Nowadays, Artificial Intelligence is booming, but not every solution is interchangeable, especially in a clinical setting. General-purpose models are trained on broad data and excel at versatile tasks, but healthcare has unique demands. Founders should note that while general-purpose AI can automate many workflows, they lack the built-in safeguards and domain focus that medical applications require.

In this article, we compare general-purpose models with specialized medical ones to help HealthTech founders and decision-makers understand when each approach makes sense. We also highlight key compliance and technical trade-offs involved, and discuss how to build a practical strategy that aligns with real-world healthcare requirements.

Difference Between Medical AI and General AI

General-purpose models are designed for breadth rather than depth. They excel at handling a wide range of tasks, from building applications that generate text and summarize information to assisting with administrative workflows, because they are trained on vast, diverse datasets that span many industries. This flexibility makes them an appealing choice for general automation and early prototyping in healthcare software development.

Medical Artificial Intelligence systems are purpose-built for the complexities of modern healthcare applications. They are often fine-tuned on clinical data and designed to understand medical terminology, comply with strict regulatory frameworks, and integrate into clinical workflows with explainable insights. This specialized focus enables higher accuracy and safety in clinical contexts.

Feature

General AI

Medical AI
Domain Training Trained on broad web data. Lacks focused medical curation Trained on curated medical data. Tailored to healthcare terminology and workflows
Typical Tasks Versatile: generates text, answers questions, translates language, creates content, summarizes information Specialized: applications that transcribes doctor-patient audio into medical notes, detect clinical patterns, fill EHR forms, analyze images
Accuracy & Reliability Good for broad knowledge and brainstorming, but prone to “hallucinations” (fabricated facts). Accuracy varies by topic High accuracy in its niche. Detects subtle clinical patterns. Errors can be quantified and minimized in testing
Regulatory Compliance Not certified by default. “Black box” models violate explainability norms. HIPAA and GDPR compliance requires extra measures (BAAs, data residency) Often built to meet health regulations. For example, Corti’s platform is a registered medical device and pursues EU MDR approval. It adheres to ISO standards
Explainability Limited: deep models are “opaque” to end users. This makes regulatory audit and clinician trust difficult Designed for interpretability: includes audit trails and rationale consistent with regulations
Data Privacy & Security Can be configured for HIPAA, but by default training data is vast and generic. Patient data must be tightly controlled Typically, offers secure deployment and does not use patient information to train models
Integration Delivers free-text outputs. Integration into clinical applications requires custom engineering (parsing, mapping) APIs provide structured outputs and templates matching clinical forms. Can process call audio and directly fill EHR fields with detailed data

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What General Artificial Intelligence Does Well for Healthcare Software

General-purpose solutions offer a ready-made “AI brain” without massive R&D. Key strengths include:

  • Administrative Automation. Applications that rely on AI chatbots and virtual assistants can handle patient FAQs, appointment scheduling, billing questions, claims inquiries, and follow-up reminders;
  • Documentation and Templates. Healthcare startups can use general-purpose tools to generate or refine clinical content, such as discharge summaries, patient instructions, referral letters, etc. This frees clinicians from retyping routine text;
  • Content and Research. General Artificial Intelligence in healthcare excel at summarizing articles or extracting key information from large text sources. Healthcare software might use it to parse medical literature, generate patient education materials, or synthesize research findings;
  • Prototype Flexibility. Building applications with intelligent features using one of many options available is relatively easy and fast. Startups love its “plug-and-play” approach where they don’t need to collect huge domain datasets.

General-purpose AIs can fill gaps in many non-critical areas. It’s cost-effective and can accelerate product development. The trade-off is that they’re aides for humans and admin processes, and none of these are approved diagnosis tools.

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Practical Example: Automating Clinical Notes with General AI

Here’s a practical example that illustrates the effective use of general-purpose AI for healthcare workflows. A clinic management application owner needed to enhance its digital consultation functionality. The challenge was to automate clinical note-taking without building a specialized medical AI from scratch. Our developers used the ChatGPT API for natural language processing to create a system that transcribes doctor-patient conversations in real time, identifies key medical terms, and structures them into searchable notes. As a result:

  • Doctors could focus entirely on patients, not documentation;
  • Note-taking accuracy improved by capturing exact terminology;
  • Clinical data became automatically organized and retrievable.

