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6 modelos etiquetados

#aeromodelismo

Descubre modelos 3D etiquetados como aeromodelismo y revisa sus datos de impresión, archivos y condiciones de uso antes de descargarlos.Open all filters →
Vista de Segmento de ala ligero para modo jarrón y larguero de 14 mm

Lightweight wing segment for vase mode and 14 mm spar

Aerodynamic wing segment designed to manufacture a lightweight structure using FDM printing in vase mode. The model is a single closed mesh of approximately 199.92 × 25.60 × 160 mm in its original orientation. Its section reproduces a wing profile with a rounded leading edge, a thin trailing edge, and a 14 mm circular channel intended to house a user-supplied spar. Tom Stanton's source recommends LW-PLA and vase mode. In this process, the slicer interprets the closed volume as a continuous wall envelope, avoiding infill and reducing mass. The result depends entirely on the path being continuous: before printing, activate spiral or vase mode, check all layers, and confirm that no isolated movements, unexpected closures, infill, top layers, or discontinuities appear around the spar channel. As a starting point, use a 0.4 mm nozzle and a layer height of 0.20 mm or that recommended by the filament manufacturer. In LW-PLA, expansion changes with temperature, speed, and flow rate, so a generic multiplier should not be copied. Perform a calibration tower or specimen, measure the actual wall thickness, and adjust flow and temperature until a stable joint without excess material is achieved. Moderate speed and consistent cooling help maintain a defined trailing edge. The validated orientation leaves 160 mm on the vertical axis of the file. Keep that orientation so that the spiral path advances along the intended height. Check that the footprint of nearly 200 mm fits on the bed, that the initial edge has sufficient adhesion, and that the first turn does not invade the 14 mm channel. Such a thin wing can deform due to air currents, uneven temperature, or sudden bed movements; use a clean surface and avoid removing it until it cools. The 14 mm spar is not included. Its actual diameter, stiffness, material, adhesive, and joining method must be verified in the complete project. Do not force an oversized tube into the channel nor use the part if it shows cracks, delamination, deformation, or a fragile trailing edge. Compatibility with other segments, roots, tips, fuselages, or control systems has not been validated in this file. This model is intended for aerodynamic experimentation, unmanned aircraft prototypes, and educational demonstrations, but it is not a certified component and must not be used in manned aircraft, safety-critical applications, or flights over people. Actual structural behavior requires load testing and flight in a controlled area.

Technology
FDM
material
PLA
Difficulty
Avanzada
Vista de Proyecto de avión de radiocontrol

Radio-controlled airplane project

A set of files identified by its author as an RC airplane. The original description only contains the indication "RC", so it does not document the assembly, electronics, functional dimensions, center of gravity, or a flight profile. The download must not be presented as a ready-to-assemble or ready-to-fly airplane. Preparation, compatibility, and printing Review the parts and request or locate the specific project documentation before selecting components or printing a complete set. The available geometry can be studied in CAD, but it does not allow for the deduction of a safe flight configuration on its own. This sheet remains pending verifiable instructions and compatibilities; generic printing values are not added to make the project appear complete. The download contains three STLs: RC AERO AIRPLANE 1 .stl, RC AERO AIRPLANE 2.stl, and RC AERO AIRPLANE 3.stl. The numerical names do not specify the function of each part. The source review from September 24, 2026, confirms that no assembly instructions have been added.

Technology
Sin probar
material
—
Difficulty
Sin especificar
Vista de Tapón de escape para motor DLE de 120 cc

Exhaust plug for 120 cc DLE engine

Flexible plug intended for the exhaust of a 120 cc DLE model aviation engine. The source identifies it as a closure for the exhausts and documents a print in TPU with a 10% infill. It does not specify the exact diameter of the exhaust nor does it certify resistance to operating temperature. Preparation, compatibility, and printing Check the fit with the engine stopped and completely cool. When preparing the print, check that the slicer reproduces the walls and the closure without gaps. The TPU and the percentage mentioned come from the author and must be adapted to the filament and the printer. Remove any storage plug before starting the engine; it is not presented as a component to obstruct an exhaust in operation.

