The contact force between the rotational resistance element (24) and the rotational resistance contact surface (25), contact area, friction characteristic or mechanical interaction geometry rewind It can be selected in such a way as to determine the counter-moment that will be generated during the process. Thus The moment of return created by the rewind spring element (13) is completely eliminated 20 without being removed, the moment in question is the uncontrolled angular movement of the cable winding reel (7). its conversion to acceleration can be limited and the power cable (4) can be collected back The return speed can be mechanically controlled while maintaining the necessary movement. The operating resistance of the rewind speed limiting device (23) is the cable winding reel (7) size, length and mass of the power cable (4), rewind spring element (13) 25 The force it creates and the operating conditions of the socket system (1) can be determined according to the conditions of use. Thus, the rewind spring element (13) has enough force to rewind the cable. While ensuring that it is formed, the power cable (4) is directed towards the cable outlet opening (5) at excessive speed. Its movement can be restricted. The rewind speed limiting device (23) The rotational resistance it generates can be created by a direct frictional contact relationship. 30 Mechanical damping that creates resistance depending on rotational movement, such as viscous resistance, centrifugal resistance, or equivalent rotational speed limiting operation. This can also be achieved through one of the principles of rotational resistance. 17 the structure of the element (24) and the mode of interaction with the rotational resistance contact surface (25) It can be modified according to the resistance generation principle used. Essential to the invention is... the return movement produced by the rewind mechanism (12) completely without obstruction, counteracting the uncontrolled acceleration of the cable winding reel (7) It is about creating the effect. 5 Only the rotation speed of the reel is controlled during the rewinding of the power cable (4). It is not enough to simply distribute the cable over the reel hub (8) It needs to be managed. For this purpose, an integrated cable management system (6), cable It includes the routing system (26). The cable routing system (26) includes the power When the cable (4) is rewinded onto the cable winding reel (7), the winding position is 10 The governing movable cable guide (27), the determined movable cable guide (27) guide path (28) and cable winding which allows it to move in the direction pulley-guide which transmits the movement of the pulley (7) to the movable cable guide (27) It includes the motion transmission element (29). The movable cable guide (27) is 15 minutes before the power cable (4) reaches the cable winding reel (7). first, the cable passes through or near the entrance on the reel hub (8) It is arranged as a structure that determines its position. Movable cable guide (27), along the guide path (28) generally in a direction parallel to the pulley axis It can move forward and backward. Thus, the power cable (4) pulley hub (8) Instead of being directed to only one region, it is directed to different axial positions. 20 is provided. The roller-guide motion transmission element (29) rotates the cable winding roller (7). with its movement, the movable cable guide (27) moves along the guide path (28). It establishes a mechanical relationship between them. The roller-guide motion transmission element (29), 25 mechanical systems capable of converting pulley rotation into linear or oscillating guide motion. It can be implemented in the form of a transmission structure. In this way, the cable winding reel (7) As the rotational movement in the reverse direction continues, the movable cable guide (27) The position also changes and the power cable (4) can be wound on the reel hub (8). It can be distributed across its width. The roller-guide motion transmission element (29) rotates the cable winding roller (7) 30 Taking motion from the movement of the movable cable guide (27) guide movement path (28) with a mechanical transmission ratio that will allow it to change position along the way It is configurable. This motion transmission can convert rotational motion into linear or reciprocating motion. 18 gears, screw-guide, cam, channel-follower or equivalent mechanical devices that convert motion into action. This can be achieved through one of the transformation relationships. The common feature of these alternatives is: The movement of the movable cable guide (27) does not require independent user intervention. It is derived from the rotational movement of the cable winding reel (7) without hearing. The amount of advancement of the movable cable guide (27) along the guide path (28) is 5 taking into account the outer diameter of the power cable (4) and the usable winding width of the reel hub (8) This can be determined by taking into account a certain angular movement of the cable winding reel (7). a certain axial displacement of the corresponding movable cable guide (27) This can be achieved by controlling the relationship between successive cable windings. It can be supported to be placed in the locations. The movable cable guide (27), guide movement 10 When it reaches one end region of its path (28), it will change its direction of movement and move to the opposite end region. It can be structured in a way that allows it to continue moving in the right direction. This change of direction... Automatic via the mechanical geometry of the roller-guide motion transmission element (29) This can be done as follows. Thus, a single winding row of the power cable (4) After completion, a following 15 moves in the opposite direction on the reel hub (8). creating a winding sequence and the usable winding volume in multiple layers It can be made possible to evaluate it. The operation of the cable routing arrangement (26) is the same as the power cable (4) limiting the stacking in the axial position, the cable's pulley side It contributes to a more regular placement between the limiting surfaces (9) and 20 more efficient use of the usable winding volume of the cable winding reel (7) It also provides a more regular winding structure, next to the power cable (4). during the pulling process, the coils may get stuck together or the cross coils may break suddenly. This reduces the likelihood of resistance arising. In the invention, the usable cable length is 25 when the power cable (4) is pulled out. The electrical stresses that may occur if the limit is reached are mechanical stresses. excessive tensile load limitation to restrict transfer of load to the connections There is a device (30). The over-tension load limiting device (30) is the final tension position stopper (31), tensile load transfer element (32) and mechanical load bearing It includes the region (33). 