One Of The Best Baseball Hitting Drills For Little League Helping STOP “Racing Back Elbow” Bat Drag

 

Baseball Hitting Drills for Little League: Jace Bat Drag

Look at my 11u hitter Jace’s racing back elbow, and the fix a week later. On the left side, he weighed in at 68-lbs, and right before our session, hit his first official homer distancing 180-feet!

Question: Does ‘Top Hand Finger Pressure’ Effect Bat & Hand Speed, and Time To Impact versus Keeping the Hands Loose? (Pre-Turn Hand Tension Revisited)

Using the Zepp (Labs) Baseball app, I wanted to use the Scientific Method to revisit a past experiment I did titled “Babe Ruth Reveals Hand Tension?”  And analyze whether having relaxed hands OR ‘finger pressure’ affects Zepp metrics.

Growing up, I was taught baseball hitting drills for Little League – which are still being taught, that loose hands are quick hands.  Modern research REVEALS that may not be the WHOLE story.

I wanted to revisit the previous ‘Babe Ruth experiment’ because in that test, I wasn’t actively holding the finger pressure through impact.  In this experiment, I will be.

In the Conclusion of this post, I’ll also give a couple examples of my hitters who were suffering from really stubborn bat drag (one for over 1.5 years), and how we used ‘finger pressure’ to correct it within 1-2 weeks.

 

Background Research

In the Babe Ruth Pre-Turn Hand Tension Zepp swing experiment, I used the following Research links:

  • Pavel Tsatsouline Tim Ferriss podcast revealing how the hands can be used to recruit more muscle tissue and connect larger areas of the body,
  • Homer Kelly’s book The Golfing Machine went into describing one of the four power accumulators in the golf swing, and
  • Thomas Myers’s book Anatomy Trains, and how Front Arm Fascial Lines are responsible for connecting what an explosive rotational athlete is holding in their hand(s), with the other springy fascial lines inter-weaving throughout the rest of the torso and body.

I also wanted to point out that a few months after publishing the ‘Babe Ruth Pre-Turn Hand Tension’ experiment I met Lee Comeaux, now a good friend of mine, who is a professional golf instructor out in Texas.  He’s been studying Thomas Myers’s book Anatomy Trains for over a decade now.

He simplifies the concept we now call top hand finger pressure.  So THANK YOU Lee!  CLICK HERE to visit Lee’s (Roy) YouTube channel.  And by the way, Lee has a 13u daughter playing fastpitch softball in Texas, and last time I heard she was hitting .800 using the same principles we talk about here.

So yes, this works for both fastpitch and baseball hitters!

Please watch the following interview with Thomas Myers titled, “Tensegrity Applied To Human Biomechanics”:

  • Defining tension & compression Forces (0:10)
  • Applying tension to the structure makes it stronger and more stable (5:55)
  • Applying tensegrity to the human body and tightening up as a benefit to taking on impact (12:35)

I’ve also heard Thomas Myers talk about synovial fluid in our joints.  It’s our lubrication system.  And it’s liquid, between the joints, when we’re relaxed…in the above video, he called this “adaptability”.

However, when we catch a ball in a glove, for instance, we squeeze our hand around the ball turning the synovial fluid to a solid state.  This concept becomes important when we’re talking about ‘finger pressure’ when hitting.

I tell my hitters it’s the difference between the ball feeling like it’s hitting a cinder block (the bat), or a wet pool noodle.

 

Hypothesis

Baseball Hitting Drills for Little League: Zack Racing Back Elbow Fix

This is my Sophomore in H.S. Zack and his racing back elbow BEFORE & AFTER. This was a 1 week fix employing ‘finger pressure’.

I’m a little biased in this experiment because I’ve seen the research AND how this has worked miracles with my own hitters employing ‘top hand finger pressure’. However, I wanted to conduct another formal experiment comparing the  following Zepp metrics:

  • Bat Speed at Impact,
  • Hand Speed Max,
  • Time To Impact,
  • Barrel Vertical Angle at Impact, and
  • Attack Angle…

…between the two swings.  Whereas the aforementioned ‘Babe Ruth Pre-Turn Hand Tension‘ experiment I held the hand tension before the turn, then let it go.  This experiment I’ll be keeping top hand finger pressure from the moment I pick up my front foot to stride, to all the way through impact.

I predict, by using ‘top hand finger pressure’ longer, we’ll see an effective jump in all metrics rather than the conventional of ‘loose hands are fast hands’.  I also predict holding finger pressure longer will be more effective than the previously mentioned experiment metrics for Pre-Turn Hand Tension.

At the end, I’ll show how ‘finger pressure’ has STOPPED bat drag in two of my hitters at the Conclusion of the experiment.

