Adipeau Volume Cream and Adipeau Strength Gel are the first cosmetic products with a patented approach formulated to target the appearance of skin through dermal adipose tissue (US 12,226,517 B2). Informed by peer-reviewed research published in Aesthetic Plastic Surgery (PMID: 32914326) and laboratory research in collaboration with the Karolinska Institute, the evidence below documents visible appearance changes in skin contour, firmness, and fullness observed across five independent datasets: two registered clinical trials (NCT04769193, ISRCTN14923731), a pilot cohort study with blinded independent evaluators, professional aesthetician documentation, and user-submitted photography.
Clinical Evidence
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Does Adipeau work?
Cosmetic brands often answer this question with a handful of before-and-after images showing unrelated kinds of improvement—such as a less puffy eyelid, a softer wrinkle, or smoother-looking tone. They may also refer to a clinical study that measured multiple unrelated outcomes without pre-specifying a primary endpoint.
We’ve done something different.
This page examines one unifying visual outcome—contour smoothness—across a large number of data points from three clinical studies with pre-specified endpoints, and then shows how that same outcome is reflected in real-world use. We invite you to review the methodology step by step, but you can also go directly to the galleries.
This page brings together 40 before-and-after observations across five datasets to evaluate a single visual outcome: contour smoothness.
Contour smoothness refers to how continuous and even surface contours appear, with fewer visible interruptions or abrupt changes in curvature. This visual outcome is consistent with the biological framework described on the Science page and reflects the type of appearance change that framework would be expected to produce.
This allows all images on this page to be evaluated using the same visual framework.
This outcome was defined in advance as a primary endpoint in three clinical studies, where it is evaluated using pre-specified, study-specific measures. It is also reflected in two real-world datasets.
How the data is structured and evaluated
Consistent evaluation across datasets
The data on this page represents repeated evaluation of the same visual outcome—contour smoothness—across different conditions and measurement approaches.
The evidence comes from five independent datasets, each providing a different context:
- Clinical studies: prospectively registered with pre-specified primary endpoints
- Cohort study: prospective evaluation with a defined endpoint
- Aesthetician data: real-world use under professional conditions
- Consumer data: real-world use under everyday conditions
Each dataset applies its own measurement approach:
- The facial clinical study uses objective three-dimensional measurements of surface contours
- The body clinical study and cohort study include blinded image evaluations
- The clinical studies and cohort study include pre-specified statistical analyses
Despite these differences, all datasets evaluate the same underlying visual outcome: contour smoothness.
Because the same outcome is assessed across independent contexts and measurement approaches, the full set of images can be viewed as a series of independent observations of the same visual signal, rather than isolated examples.
Alignment of endpoints across studies
The clinical and cohort studies use different terminology, but their pre-specified primary endpoints evaluate related aspects of the same visual outcome.
- The facial study evaluates volume increases and decreases, corresponding to changes in contour uniformity
- The cohort study evaluates cellulite severity, reflecting visible surface irregularity
- The body study uses the Merz cellulite dimpling scale, a measure of surface contour variation
These endpoints were defined in advance and represent independent ways of measuring the same underlying construct: contour smoothness.
Because the outcome is assessed through independent, pre-specified endpoints across studies, the observed pattern does not depend on a single measurement approach or post hoc selection of results.
Dataset descriptions
The data on this page is grouped into five datasets:
RCT1 (facial clinical study)
Registered clinical study (ClinicalTrials.gov Identifier: NCT04769193) evaluating facial contour changes after 6 months of treatment with the volume cream.
RCT2 (body clinical study)
Registered clinical study (ISRCTN Identifier: ISRCTN14923731) evaluating cellulite severity after 3 months of treatment with the strength gel.
PC (pilot cohort study)
Prospective cohort study evaluating cellulite severity after 3 months of treatment with the strength gel.
ADS (aesthetician dataset)
Images contributed by aestheticians using the strength gel and volume cream under professional conditions.
UDS (user dataset)
Images contributed by consumers using the strength gel and volume cream under real-world conditions.
Each dataset represents a different context in which the same visual outcome is evaluated.
What this evidence shows—and what it does not
This evidence shows:
- A consistent visual pattern across multiple datasets
- Similar directional changes across controlled and real-world conditions
- Convergence of independently defined endpoints on the same outcome
- Consistency of the same outcome across independent measurement approaches
This evidence does not establish:
- Outcomes under randomized controlled conditions
- The underlying biological mechanism
- Uniform results across all individuals
How to read the data
Each image on this page is evaluated using a consistent framework for assessing contour smoothness.
