Breast Implant Illness (BII)
Women with breast implants are reporting a consistent, documented pattern of systemic symptoms — fatigue, brain fog, joint pain, hair loss, autoimmune flares — that improve or resolve after complete implant and capsule removal. Research published in the Journal of Clinical Investigation, Plastic and Reconstructive Surgery, and Aesthetic Surgery Journal is now identifying the specific biological mechanisms that produce them.
Dr. Whitfield's published PCR research is foundational to that evidence. His IRB-approved study of 694 consecutive explant capsule specimens — the largest of its kind in medical literature — identified bacterial contamination in 29% of samples using next-generation molecular sequencing.
Explant Procedures
PCR Contamination Rate
Capsules Tested (Published)
Bacterial Species Identified
What Is Breast Implant Illness?
Breast implant illness (BII) refers to a cluster of systemic symptoms reported by women with breast implants — saline or silicone, textured or smooth — that are not explained by other diagnoses and that frequently improve after complete implant and capsule removal.
BII is not a single disease with a single cause. It is the downstream result of the immune system's chronic response to the implant and, in many cases, to the bacterial biofilm colonizing the surrounding capsule. That response varies in intensity based on implant type, capsule condition, bacterial contamination load, individual immune genetics, and duration of exposure.
The FDA acknowledges women's reports of systemic symptoms associated with breast implants and continues to collect safety data. Multiple peer-reviewed studies now provide specific biological mechanisms — the chain of molecular events — that explain how a localized immune response at the implant site becomes body-wide.
Why BII Symptoms Occur
Most BII pages list symptoms. This section explains the mechanism behind those symptoms — the step-by-step biological process that turns a breast implant into a source of systemic immune activation.
Four layers of published evidence converge to explain BII:
Bacterial Biofilm — The Hidden Colonization
The immune response driving BII has a primary initiator in many patients: bacterial biofilm on the implant surface and surrounding capsule tissue.
A biofilm is not a typical infection. Bacteria in a biofilm exist in a slow-growing, dormant state protected by an extracellular matrix — a self-produced polymer shield that functions as a physical barrier against antibiotics, disinfectants, and the immune system itself. Standard hospital laboratory culture testing requires bacteria to actively multiply in media in order to be detected. Biofilm bacteria do not. They are metabolically quiet, invisible to conventional culture, and completely undetectable by standard diagnostic methods.
Dr. Whitfield's published research quantified this problem at clinical scale. In a retrospective IRB-approved study of 694 consecutive explant capsule specimens collected between 2019 and 2022, molecular next-generation 16S rRNA sequencing identified bacterial contamination in 203 samples — 29% of the total. This methodology identifies organisms at the species level regardless of growth state, making it fundamentally different from — and far more sensitive than — conventional culture.
103 distinct bacterial species were identified across those 203 positive samples.
| Organism | Gram Type | Significance |
|---|---|---|
| Cutibacterium acnes | Gram-positive | Most frequently detected; known biofilm former; associated with capsular inflammation |
| Staphylococcus epidermidis | Gram-positive | Second most dominant; key driver of immune activation in BII research |
| Corynebacterium tuberculostearicum | Gram-positive | Third most dominant; skin-origin commensal associated with dysbiosis |
| Enterobacter cloacae | Gram-negative | Notable gram-negative; associated with persistent infection |
| Pseudomonas spp. | Gram-negative | Found in 8% of positive samples |
Key finding: After controlling for age, no statistically significant correlation was found between biofilm contamination and implant fill type (silicone vs. saline). Patient age was the only significant predictor of microbial diversity — meaning biofilm risk exists regardless of whether the implant is filled with gel or saline.
Whitfield R, Tipton CD, Diaz N, Ancira J, Landry KS. Microorganisms. 2024;12(9):1830. PMID: 39338504.
Biofilm Produces Inflammatory Molecules That Enter Surrounding Tissue
Identifying bacteria is only part of the picture. What those bacteria produce is what drives the immune response.
