Reversible rotating stand

Abstract

The invention relates to a mechanical workstation device (1) configured to allow alternation between a first configuration and a second configuration, the device (1) comprising a support (10) having a first group of electronic components fixed on its first main face, the support being suitable for mounting on a support frame (15), a rotation mechanism (13) configured to drive the support (10) in rotation about a main axis (X13) relative to the support frame (15), the device (1) comprising, fixed on its second main face (102), substantially parallel to its first main face, a second group of electronic components (12), such that the rotation of the support (10) about the main axis (X13) allows selective access to one or the other group of electronic components.

Description

Title of the invention: Reversible rotating support technical field

[0001] The present invention relates to the field of automated devices for work environments. More specifically, it finds its application in recording and mixing studios requiring alternative mixing stations, particularly in the field of DJing. State of the art

[0002] Currently, in the field of workspaces incorporating complex electronic systems, it is common to have to switch between several devices depending on the user's specific needs. These spaces, often limited in terms of available surface area, generally do not allow for the integration of several electronic systems simultaneously. This constraint necessitates the presence of only one system at a time, which represents a significant limitation in professional environments requiring high flexibility and rapid adaptation.

[0003] Managing this spatial constraint leads to a second major problem: the manual reconfiguration of equipment. Switching from one configuration to another often requires dismantling and reinstalling components, which can be both complex and time-consuming. This manual reconfiguration involves precise technical adjustments, often performed under time constraints. These operations inevitably disrupt the workflow and generate inefficiencies, particularly in environments where operational precision and efficiency are essential.

[0004] To overcome this problem, some solutions exist, such as those described in some previous documents, which allow manual rotation of a two-sided support within a table, where the swiveling assembly allows alternation between a first working configuration on one side of the support and a second configuration on the other side.

[0005] Patent application CN101032358A, for example, describes a rotating system in an office context with a system allowing switching between two configurations. Electronic components such as a computer keyboard are attached to one of the surfaces of a support, and when the support is manually rotated, it is possible to switch to another configuration in which one face is free of any components, restoring the initial functionality of the desk.

[0006] Although this type of device allows switching from a desktop configuration to a keyboard configuration, it does not allow switching between two configurations featuring electronic components. Indeed, nothing in this document suggests how to manage the transition without manually connecting or disconnecting the cables.

[0007] Furthermore, this type of device does not appear to be suited to current professional needs, in which rapid transitions between configurations are essential. Finally, nothing in this system seems to allow for precision in the rotational movement that would guarantee a controlled alternation from a first configuration to a second configuration.

[0008] Current systems therefore fail to offer a solution enabling rotation that is both precise, secure and controlled, adapted to the needs of users wishing to quickly alternate between two workstations comprising electronic components already configured within the same restricted workspace.

[0009] The present invention aims to overcome or at least mitigate these limitations. The other objects, features, and benefits of this invention will be more clearly defined in the detailed description and illustrations that follow. It should be noted that other advantages may also be incorporated therein. Summary

[0010] To achieve this objective, the invention proposes a mechanical workstation device configured to allow switching between a first configuration and a second configuration, the device comprising: i. a support having a first group of electronic components fixed on its first main face, the support being suitable for pivot mounting on a support frame, ii. a rotation mechanism configured to drive the support in rotation about a main axis relative to the support frame.

[0011] The device also includes, fixed on its second main face, substantially parallel to its first main face, a second group of electronic components, so that rotation of the support around the main axis allows selective access to one or the other group of electronic components.

[0012] The simplified rotation of the support allows easy switching between two predefined configurations, offering quick and selective access to either group of electronic components fixed on its main faces.

[0013] Consequently, this device improves the versatility and efficiency of workstations requiring frequent transitions between different configurations.

[0014] As a result, this configuration offers an innovative technical solution that facilitates access to the different groups of electronic components while optimizing the use of space.

[0015] In addition, thanks to the rotation of the support around its main axis, handling is simplified and the risks of errors in accessing electronic components are reduced.

[0016] Without the present invention, users would have to resort to more complex and less practical systems, involving manual adjustments or separate devices to access several groups of electronic components.

