Cardiology runs on procedures and devices. A single patient's year might include an ECG in clinic, an echocardiogram, a stress test, a catheterization and the implant of a device that then reports data from home every few months. Each of those produces images, waveforms, measurements and reports in a different system, and the cardiologist needs them all in one place.
This guide explains what cardiology EMR software has to handle beyond a general ambulatory EHR: the cardiovascular information system, the main procedure workflows, the IHE cardiology profiles that tie systems together and the registry reporting that cardiology programs live with. It is written for cardiology leaders, informatics teams and software vendors.
What is cardiology EMR software?
Building or connecting cardiology systems?
Agnotic builds cardiology software and integrations, from ECG and echo data flows to registry extracts.
Cardiology EMR software is the combination of an EHR with cardiology-specific tools for procedures, imaging, waveforms, devices and registries. In larger organizations, much of that sits in a cardiovascular information system, or CVIS, that works alongside the EHR, PACS and ECG management systems.
Epic's own CVIS, Cupid, is a useful example of the scope. Epic describes it as supporting invasive and non-invasive cardiology procedures, with structured reporting, and designed to work with a PACS, ECG and other imaging systems to bring images and procedure data into the patient record.
Which cardiology workflows does the software need to support?
Cardiology software needs to support at least five workflows: resting ECG, echocardiography, stress testing, cardiac catheterization and implantable device follow-up. Each has its own ordering, acquisition, reporting and data needs.
- Resting ECG: Ordered, acquired on a cart, read and confirmed, with the waveform and interpretation available across the organization.
- Echocardiography: Ordered, scheduled, imaged, measured and reported, with structured measurements feeding the report.
- Stress testing: Exercise or pharmacologic tests that combine ECG data with imaging in some cases.
- Cardiac catheterization: Scheduling, hemodynamic monitoring, imaging, procedure logs, supplies and structured reports.
- Device clinic: Pacemaker and defibrillator interrogations in clinic and remotely, with alerts and periodic reports.
Electrophysiology, structural heart and heart failure programs add their own needs, but the five above cover most of the daily volume and most integration work. Getting these right first gives the specialized programs a stable base of orders, results and reports to build on.
What do the IHE cardiology profiles cover?
The IHE Cardiology domain, sponsored by the American College of Cardiology, defines integration profiles for the main cardiology workflows. They describe how ordering, scheduling, acquisition, storage, viewing and reporting systems should exchange data, using HL7 and DICOM.
- Cardiac Cath Workflow: Integrates ordering, scheduling, image acquisition, storage and viewing for catheterization.
- Echocardiography Workflow: The same chain for digital echocardiography.
- Retrieve ECG for Display: Gives access across the enterprise to ECG documents for review.
- Stress Testing Workflow: Ordering and collecting multi-modality data during diagnostic stress testing.
- Implantable Device Cardiac Observation: Creation, transmission and processing of discrete data and reports from device interrogations.
- Displayable Reports: Distributes display-ready PDF cardiology reports from the department to the enterprise.
- Evidence Documents: Adds cardiology-specific options to the radiology evidence documents profile.
When buying or building cardiology software, ask vendors which profiles and actors they support and whether they have tested them at IHE Connectathons. A profile name in a brochure is not the same as tested interoperability between two real products.
How should ECG data flow into the EMR?
ECG data should flow from the cart to an ECG management system for reading and confirmation, then to the EMR as a final report with access to the waveform. Orders should go the other way, so the cart shows the right patient and order before acquisition.
- Worklist to the cart: The cart pulls the order and patient details, avoiding manual entry and misidentified tracings.
- Reading and confirmation: Cardiologists review and confirm or edit the machine interpretation.
- Result to the EMR: The confirmed interpretation and key measurements, such as intervals, return as a result.
- Waveform access: Clinicians can open the tracing from the chart, as the Retrieve ECG for Display profile describes.
Unconfirmed tracings need careful handling. Clinicians often act on the machine read before a cardiologist confirms it, so the EMR should show clearly whether an ECG is preliminary or confirmed.
Comparison with prior tracings is the other common need. A cardiologist reading a new ECG wants the last one on screen beside it, and an emergency physician wants to know whether a finding is new. That only works when every tracing is matched to the right patient, which is why the order-driven worklist on the cart matters so much.
What does cath lab integration involve?
Cath lab integration connects scheduling, the hemodynamic monitoring system, imaging, inventory and the procedure report. Epic's open.epic catalog, for example, lists an interface for incoming procedure log data from hemodynamic systems for cath, electrophysiology and interventional radiology procedures.
- Orders and scheduling: The procedure order and room schedule drive the modality worklist.
