All About OBJ File Format for 3D Printing

OBJ file format for 3D printing is a supported 3D mesh standard used to transfer polygon-based geometry into slicing software for additive manufacturing. OBJ file format for 3D printing originated from Wavefront Technologies and became a common exchange format because it stores vertices, face definitions, and optional data (normals and UV texture coordinates). An OBJ model is imported into a slicer, where the mesh is analyzed, repaired if needed, and converted into layers and toolpaths for FDM, SLA, or SLS processes.

OBJ files reference an MTL material library, which is useful for visualization and textured models, although most basic slicers ignore appearance data during toolpath generation unless using color-capable printing processes. A designer exports a character model from Blender as OBJ, confirms watertight geometry in MeshLab, then slices it in Cura for printing. Compared with STL, OBJ supports richer surface metadata and mesh organization, while STL stores triangle geometry and is common for basic printing. Compared with 3MF, OBJ lacks modern print metadata features, yet remains popular because of broad compatibility. The flexibility and portability of the format keep OBJ relevant across modeling, conversion, and 3D printing pipelines.

What is an OBJ File?

An OBJ file is a 3D mesh file format developed by Wavefront that stores polygon-based geometry for a 3D model using vertex coordinates, face definitions, and optional data (normals and texture coordinates). OBJ files describe the surface shape of an object by connecting vertices into triangles or quadrilaterals, which makes the format suitable for static models in modeling, rendering, and visualization workflows. An OBJ file references an external MTL material library that stores material names and texture file links, although support for the features depends on the software. OBJ is relevant in 3D printing because slicers can parse the mesh data, or the files are converted into STL or 3MF for printer compatibility.

What is the full form of OBJ?

OBJ has no official full form because OBJ is the file extension used for the Wavefront geometry format created by Wavefront Technologies for Advanced Visualizer. The term “Wavefront OBJ” is the common name used to identify the format in 3D software documentation and file import menus. The format stores polygon mesh geometry using vertex positions, face definitions, vertex normals, and optional UV texture coordinates. Material assignments and texture map references are stored in a companion MTL file linked from the OBJ. Broad software support keeps OBJ widely used as a mesh interchange format across modeling, rendering, animation, and 3D printing workflows.

Does the OBJ extension originate from the term “Object”?

Yes, the OBJ extension originates from the term object because the format was designed to describe 3D object geometry in a portable file. The naming convention reflects industry usage rather than a formal acronym expansion. Wavefront OBJ became the common reference because Wavefront Technologies popularized the format through early 3D graphics software.

How to Convert an OBJ File

To convert an OBJ file, a five-step process must be followed. First, open the OBJ file in a mesh-capable program (Blender, MeshLab, Ultimaker Cura) to confirm the model imports correctly, and the geometry appears complete. Second, inspect the mesh for errors (holes, flipped normals, non-manifold edges) and run basic repairs before exporting. Third, choose an export workflow and select the target format (STL for slicing, 3MF for print metadata, FBX for animation, GLB for web visualization). Fourth, adjust export settings for triangulation, smoothing, and scale to match the destination software requirements. Lastly, re-import the exported file to verify dimensions, orientation, and surface quality before sending the file downstream to convert an OBJ File.

What Methods Can Be Used to Convert an OBJ File to Other Formats?

The methods that can be used to convert an OBJ file to other formats are based on import and export workflows in mesh-capable software. Modeling tools (Blender) convert OBJ into STL, FBX, GLB, and PLY through standard export functions. Mesh processing tools (MeshLab) convert OBJ while supporting repairs like normal correction, hole filling, and triangle reduction. Slicing programs (Ultimaker Cura, PrusaSlicer) convert OBJ into printer instruction outputs through slicing, though they also support exporting the mesh into formats like STL or 3MF. CAD tools with mesh workflows (Autodesk Fusion, Rhino) convert OBJ into other formats, though dense meshes reduce performance and limit conversion reliability. Mesh to mesh conversions preserve shape, while texture references and material libraries drop when the target format does not support the same attributes.

Can OBJ Files Be Converted Without Losing Geometry Data?

