Big Data Solutions
Ihr Erfolg beginnt hier
Bereit für den nächsten Schritt?
Schnell, einfach und absolut unverbindlich.
Zur optimalen Vorbereitung:
- Ihr Anliegen
- Wunsch-Ergebnis
- Bisherige Schritte
Oder kontaktieren Sie uns direkt:
Zertifikate, Partner und mehr...
Customized Big Data Architectures for Your Requirements
Our Strengths
- Comprehensive expertise in modern Big Data technologies and platforms
- Pragmatic, application-oriented implementation approach
- Experienced team of Data Engineers, Architects, and Data Specialists
- Successful implementation of complex Big Data projects across various industries
⚠
Expert Tip
The biggest challenge in Big Data projects lies not in the technology, but in defining clear use cases with measurable business value. Start with a concrete, high-priority use case and scale your Big Data architecture incrementally. Companies following this focused approach achieve a 3-4x higher success rate and faster ROI realization than with comprehensive "big bang" implementations.
ADVISORI in Zahlen
11+
Jahre Erfahrung
120+
Mitarbeiter
520+
Projekte
We follow a structured yet agile approach in developing and implementing Big Data solutions. Our methodology ensures that your data architecture is both technically mature and business-valuable, and can be continuously adapted to your changing requirements.
Unser Ansatz:
Phase 1: Assessment – Analysis of your data requirements, sources, and objectives
Phase 2: Architecture – Development of a customized Big Data reference architecture
Phase 3: Proof of Concept – Validation of architecture using prioritized use cases
Phase 4: Implementation – Gradual realization of the Big Data platform
Phase 5: Operationalization – Transfer to productive operation and continuous optimization
"Big Data is far more than just technology – it is a strategic approach that enables companies to unlock the full potential of their data. The key to success lies not in the volume of processed data, but in the ability to derive relevant insights from this data and transform them into concrete business value."
Dr. Michael Klein
Lead Data Architect, ADVISORI FTC GmbH
Häufig gestellte Fragen zur Big Data Solutions
How is the architecture of a modern Big Data solution structured?
The architecture of a modern Big Data solution is typically modular and multi-layered to meet various requirements for data processing, storage, analysis, and provisioning. The following components form the foundation of a contemporary Big Data architecture:
🌐 Data Sources and Ingestion Layer:
•
Data Source Diversity: - Structured Data: Relational databases, CSV files, Excel spreadsheets - Semi-structured Data: JSON, XML, log files, IoT device data - Unstructured Data: Text, audio, video, social media feeds, emails - Streaming Data: Sensor feeds, clickstreams, real-time transaction data
•
Ingestion Mechanisms: - Batch Ingestion: For periodic data loading processes with ETL/ELT tools - Stream Ingestion: For real-time data capture with Apache Kafka, Amazon Kinesis, Google Pub/Sub - Change Data Capture (CDC): For capturing changes in source systems - API-based Ingestion: For data from external services and SaaS platforms
•
Data Quality and Preprocessing: - Data Validation: Checking for completeness, correctness, and consistency - Data Normalization: Standardization of formats and units - Deduplication: Detection and removal of duplicates - Enrichment: Adding metadata and contextual information
🏗 ️ Data Storage and Processing:
•
Data Lake: - Function: Storage of raw data in its original format - Technologies: Object Storage (S3, Azure Blob Storage, Google Cloud Storage), HDFS - Organization: Data Zones with clear separation (Landing, Raw, Curated, Consumption) - Governance: Metadata catalog, lineage tracking, access controls
•
Data Warehouse/Lakehouse: - Function: Structured storage for analytical queries - Technologies: Snowflake, Amazon Redshift, Google BigQuery, Databricks Lakehouse - Data Modeling: Star/Snowflake schemas, Data Vault, dimensional models - Optimizations: Partitioning, clustering, indexing, materialized views
•
Processing Engines: - Batch Processing: Apache Spark, Apache Hadoop MapReduce, Databricks - Stream Processing: Apache Flink, Spark Streaming, Kafka Streams - SQL Engines: Presto/Trino, Apache Drill, Apache Impala, SparkSQL - ML Processing: TensorFlow, PyTorch, Spark MLlib
•
