Oral dysbiosis refers to an imbalance in the community of microorganisms (bacteria, fungi, viruses) that live in the mouth. In a healthy mouth, these microbes coexist in harmony and help with digestion, protect against harmful germs, and maintain tissue health. When this balance is disturbed—due to factors like poor oral hygiene, diet, or illness—harmful microbes can overgrow and cause tooth decay, gum disease, bad breath, and even systemic problems like heart inflammation or diabetes complications. Oral dysbiosis is not a single disease but a condition underlying many oral health problems.
Oral dysbiosis happens when the natural balance of germs (microbes) in your mouth is upset. Normally, your mouth has many types of bacteria, fungi, and viruses living together in harmony. These microbes help protect your teeth and gums, help digest food, and stop harmful bugs from taking over. But if this community of microbes gets thrown off balance—because some grow too much and others shrink—it can lead to problems like cavities, gum disease, and infections. Oral dysbiosis is not a single illness but a condition where many mouth diseases share the same root cause: a disturbed microbial balance.
Types of Oral Dysbiosis
Cariogenic Dysbiosis (Cavity-Associated)
When acid-producing bacteria such as Streptococcus mutans grow too much, they eat sugars in your food and produce acid. This acid wears away tooth enamel, leading to cavities.Periodontal Dysbiosis (Gum Disease-Associated)
In this type, harmful bacteria like Porphyromonas gingivalis overgrow under the gum line, causing inflammation, bleeding, and eventually damage to the bone that holds teeth.Fungal Dysbiosis (Oral Thrush)
An overgrowth of the fungus Candida albicans can cause white patches on the tongue, roof of the mouth, and inner cheeks, leading to soreness and difficulty swallowing.Endodontic Dysbiosis (Root Canal-Associated)
When microbes invade the tooth pulp (the soft inside of a tooth), they can cause deep infection and pain that often requires a root canal procedure.Peri-implant Dysbiosis (Around Dental Implants)
After dental implants, a shift toward disease-causing microbes can lead to inflammation of the tissues around the implant, risking implant failure.Developmental Dysbiosis (Early Childhood Caries)
In young children, an imbalanced oral microbiome can lead to severe early cavities that affect many teeth.Halitosis-Linked Dysbiosis (Bad Breath)
When certain anaerobic bacteria (ones that grow without oxygen) increase at the back of the tongue or in periodontal pockets, they produce sulfur compounds that cause bad breath.Xerostomia-Related Dysbiosis (Dry Mouth)
Reduced saliva flow shifts microbial balance, allowing harmful bacteria to flourish, leading to cavities and gum disease.Radiation-Induced Dysbiosis
Cancer treatments that affect salivary glands can dramatically alter the oral microbiome, increasing risk of infections and mucositis (painful inflammation).Antibiotic-Associated Dysbiosis
Broad-spectrum antibiotics can kill both harmful and helpful mouth microbes, opening the door to fungal overgrowth or resistant bacterial strains.
Causes of Oral Dysbiosis
High Sugar Diet
Sugary foods feed acid-producing bacteria, promoting cavity-causing microbes.Poor Oral Hygiene
Infrequent brushing or flossing lets plaque build up, giving harmful germs a chance to grow.Dry Mouth (Xerostomia)
Less saliva means fewer protective enzymes and less mechanical cleaning, so bacteria flourish.Smoking and Tobacco Use
Tobacco products change saliva composition and local immunity, favoring disease-causing bacteria.Alcohol Consumption
Alcohol can dry out tissues and alter microbial populations.Frequent Antibiotic Use
Antibiotics kill many of the helpful bacteria that keep harmful microbes in check.Imbalanced Diet (Low Fibers & Nutrients)
Diets lacking fruits, vegetables, and water reduce saliva and beneficial microbes.Hormonal Changes (Puberty, Pregnancy, Menopause)
Hormones can change gum tissue and saliva, impacting microbial balance.Stress
Chronic stress weakens immunity, allowing harmful microbes to overgrow.Systemic Diseases (Diabetes, HIV)
Conditions that lower immunity change saliva and tissue health, shifting microbial balance.Orthodontic Appliances (Braces, Retainers)
These can trap food and make cleaning harder, encouraging plaque-forming bacteria.Dental Restorations (Crowns, Bridges)
Imperfect margins can harbor bacteria underneath, leading to hidden dysbiosis.Low Fluoride Exposure
Fluoride strengthens enamel; without it, teeth become more vulnerable to acid.Mouth Breathing
Air drying of tissues reduces saliva’s protective role.Infrequent Dental Checkups
Without regular cleanings, plaque and tartar accumulate, upsetting microbial balance.Use of Antiseptic Mouthwash (Overuse)
Excessive antiseptics can kill beneficial microbes, similar to antibiotics.Poor Hydration
Not drinking enough water reduces saliva flow.Vaping
Emerging evidence shows vaping alters the oral microbiome similarly to smoking.Genetic Susceptibility
Some people have genes that make their saliva less effective at controlling microbes.Nutritional Deficiencies (Vitamin C, D, Iron)
Lack of key nutrients weakens gums and immune response, letting harmful microbes gain ground.
