Earlier Detection Across Multiple Organ Systems
Identify cardiovascular, renal, metabolic, neurologic, and endocrine conditions before symptoms emerge — ahead of what score-only or symptom-based models allow.
SYNC-PREVENT™ is an 11-layer biomarker and device-based Clinical Status Monitoring platform for patients 50 years and older with two or more chronic conditions — built to close the gap standard care leaves open.
SYNC-PREVENT™ — Proactive Risk Evaluation, Vital Early Notification Tracking — is a continuously operating clinical framework built to identify disease before it becomes symptomatic, before it drives a hospitalization, and before it becomes expensive to reverse. It is not a remote patient monitoring program or a chronic care management service, though it uses both.
Designed for patients aged 50 and older, the platform combines eleven clinical detection layers — spanning biomarkers, device-based diagnostics, AI-driven interpretation, and behavioral intervention — into a single, continuously updated picture of each patient's physiologic status.
Synchronize Health, LLC built SYNC-PREVENT™ on the foundation of the American Heart Association's cardiovascular risk model and expanded it substantially. Where the AHA model estimates future cardiometabolic risk from traditional factors at a single point in time, SYNC-PREVENT™ is designed to track actual physiologic change longitudinally, across multiple organ systems, in real time. BridgeCare Louisiana, LLC is the exclusive licensee for Louisiana.
A patient timeline from age 40 to 80. SYNC-PREVENT™ monitors continuously from roughly age 50 onward — the years leading up to a first hospitalization, which typically occurs around age 65 to 70.
The physician retains full clinical authority at every step. BridgeCare LA supports, informs, and executes — it never directs care. Every alert, every escalation, every clinical insight exists solely to give the physician a more complete and timely picture, so their decisions are better informed, not made for them.
These objectives define how the platform is designed to create clinical and operational value for physicians, patients, payers, and care teams.
Identify cardiovascular, renal, metabolic, neurologic, and endocrine conditions before symptoms emerge — ahead of what score-only or symptom-based models allow.
Extend beyond the AHA model by incorporating longitudinal biomarker trends, device data, renal-adjusted interpretation, and cross-organ analysis.
Every core clinical layer is designed around existing CMS billing pathways and integrated with RPM and CCM workflows, so advanced care does not create unfunded services.
Structured detection of CKD, diabetes, hypertension, heart failure, and diabetic eye disease is designed to close care gaps that affect quality scores and value-based contract performance.
Early risk alerts and structured escalation pathways are designed to let physicians intervene before acute events occur, rather than after a patient reaches the ED.
Primary care, specialists, and hospitals work from the same current clinical record through TEFCA/Carequality connectivity, closing care-transition gaps.
Each layer detects a specific category of physiologic risk. Biomarkers are never interpreted in isolation — they are evaluated longitudinally, adjusted for renal physiology where applicable, and cross-referenced across layers by AI-driven reasoning engines.
Layers 1 through 8 are CMS-aligned and built around reimbursable laboratory and device testing. Layers 9 through 11 are addressed separately, with appropriate clinical context.
Detect early arterial disease before clinical events occur.
FrequencyAnnual testing; every 6 months for high-risk patients. Lp(a) is a one-time baseline, repeated only if clinically indicated.
Identify early heart failure, renal stress, fluid imbalance, and mineral-driven cardiac risk — including PTH-mediated pathways particularly relevant in women over 50.
FrequencyAnnual; every 6 months for heart-failure-risk patients. Troponin quarterly for two cycles after an instability trigger, then every 6 months if stable. PTH, vitamin D, and serum calcium are ordered together as a mineral panel — annually, or when clinically indicated.
Detect insulin resistance and glycemic instability before clinical diabetes is established.
FrequencyHbA1c every 3–6 months; metabolic panel annually. HOMA-IR is derived from existing labs — no additional test required.
Insulin-dependent patients in the Moderate and Complex care tiers are provisioned a Dexcom G7 continuous glucose monitor for real-time glycemic surveillance between visits, feeding directly into this layer's glycemic-trend interpretation. Stable-tier insulin-dependent patients continue on standard fingerstick and HbA1c monitoring unless the treating physician directs otherwise.
Identify fatty liver disease and metabolic-driven inflammation — a risk the AHA model does not address.