Specialized Components: - Time-Series Databases: InfluxDB, TimescaleDB for time-based data - Graph Databases: Neo4j, Amazon Neptune for relationship data - Vector Databases: Pinecone, Milvus for embedding storage and similarity search - Document Databases: MongoDB, Elasticsearch for unstructured/semi-structured documents
🧠 Analytics and AI/ML Layer:
•
Analytical Functions: - Descriptive Analytics: Business Intelligence, reporting, dashboards - Diagnostic Analytics: Root cause analysis, drill-downs, ad-hoc queries - Predictive Analytics: Forecasting, trend analysis, pattern discovery - Prescriptive Analytics: Optimization, recommendation engines, decision systems
•
ML Operationalization (MLOps): - Model Training: Experiment tracking, hyperparameter optimization, distributed training - Model Management: Versioning, registry, A/B testing, champion-challenger - Model Services: Inference endpoints, batch scoring, online serving - Model Evaluation: Monitoring, drift detection, retraining triggers
•
Advanced AI Components: - Natural Language Processing (NLP): Text extraction, classification, summarization - Computer Vision: Image classification, object detection, OCR - Generative AI: Integration of LLMs, RAG systems, domain-specific AI assistants - Self-learning Systems: Reinforcement learning, adaptive algorithms
📊 Data Provisioning and Access:
•
Self-Service Data Usage: - BI Platforms: Tableau, Power BI, Looker for visualization and reporting - Data Discovery Tools: For exploratory analysis and ad-hoc queries - Semantic Layer: For consistent business definitions and metrics - Data Catalog Systems: For data discoverability, documentation, and governance
•
API Layer and Data Products: - REST/GraphQL APIs for data access and integration - Feature Stores for reusable ML features - Data Microservices for specific domains/use cases - Event-based integration via publish-subscribe mechanisms
•
Export and Integration Mechanisms: - Reverse ETL for data return to operational systems - Real-time dashboards and alerting for operational decisions - Batch exports for reporting systems and regulatory requirements - Embedded analytics for integration into business applications
⚙ ️ Infrastructure and Platform Layer:
•
Deployment Options: - Cloud-native Implementation: AWS, Azure, GCP, Managed Services - Hybrid Approaches: Combination of on-premises and cloud resources - Multi-Cloud Strategies: Cross-cloud services and portability - Containerization: Docker, Kubernetes for scaling and portability
•
Infrastructure Management: - Infrastructure-as-Code (IaC): Terraform, CloudFormation, Pulumi - Resource Orchestration: Kubernetes, YARN, Mesos - CI/CD Pipelines: For automation from development to deployment - Auto-Scaling: Dynamic resource adjustment to workloads
•
Performance Optimization: - Caching Mechanisms: Redis, Memcached for frequently queried data - Query Optimization: Execution plans, indexing, materialized views - Resource Isolation: For critical workloads and multi-tenancy - Cost Monitoring and Optimization: Usage analysis, spot instances
🔒 Security, Governance, and Operations:
•
Data Security: - Identity and Access Management (IAM): Granular access controls - Data Encryption: In-transit and at-rest - Data Masking and Anonymization: For sensitive information - Security Monitoring: Threat detection, anomaly detection
•
Data Governance: - Metadata Management: Business glossary, data dictionary - Data Classification: By sensitivity, value, compliance requirements - Lineage and Provenance: Tracking data origin and transformations - Policies and Standards: For data access, quality, and usage
•
Operational Management: - Monitoring and Alerting: For system and data health - Logging and Auditing: For compliance and troubleshooting - Disaster Recovery: Backup strategies, multi-region deployments - SLA Management: Availability, latency, throughputA modern Big Data architecture increasingly follows principles such as:
•
Data Mesh: Decentralized, domain-oriented data responsibility with central governance
•
Data Fabric: Integrated data services across different environments and applications
•
Modularity: Decoupled components with clear interfaces for flexibility and evolution
•
Event-driven Architecture: Reactive systems with event-based communication
•
Polyglot Persistence: Specialized data stores for different data types and requirementsThe balance between standardization for efficiency and flexibility for innovation is crucial. A well-designed Big Data architecture enables both rapid value creation from data and long-term scalability and adaptability to changing business requirements and technological developments.
