Raise Awareness

Mi Historia con EP – Ian Rodriguez

Ian Rodriguez con guantes de boxeo

Me acuerdo que, a la edad de 10 años, miré los primeros temblores en mi mano derecha y mi marcha al caminar se sentía diferente. También quería entender qué le estaba pasando a mi cuerpo. 

Me diagnosticaron en el 2002, a la temprana edad de 25 años. Ahorita tengo 48. Así es que tengo 23 años luchando contra la Enfermedad de Parkinson (EP).

Llevo viviendo con Parkinson muchos años, pero nunca he dejado de buscar respuestas.

Desde mi diagnóstico, he querido saber más y tener más información acerca del Parkinson. Este soy yo. Encontré la Parkinson’s Foundation porque tiene mucha información y muchos recursos. Desde dar soluciones hasta tener mucha información y siempre disponible en Parkinson.org

Me enteré en la TV de que la Fundación estaba haciendo un estudio genético. Así encontramos PD GENEration: impulsado por la Parkinson’s Foundation en línea y me inscribí para participar. Cuando descubrí que la Fundación estaba realizando este estudio, supe que quería participar. Me sentí motivado a participar sólo porque quería aprender más acerca de mi Parkinson. Participar era una oportunidad de entender mejor mi propia historia.

PD GENEration: Impulsado por la Parkinson’s Foundation, es un estudio genético global que proporciona pruebas genéticas y consejería genética sin costo para las personas con Parkinson.

Mi experiencia con PD GENEration fue muy, muy fácil. nada de problemas. Llené la información de mi nombre y formulario en línea y después, me mandaron el kit a la semana.

Después de recibir mis resultados, la sesión de consejería genética me pareció muy interesante y me dio validez. Siempre pensé que la razón de que yo tuviera la enfermedad de Parkinson era ambiental, porque mis papás fueron agricultores en los años 1970s. Siempre pensé que habíamos estado expuestos a químicos relacionados con la EP. 

Los resultados me sorprendieron. Cuando descubrí que tenía variantes genéticas de la EP, me sorprendí. Nunca imaginé que tenía el gen desde niño. 

Tener respuestas reales ha cambiado mi forma de ver la enfermedad de Parkinson. PD GENEration me abrió una puerta al conocimiento que no tuve antes.

La sorpresa fue que de los siete principales genes relacionados con la EP para los que me testaron, salí positivo en dos. Entonces, básicamente, me explicó el genetista que tengo dos genes del Parkinson y eso me dejó pensando, “¡Wow!”

Me siento bien de saber más información sobre mi Parkinson. Ahora tengo un documento válido que demuestra que yo cargo el gen del Parkinson.

Para quien viva con Parkinson, les recomiendo mucho que participen en PD GENEration. ¿Por qué no saber más acerca de uno mismo? ¿Acerca de su Parkinson? 

Ian Rodriguez de pie junto a una máquina de ejercicios

Creo que este estudio es especialmente valioso para la comunidad de la EP porque en nuestra comunidad hispana, la investigación del Parkinson no siempre nos alcanza ni refleja. Muy a menudo, un diagnóstico es donde termina el recorrido de la EP para muchos. Un doctor te dice que es Parkinson y ya no hacemos nada más. 

Como hispanos, necesitamos participar en estudios como este. Nuestra comunidad merece tener acceso a la información y a oportunidades como PD GENEration. participar en las investigaciones es alzar la voz de los hispanos en la investigación.

PD GENEration fue una buena experiencia para mí. Recibí buenas noticias: las respuestas a las preguntas que quería saber acerca de mi Parkinson. 

Participar en este estudio tuvo un impacto en mi familia. Tengo dos hijas y ahora estoy pensando en su futuro. Participar no fue sólo para mí; fue para mi familia. Siento que participe en las investigaciones así hoy abre las puertas a las generaciones futuras. 

La investigación es esperanza.

Lea la historia de Ian en inglés

Los testimonios proporcionados por los participantes del estudio reflejan experiencias personales y no necesariamente representan las opiniones del patrocinador del estudio. No sustituyen el consejo médico, y los resultados del estudio pueden variar según las circunstancias individuales. Consulte siempre con su proveedor de atención médica antes de tomar cualquier decisión relacionada con su salud.

Al participar en PD GENEration, los participantes pueden descubrir nuevos conocimientos acerca de su genética, entender los riesgos de su familia y ayudar a beneficiar a las futuras generaciones. Aprenda más e inscríbase hoy.

Science News

New Molecule Designed to Block the Protein Buildup Behind Parkinson's

🧠 What will you learn in this article?

This article highlights a new study that found a potential way to treat the underlying cause of Parkinson’s disease, not just its symptoms. It discusses how:

  • In the brain, the abnormal clumping and spread of a protein called alpha-synuclein leads is tied to Parkinson’s. Current therapies address PD symptoms, not this process.

  • Researchers developed SK-129, a molecule that can stop these clumps from forming and spreading in various models of Parkinson’s.