Research published in the Journal of Clinical Investigation (2024) identified a specific molecular pathway connecting Staphylococcus epidermidis biofilm to systemic immune activation:
- Breast tissue is rich in adipose cells containing lipids, including oleic acid
- S. epidermidis in the biofilm enzymatically oxidizes oleic acid, producing a compound called 10-HOME (10-hydroxy-8-octadecenoic acid)
- 10-HOME accumulates on the implant surface and in the periprosthetic tissue
- 10-HOME acts as an immune-polarizing signal — redirecting how the body's T cells respond
In that study of 178 participants (86 with BII, 55 with implants but no symptoms, 37 without implants), S. epidermidis was detected in 73.3% of BII patients versus only 16.7% of non-BII patients (p = 0.018) — a 2.4-fold difference. The 10-HOME concentration in BII periprosthetic tissue was 28.13 units higher than in non-BII tissue (p < 0.0001).
A separate study from the same research group at Indiana University analyzed a broader panel of 15 oxidized lipid compounds (oxylipins) in the periprosthetic breast tissue of 120 patients. Of those 15, 5 were significantly elevated in the BII group:
| Compound | Derived From | Symptom Correlations in Research |
|---|---|---|
| 10-HOME | S. epidermidis oxidizing oleic acid | Fatigue, muscle pain, joint pain, brain fog, dry skin/hair |
| 9-HODE | Oxidized linoleic acid | Fatigue, muscle pain, joint pain, brain fog, pain around implant, dry skin, anxiety |
| 13-HODE | Oxidized linoleic acid | Fatigue, muscle pain, joint pain, brain fog, pain around implant, dry skin, anxiety; persists at elevated levels even at 20+ years |
| 12,13-DiHOME | Linoleic acid metabolite | Fatigue, muscle pain, joint pain, brain fog, dry skin, depression |
| 9,10-DiHOME | Linoleic acid metabolite; activates NF-κB | Brain fog, fatigue, pain around implant, dry skin |
Researchers found that compound levels were highest in women who had implants for less than 10 years, then declined — consistent with the clinical observation that most women who develop BII symptoms do so within the first decade of implantation. This is a research finding from a clinical laboratory setting; these measurements are not currently available as commercial clinical tests.
Khan I, Kadin ME, Sinha M, et al. J Clin Invest. 2024;134(3):e165644. • Khan I, Timsina L, Chauhan R, et al. Aesthetic Surgery Journal. 2024. doi:10.1093/asj/sjae128.
Immune Activation — T Cells, Macrophages, and the Systemic Response
The inflammatory molecules produced at the implant site do not remain local. They act as immune-polarizing signals, redirecting how the body's immune cells behave — and those immune cells circulate throughout the body.
Step 1: T-cell polarization to Th1 subtype
When naive CD4+ T cells are exposed to 10-HOME, they differentiate into the Th1 proinflammatory subtype rather than remaining balanced. This was demonstrated in cell culture (p = 0.0003) and confirmed in animal models.
The Th1 transcription factor T-BET — the master regulator of Th1 differentiation — was significantly elevated in BII patients compared to non-BII implant patients (p = 0.005). RNA sequencing identified 2,878 differentially expressed genes in BII periprosthetic tissue versus non-BII tissue, with the Th1 pathway dominant.
Th1 immune activation is the same pathway involved in chronic inflammatory conditions, autoimmune diseases, and organ rejection. A chronic Th1 state produces the multi-system, persistent symptom pattern consistent with BII.
Step 2: M1 macrophage polarization
Th1-polarized T cells drive resting macrophages to differentiate into the proinflammatory M1 phenotype. This was confirmed in controlled laboratory experiments — even without direct cell contact, the signals released by 10-HOME-primed T cells were sufficient to polarize M0 macrophages to M1.
M1 macrophages release pro-inflammatory cytokines including TNF-α, IL-1β, IL-6, and IL-12 that enter systemic circulation. These are the same cytokines that produce flu-like symptoms when the immune system is fighting an acute infection: fatigue, joint aching, muscle pain, cognitive slowing. In BII patients, this activation state is chronic and low-grade rather than acute and self-resolving.
Step 3: Animal model confirmation of systemic symptoms
Mice injected with 10-HOME showed both increased Th1 immune cells AND fatigue-like behavior — measured by significantly more treadmill stops (p = 0.0087). This is the first direct mechanistic demonstration that a specific molecular product of breast implant-associated biofilm produces fatigue-like symptoms in a living system.
Khan I, Kadin ME, Sinha M, et al. J Clin Invest. 2024;134(3):e165644. • Bauer TM, Gallagher KA. J Clin Invest. 2024;134(3):e176547.
