Power Modern Applications with Scalable Google Cloud Compute Solutions
MaximyzCloud designs and operates enterprise Google Cloud compute infrastructure โ Compute Engine, Managed Instance Groups, GKE, and Cloud Run โ delivering the performance, resilience, and cost efficiency that power business-critical applications at any scale.
Enterprise Google Cloud Compute Solutions
Google Cloud Compute Solutions encompass the full range of infrastructure services โ from bare-metal Compute Engine VMs and managed instance groups through containerised GKE clusters and serverless Cloud Run โ providing the right compute model for every workload type, performance requirement, and operational preference.
MaximyzCloud's infrastructure practice designs and operates GCP compute environments built for the demands of modern enterprise applications โ delivering autoscaling architectures that match capacity to demand, high availability configurations that survive zone failures, and cost-optimised fleets using sustained use discounts, Spot VMs, and Committed Use Contracts.
Comprehensive Google Cloud Compute Services
End-to-end Google Cloud compute delivery โ from VM architecture and managed instance groups through autoscaling, GPU computing, and ongoing infrastructure operations.
Google Compute Engine
Compute Engine VM architecture and deployment โ machine series selection (N2, C3, E2, T2D), custom machine types for optimal cost/performance, live migration, local SSD configuration, and persistent disk tiering for high-IOPS and high-capacity storage.
Deploy VMsManaged Instance Groups
Managed Instance Group design and operation โ zonal and regional MIGs for high availability, instance templates with startup scripts, rolling updates and canary deployments, health checks, and autohealing for automatic instance replacement on failure.
Configure MIGsAutoscaling Solutions
MIG autoscaler configuration โ CPU utilisation targets, Cloud Load Balancing capacity signals, Cloud Monitoring custom metric scaling, scheduled scaling for predictable traffic patterns, and cool-down period optimisation for fast response without over-scaling.
Configure AutoscalingHigh Availability Architecture
Multi-zone and multi-region HA architecture โ regional MIGs spanning 3 zones for zone failure tolerance, global HTTP(S) load balancing with cross-region failover, and Cloud Armor DDoS protection for internet-facing high-availability applications.
Build HA ArchitectureCompute Performance Optimisation
GCP Recommender-driven rightsizing, machine series benchmarking, NUMA-aware workload placement, CPU platform selection, sustained use discount maximisation, and Committed Use Contract strategy for optimal compute price-performance.
Optimise PerformanceCloud Workload Modernisation
Legacy application modernisation on GCP โ VM-based application containerisation for GKE, monolith decomposition to Cloud Run microservices, OS migration from CentOS/RHEL to Container-Optimised OS or cos-cloud, and configuration management with Ansible on GCP.
Modernise WorkloadsGPU & High-Performance Computing
NVIDIA GPU instance deployment for ML training, inference, and HPC workloads โ A100/H100 GPU VMs (A3 machine series), multi-GPU configurations, CUDA environment setup, Spot VM GPU cost optimisation, and Filestore integration for shared HPC storage.
Deploy GPU InfrastructureEnterprise Application Hosting
Enterprise application deployment on Compute Engine โ SAP HANA on GCP, Oracle on Sole-Tenant Nodes, Windows Server licensing optimisation with Microsoft Flexible License, high-memory VM configuration for in-memory database workloads.
Host Enterprise AppsInfrastructure Monitoring
Cloud Monitoring and Cloud Logging setup for Compute Engine โ custom dashboards, alerting policies, uptime checks, VM instance metrics, log-based metrics, and Managed Service for Prometheus for Kubernetes workloads alongside VM fleets.
Set Up MonitoringManaged Compute Services
Ongoing compute management โ VM patch management with OS Config, capacity planning, GCP Recommender review cycles, sustained use and committed use discount optimisation, and monthly infrastructure reviews with cost and performance reporting.
Managed ComputeGoogle Cloud Compute Technologies We Deploy
MaximyzCloud deploys across the full GCP compute portfolio โ selecting the optimal technology for each workload's performance, availability, and cost requirements.
