1

Token Metrics Jobs (NOW HIRING)

Victoria Metrics Architect Location :Bellevue, WA / Overland Park, KS Contract Required ... VMAuth multi-tenancy: per-tenant routing via VMUser custom resources, token-based authentication ...

... metrics. Works directly determines whether ACC leadership trusts the data they see-or whether they ... Token and License Management System (TLMS) - token allocation, utilization, compliance status by ...

... metrics. Works directly determines whether ACC leadership trusts the data they see--or whether they ... Token and License Management System (TLMS)- token allocation, utilization, compliance status by ...

... metrics. Works directly determines whether ACC leadership trusts the data they see--or whether they ... Token and License Management System (TLMS)- token allocation, utilization, compliance status by ...

next page

Showing results 1-20

Token Metrics information

What is a Token Metrics job?

A Token Metrics job typically involves analyzing cryptocurrency markets, evaluating blockchain projects, and providing data-driven insights to support investment decisions. Roles may include data analysis, machine learning, research, or portfolio management. Employees work with AI-driven models and market trends to help clients make informed investment choices in the crypto space. Positions can range from technical to financial, depending on the company's focus.

What are the key skills and qualifications needed to thrive in the Token Metrics position, and why are they important?

To excel in a Token Metrics Analyst role, a strong background in data analysis, blockchain technology, and financial modeling is essential, generally supported by a degree in finance, computer science, or a related field. Proficiency with data visualization tools, blockchain explorers, and programming languages such as Python or SQL is often required, and relevant certifications in blockchain or data analytics can be advantageous. Exceptional analytical thinking, problem-solving abilities, and effective communication skills help individuals interpret complex data and present actionable insights to colleagues and stakeholders. These competencies are crucial for making informed investment decisions, evaluating crypto assets, and contributing to the overall success of a cryptocurrency research team.

What are the typical daily responsibilities of someone working in Token Metrics analysis?

A professional in Token Metrics analysis typically spends their days gathering and analyzing data on various blockchain projects, evaluating key performance indicators such as token utility, circulation, and on-chain activity. Responsibilities often include building financial models, monitoring market trends, preparing detailed reports, and presenting findings to investment teams or clients. Collaboration with other analysts, developers, and portfolio managers is common to provide comprehensive evaluations and support strategic decision-making. Staying updated with industry developments and adapting to rapidly evolving technologies is also a key part of the role.

More about Token Metrics jobs
What cities are hiring for Token Metrics jobs? Cities with the most Token Metrics job openings:
What states have the most Token Metrics jobs? States with the most job openings for Token Metrics jobs include:
Infographic showing various Token Metrics job openings in the United States as of June 2026, with employment types broken down into 33% Full Time, and 67% Contract. Highlights an 78% Physical, 3% Hybrid, and 19% Remote job distribution.

Victoria Metrics Architect

VDart, Inc.

Bellevue, WA • On-site

Other

Posted 9 days ago


Job description

Job Title:Victoria Metrics Architect

Location :Bellevue, WA / Overland Park, KS

Contract

Required Qualifications:

VictoriaMetrics — Expert Level

  • Candidates should have hands-on Victoria Metrics production experience at scale for this role.
  • Significant production experience operating VictoriaMetrics at scale — VMCluster deployments handling sustained, high-cardinality workloads in live environments. This is the non-negotiable baseline for the role.
  • VMCluster internals at depth: the write path from VMInsert through VMStorage replication, the query fan-out and merge behavior of VMSelect, and the performance implications of topology decisions on ingestion throughput and query latency.
  • Active time series lifecycle management: how time series are created, sustained, and expired; the relationship between cardinality and memory pressure; and the ability to diagnose and remediate a cardinality explosion in a production environment.
  • MetricsQL fluency: advanced aggregation, rollup window semantics, subquery patterns, and query design that reduces load on VMStorage at scale.
  • VMAgent at depth: scrape configuration, stream aggregation for edge-side cardinality reduction, rate limiting, deduplication, and write buffering continuity during upstream unavailability.
  • VMAuth multi-tenancy: per-tenant routing via VMUser custom resources, token-based authentication, and read/write path segregation.
  • VMAlert and VMAnomaly: alerting and recording rule design, anomaly model selection, and integration with enterprise alert dispatch systems.
  • Federation design: global query layer architecture, cross-cluster deduplication, and remote_write performance tuning under high-cardinality ingestion at sustained scale.
  • Storage architecture: retention modelling, down sampling, backup and restore, and capacity planning for time-series workloads.
  • VictoriaMetrics Operator: lifecycle management of all VM custom resource definitions and upgrade strategy on OpenShift.

Red Hat OpenShift — Production Depth

  • Substantial Kubernetes experience with a material portion on Red Hat OpenShift in bare-metal or on-premises enterprise environments — not exclusively managed cloud Kubernetes.
  • OpenShift security model: Security Context Constraints, Network Policy, namespace RBAC, and the constraints that apply to stateful, high-throughput workloads.
  • StatefulSet lifecycle, PersistentVolumeClaim management, and StorageClass selection for write-intensive time-series workloads.
  • OCP upgrade path management and the implications for Operator compatibility and cluster monitoring interactions.
  • Multi-cluster OpenShift topology: hub and spoke architectures, cross-cluster networking, and remote scrape or remote_write connectivity across cluster boundaries.
  • Comfort designing for IPv6 and dual-stack network environments — increasingly common in carrier-grade infrastructure deployments.

GitOps and CI/CD Delivery

  • GitOps-native delivery as a professional standard: all platform configuration managed in Git, no manual changes to production cluster state, and a clear promotion gate model from lab through to production.
  • ArgoCD at production scale: application hierarchy design, sync policy configuration, health checks for custom resources, and multi-cluster application deployment.
  • Kustomize overlay strategy for multi-cluster and multi-tenant deployments — base definitions with environment-specific patches.
  • GitLab CI/CD pipeline design: manifest validation, environment promotion gates, and automated operator upgrade pipelines.
  • Terraform or equivalent infrastructure-as-code for provisioning supporting platform resources.

Security and Identity

  • HashiCorp Vault at production depth: dynamic secrets, Vault Secrets Operator synchronisation, token lifecycle management, and PKI secrets engine integration for certificate issuance.
  • Enterprise PKI: TLS certificate lifecycle, automated renewal, and CA distribution to distributed cluster workloads.
  • OIDC and OAuth2 integration: platform service authentication via an enterprise identity provider, service account token federation, and the elimination of static credential patterns.
  • Zero Trust design as a default: every interface between platform components authenticated and encrypted; no implicit trust between tenants, ingestion sources, or query consumers.

Telecommunications and Network Observability

  • Proven experience designing or operating observability platforms for telecommunications infrastructure — 5G core, RAN, transport, or carrier-grade edge environments.
  • FCAPS framework alignment: mapping Fault, Configuration, Accounting, Performance, and Security monitoring requirements to metric taxonomies, alerting rules, and operational dashboards.
  • Heterogeneous vendor telemetry integration: Prometheus exporter compatibility assessment, OpenMetrics format validation, and labelling standardization across multi-vendor sources.
  • Multi-vendor, multi-tenant metrics ingestion design: label isolation strategy, per-vendor cardinality allocation, and data segregation enforcement at the proxy and routing layer.
  • Enterprise NOC integration: alert routing design from evaluation engine through to ticketing or event management platforms, deduplication, suppression, and severity mapping.