Jump Rope Training
Jump Rope Training is a form of cardio exercise studied as a structured training practice. Research has examined fitness and performance outcomes alongside possible health-related uses, but the findings do not establish it as a treatment for those conditions.
Jump Rope Training is a cardio exercise.
Part of Cardio
Overview
Jump Rope Training is a form of cardio exercise studied as a structured training practice. Research has examined fitness and performance outcomes alongside possible health-related uses, but the findings do not establish it as a treatment for those conditions. The overall picture is moderately developed rather than definitive: the literature includes pooled analysis, yet study quality is mixed, so proposed benefits should not be treated as assured. Because the research uses supervised protocols, its findings may not apply equally to every way of practicing jump rope.
Some research: 65 studies. Last checked Oct 9, 2026.
- 27
- human evidence
- 8
- eligible
- 12
- unclassified
- 7
- animal / null result
Best-evidenced uses
- Weight Management SupportMedium · RCT
- Physical Endurance IncreaseMedium · RCT
- Physical Strength IncreaseMedium · RCT
- 65
- Studies
Evidence checked Oct 9, 2026 · newest study 2026
- B
- 6
- C
- 57
- D
- 2
263 community reports across 4 platforms
Coverage
- Effects
- 42
- Helps with
- 12
- Side effects
- 4
- Interactions
- 10
How to read the evidence
Evidence tier — overall strength of the evidence for the whole compound
- StrongWell established — backed by strong, consistent human research.
- ModerateSome genuine support, but mostly from small or lower-quality studies. Promising, not proven.
- PreliminaryEarly-stage evidence — a promising hypothesis, not an established effect yet.
- LimitedVery limited evidence — treat this as a hypothesis, not proof.
- InsufficientNot enough good evidence to draw conclusions yet.
Certainty — how sure we can be that the effect is real
- Very highVery sure — strong, consistent evidence
- HighFairly sure — consistent evidence from good studies
- MediumModerately sure — new studies could change this
- LowNot sure — little or mixed evidence
- Very lowVery unsure — almost no usable evidence
Source — where the data comes from
- Meta-analysisPooled analysis of many trials — the strongest evidence
- RCTRandomized controlled trial — a strong human study design
- ClinicalA human clinical study
- Reference knowledgeFrom general health-science or pharmacology references, not a study of this exact claim
- Animal researchStudied in animals, not humans
- Community reportsAggregated user reports — anecdotal signal, not evidence
- TheoreticalMechanism-based reasoning, not yet tested
Study grade — quality of each underlying study (A best, D weakest)
- AHigh-quality — strong, consistent human trials
- BGood — solid evidence with some limitations
- CModerate — limited, small, or mixed-quality studies
- DWeak — preliminary, indirect, or animal-only
Confidence — how strongly the sources back a finding
A 0–100 score from study quality and agreement
Most supplement evidence is graded C–D. Read it as preliminary signal, not proof.
These are research findings, not promises. A practice does not replace medical treatment.
What does research say?
What studies found for each claimed effect, best evidence first.
42 claims:11 some evidence17 not enough evidence9 not tested in people5 no benefit found
Weight Management SupportCardio in general: Medium · 4 trialsSome evidence it helpsSize of effect: Not known
Some human studies found a benefit. More research could change this.
7 of 8 studies found a benefit; 1 found none. Strongest study: a pooled analysis of several trials. Trials that found it ran as little as 6 weeks, typically 8.
Open the Weight Management Support pageCompare with Cardio in general →Physical Endurance IncreaseCardio in general: Medium · 31 trialsSome evidence it helpsSize of effect: Not known
Some human studies found a benefit. More research could change this.
14 of 16 studies found a benefit; 2 found none. Strongest study: a pooled analysis of several trials. Trials that found it ran as little as 8 weeks, typically 11.
A meta-analysis pooling randomized and non-randomized human studies, with 1,021 people in its cardiorespiratory endurance analysis, reported benefits for cardiorespiratory endurance. In a randomized trial of 120 participants, VO2max was higher than in the control group by 1.85 mL/kg/min in JRE-1 and 2.37 mL/kg/min in JRE-2.
Open the Physical Endurance Increase pageCompare with Cardio in general →Physical Strength IncreaseCardio in general: Medium · 4 trialsSome evidence it helpsSize of effect: Not known
Some human studies found a benefit. More research could change this.
8 of 9 studies found a benefit; 1 found none. Strongest study: a pooled analysis of several trials. Trials that found it ran as little as 8 weeks, typically 10.
A meta-analysis pooling randomized and non-randomized human studies reported benefits for jumping. In a randomized trial of 34 participants, the RS group improved from baseline on the 3-min step test, sit-up test, grip strength and sit and reach test.
Open the Physical Strength Increase pageCompare with Cardio in general →Flexibility ImprovementCardio in general: 2 trialsSome evidence it helpsSize of effect: Not known
Some human studies found a benefit. More research could change this.
4 of 5 studies found a benefit; 1 found none. Strongest study: a pooled analysis of several trials. Trials that found it ran as little as 8 weeks, typically 12.
A pooled analysis of randomized and non-randomized human studies found beneficial effects of jump-rope training on range of motion. In an RCT of 34 participants, the rope-skipping group improved on the sit-and-reach test from baseline.
Open the Flexibility Improvement pageCompare with Cardio in general →Resting Heart Rate ImprovementCardio in general: Medium · 3 trialsSome evidence it helpsSize of effect: Not known
Some human studies found a benefit. More research could change this.
4 of 5 studies found a benefit; 1 found none. Strongest study: a pooled analysis of several trials. Trials that found it typically ran 12 weeks.
Open the Resting Heart Rate Improvement pageCompare with Cardio in general →Social Function ImprovementSome evidence it helpsSize of effect: Not known
Some human studies found a benefit. More research could change this.
All 3 studies with a clear result found a benefit. Strongest study: a randomized controlled trial. A trial found it after a single session.
Open the Social Function Improvement pageStress Resilience ImprovementCardio in general: Medium · 3 trialsSome evidence it helpsSize of effect: Not known
Some human studies found a benefit. More research could change this.
All 3 studies with a clear result found a benefit. Strongest study: a randomized controlled trial.
Open the Stress Resilience Improvement pageCompare with Cardio in general →Antidepressant EffectCardio in general: Medium · 25 trialsSome evidence it helpsSize of effect: Not known
Some human studies found a benefit. More research could change this.
All 2 studies with a clear result found a benefit. Strongest study: a randomized controlled trial.
Open the Antidepressant Effect pageCompare with Cardio in general →
Only reported by users, not studied: Muscle Recovery Acceleration, Posture Improvement, and Cellular Energy Support.
