KineSolver Tutorial & Production Hub

📋 Step-by-Step Synthesis & Workflow Guide:

• Motion Law Selection: Choose acceleration characteristic. In high-speed automated machinery, select Cycloidal Motion to eliminate infinite jerk spikes, preventing valve bounce and mechanical shock.
• Timing Interval Allocation: In one 360° camshaft rotation, define angular spans for follower rise, dwell at crest, descent return, and baseline rest (β₁ + β₂ + β₃ + β₄ = 360°).
• Fundamental Geometric Sizing: Define base circle radius (r₁), follower roller bearing radius (r₂), and net linear stroke travel (h).
• CAE Validation & CNC Toolpath: Ensure maximum pressure angle satisfies α_max ≤ 30° to prevent follower guide jamming, and curvature radius satisfies ρ_min > r₂ to eliminate undercutting. Export AutoCAD DXF profile.

🔍 Detailed Parameter & Angle Dictionary (What Each Input Means):

📋 Step-by-Step Synthesis & Workflow Guide:

• Grashof Rotatability Condition: Verify that the sum of shortest link (s) and longest link (l) is less than or equal to the remaining two links (p + q): s + l ≤ p + q. Continuous 360° crank rotation requires this condition.
• Link Dimension Allocation: Enter driving crank length (r₁), coupler length (r₂), oscillating rocker length (r₃), and ground frame distance (r₀).
• Transmission Angle Optimization: Verify that transmission angle μ at rocker joint B remains within safe limits (40° ≤ μ ≤ 140°) across the full stroke to prevent mechanical toggle jamming.
• Dynamic Motion Simulation: Observe continuous crank rotation and smooth rocker oscillation on the 2D blueprint. Export DXF CNC drawings.

🔍 Detailed Parameter & Angle Dictionary (What Each Input Means):

📋 Step-by-Step Synthesis & Workflow Guide:

• Target Mathematical Function: Define desired kinematic input-output relation y = f(x) (e.g. y = x²) over domain [x_0, x_n].
• Precision Points Allocation: Distribute 3 precision points across interval using Chebyshev spacing to minimize maximum structural error.
• Freudenstein Kinematic Synthesis: Solve Freudenstein's non-linear loop equations: K₁ cos(φ) - K₂ cos(ψ) + K₃ = cos(ψ - φ) to obtain optimal link ratios.
• Assembly Mode & Error Check: Toggle between Type 1 (Open) and Type 2 (Crossed) configurations. Inspect structural error curve and download CAD link geometry.

🔍 Detailed Parameter & Angle Dictionary (What Each Input Means):

📋 Step-by-Step Synthesis & Workflow Guide:

• Target Trajectory Points: Enter precision coordinates (P₁ .. P₇) through which the manipulator tip or workpiece gripper must pass.
• Coupler Triangle Carrier Plate: Define rigid triangular coupler plate (Δ A-C-P) with tracer point P at the specified offset.
• Non-Linear Optimization: Run kinematic optimizer to compute link lengths that trace the continuous cyan sextic curve through target points with sub-millimeter RMS error.
• Live Tracing & CNC Export: Verify that tracer point P smoothly glides through all precision nodes along the closed coupler loop. Export AutoCAD DXF toolpath.

🔍 Detailed Parameter & Angle Dictionary (What Each Input Means):

📋 Step-by-Step Synthesis & Workflow Guide:

• Four Precision Poses: Define 4 finite coplanar positions and orientations (x_i, y_i, θ_i) [i=1..4] for guided rigid body (e.g. hood hinge or aircraft landing gear).
• Burmester Cubic Curves: Compute Circle-Point curve (locus of moving pivot points having circular paths) and Center-Point curve (locus of corresponding fixed pivot centers).
• Optimal Pivot Pair Selection: Select two compatible pivot pairs (M, A) and (Q, B) from curves that ensure acceptable transmission angles and compact link layout.
• Trajectory Layer Verification: Verify circular arcs for joints A and B, ensure guided point P passes through all 4 target poses. Export CAD assembly.

🔍 Detailed Parameter & Angle Dictionary (What Each Input Means):