Strength Training
What is it: A structured regimen using progressive, targeted exercises for safer mobility.AKA: Muscle Strengthening Exercises, Resistance Training, Strength Conditioning, Weight Training, Weightlifting- ⬤ Minimal research: Very little scientific study exists, with no or very few peer-reviewed studies. Insufficient data for conclusions.
- ⬤⬤ Limited research: Few studies exist, mostly small trials or case reports. Findings are preliminary and lack strong validation.
- ⬤⬤⬤ Moderately researched: Multiple studies, including mid-sized trials, exist. Some findings are replicated, but more research is needed.
- ⬤⬤⬤⬤ Well-researched: Supported by substantial evidence, including at least one large trial or meta-analysis.
- ⬤⬤⬤⬤⬤ Extensively studied: Numerous large studies and meta-analyses exist. Findings are widely accepted with strong scientific consensus.
- ⬤ Extremely Difficult to Access: Rare, experimental, or highly specialized. Requires multiple referrals, long wait times, travel, and strict follow-up.
- ⬤⬤ Difficult to Access: Limited to select centers with moderate barriers. Requires referral, potential travel, and wait times of weeks to months.
- ⬤⬤⬤ Moderately Accessible: Available in larger hospitals or clinics. Requires a basic referral, with moderate wait times and some coordination.
- ⬤⬤⬤⬤ Easy to Access: Widely available in most clinics. Minimal referral, short wait times, and simple preparation or follow-up.
- ⬤⬤⬤⬤⬤ Trivial to Access: Easily found in pharmacies or clinics. No referral needed, minimal wait, and straightforward access.
- ⬤ Up to $100
- ⬤⬤ Up to $500
- ⬤⬤⬤ Up to $2000
- ⬤⬤⬤⬤ Up to $10,000
- ⬤⬤⬤⬤⬤ More than $10,000
To calculate the reported effectiveness for a patient view, the model first analyses whether it can be ascertained that the person writing the review has had direct experience of the treatment for themselves or a loved one. If so, it then uses sentiment analysis to rate their view from 1-5 on how effective this treatment was for them, with 1 being the least effective, and 5 the most effective.
12 Resources
Referenced in this guide
40 Research papers
Referenced in this guide
12 Expert views
Contributed in this guide
37 Patient views
Contributed in this guide
Figure out what Strength Training means for you
Page contents
Basics: What you need to know
Strength training as a formalized treatment involves a carefully supervised program of progressive resistance exercises specifically designed to help individuals improve muscle function and overall mobility. By gradually increasing the load on muscles in a therapeutic setting, it aims to address the unique motor impairments and coordination challenges seen in the condition. Proper supervision ensures exercises are performed safely and effectively, minimizing the risk of injury and optimizing outcomes.
History and development
- Early Recognition: In the mid-20th century, therapists began noticing that targeted resistance work could help counteract muscle weakness.
- Landmark Research: Notable pioneers, such as Dr. James Gage, expanded on these observations in specialized clinics, setting foundations for formalized protocols.
- Therapeutic Shift: Rehabilitation centers started introducing structured strength regimens, moving from passive stretching to active, progressive muscle work.
- Role of Technology: The development of specialized weight machines and assistive devices allowed therapists to adapt exercises for improved safety.
- Guideline Formation: Over time, researchers documented strategies for frequency, intensity, and progression, making the approach increasingly evidence-based.
- Global Adoption: Many rehabilitation networks worldwide integrated these programs, offering credentialed professionals to supervise and personalize regimens.
What is known
- Improved Muscle Strength: Systematic resistance exercises have been shown to enhance limb control and core stability.
- Functional Gains: Better balance and ease in daily tasks are frequently reported when protocols are followed consistently.
- Secondary Benefits: Some participants experience heightened bone density and joint support, reducing the likelihood of future orthopedic issues.
- Psychological Upside: Enhanced self-confidence and motivation often accompany functional improvements, encouraging long-term adherence.
- Low Trauma Risk: When monitored correctly, gradual loading minimizes excessive strain, lowering the chance of overuse injuries.
- Symptom Sensitivity: Programs consider spasticity triggers, using strategies like longer rests or specialized weight machines.
What is not known
- Ideal Duration: The optimal length and frequency of training sessions remain a subject of ongoing research.
- Long-Term Outcomes: While short-term results are positive, the lasting effectiveness over decades is not fully established.
- Age-Specific Protocols: Guidelines for varying age groups and severity levels require more comprehensive data.
- Best Equipment: Whether free weights or machine-based systems yield superior results is not unanimously agreed upon.
- Neurological Impact: The exact ways in which these exercises influence brain-muscle coordination have yet to be fully clarified.
- Individualized Thresholds: Determining a precise progression rate without risking fatigue or injury is still under study.
- Progressive Overload: Gradually increases resistance to challenge muscles without causing undue strain.
- Therapeutic Customization: Exercises are chosen based on individual motor deficits and functional goals.
- Controlled Movements: Emphasizes slow, deliberate motions to build strength while reducing spasticity.
- Adaptive Equipment: Specialized machines and assistive devices accommodate muscle imbalances.
