How to retrieve tick remnants? - briefly
Call the API’s get_tick_remnants
method, passing the specific tick identifier and a valid authentication token, then extract the remnant
value from the returned JSON. Handle any error codes according to the documentation to ensure reliable retrieval.
How to retrieve tick remnants? - in detail
Retrieving the leftover data from a tick cycle requires direct access to the buffer that stores completed tick information. Most systems expose this buffer through an API call or a debug interface. The process consists of three main actions: locating the storage, extracting the content, and converting it into a usable format.
-
Identify the storage location.
• In engine‑based environments, the tick log is usually kept in a circular buffer attached to the world or session object.
• In server‑side implementations, the buffer resides in a shared memory segment or a file under the diagnostics directory.
• Verify the pointer or file path using the configuration file or runtime diagnostics output. -
Perform the extraction.
• Use the provided method, such asGetTickHistory()
orReadTickBuffer()
, passing the desired range of tick indices.
• If the API is unavailable, read the raw memory region with a low‑level accessor (e.g.,memcpy
from the buffer address).
• Ensure thread safety by acquiring the appropriate lock or by invoking the call on the main thread. -
Translate the raw data.
• The buffer contains serialized structures; deserialize them according to the schema defined in the engine’s documentation.
• Convert timestamps from tick counts to real‑time values using the tick interval (Δt
).
• Populate a collection (array, list, or table) with the deserialized records for further analysis.
When the extraction is performed repeatedly, cache the buffer address and reuse the deserialization routine to minimize overhead. For diagnostic purposes, output the collected records to a CSV file or feed them into a profiling tool that can visualize tick‑by‑tick performance.
If the environment supports scripting, a compact example in pseudo‑code illustrates the workflow:
buffer = locate_tick_buffer()
lock(buffer)
raw = read_range(buffer, start_tick, end_tick)
unlock(buffer)
records = []
for entry in raw:
record = deserialize(entry)
record.time = entry.tick_id * tick_interval
records.append(record)
The above steps guarantee accurate recovery of tick remnants without altering the running system. Adjust the range parameters to capture the exact segment of interest, and employ proper error handling to address buffer overflows or missing data.