Updated 66 stale knowledge base reference files (10 critical, 56 high) across all 5 skills using Microsoft Learn MCP research. Key factual updates: - Groundedness Detection API: `correction` → `mitigating` param, `correctedText` → `correctionText` (breaking change) - Copilot Studio: GPT-4.1 mini now default (was GPT-4o mini); Claude Sonnet 4.5 + Opus 4.5 added (experimental, 200K ctx) - Agentic Retrieval: still public preview; 50M free tokens/month - Azure security baselines: "Cognitive Services" → "Foundry Tools" - Databricks: Delta Live Tables → Lakeflow Spark Declarative Pipelines - MLflow 3 GenAI: new Feedback/Expectation data model - Token tracking doc: "Azure OpenAI in Foundry Models through a gateway" - Agent Registry: Risks column (M365 E7), Graph API (preview) - Copilot DLP: new Entra AI Admin + Purview Data Security AI Admin roles - ISO/IEC 42001: scope expanded to M365 Copilot, Foundry, Security Copilot - Zero Trust: CAE now via Conditional Access, Strict Location Enforcement - Purview: new Fabric Copilots/agents governance section - AG-UI HITL: ApprovalRequiredAIFunction (C#), @tool approval_mode (Python) All files: Last updated → 2026-04, *(Verified MCP 2026-04)* markers added. Build registry: 1341 URLs from 387 files (+2 new URLs). Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com>
515 lines
19 KiB
Markdown
515 lines
19 KiB
Markdown
# Data Quality for Responsible AI - Ensuring Training Data Integrity
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**Last updated:** 2026-04
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**Status:** GA
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**Category:** Responsible AI & Governance
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---
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## Introduksjon
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Datakvalitet er grunnmuren for ansvarlig AI. Machine learning-modeller lærer fra historiske beslutninger og handlinger fanget i treningsdata, og deres ytelse i produksjon er direkte avhengig av kvaliteten på disse dataene. Dårlig datakvalitet fører til bias, unfairness, feilprediksjoner og tap av tillit.
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Denne referansen dekker Microsofts tilnærming til å sikre dataintegritet gjennom hele ML-livssyklusen — fra datainnsamling og preprosessering til vedlikehold og lineage tracking. For organisasjoner i offentlig sektor (spesielt Norge) er dette kritisk for å oppfylle krav til etterrettelighet, åpenhet og rettferdig behandling.
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**Kjerneprinsipp:** Trustworthy training data har høyere sannsynlighet for å generere trustworthy outcomes. Data quality er ikke en engangsjobb, men en kontinuerlig prosess som må integreres i MLOps-praksis.
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---
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## Kjernekomponenter
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### 1. Data Sources og Diversitet
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**Kilder til treningsdata:**
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| Type | Beskrivelse | Kvalitetsrisiko |
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|------|-------------|-----------------|
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| **Proprietary data** | Organisasjonens egen data | Label bias, underrepresentasjon |
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| **Public sources** | Wikipedia, PubMed, offentlige datasett | Variabel kvalitet, mangelfull kurering |
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| **User-generated data** | Brukerinteraksjoner, feedback, samarbeid | Støy, malicious inputs, drifting patterns |
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**Kvalitetsutfordringer:**
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- **Imbalanced datasets** → modeller som favoriserer majoritetsklasser
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- **Underrepresentasjon** → dårlig ytelse for minoritetsgrupper
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- **Skewed feature distribution** → feilprediksjoner for underrepresenterte segmenter
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**Teknikker for balansering:**
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- **SMOTE** (Synthetic Minority Oversampling Technique) — genererer syntetiske eksempler for minoritetsklasser
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- **Undersampling** — reduserer majoritetsklasser
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- **Synthetic data generation** (Azure AI Foundry) — genererer representative datasett
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### 2. Exploratory Data Analysis (EDA)
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Gjennomfør EDA **tidlig** i feature design for å identifisere:
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- Karakteristikker, relasjoner, mønstre
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- Kvalitetsproblemer (missing values, outliers, noise)
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- Over-/underrepresentasjon
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- Statistisk bias
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**Plattformstøtte:**
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- **Azure Machine Learning Responsible AI dashboard** → Data Analysis-komponent
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- Visualiseringer: aggregate plots, scatter plots, cohort-basert analyse
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- Filtrer på predicted outcome, dataset features, error groups
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### 3. Data Preprocessing
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**Fire nøkkelteknikker (Verified fra Microsoft Docs):**
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| Teknikk | Formål | Eksempel |
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|---------|--------|----------|
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| **Quality filtering** | Fjern støy, ufullstendige observasjoner | Eliminer produktanmeldelser som er for korte |
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| **Rescoping** | Broadening overly specific fields | Adresse → by/stat i stedet for gate/husnummer |
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| **Deduplication** | Fjern redundans | 1000 identiske loggoppføringer → 1 observasjon |
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| **Sensitive data handling** | Eliminer persondata hvis ikke kritisk | Anonymiser PII, fjern unødvendige personopplysninger |
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**Standardized transformation:**
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- Konverter til ML-kompatible formater
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- Image → text (OCR for scanned documents)
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- Adjust orientations/aspect ratios for modellkompatibilitet