- Hemodynamic system: Records pressures, events, medications and times during the case.
- Imaging: Angiography images go to the cardiology PACS with the same accession number as the order.
- Supplies and implants: Stents and devices used are recorded for charging, inventory and registries.
- Structured report: Findings and interventions are documented in a structured way that supports registry submission.
The procedure log is the backbone. If timestamps and events from the hemodynamic system reach the record intact, the report, the charges and the registry abstraction all become easier. Door-to-balloon times for heart attack patients, for example, depend on accurate event times captured as the case happens, not reconstructed afterwards.
How does echocardiography reporting work?
Echocardiography reporting combines images in a PACS with measurements taken on the ultrasound machine or a review workstation, and a structured report written by the reading cardiologist. Good integration sends measurements into the report automatically instead of having them retyped.
Measurements are typically sent from the machine as DICOM structured reports, and the reporting system maps them to fields in the report template. Check the mapping for every machine model and software version, since vendors label measurements differently and a missing mapping silently drops a value.
The finished report should carry key findings as data, not only as text. Ejection fraction, valve findings and chamber sizes recorded as discrete values can drive heart failure registries, follow-up rules and research queries. If they exist only inside a PDF, someone has to read every report to find them again.
How should implantable device data be handled?
Implantable device data should arrive as discrete observations and a report, so device clinic staff can review alerts and trends and the EMR keeps a record of each interrogation. The IHE Implantable Device Cardiac Observation profile defines how that data is created, sent and processed.
- Sources: In-clinic programmers and the manufacturers' remote monitoring platforms.
- Data: Battery status, lead measurements, arrhythmia episodes and therapy delivered.
- Triage: Alerts reviewed by device clinic nurses, with escalation rules for urgent findings.
- Record: A summary and report filed to the EMR for each interrogation.
Device clinics often use a vendor-neutral platform that collects data from several manufacturers. The integration question is then how that platform sends results and reports to the EMR, and how it matches patients and devices.
Volume is the operational challenge. Remote monitoring produces scheduled transmissions and unscheduled alerts for every enrolled patient, and many are routine. Clear rules for which findings need same-day review, and which can wait for the next scheduled check, keep device clinic staff focused on the patients who need them.
How does registry reporting affect cardiology software?
Registry reporting shapes cardiology software because programs must submit detailed procedure data to national registries such as the ACC's NCDR. The CathPCI Registry, for example, covers patients who receive diagnostic catheterization or PCI and measures adherence to guideline recommendations and appropriate use criteria.
- Submission routes: The NCDR offers a free online data collection tool or certified third-party vendors.
- Data definitions: Each registry publishes a data collection form and coder's data dictionary, currently version 5.1 for CathPCI.
- Accreditation: CathPCI participation is required for ACC cardiac cath lab accreditation.
- Feedback: Facility and clinician dashboards return benchmarked outcomes.
Abstraction is expensive, so the best cardiology systems capture registry data elements during the procedure as structured fields. Map your report templates to the registry data dictionary and update both when the registry releases a new version.
What should a cardiology program check before choosing software?
A cardiology program should check workflow coverage, standards support, data ownership and the effort to keep everything current. A demonstration of a polished report says little about how the system behaves on a busy cath lab day or during a registry version change.
- Workflow coverage: Walk through ECG, echo, stress, cath and device clinic cases from order to registry submission.
- Standards: Ask which IHE cardiology profiles and actors are supported, and for Connectathon results.
- EHR fit: Confirm how orders, results and reports move to and from the organization's EHR.
- Data access: Make sure the program can extract its own structured data for research and quality work.
- Registry updates: Ask how quickly the vendor updates templates and extracts when a registry version changes.
- Device and modality list: Check every cart, ultrasound machine, hemodynamic system and device platform in use.
Run a reference call with a program of similar size and case mix, and ask specifically about integration problems after go-live. That conversation tends to be more useful than any feature list or scripted demonstration.
How Agnotic can help
Agnotic Technologies builds cardiology software and integrations. We work on ECG, echo and cath lab data flows, structured reporting, device clinic integrations and registry extracts, connecting cardiology systems to the EHR with HL7, DICOM and FHIR.
For cardiology software vendors, we help implement IHE cardiology profiles and the EHR interfaces health systems expect. For cardiology programs, we map report templates to registry data dictionaries so structured data captured during procedures can feed submissions with less manual abstraction.
Plan your cardiology software
Explore our cardiology software development work, or browse the EHR integration hub.
Related reading on Agnotic
Read about virtual cardiology care, hospital device integration, HL7 orders and results, and imaging informatics.
