Shop Featured Products (click to view) | FREE Domestic Shipping $100+

Free Consultation

Adaptive and Innate Immunity

schedule your Consultation NOW
healthy diet

As we age, our skin changes, and not always for the better.

One of the biggest concerns for women is skin aging, which is the reason why medical spas are becoming increasingly popular.

Medical spas offer a wide range of treatments, including skin rejuvenation, facial treatments, and body contouring.

While these services can help you look and feel your best, it’s important not to overlook the importance of your innate immune response in maintaining your overall health and well-being.

What is Innate Immune Response?

The innate immune response is the first line of defense against infections and disease.

It’s a rapid and nonspecific response that occurs immediately or within hours of an antigen’s appearance in the body.

Antigens are foreign substances, such as bacteria, viruses, and toxins, that can cause harm to your body.

The innate immune system recognizes these antigens and responds by releasing inflammatory cells, such as neutrophils and macrophages, to destroy them.

Adaptive vs. Innate Immunity

Adaptive immunity, on the other hand, is a slower and specific response that targets a particular antigen.

It takes a few days for adaptive immunity to develop, and it’s the reason why you’re immune to a particular virus or bacteria after you’ve been exposed to it before.

The adaptive immune system consists of B and T cells, which work together to create a targeted immune response.

Difference Between Adaptive Immunity and Innate Immunity

CriteriaInnate ImmunityAdaptive Immunity
DefinitionThe body’s natural and immediate defense against pathogens. It does not distinguish between different types of pathogens.The body’s specific and delayed defense against pathogens. It develops as a result of exposure to pathogens or vaccination.
ComponentsPhysical barriers (e.g., skin, mucous membranes), chemical barriers (e.g., saliva, stomach acid), cellular barriers (e.g., natural killer cells, phagocytes), molecular barriers (e.g., complement system, interferons).Lymphocytes (e.g., T cells, B cells), antibodies (e.g., immunoglobulins), antigen-presenting cells (e.g., dendritic cells, macrophages).
MechanismRecognizes and eliminates foreign substances using pattern recognition receptors that bind to common molecular structures on pathogens. Activates inflammation, phagocytosis, complement system and other mechanisms to destroy pathogens.Recognizes and eliminates foreign substances using antigen receptors that bind to specific antigens on pathogens. Activates clonal expansion, differentiation and memory formation of lymphocytes to produce antibodies or cytotoxic molecules that destroy pathogens.
SpeedFast; responds within minutes or hours of pathogen exposure.Slow; responds within days or weeks of pathogen exposure.
SpecificityLow; responds to a broad range of pathogens with similar features.High; responds to a narrow range of pathogens with unique features.
MemoryAbsent or limited; does not remember previous encounters with pathogens or improve response over time.Present and long-lasting; remembers previous encounters with pathogens and improves response over time.

The Importance of a Strong Innate Immune Response

While adaptive immunity is critical for protecting you against specific infections, a strong innate immune response is essential for maintaining your overall health and well-being.

Your innate immune system is constantly on guard, scanning for potential threats, and responding rapidly to neutralize them before they can cause harm.

A healthy innate immune response can help you recover more quickly from infections and reduce the risk of chronic inflammation and disease.

Boosting Your Innate Immune Response

There are several ways to boost your innate immune response and improve your overall health.

Here are some of the most effective strategies:

  • Exercise regularly: Exercise has been shown to boost your immune system by increasing the number of immune cells in your body.
  • Get enough sleep: Sleep is essential for maintaining a healthy immune system. Aim for 7-8 hours of sleep each night.
  • Eat a healthy diet: A diet rich in fruits, vegetables, whole grains, and lean protein can help support a healthy immune system.
  • Manage stress: Chronic stress can weaken your immune system, so it’s important to find ways to manage stress, such as yoga, meditation, or deep breathing exercises.
  • Avoid smoking and excessive alcohol consumption: Both smoking and excessive alcohol consumption can weaken your immune system, so it’s important to avoid them.

By following the strategies outlined above, you can boost your innate immune response and reduce the risk of chronic inflammation and disease.

Remember, prevention is always better than cure, so take care of your innate immune system, and it will take care of you.

Your Body’s First Line of Defense Against Pathogens

As we navigate our daily lives, our bodies come into contact with countless pathogens, from bacteria and viruses to fungi and parasites.

The human immune system is responsible for protecting us from these harmful invaders, and it does so through a complex network of cells, tissues, and organs.

While there are two main types of immune responses – innate and adaptive – in this article, we’ll focus on the innate immune response and how it’s activated by pathogens or infected cells.