Technology
Sin probar
material
TPU
Difficulty
Sin especificar
Vista de Base para arrancador H9 de aeromodelismo

H9 model airplane starter base

Base for placing an H9 starter next to its battery. The preserved documentation mentions a three-cell 2200 mAh LiPo battery in the summary, but mentions two cells in the description. Neither of these electrical configurations is confirmed here: the allowable voltage must be obtained from the actual starter and its documentation. Preparation, compatibility, and printing Measure the starter housing and the slot intended for the battery. The base is a mechanical part; it does not adapt voltages or provide electrical protection for the assembly. Check that the fastening does not press against the battery and leaves the cables free. The source does not specify a print profile; first prepare a dimensional test of the housings.

Technology
Sin probar
material
—
Difficulty
Sin especificar
Vista de Perfil de ala para proyecto de avión RC

Wing profile for RC airplane project

Aerodynamic profile section identified by its author for an RC airplane. The preserved documentation does not indicate the profile name, the intended chord, the wall thickness, the wing structure, or a flight configuration. It is a starting geometry for studying a project, not a complete wing ready for installation. Preparation, compatibility, and printing Check the dimensions and what volume the file actually contains before printing. To integrate it into a wing, structural and assembly decisions are required that cannot be inferred from the title. No material, orientation, or print profile is documented. Maintain the scale while evaluating the geometry and avoid attributing aerodynamic performance that the source has not specified. The download contains a single file, Part Studio 1 - Part 1.stl. The source, reviewed on September 24, 2026, still does not identify a standardized profile or provide instructions. It can be consulted as a geometric reference, while its validation for a specific project remains pending.

Technology
Sin probar
material
—
Difficulty
Sin especificar
Vista de Montura doble en V para antenas FPV sobre gimbal RC

Double V-mount for FPV antennas over RC gimbal

This mount gathers two FPV antennas in a symmetrical layout over the gimbal area of a radio-controlled aircraft. A central base holds two angled arms that incorporate channels and holders, ensuring that the antennas and their coaxials are kept away from the camera's path, propellers, and linkages. The cover image shows the complete piece installed on a generic fuselage, without reproducing aircraft markings or identifiable commercial components. The file contains only the printed mount; the two antennas, the gimbal, and the fuselage on the cover are generic accessories used to show position and scale. The V separates both radiating elements, while the central base concentrates the mounting, and the small side holders help organize the coaxials without replacing a proper secondary fastening for the actual equipment. The audited STL forms a single closed mesh of 4,068 triangles and approximately 71.19 × 11 × 41.27 mm. It is advisable to check the mounting, the diameter of the held elements, the minimum bend radius of the coaxials, and the entire range of motion of the gimbal. TPU absorbs vibration and facilitates fitting; PETG or ASA require additional tolerances and a flex test to prevent breakage. Possible uses. Place two FPV antennas with a symmetrical and repeatable separation. Guide coaxial cables away from the full path of a moving camera. Reduce loose wiring near propellers, servos, and linkages. Restore the same antenna position after maintenance tasks. Prototype a diversity installation on a compatible RC fuselage. Preparation and printing. Initially maintain the scale and measure the mounting base, the antennas, and the actual coaxials. Place the wider back face on the bed, leaving the V extended on the printing plane. Start with TPU 95A, 0.16–0.20 mm layers, four perimeters, and 20–35% gyroid infill. If using PETG or ASA, increase the clip clearance and check that the arms can flex without cracking. Avoid supports inside channels and holders; use only painted-on supports if a lip is genuinely unsupported. Print a short clip section to adjust the radial clearance between 0.15 and 0.25 mm according to the material. Add a small brim only if the long ends lift during the first layers. Deburr by hand, assemble without forcing, and perform a full vibration and range-of-motion test before flying. Limitations and checks. Antennas, coaxial cables, camera, gimbal, fasteners and fuselage are not included. Compatibility depends on the version, dimensions and mounting points of the actual equipment. Coverage, diversity, range and radio-frequency performance are not guaranteed. A tight bend or excessive pressure can damage a coaxial cable even when the part fits. Resistance to impacts, continuous vibration, heat or UV radiation has not been certified. Replace the part if cracks, whitening, loss of retention or contact with moving components appear. The local record retains only the accepted 3D files and a new Meshopia cover. The image is a photorealistic editorial interpretation based on the audited geometry: it shows the context of use, but does not replace measurements, the slicer preview, a physical fit test or the instructions for the associated equipment. Before manufacturing, check scale, units, orientation, supports, travel, material and operating environment. After printing, remove strings and burrs, check for cracks or weak layers, and discard any print that does not sit, fit or function stably.

Technology
Sin probar
material
—
Difficulty
Sin especificar