Client Virtualization

Transcription

1 Client Virtualization 19. January 2017

2 The digital workplace is everywhere Users expect personal, contextual, and secure experiences App-assisted engagement Constant collaboration Rising automation Virtual offices 2

3 HPE approach to enable a digital workplace

4 Building a house analogy the four solution views Business view Why do I want a new house? residence, entertainment, business affordability location independence image Technical view How will it be built? foundation, framing, heat/ac, plumbing utilities: - electric, water, comms, roads materials Functional view What should the new house give me? uses / room layouts peace & quiet, security garden, woods garage, pet needs Implementation view With what will it be built? sourcing - suppliers - specific models financing phasing moving 13

5 VDI / HDI Strategy and Use Cases Use Cases Standard Citrix XenApp User M710x for application virtualization and terminal servers. Description At the moment standard Citrix XenApp users are working on virtual servers without GPU acceleration. Testing will show how many production users a m710x can handle. This number will be used for the final sizing. Classification (High, Med., Low) High Annahmen Workshop results will be used to define customized Use Cases for your virtual desktop platform. Trader Workstation User M710x for traders in order to replace HP z620. Standard Office Worker XenDesktop testing with them700p. All traders are currently working on their dedicated HP z620 workstation. These workstations need to be replaced due to their lifecycle. It needs to be tested whether a m710x per trader can replace the aging HP z620. The normal office workers are equipped with a standard business notebook. All these users should use the BYOD in the future. Their desktop will be hosted on m700p cartridges. Testing needs to be done to determine if the m700p is the right platform to handle this workload High High 5 5

6 VDI / HDI Checklist VDI / HDI Components VDI HDI Citrix XenDesktop (7,6) Citrix XenApp (7,11) VMware View / Horizon View Persistent Non-Persistent Machine Provisioning Citrix Provisioning Services Windows Deployment Service MS System Center.. Operating System Windows 7 (64-Bit) Windows 10 Server 2012 R2 Server 2016 PoC Hardware HPE Moonshot m700 HPE Moonshot m710 HPE Moonshot m710p HPE Moonshot m710x HPE Moonshot m510 HPE DL380 Gen9 DC Network Connectivity RJ45 10GbE SFP+ 10GbE QSFP+ 40GbE.. DR / Failover 1 Site Active / Standby Active / Active Action Time Client Access The previously LAN (100Mbps defined / 1GbE) use cases and the technical WLAN for view VDI/HDI of a solution will VPN Remote Access define the required solution to fulfill Application Delivery Controller the requirements and strategy. End-User Devices ThinClients FatClients / PCs Laptops Hybrids (2 in 1) Smartphones (Operating System) Apple (Mac) Device xyod (BYOD, CYOD, e.g.) 6

7 Digital Workplace Hardware and Naming

8 Hardware Solution Flavors Traditional VDI HPE ConvergedSystem HPE Hyper Converged HC250 HDI Infrastructure HPE Moonshot Graphics Accelerated VDI HPE ProLiant Servers with GPU HPE Hyper Converged HC380 8

9 Client Virtualization Namings and Concepts Infrastructure Solution Hypervisor / Baremetal Virtualization Technology Presentation Citrix XenApp XEN Server Published Applications VDI Virtual Desktop Infrastructure Citrix XenDesktop Microsoft Hyper-V Session Virtualization (RDSH Remote Desktop Session Host) Published Desktops HDI Hosted Desktop Infrastructure Microsoft RDS (Remote Desktop Services) VMware Horizon View ESXi Baremetal Server OS Baremetal Desktop OS Virtual Desktops (Client OS / VM) Other application delivery technologies and tools Application Streaming App-V (Microsoft) Citrix App DNA

10 Client Virtualization Namings and Concepts Virtual Desktops Infrastructure Solution Hypervisor / Baremetal Virtualization Technology Presentation Citrix XenApp XEN Server Published Applications VDI Virtual Desktop Infrastructure Citrix XenDesktop Microsoft Hyper-V Session Virtualization (RDSH Remote Desktop Session Host) Published Desktops HDI Hosted Desktop Infrastructure Microsoft RDS (Remote Desktop Services) VMware Horizon View ESXi Baremetal Server OS Baremetal Desktop OS Virtual Desktops (Client OS / VM) Other application delivery technologies and tools Application Streaming App-V (Microsoft) Citrix App DNA

11 Client Virt. Namings and Concepts Remote Desktop Server Infrastructure Solution Hypervisor / Baremetal Virtualization Technology Presentation Citrix XenApp XEN Server Published Applications VDI Virtual Desktop Infrastructure Citrix XenDesktop Microsoft Hyper-V Session Virtualization (RDSH Remote Desktop Session Host) Published Desktops HDI Hosted Desktop Infrastructure Microsoft RDS (Remote Desktop Services) VMware Horizon View ESXi Baremetal Server OS Baremetal Desktop OS Virtual Desktops (Client OS / VM) Other application delivery technologies and tools Application Streaming App-V (Microsoft) Citrix App DNA

12 Client Virtualization Namings and Concepts HDI with GPU Infrastructure Solution Hypervisor / Baremetal Virtualization Technology Presentation Citrix XenApp XEN Server Published Applications VDI Virtual Desktop Infrastructure Citrix XenDesktop Microsoft Hyper-V Session Virtualization (RDSH Remote Desktop Session Host) Published Desktops HDI Hosted Desktop Infrastructure Microsoft RDS (Remote Desktop Services) VMware Horizon View ESXi Baremetal Server OS Baremetal Desktop OS Virtual Desktops (Client OS / VM) Other application delivery technologies and tools Application Streaming App-V (Microsoft) Citrix App DNA Example for M700p & M710x with Citrix Solution Blueprint

