- Absolute return attribution method
- Accounting data
- Accuracy
- binary classification problems and
- measurement of
- AdaBoost implementation
- Adaptable I/O System (ADIOS)
- Alternative data
- Amihud's lambda
- Analytics
- Annualized Sharpe ratio
- Annualized turnover, in backtesting
- Asset allocation
- classical areas of mathematics used in
- covariance matrix in
- diversification in
- Markowitz's approach to
- Monte Carlo simulations for
- numerical example of
- practical problems in
- quasi-diagonalization in
- recursive bisection in
- risk-based. See also Risk-based asset allocation approaches
- tree clustering approaches to
- Attribution
- Augmented Dickey-Fuller (ADF) test. See also Supremum augmented Dickey-Fuller (SADF) test
- Average holding period, in backtesting
- Average slippage per turnover
- Cancellation rates
- Capacity, in backtesting
- Chow-type Dickey-Fuller test
- Chu-Stinchcombe-White CUSUM test
- Classification models
- Classification problems
- class weights for underrepresented labels in
- generating synthetic dataset for
- meta-labeling and
- Classification statistics
- Class weights
- decision trees using
- functionality for handling
- underrepresented label correction using
- Cloud systems
- Combinatorially symmetric cross-validation (CSCV) method
- Combinatorial purged cross-validation (CPCV) method
- algorithm steps in
- backtest overfitting and
- combinatorial splits in
- definition of
- examples of
- Compressed markets
- Computational Intelligence and Forecasting Technologies (CIFT) project
- Adaptable I/O System (ADIOS) and
- business applications developed by
- Flash Crash of 2010 response and
- mission of
- Conditional augmented Dickey-Fuller (CADF) test
- Correlation to underlying, in backtesting
- Corwin-Schultz algorithm
- Critical Line Algorithm (CLA)
- description of
- Markowitz's development of
- Monte Carlo simulations using
- numerical example with
- open-source implementation of
- practical problems with
- Cross-entropy loss (log loss) scoring
- Cross-validation (CV)
- backtesting through
- combinatorial purged cross-validation (CPCV) method in
- embargo on training observations in
- failures in finance using
- goal of
- hyper-parameter tuning with
- k-fold
- leakage in
- model development and
- overlapping training observations in
- purpose of
- purging process in training set for leakage reduction in
- sklearn bugs in
- CUSUM filter
- CUSUM tests
- CV. See Cross-validation
- Data analysis
- financial data structures and
- fractionally differentiated features and
- labeling and
- sample weights and
- Data curators
- Data mining and data snooping
- Decision trees
- Decompressed markets
- Deflated Sharpe ratio (DSR)
- Deployment team
- Dickey-Fuller test
- Chow type
- supremum augmented (SADF)
- Discretionary portfolio managers (PMs)
- Discretization of bet size
- Diversification
- Dollar bars
- Dollar imbalance bars (DIBs)
- Dollar performance per turnover
- Dollar runs bars (DRBs)
- Downsampling
- Drawdown (DD)
- definition of
- deriving
- example of
- run measurements using
- Dynamic bet sizes
- Econometrics
- financial Big Data analysis and
- financial machine learning versus
- HRP approach compared with
- investment strategies based in
- paradigms used in
- substitution effects and
- trading rules and
- Efficiency measurements
- annualized Sharpe ratio and
- deflated Sharpe ratio (DSR) and
- information ratio and
- probabilistic Sharpe ratio (PSR) and
- Sharpe ratio (SR) definition in
- Efficient frontier
- Electricity consumption analysis
- Engle-Granger analysis
- Ensemble methods
- boosting and
- bootstrap aggregation (bagging) and
- random forest (RF) method and
- Entropy features
- encoding schemes in estimates of
- financial applications of
- generalized mean and
- Lempel-Ziv (LZ) estimator in
- maximum likelihood estimator in
- Shannon's approach to
- ETF trick
- Event-based sampling
- Excess returns, in information ratio
- Execution costs
- Expanding window method
- Explosiveness tests
- Chow-type Dickey-Fuller test
- supremum augmented Dickey-Fuller (SADF) test
- Factory plan
- Feature analysts
- Feature importance
- features stacking approach to
- importance of
- mean decrease accuracy (MDA) and
- mean decrease impurity (MDI) and
- orthogonal features and
