What Is Epilepsy?: Seizures vs. Epilepsy

The medical definition of seizure is a clinical expression of abnormal, excessive, synchronous discharge of neurons residing primarily in the brain’s cerebral cortex. Alternatively, the term epilepsy encompasses

a broad range clinical syndromes characterized by repeated seizures over time unprovoked by an acute systemic or neurological insult.

These definition’s however fail to capture the feelings of helplessness felt by parents, family members, and caregivers when they watch a loved one endure the experience of a having a seizure – especially when that loved one is a child.

“It’s the last thing you worry about before you go to bed; and the first thing you think about when you wake up in the morning,” says Heather Jackson, Executive Director of Realm of Caring and mother to a child with an epilepsy syndrome.


Under normal physiological conditions, the brain works by sending electrical signals through the nerves, which coordinate all of the functions of the body. These nerve impulses, are generated through a physiological process called an action potential. A simplified way to understand the concept of action potentials, is to view each nerve cell, or neuron, as electrically polarized. That is, there is an electrical difference between the inside and outside of a cell, created by the relative movement of the ions sodium (Na+) and potassium (K+).

This difference is maintained by the cell membrane which surrounds each cell. Neurons receive stimuli from other neurons in the area via neurotransmitters – chemicals that regulate brain function. This stimulation causes the polarity within each neuron to move towards a point which would cause the neuron to fire. Once a neuron has received so much stimulation that its polarity has reached the threshold point, an action potential is generated. This process is highly regulated under normal conditions.

In a seizure, regulatory control of action potentials is lost, and a synchronized burst of action potentials occur in a particular region of the brain due to a massive shift of Na+ ions into the cells in that region. This burst of action potentials activates surrounding neurons, causing them to fire and spread the seizure activity throughout the brain.

Types Of Seizures

Broadly, seizures are categorized by whether they are focal or generalized. Generalized seizures are further categorized according to their effect on the body; the categories are as follows:

  • Tonic-clonic: also known as grand mal seizures, this seizure type is most associated with epilepsy. As the name suggests, it is comprised of two components. It begins with a tonic phase where an individual loses consciousness and muscles suddenly tense. After this short phase comes the clonic phase in which an individual’s muscles rapidly contract and relax. Confusion and short term amnesia usually follow these seizures.
  • Absence: also known as petit mal seizures, this seizeure type varies significantly among patients. However, the general feature of absence seizures is an abrupt and sudden impairment of consciousness. During these seizures, activity is interrupted, speech is slowed or interrupted, and the individual becomes unresponsive. These seizures last from a few seconds to a minute and are not followed by confusion or lethargy.
  • Myoclonic: colloquially known as jumps or jerks, these seizure types are characterized by rapid contraction and relaxation of muscles in multiple areas of the body.
  • Atonic: also known as drops or akinetic seizures, atonic seizures are characterized by a brief lapse in muscles tone usually lasting less than fifteen seconds. A high risk of falling is associated with these seizures.
Epilepsy Syndromes

Individuals with epilepsy can manifest any of the above seizure types as part of their clinical condition. In fact, the International League Against Epilepsy recognizes over twenty epilepsy syndromes, each defined by a distinct set of signs and symptoms.

It is important to note that most epilepsy syndromes are extremely rare, with the prevalence in the US population ranging from 6-10/1000 individuals. However, the experience for patients with these disorders and their family members is quite significant. In children, many epilepsy syndromes have a strong genetic component, including benign familial infantile epilepsy, severe myoclonic epilepsy of infancy (Dravet syndrome), and Landau-Kleffner syndrome.

Perhaps the most notable and devastating of these syndromes, Dravet Syndrome, is a severe and intractable epilepsy condition. It presents in the first year of life as a series of prolonged generalized clonic seizures in the setting of otherwise normal cognitive and motor development.

Patients with this syndrome have a high propensity to enter into a life threatening state of status epilepticus, where the brain is in a persistent state of seizure. Unfortunately, children with this syndrome develop persistent gait ataxia – the inability to coordinate walking – in addition to cognitive and behavioral impairments.

Traditional Treatment Options

Treatment of epilepsy syndromes is a complex process involving a combination of drug therapy, diet, and even surgical intervention for some intractable cases. Antiepileptic drugs (AED) are administered according to the seizure type which is being treated. Additional factors such as side effect profile, cost, and method of administration are also highly considered, especially in the case of children.

While undergoing AED therapy, children will have to have their blood levels closely monitored in order to ensure that drug levels remain in the appropriate range – toxic levels of some AEDs may initiate seizure activity themselves. Patients and caregivers are very familiar with having to slowly increase the dosage of their medication to reach a maintenance dose which will provide optimal seizure control.

in 20-40% of children with epilepsy syndromes, lack of efficacy and side effects lead to the addition of a second AED to the therapeutic regimen. This further complicates treatment therapy however, as drug interactions and adverse interactions (ex. the induction of new seizure types) become a greater possibility once a second AED is introduced.

Additional options for those who have intractable seizures include consuming a ketogenic diet, which is a diet high in fat and protein and low in carbohydrates. The theoretical basis for this diet stems from the physiological principle that the brain has two sources of fuel: glucose and ketone bodies.

By significantly reducing the amount of carbohydrates in the diet, the brain will use ketone bodies as its primary fuel source which lowers the seizure threshold in patients. A meta-analysis of the efficacy of the ketogenic diet showed that after 6 months on the diet, approximately 60% of children had a greater than 50% seizure reduction, with 30% of children having greater than 90% seizure reduction.


Click Here to know Homeopathic Treatment of Epilepsy 

Contact here for the treatmnet

One comment

Leave a Reply

Your email address will not be published. Required fields are marked *