The innate immune response is the body’s first line of defense against pathogens.

This type of immunity is present from birth and is non-specific, meaning it can recognize a wide range of pathogens without prior exposure.

Innate immunity is composed of physical, chemical, and cellular barriers that work together to prevent the entry and spread of harmful pathogens.

These barriers include the skin, mucus membranes, stomach acid, and enzymes in tears and saliva.

Innate Immune Cells

In addition to physical and chemical barriers, innate immunity relies on specialized cells to detect and destroy pathogens.

These cells include mast cells, natural killer cells, neutrophils, macrophages, and dendritic cells.

Mast Cells

Mast cells are found in connective tissue and release histamine, which causes inflammation and helps to attract other immune cells to the site of infection.

Natural Killer Cells

Natural killer cells are a type of white blood cell that can kill infected cells and cancer cells. They do not require prior exposure to a specific pathogen to be activated.


Neutrophils are the most abundant type of white blood cell and are typically the first cells to arrive at the site of infection. They can engulf and destroy invading pathogens.


Macrophages are specialized cells that engulf and destroy pathogens and infected cells. They can also present pathogen fragments to other immune cells to activate the adaptive immune response.

Dendritic cells

Dendritic cells are also specialized cells that capture and present pathogen fragments to other immune cells, triggering an immune response.

Activating the Innate Immune Response

When a pathogen breaches the physical and chemical barriers of innate immunity, specialized receptors on innate immune cells recognize specific pathogen-associated molecular patterns (PAMPs) and damage-associated molecular patterns (DAMPs).

These patterns are common to many different types of pathogens and are not present on human cells, allowing innate immune cells to distinguish between self and non-self.

Once a pathogen is detected, innate immune cells can release cytokines, which are signaling molecules that activate other immune cells, increase blood flow, and cause inflammation.

This inflammation helps to isolate and destroy the pathogen.

Innate immunity also activates the complement system, which is a group of proteins that work together to destroy pathogens.

The complement system can directly kill pathogens or tag them for destruction by other immune cells.

Mechanisms of Innate Immune Response

a doctor examines a patient's skin condition

As we grow older, our immune system begins to weaken, which makes us more vulnerable to illnesses and infections. To avoid falling prey to these health issues, it’s crucial to understand how our immune system functions, particularly our innate immune response.

In this section, we’ll delve into the remarkable mechanisms behind innate immunity and how innate immune cells identify and remove foreign substances. 

By learning about the intricacies of our immune system, we can take better care of our health and ensure a stronger defense against disease.

Phagocytosis: The First Line of Defense

Phagocytosis is the process by which immune cells engulf and digest foreign particles, such as bacteria and viruses.

This process is carried out by specialized immune cells called phagocytes, which include neutrophils, macrophages, and dendritic cells.

These cells are constantly patrolling our body, looking for foreign particles to engulf.

Inflammation: The Second Line of Defense

Inflammation is the body’s response to injury or infection.

It’s a complex process that involves the activation of various immune cells and the release of inflammatory molecules.

Inflammation is important because it helps to isolate and eliminate the foreign substance, while also initiating tissue repair.

The Complement System: Enhancing the Innate Immune Response

The complement system is a group of proteins that work together to enhance the innate immune response.

The complement system can detect and eliminate foreign substances by binding to them and activating a cascade of reactions that lead to their destruction.

The complement system also helps to recruit other immune cells to the site of infection, further enhancing the immune response.

How Innate Immune Cells Recognize Foreign Substances

Innate immune cells are able to recognize foreign substances through a variety of mechanisms.

One of the most important mechanisms is the recognition of pathogen-associated molecular patterns (PAMPs).

PAMPs are unique molecules found on the surface of foreign particles, such as bacteria and viruses.

Innate immune cells have receptors on their surface that can recognize these PAMPs and trigger an immune response.

Another important mechanism is the recognition of damage-associated molecular patterns (DAMPs).

DAMPs are molecules released by damaged cells that can activate the innate immune response.

Innate immune cells also have receptors that can recognize these DAMPs and trigger an immune response.

Activation of Adaptive Immunity by Antigen-Presenting Cells

The key players in adaptive immunity are T cells and B cells, which are both produced in the bone marrow.

T cells are responsible for recognizing and attacking infected cells, while B cells produce antibodies that target pathogens in the bloodstream.

However, these cells need to be activated by antigen-presenting cells in order to function effectively.

Antigen-presenting cells are specialized immune cells that display specific antigens on their surface, which are small fragments of proteins that are unique to each pathogen.