30 The final pull-out position stopper (31) pulls the power cord (4) out of the socket housing (2). mechanical at the position corresponding to the end of the usable range of movement that can be achieved. It forms a limit. The last pull position stopper (31), power cable (4), cable winding 19 pulley (7), a movable element associated with the pulley or position by pulling action on or in relation to another mechanical component that is modified It can be arranged. Essential to the invention is the usable pull of the power cable (4). When the end of its length is reached, the pulling motion is the physical limit of the electrical connection. not by, but by a mechanically defined stopping relation 5 It is the reception. The tensile load resulting from reaching the final tensile position stopper (31) is the tensile load. The mechanical load is transferred to the load bearing area (33) via the transfer element (32). The tensile load transfer element (32) transmits the final tensile force applied to the power cable (4). connection between the cable and the rotary electrical transmission device (34) or other sensitive 10 A mechanical load path will be created that will limit its direct access to electrical connections. It brings. The mechanical load bearing area (33) is designed to withstand the said tensile load. a carrier structure on the socket housing (2) or mechanically connected with the socket housing (2) It is generated on it. Thus, the force generated in case of excessive pulling is electrical. 15 It is removed from the realm of being a force that the contact areas providing transmission must carry, and The mechanical load is met through a structure suitable for carrying the load. This structure, especially the strength if the cable (4) is pulled out repeatedly until the final pull position loosening, twisting, or pulling that may occur in electrical connections It contributes to reducing deformations. 20 The function of the over-tension load limiting device (30) is only to allow the power cable (4) to move further The aim is not to prevent too much from coming out. The mechanism in question is also the final pull. the force that arises at that position changes its path of propagation within the system and It mechanically separates the charge from sensitive electrical regions. Therefore, the final pull... position stopper (31), tensile load transfer element (32) and mechanical load resistance 25 region (33) together with the control of the excessive pulling force applied to the power cable (4) It creates a mechanical load transfer chain to ensure that the load is met in this way. Taking out and rewinding the power cable (4) from the cable winding reel (7) electrical energy is transferred to the sockets (3) even though it rotates during this time. Rotary electrical transmission system (34) 30 in order to maintain the continuity of transmission. It is used. The rotary electrical transmission device (34) is used for the cable winding reel (7) At least one rotating conductive contact element (35) associated with the movable electrical part, socket at least one fixed conductive contact element associated with the fixed electrical part of its body (2) (36) and contribute to the preservation of the working positions of the contact elements in question. It includes the electrical contact carrier element (37) that provides electrical contact. In this mechanical load transfer, the position at which the final pull position stopper (31) takes the load. with the power cable (4) to the rotating electrical transmission device for electrical transmission purposes (34) The region to which it is connected can be arranged in such a way that it is mechanically separated from each other. Thus 5 The pulling force applied by the user to the power cord (4) in an application, final pull position stopper (31) before reaching the electrical contact elements is met by and mechanical load through the tensile load transmission element (32) It is transmitted to the receiving area (33). Thus, the rotary electrical transmission system (34) while its basic task remains to ensure the continuity of electrical transmission, the last 10 The tensile load is carried out by a separate mechanical structure. The tensile load transfer element (32), mechanical load with end tensile position stopper (31). In the form of a single piece structure that transmits direct force between the reception area (33) or multiple units that are in mechanical contact or connection with each other can be formed. It may consist of multiple load-bearing components. Mechanical load bearing zone (33), socket 15 geometrically suitable for withstanding the tensile load compared to other parts of the body (2). a reinforced fuselage section with a cross-section, a carrier part fixed inside the fuselage or a load-bearing zone mechanically associated with a pulley carrier structure This can be achieved in this way. Thus, the mechanical path followed by the excessive tensile load, It can be structurally separated from the transmission path where the electrical contact elements are located. 20 The rotating conductive contact element (35) is dependent on the rotational movement of the cable winding reel (7). While being arranged to act as a fixed conductive contact element (36), socket It is positioned on the body (2) or a fixed structure associated with the body. Rotary conductive contact element (35) and fixed conductive contact element (36), cable winding reel (7) 25 that will ensure that electrical contact continues between them at different angular positions. They are positioned opposite each other in this way. In one application, the rotary conductive contact element (35) rotates the cable winding reel (7). in the form of a circular or ring-shaped conductive contact region extending around its axis can be realized; the fixed conductive contact element (36) is the conductive contact area in question. 30 in the form of a conductive contact piece that maintains its sliding electrical contact. It can be configured in applications where more than one electrical transmission line is required. multiple rotating conductor contact elements (35) that are electrically insulated from each other and The corresponding fixed conductive contact elements (36) can be used 21 The electrical contact carrier element (37) is fixed with the rotating conductive contact elements (35). will maintain the working positions of the conductive contact elements (36) relative to each other and the necessary physical separation between electrical transmission paths that need to be isolated from each other It can be configured in such a way as to provide a fixed conductive contact element (36) rotating conductive In order to maintain the contact on the contact element (35) throughout the roller rotation, 5 At least one of the contact elements can be held under elastic pressure. This allows the cable winding to be... The possibility of interruption of electrical contact at different angular positions of the reel (7) while the reel movement is reduced, the power cable (4) has fixed electrical connections. The generation of torsion can be limited. Contact kept under elastic stress. The contact force created in the element is the electrical contact during the rotation of the pulley. fixed by a rotating conductive contact element (35) sufficient to maintain its continuity. work that will not unnecessarily increase the wear between the conductive contact element (36) This can be determined within the range of the geometry of the electrical contact surfaces and the conductor used. materials, predicted electrical current, reel rotation cycle, and contact wear conditions It can be selected by taking into consideration the rotary electrical transmission system (34) and the 15 a stable contact relationship in terms of both electrical and mechanical service life Its creation can be supported. The electrical contact carrier element (37), the rotating conductive contact element (35) and / or fixed the conductive contact element (36) must be held in the specified working position, contact maintaining the electrical relationship between the surfaces and the socket 20 of the elements in question contributes to the appropriate separation of the body (2) from other mechanical movements within it. This ensures that the power cable (4) is wound on the cable winding reel (7). or the rotational movement that occurs when it is removed from the reel is constant The transmission of electrical signals in the form of cable twisting is restricted. Rotary electrical transmission system (34), electrical 25 with mechanical cable management loop. It creates a functional distinction between energy transfer. Cable winding reel (7) power mechanically managing the length of the cable (4) the rotating conductive contact element (35) The electrical relationship between the fixed conductor contact element (36) and the angular relationship of the coil It allows for the continuation of electrical transmission regardless of its location. Thus, the cable can be pulled out, secured in different positions, or rewound. 30 torsion caused by the rotational movement of the cable winding reel (7) during transfer of loads to the fixed electrical connections of the socket system (1) It can be restricted. 22 Overload limiting device (30) and rotary electrical transmission device (34) They are arranged in a way that complements each other. The last pull of the power cable (4) If it reaches its position, the force taken through the final pull position stopper (31), through the tensile load transfer element (32) to the mechanical load receiving zone (33) Since it is directed, the said tensile force is directed to the rotating conductive contact element (35), 5 to a fixed conductive contact element (36) or electrical contact carrier element (37) The direct transfer of mechanical load is limited. In this way, mechanical Maintaining electrical transmission by meeting the pulling load varies within the system. However, this is accomplished through compatible payload and transmission paths. The invention also includes the partial or large 10 of the power cable (4) on the cable winding reel (7). to the extent that it is wrapped in working conditions, against temperature increases that may occur It includes a thermal safety device (38). The thermal safety device (38) includes the cable winding reel (7), power cable (4), rotary electrical transmission device (34) or socket the temperature status of a region suitable for thermal monitoring within the system (1) Departing from safe working conditions with the temperature sensing element (39) thermal break element (40) which limits or interrupts the transfer of electrical energy. It includes. The temperature sensing element (39) is located in the part of the power cable (4) that is wrapped around it or in this area. to detect temperature changes occurring in a thermally bound location It can be placed. The position of the temperature sensing element (39) is on the cable winding reel (7) 20 the temperature increase resulting from the amount of cable wrapped around it and the electrical charge Temperature can be selected in a way that allows for its reliable determination. sensing element (39) is in direct contact with the power cable (4) or the power cable (4) can be positioned on a nearby structure representing its thermal state. The thermal cut-off element (40) detects the thermal condition determined by the temperature sensing element (39) 25 If it exceeds the predetermined safe operating limit, the transmission of electrical energy will stop. It is arranged to limit or cut. Thermal cutting element (40), Retransmission is allowed depending on the temperature returning to the safe operating range. user intervention in a way that will provide or depending on security requirements It can be carried out in a way that requires. Thus, especially the power cable (4) is an important 30 part of the cable is wound on the reel (7) and the electrical socket system (1) Additional protection against thermal stresses that may occur when operating under load. is provided. 23 Monitoring zone of the thermal safety device (38), cable winding of the power cable (4) When wound on the reel (7), the removal of heat is relatively limited. a region where there is a contact region of the rotary electrical transmission device (34) or this It can be identified as a nearby location that can represent the thermal conditions of the regions. The temperature sensing element (39) can directly or thermally measure the temperature of the region in question. It can be positioned to detect through transmission. Thus, thermal safety. Its function is determined by the electrical load rather than the general ambient temperature of the socket housing. This can be related to the condition of the work area, which may become thermally critical. The thermal cutting element (40) is directly thermomechanical with the temperature sensing element (39). or in the form of a cutting element operating in thermoelectric relationship 10 as can be done, the temperature information received from the temperature sensing element (39) A switching element that opens an electrical transmission path depending on its evaluation. It can also be done in this way, provided that safe temperature conditions are re-established. Spontaneous restoration of electrical transmission or user intervention Re-activation can be determined later based on the system's usage requirements. 15 Thermal cut-off element (40) is the electrical cut-off element extending from the power cable (4) to the sockets (3). the ability to interrupt or limit the electric current along the transmission path It can be arranged in a position to provide thermal cut-off. The thermal cut-off process affects the entire socket system (1) as well as affecting the electrical supply, depending on the electrical architecture. also in a way that will limit the supply of the transmission line or output group 20 This can be achieved. Thus, the thermal status determined by the temperature sensing element (39) a direct technique between ensuring the safe transmission of electrical energy A relationship is being established. In the working principle of the invention, the user first plugs the power cord into the (4) cable outlet. It pulls outwards from the opening (5). The movement of the power cable (4) cable winding 25 It rotates the reel (7) around the reel shaft (10) in the direction of unwinding. Cable winding With the rotation of the pulley (7), the rewind spring element (13) is loaded and for rewinding The mechanical energy to be used is stored. The same rotational movement is interlocked in stages. It moves the locking wheel (16) of the mechanism (15). When the user reaches the required distance with the power cord (4), the locking tab opens 30 (18) the appropriate locking wheel (16) with the effect of the claw pressure element (19) It interacts with the stage (17). This interaction is the return of the cable winding reel (7). limiting its return under the influence of the winding spring element (13) and the force 24 Ensures that the cable (4) remains at the selected usage length. User thus the socket system (1) can be used at different distances, the entire cable can be brought out. It can be used without having to take it off. When use is complete, the user must intervene with the release element (21) The movement of the release element (21) is done by the lock release transmission element (22) 5 It is transferred from the locking tab (18) and the locking tab (18) is transferred to the relevant locking tab. It is separated from the stage (17). The cable winding reel (7) in the reverse direction When the lock is removed in this way, the mechanical element stored in the rewind spring element (13) The power starts to rotate the cable winding reel (7) in the reverse direction. Rewind speed limiting device (23) 10 during the return of the cable winding reel (7). It is put into operation. The return resistance element (24) and the return resistance contact surface (25) mechanical interaction between the rewinding spring element (13) of the cable winding reel (7) It limits its uncontrolled acceleration under its influence. Thus, the power cable (4) cable exit opening (5) into socket housing (2) with a more controlled movement is being taken. 