[0017] Thus, the device according to the present invention allows for smoother and more ergonomic management of electronic components on a workstation, while ensuring a significant time saving for users.

[0018] The invention also relates to a system comprising a device and a support frame.

[0019] The invention also relates to a method for automated switching between two configurations of a workstation by means of a device comprising: i. a support having a first group of electronic components fixed on its first main face, the support being suitable for pivot mounting on a support frame, ii. a rotation mechanism configured to drive the support in rotation about a principal axis relative to the support frame, iii. a second group of electronic components fixed on its second main face, substantially parallel to its first main face, so that rotation of the support around the main axis allows selective access to one or the other group of electronic components.

[0020] The process comprises the following steps: i. activation of a remote motor via a control system to drive the support in rotation, ii. rotation of the support to one of the predefined configurations between the first configuration and the second configuration, iii. Automatic locking of the support in the selected configuration, iv. deactivation of the engine to stabilize the selected configuration and allow the use of the workstation. Brief description of the figures

[0021] The aims, objects, features and advantages of the invention will become clearer from the detailed description of an embodiment thereof, which is illustrated by the following accompanying drawings in which:

[0022] [Fig.1A] Figs.1A to 1F represent an example of a device according to the invention from the first configuration to the second configuration.

[0023] [Fig.1B]

[0024] [Fig.lC]

[0025] [Fig.1D]

[0026] [Fig.1E]

[0027] [Fig.1F]

[0028] [Fig.2] Fig.2 represents an example of a mechanical device according to the invention in a low-angle view in a first operating configuration.

[0029] [Fig.3] Fig.3 represents a zoomed view of the articulated arm of the example device of Fig.2.

[0030] The drawings are given by way of example and are not limiting of the invention. They constitute schematic representations of principle intended to facilitate understanding of the invention and are not necessarily to scale with practical applications. Detailed Description

[0031] Before beginning a detailed review of embodiments of the invention, optional features which may possibly be used in association or alternatively are stated below.

[0032] According to one example, the device includes a remote motor configured to drive the rotation of the support.

[0033] This reduces vibrations and ensures smooth movement of the support during transitions between configurations. Indeed, the remote motor limits the mechanical stresses directly on the support, thus increasing the system's lifespan.

[0034] Advantageously, the remote motor allows for smooth and controlled rotation between the two configurations, thus optimizing the workspace.

[0035] This allows for space savings and better organization of electronic components. Indeed, the remote motor does not occupy space on the support, leaving more usable surface area for the component groups.

[0036] According to one example, the device includes an articulated arm configured to transmit the movement of the motor to the rotating support, ensuring precise and controlled rotation.

[0037] This ensures optimal transmission of motion and reduces energy losses. Indeed, the articulated arm provides a reliable mechanical link between the remote motor and the rotating support, ensuring increased precision in movements.

[0038] According to one example, the device includes a control system configured to allow remote activation of rotation, said system offering programming options for a customized configuration change.

[0039] This allows for more intuitive control and customization of rotations according to the user's needs. Indeed, the control system can be programmed to perform automatic or manual changes depending on the tasks to be carried out.

[0040] According to one example, the stand includes a radial side face having at least one cable entry configured to allow an electrical and / or audio connection to the stand. The device is configured so that said radial side face remains oriented towards the ground during the transition of the stand from the first configuration, in which the first main face is oriented towards the user, to the second configuration, in which the second main face is oriented towards the user.

[0041] This prevents any excessive winding or tension of the cables during the rotation of the support; indeed, this arrangement ensures that the cables remain organized and functional while minimizing the risks of disconnection or deterioration, even during frequent use.

[0042] According to one example, the rotation mechanism includes a locking system, preferably automatic, configured to hold the support in position in one of the two configurations so that at least one of the main surfaces is substantially horizontal, thus ensuring stability during its use.

[0043] This prevents any accidental movement of the support during use. Indeed, the automatic locking system firmly holds the support in position, ensuring the stability of the electronic components even in environments subject to vibrations or movement.

[0044] According to one example, the remote motor is coupled to a position sensor configured to detect the exact position of the support, allowing precise alignment of the configurations.

