Continuous capture
Capture application events, device telemetry, logs, transactions, and database changes without relying only on scheduled extracts.
DataConsultant designs, builds, governs, and improves real time data pipelines for organisations that need current information across operations, analytics, customer experiences, monitoring, and AI-enabled services. We combine event-driven architecture, stream processing, quality controls, observability, security, and operating procedures to support dependable low-latency data delivery.
A well-engineered real time pipeline moves data continuously from source systems to operational and analytical consumers while controlling latency, completeness, duplication, schema change, security, recoverability, and cost.
Capture application events, device telemetry, logs, transactions, and database changes without relying only on scheduled extracts.
Validate, enrich, aggregate, filter, correlate, and route events using documented business and technical rules.
Use replay, idempotency, checkpoints, dead-letter handling, and reconciliation to reduce silent data loss.
Monitor freshness, throughput, lag, failures, schema incidents, and downstream availability with actionable alerts.
Batch updates arrive too late for fraud signals, inventory decisions, service monitoring, pricing, customer interaction, or operational intervention.
Point-to-point data movement creates duplicated logic, unclear ownership, inconsistent retry behaviour, and difficult incident diagnosis.
Events reach consumers quickly but without schema control, quality checks, lineage, reconciliation, or clear service expectations.
Existing pipelines cannot handle growth in event volume, consumer count, retention, partitioning, or cross-region delivery.
Teams lack monitoring, runbooks, alert thresholds, ownership, and support coverage for business-critical streaming workloads.
Personal, regulated, or commercially sensitive events move through platforms without consistent access, retention, masking, or audit controls.
Business event identification, latency classification, source and consumer mapping, capacity assumptions, integration boundaries, and target architecture.
Event publication, connectors, APIs, log-based change data capture, source impact review, partitioning, ordering, and backfill design.
Filtering, enrichment, joins, windows, aggregation, routing, state management, late-event handling, and exactly-once or at-least-once design decisions.
Schema registry, compatibility rules, validation, completeness checks, duplicates, referential controls, reconciliation, and ownership.
Service-level objectives, lag and freshness monitoring, lineage, alerting, incident diagnostics, replay, recovery, and performance testing.
Classification, encryption, identity, least privilege, secrets, masking, retention, audit logging, residency, and third-party controls.
| Deliverable | Purpose | Typical contents | Acceptance focus |
|---|---|---|---|
| Current-state assessment | Establish evidence and constraints | Sources, consumers, flows, volumes, incidents, controls, skills, costs | Accuracy and stakeholder validation |
| Target architecture | Define the event delivery model | Components, interfaces, topics, schemas, security zones, deployment patterns | Fit, scalability, supportability |
| Pipeline implementation | Deliver working data flows | Connectors, transformations, tests, infrastructure, CI/CD, configuration | Functional and non-functional tests |
| Control framework | Protect trust and compliance | Quality checks, access rules, retention, lineage, audit, reconciliation | Control evidence and ownership |
| Operations pack | Support stable production use | Dashboards, alerts, runbooks, recovery, escalation, capacity and cost guidance | Operational readiness |
| Knowledge transfer | Build internal capability | Architecture walkthroughs, code guidance, support procedures, training | Team readiness and handover |
Define decisions, events, consumers, latency classes, criticality, regulatory obligations, and measurable outcomes.
Output: Prioritised requirements and event inventory.
Review sources, flows, platforms, volumes, quality, incidents, controls, operating procedures, and delivery constraints.
Output: Findings and risk baseline.
Select patterns for ingestion, processing, contracts, serving, security, observability, resilience, and cost management.
Output: Target design and implementation backlog.
Configure infrastructure, develop connectors and stream logic, implement controls, and integrate downstream consumers.
Output: Working pipeline increments.
Validate correctness, latency, throughput, failure recovery, schema evolution, security, reconciliation, and operational readiness.
Output: Test evidence and acceptance record.
Complete documentation, training, handover, support setup, performance tuning, cost review, and improvement planning.
Output: Operable service and measurement plan.