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### 4. Data Validation og Guardrails
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**Azure Machine Learning AutoML Data Guardrails:**
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| Guardrail | Status | Condition |
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|-----------|--------|-----------|
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| **Class balancing detection** | Alerted/Passed | Detekterer ubalanserte klasser |
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| **Memory issues detection** | Done/Passed | Sjekker at horizon/lag/rolling window ikke forårsaker OOM |
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| **Frequency detection** | Done/Passed | Verifiserer time-series alignment |
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**Data quality expectations (Azure Databricks / Lakeflow Spark Declarative Pipelines):** *(Verified MCP 2026-04)*
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> **Merk:** Delta Live Tables er nå offisielt omdøpt til **Lakeflow Spark Declarative Pipelines**. Kodeeksemplene (`@dp.table`, `@dp.expect_all_or_drop`) er fortsatt gyldige.
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```python
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valid_pages = {
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"valid_count": "count > 0",
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"valid_current_page": "current_page_id IS NOT NULL AND current_page_title IS NOT NULL"
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}
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@dp.table
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@dp.expect_all_or_drop(valid_pages)
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def prepared_data():
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# Dropper records som feiler expectations
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```
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### 5. Feature Stores
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Sentralisert repository for features som sikrer:
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- Konsistens mellom training og inference
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- Feature reuse på tvers av modeller og team
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- Versjonering og immutability
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- Automated data drift detection
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**Implementeringsmønstre:**
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- **Centralized** → single source of truth, sterk governance
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- **Distributed** → team-autonomi, krever koordinering
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- **Hybrid** → common features sentralt, domain-specific features distribuert
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### 6. Data Lineage Tracking
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Spor dataens vei fra kilde til modelltrening for:
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- Explainability og åpenhet
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- Debugging og root cause analysis
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- Identifisere bias introdusert i preprocessing
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- Compliance og auditability
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**Plattformintegrasjon:**
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- **Azure Machine Learning + Microsoft Purview** → automatisk lineage tracking
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- **Version control** (Git, Azure DevOps) → track changes til training datasets
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### 7. Decision Integrity og Security
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**Threats til training data (Verified fra Microsoft Security whitepaper):**
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| Threat | Beskrivelse | Mitigasjon |
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|--------|-------------|------------|
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| **Malicious data injection** | Angripere introduserer crafted inputs | Data resilience, decision integrity checks |
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| **Target leakage** | Modellen "jukser" med data fra fremtiden | Validate features, temporal consistency |
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| **Training data tampering** | Modifikasjon av trusted training data | Access controls, immutable datasets |
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**Overtraining pitfalls:**
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- **Overfitting** → modellen memorerer trening, feiler på test
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- **Target leakage** → abnormally høy accuracy (95%+) → sannsynligvis leakage
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---
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## Arkitekturmønstre
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### Pattern 1: Centralized Training Data Pipeline
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```
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Source Data (Production/External)
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↓
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Data Collection Store (localized)
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↓
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Exploratory Data Analysis (EDA)
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↓
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Preprocessing (quality, rescoping, deduplication, PII removal)
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↓
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Feature Store (versioned, immutable features)
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↓
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Training Data (train/validation/test split)
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↓
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Model Training
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↓
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Responsible AI Dashboard → Data Analysis
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```
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**Når bruke:**
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- Sterk data governance
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- Compliance-krav (GDPR, offentlig sektor)
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- Flere team deler samme datasett
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### Pattern 2: Segmented Data Pipeline
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**Use case:** Separate pipelines for data med distinct security requirements.
