PoinT GOResearch
how to·how to

How to Pick Shoes for Lifting: Why Running Shoes Fail

Why running shoes are dangerous for squats and deadlifts, and how to choose lifting shoes, flat shoes, and Olympic shoes for each lift.

PoinT GO Sports Science Lab··12 min read
How to Pick Shoes for Lifting: Why Running Shoes Fail

Many lifters walk into commercial gyms wearing running shoes and proceed to squat and deadlift in them. Until injury strikes, nothing seems wrong. Yet running shoes are profoundly mismatched for lifting—not merely an efficiency loss, but a real injury risk. The thick cushioning and compressible midsoles in running shoes prevent the foot from pushing directly into the ground, breaking the foot-ankle-knee-hip-spine force transmission chain.

This guide is built on PoinT GO Sports Science Lab measurements of 100+ lifters using 800Hz IMU sensors, quantitatively comparing running shoes, lifting shoes, flat shoes, and Olympic shoes. We match each shoe type to specific lifts (squats, deadlifts, bench press, Olympic lifts) and outline the four key criteria to verify before buying. Footwear is a lifter's first piece of equipment and arguably the highest-ROI investment of any gear purchase.

Why Running Shoes Are Dangerous for Lifting

Why Running Shoes Are Dangerous for Lifting

Running shoes are designed for one purpose: absorbing impact when feet strike the ground. Thick EVA midsoles, gel or foam cushioning, flexible uppers, and rocker-shaped soles all optimize for impact absorption and forward propulsion. Every one of these traits works directly against lifting demands.

First, compressible cushioning absorbs force transmission. In a heavy squat, approximately 12-18% of force generated by the legs is lost in the midsole. Second, an unstable base creates ankle wobble. Third, the rocker sole shape disrupts balance during static positions. PoinT GO IMU data shows running shoes generate an average 8.2 degrees of lateral ankle roll during squat descent, compared to 2.4 degrees for flat shoes and 1.3 degrees for lifting shoes.

Shoe TypeMidsole ThicknessCompressionAnkle RollLifting Suitability
Running shoe25-35mm30-50%8.2 degVery poor
Cross-trainer15-22mm15-25%5.1 degModerate
Flat shoe/Converse6-10mm5-10%2.4 degExcellent for deadlift
Lifting shoe5-8mm base + heel rise2-5%1.3 degExcellent for squat/Olympic
Barefoot shoe3-6mm2-5%1.8 degVersatile

Sato et al. (2012) reported that deadlift 1RM dropped by an average of 7.3kg when wearing running shoes versus firm-base shoes. This goes beyond performance—instability translates directly to injury risk. Wobbling ankles cause knee valgus, a primary mechanism of ACL injury.

4 Categories of Lifting Footwear

4 Categories of Lifting Footwear

Lifting-appropriate shoes fall into four main categories, each suited to particular lifting styles and exercises.

First, classic lifting shoes. Adidas Powerlift, Nike Romaleos, and Reebok Legacy Lifter dominate this space. They feature a 1.5-2.5cm rigid wood or TPU heel rise, compensating for ankle dorsiflexion deficits and enabling deeper squat positions. One or two metatarsal straps over the instep maximize ankle stability. Optimal for back squats, front squats, overhead squats, and Olympic lifts.

Second, flat shoes. Converse Chuck Taylor, Vans Old Skool, and Nike Metcon Flat are widely used. Their 6-10mm thin, firm bases provide excellent ground feel. Ideal for deadlifts (conventional and sumo) and accessory work like lunges and hip thrusts. Affordable, making them an excellent first lifting shoe.

Third, cross-trainers. Nike Metcon, Reebok Nano, and NoBull Trainer represent this category. Their moderate 15-22mm midsoles compromise between lifting and conditioning. Suitable for CrossFit-style training and general gym-goers who mix modalities.

Fourth, minimalist/barefoot shoes. Vivobarefoot, Xero Shoes, and Inov-8 Bare-XF lead the category. Their very thin (3-6mm) bases preserve native foot sensation and stability. Usable across all lifting and they strengthen the foot itself, but heavy squats demand sufficient ankle mobility. Recommended for those scoring 10cm+ on the ankle dorsiflexion test.