FrequencyAnnual; every 6 months where MASLD/MASH is suspected. FIB-4 is a computed output — no additional labs required.
Supported by the Sonic Incytes Velacur device for non-invasive liver elastography (CPT 76981) where deeper hepatic assessment is clinically indicated.
Detect the chronic inflammatory burden driving multi-organ disease progression.
FrequencyAnnual; more frequently where inflammatory burden is elevated or active.
Ensure adequate oxygen transport and detect anemia-related clinical risk.
FrequencyAnnual CBC; more frequently if anemia is identified or clinical status changes.
Identify dysautonomia and physiologic instability, particularly in diabetic and cardiac populations.
FrequencyAnnual; incorporated into standard visit workflows.
Detect peripheral artery disease and microvascular compromise before limb-threatening events.
FrequencyAnnual; every 6–12 months in diabetic patients or those with known vascular disease.
Detect silent brain injury and early cognitive decline risk before symptoms are apparent.
FrequencyOrdered only where the treating physician determines testing is clinically necessary.
Detect early functional decline, gait instability, and frailty risk before a fall or hospitalization forces the issue.
FrequencyAnnual; more frequently for patients 65 and older, post-fall, or flagged as frail by other layers.
Measure cognitive decline objectively, complementing Layer 9's blood-based biomarkers with functional performance data.
FrequencyAnnual; more frequently when Layer 9 biomarkers are elevated or trending, or where the physician identifies clinical concern.
Declining estrogen after menopause disrupts calcium metabolism and reduces PTH suppression, causing PTH to rise even without primary hyperparathyroidism. Elevated PTH — even within the high-normal range — promotes myocardial fibrosis, impairs ventricular relaxation, and activates the RAAS, all of which raise the risk of heart failure with preserved ejection fraction. This mechanism is often clinically silent and is not captured by standard cardiac risk models. Layer 2 addresses the gap by linking PTH, vitamin D, and serum calcium as a single mineral panel, interpreted in the context of renal function, menopausal status, and cardiac trajectory. The treating physician determines whether and when the panel is ordered.
Neurodegenerative biomarkers are not yet universally reimbursed by CMS. Layer 9 testing is included only where the treating physician determines it is clinically necessary, with education and supporting documentation — including cross-layer findings from other layers — provided to help build a defensible clinical record. Reimbursement pathways are evolving and CMS guidance is monitored. Kidney function must always be considered when interpreting these results, since reduced eGFR independently elevates NfL, GFAP, and pTau217 regardless of neurologic disease.
These extensions are not applied to every patient. Each is triggered by findings within the core layers, keeping testing targeted rather than universal.
In older patients, osteoporosis and fragility fractures are not simply orthopedic events — they accelerate loss of independence, trigger hospitalizations, and worsen cardiometabolic trajectories through immobility and deconditioning. This extension adds biologically responsive bone-turnover monitoring to help physicians detect high-turnover bone loss earlier, confirm treatment response sooner than DXA imaging can show, and manage CKD-related mineral metabolism accurately.
| Biomarker | What It Detects | Added Value Over Standard Care | Frequency |
|---|---|---|---|
| Intact P1NP | Bone formation rate; early biologic response to osteoporosis therapy | Confirms therapy adherence and response 3–6 months before DXA can show change | Baseline, then 3–6 months after therapy change; every 6–12 months if stable |
| Bone-specific ALP (bALP) | Bone formation; CKD-related mineral metabolism classification | Differentiates the bone contribution to elevated ALP; critical in CKD-MBD | Baseline; every 6–12 months for CKD-MBD risk; 3–6 months after therapy change in high-risk cases |
Activated when any of the following are present in the patient record: a known osteoporosis or osteopenia diagnosis; a prior fragility fracture; a frailty flag from Layer 7 or Layer 10 gait analysis; CKD stage 3 or higher (eGFR under 60) from Layer 2; an active or recent corticosteroid prescription; or BMI below 18.5. Renal adjustment applies here as well — in reduced kidney function, bone turnover markers can be distorted by clearance changes and secondary hyperparathyroidism, so results are integrated with eGFR, calcium, phosphate, and vitamin D status.