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```
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Geo Region A Data → Pipeline A → Model A
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Geo Region B Data → Pipeline B → Model B
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↓
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(Optional) Federated Training → Combined Model
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```
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**Krav:**
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- Access controls per segment
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- Same security rigor på alle segmenter
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- Regulatory constraints (data residency)
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### Pattern 3: Continuous Data Quality Monitoring
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```
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Production Data → Real-time Ingestion
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↓
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Data Quality Checks (expectations, guardrails)
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↓
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[Pass] → Feature Store → Retraining
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[Fail] → Alert → Manual Review
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↓
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Monitor for Data Drift / Concept Drift
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↓
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Trigger Retraining (condition-based or scheduled)
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```
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**Plattform:**
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- **Azure Machine Learning Model Monitoring** → data drift, data quality signals
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- **Databricks Expectations** → inline quality checks
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### Pattern 4: Foundation Model Fine-Tuning Data Pipeline
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Mindre volum, høyere kvalitetskrav:
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```
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High-Quality Domain-Specific Examples
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↓
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Manual Curation / Expert Review
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↓
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Small Training Set (100-1000s examples)
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↓
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Fine-Tune Pre-Trained Model
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↓
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Validate on Hold-Out Test Set
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```
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**Eksempel:** Fine-tune GPT-4 for medical documentation → training examples må accurately representere medical terminology og clinical reasoning.
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---
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## Beslutningsveiledning
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### Når bruke sentralisert vs. distribuert feature store?
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| Kriterium | Centralized | Distributed |
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|-----------|-------------|-------------|
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| **Organization size** | Large, standardized | Multiple autonomous teams |
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| **Governance maturity** | High | Moderate |
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| **Feature overlap** | High (many shared features) | Low (domain-specific) |
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| **Compliance** | Strict centralized control | Team-level flexibility |
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### Hvor ofte gjøre retraining?
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| Trigger | Frequency | Use Case |
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|---------|-----------|----------|
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| **Scheduled** | Daily/weekly | Routine maintenance, stable data |
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| **Trigger-based** | On data drift detection | Dynamic environments, rapid change |
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| **Hybrid** | Both | Fail-proof operations (scheduled + triggered) |
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### Hvor lenge beholde training data?
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| Scenario | Retention Policy | Rationale |
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|----------|------------------|-----------|
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| **Data unchanged** | Delete after training | Reduce storage costs, minimize risk |
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| **Model drift detected** | Retain for comparison | Rebuild/retrain with historical data |
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| **Compliance** | Follow RTBF (Right to Be Forgotten) | Remove personal data on request |
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| **Disaster recovery** | Secondary pipeline with redundancy | Regenerate model exactly as before |
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### Hvordan håndtere imbalanced data?
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```
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IF minority class < 10% THEN
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IF synthetic data acceptable THEN
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Apply SMOTE
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ELSE
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Oversample minority OR Undersample majority
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END IF
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ELSE IF 10-30% THEN
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Use class weights in model training
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ELSE
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Standard training (sufficient balance)
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END IF
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```
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---
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## Integrasjon med Microsoft-stakken
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### Azure Machine Learning
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| Komponent | Kapabilitet | Data Quality Support |
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|-----------|-------------|----------------------|
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| **Responsible AI Dashboard** | Data analysis, fairness, error analysis | Visualize distribution, identify bias |
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| **AutoML Data Guardrails** | Class balancing, memory, frequency checks | Automated alerts |
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| **Model Monitoring** | Data drift, data quality signals | Continuous monitoring |
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| **ML Datasets** | Versioned, registered datasets | Lineage tracking |
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**Code Sample (Data Quality Signal):**
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```python
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from azure.ai.ml.entities import DataQualitySignal, DataQualityMetricThreshold
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metric_thresholds = DataQualityMetricThreshold(
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numerical=DataQualityMetricsNumerical(null_value_rate=0.01),
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categorical=DataQualityMetricsCategorical(out_of_bounds_rate=0.02)
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)
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data_quality_signal = DataQualitySignal(
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production_data=production_data,
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reference_data=reference_data_training,
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features=['feature_A', 'feature_B', 'feature_C'],
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metric_thresholds=metric_thresholds,
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alert_enabled=True
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)
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```
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### Azure AI Foundry
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- **Evaluation tools** → assess data quality before training
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- **Synthetic data generation** → generate balanced datasets
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- **Content Safety** → filter harmful training data (protected material detection)
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### Azure Databricks
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**Expectations pattern:**
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```python
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@dp.table
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@dp.expect_all_or_fail({"valid_count": "count > 0"})
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def customer_facing_data():
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# Pipeline fails if expectation not met
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```
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### Microsoft Purview
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- **Data discovery and classification** → automated tagging
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- **Lineage tracking** → full data provenance
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- **Compliance policies** → enforce GDPR/data residency
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### Azure DevOps
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- **Version control** for training datasets
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- **CI/CD pipelines** → automated data validation
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- **Rollback** → revert to previous dataset version if quality degrades
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---
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## Offentlig sektor (Norge)
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### Særlige krav
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| Krav | Implementasjon | Microsoft-støtte |
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|------|----------------|------------------|
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| **Etterrettelighet** | Full lineage tracking fra kilde til modell | Azure ML + Purview |
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| **Åpenhet** | Responsible AI Scorecard (PDF for stakeholders) | Azure ML RAI dashboard |
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| **Rettferdig behandling** | Fairness assessment, class balancing | AutoML guardrails, RAI dashboard |
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| **Personvern (GDPR)** | PII removal, RTBF compliance | Data preprocessing, anonymization |
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| **Data residency** | Segmented pipelines per region | Norway East/West regions |
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### Eksempel: NAV (arbeids- og velferdsetaten)
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**Scenario:** Prediksjonsmodell for uføretrygd.