What role does Data Governance play in Big Data projects?
Data Governance plays a central and increasingly critical role in Big Data projects. As a comprehensive framework for managing, using, and securing data, it is no longer just a regulatory requirement but a strategic success factor. The significance and implementation of Data Governance in Big Data environments encompasses the following dimensions:
🎯 Strategic Importance of Data Governance:
•
Value Enhancement through Data Quality: - Higher reliability of analyses and AI/ML models - Improved decision quality through trustworthy data foundations - Cost reduction through avoidance of data quality-related errors - Example: 15‑25% increase in model accuracy through consistent, high-quality training data
•
Risk Minimization and Compliance: - Adherence to regulatory requirements (GDPR, BDSG, industry regulations) - Protection against data breaches and their consequences - Ensuring ethical data usage and algorithm fairness - Example: Avoiding fines up to 4% of global annual revenue under GDPR
•
Efficiency Gains in Data Lifecycle: - Improved data discoverability and reusability - Reduction of data silos and redundancies - Standardization of data definitions and processes - Example: 30‑40% reduction in time for data search and preparation through clear cataloging
•
Enabler for Data Democratization: - Controlled opening of data access while maintaining security - Promotion of organization-wide data usage - Foundation for self-service analytics - Example: 3‑5x higher data usage across departmental boundaries
📋 Core Components of Big Data Governance:
•
Data Quality Management: - Definition of quality dimensions and metrics (completeness, accuracy, consistency, timeliness) - Implementation of quality checks along the data pipeline - Automated data validation and problem notification - Data cleansing processes and error corrections - Example: Data Quality SLAs for critical datasets with monitoring dashboards
•
Metadata Management: - Business Glossary with unified term definitions - Technical metadata on schema, format, volume, update frequency - Operational metadata on data origin, age, and usage statistics - Integration of metadata across different systems - Example: Central metadata catalog with search function and relationship visualization
•
Data Classification and Categorization: - Sensitivity classification (public, internal, confidential, strictly confidential) - Categorization by data type, business domain, or purpose - Assessment of business value and critical importance - Identification of personal and regulated data - Example: Automatic classification of new datasets with ML support
•
Data Lineage and Provenance: - End-to-end tracking of data flow from source to usage - Documentation of all transformations and enrichments - Versioning of datasets and transformation logic - Impact analysis for changes to data structures - Example: Interactive lineage visualization with drill-down into transformation details
•
Access Management and Data Security: - Role-based Access Controls (RBAC) with least-privilege principle - Attribute-based Access Controls (ABAC) for context-dependent security - Data masking and tokenization for sensitive fields - Auditing and monitoring of data access - Example: Automatic masking of credit card data for analysts without specific authorization
•
Policies and Standards: - Data collection and integration policies - Data retention periods and archiving rules - Data deletion processes and right to be forgotten - Data sharing and exchange agreements - Example: Automated enforcement of retention periods with rule-based archiving/deletion
🏢 Organizational Aspects and Roles:
•
Governance Organizational Structures: - Data Governance Board for strategic alignment - Data Stewards as functional data owners - Data Custodians for technical implementation - Data Governance Office for operational coordination - Example: Domain-specific Data Stewards with matrix reporting structure
•
Responsibilities and Competencies: - RACI models for clear task assignment - Training and certification programs - Integration into job descriptions and performance evaluations - Community of Practice for knowledge exchange - Example: Dedicated role "Data Quality Manager" with defined KPIs
•
