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14 modelos etiquetados

#drone

Descubre modelos 3D etiquetados como drone y revisa sus datos de impresión, archivos y condiciones de uso antes de descargarlos.Open all filters →
Vista de DJI Mini 4 Pro: modelo de referencia para diseñar accesorios

DJI Mini 4 Pro: reference model for designing accessories

Digital model of the DJI Mini 4 Pro intended as a reference for preparing accessories. It allows for studying the drone's shape and planning mounts or housings in a design program. The download does not constitute a functional drone or a flight kit: printing its silhouette does not reproduce motors, electronics, or mechanisms. The source does not provide tolerances that allow the mesh to be used as a certified dimensional pattern. Preparation, compatibility, and printing Import the file while maintaining its scale and compare the contact areas with the actual drone before designing a final part. For a fit test, print only the necessary region when your software allows it. Do not assume that a part designed around this reference will leave sensors, ventilation, or joints clear. There is no documented print profile.

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Vista de DJI Mavic 3 Pro: referencia 3D para accesorios

DJI Mavic 3 Pro: 3D reference for accessories

Digital reference of the DJI Mavic 3 Pro obtained by the author by converting DJI GLB models to STL format. Its purpose is to serve as support for accessory design or the creation of a scale model. It is not a set of parts to manufacture a flying drone, and the source expressly states this. It also does not provide an independent dimensional verification of the converted models. Preparation, compatibility, and printing Check units, scale, and dimensions against the actual equipment before designing clamps or mounts. A printed scale model can be useful for studying volumes, but it does not validate a fit on its own. The drone's geometry and its fine details may require supports depending on the orientation; check the slicer preview. Material, layer, and infill are not documented.

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3D

FPV micro-drone project with ESP32-C3 SuperMini

Files from an FPV micro-drone project identified by its author using the ESP32-C3 SuperMini board. The preserved download contains two STLs: Drone_Frame.stl and ToroidalProp.stl. The names identify a frame and a toroidal propeller; they do not confirm on their own the dimensions, component compatibility, or whether the assembly is flight-capable. The original page is not available as of the check on September 24, 2026. Authorship, provenance, and imported files are preserved. There are no assembly instructions, firmware, or verifiable parts lists in the file. Before printing, open both files separately and check scale, walls, housings, and clearances. Do not select motors, batteries, or cameras based solely on the project title. The propeller requires specific balancing and validation before any testing; this sheet does not certify its performance nor does it replace the motor manufacturer's instructions.

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Vista de Protector de cables de motor para dron FPV

Motor cable protector for FPV drone

Part intended to cover the motor cables of an FPV drone along their path over the chassis arm. The source describes this function, but does not identify a compatible frame nor specify length, width, or fastening system. It is not presented as a universal protector nor as certified electrical insulation. Preparation, compatibility and printing Compare the part's channel with the cable bundle and the width of the arm. Check that the fastening does not compress conductors, rub against solder joints, or intrude into the path of the propellers. Prepare a fit test with the equipment turned off. No material or print profile is documented; flexibility and retention must be verified during actual assembly.

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Vista de Hélice bidireccional experimental de 3 pulgadas para dron

Experimental 3-inch bidirectional propeller for drone

Experimental 3-inch propeller developed as part of an academic project on a drone capable of rolling inside a cage. It uses toroidal-shaped blades and a symmetrical profile to study thrust in both directions. The source includes comparisons and test graphs, but those results do not certify a copy manufactured with another printer, material, or process. Preparation, compatibility, and printing The author describes 0.12 mm layers, supports, and an adhesion edge when printing several units. It expressly warns of the risk of breakage at high revolutions; its published limit should not be interpreted as a guaranteed safe speed. It is not a commercial replacement of universal application. Before attempting any test, consult the documentation and original graphs and use an appropriate protected test bench.

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Vista de Palanca para mando Xbox y simulador de drones

Lever for Xbox controller and drone simulator

Accessory placed over an Xbox controller stick to use it as a lever in a drone simulator. Its function is to modify the grip of the controller during the simulation; it does not convert the controller into a radio control transmitter nor does it add direct communication with a drone. The source does not identify all compatible controller revisions. Preparation, compatibility, and printing The author specifies PLA and supports. Compare the housing with your controller's stick and check that the accessory does not press buttons or limit the range of motion. Carefully remove the supports in the engagement areas. Start with a fit test without forcing the stick; then configure sensitivity and calibration within the simulator.

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Vista de Plataforma plegable de aterrizaje para drones de 30 × 30 cm

30 × 30 cm foldable landing platform for drones

30 × 30 cm foldable platform for small drones, with a landing signal and DJI logo in the original design. The author describes an assembly using 16 magnets. It is a modeling support surface, not a guidance system or a guarantee of automatic landing. Preparation, compatibility, and printing The source cites magnets 10 mm wide and 3.5 mm deep, while its purchase reference points to 10 × 4 mm. Measure the housings before buying or inserting the magnets and check the polarity of each joint. Check the different pieces and their folding. Material, layer, and infill are not specified; verify that the assembled platform remains flat and stable.