This application modernization example shows how general-purpose solutions in healthcare help work with unstructured data. By embedding real-time analysis, we helped turn consultation dialogue into structured information, slashing operational costs.

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Why Healthcare Companies Often Needs Specialized AI Infrastructure

To assist clinicians safely, healthcare applications must be purpose-built, with verified accuracy, explainability, and regulatory clearance. General Artificial Intelligence is powerful for administrative or creative work, but can lead to errors if used blindly in patient care. Patient safety and privacy impose strict requirements that general models does not automatically meet:

  • Data Confidentiality. Healthcare applications work with highly sensitive information, and they’re regulated by HIPAA (Health Insurance Portability and Accountability Act) in the US and GDPR (General Data Protection Regulation) in the EU. Specialized AIs are designed to handle PHI (Protected Health Information) by default, keeping all patient data secure and private;
  • Regulatory Accountability. Intelligent healthcare applications intended for medical purposes often qualify as medical devices under regulators like the FDA (Food and Drug Administration) in the US or MDR (Medical Device Regulation) in the EU when used for diagnosis or treatment. These require rigorous validation and certification. A generic LLM has no FDA approval for AI software. Building an FDA-cleared or CE-marked (a product that meets EU health, safety, and environmental standards) application “from the ground up” is onerous. Partnering with a specialized provider can shortcut that;
  • Clinical Accuracy and Context. Medical decisions demand extreme accuracy. A general model trained on internet text may not distinguish subtle details or keep up with the latest guidelines. Specialized models are fine-tuned on clinical data (doctor‑verified records, clinical guidelines) and can detect patterns that generic models miss;
  • Explainability and Trust. The EU’s AI Act classifies medical AI as “high-risk,” requiring transparency and human oversight, making “black box” AIs unacceptable in healthcare. Clinicians must understand the reasoning behind any decision that healthcare applications make. Specialized medical AI frameworks incorporate explainability (e.g. highlighting which symptoms or data led to a suggestion) to satisfy auditors and doctors alike. This reduces legal risk and increases trust;
  • Integration with Clinical Workflows. Healthcare software lives in complex ecosystems (EHRs, medical devices, billing systems). Specialist platforms often provide connectors or templates that plug into these workflows. For instance, APIs that can consume an audio recording of a doctor-patient encounter and output a filled-out medical form or draft discharge summary.

If an AI application touches patient diagnosis, treatment, or legally sensitive data, a general-purpose model (treated as a “black box”) may not be appropriate. In those cases, a specialized platform or partnership is the safer path. This critical focus on compliance and clinical safety is reshaping the entire AI landscape. Recognizing this imperative, even leading general-purpose AI developers like OpenAI now offer OpenAI for Healthcare, a HIPAA-compliant suite, featuring models evaluated for clinical workflows.

Corti as an Example of Specialized Healthcare AI

As a concrete example, Corti illustrates the specialized approach. It’s a platform built for healthcare from the ground up that enables the following key features:

  • Medical-Grade Compliance. Corti Assistant MD is already registered as an EU/UK medical device, and its development follows ISO 13485 (medical QMS), ISO 14971 (risk management), IEC 62304 (software lifecycle) and other standards. This means every model update, risk analysis, and user workflow is documented for auditors;
  • Healthcare-Tailored Models. Corti offers multiple specialized models trained exclusively on medical data. For example, its “Solo” model is optimized for fast, accurate transcription of clinical conversations. Its “Ensemble” model excels at turning conversations into structured documentation. These models are integrated into developer-friendly APIs and “agentic” frameworks that let you define healthcare-specific tasks for your application (e.g. filling out a cardiology note, checking discharge instructions);
  • Developer Support. Because navigating healthcare AI regulation is complex, Corti also provides documentation and support. Integrating Corti’s API comes with risk-management files, test reports, and even an AI impact assessment aligned to EU law.