Face
Contour smoothness is evaluated across two components:
Vertical contour balance
The overall curvature from the under-eye area through the cheek to the jawline.
A smoother contour appears as a continuous transition without abrupt concavity or bulging.
Horizontal contour continuity
The smoothness of transitions across the face, particularly from the mid-cheek to the nasolabial region and from below the cheek to the mouth.
A smoother contour shows clearer, more even transitions without sharp interruptions.
Body
Contour smoothness is evaluated across two components:
Indentation depth
The depth and prominence of visible depressions.
Indentation continuity
The extent to which indentations create interruptions or irregular transitions across the surface.
How representative are these images?
A common concern with before-and-after images is whether they are selectively chosen.
The images on this page are drawn from the full set of datasets currently available. No completed datasets have been excluded.
The degree of representativeness varies by dataset:
RCT1 (facial clinical study)
Representativeness can be assessed quantitatively. The study measured changes in skin contour as cumulative pixel height increases and decreases.
Across the full study population, average changes were increases of 1.56 mm³ and decreases of 0.83 mm³ per side.
The images shown here correspond to subjects with average changes of 0.96 mm³ (increases) and 0.70 mm³ (decreases) per side, indicating outcomes within the range observed in the study population.
RCT2 (cellulite dimpling study)
A total of 11 subjects completed the study. The images shown represent all eleven subjects.
Pilot cohort study (cellulite severity study)
Comparable before-and-after images were available for 10 of 17 subjects, as determined by independent raters.
The images shown represent 6 of these 10 subjects and include a range of baseline cellulite severity (mild, moderate, and severe).
Aesthetician data
The images shown represent more than 80% of available before-and-after cases obtained under professional conditions.
Consumer data
The images are selected from a larger pool of submitted results and are intended to reflect outcomes similar to those observed in the clinical datasets, rather than extreme examples.
A breast skin cohort study is currently in progress and is not included here.
Registered Clinical Study Examples (RCT-1)
RCT1-1 – Right side of face, oblique view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | More even curvature of the upper cheek |
| Horizontal contour continuity | Improved | Reduced mouth indentation |
RCT1-2 – Right side of face, frontal view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | More even curvature of the mid cheek |
| Horizontal contour continuity | Improved | Smoother nasolabial transition |
RCT1-3 – Right side of face, oblique view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | Reduced concavity; malar region appears more even |
| Horizontal contour continuity | Improved | Smoother nasolabial transition |
RCT1-4 – Right side of face, oblique view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | More even curvature of the upper cheek |
| Horizontal contour continuity | Improved | Reduced mouth indentation |
RCT1-5 – Right side of face, oblique view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | More even curvature of the mid cheek |
| Horizontal contour continuity | Improved | Reduced hollowing near the mouth |
RCT1-6 – Right side of face, oblique view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | More even curvature of the mid cheek |
| Horizontal contour continuity | Improved | Smoother nasolabial transition |
Cellulite Study Examples (RCT-2)
RCT2-1 – Right outer thigh
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Indentation depth | Improved | Reduced depth severity |
| Indentation continuity | Improved | Reduced number and extent of indentations |
RCT2-2 – Right inner thigh
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Indentation depth | Improved | Reduced depth severity |
| Indentation continuity | Improved | Reduced number and extent of indentations |
RCT2-3 – Right outer thigh and buttock
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Indentation depth | Improved | Reduced depth severity |
| Indentation continuity | Unchanged | No clear visible change in number and extent of indentations |
RCT2-4 – Right outer thigh and buttock
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Indentation depth | Improved | Reduced depth severity |
| Indentation continuity | Improved | Reduced number and extent of indentations |
RCT2-5 – Right outer thigh and buttock
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Indentation depth | Improved | Reduced depth severity |
| Indentation continuity | Improved | Reduced number and extent of indentations |
RCT2-6 – Right outer thigh and buttock
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Indentation depth | No change | No clear visible change |
| Indentation continuity | No change | No clear visible change |
RCT2-7 – Right outer thigh and buttock
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Indentation depth | Improved | Depth severity improved |
| Indentation continuity | Improved | The number and extent of indentations reduced |
RCT2-8 – Right outer thigh and buttock
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Indentation depth | Improved | Depth severity improved |
| Indentation continuity | Improved | The number and extent of indentations reduced |
RCT2-9 – Right outer thigh and buttock
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Indentation depth | No change | No clear visible change |
| Indentation continuity | Improved | The number and extent of indentations reduced (modest) |
RCT2-10 – Right outer thigh and buttock
