NCAA Tourney – Seed-line Performance

Since 1985, (before 2022 Tourney) here are how seed-lines have performed in the NCAA Tournament:

There have been 36 tournaments (1985-2019, 2021). With 4 of each seed-line during each tournament, there have been 144 total teams for each seed line over this time period. This gives us a healthy sample from which to make observations.

Let’s begin by tracking overall tournament wins per seed line.

SeedWins
13.46
22.42
31.90
41.56
51.14
61.10
70.93
80.73
90.61
100.64
110.66
120.54
130.26
140.17
150.08
160.01

The 1-seed averages 3.46 wins per tournament, the 2-seed 2.42 and so on.

Round 64

The table below is fairly self-explanatory. FavTP is the average total points for the favorite (better seed), and the UdTP is the underdog (worse seed) average total points for each seed matchup. Point differential and winning percentage (for better seed) is then shown.

One thing to note is that only the top 3 seed lines are expected to win their games by double-digits. The 4-seed wins by 10+ less than half the time. Another notable factor is that the 5/12, 6/11, and 7/10 games are fairly close to one another in terms of point differential and favorite win percentage. The 8/9 is almost a true coin flip, but the 9 seeds have actually had slightly more success to this point.

There is a clear drop-off from the 1/16 to the 2/15 games. It is actually the starkest drop-off in terms of winning success. 1-seeds are 143-1 in Round 64 NCAA Tourney games; it is almost a bye game to the next round for the top seeded teams. To illustrate the relative performance by seed line, observe the following table. This table compares a favorite seed (seeds 1-8) against the next seed line down in terms of winning success. So we compare 1 v 2, 2 v 3, etc. and see how much more successful the better seed-line is than the next line down.

This table shows that a 1-seed is 10.1 times more likely to win its R64 matchup than a 2-seed. To be certain, 2-seeds are relatively safe to advance this round. But 1-seeds are just this much likelier to advance. As we go down the chart, we see that difference between seed lines shrinks. 5-seeds are barely better than 6-seeds when it comes to getting out of the First Round. If your team is projected to be near one of these seed lines or the other, getting that extra bump up a seed line can matter.

Round 32

When we get to this round, there become diverging possibilities with regards to which seeds play which seeds. For instance, a 1-seed can play either an 8 or a 9. A 4-seed which wins will play a 5 or a 12. This means that additional context is needed to understand how the bracket has historically played out.

Let’s start with the 1-seeds. Of the 143 top seeds which made the R32, 123 have gone on to win in this round (86%). Of the 20 which lost, interestingly 14 of these have lost to 8-seeds and only 6 have lost to 9-seeds. With the only 16-seed to reach this round falling to a 9-seed, this means that the 1/16/8/9 pod has had this many advance out of the R32 (to the S16):

1:            123 (85%)

16:          0 (0%)

8:            14 (10%)

9:            7 (5%)

Continuing on, here are how the 2/15/7/10 pods have gone:

2:            91 (63%)

15:          2 (1%)

7:            28 (19%)

10:          23 (16%)

Here are how the 3/14/6/11 pods have gone:

3:            75 (52%)

14:          2 (1%)

6:            43 (30%)

11:          24 (17%)

Here are how the 4/13/5/12 pods have gone:

4:            67 (47%)

13:          6 (4%)

5:            49 (34%)

12:          22 (15%)

The first thing that stands out is how good the 1-seeds are at getting out of the first weekend. At 85%, this is far more than the 63% of 2-seeds that make the S16 or beyond. Next, notice this effect on the 8 and 9-seeds. 10, 11, and even 12-seeds are more likely to make the S16 than the 8 or 9-seed because these worse seed lines avoid the 1-seed in the region. In fact, a 10, 11, or 12 is more likely to make the S16 than the 8 and the 9 combined.

The worse seed to make the S16 is a 15-seed, and this has been done twice. Two 14-seeds have also made the S16. We will focus on that round next.

Sweet 16

With another round in the books, the bracket possibilities can become even more complex. By this point, usually the entire country has seen its perfect bracket busted. If the bracket is chalk in a region, this is where the 1-seed faces the 4-seed and the 2-seed faces the 3-seed. Note that a 1-seed has faced a 4-seed 55 times (38.2%), and a 2-seed has faced a 3-seed 45 times in this round (31.3%). A Sweet 16 which has all four top seeds still alive should occur about 11.9% of the time. Since there are four regions (four occurrences), we expect a Sweet 16 with seeds 1,2,3,4 in any one of the same region to only happen in 2/5 tournaments. This just shows how crazy the bracket can get given the possible permutations and upset possibilities.

When we look at success, we see that 1-seeds have won 100/123 games in this round (81%). After accounting for those 1-seeds that have already lost prior to this round, we discover that 69% of 1-seeds make it through the S16. Below is the table showing how many of each seed-line makes it through, from the S16, to the E8:

1:            100 (69%)

2:            65 (45%)

3:            37 (26%)

4:            21 (15%)

5:            9 (6%)

6:            15 (10%)

7:            10 (7%)

8:            8 (6%)

9:            4 (3%)

10:          8 (6%)

11:          9 (6%)

12:          2 (1%)

No seed worse than a 12 has made it to the E8. We see the 1-seed power once again in how the results are skewed, as 5-seed is now less likely to advance than either the 6 or 7-seeds (and has the same number of E8 appearances as the 11-seed). By this point, the only seed expected to make it past the S16 more often than not is that top line. Even the 2-seed is batting less than 50%.

Elite 8

The Elite 8 round has with it additional pressure, as teams can taste a Final 4 berth. Interestingly, in this round the 1-seed does not have the best winning percentage. In fact, the 4,5, and 8-lines are all better than the 1-seeds. 5-seeds are 7-2 in this round, showing that if they can make it through, they do quite well in the later rounds.

Nevertheless, the 1-seeds get the most teams through this round due to the fact they get so many teams to this round. Of the 100 1-seeds to make the Elite 8, 59 have made the Final 4 (59%). Below are the teams to make it past the E8 and into the F4 by seed-line:

1:            59 (41%)

2:            30 (21%)

3:            17 (12%)

4:            13 (9%)

5:            7 (5%)

6:            3 (2%)

7:            3 (2%)

8:            5 (3%)

9:            1 (1%)

10:          1 (1%)

11:          5 (3%)

This handy graph helps you visualize the above:

The 1-seed is nearly twice as likely to make the Final 4 as the 2-seed. There seems to be a steady decline in F4 frequency by seed-line, until you reach the 8-seed. It drops back down, until, surprisingly, the 11-seed pops back up with 5 teams making a Final 4. A curious case of how the bracket has unfolded, to be sure. 59% of the Final 4 features teams in the top half of the bracket (seeds 1,4,5,8,9,12,13,16); 41% of the Final 4 features teams in the bottom half of the bracket (seeds 2,3,6,7,10,11,14,15). This is, once again, due to the skew of the 1-seed.

