MICROCURRENT ACUPUNCTURE AND VITAMIN D THERAPY (MADT) FOR DEMENTIA DISEASE

PARKINSON’S & DEMENTIA CLINIC GROUP

MADT Therapy for Dementia

MADT Therapy Summary

Microcurrent Acupuncture and D-Vitamin Therapy (MADT)
Microcurrent Acupuncture and D-Vitamin Therapy (MADT) for Dementia improves memory and thinking, It can also help people with other neurodegenerative, autoimmune related such as asthma, lupus, rheumatoid arthritis. autism, bone disease and etc.

Microcurrent Acupuncture (MA)
- According to International Standard Scalp Acupuncture with microcurrent to specific areas using a set frequency for about 20-30 minutes each session;
- sterile needles are used for acupuncture;
- The frequency of session per month depends on the severity of the symptoms;
- Immediate results in reducing symptoms such as pain, speech, movement;
- Improvement sustains for 1 to 3 weeks depends on the duration and the severity of the disease.

Vitman D Therapy (DT)
Vitamin D therapy involves not only Vitamin D3 itself, but also essential cofactors such as Vitamin K2 and Magnesium. Over 50,000 individuals have already accessed the free Nutrient-Based Vitamin D3 Wellness Protocol:

Vitamin D
<D3 start 2000-4000IU>

Vitamin K2
<K2 MK7, 100mcg>

Magnesium
<Mg glycinate type, 400-600mg>

This MADT combination therapy offers significant benefits for patients.

The Microcurrent Acupuncture (MA) component provides immediate relief motor symptoms such as reducing tremors, as well as other non-motor symptoms including improve mood and behaviour, speech, writing, sleep quality. This acupuncture technique is easy to learn for all registered Chinese and Western acupuncture practitioners. Most of the symptoms can improve instantly when paired with the appropriate microcurrent frequencies.

As for Vitamin D Therapy (DT), it involves a process of trial and error to determine the optimal dosage, which may take time. However, once the correct dosage is established and symptoms improve, the frequency of MA treatments can be reduced accordingly.

Creating Before-Treatment records
People who show signs of dementia will usually be given tests to check their memory and thinking. These are called cognitive assessments. A GP may do the first test, and one common one is called the GPCOG test. These tests check things like memory, concentration, language skills, and whether the person knows where they are and what time it is.

The doctor may also ask for blood tests. This is to make sure the symptoms aren’t caused by something else, like liver or kidney problems, diabetes, thyroid issues, or low levels of vitamins like B12 and folate. If there are signs of infection, a urine test or other checks might be done too.

If the tests suggest that dementia is likely, the doctor might then arrange a brain scan. A CT scan can show if there has been a stroke or if there is a brain tumour, but it doesn’t show fine details of the brain. Sometimes, if more information is needed, other scans like MRI, SPECT, or PET scans may be used. These scans can show how the brain is working and if there are problems with blood flow. However, most people won’t need these advanced scans.

Dementia

What is Dementia?
Dementia is a term used to describe a group of symptoms that affect cognitive function, including memory, thinking, problem-solving, language, and perception. These symptoms are severe enough to interfere with a person's daily life.

It’s important to understand that dementia is not a disease in itself, nor is it a normal part of ageing. it is a clinical syndrome caused by various diseases that damage the brain—Alzheimer’s disease being the most common. Other causes of dementia include vascular dementia(2nd most common), Huntington’s disease, damage from drug or alcohol, Parkinson’s disease, vitamin deficiencies, hormonal disorders, and more.

Dementia is a progressive condition, meaning symptoms gradually worsen over time. This is due to the ongoing death of brain cells, which cannot regenerate. As more cells are lost, the brain begins to shrink. This process can often be seen in brain scans, where the gray matter thins and the fluid-filled spaces in the brain enlarge.

In people with Alzheimer’s disease, brain scans taken over the years may show how the grey matter (brain tissue)decreases, while the black spaces (fluid-filled cavities) expand. These changes reflect the ongoing destruction of brain cells over time.


Common Symptoms of Dementia
Dementia affects each person differently, depending on which areas of the brain are damaged. However, some common symptoms include:

  • Day-to-day memory problems (e.g. forgetting recent events)

  • Difficulty concentrating or focusing

  • Trouble planning, organising, or making decisions

  • Struggles with language (e.g. finding the right words)

  • Visual or spatial difficulties (e.g. misjudging distances)

  • Getting confused or lost in familiar places

  • Changes in mood, behaviour, or personality

  • Repeating questions or actions

  • Balance or walking problems

Alzheimer’s Disease

What is Alzheimer’s disease?
Alzheimer’s disease is the most common cause of dementia, accounting for about 60–80% of all dementia cases. Alzheimer’s is a slow and fatal brain condition that affects about one in ten people over the age of 65. No one is immune. It starts gradually when two abnormal proteins—called plaques and tangles—build up in the brain and begin to damage and kill brain cells. The disease usually begins in the hippocampus, the area of the brain responsible for forming new memories. Over time, this damage makes it harder and harder for a person to remember recent events or conversations, even though older memories from years ago might remain intact.