Technology selection depends on current investments, throughput, latency, stateful-processing needs, portability, support capability, security, residency, and total cost.
Product capabilities, licensing, certifications, partner status, and legal or regulatory applicability should be verified for the client environment before implementation.
| Model | Best suited to | Commercial basis | Consideration |
|---|---|---|---|
| Assessment and architecture | Teams needing evidence and a target design before build | Fixed scope or time used | Implementation is scoped separately |
| End-to-end implementation | Organisations requiring design, build, testing, and transition | Milestone, fixed scope, or time and materials | Depends on access and client decisions |
| Embedded engineering capacity | Programmes needing specialist streaming capability | Monthly specialist or team fee | Requires clear internal ownership |
| Managed reliability service | Production pipelines requiring ongoing monitoring and improvement | Recurring service fee plus consumption | Coverage and service levels must be agreed |
Representative feedback illustrates the types of delivery qualities organisations value when commissioning real time pipeline engineering. These statements are examples and are not presented as independently verified reviews.
“The team helped us replace delayed operational extracts with a controlled event stream. Communication was clear, testing evidence was thorough, and revision requests were handled without losing sight of reliability.”
“Our change data capture rollout needed careful source coordination. The delivery team documented dependencies, resolved edge cases professionally, and gave our engineers practical runbooks for production support.”
“We gained far better visibility into freshness, lag, failed events, and recovery. The observability design was practical, the implementation quality was strong, and the handover was detailed enough for our operations team.”
“The architecture balanced low latency with governance rather than treating speed as the only goal. Security, schema evolution, and data-quality controls were addressed early, which reduced rework during delivery.”
“The stream-processing implementation supported our live monitoring use case without creating unnecessary platform complexity. Progress reporting was consistent, quality checks were visible, and our feedback was incorporated promptly.”
“DataConsultant worked effectively with our internal engineers and cloud provider. The team was transparent about limitations, professional during incident testing, and focused on a service our people could operate after handover.”
A real time data pipeline continuously captures, transports, processes, validates, and delivers events or changed records with low latency so operational systems, analytics, alerts, and AI services can act on current information.
Real time processing is appropriate when delayed information creates material operational, customer, risk, fraud, monitoring, or decision-making consequences. Batch remains suitable where latency is not business-critical and simpler operations reduce cost.
Scope can include discovery, source assessment, event modelling, architecture, ingestion, stream processing, schema management, quality controls, security, observability, testing, deployment, documentation, knowledge transfer, and managed support.
Technology options may include Apache Kafka, Kafka Connect, Flink, Spark Structured Streaming, cloud event hubs, Kinesis, Pub/Sub, change data capture tools, stream databases, orchestration platforms, warehouses, lakehouses, and observability tooling.
Controls may include schema validation, contract checks, deduplication, idempotency, watermarking, late-event handling, reconciliation, dead-letter queues, replay procedures, lineage, service-level objectives, alerting, and runbooks.
The design considers data classification, encryption, authentication, authorisation, secrets, masking, retention, residency, audit logging, least privilege, third-party risk, and applicable legal or regulatory obligations.
Yes. A phased approach can introduce change data capture, event publication, streaming transformations, and low-latency serving while preserving selected batch workloads until dependencies and controls are ready.
Timing depends on source readiness, event volume, latency targets, number of consumers, platform choices, network and security approvals, data quality, testing depth, operating-model maturity, and migration dependencies.
Pricing varies with scope, source and target count, throughput, availability requirements, platform complexity, security and compliance controls, cloud consumption, testing, documentation, deployment, support coverage, and engagement model.
Useful measures include end-to-end latency, event freshness, throughput, failure and retry rates, completeness, duplicate rate, schema incidents, recovery time, pipeline availability, alert quality, cost per event, and business adoption.
Managed support can include monitoring, incident response, reliability engineering, capacity and cost review, schema-change coordination, release assurance, performance tuning, reporting, and continuous improvement.
Clients normally provide accountable stakeholders, source and target access, business definitions, non-functional requirements, security and compliance input, platform standards, test data, acceptance criteria, and timely review decisions.