15 During the same rewinding motion, the roller-guide motion transmission element (29), cable It transmits the rotational movement of the winding reel (7) to the movable cable guide (27). The movable cable guide (27) changes position on the guide movement path (28) to power it. It changes the entry point of the cable (4) on the reel hub (8). Thus The rewinding power cable (4) is located between the reel side limiting surfaces (9) 20 By distributing them across the winding area, their concentration in a single region is limited. The user can pull out the usable power cord (4) by continuing to pull it out. If it reaches the end of its distance, the excessive tensile load limiting device (30) It functions as a final pull position stopper (31), the mechanical end of the pulling motion. it establishes its limit; after that, the pulling force applied by the user is 25 through the tensile load transfer element (32) to the mechanical load receiving area (33) is transmitted. Thus, the final pulling force is transmitted to the electrical connection of the power cable (4). or to reach the rotary electrical transmission system (34) as a direct load It is being restricted. Rotary electrical transmission device (34), 30 during the electrical use of the socket system (1). Electrical transmission regardless of the angular position of the cable winding reel (7) It ensures continuity. Rotary conductive contact element (35), fixed conductive contact element (36) maintains its electrical contact throughout the movement of the reel; electrical contact The carrier element (37) is the working position of the contact elements in question. This contributes to its protection. Thus, mechanical cable movement and fixed sockets Continuous conduction is ensured between the electrical circuits. When the socket system (1) is operating under electrical load, the temperature sensing element (39), thermal For safety reasons, it monitors the temperature in the designated area. The temperature is 5 If the thermal cutting element (40) deviates from the specified safe working conditions It restricts or interrupts the transmission of electrical energy. Thus, the cable... may result from being used with the cable wound on the reel (7) the increase in temperature poses a safety risk in terms of the socket system (1) It is limited. Thus, the power of the socket system (1) in one usage cycle is 10 The mechanical movement, which begins with the pulling of the cable (4), the cable winding reel (7) It continues to rotate in the opening direction and store energy in the rewind spring element (13). (15) limiting the return of the pulley; release mechanism (20) When activated, the lock is released and the stored mechanical energy is recovered. 15 It is converted into motion. During rewinding, the rewind speed limiting mechanism... (23) cable routing device (26) while limiting the uncontrolled acceleration of the reel It changes the winding position of the power cable (4) on the reel hub (8). If the user forces the cable beyond its final pull position, the movement will change. Unlike the cycle, the mechanical load limiting device (30) of the excessive tensile load limiting device 20 the pathway becomes active and the pulling load is transferred from the electrical contact areas. It removes. The rotary electrical transmission system (34) removes all these pulley movements. thermal safety device (38) while maintaining electrical transmission continuity throughout Protection of the system against thermal operating conditions during electrical use. Therefore, the operation of the excessive tensile load limiting device (30) is ensured. replaces the mechanisms that perform the cable's normal pulling and rewinding cycle It is not a motion mechanism, but rather comes into play at the mechanical limit of the cycle in question. The input creates a protective load transfer function. The invention has an integrated structure with a stepped locking mechanism (15), and a release mechanism. (20), rewind mechanism (12), rewind speed limiting mechanism (23) and cable 30 The routing mechanism (26) is sequential depending on the usage status of the power cable (4). It consists of working stages. Pulling out the power cord (4) rewinding in the system (12) mechanical energy storage and the stepped locking system (15) 26 position change; phased locking when left for the selected usage length. the mechanism (15) limiting the pulley movement; the release mechanism (20) Activating the device releases the lock; releasing the lock activates the rewind mechanism. (12) moving the cable winding reel (7); the said movement is the rewind speed While being limited by the limiting mechanism (23), cable routing 5 It enables the positioning of the movable cable guide (27) of the mechanism (26). Thanks to this working relationship, the said arrangements are only the same socket system (1) It does not form independent functions brought together within it, the power cable (4) the different cycles of movement that occur from pulling to re-wrapping an integrated cable management system that manages the stages in a sequential manner 10 (6) creates. In one application of the invention, the number of locking stages (17) and the angular distance between them distance, according to which length ranges the power cable (4) can be fixed. It can be determined. Thus, the socket system (1) can be more or less frequent depending on the purpose of use. This can be done by having a wide range of cable length settings. 15 The relationship of motion between the locking wheel (16) and the cable winding reel (7) is direct or This can be achieved through a motion transmission structure. In one application of the invention, the elastic characteristic of the rewind spring element (13) and the return The mechanical resistance created by the winding speed limiting device (23) is compatible with each other. It can be determined in such a way that the power cable (4) is pulled out in 20 different ways. while maintaining sufficient force for rewinding along the lengths, the return speed of the cable It can be limited to undesirable levels for the user or socket system (1). In one application of the invention, a rotational resistance element (24) and a rotational resistance contact surface (25) The mechanical interaction between them is continuous or active during specific motion states of the pulley. This can be implemented in such a way. The geometry and contact relationship of the elements in question, 25 the desired action to be created during the rewinding motion of the cable winding reel (7) It can be adjusted according to its resistance characteristics. In one application of the invention, the pulley-guide motion transmission element (29) is used for cable winding. The movable cable guide (27) corresponds to each specific amount of rotation of the pulley (7) 30 so that it can move a certain distance on the guide path (28). It can be configured. Thus, the diameter of the power cable (4) and the advancement of the cable guide (27) The successive cable windings are made in harmony between the amount of the reel hub (8) It can be placed more evenly on the surface. 