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**Data quality challenges:**
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- Historiske data kan inneholde bias (underrepresentasjon av grupper)
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- Personopplysninger må anonymiseres
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- Modellen må være transparent for revisorer
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**Løsning:**
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1. **EDA** → identifiser underrepresentasjon (alder, kjønn, region)
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2. **Balancing** → SMOTE for minoritetsgrupper
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3. **PII removal** → anonymiser fødselsnummer, adresser
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4. **Fairness assessment** → RAI dashboard → verifiser at accuracy er lik på tvers av demografiske grupper
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5. **Scorecard** → generer PDF for politiske stakeholders og revisorer
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6. **Lineage** → Purview → dokumenter at all data er lovlig innsamlet
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---
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## Kostnad og lisensiering
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### Kostnadskomponenter
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| Komponent | Kostnadsfaktor | Estimat (NOK/måned) |
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|-----------|----------------|---------------------|
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| **Data storage (localized)** | Azure Blob/ADLS Gen2 | 500-5000 (avhenger av volum) |
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| **Compute (EDA, preprocessing)** | Databricks/Synapse Spark | 2000-20000 (avhenger av scale) |
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| **Feature store** | Azure ML Feature Store | Inkludert i Azure ML |
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| **Purview (lineage)** | Data governance scanning | 3000-10000 (avhenger av data sources) |
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| **AutoML (guardrails)** | Compute for training | 1000-10000 per experiment |
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**Optimeringstips:**
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- Bruk serverless Spark (pay-per-use) for EDA
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- Delete stale training data
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- Share feature stores på tvers av team
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### Lisenskrav
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| Kapabilitet | Lisens | Kommentar |
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|-------------|--------|-----------|
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| **Azure Machine Learning** | Azure subscription | Pay-as-you-go compute |
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| **Responsible AI Dashboard** | Inkludert i Azure ML | Ingen ekstra kostnad |
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| **Microsoft Purview** | Separate license | Data governance add-on |
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| **Databricks Expectations** | Databricks license | Premium/Enterprise tier |
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| **Azure AI Foundry** | Azure subscription | Separate compute charges |
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---
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## For arkitekten (Cosmo)
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### Quick Decision Tree
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```
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START: Kunde trenger AI-modell
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1. Har de eksisterende training data?
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NO → Anbefal data collection strategy (proprietary vs. public vs. synthetic)
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YES → Fortsett til 2
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2. Er datasettet balansert?
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NO → Anbefal SMOTE/oversampling/synthetic data
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YES → Fortsett til 3
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3. Har de gjort EDA?
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NO → Anbefal Azure ML RAI Dashboard → Data Analysis
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YES → Fortsett til 4
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4. Er det PII i datasettet?
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YES → KRITISK: Anbefal preprocessing (anonymization/removal)
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NO → Fortsett til 5
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5. Trenger de compliance/auditability?
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YES → Anbefal Purview + RAI Scorecard
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NO → Fortsett til 6
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6. Har de data drift i produksjon?
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YES → Anbefal Model Monitoring med data quality signals
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NO → Basic training pipeline OK
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7. Er dette foundation model fine-tuning?
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YES → Anbefal small, high-quality curated dataset
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NO → Standard training pipeline
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```
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### Red Flags (Varsle umiddelbart)
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| Symptom | Problem | Løsning |
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|---------|---------|---------|
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| "Vi har 95%+ accuracy på test" | Sannsynlig target leakage | Validate features, temporal consistency |
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| "Brukerdata går rett i training" | Malicious injection risk | Data validation, guardrails |
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| "Vi slettet dårlige eksempler" | Selection bias | Behold representative samples |
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| "Vi trener på all historisk data" | Overfitting, stale data | Implement temporal windowing |
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| "Vi har ikke test set" | Kan ikke validere generalisering | 80/10/10 split (train/val/test) |
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### Cosmo's Talking Points
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**Når kunden sier:** "Vi har mye data, så kvalitet er ikke så viktig."
