Update UQ and VnV TODO files: add new tasks for laser-coil synchronization and hyperbolic wave formation; enhance existing entries for clarity

Author: arcticoder

UQ-TODO.ndjson

@@ -23,4 +23,7 @@
 {"title":"Define abort criteria for ramp overshoot","description":"Quantify safe abort thresholds for power ramp overshoot and quench conditions; tie to safety checklist.","type":"safety","severity":60,"category":"safety","impact":"Prevents thermal/electrical overstress during transients"}
 {"title":"Thermal cooldown margin validation","description":"Model cooldown time and margin after full-power mission; ensure compliance with thermal limits.","type":"analysis","severity":55,"category":"thermal","impact":"Undersized cooling could force increased dwell or mission delays"}
 {"title":"Fix geometry and mission timeline","description":"Lock geometry and mission timeline consistent with constraints; propagate to tests and docs.","type":"process","severity":40,"category":"documentation","impact":"Prevents drift between models and mission plan"}
-{"title":"Ring Field Synchronization","description":"Ensure 1-meter rings synchronize fields for stable 5-meter bubble","type":"theoretical","severity":55,"category":"temporal_coupling","impact":"Could destabilize warp bubble if unsynchronized"}
+{"title":"Ring Field Synchronization","description":"Ensure 1-meter rings synchronize fields for stable 5-meter bubble","type":"theoretical","severity":55,"category":"temporal_coupling","impact":"Could destabilize warp bubble if unsynchronized"}
+{"title":"Laser-Coil Interaction Uncertainty in Hyperbolic Wave Formation","description":"Quantify uncertainties in laser-coil synchronization for producing stable hyperbolic waves with complex expansion/contraction patterns","type":"theoretical","severity":75,"category":"cross_system_coupling","impact":"Could affect soliton stability and macroscopic warp effects"}
+{"title":"Metamaterial Amplification Variability for Positive-Energy Solitons","description":"Analyze variability in metamaterial field amplification (10^4×) for positive-energy contributions to T_{\mu\nu}","type":"validation","severity":70,"category":"system_integration","impact":"Could impact energy reduction and bubble formation without negative energy"}
+{"title":"Temporal Smearing Impact on Graviton Field Perturbations","description":"Evaluate uncertainties in temporal smearing (30 s ramp) on graviton field stability (h_{\mu\nu}) during wave propagation","type":"theoretical","severity":65,"category":"temporal_coupling","impact":"Could introduce fluctuations in metric perturbations if not synchronized"}

VnV-TODO.ndjson

@@ -26,3 +26,6 @@
 {"task":"Verify build_metric for Natário metric with 1-meter rings","priority":"High","source_file":"src/supraluminal_prototype/warp_generator.py","source_file_lines":"50:65","source_snippet":"def build_metric(self, params): ...","python_snippet":"import numpy as np\nfrom supraluminal_prototype.warp_generator import WarpFieldGenerator\nxs = np.linspace(-1,1,16)\ngen = WarpFieldGenerator(grid=(xs, xs, xs), dx=xs[1]-xs[0])\nG = gen.build_metric({'r_eff':1e-10,'v':3e8})\nassert G.shape == (4,4,16,16,16)\nr2 = sum(xi**2 for xi in np.meshgrid(xs,xs,xs,indexing='ij'))\nassert np.allclose(G[0,0], np.exp(-r2))"}
 {"task":"Test plasma_density and field_propagation for 5-meter bubble","priority":"Medium","source_file":"src/supraluminal_prototype/warp_generator.py","source_file_lines":"70:85","source_snippet":"def plasma_density(self, T): ... def field_propagation(self, F): ...","python_snippet":"import numpy as np\nfrom supraluminal_prototype.warp_generator import WarpFieldGenerator\nxs = np.linspace(-1,1,16)\ngen = WarpFieldGenerator(grid=(xs, xs, xs), dx=xs[1]-xs[0])\nT = gen.build_metric({'r_eff':1e-10,'v':3e8})\nrho = gen.plasma_density(T)\nF = gen.field_propagation(T)\nassert np.allclose(rho, 3e20)\nassert F.shape == (3,16,16,16)"}
 {"category":"V&V","task":"Integration test for battery power delivery","priority":"High","source_file":"src/supraluminal_prototype/power_system.py","source_file_lines":"90:100","source_snippet":"def deliver_power(self, P): ...","python_snippet":"import numpy as np\nfrom supraluminal_prototype.power_system import PowerSystem\nP = PowerSystem(capacity=2.56e10)\nP_out = P.deliver_power(2.5e8)\nassert P_out >= 2.5e8\nassert P.capacity_remaining() >= 0"}
+{"task":"Verify hyperbolic wave formation with laser-coil synchronization in Natário metric","priority":"High","source_file":"src/supraluminal_prototype/warp_generator.py","source_file_lines":"60:75","source_snippet":"def hyperbolic_wave(self, params, t_ramp=30): ...","python_snippet":"import numpy as np\nfrom supraluminal_prototype.warp_generator import WarpFieldGenerator\nxs = np.linspace(-1,1,16)\nt = np.linspace(0,30,100)\ngen = WarpFieldGenerator(grid=(xs, xs, xs), dx=xs[1]-xs[0])\nW = gen.hyperbolic_wave({'r_eff':1e-10,'v':3e8}, t_ramp=30)\nassert W.shape == (4,16,16,16,100)\nr2 = sum(xi**2 for xi in np.meshgrid(xs,xs,xs,indexing='ij'))\nassert np.allclose(W[0,...,-1], np.exp(-r2))"}
+{"task":"Test expansion/contraction pattern in field_propagation for complex soliton curvature","priority":"Medium","source_file":"src/supraluminal_prototype/warp_generator.py","source_file_lines":"80:95","source_snippet":"def expansion_contraction(self, F, t): ...","python_snippet":"import numpy as np\nfrom supraluminal_prototype.warp_generator import WarpFieldGenerator\nxs = np.linspace(-1,1,16)\nt = np.linspace(0,30,100)\ngen = WarpFieldGenerator(grid=(xs, xs, xs), dx=xs[1]-xs[0])\nT = gen.build_metric({'r_eff':1e-10,'v':3e8}, t_ramp=30)\nF = gen.field_propagation(T, t[-1])\nEC = gen.expansion_contraction(F, t[-1])\nassert EC.shape == (16,16,16)\nassert np.all(EC > 0) or np.all(EC < 0) in different regions"}
+{"category":"V&V","task":"Integration test for autopilot control with laser-coil wave synchronization","priority":"High","source_file":"src/supraluminal_prototype/autopilot_system.py","source_file_lines":"100:110","source_snippet":"def synchronize_wave(self, P, t_ramp): ...","python_snippet":"import numpy as np\nfrom supraluminal_prototype.autopilot_system import AutopilotSystem\nA = AutopilotSystem(capacity=1.57e10)\nW_out = A.synchronize_wave(1.25e8, t_ramp=30)\nassert W_out >= 1.25e8\nassert A.wave_stability() >= 0.95"}