  • In different models, SK-129 saved dopamine neurons and improved outcomes — protecting neurons even after damage began and boosting mouse survival while preventing movement impairment and brain inflammation.

Parkinson's Foundation Science News blogs

In Parkinson’s disease (PD), a protein called alpha-synuclein misfolds and clumps together inside brain cells. These clumps are thought to damage neurons over time and can spread from cell to cell, driving the disease forward. Currently, treatments for PD only manage symptoms — none can slow or stop this underlying process.

Scientists are working hard to find disease-modifying therapies for Parkinson’s. A new study published in Science Translational Medicine may offer a path forward. Researchers at the University of Denver and NYU Abu Dhabi — co-led by Sunil Kumar, PhD, a Parkinson's Foundation Stanley Fahn Junior Faculty Awardee — have developed a special molecule called SK-129 that shows promise in blocking alpha-synuclein from clumping and spreading in the brain. The Parkinson’s Foundation directly funded this work.

Think of alpha-synuclein clumping like a chain reaction: one misfolded protein causes the next one to misfold, and so on, eventually building up harmful deposits. SK-129 is designed to interrupt that chain reaction before it gets started.

Because the SK-129 molecule interacts with important regions of alpha-synuclein, it can latch onto the misfolded protein and prevent it from recruiting others into clumps. Importantly, it targets the toxic, clumped forms of the protein rather than the healthy form, which has normal functions in the brain.

What is SK-129 and how does it impact Parkinson’s?

In Parkinson's, a protein called alpha-synuclein clumps inside brain cells.

                                                                 ➡️

These clumps are thought to damage neurons and spread, making PD symptoms worse over time.

                                                                 ➡️

Researchers developed a molecule called SK-129 that can stop these clumps from forming and spreading — stopping a chain reaction before it starts.

“Our study is unique in that it targets the most toxic forms of α-synuclein — oligomers — offering a new way to significantly slow disease symptoms. This approach creates hope for disease-modifying therapies not only for Parkinson’s, but also for related disorders like Lewy body dementia. That gives us real hope that disease-modifying therapies for Parkinson’s are within reach.”

- Dr. Kumar, study lead and Parkinson’s Foundation research grantee

Key advantages of SK-129 are its size and shape. Other strategies to block alpha-synuclein clumping, such as antibodies, are large molecules that struggle to cross the blood-brain barrier (the protective layer between the bloodstream and the brain). SK-129 is small and compact enough to cross this barrier. Additionally, once in the brain, the molecule was able to stay there for multiple days, which is essential for sustained treatment.

Study Results

The research team tested SK-129 across a remarkably wide range of models — from human cells and patient-derived tissue to worm and mouse models of PD.

In worm models of PD, untreated worms lost most of their dopamine-producing neurons over time. Worms treated preventatively with SK-129 retained nearly all of them, along with restored movement and behavior. Critically, SK-129 may be more than a preventive measure. When given after disease had already set in — after about 30% of dopamine neurons had already been lost — it still rescued a significant number of remaining neurons. This is important because people with Parkinson’s are typically diagnosed after symptoms have already appeared.

In a mouse model of PD, untreated mice survived an average of about 175 days, with fewer than 20% surviving to 270 days. Those that survived showed severe movement problems. In contrast, mice treated with SK-129 had 100% survival to 270 days and showed no signs of movement impairment. Brain tissue from treated mice showed no harmful protein deposits or signs of brain inflammation.

To test the molecule in human samples, the researchers tested SK-129 using exosomes — tiny cellular packages — isolated from the blood of people with Parkinson’s. These exosomes carried misfolded alpha-synuclein that could trigger clumping in cells grown in a petri dish. Adding SK-129 blocked this process.

Another interesting finding was that SK-129 also blocked alpha-synuclein from clumping together with tau, a protein linked to Alzheimer’s disease. Tau is increasingly recognized as being important in Parkinson’s too; about half of people with PD also have tau-related brain changes, which can worsen both movement and cognitive symptoms. In the mouse model, treated mice showed no evidence of combined alpha-synuclein and tau deposits, while untreated mice did. In short, while SK-129 is designed to target harmful alpha-synuclein deposits, it also prevented alpha-synuclein from clumping with tau as well.

Highlights

  • Researchers developed a molecule, called SK-129, that can make it to the brain and attach to toxic forms of the protein associated with Parkinson’s called alpha-synuclein.

  • SK-129 latches onto the hallmark PD protein and prevents it from launching a clumping chain reaction.

  • In multiple models of PD (including cells, worms, mice and human-derived tissue), treatment with SK-129 prevented alpha-synuclein clumping and rescued signs of neurodegeneration.

  • SK-129 shows promising therapeutic properties, including the ability to effectively reach the brain, preferentially bind to toxic forms of alpha-synuclein, and remain in brain tissue for a prolonged period of time.

What Does This Mean?

