A useful photograph connects a skin finding to its location, size and history. This guide explains how to make that record clearer when documenting lesions or filament-like material described as Morgellons, while keeping appearance, material identification and diagnosis separate.
Editorial correction: I wrote “How to photograph Morgellons Disease”, and the photographs reproduced here show my thigh. That post framed microscopic size, apparent embedding and fluorescence as ways to prove Morgellons. I am correcting that framing: photographs can document a finding, but these features alone do not establish its material, a diagnosis or infection.[1]
The linked post still contains a Lyme-specialist statement and affiliate links. They remain part of that older post; this guide does not endorse them as current treatment advice or equipment recommendations.
Begin with four separate questions
- Appearance: What shape, color, texture or change is visible?
- Location: Where was it seen, and how was its relationship to the skin documented?
- Material: What substance is it, and what method could identify it?
- Cause: What clinical explanation fits the findings and the wider history?
A photograph may help with the first two questions while leaving the others unresolved. Use the specimen-context entry to distinguish loose material, something resting on skin, something adherent to a lesion and a structure demonstrated in a tissue section.
The CDC-led 2012 investigation used infrared spectroscopy to compare material with references including cotton, and analyzed biopsies and skin-surface samples separately. That separation matters: material collected from a surface does not establish its location within tissue, and a finding in one specimen stream cannot simply be assigned to another. A photograph of a strand is also different from a laboratory identification of its substance.[2] The fibers guide discusses the specimen findings in more detail.
Make a connected set of photographs
The American Academy of Dermatology recommends orientation, comparison and close-up views, with more than one photograph of each view. Select the clearest frames after checking focus and lighting.[3]
1. Body-site view
Show enough of the body area to locate the concern. Keep the finding identifiable within the wider view.
2. Comparison view
Include the area of concern and nearby unaffected skin so differences in color and texture can be assessed.
3. Detail view
Bring the relevant feature into focus, while retaining enough surrounding skin to locate it in the wider views.
Give the sequence a site label such as “left-thigh-A,” and repeat it in the filenames and notes. State whether each detail shows the lesion’s center, an edge or a separate nearby finding. Favor a millimeter ruler over a coin for the close-up; keep it beside the area without covering or pressing into the lesion.
Preserve detail without losing the body site
The historical pair reproduced here lacks a body-site overview. The three phone photographs linked from the older post are close-ups, so none supplies that missing orientation frame. The pair therefore illustrates a limitation of the earlier record as well as the value of greater detail.
Use even light, turn off filters and focus on the feature itself. A simple background can make the area easier to read; check the saved photograph for blur, glare and shadows before ending the session. Keep the original capture separately from crops or sharing copies.
For filament documentation, this guide recommends a clean, smooth, non-textile background, such as matte plastic or a ceramic tile. Towels and cloth backgrounds add a potential fiber source. Paper is itself a cellulose fiber source; if used, keep it from touching the skin. Note visible lint, clothing or dressing contact, especially when something was just removed. A plain-looking background is not a contamination control by itself.
Leave the finding in place
Before taking photographs, avoid hot showers, rubbing or picking, and applying skin-care products; the AAD identifies these as changes that can alter the skin’s appearance before assessment.[4] Record products and dressings already present. If prescribed care or a required dressing affects photography, ask the clinical team how to document the area without interrupting that care.
Do not dig, scrape or pull material out to improve a photograph. That can injure skin and change the material’s relationship to the lesion—the very context the image is meant to preserve. Leave decisions about sampling to a clinician.
Account for phone processing
Turning off a visible filter does not make every camera output unprocessed. Adobe explains that sharpening changes edge contrast and that excessive sharpening can produce halos or jagged edges. Samsung documents automatic scene optimization that adjusts exposure, contrast and white balance.[5][6] These are reasons to record processing settings, not grounds to assume a particular photographed strand is an artifact.
Use the native optical macro mode or an optical macro accessory if it gives a focused image. Avoid using digital zoom, AI enhancement or upscaling as evidence of newly resolved structure. Disable beauty filters and scene optimizers where the app permits, record HDR or other processing that remains active, and retain the first saved capture before editing.
Keep the first saved capture and a separate sharing copy. RAW is optional; ProRAW still includes iPhone processing, and Apple’s Mail app converts it to JPEG.[7] Sharing can change files: Apple’s All Photos Data option sends the original with edit history and metadata through AirDrop only.[8] Check the file delivered to the clinic.
What does the 60× recommendation establish?
Mayne and colleagues’ 2013 F1000Research opinion article recommends at least 60× when searching for filaments under unbroken skin. The authors argue that the CDC study’s use of dermoscopy may have missed smaller filaments. That is their methodological criticism, not a demonstrated explanation for the CDC findings.[9]
Their Figure 6 shows a bisected eschar removed from the skin and viewed at 10× with a dermoscope, rather than skin photographed in place. The authors say filaments can be visible in that specimen while remaining difficult to identify with certainty at 10×. This does not contradict their 60× recommendation: seeing a strand and identifying it are different tasks.[9]
Sufficient optical detail can help locate a slender structure and guide a closer examination. A nominal 60× image does not by itself resolve whether material lies on, is caught in, or is continuous with skin; nor does it identify keratin, collagen, cellulose or infection. A low-magnification image may miss a small feature, while a higher-magnification image can still be inconclusive. Both limits matter.
Calibrate the exact setup used for the image
Nikon’s MicroscopyU describes comparing a microscope image with a known scale and recording the reference photograph. Calibration applies to the optical combination used. For precise work with a zoom stereomicroscope, a stage-micrometer reference is needed at each setting: a marked zoom knob cannot reliably recreate the exact position.[10]
For a phone-and-microscope setup, photograph an appropriate calibrated stage micrometer using the same zoom, adapter, camera position, focus plane and capture settings as the specimen. A millimeter ruler can serve as a coarse reference only if its graduations can be resolved at that scale. Keep both reference and specimen frames uncropped, and repeat the reference when the setup changes. A 200–240× product label is not a scale bar.