Compute Engine
IaaS VMs on Google's custom Titanium infrastructure โ flexible machine types, live migration, and automatic discounts for long-running workloads.
Managed Instance Groups
Stateless MIGs with autoscaling, autohealing, rolling updates, and regional deployment across 3 zones for zone-failure tolerance.
Spot Virtual Machines
Up to 91% savings on batch, CI/CD, and fault-tolerant workloads โ preemptible VMs with automatic handling for graceful interruption.
Sole-Tenant Nodes
Dedicated physical server nodes for compliance workloads, BYOL Windows/SQL licensing, and sensitive data isolation requirements.
Bare Metal Solutions
Dedicated bare metal servers for Oracle, SAP, and high-performance workloads requiring direct hardware access and maximum single-server performance.
GPU Instances
NVIDIA A100 and H100 GPUs for ML training, inference, and scientific computing โ single and multi-GPU configurations with NVLink interconnect.
Cloud Load Balancing
Global and regional HTTP(S), TCP, and UDP load balancing โ distributing traffic across MIG instances with health checks and automatic failover.
Compute Optimisation
GCP Recommender-driven rightsizing, sustained use and committed use discount strategy, and Spot VM integration for batch workload cost reduction.
Google Cloud Compute for Every Workload
MaximyzCloud designs GCP compute architectures optimised for your specific workload characteristics โ matching machine series, scaling strategy, and availability model to what your application actually needs.
Web Applications
N2-standard VMs in regional MIGs with HTTP(S) load balancing, Cloud Armor WAF, Cloud CDN, and autoscaling for traffic-variable web workloads.
Enterprise Applications
High-memory M3 and M2 VMs for SAP HANA, Oracle, and in-memory databases โ with Sole-Tenant Nodes for licensing and compliance requirements.
SaaS Platforms
Multi-tenant SaaS infrastructure on Compute Engine or GKE โ autoscaling, regional redundancy, and per-tenant resource isolation for service reliability.
API & Backend Services
C3 compute-optimised or N2D AMD VMs for CPU-intensive API backends โ high request-per-second throughput with load balancing and autoscaling.
Analytics Workloads
High-CPU and high-memory VMs for data processing jobs โ Spot VM cost optimisation for batch analytics, with Filestore NFS for shared data access.
AI & ML Workloads
GPU-accelerated A3 instances for model training, N2 VMs for inference endpoints, and Spot VM cost optimisation for non-critical training jobs.
Business-Critical Systems
Mission-critical workloads on regional MIGs with 99.99%+ availability โ automated failover, Confidential VMs for data-in-use encryption, and compliance controls.
Cloud-Native Applications
Container-native workloads on GKE Autopilot or Cloud Run โ serverless compute scaling to zero with Container-Optimised OS for optimal container performance.
Cloud Performance Engineering Capabilities
MaximyzCloud applies systematic performance engineering to GCP compute environments โ ensuring your infrastructure delivers maximum performance per dollar at any scale.
Workload Tuning
CPU platform selection, NUMA topology optimisation, local SSD vs persistent disk performance tuning, and OS-level performance configuration for specific application workload patterns.
Autoscaling Optimisation
Autoscaler signal selection, scaling velocity tuning, predictive autoscaling for known traffic patterns, and cooldown period optimisation balancing responsiveness and stability.
Infrastructure Right-Sizing
GCP Recommender-driven VM rightsizing using actual utilisation data โ machine series and size optimisation eliminating over-provisioning without sacrificing performance headroom.
Resource Efficiency
Custom machine type selection for unusual CPU/memory ratios, sustained use and committed use discount maximisation, Spot VM integration for batch workloads, and FinOps dashboards.
High-Performance Computing
GPU cluster configuration, MPI workload setup, high-bandwidth networking with placement policies, Filestore for shared HPC storage, and Spot VM strategies for HPC cost reduction.
Cloud Monitoring Strategy
Performance baseline establishment, SLO-linked alerting, VM performance dashboards, custom metric collection, and anomaly detection for proactive performance incident identification.
Benefits of Google Cloud Compute Solutions
Google Cloud compute delivers immediate infrastructure improvements and positions your organisation on the platform Google uses to run its own global applications at planetary scale.