 

Baseball Hitting Drills For Little League: ‘Finger Pressure’ Experiment

Equipment Used:

Setup:

  • We used the Zepp Labs Baseball app to gain swing data.
  • I stayed as consistent as I could with keeping the ball height and depth the same for most swings.
  • I used two yellow dimple ball markers to make my stance setup consistent…one was placed inside my back foot, close to the plate.  The other was placed one bat’s length plus two baseballs in front of the back marker.
  • The two tests in the baseball hitting drills for Little League ‘finger pressure’ experiment were counter-balanced.  Which consisted of eight blocks of 25-swings done in the following order ABBA BAAB.  ‘Finger pressure’ was letter ‘A’, and ‘loose hands’ was letter ‘B’.  200 total swings were completed in the experiment, 100 per test.  Counter-balancing helps remove the “getting tired” and “not being sufficiently warmed up” factors.
  • On the finger pressure swings, I used top hand bottom three finger pressure only, which consisted of tightening up the top hand bottom three fingers (pinky, ring, & middle) from the time I picked my stride foot up, to all the way through impact.  The bottom hand was doing what I call the ‘butterfly grip’…tight enough to keep a butterfly from getting away but not too tight to crush it.
  • Loose hands consisted of trying to maintain a ‘butterfly grip’ throughout the whole swing.
  • Throughout the baseball hitting drills for Little League swing experiment, I was drinking a Lime Cucumber flavored “Pepino” Gatorade (very good btw) and a chocolate milk to replenish my body’s protein, sugars, and electrolytes during the 2-hour experiment.
  • I did an 8 exercise dynamic warm up in this baseball hitting drills for Little League experiment before taking about 15-20 practice swings off the tee.

Data Collected (Zepp App Screenshot)

Baseball Hitting Drills For Little League: Finger Pressure Zepp Experiment

Notice the slight change in bat and hand speed metrics, AND the difference in Time To Impact…

 

Data Analysis & Conclusion

Baseball Hitting Drills for Little League: Bat Path

You can clearly see the negative Attack Angle.  This was a finger pressure swing.

  • Using ‘Finger Pressure’ gained an average of 1-mph Bat Speed at Impact
  • Using ‘Finger Pressure’ gained an average of 1-mph Hand Speed Max
  • Using ‘Loose Hands’ decreased Time To Impact by a whopping 0.017 (17/100th’s of a second)
  • Bat Vertical Angle & Attack Angle showed no differences between the two swings.

These were interesting findings in this baseball hitting drills for Little League finger pressure Zepp swing experiment.

My Hypothesis proved correct in that we saw an increase in average Bat Speed at Impact and Hand Speed Max employing ‘finger pressure’, however it wasn’t a huge change.

Also in my Hypothesis, this experiment didn’t turn out more effective for finger pressure than it did for Pre-Turn Hand Tension (PTHT) in the Babe Ruth Experiment, where I gained an average of 3-mph Bat Speed at Impact using PTHT.

You’ll notice the major decrease in Time To Impact using the ‘loose hands’ method.  Excluding the racing back elbow bat drag hitter, from these results and the Thomas Myers research, we can say using a hybrid of the two methods…loose hands at the start of the turn, and finger pressure slightly pre-, at-, and post- impact would be more effective than not.

On the contrary, for the bat drag hitter with a racing back elbow issue, I think finger pressure MUST be used before the turn happens because these hitters evidently have a ‘fascial connection’ issue between what they’re holding in their hand, and their turning torso.

In other words, they may not intuitively use finger pressure like other hitters without the racing back elbow issue.

Besides, according to the Zepp app Time To Impact Goals for Pro hitters are right around .140 anyway, so my .131 with finger pressure is still more effective.

One last thing to note, coming from my experiential knowledge in working with my hitters, I consistently see a 2-3-mph boost in Ball Exit Speed when using finger pressure versus NOT in one 45-minute session.

This just means I’ll have to REVISIT this baseball hitting drills for Little League finger pressure Zepp swing experiment again, but collecting and comparing Ball Exit Speed data.

If you have any other thoughts or questions about this baseball hitting drills for Little League Zepp swing experiment, please respond below in the comments…THANKS in advance!

 

Introducing The Pitch-Plane Dominator Online Video Mini-Course

Sick of struggling to reduce your hitter’s ground balls, swing and miss strikeouts, and non-productive weak fly balls?  This simple 4-Step online video mini-course (7-modules total) will help hitters weighing less than 100-pounds, barrel the ball more consistently.  Dramatically decrease ground balls, strikeouts, and weak fly balls (no matter the pitch location or speed) by applying human movement rules validated by science.

If you haven’t already, then CLICK the Link below to…

Get Access to The Pitch Plane Dominator Online Video Mini-Course

In This Video, You’ll Learn…

  • The Zepp swing experiment revealing the affect the back leg angle has on ball flight,
  • How-to stay short (or low) during Final Turn (using the pole-over-head metaphor),
  • The optimal back knee angle during Final Turn (relating to Fastpitch difference), and
  • How the back foot adds stability during the Final Turn.

 

Getting Under The Ball Like Stephen Vogt – A Baseball Swing Plane Experiment

Baseball Swing Plane: Stephen Vogt

August 2014  Stephen Vogt (21) hits a solo home run. Mandatory Credit: Kyle Terada-USA TODAY Sports

Stephen Vogt side note: CLICK HERE to watch video of him doing referee impersonations, he’s apparently known for, on Intentional Talk.  That’s Johnny Gomes in the background 😀

Question: Can the Back Leg Angle Affect Ball Flight During the Final Turn?

