Data & Artificial Intelligence

Cloud Data Platform Implementation: Building the Modern Data Infrastructure That Enterprises Need

Implementation of cloud data platforms including Databricks, Snowflake, and related technologies for organizations migrating from legacy data infrastructure to modern cloud architectures.

INDUSTRIES SERVED
Banking, Financial Services & InsuranceTechnology and IT ServicesManufacturing and IndustrialHealthcare and PharmaceuticalsConsumer Products and RetailEnergy and InfrastructurePublic Sector and PSUs
THE CHALLENGE LANDSCAPE

Why This
Matters Now

Cloud data platforms have emerged as the dominant approach for enterprise data infrastructure, displacing the traditional on-premises data warehouses that previously defined how organizations managed large-scale data. Databricks, Snowflake, BigQuery, Synapse, and related platforms offer capabilities that legacy architectures cannot match: elastic scaling that handles variable workloads without over-provisioning, separation of storage and compute that optimizes cost and performance independently, support for structured and unstructured data in unified environments, integration with cloud services for machine learning and analytics, and the ongoing innovation that cloud providers can deliver more rapidly than traditional vendors. The benefits are substantial enough that most organizations with significant data workloads are evaluating or implementing cloud data platforms, and the question is usually when and how rather than whether.

The challenge is that cloud data platform implementations are often more complex than initial planning suggests. Migration from legacy systems involves not just moving data but also re-platforming the workloads, reconsidering the data architecture, redesigning integrations with source systems, updating dependent applications, and training teams to work with new tools. The platforms themselves offer significant flexibility, which means that implementation decisions have long-term consequences that are not always visible at the time of implementation. Poor decisions about data organization, security architecture, or workload management can create technical debt that is expensive to remediate later. Good decisions require understanding of both the platform capabilities and the specific workloads that will run on them.

The vendor landscape adds specific considerations. Databricks and Snowflake are the most common choices for enterprise cloud data platforms, with different strengths and tradeoffs. Databricks originated in data engineering and machine learning with a Spark-based architecture, offering strong support for data science and complex transformations. Snowflake originated in data warehousing with an emphasis on ease of use and SQL-based analytics, offering strong performance for traditional analytical workloads. Both have expanded significantly and the feature sets have converged in many areas, but the philosophical differences still affect which platform is better suited to specific use cases. Organizations should select based on their actual workload characteristics rather than on vendor presentations or industry trends.

The organizations that execute cloud data platform implementations well treat them as transformation programs that require specific expertise rather than as technology deployments that follow vendor playbooks. The ones that underestimate the work consistently produce implementations that deliver less than expected and require subsequent remediation to achieve the outcomes that better initial execution would have produced.

OUR APPROACH

How We
Deliver

A structured methodology that ensures rigour, transparency, and measurable outcomes at every stage.

01

Current State and Workload Assessment

We begin by assessing the current data infrastructure and workloads that will be migrated or built on the cloud platform. The assessment identifies what needs to move, what will be re-platformed, what will be decommissioned, and what new capability needs to be added. Understanding current workloads is the foundation for platform selection and architecture decisions.

02

Platform Selection and Architecture Design

Based on workload assessment, we support platform selection considering the specific capabilities, cost implications, integration requirements, and long-term direction for each option. We design the cloud data architecture including data ingestion patterns, storage organization, compute strategy, security architecture, and the governance that will be enforced through the platform.

03

Implementation Planning

Implementation planning addresses the sequence of work including initial platform setup, foundational architecture deployment, migration of specific workloads, cutover strategies, and the management of parallel operation during transition periods. Planning should be realistic about dependencies and risks rather than optimistic about execution.

04

Foundation Implementation

Foundation work establishes the core platform including environment setup, security configuration, networking, data storage organization, and the governance frameworks that will apply to subsequent work. Foundation decisions have long-term implications and should be made with appropriate care rather than rushed to begin migration.

05

Workload Migration and Modernization

With foundation in place, we support workload migration and modernization. Simple lift-and-shift migrations move workloads with minimal changes but may not capture the full value of cloud platforms. Modernization rebuilds workloads to take advantage of platform capabilities. The right approach varies by workload and should be determined deliberately rather than defaulted to one pattern.

06

Operations and Optimization

Cloud data platforms require ongoing operations including monitoring, cost management, performance optimization, and capacity planning. We support the establishment of operational capability and help optimize the platform over time as workloads evolve and platform features mature. Organizations that neglect operations often find that their cloud platform costs exceed expectations while performance degrades.