Without calibration, label the frame “uncalibrated.” Retain the reference and capture files, and document any later resizing before calculating dimensions.
If a structure appears to pass beneath a surface layer, preserve that description and the image sequence. Ask which examination could establish its depth or continuity. The histology guide explains why the tissue site and structure selected for examination matter.
Fluorescence needs its own record and controls
DermNet states that clothing lint often shines bright white under a Wood lamp; fabric, topical medicines and soap residue can fluoresce. Recent washing, deodorant, makeup and moisturizer can also affect the examination or create misleading fluorescence.[11] A fluorescent object is therefore an observation under specified illumination, not a stand-alone identification of Morgellons, a protein or infection.
Pair an existing ultraviolet-light record with a white-light image of the same area and identify the light source. Record recent washing and products rather than changing preparation to chase a glow. Consumer lights should not be assumed to reproduce a clinician’s Wood-lamp examination; ask the office how to prepare if that examination is planned.
Make follow-up images comparable
Repeat the body-site label, lighting, camera position and scale method when practical. Record changes in the setup before interpreting apparent differences in color or size. Keep the capture date, symptoms, relevant treatments and the specific change you want assessed alongside the images.
Describe the skin as well as the strand. The glossary distinguishes crust, scale, erosion and ulcer. Use plain language when uncertain, and separate what you observed from interpretations supplied later.
Illustrative record: “Left thigh, area A. Orientation, comparison and close-up saved together. Fine dark strand visible near the upper edge; depth and material undetermined. Capture time, device, lighting, processing settings and scale method recorded. Any crop or export is labeled and linked to the retained capture.” This is a template, not a patient record.
Protect privacy while preserving the originals
Body-site views can include a face, tattoos or other identifying features. Frame only what the clinician needs, and check the background. Apple says shared photos include metadata such as location by default.[8] On iPhone, turn off Location under Share › Options for a sharing copy.[12] On supported Samsung phones, turn off Camera › Settings › Location tags before new photographs; check existing files separately.[6] Keep the master securely, and use the clinic’s approved transfer method.
Bring focused questions to the appointment
Send a small representative sequence through the office’s approved secure route and ask how often follow-up images would be useful. The Clinical Visit Pack can hold the history and image notes alongside the questions. End the record with the decisions you need help making:
- Can this structure be examined in place, and is its relationship to the skin clear?
- Does this lesion need an in-person assessment, and what should be documented next?
- Would sampling or a laboratory method answer a specific unresolved question and change care?
Sources and their limits
1. Murphree J. How to photograph Morgellons Disease. Displayed date December 18, 2023; first-publication date unconfirmed (image paths suggest September 2021). Historical images and equipment context; the proof claims are corrected here, and the linked post retains its Lyme-specialist statement and affiliate links. ↩ Return to citation
2. Pearson ML, Selby JV, Katz KA, et al. Clinical, Epidemiologic, Histopathologic and Molecular Features of an Unexplained Dermopathy. PLoS ONE. 2012;7(1):e29908. CDC-led investigation, cited for laboratory methods and distinct specimen streams; not an explanation of these historical images. ↩ Return to citation
3. American Academy of Dermatology. How to take pictures of your skin for your dermatologist. Updated July 20, 2023. General photography guidance; no photographic Morgellons diagnosis is validated. ↩ Return to citation
4. American Academy of Dermatology. Telemedicine: How to prepare for your appointment. Preparation advice on avoiding irritation and changes before assessment. ↩ Return to citation
5. Adobe. Sharpening overview. Updated February 23, 2026. Confirms that sharpening increases edge contrast and can produce halos, jagged edges or noise; does not demonstrate an artifact in any example here. ↩ Return to citation
6. Samsung. Use the Galaxy Z Flip6 FlexCam and other camera features. Manufacturer examples of scene optimization and Location tags; controls vary by device. ↩ Return to citation
7. Apple. About Apple ProRAW. April 19, 2024. Manufacturer documentation of processing and sharing conversions, not a clinical imaging standard. ↩ Return to citation
8. Apple. Share photos and videos on iPhone. iPhone User Guide, iOS 27. Accessed October 16, 2026. Documents shared metadata and format options; All Photos Data is available through AirDrop only. Other apps and system versions may differ. ↩ Return to citation
9. Mayne P, English JS, Kilbane EJ, et al. Morgellons: a novel dermatological perspective as the multisystem infective disease borreliosis [version 1; peer review: 1 approved, 1 approved with reservations, 2 not approved]. F1000Research. 2013;2:118. doi:10.12688/f1000research.2-118.v1. Opinion article. Cited for its 60× recommendation, criticism of CDC dermoscopy and removed-eschar example at 10×; it does not validate a diagnostic cutoff. ↩ Return to citation
10. Nikon MicroscopyU. Linear Measurements (Micrometry). Technical calibration guidance, including exact optical combinations and zoom settings. ↩ Return to citation
11. Oakley A. Wood lamp skin examination. DermNet. August 2014. Clinical account of fluorescence and interfering surface substances. ↩ Return to citation
12. Apple. Manage location metadata in Photos. Personal Safety User Guide. Manufacturer guidance on location information in photos and sharing. ↩ Return to citation
Editorial note: This educational guide revises the earlier post’s claims about photographic proof. The images are reproductions of my own published files, not verified untouched camera originals. No editorial cropping was added. Website processing and responsive delivery can alter pixel dimensions, encoding or metadata; the captions identify the measured reproduction sizes. This guide has not been reviewed by a clinician.