It is difficult to see how far a single data error will spread through a complex system. Tracking the ripple effect of a mistake across multiple layers of data is often unclear.
It maps out the path of data and calculates a score that shows how far a specific error can travel. It identifies which parts of a system are most affected by a single point of failure.
It allows you to see exactly how deep a data error will spread so you can prioritize where to fix it.
It was run inside an isolated container with no network access. This is the exact command and the real output it produced — captured process output, not written by a model.
$ python3 lineage_impact_trace.py Lineage Propagation Score for UIComponent: 1.52
A screenshot of that run.
A clean run proves this does what is shown above, in a CPU-only sandbox. It is a small research demo — not a production tool, and nothing here was published anywhere.
All of it — 87 lines, one file, standard library only.
# Lineage-Impact Trace Implementation
class Module:
def __init__(self, name, dependencies=None):
self.name = name
self.dependencies = dependencies or []
def blast_radius(self):
"""
Structural Impact Trace logic calculating how deep changes propagate
"""
if not self.dependencies:
return 1 # Base case: no dependencies
# Calculate weighted impact based on dependency types
weights = [0.8 if 'data' in dep.name.lower() else 0.5 for dep in self.dependencies]
return 1 + sum(weights) / len(weights) if weights else 1
def lineage_trace(self):
"""
CryoTrack-inspired lineage tracking for data flow
"""
visited = set()
stack = [self]
while stack:
current = stack.pop()
if current not in visited:
visited.add(current)
stack.extend(dep for dep in current.dependencies if dep not in visited)
return visited
def path_optimized_logic_trace(self):
"""
Combines multi-point path planning with functional decomposition
"""
# Simulate critical paths using depth-based traversal
critical_paths = []
stack = [(self, [self])]
while stack:
current, path = stack.pop()
critical_paths.append(path)
# Prioritize data dependencies first
data_deps = [dep for dep in current.dependencies if 'data' in dep.name.lower()]
other_deps = [dep for dep in current.dependencies if dep not in data_deps]
stack.extend((dep, path + [dep]) for dep in data_deps + other_deps)
return critical_paths
def lineage_propagation_score(self):
"""
Calculates the combined impact score for data-flow disruptions
"""
# Get all impacted modules via lineage trace
impacted_modules = self.lineage_trace()
# Calculate blast radius for each impacted module
blast_radii = [mod.blast_radius() for mod in impacted_modules]
# Combine with critical paths from path-optimized trace
critical_paths = self.path_optimized_logic_trace()
path_weights = [len(path) for path in critical_paths] # Longer paths have higher weight
# Score is weighted average of blast radii across critical paths
total_weight = sum(path_weights)
if total_weight == 0:
return 0
return sum(r * len([p for p in critical_paths if mod in p]) for mod, r in zip(impacted_modules, blast_radii)) / total_weight
# Example usage
if __name__ == "__main__":
# Create sample module graph
data_layer = Module('DataLayer', [])
api_client = Module('APIClient', [data_layer])
business_logic = Module('BusinessLogic', [api_client, data_layer])
ui_component = Module('UIComponent', [business_logic])
# Calculate and print scores
root_module = ui_component
score = root_module.lineage_propagation_score()
print(f"Lineage Propagation Score for {root_module.name}: {score:.2f}")