- parallelized approach to
- plotting function for
- random forest (RF) method and
- as research tool
- single feature importance (SFI) and
- synthetic data experiments with
- weighted Kendall's tau computation in
- without substitution effects
- with substitution effects
- Features stacking importance
- Filter trading strategy
- Finance
- algorithmization of
- human investors’ abilities in
- purpose and role of
- usefulness of ML algorithms in
- Financial data
- alternative
- analytics and
- essential types of
- fundamental
- market
- Financial data structures
- bars (table rows) in
- multi-product series in
- sampling features in
- unstructured, raw data as starting point for
- Financial Information eXchange (FIX) messages
- Financial machine learning
- econometrics versus
- prejudices about use of
- standard machine learning separate from
- Financial machine learning projects
- reasons for failure of
- structure by strategy component in
- Fixed-time horizon labeling method
- Fixed-width window fracdiff (FFD) method
- Flash crashes
- class weights for predicting
- “early warning” indicators in
- high performance computing (HPC) tools and
- signs of emerging illiquidity events and
- Flash Crash of 2010
- F1 scores
- measurement of
- meta-labeling and
- Fractional differentiation
- data transformation method for stationarity in
- earlier methods of
- expanding window method for
- fixed-width window fracdiff (FFD) method for
- maximum memory preservation in
- Frequency. See Betting frequency
- Fundamental data
- Fusion collaboration project
- Futures
- dollar bars and
- ETF trick with
- non-negative rolled price series and
- single futures roll method with
- volume bars and
- Gaps series, in single future roll method
- Global Investment Performance Standards (GIPS)
- Graph theory
- Grid search cross-validation
- Hasbrouck's lambda
- Hedging weights
- Herfindahl-Hirschman Index (HHI) concentration
- HHI indexes
- on negative returns
- on positive returns
- on time between bets
- Hierarchical Data Format 5 (HDF5)
- Hierarchical Risk Parity (HRP) approach
- econometric regression compared with
- full implementation of
- Monte Carlo simulations using
- numerical example of
- practical application of
- quasi-diagonalization in
- recursive bisection in
- standard approaches compared with
- traditional risk parity approach compared with
- tree clustering approaches to
- High-frequency trading
- High-low volatility estimator
- High-performance computing (HPC)
- ADIOS and
- atoms and molecules in parallelization and
- CIFT business applications and
- cloud systems compared with
- combinatorial optimization and
- electricity consumption analysis using
- Flash Crash of 2010 response and
- fusion collaboration project using
- global dynamic optimal trajectory and
- hardware for
- integer optimization approach and
- multiprocessing and
- objective function and
- pattern-finding capability in
- software for
- streaming data analysis using
- supernova hunting using
- use cases for
- vectorization and
- Holding periods
- backtesting and
- bet sizing and
- estimating in strategy
- optimal trading rule (OTR) algorithm with
- triple-period labeling method and
- Hyper-parameter tuning
- grid search cross-validation and
- log loss scoring used with
- randomized search cross-validation and
- Implementation shortfall statistics
- Implied betting frequency
- Implied precision computation
- Indicator matrix
- Information-driven bars (table rows)
- dollar imbalance bars
- dollar runs bars
- purpose of
- tick imbalance bars
- tick runs bars
- volume imbalance bars
- volume runs bars
- Information ratio
- Inverse-Variance Portfolio (IVP)
- asset allocation numerical example of
- Monte Carlo simulations using
- Investment strategies
- algorithmization of
- bet sizing in
- evolution of
- exit conditions in
- human investors’ abilities and
- log loss scoring used with hyper-parameter tuning in
- profit-taking and stop-loss limits in
- risk in. See Strategy risk
- structural breaks and
- trade-off between precision and frequency in
- trading rules and algorithms in
- Investment strategy failure probability
- algorithm in
- implementation of algorithm in
- probabilistic Sharpe ratio (PSR) similarity to
- strategy risk and
- K-fold cross-validation (CV)
- description of