Final 4

The Final 4 round, or National Semifinals, is the first round that can feature teams of the same seed-line facing off against one another (ignoring the First Four/play-in games). This has happened in 18 out of the 72 times (25%). In 13 instances, it has been two 1-seeds. In 3 instances, it has been a matchup of 2-seeds. Once it has been between 4-seeds, and once more it has been between 5-seeds. No 3-seeds have ever faced off against each other in this round.

Using the same idea as before, we track the teams which won in this round and made it to the next. Of the 72 teams which won a Final 4 game to make it to the National Championship game, this is how the result are broken down by seed-line:

1:            36 (50%)

2:            13 (18%)

3:            11 (15%)

4:            3 (4%)

5:            3 (4%)

6:            2 (3%)

7:            1 (1%)

8:            3 (4%)

A point of clarity may be in order. These percentages add up to 100%, which is to say that exactly half of all teams to make the national championship round have been 1-seeds. But this does NOT mean that a 1-seed has a 50% chance of making the National Championship game. To get those odds, you’d have to divide each percentage above by 2. So, a 1-seed has a 25% chance of making the NC game, a 2-seed a 9% chance, etc. given the historical precedent.

The 1-seed dominates this round again, showing that in a battle of attrition (which is the NCAA Tournament’s loser-go-home system), the best teams tend to last the longest. The final NCAA tournament “round” (the National Championship game) will be the final round examined.

National Championship Game

Even though 1-seeds occasionally face each other in this round, (7 times out of 36), the 1-seed has a winning percentage of 64%, and captures 64% of all NCAA Tournaments. This means that a 1-seed is more likely to win the NC game than the rest of the seed-lines combined. When a 1-seed has faced a team of a different seed in the NC game since 1985, it is 15-5 (.750). For whatever reason, the best seed-line seems to outperform in this round. In fact, 4 of the losses that the 1-seed had against non-1-seeds were before 1998…since that year only 2-seed Villanova in 2016 has knocked off a 1-seed in the NCAA title game.

Below are the proportion of national champions by seed-line. Once again, these aren’t the odds of a team on that seed line winning the NC (you’d have to divide by 4 to get the odds of any one team winning), but rather how many national champions have that associated seed.

1:            23 (64%)

2:            5 (14%)

3:            4 (11%)

4:            1 (3%)

5:            0 (0%)

6:            1 (3%)

7:            1 (3%)

8:            1 (3%)

Once again, this is only data from 1985 on. Before the tournament expanded to 64 teams in 1985, there were lower-seeded teams like 1983’s N.C. State (6-seed) who won. But since ’85 the title has been mostly claimed by 1-seeds with some 2-seeds.

If anything, this trend is moving against underdogs. The 80’s saw multiple Cinderella runs, including 1985 Villanova (8-seed) and 1988 Kansas (6-seed). Since 2007, the only team that has won a National Championship outside a 1 or 2-seed is UConn (2011 as a 3-seed, 2014 as a 7-seed). There have been upsets and even Final 4 runs by double-digits seeds, but in the end it tends to be a 1-seed that wins it all.

538 Data

Since 2014, 538 has released March Madness models which project each team’s chances after the bracket is released and throughout the tournament. Using the pre-tournament data (but following the play-in First Four games), we will use these models to compare against the actual results. The reason to do this is to see if the historic results are close to what is predicted, or if the models think the seed-line success to follow a different distribution.

Starting with expected wins by seed, here is what 538 has projected in the 7 tournaments from 2014 – 2021 (with no tourney in 2020):

1:            3.12

2:            2.52

3:            1.83

4:            1.70

5:            1.29

6:            1.08

7:            0.86

8:            0.69

9:            0.64

10:          0.60

11:          0.59

12:          0.38

13:          0.21

14:          0.16

15:          0.06

16:          0.02

With more data, these numbers should become an even more accurate “predictor” of what seed-lines “should” win. Let’s now compare what 538 is saying seed-lines “should” win with what the wins the seed-lines have actually produced:

Seed      Actual Wins        Expected Wins  Difference

1:            3.46                        3.12                        +0.34

2:            2.42                        2.51                        -0.09

3:            1.90                        1.83                        -0.07

4:            1.56                        1.70                        -0.14

5:            1.14                        1.29                        -0.15

6:            1.10                        1.08                        +0.02

7:            0.93                        0.86                        +0.07

8:            0.73                        0.69                        +0.04

9:            0.61                        0.64                        -0.03

10:          0.64                        0.60                        +0.04

11:          0.66                        0.59                        +0.07

12:          0.54                        0.38                        +0.16

13:          0.26                        0.21                        +0.05

14:          0.17                        0.16                        +0.01

15:          0.08                        0.06                        +0.02

16:          0.01                        0.02                        -0.01

The 1-seed has the biggest differential between “expected” wins and actual wins. 538 models have 1-seeds winning 0.34 fewer games per team per tournament, which isn’t a small number. On the flip side, 5-seeds are expected to win more often at 0.15 wins per team per tournament. 4-seeds are similar to 5-seeds. Clearly the 81% winning for 1-seeds in that Sweet 16 round is showing up in these differences.

We’ll next compare the Round of 64 games, the only games with set seed matchups (1 v 16, 2 v 15, etc.).

Matchup              ActWin%              ExpWin%             Diff

1 v 16                    99.3%                    98.0%                    +1.3%

2 v 15                    93.8%                    95.3%                    -1.5%

3 v 14                    84.7%                    87.8%                    -3.1%

4 v 13                    84.1%                    78.5%                    +5.6%

5 v 12                    64.6%                    73.0%                    -8.4%

6 v 11                    62.5%                    61.8%                    +0.7%

7 v 10                    60.4%                    56.7%                    +3.7%

8 v 9                       49.3%                    51.2%                    -1.9%

As far as favorites go; 1-seeds, 4-seeds, 6-seeds, and 7-seeds have outperformed in the R64. For underdog seeds; 9-seeds, 12-seeds, 14-seeds, and 15-seeds have been better than expected. The biggest thing that jumps out is the 5/12 matchup, a trend many filling out their NCAA brackets have picked up on. The % difference can be misleading. We’ll now look at the expected number of wins (out of 144) for the better seed compared to what has actually occurred:

Better Seed in R64           Act Wins              Exp Wins              Diff

1                                              143                         141.2                     +1.8

2                                              135                         137.3                     -2.3

3                                              122                         126.3                     -4.3

4                                              113                         121.1                     -8.1

5                                              92                           105.1                     -13.1

6                                              90                           89.0                        +1.0

7                                              87                           81.6                        +5.4

8                                              71                           73.8                        -2.8

In terms of numbers, the 12-seed over the 5-seed is the biggest historic surprise. However, there is one better way to judge the performance of seeds against expectation.