As Alzheimer’s progresses, these harmful proteins spread to other parts of the brain, affecting different functions. Language becomes more difficult as the disease reaches the areas responsible for communication. It then spreads to the front of the brain, making it harder for the person to solve problems, plan, or understand ideas. Eventually, it affects the parts of the brain that control emotions, causing mood changes and emotional outbursts. As more areas are affected, the brain struggles to process sights, sounds, and smells, which can sometimes lead to confusion or hallucinations.

In the later stages, Alzheimer’s erases even the oldest and most treasured memories, and eventually affects movement, balance, and coordination. In the final stage, it damages the part of the brain that controls breathing and the heart, leading to death.

This disease usually progresses slowly, over about 8 to 10 years. Although it cannot be cured at present, helping others understand Alzheimer’s can reduce stigma, improve care, and bring us closer to finding better treatments—or even a cure—in the future.

Microcurrent acupuncture

How does microcurrent acupuncture work?
The endogenous electrical signals were discovered many years ago. Using modern techniques, the existence of these natural electrical fields has now been well established.  These natural electrical signals play a pivotal role in many fundamental processes, one notably being in cells healing. By apply selected microcurrents which mimic these signals, healing can be enhanced for both acute and chronic wounds, and for most types of injuries.

Secondly, microcurrent stimulation is also known to provide a direct energy-related benefit to the mitochondria* within the cells, which are responsible for producing around 90% of cellular energy. The applied currents provide a means of an additional resource, which can be directly used in the production of ATP* (Adenosine Triphosphate). More ATP means faster cell repair and regeneration, which is why microcurrent therapy enhance recovering and reduce fatigue.

In its simplest form, microcurrent is able to facilitate naturally occurring electrical processes that are essential to the wellbeing of our nerve cells, tissues and body systems. This means that regardless of the type injury or condition, virtually certain everybody can gain notable benefits and improvements from using this technology, which is truly remarkable!

ATP* and Mitochondria*

ATP* (Adenosine Triphosphate) is the main energy source for cells, often called the "energy currency" of the body. It provides power for essential processes like muscle movement, nerve signaling, tissue repair, and metabolism.

Mitochondria* are like tiny power plants inside our cells. They make energy (called ATP) so the cells can work properly. Besides making energy, mitochondria also
1. Help control when a cell should die (apoptosis)
2. Store calcium
3. Support the immune system
4. Producing reactive oxygen species (ROS) that act like signals (but too much can be harmful)
They even have their own DNA, which shows they might have evolved from ancient bacteria

ATP is primarily produced by the mitochondria, which generate energy by breaking down nutrients. More ATP means faster cell repair and regeneration, which is why microcurrent therapy help enhance healing and reduce brain cells from dying.

Scalp acupuncture

What is Scalp acupuncture?
Scalp acupuncture, also known as Chinese scalp needling therapy, is a specialized form of acupuncture that integrates traditional Chinese meridian theory with modern brain anatomy. Fine needles are inserted into specific scalp zones that correspond to functional areas of the brain—such as motor, sensory, and speech regions—to stimulate neurological recovery and enhance brain function. This technique is widely used in stroke rehabilitation and in the treatment of neurological conditions such as Parkinson’s disease, dementia, paralysis, and speech disorders.

Immediate effect with Microcurrent Scalp Acupuncture
Scalp acupuncture combined with microcurrent therapy is highly effective for patients with Parkinson’s disease. In most cases, noticeable improvements can be seen during the first treatment - motor symptoms such as tremors are reduced by more than half, and non-motor symptoms like fatigue, moody and voice issues also show improvement. Clinical evidence indicate that the therapeutic effects of this treatment can last for a relatively long period.

Three Images show:
1. Scalp acupuncture point localization
2. Anatomical localization
3. Scalp Acupuncture with microcurrent with specific frequency enhancing the effectiveness

“Microamp stimulation has also been called ‘biostimulation’ to ‘bioelectric therapy’ because of its ability to stimulate cellular physiology and growth.”

- Robert Picker, M.D., wrote -

D-Vitamin Therapy

How does D-Vitamin Therapy work?
The D-Vitamin Therapy consists of two other major vitamins K2 and Magnesium. In the body, Vitamin D, Vitamin K2, and Magnesium (Mg) work work as a team to regulate calcium metabolism, bone health, and cardiovascular protection.

Vitamin D’s main job is to enhance calcium absorption from the gut. When you supplement with vitamin D, your body absorbs more calcium from food, which raises calcium levels in the blood. However, just absorbing more calcium isn’t enough. Without proper regulation, this calcium can end up depositing in the wrong places, like arteries or kidneys, leading to calcification or stones.

That’s where vitamin K2 comes in. Its role is to make sure that the absorbed calcium is directed to where it belongs — primarily your bones and teeth. It does this by activating certain proteins, especially osteocalcin and matrix GLA protein. Osteocalcin helps bind calcium into the bone structure, while matrix GLA protein prevents calcium from building up in blood vessels. In a way, K2 acts like a traffic controller, guiding calcium to safe destinations and preventing it from causing problems.

