S-WAVE™ across dentistry

One 3D ultrasound platform, every dental discipline

What a full-arch, radiation-free 3D scan is designed to do for each specialty, what the published evidence says, and which uses are inside the current imaging-and-monitoring scope versus future research.

The platform

What every specialty gets from the same scan

Full-arch in one scan

The patented tray-style system captures the whole arch in a single seating, replacing multiple passes with a handheld wand.

Soft and hard tissue together

Designed to image bone, gum and implant positioning that optical scanners often cannot capture, such as recession and bone loss.

No optical limitations

Intended to work on edentulous ridges, implant sites, metal restorations and reflective surfaces.

AI-enhanced reconstruction

Deep-learning processing of ultrasound signals, designed to improve accuracy including around metal.

Open file formats

STL and DICOM export planned for CAD/CAM, 3D printing and existing digital workflows.

Radiation-free

Ultrasound instead of X-ray, so a scan can be repeated as often as the clinician wants.

Platform capabilities are design objectives drawn from KronosMD’s technology description on the original www.kronosmd.com and the Form C; none has been demonstrated in people. S-WAVE™ is not cleared or approved by the FDA.

By specialty

Fourteen disciplines, one scan protocol

Highlighted cards are the first consumer use; current scope means imaging and monitoring with dentist review; future research means a separate product or indication that would need its own FDA authorization.

General & family dentistry

The dentist who sees the patient twice a year

Today: bitewings and a visual exam; nothing between visits

  • Monthly full-arch 3D scan at home, flagged to the practice only when something changes
  • Early decay under enamel and cracks under restorations, including beneath metal and ceramic that blind X-rays
  • A digital 3D impression without impression material, exported as STL for the lab

Caries sensitivity 82% vs 75% for bitewings (Matalon 2007); cracks under restorations (Culjat 2005). Library →

Current product scope · imaging & monitoring

Periodontics

Gum and bone specialists

Today: probing depths every 3–6 months; CBCT for bone when justified

  • Bone level and thickness around every root, without radiation, every month
  • Gingival thickness and phenotype without a probe
  • Peri-implant bone around fixtures, monitored after placement

Within 0.07 mm of CBCT, better reproducibility (Nguyen 2023); gum thickness ~0.2 mm of probing (Alizad-Rahvar 2024); systematic review (Figueredo 2024). Library →

Current product scope · imaging & monitoring

Orthodontics & aligner therapy

Orthodontists, aligner providers, DSOs

Today: photo monitoring between visits; iTero or impressions at milestones

  • 3D tooth position every month at home, in the same geometry each time
  • The bone and root around moving teeth, which photos and optical scans cannot show
  • Refinement scans without an office visit; STL export to the aligner workflow

DentalMonitoring proved monthly home scanning with photos (2M+ patients); S-WAVE™ is designed to add the sub-surface. Orthodontists page →

Current product scope · imaging & monitoring

Pediatric dentistry

Children, parents, pediatric dentists

Today: radiographs limited by age and cooperation

  • No radiation, no bib, no waiting room: a scan a child can do on the couch
  • Early enamel lesions tracked, so remineralization can be tried before a filling
  • Eruption and mixed-dentition changes seen month to month

Early demineralized enamel separated, lesion depth matched micro-CT (Kim 2019). Patients page →

Current product scope · imaging & monitoring

Prosthodontics & dental laboratories

Crowns, bridges, dentures, full-mouth rehabilitation

Today: optical scans or impressions in the chair; subgingival margins are the hard part

  • Full-arch 3D impression in one tray seating, including edentulous ridges and reflective or metal surfaces that defeat optical scanners
  • Subgingival margins and soft-tissue thickness in the same data set as the preparation
  • STL and DICOM export to CAD/CAM and 3D printing

42 MHz intraoral scanners have produced 3D point clouds of prepared teeth in vitro (Bohner 2021). From the original kronosmd.com: “high-precision 3D dental impressions.”