Change Management and Cultural Transformation: - Awareness of data quality and security - Incentive systems for data-compliant behaviors - Executive Sponsorship at C-level - Success stories and best practices sharing - Example: Data Governance Champions program in every department
🛠 ️ Technological Support for Governance:
•
Data Catalog and Metadata Platforms: - Automatic metadata capture and indexing - Collaborative enrichment with business context - Search and discovery functions - Integration with analysis tools and data pipelines - Examples: Alation, Collibra, AWS Glue Data Catalog, Atlan
•
Data Quality and Profiling Tools: - Automated profiling of new datasets - Rule-based quality checks - Anomaly detection and quality trends - Data quality scorecards and dashboards - Examples: Informatica, Talend, Great Expectations, dbt tests
•
Policy Enforcement and Privacy Solutions: - Automated enforcement of access policies - Data masking and anonymization - Encryption management - Privacy-by-Design support - Examples: Privacera, Immuta, BigID, Apache Ranger
•
Lineage and Impact Analysis Tools: - Automatic capture of data flows - Visualization of data relationships - What-if analyses for changes - Integration into CI/CD pipelines - Examples: IBM Watson Knowledge Catalog, Informatica Axon, Spline
💼 Adaptation to Modern Big Data Paradigms:
•
Data Mesh and Decentralized Governance: - Balance between central standards and domain-specific autonomy - Product-oriented data responsibility (Data as a Product) - Federated governance model with common base principles - Self-service infrastructure with built-in governance controls - Example: Domain teams with own Data Product Owners and local governance practices
•
Governance for AI/ML in Big Data Context: - Model governance and algorithmic accountability - Bias detection and fairness monitoring - Transparency and explainability of model decisions - Versioning of training data and models - Example: Model Cards with fairness metrics and usage restrictions
•
DataOps and Continuous Governance: - Integration of governance into automated pipelines - Shift-left approach with early governance checks - Continuous Compliance Monitoring - Feedback loops for governance improvements - Example: Automated compliance checks in CI/CD processes
•
Cloud-native Governance for Distributed Data: - Multi-cloud and hybrid governance models - API-based governance services - Infrastructure-as-Code for governance configurations - Containerized governance components - Example: Cross-cloud access policies with central managementEffective Data Governance in Big Data environments is not a one-time project but a continuous process that must be adapted to business requirements and technological developments. The key to success lies in the balance between control and flexibility, central governance and decentralized implementation, and between manual processes and automation. Properly implemented, Data Governance is perceived not as an obstacle but as an enabler for data-driven innovation and value creation.
Which technologies currently shape the Big Data landscape, and how are they evolving?
The Big Data technology landscape is in continuous evolution. These key technologies and trends currently define the development direction:
🚀 Current Key Technologies:
•
Cloud-native Big Data Platforms: - Managed Services: AWS EMR, Databricks, Google BigQuery, Azure Synapse - Trends: Serverless computing, pay-per-query, resource automation - Impact: 70‑80% reduced operational costs, simplified management
•
Streaming and Real-time Technologies: - Core Technologies: Apache Kafka, Pulsar, Flink for high-throughput data streams - Evolution: Unified batch/streaming, SQL-over-streams, state management - Impact: Latency reduction from hours to milliseconds
•
Modern Data Lakes and Lakehouses: - Frameworks: Delta Lake, Apache Iceberg, Apache Hudi - Features: ACID transactions, schema evolution, optimized indexing - Impact: Unification of Data Warehouse and Data Lake advantages
•
AI/ML Integration: - MLOps Platforms: MLflow, Kubeflow, Feature Stores (Feast, Tecton) - GenAI: Foundation Models, Retrieval-Augmented Generation (RAG) - Specializations: Vector databases (Pinecone, Weaviate), Graph Analytics
•