Using the Zepp (Labs) Baseball app, I wanted to use the Scientific Method to analyze the effect the back leg angle has on ground balls, line drives, and fly balls.

Background Research

Two posts I’ve written that talk about the back leg angle:

In the above posts, pay particular attention to what Homer Kelly says about Knee Action.

As of the beginning of May 2015, Stephen Vogt of the Oakland Athletics, is ranked 2nd overall in OPS at 1.179 (according to MLB.com’s sortable stats).  Can he hold this up all year?  Maybe, maybe not.  But the metrics I’m about to reveal have a solid base in his back leg angle mechanics.

He has a very distinct back leg angle during the Final Turn and follow through (see image above).  Here’s how his metrics stacks up over four seasons, against the league average (according to FanGraphs.com):

  • Ground ball% – Stephen Vogt (32.6%), League Average (44%)
  • Line Drive% – Stephen Vogt (20.7%), League Average (20%)
  • Fly Ball% – Stephen Vogt (46.6%), League Average (36%)
  • Home-run/Fly-ball Ratio – Stephen Vogt (10%), League Average (9.5%)

So he’s well below the league average in ground-balls, slightly higher in line drives, and has  a 0.5% higher home-run to fly-ball percentage.  The latter meaning what percentage of his fly-balls go over the fence.  Lastly, as you can clearly see, Stephen Vogt has an above average fly-ball percentage.  Remember, fly-balls aren’t always bad.  Most times, they’re more productive than ground-balls in sacrificing runners over or bringing them in to score.

 

Hypothesis

Based on the above research and with my own experience, I think that having the back leg angle bent in an “L” (or 90-degree angle) during the Final Turn and follow through will produce more elevated line drives and fly balls.  Whereas a straighter back leg angle (closer to 180-degrees) will produce more low level line drives and ground balls.

 

Baseball Swing Plane Experiment: “Staying Low”

Babe Ruth Hand-Tension Experiment Setup

Here was how I setup the experiment “work station”

Equipment Used:

Setup:

  • Yellow dimple ball feedback markers = my bat length, plus two baseballs
  • Distance from plate = end of the bat touching inside corner of plate, and knob of bat touching my mid-thigh.
  • Tee was set slightly behind the front feedback marker, and tee height was about mid-thigh.
  • First 100 baseballs were hit with a 90-degree back leg angle during the Final Turn and follow through.
  • Second 100 baseballs were hit a straighter back leg angle (about 170-degrees) during the Final Turn and follow through.

Data Collected (Zepp Baseball App Screenshots):

Baseball Swing Plane Zepp Experiment: "Staying Low"

Fig.1: Here are the averages of both sessions. Pay particular attention to the “Bat Vertical Angle at Impact” and “Attack Angle” preferences…

According to the Zepp app user guide, let’s define the following terms:

  • Bat Vertical Angle at Impact – This is the Vertical angle (Up or Down) measured in degrees, of your bat barrel in relation to the knob of the bat, when it makes impact with the ball.
  • Attack Angle – Attack Angle is the direction the bat barrel is moving (Up or Down) at impact. A positive number would mean your barrel is going UP at impact, zero is LEVEL and a negative number is the barrel going DOWN at impact.

Check out the ground-ball, line drive, and fly-ball comparison:

Baseball Swing Plane Experiment: Ball Flight

Fig.2: Check out the difference in ball flight between the two sessions. Pay particular attention to the ground-ball percentages.

Data Analysis & Conclusion

I wasn’t paying too much attention to bat and hand speed on this experiment.  I only focused on the metrics indicating a change in ball flight.

  • Attack angle had a 3-degree difference according to Fig.1.
  • Bat Vertical Angle at Impact also had a 3-degree difference according to Fig.1.
  •  27% difference in ground-ball% according to Fig.2.
  • 24% difference in fly-ball% according to Fig.2.

Notes

Baseball Swing Plane Experiment: Cage Labels

This were the rules I used for ball flight in the cage during the Experiment.

  • Here’s a picture (image to the right) of the cage I hit in and the labels for each batted ball outcomes.
  • I’m not sure why the Bat Vertical Angle at Impact was larger for the “Straight Back Knee”.  Maybe it had to do with my back knee starting bent towards impact, but then the barrel compensated by “pulling up” to accommodate the straightening back knee.  This disturbance in the pitch plane is NO bueno.
  • I found myself reverting back to old habits (Bent Back Knee) during the Straight Back Knee session.  There were at least a dozen balls I hit that had more bend than I wanted during that session.
  • During the “Bent Back Knee” session, about 65% of my fly-balls were “shots”, and didn’t hit the back of the cage to be considered a line drive.
  • I find with small sluggers like Stephen Vogt bend their back knee between 90-105 degrees during the Final Turn.  With fastpitch softball, the angle of the back knee isn’t quite so drastic because of the reduced plane of the pitch.  If I can get my softball players to be 105-120 degrees with the back knee angle, then I’m happy.

 

In Conclusion

So the back knee angle during the Final Turn does have a significant impact on ball flight.  More bend equals, more airtime for the ball.  I’ve seen Little Leaguers to Pro hitters straightening out their back legs.  And they often wonder why they aren’t driving the ball.

