incoming bytes/events per second, retention, label cardinality and simultaneous queries. Time the job and identify CPU, storage or external-service waits before replacing hardware.
Imports, processing and simultaneous users.Requisitos de hardware do Grafana Tempo: RAM, CPU, armazenamento, taxa de ingestão e retenção
Planeie os requisitos de RAM, CPU, armazenamento persistente e dependências de serviços do Grafana Tempo, dimensione o ZimaOS com base na carga de trabalho, e escolha opções práticas de hardware e cópias de segurança.
Grafana Tempo hardware requirements at a glance
Grafana Tempo supports distributed trace ingestion, retention and retrieval. Size it around incoming bytes/events per second, retention, label cardinality and simultaneous queries, including the complete service stack and durable data. Separate hot ingest buffers from durable retention and backups. Compression does not guarantee a fixed storage ratio; object-store and distributed deployments add their own services.
- RAM
- The linked source does not establish a fixed numerical whole-host baseline for this complete workload. Size the full stack during the busy operation described below.
- CPU
- The linked source does not establish a fixed numerical whole-host baseline for this complete workload. Measure CPU use during realistic activity.
- Storage
- Persist log/trace chunks, indexes, configuration, local buffers and selected persistent backend.
- Required services
- Follow the service topology in the linked upstream deployment for the chosen edition; include every required database, worker and storage service.
- Main sizing variable
- incoming bytes/events per second, retention, label cardinality and simultaneous queries.
- Practical Zima starting point
- ZimaBoard 2 1664 with SSD-backed active state is an editorial starting point for modest use. Include the OS and all companion services; it is not a measured capacity guarantee.
From official requirements to the right setup
Plan the complete Grafana Tempo workload before selecting a server.
-
Official requirements
Choose the exact edition, stable release and supported container/runtime. Follow the service topology in the linked upstream deployment for the chosen edition; include every required database, worker and storage service.
-
Confirm your needs
Test a representative busy operation: incoming bytes/events per second, retention, label cardinality and simultaneous queries. Record peak resident memory, CPU, disk latency and completion time, including other containers.
-
Leave room to grow
Place active state on reliable persistent storage. Persist log/trace chunks, indexes, configuration, local buffers and selected persistent backend. Budget working space for an upgrade or import and test recovery before relying on the deployment.
-
Run it on ZimaOS
On ZimaOS, use a compatible amd64 container through Custom Install and reproduce all required services, volume mappings and device access. Trace volume and query behavior drive storage and memory. Local demonstration backends and production object-storage topology are not interchangeable requirements.
Check every playback client
- Exact edition and stable release
- Compatible amd64 image/runtime
- All required companion services
- Realistic peak activity
- Persistent data and file ownership
- Free host ports and reachable URLs
- Working space and backup retention
- Successful database/file restore
Official minimum requirements
Reviewed October 30, 2026 against the linked upstream deployment documentation. Numerical values retain their stated minimum, recommendation or example scope; select release-compatible instructions before installation.
Trace volume and query behavior drive storage and memory. Local demonstration backends and production object-storage topology are not interchangeable requirements. Numerical examples above retain their stated deployment scope; co-hosted services and independent backups need additional capacity.
| Requirement | Official minimum | What this supports |
|---|---|---|
| RAM guidance | The linked source does not establish a fixed numerical whole-host baseline for this complete workload. Size the full stack during the busy operation described below. | Official guidance keeps its original test, recommendation or example scope. |
| CPU guidance | The linked source does not establish a fixed numerical whole-host baseline for this complete workload. Measure CPU use during realistic activity. | Core counts do not predict a fixed user, device or document capacity. |
| Storage planning | Persist log/trace chunks, indexes, configuration, local buffers and selected persistent backend. | Installation space is separate from retained content, working files and backups. |
| Service topology | Follow the service topology in the linked upstream deployment for the chosen edition; include every required database, worker and storage service. | Include every stateful companion service in the host budget. |
| Persistent state | Persist log/trace chunks, indexes, configuration, local buffers and selected persistent backend. | An image rebuild or container replacement is not a backup. |
| Deployment boundary | Trace volume and query behavior drive storage and memory. Local demonstration backends and production object-storage topology are not interchangeable requirements. | Check the linked project instructions for the selected edition and release. |
When to upgrade your hardware
Use observed Grafana Tempo workload pressure to decide when an upgrade is warranted.
Busy operations exceed the available window
The complete stack runs short of memory
Persistent data approaches available capacity
Inspect the application and each required service for OOM events, sustained swap or growing queues. Reduce unnecessary concurrency before adding capacity.
Shared hosts and background work.Persist log/trace chunks, indexes, configuration, local buffers and selected persistent backend. Track primary state and backup retention separately.
Long-lived installations and growing collections.Plan hardware growth with confidence
Address storage, memory, compute and deployment limits separately.
Use suitable active storage
Put latency-sensitive application/database state on durable local SSD storage and keep recoverable copies.
SATA or PCIe SSD according to measured data growth.Add memory for the complete stack
Choose a higher-RAM host when peak application and companion-service usage leaves inadequate OS headroom.
ZimaBoard 2 1664 or ZimaCube 2 Pro according to the measured constraint.Separate capacity from compute
A multi-drive system helps when retained content and backup storage are the problem; it is not automatically a faster application.
ZimaCube 2 when a broader multi-drive workload justifies it.Fix the observed bottleneck
Trace volume and query behavior drive storage and memory. Local demonstration backends and production object-storage topology are not interchangeable requirements.
Check service configuration, I/O and network behavior before selecting a stronger CPU.Can it run on ZimaOS?