The Capsule as a Rejected Organ — Transcriptome Evidence
The fourth line of evidence comes from inside the capsule tissue itself. A 2025 study from the Copenhagen Breast Implant Biobank — the largest whole-RNA transcriptome analysis of breast implant capsules ever performed — compared gene expression between patients with Baker III/IV capsular contracture (severe) and Baker I controls (normal, asymptomatic). The comparison yielded 1,500 differentially expressed genes.
The top three KEGG biological pathways activated in contracture capsules:
| Pathway | Gene Overlap |
|---|---|
| Graft-versus-host disease | >80% |
| Autoimmune thyroid disease | >80% |
| Allograft rejection | >80% |
The capsule surrounding a breast implant — in patients with symptomatic immune activation — shows the same gene expression signature the body uses to reject a transplanted organ. The immune system has classified the implant as a foreign entity warranting removal, and the capsule is the site of that sustained rejection response.
Immune cell populations elevated in contracture capsules:
| Cell Type | Statistical Significance |
|---|---|
| Memory B cells | p = 0.059 |
| Plasma cells | p = 0.029 |
| Resting memory CD4+ T cells | p = 0.022 |
| M0 macrophages | p = 0.020 |
The elevation of B cells and plasma cells — cells that produce antigen-specific antibodies — was particularly significant. B cell involvement is more consistent with a specific adaptive immune response than the generic foreign body reaction previously thought to dominate capsule formation. Multiple immunoglobulin genes (IGHD, IGHE, and others) were significantly upregulated, suggesting the capsule is producing antibodies against implant-associated antigens.
Bacterial response genes associated with bacterial recognition — IL1A, IL1B, CXCL6, HAMP — were elevated in contracture capsules, providing transcriptomic confirmation that the immune system is responding to bacterial signals even when the bacteria themselves are not detected by conventional methods.
Fibrosis gene profile: MMP1, MMP7, MMP8, MMP11, and MMP12 — enzymes that break down structural tissue — were all upregulated. Their inhibitor, TIMP4, was downregulated. This explains the progressive physical distortion, hardening, and tissue destruction observed in capsular contracture over time.
Larsen et al. Plast Reconstr Surg. 2025;156(1):59e. doi:10.1097/PRS.0000000000011938.
Why Specific Symptoms Exist
The biological cascade above produces a predictable pattern of systemic effects. Here is why each major BII symptom category occurs, based on published evidence.
Fatigue
The most consistently reported BII symptom. In the Indiana University oxylipin research, 100% of BII patients reported some level of fatigue; 82% reported it at the highest severity level. Not a single BII patient reported no fatigue.
All five elevated compounds correlate significantly with fatigue severity. The mechanism: chronic Th1 immune activation and M1 macrophage polarization release pro-inflammatory cytokines (IL-1β, TNF-α) that directly suppress energy production and interfere with mitochondrial function — the same mechanism that produces exhaustion during an acute infection. In BII patients, this state is not transient.
Brain Fog
84% of BII patients reported brain fog at the highest severity level. Zero percent reported none.
Multiple elevated compounds correlate with brain fog severity (p values ranging from 0.001 to 0.033). The mechanism: neuroinflammation. Pro-inflammatory cytokines produced by M1 macrophages cross the blood-brain barrier and activate microglial cells — the brain's resident immune cells. The result is cognitive slowing, difficulty with word retrieval, impaired working memory, and the subjective “fog” patients consistently describe.
Joint and Muscle Pain
88.6% of BII patients reported high-level joint pain. Zero percent reported none. 63.6% reported high-level muscle pain.
The mechanism: systemic Th1 activation elevates circulating IL-6 and TNF-α, which activate pain-sensing receptors in joint tissue — the same pathway involved in rheumatoid arthritis and other inflammatory arthropathies. This is not coincidental overlap with autoimmune disease; it is the same biological cascade triggered by the same immune cell types.
Hair Loss and Dry Skin
47.7% reported severe hair loss; 64.4% reported severe dry skin and hair.
All five elevated compounds correlate with dry skin severity. Chronic immune activation disrupts the skin microbiome and sebum production. Cutibacterium acnes and Staphylococcus epidermidis — the dominant organisms in Dr. Whitfield's capsule study — are the same bacteria that drive skin dysbiosis when out of balance. Systemic inflammation also disrupts hair follicle cycling, producing the telogen effluvium (excessive shedding) many BII patients experience.