13 Workload and User-Groups Task Workers Productivity Users Knowledge Workers Power Users Designer Users Workloads 13

14 Moonshot Cartridge Update HPE Moonshot m510 For high density XenApp, traditional server workloads and virtualization. HPE Moonshot m710x For GPU accelerated workstations, XenApp and XenServer with Intel GVT-g. Intel Xeon D-1548 (8c) or D (16c) No GPU available Up to 128GB ECC Memory (4x 32GB) 2x Mellanox 10GbE Network Adapter Up to 3 m.2 SSDs (max. 2TB NVMe and 240 SATA OS Disk) ilo4 Management Processor HPE Trusted Platform Module (TPM) Typical Power: 62W (8c) Intel Xeon E3-1585Lv5 (3.0 GHz) CPU Intel Iris Pro P580 GPU Up to 64GB ECC Memory (4x 16GB) 2x Mellanox 10GbE Network Adapter Up to 5 m.2 SSDs (max. 4TB NVMe and 240 SATA OS Disk) ilo4 Management Processor HPE Trusted Platform Module (TPM) Typical Power: 70W 14

15 Moonshot & Edgeline Chassis Update HPE Edgeline 1000 For computing on the edge or small branch offices. HPE Edgeline 4000 For computing on the edge or branch offices and telco racks. HPE Moonshot 1500 Chassis For large scale datacenter environments. 1x m510 or m710x Desk or wall mount 1GbE passthrough networking 2 PCIe or PCIx full height slots Up to two SIM modules Up to two HPE SATA SFF Disks 4x m510 or m710x 1U Rackmount 1 PCIe Slot per Cartridge Up to 10GbE passthrough networking Up to two SFF SATA Disks Fully redundant power, cooling and networking 45x any Moonshot Cartridge type 4.5U Rackmount Up to 20GbE networking per Cartridge No additional I/O per Cartridge Fully redundant power, cooling and networking 15

16 Server Hardware with GPU Acceleration DL380 Gen9 Up to two GPU Cards DL580 Gen9 Up to four GPU Cards Hyperconverged 380 Up to two GPU Cards Blade WS460c Gen9 Single Mezzanine Carrier with two or four Mezz. Synergy 480 Gen9 Single Mezzanine NVIDIA GPU Cards M60 and M10 Cards AMD GPU Cards S7150x2 Card Single or Dualcarrier 2 or 4 Mezz. NVIDIA M6 and AMD S7100x 16

17 GPU Acceleration

18 GPU GPU Graphics Processing Unit vgpu / GRID / Tesla Virtual Graphics Processing Unit GPGPU General Purpose Computation on Graphics Processing Unit Dedicated Card Shared Card Compute Card NVIDIA Quadro Cards AMD Fire Cards General Purpose Graphics Applications CAD, Rendering Video Editing Photoshop NVIDIA Grid NVIDIA Tesla M6 & M60 AMD MxGPU AMD FirePro S-Series S7150x2 & S7100x General Purpose Graphics Applications CAD, Rendering Video Editing Photoshop Nvidia Tesla Intel Phi AMD FirePro Materials Science Physics Seismic Processing Machine Learning Chemistry and Molecular Dynamics 18

19 Graphic Application Programming Interfaces (API) DirectX API for multimedia intensive Applications under Windows OpenGL Open Graphics Library cross-language, cross-platform API for rendering 2D and 3D vector graphics. OpenCL Open Computing Language OpenCL provides a standard interface for parallel computing Windows Cross Platform Accelerate DirectX 9.x 2002 DirectX 10.x 2006 DirectX 11.x 2009 DirectX 12.x 2015 Games Google Earth Photoshop etc OpenGL 1.x 1997 OpenGL 2.x 2004 OpenGL 3.x 2008 OpenGL 4.x 2010 Professional CAD Engineering Media and Graphics OpenCL 1.x 2009 OpenCL 2.x 2013 API and framework for writing programs that execute across heterogeneous platforms consisting of CPUs, GPUs, DSPs, FPGAs and other processors or hardware accelerators. 19

20 NVIDIA Graphics Options for Virtualization Shared GPU Dedicated GPU vdga NVIDIA Driver installed on Hypervisor vgpu Manager installed on Hypervisor, NVIDIA Driver installed on Virtual Machine Pass-through PCI Device, NVIDIA Driver installed on Virtual Machine Source: NVIDIA GRID VGPU DEPLOYMENT GUIDE FOR VMWARE HORIZON 6.1

21 Graphics Accelerated VDI - Decision Matrix Graphics API GPU Access GPU Virtualiz. Hypervisor Solution OpenGL 1.x OpenGL 2.x OpenGL 3.x Shared GPU RemoteFX DDA vsga Hyper-V 2012 Hyper-V 2016 Microsoft RDS RDP OpenGL 4.x OpenCL vgpu MxGPU ESXi VMware Horizon View PCoIP/Blast DirectX 9 Dedicated GPU vdga DirectX 10 DirectX 11 GPU Passthrough XEN Server Citrix XenDesktop HDX3D vgpu Virtual Graphics Processing Unit / vdga Virtual Direct Graphic Acceleration / DDA Direct Device Assignement / vsga Virtual Shared Graphic Acceleration / MxGPU AMD 21

22 Microsoft Remote FX - Windows 2012 R2 Graphics API GPU Access GPU Virtualiz. Hypervisor Solution OpenGL 1.x OpenGL 2.x OpenGL 3.x Shared GPU RemoteFX DDA vsga Hyper-V 2012 Hyper-V 2016 Microsoft RDS RDP OpenGL 4.x OpenCL vgpu MxGPU ESXi VMware Horizon View PCoIP/Blast DirectX 9 Dedicated GPU vdga DirectX 10 DirectX 11 GPU Passthrough XEN Server Citrix XenDesktop HDX3D vgpu Virtual Graphics Processing Unit / vdga Virtual Direct Graphic Acceleration / DDA Direct Device Assignement / vsga Virtual Shared Graphic Acceleration / MxGPU AMD 22