- embargo on training observations in
- leakage in
- mean decrease accuracy (MDA) feature with
- overlapping training observations in
- purging process in training set for leakage reduction in
- when used
- Kyle's lambda
- Labeling
- daily volatility at intraday estimation for
- dropping unnecessary or under-populated labels in
- fixed-time horizon labeling method for
- learning side and size in
- meta-labeling and
- quantamental approach using
- triple-barrier labeling method for
- Labels
- average uniqueness over lifespan of
- class weights for underrepresented labels
- estimating uniqueness of
- Lawrence Berkeley National Laboratory (LBNL, Berkeley Lab)
- Leakage, and cross-validation (CV)
- Leakage reduction
- bagging for
- purging process in training set for
- sequential bootstraps for
- walk-forward timefolds method for
- Lempel-Ziv (LZ) estimator
- Leverage, in backtesting
- Limit prices, in bet sizing
- Log loss scoring, in hyper-parameter tuning
- Log-uniform distribution
- Look-ahead bias
- Machine learning (ML)
- finance and
- financial machine learning separate from
- HRP approach using
- human investors and
- prejudices about use of
- Machine learning asset allocation. See also Hierarchical Risk Parity (HRP) approach
- Monte Carlo simulations for
- numerical example of
- quasi-diagonalization in
- recursive bisection in
- tree clustering approaches to
- Market data
- Markowitz, Harry
- Maximum dollar position size, in backtesting
- Maximum likelihood estimator, in entropy
- Mean decrease accuracy (MDA) feature importance
- computed on synthetic dataset
- considerations in working with
- implementation of
- single feature importance (SFI) and
- Mean decrease impurity (MDI) feature importance
- computed on synthetic dataset
- considerations in working with
- implementation of
- single feature importance (SFI) and
- Message Passing Interface (MPI)
- Meta-labeling
- bet sizing using
- code enhancements for
- description of
- dropping unnecessary or under-populated labels in
- how to use
- quantamental approach using
- Meta-strategy paradigm
- Microstructural features
- alternative features of
- Amihud's lambda and
- bid-ask spread estimator (Corwin-Schultz algorithm) and
- Hasbrouck's lambda and
- high-low volatility estimator and
- Kyle's lambda and
- microstructural information definition and
- probability of informed trading and
- Roll model and
- sequential trade models and
- strategic trade models and
- tick rule and
- volume-synchronized probability of informed trading (VPIN) and
- Mixture of Gaussians (EF3M)
- Model development
- cross-validation (CV) for
- overfitting reduction and
- single feature importance method and
- Modelling
- applications of entropy to
- backtesting in
- cross-validation in
- econometrics and
- ensemble methods in
- entropy features in
- feature importance in
- hyper-parameter tuning with cross-validation in
- market microstructure theories and
- three sources of errors in
- Monte Carlo simulations
- machine learning asset allocation and
- sequential bootstraps evaluation using
- Multi-product series
- ETF trick for
- PCA weights for
- single future roll in
- National laboratories
- Negative (neg) log loss scores
- hyper-parameter tuning using
- measurement of
- Noise, causes of
- Non-negative rolled price series
- Optimal trading rule (OTR) framework
- algorithm steps in
- cases with negative long-run equilibrium in
- cases with positive long-run equilibrium in
- cases with zero long-run equilibrium in
- experimental results using simulation in
- implementation of
- overfitting and
- profit-taking and stop-loss limits in
- synthetic data for determination of
- Options markets
- Ornstein-Uhlenbeck (O-U) process
- Orthogonal features
- benefits of
- computation of
- implementation of
- Outliers, in quantitative investing
- Overfitting. See Backtest overfitting
- Parallelized feature importance
- PCA (see Principal components analysis)
- Performance attribution
- Plotting function for feature importance
- PnL (mark-to-market profits and losses)
- ETF trick and
- performance attribution using
- as performance measurement
- rolled prices for simulating
- PnL from long positions
- Portfolio construction. See also Hierarchical Risk Parity (HRP) approach
- classical areas of mathematics used in