FH genetic testing is ordered only when the result is expected to change how the patient is managed — to support therapy escalation, justify biologic agents such as PCSK9 inhibitors, or enable cascade testing of family members. It is not a routine screen.
FH genetic testing is not triggered when LDL-C is already at target without a premature ASCVD history, when the patient is not a candidate for therapy escalation, or when a secondary cause explains the hypercholesterolemia and has not yet been corrected. The trigger is suppressed automatically when any of these conditions apply.
This extension activates only for patients with a confirmed IBD diagnosis — Crohn's disease or ulcerative colitis — rather than across the general population. It tracks disease activity between gastroenterology encounters using a panel of inflammatory ratios calculated from labs the patient is already giving, so no additional specimen collection is required.
Six ratios are calculated: NLR (neutrophil-lymphocyte), PLR (platelet-lymphocyte), SII (systemic immune-inflammation index), LMR (lymphocyte-monocyte), and LHR (lymphocyte-hemoglobin) come from the CBC; NPAR (neutrophil-platelet-albumin) also draws on serum albumin from the metabolic panel. All six are computed automatically at every draw — typically every 3 to 6 months, and more often during an active flare. The physician is flagged whenever a ratio crosses its threshold or trends toward one.
Cancer screening is not a core layer. It is a conditional, physician-directed extension that activates based on age, gender, and clinical risk factors surfaced elsewhere in the protocol — keeping oncologic screening targeted and evidence-based rather than applied uniformly.
Low-dose CT and FIT/Cologuard follow standard CMS age- and risk-based screening eligibility. PSA and CA-125 are never triggered automatically — they are ordered strictly by physician direction, informed by age, gender, family history, and findings surfaced elsewhere in the protocol. Findings feed into the cross-layer interpretation engine for context alongside the patient's broader risk profile.
The RPAL composite is computed automatically whenever CRP and serum albumin (Layer 5) and lymphocyte count (Layer 6) are all present in the current draw. It is surfaced to the physician — rather than simply logged — when the patient is flagged as post-procedural within 90 days of a TAVR or major cardiac or surgical intervention; when serum albumin falls below 3.5 g/dL; when CRP trends upward across two consecutive draws; when lymphocyte count falls below 1.0 × 10⁹/L; or when the care tier includes a frailty or high-infection-risk designation. No additional testing is required at any point.
Kidney function is not treated as a secondary finding. It is an active physiologic modifier that adjusts interpretation across every clinical layer. Reduced kidney function alters the circulating levels of inflammatory markers, vascular injury signals, and neurodegenerative biomarkers in ways that lead to misclassification if renal physiology is ignored.
Failing to account for it creates real clinical risk: overestimation of neurodegenerative risk, premature specialist referral, inappropriate therapy escalation, and unnecessary cost without benefit to the patient. Renal adjustment is embedded directly in the interpretation logic.
| Biomarker Pattern | Kidney Function Context | SYNC-PREVENT™ Interpretation |
|---|---|---|
| Elevated neurodegenerative biomarkers | Preserved eGFR | Higher likelihood of actual neurodegenerative pathology — proceed with clinical evaluation |
| Elevated neurodegenerative biomarkers | Reduced eGFR | Renal clearance effect is likely contributing — prioritize longitudinal trending before escalation |
| Stable biomarkers | Reduced eGFR | Lower near-term neurodegenerative risk — monitor physiologic contributors to kidney decline |
| Rising biomarkers over time | Stable or declining eGFR | Adjust slope interpretation; correlate with cognition, function, and device data before escalating |
A single elevated biomarker reading in a patient with CKD does not mean the same thing as the same reading in a patient with normal kidney function. Biomarkers are never interpreted in isolation. Renal-adjusted trend analysis differentiates stable renal-related elevation from true pathologic progression, so the physician receives a more accurate signal rather than a false alarm.
The protocol is built around FDA-cleared diagnostic devices operated on-site under physician supervision, with results transmitted to the physician within minutes of testing — enabling immediate clinical decision-making without disrupting clinic workflow or adding staff burden.
Each device integrates with the platform's clinical workflows and operates under existing CMS billing pathways. Device findings feed directly into the relevant biomarker layer.
Measures left ventricular end-diastolic pressure non-invasively. Detects early heart failure physiology — including HFpEF — before symptoms develop, providing hemodynamic data unavailable from standard clinical examination.