27 When the movable cable guide (27) reaches an end region of the guide's movement path (28) It can be configured to reverse the direction of movement. This allows the cable winding to be reversed. depending on the winding capacity of the reel (7) power cable (4) reel hub (8) back and forth, creating multiple layers of winding on it. It can be wound by being guided. The mechanical 5 of the roller-guide motion transmission element (29) The system can be structured in a way that will facilitate this mutual guidance process. In one application of the invention, the over-tensile load limiting device (30) is used for the power cable. (4) before reaching the last available withdrawal position or at that position It can be arranged in such a way as to form a mechanical load path. Thus, the power cable (4) the area to which it is electrically connected, 10 of the pulling force applied by the user It can be removed from being a direct carrier. Tensile load transmission element (32) and mechanical Load bearing area (33) varies according to the predicted mechanical loads of the socket system (1). This can be realized in geometries. In one application of the invention, the mechanical load bearing area (33) is the socket housing (2) It can be formed as a reinforced section or inside the socket housing (2) 15 It can also be created on a separate, fixed carrier piece. In this way, excessive tension can occur. the structure on which the force is met, regardless of the general shape of the socket body (2) It can be designed according to mechanical strength requirements. In one application of the invention, multiple rotary electrical transmission devices (34) are used. conductive contact element (35) and corresponding multiple fixed conductive contacts 20 element (36) can be used. The number of contact elements and the electrical connection the arrangement depends on the conductive structure of the power cable (4) and the electrical structure of the socket system (1) can be determined according to their requirements. The electrical contact carrier element (37) is different from each other. physically capable of supporting contact elements that need to be electrically insulated Configurable. 25 In one application of the invention, the thermal safety device (38) has a temperature sensing element. (39) thermal cut-off element (40) which works directly depending on the temperature value it detects. This can be done. Alternatively, thermal interruption with a temperature sensing element (39) An electrical control relationship can be established between the element (40) depending on the temperature condition. In both cases, the main function of the thermal safety device (38) is to ensure that the power cable (4) 30 to protect against unwanted temperature increases that may occur under wrapped usage conditions The goal is to make the transmission of electrical energy safe. 28 The components of the integrated cable management system (6) are inside the socket housing (2). They can be mounted directly on separate beds, as well as on a cable winding reel (7), rewinding mechanism (12), step locking mechanism (15), rewind speed limiting mechanism (23) and a common mechanical system that carries at least one part of the cable routing system (26) They can also be assembled on the load-bearing structure. In such a form of implementation, the common 5 The load-bearing structure ensures that the working positions of the movable components are maintained relative to each other. and a mounting unit inside the socket housing (2) of the integrated cable management system (6) This may allow for placement in that manner. However, the aforementioned common carrier The use of the structure is not mandatory and the devices are directly inside the socket housing (2). It is also possible to place them in such a way that they establish a functional relationship with each other. 10 The dimensions, materials, connection types, and socket housing of the mechanical components of the invention. (2) the exact locations inside, the area of ​​use of the socket system (1), the power cord (4) length and cross-section, (7) capacity of the cable winding reel and the intended It can be modified according to electrical and mechanical operating conditions. However, the aforementioned changes, taking out the power cord (4), fixing it gradually, user 15 release by intervention, limiting rewind speed, rewinding the electrical guidance of the cable on the reel and the final tensile load The basic principle is to meet the demand through mechanical structure by moving away from the connections. It does not change the employment relationship. As a result, the socket system (1) in question; the unused part of the power cord (4) 20 cable winding reel (7) which is kept inside the socket housing (2), cable winding the rewinding mechanism (12) which provides rewinding force to the reel (7), the power cable (4) The stepped locking mechanism (15) which holds at different usage lengths the release mechanism (20) which removes the lock by user intervention, rewind the rewind speed limiting device (23) which limits the speed of its movement, the recovered power 25 cable routing device which manages the position of the cable (4) on the reel (26), the excess force that occurs in the final tensile position is directed to the mechanical structure. the tensile load limiting device (30), between the movable pulley and the fixed socket structure the rotating electrical transmission device (34) which ensures the continuity of electrical transmission and the coiled The temperature that may result from the use of the power cable (4) under electrical load is 30 thermal safety device (38) which provides protection against increase within the same technical structure They are functionally related to each other. Thus, by pulling the power cable (4) It begins with a gradual stabilization over the selected length of use, and continues with... 29 User-controlled release followed by speed limitation and winding position. The cable movement is completed by being returned to the reel in a directed manner. The cycle is managed in an integrated manner. The mechanical load generated at the final tension position, The socket housing is connected to the electrical transmission path via a mechanical load transfer path separated from the electrical transmission path. (2) while being directed to the section that can handle the load, the rotary electrical transmission system (34) 5 It maintains electrical transmission continuity independently of pulley movement and thermal safety device (38) from the use of the coiled cable under electrical load It provides protection against potential thermal conditions. In this way, the cable mechanical management of length, control