Oberarzt Innere Medizin-AI internal medicine consultant
AI-powered clinical guidance for internists.

Medizinischer Fachexperte für Diagnose und Therapie
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Oberarzt Innere Medizin — Purpose and Core Design
Oberarzt Innere Medizin is a specialist-oriented clinical decision-support and mentoring assistant modelled on the cognitive workflow of a senior internal medicine consultant (Oberarzt). Its core design purpose is to accelerate and structure high-quality diagnostic reasoning, provide guideline-anchored pharmacological treatment options, and to support workplace teaching, documentation and protocol development for physicians in training and specialist staff. The system is explicitly configured to communicate in specialist medical language, to prioritise differential diagnosis generation, stepwise diagnostic algorithms, and evidence-based medication strategies rather than generic patient lifestyle advice. Operationally the assistant functions as: 1) a rapid second-opinion generator that produces prioritized differentials, rationales for each diagnosis, and targeted next-step testing; 2) an evidence-aware prescriber aide that lists treatment options (drug classes, typical sequences, monitoring priorities, and common interactions) with clear caveats about need for local guideline confirmation and clinical judgment; and 3) an educational supervisor that creates case-based teaching plans, feedback templatesOberarzt Innere Medizin overview and competency checklists. Examples illustrating design purpose: • Ward-round triage: A junior presents an older patient with progressive dyspnea. The assistant supplies a ranked differential (e.g. acute decompensated heart failure, pneumonia, pulmonary embolism, COPD exacerbation, anemia), gives the highest-yield immediate investigations (ECG, chest X-ray, point-of-care BNP/troponin if available, arterial blood gas, oxygen requirement assessment), and explains the reasoning and how new results will shift pre-test probabilities. • Acute management briefing: For a deteriorating hypotensive patient, the assistant outlines immediate resuscitation priorities, reasonable vasoactive choices by haemodynamic profile, which labs/monitoring to start (lactate, urine output, arterial line), and red flags requiring escalation to ICU or invasive diagnostics. • Teaching & protocol development: A clinical educator asks for a 20-minute bedside teaching plan on interpreting troponin kinetics; the assistant returns learning objectives, a short slide outline, 3 clinical vignettes for practice and key references to guideline sections to consult. The model is intended to augment clinician judgement, speed cognitive workflows on busy services, and standardize education and documentation — always with the expectation that final decisions rest with the treating physician and relevant institutional protocols.
Primary clinical functions and applied use cases
Advanced diagnostic reasoning and prioritized differential generation
Example
Input: '65-year-old male, progressive dyspnea over 48 h, peripheral oedema, irregular pulse.' Output: A ranked differential with pathophysiological rationale (e.g. decompensated heart failure due to AF with rapid ventricular response; acute coronary syndrome with heart failure; community-acquired pneumonia with sepsis; pulmonary embolism; CKD-related volume overload). For each item it lists the most discriminatory bedside and laboratory tests, expected findings, and how each test result would re-rank the probabilities.
Scenario
During morning rounds a resident presents the patient above. The assistant produces a 5-minute action list: focused questions to refine pre-test probability, immediate orders (ECG, CXR, bedside BNP/troponin if available, basic labs incl. creatinine, ABG if hypoxic), and a plan for stepwise imaging (urgent echo vs CTPA depending on D-dimer and hemodynamics). The resident uses this to prioritise diagnostics and explain rationale to the team.
Evidence-based pharmacological treatment planning and escalation pathways
Example
Input: 'Acute decompensated heart failure with pulmonary oedema, BP 140/80, HR 110.' Output: A treatment pathway that lists first-line pharmacologic interventions (e.g. IV loop diuretic strategy and monitoring priorities, when to add vasodilators, indications for non-invasive ventilation, triggers for inotropes or invasive monitoring), practical monitoring checkpoints (renal function, electrolytes, urine output, haemodynamics) and common drug interactions to watch for given comorbidities and concomitant drugs.
Scenario
A junior asks for a management plan prior to calling cardiology. The assistant supplies a temporised prescription template (class of drug, route, monitoring targets), alternative agents if renal impairment or hypotension is present, and a concise justification referencing guideline concepts (e.g. guideline-driven intent to relieve congestion and stabilise haemodynamics before invasive strategy). The team adapts the plan to local formulary and dose protocols.
Teaching, supervision, documentation templates and quality improvement (QI) support
Example
Input: 'Create a 15-minute bedside teaching module on interpreting arterial blood gases for interns.' Output: A structured teaching plan (learning objectives, 3 example ABG cases with stepwise interpretation, common pitfalls, quick reference flowchart, suggested assessment questions), plus an editable slide or pocket card text and a short faculty feedback form.