While early, SK-129 has the potential to be a breakthrough Parkinson’s treatment. This study represents an important step toward a long-sought goal: a disease-modifying treatment that addresses the underlying cause of Parkinson’s disease instead of only symptoms.

This research supports a promising strategy at the forefront of Parkinson’s research: targeting the clumping and spread of alpha-synuclein, a suspected driver of PD progression. Earlier approaches have struggled because they were not specific enough, couldn’t enter the brain or didn’t last long enough in the brain to be effective.

Importantly, SK-129’s unique features have overcome many of these challenges, making it a promising potential therapy. Despite this progress, SK-129 still needs thorough safety testing and studies in more complex models before clinical trials can begin, so it will likely be years before it is available. This is why funding a diverse range of Parkinson’s research studies is so important.

What Do These Findings Mean for People with Parkinson’s Right Now?

SK-129 is not yet a treatment available to people. It is still in the preclinical stage, with next steps already underway.

“Next, we’ll move SK-129 toward clinical development by testing its safety and dosing,” said Dr. Kumar. “A key priority is to establish a clear link between dose, effectively targeting the harmful alpha-synuclein and producing real benefits in animal models. At the same time, we are optimizing related molecules to improve strength, access to the brain and stability, to help identify the best candidate for future clinical trials.” 

For people with Parkinson’s, continue current care — medications, exercise, therapy) — and consider clinical trials if interested. While SK-129 is likely years away from human testing, the development of molecules like this represents meaningful progress and demonstrates the importance of supporting preclinical Parkinson’s research.

Learn More

The Parkinson’s Foundation believes in empowering the Parkinson’s community through education. Learn more about PD treatments and ongoing research through our resources below, or by calling our free Helpline at 1-800-4PD-INFO (1-800-473-4636) for answers to your Parkinson’s questions.

Educational Events

28TH Annual Vanderbilt Parkinson's Educational Symposium

10:00 am to 2:00 pm CDT
FREE
Ochsner’s 18th Annual Parkinson's Disease Symposium

Please join the Vanderbilt Medical Center and Parkinson’s Foundation Center of Excellence team for the 28th Annual Vanderbilt Parkinson’s Educational Symposium.

There is no charge to attend, but registration is required. This program is open to people with Parkinson's, their family, friends, and the community.

Upcoming Events

Educational Events

2026 Georgia Chapter Ambassador Retreat

Georgia Chapter Ambassador Retreat | July 31–August 1, Atlanta, GA. Join fellow Parkinson’s Foundation ambassadors for a weekend of connection, learning, collaboration, and planning as we celebrate our impact and prepare for the year ahead.

Atlanta, GA
Educational Events

Parkinson's Foundation Florida Chapter Community Conversation

9:30 am to 1:00 pm EST
FREE
Person raising hand

This program offers an introduction and basic overview of Parkinson’s disease (PD). PD varies from person to person and changes over time. Discover its causes, common symptoms and available treatments. Learn practical daily living tips to empower you to take charge of your health and to navigate the challenges of living with PD.

There is no charge to attend, but registration is required. This event is open to people with Parkinson's, their family, friends and the community.

Upcoming Events

Educational Events

2026 Georgia Chapter Ambassador Retreat

Georgia Chapter Ambassador Retreat | July 31–August 1, Atlanta, GA. Join fellow Parkinson’s Foundation ambassadors for a weekend of connection, learning, collaboration, and planning as we celebrate our impact and prepare for the year ahead.

Atlanta, GA
Advancing Research

Inside the Science: Parkinson's Research Today

🧠 What will you learn in this article?

This article highlights three key Parkinson’s research areas scientists are exploring right now. It discusses:

  • How Parkinson’s research is accelerating because there’s no cure, cases are rising globally and the U.S. economic burden is significant.

  • Three especially active research targets are alpha-synuclein protein aggregation, mitochondrial dysfunction and brain inflammation — and how they interact.

  • New tools are underway to help with earlier and more precise detection, better tracking of progression and moving toward personalized, disease-modifying treatments.

Team of scientists in a lab

Parkinson’s disease (PD) research is advancing rapidly, with breakthroughs on the horizon that could transform treatment and offer hope to millions.

Three key research areas are among the most active and promising: alpha-synuclein aggregation, mitochondrial dysfunction and neuroinflammation. Learn what these terms mean, where the science is headed and how advances in these areas may lead to new treatments and disease-modifying therapies.

This article is based on a Parkinson’s Foundation Expert Briefingexploring advances in Parkinson’s research hosted by Laurie Sanders, PhD, Associate Professor, Neurology and Pathology, Movement Disorders and Translational Brain Sciences divisions, at Duke University School of Medicine, a Parkinson's Foundation Center of Excellence.

Urgency is Driving Research

The pressing need to crack the code behind the causes of Parkinson’s has never been greater. Though there are a wide variety of treatments to manage PD symptoms, there is no cure. More than 11 million people worldwide are living with Parkinson’s, including more than 1 million in the U.S.