of rewinding movement, winding pattern protection, mechanical isolation of excessive tensile load, movable and fixed structures 10 continuity of electrical transmission and thermal safety between them within the same socket system (1) These are implemented as technical functions that complement each other. Industrial Application of the Invention: The invented socket system provides a safe and reliable distribution of electrical energy to different points of use. controlled delivery is necessary for residential, office, educational, workshop, and technical 15 It is suitable for use in service areas, production areas, laboratories and similar locations. The system includes: socket housing, power cord, cable winding mechanism, rewinding mechanism, Step-by-step locking and releasing mechanisms, mechanical systems that limit rewind speed. structure, cable routing mechanism, mechanical structure that withstands excessive tensile load, a 20 integrated rotary electrical transmission structure and thermal safety components They can be manufactured using mass production techniques by assembling them together. The socket housing and the mechanical support components of the system, electrical insulation, mechanical meeting requirements for strength, impact resistance, dimensional stability and safety in use. Cables can be manufactured from polymer-based, composite, or equivalent engineering materials. Winding, locking, releasing, motion transmission, cable routing and mechanical load 25 The components that perform the reception functions are based on the anticipated workloads and usage. Depending on the conditions, plastic injection, metal forming, machining, pressing, It can be produced by casting or other suitable mass production methods. Generating retraction force, maintaining the locking action, and moving 30 elastic bands used to guide mechanical components to their operating positions. Components; suitable spring steel, elastomeric materials or equivalent elastic properties. It can be produced using materials that demonstrate this. Used in electrical energy transfer. The movable and stationary contact components are subject to electrical conductivity, contact continuity, and wear resistance. Suitable conductors and insulators, taking into account resistance and electrical insulation requirements. It can be made from various materials. The invented power outlet system can accommodate different power cord lengths, different numbers of sockets, and different... can be manufactured according to body dimensions and different electrical operating capacities Scalable. Graduated cable fastening intervals, rewind force, rewind 5 Mechanical resistance created during the process, cable routing distance, and excessive tension. The mechanical load values ​​to be met in this case depend on the intended use of the product and the anticipated This can be determined during the production and assembly phases according to working conditions. During the system's production, the unused portion of the power cord is used as the socket housing. The cable winding structure inside allows it to be stored coiled up. 10 It is placed inside; the power cable comes out of the outlet created on the body. It is directed outwards. Gradual locking, user-controlled release, speed. limited rewinding and cable routing along the winding surface functions The mechanical structures that perform this function, from pulling the power cable back into the housing. The work cycle that takes place until it is received is 15, in a way that is compatible with each other. It is assembled in a way that will enable it to function. The mechanical load that occurs in the case of excessive tension can affect sensitive electrical connections. components that enable the transfer of load to the mechanical load-bearing structure instead of being carried by the mechanical load-bearing structure. The system is positioned during production taking into account the mechanical load path. Thus, if the usable pull distance of the power cable is reached, 20 the generated forces cause mechanical stress in the electrical contact areas It can be restricted. The transfer of electrical energy between the movable cable winding structure and the fixed socket structure. the contact components that provide this, during the removal and rewinding of the cable, will maintain the continuity of electrical transmission regardless of the incoming rotational movement 25 They can be mounted into the system in this way. The components for thermal safety are coiled power. Temperature that may occur when the cable is used under electrical load It will detect increases and provide electrical warnings if safe working conditions are violated. It can be integrated into the system in a way that will limit or interrupt energy transfer. Following production and assembly processes, the system can be configured to 30 different cable lengths for various uses. pulling, fixing in selected positions, releasing from locked state, at controlled speed rewinding, guidance during winding, mechanical action in the final pull position ensuring the load is safely met, electrical connections between mobile and fixed structures. 31 in terms of maintaining transmission and performing thermal safety functions It can be tested. The operating characteristics of the mechanical cable management system vary during the mass production phase. This can be verified under various cable pull lengths and repeated pull-and-rewind cycles; The repeatability of the stepped locking and releasing structures, the rewind speed is 5 Maintaining within the specified operating range, the distribution of the cable on the winding surface, and the final The transfer of the load occurring in the tensile position to the mechanical load-bearing structure is controlled. This is possible. The electrical transmission structure involves the transmission between moving and stationary components. It can be tested in different reel positions in terms of continuity; thermal safety. The operating conditions of the structure also depend on the different winding ratios of the cable and the anticipated electrical 10 This can be verified under loads. These tests are integrated into production quality control processes. Its adaptability allows the system to be replicated across different product sizes and cable lengths. It enables industrial production. Thus, the socket system described in this invention can be replicated using mass production methods. can be manufactured in various ways, with different cable lengths, number of sockets, body dimensions and 15 mechanical and electrical, scalable according to their electrical operating capacities. components that can be assembled in accordance with assembly and quality control processes It can be implemented as an industrial product. The system's cable length management, stepped locking, controlled release, speed-limited rewind, Guided cable winding, mechanical resistance to excessive tensile load, rotating 20 ensuring continuity of electrical transmission and thermal safety through the building. Its functions are applicable to different product configurations. With these features... the system, existing electrical energy distribution infrastructures and electrical or electronic devices suitable for use together, for mass production, assembly, testing and maintenance operations, and It creates a socket system suitable for industrial use. 25