Seed in R64         Multiple

1                              2.887

2                              0.736

3                              0.775

4                              0.688

5                              0.655

6                              1.030

7                              1.168

8                              0.926

9                              1.080

10                           0.856

11                           0.971

12                           1.526

13                           1.453

14                           1.289

15                           1.358

16                           0.346

What this shows is that the 1-seed has actually performed the best in the R64 compared to expectation. To best explain this, 1-seeds are expected to win 49.5 times more often than they lose in the Round of 64. In reality they’ve won 143 times more often than they’ve lost (143-1). This generates a 2.887 multiple (143/49.5). Moving down the line, 2-seeds are expected to win 20.4 times more often than they lose. In reality they’ve won 15 times more often, for a multiple of 0.736 (15/20.4).

Best seed-lines in the R64 by expectation:

1, 12, 13, 15, 14, 7, 9, 6, 11, 8, 10, 3, 2, 5, 16

Instead of comparing each round, we’ll move on to the Final 4 and see how seed-lines have done against expectation. Below shows the seed, actual frequency of the F4, expected frequency, and difference.

Seed      ActF4%                 ExpF4%                Diff

1              41%                        39%                        +2%

2              21%                        22%                        -1%

3              12%                        10%                        +2%

4              9%                          10%                        -1%

5              5%                          6%                          -1%

6              2%                          4%                          -2%

7              2%                          3%                          -1%

8              3%                          2%                          +1%

9              1%                          1%                          0%

10           1%                          1%                          0%

11           3%                          1%                          +2%

12           0%                          0%                          0%

There isn’t a ton to say here. The numbers are fairly close to what is expected, with the 11-seed (unsurprisingly) overperforming.

Last, we’ll look at National Championships. This is similar to the F4 table above, but includes total NC’s by seed (since 1985) alongside percentage of national champions.

Seed      ActNC                   ExpNC                   Diff

1              23 (64%)              18.6 (52%)           +4.4

2              5 (14%)                 7.8 (22%)             -2.8

3              4 (12%)                 2.7 (7%)               +1.3

4              1 (3%)                   2.9 (8%)               -1.9

5              0 (0%)                   1.3 (4%)               -1.0

6              1 (3%)                   1.0 (3%)               0.0

7              1 (3%)                   0.5 (2%)               +0.5

8              1 (3%)                   0.4 (1%)               +0.6

9              0 (0%)                   0.3 (1%)               -0.3

10           0 (0%)                   0.2 (1%)               -0.2

11           0 (0%)                   0.3 (1%)               -0.3

12           0 (0%)                   0.0 (0%)               0.0

First, 1-seeds have clearly overachieved according to this table. They’re “expected” to win an NC about half the time, but in reality account for nearly 2/3 of all titles in the 64+ team era. Next, 4-seeds are “expected” to win more often than 3-seeds. This reveals an anomaly in the model data. Apparently since 2014, 4-seeds have graded out as slightly stronger than 3-seeds from an efficiency perspective. Over a longer time horizon, we’d expect this to revert to normal. We see that seeds below have a slight chance per the model, until you reach the 12-seed where it becomes extremely rare.

We can also look at how likely it is for a seed-line to have won over a certain time period. In other words, given the 36 tournaments since 1985, how likely is it that an 8 seed has won at least one National Championship?

It isn’t too surprising that it is very likely that at least 1-seed has won a NC since 1985. With 36 years of play, it is guaranteed that a top seed will be able to cut down the nets. This remains true for all of the top four seeds. It is somewhat of a surprise that a 5-seed hasn’t won a NC yet, since this should happen 72.9% of the time over a 36-year period. But the 7 and 8-lines make up for this.

We’ll close this out by showing how many tournaments are expected for a seed-line to win a NC. For a 1-seed, you’d need 1.93 tournaments, which reflects that a 1-seed “should” win a NC about every other year. Obviously, at some points a 1-seed will win multiple years in a row (currently at 4 in a row), and at other points it will be a few years when a 1-seed doesn’t win (they’ve been shut out in consecutive years multiple times, including 85/86, 88/89, 97/98, 03/04). 

Once again, the “expected” data needs more years to smooth out. A 4-seed shouldn’t be more likely to win than a 3-seed, the same goes for a 14-seed over a 13-seed. If you combined seeds 10-16, we run into a calculation of a double-digit seed winning the National Championship once every 67 years. This may seem to be too generous to double-digit seeds, but remember that 4 11-seeds and 1 10-seed have made a Final 4. Although none of these have won a national semifinal game, UCLA came very close last season in 2021. Had they knocked off Gonzaga, they’d have been one win away from doing just this (and would have had about a 20% chance of winning). With more time, the unthinkable might happen. But it’d almost certainly be a 10, 11, or under-seeded 12 which won.

Kansas 74, Texas Tech 65

Remy Martin had his first team-MVP of the season, sparking KU to a Big 12 Tournament Championship

Game Summary:

Kansas took home the Big 12 Tournament with three great team outings. On Saturday, it was Remy Martin off the bench (12 points, 3 assists, 4 rebounds) who led the team in value. For the tournament, Ochai Agbaji was the best Jayhawk (+6.16 per game average). Mitch Lightfoot was also very good over the course of the three games (+4.64 per game).

Next up is the NCAA Tournament.

Kansas 75, TCU 62

Ochai’s emphatic dunk was part of a team-high 11th MVP game of the season.

Game Summary:

KU took the rubber match against TCU thanks to outstanding efforts from Ochai Agbaji and Mitch Lightfoot. Remy Martin had his best game in a few months, finishing with 10 points and 3 assists. Joe Yesufu got back on the positive side of the ledger with 3 points and 2 assists (with no misses or turnovers). Christian Braun struggled to finish but had a solid defensive outing to add net value.

KU will play for the Big 12 championship on Saturday.

Beware of the Phog

In the Bill Self era, KU famously has as many home losses as conference championships. No team has won more than twice against Self at home, and many fans can recall each loss Self has had in the Fieldhouse from memory.

Just how good is Kansas at home? Since the 2010 season, the Hawks have complied a 197-10 record at Allen Fieldhouse. This is obviously amazing when compared to other programs, but how much of this record is due to the talent and coaching on Kansas, not the building? After all, Kansas is 77-36 (.681) in conference road games since the 2010 season. So perhaps the mystique of Allen Fieldhouse is merely just Kansas’s sustained talent alongside a home court advantage common across college basketball. If you shipped the talent Kansas has had over the years to Bloomington or Storrs or Baton Rouge, would you see similar home court records at Indiana, Connecticut, or LSU? Or if Allen Fieldhouse really is special in its ability to deliver wins, how can this be quantified?

