Top 10 Best Usb Device Sharing Software of 2026

Eltima Virtual Serial Port Driver provisions virtual COM ports backed by a driver layer that serial applications can open using normal port semantics. Configuration covers port settings and device mapping so serial clients behave as if physical ports exist. Integration depth is strongest where software already expects COM ports and needs deterministic port naming and assignment across systems or user sessions.

A practical tradeoff is that throughput and behavior depend on how the virtual port mapping is implemented for the target serial workload. Eltima Virtual Serial Port Driver fits best when serial protocols need stable device endpoints for automation or lab replication, and the environment can tolerate driver-level constraints compared with direct hardware access.

FabulaTech USB Redirector targets teams that need predictable USB access across remote desktop or session-based workflows. Device mapping can be configured so specific USB peripherals route to the correct remote endpoints, which reduces manual setup during recurring deployments. Integration depth tends to matter most when USB visibility must match environment provisioning steps and change control windows.

A key tradeoff is that throughput and stability depend on USB traffic patterns and network conditions, especially for high-bandwidth peripherals. FabulaTech works best in controlled office networks or isolated remote session environments where USB device types are known and testing can cover common attachment scenarios.

VirtualHere USB Server is designed for environments where USB hardware must be reachable across subnets without replacing device endpoints. The data model is built around USB device instances exposed by the USB server and consumed by network clients via VirtualHere connections. Admin governance is primarily operational, using server configuration to control which devices are published and which clients can attach. Throughput depends on network latency and device polling behavior since USB traffic is tunneled end to end to the client.

A tradeoff is the narrow automation surface, since device provisioning and access control are handled through configuration and connection settings rather than an extensible API. VirtualHere USB Server fits sites with a few stable USB peripherals like scanners, dongles, or printers where device mapping changes are infrequent. It is also suitable for lab or production support setups that need consistent device behavior across remote sessions.

USB Network Gate focuses on network-based USB device redirection with host-side drivers and a connection broker that maps remote devices into local sessions. It supports device sharing at the USB protocol level for common peripherals, with per-user connection control and session management on the client side.

Administrative governance centers on configuring allowed devices and connection parameters through the server-side setup and user access rules. Extensibility relies more on configuration and deployment patterns than on a public API or automation-first data model.

AnyViewer provides USB device sharing to remote sessions by mapping local USB devices to remote endpoints. It supports workflow configuration around device selection, connection policies, and session routing so shared peripherals appear available during remote work.

AnyViewer also emphasizes operational control through centralized management features that can govern access and limit device exposure across users and groups. Automation and extensibility are practical through configuration interfaces, but the automation and API surface is not documented at the same depth as purpose-built IT provisioning suites.

Remote Desktop Connection + USB redirection via Hyper-V Enhanced Session is a Windows-native path for passing USB device traffic into a remote Hyper-V VM session. USB redirection rides on the Enhanced Session channel, so device availability depends on session state rather than independent device brokering.

The core capability is redirecting supported USB devices into the VM while maintaining remote graphics and input over RDP. Administration typically maps to Hyper-V VM access and the policy controls that govern Enhanced Session behavior and device redirection.

MeshCentral differentiates itself with agent-based device brokering that centralizes remote access and routing across networks. It models endpoints as managed clients under a single admin domain, supports device-oriented permissions, and exposes configuration for grouping and access control.

USB sharing is delivered through session tunneling into remote agents, so device attachment follows the connected client workflow. Admin controls and governance are handled at the account and group level, with extensibility paths via server-side configuration and custom integrations around its web and API surfaces.

Apache Guacamole provides browser-based access to remote desktops and terminals with USB device forwarding tied to active sessions. USB sharing works through a client-side component that detects local devices and routes them over Guacamole’s session channel, with device visibility scoped to the session lifecycle.

Admin control relies on Guacamole’s connection and user data model, plus integration with authentication back ends that define who can create sessions. Integration depth centers on a documented automation path via the Guacamole API, which exposes provisioning objects and supports scripted workflows for repeatable access setup.

NoMachine shares USB devices across remote sessions by mapping host devices into the client session with controlled access. It integrates with remote desktop workflows through server and client components, using session-level device redirection rather than a standalone USB proxy.

Administration supports policy and configuration that govern session behavior, including device availability and user access patterns. Automation and extensibility exist mainly through configuration and platform integration surfaces, not through a documented, first-party USB sharing data schema or device provisioning API.

TeamViewer fits IT and support teams that need USB device sharing alongside remote control in the same workflow. It provisions device access through per-session pairing and negotiated device handoff to remote endpoints.

Integration depth is centered on TeamViewer’s managed access model and remote sessions rather than a published USB device schema. Automation and governance mainly come through account-level administration features and audit visibility, with limited signaling for external automation beyond TeamViewer-managed controls.