Claims

32 REQUESTS 1. The transfer of electrical energy to one or more electrical and electronic devices. a socket housing (2) that carries at least one socket (3) which enables the transfer of electricity power cable (4) which enables the transmission of its energy to the socket system (1) and the said the power cord (4) should be removed from the socket housing (2) and the socket housing 5 should be put back in. (2) a socket system containing a cable outlet opening (5) that allows the cable to be pulled into it. (1) and its feature is that the unused part of the power cord (4) is the socket housing (2) kept wrapped inside and returned by pulling the power cord (4) cable winding that performs bidirectional rotational movement depending on how it is taken pulley (7); pulling the power cable (4) in different pulling positions 10 fixing, releasing with user intervention and rewinding cable winding to manage the mechanical motion cycle that occurs during integrated cable management system (6) mechanically associated with the reel (7); power mechanical energy during pulley movement due to the pulling out of the cable (4) by storing the cable winding reel (7) in the direction of rewinding, rotational force 15 the rewinding mechanism (12) which applies the rotational movement of the cable winding reel (7) Depending on the power cable (4) selector, there are different pulling positions. stepped locking mechanism (15) which enables the user to fix it in the way; Depending on the intervention, the locking status of the stepped locking mechanism (15) by lifting the cable winding reel (7) under the effect of the rewinding mechanism (12) 20 release mechanism that allows movement in the reverse direction (20); back the return movement produced by the winding mechanism (12) completely without obstruction the speed of movement of the cable winding reel (7) in the reverse direction limiting rewind speed limiting device (23); power cable (4) The final pull that establishes the mechanical limit at the end of the usable pull distance is 25. position stopper (31), pull occurring at the last pull position in question tensile load transmission element (32) which transmits the load and where the tensile load is met Over-tensile load limiting including mechanical load bearing zone (33) during the bidirectional rotational movement of the cable winding reel (7) with the mechanism (30) the movable electrical transmission section of the power cable (4) and the fixed 30 of the socket housing (2) a rotary switch that ensures the continuity of electrical transmission between electrical transmission sections including the electrical transmission system (34); pulling out the power cable (4) mechanical in the rewinding mechanism (12) of the movement of the connected cable winding reel (7). to ensure energy storage and the stepped locking mechanism (15) cable winding 33 Multiple selector locking corresponding to different angular positions of the pulley (7) to create the position, the step locking of the release mechanism (20) to release the mechanism (15) from the locked position in the rewind mechanism (12) the stored mechanical energy to the rewinding motion of the cable winding reel (7) the ability to convert, the rewind movement in question, rewind speed 5 limiting speed by the limiting mechanism (23) and final withdrawal the final tensile position stop of the tensile load occurring in position (31) with the tensile load transfer element (32) to the mechanical load receiving zone (33) where the rotating electrical transmission system (34) is located by creating a mechanical load transfer path separated from the electrical transmission path 10 It is characterized by...

2. According to claim 1, the socket system is (1) and its feature is; the cable winding reel (7), power the reel hub (8) on which the cable (4) is wound, the winding of the power cable (4) at least one pulley side restraint that limits its lateral departure from the area. its surface (9), the reel shaft which determines the rotation axis of the cable winding reel (7) 15 (10) and the rotation of the cable winding reel (7) around the said reel shaft (10). It is characterized by containing a roller bearing element (11) that supports its movement. is being done.

3. According to claim 1, the socket system is (1) and its feature is; the rewind mechanism (12), power The opening of the cable winding reel (7) depends on the pulling out of the cable (4). storing elastic energy during its movement in that direction, and the cable winding reel (7) If released, the stored energy will rotate in the direction of rewinding. at least one rewind spring element (13) which converts the movement into a return spring and the said return winding spring element (13) cable winding reel (7), socket housing (2) or with these Spring 25 that enables it to be mechanically connected to a fixed carrier region. It is characterized by containing the fixing element (14).

4. According to claim 1, the socket system is (1) and its feature is; the stepped locking mechanism (15), locking wheel (16) associated with the rotational movement of the cable winding reel (7), said The subject is on the locking wheel (16) or mechanically with the locking wheel (16). Multiple 30s created in related but different angular positions locking stage (17), selectively with the said locking stages (17) mechanically interacting locking tab (18) and locking tab (18) It is characterized by containing a claw pressure element (19) that forces in the locking direction. is being done. 34 5. According to claim 4, the socket system is (1) and its feature is; the contact of the locking stages (17). the geometry of the contact surface of the locking tab (18) and the power cable (4) outside The successive locking tab (18) in the direction of rotation of the pulley corresponding to its removal passing through the locking stages (17) or temporarily with the said stages reel 5 in the rewind direction, which allows it to detach from the interaction. In the movement, the locking tab (18) holds with the relevant locking stage (17). by entering into the relationship, selectively return the cable winding reel (7) It is characterized by creating a limiting, direction-dependent mechanistic interaction. is being done.

6. The socket system (1) according to request 4 or 5, its feature is; the release mechanism is 10 (20), the user-movable release element (21) and the word by transmitting the movement of the release element (21) to the locking tab (18) enabling the locking tab (18) to be separated from the relevant locking stage (17). It is characterized by containing the lock release transmission element (22).

7. According to claim 6, the socket system is (1) and its feature is; the release mechanism (20), 15 depending on user intervention on the release element (21) as a lock release transfer element (22) through the locking tab (18) Rewinding the cable winding reel (7) by separating it from the locking stage (17) free movement that allows it to move in the reverse direction under the influence of the mechanism (12). to move to position and the rewind cycle of the cable winding reel (7) 20 after completion the relocking stages of the locking tab (18) (17) to return to the locking ready position which can interact with selective mechanical interaction. It is characterized by being structured in a way that allows for such possibilities.

8. According to claim 1, the socket system is (1) and its feature is; the rewind speed limiting device. (23), controlled against the movement of the cable winding reel (7) in the reverse direction 25 at least one rotation resistance element (24) that generates mechanical resistance and the word The subject is the rotational resistance element (24) with which the rotational resistance contact interacts including the surface (25); the rotational resistance element (24) and the rotational resistance contact surface (25) mechanical interaction between the rewind mechanism (12) without completely blocking the return movement of the cable winding reel (7) back 30 counter moment that will limit the uncontrolled angular acceleration in the winding direction It is characterized by its ability to produce.

