Get full access to all of our tools and models for $100/month (or $25/week) with our monthly package.
If you purchase our 1 year package, you'll recieve a $58.3/month price (or $14.6/week).Our Plans
The nucleus of our site is our predictive modeling. We've built advanced models in every major sport and are continually improving each and expanding to other sports. The wealth of data and analytics available in all of the major sports allows our models to formulate a projection of the outcome of these sporting events.
This analyzes line movement and public betting data to identify which plays the "sharps" are backing. This is sometimes referred to as the "smart money." Not only does the tool automatically identify where the sharp action is, but it measures the amount of sharp action on a play (either Light, Moderate, or Heavy).
These let you play out your own match-ups for these sports whenever you want. A key note here is this is solely based on the "hotness" of each team (hence HeatCheck) - it pulls from each team's most recent game performances and extrapolates the data. Don't be surprised if the results are significantly different than our standard full-season models, or quite a bit off from the market lines.
This analyzes season-long performance from each of the models and outputs their optimal minimum value points. In other words, it shows you a quick summary of performance for each model where you can look and decide at what minimum values you want to play each model. For example, you may see that when the value is 4.9% or greater in the NHL model, the profitability skyrockets.
Each model is automatically tracked and users have access to a backtesting tool to view every projection made this season. In the backtester, users can sort among a number of categories/values, as well as filter by several functions (value, home/away, underdog/favorite, etc).
All of our model's projections are tracked against the spread when applicable (MLB and NHL is tracked by moneyline). Past results can be viewed day-by-day, or backtested with a variety of custom criteria.
This table shows each sport and season, along with specified value thresholds/cut-offs and their performance to date.
While most MLB models make projections based on how a team's been hitting as a whole, our offensive projections are based on each and every player included in that particular team's lineup for the day. This means our model waits for each lineup to be posted (usually within a few hours before first pitch), then analyzes it on a player-by-player basis. This method is to ensure the highest accuracy in predicting a team's performance.
The pitching/hitting evaluation component of the model uses advanced MLB metrics that go way over the casual baseball fan's head. Exit velocity, batted ball profiles, splits, plate discipline metrics, park factors, performance with or against certain pitches/velocities (combined with pitch usage rates), BABIP, FIP/xFIP, SIERA, and wRC+ are among the many metrics incorporated in the model. The challenge of MLB is analyzing advanced data to determine which players have been lucky and unlucky in relation to their actual performance. This is something that public/square bettors are very poor at figuring out, leaving a lot of value on the table in the betting market. Much like a player projection system, our model identifies a "true" performance level for players and projects games accordingly.
At the core of our NBA model is PIE, a metric first introduced by NBA.com in 2013. It's a stat that takes a stab at measuring overall efficiency on both the player and team level. From NBA.com:
A high PIE % is highly correlated to winning. In fact, a team's PIE rating and a team's winning percentage correlate at an R square of .908.
We also believe recent team play is a better predictor of a team's future performance than their play from several months ago, and as such, recency is more heavily weighted.
Our NBA model doesn't care about a team's record. It objectively measures a team's efficiency throughout each game, from start to finish, possession by possession - regardless of whether it ended as a win or loss. A team being on an 0-4 slide doesn't mean much if they played top teams competitively. Conversely, a team being on a 4 game win streak where they barely beat bottom-feeding teams doesn't paint the whole picture either. Objective measures of efficiency are what gives our model the ability to find value in over and underpriced lines in the market as a result of the general public's ignorance.
College basketball teams only play about 30 games with the same player group before the season is over and turnover begins, so interpreting the right metrics is important for any model. How we generally interpret basketball here at SMA is by putting more weight into metrics with less volatility than whether or not the ball falls into the hoop.. (or, for example, measures that'll predict FG% better than FG%). Shot proximity is important in this regard, so for example, the model doesn't like long two point jumpshots. They're the most inefficient shot in basketball, and as such, our model penalizes teams who take a lot of them, regardless of the FG% outcome. The college three-point line is about 2 feet closer than the NBA's (depending where you shoot along the arc), so the most efficient teams need to be taking threes or taking high-percentage, close-proximity shots. Team passing abilities are important along these lines of thinking too, and so is offensive rebounding ability.
Our CBB model is not a four-factor (http://www.basketball-reference.com/about/factors.html) model. There's just not enough of a sample size to develop a reliable regression equation for 1 team (with new components every year) in one 30-ish game season.
While every model acknowledges defense as important, in many of them it's being slightly undervalued. It's also another area where FG% allowed can be something a model can get too wrapped up in. Yes, effective FG% allowed over the course of a season is important to look at, but we'd rather look at turnover and defensive rebounding metrics.