PD cases are expected to exceed 25 million globally by 2050. The economic impact is staggering: Parkinson's cost the U.S. $82.2 billion in 2024. More than $23 billion went toward direct medical costs, while nearly $60 billion reflects indirect costs, including lost income and burdens on care partners.

The determination to solve the Parkinson’s mystery is possibly best reflected in the number of current studies in the research pipeline. The National Institutes of Health’s (NIH) ClinicalTrials.gov shows more than 200 Parkinson’s-related clinical trials either actively recruiting or about to recruit. In addition, foundational research that advances our overall understanding of Parkinson’s biology continues to take place, especially in the following areas.

3 Key Parkinson’s Research Areas Right Now

Parkinson’s is complex, as scientists believe a combination of environmental and genetic factors are the cause of Parkinson's. Research requires attacking the problem from multiple angles. Studies suggest the development and progression of Parkinson’s involves interactions among three key biological areas:

1. Protein Aggregation: Alpha-synuclein

Parkinson’s involves the loss of dopamine-producing neurons and a buildup of alpha-synuclein, a normally useful protein found in the brain that helps brain cells communicate. There is very strong genetic evidence linking alpha-synuclein to Parkinson’s disease via the SNCA gene, which was the first PD-associated gene to be identified.

Alpha-synuclein becomes problematic when it misfolds, gathering into clumps called Lewy bodies that can spread between brain cells. Many PD treatments target and remove these alpha-synuclein clumps. However, while Lewy bodies are a hallmark of Parkinson’s, there is still some controversy over whether they are part of the Parkinson’s problem or act as a protective factor.

2. Mitochondrial Dysfunction

Mitochondria are energy powerhouses that are critically important to good health. They malfunction in Parkinson’s, impacting cellular energy and contributing to cell death. Neurons — brain cells that send electrical and chemical communications — are especially vulnerable to mitochondrial dysfunction.

Certain gene mutations can impact mitochondrial function, as can environmental toxins like pesticides (such as paraquat).

Genetic risk factors, including PINK1 and PRKN that are specifically related to mitochondria, can also influence PD development and severity.

3. Brain Inflammation

When combined with the other two factors, studies suggest that brain inflammation (the brain’s protective response to harm, which may become overstimulated in Parkinson’s) can make those problems worse. In addition, inflammation can weaken the blood-brain barrier that may allow immune cells from the blood to enter the brain, which can accelerate neurodegeneration.

Advances Accelerating Parkinson’s Research

Once considered solely a movement disorder, we now know Parkinson’s is a multisystem disease that can affect the whole body — including urinary problems, gut issues and changes to thinking, sleep and mood.

Patient engagement is essential for PD research progress. Major influences that deepen our understanding of PD risk include studies with global reach like PD GENEration: Powered by the Parkinson’s Foundation, which is providing insights as to how Parkinson’s is tied to genetics through providing genetic testing and counseling to people with a confirmed PD diagnosis. Importantly, the biological discoveries made about Parkinson’s via genetic testing may also apply to Parkinson’s cases that do not have a known genetic link.

New tools are being developed that hold the possibility to detect Parkinson’s earlier, better understand its progression and help track the effectiveness of PD therapies. These tools include:

  • Brain imaging to help researchers visualize the spread of Parkinson’s, identify specific areas of brain pathology and increase diagnosis accuracy including advances in developing positron emission tomography (PET) ligands, high-resolution MRI and diffusion imaging.

  • Ultrasensitive lab tests to measure new Parkinson’s biomarkers from spinal fluid and other fluids such as blood. These tests include:

    • alpha-synuclein seeding assays (SAAs) to detect tiny amounts of misfolded alpha-synuclein.

    • tests that can identify neurodegeneration, such as for the protein neurofilament light, which has been linked to PD, and other markers of inflammation.

    • Tests for mitochondrial DNA damage, such as MitoDNADX, a recent blood test developed by Duke University researchers for use as a potential biomarker in PD.

  • Improved disease models, including:

    • induced pluripotent stem cells (iPSCs), developed by recoding cells from people with PD to become dopamine neurons, allowing for the study of PD-related cell dysfunction in patient tissue. 

    • organoids, which are miniature brains that allow scientists to study Parkinson’s mechanisms and test possible therapies.

    • refined animal models, that are genetically engineered to better model Parkinson’s symptoms.

Research Breakthroughs and Targets

Scientists are investigating ways to slow or halt Parkinson’s, identify people for participation in relevant PD trials and deliver targeted treatments.

Nearly 100 forms of alpha-synuclein have been identified, with research to determine which are most toxic. As scientists dig deeper into PD progression, they have also discovered alpha-synuclein pathology along the GI tract of people with PD.

Parkinson’s and GI research is expanding, including through the Gut-Brain Communication in Parkinson’s Disease Consortium, a joint effort between the NIH and the Duke Clinical Research Institute.