Symptoms of Oral Dysbiosis
Tooth Pain or Sensitivity
Early sign of enamel erosion by acid-producing bacteria.Bleeding Gums
Indicates inflammation from harmful bacteria under gums.Red, Swollen Gums
A common symptom of periodontal dysbiosis.White Patches or Coating
Suggests fungal overgrowth (thrush).Bad Breath (Halitosis)
Caused by sulfur compounds from anaerobic bacteria.Dry Mouth
May be both cause and symptom, as microbial imbalance worsens.Metallic Taste
Shifts in bacteria can change taste perception.Difficulty Chewing or Swallowing
Pain or swelling from infections.Loose Teeth
Advanced gum disease can erode bone.Receding Gums
Exposes roots, often painful and sensitive.Oral Ulcers or Sores
Can signal imbalance or secondary infection.Pus Around Gums
Indicates active infection.Tooth Discoloration
Bacterial pigments can stain enamel.Tongue Coating
Visible film from bacterial or fungal overgrowth.Changes in Saliva (Thick, Foamy)
Reflects altered composition from microbial shifts.
Diagnostic Tests for Oral Dysbiosis
A. Physical Exam
Oral Inspection
Visual check of teeth, gums, tongue, and throat for lesions, coatings, swelling, and plaque.Gingival Probing
Gently measuring depth of gum pockets around each tooth; deeper pockets suggest periodontal dysbiosis.Palpation
Feeling tissues for swelling, tenderness, or fluctuance (pus pockets).Bite Evaluation
Checking for malocclusion that can trap food and plaque.
B. Manual Tests
Plaque Disclosing Agent
Dye applied to teeth to highlight areas of plaque build-up.Sialometry (Saliva Flow Test)
Simple measurement of saliva production to detect dry mouth.pH Testing
Chewing pH strips measure mouth acidity; low pH indicates acidogenic dysbiosis.
C. Lab and Pathological Tests
Microbial Culture
Swabs from gums, tongue, or lesions grown on media to identify overgrown bacteria or fungi.PCR Testing
Detects specific microbial DNA for pathogens like P. gingivalis or Candida.Gram Stain
Smear of plaque or sputum to quickly show bacterial types under microscope.Complete Blood Count (CBC)
Looks for signs of systemic infection or immune response.C-Reactive Protein (CRP)
Blood marker for inflammation that often rises with severe gum disease.Immunoglobulin Levels
Tests antibodies against common oral pathogens.Biopsy of Lesion
Tiny tissue sample from suspicious sore to rule out severe conditions.
D. Electrodiagnostic Tests
Electrogustometry
Measures taste nerve function, which can be altered in dysbiosis.Electromyography (EMG) of Jaw Muscles
Less common, used if muscle pain from infection is suspected.
E. Imaging Tests
Dental X-Rays (Bitewing/Panoramic)
Show cavities, bone loss, and hidden infections.Cone Beam CT (CBCT)
3D imaging for detailed view of bone around implants or roots.Ultrasound of Salivary Glands
Checks for blockages or sialadenitis affecting saliva flow.MRI of Jaw/TMJ Area
Used when soft-tissue infections or complicated dysbiosis affect joints.
Non-Pharmacological Treatments
(Therapies and other approaches, with Description, Purpose, Mechanism)
Regular Brushing & Flossing
Description: Brushing teeth twice daily with fluoride toothpaste and flossing once daily.
Purpose: Mechanically remove dental plaque biofilm.
Mechanism: Disrupts bacterial colonies and prevents acid production that damages teeth.