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Vista de Soporte GoPro y GPS Mini M10 para Manta 5 SE DC

GoPro and GPS Mini M10 Mount for Manta 5 SE DC

Combined mount to mount a GoPro-type camera and a Mini M10 GPS on the Manta 5 SE DC frame. The author describes the GPS housing as a press-fit. This description expresses the design intent and does not guarantee the same fit with different modules, cases, or print tolerances. Preparation, compatibility, and printing Measure your GPS and check the frame variant and camera mount. The module must be held in place without pressing on components or cables. Check the connector space and camera orientation before printing. The source does not provide a print profile or complete hardware; perform a test of the housings before final assembly.

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Vista de Extensor de stick para mando 8BitDo y simulación de drones

Stick extender for 8BitDo controller and drone simulation

Stick extender identified in the title for an 8BitDo controller and drone control. The source does not specify the exact model of the controller or its coupling measurements. It should be understood as a mechanical accessory for the stick, without attributing communication functions or electronic compatibility. Preparation, compatibility, and printing The author requests the use of supports, but does not provide material or other parameters. Check the housing with your controller and ensure that the piece allows for the full range of motion without touching the casing. Remove the supports without opening or deforming the hooks. Validate the fit before use and recalibrate the simulator if it changes your way of actuating the stick.

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Vista de Sujeción flexible de tubo para pata de dron de pulverización

Flexible tube mount for spraying drone leg

Mount identified by the author for a tube on the leg of a spraying drone. The title describes it as flexible, but the source does not specify the material, tube diameter, or drone model. The part can only be considered compatible after comparing its housings with the actual equipment. Preparation, compatibility, and printing Check that the tube is held securely without being strangled and that the mount does not affect the stability of the leg. Do not assume chemical compatibility for the printed material without data on the filament and the fluid. The original design incorporates text within the geometry; check the orientation and details before printing. No documented print profile is available.

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Vista de Soporte compacto de doble aro para zumbador FPV de 9 mm

Compact dual-ring mount for 9 mm FPV buzzer

Tiny one-piece mount designed as two cylindrical housings joined laterally. The larger ring provides the main mounting point and the smaller ring forms the cavity intended by the source for a 9 mm active buzzer. The entire STL envelope measures approximately 10.91 × 15.25 × 5.50 mm; the preview visually expands the piece so that the thickness, the two openings, and the tangential joint can be appreciated, but it does not alter its proportions. The source attributes the model to KarimXP, publishes it as Creative Commons — Public Domain, and declares no remix parents. The exact public search returns a single record belonging to Meshopia. The only official STL was downloaded and kept without photos, G-code, PDF, video, or machine files. Its mesh contains 476 vertices and 956 triangles in a single closed body. It opens correctly, uses finite coordinates, maintains consistent orientation, is watertight and manifold, and has no degenerate faces. Technical renders show no text, logos, brand reliefs, or additional parts. The references Sun250 and OasisFly35 are kept solely as compatibility declared by the source author; Meshopia has not verified the fit with a real chassis or a commercial relationship with its manufacturers. For a first FDM test, maintain 100% scale and use a fine layer height, around 0.12–0.20 mm, because a small variation greatly affects a 9 mm housing. A 0.4 mm nozzle can work if the slicer correctly maintains the walls; check the number of perimeters and the preview before printing. The most stable orientation usually supports the annular base on the bed with both axes vertical, avoiding supports inside the cavities, but confirm the actual bottom face in the slicer. The source describes a press-fit and a support-free print; both claims depend on material, shrinkage, flow, and tolerances. TPU may facilitate retention and vibration absorption if the model and printer support it; PETG can offer toughness, while PLA serves for a dimensional test, without any of them guaranteeing the result. Print one unit first, measure the actual diameter of the buzzer and the mount, and check that there is no excessive tension on the casing, cables, or solder joints. Deburr the interior without irregularly enlarging the rings. Before flying, verify that the part does not interfere with propellers, battery, antennas, electronics, or ventilation, and perform retention and vibration tests on the ground. There are no impact, fatigue, temperature, UV radiation, electromagnetic compatibility, or in-flight use tests. It is not a structural component, certified protector, or guarantee against buzzer loss.