Yes, OBJ files can be converted without losing core geometry when the target format supports mesh surfaces and the conversion keeps the same vertex and face structure. Geometry loss occurs when the workflow changes mesh topology (decimation, remeshing, triangulation differences) or converts the mesh into a format that uses geometry differently (B Rep solids, parametric CAD). Format choice matters because mesh-to-mesh conversions (OBJ to STL, OBJ to PLY, OBJ to GLB) aim to preserve shape, while mesh-to-CAD conversions (B-Rep) introduce approximation and feature loss.

How to Open an OBJ File?

An OBJ file is opened by importing the file into software that supports polygon mesh formats. Common tools include Blender, MeshLab, Rhino, Autodesk Fusion, and 3D printing slicers (Ultimaker Cura, PrusaSlicer). The workflow starts by selecting an Import option and choosing the OBJ file, then verifying scale, mesh orientation, and surface normals after loading. Compatibility issues occur when the OBJ references an MTL file or texture images that are missing, which causes materials or textures to load incorrectly. Some programs triangulate polygon faces during import, which changes topology but preserves shape, while others maintain native quad or N-gon structures. Successful opening depends on a clean mesh structure, correct file references, and software support for the OBJ feature set.

Which Software Tools Can Be Used to Open OBJ Files?

The software tools that can be used to open OBJ files are listed below.

• Blender: Blender opens OBJ files for mesh inspection, polygon editing, UV mapping, and rendering workflows. Blender imports vertex normals and texture coordinates when present. Blender supports exporting OBJ after edits.
• MeshLab: MeshLab opens OBJ files for mesh cleanup, inspection, decimation, and repair operations. MeshLab supports analyzing normals, non-manifold geometry, and mesh density. MeshLab fits scan and printing preparation workflows.
• Autodesk Fusion: Autodesk Fusion opens OBJ meshes for reference modeling and mesh editing workflows. Fusion supports a dedicated mesh environment for repair, modification, and conversion tools. Fusion fits manufacturing preparation and design reference use.
• Rhino: Rhino opens OBJ for mesh visualization, measurement, and conversion from mesh and surface workflows. Rhino supports exporting cleaned meshes for printing or rendering. Rhino fits hybrid CAD and mesh workflows.
• SOLIDWORKS Visualize: SOLIDWORKS Visualize opens OBJ files for rendering and visualization. Visualize supports materials and texture workflows through linked assets. Visualize fits product rendering workflows.
• Cinema 4D: Cinema 4D opens OBJ files for motion graphics, animation, and rendering. Cinema 4D supports UV-mapped models and material workflows. Cinema 4D fits visualization pipelines.
• Autodesk Maya: Autodesk Maya opens OBJ for animation assets, scene objects, and rendering workflows. Maya supports UV mapping and mesh normals for shading. Maya fits professional animation workflows.
• Ultimaker Cura: Ultimaker Cura opens OBJ files for slicing in FDM printing workflows. Cura primarily imports the mesh geometry and typically ignores material references unless using specialized plugins for color visualization. Cura converts the mesh into printable layers and toolpaths.

Can OBJ Files Be Opened Using Free 3D Software?

Yes, OBJ files can be opened using free 3D software because open-source tools support the format. Blender opens OBJ for modeling, UV editing, and rendering workflows. MeshLab opens OBJ for mesh inspection, cleanup, and repair operations. Free slicers (Ultimaker Cura, PrusaSlicer) open OBJ for print preparation and toolpath generation. The availability of free tools makes OBJ access widespread across graphics and 3D printing workflows.

How to Make an OBJ File?

An OBJ file is made by creating a 3D model in CAD or polygon modeling software and exporting the geometry in OBJ format. The orkflow starts by modeling the part as a solid, surface, or polygon mesh in a program that supports OBJ export (Blender, Rhino, Autodesk Fusion) or by preparing existing models in tools like SOLIDWORKS Visualize). CAD tools generate OBJ by tessellating B Rep geometry into polygon faces, while polygon modeling tools export the mesh directly. The export settings control mesh density, smoothing, and whether UV coordinates and vertex normals are included. Exports generate an MTL file that assigns materials and references texture images used for rendering. OBJ files are produced by converting other 3D formats through import and export in mesh editors or converters. The exported OBJ, often alongside an MTL file, transfers mesh geometry and appearance metadata into rendering tools, animation software, and slicing programs for additive manufacturing.

What Methods Are Used to Create OBJ Files?