23 Microsoft Remote FX - Windows 2016 Graphics API GPU Access GPU Virtualiz. Hypervisor Solution OpenGL 1.x OpenGL 2.x OpenGL 3.x Shared GPU RemoteFX DDA vsga Hyper-V 2012 Hyper-V 2016 Microsoft RDS RDP OpenGL 4.x OpenCL vgpu MxGPU ESXi VMware Horizon View PCoIP/Blast DirectX 9 Dedicated GPU vdga DirectX 10 DirectX 11 GPU Passthrough XEN Server Citrix XenDesktop HDX3D vgpu Virtual Graphics Processing Unit / vdga Virtual Direct Graphic Acceleration / DDA Direct Device Assignement / vsga Virtual Shared Graphic Acceleration / MxGPU AMD 23

24 VMware vsga Graphics API GPU Access GPU Virtualiz. Hypervisor Solution OpenGL 1.x OpenGL 2.x OpenGL 3.x Shared GPU RemoteFX DDA vsga Hyper-V 2012 Hyper-V 2016 Microsoft RDS RDP OpenGL 4.x OpenCL vgpu MxGPU ESXi VMware Horizon View PCoIP/Blast DirectX 9 Dedicated GPU vdga DirectX 10 DirectX 11 GPU Passthrough XEN Server Citrix XenDesktop HDX3D vgpu Virtual Graphics Processing Unit / vdga Virtual Direct Graphic Acceleration / DDA Direct Device Assignement / vsga Virtual Shared Graphic Acceleration / MxGPU AMD 24

25 VMware / Citrix - NVIDIA vgpu & AMD MxGPU Graphics API GPU Access GPU Virtualiz. Hypervisor Solution OpenGL 1.x OpenGL 2.x OpenGL 3.x Shared GPU RemoteFX DDA vsga Hyper-V 2012 Hyper-V 2016 Microsoft RDS RDP OpenGL 4.x OpenCL OpenCL with AMD MxGPU NVIDIA only 8GB Profile vgpu MxGPU ESXi VMware Horizon View PCoIP/Blast DirectX 9 Dedicated GPU vdga DirectX 10 DirectX 11 GPU Passthrough XEN Server Citrix XenDesktop HDX3D vgpu Virtual Graphics Processing Unit / vdga Virtual Direct Graphic Acceleration / DDA Direct Device Assignement / vsga Virtual Shared Graphic Acceleration / MxGPU AMD 25

26 VMware GPU Passthrough Graphics API GPU Access GPU Virtualiz. Hypervisor Solution OpenGL 1.x OpenGL 2.x OpenGL 3.x Shared GPU RemoteFX DDA vsga Hyper-V 2012 Hyper-V 2016 Microsoft RDS RDP OpenGL 4.x OpenCL vgpu MxGPU ESXi VMware Horizon View PCoIP/Blast DirectX 9 Dedicated GPU vdga DirectX 10 DirectX 11 GPU Passthrough XEN Server Citrix XenDesktop HDX3D vgpu Virtual Graphics Processing Unit / vdga Virtual Direct Graphic Acceleration / DDA Direct Device Assignement / vsga Virtual Shared Graphic Acceleration / MxGPU AMD 26

27 NVIDIA GRID Licensing NVIDIA GRID Virtual Applications NVIDIA GRID Virtual PC NVIDIA GRID Virtual Workstation Annual subscription provides software entitlement, support, updates, maintenance for one year. Additionally available in 3 year increments. Perpetual license allows for use of the licensed software indefinitely. First year of SUMS required with purchase for access to support, updates, and maintenance. Support Resolve specific issues to your operating environment Updates Ongoing access to NVIDIA GRID software improvements Maintenance Long term resolution of defects and security issues Annual Subscription: 10$ «Virtual Applications» - 50$ «Virtual PC» - 250$ «Virtual Workstation» 27

28 NVIDIA Grid Cards Number of GPUs Tesla M10 Tesla M6 Tesla M60 4 x NVIDIA Maxwell GPUs 1 x NVIDIA Maxwell GPU 2 x NVIDIA Maxwell GPUs NVIDIA Cuda Cores 2560 (640 per GPU) (2048 per GPU) Memory Size 32GB total 8 GB GDDR5 per GPU 8GB GDDR5 Max. Users / 64 Up to 4 x M6 with Blade Carrier = 64 Users H p30 Streams Max Power 225W 100W 300W 16GB total 8 GB GDDR5 per GPU Form Factor PCI-E Gen3 Dualslot PCI-E Gen3 MXM PCI-E Gen3 Dualslot

29 NVIDIA Grid M6 / M60 Card NVIDIA GRID 3.0 Virtual Applications NVIDIA GRID 3.0 Virtual PC NVIDIA GRID 3.0 Virtual Workstation Maximum Number of Displays Depends on App Maximum Resolution Per Display Depends on App 2560 x 1600 (WQXGA) 4096 x 2160 (4K) Windows Guest OS RDSH App Hosting Linux Guest OS NVIDIA Quadro Software Features NVIDIA CUDA / OpenCL Support * GPU Pass-Through Support NVIDIA GRID vgpu Profiles Supported (Frame Buffer and Maximum Number of Users per GPU) 512 MB (Up to 16 users per GPU) M6/M60-0B M6/M60-0Q 1 GB (Up to 8 users per GPU) M6/M60-1A M6/M60-1B M6/M60-1Q 2 GB (Up to 4 users per GPU) M6/M60-2A M6/M60-2Q 4 GB (Up to 2 users per GPU) M6/M60-4A M6/M60-4Q 8 GB (1 user per GPU) M6/M60-8A M6/M60-8Q * Only available with 8 GB 1:1 vgpu profile Prices: Yearly Subscription incl. Support 29

