The Anonymization API detects and transforms protected health information across clinical notes, medical imaging, EHR exports and research datasets. 70+ PII types recognized at 99.9% accuracy in 50+ languages. Supports both HIPAA Safe Harbor and Expert Determination de-identification methods.
PHI de-identification engine
Detect and transform protected health information across clinical text, DICOM images, HL7 messages and FHIR resources. Context-aware NLP models handle medical abbreviations, drug names and procedure codes.
Explore platformHIPAA requires the removal or transformation of 18 categories of protected health information before patient records can be shared for research, analytics or secondary use. Most healthcare organizations still rely on manual redaction or rigid rule-based tools that miss context-dependent identifiers, creating compliance risk and bottlenecks that delay research and analytics initiatives by months.
Clinical staff spend hours reviewing discharge summaries, pathology reports and progress notes for patient identifiers. A single missed date of birth or medical record number in a 40-page chart creates a HIPAA violation. Human reviewers achieve 85-92% recall on average, leaving 8-15% of PHI undetected in every batch. The Anonymization API automates first-pass redaction at 99.9% accuracy, reducing manual review to exception handling rather than line-by-line scanning.
DICOM files store patient name, date of birth, referring physician and institution in metadata headers. Ultrasound images, CT scans and X-rays frequently contain burned-in text overlays with patient demographics rendered directly into the pixel data. Standard metadata stripping misses these burned-in identifiers entirely. The API detects and redacts both DICOM header fields and burned-in text using computer vision models trained specifically on medical imaging datasets from multiple modalities.
International hospital networks, clinical trial organizations and WHO-affiliated research programs handle patient data in dozens of languages simultaneously. Arabic patient names, Japanese addresses, German clinical terminology and Spanish medication instructions all require language-specific NER models trained on medical corpora. The Anonymization API supports 50+ languages with dedicated entity recognition pipelines for each, ensuring PHI detection accuracy across multilingual clinical documentation without degradation.
Institutional Review Boards require statistical proof that de-identified datasets cannot be re-linked to individual patients. Rare disease cohorts, small geographic populations and unique treatment histories create re-identification risk even when the 18 HIPAA identifiers are removed. The API supports Expert Determination methods with k-anonymity and l-diversity transformations that reduce re-identification probability below accepted thresholds while preserving the analytical utility required for meaningful clinical research.
Every request to the Anonymization API scans input text, documents or images for protected health information defined under the HIPAA Privacy Rule. Context-aware NLP models distinguish between clinical terminology and patient identifiers, reducing false positives that plague keyword-based systems in medical text processing.
Hospitals, pharmaceutical companies and research institutions each generate different types of protected health information in different formats. The Anonymization API adapts its detection models and transformation strategies to match the specific PHI patterns and compliance requirements of each setting.
Strip patient identifiers from Epic, Cerner, MEDITECH and Allscripts exports. The API processes CCD-A documents, HL7 v2 messages and FHIR R4 bundles, preserving clinical data elements like diagnoses, procedures and medications while removing the 18 HIPAA identifier categories from structured and unstructured fields.
Remove patient demographics from DICOM headers across radiology, cardiology and pathology imaging studies. Computer vision models detect burned-in text overlays on ultrasound frames, CT localizers and X-ray images. Facial geometry in 3D reconstructions and volumetric scans is automatically defaced to prevent photographic re-identification.
De-identify physician progress notes, nursing assessments, operative reports and discharge summaries. Context-aware NLP handles medical abbreviations, misspellings and dictation artifacts that rule-based systems miss. The model distinguishes between provider names in clinical context and drug or procedure names that share similar patterns.
De-identify case report forms, informed consent documents and site monitoring reports for multi-center trials. The API preserves randomization codes, visit dates relative to enrollment and adverse event narratives while removing investigator names, site addresses and subject identifiers that could link records to individual participants across trial sites.
Process MedWatch submissions, CIOMS forms and individual case safety reports for pharmacovigilance databases. Patient narratives in adverse event descriptions frequently contain physician names, hospital identifiers and geographic details embedded in free text. The API extracts and redacts these identifiers while maintaining the clinical context required for signal detection and causality assessment.
Anonymize AERS and VAERS submission data for aggregate safety analysis. Batch processing handles millions of records from post-market surveillance systems, removing reporter information, facility identifiers and patient demographics. Pseudonymization preserves longitudinal linkage so follow-up reports can be connected to initial submissions without exposing real identities.
Prepare data for inter-institutional research collaborations where each site contributes patient records under different IRB protocols. The API applies consistent de-identification rules across heterogeneous data formats from multiple EHR systems, ensuring that merged datasets meet the de-identification standard required by the coordinating center and each participating institution's review board.
Protect participant identity in biobank specimens, GWAS datasets and sequencing results shared through repositories like dbGaP and EGA. While genomic sequences themselves carry inherent identification risk, the API removes demographic metadata, clinical phenotypes and pedigree information from associated records, reducing the linkage attack surface for deposited datasets.
