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"""
Example 63: Optic-Based Wiring — Lens, Prism, Traversal
=========================================================
Demonstrates optic-based wire routing and transformation,
implementing Paper §3.4.
Biological Analogy:
- Lens = constitutive expression — always active, data passes through
- Prism = receptor specificity — only responds to matching ligand type
- Traversal = polymerase processivity — walks a sequence, transforms each element
Key points:
1. LensOptic is explicit pass-through (equivalent to no optic)
2. PrismOptic routes by DataType — fan-out from one port to prism-filtered wires
3. TraversalOptic maps a transform over list elements on the wire
4. ComposedOptic chains optics sequentially
5. Fully backward compatible — wires without optics work unchanged
6. Optics coexist with DenatureFilters on the same wire
References:
- Article Section 3.4: Wire-Level Optics - Beyond Lenses
"""
from operon_ai.core.optics import (
ComposedOptic,
LensOptic,
Optic,
PrismOptic,
TraversalOptic,
)
from operon_ai.core.types import DataType, IntegrityLabel
from operon_ai.core.wagent import ModuleSpec, PortType, WiringDiagram
from operon_ai.core.wiring_runtime import DiagramExecutor, TypedValue
def main():
try:
print("=" * 60)
print("Optic-Based Wiring")
print("=" * 60)
# ── 1. LensOptic pass-through ──────────────────────────────
print("\n--- 1. LensOptic (Pass-Through) ---")
lens = LensOptic()
print(f" Protocol: {isinstance(lens, Optic)}")
print(f" can_transmit(JSON): {lens.can_transmit(DataType.JSON, IntegrityLabel.VALIDATED)}")
print(f" transmit('hello'): {lens.transmit('hello', DataType.JSON, IntegrityLabel.VALIDATED)}")
# ── 2. PrismOptic conditional routing ──────────────────────
print("\n--- 2. PrismOptic (Conditional Routing) ---")
json_prism = PrismOptic(accept=frozenset({DataType.JSON}))
error_prism = PrismOptic(accept=frozenset({DataType.ERROR}))
print(f" JSON prism accepts JSON: {json_prism.can_transmit(DataType.JSON, IntegrityLabel.VALIDATED)}")
print(f" JSON prism accepts ERROR: {json_prism.can_transmit(DataType.ERROR, IntegrityLabel.VALIDATED)}")
print(f" ERROR prism accepts JSON: {error_prism.can_transmit(DataType.JSON, IntegrityLabel.VALIDATED)}")
print(f" ERROR prism accepts ERROR: {error_prism.can_transmit(DataType.ERROR, IntegrityLabel.VALIDATED)}")
# Fan-out routing: A -> B (JSON only), A -> C (ERROR only)
print("\n Fan-out routing example:")
pt_json = PortType(DataType.JSON, IntegrityLabel.VALIDATED)
pt_err = PortType(DataType.ERROR, IntegrityLabel.VALIDATED)
diagram = WiringDiagram()
diagram.add_module(ModuleSpec(name="Router", inputs={"in": pt_json}, outputs={"out": pt_json}))
diagram.add_module(ModuleSpec(name="JSONHandler", inputs={"in": pt_json}))
diagram.add_module(ModuleSpec(name="ErrorHandler", inputs={"in": pt_err}))
diagram.connect("Router", "out", "JSONHandler", "in", optic=json_prism)
diagram.connect("Router", "out", "ErrorHandler", "in", optic=error_prism)
executor = DiagramExecutor(diagram)
executor.register_module("Router", lambda inputs: {
"out": TypedValue(DataType.JSON, IntegrityLabel.VALIDATED, {"status": "ok"})
})
report = executor.execute(
external_inputs={"Router": {"in": TypedValue(DataType.JSON, IntegrityLabel.VALIDATED, "start")}},
enforce_static_checks=False,
)
print(f" JSON output -> JSONHandler received: {report.modules['JSONHandler'].inputs.get('in', 'nothing')}")
print(f" JSON output -> ErrorHandler received: {report.modules['ErrorHandler'].inputs.get('in', 'nothing')}")
# ── 3. TraversalOptic collection processing ────────────────
print("\n--- 3. TraversalOptic (Collection Processing) ---")
doubler = TraversalOptic(transform=lambda x: x * 2)
print(f" transmit([1,2,3]): {doubler.transmit([1, 2, 3], DataType.JSON, IntegrityLabel.VALIDATED)}")
print(f" transmit(5): {doubler.transmit(5, DataType.JSON, IntegrityLabel.VALIDATED)}")
upper = TraversalOptic(transform=str.upper)
print(f" transmit(['a','b']): {upper.transmit(['a', 'b'], DataType.JSON, IntegrityLabel.VALIDATED)}")
# ── 4. ComposedOptic ───────────────────────────────────────
print("\n--- 4. ComposedOptic (Sequential Composition) ---")
composed = ComposedOptic(optics=(
PrismOptic(accept=frozenset({DataType.JSON})),
TraversalOptic(transform=lambda x: x * 10),
))
print(f" name: {composed.name}")
print(f" can_transmit(JSON): {composed.can_transmit(DataType.JSON, IntegrityLabel.VALIDATED)}")
print(f" can_transmit(ERROR): {composed.can_transmit(DataType.ERROR, IntegrityLabel.VALIDATED)}")
print(f" transmit([1,2,3]): {composed.transmit([1, 2, 3], DataType.JSON, IntegrityLabel.VALIDATED)}")
# ── 5. Backward compatibility ──────────────────────────────
print("\n--- 5. Backward Compatibility ---")
pt = PortType(DataType.JSON, IntegrityLabel.VALIDATED)
d2 = WiringDiagram()
d2.add_module(ModuleSpec(name="A", inputs={"in": pt}, outputs={"out": pt}))
d2.add_module(ModuleSpec(name="B", inputs={"in": pt}))
d2.connect("A", "out", "B", "in") # No optic
ex2 = DiagramExecutor(d2)
ex2.register_module("A", lambda inputs: {"out": {"data": 42}})
r2 = ex2.execute(external_inputs={"A": {"in": "trigger"}})
print(f" No optic, wire works as before: {r2.modules['B'].inputs['in'].value}")
# ── 6. Optic + DenatureFilter coexistence ──────────────────
print("\n--- 6. Optic + DenatureFilter Coexistence ---")
from operon_ai.core.denature import SummarizeFilter
pt_text = PortType(DataType.TEXT, IntegrityLabel.VALIDATED)
d3 = WiringDiagram()
d3.add_module(ModuleSpec(name="Source", inputs={"in": pt_text}, outputs={"out": pt_text}))
d3.add_module(ModuleSpec(name="Sink", inputs={"in": pt_text}))
d3.connect(
"Source", "out", "Sink", "in",
denature=SummarizeFilter(max_length=20),
optic=TraversalOptic(transform=str.upper),
)
ex3 = DiagramExecutor(d3)
ex3.register_module("Source", lambda inputs: {"out": "This is a long input that should be summarized first"})
r3 = ex3.execute(external_inputs={"Source": {"in": "trigger"}})
result = r3.modules["Sink"].inputs["in"].value
print(f" Denature then optic: '{result}'")
print(f" (SummarizeFilter truncated, then TraversalOptic uppercased)")
print("\n" + "=" * 60)
print("Optic-based wiring demo complete.")
print("=" * 60)
except Exception as e:
print(f"ERROR: {e}")
raise
if __name__ == "__main__":
main()