Magnesium, on the other hand, is often overlooked but equally essential. It’s a necessary cofactor for the enzymes that convert vitamin D into its active form (the one your body actually uses). So even if you're taking enough vitamin D, without sufficient magnesium, it may not be fully activated or effective. Magnesium also plays its own roles in maintaining strong bones, calming the nervous system, and supporting proper heart rhythm. Supplementing with vitamin D without enough magnesium can sometimes lead to side effects like high calcium levels or muscle cramps.

In summary, these three nutrients form a functional trio: vitamin D boosts calcium absorption, K2 makes sure calcium is used correctly in bones and not arteries, and magnesium ensures everything runs smoothly, including the activation of vitamin D itself. For optimal and safe results, they should ideally be taken together rather than in isolation.

The function of Vitamin D
Vitamin D is essential for our overall health and quality of life. Every cell in the brain and body has a Vitamin-D Receptor (VDR). When there is enough vitamin D in the body, it travels to brain tissues and binds to these receptors on neurons to carry out vital functions. These include regulating gene expression, reducing inflammation, fighting viral and bacterial infections, and controlling cell growth, repair, and natural cell death (apoptosis).

An adult brain contains around 100 billion healthy nerve cells (neurons), each responsible for specific brain functions and overall cognitive health. Without enough vitamin D to activate the VDRs on neurons, these cells cannot function properly. Activated vitamin D plays a key role in the development, maintenance, and survival of neurons.

As mentioned earlier, two abnormal proteins—amyloid plaques and neurofibrillary tangles—can build up in the brain. These toxic proteins damage and destroy neurons, disrupting the brain's ability to send and receive signals. However, vitamin D has neuroprotective effects that may help protect brain cells from this damage and slow the progression of cognitive decline.

Vitamin D would increase calcium absorption from the intestines. Without proper regulation, excess calcium may deposit in soft tissues, kidney and arteries, potentially causing calcification.

The function of Vitamin K2
Vitamin K2 plays a crucial but often overlooked role in the body: it guides calcium to the right places. After vitamin D helps your body absorb more calcium from the digestive tract, you need a mechanism to ensure that this calcium goes where it’s needed—mainly your bones and teeth. Otherwise, excess calcium may end up accumulating in the wrong places, like your arteries, heart valves, or soft tissues, leading to dangerous calcification.

This is where vitamin K2 steps in. Think of it as a traffic controller for calcium. Its job is to make sure calcium is deposited in bones, not in soft tissues. It does this by activating two key proteins that regulate calcium placement. The first is osteocalcin, a protein that helps bind calcium into the bone matrix, strengthening your bones. The second is Matrix GLA Protein (MGP), which is found in blood vessel walls. Once activated by K2, MGP prevents calcium from accumulating in blood vessels, thereby reducing the risk of arterial calcification and cardiovascular disease.

When you’re deficient in vitamin K2, even if you're taking plenty of vitamin D and calcium, those minerals may be misdirected—leading to weak bones and hardened arteries. This paradoxical situation means that calcium ends up where it shouldn't be, which increases your risk for osteoporosis and heart problems at the same time.

Vitamin K2 is especially important for older adults, people at risk of osteoporosis, or those regularly supplementing with vitamin D and calcium. It ensures that the calcium you absorb is not only taken in but used properly—strengthening your bones rather than damaging your arteries. That’s why, when supplementing with vitamin D or calcium, vitamin K2 should always be part of the equation.

The function of Magnesium (Mg)
Magnesium is an essential mineral involved in over 300 enzymatic reactions in the body, playing a foundational role in many physiological processes. Despite this, its importance is often overlooked—especially when it comes to vitamin D supplementation.

When we consume vitamin D, whether through sunlight or supplements, it first enters the body in an inactive form. To become biologically active (known as calcitriol), it must undergo a series of conversions in the liver and kidneys. These conversions rely on specific enzymes—enzymes that require magnesium as a cofactor. Without enough magnesium, your body cannot efficiently convert and activate vitamin D, meaning that even if you're taking high doses, you might not actually be getting its full benefit.

Magnesium also plays a key role in calcium regulation. It helps keep blood calcium levels in check and prevents issues like muscle cramps, irregular heartbeats, or nerve excitability that can occur when calcium levels are too high. Since vitamin D increases calcium absorption, if magnesium is deficient, this influx of calcium may become problematic rather than beneficial. Some people experience side effects such as anxiety, palpitations, or dizziness when taking high doses of vitamin D—and often, this is due to an underlying magnesium deficiency.

In addition, magnesium indirectly supports the function of vitamin K2. Studies suggest that adequate magnesium helps enhance the function of proteins activated by K2, such as osteocalcin, which helps bind calcium to bones. In this way, magnesium works in synergy with both vitamin D and K2 to maintain strong bones and prevent soft tissue calcification.

In short, magnesium is a critical link in the chain of calcium metabolism. It activates vitamin D, balances calcium levels, and supports K2’s bone-regulating functions. Skipping magnesium while supplementing vitamin D may not only reduce the effectiveness of your supplements but also lead to unwanted side effects. For this reason, magnesium should always be part of a well-rounded supplementation plan that includes vitamin D and K2.

The association of Vitamin D Deficiency and Alzheimer’s