CloudConnexa
Jul 28, 2026
Aug 28, 2026
•
14 min read
The short answer: CloudConnexa and Twingate both replace flat, trust-everything VPN access with Zero Trust Network Access (ZTNA), but they're built on different models. CloudConnexa is a converged platform — ZTNA, secure internet access, SaaS protection, and site-to-site connectivity in one service — while Twingate is a resource-level access proxy that pairs with separate tools for filtering, threat inspection, and site-to-site connectivity. Choose CloudConnexa when you want one platform to cover network, application, and internet security together; choose Twingate when your only requirement is least-privilege access to individual resources.
CloudConnexa and Twingate both exist to solve the same problem: flat, perimeter-based VPN access grants too much trust to too many people. Where they diverge is architecture. CloudConnexa is a single, converged platform that layers Zero Trust Network Access (ZTNA), secure internet access, SaaS protection, and site-to-site connectivity on top of a private overlay network. Twingate takes a narrower, resource-first approach: a split-plane access proxy that grants connections one resource at a time, with everything else — content filtering, threat inspection, site-to-site tunnels — left to other tools. Neither approach is wrong. The right one depends on how much of your security stack you want a single vendor to own.
CloudConnexa overview
OpenVPN CloudConnexa is a cloud-delivered network security platform that unifies Zero Trust Network Access (ZTNA) for private application access, secure internet access (content filtering and IDS/IPS), SaaS protection, and site-to-site connectivity into a single service. It's built around OpenVPN's Wide-area Private Cloud (WPC) model: an overlay private network spanning CloudConnexa's Points of Presence, through which customers connect their networks via software Connectors that require no inbound ports, and their devices via the OpenVPN Connect client, while OpenVPN operates the control and data planes.
CloudConnexa uses OpenVPN Data Channel Offload (DCO) for high-throughput performance and applies Zero Trust controls based on identity, device posture, and location context. Client and device connections use the OpenVPN protocol, and IPsec is supported for site-to-site Network Connector connections. Its built-in Cyber Shield delivers content filtering and signature-based IDS/IPS as part of the platform, not a bolt-on, and the service is SOC 2 Type 2 and ISO/IEC 27001 certified.
Twingate overview
Twingate is a cloud-operated Zero Trust Network Access (ZTNA) platform that replaces traditional VPN access with resource-level, least-privilege connections. The vendor fully operates the control plane (the Controller) and a global Relay network, while customers deploy lightweight Connectors behind their own firewalls — with support for Docker, Linux, and the major cloud providers — that require no inbound ports. Access is granted resource by resource rather than at the network level, using a split-plane “dual-ACL” design in which no single component can authorize traffic on its own.
Twingate doesn't use a classic VPN protocol. Control and relayed traffic run over TLS, and direct peer-to-peer connections use QUIC, with end-to-end encryption such that relays can't decrypt traffic in transit. Pricing starts with a free Starter tier (up to 5 users, 50 resources) and scales through Teams ($5/user/month) and Business ($10/user/month) plans, with Okta and Entra ID SSO, device posture checks, and just-in-time access policies reserved for the Business tier and above. DNS-layer filtering and SIEM/S3 log export are both sold as add-ons rather than included, log retention scales from 24 hours on the free tier up to 12 months on Enterprise, and there's no traditional site-to-site VPN tunnel.
When to choose CloudConnexa vs. Twingate
Choose CloudConnexa if you need a single service that combines remote access, ZTNA, native site-to-site connectivity, and built-in secure internet access — content filtering and signature IDS/IPS — without stitching together separate tools. It's also the fit if you need standards-based OpenVPN or IPsec tunnels with broad device and router compatibility, or if you want full-tunnel internet protection, IoT and unattended-device connectivity, and SIEM streaming included as part of the platform.
Choose Twingate if your requirement is strictly resource-level, least-privilege access rather than network-level connectivity, you favor peer-to-peer connections over routed tunnels, and you don't need a packet-level VPN protocol, a traditional site-to-site tunnel, or a secure web gateway with IDS/IPS built in. Just budget for DNS filtering and SIEM export as separate line items, and note that device posture and broader identity provider integrations are gated to Twingate's Business tier and above.
CloudConnexa also supports multiple authentication systems — SAML, LDAP, and local authentication alongside major identity providers — out of the box, rather than gating identity-provider breadth to a higher tier. For a broader, platform-wide look at OpenVPN versus Twingate beyond CloudConnexa specifically, see the OpenVPN vs. Twingate comparison.