30 Test drive NVIDIA GRID Instant access to NVIDIA GRID on VMware vsphere and Horizon Pre-installed apps such as AutoCAD, SolidWorks, ArcGIS, NX, etc. HTML demos and HD videos 30

31 Get NVIDIA Grid Software 31

32 AMD Multiuser MxGPU SR-IOV Cards Number of GPUs FirePro S7100X 1 x AMD Tonga GPU FirePro S7150 x2 2 x AMD Tonga GPU Stream Processors (2048 per GPU) Memory Size 8GB GDDR5 16GB total 8 GB GDDR5 per GPU Max. Users 16 / 64 Up to 4 x M6 with Blade Carrier = 64 Users OpenCL 2.0 Support Max Power 100W 300W Form Factor PCI-E Gen3 MXM 3.1 PCI-E Gen3 Dualslot

33 Graphics Accelerated VDI Hardware Decision Matrix Solution Hardware Hypervisor / Baremetal Amount (max.) Graphics Card OS Microsoft RDS (Remote Desktop Services) DL380 Gen9 DL580 Gen9 Hyper-V 1 NVIDIA M6 NVIDIA M60 Windows 7 Windows 8.1 VMware Horizon View Citrix XenDesktop XenApp Blade WS460cGen9 Synergy 480Gen9 HC 380 Moonshot M710x ESXi vsphere Enterprise XEN Server Baremetal OS 2 4 NVIDIA M10 AMD S7100X Mezz. AMD S7150 AMD S7150 x2 Intel Iris Pro Windows 10 Windows Server 2012 R2 Windows Server 2016 Linux Desktop 33

34 Graphics Accelerated VDI Moonshot M710x Solution Hardware Hypervisor / Baremetal Amount (max.) Graphics Card OS Microsoft RDS (Remote Desktop Services) DL380 Gen9 DL580 Gen9 Hyper-V 1 NVIDIA M6 NVIDIA M60 Windows 7 Windows 8.1 VMware Horizon View Citrix XenDesktop XenApp Blade WS460cGen9 Synergy 480Gen9 HC 380 Moonshot M710x ESXi vsphere Enterprise XEN Server Baremetal OS 2 4 NVIDIA M10 AMD S7100X Mezz. AMD S7150 AMD S7150 x2 Intel Iris Pro Windows 10 Windows Server 2012 R2 Windows Server 2016 Linux Desktop 34

35 Graphics Accelerated VDI Moonshot M710x Solution Hardware Hypervisor / Baremetal Amount (max.) Graphics Card OS Microsoft RDS (Remote Desktop Services) DL380 Gen9 DL580 Gen9 Hyper-V 1 NVIDIA M6 NVIDIA M60 Windows 7 Windows 8.1 VMware Horizon View Citrix XenDesktop XenApp Blade WS460cGen9 Synergy 480Gen9 HC 380 Moonshot M710x ESXi vsphere Enterprise XEN Server Baremetal OS 2 4 Intel GVT-g NVIDIA M10 AMD S7100X Mezz. AMD S7150 AMD S7150 x2 Intel Iris Pro Windows 10 Windows Server 2012 R2 Windows Server 2016 Linux Desktop 35

36 Graphics Accelerated VDI DL380Gen9 Solution Hardware Hypervisor / Baremetal Amount (max.) Graphics Card OS Microsoft RDS (Remote Desktop Services) DL380 Gen9 DL580 Gen9 Hyper-V 1 NVIDIA M6 NVIDIA M60 Windows 7 Windows 8.1 VMware Horizon View Citrix XenDesktop XenApp Blade WS460cGen9 Synergy 480Gen9 HC 380 Moonshot M710x ESXi vsphere Enterprise XEN Server Baremetal OS 2 4 NVIDIA M10 AMD S7100X Mezz. AMD S7150 AMD S7150 x2 Intel Iris Pro Windows 10 Windows Server 2012 R2 Windows Server 2016 Linux Desktop * AMD: only ESXi and VMware Horizon 36

37 Graphics Accelerated VDI Hyperconverged 380 Solution Hardware Hypervisor / Baremetal Amount (max.) Graphics Card OS Microsoft RDS (Remote Desktop Services) DL380 Gen9 DL580 Gen9 Hyper-V 1 NVIDIA M6 NVIDIA M60 Windows 7 Windows 8.1 VMware Horizon View Citrix XenDesktop XenApp Blade WS460cGen9 Synergy 480Gen9 HC 380 Moonshot M710x ESXi vsphere Enterprise XEN Server Baremetal OS 2 4 NVIDIA M10 AMD S7100X Mezz. AMD S7150 AMD S7150 x2 Intel Iris Pro Windows 10 Windows Server 2012 R2 Windows Server 2016 Linux Desktop 37

38 Graphics Accelerated VDI DL580Gen9 Solution Hardware Hypervisor / Baremetal Amount (max.) Graphics Card OS Microsoft RDS (Remote Desktop Services) DL380 Gen9 DL580 Gen9 Hyper-V 1 NVIDIA M6 NVIDIA M60 Windows 7 Windows 8.1 VMware Horizon View Citrix XenDesktop XenApp Blade WS460cGen9 Synergy 480Gen9 HC 380 Moonshot M710x ESXi vsphere Enterprise XEN Server Baremetal OS 2 4 NVIDIA M10 AMD S7100X Mezz. AMD S7150 AMD S7150 x2 Intel Iris Pro Windows 10 Windows Server 2012 R2 Windows Server 2016 Linux Desktop 38