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Indentation depth | Improved | Depth severity improved (lighting not consistent) |
| Indentation continuity | Improved | The number and extent of indentations reduced (lighting not consistent) |
RCT2-11 – Right outer thigh and buttock
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Indentation depth | Worse | Depth severity is worse |
| Indentation continuity | Worse | The number and extent of indentations increased |
Pilot Cohort Examples
PC-1 – Left outer thigh
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Indentation depth | Improved | Reduced depth severity |
| Indentation continuity | Unchanged | No clear visible change |
PC-2 – Left buttock
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Indentation depth | Improved | Reduced depth severity |
| Indentation continuity | Unchanged | No clear visible change |
PC-3 – Right outer thigh and buttock
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Indentation depth | Improved | Reduced depth severity |
| Indentation continuity | Improved | Reduced number and extent of indentations |
PC-4 – Right outer thigh and buttock
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Indentation depth | Improved | Reduced depth severity |
| Indentation continuity | Improved | Reduced number and extent of indentations |
PC-5 – Right outer thigh
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Indentation depth | Improved | Reduced depth severity |
| Indentation continuity | Improved | Reduced number and extent of indentations |
PC-6 – Right outer thigh
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Indentation depth | Improved | Reduced depth severity |
| Indentation continuity | Improved | Reduced number and extent of indentations |
Aesthetician Generated Examples
ADS-1 – Full face, frontal view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | Reduced concavities bilaterally; more even curvature |
| Horizontal contour continuity | Improved | Smoother transitions; reduced mouth lines bilaterally |
ADS-2 – Left side of face, oblique view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | More even eyelid-to-cheek transition |
| Horizontal contour continuity | Improved | Reduced mouth indentation |
ADS-3 – Full face, frontal view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | More even curvature of the mid cheek bilaterally |
| Horizontal contour continuity | Improved | Smoother cheek-to-mouth transitions bilaterally |
ADS-4 – Left side of face, oblique view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | More even curvature of the mid cheek |
| Horizontal contour continuity | Improved | Smoother transitions; reduced mouth lines |
ADS-5 – Right side of neck, oblique view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | More even contour |
| Horizontal contour continuity | Improved | Reduced visibility of neck bands |
User-submitted Examples
UDS-1 – Full face, frontal view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | More even curvature of the mid cheek bilaterally |
| Horizontal contour continuity | Improved | Smoother transitions; reduced mouth lines bilaterally |
UDS-2 – Full face, frontal view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | More even curvature of the lower cheek bilaterally |
| Horizontal contour continuity | Improved | Clearer transitions; reduced mouth lines bilaterally |
UDS-3 – Full face, frontal view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | More even curvature of the mid cheek bilaterally |
| Horizontal contour continuity | Improved | Smoother transitions; reduced mouth lines bilaterally |
UDS-4 – Right side of face, frontal view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | More even curvature of the mid cheek |
| Horizontal contour continuity | Improved | Reduced mouth line indentation |
UDS-5 – Left side of face, frontal view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | No significant change | Any improvement is modest at best |
| Horizontal contour continuity | No significant change | Any improvement is modest at best |
UDS-6 – Right side of face, oblique view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | Reduced upper cheek concavity; more even curvature |
| Horizontal contour continuity | Improved | Smoother transitions; reduced mouth indentation |
UDS-7 – Left side of face, oblique view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | Reduced mid-cheek concavity; more even curvature |
| Horizontal contour continuity | Improved | Clearer cheek-to-mouth transition |
UDS-8 – Right side of face, oblique view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | Reduced infraorbital prominence; more even curvature |
| Horizontal contour continuity | Improved | Reduced irregularity in infraorbital transition |
UDS-9 – Right side of face, oblique view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | More even curvature of the mid and lower cheek |
| Horizontal contour continuity | Improved | Smoother cheek-to-mouth transition; reduced mouth indentation |
UDS-10 – Abdomen, frontal view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | More even contour of the lower abdomen |
| Horizontal contour continuity | Improved | Smoother lower abdominal contour with reduced central indentation |
UDS-11 – Central upper chest, frontal view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | More even contour across the central upper chest |
| Horizontal contour continuity | Improved | Reduced visibility of vertical contour interruptions across the décolletage |
UDS-12 – Right hand, frontal view
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | More even contour across the dorsum of the hand |
| Horizontal contour continuity | Improved | Reduced prominence of dorsal contour irregularities |
UDS-13 – Right side of face, oblique view
Images courtesy of Summer Barclay.