De-identify vital statistics, disease surveillance records and population health registries for public release. The API applies geographic generalization, date shifting and small-cell suppression to prevent re-identification in datasets where rare conditions, small populations or unusual demographic combinations create uniqueness risk that simple identifier removal cannot address.
From raw clinical notes to anonymized research datasets, the Anonymization API handles detection, transformation and validation in a single pipeline. Each capability is designed for healthcare-specific data patterns that general-purpose PII tools miss entirely.
NLP models trained on millions of clinical documents handle medical abbreviations, shorthand notation and dictation artifacts. The system recognizes that "pt c/o CP" means "patient complains of chest pain" and preserves it as clinical content, while identifying embedded patient names, dates and identifiers within the same narrative. Handles progress notes, H&P documents, consultation reports and operative summaries.
Clinical NLP modelsDICOM metadata stripping removes 50+ patient-identifying header tags across all imaging modalities including CT, MRI, ultrasound, PET and digital pathology. Burned-in text detection uses OCR and spatial analysis to locate and redact patient demographics rendered into image pixels on ultrasound, fluoroscopy and endoscopy frames. 3D facial defacing protects against photographic recognition in reconstructions.
Image processingAutomated removal of all 18 HIPAA Safe Harbor identifier categories: names, geographic data smaller than state, dates except year, phone and fax numbers, email addresses, Social Security numbers, medical record numbers, health plan IDs, account numbers, certificate and license numbers, vehicle identifiers, device serial numbers, URLs, IP addresses, biometric identifiers, photographs and any other unique identifying number or code.
Compliance documentationIngest clinical documents in PDF, DOCX, plain text, HTML, CSV and XML formats. Process healthcare-specific standards including HL7 v2 messages, FHIR R4 bundles, CDA documents and DICOM structured reports. Each format parser understands the underlying schema so PHI detection operates on the correct fields and segments rather than treating the entire document as unstructured text.
De-identify telehealth transcripts, patient portal chat messages and clinical dictation as data streams through the system in real time. Sub-100ms latency ensures PHI never persists in intermediate buffers or logging systems. Audio transcription with automatic speaker diarization separates patient statements from provider responses, applying appropriate redaction rules to each speaker role independently.
Generate realistic but entirely artificial patient records for software testing, medical education and algorithm development purposes. Synthetic records preserve statistical distributions, clinical correlations and temporal patterns from the source dataset without any one-to-one mapping to real patients. Output passes utility validation for downstream analytics and model training while carrying zero re-identification risk.
From hospital EHR migrations to multi-site clinical research, the same de-identification engine adapts to different healthcare data workflows while maintaining consistent HIPAA compliance across every use case.
Health systems migrating from legacy EHR platforms to Epic, Oracle Health or MEDITECH Expanse need to de-identify historical patient records before granting vendor access to production data. The Anonymization API processes millions of clinical documents in batch, creating de-identified copies for migration testing and validation without exposing real patient information to implementation teams and external consultants.
Pharmaceutical sponsors share de-identified patient-level clinical trial data with regulatory agencies, research collaborators and data transparency platforms like YODA and ClinicalStudyDataRequest. The API processes case report forms, adverse event narratives and lab data exports, removing investigator and subject identifiers while preserving the clinical variables needed for regulatory review and secondary analysis.
Academic medical centers de-identify case reports, imaging studies and cohort datasets before publication in peer-reviewed journals and data repositories. The API handles the diverse formats common in research workflows, from radiology images with burned-in text to structured databases with patient demographics scattered across dozens of fields and free-text clinical narratives.
Virtual care platforms process thousands of video visit transcripts, secure messages and remote patient monitoring data streams daily. Real-time de-identification strips patient and provider identifiers from transcripts before they reach quality assurance reviewers, analytics systems or AI model training pipelines. Audio redaction removes spoken names and identifiers from recorded consultation sessions.
Health insurers de-identify claims data for actuarial modeling, fraud detection algorithm development and data warehouse analytics. The API transforms member identifiers, provider NPIs, subscriber information and dependent details across 837 and 835 transaction sets, creating analytically useful datasets that support population health analysis without member-level exposure or regulatory risk.
Regional health information exchanges and qualified health information networks share patient records across organizational boundaries for coordinated care. The Anonymization API enables privacy-preserving record linkage where participating organizations contribute de-identified data to shared analytics platforms. Pseudonymization with consistent tokens allows longitudinal tracking across encounters without revealing patient identity to unauthorized parties.
Four stages process any healthcare document type. Real-time API for individual records. Batch mode for bulk EHR exports and research datasets.
The Anonymization API handles PHI de-identification across all clinical data types. The Website Categorization API provides COPPA compliance scoring for child-directed health content. The Resume Reader API supports healthcare recruiting with built-in candidate anonymization for bias-free screening of physicians, nurses and allied health professionals.
Purpose-built for clinical data volumes, regulatory complexity and the zero-tolerance accuracy requirements of healthcare privacy compliance.
Send us a sample of clinical notes, discharge summaries or medical records. We will return the fully de-identified output with confidence scores for each detected PHI entity, so you can evaluate accuracy, coverage and format preservation before committing to a production integration.