In terms of driving the ball like Stephen Vogt, think of the back leg angle as angling your body like a “ramp”.  Also, take a look at smaller sluggers (6’0″, 225-lbs on down) like: Adrian Beltre, Stephen Vogt, Jose Bautista, Josh Donaldson, and Andrew McCutchen as great examples of back knee bend.

 

Introducing The Pitch-Plane Dominator Online Video Mini-Course

Pitch Plane Dominator Online Video Mini Course

Sick of struggling to reduce your hitter’s ground balls, swing and miss strikeouts, and non-productive weak fly balls?  This simple 4-Step online video mini-course (7-modules total) will help hitters weighing less than 100-pounds, barrel the ball more consistently.  Dramatically decrease ground balls, strikeouts, and weak fly balls (no matter the pitch location or speed) by applying human movement rules validated by science.

If you haven’t already, then CLICK the Link below to…

Get Access to The Pitch Plane Dominator Online Video Mini-Course

Getting Under The Ball Like Stephen Vogt – A Baseball Swing Plane Experiment

 

Baseball Swing Plane: Stephen Vogt

August 2014  Stephen Vogt (21) hits a solo home run. Mandatory Credit: Kyle Terada-USA TODAY Sports

Stephen Vogt side note: CLICK HERE to watch video of him doing referee impersonations, he’s apparently known for, on Intentional Talk.  That’s Johnny Gomes in the background 😀

Question: Can the Back Leg Angle Affect Ball Flight During the Final Turn?

Using the Zepp (Labs) Baseball app, I wanted to use the Scientific Method to analyze the effect the back leg angle has on ground balls, line drives, and fly balls.

Background Research

Two posts I’ve written that talk about the back leg angle:

In the above posts, pay particular attention to what Homer Kelly says about Knee Action.

As of the beginning of May 2015, Stephen Vogt of the Oakland Athletics, is ranked 2nd overall in OPS at 1.179 (according to MLB.com’s sortable stats).  Can he hold this up all year?  Maybe, maybe not.  But the metrics I’m about to reveal have a solid base in his back leg angle mechanics.

He has a very distinct back leg angle during the Final Turn and follow through (see image above).  Here’s how his metrics stacks up over four seasons, against the league average (according to FanGraphs.com):

  • Ground ball% – Stephen Vogt (32.6%), League Average (44%)
  • Line Drive% – Stephen Vogt (20.7%), League Average (20%)
  • Fly Ball% – Stephen Vogt (46.6%), League Average (36%)
  • Home-run/Fly-ball Ratio – Stephen Vogt (10%), League Average (9.5%)

So he’s well below the league average in ground-balls, slightly higher in line drives, and has  a 0.5% higher home-run to fly-ball percentage.  The latter meaning what percentage of his fly-balls go over the fence.  Lastly, as you can clearly see, Stephen Vogt has an above average fly-ball percentage.  Remember, fly-balls aren’t always bad.  Most times, they’re more productive than ground-balls in sacrificing runners over or bringing them in to score.

 

Hypothesis

Based on the above research and with my own experience, I think that having the back leg angle bent in an “L” (or 90-degree angle) during the Final Turn and follow through will produce more elevated line drives and fly balls.  Whereas a straighter back leg angle (closer to 180-degrees) will produce more low level line drives and ground balls.

 

Baseball Swing Plane Experiment: “Staying Low”

Babe Ruth Hand-Tension Experiment Setup

Here was how I setup the experiment “work station”

Equipment Used:

Setup:

  • Yellow dimple ball feedback markers = my bat length, plus two baseballs
  • Distance from plate = end of the bat touching inside corner of plate, and knob of bat touching my mid-thigh.
  • Tee was set slightly behind the front feedback marker, and tee height was about mid-thigh.
  • First 100 baseballs were hit with a 90-degree back leg angle during the Final Turn and follow through.
  • Second 100 baseballs were hit a straighter back leg angle (about 170-degrees) during the Final Turn and follow through.

Data Collected (Zepp Baseball App Screenshots):

Baseball Swing Plane Zepp Experiment: "Staying Low"

Fig.1: Here are the averages of both sessions. Pay particular attention to the “Bat Vertical Angle at Impact” and “Attack Angle” preferences…

According to the Zepp app user guide, let’s define the following terms:

  • Bat Vertical Angle at Impact – This is the Vertical angle (Up or Down) measured in degrees, of your bat barrel in relation to the knob of the bat, when it makes impact with the ball.
  • Attack Angle – Attack Angle is the direction the bat barrel is moving (Up or Down) at impact. A positive number would mean your barrel is going UP at impact, zero is LEVEL and a negative number is the barrel going DOWN at impact.

Check out the ground-ball, line drive, and fly-ball comparison:

Baseball Swing Plane Experiment: Ball Flight

Fig.2: Check out the difference in ball flight between the two sessions. Pay particular attention to the ground-ball percentages.

Data Analysis & Conclusion

I wasn’t paying too much attention to bat and hand speed on this experiment.  I only focused on the metrics indicating a change in ball flight.