[0045] This allows the support to be positioned with high precision, eliminating alignment errors between configurations. Indeed, the position sensor detects the orientation of the support in real time and automatically adjusts the rotation to achieve the desired configuration.

[0046] According to one example, the device includes a cable management mechanism, configured to prevent cable tangling during rotation of the support, thus ensuring uninterrupted connection continuity.

[0047] This helps protect the connections and ensure continuous operation of the electronic components. The cable management mechanism guides the cables in an organized manner, preventing tangling and potential electrical interruptions.

[0048] Advantageously, the device is configured so that the cables are guided through the support. Preferably, the cable passage takes place at the level of the main axis. This simplifies the overall structure and ensures reliable operation.

[0049] According to one example, the control system is equipped with a user interface allowing the desired configuration to be selected manually or automatically, with safety options to prevent accidental rotations.

[0050] This increases safety during use and prevents human error. Indeed, the user interface offers a clear and precise selection of configurations, with software locks preventing any unintentional rotation.

[0051] According to an example, in the first configuration, the second group of components is not accessible. Preferably, the second group is not visible in the first configuration.

[0052] This protects the second group of components from interference or accidental manipulation. Indeed, in the first configuration, only the main face containing the first group of components is exposed, thus ensuring safe use.

[0053] Advantageously, in the second configuration, the first group of components is not accessible. Preferably, the first group is not visible in the second configuration.

[0054] This ensures the integrity of the first group of components by preventing any access. Indeed, their inaccessibility reduces the risk of damage or error during use.

[0055] The term "accessible" in relation to the first or second group of electronic components means that they can be accessed manually, that is, that a user can use them under comfortable and optimal conditions.

[0056] It is specified that, within the framework of the present invention, the terms "on", "overcomes", "covers", "underlying", "opposite" and their equivalents do not necessarily mean "in contact with".

[0057] In the following description, unless otherwise indicated, when reference is made to absolute position qualifiers, such as the terms "front", "back", "top", "bottom", "left", "right", etc., or relative position qualifiers, such as the terms "above", "below", "superior", "inferior", etc., or to orientation qualifiers, such as the terms "horizontal", "vertical", "lateral", etc., reference is made to the orientation of the corresponding figures, with the device according to the invention placed in its operating configuration.

[0058] The terms "approximately", "about", "on the order of" mean "approximately to within 10%, preferably to within 5%" or, with regard to an angular orientation, "to within 10°". "Thus, a direction substantially normal to a plane means a direction having an angle of 90+10° with respect to the plane.

[0059] In the following description, the term "on" does not necessarily mean "directly on." Thus, when it is stated that a part or component A is supported "on" or "supported" by a part or component B, this does not mean that parts or components A and B are necessarily in direct contact with each other. These parts or components A and B may be either in direct contact or supported by each other via one or more other parts. The same applies to other expressions such as, for example, the expression "A acts on B," which may mean "A acts directly on B" or "A acts on B via one or more other parts."

[0060] In this patent application, when two parts are described as distinct, this means that these parts are separate. They are: i. positioned at distances from each other, and / or ii. mobile relative to each other and / or iii. joined together by being fixed by added elements, this fixing being removable or not.

[0061] A single-piece unit cannot therefore be made up of two separate parts.

[0062] For the purposes of this invention, "support" means any support having a surface or location configured to allow the arrangement of electronic components. This could be, for example, a tray, a box, or a casing.

[0063] For the purposes of this invention, "workstation" shall mean any device or functional assembly configured to allow the simultaneous or alternating use of several groups of electronic components in a given environment. This could be a space equipped for specific tasks, such as an audio recording station, a mixing console, or a technical office incorporating electronic equipment.

[0064] The present invention is not limited to the examples described above. Many other embodiments are possible, for example by combining features described above, without departing from the scope of the invention.

[0065] According to a preferred embodiment, the device 1 comprises a support 10 having a first main face 101 and a second main face 102, substantially parallel to each other. Advantageously, the first main face 101 is configured to support and hold in position a first group of electronic components 11, while the second main face 102 supports and holds in position a second group of electronic components 12. The support 10 is configured so as to be rotationally movable about the main axis Xn relative to the support frame 15, thus allowing alternation between the two working configurations. Preferably, this alternation is ensured by a rotation mechanism 13.