Professional Dental Cleaning
Description: Scaling and polishing by a dentist every 6 months.
Purpose: Remove hardened plaque (calculus) and stains.
Mechanism: Ultrasonic and manual tools break up calculus, reducing bacterial load.
Chlorhexidine Mouthwash Rinse
Description: A 0.12–0.2% chlorhexidine gluconate rinse for 2 weeks.
Purpose: Reduce pathogenic bacteria in the mouth.
Mechanism: Binds to bacterial cell walls, causing leakage and death of microbes.
Oil Pulling
Description: Swishing 1 tablespoon of coconut or sesame oil for 10–15 minutes daily.
Purpose: Decrease harmful bacteria and improve oral hygiene.
Mechanism: Oil’s lipophilic properties trap bacteria and reduce plaque formation.
Tongue Scraping
Description: Using a tongue scraper once daily after brushing.
Purpose: Remove microbial coating on the tongue.
Mechanism: Physically dislodges bacteria and food debris that contribute to bad breath.
Probiotic Lozenges or Chews
Description: Daily lozenge containing Streptococcus salivarius K12 or similar.
Purpose: Restore beneficial oral flora.
Mechanism: Colonizing friendly bacteria compete with pathogens for space and nutrients.
Hydrogen Peroxide Rinse
Description: Dilute 1.5% hydrogen peroxide rinse for 30 seconds once daily.
Purpose: Reduce anaerobic bacteria.
Mechanism: Releases oxygen, creating an inhospitable environment for anaerobes.
Low-Level Laser Therapy (LLLT)
Description: Laser applied to gums in short sessions.
Purpose: Promote tissue healing and reduce inflammation.
Mechanism: Photobiomodulation stimulates blood flow and cellular repair.
Photodynamic Therapy
Description: Application of a photosensitizer dye followed by light activation.
Purpose: Kill bacteria in periodontal pockets.
Mechanism: Activated dye produces reactive oxygen species that destroy microbes.
Salivary Stimulation
Description: Chewing sugar-free gum or lozenges.
Purpose: Increase saliva flow to wash away bacteria.
Mechanism: Saliva contains antimicrobial proteins and buffers acids.
Dietary Fiber & Crunchy Fruits
Description: Eating raw apples, carrots, and celery.
Purpose: Naturally clean teeth and gums.
Mechanism: Mechanical abrasion removes plaque; saliva stimulation increases.
Oil-Based Essential Oil Mouthwashes
Description: Rinses containing eucalyptus, peppermint, or tea tree oil.
Purpose: Provide antibacterial and anti-inflammatory effects.
Mechanism: Essential oils disrupt microbial membranes and reduce inflammation.
Dental Sealants
Description: Plastic coating applied to molars.
Purpose: Prevent bacterial colonization in pits and fissures.
Mechanism: Creates a smooth surface that is harder for bacteria to adhere to.
Microbiome-Friendly Toothpaste
Description: Formulations without harsh detergents (e.g., SLS-free).
Purpose: Preserve beneficial oral bacteria while cleaning.
Mechanism: Gentle surfactants remove debris without aggressively killing commensals.
Microcurrent Therapy
Description: Low-level electrical currents applied to the gums.
Purpose: Enhance circulation and immune response locally.
Mechanism: Stimulates cellular activity and nutrient delivery to gum tissues.
Stress Management Techniques
Description: Meditation, yoga, or deep-breathing exercises.
Purpose: Reduce stress-induced changes in saliva and immune function.
Mechanism: Lower cortisol levels help maintain a balanced microbiome.
Improved Hydration
Description: Drinking 8–10 glasses of water per day.
Purpose: Maintain saliva production and oral pH balance.
Mechanism: Dilutes sugars and acids, provides minerals for enamel repair.
pH-Balancing Lozenges
Description: Xylitol-containing lozenges with buffering agents.
Purpose: Neutralize oral acidity after meals.
Mechanism: Xylitol inhibits cariogenic bacteria; buffers restore neutral pH.
Orthodontic Adjustments
Description: Realigning teeth to reduce crowded areas.
Purpose: Easier cleaning and less plaque buildup.
Mechanism: Proper tooth alignment minimizes hidden niches for bacteria.
Customized Oral Hygiene Education
Description: One-on-one coaching on technique and frequency.
Purpose: Ensure effective self-care routines.