These antigens act as a signal to T cells and B cells, triggering an immune response that targets the pathogen.

Differentiation of T Cells

T cells are divided into two main categories: helper T cells and cytotoxic T cells.

Helper T cells, also known as CD4+ T cells, play a crucial role in activating and coordinating other cells of the immune system.

When activated by antigen-presenting cells, helper T cells release signaling molecules called cytokines, which stimulate the production and activation of other immune cells.

On the other hand, cytotoxic T cells, also known as CD8+ T cells, directly attack and kill infected cells.

These cells are particularly effective at targeting cells that are infected with viruses, as they can recognize and destroy cells that are producing viral proteins.

Adaptive Immune Response: How Your Body Fights Back Against Specific Threats

Your immune system is your body’s defense against harmful invaders, such as bacteria, viruses, fungi, parasites, toxins, and cancer cells.

It consists of two main parts: innate immunity and adaptive immunity.

Innate immunity is your first line of defense.

It is fast, general, and nonspecific.

It recognizes common features of many pathogens and attacks them with physical barriers (such as skin and mucous membranes), chemical substances (such as enzymes and acids), cellular components (such as phagocytes and natural killer cells), and inflammatory responses.

Adaptive immunity is your second line of defense. It is slow, specific, and memory-based.

It recognizes unique features of specific pathogens and attacks them with specialized cells (such as T cells and B cells) and molecules (such as antibodies).

Adaptive immunity also remembers previous encounters with pathogens and responds more quickly and effectively if they reappear.

Activation by Antigen-Presenting Cells

Adaptive immunity begins when a pathogen enters your body and triggers an innate immune response.

Some of the innate immune cells, such as dendritic cells, macrophages, or B cells¹, can act as antigen-presenting cells (APCs).

An antigen is any substance that can trigger an immune response.

APCs capture antigens from pathogens or infected or abnormal cells²³and display them on their surface using special proteins called major histocompatibility complex (MHC) molecules².

APCs then travel to lymph nodes or other lymphatic organs where they encounter T cells¹.

T cells are a type of white blood cell that play a central role in adaptive immunity.

They have receptors on their surface that can recognize specific antigens displayed by APCs using MHC molecules. When this happens, T cells become activated.

Differentiation into Helper T Cells or Cytotoxic T Cells

Depending on the type of antigen presented by APCs using MHC molecules, activated T cells can differentiate into two main types: helper T cells or cytotoxic T cells¹.

Helper T cells are also called CD4+ T cells because they have a protein called CD4 on their surface that helps them bind to MHC class II molecules on APCs.

Helper T cells help other immune cells perform their functions by secreting various cytokines, which are chemical messengers that regulate immune responses.

Cytotoxic T cells are also called CD8+ T cells because they have a protein called CD8 on their surface that helps them bind to MHC class I molecules on APCs².

Cytotoxic T cells directly kill infected or abnormal cells by releasing perforins and granzymes that induce apoptosis¹, which is programmed cell death.

Stimulation of B Cells to Produce Antibodies

One of the functions of helper T cells is to stimulate B cells to produce antibodies.

B cells are another type of white blood cell that play a key role in adaptive immunity.

They have receptors on their surface that can recognize specific antigens directly without needing APCs or MHC molecules. When this happens, B cells become activated.

Activated B cells then interact with helper T cells that recognize the same antigen using MHC class II molecules.

This interaction leads to further activation, proliferation, and differentiation of B cells into plasma cells or memory B cells.

Plasma cells are antibody-producing factories that secrete large amounts of antibodies into the bloodstream or other body fluids.

Antibodies are Y-shaped proteins that bind to antigens with high specificity and affinity.

They mark antigens for destruction by other immune cells such as phagocytes or natural killer cells. They also neutralize antigens by blocking their ability to infect or damage other cells.


Q: How does adaptive immunity protect against infectious diseases?

A: Adaptive immunity protects against infectious diseases by generating specific responses to eliminate pathogens or infected cells that have escaped innate immunity2.

Adaptive immunity also provides long-term protection against reinfection by establishing immunological memory with memory T cells and B cells that can quickly reactivate if they encounter the same antigen again2.

For example, vaccines work by stimulating adaptive immunity to produce antibodies and memory cells against a weakened or killed form of a pathogen without causing disease.

Q: How does adaptive immunity respond to viral infections?

A: Adaptive immunity responds to viral infections by activating both humoral and cell-mediated branches.

Humoral immunity involves B cells producing antibodies that can neutralize viruses or mark them for destruction by other immune cells.

Cell-mediated immunity involves cytotoxic T cells killing virus-infected cells by inducing apoptosis.