Modern Storage Technologies: - Specialization: Time-Series DBs, Graph DBs, Document DBs, Vector databases - Trends: Multi-model databases, hybrid transactional/analytical systems - Example: MongoDB Atlas with vector search for AI applications
🌐 Architectural Developments:
•
Data Mesh: - Principle: Domain-oriented data responsibility with self-service infrastructure - Evolution: From centralized to distributed data architectures - Benefits: Scalable data usage across domain boundaries
•
Real-time Intelligence: - Focus: Immediate actionability through streaming analytics - Technologies: Event-driven architecture, CEP, stream processing - Applications: Predictive maintenance, real-time personalization
•
Low-Code/No-Code Big Data: - Tools: Drag-and-drop pipeline builders, visual analytics platforms - Benefits: Democratization of data usage, accelerated development - Example: Databricks AutoML, dbt, modern BI tools
🚀 Future Trends:
•
Quantum Computing for Big Data: - Relevance: Complex optimization problems, simulation, pattern discovery - Status: Early applications in specialized areas - Example: Materials science simulations, financial modeling
•
Federated Learning and Data Collaboration: - Approach: Training on distributed data without central storage - Benefits: Data sovereignty, compliance, broader data foundation - Applications: Cross-industry collaboration, healthcare
•
Edge Analytics and IoT Integration: - Trend: Data processing at point of origin (edge) - Technologies: Edge computing frameworks, TinyML, 5G integration - Advantage: Latency reduction, bandwidth efficiency, resilienceThese trends show a clear evolution toward more flexible, intelligent, and more integrated Big Data systems that are increasingly enhanced by AI components while simultaneously focusing on user-friendliness, scalability, and value creation.
Which storage technologies are suitable for Big Data?
Various technologies are available for storing Big Data, which can be deployed depending on requirements.
📊 File-based Storage Systems
•
Hadoop HDFS: Distributed file system for large data volumes with high fault tolerance
•
Cloud Storage: Flexible object storage like Amazon S3, Google Cloud Storage, and Azure Blob
•
Data Lakes: Central collection points for raw data in various formats
🗄 ️ Database Technologies
•
NoSQL Databases: Flexible databases for different requirements
•
Document Databases: For JSON-like documents (MongoDB, Couchbase)
•
Column Databases: For time series and sensors (Cassandra, HBase)
•
Key-Value Stores: For simple, fast access (Redis, DynamoDB)
•
Graph Databases: For highly networked data (Neo4j, JanusGraph)
📈 Analysis-optimized Systems
•
Data Warehouses: For structured data and SQL analyses (Snowflake, Redshift)
•
In-Memory Databases: For high-speed analyses (SAP HANA, MemSQL)
•
Column-oriented Storage: For analytical queries (Parquet, ORC)
⚡ Modern Hybrid Approaches
•
Lakehouse Architectures: Combination of Data Lake and Data Warehouse
•
Multi-Model Databases: Support for different data models in one platform
•
Polyglot Persistence: Use of different storage technologies for different data
How do distributed processing systems work for Big Data?
Distributed processing systems enable the handling of large data volumes by dividing work across many computers.
🧩 Basic Principles
•
Parallelization: Division of work into independent subtasks
•
Data Locality: Processing where data is stored
•
Fault Tolerance: Automatic detection and resolution of failures
•
Horizontal Scaling: Easy addition of more compute nodes
🔄 Batch Processing
•
Functionality: Processing large data volumes in one pass
•
Technologies: Apache Hadoop, Apache Spark Batch
•
Advantages: High throughput rates, good for complex calculations
•
Examples: Daily reports, data warehousing, model training
⚡ Stream Processing
•
Functionality: Continuous processing of data in real-time
•
Technologies: Apache Kafka Streams, Apache Flink, Spark Streaming
•
Advantages: Low latency, real-time reactions possible
•
Examples: Fraud detection, monitoring, personalization
🧠 Computing Models
•
MapReduce: Classic model with Map and Reduce phases
•
DAG (Directed Acyclic Graph): More flexible processing chains
•
Dataflow: Data stream-oriented processing
•
SQL-On-Hadoop: SQL-based queries on distributed data
What challenges exist for data security and privacy in Big Data environments?