Anxiety and Depression
Two specific compounds — 9-HODE and 13-HODE — correlate significantly with anxiety severity. 12,13-DiHOME correlates with depression severity. Of the 14 patients in the study who reported always feeling depressed, every single one was from the BII group.
The mechanism: these compounds are neuroactive. 9,10-DiHOME and 12,13-DiHOME activate NF-κB and AP-1 transcription factors, driving neuroinflammatory pathways now recognized as drivers of mood disorders. This is not psychological — it is a documented molecular pathway.
Heart Palpitations
82.2% of BII patients reported palpitations. All five elevated compounds correlate with palpitation severity. Systemic inflammatory cytokines affect cardiac conduction and autonomic regulation, producing the racing heart and irregular rhythm patterns BII patients describe.
Gastrointestinal Symptoms
73.3% of BII patients reported high-level bloating; 45.5% reported high-level food intolerances. Research has shown that certain linoleic acid metabolites disrupt estrous cycling in animal models and impair gut immune tolerance. Systemic Th1 activation also alters gut motility and mucosal immune function — the gut-immune connection is now well-established.
Hormonal Disruption and Low Libido
84.4% of BII patients reported severely reduced libido (versus 0% in the non-BII implant group). The compounds elevated in BII are derived from polyunsaturated fatty acids that serve as precursors to prostaglandins and other signaling molecules involved in hormonal regulation. Dysregulation of those precursors disrupts downstream endocrine signaling.
Symptoms of Breast Implant Illness
BII symptoms span multiple body systems, which is why they are so often misattributed to unrelated conditions or dismissed as normal aging.
Physical Symptoms
- Chronic fatigue and low energy that does not improve with rest
- Joint and muscle pain
- Hair loss or thinning
- Skin rashes, dryness, or heightened sensitivity
- Breast pain, tightness, or pressure
- Recurring infections
- Night sweats
- Swollen lymph nodes
- Heart palpitations or racing heart
- Numbness or tingling in hands or feet
- Unexplained weight gain or difficulty losing weight
- Dry eyes or dry mouth
Neurological & Cognitive
- Brain fog — difficulty with memory, focus, and word retrieval
- Headaches
- Dizziness
- Anxiety or depression that developed after implant placement
- Sleep disturbances
- Sensitivity to light or sound
Immune & Endocrine
- Autoimmune flares
- Thyroid dysfunction — hypothyroidism is particularly common
- Hormonal imbalances and reduced libido
- Adrenal dysregulation
- Gastrointestinal disturbances — bloating, food sensitivities, IBS-like symptoms
Could Your Symptoms Be BII?
BII symptoms overlap with many other chronic conditions. Before attributing symptoms to breast implants, a thorough evaluation to rule out other causes is appropriate.
| Condition | Overlapping Symptoms | How It's Distinguished |
|---|---|---|
| Chronic Lyme disease | Fatigue, joint pain, brain fog | Tick exposure history; Lyme serology |
| Fibromyalgia | Widespread pain, fatigue, sleep disruption | No implant correlation; diffuse trigger points |
| Sjogren's syndrome | Dry eyes, dry mouth, fatigue | Positive SS-A/SS-B antibodies |
| Hypothyroidism | Fatigue, hair loss, weight gain, brain fog | TSH, Free T3, Free T4 panel |
| Lupus | Rash, joint pain, fatigue, autoimmune flares | ANA, anti-dsDNA testing |
| Rheumatoid arthritis | Joint pain and stiffness, fatigue | RF, anti-CCP antibodies |
| Chronic fatigue syndrome | Fatigue, cognitive difficulty | Diagnosis of exclusion; no implant correlation |
The questions that point toward BII:
- • Did your symptoms begin or worsen within months of receiving or exchanging breast implants?
- • Have multiple physicians evaluated you without a clear diagnosis?
- • Do your symptoms cross multiple body systems simultaneously?
- • Have you had implant rupture, capsular contracture, or visible changes to your implants?
- • Have symptoms persisted for over a year with no improvement despite treatment?
If any of those apply alongside the symptoms listed above, an evaluation with an experienced explant surgeon is warranted.
How BII Is Evaluated
BII is currently a clinical diagnosis — made by evaluating symptom patterns, implant history, and ruling out other causes. There is no single blood test or imaging study that confirms BII.
