For medical professionals using Shoemaker’s Protocol

How Does InstaScope Tie into Dr. Shoemaker’s CIRS Protocol?

If you treat Chronic Inflammatory Response Syndrome (CIRS) using Dr. Ritchie Shoemaker’s protocol, you already know one hard truth: the protocol cannot succeed if the patient stays in a contaminated environment. The building has to be fixed, verified, and proven safe in a way that stands up to scrutiny from patients, families, and other providers.

That’s exactly where InstaScope fits in.

Why the Environment Is Step One in Shoemaker’s Protocol

Shoemaker’s framework starts with confirming there is a microbial problem in a water‑damaged building, then removing exposure and verifying successful remediation. Traditionally, that relies heavily on:

• Visual inspection

• ERMI / HERTSMI‑2 dust sampling

• Limited air samples with spore traps and a lab report days later

Those tools are useful, but they leave some gaps:

• They don’t show what patients are actually breathing in real time.

• They often sample only a few locations in a complex building.

• Results are delayed, making it harder to adjust remediation on the fly.

InstaScope doesn’t replace Shoemaker’s tools; it fills the real‑time airborne data gap so you can better execute steps 1–3 of the protocol: identify, remove, and verify.

What InstaScope Actually Does (In Plain English)

Most traditional mold air tests use spore trap cassettes: pull air, ship to a lab, wait for someone to count and identify spores under a microscope. InstaScope takes a different approach:

• Continuously samples air while you walk the space.

• Uses lasers and fluorescence to distinguish biological particles (like mold) from non‑biological dust, and to group them (mold vs pollen vs bacteria).

• Shows results immediately on a tablet so the inspector sees spikes as they move through each room.

In other words, it is a real‑time bioaerosol analyzer built specifically to map airborne contamination room by room, on site.

How InstaScope Supports Key Steps of Shoemaker’s Protocol

1. Confirming There Is a Microbial Problem

Shoemaker emphasizes first confirming that there is microbial amplification related to water intrusion, not just “something on the wall.” InstaScope helps by:

• Scanning the whole home or office to identify rooms with elevated airborne biological load compared to outdoor baseline.

• Highlighting hotspots that match visible damage and revealing hidden problem areas that look “clean” but have high airborne readings.

You can still pair this with dust tests (ERMI/HERTSMI‑2) and targeted spore trap or qPCR samples, but now those samples are guided by live data instead of guesswork.

2. Guiding Effective, Targeted Remediation

CIRS patients rarely have the luxury of trial‑and‑error remediation. They need the first major attempt to actually work.

By using InstaScope during the assessment, an inspector can:

• Map the building with a structured three‑phase protocol:

  • Baseline, undisturbed scan (what the patient normally breathes).

  • Walk‑through scan to follow the plume and locate likely sources.

  • Agitated scan (soft furnishings, carpets, contents) to see what becomes airborne with normal activity.

• Prioritize specific rooms, assemblies, and contents for remediation instead of “fog everything and hope.”

That level of precision supports Shoemaker’s goal: remove exposure from the patient’s daily environment so medical treatment can actually work.

3. Verifying That the Environment Is Truly Improved

Shoemaker stresses that remediation must be documented: dust testing, symptom tracking, VCS testing, and follow‑up labs. InstaScope adds a critical line of evidence:

• Pre‑remediation scans establish the original airborne burden and identify hotspots.

• Post‑remediation scans in the same locations verify that airborne biological levels have dropped back to appropriate ranges and no new hotspots are present.

For clinicians, this means you can:

• Show patients clear “before and after” graphs of airborne contamination alongside their improving VCS and biomarkers.

• Have stronger documentation if you need to justify environmental interventions to insurers or other providers.

InstaScope and the Shoemaker VCS Concept: Two Sides of the Same Coin

Shoemaker’s online Visual Contrast Sensitivity (VCS) test provides a rapid, low‑cost way to screen for and monitor biotoxin exposure at the patient level, with results in minutes. InstaScope plays a similar role for the building:

• VCS: “Is this patient’s visual system affected by biotoxin exposure?”

• InstaScope: “Is this room’s air burden consistent with a mold‑ or bioaerosol‑loaded environment?”

Used together—with dust testing, targeted sampling, and lab work—they tighten the causal chain between environment and symptoms.

What InstaScope Does Not Replace

A balanced message is important for CIRS‑literate professionals. InstaScope does not:

• Identify mold species or confirm mycotoxin production (that still requires lab analysis).

• Replace ERMI/HERTSMI‑2 in the Shoemaker framework; those dust tests remain valuable for characterizing long‑term reservoir contamination.

• Eliminate the need for a qualified inspector who understands building science and CIRS‑oriented inspection strategies.

Instead, it upgrades the inspection by adding real‑time airborne data that was previously missing.

How Our InstaScope CIRS / Shoemaker‑Informed Inspections Work

For patients and clinicians following Shoemaker’s protocol, our inspections are designed to plug in smoothly:

1. CIRS‑specific intake

   • We gather information on diagnosis status, VCS results, key biomarkers, and suspected exposure locations (home, work, school).

2. On‑site inspection

   • Detailed moisture and visual assessment, plus InstaScope scanning of every room, vent, and suspect assembly using a three‑phase protocol (baseline, walk‑through, agitation).

   • Where InstaScope finds elevated areas, we may recommend or collect targeted confirmatory samples (air cassettes, surface swabs, or dust for ERMI/HERTSMI‑2) as appropriate.

3. Clear, protocol‑friendly reporting

   • Room‑by‑room maps of airborne biological load.

   • Identification of likely sources and recommended remediation priorities.

   • Optional post‑remediation InstaScope verification to document improvement.

4. Support for your medical team

   • Reports are written so CIRS‑literate clinicians can easily integrate findings into Shoemaker‑style charts and treatment plans.