The answer comes from predictive analytics. We’ll use Ken Pomeroy’s predictions, since they are the most famous in college basketball and tend to be the most accurate.

Pomeroy’s website contains a treasure trove of statistical information, but more than this, his system also attempts to most closely predict the final margins and winners of college basketball games. His background in meteorology has helped him forecast college basketball results with accuracy. The point is that his predictions can be used as a serious, accurate, objective standard.

One feature Pomeroy includes is home-court advantage. On his website, he notes that his is calculated by taking the last 60 home and road conference games, and finding the difference. KU’s home-court advantage is well-above average, but not close to the top (37h) at 3.8 points per game. If we were to conclude from this rating alone, we’d have to place Allen Fieldhouse not even in the top half of the Big 12, as Kansas St., Oklahoma, TCU, Iowa St., Texas Tech, and West Virginia all have better home-court advantage scores.

But I don’t see this stat as being indicative of home court advantage alone. In fact, it is just as likely to be a measure of poor road performance. The poorer a team does on the road, the better its home performances look by comparison. As mentioned above, KU has won over 2/3 of its conference road games since 2010. We don’t want to unjustly count KU’s road performances against it when assessing Allen Fieldhouse as a home court advantage.

Not Points, But Wins

Point differential and wins are two separate things. The two are interrelated, but the statement we intuitively know is true and want to show mathematically is not that Allen Fieldhouse produces large point differentials for KU (although it does do that often), but instead that it produces wins for KU.

Up to this point, we’ve established that Pomeroy makes accurate and objective predictions. Pomeroy’s system is a computer algorithm; it’s based on trends and correlations from large data sets. There are no biases; the computer doesn’t care which team name is which to next point total number. Pomeroy is using game data from all 350+ teams to make his predictions, making the model applicable across all of D-1 basketball. He also tests his predictions to ensure accuracy.

For instance, let’s say KenPom has a game where Team A is favored to win over Team B and is given an 80% chance of winning. Team A is expected to win, but if Team B won it would be a mild upset since this result would be expected to occur 1/5 of the time. Over the course of a season, or multiple seasons, we can test all games which featured one team with an estimated winning percentage around 80%. If the actual results of this collection of games turn out to be wins for the favorites about 80% of the time, then we know the prediction system is fairly well-tuned. If the results are off by some factor (perhaps these favorites won 70% or 90%), tweaks need to be made somewhere. This ability to fine-tune the model leads it to be more accurate, which makes it trustworthy. And this is in fact what Pomeroy does.

This is just the system we need to test Allen Fieldhouse. Note that in Pomeroy’s system, KU’s inherent skill level is accounted for. His predictions consider the talent of the players and level of coaching. Also, whatever amount of point value inherent to Allen Fieldhouse is also factored in. What we should be left with is a purely unbiased and accurate gauge of how much Allen Fieldhouse helps KU in terms of wins.

To test this, we will take each Kansas home game and the predicted win percentage at the time, and then compare to the results of what actually happened. Pomeroy’s site began offering probability predictions for the 2010 season, so we will begin here and go through 2022. For instance, KU’s first home game of the 2010 season was against Hofstra, in which the Jayhawks had a 98.7% chance of winning. KU did end up winning, so, it earned 1 – 0.987 = +0.013 Wins above Expectation (WAE).

As we continue this exercise for each game played over that period, we should expect the WAE to be around 0.000. Remember that the skill level of Kansas and home court advantage has already been built into the predictions. Remember also that Pomeroy tests his estimated win percentages, so we should be getting accurate prediction ratings for a team with the skill level of Kansas and a generic home court advantage. Anything substantially more or less than 0.000 needs explanation.

For KU, they have a WAE at Allen Fieldhouse since 2010 of, drum roll, +15.50. With a population of 13 seasons this is at a rate of over 1 more expected win per season. It’s difficult to stress how ridiculous this level of winning is. Instead of being 197-10, a team as good as KU has been against the same quality of opponents KU faced on the parameters of a normal home court would have an expected home record of 181-26. This is the difference between a 95.2% winning percentage and 87.7%, not a slight difference. Using Odds Ratio, Allen Fieldhouse has produced 2.77 times better results than expected.

Looking at each year individually, we see that only in 2018 (14-3 record) did KU have a negative WAE. Every other season was above expectation. 2018 was also the only season that KU lost more than 1 home game over this span.

We can also test how likely it is for KU to have an undefeated home record given its opponents. Since 2010, KU has had undefeated home seasons in the following: 2010, 2012, 2015, 2016, 2019. 5 seasons out of 12 isn’t bad; but how many would we expect KU to have?

Using similar methods, we can calculate the independent probabilities of an undefeated season for each season, and then add the results to see how many we would expect. For instance, for 2010 we’d predict that Kansas has a 38.5% chance of going undefeated. Since it did go undefeated at home that season, the 2010 team earned 1 – 0.385 = +0.615 Undefeated Seasons above Expectation (USAE). After calculating all years 2010-2022, we come up with an expected 1.749 undefeated seasons, or a +3.251 USAE. Note that even 2 undefeated home seasons would be above expectation, since over the course of 15, 16, or 17 games the math says that you should trip up at least once. But KU has managed to avoid defeat at home in five of these seasons.

Testing the Results

The first way to test these results is to run a simulation to see how frequently KU finishes with a WAE of +15.50. A quick simulator on Excel was built, and 10,000 sims were run. Here are the results, in terms of wins (out of 207 games played):

As you can see, assuming a random distribution of performances in terms of win/loss, the maximum number of wins KU achieved was 196 under 10,000 simulations. This is actually fewer than the total of home games KU actually won in this span. Looking at the 197-win mark, we can calculate how statistically rare such a feat is:

The z-score counts standard deviations, so 197 wins is 3.56 standard deviations above average. This works out to a 99.98 percentile. Out of 10,000 simulations, not once did KU reach the 197 wins at home. Given the distribution, we’d expect them to reach this win total once out of 5,453 simulations, which is a bit more common than 0 out of 10,000 but still a rare instance. KU’s success at Allen Fieldhouse has been off-the-charts.

Further Study

If anything, these numbers are undersold. Remember KU went undefeated in 2009 and 2008. If we stretched it back to the 2004 season, the first year of the Self-era, Kansas would be at 255 wins to 16 defeats, a slightly lower winning percentage but an overall larger population of games. The z-score might move even further right.

(Although we don’t have KenPom pregame win probabilities for these seasons, they can be reasonably estimated given opponent quality. It would take more work, and they wouldn’t be as precise as what a predictive model would have estimated. We will keep the (real) results for now, with the option of adding seasons 2004-2009 as an amendment so that the entire Self-era is captured).