The methods that are used to create OBJ files are centered on exporting mesh geometry from 3D design software. CAD programs create OBJ by tessellating B Rep solids or surfaces into polygon faces during the export process. Polygon modeling tools create OBJ by writing mesh data (vertices, faces, vertex normals) and optional UV texture coordinates into a primarily text-based file structure. Workflows export an accompanying MTL file that stores material assignments and references texture images for UV-mapped models. OBJ files are created through format conversion by importing a 3D model file and exporting the mesh as OBJ in a converter or mesh editor. The workflow produces a portable mesh file that transfers reliably into rendering tools, animation software, mesh repair programs, and slicers.

Can OBJ Files Be Exported From CAD and 3D Modeling Software?

Yes, OBJ files can be exported from CAD and 3D modeling software for visualization, rendering, and printing workflows. CAD systems export OBJ by tessellating solid or surface geometry into polygon faces, which converts B Rep geometry into a mesh representation. OBJ export is common in tools that support visualization pipelines (Autodesk Fusion, SOLIDWORKS, Rhino), while CAD platforms prioritize STL and 3MF for printing-focused export. The export workflow supports interchange because OBJ imports reliably across modeling tools, DCC software, and slicers.

What is the Importance of OBJ Files?

OBJ files are important because the format provides a compatible way to exchange mesh geometry across 3D software used for printing and graphics. OBJ supports polygon faces, vertex normals, and UV texture coordinates, which preserve shading and texture placement for rendering workflows. The format commonly pairs with an MTL file for material assignments, which supports basic appearance transfer from applications. OBJ files support 3D printing workflows by transferring mesh geometry into slicers, even though texture and material data are typically not used for standard toolpath generation in FDM slicing. The simple text-based structure improves file integrity because the mesh data is readable and debuggable across platforms. Broad software support keeps OBJ relevant for cross-platform exchange from CAD exporters, mesh editors, and visualization tools.

How Do OBJ Files Support Interoperability Across 3D Software?

OBJ files support interoperability across 3D software because the format uses a simple, documented text structure for polygon meshes. M, rendering, and slicing platforms import OBJ because the file stores core mesh elements (vertices, faces, normals) in a consistent way. OBJ workflows transfer geometry reliably from programs, even when material libraries or textures are missing. Interoperability remains strong because OBJ avoids proprietary dependencies and stays readable across operating systems and software versions.

Are OBJ Files Important for Cross-Platform 3D Model Exchange?

Yes, OBJ files are important for cross-platform 3D model exchange because the format remains one of the supported mesh standards across professional and hobbyist software. Broad compatibility allows models to move from CAD adjacent tools, DCC applications, and slicers without requiring a native project file. Industry reliance continues in visualization, animation, scanning, and printing workflows because OBJ stores mesh geometry in a predictable structure and pairs with MTL files for basic material assignments.

What Are the Types of OBJ Files?

The types of OBJ files are listed below.

• ASCII OBJ: ASCII OBJ stores mesh data as human-readable text lines that define vertices, texture coordinates, vertex normals, and face indices. ASCII OBJ supports broad compatibility across modeling, rendering, and conversion tools. ASCII OBJ fits workflows that benefit from inspectable and editable mesh files.
• OBJ with MTL: OBJ with MTL uses a standard OBJ mesh file paired with an MTL material library file that assigns materials to mesh groups. The MTL file references texture images and basic shading parameters. OBJ with MTL fits visualization workflows that require material separation and texture mapping.
• OBJ without MTL: OBJ without MTL stores mesh geometry and excludes material assignments and texture references. The structure reduces file dependencies and simplifies transfer into slicers. OBJ without MTL fits 3D printing workflows where appearance data is not needed.
• Triangulated OBJ: Triangulated OBJ stores faces as triangles only, which matches slicer expectations and improves compatibility across mesh repair tools. The structure reduces ambiguity in polygon handling across software. Triangulated OBJ fits printing and scanning pipelines.
• Quad or N gon OBJ: Quad or N gon OBJ stores faces as quadrilaterals or polygons with more than 4 vertices. The structure supports modeling workflows that rely on clean topology for subdivision and animation. Slicers and conversion tools triangulate the faces during import.
• Vertex Color OBJ: Vertex Color OBJ stores per-vertex color values in a widely adopted but non-standard extension where RGB values follow vertex coordinates.
• Binary OBJ: Binary OBJ is not part of the standard Wavefront OBJ specification. Software uses proprietary binary mesh formats that are incorrectly labeled as OBJ. The compatibility depends on the originating application rather than the OBJ standard.