- Professional Monitoring: Therapists track performance and adjust loads to avoid overexertion.
- Consistent Tracking: Regular assessments measure progress, guiding safe and effective exercises.
- Muscle Fatigue: Overtraining can lead to excessive soreness and fatigue.
- Joint Stress: Incorrect form or too much weight risks joint strain.
- Spasticity Flare-Ups: Rapid movements or excessive load may trigger muscle tightness.
- Equipment-Related Injuries: Use of poorly fitted devices can lead to strains or falls.
- Possible Pain Increase: Poor supervision or technique may exacerbate existing pain.
- Motivation Concerns: Mild discouragement may occur if results are not immediate.
- Variability in Research: Some studies question the uniformity of evidence and call for standardized protocols.
- Skill vs. Strength: Certain experts argue skill-based trainings might be equally vital as pure strength work.
- Implementation Costs: Formalized programs require specialized equipment and expertise, raising accessibility concerns.
- Motivation Barriers: Some worry about adherence due to discomfort or slow progress.
- Spasticity Debate: Others question whether stiff muscles might worsen if not balanced with other therapies.
Patient views
Experiences
- Patients report improved mobility, balance, and strength, making daily activities easier.
- Many find strength training boosts confidence and reduces stress.
- Some note significant weight loss and better endurance over time.
- It helps manage pain and spasticity, improving overall quality of life.
Challenges
- Some experience increased spasticity or muscle jerks during training.
- A few find it hard to adapt exercises to their specific needs.
- Cost and accessibility of trainers or gyms can be barriers.
- Overtraining or improper form can lead to injuries or setbacks.
Tips
- Work with trainers experienced in neurological conditions for tailored plans.
- Start slow, focus on form, and gradually increase intensity.
- Combine strength training with stretching to manage spasticity.
- Consistency and listening to your body are key to progress.
To calculate the reported effectiveness for a patient view, the model first analyses whether it can be ascertained that the person writing the review has had direct experience of the treatment for themselves or a loved one. If so, it then uses sentiment analysis to rate their view from 1-5 on how effective this treatment was for them, with 1 being the least effective, and 5 the most effective.
Patient view
I have similar levels of CP a foot twist and my muscles in my legs are weaker. I started going to the gym a few months ago and it has helped tremendously. I went for weight loss but after the initial pain from not using my muscles in a very long time, things became easier and I can do a lot of the strength training and cardio that other people can do. I do get tired quickly but that is improving.
I have noticed an increase in muscle mass in my arms mostly. I have pretty normal upper body strength so that makes it easier
May 2024 • /r/CerebralPalsy
Patient view
Strength training has been very useful to me as an adult. Pilates helped a lot with back pain and doing glute work, especially deadlifts, improved stability.
May 2024 • /r/CerebralPalsy
Expert views
What they liked
- Experts appreciate strength training's ability to improve muscle strength in individuals with cerebral palsy.
- Strength training is seen as a socially engaging activity, especially for adolescents and young adults.
- It is considered a green-light intervention, meaning it is evidence-based and effective for muscle health.
- Experts value its potential to enhance confidence and perceived mobility in participants.
What they didn't like
- Experts note that strength training alone may not improve complex motor tasks like walking.
- Some studies show no significant improvement in walking speed or endurance.
- Concerns exist about strengthening the wrong muscles if not properly targeted.
- Experts highlight the need for more research on long-term effects and mental health outcomes.
What are they unsure about
- Experts are uncertain about the optimal duration and frequency of strength training for best results.
- There is limited understanding of how strength training impacts quality of life in adults with cerebral palsy.
- Experts question whether muscle changes translate to functional improvements.
- Uncertainty exists about the best ways to combine strength training with other therapies.
12 expert views
Expert view
Nick Taylor's study explored whether individualized progressive resistance strength training could improve mobility-related function in young people with diplegic cerebral palsy (CP). The research involved 48 participants aged 14 to 22 years, who underwent a 12-week program of strength training or usual care. While participants who did strength training became stronger, objective measures of mobility did not show improvement. However, participants perceived their mobility had improved, as reflected in self-reported scales. This suggests that strength training may not directly enhance complex motor tasks like walking but could offer psychosocial benefits, such as increased confidence.
September 2013 • DMCN Journal YouTube Channel
Expert view
Connor Johnstone emphasizes the importance of strength training for individuals with cerebral palsy, highlighting its lifelong impact on muscle function and overall quality of life. He notes that muscles are highly adaptable (plastic), and even with cerebral palsy, there is significant potential for improvement through resistance exercises. Connor also discusses the flexibility in settings for strength training, ranging from gyms to using body weight or adapted equipment, making it accessible for individuals across different levels of motor function. He encourages clinicians and researchers to explore creative ways to implement these interventions and stresses the need to stay updated with the latest evidence.
May 2023 • ResearchWorks Podcast
What and who it targets
Patients post-surgical intervention
Rebuilds strength and enhances recovery
Adults with mild motor limitations
Improves functional mobility and independence
Individuals with spasticity
Targets muscle imbalances and weakness
Children with motor impairments
Optimal neuroplasticity and motor development potential
Relevant research
How much evidence on this?
