Orbit vis

Vis-plug 🍜A minimal plugin-manager for visvis-plug plugins are defined by a Lua file in a git repository and can be both a plugin or a theme.Configure plugins in your visrc and use Commands to install and more.Plugins are installed using git (in the background) to a cache folder and required on init.Installgit clone vis-plug and require it in your visrc.You can use this one-liner to install vis-plug and then require it in your visrc:[ -n "${XDG_CONFIG_HOME:-$HOME}" ] && [ -d "${XDG_CONFIG_HOME:-$HOME/.config}/vis/plugins" ] && git clone "${XDG_CONFIG_HOME:-$HOME/.config}/vis/plugins/vis-plug" || echo "Error: The plugin path could not be determined or does not exist. Ensure XDG_CONFIG_HOME or HOME is set and that the path exists."Alternatively, you can add the following to your visrc to automatically fetch vis-plug to your plugins folder and require it:local plug = (function() if not pcall(require, 'plugins/vis-plug') then os.execute('git clone --quiet ' .. (os.getenv('XDG_CONFIG_HOME') or os.getenv('HOME') .. '/.config') .. '/vis/plugins/vis-plug')end return require('plugins/vis-plug') end)()ConfigureConfigure plugins in your visrc as a list of tables given to the plug.init method.Example:local plug = require('plugins/vis-plug')-- configure plugins in an array of tables with git urls and optionslocal plugins = { -- load a plugin given a repo ( can be omitted and expects a 'init.lua' file) { 'erf/vis-cursors' }, -- first parameter is a shorthand for 'url' { url = 'erf/vis-cursors' }, -- specify the lua file to require (or theme to set) and give a ref (commit, branch, tag) to checkout { 'erf/vis-test', file = 'test', ref = 'some-branch' }, -- specify an alias

Table of Contents >Quanser Rapid Control Prototyping Toolkit >Release Notes >RCP Toolkit 2021 These release notes describe the new features and changes introduced in RCP Toolkit 2021. They are divided into the sections enumerated below. New Software Compatibility New Targets New Cards Supported New Features --> Improved Features New Devices Supported New Examples Improved Examples --> New VIs Deprecated Features Bug Fixes New Software Compatibility RCP Toolkit 2021 has introduced compatibility with the following third-party software. Software compatibility requires the release version of third-party software. Compatibility with beta versions is not supported. LabVIEW 2020 SP1 Compatibility with 64-bit LabVIEW 2020 SP1 has been added. LabVIEW 2021 Compatibility with 64-bit LabVIEW 2021 has been added. Improved Features Some of the features improved in RCP Toolkit 2021 are enumerated below. There a great many miscellaneous improvements that have not been listed. Only some of the highlights are listed below. Documentation Numerous documentation improvements have been made. In particular, polymorphic VIs are presented in a much cleaner format that is easier to navigate. Also, input terminals are now categorized based on which inputs are required, recommended or optional. Q2-USB and Q8-USB drivers The Windows drivers for the Q2-USB and Q8-USB have been updated to provide better performance in fast mode, i.e., high sampling rate. New VIs New HIL VIs have been added to the Quanser Rapid Control Prototyping (QRCP) palette in . The original blue CL HIL VIs used for CD&Sim have been moved to a "CD&Sim" subpalette within the "Quanser Rapid Control Prototyping/HIL" palette. The blue CL HIL VIs are intended for closed-loop control inside a CD&Sim loop. Using the blue CL HIL VIs inside a CD&Sim loop is the easiest way to do control or access hardware using QRCP. The new red HIL VIs are intended for use outside of a CD&Sim loop. They are intended for more advanced users and generally require more VIs to accomplish the same task. For example, the blue CL HIL VIs automatically close the data acquisition card when the CD&Sim loop terminates. However, when using only the red HIL VIs, the data acquisition card must

And Connecting Cables 1.2 Installation and Connecting Cables Note: Be certain to comply with the instrument installation requirements described in this manual (see page ⅷ ). Failure to comply with these requirements can cause faults with the instrument. 1.2.1 Preparation Prepare a table which can bear a weight of about 50 kg (differs according to instrument) and has an area of 700 mm (length) ×... Page 18 Connect the PC and the monitor. Connect the AC power cable to the “AC INPUT” connector on the rear of V-600. Connect the other end of the AC power cable to an electrical outlet. Connect the AC power cables to the AC input connector of PC and monitor. Connect the other ends of the AC power cables to an electrical outlet. Page 19: Specifications 2 Specifications The specifications of each model covered in this manual are given below. 2.1 V-630 UV/VIS Spectrophotometer Specifications Optical system Single monochromator UV/VIS region: 1200 lines/mm concave grating Rowland off-circle arrangement Double beam type Light source Deuterium lamp: 190 to 350 nm... Page 20: V-650 Uv/Vis Spectrophotometer Specifications 2.2 V-650 UV/VIS Spectrophotometer Specifications Optical system Single monochromator UV/VIS region: 1200 lines/mm plane grating Czerny-Turner mount Double beam type Light source Deuterium lamp: 190 to 350 nm Halogen lamp: 330 to 900 nm Light source exchange Any wavelength between 330 and 350 nm can be wavelength selected. Page 21: V-660 Uv/Vis Spectrophotometer Specifications 2.3 V-660 UV/VIS Spectrophotometer Specifications Optical system Double monochromator UV/VIS region: 600 lines/mm plane grating Czerny-Turner

Cyclone REGISTER 360 PLUS processes the RTC360 Setup positions and Cyclone FIELD 360 pre-registrations for smart and automated registration.Registration optionsAuto CloudImporting RTC360 Projects Without Cyclone FIELD 360 Note: Cyclone REGISTER 360 PLUS processes the VIS tracking information from RTC360 to create links that are later used for auto-registration.Upon transferring RTC360 data to Cyclone REGISTER 360 PLUS, the VIS delta poses from RTC360 are automatically created (yellow dotted lines).The VIS delta poses are then validated for quality.After validation, the VIS delta poses are changed to “trusted” links, which appear as solid red lines, in Cyclone REGISTER 360 PLUS and are prepared for importing.Importing Cyclone FIELD 360 Pre-registered ProjectsCyclone REGISTER 360 PLUS can also accept data that has been pre-registered in Cyclone FIELD 360. Rather than validating links in Cyclone REGISTER 360 PLUS, as outlined above, the user will have already validated links in the field, allowing them to import data with links pre-defined.Upon import of RTC360 data, any verified Cyclone FIELD 360 links are included.The existing links are re-validated and re-optimized and prepared for import.Combination of Cyclone FIELD 360 and VIS LinksIt is possible to have a project with a combination of Cyclone FIELD 360 pre-registered links and unvalidated VIS links (assumed links derived from Setup position information). For each type of Link, VIS, or Cyclone FIELD 360, they are accordingly processed to generate the validated links.Smart AlignAs mentioned in the Registration Options section, Smart Align is a feature that can shorten the time required for Auto Alignment by creating pre-defined links based on time or distance before importing the data. Note: Smart Align can be generated based on time, distance, or both.The geolocation data and VIS poses from the RTC360 scanner makes it easier for the user to modify bundles, combine job, and perform Smart Align.