Best Shoe for Each Lift

Best Shoe for Each Lift

Different lifts demand different foot positioning and stability, so a single shoe rarely covers everything. Ideally, own both lifting shoes and flat shoes.

LiftBest ShoeSecond BestAvoid
Back squat (high bar)Lifting shoeCross-trainerRunning shoe
Back squat (low bar)Flat shoeLifting shoeRunning shoe
Front squatLifting shoeCross-trainerRunning shoe
Conventional deadliftFlat shoeBarefoot shoeLifting shoe, running shoe
Sumo deadliftFlat shoeBarefoot shoeLifting shoe
Bench pressFlat shoeLifting shoeRunning shoe
Power clean/snatchOlympic lifting shoeCross-trainerRunning shoe, flat shoe
Romanian deadliftFlat shoeLifting shoeRunning shoe

High-bar and low-bar back squats demand different shoes because torso angle and ankle demand differ. High-bar squats keep the torso more vertical with greater forward knee travel, demanding more dorsiflexion. The heel rise of lifting shoes makes this easier. Low-bar squats lean the torso further forward in a hip-dominant pattern, making a flat base preferable for posterior chain engagement.

Deadlifts uniformly favor flat shoes, regardless of variation. Beyond the simple ROM reduction, the sensation of pushing the floor strongly with bare-feeling feet maximizes posterior chain recruitment. The same principle applies to the Romanian deadlift.

Buying Criteria: Heel Rise, Base, Strap

Buying Criteria: Heel Rise, Base, Strap

Four key criteria to verify before purchasing lifting shoes.

First, heel rise height. Common range is 1.5-2.5cm. Those with limited ankle mobility (Knee-to-Wall under 8cm) should choose 2.0-2.5cm. Those with adequate mobility (10cm+) need only 1.5cm. Excessive heel rise shifts load too aggressively to the knees and is not recommended.

Second, base firmness. Press the midsole hard with a finger. Less than 1mm compression is excellent, 2-3mm is acceptable, 4mm+ is unsuitable. All major-brand dedicated lifting shoes pass this test. Firm bases transmit force from foot to ground without loss.

Third, strap system. One or two metatarsal straps must lock the foot down securely above the instep. Weak straps let the foot slide inside the shoe under heavy load, compromising stability. Verify Velcro strap width is at least 3cm.

Fourth, fit. Lifting shoes should be 0.5 size smaller than your normal size. The foot must not move inside the shoe, with toes barely brushing the front. If you have wide feet, prioritize brands with wide options (Reebok, NoBull). Initial wear feels strange—expect 1-2 weeks of adaptation, during which lighter loads should re-pattern your movement. See our squat plateau guide to optimize the post-shoe-change adaptation.

<p>Compare stability before and after shoe changes with the <a href='https://poin-t-go.com?utm_source=blog&utm_medium=inline&utm_campaign=how-to-pick-running-shoes-lifting'>PoinT GO IMU</a>. Compare ankle stability and barbell vertical path deviation under identical loads and positions.</p> Learn More About PoinT GO

IMU Stability Data Across Shoe Types

IMU Stability Data Across Shoe Types

PoinT GO Sports Science Lab measured 100 lifters (average 1RM back squat 145kg, deadlift 175kg) performing identical-load squats and deadlifts in four shoe types using 800Hz IMU. Results were unambiguous.

During back squats at 80% 1RM for 5 reps, average concentric velocity was 0.61 m/s in lifting shoes, 0.58 m/s in flat shoes, 0.53 m/s in cross-trainers, and 0.46 m/s in running shoes. Running shoes showed an approximate 24% velocity loss compared to lifting shoes. More important was asymmetry. Running shoes produced an average 5.8-degree side-to-side shin angle difference, while lifting shoes produced 1.7 degrees. Asymmetry directly indicates injury risk.

Deadlifts at 80% 1RM showed a different pattern. Flat shoes produced the fastest concentric velocity (0.54 m/s), while lifting shoes were slower at 0.48 m/s. The lifting shoe heel rise increases deadlift ROM, making the same load more work. Therefore, deadlifts must be done in flat shoes.