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**Svar:** "Det er motsatt — mer data forsterker bias hvis kvaliteten er dårlig. En modell trent på 1M dårlige eksempler er verre enn 10K gode. La oss starte med EDA for å forstå hva dere faktisk har."
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**Når kunden sier:** "Vi kan ikke slette persondata, det er viktig for modellen."
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**Svar:** "Det er to spørsmål: 1) Er det *kritisk* for prediktiv kraft, eller kan vi anonymisere? 2) Hvis kritisk, må dere ha GDPR-compliance (RTBF-policy, consent management). Jeg anbefaler Purview for å tracke dette."
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**Når kunden sier:** "Modellen fungerer dårlig på noen grupper."
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**Svar:** "Det er sannsynligvis underrepresentasjon i training data. La oss kjøre Fairness Assessment i RAI Dashboard og se om vi trenger oversampling eller mer data."
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### Verktøyvalg per scenario
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| Scenario | Anbefalt verktøy | Alternativ |
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|----------|------------------|------------|
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| **EDA** | Azure ML Notebooks + RAI Dashboard | Databricks Notebooks |
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| **Data validation** | AutoML Guardrails | Databricks Expectations |
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| **Lineage tracking** | Purview | Manual documentation (ikke anbefalt) |
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| **Class balancing** | SMOTE (Azure ML) | Synthetic data (AI Foundry) |
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| **PII removal** | Custom preprocessing scripts | Azure Cognitive Services (PII detection) |
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| **Monitoring** | Azure ML Model Monitoring | Custom dashboards (Grafana) |
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---
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## Kilder og verifisering
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**Verified (fra Microsoft Learn MCP):**
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1. **Design training data for AI workloads on Azure**
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https://learn.microsoft.com/en-us/azure/well-architected/ai/training-data-design
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*Confidence: Verified* → Covering data sources, preprocessing, feature stores, lineage, maintenance
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2. **Understand your datasets (Responsible AI)**
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https://learn.microsoft.com/en-us/azure/machine-learning/concept-data-analysis?view=azureml-api-2
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*Confidence: Verified* → Data analysis component, cohorts, over/underrepresentation
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3. **What is Responsible AI?**
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https://learn.microsoft.com/en-us/azure/machine-learning/concept-responsible-ai?view=azureml-api-2
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*Confidence: Verified* → Six principles, RAI dashboard components, transparency
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4. **Responsible AI in Azure workloads**
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https://learn.microsoft.com/en-us/azure/well-architected/ai/responsible-ai
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*Confidence: Verified* → User data handling, RTBF, explainability, privacy
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5. **Prevent overfitting and imbalanced data with Automated ML**
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https://learn.microsoft.com/en-us/azure/machine-learning/concept-manage-ml-pitfalls?view=azureml-api-2
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*Confidence: Verified* → Overfitting, target leakage, class imbalance, SMOTE
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6. **Securing AI and Machine Learning at Microsoft**
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https://learn.microsoft.com/en-us/security/engineering/securing-artificial-intelligence-machine-learning
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*Confidence: Verified* → Malicious data injection, decision integrity, training data security
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7. **Govern Azure platform services for AI**
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https://learn.microsoft.com/en-us/azure/cloud-adoption-framework/scenarios/ai/platform/governance
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*Confidence: Verified* → Data discovery, classification, Purview, version control
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8. **Model performance and fairness**
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https://learn.microsoft.com/en-us/azure/machine-learning/concept-fairness-ml?view=azureml-api-2
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*Confidence: Verified* → Parity constraints, mitigation algorithms (Fairlearn)
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9. **Data featurization in AutoML**
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https://learn.microsoft.com/en-us/azure/machine-learning/how-to-configure-auto-features?view=azureml-api-1
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*Confidence: Verified* → Data guardrails (class balancing, memory, frequency detection)
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10. **Azure Databricks Data Expectations**
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https://learn.microsoft.com/en-us/azure/databricks/ldp/expectations
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*Confidence: Verified* → expect_all, expect_all_or_drop, expect_all_or_fail patterns
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**Baseline (modellkunnskap):**
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- Feature store patterns (centralized/distributed/hybrid)
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- Decision trees for trigger-based vs. scheduled retraining
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- Norwegian public sector requirements (etterrettelighet, GDPR)
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**Code samples:**
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- Azure ML Data Quality Signal (Python SDK) → Verified
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- Databricks Expectations decorator pattern → Verified
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---
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**Sist oppdatert:** 2026-02
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**Neste review:** 2026-08 (eller ved større Microsoft AI-oppdateringer)
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