9. According to claim 8, the socket system is (1) and its feature is; the return resistor element (24), cable a winding reel (7) or a cable winding reel (7) that moves together 35 the mechanical element is related to rotational motion and the rotational resistance in question element (24) with continuous or reverse resistance contact surface (25) by making contact in a specific part of its movement, the cable winding reel (7) returns friction-induced counter-moment against the rotational movement in the winding direction It is characterized by its formation. 5 10. According to claim 1, the socket system is (1) and its feature is; the cable winding reel (7), power having a reel hub (8) on which the cable (4) is wound and cable routing the mechanism (26), the power cable (4) back onto the cable winding reel (7) During the taking of the power cable (4) on the said reel hub (8) movable cable guide (27) which determines the entry position, movable cable 10 allowing the guide (27) to move along the pulley axis guide path (28) and rotational movement of the cable winding reel (7) roller-guide motion transmission element that transmits motion to the movable cable guide (27) (29) is characterized by its inclusion.

11. According to claim 10, the socket system is (1) and its feature is; roller-guide motion transmission 15 The element (29) rotates the cable winding reel (7) and the moving cable linear or forward-backward on the guide path (28) of the guide (27) transforming into movement and the guide of the said movable cable guide (27) When it reaches one end region of the path of movement (28), it changes the direction of movement and turns towards the opposite By moving towards the end region, the power cable (4) pulley hub (8) 20 to create multiple winding rows or layers on it It is characterized by its direction.

12. According to claim 10, the socket system is (1) and its feature is; roller-guide motion transmission. the element (29) corresponds to a certain angular movement of the cable winding reel (7). The outer diameter of the power cable (4) of the movable cable guide (27) and the reel hub 25 (8) a specific axial displacement related to the available winding width It is characterized by having a mechanical transmission ratio that will enable it to perform its function. is being done.

13. According to claim 1, the socket system is (1) and its feature is; the final pull-out position stopper (31), power cable (4), cable winding reel (7), 30 associated with cable winding reel (7) position depending on the pulling action of a movable element or power cable (4) on or mechanically related to a mechanical component that changes positioning and the usable pull of the power cable (4) pull applied by the user when the end of its length is reached 36 with the rotating electrical transmission device (34) of the power cable (4) a mechanical stop before it is directly transferred to the electrical connection It is characterized by the formation of a relationship.

14. According to claim 13, the socket system is (1) and its feature is; the tensile load transfer element (32), mechanical load bearing zone (33) with end pull position stopper (31) 5 a single-piece structure that transmits direct force between two or mechanically contacted elements or constructed as multiple carrier components in a connected form. and the mechanical load bearing area (33), the tensile load of the socket housing (2) a reinforced section suitable for meeting, fixed inside the socket housing (2) mechanical 10 with a separate carrier part or cable winding reel (7) carrier structure final pull by creating a related load-bearing zone. the mechanical load occurring at this position, the tensile strength of the electrical transmission elements Mechanical load bearing zone (33) which will not require carrying the load It is characterized by being met through this method.

15. According to claim 1, the socket system is (1) and its feature is; the rotary electrical transmission device is 15 (34) at least one associated with the movable electrical part of the cable winding reel (7). the rotating conductive contact element (35) with the fixed electrical part of the socket housing (2) associated with at least one fixed conductive contact element (36) and a rotary conductive contact element (35) and the working positions of the fixed conductive contact element (36) relative to each other 20 by including the electrical contact carrier element (37) which ensures its protection It is characterized by...

16. According to claim 15, the socket system is (1) and its feature is; the rotating conductive contact element (35), circular or ring extending around the axis of rotation of the cable winding reel (7) the formation of a shaped conductive contact region, a fixed conductive contact element (36) sliding electrical contact element (35) on the said rotary conductor contact element. positioned in such a way as to maintain contact throughout the reel rotation and rotate at least one of the conductive contact element (35) or fixed conductive contact element (36) by keeping it under elastic pressure to maintain electrical contact It is characterized by...

17. According to claim 15, the socket system is (1) and its feature is that the electrical contact carrier element is 30 (37), multiple rotary conductive contact elements (35) and their corresponding fixed will hold the conductive contact elements (36) in their working positions relative to each other and between electrical transmission paths that need to be electrically isolated from each other It is characterized by being structured in a way that provides physical separation. 37 18. According to claim 1, the socket system is (1) and its feature is; the power cord (4) cable winding electrical coil (7) on which it is partially or largely wound Thermal safety against temperature variations occurring in working conditions. the system (38), the thermal safety system (38) in question from a thermal point of view temperature sensing element (39) which detects the temperature status of the monitored area and 5 If the defined safe working conditions are deviated from, electrical energy will be cut off. by including a thermal break element (40) that limits or interrupts the transfer. It is characterized by...

19. According to claim 18, the socket system is (1) and its feature is; temperature sensing element (39), When the power cable (4) is wound on the cable winding reel (7), the heat is 10 a region where displacement is relatively limited, rotary electrical transmission thermal condition of the contact area or areas of the arrangement (34) directly or through thermal conduction, determine the temperature of a nearby location. It is characterized by being positioned in a way that allows it to be perceived.

20. The socket system (1) according to claim 18 or 19, and its feature is; the thermal cut-off element is 15 (40), electrical cable (4) extending from the power cord to the socket or sockets (3) positioning of the transmission path and temperature sensing element (39) If the determined thermal condition exceeds the safe operating limit, the socket the entire electrical supply of the system (1) or a specific electrical transmission 20 It is characterized by its structure.

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