Big Data environments pose special requirements for data security and privacy that require specific solution approaches.
🔒 Security Challenges
•
Distributed Architecture: More attack points due to distributed systems
•
Data Volume: Difficulty in efficiently protecting large data volumes
•
Heterogeneity: Different security requirements for various data types
•
Legacy Integration: Integration of older systems with security vulnerabilities
📋 Privacy Issues
•
Personal Data: Identification and protection of sensitive information
•
Regulatory Requirements: Compliance with GDPR, BDSG, and industry regulations
•
Data Usage: Balance between analytical benefit and privacy
•
Permission Management: Control of access to sensitive data
🛡 ️ Security Measures
•
Encryption: Protection both during transmission and storage
•
Access Control: Fine-grained permissions and two-factor authentication
•
Activity Monitoring: Continuous monitoring and alerting
•
Security Audits: Regular review of security measures
🧩 Privacy Concepts
•
Data Masking: Obfuscation of sensitive information for development and testing
•
Anonymization: Removal of personal characteristics from data
•
Pseudonymization: Replacement of identifying features with pseudonyms
•
Differential Privacy: Mathematically founded approach to privacy in analyses
How can Big Data projects be successfully planned and implemented?
Successful planning and implementation of Big Data projects requires a structured approach and consideration of various success factors.
🎯 Project Preparation
•
Define Business Goals: Clear definition of business problems to be solved
•
Prioritize Use Cases: Focus on use cases with high value contribution
•
Involve Stakeholders: Early involvement of all relevant interest groups
•
Resource Planning: Realistic assessment of time, budget, and skilled personnel needs
🧩 Project Architecture
•
Scalable Infrastructure: Selection of a future-proof technical foundation
•
Identify Data Sources: Capture of all relevant internal and external sources
•
Data Quality Strategy: Measures to ensure high-quality data
•
Reference Architecture: Use of proven architecture patterns and best practices
👥 Team and Organization
•
Interdisciplinary Teams: Combination of domain, data, and IT expertise
•
Agile Methodology: Iterative approach with short feedback cycles
•
Competency Building: Training and further education of the team
•
Change Management: Support for organizational changes
📈 Implementation and Scaling
•
MVP Approach: Start with a Minimum Viable Product
•
Iterative Development: Gradual expansion and improvement
•
Continuous Integration: Automated tests and deployment processes
•
Monitoring: Continuous monitoring of performance and benefits
What role does data quality play in Big Data projects?
Data quality is a critical success factor in Big Data projects that has direct impacts on the reliability and value of results.
🔍 Importance of Data Quality
•
Decision Foundation: Quality of data determines quality of decisions
•
Process Efficiency: Poor data quality causes additional effort and delays
•
Trust: High data quality creates trust in analyses and AI models
•
Compliance: Correct and complete data is often regulatory required
📊 Dimensions of Data Quality
•
Accuracy: Correspondence of data with reality
•
Completeness: Availability of all needed information
•
Consistency: Freedom from contradictions across different sources
•
Timeliness: Timely updating and relevance of data
•
Uniformity: Standardized formats and definitions
🧹 Data Quality Management
•
Profiling: Automatic analysis and evaluation of data properties
•
Data Cleansing: Identification and correction of errors and inconsistencies
•
Data Governance: Policies, processes, and responsibilities
•
Metadata Management: Documentation of data origin and meaning
📱 Technologies and Approaches
•
Data Quality Tools: Specialized tools for data quality assurance
•
Master Data Management: Central management of master data
•
Data Lineage: Tracking of data origin and transformation
•
Automated Validation: Continuous checking through rules and algorithms
How can Big Data be integrated into existing enterprise architectures?
Integrating Big Data into existing enterprise architectures requires a thoughtful approach that considers both technical and organizational aspects.