A Free Lunch, Taking KU at Allen Fieldhouse on the Money Line

Outperforming an accurate and fine-tuned prediction model is noteworthy enough, but certainly Vegas would be tough to beat. After all, after years and years of KU winning such a high percentage of its home games, shouldn’t the betting market reflect the magic of the Phog?

It turns out the answer has been no. We won’t bury the lead on this section. You were guaranteed to win money if you bet a consistent amount money on KU to win each of its home games over any part of the past 15 seasons. Read that again. You could have started this strategy the first game of the 2008 season, or even for the Kentucky game this season that KU ended up losing. Bet a consistent amount on the Money line for KU to win outright and you will end up in the black.

KU has been 234-10 in AFH since the 2008 season (so games beginning in November 2007). Let’s set a consistent betting amount of $10. So, regardless of opponent or history, the strategy is to bet $10 on Kansas to WIN straight up on a Money Line bet.

Not all KU home games have had a Money Line, at least according to the archives. The first game in this span I could find that had a Money Line was KU’s November 2007 game against Northern Arizona, at -10000. Betting $10 would have netted you $0.10 for the KU win that game. Fast-forwarding to today, if you had kept at this strategy, you’d have $183.07, an increase 18x your initial investment.

To compare the increase of the S&P 500 over that period, if you started with $10 and let it sit in the market, you’d have about $30 today. Betting on KU to win at Allen Fieldhouse has proven to be a better long-term investment than the stock market. Anyone with a background in finance or betting markets knows how absurd this is.

Another way to look at this is to see how much the market would have to move on these games to make it efficient. In order for a better to have exactly $10 after betting $10 on each of these games, the Money Lines would have to collectively move 2.87 times what they were (so if KU was -10000, it’d have to be -28000; if KU was -275 it’d have to be -789, etc.).

Other Questions for Future Analysis

Switching gears some, it would be good to see how well other home courts do at converting wins. Clearly some teams will see better win/loss results than expected at home than other teams, this is the nature of statistics. But how well do other bluebloods, such as Kentucky and Duke perform? What about teams like Purdue; exactly how many wins has Mackey Arena been worth? Or is Hilton Magic real? Remember, since a team’s skill has already been factored into the pregame predictions, we should get apples to apples comparison regarding home arenas only, since team skill differential has been accounted for. The problem is that this data must be scraped, so it makes it time-consuming to try and build up any dataset. Maybe it would be prudent to start with a few big schools (Duke) and go from there? But there’s no way to avoid missing whatever home court has been the biggest advantage in terms of win/loss without running through every team, since that’s the very thing we’re looking for!

Conclusion

Allen Fieldhouse was worth over 15 wins over the course of the 2010-2022 seasons, propelling KU to an absurd 197-10 during this time. The chances this would occur by pure luck alone are at best 1/5000, indicating that something has happened in that building (crowd support for KU players lifting them up, opponents feeling pressure, refs being affected by the crowd, etc.) to get the team wins it otherwise wouldn’t have gotten. Whatever the reason, you can conclude this. Until proven otherwise, Allen Fieldhouse is the biggest homecourt advantage in college basketball and probably in all of sports. A 3.56 Z-score and 99.98 percentile is very unlikely to have been matched by any other arena during the past 13 seasons.

Kansas 70 Texas 63 (OT)

Christian Braun about to finish on an and-one. He earned his 8th team-MVP thanks to excellent defense on Saturday.

Game Summary:

Kansas won a defensive slugfest on Senior Day, and it was Christian Braun who played the best defense of anyone. He only gave up 3 points, while filling up the box score with a steal, a block, and multiple rebounds. The best offensive players for Kansas were David McCormack (1.34 PPP_af) and Jalen Wilson (1.80 PPP_af). They each got big buckets and made clutch free throws when points were limited.

Seniors Jalen Coleman-Lands and Mitch Lightfoot each had positive performances as well. Although there were only 4 points between the two of them, they each defended well. K.J. Adams had an offensive rebound and 1/2 FT to add nearly a point of value after adjustments. Neither Zach Clemence nor Chris Teahan recorded a stat in their few minutes of play.

Dejuan Harris had a neutral game characterized by excellent defensive plays (blocks, steals), some great passing (had 5 of KU’s 10 charted assists with 0 turnovers); on the other hand he only scored 3 points and did give up some easy baskets due to his slight frame. Remy Martin had good activity on offense to start, but lost his man a few times and gave up Texas’ first 5 points. Joe Yesufu didn’t do much in his few minutes of play.

Ochai Agbaji is officially slumping, as he recorded his third consecutive negative-value game. He seems to be pressing, forcing bad shots on offense while reverting to forgetful moments on D. He’s now down to 41.1% from 3 on the year. On the plus side, he is rebounding better than he did to start the year. This shows he is playing hard. Once the shots start to fall again, he will be someone who can carry this team far in the Tournament.

The TEAM score was helped by KU getting to overtime. But its still indicative of the Agbaji slump. Thankfully; Braun, Wilson, and McCormack all had solid outings to help get KU a win for the 39th consecutive Senior Day/Night game.

Breaking Down Offense Further

There are multiple ways a player can add value to his team in a basketball game. Attempting to capture these different ways quantitatively can be difficult. If you look at an advanced season box score, you’ll notice that most of the stats are listed in rates instead of totals or per game.

College Basketball Reference, 2022 Kansas Jayhawks through 30 games

So let’s take two players and compare them, Ochai Agbaji and Christian Braun. They have similar minutes played, PER, and TS%. As we continue to move left to right, we see that Och’s 3-pt. attempt rate is much higher, although CB gets to the line more (FT rate). Agbaji is credited with more points produced, CB is a better rebounder on both ends, a better assister, and also gets a higher proportion of steals and blocks. Ochai has a lower turnover percentage, and a higher usage.

These numbers are all wonderful to have, and do tell us quite a bit. They are also a mess to organize and make sense of. For instance, PER (Player Efficiency Rating) rates how efficient players are, with higher been better. It takes into account all offensive stats.

Notice we see that David McCormack is leading in this category. This may be surprising, but remember he shoots FT’s quite well and also grabs a ton of offensive rebounds. His turnover rate is also fairly low. Still, we see he is shooting worse than players like Agbaji and Braun, and has a far lower assist rate than the guards.

What if we wanted to compare D-Mac’s offensive rebounding rate (which is very high) to a guard’s assist rate? In other words, is he adding more or less value through his rebounds than Dejuan Harris is through his assist? You can’t look at the raw numbers, because they are measuring two different skills. But certainly there is a way to see this.

Represented below is the attempt to do just that. Breaking down offense, we’ve organized all offensive plays into one of three categories: Finishing, Handling, and Boarding.