What to expect
Social Function Improvement was measured after a single session. Other reported benefits were assessed at the end of training programmes: the earliest findings followed 6 to 12 weeks, while the typical programmes associated with changes ran 8 to 12 weeks. These are study measurement points, not a timetable for when an effect begins.
Also studied in people with 12 health conditions
How strong the evidence is in each group. This is research, not a treatment recommendation.
ObesityCardio in general: Medium · 11 trialsSome evidence it helpsSize of effect: Not known
Some human studies found a benefit. More research could change this.
All 9 studies with a clear result found a benefit.
A 2025 randomized trial in 129 reported improvements in weight, WC, BFM, BFP, and lipid profile compared with a control group. A 2019 trial randomized 229 children aged 9 to 12 who were selected as overweight or obese to rope-skipping or nutrition-education groups.
Open the Obesity pageCompare with Cardio in general →OverweightCardio in general: Medium · 4 trialsNot enough evidence
Too few or too small studies to know if it works.
All 2 studies with a clear result found a benefit.
In overweight female college students, 4 weeks of dance-music jump-rope exercise was associated with within-group improvements in VC and BMI, but the changes did not differ significantly from stationary cycling.
Open the Overweight pageCompare with Cardio in general →ADHDCardio in general: 2 trialsNot enough evidence
Too few or too small studies to know if it works.
All 2 studies with a clear result found a benefit.
An 8-week randomized trial in 55 children with ADHD found improvements in working memory and cardiorespiratory fitness after rope-skipping exercise. A separate 12-week randomized trial of combined exercise in 12 children found improvements in physical fitness and epinephrine levels.
Open the ADHD pageCompare with Cardio in general →Anxiety Disorder (General)Cardio in general: Low · 5 trialsNot enough evidence
Too few or too small studies to know if it works.
The one study found a benefit.
In a 2023 quasi-experimental study, rope skipping over 3 weeks decreased SAS scores in 234 quarantined college students with mild to moderate anxiety (SAS 50-69).
Open the Anxiety Disorder (General) pageCompare with Cardio in general →Arthritis (General)Not enough evidence
Too few or too small studies to know if it works.
The one study found a benefit.
A 2013 randomized trial in 54 people with arthritis found improved leg muscle strength and no increase in pain during a weight-bearing exercise program that included rope skipping.
Open the Arthritis (General) pageDepressionNot enough evidence
Too few or too small studies to know if it works.
The one study found a benefit.
A 3-week quasi-experimental study in 234 quarantined college students with mild to moderate depression (SDS 50-69) found decreased SDS scores.
Open the Depression pageIntellectual DisabilityNot enough evidence
Too few or too small studies to know if it works.
The one study found a benefit.
A 2023 randomized trial studied Jump Rope Training in 34 adolescents with moderate intellectual disability.
Open the Intellectual Disability pageLeukemiaNot enough evidence
Too few or too small studies to know if it works.
The one study found a benefit.
A 2022 pilot quasi-experimental study in 10 people with leukemia reported improved gross motor and neuromuscular performance after a targeted exercise program that included jump rope.
Open the Leukemia page
Studied only as cardio in general, not tested in jump rope training yet
These results come from studies of cardio as a whole. No study of jump rope training has looked at them yet.
Sleep Quality Improvement (Medium · 14 trials) · Parkinson's Disease (Medium · 8 trials) · Respiratory Health Support (Medium · 7 trials) · Oxygen Utilization Improvement (High · 6 trials) · Working Memory Improvement (Medium · 6 trials) · Chronic Pain Reduction (Medium · 6 trials) · and 10 more
Before you try it
What studies and reports say about side effects and who it may not suit.
- Side effects
With weak evidence: Joint Pain (Arthralgia), Tendinopathy, Muscle Strain, and Muscle Breakdown (Rhabdomyolysis).
- May not suit you if you have
- Acute Injury, Heart Disease (General), Osteoporosis, Recent Heart Attack (MI), Heart Arrhythmia, Pregnancy, and 2 more
- Some trials left out people with
- Heart Disease (General)
- Reported by users
- Muscle Ache (Myalgia) (8 posts), Pain (8 posts), Injury Risk Increase (6 posts), Bruising (Ecchymosis), and 1 more
- Also listed for cardio in general
- Acute Febrile Illness · Aortic Aneurysm · Long QT Syndrome · Recent Stroke · Rhabdomyolysis · Unstable Heart Disease (Unstable Angina / Decompensated Heart Failure) · CardiomyopathyPrecautions from the Cardio page. They are for cardio as a whole and may not all fit jump rope training.
General wellness information, not medical advice. Ask a doctor before you start, especially if you take medicines or have a health condition.
How people do it
A gentle start, then what the studies used.
- Start with
- 3 minutes (Active Recovery Jump Rope)A gentle start based on the easiest variation, not on a study.
- What the studies ran
- 8 weeks
- Longest session studied
- 3 minutes (Active Recovery Jump Rope)Not a target and not a safe limit: past it there is no evidence either way.
The expert view shows every study, dose protocol and source.
Effects
42 listedStart here
Most likely to help, from the evidence we have
- →Weight Management SupportCertaintyMediumSourceRCTlong-term8 cited studies · 1 other source
A meta-analysis pooling randomized and non-randomized human studies reported benefits across body mass index and fat mass, among other outcomes. In a randomized trial of 129 people with obesity, weight improved in the FR–RS, RS and FR groups compared with the control group (MD -1.5 kg).
- →Physical Endurance IncreaseCertaintyMediumSourceRCT15 cited studies · 2 other sources
A meta-analysis pooling randomized and non-randomized human studies, with 1,021 people in its cardiorespiratory endurance analysis, reported benefits for cardiorespiratory endurance. In a randomized trial of 120 participants, VO2max was higher than in the control group by 1.85 mL/kg/min [1.14, 2.57] in JRE-1 and 2.37 mL/kg/min [1.65, 3.08] in JRE-2.
- →Physical Strength IncreaseCertaintyMediumSourceRCT9 cited studies · 1 other source
A meta-analysis pooling randomized and non-randomized human studies reported benefits for jumping. In a randomized trial of 34 participants, the RS group improved from baseline on the 3-min step test, sit-up test, grip strength and sit and reach test.
- →Flexibility ImprovementCertaintyMediumSourceRCT5 cited studies
A pooled analysis of randomized and non-randomized human studies found beneficial effects of jump-rope training on range of motion. In an RCT of 34 participants, the rope-skipping group improved on the sit-and-reach test from baseline.
- →Resting Heart Rate ImprovementCertaintyMediumSourceRCT4 cited studies · 1 other source
A pooled analysis of randomized and non-randomized human studies found beneficial effects of jump-rope training on resting heart rate. In an RCT of 120 participants, resting heart rate decreased by MD -2.5 b.p.m [-3.96, -1.03] in one intervention group compared with the control group.