39 Graphics Accelerated VDI WS460c Gen9 Solution Hardware Hypervisor / Baremetal Amount (max.) Graphics Card OS Microsoft RDS (Remote Desktop Services) DL380 Gen9 DL580 Gen9 Hyper-V 1 NVIDIA M6 NVIDIA M60 Windows 7 Windows 8.1 VMware Horizon View Citrix XenDesktop XenApp Blade WS460cGen9 Synergy 480Gen9 HC 380 Moonshot M710x ESXi vsphere Enterprise XEN Server Baremetal OS 2 4 NVIDIA M10 AMD * S7100X Mezz. AMD S7150 AMD S7150 x2 Intel Iris Pro Windows 10 Windows Server 2012 R2 Windows Server 2016 Linux Desktop * AMD: only ESXi and VMware Horizon 39

40 Graphics Accelerated VDI Synergy480 Gen9 Solution Hardware Hypervisor / Baremetal Amount (max.) Graphics Card OS Microsoft RDS (Remote Desktop Services) DL380 Gen9 DL580 Gen9 Hyper-V 1 NVIDIA M6 NVIDIA M60 Windows 7 Windows 8.1 VMware Horizon View Citrix XenDesktop XenApp Blade WS460cGen9 Synergy 480Gen9 HC 380 Moonshot M710x ESXi vsphere Enterprise XEN Server Baremetal OS 2 4 NVIDIA M10 AMD * S7100X Mezz. AMD S7150 AMD S7150 x2 Intel Iris Pro Windows 10 Windows Server 2012 R2 Windows Server 2016 Linux Desktop * AMD: only ESXi and VMware Horizon 40

41 Key Takeaways Client Virtualisierung Bringt viele Vorteile Kann komplex sein Muss gut geplant sein Umsetzung muss «sitzen» Ist cool Sprechen Sie mit uns. 41

42 Why a flexible usage model (not ownership) makes more sense Renting your equipment from HPE Financial Services can potentially enable your company to: Maximize your flexibility by choosing a contract duration depending on your business needs. Replace large upfront investments with easy monthly payments and reduce costs in the first year by about 70 % compared to a traditional purchase model Achieve additional cost savings as rental models with durations of up to 4 year are often cheaper than the purchase price. 42

43 HPE Management of Change Trainings Take full advantage of your HPE solution with HPE Education Services. We develop and integrate IT (technology) strategies, operating models, processes, governance structures and plan effective implementations to generate the ability to answer requirements and needs of the whole enterprise. We also prepare your organization to manage the transition of non-core IT functions into managed services and develop your capabilities to manage external service providers. Change impact Workshop 1 day Dübendorf On request Azure development Workshop 2 days Dübendorf On request 43

44 Danke für Ihr Interesse

45 Backup Slides 45

46 NVIDIA GRID Licensing NVIDIA GRID Virtual Applications NVIDIA GRID Virtual PC NVIDIA GRID Virtual Workstation Annual subscription provides software entitlement, support, updates, maintenance for one year. Additionally available in 3 year increments. Perpetual license allows for use of the licensed software indefinitely. First year of SUMS required with purchase for access to support, updates, and maintenance. Support Resolve specific issues to your operating environment Updates Ongoing access to NVIDIA GRID software improvements Maintenance Long term resolution of defects and security issues Annual Subscription: 10$ «Virtual Applications» - 50$ «Virtual PC» - 250$ «Virtual Workstation» 46

47 NVIDIA Grid 3.0 Licensing

48 NVIDIA Grid 3.0 Licensing FAQ When should a customer buy perpetual licenses vs. an annual subscription? The annual subscription is the easiest model for customers and NVIDIA. It guarantees that customers have access to all of the latest upgrades along with support and maintenance. Customers can buy up to 3 years of annual subscription upfront. Customers who are not in favor of an annual subscription can still purchase the perpetual license. The first year of Support, Updates and Maintenance Subscription (SUMS) is required as part of this license, and additional years of SUMS must be purchased for access to product updates, support and maintenance. Do I need to buy SUMS with an annual subscription? No, the annual subscription comes with support, updates and maintenance included. With everything combined into one SKU this is the easiest and most cost effective model for customers. What happens if I do not renew an annual subscription? The annual subscription includes the customer's entitlement to the NVIDIA GRID license for the duration of the subscription. If the subscription is not renewed, the license will expire, and they will no longer be able to access the GRID features that are included as part of that entitlement. With the purchase of an annual subscription, the license is enabled for 13 months to allow for a 1 month grace period. How do I deploy licenses to my VMs? When a customer purchases NVIDIA GRID licenses, they will receive a Product Activation Key (PAK) with their license entitlement. Licenses are downloaded using the PAK from the NVIDIA Licensing Portal and installed onto a license server. The VMs connect to the license server through network (external or customer s internal network) to check out these licenses. The VM will run even if they are not able to connect to the license server or there is a shortage of licenses. What happens if I run out of licenses? Even if a customer exceeds their purchased licenses, VMs leveraging a GRID vgpu profile will continue to function. Customers should track their usage of licenses, and if they are consistently using more licenses than they have purchased, they should purchase additional licenses to ensure they remain compliant with the EULA. New licenses can be added to the license server at any time. What happens if the license server breaks? While VMs continue to check for licenses from the license server, the license is not required for a VM to run. If the license server breaks or is not accessible the VM will still run as with full GRID functionality. How do customers report on total licenses used? License use is monitored in the license server and current licenses usage is reported. In the future, we will evolve this into usage recording over a period of time and reporting. If a customer is often reaching full license utilization, they can use vcenter or XenCenter to see how many active VMs are running using a GRID profile. If this exceeds the number of licenses they own, they should purchase additional licenses to remain compliant with the EULA. Does the license server require a full physical server? No. The GRID license server can be installed on a VM on an existing server. This license VM can run on a GRID server or, more commonly, on an existing license server used for other software products. What is NVIDIA GRID Virtual Applications? GRID Virtual Applications entitles users to host virtual RDSH applications with GPU acceleration and entitles licensed users to be able to access unlimited virtual applications, hosted on multiple servers running on top of Tesla M6 or M60 GPUs. 48