  • Finishing – This measures how well and frequently a player scores. It takes into account his shooting percentage and volume, as well as if the play was assisted or not. It includes measurements of both production and efficiency.
  • Handling – This measures how well a player takes care of the ball and distributes it. It uses assists and turnovers to drive the result.
  • Boarding – This looks primarily at offensive rebounding, the main driver in a team getting second-chance opportunities. It also includes the occasional “save” which rescues a team’s offensive possession following a teammate’s poor pass that should have resulted in a turnover.

This chart is represented in Points Above Bubble, the value currency most frequently used on this website. This chart is showing PAB per 100 possessions, so it ignores any value related to endurance/stamina/etc. and purely rates each player on the same possession basis. There are a few interesting results:

  • The best offensive skill set for KU this season has been Agbaji’s ability to score (Finishing). He is shooting 42.2% from 3, and also has a 61.3% TS% (using Sports Reference’s calculations). In all, he is adding 7.29 Points above bubble over the course of 100 possessions (PAB/100) due to his ability to score.
  • The second-best offensive skill set for KU this season is David McCormack’s offensive rebounding. He is adding 5.17 PAB/100 just from his ability to get second and third-chance opportunities. And while some may wish to discount his rebounding ability by claiming it is due to poor shooting (“he just gets his own misses”), this doesn’t look to be too true as he has a Finishing score of +1.59. When D-Mac is out there, he is the team’s second-best offensive weapon.
  • The best at “Handling,” which is basically maximizing assists and minimizing turnovers, is Dejuan Harris. At +3.06, is far better at the true point guard skills than other guards. But notice even despite his strong Handling score, his lack of Finishing and Boarding makes his offensive value below bubble-player level on offense.
  • These numbers are not position-adjusted. So we expect to see the guards with positive Handling numbers but negative Boarding numbers, and the posts to have negative Handling numbers but positive Boarding numbers. But take a look at K.J. Adams. A solid offensive rebounder, K.J. has also done a decent job handling the ball for a 4/5 man. It is his scoring (Finishing) which has made his score so low.

In summary, different players will bring different things to the table. For KU’s offense in 2022, they are getting great scoring marks from Agbaji, Braun, and even Coleman-Lands. Harris is the best ball-handler, although the other point guards add some value here. And inside, David McCormack and K.J. Adams are beasts at winning additional opportunities. Jalen Wilson is positive in all features, being balanced at finishing, handling, and boarding.

Kansas 72 TCU 68

Jalen Wilson played fine defense to earn his 5th team-MVP game of the season

Game Summary:

KU struggled to put TCU away, but ultimately prevailed thanks to a late defensive stop (Dejuan Harris block). Jalen Wilson was the team’s best player, only allowing 7 points on defense while grabbing 9 defensive rebounds and forcing 3 TCU turnovers (1 live-ball steal, 2 dead-ball). This defensive effort overshadowed a quiet offensive night, as he only took 12.6% of his team’s shots while in the game. He did produce over 10 points of offense on an efficient 1.94 points per possession used.

Dejuan Harris had his best game in some time, scoring 11 with 4 assists on 1.30 points per possession used. He also played solid defense, giving up 9 points but also coming away with a key block on TCU’s Miles with 4 seconds to play. Had TCU converted it would have been a 1 point game, but the block sealed KU’s win. Christian Braun was efficient on offense (1.95 points per possession) to earn a quiet, but positive, value score. Mitch Lightfoot and Zach Clemence were both basically neutral players.

On the negative side of the ledger, Ochai Agbaji turned a solid first-half into another high-volume shot-output game which harmed his team’s chances. The 22 points were good, but he had 11 misses and 3 turnovers to get those points. His 0.84 points per possession used was well below the team’s 1.07 for the game. Defensively, he allowed 13 points, the most of any Jayhawk last night.

David McCormack didn’t shoot well from the field, but was solid again from the FT line. He did give up some baskets inside, which cost him. Joseph Yesufu had a poor shooting outing, as did Remy Martin in limited playing time. Jalen Coleman-Lands had a few nice hustle rebounds, but gave up one basket while missing his only shot attempt. K.J. Adams’ only impact was fouling a 3-point shooter to allow TCU to cut a 6-point deficit to 3.

The TEAM score of +1.17 was KU’s third-consecutive game under +3. Based on opponent, location, and pace; KU’s offense did slightly better than its defense did; but both sides of the ball showed a mediocre performance for a team of KU’s caliber.

Why Charting Defense Is Important

Since beginning to chart KU games during the 2019 season, it’s become clear that without seeing the full picture that the defensive stats (such as points allowed) provide, it becomes difficult to truly see the impact of particular players.

There are a few axioms for charting basketball stats that this website follows, including:

  • Offense and defense are equally valuable. Teams will have an equal number of offensive and defensive possessions.
  • Offensive and defensive rebounds are of equal value, because getting a defensive rebound is merely preventing your opponent from grabbing an offensive rebound themselves.
  • An offensive rebound neutralizes a missed shot. If someone rebounds his own miss, and puts it back in, it neither adds nor takes away value than if he’d made the initial shot.
  • Similarly a turnover and forced turnover are equally inverse. If a player has 3 turnovers on offense but forces 3 turnovers on defense, he’s had a neutral game in this regard.
  • Similarly all misses are equal. Whether or not an offensive rebound occurs is up to the hustle of the players on the court (including the shooter).
  • There are three aspects to scoring: setting up the score, positioning the score, and finishing the score. To relate this to an assisted basket, the assist man sets up the basket with a nice pass, the man who scores must get himself ready to catch the pass, and in turn that same player must have the ability to score by making the shot. With an unassisted basket, the first part of the score (the set up) is not done through a pass but through some type of agile move by the scorer.

The whole point is that there is a systematic way of assessing player value here that avoids bias and selective memory. Now this system also discounts clutchness, or the ability to play well in high-leverage situations. Unlike many in advanced statistics, Charting the Hawks doesn’t disagree that clutchness exists. It almost certainly does. But there are other reasons to discount it for our purposes that we don’t need to get into.

Having said that, and this isn’t to pick on anyone else, but it’s tough not to notice how bias and selective memory pervades the minds of fans and pundits alike. After each game, this website rates the game performance of each Jayhawk (using Adj. PPG +/-). It doesn’t just rank each player, but actually tells you how well or poorly a Jayhawk did in that game as compared to a hypothetical KU-level replacement player (i.e. “bubble” player).

Of course, there are other sites that do the same, albeit without any system. This ends up getting them into trouble. Matt Tait of the Lawrence Journal World took over the Keegan Ratings after longtime LJW Sports Editor Tom Keegan left the paper. It is now called the Kusports.com ratings, although the rankings are based the same as Keegan’s were before. The rater makes his subjective analysis of who played well and who didn’t, then ranks them from best to worst for each game. These ratings are then accumulated for the total season.