[0066] As illustrated in Figures IA to 1F and according to one embodiment, the mechanical device 1 is configured to allow alternation between a first configuration and a second configuration. In the first configuration, as illustrated in [Fig. 1A], the first main face 101 of the support 10 is oriented towards the user, providing direct access to the first group of electronic components 11. Preferably, in the second configuration, illustrated in [Fig. 1F], the second main face 102 of the support 10 is oriented towards the user, allowing access to the second group of electronic components 12. Preferably, in each configuration, the main faces 101 and 102 can be positioned horizontally to ensure comfortable and optimal use of the electronic components.This device 1 thus ensures a smooth and efficient transition between the two configurations, while optimizing the available workspace.

[0067] The transition from the first configuration to the second configuration is preferably achieved by a 180° rotation of the support 10 around the main axis Xn, driven by the articulated arm 21. Preferably, the directions of rotation from one configuration to the other are opposite. The articulated arm 21 may have a first end 211 connected to the motor 20, allowing the transmission of motor torque, and a second end 212 connected to the support 10, allowing the generation of a stable and controlled rotational movement. Preferably, this arrangement ensures efficient transmission of motor torque to the articulated arm 21, enabling smooth and precise movement of the support 10.

[0068] According to a particular embodiment, the articulated arm 21 can be specifically designed to optimally transmit the motion generated by the motor 20 to the support 10. Preferably, the articulated arm 21 comprises at least a first transmission portion 210, extending mainly in a direction parallel to the secondary direction Y21. Advantageously, this orientation, aligned with the support frame 15, ensures reliable and energy-loss-free transmission, while minimizing mechanical stress on the entire system.

[0069] This configuration not only allows for a rapid and efficient switching between the two configurations, but also preserves the stability of the electronic components 11 and 12, even during frequent rotations or in environments subject to vibrations. This integrated mechanism, comprising the articulated arm 21, the motor 20, and the rotation mechanism 13, offers increased precision, while also enhancing the durability and overall efficiency of the device 1.

[0070] Preferably, the secondary direction Y2i corresponds to the main extension direction of the articulated arm 21. This direction is defined as a preferred orientation for transmitting the motion generated by the motor 20 to the support 10. The articulated arm 21 extends primarily along this secondary direction Y2i, ensuring efficient transmission of the motor torque while reducing unnecessary mechanical stresses. Advantageously, this orientation also minimizes interference with other components of the device 1, thus guaranteeing smooth and reliable operation. In a particular embodiment, the secondary direction Y2i is aligned parallel to the support frame 15, optimizing the integration of the articulated arm 21 into the overall system.

[0071] The articulated arm 21 may also include an additional body 210', configured similarly to the first body 210. Preferably, this additional body 210' extends along the secondary direction Y21, substantially parallel to the first body 210. By way of example, this additional body 210' may extend from a first additional end 211' to a second additional end 212'. The first additional end 211' is advantageously pivotally mounted on the motor's rotation shaft 20, relative to the support frame 15 and along an axis parallel to and distant from the motor axis X20. The second additional end 212' may be fixed to the support 10, allowing it to be driven in rotation about the main axis X13.

[0072] According to one example, the additional body 210' is configured to reinforce the structural rigidity of the articulated arm 21 and reduce the mechanical stresses exerted on the first body 210. Preferably, the inclusion of this additional body 210' can help to distribute mechanical stresses evenly and improve the stability of the rotation of the support 10, even in environments subject to high vibrations or loads.

[0073] Preferably, cross braces or reinforcements may be provided between the first body 210 and the additional body 210'. These elements may be configured to maintain precise alignment and reduce torsion or deformation of the articulated arm 21 during rotational movements. By way of example, these cross braces may be made of high-strength materials, such as a metal alloy or a reinforced composite, to optimize their effectiveness.

[0074] For example, the support frame 15 can be an element such as a desktop, a worktop, a table, or a desk. This support frame 15 is configured to ensure stable and robust support of the device 1, while allowing secure attachment of the support 10 to its main axis Xn. Preferably, this support frame 15 is dimensioned to optimize the available space while ensuring ease of use in confined spaces. The support frame 15 can be included in a furniture system so as to extend parallel to the floor.