Many people with Parkinson’s also experience the buildup of other proteins such as Beta-amyloid plaques and Tau tangles, key hallmarks of Alzheimer’s disease. One promising study under way is exploring whether oral therapy buntanetap is safe for long-term use in people with PD. Buntanetap aims to reduce other toxic proteins. Investigational Parkinson’s treatments also include immunotherapies that use antibodies to target harmful protein clumps and approaches that help cells manage or remove misfolded proteins.

Mutations in the GBA1 gene, a common genetic risk factor for Parkinson’s, reduce the activity of the glucocerebrosidase enzyme, contributing to alpha-synuclein buildup. New treatments are being developed to boost glucocerebrosidase activity to help cells more effectively remove harmful buildup. A variety of therapies are also in the research pipeline to rescue mitochondrial function.

The Way Forward

Parkinson’s research is fundamental for progress toward new disease-modifying therapies that can slow or stop disease progression. By improving our understanding of the ways in which alpha-synuclein, mitochondrial dysfunction and inflammation interact, we get closer to having personalized, precision-medicine treatments for PD. When we combine this knowledge with patient participation in research, breakthroughs in technology and new biomarker discoveries, we continue to advance closer to a cure for Parkinson’s.

How to get involved:

Advancing Research

Meet the Researcher Working to Develop an Imaging Biomarker for Parkinson’s

🧠 What will you learn in this article?

This article highlights a researcher working to develop a biomarker tag called a PET tracer for Parkinson’s disease (PD). It discusses: 

  • What a PET tracer is and how it could track misfolded alpha-synuclein clumps.

  • How a PET tracer could track disease progression and test therapies.

  • How support from the Parkinson’s Foundation makes research like this possible.

Sarah Shahmoradian headshot

Tracking Parkinson’s disease (PD) progression is challenging, and doctors currently rely on how a person’s symptoms change over time. This method is difficult because symptoms vary from person to person and can fluctuate, making it hard to evaluate if treatments are helping.

For other brain diseases like Alzheimer’s, scientists have developed small molecules that can attach to disease-related protein clumps and make them visible on brain scans such as PET (positron emission tomography). These imaging tools allow researchers and clinicians to see where harmful proteins are building up in the brain, providing a clearer way to track disease progression and test therapies. In short, these imaging tools can act as a biomarker for the disease.

What is a biomarker?

Biomarkers are biological signs that can be measured to help diagnose a disease, track its progression and evaluate if treatments are working.

Sarah Shahmoradian, PhD, recipient of a Parkinson’s Foundation Impact Award, is exploring whether a similar biomarker tag could work for Parkinson’s. Working with collaborators at Massachusetts General Hospital, a Parkinson’s Foundation Center of Excellence, Dr. Shahmoradian is studying a specially designed small molecule that appears to bind to toxic forms of the protein connected to Parkinson’s (called alpha-synuclein). 

“Currently, we do not have a PET tracer that reliably marks clusters of the protein alpha-synuclein when it goes bad, so we can’t tell when these clusters are starting to grow or when they are starting to spread in the brain,” said Dr. Shahmoradian.

Having a Parkinson’s-specific PET tracer to track the alpha-synuclein protein would help PD doctors and care teams:

  • Detect Parkinson’s earlier

  • Monitor how PD spreads over time

  • Evaluate if experimental therapeutics are reducing the clustering and accumulation over time

  • Distinguish Parkinson’s from other conditions with overlapping symptoms

From her lab at the University of Texas Southwestern Medical Center in Dallas, Dr. Shahmoradian will use high-resolution imaging methods — developed through her earlier research, which was supported by a Parkinson’s Foundation Stanley Fahn Junior Faculty Award in 2022 — to see precisely how this new molecule attaches to alpha-synuclein. Understanding this interaction at the molecular level will help scientists fine-tune the tracer for future clinical imaging.

The next step is to adapt the molecule so it glows under the microscope. By applying it to neurons grown in the lab that model Parkinson’s disease, or to slices of PD brain tissue, Dr. Shahmoradian and her team hope to track where alpha-synuclein clumps appear and how they move inside cells.

If successful, this work will demonstrate that the molecule can serve as a powerful diagnostic and research tool for Parkinson’s.

“There is real momentum in Parkinson’s disease research right now. We understand more about the problematic protein alpha-synuclein now than we did a decade ago. Cell models are becoming increasingly sophisticated and there are newer imaging agents and disease-modifying therapies on the horizon.” - Dr. Shahmoradian

Dr. Shahmoradian believes her work brings hope to the Parkinson’s community because through it, researchers like herself can look at problematic alpha-synuclein clumps at extremely high resolution to figure out exactly where the protein goes wrong.

She is grateful for the community she has found through the Parkinson’s Foundation, and the connections she has made with other researchers who are also focused on finding a cure for Parkinson’s disease.

“This research would not be possible without the Foundation’s support, and the donors who made these grants a reality. Your investment is not abstract. You are helping support experiments right now, in real time, that help diagnose and treat Parkinson’s disease. You are accelerating and empowering scientists like myself toward the shared common cause of curing Parkinson’s disease,” said Dr. Shahmoradian.