- covariance matrix in
- diversification in
- entropy and concentration in
- Markowitz's approach to
- Monte Carlo simulations for
- numerical example of
- practical problems in
- tree clustering approaches to
- Portfolio oversight
- Portfolio risk. See also Hierarchical Risk Parity (HRP) approach; Risk; Strategy risk
- portfolio decisions based on
- probability of strategy failure and
- strategy risk differentiated from
- Portfolio turnover costs
- Precision
- binary classification problems and
- investment strategy with trade-off between frequency and
- measurement of
- Predicted probabilities, in bet sizing
- Principal components analysis (PCA)
- hedging weights using
- linear substitution effects and
- Probabilistic Sharpe ratio (PSR)
- calculation of
- as efficiency statistic
- probability of strategy failure, similarity to
- Probability of backtest overfitting (PBO)
- backtest overfitting evaluation using
- combinatorially symmetric cross-validation (CSCV) method for
- strategy selection based on estimation of
- Probability of informed trading (PIN)
- Probability of strategy failure
- algorithm in
- implementation of algorithm in
- probabilistic Sharpe ratio (PSR), similarity to
- strategy risk and
- Profit-taking, and investment strategy exit
- Profit-taking limits
- asymmetric payoff dilemma and
- cases with negative long-run equilibrium and
- cases with positive long-run equilibrium and
- cases with zero long-run equilibrium and
- daily volatility at intraday estimation points computation and
- investment strategies using
- learning side and size and
- optimal trading rule (OTR) algorithm for
- strategy risk and
- triple-barrier labeling method for
- Purged K-fold cross-validation (CV)
- grid search cross-validation and
- hyper-parameter tuning with
- implementation of
- randomized search cross-validation and
- Python
- Quantamental approach
- Quantamental funds
- Quantitative investing
- backtest overfitting in
- failure rate in
- meta-strategy paradigm in
- quantamental approach in
- seven sins of
- Quantum computing
- Random forest (RF) method
- alternative ways of setting up
- bagging compared with
- bet sizing using
- Randomized search cross-validation
- Recall
- binary classification problems and
- measurement of
- Reinstated value
- Return attribution method
- Return on execution costs
- Returns concentration
- RF. See Random forest (RF) method
- Right-tail unit-root tests
- Risk. See also Hierarchical Risk Parity (HRP) approach; Strategy risk
- backtest statistics for uncovering
- entropy application to portfolio concentration and
- liquidity and
- ML algorithms for monitoring
- PCA weights and
- portfolio oversight and
- profit taking and stop-loss limits and
- structural breaks and
- walk-forward (WF) approach and
- Risk-based asset allocation approaches
- HRP approach comparisons in
- structural breaks and
- Risk parity. See also Hierarchical Risk Parity (HRP) approach
- HRP approach compared with traditional approach to
- Rolled prices
- Roll model
- Tick bars
- Tick imbalance bars (TIBs)
- Tick rule
- Tick runs bars (TRBs)
- Time bars
- description of
- fixed-time horizon labeling method using
- Time-decay factors, and sample weights
- Time period, in backtesting
- Time series
- fractional differentiation applied to
- integer transformation for stationarity in
- stationarity vs. memory loss dilemma in
- Time under water (TuW)
- definition of
- deriving
- example of
- run measurements using
- Time-weighted average price (TWAP)
- Time-weighted rate of returns (TWRR)
- Trading rules
- investment strategies and algorithms in
- optimal trading rule (OTR) framework for
- overfitting in
- Transaction costs, in quantitative investing
- Tree clustering approaches, in asset allocation
- Triple-barrier labeling method
- Turnover costs
- Variance
- boosting to reduce
- causes of
- ensemble methods to reduce
- random forest (RF) method for
- Vectorization
- Volume bars
- Volume imbalance bars (VIBs)
- Volume runs bars (VRBs)
- Volume-synchronized probability of informed trading (VPIN)
- Walk-forward (WF) method
- backtesting using
- overfitting in
- pitfalls of
- Sharpe ratio estimation in
- two key advantages of
- Walk-forward timefolds method
- Weighted Kendall's tau
- Weights. See Class weights; Sample weights