Screens for diabetic retinopathy from a single retinal image, returning a referral decision in about a minute. Closes the HEDIS diabetic eye exam care gap without a separate specialist visit.
Automated measurement of ankle-brachial and toe-brachial index. Identifies peripheral arterial disease, arterial stiffness, and limb ischemia risk before symptoms become limiting.
Assesses heart rate variability, sudomotor function, and parasympathetic/sympathetic balance — detecting autonomic dysfunction, an early marker of diabetic neuropathy and cardiovascular instability.
Non-invasive liver elastography quantifying hepatic stiffness and steatosis for staging of fibrosis and MASLD/MASH. Ordered on physician direction where clinical indicators are present, including elevated FIB-4 or abnormal Layer 4 biomarkers. CMS medical necessity criteria apply.
Amplifies heart and lung sounds, cancels background noise, and applies AI to detect AFib, murmurs, and early heart failure signals during routine examination — turning every visit into a screening opportunity.
Real-time continuous glucose monitoring for insulin-dependent patients in the Moderate or Complex care tier, giving the physician continuous glycemic trend data between visits rather than a single point-in-time reading. Feeds Layer 3 interpretation.
| Device | Manufacturer | What It Detects | Frequency |
|---|---|---|---|
| Bluedrop OneStep | Bluedrop Medical | Plantar temperature asymmetry, identifying diabetic foot ulcer risk 2–4 weeks before visible breakdown, ahead of ulceration, infection, and amputation. | Daily (high risk); weekly (moderate risk) |
| Wesper At-Home Sleep Study | Wesper | OSA severity, respiratory instability, sleep stages, and oxygen desaturation — identifying sleep apnea contributing to AFib, HFpEF, hypertension, and CKD progression. | Annual, or when symptomatic |
| Digital cognitive testing | Creyos | Cognitive performance assessment for early decline detection. Formalized as Layer 11; corroborates Layer 9 blood-based biomarkers. | CPT 96116 — annual |
| Frailty & gait analysis | KinetikOS | Motion-based gait instability and frailty assessment. Formalized as Layer 10; identifies fall risk and functional decline, particularly in patients 65 and older. | CPT 97750 — annual |
| Continuous glucose monitoring | Dexcom G7 | Real-time glycemic trend data for insulin-dependent patients, supporting Layer 3 interpretation between visits. | Moderate/Complex tier — continuous |
Clinical meaning emerges from context — the patient's full history, medication list, comorbidities, trends over time, and the interaction between findings across organ systems. SYNC-PREVENT™ applies language-model-powered clinical reasoning engines to assemble that context and deliver it to the physician in a clear, actionable form.
These models are trained on validated medical research and produce fact-based, evidence-aligned clinical context. They do not generate opinions and do not override physician judgment. Every output is a tool for the physician, not a substitute for clinical decision-making.
The complete patient profile — labs, vitals, medications, comorbidities, EHR notes, RPM data, and longitudinal trajectories across all eleven layers.
Cross-organ clinical reasoning that identifies interactions between biomarkers, explains risk trajectories, and surfaces findings the physician can act on. Updated every 30–90 days, aligned with CCM/RPM cycles.
All biomarkers, device data, medications, EHR history, and RPM trends in real time, with dynamic reclassification as new data arrives.
Short-term multi-organ instability prediction, care gap identification, and escalation need scoring. Updated at least monthly, with a full reassessment every 90 days in line with CMS requirements.
Age, AST, ALT, and platelets, placed in the context of metabolic, cardiac, and renal comorbidities. No additional labs required.
Fibrosis risk classification and MASLD/MASH progression assessment, with hepatic-cardiac-metabolic interaction context. Updated every 6–12 months alongside ALT/AST testing.
Remote Patient Monitoring and Chronic Care Management are the operational infrastructure that carries SYNC-PREVENT™ findings to patients and care teams between physician visits. They enable personalized engagement, medication adherence support, tiered alerting, and the longitudinal follow-through that turns a clinical insight into a measurable outcome.
Enrolled patients are supported by BridgeCare LA coordinators who understand conditions, medications, symptoms, and escalation pathways. Every signal delivered to a physician is filtered, clinically relevant, and free of noise.