49 NVIDIA Grid 3.0 Licensing FAQ How is licensing allocated for GRID Virtual Applications? This is licensed per concurrent user, the same as all editions of GRID. How is licensing enforced? Licensing is enforced through the EULA. Like the other GRID products, licenses will not have hard enforcement. Unlike the other editions of GRID, there is no check in and check out functionality with GRID Virtual Applications licenses, which means customers must track their own usage to ensure compliance with the EULA. It is recommended that customers purchase a license for every concurrent user who accesses a GRID-enabled XenApp (or other RDSH solution) server. Additionally tools like Citrix Load Evaluator can be used to track XenApp usage over time and help size a given environment. How do customers decide between Virtual Applications and Virtual PC? These products server two different use cases, Virtual Applications is for customers deploying RDSH environments such as XenApp. This means they are deploying individual applications to the user without an OS wrapper. Application virtualization is generally limited in terms of customization and can be challenging if you need applications to smoothly interact with each other. Customers who deploy this way are often looking for the highest density, lowest cost option for virtualizing their users. GRID Virtual Applications allows you to provide graphics acceleration to the XenApp Server and then connect as many users as you want. This means you performance increases can vary greatly depending on how many users are accessing a single server. Virtual PC is for desktop virtualization solutions such as XenDesktop or Horizon. In this model, organizations are virtualizing the entire desktop (OS, applications, permissions, etc.) and delivering a full virtual instance to the user. This means users can interact with it like it was a physical desktop, applying personal settings, downloading applications, etc. This model is used to provide the most native like experience to an end user. In this model we allocate specific vgpu profiles to each VM and can guarantee a certain level of experience because we prevent the IT administrator from overloading a host. Today we can fit up to 16 Virtual PC users per GPU. What about customers who want both virtual desktops and applications? Both GRID Virtual PC and GRID Virtual Workstation editions include entitlements to GRID Virtual Applications. A user can access GRID accelerated virtual applications as well as their GRID enabled virtual desktop with a single license. If a user wants to access graphics accelerated virtual applications from a non-grid enabled desktop, they only need to purchase the GRID Virtual Applications license. Can I deliver Quadro enabled applications with GRID Virtual Applications? Quadro features are only available in the GRID Virtual Workstation edition. If customers want to deliver virtual applications with Quadro features enabled, they must purchase the GRID Virtual Workstation license per concurrent user. Where is NVIDIA GRID software installed for RDSH applications? There are 3 configuration modes supported by GRID Virtual Applications, these are all licensed per concurrent user. 1. Bare metal (supported on M6 only): GRID software is installed in the OS loaded in the bare metal hardware configuration. Bare metal configuration on Tesla M6 GPU will be enabled with GRID 3.0 drivers. This will require a vbios from the OEM that will take a couple months to complete. Contact to PM team for more details. 2. Passthrough: GRID software is installed in the VM assigned to the GPU in the 1:1 configuration 3. GRID vgpu: GRID vgpu manager is installed in the hypervisor, and the GRID software is installed in the Guest OS in the vgpu VM Can I run RDSH desktops with a GRID Virtual Applications license? Yes, Hosted Shared Desktops on XenApp are supported using the GRID Virtual Applications license. What RDSH solutions does this work with? GRID Virtual Applications is suited for any RDSH hosting solution including XenApp, Horizon Apps, etc., including session based desktops. 49

50 NVIDIA Grid V3.0 Quickstart Guide 50

51 Get NVIDIA Grid Software 51

52 NVIDIA M6/M60 GPU Mode Switch Switch your NVIDIA M6/M60 card to vgpu mode with the «gpumodeswitch.iso» tool 52

53 Install the NVIDIA vgpu Manager Driver on the ESX Host Create nvidia folder Copy the files to the /nvidia folder and execute from the top root directory: For new installation of the driver: esxcli software vib install -v /nvidia/nvidia-vgpu-vmware_esxi_6.0_host_driver_ oem vib For update installation of the driver: esxcli software vib update -v /nvidia/nvidia-vgpu-vmware_esxi_6.0_host_driver_ oem vib Test the installtion: vmkload_mod -l grep nvidia 53

54 Install NVIDIA License Server Install your NVIDIA license server on a VM and connect to: Write down the MAC address of your license server (required to register license) 54

55 Redeem your Keys on the NVIDIA License Webpage Got to the NVIDIA license webpage and Redeem your keys that you got from NVIDIA NFR1139:xxxxxx 55

56 Your License Details Check your licenses 56

57 How to register your License Server Info, how to register your license server 57

58 Register your License Server Register your license server with the MAC address 58

59 Register your License Server Search your license server and click on it 59

60 Map your Licenses Click on Map Add-Ons 60

61 Map your Licenses Map your quantity of licenses 61

62 Download License Click «Download License File» to get your license.bin file 62

63 Upload License on your License Server Upload your license.bin file on your license server 63

64 Choose vgpu Profile on your VM Install a Virtual Machine for VMware View or Citrix XEN Configure and install the VDI agents as described in the respected manuals Add a «Shared PCI Device» to the Virtual Machine Choose a Grid vgpu Profile Start the VM Install the NVIDIA grafics driver that comes with the vsphere/xen Server Grid software 64