🔄 Integration Strategies
•
Parallel Architecture: Big Data platform as complement to existing systems
•
Hybrid Architecture: Combined use of traditional and Big Data technologies
•
Gradual Migration: Evolutionary transfer of suitable workloads
•
Cloud-based Integration: Use of cloud services as integration layer
🔌 Data Integration
•
ETL/ELT Processes: Adapted processes for large data volumes
•
Change Data Capture: Real-time capture of changes
•
API-based Integration: Standardized interfaces for data exchange
•
Data Virtualization: Virtual consolidation of distributed data sources
🏛 ️ Architectural Considerations
•
Data Architecture: Adaptation to new data types and volumes
•
Application Architecture: Integration with existing applications
•
Technology Stack: Compatibility between new and old technologies
•
Security Architecture: Unified security concepts across all platforms
👥 Organizational Integration
•
Governance Adaptation: Extension of existing governance structures
•
Competency Building: Training existing teams in Big Data technologies
•
Process Adaptation: Integration of Big Data into business processes
•
Change Management: Support for transformation
How do you measure the success and ROI of Big Data projects?
Measuring the success of Big Data projects requires a combination of quantitative and qualitative metrics that cover both technical and business aspects.
💰 Financial Metrics
•
Return on Investment (ROI): Ratio between investment and financial benefit
•
Cost Reduction: Savings through process optimization or error avoidance
•
Revenue Increase: Additional income through new insights or offerings
•
Time-to-Value: Time until realization of measurable business benefits
🎯 Business Impact
•
Decision Quality: Improved accuracy and speed of decisions
•
Customer Metrics: Increase in satisfaction, loyalty, or conversion rates
•
Process Efficiency: Acceleration of business processes through data usage
•
Innovation Rate: New products or services based on data analyses
⚙ ️ Technical Metrics
•
Data Usage: Scope and diversity of data sources used
•
Processing Efficiency: Speed and cost of data processing
•
User Acceptance: Usage level of provided solutions
•
Technical Debt: Reduction of complexity and maintenance effort
📊 Success Framework
•
Balanced Scorecard: Balanced consideration of different success dimensions
•
Maturity Models: Progress on the path to data-centric organization
•
OKRs (Objectives and Key Results): Clear goals and measurable key results
•
Value-Stream-Mapping: Tracking value creation through data usage
Which trends are shaping the future of Big Data?
The Big Data landscape is continuously evolving. Current trends show where the journey will go in the coming years.
🤖 AI Integration
•
AI-powered Analytics: Automated detection of patterns and anomalies
•
Augmented Analytics: Support for human analysts through AI recommendations
•
Automated Data Preparation: AI-based data cleansing and transformation
•
Natural Language Processing: Data analysis through natural language queries
☁ ️ Cloud and Edge Computing
•
Multi-Cloud Strategies: Distribution of workloads across different cloud providers
•
Serverless Analytics: Event-driven, scalable analysis services
•
Edge Analytics: Data processing closer to the data source
•
Hybrid Architectures: Combined use of cloud and local infrastructure
🔄 DataOps and MLOps
•
Automated Data Pipelines: Continuous Integration for data processing
•
Self-Service Data Platforms: Democratization of data access
•
Data Observability: Automatic monitoring of data quality
•
Feature Stores: Reusable feature repositories for ML models
🔒 Privacy and Ethics
•
Privacy-Preserving Analytics: Analyses without disclosure of sensitive data
•
Synthetic Data: Artificially generated data for testing and development
•
Responsible AI: Ethical guidelines for AI and data usage
•
Regional Data Sovereignty: Compliance with local data laws
Which competencies and roles are important for Big Data teams?
Successful Big Data initiatives require interdisciplinary teams with a combination of technical and business skills.