Mechanism: Personalized feedback improves compliance and plaque control.
Drug Treatments
(Class, Dosage, Timing, Purpose, Mechanism, Side Effects)
Chlorhexidine Gluconate (Mouthwash)
Class: Antiseptic rinse
Dosage: 10 mL of 0.12% solution, twice daily
Timing: After brushing, morning and night
Purpose: Reduce plaque and gingivitis
Mechanism: Disrupts bacterial cell membrane integrity
Side Effects: Teeth staining, altered taste, mucosal irritation
Metronidazole (Gel or Tablet)
Class: Nitroimidazole antibiotic
Dosage: 0.75% gel applied to gums twice daily or 250 mg tablet three times daily
Timing: Morning, lunch, evening for tablets
Purpose: Target anaerobic periodontal pathogens
Mechanism: DNA strand breakage in anaerobes
Side Effects: Metallic taste, nausea, interaction with alcohol
Amoxicillin + Metronidazole (Combination)
Class: Beta-lactam + nitroimidazole
Dosage: 500 mg amoxicillin + 250 mg metronidazole, three times daily for 7 days
Timing: With meals
Purpose: Broad-spectrum coverage of periodontal bacteria
Mechanism: Cell wall inhibition + DNA damage
Side Effects: Diarrhea, allergic reactions, gastrointestinal upset
Doxycycline (Sub-antimicrobial Dose)
Class: Tetracycline deriv.
Dosage: 20 mg tablet, once daily
Timing: Morning, empty stomach
Purpose: Inhibit collagenase enzymes in gums
Mechanism: Reduces tissue-destroying enzymes without antimicrobial effect
Side Effects: Photosensitivity, esophageal irritation
Azithromycin
Class: Macrolide antibiotic
Dosage: 500 mg on day 1, then 250 mg once daily for 4 days
Timing: With or without food
Purpose: Adjunct for aggressive periodontitis
Mechanism: Inhibits bacterial protein synthesis
Side Effects: GI upset, QT prolongation risk
Minocycline Microspheres (Arestin)
Class: Tetracycline antibiotic
Dosage: 1 mg per periodontal pocket
Timing: Single office application after scaling
Purpose: Local sustained-release antimicrobial
Mechanism: Inhibits bacterial protein synthesis locally
Side Effects: Local irritation, discoloration
Clindamycin
Class: Lincosamide antibiotic
Dosage: 300 mg, four times daily for 7–10 days
Timing: Every 6 hours
Purpose: Alternative for penicillin-allergic patients
Mechanism: Inhibits bacterial protein synthesis
Side Effects: Risk of C. difficile colitis, GI upset
Povidone-Iodine Rinse
Class: Antiseptic
Dosage: 10 mL of 1% solution, twice daily
Timing: After brushing
Purpose: Broad-spectrum microbial reduction
Mechanism: Iodination and disruption of cell proteins
Side Effects: Altered taste, potential iodine sensitivity
Sodium Hypochlorite Irrigation
Class: Antimicrobial irrigant
Dosage: 0.2–0.5% solution during periodontal therapy
Timing: In-office use only
Purpose: Pocket debridement adjunct
Mechanism: Oxidative destruction of bacteria
Side Effects: Tissue irritation if misused
Locally Delivered Metal Ions (e.g., Silver Nanoparticles)
Class: Metal-based antimicrobial
Dosage: Applied by dentist in periodontal pockets
Timing: Single application during cleaning
Purpose: Long-lasting antimicrobial environment
Mechanism: Disrupts bacterial membranes and enzymes
Side Effects: Potential tissue discoloration, unknown long-term effects
Dietary Molecular & Herbal Supplements
(Dosage, Function, Mechanism)
Xylitol
Dosage: 6–10 g daily in gum or mints
Function: Anti-cariogenic sweetener
Mechanism: Inhibits Streptococcus mutans growth
Green Tea Extract (EGCG)
Dosage: 500 mg capsule twice daily
Function: Anti-inflammatory, antioxidant
Mechanism: Inhibits bacterial collagenases and inflammatory cytokines
Coenzyme Q10
Dosage: 100 mg daily
Function: Enhance gum healing
Mechanism: Mitochondrial energy support in gingival cells
Curcumin (Turmeric)
Dosage: 500 mg twice daily
Function: Anti-inflammatory and antimicrobial
Mechanism: Inhibits NF-κB inflammatory pathway
Omega-3 Fatty Acids