  • Attack angle had a 3-degree difference according to Fig.1.
  • Bat Vertical Angle at Impact also had a 3-degree difference according to Fig.1.
  •  27% difference in ground-ball% according to Fig.2.
  • 24% difference in fly-ball% according to Fig.2.

Notes

Baseball Swing Plane Experiment: Cage Labels

This were the rules I used for ball flight in the cage during the Experiment.

  • Here’s a picture (image to the right) of the cage I hit in and the labels for each batted ball outcomes.
  • I’m not sure why the Bat Vertical Angle at Impact was larger for the “Straight Back Knee”.  Maybe it had to do with my back knee starting bent towards impact, but then the barrel compensated by “pulling up” to accommodate the straightening back knee.  This disturbance in the pitch plane is NO bueno.
  • I found myself reverting back to old habits (Bent Back Knee) during the Straight Back Knee session.  There were at least a dozen balls I hit that had more bend than I wanted during that session.
  • During the “Bent Back Knee” session, about 65% of my fly-balls were “shots”, and didn’t hit the back of the cage to be considered a line drive.
  • I find with small sluggers like Stephen Vogt bend their back knee between 90-105 degrees during the Final Turn.  With fastpitch softball, the angle of the back knee isn’t quite so drastic because of the reduced plane of the pitch.  If I can get my softball players to be 105-120 degrees with the back knee angle, then I’m happy.

 

In Conclusion

So the back knee angle during the Final Turn does have a significant impact on ball flight.  More bend equals, more airtime for the ball.  I’ve seen Little Leaguers to Pro hitters straightening out their back legs.  And they often wonder why they aren’t driving the ball.

In terms of driving the ball like Stephen Vogt, think of the back leg angle as angling your body like a “ramp”.  Also, take a look at smaller sluggers (6’0″, 225-lbs on down) like: Adrian Beltre, Stephen Vogt, Jose Bautista, Josh Donaldson, and Andrew McCutchen as great examples of back knee bend.

Perry Husband Bunting

Photo courtesy: Perry Husband YouTube channel

One of my readers sent me this Perry Husband video…

Interesting how he compares the impact positions of bunting to the swing.

He mentions some things in this video:

  • Bending the arms as a “shock absorber”,
  • Bent limbs are “weak”,
  • Is he promoting a straight arms at swing impact?
  • Stretching rubber bands – “Every muscle in my body is elastic”, and
  • Bat speed is not enough, and a hitter needs to couple that bat speed with controlled forward movement.

What are your thoughts on any one of the above points?  Please comment in the “Leave a Reply” section below…

Baseball Training: 3 Easy Steps To More Barrel Time On Pitch Plane (Dylan’s Case Study)

 

Baseball Training VIDEO: #1 Hitting Mistake To Boosting BABIP [Case Study]

One of my online lessons Dylan from South Florida. Notice the change in front knee bend at landing (swings are synced).

I’ve heard during baseball training a thousand times, “Be short to the ball!”  If I put a nickel away every time I heard that, then I’d have my 3 old son’s first year at Stanford saved up.  A barrel on pitch plane longer means:

  • Higher BABIP (or Batting Average on Balls In Play), AND
  • Cutting down on strikeouts.

In this baseball training video, we’re going to lengthen barrel time on pitch plane by tweaking these THREE things:

  • Importance of landing gear (setting the stage),
  • When does the barrel accelerate? (enter pitch plane early), AND
  • Timing of Power-V (stay on pitch plane)…

Difference in pitch plane between baseball and fastpitch softball?  Yep!  Pitch plane is an imaginary line from the pitcher’s release point to the catcher’s glove.  In baseball, the pitcher’s release point is raised 10 inches (by regulation).  In fast-pitch, a pitcher’s release point is at about the pitcher’s hip, while standing on flat ground.  So there’s not as distinct a downward pitch plane in fast-pitch softball, as there is in baseball.

 

Importance of Landing Gear (setting the stage)

Baseball Training: Vlad Guerrero Fight Position (landing)

Vlad Guerrero (.316 career BABIP) landing with bent front knee. Photo courtesy: Past Time Athletics (YouTube)

Foot work is pretty high on my action item list in sitting down with a new hitter.  Initial baseball training boils down to getting on the plane of the pitch by bending the knees:

  • Fight Position – at landing front knee should be bent and stacked over the ankle.
  • Final Turn – front leg straightens while back leg bends to about 90-105 degrees.

Consider something Homer Kelly said about this in his book The Golfing Machine:

“KNEE ACTION – Knee Action is classified on the basis of (1) combinations of bent and straight conditions and (2) the Reference Points selected at which these combinations occur.  The combination and the Reference Points selected will determine the slanting of the Hips during the Pivot.  The slant is up in the direction of a straightened Knee. The slant of the Hips affects the degree of the Hip Turn.  Actually, the primary function of Knee Action – as with Waist Bend – is to maintain a motionless Head during the Stroke.”

