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Mateus H.
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This exclusive collection represents the gold standard for additive manufacturing and modern industrial design professionals. Meticulously designed, each section unlocks advanced AI capabilities to solve complex technical challenges, from nanometer calibration of hardware to topology optimization of high-demand aerospace parts. By integrating these prompts into their workflow, users will not only dramatically reduce iteration times, but will elevate the mechanical and aesthetic integrity of their creations. It is the ultimate tool for engineers and designers looking to transform abstract concepts into functional physical parts with guaranteed industrial precision.
Acts as a Senior Additive Manufacturing Engineer and Materials Science Expert. Your objective is to design an ultra-advanced slicing strategy focused exclusively on the optimization of perimeters for the mechanical part called [Name of Part], which will be subjected to stresses of type [Type of Stress: Tensile/Compression/Shear]. The primary purpose is to maximize structural integrity and dimensional accuracy without excessively compromising production cycle time. Deeply analyze the relationship between wall extrusion width and interlaminar adhesion. For the material [Thermoplastic Material], propose a specific configuration of perimeters (number of walls) that guarantees that the core of the part does not suffer delamination under a load of [Estimated Load in Newtons]. Evaluate whether it is more convenient to use an 'External Perimeters First' strategy to improve dimensional accuracy or 'Internal Perimeters First' to promote the anchoring of the infill, justifying your technical response based on the thermal contraction of the material. Develops a technical section on the use of modern lamination motors (such as the Arachne motor). Explains how to set the 'Variable Line Width' to avoid gaps in thin walls and how to set the 'Overlap' between the perimeter and the fill to eliminate any internal porosity. You must provide exact percentage values based on a nozzle of [Nozzle Diameter] mm and a layer height of [Layer Height] mm, always seeking a balance between surface aesthetics and fatigue resistance. Finally, generate a configuration table for the laminating software (Cura, PrusaSlicer or Bambu Studio) that includes: speed of external vs internal perimeters, recommended accelerations to avoid ringing in the corners, Z-Seam position to minimize stress concentrators, and the specific Flow Rate configuration for the walls. It concludes with an analysis of how the orientation of the part in the bed [Orientation: X/Y/Z] affects the effectiveness of the configured perimeters. If any key information needed to fill the bracketed fields is missing, ask me the necessary questions before answering.
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Acts as a Generative Design Engineer and Advanced Additive Manufacturing Expert. Your goal is to design a support structure or mechanical component using principles of biomimicry and structural topology optimization to reduce overall mass without compromising mechanical integrity. The resulting morphology must be based on biological growth algorithms, such as Lindenmayer Systems (L-Systems), Reaction-Diffusion or Differential Growth, applied specifically for the resolution of [Part or Component Type]. Analyze the tension and compression forces that will act on the model. You must propose an internal architecture of cells or an organic exoskeleton that distributes stress in a non-linear manner, mimicking bone density (Wolff's law) or root branching patterns. Consider that the selected material is [Print Material] and that we will use a [3D Printing Technology, e.g.: SLS, DMLS, FDM] technology for its physical production. It is essential that the resulting geometry minimizes the need for temporary supports and maximizes the strength-to-weight ratio on the [Primary Load Axle] axle. Develop the algorithmic workflow by detailing the 'attraction' and 'repulsion' parameters that will govern the growth of the form. Defines how the algorithm should react to user-defined 'anchor points' and 'exclusion zones'. The structure must present a smooth transition between high-density areas and low-density areas (porosity gradient), optimizing material flow only toward critical loading paths. It provides the mathematical formulas or pseudocode logic needed to simulate this growth in a computational design environment such as Rhino/Grasshopper or Houdini. Finally, evaluate the feasibility of the part for large-scale or microscale 3D printing. It describes how the organic growth algorithm must limit itself to avoid unwanted mesh intersections (non-manifold geometry) and ensure the tightness of the volumes (waterproof mesh). The end result should be a part that appears to have 'grown' rather than manufactured, meeting [Certification or Industrial Requirement] standards and achieving an estimated [Expected Percentage Reduction] weight reduction compared to a traditional design using subtraction or conventional solid modeling. If any key information needed to fill the bracketed fields is missing, ask me the necessary questions before answering.
He acts as a Senior Additive Manufacturing Engineer with specialization in FDM/FFF extrusion kinematics. Your task is to design an advanced technical guide for the calibration and adjustment of the 'Material Extrusion Flow Compensation' for a 3D printing system configured with [Extruder Model, e.g.: Direct/Bowden] and a nozzle of [Nozzle Diameter] mm. The main objective is to achieve absolute dimensional fidelity and optimal interlayer bonding using the material [Filament Type and Brand]. It begins by carrying out a deep analysis of the correlation between the steps per millimeter of the motor (E-Steps) and the flow multiplier (Extrusion Multiplier) configured in the laminator. Explains how the variation of the actual diameter of the filament (based on an average measurement of [Number of measurement points] points) impacts the volumetric calculation of the extrusion and how this deviates from the theoretical flow expected by the lamination software [Slicer name, ex: Cura, PrusaSlicer, OrcaSlicer]. Propose a 'Single Wall' calibration experiment (Vase Mode / Hollow Cube). Defines the critical printing parameters: nozzle temperature of [Hotend Temperature]°C, layer height of [Layer Height] mm, and an external wall velocity of [Velocity mm/s]. It instructs in detail on using a digital caliper to measure printed wall thickness and describes the precise mathematical formula for adjusting the current flow: (Nominal Line Width / Measured Line Width) * Current Flow = New Offset Value. Finally, it generates a secondary validation protocol using a 'Top Surface' test. Analyze visually and by touch the presence of gaps between perimeters (under-extrusion) or excess material accumulated in the corners (over-extrusion). Provides specific solutions to adjust the flow of the upper layers independently if the slicer allows it, guaranteeing a smooth and artifact-free surface finish, optimized for industrial grade applications. If any key information needed to fill the bracketed fields is missing, ask me the necessary questions before answering.
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