Structured escalation pathways are designed so that status changes are communicated promptly and at the right level — the right person receiving the right alert at the right time.
Adherence verification and medication reconciliation through TEFCA/Carequality data, aimed at reducing medication-driven readmissions and care gaps.
Ready-to-sign reports aligned with CMS requirements, designed to reduce administrative burden without adding staff workload.
Missed readings, non-compliance, and engagement gaps are treated as clinical variables addressed through structured behavioral intervention, not simple reminders.
TEFCA/Carequality integration gives clinicians the complete picture of the patient — not just device readings — with full data security and HIPAA compliance.
SYNC-PREVENT™ establishes a patient-centric Health Information Exchange that dynamically links every professional involved in a patient's care — primary care, specialists, hospitals, ancillary services, and care management teams — into a single, continuously updated clinical network.
Through TEFCA/Carequality connectivity, event-based messaging, and real-time clinical alerts, meaningful changes are shared across the care team as they happen: hospital admissions and discharges, ED visits, abnormal laboratory results, device-detected physiologic deterioration, and biomarker-based risk escalation.
Because every clinician works from the same current record, care gaps during transitions are closed, duplicative testing is reduced, and conflicting treatment decisions become visible before harm occurs.
SYNC-PREVENT™ is built on the foundation of the American Heart Association's cardiovascular risk model and expands it across every dimension. The two are distinct: the AHA model is a published risk equation; SYNC-PREVENT™ is a monitoring platform licensed from Synchronize Health, LLC.
| Clinical Dimension | AHA Risk Model | SYNC-PREVENT™ |
|---|---|---|
| Risk assessment timing | Static — a single point in time | Longitudinal, continuously updated |
| Organ system coverage | Cardiometabolic only | Cardiac, renal, metabolic, hepatic, neurologic, vascular, hematologic, autonomic, functional/frailty, cognitive, oncologic |
| Biomarker interpretation | Fixed threshold values | Renal-adjusted, cross-layer, trend-based interpretation |
| Data sources | Traditional labs and clinical data | Labs, devices, RPM, EHR, medications, behavioral data, TEFCA/Carequality feeds |
| Kidney function role | Treated as a downstream diagnosis | Embedded as an active physiologic modifier across all layers |
| Escalation pathway | Clinician-initiated at next visit | Tiered and real-time, with physician notification and structured follow-up |
| Physician support | Risk score delivery only | Full clinical context, cross-organ reasoning, and workflow-integrated escalation support |
| CMS / value-based alignment | Partial | CMS-reimbursable structure, HEDIS/STARs gap closure, RPM/CCM integration |
FDA-cleared devices and longitudinal biomarkers surface physiologic change while it's still silent — across cardiac, renal, metabolic, and neurologic systems.
AI-driven reasoning engines cross-reference findings across all eleven layers, adjust for renal physiology, and assemble the clinical context a physician needs.
The treating physician — and only the treating physician — decides. SYNC-PREVENT™ delivers the picture; it never delivers the decision.
SYNC-PREVENT™ does not monitor one disease. It monitors the entire trajectory of human deterioration — before symptoms begin, before hospitalization occurs, before outcomes become difficult to reverse.
As new diagnostic technologies are validated, as additional FDA-cleared devices are integrated, and as CMS coverage evolves, SYNC-PREVENT™ expands accordingly. That commitment to ongoing refinement is what keeps the protocol current, clinically meaningful, and trustworthy.
Every element is designed around one governing principle: the physician is at the center of every clinical decision. The platform's role is to ensure that physician has the most complete, most accurate, and most timely clinical picture available — so that when they act, they act with confidence.
“Biology changes before symptoms begin. SYNC-PREVENT™ detects it — giving every physician the complete picture they need, at the moment it matters most.”
This page describes the design of the SYNC-PREVENT™ clinical protocol. It is provided for informational purposes only and is not medical advice, a diagnosis, or a treatment recommendation. All testing, device use, referral, and escalation described here occurs at the direction and discretion of the treating physician. CPT codes are listed to identify the category of service and do not constitute a representation that any service will be covered or reimbursed in a given case. Biomarker frequencies reflect protocol design and may differ for an individual patient. SYNC-PREVENT™ is a trademark of Synchronize Health, LLC.
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