 

When Does the Barrel Accelerate? (enter pitch plane early)

Baseball Training: Victor Martinez getting on pitch plane early

Victor Martinez (.316 career BABIP) quick on the pitch plane…check out how close his barrel is to catcher’s glove! Photo courtesy: ExplosiveBaseballSwing.com

“Be short to the ball!” is one of those cues that gets misinterpreted.  Most baseball training pro instructors, players, and coaches preach being short to the ball.  But what they should be saying is be quick to the pitch plane with the barrel.  Because of the following natural factors…

  1. Gravitational Forces,
  2. Conservation of Angular Momentum,
  3. Centripetal Forces (center-seeking) AND Centrifugal Forces (center-fleeing)…

…A barrel CANNOT efficiently accelerate, being pushed by the hands to a moving ball.  Watch/read these other Hitting Performance Lab posts for WHY:

 

Timing of Power-V (stay on pitch plane)

Baseball Training: Troy Tulowitzki Power-V

Troy Tulowitzki (.320 career BABIP) in the Power-V well passed contact. Photo courtesy: MLB.com

The last baseball training piece to boosting BABIP and reduce strikeouts is to keep the barrel on pitch plane.  “Power-V” is another misinterpreted coaching cue.  Hitters are sometimes told to be at extension with both arms at impact.  This is false.  The Power-V should be achieved 3-9 inches passed impact, depending on pitch location and speed. This ensures maximum inertial force transferred from body to barrel to ball.

The bottom line?

The #1 baseball training MISTAKE to increasing BABIP and cutting down on strikeouts is to “be short to the ball”.  What you want the hitter to do is:

  • Set plane early by landing with a bent front knee,
  • Maintain plane during Final Turn by straightening front knee and bending back one,
  • Be quick with barrel to pitch plane, and
  • Stay on plane by getting to Power-V passed impact.

Baseball Hitting Case Study: Cole Watts – 17-years-old

 

Baseball Hitting Case Study: Cole Watts

Baseball hitting case study: Cole Watts Fight Position comparision

Cole’s dad Matt contacted me about setting up two in-person 45-minute lessons with a break between.  They were coming from the Bay Area, which is about a 2.5 hours drive from me.  Cole  had been getting instruction from a Mike Epstein certified instructor, and they both have been following my video blog.

According to dad, Cole’s results were hitting the ball hard into the ground, and at-best, a low level line drive.  In Cole’s baseball hitting case study, we’ll analyze:

  • Challenges faced,
  • Differences achieved after two sessions, and
  • How we trained

 

 Challenges Faced…

First, Cole is tall, 6 foot, 3 inches, and growing.  Being so tall, a hitter like him will be facing a “pitch plane” dilemma.  CLICK HERE to watch video analysis comparing 6’3″ Adam Jones to 6’2″ Victor Martinez, and how to fix Jones’s above average strikeout and ground-ball percentages.

When I hear a player is taller and having trouble driving the ball consistently, I look at how efficient they’re getting the barrel level on a downward pitch plane.  Are they:

  1. Making an aggressive move towards the pitcher (Un-weighting Principal)?
  2. Getting shorter (or lower) in the Fight Position (using Gravitational Forces)?
  3. Staying short through impact and finish (Adam Jones’s problem)?  And, are they
  4. Loading the spring correctly?

 

Differences Achieved AFTER Two Sessions

After our baseball hitting sessions, here’s where Cole made some changes:

  1. Gaining stride distance – committing body weight to front leg,
  2. Getting lower into Fight Position – flexing front knee more at landing,
  3. Body lag – opening lower half at Fight Position & blocking his shoulders.

Benefits…#1 will give Cole more bat speed and allow his head to stay still during the Final Turn.  #2 will empower Gravitational Forces to amplify Cole’s pelvic turn.  #3 will naturally spring load his body (body lag) to transfer more energy into the baseball.  The one thing we weren’t able to fix – in our short time together – was staying shorter through his impact and finish.

 

How We Trained…

How we train is just as important as what we’re training…if not more!  At the end of our baseball hitting sessions, our 5-swing rounds consisted of training one mechanical variable with three mechanical constants.  Defined…

  • Mechanical Variable – if we’re working “showing the numbers”, then on odd swings 1, 3, and 5 we show the numbers.  On swings 2 & 4 we don’t.
  • Mechanical Constant – if we’re working on “showing the numbers”, then this is done on ALL 5 swings.

I call each mechanical piece, a layer.  We start simple with one layer, which by itself becomes a variable.  As we add another layer, then the old one becomes a constant, while the one added is the next variable.  This is called interleaving.  Only one variable layer at a time.  The rest will be constants.  Here were his layers, using the fine Art of Variance:

  • Stretching his stride out beyond his “gamer” front marker,
  • Landing shorter with committed body-weight,
  • “Flashlight” on middle front thigh, open towards the pitcher,
  • Showing (or “blocking”) his numbers longer.

We sandwich the wrong mechanic with the right one, so the brain can note the difference.  If Cole wanted repeatable power, then hitting “tall” on the pitch plane wouldn’t work.  He made so much progress in a short amount of time.  Keep working hard kid!

Adam Jones: TWO Actionable Tactics To Decrease Strikeouts

 

Adam Jones: High K%? Do These 2 Things...