[0075] Advantageously, the support frame 15 is a platform comprising an opening configured to allow the support 10 to rotate when the device 1 alternates between the first configuration and the second configuration.

[0076] Advantageously, the rotation mechanism 13 is configured to drive the support 10 in rotation about the main axis Xn with an angular displacement of 180°. This allows selective switching from a first configuration, where the first main face 101 is accessible, i.e., the first group of electronic components 11 is visible and preferably usable, to a second configuration, where the second main face 102 is accessible, i.e., the second group of electronic components 12 is visible and preferably usable. The rotation mechanism 13 preferably includes an automatic locking system, configured to firmly hold the support 10 in position in either configuration, ensuring optimal stability during the use of the electronic components.

[0077] According to one embodiment, this locking system may include a mechanical ratchet or a friction spring to ensure secure fastening. For example, electromagnetic actuators may be used to activate or deactivate the lock.

[0078] Preferably, the rotation mechanism 13 may incorporate a rotating shaft mounted on plain bearings or bushings to minimize friction. For example, planetary gears may be included to distribute loads evenly. Advantageously, ball bearings may also be incorporated to improve the durability of the mechanism.

[0079] According to one embodiment, the rotation mechanism 13 may include a dynamic brake. For example, this system can be configured to limit uncontrolled movements and ensure controlled rotation. Advantageously, a position sensor can be coupled to the mechanism to precisely detect the orientation of the support 10 and automatically adjust the rotation.

[0080] According to one example, an incremental rotation option may be provided, allowing the selection of specific intermediate positions. Preferably, this option is implemented using a programmable control system.

[0081] According to one example, the ends of the articulated arm 21, namely the first end 211 and the second end 212, as well as the first additional end 211' and the second additional end 212', are not directly articulated in rotation with the motor shaft or the support 10 along the motor axis X20 or the main axis X13. Preferably, these ends are articulated in rotation about axes substantially parallel and slightly eccentric with respect to the motor axis X20 and the main axis X13.

[0082] This eccentricity is configured to allow efficient transmission of motor torque from the motor shaft to the support 10 while reducing the mechanical stresses exerted on the articulated arm 21. Advantageously, this arrangement ensures better distribution of forces during movement, thus minimizing the risks of wear on the articulation points and guaranteeing increased durability of the device 1.

[0083] According to one embodiment, the eccentricity of the end axes can be optimized to adapt the torque transmission to variable loads or environments subject to frequent vibrations. Preferably, this eccentricity is determined so as to maintain optimal stability of the articulated arm 21 while preserving the smooth rotation of the support 10 around the main axis X13.

[0084] According to one embodiment, the device 1 includes a remote motor 20, configured to drive the rotation of the support 10 by means of an articulated arm 21, relative to the support frame 15 and about a main axis XI3. This remote motor 20 is configured to reduce vibrations directly transmitted to the support 10, which improves the durability of the electronic components and contributes to a smooth and controlled movement during rotation.

[0085] Preferably, the device I includes a remote motor 20 located off the main axis X13, this configuration being designed to free up space on the support 10 to accommodate other electronic components. Advantageously, this arrangement optimizes the mass distribution for improved device stability, while also facilitating the integration of the motor 20 in confined spaces. Preferably, the remote motor 20 is fixed under the support frame 15.

[0086] Preferably, the motor 20 is coupled to a speed variator, configured to adjust the rotation speed of the support 10 according to the specific needs of the user.

[0087] The device 1 advantageously includes a position sensor integrated into the remote motor 20, configured to accurately detect the rotation and angular position of the support 10. This sensor is configured to communicate with a control system, allowing precise alignment of configurations and a rapid transition between predefined positions.

[0088] According to a particular embodiment, the device 1 comprises a remote motor 20 configured to include a soft-start function, making it possible to reduce mechanical shocks at the start of rotation. This feature is configured to limit wear on mechanical components and thus extend the overall lifespan of device 1.

[0089] For example, the device 1 includes a DC or AC electric motor 20, suitable for professional environments. In one embodiment, the device 1 includes a remote motor 20 equipped with a passive or active cooling system, configured to maintain optimal performance even during prolonged use.

