NICE DCV

Experience High-End remote Productivity with NICE DCV




Features

Powerful
Powerful

Realize high performance and low latency remote desktop infrastructures with NICE DCV

Efficient
Efficient

NICE DCV operates even in low bandwidth conditions for superior user experience

Flexible
Flexible

Access your high performance desktop from the browser on a regular PC or tablet


NICE DCV Download
Download the NICE DCV Server and DCV Client.
For installation guides check our support page: NI SP Support.


NICE DCV works – always!

Ensure uninterrupted workflow and maximize productivity for your team, even in demanding network conditions, leading to increased efficiency and output. Based on leading-edge AWS technology.



Seamless remote access

Empower your workforce with the freedom to work remotely from home or during travel, fostering work-life balance and attracting and retaining top talent.



Instant pre- and post-processing

Improve operational efficiency by facilitating seamless transitions between data processing and visualization tasks, optimizing resource utilization and reducing bottlenecks.



Secure data storage in the data center or cloud

Safeguard your company’s valuable data by storing it securely in a centralized and controlled environment, meeting regulatory requirements and mitigating risks



Trusted by:


VW Logo
Netflix
LG
RVX
Quantic



NICE DCV Features on Windows and Linux

Overview of features of NICE DCV remote desktops on Windows and Linux:

On Windows NICE DCV offers high performant remote 3D desktop access for:

NICE DCV - High-End Remote Desktop | 2D/3D support | NI SP

  • NICE DCV on physical Windows workstation or server with or without GPU
  • NICE DCV in virtualized Windows VM without GPU or with vGPU or physical GPU attached

vGPU or virtual GPU are subsets of a physical nVidia Grid GPU or AMD GPU where e.g. 1GB, 2GB, … frame buffer can be allocated for the respective vGPU. The GPU rendering performance is typically distributed to the different vGPUs on a first come first serve basis.

The vGPU is made available to the Windows OS in the Virtual Machine and NICE DCV via GPU-passthrough enabled by the hypervisor which could be e.g. Redhat-KVM, VMWare or XenServer. Our analysis of price performance of different nVidia GPUs provides additional background.

Installation of NICE DCV for Windows is done in 2 minutes by downloading and executing the installer – just try it yourself.

More information about the features of DCV for Linux: NICE DCV Product Codes and Features.

NICE DCV for Linux works in console mode for high-end remote desktop streaming of the console with or without GPU or many concurrent virtual desktops for different users without GPU.

The very efficient NICE DCV GPU sharing use case supports GPU sharing for e.g. 10-15 full-performant 3D Linux virtual desktops on physical Linux servers for different users sharing one or multiple GPUs, CPU cores and memory. This is a very cost- and resource efficient and straight-forward solution on physical Linux widely used offering full performance without the need for virtual machines or Grid licenses for every VM.

NICE DCV can launch different sessions for each 3D desktop sharing the GPU. Todays GPUs computation power is sufficient to support many concurrent users. GPU memory of 8GB to 16GB or even up to 48 GB supports many concurrent 3D Linux applications as often the consumption of GPU memory by the 3D applications is less than expected also for large models.

The GPU consumption of each 3D application can be analyzed with nvidia-smi which helps to understand overall GPU memory consumption (please find more background on nvidia-smi and price performance of different GPU types in our article Overview of selected nVidia GPU cards). Using virtual machines wastes resources compared to shared servers – we explain why in The hidden cost of VMs: Why They Waste Resources and How To Avoid It.

More information about the features of DCV for Linux: NICE DCV Product Codes and Features.

NICE DCV Background

NICE DCV (Desktop Cloud Visualization) is based on a client-server architecture, with the DCV Client (Receiver) being installed locally or a standard webbrowser client, and the DCV Server (Sender) being deployed onto a host server or cluster which then supports the high-end remote sessions. Visualisation applications run on the DCV server, meaning demanding 2D and 3D processing and rendering takes advantage of the performance of the server and GPUs if fitted.

Application performance isn’t affected by available bandwidth, with DCV compressing the visual output of the application and streaming it back to the client as an encrypted H.264 stream. The client application receives the stream, decompresses it and displays it on the local monitor. DCV also allows for the sharing of GPUs across multiple VDI instances, maximising return on investment of a remote visualisation cluster to handle all VDI sessions centrally.

Screenshot of NICE DCV Desktop

NICE DCV uses hardware-based H.264 video coding and compression, which minimizes bandwidth consumption and latency to provide the best user experience. It automatically adapts the video compression levels to suit the available bandwidth, and supports pixel-perfect quality updates to ensure the user gets the same experience he used to working at the local workstation.

Application Areas

NICE DCV can also be used to enable access to your office-based workstations from home. It provides an easy-to-use high-performance solution to allow your engineers, researchers and scientists to work from home. “Access your own Workstation” enables them to access the high performance workstation they would normally use at the office.

In difficult network conditions with higher latency the NICE DCV QUIC/UDP streaming protocol offers a high-end and fluid remote desktop experience.

Any Questions?