Rapid Scalability
Regional MIG autoscaling provisioning or deprovisioning hundreds of VMs in minutes โ serving Black Friday traffic and idle overnight without over-provisioning.
Enterprise Reliability
99.99%+ SLA through regional MIG deployment, automatic VM live migration during maintenance, and autohealing replacing unhealthy instances automatically.
Global Infrastructure
Deploy to 35+ regions worldwide โ placing compute close to users for sub-50ms latency globally via Google's premium tier networking with anycast load balancing.
Improved Performance
Google's custom Titanium processors, fast local SSD storage, and high-bandwidth VM networking delivering leading performance per dollar across all machine series.
Operational Efficiency
Managed infrastructure eliminating OS patching complexity, hardware lifecycle management, and data centre operations โ reducing infrastructure team toil significantly.
Cost Optimisation
Automatic Sustained Use Discounts, CUDs (up to 57%), and Spot VMs (up to 91%) delivering average 35% compute cost reduction versus on-premises equivalents.
Our Google Cloud Compute Delivery Process
A structured, architecture-first process that delivers GCP compute environments optimised for performance, availability, and cost from the outset.
Discovery
Current infrastructure inventory, workload characterisation, performance and availability requirements, cost baseline, and cloud readiness assessment.
Infrastructure Assessment
Workload sizing analysis, machine series evaluation, storage tier selection, networking architecture assessment, and GCP service mapping for each workload type.
Architecture Design
Compute architecture design โ instance templates, MIG topology, autoscaling policy, load balancer configuration, networking, IAM, and Terraform IaC development.
Deployment
IaC-deployed compute infrastructure โ VMs, MIGs, load balancers, monitoring, alerting, and OS Config patch management deployed via CI/CD pipeline.
Optimisation
Post-deployment right-sizing validation, autoscaling tuning, cost optimisation (CUDs, Spot VMs), performance benchmarking, and Cloud Monitoring SLO configuration.
Ongoing Management
Monthly GCP Recommender reviews, patch management via OS Config, capacity planning, committed use discount renewals, and quarterly infrastructure architecture reviews.
Your Trusted Google Cloud Compute Partner
MaximyzCloud's infrastructure practice combines certified Google Cloud architects, 500+ VMs under management, and a performance-first architecture methodology โ delivering GCP compute environments that consistently outperform expectations on reliability, performance, and cost efficiency.
Google Cloud Partner
Verified GCP compute expertise with certified infrastructure architects across all Compute Engine services.
Performance-First Design
Every architecture benchmarked and optimised โ machine series selection, storage configuration, and networking designed for your workload's specific characteristics.
FinOps-Aware Architecture
Compute environments designed for GCP's discount model โ CUDs, Spot VMs, and Sustained Use Discounts built in from day one, not retrofitted later.
IaC-Driven Delivery
All compute infrastructure deployed via Terraform โ version-controlled, peer-reviewed, and maintainable by your team after engagement completion.
Availability-Guaranteed
Regional MIG architectures validated for zone failure tolerance โ 99.99%+ availability delivered through architecture, not just SLA promises.
Continuous Optimisation
Monthly Recommender reviews and ongoing tuning ensuring your compute environment improves rather than degrades as workloads and GCP capabilities evolve.
Google Cloud Compute FAQ
Google Compute Engine is Google Cloud's Infrastructure-as-a-Service VM platform โ providing scalable, high-performance virtual machines running on Google's custom Titanium hardware. Key differentiators from other cloud VM services include automatic Sustained Use Discounts that apply when VMs run for more than 25% of a month with no upfront commitment, custom machine types allowing arbitrary CPU and memory combinations for optimal price-performance, live migration during host maintenance (no VM restarts), and the backing of Google's global fibre network for the lowest-latency networking between regions. Compute Engine VMs are managed within Managed Instance Groups for autoscaling and autohealing, and integrate natively with all GCP services including Cloud Load Balancing, Cloud Storage, Cloud SQL, BigQuery, and Vertex AI.