A PERSPECTIVE

The Cloud Data Platform Cost Problem That Emerges Later

Cloud data platforms have a cost pattern that frequently surprises organizations after initial implementation. The platforms are flexible and powerful, which makes it easy to deploy workloads quickly and scale resources on demand. In the early period after implementation, teams are excited about the new capabilities and deploy workloads enthusiastically. Costs are initially modest because workloads are being migrated gradually and teams are still learning the platform. As more workloads migrate and new workloads are added, costs begin climbing. By the time cost reviews flag the increase, the platform is running multiple workloads across many teams, making it difficult to identify which workloads are driving cost and whether the cost is justified by value. The organization ends up with cloud data platform spend that is significantly higher than initial estimates and more difficult to control than initial governance suggested.

The pattern has several specific causes. Cloud data platforms charge based on storage and compute consumption, which means that costs scale with actual usage rather than being capped by initial investment as on-premises systems effectively were. Teams that are accustomed to on-premises operation often run workloads inefficiently on cloud platforms because the cost consequences of inefficiency are not visible to them. Development and testing environments can consume significant resources if not managed carefully. Queries that would have been optimized on expensive on-premises hardware run freely on cloud platforms where the cost per query is lower but the cumulative cost is higher because more queries run. Data retention decisions that would have been made deliberately when storage was expensive get deferred on cloud platforms where storage is cheap, leading to accumulation of data that is never deleted.

The deeper insight is that cloud data platforms require cost governance that on-premises systems did not need. FinOps practices including cost visibility, chargeback to consuming teams, optimization of workload configurations, and ongoing attention to cost efficiency are essential for keeping cloud data platform costs aligned with value. Organizations that implement cloud data platforms without FinOps discipline typically experience the cost escalation pattern described above. Organizations that build FinOps into their cloud platform operation from the beginning produce significantly better cost outcomes without sacrificing the flexibility that made cloud platforms attractive. The investment in FinOps capability is small relative to the cost savings it enables, and the difference is consistent enough that it should be part of any cloud data platform implementation.

WHAT WE DELIVER

Cloud Data Platform Implementation
Capabilities

Comprehensive solutions designed to address your most critical challenges and unlock lasting value.

01

Cloud Data Platform Strategy

Strategic planning for cloud data platform adoption aligned with business objectives.

02

Databricks Implementation

Databricks platform implementation including architecture, security, and workload deployment.

03

Snowflake Implementation

Snowflake platform implementation including account structure, RBAC, and workload deployment.

04

Data Lake and Lakehouse Architecture

Data lake and lakehouse architecture design and implementation.

05

Platform Selection Advisory

Independent platform evaluation and selection for cloud data platforms.

06

Migration Planning and Execution

Migration from legacy data warehouses and data lakes to cloud platforms.

07

Data Architecture Modernization

Modernization of data architecture to take advantage of cloud platform capabilities.

08

Security and Governance Configuration

Security architecture, access controls, and governance configuration on cloud platforms.

09

Performance Optimization

Query optimization, workload management, and performance tuning.

10

FinOps and Cost Optimization

Cost visibility, optimization, and governance for cloud data platform spend.

11

Data Sharing and Collaboration

Data sharing capabilities for internal and external collaboration.

12

Platform Operations

Operational support including monitoring, incident response, and capacity management.

13

Center of Excellence Establishment

Cloud data platform CoE establishment including skills, processes, and standards.

INDUSTRY CONTEXT

Where This Applies

BANKING, FINANCIAL SERVICES & INSURANCE

Regulatory data warehousing, risk analytics, customer 360, large-scale transaction analytics

TECHNOLOGY AND IT SERVICES

Product usage analytics, customer telemetry, multi-tenant analytics

MANUFACTURING AND INDUSTRIAL

IoT and sensor data, supply chain analytics, operational analytics

HEALTHCARE AND PHARMACEUTICALS

Clinical data, research analytics, real-world evidence, secure data sharing

CONSUMER PRODUCTS AND RETAIL

Customer analytics, transaction analytics, supply chain visibility

ENERGY AND INFRASTRUCTURE

Asset data, operational telemetry, predictive maintenance analytics

PUBLIC SECTOR AND PSUS

Government data analytics, inter-agency data, citizen service analytics

FREQUENTLY ASKED

Common Questions

The choice depends on the specific workloads and use cases. Databricks has historical strength in data engineering, machine learning, and data science workloads, with a Spark-based architecture that handles complex transformations and unstructured data effectively. Snowflake has historical strength in traditional analytical workloads with SQL-based querying, offering ease of use and strong performance for structured data. Both platforms have expanded significantly, and feature sets have converged in many areas. Databricks has improved its SQL and analytics capabilities. Snowflake has added support for data engineering and machine learning. The decision should consider the actual workload profile, team skills, existing tool ecosystem, and cost characteristics for the specific usage patterns. Organizations sometimes use both platforms for different workloads, though this adds complexity that should be justified by specific requirements rather than accepted by default.