- →Stress Resilience ImprovementCertaintyMediumSourceClinical3 cited studies
In an RCT of 195 participants, DASS-21 stress scores in the combined group fell from 11.05(4.10) to 8.02(3.61), a change of MD -3.03 points. A quasi-experimental study of 71 participants also reported a decrease of MD -0.38 points after rope jumping.
Medium probability(4)
- →Antidepressant EffectCertaintyMediumSourceClinical2 cited studies
In a randomized trial of 195 participants, the combined group’s DASS-21 depression score fell from 10.66(3.65) to 7.55(3.33) (MD -3.11 points). A quasi-experimental study of 234 participants also found lower post-test depression scores in its groups, including a decrease from 58.81±3.92 to 55.85±2.98 in the RSG.
- →Anxiety ReductionCertaintyMediumSourceClinical2 cited studies
In a randomized trial of 195 participants, the combined group’s DASS-21 anxiety score fell from 10.65(3.58) to 7.87(3.48) (MD -2.78 points). A quasi-experimental study also found lower post-test anxiety scores in its exercise groups, including a decrease from 59.00±3.54 to 55.63±3.39 in the RSG.
- →Alertness IncreaseCertaintyMediumSourceClinical2 cited studies
In a randomized trial of 25 healthy participants, reaction time in the exercise group fell from 0.39 ± 0.04 s to 0.38 ± 0.05 s, while the control group showed no improvement. Another randomized trial reported a main effect of time for reaction time (F (1,22) = 4.202, p = 0.047).
- →Reaction Speed IncreaseCertaintyMediumSourceClinical2 cited studies
In a randomized trial of 60 healthy participants, both HIIT and MICT groups had shorter reaction times under incongruent conditions on the SCWT after the intervention. In another randomized trial, reaction time in the exercise group fell from 0.39 ± 0.04 s to 0.38 ± 0.05 s, while the control group showed no improvement.
Low probability(25)
- →Cholesterol Level ReductionCertaintyLowSourceRCT2 cited studies
An RCT of 129 participants with obesity reported an improvement in lipid profile, with an effect of MD -0.24 mmol/L. Another RCT reported LDL-C reductions in the intervention groups, including a between-group difference of MD -0.19 mmol/L [-0.3, -0.09].
- →Triglyceride Level ReductionCertaintyLowSourceRCTconflicting findings3 cited studies
Findings differ: an RCT of 120 participants found triglycerides decreased within both intervention groups but no significant differences versus the control group. Another RCT reported a decrease with RS exercise, while an RCT of 129 participants found reductions only in the FR and FR–RS groups compared with the control group.
- →Insulin Sensitivity ImprovementCertaintyLowSourceRCTconflicting findings2 cited studies · 1 other source
In a randomized trial of 120 people with obesity, HOMA-IR decreased in both intervention groups compared with the control group (JRE-1 vs CON MD: −0.55; JRE-2 vs CON MD: −0.59). Studies disagree: a separate randomized trial found that fasting insulin was among the measures that did not improve.
- →Blood Glucose Level SupportCertaintyLowSourceRCTconflicting findings2 cited studies
In a randomized trial of 120 people with obesity, fasting blood glucose decreased in both intervention groups compared with the control group (JRE-1 vs CON MD: −0.35 mmol/L; JRE-2 vs CON MD: −0.32 mmol/L). Studies disagree: a separate randomized trial listed fasting plasma glucose among the measures that did not improve.
- →Blood Pressure SupportCertaintyLowSourceRCTconflicting findings3 cited studies · 1 other source
In an RCT of 120 participants with obesity, systolic blood pressure decreased by MD -2.78 mmHg [-4.63, -0.94] in one intervention group. Findings differ: a pooled analysis of randomized and non-randomized human studies found no significant jump-rope-training effects on systolic-diastolic blood pressure.
- →Cognitive Function ImprovementCertaintyLowSourceClinicallong-term5 cited studies · 1 other source
In a randomized trial of 96 participants, the exercise group had faster Flanker task reaction times across overweight, obese and normal-weight groups; the reported effect was -35%. A separate randomized trial found improved executive control network efficiency in both HIIT and MICT groups after the intervention.
- →Mood ImprovementCertaintyLowSourceClinical6 cited studies · 1 other source
A quasi-experimental study of 160 participants found a 33-point pre-to-post increase in classroom academic emotion scores, where higher scores indicate more positive emotion. Results are mixed: in a randomized trial of 59 participants, enjoyment levels did not differ between or within exercise groups.
- →Emotional Regulation ImprovementCertaintyLowSourceClinical1 cited study
In an RCT of 195 participants, emotion-regulation-strategy scores in the combined group increased by MD 14.3 points after the intervention.
- →Balance ImprovementCertaintyLowSourceClinical4 cited studies
In an RCT of 16 participants, LDC scores rose from 49.50±5.71 to 67.37±5.87 in the exercise group and from 50.13±3.44 to 58.12±3.17 in the control group, with a significant interaction. A quasi-experimental study also found a higher composite score in the NSSG than in the SSG and CNTG.
- →Physical FunctionCertaintyLowSourceClinical3 cited studies · 1 other source
In a randomized trial, the recorded time fell from 10.57 ± 0.35 s to 10.23 ± 0.27 s in the exercise group and from 10.41 ± 0.22 s to 10.17 ± 0.22 s in the control group; there were no intergroup differences (P > 0.05).
- →Memory ImprovementCertaintyLowSourceClinical2 cited studies
A randomized trial of 55 participants found increased accuracy on the 1-back task after the intervention (SMD 0.595). In another randomized trial, total DST scores increased after the intervention in both HIIT and MICT groups.
- →Body Composition ImprovementCertaintyLowSourceClinicalconflicting findings9 cited studies · 1 other source
In a randomized trial of 96 participants with overweight or obesity, average BMI decreased about 10% and 11% in the OV-E and OB-E groups. Another randomized trial found a fat-mass decrease of 2.3 kg in the JR-HIIT group; studies disagree, as a separate trial ranked BMI-SDS change from greatest to least as combined intervention, exercise intervention, and nutrition education.
- →Cardiovascular Health SupportCertaintyLowSourceClinical2 cited studies · 1 other source
An RCT of 52 participants reported a Ruffier Index change of MD -0.73 points. Findings differ on other measures: an RCT of 54 participants found no changes in heart rate or perceived exertion after training.
- →Coordination ImprovementCertaintyLowSourceClinical2 cited studies · 1 other source
In a 10-week quasi-experimental study of 60 participants, total KTK scores increased by 8.29% in the rope-skipping group, compared with 1.89% in the control group. A separate quasi-experimental study of 10 participants reported a mean body-coordination change of 8.09 points.
- →Sleep Onset ImprovementCertaintyLowSourceClinical1 cited study
In a quasi-experimental study of 55 participants, average sleep-onset latency was MD -14.979 minutes in the exercise groups compared with the control group.