Last night’s loss to TCU was ugly to be sure, but rating Zach Clemence as KU’s most effective Jayhawk was a bit far-fetched. Tait’s rankings are represented below, so that we can compare to what a more objective rating system would show. Here’s how Tait ranks them.

  1. Zach Clemence
  2. Jalen Wilson
  3. Ochai Agbaji
  4. Joe Yesufu
  5. Christian Braun
  6. Dejuan Harris, Jr.
  7. Mitch Lightfoot
  8. Jalen Coleman-Lands
  9. Remy Martin
  10. David McCormack
  11. K.J. Adams

We won’t go through each player’s write-up, but considering that KU lost by 10 points (which isn’t great, but not the worst ever) and not 30+, it’s odd to think that each of the other 10 players who played more than 7 minutes had less of a positive effect than Clemence’s block and defensive rebound did in 26 seconds.

We will go through a few of the outrageous differences, however. Let’s start with CtH’s most valuable player in this game, David McCormack, who Tait ranks at #10!

CtH’s ranking of the 3/1 TCU game

McCormack had a score of +8.22, meaning that after factoring each made shot, missed shot, free throws, rebounds, steals, turnovers, forced turnovers, defensive possessions that did or did not lead to points, as well as minutes played; he was 8.22 points better than the average KU-level replacement 5-man would likely be. This may seem surprising on a night where he was 2-6 from the field; then again by selecting the stat 2-6 on FG’s, we’ve already biased the entirety of McCormack’s performance.

McCormack also went 7-9 on FT’s, to finish with 11 points. Given that he had 6 official offensive rebounds against 1 turnover, his offensive rating was 118.9 on Torvik with 32.2 usage. This is a very solid offensive outing. Note that this also ignores something the video shows, that McCormack hustled to recovery two loose balls on offense that would have been turnovers on bad passes from his teammates (at about the 18:06 mark and 6:52 mark of the 2H). All said, his activity winning possessions and FT shooting outdid the few missed layups he had in close.

Remembering missed layups is the perfect example of selective memory. Here’s Tait’s write-up that tells us more about Tait’s ability to rate players than McCormack’s actual performance on Tuesday:

McCormack never got going in this one, missing so many close-range shots and struggling to gain control of himself throughout. He finished with decent numbers — 13 points and 8 rebounds — but he played just 21 minutes and got so many of those rebounds by badly missing in close.

According to the official stats, McCormack missed 2 lay-ups in the game, one at the 17:57 mark and one at the 16:16 mark of the 2H. It’s tough to agree that D-Mac missed “so many” close-range shots. Now he did miss 2 jumpers inside 8 feet as well, but these were contested. Either way, that is what stuck in Tait’s mind the most, so that is why McCormack was seen as KU’s 10th best player out of 11.

Yet after discounting McCormack’s night, Tait realizes that 13 (actually 11) & 8 aren’t actually terrible. This is the first sign he is starting to come to terms with his own bias. Unfortunately, he doubles down and provides a few more throw away lines that attempt to justify his ranking but only show us his ignorance. Yes, McCormack’s 21 minutes were not as many as he’s had in prior games, but it’s tough to say that limited minutes should discount a player’s performance in your rankings when your top player is someone who played in 1 total possession the entire game.

Another canard is that McCormack’s high offensive rebounding rate is due to him missing close shots. I read/hear this so often, that I might go back through the game logs to see how frequently this actually occurs. For starters, it’s a way to discount the fact that David McCormack is leading the nation in offensive rebounding percentage (OR%), at 20.4%. In other words, he rebounds 1/5 of his team’s misses while he’s on the court.

Tait is appealing to this bit of conventional wisdom, however of his 6 offensive rebounds Tuesday night, only 1 was off his own miss. The other 5 were off a Jalen Wilson missed jumper (5:15 1H), a Dejuan Harris missed 3-pointer (17:58, 2H), a Jalen Wilson missed jumper after a block (15:06 2H), an Ochai Agbaji missed jumper (6:55 2H), and a Christian Braun missed layup that was blocked (5:58, 2H). The only rebound off his own miss came at the 5:06 mark of the 2H, and it was a miss on a post-up jumper. This rebound would lead to Jalen Wilson driving and getting fouled, proving further it added value to the possession.

Tait isn’t close to correct in what he’s saying. But even if he were, remember the axiom that an offensive rebound neutralizes the mal-value of a miss. Even if McCormack were blowing layups out of proportion, in getting back his misses he is not harming his team one bit since KU retains possession. His 112.2 ORtg (and 117.8 Conf ORtg) on KenPom agree here.

Another axiom is that all misses are equal, namely that it doesn’t matter if a possession ends in a missed layup or missed deep 3, the value of the possession is still 0 points. Let’s explain why that is. In basketball, teams are attempting to get the most efficient shot, which occurs closer to the rim than further from it. McCormack is the best on the team at getting close shots, using his size, length, and skill set to get a bulk of shots in close. Yes, him missing these shots is frustrating. But it is quantitatively no different than when some other Jayhawk misses a deep shot late in the possession because he isn’t large or skilled enough to get a close one in 30 seconds of the shot clock. Selective memory only recalls the missed bunnies he has; it discounts his ability to get so many close shots. And he still makes enough of them (while also shooting well from the line) to be a solid offensive contributor.

Tait also had this to say about McCormack:

Give him credit for fighting to get them back, but had it not been for a 7-of-9 night at the free throw line, McCormack’s numbers would’ve matched the way he looked in this one. It’s going to be real interesting to see how he looks against that big, athletic TCU front line in the rematch.

Tait does finally realize the value of winning offensive rebounds back, yet he unfortunately discounts the skill of shooting well from the line. 7/9 is 78%, which isn’t astronomically higher than his season percentage (70.8%) and his below his percentage from last season (79.8%). McCormack’s energy and hustle got him to the line, where he converted.

But it was interesting to see the last bit, the one praising TCU’s front line. TCU certainly dominated the Hawks on the glass, 47-35. McCormack’s countpart, Eddie Lampkin, had 9 rebounds (4 offensive). This would make it seem like McCormack was giving up more than he was scoring. However this was not the case at all.

Lampkin finished with only 2 points. Other interior players, including Xavier Cork (8 points), did have solid games. But this is where charting defensive plays helps. Without seeing how KU’s defensive possessions went, we are only left guessing as to how each player performed on defense. Let’s look back at Lampkin’s only bucket. It was early in the game, when he hit an elbow-jumper with 17:39 in the 1H. It occurred not when D-Mac was in the game, but when Mitch Lightfoot was. Lightfoot was clearly out of position, over-hedging the ball screen and allowing his man to slip and have an uncontested look.