Google Cloud autoscaling works through the Managed Instance Group (MIG) autoscaler, which continuously monitors configured signals and adjusts the number of VM instances accordingly. The autoscaler can scale based on average CPU utilisation (scale out when fleet average exceeds your target), Cloud Load Balancing backend utilisation (scale based on requests per second per instance), Cloud Monitoring custom metrics (any metric you define โ queue depth, latency, business metrics), and scheduled scaling policies for predictable traffic patterns. The autoscaler calculates the ideal size based on all configured signals, then adds or removes instances using your MIG's rolling update policy. MaximyzCloud configures autoscalers with appropriate minimum and maximum bounds, scale-in control policies to prevent over-scaling, and predictive autoscaling for workloads with regular traffic patterns.
Compute Engine is ideal for workloads requiring full OS control, specific hardware configurations, or sustained long-running compute. Best-suited workloads include: enterprise applications (SAP HANA on high-memory M3 VMs, Oracle on Sole-Tenant Nodes), stateful services that require persistent storage and network identity, legacy applications being lift-and-shifted from on-premises, high-performance computing and GPU workloads for ML training, batch processing using Spot VMs for significant cost savings, web and API backends requiring predictable latency and autoscaling, and Windows Server applications. For stateless web applications and microservices, GKE or Cloud Run may offer a better operational model; Compute Engine remains the right choice when you need VM-level control, specific licensing configurations, or compliance requirements mandating dedicated hardware.
Yes โ Google Cloud has strong HPC capabilities. For GPU-accelerated workloads, Compute Engine offers the A3 machine series with NVIDIA H100 GPUs (the highest-performance ML training hardware available in cloud), A2 instances with NVIDIA A100 GPUs in various configurations, and G2 instances with NVIDIA L4 GPUs for inference workloads. For CPU-intensive HPC, the C3 compute-optimised machine series delivers industry-leading single-thread performance using Intel Sapphire Rapids processors. HPC clusters can use placement policies to co-locate VMs within the same physical rack for minimum inter-node latency. Filestore provides high-performance NFS shared storage for HPC job data. Spot VMs can reduce HPC training costs by up to 91% for workloads that can handle preemption. MaximyzCloud configures GPU clusters with appropriate driver versions, CUDA environments, and optimised networking for distributed training workloads.
MaximyzCloud optimises GCP compute costs through multiple complementary strategies โ VM rightsizing using GCP Recommender's utilisation-based recommendations (identifying over-provisioned VMs), Committed Use Contracts (CUDs) for predictable compute saving 37โ57% over on-demand pricing with 1 or 3-year commitments, Spot VMs for batch and fault-tolerant workloads saving up to 91%, custom machine types for unusual CPU/memory ratios avoiding wasteful standard configurations, Sustained Use Discounts that apply automatically for long-running VMs, and autoscaling to eliminate idle compute during off-peak periods. We also evaluate whether some VM workloads are better served by Cloud Run (scale to zero) or GKE (higher VM density through bin-packing). The combination of these strategies typically delivers 30-50% compute cost reduction versus unoptimised environments.
MaximyzCloud manages Google Cloud compute infrastructure through a structured 6-phase process โ Discovery (workload inventory and requirements), Infrastructure Assessment (sizing and architecture evaluation), Architecture Design (Terraform IaC, MIG topology, autoscaling policies), Deployment (CI/CD-delivered infrastructure), Optimisation (rightsizing, CUD strategy, performance tuning), and Ongoing Management (monthly Recommender reviews, patch management via OS Config, capacity planning, and quarterly architecture reviews). We deliver everything as Terraform code your team can maintain, provide detailed runbooks for operational procedures, and train your engineers on GCP compute operations during the engagement. Our managed service option includes 24/7 monitoring, incident response, and proactive optimisation for organisations wanting ongoing infrastructure expertise without building an internal team.
Build High-Performance Cloud Infrastructure with Google Cloud Compute Solutions
Book a free infrastructure assessment with our Google Cloud-certified architects. We'll review your compute requirements, design an optimised GCP architecture, and provide a roadmap โ at no cost.