SoundGrid Studio User Guide / Owners Manual
Table Of Contents
- Welcome to SoundGrid Studio
 - Part 1: Getting Started
 - Part 2: Top Bar
 - Part 3: Setup Window
- Setup Window Overview
- Network Controls
 - Device Racks: Assigning and Managing Network Devices
- I/O Devices Racks
 - I/O Device Racks Displays and Controls
 - I/O Devices Menu Items
 - SG Connect
 - I/O Sharing
- Connected Systems
 - System Inventory in Super Systems
 - Sharing a Device
 - Setting up Device Sharing
 - Shared Devices: Clocking Considerations
 - Patching Shared Devices
 - Patching Shared Output Devices
 - Shared and Un-Shared Devices in the Patch
 - Removing Shared Devices
 - If the Sharing Host Becomes Unavailable
 - Share Preamp Control
 
 - Servers
 - External Control Devices
 
 
 - Setting Sample Rate
 - Assigning I/O Devices Manually
 - Working Offline
 - Mixer Settings
 - User Interface Settings Section
 - Patch Window Sections
 - The Patch Grid
 - Mixer Layers
 - Mixer Channels
 - Mixer Layer Modes
 - Using Plugins
 - Monitor Panel
 - INCORPORATING MIDI
 - MACKIE CONTROL PROTOCOL
 - Setting Up Mackie HUI in a DAW
 
 - Setup Window Overview
 - Part 4: Patch Window
 - Part 5: Mixer Window
 - Appendix
 
 Part 3: Setup Window 
SoundGrid Studio/ User Guide  
56 
Mixer Settings 
CONFIGURATION 
The Configuration section sets the size of the mixer. The mixer can have 8, 16, 32, or 64 channels, with 8 stereo groups, 8 AUX 
channels, 16 stereo monitor channels, and an L/R main buss (depending on the selected configuration and license). 
Mixer size is normally established when a session is created, but you can change the mixer configuration of an existing 
session. Please note that if you reduce the number of channels in a session, the parameters in channels that are no longer 
part of the session will be discarded. Save a session under a revised name before you reduce its size. Mixer Layers without 
any channels are unavailable and their buttons are grayed out. 
MIXING ENGINE PERFORMANCE 
This sets the mixer’s internal processing priority, which affects DSP performance. 
In the Latency Optimized mode, a processing cycle must include all signal processing 
paths, so there is no internal routing latency. However, processing in this mode can be 
less DSP efficient with certain plugin processors. In the DSP Optimized mode, 
processing can spread across several buffer cycles, regardless of signal path position. 
This parallel processing provides greater DSP efficiency, with increased latency on 
certain signal paths. 