After charting each possession, we see that McCormack’s defensive contributions only led TCU scoring on two different plays, first when he overhelped in the first half and forced Christian Braun to block out his man at the rim (leaving CB’s man uncontested for a put-back) and second when he goaltended a contested layup that didn’t appear to be going in (on a play where CB fouled the driver for an and-1). In 21 minutes, that was it. Needless to conclude, this was a good performance on defense by D-Mac. (As a comparison, Mitch Lightfoot and K.J. Adams combined for 13 points allowed in 19 minutes of play, far more than McCormack gave up in slightly more minutes).

Now for the season, McCormack’s defensive efforts have been rather poor. He is allowing 15.6 points per 60 possessions, which is second-worst on the team behind Mitch Lightfoot (of players playing at least 10% of possible minutes). After accounting for his rebounding, blocks, steals, and forced turnovers; he grades out as a -0.63 per game defender. He’s struggled on this end his whole career, and this season is no different. But he does have solid games from time-to-time.

On the other hand, Ochai Agbaji gave up 23 points in his worst defensive outing of the season. This wouldn’t be known if not for charting the game. While Agbaji will likely bounce back on Thursday, defensive performances tend to fluctuate more than offensive ones, there’s no possible universe in which Ochai was the third-best Jayhawk and McCormack the 10th-best Jayhawk on Tuesday. None.

The last thing I’d like to talk about is the season standings that accumulate each game and appear at the bottom of each Kusports.com Ratings write-up. For one, I’m not sure how the totals are arrived at. It seems, although this could be wrong, that each player receives points in inverse to the number of players that game. So if KU plays 10 players in a game, the #1 player of that game gets 10 points, the #2 player of that game gets 9 points, and so on. But this would only work as a sensible system if every game saw the same number of players play. For instance in games where only 8 players play, the #1 player is only getting 8 points, not 10.

A second problem is that there have been a number of missed games due to injury, illness, suspension, or coaching decision. So while the season standings are an accumulation, it isn’t true that each player has played an equal amount of games.

To his credit, Tait attempts to control for this by putting superscripts to indicate that a certain player his missed one or more games for some reason. But the effect is to make it look clunky. There are six Jayhawk regulars who have missed action because of non-coaching decision reasons, and each has a different symbol or letter to reflect this. For instance Wilson has a bullet-point to indicate he missed three games due to suspension, Agbaji has a + sign (although in the notes it has become a bullet-point as well), and other players have a letter, either x, y, z, or b.

Either way, this leads to the question of how to account for player value (which is what the KUsports.com ratings are trying to do) when players play different numbers of games. As an example, Jalen Wilson didn’t provide any value for the team when he was sitting the bench serving his suspension. So in some sense he should see his value diminished. On the other hand, a per game rating allows us to project his value better (since presumably he won’t be serving any more suspensions).

Charting the Hawks does provide both numbers against a hypothetical bubble player…per game and total. See 2022 here. In addition, I’ll add a third category below, or points above average. The average college basketball player is quite a bit worse (remember there are 358 teams) than your typical KU reserve.

Total Pts +/-

This chart shows the difference in rating, depending on how you define a “replacement player.” For instance, Dajuan Harris has been worse than the bubble-player that KU would expect to be able to recruit and develop. But he has been better than the average D-1 rotation player. So a team of Dajuan Harris-level players would likely be above .500 (depending on strength of schedule, of course), but would not likely be a tournament-level team.

This chart also shows that, even despite playing far more minutes, Harris still grades out worse than Remy Martin no matter how you compare the two. Harris has played the third-most minutes on the team, so his Pts AA is a larger increase to Pts AB than Martin’s change is. Yet when we compare Harris and Yesufu in Pts AA, we see that Harris’s additional minutes make him the better performer over Yesufu. So it is probably good to look at both numbers. Per game or per possession ratings can also help clarify value.

TCU 74 Kansas 64

D-Mac had a solid game on the offensive glass, and earned his 5th team-MVP of the season

Game Summary:

In an ugly game, David McCormack was actually a very solid contributor for Kansas, earning 8 second-chance opportunities for Kansas on the offensive end (although he had trouble finishing just as his teammates did). He also prevented his opponent from doing much damage scoring the ball, but failed to earn as many defensive rebounds as he should have. In all, despite the awkwardness and missed layups, D-Mac’s energy and presence helped KU last night.

Similarly, Jalen Wilson had a solid defensive game and added enough on offense to be on the plus side of the value-ledger. It wasn’t his man who was scoring the points for TCU. The other Jalen, JCL, played very well in his 6:32 of game time. Finishing with 2 3-pointers on 2/4 shooting, he also grabbed 3 rebounds (2 defensive, 1 offensive) without giving up points on defense.

The only other positive Jayhawk was Zach Clemence, who blocked a shot and then finished the possession ripping down a rebound as TCU kept getting second-chance looks. He had to leave the game due to a cut above his eye.

Hovering around 0 value were Christian Braun and Joseph Yesufu. CB had trouble finishing inside, but he played solid defense for the most part. Yesufu had success getting to the cup (2/2 FT’s getting fouled on a layup to go along with a made FG on a drive), but also gave up 5 points to offset what he scored.

Mitch Lightfoot started strong, scoring KU’s first 5 points, but his poor defensive positioning and rebounding soon cost KU. One of his replacements as a bench big-man, K.J. Adams, also had a rough night on defense. Guards Remy Martin and Dejuan Harris had mediocre games, with Harris doing a good job spreading the ball around (7 assists, 1 turnover) but little else (0 points scored, 10 points allowed). Martin hit a midrange jumper and gave up a 3, along with a missed shot and turnover. Overall, not a great game but not terrible.

The player who easily had his worst outing was Ochai Agbaji. Although he finished with 13 points, this was done on 18 shot attempts. He finished with a 0.56 Off PPP_af (this website’s version of ORating). His defense was even worse, as he gave up 23 points. Some of this was losing his man in the half-court, some was due to good defense that scored on, and some was due to his poor transition recovery. In all, the energy he has been expending on offense has cost him on the other end. The last two games Ochai has taken 38.7% and 28.8% of the team’s shots while in the game, upping his shot frequency to 27.4% on the season. This number doesn’t taken into account the type of shot, meaning it doesn’t account for how much more work Ochai is doing to get these shots up, many of which are unassisted opportunities. Simply put, Agbaji needs more help on offense, and needs to be more patient when he does have the ball.

For the team, this was their second-worst game of the season and the 7th game below bubble-level for KU. The Hawks got crushed on the glass and inside the paint, losing the rebounding battle 47-35 and shooting 35% from inside the arc while TCU shot 48.1%. The wings weren’t great at rebounding, but it was the guards (1 total rebound between Harris, Martin, and Yesufu in 47 combined minutes) that didn’t help out at all.

KU gets TCU tomorrow (March 3rd). Expect a far better effort on the glass, and a better game plan at getting Ochai better looks.