[0090] Device 1 also includes, by way of example, a safety device associated with the motor 20, such as an emergency stop switch, configured to allow the user to quickly stop the rotation if necessary. This configuration is designed to ensure safe operation and compliance with applicable standards for professional electronic equipment.

[0091] As illustrated in Figures IA to 1F and according to an example, the support 10 takes the form of a box comprising a first main face 101 and a second main face 102. Preferably, the first main face 101 is opposite and parallel to the second main face 102, thus forming a symmetrical geometric structure adapted to an alternation between configurations.

[0092] According to this same embodiment, the support 10 forms a parallelepiped box comprising, in addition to the main faces 101 and 102, a peripheral lateral portion including radial lateral faces 103a, as well as axial lateral faces 103b. Preferably, these peripheral faces are configured to offer easy access to cables and internal components, while ensuring structural robustness of the box.

[0093] Advantageously, the first main face 101 and the second main face 102 are rectangular, giving the support 10 a geometric structure optimized for use as a reversible control console. Preferably, this rectangular configuration maximizes the usable surface area dedicated to the installation of electronic components while minimizing the overall size.

[0094] Preferably, the axial lateral faces 103b are substantially orthogonal to the principal axis of rotation X13, while the radial lateral faces 103a are substantially parallel to this axis of rotation. For example, this arrangement ensures a balanced distribution of mechanical forces on the support 10, particularly during rotations about the principal axis X13.

[0095] According to a preferred embodiment of the present invention, one of the radial side faces 103a includes at least one cable outlet 14 configured to allow the electrical connection of the support 10 to a power source and / or audio devices. Preferably, the radial side face 103a incorporates at least two cable outlets 14, and ideally at least three. These cable outlets 14 may include sockets or connectors configured to facilitate a secure wired connection to the electrical network and other external electronic components.

[0096] Thus, the device 1 is configured to alternate between a first configuration, in which the first main face 101 is oriented towards the user, and a second configuration, in which the second main face 102 is oriented towards the user. This alternation is effected by a rotation of the support 10 around the main axis X13. Preferably, during this alternation, the radial lateral face 103a, including the cable outlets 14, remains oriented out of the user's field of vision.

[0097] Advantageously, this arrangement allows for a smooth transition between the two operating configurations without risk of cable tangling. Indeed, the radial side face 103a performs a reversible 180° rotation between a first vertical position and a second vertical position, while remaining oriented towards the ground. Preferably, this configuration ensures simple and efficient cable management, even during prolonged use of the device 1.

[0098] This arrangement also reduces the risk of mechanical stress on the cables, preventing any excessive winding or twisting around the support 10. As an example, the cable outlets 14 may include an integrated management mechanism, such as guides or flexible sheaths, to keep the cables in a fixed position throughout the rotations, thus improving the durability and reliability of the device 1.

[0099] According to a very particular embodiment, the device 1 includes a cable management system 22 configured so as to avoid any tangling or excessive tension of the cables during the rotation of the support 10. This cable management system 22 guides the cables along the main axis X13, ensuring uninterrupted electrical continuity, even during rotational movements.

[0100] Preferably, the cable management system 22 includes guide devices integrated into the support 10, configured to organize the cables in an orderly fashion while minimizing wear. By way of example, these guide devices may include pre-formed rings, slides, or channels, each designed to accommodate the rotational movements of the support 10 while holding the cables in a fixed position.

[0101] According to a particular embodiment, the cable management system 22 may include a flexible retention system at the cable ends, configured to absorb mechanical stresses due to frequent movement. Preferably, this retention system may include expandable sleeves or shock absorbers configured to protect the cables against sudden tensions or impacts.

[0102] Preferably, the cable management system 22 is configured to route the cables around or through the main axis X13, thereby reducing the overall footprint and optimizing the space available for the electronic components. As an example, the cables can be guided through a central opening in the support 10, thus avoiding any contact with the moving parts of the device 1.

[0103] According to a particular embodiment, the cable management system 22 may include sensors configured to detect abnormal voltages or potential entanglements, allowing for rapid intervention to prevent failures. Advantageously, this configuration contributes to improving the reliability and durability of the electrical connections of the device 1.