- →Concentration ImprovementCertaintyLowSourceClinical2 cited studies
A quasi-experimental study of 60 healthy participants found a significant between-group difference only in the TN-E category; the reported effect was 5.86%. This result is limited to that category rather than indicating an effect across all categories.
- →Bone Health ImprovementCertaintyLowSourceClinicalconflicting findingsnot used for recommendations3 cited studies
A randomized trial of 60 participants found a 7.14% increase in bone mineral density in the freestyle rope skipping group, with a small effect size. Studies disagree: a meta-analysis pooling randomized and non-randomized human studies found no significant effect on bone mass, while a quasi-experimental study found higher calcaneal bone density among girls who took part in weekly rope skipping.
- →Blood Flow ImprovementCertaintyLowSourceTheoreticalnot used for recommendations1 other source
Expert guidance suggests regular jump rope promotes endothelial function and peripheral blood flow and reduces arterial stiffness.
- →Improve Heart Rate Variability (HRV)CertaintyLowSourceTheoreticalnot used for recommendations1 other source
Expert guidance suggests regular aerobic exercise such as jump rope can improve HRV, indicating better autonomic balance and cardiovascular health.
- →Proprioception ImprovementCertaintyLowSourceTheoreticalnot used for recommendations1 other source
Expert guidance suggests the rhythmic, coordinated footwork of jump rope enhances proprioceptive feedback and lower-limb awareness.
- →Thermoregulation ImprovementCertaintyLowSourceTheoreticallong-termnot used for recommendations1 other source
Expert guidance suggests regular high-intensity cardio such as jump rope can enhance sweat efficiency and heat dissipation over time.
- →Vagal Tone ImprovementCertaintyLowSourceTheoreticallong-termnot used for recommendations1 other source
Expert guidance suggests aerobic training can improve parasympathetic tone and HRV, particularly with consistent moderate-intensity sessions.
- →Longevity and Anti-Aging SupportCertaintyLowSourceTheoreticallong-termnot used for recommendations1 other source
Expert guidance describes regular vigorous exercise such as jump rope as associated with reduced all-cause mortality and increased healthspan.
- →Mitochondrial Function SupportCertaintyLowSourceTheoreticallong-termnot used for recommendations1 other source
Expert guidance suggests high-intensity aerobic training increases mitochondrial biogenesis and oxidative capacity in skeletal muscle.
- →Physical Energy IncreaseCertaintyLowSourceTheoreticalnot used for recommendations1 cited study · 1 other source
Studies did not support an increase in physical energy. A cohort study of 486 participants found that subjective physical activity increased, but the change did not differ significantly between groups (all p > 0.05).
Very low probability(6)
- →HDL Cholesterol IncreaseCertaintyVery lowSourceRCTnot used for recommendations1 cited study
Studies did not support an increase in HDL-C: an RCT of 129 participants with obesity reported a change of MD -0.01 mmol/L.
- →Analgesic EffectCertaintyVery lowSourceClinicalnot used for recommendations1 cited study
Studies did not support a pain-reducing effect in people with arthritis: an RCT found that pain did not increase during the fitness and exercise programme, which was well tolerated.
- →Lung Capacity ImprovementCertaintyVery lowSourceClinicalnot used for recommendations1 cited study
Human studies have not established a lung-capacity benefit.
- →Appetite Increase (Desired)CertaintyVery lowSourceClinicalnot used for recommendations1 cited study
The tested effect was not supported as a general response: in a quasi-experimental study of 26 participants, appetite in females increased from 13 mm immediately after exercise to 30 mm 30 min after exercise, while it remained unchanged in males.
- →Inflammation ReductionCertaintyVery lowSourceTheoreticalconflicting findingsnot used for recommendations1 cited study · 1 other source
Studies did not support inflammation reduction: a randomized trial of 129 participants listed hs-CRP among the measures that did not improve, despite reporting MD -0.44 mg/L.
- →Fat Burning IncreaseCertaintyVery lowSourceTheoreticalnot used for recommendations1 cited study · 1 other source
Studies did not support increased fat burning. In a randomized trial of 36 participants, lipid oxidation rate was higher in WB-HIIT (2.04 ± 0.52) than in JR-HIIT (0.95 ± 0.36, p < 0.05).
3 more mentioned only by users
What to expect
Social Function Improvement was measured after a single session. Other reported benefits were assessed at the end of training programmes: the earliest findings followed 6 to 12 weeks, while the typical programmes associated with changes ran 8 to 12 weeks. These are study measurement points, not a timetable for when an effect begins.
Conditions it's used for
Complaints and diagnoses people take it for12 listedMost likely to help, from the evidence we have
- →ObesityCertaintyMediumSourceRCT9 cited studies
A 2025 randomized trial in 129 reported improvements in weight, WC, BFM, BFP, and lipid profile compared with a control group. A 2019 trial randomized 229 children aged 9 to 12 who were selected as overweight or obese to rope-skipping or nutrition-education groups.
Low probability(11)
- →OverweightCertaintyLowSourceRCT2 cited studies
In overweight female college students, 4 weeks of dance-music jump-rope exercise was associated with within-group improvements in VC and BMI, but the changes did not differ significantly from stationary cycling.
- →ADHDCertaintyLowSourceClinical2 cited studies
An 8-week randomized trial in 55 children with ADHD found improvements in working memory and cardiorespiratory fitness after rope-skipping exercise. A separate 12-week randomized trial of combined exercise in 12 children found improvements in physical fitness and epinephrine levels.
- →Anxiety Disorder (General)CertaintyLowSourceClinical1 cited study
In a 2023 quasi-experimental study, rope skipping over 3 weeks decreased SAS scores in 234 quarantined college students with mild to moderate anxiety (SAS 50-69).
- →Arthritis (General)CertaintyLowSourceClinical1 cited study
A 2013 randomized trial in 54 people with arthritis found improved leg muscle strength and no increase in pain during a weight-bearing exercise program that included rope skipping.
- →DepressionCertaintyLowSourceClinical1 cited study
A 3-week quasi-experimental study in 234 quarantined college students with mild to moderate depression (SDS 50-69) found decreased SDS scores.
- →Intellectual DisabilityCertaintyLowSourceClinical1 cited study
A 2023 randomized trial studied Jump Rope Training in 34 adolescents with moderate intellectual disability.
- →LeukemiaCertaintyLowSourceClinical1 cited study
A 2022 pilot quasi-experimental study in 10 people with leukemia reported improved gross motor and neuromuscular performance after a targeted exercise program that included jump rope.
- →Diabetes Type 2CertaintyLowSourceTheoreticalnot used for recommendations1 other source
Jump rope is proposed to support glycemic control and insulin sensitivity in type 2 diabetes; this is an expert-knowledge rationale rather than a reported clinical trial finding.