How Are OBJ Files Categorized Based on Their Structure and Usage?

OBJ files are categorized based on their structure and usage through the type of mesh geometry and the presence of material and texture data. Geometry categories include triangle-only meshes, quad-based meshes, and polygon meshes that use n gon faces. Material categories include OBJ files that reference an MTL file for material assignments and OBJ files that contain geometry. Usage varies because graphics workflows benefit from UV mapping and material libraries, while 3D printing workflows prioritize clean triangulated meshes that import reliably into slicers.

Are There Multiple OBJ File Variants Used in 3D Modeling?

Yes, multiple OBJ file variants exist in 3D modeling because software exporters interpret optional parts of the specification differently. Differences appear in how programs write vertex normals, smoothing groups, polygon types, and material assignments through linked MTL files. OBJ exports include UV coordinates and multiple objects or groups, while other exports write basic vertex and face data. The core OBJ structure remains consistent because the format stays a plain text mesh definition based on vertices and faces.

What Are the Best OBJ File Converters?

The best OBJ file converters are listed below.

1. AnyConv.com: AnyConv converts OBJ into common mesh formats through a browser interface. AnyConv works for quick format changes, yet the workflow provides limited control over mesh repair, normals, and unit scaling. AnyConv fits basic conversion tasks when advanced mesh editing is not required.
2. Blender: Blender converts OBJ into STL, FBX, GLB, and other formats through import and export tools. Blender preserves UV coordinates and vertex normals when supported by the target format. Blender fits conversion workflows that require mesh cleanup, scaling, and orientation checks.
3. Autodesk Fusion: Autodesk Fusion imports OBJ meshes and supports conversion workflows through mesh to B Rep tools and export functions. Autodesk Fusion fits workflows that require aligning mesh data with CAD geometry for manufacturing preparation. Autodesk Fusion works best for simple meshes because dense triangle counts reduce conversion reliability.

What Are the Best Applications for OBJ Files?

The best applications for OBJ files are listed below.

1. Blender: Blender supports OBJ import and export for polygon modeling, UV editing, and asset preparation for rendering workflows. Blender handles vertex normals and UV coordinates that commonly appear in OBJ files. Blender fits OBJ-based pipelines for visualization and animation.
2. Autodesk Maya: Autodesk Maya imports OBJ for character models, props, and scene assets used in animation. Maya preserves mesh topology and supports UV-mapped surfaces from OBJ workflows. Maya fits professional VFX and studio pipelines.
3. Autodesk 3ds Max: Autodesk 3ds Max supports OBJ for modeling, rendering, and asset exchange across DCC tools. 3ds Max reads UV mapping and mesh normals for shading workflows. 3ds Max fits architectural visualization and product rendering.

Is an OBJ File the Same as a CAD File?

No, an OBJ file is not the same as a CAD file because OBJ stores a polygon mesh rather than parametric solid geometry. OBJ files describe surfaces through vertices and faces and include UV mapping and references to material data, which suits rendering and visualization workflows. CAD files store B Rep solids, sketches, constraints, and feature history used for precise engineering edits and manufacturing intent. OBJ fits mesh-based workflows and 3D printing preparation, while CAD formats (STEP, IGES, native CAD files) fit design modification, tolerancing, and production engineering.

What is the Difference Between an OBJ and an STL File?

The difference between OBJ and STL file formats centers on how each stores geometry and surface metadata. OBJ files define polygon meshes using vertices, face definitions, vertex normals, and optional UV texture coordinates, and the format commonly references an MTL file for material assignments. OBJ supports material names and texture mapping, which suits rendering, animation, and visualization workflows. STL files store triangle facets and surface normals that define exterior geometry, and the format excludes UV mapping, textures, and material libraries. STL fits additive manufacturing workflows because slicing software utilizes the mesh to generate layers and toolpaths, though a watertight mesh is required for optimal print reliability. The use case split reflects the difference between OBJ and STL file across graphics pipelines and 3D printing workflows.

How Do OBJ and STL Files Differ in Data Structure and Use Cases?