Architectural trade-offs
The two products start from different mental models. CloudConnexa is a packet-level VPN overlay routed through vendor-operated gateways, layered with Zero Trust controls. Twingate is an identity-aware proxy that grants access per resource over TLS/QUIC rather than a standards-based VPN protocol. The points below weigh that difference and test where the common claims about each actually hold up.
Where Twingate's architecture can help
Access is granted per resource rather than to an entire network segment, which by default narrows lateral reach if a single credential or device is compromised. The split control/data plane is end-to-end encrypted, and Twingate's Relays are architected so they can't decrypt the traffic passing through them — a meaningful design choice for teams that want to minimize what any single vendor component can see.
Trade-offs and claim-vs-reality
Twingate's “VPN replacement” positioning is resource-scoped: there's no traditional site-to-site tunnel, so connecting whole networks — branch offices, data centers, IoT segments — still requires something else. CloudConnexa can match Twingate's resource-level model when you want it to: configured to route by Application domain-based routing exclusively, it operates in an identity-aware, application-scoped mode where private network IP address subnets aren't sent as routes on connection — access is brokered to the application's domain name instead. In other words, CloudConnexa gives you the choice of full network-layer connectivity, a Twingate-style application-scoped proxy, or both at once — Twingate only gives you the proxy.
The transport difference cuts the other way for standards compatibility: Twingate's TLS/QUIC transport means no interoperability with existing IPsec or OpenVPN endpoints, routers, or appliances, where CloudConnexa's use of established VPN protocols means it can slot into infrastructure that already speaks them. And while Twingate's peer-to-peer connections are the architecture's headline benefit, they're subject to the same limits as any NAT-traversal model — direct connections can still fall back to relays under strict NAT or firewall configurations, at which point the “peer-to-peer” advantage narrows.
Feature comparison
Architecture & Deployment Model |
||
|
Capability |
CloudConnexa |
Twingate |
|---|---|---|
|
Cloud-hosted control plane |
Yes — OpenVPN operates control + data plane (WPC overlay) |
Yes — vendor operates Controller and global Relay network |
|
Multiple isolated overlay networks |
Yes — multiple isolated WPCs per account (segment OT, IoT, and IT networks) |
Partial — multiple Remote Networks within one tenant governed by policy, not isolated overlays; full isolation needs separate accounts |
|
Data plane |
Vendor-operated gateways across ~36 Regions; full-mesh core |
Customer-deployed Connectors carry data; vendor Relays for fallback/NAT traversal; peer-to-peer when possible |
|
Connection model |
Devices via OpenVPN Connect app; networks/servers via software Connectors that require no inbound ports. |
Devices via Client app; resources reached through customer-deployed Connectors ("narrow keyholes") |
|
Connector hosting |
Customer-deployed software Connectors or OpenVPN/IPsec compatible routers; no inbound ports |
Customer-deployed Connectors; no inbound ports |
|
Regions / PoPs |
~36 Regions worldwide |
Global Relay network; Premium Relays and geo-based connector routing on higher tiers |
|
Client platform coverage |
Windows, macOS, iOS, Android, ChromeOS; Linux via openvpn3 |
macOS, Windows, Linux, iOS, Android, ChromeOS |
Administration & Management |
||
|
Capability |
CloudConnexa |
Twingate |
|---|---|---|
|
Web admin console |
Yes — Administration Portal; Owner/Admin/Member roles |
Yes — cloud Admin Console; roles include Admin, DevOps, Support, Access Reviewer |
|
Public API |
Yes — REST API with OAuth 2.0 |
Yes — GraphQL Admin API; "enhanced API & Labs" called out on top tier (not available in all plans) |
|
Infrastructure-as-code |
Yes — Terraform provider |
Yes — Terraform and Pulumi providers; Kubernetes operator; CLIs |
|
User provisioning |
Manual, API, SCIM 2.0 |
IdP-based provisioning and SCIM (not available in all plans) |
|
Device management |
Device allowance, trusted devices, device identity enforcement, and connection profiles imported after login. MDM-deployable client |
Managed-device tracking; MDM-deployable client |