- →Metabolic SyndromeCertaintyLowSourceTheoreticalnot used for recommendations1 other source
High-intensity Jump Rope Training is proposed to address central obesity, dyslipidemia, hypertension, and insulin resistance; this rationale does not itself demonstrate a treatment effect.
- →Peripheral Artery DiseaseCertaintyLowSourceTheoreticalnot used for recommendations1 other source
Expert guidance describes supervised aerobic exercise, including low-impact jump-rope variants, as an approach to improve walking endurance and collateral circulation.
- →Sarcopenia (Muscle Loss)CertaintyLowSourceTheoreticalnot used for recommendations1 other source
The plyometric and weight-bearing nature of Jump Rope Training is proposed to help preserve lower-body muscle power and bone density with age.
Studied only as cardio in general, not tested in jump rope training yet
These results come from studies of cardio as a whole. No study of jump rope training has looked at them yet.
Sleep Quality Improvement (Medium · 14 trials) · Parkinson's Disease (Medium · 8 trials) · Respiratory Health Support (Medium · 7 trials) · Oxygen Utilization Improvement (High · 6 trials) · Working Memory Improvement (Medium · 6 trials) · Chronic Pain Reduction (Medium · 6 trials) · and 10 more
Side effects
4 listedHighest probability
- →Muscle StrainCertaintyLowSourceClinical1 cited study
A quasi-experimental study involving 26 participants recorded injuries in the rope-skipping group.
- →Joint Pain (Arthralgia)CertaintyLowSourceReference knowledge1 other source
Repeated impact from Jump Rope Training on hard surfaces can cause knee, ankle, or hip pain, especially with poor biomechanics or pre-existing joint issues.
- →TendinopathyCertaintyLowSourceReference knowledge1 other source
Repeated jumping can contribute to overuse tendon problems, particularly when training volume rises rapidly or recovery is inadequate.
- →Muscle Breakdown (Rhabdomyolysis)CertaintyLowSourceReference knowledge1 other source
Unaccustomed long or very intense Jump Rope Training sessions repeatedly load the calf muscles eccentrically and can rarely cause exertional rhabdomyolysis.
Don't do it if
When to skip it or get medical advice first8 listedHighest probability
- →Acute InjuryCertaintyLowSourceReference knowledgeTheoretical
Jumping places high mechanical stress on healing tissues. Acute ankle sprains, knee ligament injuries, and stress fractures should be fully rehabilitated before jump rope is resumed.
- →Heart Disease (General)CertaintyLowSourceReference knowledgeTheoretical
The high cardiovascular demand of jump rope can exacerbate unstable angina, decompensated heart failure, severe aortic stenosis, or uncontrolled arrhythmias, risking acute cardiac events.
- →OsteoporosisCertaintyLowSourceReference knowledgeTheoretical
Jump rope’s high-impact loading can cause vertebral or lower-extremity fractures in people with severe osteoporosis (T-score ≤ -2.5) or a history of fragility fractures.
- →Recent Heart Attack (MI)CertaintyLowSourceReference knowledgeTheoretical
High-intensity aerobic activity such as jump rope is contraindicated in the early recovery phase, typically <6 weeks after a heart attack, because of the risk of cardiac strain or arrhythmia.
- →Heart ArrhythmiaCertaintyLowSourceReference knowledgeTheoretical
The substantial cardiovascular demand of vigorous jumping can worsen an unstable or symptomatic arrhythmia. Clinical assessment is advised before this activity.
- →PregnancyCertaintyLowSourceReference knowledgeTheoretical
A changing center of gravity, increased joint laxity, and fall risk make jump rope unsafe during pregnancy, especially after the first trimester.
- →Post-Surgery RecoveryCertaintyLowSourceReference knowledgeTheoretical
Jumping increases intra-abdominal and systemic pressure, which may disrupt healing tissues or incisions after surgery.
Low probability(1)
- →Hypertension (High Blood Pressure)CertaintyLowSourceReference knowledgeTheoretical
Uncontrolled hypertension (resting systolic ≥180 mmHg or diastolic ≥110 mmHg) should be medically managed before high-intensity jump rope, which may cause dangerous blood pressure spikes.
Who the trials left out
Some trials of this practice did not take people with these conditions, so the studies say less about them. This is not a warning and does not show harm. Ask a clinician first.6 listedPubMed links (4)
Left out by one trial each (5)
- Cerebral Palsyleft out by 1 trial
PubMed links (1)
- Diabetes (General)left out by 1 trial
PubMed links (1)
- Down Syndromeleft out by 1 trial
PubMed links (1)
- Epilepsyleft out by 1 trial
PubMed links (1)
- Obesityleft out by 1 trial
PubMed links (1)
Also listed for cardio in general
Precautions from the Cardio page. They are for cardio as a whole and may not all fit jump rope training.
Acute Febrile Illness · Aortic Aneurysm · Long QT Syndrome · Recent Stroke · Rhabdomyolysis · Unstable Heart Disease (Unstable Angina / Decompensated Heart Failure) · Cardiomyopathy
Interactions
Combine with caution
Highest severity first
- →CaffeineTheoreticalCaution
Caffeine is a stimulant that increases heart rate and blood pressure; combined with high-intensity Jump Rope Training, it may precipitate cardiac arrhythmias, hypertensive crisis, or myocardial ischemia in susceptible individuals.
Okay to combine with
Highest probability of useful synergy
- →SupplementsCaffeineCertaintyMediumSourceReference knowledgePotentiating
Caffeine taken before exercise can modestly improve exercise performance, including endurance-related performance.
- →PracticesStrength TrainingCertaintyMediumSourceReference knowledgeComplementary
Combining Jump Rope Training with Strength Training supports complementary cardiorespiratory and muscular fitness benefits.
- →SupplementsBeta-AlanineCertaintyMediumSourceReference knowledgePotentiating
Beta-Alanine increases muscle carnosine levels, which buffer hydrogen ions during high-intensity Jump Rope Training and may delay fatigue.
- →PracticesMobility TrainingCertaintyMediumSourceReference knowledgeComplementary
Dynamic Mobility Training before Jump Rope Training can improve joint range of motion and reduce injury risk.
- →PracticesDynamic StretchingCertaintyMediumSourceReference knowledgeComplementary
A progressive Dynamic Stretching warm-up before jumping prepares the body for vigorous activity and can improve readiness for exercise.
- →SupplementsBCAACertaintyMediumSourceReference knowledgeComplementary
BCAA may reduce exercise-induced muscle damage and soreness, potentially supporting recovery between Jump Rope Training sessions.
Weakens or is weakened by
Highest probability
- →SupplementsBeta-AlanineCertaintyMediumSourceReference knowledgeDepleting
A pharmacology reference notes that beta-alanine-induced tingling may impair fine motor control and coordination during Jump Rope Training, potentially reducing workout efficiency.