OBJ and STL files differ in data structure and use cases by the amount of mesh metadata each format supports. OBJ stores vertex positions, face definitions, vertex normals, and optional UV texture coordinates, and the mesh commonly references an MTL file for material assignments. The structure supports appearance attributes, which suit rendering, animation, and visualization workflows that rely on shading and texture mapping. STL stores triangle facets and surface normals that describe exterior geometry, with no support for UV mapping, material libraries, or texture references. The simplified structure suits additive manufacturing workflows because slicers need a watertight surface mesh to generate layers and toolpaths. OBJ fits graphics and color-aware pipelines, while STL fits printing-focused geometry exchange from CAD exporters and slicers.

Does OBJ Store More Information Than STL?

Yes, OBJ stores more information than STL because OBJ supports mesh attributes beyond basic triangle geometry. OBJ files store polygon mesh data and reference material libraries through an MTL file, which enables surface appearance definitions (material names, diffuse color values, specular parameters). OBJ files store UV coordinates for texture mapping, which allows image textures to align correctly on the model. STL files store surface geometry as triangles and do not support UV mapping, texture references, or material libraries. OBJ therefore fits workflows that require visual realism or material separation, while STL fits workflows focused on geometry transfer for slicing and toolpath generation.

How is OBJ used in 3D graphics?

OBJ is used in 3D graphics as a mesh exchange format for moving models from software used for rendering, animation, and visualization. OBJ files transfer polygon geometry, vertex normals, and UV mapping data, which supports shading and texture placement in rendering pipelines. Artists export OBJ from modeling tools and import the mesh into rendering or animation programs for lighting, camera setup, and scene composition. OBJ workflows support product visualization, game asset preparation, architectural rendering, and VFX pipelines because the format remains supported across major 3D applications. Material definitions are carried through an associated MTL file, which helps maintain surface appearance across different tools.

How To Interpret OBJ Meaning in CAD Software?

To interpret OBJ meaning in CAD software, follow the six steps. First, the file must be understood as a mesh-based format that stores geometry as vertices, edges, and faces rather than parametric CAD features. Second, the vertex list must be reviewed because CAD programs read OBJ geometry by connecting vertex coordinates into polygon faces that form the surface of the model. Third, the face definitions must be checked to determine how the mesh is organized into triangles or quads, which affects smoothness, editability, and how the object behaves during conversions. Fourth, the normal data must be examined because CAD software uses normals to interpret which direction surfaces face, which impacts shading, selection, and whether surfaces appear inverted. Fifth, the texture coordinates must be identified because OBJ files store UV mapping that links the mesh to 2D textures. Sixth, the linked MTL material library must be reviewed because it defines material names, colors, and texture file references that CAD programs import, ignore, or partially support depending on the software.

Can Understanding OBJ Meaning Improve 3D Workflow?

Yes, understanding the meaning and structure of OBJ files can improve a 3D workflow because it reduces errors during importing, editing, and file conversion from CAD and mesh-based tools. A clear grasp of vertex data, face structure, normals, and material libraries helps designers troubleshoot shading problems, missing textures, broken surfaces, and scaling issues faster. The knowledge improves collaboration because teams exchange OBJ assets with fewer misunderstandings about how the model is constructed. Better interpretation of OBJ structure supports design accuracy by making it easier to validate mesh quality, ensure watertight geometry, and prepare models for rendering or 3D printing without repeated rework.

What is OBJ 3D printing?

OBJ 3D printing is the process of using a Wavefront OBJ file as the 3D model input for additive manufacturing, where the OBJ mesh is imported into slicing software and converted into printable layers and machine toolpaths. OBJ files store polygon geometry and include material references, but slicers use the mesh shape to generate supports, layer heights, infill, and print paths. OBJ 3D printing is common in FDM, SLA, and SLS workflows when the slicer supports OBJ import or when the file is converted into STL or 3MF for compatibility. The workflow supports accurate part preparation and production planning for a 3D printing design process.

How To Prepare an OBJ File for 3D Printing?

To prepare an OBJ file for 3D printing, first, the model must be checked for correct scale and units, then resized to match the intended real-world dimensions. Second, the mesh must be repaired to remove holes, non-manifold edges, flipped normals, and intersecting faces to ensure watertight geometry. Third, thin walls must be evaluated against minimum printer and material requirements to prevent weak or failed prints. Fourth, the model must be oriented to reduce support needs and improve surface quality on critical faces. Fifth, the OBJ file must be imported into slicing software, where layer height, supports, infill, and print settings are selected. Sixth, the sliced model must be exported as printer-ready G-code or the required machine format for printing.