Helper T cells also help both branches by secreting cytokines that regulate immune responses.

Q: What are epithelial cells and what role do they play in adaptive immunity?

A: Epithelial cells are a type of cell that line the surfaces and cavities of the body, such as skin, mucous membranes, lungs, intestines, etc.

They play a role in adaptive immunity by acting as physical barriers against pathogens, producing antimicrobial substances such as defensins or lysozyme, expressing MHC class I molecules that present antigens to cytotoxic T cells, and secreting cytokines that attract or activate other immune cells such as dendritic cells or lymphocytes.

Q: What are cell surface receptors and how do they help adaptive immune cells?

A: Cell surface receptors are proteins that are embedded in the membrane of a cell and can bind to specific molecules outside the cell.

They help adaptive immune cells recognize and respond to specific antigens that are displayed by antigen-presenting cells (APCs) using MHC molecules.

For example, T cell receptors (TCRs) on T cells bind to antigens presented by MHC class I or II molecules on APCs1, while B cell receptors (BCRs) on B cells bind to antigens directly without needing MHC molecules.

Q: What is an autoimmune disease and how does it relate to adaptive immunity?

A: An autoimmune disease is a condition where the immune system mistakenly attacks healthy cells or tissues of the body as if they were foreign invaders

This can cause inflammation, damage, and dysfunction of various organs or systems.

Autoimmune diseases can result from a failure of adaptive immunity to distinguish self-antigens from nonself antigens.

For example, type 1 diabetes is an autoimmune disease where cytotoxic T cells destroy insulin-producing beta cells in the pancreas.

How to Boost Your Immunity with SeeBeyond Beauty

Do you know how SeeBeyond Beauty can help you improve your immunity and enhance your beauty?

One of our signature treatments is called ImmuneBoost™️, which uses a combination of light therapy, microcurrent stimulation, oxygen infusion, hyaluronic acid serum, vitamin C serum, collagen mask, peptide cream, stem cell extract, probiotic spray, CBD oil massage, and aromatherapy to stimulate your adaptive immune system and rejuvenate your skin.

How ImmuneBoost™️ works

  • Light therapy uses red light wavelengths to penetrate deep into your skin layers and activate your mitochondria (the powerhouses of your cells) which increase cellular energy production and repair damaged DNA.
  • Microcurrent stimulation uses low-level electrical currents to mimic the natural electrical signals in your body which enhance cellular communication and regeneration.
  • Oxygen infusion uses pressurized oxygen to deliver nutrients such as hyaluronic acid serum (a natural moisturizer), vitamin C serum (an antioxidant), collagen mask (a protein that provides structure), peptide cream (a chain of amino acids that stimulates collagen production), stem cell extract (a source of growth factors), probiotic spray (a balance of good bacteria), CBD oil massage (a cannabinoid compound with anti-inflammatory and analgesic properties), and aromatherapy (a use of essential oils to enhance mood and well-being) to your skin cells which boost their function and vitality.

The result is a stronger adaptive immune system that can fight off infections and diseases more effectively and a younger-looking skin that glows with health and beauty.

What are the benefits of ImmuneBoost™️?

  • ImmuneBoost™️ has many benefits for your health and beauty such as:
  • Improving your resistance to viral infections such as colds or flu
  • Reducing your risk of autoimmune diseases such as rheumatoid arthritis or psoriasis
  • Enhancing your wound healing and scar reduction
  • Increasing your collagen production and elasticity
  • Reducing your wrinkles and fine lines
  • Brightening your skin tone and texture
  • Hydrating your skin and locking in moisture
  • Balancing your skin pH and microbiome
  • Relaxing your mind and body

How can you get ImmuneBoost™️?

If you are interested in getting ImmuneBoost™️, you can contact SeeBeyond Beauty today and get a free consultation on how to boost your immunity and beauty.

SeeBeyond Beauty is a medical spa service provider that has been serving customers for years with high-quality treatments and products.

We have a team of certified professionals who are trained in using the latest technology and natural ingredients to deliver personalized solutions for your health and beauty needs.

We also offer other services such as facial rejuvenation, body contouring, hair removal, acne treatment, anti-aging therapy, detoxification therapy, and more.

You can call us at (914) 721-3045 or book an appointment to learn more about our services.

Don’t wait any longer. Boost your immunity and beauty with SeeBeyond Beauty today!

We are offering 30 minutes for free to talk to one of SeeBeyond's Functional Medicine Practitioners to create a personalized regimen.

Fill out the form below to schedule your consultation.

Request Consultation - Consultation Popup