- →PracticesStatic StretchingCertaintyMediumSourceTheoreticalCompetitive
Static Stretching for >60 sec per muscle before Jump Rope Training may temporarily reduce muscle power and increase injury risk.
- →PracticesStrength TrainingCertaintyMediumSourceTheoreticalCompetitive
Heavy Strength Training immediately before Jump Rope Training may cause neuromuscular fatigue that impairs coordination and power output.
How it works
The mechanisms this practice works through25 listed · 0 established- Anaerobic capacity and neural driveHigh-intensity interval training (HIIT)proposed
High-intensity intervals at 75-85% HRmax optimize anaerobic capacity and neural drive for explosive actions.
- Brain states conducive to learningNeurophysiologicalproposed
Differential rope skipping may induce brain states (increased alpha/theta activity) similar to those during NREM sleep or meditation, potentially enhancing memory consolidation.
- EEG brain activityCentral nervous systemproposed
Rope skipping with repetitive learning led to higher EEG power in alpha, theta, and beta bands during recovery compared to differential learning approaches, suggesting a more relaxed brain state.
- Epinephrine, catecholamine, endorphinsNeurotransmitter secretionproposed
Dormitory exercise stimulates the secretion of epinephrine and catecholamine neurotransmitters in the brain and makes the hypothalamus and pituitary gland secrete endorphins, which can make people feel happy and reduce levels of anxiety and depression.
- Excess post-exercise oxygen consumption (EPOC)Energy metabolismproposed
JR-HIIT produces significant EPOC (4.73 ± 0.92 L) over 30 min post-exercise, contributing to increased energy expenditure and fat loss.
- Frontopolar, central, and parietal lobesCentral autonomic network (CAN)proposed
The study suggests involvement of the central autonomic network in the interaction between brain and heart signal irregularity following rope skipping with additional movement noise.
- Heart rate variabilityCardiovascularproposed
A single 3-min bout of rope skipping significantly altered HRV parameters (meanRR, meanHR, NN50, pNN50) in all motor learning approaches, indicating cardiovascular strain.
- Holdemanellagut microbiomeproposed
RS intervention increased Holdemanella abundance, which was negatively correlated with lipid metabolism, potentially reducing lipid accumulation and body weight.
- Left dorsolateral prefrontal cortex (l-DLPFC)Prefrontal cortical activationproposed
Reduced oxy-Hb in l-DLPFC during incongruent Stroop trials after jump rope HIIT and MICT, interpreted by the authors as improved neural efficiency during task maintenance and performance
- Lower extremity muscles (ankle, knee, hip)Stretch-shortening cycleproposed
Jump rope training activates lower extremity muscles during eccentric contraction, storing elastic energy and producing high muscle forces.
- Lower limb muscle groups (thigh and calf)Stretch-shortening cycle (SSC)proposed
Rope skipping is a stretch-shortening cycle that stimulates muscle groups in the thigh and calf, improving both centrifugal and centripetal contraction abilities and high-power output over a short time.
- Lower-limb reactivity and foot-arch stiffnessNeuromuscular / plyometric stimulusproposed
The abstract proposes that jump rope acts as a plyometric stimulus improving power and stiffness, and reports that improvements in RSI and arch stiffness were associated with better 3-km time-trial performance. Mechanism was not directly measured in the abstract.
- Muribaculaceae and Lactobacillus abundanceGut microbiota modulationproposed
Rope-skipping was associated with decreased Muribaculaceae and Lactobacillus relative abundance and shifts in 7 predicted metabolic pathways versus control.
- Negative emotion transfer and cognitive restructuringPsychologicalproposed
Dormitory exercise transfers and disperses negative emotions (stress, anxiety, depression, etc.) and causes correct cognition and positive emotions, which improve an individual's resistance to anxiety and depression.
- Nucleus locus coeruleusLocus coeruleus-noradrenergic systemproposed
The authors hypothesize that rope skipping frequency (~2 Hz) may interfere via resonance with the pulse frequency (~2.5 Hz), potentially affecting autonomic nervous system function and related brain processes.
- Phosphocreatine storesPhosphocreatine systemproposed
Double unders deplete phosphocreatine stores; recovery occurs within 3 minutes due to phosphocreatine resynthesis.
- Speed and jump performancePlyometric trainingproposed
Quick stretch-shortening cycle contractions during repetitive jumps indicate plyometric training characteristics, which have been proved effective in improving speed and jump performance.
- Superoxide dismutase (SOD), glutathione peroxidase (GPx), total antioxidant capacity (TAC)Antioxidant defenseproposed
Jump rope exercise combined with dark chocolate increased serum antioxidant enzyme concentrations and total antioxidant capacity.
- Thiobarbituric acid reactive substances (TBARS)Lipid peroxidationproposed
Jump rope exercise combined with dark chocolate reduced serum TBARS, a marker of lipid peroxidation.
- Vital capacityCardiovascular and respiratoryproposed
Music jump rope exercise improved circulation of the cardiovascular system through dynamic movements and strengthened deep breathing by activating respiratory muscles, improving breathing circulation.
- attention allocationcognitiveproposed
Fancy rope-skipping's complex sensorimotor coordination and rhythmic timing may place unique demands on the brain's ability to efficiently distribute cognitive resources across multiple stimuli, enhancing attention allocation.
- dorsolateral prefrontal cortex, orbitofrontal cortex, frontopolar cortexprefrontal interpersonal neural synchronyproposed
Dyadic rope-skipping increased fNIRS-measured interpersonal neural synchrony during mutual cooperation across prefrontal channels; the authors link this to cooperation but did not test a mechanism.
- interbrain synchrony in frontal and central gamma bandsneural synchronyproposed
Phase locking value of interbrain synchrony measured after team-based rope skipping versus sitting; reported changes did not reach statistical significance.
- lower body (standing long jump) and upper body (hand grip)muscular strengthproposed
Jump rope exercise, especially freestyle, improves muscular strength through repetitive jumping and arm rotation.
- lower limb musclesstretch-shortening cycleproposed
Rope jumping is considered a stretch-shortening cycle exercise, which is key for generating explosive power and rapid movements.
Variations
5 documentedTypical protocol
63 protocolsEstimatedAcross every study of this practice, whatever the variation.