Adam Jones “stay through” photo courtesy: MLB.com

I wanted to compare two hitters who have reversed walk and strikeout percentages.  Adam Jones and Victor Martinez.  Can efficient OR inefficient mechanics have an effect on a hitter’s strikeout rate?  In this post we’ll:

  • Compare & contrast key offensive statistics,
  • Actionable tactic #1: how low can you go?
  • Actionable tactic #2: bringing sexy back…

The clip I used of Adam Jones is him hitting an outside 90-mph fastball to center-field.  According to FanGraphs.com Jones is 6’3″, 225 pounds.  A BEAST!  Whereas Victor Martinez is hitting an inside 93-mph fastball to right-center-field.  FanGraphs.com lists V-Mart at 6’2″, 210 pounds.

 

Compare & Contrast Key Offensive Statistics

In this article I used Michael Brantley’s example, of how to boost Batting Average, or Batting Average on Balls In Play (BABIP).  Although Adam Jones is a BEAST and does a lot right statistically speaking, there’s two mechanical elements that may lend themselves to improvement.  In the following stat table I want to pay particular attention to:Adam Jones v. Victor Martinez

  1. How virtually non-existent Adam Jones’s walk percentage is,
  2. How Jones’s Strikeout% fairs to V-Mart and the League Average, and
  3. The difference between both hitters’ Ground-ball% (GB%).

I’m using Victor Martinez’s mechanics as a model for Adam Jones.  Why?  When you want to reduce strikeouts, look to the guy who is the best in the game.  Victor Martinez has hit 30 homers, as of this writing, and only struck-out a “lean” 39 times…ALL season.  There are two key mechanical differences that I feel may be contributing to these numbers…

 

Actionable Tactic #1: How Low Can You Go?

Victor Martinez on pitch plane

Victor Martinez pitch plane photo courtesy: MLB.com

In baseball, the mound lifts a pitcher’s release point by 10-inches.  On top of that, the pitcher has to throw the ball to a squatting catcher.  To increase margin for error, and cut down on strikeouts, a hitter’s body has to get low on the pitch plane early.  THEN, stay on the pitch plane at least six to twelve inches passed impact.  In other words, get shorter, and stay shorter.

Getting low isn’t as important with fast-pitch softball.  The pitcher’s release point (mid thigh to hip) is almost on line with the catcher’s glove.  The pitching rubber will remain on flat ground and same distance from the plate, so hitters will experience less pitch plane arc at the higher levels.

As you see in the video, Adam Jones gets low but doesn’t stay low on the pitch plane like Victor Martinez does.  V-Mart starts low, glides forward, then stays low through his Final Turn.  This mechanical inefficiency – of Adam Jones – may contribute to his higher than average GB%, Strikeout%, and virtually non-existent Walk%.

 

Actionable Tactic #2: Bringing Sexy Back

Adam Jones taller Fight Position

Adam Jones “taller” Fight Position photo courtesy: MLB.com

The Catapult Loading System NEEDS the following three ingredients, up to the Final Turn…hitter:

  1. Shows numbers (their back) to pitcher,
  2. Hides hands from pitcher, and
  3. Has a slight down shoulder angle.

These three ingredients charge the springy fascial connective tissue in the body.

Victor Martinez shows his numbers longer than Adam Jones does.  I showed in this Tony Gwynn video that Gwynn keyed in on keeping his front shoulder in, which allowed him to stay on the ball longer.  Keeping the “spring” loaded longer may explain the difference in the GB% above.  Jones starts on plane, but finishes off (he “stands” up).

The key to efficient mechanics on a downward pitch plane is to get low.  Evidenced in the video, also showing the hitter’s numbers longer can have a reducing effect on higher than average strikeout and ground-ball percentages.

Carlos Gonzalez: A Killer MLB Power Strategy You Can Use Too…

 

Carlos Gonzalez Spine Angle

Carlos Gonzalez photo courtesy: MLB.com

I’m comparing two Colorado Rockies hitters, Carlos Gonzalez (aka Car-Go) and Nolan Arenado (2014 franchise record 28-game hit streak).  What repeatable power advantage does a guy like Car-Go have that Arenado may not?  Is it height?  Weight?

Neither.  Look how similar Car-Go and Arenado are physically (resource: Baseball-Reference.com):

  • Carlos Gonzalez – 6 foot, 1 inch, 220 pounds
  • Nolan Arenado – 6 foot, 2 inches, 205 pounds

In this video, we’re going to:

  1. Compare 5 key offensive numbers (based on a 162-game average),
  2. See what Car-Go and Arenado’s swings have in common, and
  3. Reveal the killer MLB power strategy.

 

Comparing 5 Key Offensive Numbers…

Here are key offensive numbers from the charts below, between Car-Go and Arenado:

  1. On-Base% (OBP)…Carlos Gonzalez = .355, Nolan Arenado = .309
  2. Slug% (SLG)…Car-Go = .527, Arenado = .432
  3. On-Base%+Slug% (OPS)…Car-Go = .882, Arenado = .741
  4. Doubles (2B)…Car-Go = 36, Arenado = 40
  5. Home-runs (HR)…Car-Go = 29, Arenado = 15

Sure we have more data points for Car-Go (7-years) than Arenado (2-years).  However, looking at how efficient each moves when swinging the bat, we’ll be able to assess the potential for Arenado’s performance in the future.  In addition to learning how Gonzalez may be able to improve.