[0104] Preferably, the device 1 includes at least one position sensor configured to accurately detect the alignment of the support 10 relative to the support frame 15 and along the main axis X13. This position sensor is configured to transmit information to the control system, enabling precise positioning and reliable switching between configurations.

[0105] By way of example, this position sensor can be an optical sensor, a magnetic sensor, or a Hall effect sensor, each configured to detect the angular position of the support 10 with high accuracy. Preferably, this sensor is positioned close to the main axis X13, allowing direct detection and minimizing interference due to the movements of the support 10.

[0106] Advantageously, the position sensor is configured to send real-time signals to the control system, which is configured to adjust the rotation of the support 10 as necessary to ensure optimal alignment. In a particular embodiment, these signals may include information on the speed and angle of rotation, allowing for precise synchronization between different configurations.

[0107] Preferably, the position sensor is associated with an automatic correction mechanism configured to compensate for slight misalignments by adjusting the position of the support 10. According to one example, this mechanism may include micro-adjustments made by the remote motor 20, controlled by the control system according to the data provided by the position sensor.

[0108] Advantageously, this configuration reduces the risk of misalignment, improves the smoothness of transitions between configurations, and optimizes the stability of the support 10 during its use. For example, the position sensor can also be configured to detect vibrations or mechanical disturbances, allowing the control system to compensate for these effects in real time to ensure reliable and durable operation.

[0109] According to a particular embodiment, the device 1 may include several position sensors distributed around the main axis X13, each configured to detect different stages of the rotation of the support 10. Preferably, these sensors work in coordination to provide redundancy and increase the overall accuracy of the system.

[0110] Finally, the device 1 may include visual or audible indicators, configured to signal to the user that the support 10 has reached a predefined configuration. These indicators are preferentially activated based on the data transmitted by the position sensor, thus providing intuitive feedback to the user.

[0111] According to one embodiment, the device 1 includes a control system configured to allow intuitive and precise control of the rotations of the support 10. This control system offers programming options configured to predefine rotation cycles adapted to the specific needs of the user. Preferably, this control system includes an intuitive user interface equipped with safety functions configured to prevent accidental rotation, thereby enhancing reliability and safety in use.

[0112] Preferably, the user interface of the control system is configured to display real-time information on the position of the support 10, such as its alignment with the main axis X13 and the status of the configurations. As an example, this interface may include physical buttons, a touchscreen, or a mobile application allowing the user to manually select the desired configurations or automate the rotation cycles.

[0113] According to a particular embodiment, the control system is configured to include integrated memory for storing customized rotation parameters. This memory can be programmed to record the most frequently used cycles, thus facilitating the adaptation of the device 1 to the user's recurring needs. Advantageously, this feature contributes to improving the overall ergonomics of the device 1.

[0114] Preferably, the control system is configured to integrate safety sensors, such as proximity or pressure sensors, to detect the presence of obstacles around the support 10. These sensors, interacting with the control system, can automatically stop the rotation of the support 10 if an obstacle is detected, thus ensuring safe use.

[0115] Preferably, the device is configured to include advanced customization options for users. For example, the control system can be programmed to automatically activate the rotation of the support 10 at regular intervals, according to the specific needs of the application. This functionality is configured to improve the ergonomics of device 1, particularly in environments requiring frequent transitions.

[0116] Preferably, the control system can be associated with a programmable calendar allowing rotations to be scheduled according to predefined timetables. For example, this configuration can be used in professional environments, such as mixing studios or control rooms, where regular alternation between configurations is required.

[0117] According to a particular embodiment, the control system can be coupled to a network connection, enabling remote control via a smartphone or computer. This configuration is designed to offer increased flexibility to the user, particularly in environments where the device 1 is integrated into a home or industrial automation system.

[0118] According to an alternative embodiment, the support 10 can be configured to include a third main face, allowing for a switch between at least three working configurations. Preferably, this configuration is suitable for complex working environments requiring greater versatility. This option maximizes the use of limited space while offering increased flexibility to users.

[0119] The support 10 may have overall dimensions that allow for ergonomic and efficient use. For example, the dimensions of the main faces 101 and 102 may be between 200 mm and 1000 mm, preferably between 300 mm and 700 mm in width and length.