- Over 20 years of research on strength training.
- Numerous studies, including systematic reviews and meta-analyses.
- Consistent findings across diverse populations and settings.
- High-quality randomized controlled trials available.
Research focusing on
- Improves muscle strength and walking ability.
- No increase in spasticity reported post-training.
- Effective for children, adolescents, and adults.
- Researchers exploring optimal training protocols.
What needs more research?
- Long-term effects on mobility and function unclear.
- Impact on quality of life needs more study.
- Best practices for combining with other therapies unknown.
- Effects on different CP subtypes underexplored.
- ⬤ Minimal research: Very little scientific study exists, with no or very few peer-reviewed studies. Insufficient data for conclusions.
- ⬤⬤ Limited research: Few studies exist, mostly small trials or case reports. Findings are preliminary and lack strong validation.
- ⬤⬤⬤ Moderately researched: Multiple studies, including mid-sized trials, exist. Some findings are replicated, but more research is needed.
- ⬤⬤⬤⬤ Well-researched: Supported by substantial evidence, including at least one large trial or meta-analysis.
- ⬤⬤⬤⬤⬤ Extensively studied: Numerous large studies and meta-analyses exist. Findings are widely accepted with strong scientific consensus.
Research
This study tested a six-week home-based strength-training program for young people with spastic diplegic cerebral palsy who could walk independently or with aids. It measured the effects of the program on lower limb strength and physical activity, comparing 11 participants in the program to 10 controls.
The study found that participants in the strength-training program showed increased lower limb strength at six weeks and maintained these improvements at a 12-week follow-up. There were also trends suggesting better motor function in activities like standing, running, jumping, and stair climbing.
For individuals with cerebral palsy, this research suggests that a short, home-based strength-training program can improve muscle strength and potentially enhance daily activities like walking and climbing stairs. This could lead to better mobility and independence.
This study is reliable as it is a randomized controlled trial, which is a high standard for clinical research. It was published in a reputable journal focused on child neurology and developmental medicine, making it relevant to the field.
October 2003 • Developmental medicine and child neurology
Research
This paper reviewed the effectiveness of resistance training for the lower limbs in children and adolescents with spastic cerebral palsy. It compared training protocols from recent randomized controlled trials to guidelines for effective resistance training in typically developing children.
The study found insufficient evidence to confirm or deny the effectiveness of resistance training for children with cerebral palsy. It highlighted the need for future research to align training protocols with established guidelines for typically developing children.
For individuals with cerebral palsy or their caregivers, this paper suggests that while resistance training is commonly used, its effectiveness is not yet proven. It emphasizes the importance of tailoring training protocols to the specific needs of children with cerebral palsy.
This paper is a systematic review published in the reputable journal 'Physical Therapy,' which adds credibility. However, the findings are limited by the lack of conclusive evidence in the studies reviewed.
May 2011 • Physical therapy
Accessibility
- ⬤ Extremely Difficult to Access: Rare, experimental, or highly specialized. Requires multiple referrals, long wait times, travel, and strict follow-up.
- ⬤⬤ Difficult to Access: Limited to select centers with moderate barriers. Requires referral, potential travel, and wait times of weeks to months.
- ⬤⬤⬤ Moderately Accessible: Available in larger hospitals or clinics. Requires a basic referral, with moderate wait times and some coordination.
- ⬤⬤⬤⬤ Easy to Access: Widely available in most clinics. Minimal referral, short wait times, and simple preparation or follow-up.
- ⬤⬤⬤⬤⬤ Trivial to Access: Easily found in pharmacies or clinics. No referral needed, minimal wait, and straightforward access.
- ⬤ Up to $100
- ⬤⬤ Up to $500
- ⬤⬤⬤ Up to $2000
- ⬤⬤⬤⬤ Up to $10,000
- ⬤⬤⬤⬤⬤ More than $10,000
Method to access
- Available at specialized rehabilitation centers, hospitals, and clinics.
- Requires a referral or prescription for insurance claims in some cases.
- Online and telehealth consultations may help in planning at-home programs.
- At-home options include resistance bands, BOSU balls, and adaptive equipment.
Cost
- Individual physical therapy sessions range from $50 to $350 in the US.
- Adaptive equipment like resistance bands or BOSU balls costs $20–$150.
- Specialized equipment like Vive Folding Pedal Exercisers costs $50–$200.
- Costs may vary by region and equipment brand.
Insurance cover
- Often covered by health insurance or government programs in the US, UK, and Canada.
- Supplemental Security Income (SSI) may assist with costs in the US.
- Coverage varies; early intervention programs and non-profits may provide additional support.
Locations
- Special Strong offers adaptive fitness training in the US.
- Shriners Children's Hospitals provide rehabilitation services for cerebral palsy.
- Boston Children's Hospital and Mayo Clinic are renowned for cerebral palsy care.
- Other centers include Texas Children's Hospital and UCLA's Luskin Orthopaedic Institute.
Related clinical trials
Frequently asked questions
Key resources
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