65 Install NVIDIA Driver and connect to your License Server Add your license server info to the «NVIDIA Control Panel» under «Licensing» on your Virtual Workstation. 65

66 Install NVIDIA Driver and connect to your License Server Add your license server info to the «NVIDIA Control Panel» under «Licensing» on your Virtual Workstation. 66

67 Review NVIDIA License Server Check your licenses and the registered Virtual Workstation 67

68 NVIDIA Grid v3.0 Tesla M60 Profiles (2 GPU s on one Board) Performance Usercount M60-8q 2 User 8GB FB M60-4q 4 User 4GB FB M60-2q 8 User 2GB FB User - FB Memory M60-1q 16 User / 1GB FB M60-0q 32 User / 512MB FB Virtual GPU Type Physical Board Physical GPUs FrameBuffer Per Virtual GPU Display Heads Maximum Resolution Maximum Virtual GPUs Per Physical GPU Maximum Virtual GPUs Per Physical Board GRID M60-0q 1 x M MB x GRID M60-1q 1 x M GB x GRID M60-2q 1 x M GB x GRID M60-4q 1 x M GB x GRID M60-8q 1 x M GB x

69 NVIDIA vgpu Commands # nvidia-smi vgpu -l # gpuvm # watch -n 1 nvidia-smi # nvidia-smi vgpu -q 69

70 NVIDIA vgpu Commands Some commands for the ESXi Shell: nvidia-smi nvidia-smi vgpu nvidia-smi vgpu q nvidia-smi vgpu u 70

71 NVIDIA vgpu Benchmarking Frame Rate Limit Add the Row: pcipassthru0.cfg.frame_rate_limiter Value: 0 71

72 Perfmon Counters VMware Horizon and NVIDIA vgpu 72

73 AMD Multiuser MxGPU SR-IOV Cards Number of GPUs FirePro S7100X 1 x AMD Tonga GPU FirePro S7150 x2 2 x AMD Tonga GPU Stream Processors (2048 per GPU) Memory Size 8GB GDDR5 16GB total 8 GB GDDR5 per GPU Max. Users 16 / 64 Up to 4 x M6 with Blade Carrier = 64 Users OpenCL 2.0 Support Max Power 100W 300W Form Factor PCI-E Gen3 MXM 3.1 PCI-E Gen3 Dualslot

74 AMD MxGPU ESXi Configuration Download and unzip the vib and MxGPU-Setup-Script-Installer.zip Copy script and vib file to the same directory (Example : /vmfs/volumes/datastore1) Using an SSH utility, log into the directory on the host and change the attribute of mxgpu-install.sh to be executable # chmod +x mxgpu-install.sh Run command: # sh mxgpu-install.sh to get a list of available commands Run command: # sh mxgpu-install.sh i <amdgpuv vib> If a vib driver is specified, then that file will be used. If no vib driver is specified then the script assumes the latest amdgpuv driver in the current directory. The script will check for system compatibility before installing the driver After confirming system compatibility, the script will display all available AMD adapters Next, the script will show three options: Auto/Hybrid/Manual. Download and install the ESXi MxGPU Drivers and Scripts: 74

75 AMD MxGPU ESXi Configuration 1) Auto: automatically creates a single config string for all available GPUs: the script first prompts for the number of virtual machines desired (per GPU) and sets all settings accordingly (frame buffer, time slice, etc ) next, the script prompts the user if they want to enable Predictable Performance, a feature that keeps performance fixed independent of active VMs the settings are applied to all AMD GPU available on the bus if a S7150X2 is detected, the script will add pcihole parameters to VMs a reboot is required for the changes to take effect 2) Hybrid: configure once and apply to all available GPUs: the script first prompts for the number of virtual machines desired (per GPU) and sets all settings accordingly (frame buffer, time slice, etc ) next, the script prompts the user if they want to enable Predictable Performance the settings are applied to the selected AMD GPU; the process repeats for the next GPU if a S7150X2 is detected, the script will add pcihole parameters to VMs a reboot is required for the changes to take effect 3) Manual: config GPU one by one: the script prompts the user to enter VF number, FB size/vf, time slice next, the script prompts the user if they want to enable Predictable Performance the settings are applied to selected AMD GPU; the process repeats for the next GPU if a S7150X2 is detected, the script will add pcihole parameters to VMs a reboot is required for the changes to take effect Reconfigure MxGPU Card: sh mxgpu-install.sh c Download and install the ESXi MxGPU Drivers and Scripts: 75

76 AMD MxGPU VM Configuration for S7150X2 Add the Rows: pcihole.start Value: 2048 pcihole.end Value:

77 AMD MxGPU VM Configuration Add «PCI Device» AMD FirePro mxgpu (Virtual Function SR-IOV Device) 77

78 AMD MxGPU VM Configuration Download and install the Virtual Machine Graphics Driver: 78

79 Client Virtualization - Abbreviations and Naming Conventions Bare metal OS GPU GPU compute GPGPU GRID HDX HDX 3D Hypervisor PCoIP RDP RemoteFX RFX RGS VDI vgpu vsga vdga VM vram Operating system installed directly on the system, not virtualized Graphical processing unit (graphics card). It is important to note that some graphics cards have more than one GPU processor Synonymous to GPGPU. See GPGPU General-purpose graphics processing unit GPU technology that performs application computation traditionally handled by the CPU NVIDIA GPU cards specifically designed to enable rich graphics in virtualized environments Citrix set of advanced desktop remoting technologies to deliver a high definition experience Pro Feature of XenDesktop for delivering high-end 3D professional graphics Virtualization host platform (VMware ESXi, Microsoft Hyper-V, Citrix XenServer) Teradici remote desktop protocol used in VMware View Microsoft Remote Desktop Protocol Microsoft set of advanced desktop remoting technologies Microsoft RemoteFX HP Remote Graphics Software Virtual desktop infrastructure NVIDIA GRID vgpu: Hardware virtualized GPU solution used on VMware vsphere and Citrix XenServer VMware-specific terminology: software-virtualized GPU (API capture model) VMware-specific terminology for GPU pass-through Virtual machine GPU video RAM 79