Can OBJ Files Be Used for All Types of 3D Printers?

OBJ files cannot be used for all types of 3D printers without conversion or slicer support. Slicers import OBJ for FDM, SLA, and SLS workflows because the format stores mesh geometry that slicing software converts into layers and toolpaths. Printer ecosystems accept STL or 3MF as the primary mesh input, which forces an OBJ to STL or OBJ to 3MF conversion step before printing. OBJ supports UV mapping, textures, and material references, which slicers utilize for material assignment in color-capable or multi-material printing workflows. Color-capable technologies (PolyJet, Binder Jetting) benefit from OBJ when the printer software reads the material file and texture mapping correctly. Compatibility depends on the slicer, printer workflow, and manufacturer software requirements, which affect successful model transfer across 3D printers.

What is an OBJ 3D Model?

An OBJ 3D model is a polygon mesh saved in the Wavefront OBJ format that defines geometry through vertex coordinate records and face index lists. Face definitions connect vertices into triangles or quads, which form the visible surface of the model. The file can include texture coordinate data and normal vector data, which support texture mapping and shading in rendering engines. The OBJ file stores geometry and basic mesh attributes, while material definitions and texture links are typically stored in a separate MTL file referenced by the model. 3D workflows use OBJ for exchanging static meshes between modeling tools, renderers, and 3D printing software because the format remains widely supported, which matches the role of a 3D model.

How Is an OBJ 3D Model Created?

An OBJ 3D model is created by first building the geometry in a 3D modeling or CAD program, then exporting the finished model as an OBJ file. The process begins with creating or importing basic shapes and modifying them using modeling tools. The designer adjusts the geometry, applies materials or textures if required, and prepares the model for export. The final step involves selecting the OBJ format in the export menu, which saves the mesh geometry and references any associated material files.

Can OBJ 3D Models Be Edited in CAD Software?

Yes, OBJ 3D models can be edited in CAD software, but the editing capabilities are limited because the format stores mesh geometry. CAD programs often import OBJ files as mesh geometry, which may require conversion to SubD surfaces or B-Rep solids to enable parametric editing. Basic operations like scaling, trimming, or mesh repair are possible, but feature-based editing is not available. Engineers convert the mesh into a solid model or rebuild the geometry to enable precise modifications.

What is Wavefront OBJ?

Wavefront OBJ is a 3D file format created by Wavefront Technologies that is a polygon mesh geometry for computer graphics. The file records vertex coordinates, texture mapping coordinates, vertex normal vectors, and face lists that define polygon connectivity. The format is primarily ASCII text, though binary-encoded versions exist, allowing the data to remain largely readable and editable in text editors. OBJ is commonly used to move static meshes in modeling, sculpting, rendering, and 3D printing software because the format focuses on geometry instead of full scene elements (rigging, animation, lights, cameras). Surface appearance data is commonly stored in an associated MTL file that defines material properties and links texture images. Broad tool support keeps Wavefront OBJ in active use across modern 3D pipelines.

Where Is Wavefront OBJ Commonly Applied?

Wavefront OBJ is commonly applied in industries that require the exchange of 3D mesh data from different software platforms. The format is used in animation, visual effects, video game development, and architectural visualization because it stores polygonal geometry along with optional texture references. Digital artists and designers export models as OBJ files to move assets from modeling, sculpting, and rendering tools. The format is supported in programs (Blender, Maya, 3ds Max, ZBrush, Cinema 4D), which makes it a common choice for asset sharing across creative and engineering workflows.

Can Wavefront OBJ Be Used in Multiple 3D Applications?

Yes, Wavefront OBJ can be used in multiple 3D applications because the format is supported across modeling, sculpting, animation, rendering, and printing software. Programs include built-in OBJ import and export features, which allow models to move from different tools without major compatibility issues. The format stores geometry and reference textures through associated files, which supports use across different platforms. The broad software support makes OBJ a common exchange format for transferring 3D models from various applications (Blender, Maya, 3ds Max, Cinema 4D).

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