Free throws are important in college basketball. Teams get into the bonus and double-bonus quick, and poor free throw shooting is an easy way to give away possession after possession.
In line with free throws, fouls are important too, but also volatile because you're talking about a different crew of striped shirts and whistles in every game. That being said, we do consider top/bottom fouls committed rate and fouls drawn rate to be a big factor in our model.
We put heavier weight into recent play. College teams "gelling" is a real concept with such high year-to-year turnover.
Our NHL model uses a number of advanced metrics to formulate its projections. This includes Corsi and Fenwick data, along with PDO metrics.
Corsi is a possession metric which is basically the plus/minus amount of shots directed at a net, including strength-blocked shots, shots high and wide, shots that hit, shots that get tipped, etc.
Fenwick is almost the exact same as Corsi, but it doesn't count blocked shots-the reason for this is that it is entirely possible that blocking shots is a skill, and not just a series of random events.
PDO metrics are best for measuring how “lucky” a team or player has been and can indicate if the team or player will likely regress back to mean as the sample size grows. It accounts for factors that are not incorporated in Corsi/Fenwick, such as shooting percentage.
We take metrics from these data sources and pour them into our NHL model, which produces game probabilities.
Our NFL model uses an advanced stat concept known as DVOA, founded by the Football Outsiders research/analysis group. DVOA measures a team's efficiency by comparing success on every single play to a league average based on situation and opponent.
DVOA is a method of evaluating teams, units, or players. It takes every single play during the NFL season and compares each one to a league-average baseline based on situation. DVOA measures not just yardage, but yardage towards a first down: Five yards on third-and-4 are worth more than five yards on first-and-10 and much more than five yards on third-and-12. Red zone plays are worth more than other plays. Performance is also adjusted for the quality of the opponent. DVOA is a percentage, so a team with a DVOA of 10.0% is 10 percent better than the average team, and a quarterback with a DVOA of -20.0% is 20 percent worse than the average quarterback. Because DVOA measures scoring, defenses are better when they are negative.
This method of advanced evaluation is then poured into our equations, allowing our model to produce specific game projections.
Our NCAAF model uses the public Fremeau Efficiency Index (FEI) at the core of its projections. FEI is a college football rating system based on opponent-adjusted drive efficiency. Kind of like college basketball, with so many teams in college football of varying talent levels, it's important to weigh each performance only as much as the opponent's team strength dictates.
Approximately 20,000 possessions are tracked each year in college football. FEI filters out first-half "clock-kills" and end-of-game "garbage time" drives and scores.
"Unadjusted game efficiency (GE) is a measure of net success on non-garbage possessions, and opponent adjustments are calculated with special emphasis placed on quality performances against good teams, win or lose. Offensive FEI (OFEI) is value generated per offensive non-garbage possession adjusted for the strength of opponent defenses faced. Defensive FEI (DFEI) is value generated per opponent offensive non-garbage possession adjusted for the strength of opponent offenses faced. Special Teams Efficiency (STE) is the average value generated per non-garbage possession by a team's non-offensive and non-defensive units."
This method of advanced evaluation of college football teams is then poured into our equations, allowing our model to produce specific game projections.
Much like our NBA model, our WNBA model is based on an advanced metric called PIE, a stat that takes a stab at measuring overall efficiency on both the player and team level. Our WNBA model objectively measures a team's efficiency throughout each game, from start to finish, possession by possession - then develops projections based on that efficiency. Objective measures of efficiency are what gives our model the ability to find value in over and underpriced lines in the market as a result of the general public's ignorance.
Our tennis model is based on an Elo concept that factors in not just who a given player has beaten (or lost to), but how they actually performed during the match/how much they won or lost by. It factors in service and return strength by a number of metrics scraped from source stat sites, as well as a player's court surface strength, incorporating each player's recent form. It generates win probabilities, then compares the probabilities to the implied probability from the current line. That's where value is derived.
Our CBB HeatCheck tool uses a number of pace-adjusted efficiency metrics, grabbing only from each team's last 4 games, to project the outcome of any match-up you want. Since the system is extrapolating from recent games only, you'll find some surprising results as the hottest teams have the biggest edge here. This will not always align with our standard CBB model, which considers a team's entire season.
2021 update: This tool has now been updated with expected 2021 rosters and projections!
Our NBA HeatCheck tool uses a number of pace-adjusted efficiency metrics, grabbing only from each team's last 4 games, to project the outcome of any match-up you want. Since the system is extrapolating from recent games only, you'll find some surprising results as the hottest teams have the biggest edge here. This will not always align with our standard NBA model, which considers a team's entire season.
Our team of predictive modeling engineers are sports fans, but also stats fanatics and analysts. We've been doing this for over 5 years, constantly updating our models so their forecasts have the best possible chance at edging the market.Contact Us