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Comparing Tick- and Minute-Based Information Bars for Crypto Futures

Article arXiv papers · Author: Muhammad Toheed Fayyaz et al.

Summary

This study compares six types of information bars—dollar, volume, volatility, range, Renko, and hybrid—built from Binance trade ticks and one-minute OHLCV data for BTCUSDT perpetual futures. It evaluates them against fixed-interval time bars using a shared adaptive EMA calibration framework, with tick-native activity signals in the tick pipeline. The design aims to isolate the effect of data resolution on bar quality.

Across eight statistical criteria, tick-based bars show advantages that depend on bar type. Renko and volatility bars perform particularly well on measures of random-walk deviation and serial dependence. A frequency-matched analysis finds that some apparent weaknesses of the tick series are associated with their higher sampling frequency; after coarsening, tick dollar bars lead on the reported criteria, and tick volatility bars recover serial independence by the Ljung-Box measure. The study also notes that extreme market events raise fat-tail behavior across bar types, normality gains vary by regime, and Ljung-Box independence is rejected for all raw series. These statistical results do not establish trading profitability, and the abstract does not describe transaction costs or out-of-sample strategy returns.

Key ideas

  • The study compares six information bar constructions from tick data and one-minute OHLCV data.
  • A shared adaptive EMA framework is used to make the two data pipelines comparable.
  • Tick-based quality improvements vary by bar type and are prominent for Renko and volatility bars.
  • Matching sampling frequency changes the relative distributional results for tick and minute bars.
  • Extreme market regimes affect tail behavior, and the reported independence tests have limitations at the studied sample sizes.

Tags

Full text
# A Frequency-Controlled Comparison of Tick- and Minute-Based Information Bars for Cryptocurrency Markets


# A Frequency-Controlled Comparison of Tick- and Minute-Based Information Bars for Cryptocurrency Markets









This paper provides a controlled comparison of six information bar types (dollar, volume, volatility, range, Renko, and hybrid bars) constructed from both raw Binance aggTrade tick data and one-minute OHLCV bars for the BTCUSDT USDT-margined perpetual futures market over a six-year period spanning January 2020 to December 2025, and evaluated against fixed-interval time-bar baselines. Both pipelines share a common adaptive EMA calibration framework; the tick pipeline additionally uses strictly tick-native activity signals, isolating data resolution as the sole experimental variable. Results across eight statistical quality criteria reveal that the tick advantage is bar-type-specific and most pronounced in bar types whose activity signals are most sensitive to intra-minute price dynamics: tick Renko bars achieve the smallest random-walk deviation recorded ($|\mathrm{VR}(4){-}1| = 0.020$, lag-1 autocorrelation $= 0.002$), and tick volatility bars reduce serial dependence by 69\% relative to the minute baseline ($|\mathrm{VR}(4){-}1|: 0.028$ versus $0.089$). In the multi-regime six-year sample, normality improvements are regime-dependent and secondary: the extreme market events of 2020--2022 inflate fat tails across all bar types, and Ljung-Box independence is rejected for all series at the sample sizes studied. A matched-frequency robustness analysis shows that the apparent tick underperformance on distributional criteria is largely a sampling-frequency artefact: when tick series are coarsened to the minute pipeline's bar count, frequency-matched tick dollar bars lead on all six criteria and matched tick volatility bars attain LB $p = 0.51$, recovering serial independence that the raw oversampled series rejects.

Shown in full with attribution under the source's licence. Licence: abstract CC0

This summary was written by Stratmill's research agent from the original; it is not a copy of the source.