Meet more Parkinson’s researchers! Explore our My PD Stories featuring PD researchers.

Videos & Webinars

Latest Advances in Parkinson’s Treatments: What Veterans Need to Know

April 23, 2026

The landscape of Parkinson’s treatment is constantly evolving, with exciting advances in medications, therapies, and technologies aimed at improving quality of life and symptom management. In this webinar, we’ll explore the latest evidence-based treatments available to veterans living with Parkinson’s, including emerging therapies and clinical trial opportunities. Learn how to access treatments through the VA system and understand which options may be right for you or your loved one. This session is designed to empower veterans and care partners with up-to-date knowledge and tools for informed decision-making.

Download Slides

Additional Resources

Presenters

Dr. Pavan Vaswani 
Associate Program Director, Movement Disorders Fellowship, Department of neurology, University of Pennsylvania
Attending Neurologist, Corporal Michael J. Crescenz Philadelphia VA Medical Center, University of Pennsylvania 

Dr. George Kannarkat
Assistant Professor of Neurology, Hospital of the University of Pennsylvania
Neurology Consultant, Penn Neurology, Grandview Hospital, Sellersville, PA

Educational Events

Georgia Chapter Parkinson's Symposium

9:00 am to 2:00 pm EST
FREE
Georgia Chapter Parkinson's Symposium

Join the Parkinson’s Foundation for the Georgia Parkinson’s Symposium. Attendees will learn about symptoms, treatment options and strategies to help navigate the challenges of living with PD. While each person’s experience is unique, the more you know, the more empowered you will be to play an active role in your care and manage your life with Parkinson’s.

Time:

9:00 a.m. ET - Check-in & Resource Fair
10 a.m. ET - Program begins
2 p.m. ET - Program ends

Expert Speakers:

Evan McCarroll Johnson, MD
Piedmont Neurology of Fayetteville

Orla McQuade, MSN, FNP-C
Emory Healthcare

Thomas Wichmann, MD
Emory Healthcare


There is no charge to attend, but registration is required. This program is open to people with Parkinson's, their families, friends, and the community.

Upcoming Events

Educational Events

2026 Georgia Chapter Ambassador Retreat

Georgia Chapter Ambassador Retreat | July 31–August 1, Atlanta, GA. Join fellow Parkinson’s Foundation ambassadors for a weekend of connection, learning, collaboration, and planning as we celebrate our impact and prepare for the year ahead.

Atlanta, GA
Fundraising Events

2026 JAL Honolulu Marathon

5:00 am to 5:00 pm HST
Honolulu

The Parkinson's Foundation is an official charity partner for the 2026 JAL Honolulu Marathon. By signing up to run as a Parkinson's Champion you commit to raising funds and awareness for the Parkinson's Foundation, and in return you get access to a free entry (bib) to the race in addition to other fun benefits and perks. 

Fundraising Commitments:

  • Marathon - $1,500
  • Honorary Champion (you already have a bib) - suggested goal $500

Held every December, it brings together over 35,000 runners from around the world for a race that blends challenge, scenery, and the Aloha spirit like nowhere else. Runners will end their marathon in Kapiolani Park near the volcanic crater, Diamond Head. The course is relatively flat with a large part of it following the magnificent Pacific coastline.

Parkinson’s Champions are racing toward a cure! Our Parkinson’s Champions athletes raise funds and awareness for the Parkinson’s Foundation while competing in some of the world’s most popular endurance events. Every step we take brings us closer to a future without Parkinson’s disease, because Parkinson’s isn’t a sprint, it’s a marathon.

Upcoming Events

Educational Events

2026 Georgia Chapter Ambassador Retreat

Georgia Chapter Ambassador Retreat | July 31–August 1, Atlanta, GA. Join fellow Parkinson’s Foundation ambassadors for a weekend of connection, learning, collaboration, and planning as we celebrate our impact and prepare for the year ahead.

Atlanta, GA
Raise Awareness

Temblores, estremecimientos y todo lo demás: enfrentando los síntomas motores del Parkinson

🧠 ¿Qué aprenderá en este artículo?

  • Los síntomas motores (movimiento) pueden afectar casi todos los aspectos de la vida de las personas con Parkinson.

  • Descubra cómo el ejercicio, los medicamentos y las terapias pueden ayudar a las personas con la enfermedad de Parkinson a moverse con mayor facilidad en cada etapa.

  • Los síntomas —incluyendo el temblor, la rigidez (agarrotamiento), la bradicinesia, la distonía, los problemas de marcha y equilibrio, y los cambios en el habla— se deben a la pérdida progresiva de las neuronas que producen ‑dopamina.

  • El ejercicio y los medicamentos (especialmente la levodopa) son los tratamientos más eficaces.