80 HPE Client Virtualization HPE ConvergedSystem for Client Virtualization Deploy and manage a virtualized client environment with one fully integrated, pre-tested solution. 80

81 Virtualization solution feature comparison and considerations * Requires Windows Server 2012 with RemoteFX and Windows 8 or Windows 7 with RDP 8 updates. ** Requires XenDesktop 7. *** Using dual AMD S4000X MXM configuration. 81

82 Virtualization solution feature comparison and considerations * Requires a GPU that supports four displays. Source: HP Hardware Accelerated Graphics for Desktop Virtualization 82

83 HPE Client Virtualization Source: HP Verified Reference Architecture for Citrix XenDesktop 7.6 on ConvergedSystem Virtualize 3D professional graphics 83

84 VMware License Feature Matrix AMD MxGPU NVIDIA vgpu 84

85 NVIDIA Graphics Options for Virtualization Shared GPU Dedicated GPU vdga NVIDIA Driver installed on Hypervisor vgpu Manager installed on Hypervisor, NVIDIA Driver installed on Virtual Machine Pass-through PCI Device, NVIDIA Driver installed on Virtual Machine Source: NVIDIA GRID VGPU DEPLOYMENT GUIDE FOR VMWARE HORIZON 6.1

86 vgpu Configuration (ESXi Virtual Machine Settings) Profile decides for: User Count vram per User Performance Monitor Count 86

87 vdga Configuration (ESXi Hypervisor Settings) 87

88 GRID vgpu Internal Architecture Source: NVIDIA GRID VGPU DEPLOYMENT GUIDE FOR VMWARE HORIZON

89 NVIDA Grid K1 & K2 Card 89

90 NVIDA Grid K1 & K2 Card 90

91 Hardware Virtualized GPU Acceleration (vgpu 1.4) Card Physical GPUs Virtual GPU Use Case Frame Buffer (MB) Virtual Display Heads Maximum Resolution Maximum vgpus per GPU per Board GRID K2 2 K280Q GRID K2 2 K260Q GRID K2 2 K240Q Typical Designer Typical Designer Entry-Level Designer 4, ,560x1, , ,560x1, , ,560x1, GRID K2 2 K220Q Basic Designer ,560x1, GRID K1 4 K180Q GRID K1 4 K160Q Typical Designer Typical Designer 4, ,560x1, , ,560x1, GRID K1 4 K140Q Basic Designer 1, ,560x1, GRID K1 4 K120Q Basic Designer ,560x1,

92 NVIDIA Tesla M6 & M60 (2 x 8GB) 1 16 Users 2 32 Users 92

93 SUPPORT, UPDATES, AND MAINTENANCE SUBSCRIPTION (SUMS) DETAILS 93

94 NVIDIA Grid v3.0 Tesla M60 Profiles (2 GPU s on one Board) Performance Usercount M60-8q 2 User 8GB FB M60-4q 4 User 4GB FB M60-2q 8 User 2GB FB User - FB Memory M60-1q 16 User / 1GB FB M60-0q 32 User / 512MB FB Virtual GPU Type Physical Board Physical GPUs FrameBuffer Per Virtual GPU Display Heads Maximum Resolution Maximum Virtual GPUs Per Physical GPU Maximum Virtual GPUs Per Physical Board GRID M60-0q 1 x M MB x GRID M60-1q 1 x M GB x GRID M60-2q 1 x M GB x GRID M60-4q 1 x M GB x GRID M60-8q 1 x M GB x

95 NVIDIA Grid v3.0 Tesla M60 Profile Mix Tesla M60 (2 x GPU) Tesla M60 (2 x GPU) Tesla M60 (2 x GPU) M60-2q 8 User 2GB FB M60-8q 1 User 8GB FB M60-2q 4 User 2GB FB M60-4q 1 User 4GB FB M60-2q 2 User 2GB FB M60-1q 16 User 1GB FB Valid Configuration Valid Configuration No Valid Configuration M60-0q 16 User 512MB FB 95

96 NVIDIA Support Matrix 96

97 Products Plotted Against Use Cases by Increasing Quality and Cost Source: VMware Horizon 6 3D Engineering Workloads Reference Architecture 97

98 3D Technologies for Different Use Cases Source: VMware Horizon 6 3D Engineering Workloads Reference Architecture 98

99 RemoteFX Improvements in Hyper-V Windows Server 2016 Added support for designer and engineering applications through: OpenGL API support (up to OpenGL 4.4) OpenCL API Support (up to OpenCL 1.1) Expanded the amount of dedicated vram assignable to a VM to 1GB Decoupled vram from Monitors and Resolution Example applications: Adobe Photoshop CS, ArcGIS Pro, Solidworks, etc. Added support for RemoteFX vgpu when running Server VMs as a VDI guest Added support for Generation 2 VMs Improved end to end user experience Higher Render FPS and lower Jitter Improved application compatibility Source: Experience guide for Enabling OpenGL Support for vgpu in Server

100 Hyper-V Windows Server Discrete Device Assignment GPUs (graphics processors) are, similarly, becoming a must-have in virtual machines. And while what most people really want is to slice up their GPU into lots of slivers and let VMs share them, you can use Discrete Device Assignment to pass them through to a VM. GPUs are complicated enough, though, that a full support statement must come from the GPU vendor. More on GPUs in a future blog post. Source: Discrete Device Assignment Description and background 100