Cerebral palsy, its impact, causes and rehabilitation with robots

robotic rehabilitation in infantile cerebral palsy

La child brain paralysis (PCI) is the most common cause of physical disability in childhood, affecting between 2 and 3 children out of every 1.000 live births. This chronic condition impacts not only the mobility of patients, but also their ability to fully participate in life. activities of daily living, influencing its physical development, cognitive y social. Despite the challenges it represents, advances in technologies such as social robotics are revolutionizing rehabilitation therapies, offering new tools to improve the quality of life of these children and their families. Rehabilitation with robots in infantile cerebral palsy is becoming more frequent.

In this article we explore what cerebral palsy is, how it affects those who suffer from it, what the current possibilities for rehabilitation are, and the transformative role of social robotics in this field.

What is infantile cerebral palsy?

Cerebral palsy is a group of disorders that affect movement and posture due to an injury or malformation in the immature brain, either during pregnancy, at birth or in the first years of life. Its most common characteristics include:

  • Spasticity: Muscle rigidity and exaggerated reflexes.
  • Dystonia: Involuntary movements or abnormal postures.
  • Ataxia: Problems with balance and coordination.

In addition, PCI may be associated with other conditions, such as cognitive difficulties, seizures, visual or hearing problems, and speech disorders.

Common causes of PCI:

  • Prematurity or low birth weight.
  • Maternal infections during pregnancy (e.g. rubella).
  • Complications during childbirth, such as lack of oxygen.
  • Early brain injuries.

Although there is no cure for PCI, early intervention and appropriate therapies can make a significant difference in the lives of patients.

Areas of life affected by cerebral palsy in children

PCI affects each child differently, depending on the type and severity of the condition. Key areas of impact include:

  1. Mobility:
    • Difficulty walking, running, or maintaining balance.
    • Problems in manipulating objects due to lack of fine motor coordination.
  2. Social interaction:
    • Limitations in participating in group games or activities due to motor or communication problems.
  3. Cognition and learning:
    • In some cases, difficulties concentrating, processing information or learning new skills.
  4. Personal autonomy:
    • Dependence on caregivers for daily activities such as dressing, eating, or going to the bathroom.

These challenges can have an emotional impact on both children and their families, underscoring the need for holistic and personalized interventions.

Traditional rehabilitation options

Traditional therapies for children with PCI typically include a combination of:

  • Physiotherapy: Improves muscle strength, flexibility and balance.
  • Occupational therapy: Helps develop skills for daily activities.
  • speech therapy: Improves communication and feeding.
  • Medical and surgical treatments: They include medications to reduce spasticity and, in some cases, orthopedic surgeries to improve posture and mobility.

Although these therapies are essential, they are often long, repetitive and require frequent travel, which can lead to demotivation for children and their families.

The role of robotics in pediatric rehabilitation. Rehabilitation with robots in infantile cerebral palsy.

The integration of technology into traditional therapies has given rise to the robotic rehabilitation, a rapidly growing field that leverages devices such as social robots y exoskeletons to improve therapeutic outcomes.

Advantages of robotics in rehabilitation:

  • Motivation: Children are attracted to robots, which increases their engagement in sessions.
  • Repeatability and precision: Robots can guide repetitive movements precisely, promoting neuroplasticity.
  • Remote access: Platforms like Inrobics Rehab® Virtual They allow therapies to be carried out from home, reducing the logistical burden for families.
  • Personalization: Robots can adapt to the specific needs of each child, offering tailored exercises.

Success stories:
In studies conducted with social robots such as those in Inrobics, it has been observed that children progress more quickly in motor skills and show greater satisfaction when participating in interactive therapies. Another example is the development of Atlas 2030 exoskeleton, which helps children with CP learn more natural walking patterns by taking advantage of brain plasticity during childhood.

New possibilities: tele-rehabilitation and virtual reality

In addition to physical robots, technologies such as virtual reality and artificial intelligence are opening up new possibilities:

  • Tele-rehabilitation: Remote supervision of therapies, facilitating access to children in rural areas.
  • Therapeutic video games: They promote the playful rehabilitation, improving coordination and muscle strength.

These tools complement traditional therapies, creating a more dynamic and engaging approach for patients.

The future of pediatric rehabilitation with robotics

The continued development of personalized robotic devices promises to further transform the field of neurorehabilitation. From exoskeletons designed for six-month-old babies to robots capable of adjusting therapies in real time, the future looks bright.

The key will be to combine these technologies with the support of specialized therapists, ensuring that therapies are accessible, effective and sustainable.

Cerebral palsy represents a significant challenge, but advances in social robotics and related technologies are redefining the possibilities for rehabilitation. These innovations are not only improving therapeutic outcomes, but also providing hope and quality of life for thousands of children and their families.

En InrobicsWe are proud to be at the forefront of this transformation, developing solutions that combine artificial intelligence and robotics to make rehabilitation more accessible, personalized and motivating.

Image by Ana Albendea

Ana Albendea

Journalist and audiovisual communicator from the Rey Juan Carlos University of Madrid, she has a career in the press and online media (culture and technology). She specialized in Corporate Communication and Advertising through a Master's degree at the Complutense University of Madrid. Since 2021, she has been researching and creating content on technology, artificial intelligence (AI) and robotics. She adapts her experience and knowledge in the AI ​​​​sector by applying it to the health sector and its professional audiences. Her commitment and admiration for storytelling stands out, with the common thread of her current professional career being to make known the potential of robotics, more specifically social robotics in the health sector. Creativity to promote and communicate the work of the company, which is none other than to improve the quality of life of people, generating a positive impact on society.
Image by Ana Albendea

Ana Albendea

Journalist and audiovisual communicator from the Rey Juan Carlos University of Madrid, she has a career in the press and online media (culture and technology). She specialized in Corporate Communication and Advertising through a Master's degree at the Complutense University of Madrid. Since 2021, she has been researching and creating content on technology, artificial intelligence (AI) and robotics. She adapts her experience and knowledge in the AI ​​​​sector by applying it to the health sector and its professional audiences. Her commitment and admiration for storytelling stands out, with the common thread of her current professional career being to make known the potential of robotics, more specifically social robotics in the health sector. Creativity to promote and communicate the work of the company, which is none other than to improve the quality of life of people, generating a positive impact on society.