Pareja de personas mayores estirando al aire libre

La enfermedad de Parkinson (EP) puede dificultar moverse cuando quiera, de la manera en que quiera y puede ser igual de difícil mantenerse quieto. Desde el temblor y la rigidez hasta los calambres musculares y la dificultad para caminar, los problemas motores pueden afectar todos los aspectos de la vida diaria en la enfermedad de Parkinson. Descubra cómo el ejercicio, los medicamentos y otras estrategias pueden ayudarle a moverse con mayor facilidad.

El siguiente artículo se basa en una de las Charlas con Expertos - Expert Briefings de la Parkinson's Foundation, que explora los síntomas motores en la EP, presentada por el especialista en trastornos del movimiento, el Dr. Pablo Coss, de la residencia de Neurología y la subespecialidad en trastornos del movimiento del University of Texas Health Science Center at San Antonio, parte de la Red Global de Atención de la Parkinson’s Foundation.

Puntos clave para el Parkinson

La enfermedad de Parkinson se denomina un trastorno del movimiento porque afecta la forma en que la persona se mueve. Aunque los síntomas suelen desarrollarse lentamente con el tiempo, el Parkinson es progresivo; las necesidades pueden cambiar a medida que la EP avanza a través de sus etapas. La historia de una persona, sus síntomas y el examen físico se utilizan para hacer el diagnóstico.

Para considerar un diagnóstico de la enfermedad de Parkinson, debe estar presente la lentitud de movimiento (bradicinesia) junto con alguno de los siguientes:

  • Temblor en reposo: movimiento rítmico e involuntario que tiende a ocurrir cuando la parte del cuerpo afectada está en reposo. Esto tiende a afectar un lado del cuerpo en las etapas tempranas de la EP.

  • Rigidez (agarrotamiento): resistencia al movimiento causada por la activación involuntaria de los músculos en reposo.

  • Problemas de equilibrio (inestabilidad postural) que provocan tropiezos y caídas. 

Dopamina y movimiento

Aunque los científicos aún trabajan para comprender las causas del Parkinson, sabemos que se trata de un trastorno cerebral progresivo que daña las neuronas productoras de dopamina. La dopamina es un mensajero químico que regula el estado de ánimo y ayuda al cuerpo a moverse con fluidez.

Cambios motores en la EP

La pérdida de dopamina en una zona del cerebro llamada sustancia negra y otros cambios químicos en la enfermedad de Parkinson interfieren con las señales cerebrales, lo que provoca muchos síntomas no motores —incluidos cambios emocionales, problemas gastrointestinales y fatiga— y afecta el movimiento de distintas maneras, entre ellas:

  • Bradicinesia: lentitud de movimiento que puede afectar a todo el cuerpo, causando fatiga y dificultad para caminar o realizar actividades cotidianas. También puede causar: 

    • Enmascaramiento facial: rigidez en los músculos del rostro que dificulta expresar emociones.

    • Desafíos con movimientos de las manos, lo que dificulta más hacer cosas como abrir una bolsa, abrir un envase o escribir. La micrografía, escritura pequeña y amontonada que se ve frecuentemente a principios de la EP, suele estar conectada con la lentitud de movimiento.

    • Dificultad para ponerse de pie después de estar sentado.

  • Temblor. Las personas con Parkinson suelen tener temblor en reposo en una mano, pero también puede afectar las piernas, la mandíbula o la cara. El temblor de la mano suele describirse como “pill-rolling”, como si la persona estuviera haciendo rodar una pastilla entre el pulgar y el índice.

Alrededor de un 70% de las personas con Parkinson experimentan temblores. Para algunos, los temblores son leves, pero para otros pueden causar inseguridad e interferir con el sueño y las tareas diarias.

El temblor de acción, otro síntoma de la EP, sucede cuando la parte del cuerpo afectada está moviéndose o tratando de hacer una tarea como escribir o tomar de un vaso. Muchas personas con Parkinson experimentan una combinación de temblor de acción y de reposo.

  • La rigidez, que a veces se describe como “rigidez en tubo de plomo”: la resistencia del cuerpo al movimiento durante un examen físico (cuando está relajado) puede ser tan fuerte que puede sentirse como si el examinador intentara doblar un tubo de metal pesado. La rigidez puede conducir a:

    • Molestias dolorosas y dificultad para dormir

    • Menor movimiento de brazos y piernas al caminar

    • Rigidez facial

  • Distonía; calambres y retorcimientos musculares dolorosos y repetitivos, frecuentes en Parkinson, pueden:

    • hacer que los dedos se engarroten o mantengan una posición anormal

    • provoquen que el tobillo se gire hacia adentro naturalmente y que los dedos se giren

    • impactar la cara y los ojos, dificultando para algunos abrir los ojos de manera voluntaria

    • ir acompañado de un movimiento que puede sobreponerse con otras formas de temblor de la EP

  • Hipofonía (problemas del habla) puede incluir un habla suave o arrastrada, dificultades con la articulación, menor volumen o monotonía al hablar lo que, — a la par de la rigidez facial—, puede ser que la expresión emocional sea un desafío. Hipofonía también puede provocar respiraciones poco profundas, vacilantes, acelerada.