*Treatment performed at Advanced Skin by Summer (AUS).*
Contour Uniformity
| Variable | Change | Observation |
|---|---|---|
| Vertical contour balance | Improved | More integrated convex line from eye to lower cheek |
| Horizontal contour continuity | Improved | Less visible depletion around the mouth |
How Adipeau should be compared to alternatives
Before-and-after images alone are not a strong basis for comparing products. A more meaningful comparison asks whether the evidence follows a prospective clinical logic.
When evaluating Adipeau alongside other products, the key questions are:
- Was the study prospectively registered?
- Was a primary endpoint specified in advance?
- Did the reported results correspond to that endpoint?
- Was a confirmatory study also prospectively registered and evaluated using a related primary endpoint?
- Are the measured outcomes consistent with the biology the product is intended to address?
- Are image selection and representativeness clearly explained?
- Is the same outcome also reflected in real-world use?
These factors matter because prospectively defined endpoints and registered studies reduce the risk that results are selected after the fact based on what appears most favorable.
Adipeau’s evidence is structured to allow this type of evaluation. This page defines a single visual outcome, explains how it is interpreted, includes clinical studies with pre-specified endpoints, and shows how the same outcome is reflected across additional datasets.
This does not establish superiority to any specific alternative. It does provide a more structured basis for comparison than before-and-after examples presented without a defined outcome, endpoint framework, or selection context.
Clinical Evidence FAQs
What clinical research has Adipeau conducted?
Adipeau’s evidence base spans five independent datasets: registered clinical study (NCT04769193) with automated 3D surface imaging, a blinded observational cohort, a registered split-leg study using the Merz Cellulite Dimpling Scale (ISRCTN14923731), aesthetician documentation, and user-submitted imagery. Research has been published in Aesthetic Plastic Surgery in collaboration with the Karolinska Institute. See our Science page and Study Index for the full citation library.
How were Adipeau's results measured?
Adipeau uses complementary measurement approaches ranging from instrumental imaging and standardized clinical grading to blinded image evaluation. The registered clinical study used automated 3D imaging software to quantify surface displacement and volumetric contour change. Observational studies were assessed by independent blinded evaluators. All datasets evaluate the same core appearance variables: contour smoothness, surface uniformity, and distributed firmness.
Are the before-and-after photos real?
Adipeau’s images are drawn from five independent datasets, and each includes methodological notes describing how images were collected, handled, and evaluated. No color correction, filtering, or enhancement is performed by the company. Clinical study images used automated 3D alignment and standardized lighting. Professional and user-submitted images are presented as received. Potential sources of variability, including lighting and camera angle differences, are disclosed for each dataset.
What is the Adipeau clinical study?
Adipeau registered a clinical study under NCT04769193 to evaluate facial contour changes using automated three-dimensional surface imaging. The study enrolled 35 participants ranging in age from 25 to 70 years. Planned enrollment was 75, but recruitment was reduced during the COVID-19 pandemic. The study evaluated contour smoothness, surface uniformity, and distributed firmness. See the methodological notes above for statistical methods and study limitations.
What is "facial fat fitness"?
Adipeau’s founder Ivan Galanin introduced the concept of “facial fat fitness” in a peer-reviewed paper published in Aesthetic Plastic Surgery (PMID 32914326), proposing that the fitness of dermal fat cells determines the fullness and strength of the curves in the face. The research suggests that dermal adipocyte size, not quantity, is associated with skin appearance and quality. The concept provides the scientific framework described on our Science page.
Can a topical product really affect how skin looks?
Adipeau is a cosmetic skincare product, and topical cosmetics are formulated to improve the appearance of skin. This page presents observational evidence across multiple independent datasets documenting appearance patterns during use. Measurement approaches range from automated 3D surface imaging to blinded evaluation and standardized clinical grading, all evaluating the same visible surface variables: contour smoothness, overall uniformity of the skin surface, and distributed firmness. The datasets allow readers to consider whether the observed patterns are consistent with the biological framework described on our Science page. See our Resources page for best practices.