Future research · separate authorization

Implantology

Implant surgeons and restorative dentists

Today: CBCT for planning; periapicals for follow-up

  • Ridge soft-tissue thickness and bone contour for planning, without a second CBCT
  • Peri-implant bone defects monitored after placement
  • Chairside real-time sensors for intra-operative imaging (planned, separate product)

Clinically acceptable accuracy for peri-implant defects (Tayman 2026); “promising adjunctive tool in implant dentistry” (Barausse 2025 systematic review). Quote →

Future research · separate authorization

Endodontics

Root-canal specialists

Today: periapical radiographs; CBCT for complex cases

  • Periapical lesions imaged once the cortical plate is thinned; cyst vs granuloma distinguished
  • Healing after treatment followed without repeat radiographs
  • Vertical root fractures: a research target, not a claim

Ultrasound more accurate than radiographs for periapical lesions in 5 of 5 studies, histology reference (Patil 2021). Review →

Future research · separate authorization

Oral & maxillofacial surgery

Surgeons, trauma and hospital dentistry

Today: CT and CBCT

  • Facial-fracture triage where CT is unavailable or to limit dose
  • Soft-tissue lesions, abscesses and salivary glands
  • Intra-operative imaging with embedded chairside sensors (planned)

Ultrasound vs CT for maxillofacial fractures: pooled sensitivity 0.94, specificity 0.96, 22 studies (Gadicherla 2021). Review →

Future research · separate authorization

Orofacial pain & TMJ

TMD clinics, oral medicine

Today: MRI and CBCT

  • Condylar surface change and joint effusion followed over time
  • Masticatory-muscle thickness as a treatment marker
  • A tray does not reach the joint; this would use a dedicated sensor

Ultrasound compared with radiographic findings of TMJ osteoarthritic change (Diagnostics 2025). Review →

Future research · separate authorization

Oral & maxillofacial radiology

The specialists who read dental images

Today: the gatekeepers of CBCT and dose

  • A radiation-free modality for serial follow-up, with dose reserved for what only CT shows
  • Fusion imaging: ultrasound registered to AI-enhanced CBCT overlays (planned, from the original site)
  • Elastography for soft-tissue stiffness (planned)

FDA has authorized 1,100+ AI radiology devices; see FDA page.

Future research · separate authorization

Oral medicine & oral pathology

Mucosal disease, lesions, salivary diagnostics

Today: biopsy and clinical photographs

  • Lesion depth and vascularity in soft tissue, where X-rays see nothing
  • Saliva biomarker sensors in the tray during a scan (research stage)
  • Serial measurement of lesions under observation

High-frequency ultrasound resolves soft-tissue layers (Turkiye Klinikleri 2026). Platform add-ons are research stage.

Future research · separate authorization

Dental hygiene & preventive care

Hygienists, preventive programs, DSOs

Today: the six-month recall

  • A monthly data point between recalls, so the hygienist arrives with a trend, not a snapshot
  • Early caries remineralization support and gum treatment delivery (research stage)
  • Oral-care products matched to the scan, in-app

Prevention economics on the Home page; platform add-ons require their own authorization.

Current product scope · imaging & monitoring

Teledentistry & DSOs

Remote review, multi-site groups, dental plans

Today: photo-based triage

  • Telehealth dentists contracted by KronosMD, or the patient’s own practice, review only what is flagged
  • One scan protocol across every site; no operator skill required
  • Population-level monitoring data for plans and DSOs (de-identified, with consent)

Business model on the Investors page; dentist workflow on the Dentists page.

Current product scope · imaging & monitoring

Dental public health & research

Universities, public-health programs

Today: survey radiographs are hard to justify

  • Radiation-free screening in schools and community programs
  • A research data set and bench prototype available to academic partners
  • A planned peer-reviewed paper on the bench results

See the Researchers & partners page.

Future research · separate authorization

Published results come from research-grade, probe-based ultrasound systems operated by clinicians, not S-WAVE™, and do not predict its performance. Specialty uses marked future research are not part of the current product or the Regulation Crowdfunding offering. Nothing here is a diagnostic or therapeutic claim.

In our founding words

How KronosMD described the vision

“Breakthrough ultrasound intraoral imaging for high-precision 3D dental impressions … providing detailed imaging of soft tissues for periodontal diagnostics and implant planning.”

Original kronosmd.com, “Transforming Dental Care Through Innovation”

“Chairside real-time ultrasound sensors to deliver intraoperative imaging during procedures … fusion imaging that combines ultrasound with AI-enhanced CBCT overlays and elastography for soft-tissue assessment.”

Original kronosmd.com, planned developments

The original www.kronosmd.com (2024–2026) described S-WAVE™ as “the first ever 3D ultrasound dental imaging” system and set out the mission “to enhance the accuracy of dental impressions, treatment planning, and disease detection.” That language is carried forward here as the company’s vision; this site states capabilities as design intent until testing shows otherwise.

Dental imaging without radiation, from home.

Questions about S-WAVE™, the research or a collaboration? Our team is here to help.