Scenario
Program director needs to standardise central line insertion competency. The assistant produces: a pre-procedure checklist, procedural steps to include in simulation (sterile technique, ultrasound use, complication recognition), a 10-item competency assessment rubric for sign-off, and an audit template to collect complication rates for a QI cycle.
Primary target user groups and why they benefit
Residents and junior physicians (Assistenzärzte, house officers)
Benefit: rapid access to structured clinical reasoning, stepwise diagnostic workups, portable teaching modules, example prescription templates and monitoring checklists. Use cases include on-call decision support, preparing for complex consultations, writing succinct progress notes and discharge summaries, and just-in-time teaching before procedures or handovers.
Specialists, fellows, senior physicians and clinical educators (Fachärzte, Oberärzte, program directors)
Benefit: synthesis of guideline concepts into usable algorithms, generation of departmental protocols, aid in complex case review and second-opinion framing, support for research activities (protocol drafts, literature summarisation, critical appraisal), and tools for structured assessment and remediation of trainees. Senior users leverage the assistant to standardise care pathways, design audits/QI projects, and prepare teaching or administrative documents.
How to use Oberarzt Innere Medizin
Visit aichatonline.org for a free trial without login, also no need for ChatGPT Plus.
Open the site and launch "Oberarzt Innere Medizin" to start an expert session tailored to physicians and trainees in Internal Medicine and related subspecialties.
Define user role & objective
State your role (e.g., PGY-2 IM resident, cardiology fellow) and the task (differential, staging, regimen selection, order set, toxicity management). Indicate jurisdictional preference for guidelines (e.g., DGIM/DGK/DGHO/ESMO/ASCO) and inpatient vs. outpatient context.
Provide structured clinical data
Share de-identified, SI-unit data: demographics, key symptoms, vitals, comorbidities, allergies, ECOG, labs (Cr/eGFR by CKD-EPI, LFTs, cardiac biomarkers), imaging/staging (TNM, Ann Arbor, R-ISS), scores (CHA2DS2-VASc, HAS-BLED, MELD), microbiology, current meds and renal/hepatic function for dose adjustments.
Specify output & constraints
Request the format you need: diagnostic algorithm, antimicrobial plan, chemotherapy protocol (drug, dose, schedule, premedication), anticoagulationOberarzt Innere Medizin guide strategy, monitoring plan (CTCAE v5 toxicity, labs), drug–drug interactions, and cite specific society guidelines with full references. Add constraints (formulary limits, ICU vs. ward, pregnancy, renal/hepatic caps).
Iterate for precision
Ask for alternatives with pros/cons, strength of recommendation/level of evidence, and contingency pathways. Provide follow-up results to refine the plan. Keep PHI out; use case IDs. Request tables/checklists for handover or M&M review.
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Five common questions about Oberarzt Innere Medizin
What exactly does Oberarzt Innere Medizin deliver?
Specialist-level, guideline-anchored reasoning for Internal Medicine: focused differentials, diagnostic algorithms, staging frameworks, and precise pharmacotherapy (drug, dose, route, schedule, adjustments, monitoring) across cardiology, pneumology, nephrology, gastroenterology/hepatology, endocrinology, infectious diseases, and hemato-oncology. It cross-references major society guidance (e.g., DGK/DGIM/DGHO/ESMO/ASCO) and flags key contraindications, interactions, and organ-function caps.
How are guidelines and evidence presented?
Recommendations are paired with society, year, and section/table where applicable, plus recommendation strength/LoE when provided. If societies differ, it notes jurisdictional differences and offers primary and alternative pathways with their evidentiary basis, allowing you to align with local practice or tumor board conventions.
What input format yields the best output?
Use a SOAP-like, de-identified structure: chief problem; pertinent positives/negatives; vitals; labs with units and trends; imaging/staging; risk scores; renal/hepatic function; current meds (with doses); goals (e.g., bridge to procedure, curative vs. palliative). Request a specific deliverable: e.g., "non-inferiority options if cisplatin-ineligible" or "anticoagulation with CrCl 22 mL/min and recent GI bleed."
Where are the boundaries and safety limits?
It is built for licensed clinicians, not laypersons. It does not replace clinical judgment, EMR review, or institutional policies and cannot access protected data or order systems. It refuses patient-directed treatment and hazardous instructions, emphasizes de-identification, and highlights uncertainties requiring bedside assessment or multidisciplinary review.
Can it handle cross-disciplinary scenarios?
Yes—e.g., cardio-oncology anticoagulation in thrombocytopenia, infection prophylaxis during immunosuppression, peri-procedural antithrombotic bridging, or dose modifications in hepatic/renal impairment. It integrates competing risks and proposes tiered plans with monitoring schedules and stop criteria suitable for ward, ICU, or outpatient infusion settings.