Comprehensive Lab Panel
Inflammatory markers (CRP, ESR, IL-6), thyroid panel (TSH, Free T3, Free T4, reverse T3), heavy metal testing, hormone levels, mycotoxin screening, and autoimmune markers (ANA, anti-dsDNA, RF, anti-CCP).
Imaging
Ultrasound or MRI to evaluate implant integrity and detect silent rupture.
PCR Capsule Analysis
Performed on the removed capsule at the time of surgery, using the same next-generation sequencing methodology from Dr. Whitfield's published research — the only method that definitively identifies bacterial contamination and the specific organisms present.
The diagnostic process matters before surgery because it establishes a baseline that allows measurement of recovery and personalization of post-operative care through the SHARP Method.
Explant Surgery and Complete Capsule Removal
The evidence-based treatment for BII is complete removal of the breast implant and the entire surrounding capsule. Removing the implant without the capsule leaves behind the biofilm-colonized tissue driving immune activation. Implant exchange without capsulectomy does not address the source.
The transcriptome research makes this plain: the capsule itself — not just the implant — shows the allograft rejection-like gene expression profile with over 1,500 activated immune genes. Leaving the capsule in place leaves the immunologically activated environment intact and the biofilm-colonized tissue inside the body.
Dr. Whitfield performs complete capsulectomy for all BII patients — removing the capsule intact or en bloc — and submits every specimen for PCR testing to identify the specific bacterial species present. That data directly informs the post-operative recovery plan.
Many patients choose to combine explant with fat transfer breast augmentation to restore natural volume using their own tissue — permanently eliminating the capsule risk.
Will Explant Surgery Resolve BII Symptoms?
Results vary and depend on several factors — the degree of biofilm contamination, the completeness of capsule removal, the patient's underlying immune profile, and the thoroughness of post-operative recovery.
Many patients describe rapid, dramatic improvement within days of surgery — a “light switch” effect consistent with removal of the chronic immune trigger. These patients often have identifiable biofilm profiles on PCR analysis. Others experience gradual improvement over weeks to months as the immune system recalibrates after removing the source of Th1 activation. A smaller number continue to have symptoms that require evaluation of co-existing factors — environmental toxins, autoimmune conditions, or hormonal imbalances identified in pre-operative testing.
The SHARP Method is designed to address these additional factors alongside surgical removal, supporting outcomes for patients whose recovery requires more than the operation itself.
Why Choose Dr. Whitfield for BII Evaluation and Treatment
| Board Certification | American Board of Plastic Surgery, FACS |
| Explant Volume | 2,000+ explant procedures performed |
| Published PCR Research | Largest capsule PCR analysis in medical literature — 694 specimens, Microorganisms 2024, PMID 39338504 |
| FDA Testimony | Testified before the General and Plastic Surgery Devices Panel on breast implant safety |
| Patients Served | 40+ states and 15 countries |
| Recovery Protocol | SHARP Method — Strategic Holistic Accelerated Recovery Program |
What Patients Say After Explant
“I couldn't have had a better experience than with Dr. Whitfield. His knowledge and skill as a surgeon are unmatched. I am so grateful I found him to do my explant surgery. And his team is equally amazing. Thank you for your superior care while I was your patient. You are by far the very best in this field.”
Dana
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“I am now a year out from my surgery. Physically, I could not be happier. What this office is doing is special. It is thoughtful, human, adaptive, and deeply compassionate. I will always be grateful for the care I received here.”
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Frequently Asked Questions About Breast Implant Illness
Is breast implant illness a real medical condition?
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BII is not currently classified as a formal ICD diagnosis, but the FDA acknowledges women's reports of systemic symptoms and continues to collect safety data. Multiple peer-reviewed studies — including Dr. Whitfield's PCR research (Microorganisms 2024), biofilm and immune-activation studies from Indiana University (JCI 2024; Aesthetic Surgery Journal 2024), and the Copenhagen transcriptome analysis (Plast Reconstr Surg 2025) — have now identified specific biological mechanisms linking breast implants to systemic immune activation. The absence of an ICD code does not mean the symptoms are not real, measurable, or treatable.
Can saline implants cause BII?