  • Marcha parkinsoniana—Cambios en la forma en que camina una persona debido a la EP, provocando pasos pequeños arrastrados, hombros encorvados, menor balanceo de los brazos o dificultad para levantar los pies.

Estos problemas de equilibrio y de la marcha, —junto con pasos cortos y rápidos que tienden a acelerarse (festinación), inclinación hacia atrás y falta de equilibrio—, aumentan el riesgo de caídas y lesiones, al igual que la congelación de la marcha: una sensación temporal pero peligrosa de que los pies están pegados al suelo. Las áreas concurridas, las puertas y los umbrales pueden desencadenar el congelamiento de la marcha.

Aumentar la dopamina: ejercicio y medicamentos

Woman taking medication

Debido a que la pérdida de dopamina impulsa los síntomas motores del Parkinson, aumentar la dopamina es la forma más eficaz de manejarlos y el ejercicio es una de las maneras más simples de ayudar a incrementarla y ralentizar la progresión de la enfermedad.

El ejercicio puede aliviar los síntomas motores del Parkinson y mejorar la fuerza y el equilibrio. Encontrar un ejercicio que disfrute puede darle la motivación para mantenerse activo. Nuestros ejercicios Viernes de Ejercicio de EP Salud en Casa, una colección de videos de ejercicio adaptados para personas con Parkinson, pueden ayudar a mantenerlo activo en casa.

La levodopa es el tratamiento más eficaz para la enfermedad de Parkinson. Las células cerebrales metabolizan la levodopa para convertirla en dopamina. Se suele combinar con carbidopa; esto permite que una mayor cantidad de levodopa llegue al cerebro sin ser metabolizada primero en el intestino (donde puede causar náuseas).

Para mantener los niveles necesarios de dopamina que ayuden al cuerpo a funcionar de manera óptima, es fundamental tomar los medicamentos exactamente como se prescriben. Es común que el médico ajuste la dosis a medida que la enfermedad de Parkinson progresa, para manejar los cambios en los síntomas.

Existen muchas formulaciones de levodopa, entre ellas:

  • Liberación inmediata (Sinemet IR), a menudo recetada en tres o más dosis al día.

  • Liberación controlada (Sinemet CR), a menudo recetada en tres o más dosis al día. 

  • Las formulaciones más recientes de liberación prolongada (Rytary o Crexont) pueden ofrecer efectos más rápidos y de mayor duración. Estas pueden recetarse de dos a cuatro veces al día.

  • Las terapias con bomba administran un suministro continuo de medicamento:

    • Vyalev administra foscarbidopa/foslevodopa mediante una bomba portátil y una aguja insertada debajo de la piel.

    • Duopa proporciona un gel continuo de carbidopa/levodopa a través de una sonda colocada quirúrgicamente.

  • La levodopa inhalada (Inbrija) se utiliza según sea necesario para tratar la reaparición de los síntomas entre las dosis regulares de carbidopa/levodopa, de cuatro a cinco veces al día.

Los efectos secundarios de la levodopa pueden incluir: nausea, estreñimiento, mareo, baja presión arterial, somnolencia, alucinaciones, o cambios en el comportamiento, como la hipersexualidad (trastorno de control de impulsos.)

Con el tiempo, algunos medicamentos para el Parkinson también pueden causar movimientos irregulares (discinesia), incluidos retorcimiento, balanceo, contorsiones y movimientos tipo “baile”. Esto puede ocurrir con frecuencia después de tomar una dosis, cuando la levodopa alcanza su máxima eficacia en el cuerpo.

Progresión del Parkinson, fluctuaciones motoras y tratamientos avanzados

Aunque la enfermedad de Parkinson afecta a cada persona de manera diferente, a medida que avanza, en muchas personas la reaparición o el empeoramiento de los síntomas (fluctuaciones motoras o periodos en “off”) entre las dosis de los medicamentos puede ocurrir con mayor frecuencia. Esto puede provocar un aumento de la discinesia, el desequilibrio o las caídas, o la necesidad de dispositivos de asistencia — herramientas diseñadas para mejorar la vida diaria.

Hable con su médico acerca de sus inquietudes. Él o ella puede trabajar con usted para ajustar su medicación o explorar tratamientos avanzados.

Los medicamentos utilizados para mejorar el efecto y la duración de la levodopa incluyen:

Estos medicamentos pueden causar diversos efectos secundarios, incluyendo náuseas, discinesia, dolor de cabeza, presión arterial baja, mareo, retención urinaria o decoloración de la orina, problemas de sueño o insomnio.

La cirugía puede ser una opción para los síntomas motores en el Parkinson avanzado. Las opciones pueden incluir:

Aprenda más

Para aprender más acerca de cómo manejar los síntomas motores de la enfermedad de Parkinson, explore los recursos a continuación o llame a nuestra Línea de Ayuda gratuita al 1-800-4PD-INFO (1-800-473-4636), opción 3 para español:

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