👩
💻 Core Roles
•
Data Engineers: Development and operation of data pipelines and platforms
•
Data Scientists: Application of statistical methods and development of models
•
Data Analysts: Exploration of data and creation of reports
•
ML Engineers: Implementation and operation of Machine Learning models
•
Data Architects: Design of data infrastructure and models
🛠 ️ Technical Competencies
•
Programming Languages: Python, R, Scala, SQL for data processing
•
Big Data Technologies: Hadoop, Spark, Kafka for distributed systems
•
Cloud Platforms: AWS, Azure, Google Cloud for scalable infrastructure
•
Visualization Tools: Tableau, Power BI, D3.js for data visualization
•
ML Frameworks: TensorFlow, PyTorch, scikit-learn for model development
💼 Business Competencies
•
Domain Knowledge: Understanding of business area and industry
•
Requirements Analysis: Translation of business problems into data tasks
•
Communication Skills: Conveying complex analyses to decision-makers
•
ROI Thinking: Evaluation and prioritization of use cases by business value
•
Change Management: Support for organizational transformation
🌱 New and Emerging Roles
•
Data Product Managers: Responsibility for data-driven products
•
Data Governance Specialists: Ensuring data quality and compliance
•
MLOps Engineers: Automation of ML workflows and deployment
•
Data Storytellers: Preparation of data insights in compelling narratives
Erfolgsgeschichten
Entdecken Sie, wie wir Unternehmen bei ihrer digitalen Transformation unterstützen
Generative KI in der Fertigung
Bosch
KI-Prozessoptimierung für bessere Produktionseffizienz
Fallstudie
Ergebnisse
Reduzierung der Implementierungszeit von AI-Anwendungen auf wenige Wochen
Verbesserung der Produktqualität durch frühzeitige Fehlererkennung
Steigerung der Effizienz in der Fertigung durch reduzierte Downtime
AI Automatisierung in der Produktion
Festo
Intelligente Vernetzung für zukunftsfähige Produktionssysteme
Fallstudie
Ergebnisse
Verbesserung der Produktionsgeschwindigkeit und Flexibilität
Reduzierung der Herstellungskosten durch effizientere Ressourcennutzung
Erhöhung der Kundenzufriedenheit durch personalisierte Produkte
KI-gestützte Fertigungsoptimierung
Siemens
Smarte Fertigungslösungen für maximale Wertschöpfung
Fallstudie
Ergebnisse
Erhebliche Steigerung der Produktionsleistung
Reduzierung von Downtime und Produktionskosten
Verbesserung der Nachhaltigkeit durch effizientere Ressourcennutzung
Digitalisierung im Stahlhandel
Klöckner & Co
Digitalisierung im Stahlhandel
Fallstudie
Ergebnisse
Über 2 Milliarden Euro Umsatz jährlich über digitale Kanäle
Ziel, bis 2022 60% des Umsatzes online zu erzielen
Verbesserung der Kundenzufriedenheit durch automatisierte Prozesse
Lassen Sie uns
Zusammenarbeiten!
Ist Ihr Unternehmen bereit für den nächsten Schritt in die digitale Zukunft? Kontaktieren Sie uns für eine persönliche Beratung.
Ihr strategischer Erfolg beginnt hier
Unsere Kunden vertrauen auf unsere Expertise in digitaler Transformation, Compliance und Risikomanagement
Bereit für den nächsten Schritt?
Vereinbaren Sie jetzt ein strategisches Beratungsgespräch mit unseren Experten
30 Minuten • Unverbindlich • Sofort verfügbar
Zur optimalen Vorbereitung Ihres Strategiegesprächs:
Ihre strategischen Ziele und Herausforderungen
Gewünschte Geschäftsergebnisse und ROI-Erwartungen
Aktuelle Compliance- und Risikosituation
Stakeholder und Entscheidungsträger im Projekt
Bevorzugen Sie direkten Kontakt?
Direkte Hotline für Entscheidungsträger
Strategische Anfragen per E-Mail
Detaillierte Projektanfrage
Für komplexe Anfragen oder wenn Sie spezifische Informationen vorab übermitteln möchten