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Yes. Both saline and silicone implants form a surrounding capsule, and bacterial biofilm can colonize the capsule surface regardless of fill material. Dr. Whitfield's PCR research included both implant types and found no statistically significant difference in contamination rate after controlling for patient age. The immune response to the implant itself — independent of fill material — also produces inflammatory compounds in surrounding tissue.
How is BII different from capsular contracture?
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Capsular contracture is a structural diagnosis — the physical hardening and tightening of the scar tissue capsule. BII refers to systemic symptoms. Both conditions share overlapping mechanisms: the 2025 Copenhagen transcriptome study found that contracture capsules show an allograft rejection-like gene expression pattern, and separate Indiana University research found that BII patients show elevated biofilm and systemic immune activation. A patient can have capsular contracture without systemic BII symptoms, or systemic BII without capsule hardening — but the same biofilm mechanism is often present in both.
What type of surgery treats BII?
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Complete explant surgery with total capsulectomy — removal of both the breast implant and the entire surrounding capsule. Partial capsule removal or implant exchange without capsulectomy leaves biofilm-colonized tissue in place, which continues to drive the immune activation underlying symptoms. Removing the implant alone without the capsule does not remove the immunologically active tissue identified in the transcriptome research.
Does the type of implant matter for BII risk?
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Both saline and silicone implants carry BII risk through the biofilm and inflammatory mechanisms described above. Textured implants carry an additional risk for BIA-ALCL — breast implant-associated anaplastic large cell lymphoma, a rare T-cell lymphoma. The FDA recalled Allergan Biocell textured implants in 2019 due to elevated BIA-ALCL risk.
How soon after noticing symptoms should I seek evaluation?
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As soon as symptoms are recognized. BII involves ongoing immune activation that accumulates over time. Research data shows immune dysregulation in the periprosthetic tissue is most pronounced during the first 10 years of implantation. Earlier evaluation allows for more thorough pre-operative testing and a more personalized recovery plan.
Why do standard laboratory tests not detect what your research found?
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Standard culture testing requires bacteria to actively grow in laboratory media. Biofilm bacteria exist in a protected, dormant state within an extracellular matrix and will not grow under those conditions. Dr. Whitfield's research uses 16S rRNA next-generation sequencing — a molecular method that identifies bacterial DNA directly, regardless of whether the organism is actively growing. This is why 29% of specimens in his study showed bacterial contamination that would have appeared completely sterile by conventional culture.
What is the SHARP Method and why does it matter for BII recovery?
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The SHARP Method — Strategic Holistic Accelerated Recovery Program — was developed by Dr. Whitfield specifically for patients undergoing explant surgery. It combines pre-operative optimization using individualized lab-based protocols, precision capsulectomy with PCR testing of removed tissue, and personalized post-operative recovery based on the specific bacterial species found and the patient's immune and metabolic profile. It addresses not just the surgical removal but the full biological recovery from chronic immune activation.
References
- Whitfield R, Tipton CD, Diaz N, Ancira J, Landry KS. Clinical Evaluation of Microbial Communities and Associated Biofilms with Breast Augmentation Failure. Microorganisms. 2024;12(9):1830. doi:10.3390/microorganisms12091830. PMID: 39338504.
- Khan I, Kadin ME, Sinha M, et al. Biofilm-derived oxylipin 10-HOME–mediated immune response in women with breast implants. J Clin Invest. 2024;134(3):e165644. doi:10.1172/JCI165644.
- Bauer TM, Gallagher KA. Biofilm-derived oxylipin 10-HOME mediated immune response in women with breast implants. J Clin Invest. 2024;134(3):e176547. doi:10.1172/JCI176547.
- Khan I, Timsina L, Chauhan R, Ingersol C, Wang DR, Rinne E, Muraru R, Mohan G, Minto RE, Van Natta BW, Hassanein AH, Kelley-Patteson C, Sinha M. Oxylipins in Breast Implant–Associated Systemic Symptoms. Aesthetic Surgery Journal. 2024. doi:10.1093/asj/sjae128.
- Larsen et al. Transcriptome of Capsular Contracture around Breast Implants Mimics Allograft Rejection: A Matched Case–Control Study. Plast Reconstr Surg. 2025;156(1):59e. doi:10.1097/PRS.0000000000011938.
This page is for educational purposes only and does not constitute medical advice. Consult a qualified healthcare provider for diagnosis and treatment decisions.
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