Our custom healthcare software development​ company successfully integrates such medical-grade tools into existing applications to build healthcare AI solutions that understand clinical context. After the upgrade, apps can cut documentation time by 60%, as they auto-populate specialty-specific templates (e.g., cardiology SOAP notes) with high clinical accuracy, directly link findings to billing codes (ICD-10, CPT), and ensure an audit-ready record.

The Hybrid Approach: Combining General and Specialized AI

In practice, many healthcare software solutions use a hybrid strategy, blending general AI and specialized modules. For instance:

  • A telehealth application might use general-purpose Artificial Intelligence to generate patient education materials or answer billing questions, but use a certified clinical model to analyze vital signs or lab results;
  • An EHR startup could integrate generic Artificial Intelligence to help with free-text note-entry and coding, while routing any diagnostic suggestions through a specialized API for verification;
  • A medical device maker might use a general model behind the scenes for language translation or voice interface, and a trained vision model for image interpretation.

This modular approach takes the best of both worlds. General-purpose intelligent tools accelerate development of ancillary application features, while specialized solutions ensure core clinical tasks meet healthcare standards.

How to Choose the Right AI for Healthcare Applications

1. Assess the Use Case

If the task is non-critical (automating appointment reminders or enriching user interface with natural language), a general Artificial Intelligence may suffice and speed up the application development process.

If the task involves clinical decision support, diagnostics, or any guidance that affects patient care, favor a specialized Artificial Intelligence or at least a heavily validated, compliant solution.

2. Regulatory Environment

US (HIPAA/FDA). Any application handling PHI must be HIPAA-compliant. If healthcare software is intended as a medical device (influencing diagnosis or treatment), you must follow FDA guidelines (which currently regard most AI in healthcare as software as a medical device, SaMD).

EU (GDPR/MDR/AI Act). Artificial Intelligence used clinically likely falls under EU Medical Device Regulation. This means robust oversight and explainability are legally required. General LLMs do not come certified, and using them in patient care could put your application in violation. EU-based healthcare companies often prefer services that are already CE-marked or ISO-certified.

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3. Data Strategy and Privacy

If your healthcare application collects or processes any identifiable patient data, plan for end-to-end security. Ask: Does the AI vendor encrypt data at rest and in transit? Is data stored in a compliant jurisdiction? Does the model training respect consent?

Consider whether Artificial Intelligence needs access to real patient data at all. Some healthcare applications opt to perform de-identification or keep PHI entirely within hospital systems, feeding only anonymized content to the AI. For example, Corti’s architecture allows partner apps to retain full control of PHI while using cloud-based analysis.

4. Human-in-the-Loop Design

In regulated contexts, never rely on Artificial Intelligence without expert oversight. Plan workflows where clinicians review or confirm AI output. This improves safety, and may be a regulatory requirement (the EU expressly expects human supervision). For instance, use AI to draft a clinical note, then have the doctor approve it. Use AI to flag high-risk cases, but require a physician to validate before final decisions.

5. Economic Trade-Offs

Specialized solutions providers usually charge for their medical-grade services and may require long-term contracts. However, they save you the time and cost of building and validating your own model or certification documentation.

General AI APIs (even free tiers) can reduce initial healthcare application development costs and attract investors, but prepare for future costs (larger models, usage fees, or building compliance layers yourself).

6. Support and Expertise

Evaluate your team’s capacity. Do you have ML engineers and regulatory experts? If not, partnering with a custom healthcare software development company or hiring consultants can mitigate risks.

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Navigating these trade-offs requires specialized expertise.

Contact our team to design and build a compliant and effective AI healthcare app.

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Your Strategy Must Follow Healthcare Reality

HealthTech founders should align their strategy to the realities of medicine. General-purpose Artificial intelligence is a valuable tool for wide-ranging tasks, rapid prototyping, and augmenting clinicians’ administrative work. Specialized medical AI is essential for anything that touches patient safety, compliance, or decision-making.

In every situation, human clinicians must stay in control. By carefully considering use cases, regulations, and risk, a startup can leverage both general and specialized AI wisely. This hybrid, cautious approach allows starting with what general models can do today, and layering in specialized AI solutions for healthcare as they scale and enter regulated markets. For a practical, compliant AI strategy, contact us to build your custom healthcare application.