In `sentry_patched_execute_command`, spans are entered with `__enter__()` and exited with `__exit__()` manually, but if `old_execute_command()` raises an exception, `__exit__()` is never called for either `db_span` or `cache_span`. This leaves spans unclosed when Redis commands fail, which causes resource leaks and incorrect span hierarchies. The `patch_redis_pipeline` function uses the `with span:` pattern correctly, but this function does not.

In the `span_streaming=True` branch (lines 66-88), the test parameters `expected_first_ten` and `send_default_pii` are passed to the test but never verified. The static path verifies these via `redis.commands.first_ten` assertions. This means PII filtering behavior is not tested in the streaming code path, reducing test coverage for a security-sensitive feature.

In the `span_streaming=True` branch (lines 66-88), the test parameters `expected_first_ten` and `send_default_pii` are passed to the test but never verified. The static path verifies these via `redis.commands.first_ten` assertions. This means PII filtering behavior is not tested in the streaming code path, reducing test coverage for a security-sensitive feature.

On line 293, the assertion `assert "cache.hit" not in spans[1]["data"]` checks `spans[1]` (the `db.redis` span from line 286), but should check `spans[2]` (the `cache.put` span being validated in the surrounding assertions on lines 288-294). This causes the test to validate the wrong span, making it less reliable for catching regressions in the cache.put functionality.

On line 293, the assertion `assert "cache.hit" not in spans[1]["data"]` checks `spans[1]` (the `db.redis` span from line 286), but should check `spans[2]` (the `cache.put` span being validated in the surrounding assertions on lines 288-294). This causes the test to validate the wrong span, making it less reliable for catching regressions in the cache.put functionality.