Official one-click ZimaOS availability has not been certified for this guide. Use the supported upstream runtime and service topology; consider Custom Install only when a maintained compatible container and all required host capabilities are available.
Custom install Grafana Tempo in ZimaOS
Follow the service topology in the linked upstream deployment for the chosen edition; include every required database, worker and storage service. Persist: Persist log/trace chunks, indexes, configuration, local buffers and selected persistent backend.
Custom install Grafana Tempo in the ZimaOS app ↗Use the official Grafana Tempo deployment instructions
Keep the selected stable release, persistent paths and companion services aligned with upstream documentation.
Review Grafana Tempo official installation ↗Check workload-specific deployment details
Trace volume and query behavior drive storage and memory. Local demonstration backends and production object-storage topology are not interchangeable requirements.
Review Grafana Tempo deployment details ↗Which Zima hardware fits Grafana Tempo?
Start with the lowest reasonable host for the actual workload. Product specifications were checked against the current product pages.
Which workload best matches your Grafana Tempo deployment?
Modest Grafana Tempo deployment
Start with durable active data and a measured whole-stack memory budget.
- Workload optionZimaBoard 2 1664
Heavier jobs or more companion applications
Choose added memory or compute only when observed peaks justify the change.
- Workload optionZimaCube 2 Pro
These are practical workload recommendations, not official app requirements, compatibility certification, measured capacity limits or performance guarantees. Include all co-hosted services and independent backups.
| Zima hardware | Best for | Example workload | Core configuration | Recommended boundary | Next step |
|---|---|---|---|---|---|
| ZimaBoard 2 1664 | Modest Grafana Tempo workload | incoming bytes/events per second, retention, label cardinality and simultaneous queries. |
|
This is an editorial host choice, not an official app minimum or a guaranteed user/device capacity. | Get Now |
| ZimaCube 2 Pro | More processing or shared-service headroom | Follow the service topology in the linked upstream deployment for the chosen edition; include every required database, worker and storage service. |
|
Size the combined stack and active working set; more RAM does not fix remote API limits or missing dependencies. | Get Now |
What the Press Says
Highlights from trusted reviewers worldwide.
“ZimaCube 2: Not just another NAS, tested with 25TB storage, local AI agents, 4K transcoding, and real homelab workflows.”Read full review
“The ZimaBoard 2 is a compact x86 server board that can be turned into a mini NAS, home server, media box, or self-hosting hub.”Read full review
“ZimaCube 2: A modern, high-performance NAS with plenty of room to grow—built for users who want more than basic storage.”Read full review
“Coverage focused on ZimaCube 2's open hardware foundation, no monthly fee, and self-hosting flexibility.”Read full review
Loved by the Community
Stories and reviews from people who build with Zima every day.
★★★★★
Zima Blade Little yet Powerful
Maybe I am not digital natives but I live with PCs since 12 years old in 1984 when IBM PC clone come to my home. Many years have passed and many operating system I've tried. For me Zima blade and CasaOS was a quantum leap for home PC enthusiast and server lab machine to make me stay curious and relevant for this era.
★★★★★
Very good!!
I use ZimaCube Pro as 5th Proxmox cluster node. It runs several VMs and containers, including a VM with GPU passthrough to run a self-hosted LLM. A specific LXC container runs a Samba server for NAS capabilities using four of six RAID 6 SATA HDDs with ZFS.
★★★★★
Great innovation for mini server!
It is very useful and makes a powerful mini server for many purposes, including university and college students in engineering and electronics. Thank you so much for making this server.
★★★★★
Avaliação ZimaBoard 2
Construí um servidor de uso pessoal. O desempenho está muito bom e funciona perfeitamente onde quer que eu esteja. A surpresa é não dependermos de grandes estruturas para termos nosso próprio servidor de dados. Como iniciante, estou gostando bastante do ZimaOS, pois ele é simples e eficiente.
Frequently asked questions
Answers to Grafana Tempo RAM, CPU, storage, Docker, database and ZimaOS sizing questions.
How much RAM should I plan for Grafana Tempo?
The linked source does not establish a fixed numerical whole-host baseline for this complete workload. Size the full stack during the busy operation described below. Include ZimaOS, the application and its companion services rather than reserving the entire machine for one container.
What drives the CPU requirement?
The linked source does not establish a fixed numerical whole-host baseline for this complete workload. Measure CPU use during realistic activity. The workload to test is: incoming bytes/events per second, retention, label cardinality and simultaneous queries.
Which data must survive a container update?
Persist log/trace chunks, indexes, configuration, local buffers and selected persistent backend. Preserve a consistent database/file set and verify that your recovery procedure restores a working application.
What other services belong in the budget?
Follow the service topology in the linked upstream deployment for the chosen edition; include every required database, worker and storage service.
Does this workload need a dedicated GPU?
A dedicated GPU is not assumed for the core workflow described here. Optional AI, acceleration or media-processing integrations must be evaluated separately against the selected backend.
Can I deploy it on ZimaOS?
Use an amd64 container and the current upstream service topology through Custom Install when a suitable maintained image is available. Container availability alone is not a compatibility certification.
What should I check before upgrading hardware?
Trace volume and query behavior drive storage and memory. Local demonstration backends and production object-storage topology are not interchangeable requirements. Measure the same representative operation before and after a configuration or hardware change.
Which Zima device is a practical starting point?
ZimaBoard 2 1664 is the editorial starting point for this modest deployment. Choose ZimaCube 2 Pro for measured memory/processing pressure or broader shared services; retained data determines storage expansion.
What sources informed this Grafana Tempo hardware guide?
This guide was reviewed against the linked project deployment documentation on October 30, 2026. Zima device choices are editorial workload guidance, separate from upstream requirements and measured performance.