Dosage: 1–2 g EPA/DHA daily
Function: Modulate inflammation
Mechanism: Produces anti-inflammatory resolvins
Vitamin D3
Dosage: 1,000–2,000 IU daily
Function: Support immune defense
Mechanism: Enhances antimicrobial peptide production
Vitamin C
Dosage: 500–1,000 mg daily
Function: Collagen synthesis in gum tissue
Mechanism: Cofactor for prolyl and lysyl hydroxylase
Propolis
Dosage: 500 mg capsule twice daily
Function: Antibacterial and wound healing
Mechanism: Flavonoids disrupt bacterial cell walls
Aloe Vera Gel (Oral Rinse)
Dosage: 10 mL of 50% gel, twice daily
Function: Soothe inflamed gums
Mechanism: Polysaccharides reduce inflammation and promote healing
Zinc Lozenges
Dosage: 15 mg elemental zinc daily
Function: Antimicrobial and immune support
Mechanism: Inhibits bacterial adhesion and enzyme activity
Berberine
Dosage: 300 mg twice daily
Function: Antimicrobial and anti-inflammatory
Mechanism: Inhibits bacterial DNA replication and cytokine release
Quercetin
Dosage: 500 mg daily
Function: Antioxidant and mast cell stabilization
Mechanism: Reduces histamine release and oxidative stress
Garlic Extract
Dosage: 500 mg allicin-standardized extract daily
Function: Broad-spectrum antibacterial
Mechanism: Allicin disrupts bacterial enzymes
Papain (Papaya Enzyme)
Dosage: 250 mg daily
Function: Debrides necrotic tissue
Mechanism: Proteolytic breakdown of damaged proteins
Methylsulfonylmethane (MSM)
Dosage: 1,500 mg daily
Function: Collagen support and anti-inflammatory
Mechanism: Provides sulfur for connective tissue repair
Regenerative & Stem Cell-Related Drugs
(Dosage, Function, Mechanism)
Recombinant Human Platelet-Derived Growth Factor (rhPDGF-BB)
Dosage: Gel applied in periodontal defect during surgery
Function: Stimulate bone and soft tissue regeneration
Mechanism: Attracts and proliferates osteoblasts and fibroblasts
Enamel Matrix Derivative (EMD)
Dosage: 0.3 mg per defect site applied in surgery
Function: Promote periodontal ligament and cementum regeneration
Mechanism: Mimics embryonic enamel proteins to guide cell growth
Bone Morphogenetic Protein-2 (rhBMP-2)
Dosage: 1.5 mg/mL scaffold application
Function: Induce new bone formation
Mechanism: Stimulates mesenchymal cell differentiation into osteoblasts
Granulocyte-Macrophage Colony-Stimulating Factor (GM-CSF)
Dosage: 250 μg injection into periodontal tissues
Function: Enhance immune cell recruitment for tissue repair
Mechanism: Stimulates macrophage activation and angiogenesis
Autologous Platelet-Rich Fibrin (PRF)
Dosage: Patient’s blood centrifuged and fibrin clot applied to site
Function: Deliver growth factors for healing
Mechanism: Slow release of PDGF, TGF-β, and VEGF to promote regeneration
Mesenchymal Stem Cell-Conditioned Medium
Dosage: Applied as gel or injection during periodontal surgery
Function: Provide paracrine factors for tissue repair
Mechanism: Contains cytokines and exosomes that stimulate resident cells
Surgeries
(Procedure, Why It’s Done)
Flap Surgery (Periodontal Pocket Reduction)
Procedure: Gum is lifted, plaque and calculus removed, and tissue sutured back.
Why: Deep pockets harbor bacteria; reducing pocket depth improves cleaning.
Bone Grafting
Procedure: Placement of bone or synthetic graft material in bone defects.
Why: Restore bone support around teeth lost to periodontitis.
Guided Tissue Regeneration (GTR)
Procedure: Barrier membrane placed between gum and bone, allowing selective cell repopulation.
Why: Encourage bone and ligament regeneration rather than scar tissue.
Crown Lengthening
Procedure: Gum and bone tissue reshaped to expose more tooth surface.
Why: Improve access for cleaning or prepare for restorative work.
Laser-Assisted New Attachment Procedure (LANAP)
Procedure: Laser removes diseased tissue and disinfects pockets, promoting healing.