30 min · 3×/week
- Course
- 8 weeks
- Per week
- 90 min
- Rounds
- 3–5
- Heart-rate zone
- zone 3
- % of max heart rate
- 77.1–85% of max
- Sets
- 1.8–8.8
- Reps
- 1
- Intensity
- Moderate
- Format
- Group
- Supervision
- Instructor-led
Courses and single sessions · 51 repeated-course and 9 single-session protocols
97% of the corpus contributed
HIIT Jump Rope Intervals
Intermediate9/1010–25 min · Every other day
HIIT Jump Rope Intervals
Intermediate9/1010–25 min · Every other day10–25 min · Every other day
From studies- How often*
- Every other day
- Intensity
- High
- Time of day
- Any time
- Where
- Indoors or outdoors
- Research depth
- Moderate
This variation alternates short bursts of maximum-effort jumping with brief recovery periods to build cardiovascular fitness and explosive power. It is intended for intermediate exercisers looking to elevate their conditioning.
Equipment: jump rope
not for children,not in pregnancy,caution for older adults
As studied
10 protocolsEstimatedThe protocol the studies of this variation actually used.
10–25 min · 4×/week
- Course
- 8 weeks
- Rounds
- 5–9
- % of max heart rate
- 80–85% of max
- Sets
- 1
- Format
- Group
- Supervision
- Instructor-led
Courses and single sessions · 6 repeated-course and 2 single-session protocols
Derived from2433125224885735259648262860162239587327+5 more in Sources
How it's done6 steps · 3 cues · 3 common mistakes
A general description of the practice, not instruction or medical advice.
Steps
- Warm up with 3-5 minutes of easy jumping or dynamic stretching.
- Perform 30 seconds of high-speed jumping at 100-120+ jumps per minute.
- Rest completely or march in place for 30 seconds.
- Repeat the work-rest cycle for 4-8 sets.
- Progress by increasing work intervals to 60 seconds or decreasing rest to 15 seconds.
- Cool down with 3-5 minutes of slow jumping and lower-body stretching.
Cues
- · All-out effort during work intervals.
- · Use a timer or interval app to track sets.
- · Keep the core braced for stability.
Common mistakes
- Pacing the work interval instead of going all-out.
- Rounding the shoulders forward as fatigue sets in.
- Skipping the warm-up, increasing injury risk.
Studied protocols10 on file
- 25 min· 3×/week· 8 weeks· n=36· A repeated coursePMID 40259013
- 10 min· 3×/week· 12 weeks· Rounds 10, Sets 1· n=120· A repeated coursePMID 41272570
- 15 min· 7×/week· 4 weeks· n=1386· A repeated coursePMID 25964826
- 15 min· 14×/week· 16 weeks· n=160· A repeated coursePMID 42827757
- 3×/week· 8 weeks· Rounds 9, 80% of max· n=59· A repeated coursePMID 39994454
- 5×/week· 8 weeks· Rounds 5, 85% of max· n=60· A repeated coursePMID 41314272
Standard Steady-State Jump Rope
Beginner8/1015–30 min · 3 times a week
Standard Steady-State Jump Rope
Beginner8/1015–30 min · 3 times a week15–30 min · 3 times a week
Editorial- How often
- 3 times a week
- Intensity
- Moderate
- Time of day
- Any time
- Where
- Indoors or outdoors
- Research depth
- Minimal
The suggested cadence is 60-90 jumps per minute for 15-30 minutes, with short breaks as needed. Keep the bounce low—clearing the rope by 1-2 inches—and turn it with the wrists rather than the arms.
Equipment: jump rope
not in pregnancy,caution for older adults
How it's done6 steps · 3 cues · 3 common mistakes
A general description of the practice, not instruction or medical advice.
Steps
- Adjust the rope length: step on the midpoint with one foot; handles should reach your armpits.
- Hold handles at hip height with elbows close to your sides and palms facing forward.
- Begin with a basic bounce: jump with both feet together, clearing the rope by 1-2 inches.
- Maintain a steady cadence of 60-90 jumps per minute, breathing rhythmically.
- Keep your gaze forward and land softly on the balls of your feet with slightly bent knees.
- Continue for 15-30 minutes, taking short breaks as needed to shake out your arms.
Cues
- · Wrists, not arms, turn the rope.
- · Jump low and land soft.
- · Shoulders relaxed, core engaged.
Common mistakes
- Jumping too high, which wastes energy and increases impact.
- Arms drifting away from the body, shortening the rope arc.
- Landing flat-footed or with locked knees.
Studied protocols1 on file
- 25 min· n=32· Single sessionsPMID 35283739
Fancy Footwork & Tricks
Advanced7/1040–45 min · 3 times a week
Fancy Footwork & Tricks
Advanced7/1040–45 min · 3 times a week40–45 min · 3 times a week
From studies- How often*
- 3 times a week
- Intensity
- Moderate
- Time of day
- Any time
- Where
- Indoors or outdoors
- Research depth
- Moderate
Boxer steps, high knees, and cross-overs add coordination and agility challenges while engaging the brain-body connection. It is aimed at people who have mastered the basic bounce.
Equipment: jump rope
not for children,not in pregnancy,caution for older adults
As studied
13 protocolsEstimatedThe protocol the studies of this variation actually used.
40–60 min · 3×/week
- Course
- 10 weeks
- Per week
- 143 min
- Rounds
- 5
- Heart-rate zone
- zone 3
- % of max heart rate
- 71.3–79% of max
- Intensity
- Moderate
- Format
- Group
- Supervision
- Instructor-led
A repeated course
Derived from2650432429220384328238283482954635783780+8 more in Sources
How it's done6 steps · 3 cues · 3 common mistakes
A general description of the practice, not instruction or medical advice.
Steps
- Start with a basic bounce to establish rhythm.
- Introduce the boxer step: shift weight from one foot to the other, tapping the unweighted foot forward.
- Practice high knees: alternate driving knees up toward the chest with each rope turn.
- Attempt cross-overs: cross arms at the elbows in front of the body on one jump, then uncross on the next.
- String 2-3 tricks together in a sequence, focusing on smooth transitions.
- Practice for 20-45 minutes, prioritizing form and flow over speed.
Cues
- · Stay light on your feet.
- · Look ahead, not down at the rope.
- · Small, controlled movements.
Common mistakes
- Trying complex tricks before mastering the basic bounce.
- Holding breath during difficult sequences.
- Using excessive arm motion instead of wrist flicks for cross-overs.
Studied protocols13 on file
- 60 min· 3×/week· 12 weeks· n=12· A repeated coursePMID 26504324
- 45 min· 3×/week· 12 weeks· n=60· A repeated coursePMID 32823828
- 40 min· 5×/week· 6 weeks· n=48· A repeated coursePMID 34829546
- 45 min· 3×/week· 12 weeks· n=93· A repeated coursePMID 35783780
- 50 min· 3×/week· 8 weeks· n=34· A repeated coursePMID 37578101
- 45 min· 3×/week· 3 weeks· n=234· A repeated coursePMID 37692305
Active Recovery Jump Rope
Beginner7/103–10 min · As needed
Active Recovery Jump Rope
Beginner7/103–10 min · As needed3–10 min · As needed
Editorial- How often
- As needed
- Intensity
- Low
- Time of day
- Any time
- Where
- Indoors or outdoors
- Research depth
- Minimal
This easy, short-duration variation can serve as a warm-up or active recovery, lightly challenging coordination and promoting blood flow without causing fatigue. It is described as suitable for all levels, including on rest days or before a main workout.