CLICK HERE to get a brilliant Sabermetrics point of view for Car-Go 2.0.

What Car-Go & Arenado’s Swings have in Common

Nolan Arenado

Nolan Arenado photo courtesy: MLB.com

These are the human movement rules in common from the analysis:

  • Vision
  • Forward Momentum
  • Tight Turns
  • Engage Catapult Loading System

 

The Killer MLB Power Strategy

In comparing the two swings, what steps would Arenado have to take to hit for more consistent power like Carlos Gonzalez?  One of the secrets to repeatable power lies in the spine angle, which is achieved by the bend in the back knee.  The spine’s angle can allow a hitter to:

  • Get the barrel level on the downward plane of the pitch (slight upswing),
  • Stay in the impact zone longer (increased margin for error),
  • Keep the eyes and head from moving forward during the Final Turn,
  • Fully transfer linear (forward) into angular (turning) momentum (increased bat speed).
  • Drive the ball!!

Does Chris Davis Hit Backwards?  Common Mistake #4 (of 4)…

 

Chris Davis Deep Barrel

Chris Davis deep barrel photo courtesy: MLB.com

The last installment to the Hitting Backwards: 4 Common Mistakes Hitters Make video series, looks at the swing of 2013 MLB home-run leader Chris Davis.

“Being short to the ball” is disastrous to repeatable power.  We can be ‘compact’, but ‘swinging down on the ball’ in order to be ‘short to the ball’ is NOT what the best do.

Get “on pitch plane” with the barrel as soon as possible is what I tell my hitters to do.

In this Chris Davis video, we’ll look at:

  • The science of barrel path,
  • 5 Problems with being “short to the ball”, and
  • When the barrel should accelerate.

 

The Science of Barrel Path

  • Center spinning axis (the spine and torso)
  • Centripetal Force = center-seeking (arms and hands)
  • Centrifugal Force = center-fleeing (barrel)

5 Problems with “Being Short to the Ball”

Some write off what Chris Davis does here as being above average in size and weight, in other words, “he’s just strong and can get away with doing it like this.” I beg to differ…Aaron Miles told me that a downward traveling barrel (to impact) hitter doesn’t last past AA-ball.

Here are 5 PROBLEMS with ‘being short’:

Ryan Braun Deep Barrel

Is Ryan Braun ‘being short to the ball’ by today’s conventional standards? Photo courtesy: MLB.com

  1. Jab v. Knockout punch
  2. Rather get hit by a train going 30mph, or motorcycle going 60mph?
  3. NOT in hitting zone very long
  4. Weakness to off speed and breaking balls
  5. Focuses barrel acceleration at the wrong time

 

When the Barrel Should Accelerate

Here’s how Chris Davis transfers energy and uses Centripetal and Centrifugal Forces in his swing:

  • Potential Energy – made up of his height, weight, joint mobility and stability, bat length and weight.
  • Kinetic (moving) Energy – he un-weights the bat with forward momentum, then transfers that into angular (turning) momentum…
  • Barrel – because of the barrel’s moving inertia, Davis fights center-fleeing Centrifugal Forces early by keeping his front arm slightly bent to increase the speed of his body’s rotation, AND to accelerate the barrel.  Then as his barrel “turns the corner”…
  • Ball – …it gets on plane early, body to barrel to ball energy transfer is almost complete…Chris Davis finally gets long through contact with his arms (center-fleeing Centrifugal Forces).

If after reading this Chris Davis video post, you missed Parts 1-3, here they are:

  1. Ryan Braun: Common Mistakes Hitters Make #1 (Sitting Back)
  2. Adrian Gonzalez: Common Mistakes Hitters Make #2 (Walking Away from the Hands)
  3. Miguel Cabrera: Common Mistakes Hitters Make #3 (Timing of Torque)

In This Baseball Hitting Mechanics Video,

 

…We’re comparing the “Fight” position of one of my young hitters to Robinson Cano. You’ll discover a little known technical flaw limiting explosive rotational power. Cleaning this up gears the body for a more effective turn.

We’re going over:

  • What is an optimal “Fight Position”
  • Hitter compensations associated with a bad Fight Position
  • How-to get into a good Fight Position

It’s amazing how many flaws happen before the Final Turn evens takes place.  I would say 75% of the mechanical breakdown can be solved before the Final Turn takes place.  Robinson Cano has such a friction-free swing that it’s critical we copy his pre-turn positioning.  He’s one of the most consistently powerful guys in the game, and not very big by today’s standards.

Here’s Robinson Cano in the 2013 home-run derby:

Backside Baseball Hitting Mechanics Robinson Cano

Back view: Notice how his hands push back towards first base dugout, and elbow comes up and out of the way…

Baseball Hitting Mechanics: Robinson Cano

Front view: see how he’s hiding his hands from the pitcher and showing his numbers