Why: Less invasive alternative to flap surgery with faster recovery.
Prevention Strategies
Consistent, proper brushing and flossing
Routine dental check-ups every 6 months
Balanced diet low in sugars and acids
Avoid tobacco and limit alcohol use
Stimulate saliva with sugar-free gum
Use fluoride toothpaste or varnish treatments
Manage systemic health (e.g., control diabetes)
Replace toothbrush every 3 months
Wear a nightguard if grinding teeth
Educate on correct oral hygiene techniques
When to See a Doctor
Gums that bleed easily during brushing or flossing
Persistent bad breath despite hygiene efforts
Loose or shifting teeth
Pain or swelling in gums or jaw
Pus between teeth and gums
Receding gums or exposed tooth roots
Changes in bite or fit of dentures
Chronic dry mouth
Unexplained mouth ulcers lasting over 2 weeks
Systemic symptoms (fever, malaise) with oral issues
What to Eat & What to Avoid
Eat:
Crunchy fruits and vegetables (apples, carrots)
Dairy products (yogurt, cheese) for calcium and probiotics
Leafy greens (spinach, kale) rich in vitamins
Nuts and seeds for minerals and healthy fats
Green tea for antioxidants
Water throughout the day
Lean proteins (fish, poultry) for tissue repair
Whole grains for balanced nutrition
Sugar-free gum to stimulate saliva
Xylitol-sweetened mints to reduce cavities
Avoid:
Sugary snacks and sodas
Sticky candies that cling to teeth
Acidic foods (citrus fruits, pickles) without rinsing
Starchy snacks (chips, crackers) that break down to sugars
Excessive alcohol that dries oral tissues
Tobacco products of any kind
Energy drinks with high sugar and acid
Ice chewing that can crack teeth
Hard candies requiring prolonged sucking
Frequent snacking without oral hygiene
Frequently Asked Questions
What causes oral dysbiosis?
Poor oral hygiene, high-sugar diet, smoking, dry mouth, and systemic diseases can all disrupt microbial balance.Can oral dysbiosis affect my overall health?
Yes. Imbalanced oral bacteria can enter the bloodstream and contribute to heart disease, diabetes complications, and pregnancy issues.How is oral dysbiosis diagnosed?
Dentists assess gum health, plaque levels, and may use microbial tests to identify pathogenic bacteria.Is oral dysbiosis reversible?
In many cases, yes. Improving hygiene, diet, and professional care can restore balance.Can probiotics help?
Certain oral probiotics can recolonize beneficial bacteria and reduce harmful species.How long does treatment take?
Improvement can be seen in weeks, but maintaining good habits is lifelong.Are there side effects to mouthwashes?
Some antiseptic rinses may stain teeth or alter taste temporarily.Is a sugar-free diet enough?
It helps but must be combined with mechanical cleaning and professional care.Can children get oral dysbiosis?
Yes; childhood diet and hygiene habits are crucial for prevention.Does flossing really matter?
Absolutely—up to 40% of tooth surfaces are only reachable by flossing.Are herbal supplements safe?
Most are safe at recommended doses, but always check with your dentist or doctor.Can stress worsen oral dysbiosis?
Yes—stress can alter saliva composition and immune response in the mouth.Do I need antibiotics?
Only if your dentist prescribes them for active infection or aggressive disease.Can regenerative drugs fully reverse bone loss?
They can help regenerate tissue but work best when used with surgery and hygiene.How often should I replace my toothbrush?
Every 3 months, or sooner if bristles are frayed.
Disclaimer: Each person’s journey is unique, treatment plan, life style, food habit, hormonal condition, immune system, chronic disease condition, geological location, weather and previous medical history is also unique. So always seek the best advice from a qualified medical professional or health care provider before trying any treatments to ensure to find out the best plan for you. This guide is for general information and educational purposes only. Regular check-ups and awareness can help to manage and prevent complications associated with these diseases conditions. If you or someone are suffering from this disease condition bookmark this website or share with someone who might find it useful! Boost your knowledge and stay ahead in your health journey. We always try to ensure that the content is regularly updated to reflect the latest medical research and treatment options. Thank you for giving your valuable time to read the article.
The article is written by Team RxHarun and reviewed by the Rx Editorial Board Members
Last Updated: August 05, 2025.