Zero Trust & Identity |
||
|
Capability |
CloudConnexa |
Twingate |
|---|---|---|
|
Access granularity |
Zero Trust Application Broker functionality in CloudConnexa continuously verifies identity, location context, and device posture, then assigns a synthetic intermediate IP scoped to a single authorized app — the device never gets a route to the private network, so lateral movement isn't limited; it's structurally impossible. |
Per-resource least-privilege ACLs; also network-level policies |
|
User authentication |
Local username/password, LDAP, SAML 2.0 |
SAML / OIDC via IdP; social OAuth; no local password store |
|
Simultaneous IdP + local auth |
Yes — SAML and local accounts usable at the same time |
Partial — multiple IdPs at once; no local password store |
|
Multiple group membership per user |
Yes — one Primary plus up to 20 Secondary user groups (additive) |
Yes — additive (reach a resource via any granted group) |
|
MFA |
Built-in 2FA; passkey / passwordless. Delegated to IdP when SAML is used. |
Native per-resource MFA; WebAuthn, biometrics, security keys |
|
Device posture / compliance |
Yes — OS, OS version, antivirus, disk encryption, certificate |
Native posture checks and minimum-OS policies; EDR integrations (CrowdStrike, SentinelOne) (not available in all plans) |
|
Just-in-time / ephemeral access |
Connection timeouts and connect-auth policies |
Yes — JIT requests, time-bound, usage-based auto-lock |
|
Location / geo context |
Yes — allow/block by IP range or country |
Country-level geoblocking (not available in all plans) |
|
SCIM provisioning |
Yes — SCIM 2.0 (not available in all plans) |
Yes — (not available in all plans) |
|
Service / non-human identity |
Host Connectors; REST API (OAuth client credentials) |
Yes — Secure Service Accounts and service keys |
|
Device / supply-chain trust |
Device Identity Verification & Enforcement (locks profile to device) |
Partial — trusted device profiles via MDM/EDR; no node-key co-signing |
Access Use Cases |
||
|
Capability |
CloudConnexa |
Twingate |
|---|---|---|
|
Remote access |
Yes — core use case |
Yes — core use case |
|
Site-to-site |
Yes — native via Network Connectors (IPsec or OpenVPN) and IPsec/OpenVPN-compatible routers |
No traditional site-to-site tunnel; subnet routing via headless Clients / Service Accounts [2] |
|
Internet gateway / exit |
Yes — any Network as Internet Gateway; smart geo routing |
Exit Networks [1] (customer-hosted egress Connectors) (not available in all plans) |
|
Selective SaaS routing by domain (split tunnel on) |
Yes — route specific SaaS domains through a chosen Internet Gateway with split tunnel ON (no full tunnel required) |
Yes — SaaS App Gating routes specified SaaS domains via a chosen exit Connector |
|
Vendor-provided static egress IP |
No — the customer runs the Internet Gateway and supplies the public IP |
No — egress IP is the customer's own exit-Connector host IP (e.g., AWS Elastic IP) |
|
Cloud connectors (AWS / Azure / GCP) |
Yes — AWS, Azure, GCP; plus VPS and routers |
Yes — Connectors deploy to AWS, Azure, GCP, Kubernetes |
|
Service accounts / headless |
Host Connectors for servers/IoT; API access |
Yes — Secure Service Accounts [2] for CI/CD and unattended access |
|
Privileged access (SSH / Kubernetes) |
Via application/IP service access controls |
Yes — Identity Firewall for SSH and Kubernetes |
|
Split tunneling |
Yes — Split Tunnel On/Off and Restricted Internet |
Yes — all tiers |
Networking |
||
|
Capability |
CloudConnexa |
Twingate |
|---|---|---|
|
Client/device protocol |
OpenVPN only; OpenVPN Data Channel Offload (DCO) for throughput |
No classic VPN protocol — TLS for control/relay, QUIC for peer-to-peer; end-to-end encrypted |
|
WireGuard |
No |
No |
|
OpenVPN / IPsec |
OpenVPN for clients and networks; IPsec for networks (site-to-site) only |
Neither used |
|
Protocol/port coverage |
Any TCP/UDP port; IPv4 and IPv6 |
Any TCP/UDP port; IPv4 and IPv6 |
|
DNS-based routing |
Yes — DNS Proxy, custom records/zones, domain routing |
Yes — access by DNS name; resource aliases; encrypted DNS (DoH) |
|
Overlapping-IP handling |
Yes — domain-based routing handles overlapping IPs |
Resource-scoped model avoids flat L3 overlap |
|
Encrypted DNS (DoH) |
DNS Proxy underpins filtering and routing |
Yes — Twingate Secure DNS; custom DoH resolvers |
|
Full-tunnel internet protection |
Yes |
Via Exit Networks [1] (customer-hosted) (not available in all plans) |