MetricLifting shoeFlat shoeCross-trainerRunning shoe
Squat concentric velocity (m/s)0.610.580.530.46
Lateral ankle roll (deg)1.32.45.18.2
Deadlift concentric velocity (m/s)0.480.540.510.42
Bar vertical path deviation (cm)2.12.43.65.3
Shin angle L/R difference (deg)1.72.13.45.8

The data is clear. Switching shoes alone produces immediate performance gains and injury risk reduction. The recommended first-purchase order is: flat shoes (Converse Chuck Taylor or Vans Old Skool), then lifting shoes (Adidas Powerlift or Nike Romaleos), then Olympic lifting shoes if needed. Pair with our velocity-based training guide and 1RM calculation guide to recalibrate 1RM and load percentages after a shoe change. For anyone serious about lifting beyond six months, the lifting-shoe investment is among the highest-ROI gear decisions you can make.

FAQ

Frequently asked questions

01Is barefoot lifting better than wearing shoes?
+
Barefoot is excellent for deadlifts and accessory work. However, heavy squats with insufficient ankle mobility raise injury risk. Most gyms also prohibit barefoot training for hygiene reasons, making thin flat shoes the practical alternative.
02Can lifting shoes be used for everything?
+
No. Lifting shoes excel at squats, front squats, and Olympic lifts but disadvantage deadlifts by increasing ROM. They're also unsuitable for conditioning, jumping, or cardio. Ideally, switch shoes per exercise.
03Will lifting shoe heel rises worsen ankle mobility over time?
+
Relying solely on lifting shoes can stagnate daily ankle mobility. Pair lifting shoe use with daily 5-10 minute ankle mobility work and there's no issue.
04Are expensive Olympic lifting shoes really necessary?
+
If you regularly perform Olympic lifts (snatch, clean and jerk), yes. For pure powerlifting or bodybuilding, entry-level lifting shoes (around $100-130) are sufficient.
05How often should lifting shoes be replaced?
+
At 4 sessions per week, lifting shoes typically last 2-3 years. Signs to replace: noticeable midsole compression versus new condition, or weakened strap fastening. They last considerably longer than running shoes.
Keep reading

Related Articles

exercises

Ankle Dorsiflexion Test: How to Measure and Improve Ankle Mobility

Learn the ankle dorsiflexion test (knee-to-wall test) to assess ankle mobility. Includes step-by-step protocol, normative data, and exercises to improve ROM.

exercises

Romanian Deadlift Guide: Technique, Programming & Benefits

Complete guide to the Romanian deadlift (RDL). Learn proper technique, common errors, programming for strength and hypertrophy, and how RDL differs from...

how to

5 Real Reasons Your Squat Isn't Getting Stronger

Squat hasn't moved in months? It's not just "work harder." Five real causes of squat plateaus and how to diagnose and fix yours with objective data.

guides

1RM Calculation Methods Compared: From Prediction Equations to Velocity-Based Estimation

Compare all major 1RM calculation methods including Epley, Brzycki, and velocity-based prediction. Learn which formula is most accurate for your training.

how to

How to Improve Grip Strength for the Deadlift: An 8-Week Protocol That Adds 12% to 1RM

A weak grip can cost up to 12% of your deadlift 1RM. Learn an evidence-based 8-week grip protocol and how to monitor progress with PoinT GO velocity data.

how to

How to Fix a Rounded-Back Deadlift: Setup, Pattern, and Measurement-Based Correction

Thoracic flexion in the deadlift comes from setup, mobility, and pattern faults. Use 800Hz IMU spinal angle data to correct rounded back step by step.

how to

Deadlift Form Perfect Setup: 7 Steps to Save Your Back

90% of deadlift back injuries are decided in the setup. A 7-step setup protocol from foot position to bar path, validated by IMU sensor data and...

how to

How to Add 50 Pounds to Your Deadlift Fast: VBT-Based Protocol

Add 50 lbs to your deadlift in 8-12 weeks using velocity-based training, technique fixes, accessory work, and recovery strategies backed by IMU data.

Measure performance with lab-grade accuracy

Get PoinT GO