Radium 3 1 32

• Radium 3 1 32 =
• Radium 3 1 32 Bit

Radium is a music editor with a new type of interface.

One gram of radium-226 undergoes 3.7 × 10 10 disintegrations per second, a level of activity that defined the curie (Ci), an early unit of radioactivity. This is an energy release equivalent to about 6.8 × 10 −3 calorie per second, sufficient to raise the temperature of a well-insulated 25-gram sample of water at the rate of 1 °C every hour. 1.1 What is radium? Radium is a naturally-occurring silvery white radioactive metal that can exist in several forms called isotopes. It is formed when uranium and thorium (two other natural radioactive substances) decay (break down) in the environment. Radium has been found at very low levels in soil, water, rocks, coal, plants, and food.

• Compared to the normal sequencer interface editing is quicker and more musical data fits on the screen.
  
• Compared to trackers, note positions and effects are edited graphically, which should be quicker, provide more vertical space and give a better musically overview. (Everything can also be edited by text, like in a normal tracker)
  
• Radium can also be used as a normal multitracker to mix and record audio.

However, despite its unusual appearance, it's a design goal for Radium to be straightforward to use, and easy to learn.It should not be harder to learn Radium than any tracker or most MIDI sequencers.Users accustomed to trackers might use more time adjusting to the interface.

History

Some of the features

• Audio and MIDI multitracker
• Automate pitch, velocity, effects, and tempo.
• Granular synthesis
• Smooth scrolling
• Optional piano roll
• Tickless
• Global swing, and swing-per-track
• Modular mixer and/or mixer strips
• MIDI sequencing
• Hard drive audio recording and playback
• AU, LADSPA, VST, and VST3 plugins
  (More than 100 LADSPA plugins are included)
• Several built-in effects and instruments
  (virtual instruments, multiband compressor, modulators, etc.)
• Pure Data embedded.
  (Linux only for now)
• Includes a Faust audio DSP development environment
  
• Frame-accurately synchronize playback to e.g. Ardour, Bitwig, or MASCHINE.
• Graphical zoom
• Non-destructive changable Lines Per Beat ('Line Zoom').
• Microtonality
• Scripting in Python or Scheme.
• Plugin delay compensation applied to all parts of the audio graph
• Multicore support
• Unlimited undo/redo
• Open source with a straightforward and easy to use build system

Quick start

1. Load a demo song from the File menu.
2. Play by pressing right alt + space. Stop by pressing space alone.
3. Add a new note by pressing a key. Change octave with F1 and F2.
   (Or record from MIDI input)

Page was last updated: 2020-09-02

News :

• 2020-09-29: Released 6.4.77
• 2020-09-25: Released 6.4.76
• 2020-09-13: Released 6.3.84
• 2020-09-11: Released 6.3.83
• 2020-09-09: Released 6.3.82
• 2020-09-07: Released 6.2.91
• 2020-09-05: Released 6.1.99
• 2020-09-02: Released 6.0.99
• 2020-08-15: Released 5.9.99
• 2020-03-04: Released 5.9.98
• 2020-02-05: Released 5.9.96
• 2020-02-03: Released 5.9.95
• 2020-01-23: Released 5.9.93
• 2020-01-27: Released 5.9.92
• 2020-01-21: Released 5.9.91
• 2020-01-19: Released 5.9.90
• 2019-12-26: Released 5.9.88
• 2019-12-10: Released 5.9.86
• 2019-12-08: Released 5.9.85
• 2019-11-26: Released 5.9.83

  Older news
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Xliff editor 2 7 1st. Is there a feature you really want? Or maybe you have an idea you want to see realized? Then support the development of Radium.

You can also help Radium get a steady progress by subscribing. Bug reports and feature requests from subscribers are prioritized. Subscribers also get access to binaries of Radium for Windows, Linux and Mac OS X.

This video course in radiochemistry is divided into seven different modules. Generally the modules should be taken in numerical order as material in the first modules is referenced in later modules.

Basics of Radioactivity

1.1 - Basics of Atomic Theory (Video)(19 minutes)
1.2 - Introduction to Radioactivity (Video)(29 minutes)
1.3 - Decay Chains and Radiochemical Equilibria (Video)(26 minutes)

Sample Preservation, Pretreatment, and Preparation

2.1 - Sample Preparation, Preservation, and Pretreatment (Video)(14 minutes)
2.2 - Carriers, Tracers and Yield Calculations (Video)(25 minutes)

Principles of Radiochemical Separations

3.1 - Solubility and Precipitation (Video)(36 minutes)
3.2 - Oxidation and Reduction ('Redox') (Video)(13 minutes)
3.3 - Complexation (Video)(16 minutes)
3.4 - Ion Exchange (Video)(20 minutes)
3.5 - Solvent Extraction (Video)(24 minutes)

Detection Techniques

4.1 - Basics of Radiation Interaction with Matter (Video)(22 minutes)
4.2 - Liquid Scintillation Counting: Theory and Analysis (Video)(27 minutes)
4.3 - The Basics of Gas Proportional Counting (Video)(27 minutes)
4.4 - Alpha Spectrometry 1: Principles (Video)(22 minutes)
4.5 - Alpha Spectrometry 2: Calibration and Calculations (Video)(13 minutes)
4.6 - Gamma Spectrum Analysis (Video)(31 minutes)

EPA Approved Radiochemical Drinking Water Methods

5.1 - Tritium Analysis by Liquid Scintillation Counting (EPA Method 906.0) (Video)(24 minutes)
5.2 - Measurement of Gross Alpha and Gross Beta (EPA Method 900.0) (Video)(30 minutes)
5.3 - Radium-226 Analysis by EPA Method 903.1 (Video)(33 minutes)
5.4 - Radium-228 Analysis by GPC (EPA Method 904.0) (Video)(33 minutes)
5.5 - Uranium by Gross Alpha (EPA Method 908.0) and by Alpha Spectrometry (ASTM Method D3972) (Video)(17 minutes)
5.6 - Gamma Spectrometry 2: Calibrations, Presets, and EPA Method 901.1 (Video)(32 minutes)

Determination of Measurement Uncertainty for Radiochemical Analysis

6.1 - Determination of Measurement Uncertainty for Radiochemical Analysis (Video)(35 minutes)

Radium 3 1 32 =

Quality Assurance and Quality Control in Radiochemical Analysis

Radium 3 1 32 Bit

7.1 - Quality Assurance in Radiochemical Analyses: Overview of Requirements for the Laboratory (Video)(20 minutes)