A data lakehouse is an architecture that combines characteristics of data lakes (flexible storage for various data types at low cost) and data warehouses (structured data management with performance and governance features). The architecture allows organizations to maintain a single source for all their data while supporting both analytics and machine learning workloads without moving data between separate platforms. The lakehouse concept has been promoted particularly by Databricks through their Delta Lake technology, though similar architectures are now supported by multiple platforms. The lakehouse matters because it reduces the data duplication and movement that traditional architectures required, simplifying data management while maintaining the capabilities that different workloads need.

Migration timelines depend significantly on scope and complexity. Focused migrations of specific workloads can be completed in 3 to 6 months. Comprehensive migrations of enterprise data warehouses typically take 12 to 24 months. Large complex migrations involving multiple legacy systems, extensive applications, and organizational change can take longer. The timelines that produce failures are usually the ones that compress comprehensive migration into unrealistic timeframes or underestimate the work required to handle applications that depend on the legacy systems. Effective migration plans address the complete picture including source system changes, target platform implementation, application updates, data reconciliation, and the operational transition that determines whether the migration actually delivers value.

Cloud data platform cost management requires specific discipline. FinOps practices including cost visibility by team and workload, chargeback mechanisms that make consuming teams aware of cost implications, workload optimization to reduce unnecessary consumption, reserved capacity for predictable workloads, and ongoing attention to cost efficiency are essential. Cost management should begin during initial implementation rather than being added later after costs have become a problem. Organizations that implement strong cost governance from the beginning typically produce cloud data platform outcomes that are cost-effective as well as functionally successful. Organizations that treat cost as a technical consideration for IT rather than a business discipline for all consuming teams typically produce cost escalation that becomes difficult to control.

Lift-and-shift migration moves existing workloads to the cloud platform with minimal changes, preserving the existing structure and logic. It is faster and lower-risk but may not capture the full value that cloud platforms enable. Re-platforming modernizes workloads during migration to take advantage of cloud-specific capabilities like automatic scaling, separation of storage and compute, and modern data formats. It requires more effort but produces better outcomes. The right approach varies by workload. Workloads that will not be changed significantly after migration may be candidates for lift-and-shift. Workloads where the migration is part of broader modernization benefit from re-platforming. Organizations often use a mix of approaches rather than applying one to all workloads. The decisions should be made deliberately for each workload based on its characteristics and the overall migration strategy.

Effective operation of cloud data platforms requires a combination of skills. Platform-specific expertise in the chosen platform (Databricks, Snowflake, or others) is essential for architecture and configuration decisions. Cloud infrastructure skills are needed for networking, security, and cost management. Data engineering skills are required for building and maintaining data pipelines. SQL and analytical skills are needed for working with the data. Machine learning and data science skills are needed for advanced analytics use cases. Governance and security skills are needed for compliance and risk management. Most organizations need to build or hire teams with these skill combinations, which takes time and investment. Organizations that attempt to operate cloud data platforms with teams that do not have adequate skills typically produce implementations that underperform their potential.

Cloud data platform security involves multiple dimensions including network security (connections, VPCs, private endpoints), identity and access management (user authentication, role-based access, service accounts), data encryption (at rest and in transit), data classification and handling rules, audit logging, and integration with enterprise security tools. Security should be designed into the implementation from the beginning rather than added later. Modern cloud data platforms offer sophisticated security features, but the features must be configured correctly and maintained over time. Security failures in cloud data platforms can expose substantial amounts of data quickly, making security a higher priority than it might be for systems with more limited scope. Organizations should ensure that security expertise is part of the implementation team rather than being deferred to later phases.

GET STARTED

Build Cloud Data Platforms That Deliver on Their Promise

Cloud data platforms offer transformative capabilities, but implementations succeed or fail based on the quality of architecture and execution. SARC's data and AI practice brings the platform expertise and implementation experience to help organizations build cloud data platforms that produce sustained value.

Discuss Your Cloud Data Platform Requirements

500+ Professionals · 40+ Years · Global Presence