[0120] Similarly, the total thickness of the support 10, measured perpendicular to the main faces 101 and 102, can be, for example, between 50 mm and 450 mm, preferably between 150 mm and 350 mm. Such a thickness ensures structural robustness while minimizing the overall weight of the device 1, promoting smooth rotation around the main axis X13.

[0121] The present invention is not limited to the examples described above. Many other embodiments are possible, for example by combining features described above, without departing from the scope of the invention.

[0122] Numerical references 1. Mechanical device 10. Support 101. First main face 102. Second main face 103a. Radial lateral view 103b. Axial lateral view 11. First group of electronic components 12. Second group of electronic components 13. Rotation Mechanism 14. Cable departure 15. Support frame 21. Articulated arm 210. First body 210'. Additional body 211. First extremity 211'. First additional extremity 212. Second end 212'. Second additional extremity 20. Engine XI3. Main axis X20. Motor shaft Y21. Secondary direction

Claims

Demands

1. Mechanical workstation device (1) configured to allow alternation between a first configuration and a second configuration, the device (1) comprising: - a support (10) comprising a first main face (101) and a second main face (102) opposite the first main face (101), the first main face (101) having a first group of electronic components (11), the support (10) being capable of being pivotally mounted on a support frame (15), - a rotation mechanism (13) configured to drive the support (10) in rotation about a principal axis (X13) relative to a support frame (15), the device being characterized in that it comprises, fixed on its second main face (102), substantially parallel to its first main face (101), a second group of electronic components (12),so that the rotation of the support (10) about the main axis (XI3) allows selective access to one or the other of the groups of electronic components (11, 12).

2. Device (1) according to the preceding claim which includes a remote motor (20) configured to actuate the rotation of the support (10).

3. Device (1) according to the preceding claim comprising an articulated arm (21) configured to transmit the movement from the motor (20) to the rotating support (10), ensuring precise and controlled rotation.

4. Device (1) according to any one of the preceding claims, comprising a control system configured to permit remote activation of the rotation of the support (10), said system offering programming options for a customized configuration change.

5. Device (1) according to any one of the preceding claims, wherein the rotation mechanism (13) comprises an automatic locking system configured to hold the support (10) in position in one of two configurations such that at least one of the principal faces (101, 102) among the first face (101) and the second face (102) are substantially horizontal, thus ensuring stability during its use.

6. Device (1) according to any one of the preceding claims, wherein the support (10) comprises a radial side face (103a) having at least one cable entry (14) configured to permit an electrical and / or audio connection of the support (10), the device (1) being configured such that said radial side face (103a) remains oriented towards the ground during the transition of the support (10) from the first configuration, in which the first main face (101) is oriented towards the user, to the second configuration, in which the second main face (102) is oriented towards the user

7. Device (1) according to any one of the preceding claims in combination with claim 2, wherein the remote motor (20) is coupled to a position sensor configured to detect the exact position of the support (10), allowing precise alignment of the configurations.

8. Device (1) according to any one of the preceding claims, wherein in the first configuration, the second group of electronic components (102) is not accessible and wherein in the second configuration, the first group of electronic components (101) is not accessible.

9. System comprising a device (1) according to any one of the preceding claims and a support frame (15).

10. A method for automatically switching between two configurations of a workstation by means of a device (1) comprising: - a support (10) having a first group of electronic components (11) fixed on its first main face (101), the support (10) being able to be pivotally mounted on a support frame (15), - a rotation mechanism configured to drive the support (10) in rotation about a main axis (X13) relative to the support frame (15), - a second group of electronic components (12) fixed on its second main face (102), substantially parallel to its first main face (101), such that the rotation of the support (10) about the main axis (X13) allows selective access to one or the other group of electronic components, The process includes the following steps: i. activation of a remote motor (20) via a control system to drive the support (10) in rotation, ii. rotation of the support (10) to one of the predefined configurations between the first configuration and the second configuration, iii. Automatic locking of the support (10) in the selected configuration, iv. deactivation of the engine (20) to stabilize the selected configuration and allow use of the workstation.

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