Secure Internet Access |
||
|
Capability |
CloudConnexa |
Twingate |
|---|---|---|
|
Content / DNS / web filtering |
Yes — Cyber Shield Domain Filtering, 43 categories; included |
DNS filtering / content filtering — paid add-on (not available in all plans) |
|
Secure web gateway (SWG) |
DNS Proxy + Cyber Shield Traffic Filtering |
No — DNS-layer filtering only; no inline SWG |
|
IDS / IPS |
Yes — Cyber Shield Traffic Filtering (monitor/block) |
No — not offered |
|
Malware / threat protection |
Yes — malware, ransomware, C2, phishing, more |
Security filtering (malware/phishing/botnet) — paid add-on (not available in all plans) |
|
CASB / SaaS security |
Not offered (SaaS access can be restricted to an Internet Gateway egress IP) |
Not offered |
Observability & Operations |
||
|
Capability |
CloudConnexa |
Twingate |
|---|---|---|
|
Audit / admin log |
Yes — Audit Log of config changes; CSV export |
Yes — Admin Console audit logs |
|
Access / network analytics |
Yes — Access Visibility and DNS Log |
Network analytics and real-time logs (not available in all plans) |
|
SIEM / log export |
Yes — JSON streaming to AWS S3; Splunk, Datadog |
Sync logs to S3 and SIEM (not available in all plans) |
|
Log retention |
Retention duration varies by plan |
Longest retention reserved for top tier (not available in all plans) |
|
Access mapping / visualization |
Access Visibility flows |
Visual Access Graph (beta) |
Reference: Twingate named features
Twingate markets a few capabilities under proprietary names. The numbers below are referenced in the comparison tables above (e.g. "Exit Networks [1]"). Each entry summarizes the function and the closest equivalent in CloudConnexa.
|
Feature |
What it does |
CloudConnexa equivalent |
|---|---|---|
|
Customer-hosted egress (a group of Connectors) used to route internet-bound traffic out through a chosen location. |
Any Network can be set as an Internet Gateway. The customer’s network provides internet egress and is connected to CloudConnexs using OpenVPN or IPsec. |
|
Non-human identities (headless clients) for CI/CD and unattended machine access. |
Host Connectors and API-based provisioning for servers and automation. |
FAQ
Can Twingate fully replace a VPN?
Not on its own. Twingate replaces network-level VPN access with resource-level connections, but it has no traditional site-to-site VPN tunnel, so linking whole networks — offices, data centers, cloud VPCs — still requires a separate solution. CloudConnexa can do both: standards-based site-to-site VPN tunnels and Twingate-style, per-application proxy access, from one platform.
Does Twingate include content filtering or threat inspection?
Not by default. DNS-layer filtering is a paid add-on available on Twingate's Business and Enterprise tiers, and Twingate has no built-in signature-based IDS/IPS. CloudConnexa's Cyber Shield includes content filtering and IDS/IPS as part of the core platform.
How does Twingate pricing compare to CloudConnexa?
Twingate charges per user, starting at $5/user/month (Teams) and $10/user/month (Business), with device posture checks and broader identity provider integrations reserved for the Business tier and above. CloudConnexa pricing is volume-based rather than gated by feature tier, so Zero Trust controls like device and location context aren't locked behind a higher plan.
Is Twingate's peer-to-peer connection model always faster?
Often, but not always. Twingate attempts direct peer-to-peer connections using QUIC, which can reduce latency versus a routed connection. Under strict NAT or firewall configurations, though, those connections fall back to Twingate's Relay network — the same category of trade-off any NAT-traversal architecture makes.
Can CloudConnexa work like Twingate, with app-level-only access?
Yes. When configured to use Application domain-based routing exclusively, CloudConnexa can broker access to individual applications by domain name without sending private network IP address subnets as routes — the same resource-scoped model Twingate uses by default.
Secure your network now.
Whether you need resource-level access, full network-layer Zero Trust, or both from the same platform, CloudConnexa is built to flex with you. Get started with CloudConnexa and see how a converged Zero Trust platform compares to a single-purpose access proxy in your own environment.
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