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Vista de Soporte modular de motor FPV para tubo de 16 mm

Modular FPV motor mount for 16 mm tube

This assembly brings together three printable files to secure a small motor to a 16 mm structural tube within an experimental FPV project. It includes two alternative variants of the main body—one standard and one with a different fillet finish—and an independent top cover to close the tube clamp in the fully printed configuration. Each body combines a vertical semicircular cradle for the tube with a lightweight, perforated circular plate for the motor. The three STLs are independent, standalone, and reproducible pieces; they do not include the motor, carbon tube, propeller, inserts, screws, or metal clamps. The source describes two possible configurations. The first uses the printed body and the printed cover, secured by four screws. The second employs one of the bodies with external aluminum top clamps. It also mentions M3 heat-set inserts at the bottom. These indications identify the design intent, but the dimensions of the holes, the motor pattern, the length of the screws, and the fit over the tube must be measured and verified during actual assembly. Universal compatibility and structural strength are not guaranteed. To prepare for printing, check each STL separately and maintain the millimeter scale. The two bases measure approximately 39.92 × 26.15 × 70.36 mm; the cover measures 28.30 × 33.32 × 11 mm. Orient the pieces seeking a stable base and minimizing supports inside the holes and the cradle. As a starting point, a layer height of 0.16–0.20 mm, four or more perimeters, and moderate-to-high infill can be used. The source recommends PA6 or carbon fiber-reinforced PLA, but any loaded material requires a wear-resistant nozzle and proper drying. A test print in a simple material is preferred before committing hardware. This design is an experimental component, not a certified aeronautical part. Before installing the motor or propeller, check the tightness, alignment, tube retention, layer integrity, inserts, and the absence of interference. Perform static tests at low power first, with eye protection and no people nearby. Do not use the part in manned systems, critical loads, or operations over people or property. Replace any component with cracks, delamination, looseness, or thermal deformation.

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Vista de Cubierta frontal personalizable para emisora RC

Customizable front cover for RC transmitter

This cover serves as a front housing to develop a radio control handle or a custom electronic panel. The piece combines in a single casing an upper rectangular window, two circular openings for control mechanisms, and several small apertures distributed across the front. The deep perimeter edge provides volume for subsequent assembly, but the package does not include a back to close the assembly. The geometry measures approximately 230.10 × 42.91 × 207 mm and should be understood as a design base, not as a universal housing. The download includes a printable STL and an editable STEP of the same design. It does not include a screen, joysticks, antenna, switches, battery, electronic board, connectors, screws, cables, or a back cover. These elements, if shown in a usage scene, are generic and external references. The openings allow for planning a control layout, but their diameter, position, and depth do not demonstrate compatibility with commercial components. The STEP source facilitates modifying the part; after any change, a new mesh must be generated and geometric and dimensional validation must be repeated. The audited STL has 7,118 vertices, 14,396 triangles, and a single closed, manifold component without detected topological defects. The STEP presents a complete ISO-10303-21 structure with a BREP solid and 351 advanced surfaces; surface-to-surface equivalence between both representations has not been demonstrated. The cover is large, so the useful volume, the head travel, and the stability of the orientation must be checked. A wide face can offer support, but the decision must preserve the edges of the windows and avoid trapped supports. As a reasonable starting point: 0.20–0.28 mm layers, four perimeters, and moderate infill, with local reinforcements only where the actual assembly justifies them. Print partial templates of the openings and design closures, ventilation, insulation, and strain relief separately. Possible uses. Build the front of a custom RC transmitter from measured components. Test the ergonomics and spacing of two joystick mechanisms. Test the position of a screen and auxiliary controls on a desktop panel. Modify the STEP source to adapt windows, mountings, and thickness to your own project. Create a non-critical interface mockup for robotics or teleoperation. Preparation and printing. Measure the screen, joysticks, connectors, switches, board, and hardware before modifying or slicing the front. Print partial templates of each opening to adjust diameters, radii, thickness, and clearances with minimal material. Confirm that the 230.10 × 42.91 × 207 mm box fits within the build volume and does not invade the head travel. Compare orientations on wide faces, protecting the edge of the window and the two circular openings. Start with 0.20–0.28 mm layers and four perimeters; adjust the infill based on the achieved stiffness rather than a universal figure. Place supports only where they can be removed without closing openings, damaging housings, or reducing the wall section. Use PETG if toughness is needed or ASA for an evaluated thermal environment; PLA is suitable for indoor fit prototypes. Assemble first without a battery, check edges, clearances, and retention, and check insulation and cable relief before powering the electronics. Limits and checks. Does not include back, screen, joysticks, electronics, antenna, battery, hardware, connectors, or wiring. There is no verified compatibility with a specific transmitter, board, screen, or control mechanism. The STEP is kept as an editable source, but it has not been fully compared to the STL via a CAD kernel. No testing has been performed for load, impact, drop, vibration, temperature, flammability, or environmental protection. The data sheet does not certify electrical insulation, radio frequency, ergonomics, autonomy, or battery safety. It must not be used for critical control until design, assembly, functional testing, and safe stop measures are completed. The local file preserves exclusively the supported 3D files and a new proprietary cover. The image is a photorealistic editorial interpretation based on the audited geometry: it shows the context of use but does not replace the measurements, the slicer preview, a physical fit test, or the instructions of the associated equipment. Before manufacturing, it is advisable to check scale, units, orientation, supports, path, material, and environment. After printing, remove strings and burrs, check for cracks or weak layers, and discard any copy that does not support, fit, or function stably.

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