.NOTE: This project is open to ONLY those with a documented history of 3D design and CAD work for CNC. Do NOT participate if this is not your background and do NOT spam me with AI images. Sculptural Commemorative Design - "Chaos to Clarity" 1.0 Project Overview and Design Intent Project Title: The Consensus Stone Client: Blue Clay Health Objective: To design a commemorative object for founding members that embodies the company’s core mission: transforming fragmented, complex medical information (Chaos) into unified, actionable clarity (Clarity). Aesthetic Direction: The object should be sleek, minimalist, and sculptural, reminiscent of the high-polish, fluid metallic forms of artists like Brancusi, Arad, or Koons. It must possess significant physical weight (heft) and be deeply satisfying to hold. Constraints: Single piece construction; 5-axis CNC machining. 2.0 Concept and Symbolism The Consensus Stone is a physical metaphor for the "System of Reasoning." The form is characterized by a seamless transition in surface geometry along its length. It begins at one end with sharp, distinct facets representing complexity, fragmentation, and disparate data points. This geometric "noise" gradually and mathematically dissolves, transitioning smoothly into a perfectly continuous curve at the opposite end, representing consensus and clarity. 3.0 Geometry and Form Language The execution of the geometric gradient is the defining feature and the primary technical challenge. 3.1 Overall Form Shape: An elongated, asymmetrical ovoid or sophisticated "pebble" shape. Asymmetry: The form must be asymmetrical along the longitudinal axis. The thickest/widest point (apex) should be biased slightly toward the "Chaos" (faceted) end, enhancing the asymmetry and defining the direction of the transition from complex to resolved. Stability: The object must rest stably on a desk in a primary orientation. The center of gravity should be low. A subtle, localized flattening of the curvature on the underside is acceptable if necessary for stability, but this must be blended organically. A distinct, machined flat base must be avoided. Ergonomics: The form must feel natural and satisfying when held in the palm. 3.2 Surface Continuity (Critical Requirement) The underlying base form and the transition zone must be executed with the highest level of surface modeling discipline. Maintain G3 (Curvature continuity) or Class-A surfacing standards. Rationale: The mirror polish finish will highlight any imperfections or sudden breaks in the highlight flow. Verification: Zebra Stripe and Reflection Analysis of the CAD model are mandatory. 3.3 The "Chaos" End (Faceted Geometry) This end represents complexity and fragmentation. Pattern: The facets should be non-uniform. A randomized low-polygon mesh or Voronoi pattern should be used as the basis. The pattern should feel structured yet organic, not repetitive. Geometry: Facets must be planar (flat faces). This is crucial for sharp light reflection. Edges: The edges where facets meet must be visually crisp. However, to ensure a premium tactile quality, a micro-fillet must be applied. Edge Specification: R 0.1mm - R 0.2mm. The goal is a distinct appearance where the light catches a sharp line, without feeling unpleasantly sharp to the touch. Scale Gradient: The facets must feature a gradient in scale. They should be smaller and denser at the extreme "Chaos" end (approx. 0.25” across), gradually increasing in size (up to approx. 0.75” across) as they approach the transition zone. 3.4 The "Clarity" End (Smooth Geometry) This end must be perfectly smooth, defined by the G3/Class-A continuous curvature of the base form. 3.5 The Transition Zone The transition from the faceted geometry to the smooth geometry must be gradual and absolutely seamless. The facets must appear to "dissolve" into the smooth surface. This transition should occur over approximately 50–60% of the object's length. Geometric Implementation: The transition is achieved by gradually manipulating the geometry along the longitudinal axis: Amplitude Reduction: The height difference between the peaks and valleys of the facets decreases toward zero. Radius Increase: The radii of the micro-fillets between the facets gradually increase. Angle Decrease: The angle between adjacent planar facets decreases (flattens) until they become tangent to the base form. 4.0 Dimensions and Material Length: 5.0 inches (127 mm) Width (at widest point): 2.5 inches (63.5 mm) Height (at tallest point): 1.5 inches (38.1 mm) (Dimensions are targets and can be optimized slightly by the designer for geometric flow and ergonomics.) Material: Solid 316L Stainless Steel. Rationale: Chosen for excellent corrosion resistance, superior ability to achieve a high polish, and significant weight (heft). Estimated Weight: Approx. 1.5–2.0 lbs (0.68–0.90 kg). 5.0 Finish (CMF) The finish is critical, as the aesthetic contrast is achieved only by how the mirror finish interacts with the changing geometry. Specification: Uniform SPI Grade A-1 Mirror Polish (Ra < 0.1 µm) across the entire object. Visual Effect: Reflections will be sharp, fragmented, and distinct on the faceted end, and fluid, distorted, and continuous on the smooth end. Manufacturing Requirement: The polishing process is the primary manufacturing challenge and cost driver. It must achieve the A-1 finish without excessively softening or "washing out" the distinct edges (R0.1–0.2mm) or compromising the planarity of the faces on the "Chaos" end. Branding: No visible branding or text on the primary surfaces. 6.0 Expected Deliverables A finalized, watertight 3D CAD model (STEP format preferred; native files also required) with proven G3/Class-A continuity. A set of high-quality renderings (Keyshot or similar) demonstrating the form and the specified mirror finish, clearly illustrating the light interaction across the transition zone. A 2D control drawing specifying dimensions, material, finish requirements (SPI A-1), and critical geometry requirements (edge detail R0.1–0.2mm, G3 continuity, planar facets).