Equipment: jump rope
not in pregnancy,caution for older adults
As studied
3 protocolsMeasuredThe protocol the studies of this variation actually used.
3 min
- Course
- 3 weeks
- Rounds
- 1–3
A repeated course
How it's done5 steps · 3 cues · 3 common mistakes
A general description of the practice, not instruction or medical advice.
Steps
- Perform a basic two-foot bounce at a very relaxed pace, around 60 jumps per minute.
- Keep the jumps low and the effort conversational; you should be able to talk easily.
- Incorporate gentle side-to-side or forward-backward shifts to mobilize the ankles.
- Continue for 3-10 minutes, stopping if you feel any strain or breathlessness.
- Use as a warm-up before strength training or as a movement break during a sedentary day.
Cues
- · Easy and rhythmic.
- · No breathlessness.
- · Just enough to feel warm.
Common mistakes
- Turning a recovery session into a workout by increasing intensity.
- Skipping it on rest days when light movement could aid recovery.
- Using poor form due to lack of focus.
Studied protocols4 on file
- 3 min· 3×/week· 3 weeks· Rounds 3· n=26· A repeated coursePMID 36612527
- 3 min· 7×/week· Rounds 1· n=10· A repeated coursePMID 30618664
- 5 min· n=30PMID 7421480
- n=1021PMID 36121177
Double Under Power Intervals
Expert6/104–10 min · 2 times a week
Double Under Power Intervals
Expert6/104–10 min · 2 times a week4–10 min · 2 times a week
From studies- How often
- 2 times a week
- Intensity
- Very high
- Time of day
- Any time
- Where
- Indoors or outdoors
- Research depth
- Minimal
The rope passes under the feet twice in a single jump, challenging lower-body power, reactive strength, and anaerobic capacity. This high-impact variation is intended for advanced athletes with excellent timing and conditioning.
Equipment: speed rope
not for children,not in pregnancy,caution for older adults
As studied
3 protocolsMeasuredThe protocol the studies of this variation actually used.
4–10 min
- Course
- 7 weeks
- Rounds
- 5
- Sets
- 5
A repeated course
How it's done6 steps · 3 cues · 3 common mistakes
A general description of the practice, not instruction or medical advice.
Steps
- Use a lightweight speed rope for faster rotation.
- Perform a single high, controlled jump, whipping the rope twice under your feet with fast wrist flicks.
- Land softly and reset before the next rep, or link multiple double unders together.
- Structure as intervals: 20 seconds of double unders, 10 seconds of rest, for 8 rounds (Tabata-style).
- Focus on maintaining a straight body line and absorbing the landing through the ankles and knees.
- Limit total double under volume to 4-15 minutes to manage fatigue and impact.
Cues
- · Jump high, whip fast.
- · Wrists drive the speed.
- · Stay hollow and tight.
Common mistakes
- Piking at the hips or donkey-kicking the feet back.
- Using a slow, heavy rope that can't rotate fast enough.
- Looking down, which rounds the back and disrupts timing.
Studied protocols5 on file
- 10 min· 5×/week· 6 weeks· n=26· A repeated coursePMID 27456637
- 10 min· 1×/week· 8 weeks· Rounds 5, Sets 5· n=52· A repeated coursePMID 41003613
- 4 min· 1×/week· n=34· A repeated coursePMID 28753624
- 10 weeks· A repeated coursePMID 38759034
- n=143· Single sessionsPMID 24852257
How to start
Community experience
Based on 263 public posts from Reddit, YouTube, Bluesky, and Hacker News.
What people report it did
16 outcomes mentioned across 263 public reports. A report often mentions several, so these counts do not add up to the total.
Reported benefits11
- Weight Management Support43 mentions
- Physical Endurance Increase42 mentions
- Physical Energy Increase27 mentions
- Body Composition Improvement16 mentions
- Mood Improvement15 mentions
- Physical Function15 mentions
- Coordination Improvement7 mentions
- Muscle Recovery Acceleration6 mentionsnot studied
- Posture Improvement6 mentionsnot studied
- Cellular Energy Support6 mentionsnot studied
- Physical Strength Increase5 mentions
Reported side effects5
- Muscle Ache (Myalgia)8 mentionsnot studied
- Pain8 mentionsnot studied
- Injury Risk Increase6 mentionsnot studied
- Bruising (Ecchymosis)not studied
- Dizzinessnot studied
What people report doing
Counted from public posts and videos, not from a survey. Each figure counts the posts that mentioned it — most reports say nothing about schedule.
How often8 mentions
Where3 mentions
When3 mentions
Session lengthas written
How long they've practisedas written
References
74 screened · 65 analysed · 67 listed below
Studies and sources cited on this page. Evidence quality varies — check the grade on each.
- Comparison of diet and exercise on cardiometabolic factors in young adults with overweight/obesity: multiomics analysis and gut microbiota prediction, a randomized controlled trial.MedComm (2020)2025RCTBn=129
- Integrating interval jump rope exercise into a school setting improve body composition, cardiorespiratory fitness and glycolipid metabolism parameters in adolescents with overweight and obesity: a randomized controlled trial.BMC Pediatr2025RCTBn=120
- Jump rope training effects on health- and sport-related physical fitness in young participants: A systematic review with meta-analysis.J Sports Sci2022Meta-analysisBn=1021
- Short-Term and Long-Term Effects of a Combined Intervention of Rope Skipping and Nutrition Education for Overweight Children in Northeast China.Asia Pac J Public Health2019RCTBn=229
- A school-based rope skipping program for adolescents: Results of a randomized trial.Prev Med2017RCTBn=731
- Outcomes of the Rope Skipping 'STAR' Programme for Schoolchildren.J Hum Kinet2015RCTBn=1386
- The impact of a freestyle rope-skipping intervention on resilience in junior high school students: the mediating role of self-efficacy.Front Psychol2026Quasi ExperimentalCn=90
- A retrospective, school-based, within-class quasi-experimental evaluation of a rhythm-coordination rope-skipping programme and 1-min rope-skipping performance in primary school children.Front Public Health2026Quasi ExperimentalCn=1156
- Fifteen-minute recess freestyle rope skipping enhances classroom attention in junior high school students in the context of healthy school development: mechanisms and implications.Front Psychol2026Quasi ExperimentalCn=160
- Can dyadic rope-skipping enhance cooperative behavior in female university students with depressive symptoms? Evidence from behavioral and fNIRS hyperscanning data.BMC Psychiatry2026RCTCn=110