Tag: Spooky2 Device

Bedsores (pressure ulcers) are injuries to the skin and underlying tissue, primarily caused by prolonged pressure on the skin. They can happen to anyone, but usually affect people who are bedridden or in a chair or wheelchair for extended periods of time. Bed sores can be treated in a variety of ways, depending on the stage. Frequent repositioning and keeping the area clean, dry, and free of irritation is important to promote healing.

Welcome to listen the following sound frequencies will help relieve swelling or tenderness in your skin, it is recommended to listen at least 2-3 times a day, keep the moderate volume at a comfortable level to prevent any hearing damage, make sure you have enough lemonade or pure Water to flush toxins from your body.

The smallest bacteria are about 0.4 microns (millionth of a meter) in diameter, while viruses range in size from 0.02 to 0.25 microns. Typically, less than 0.01% of the linear paths between TENS pads contain the same type of pathogen cells. Pathogen cells have little effect on the overall electrical signal. Spooky2 GX biofeedback has a high threshold designed to eliminate false hits detected from noise spikes. Since the GX Pro’s electrical noise is greatly reduced, you can set the hit threshold to zero, and every small signal peak will be correctly reported as a hit.

Additionally, Spooky2 GX Pro has an extended PCB that can preprocess biological scan (BFB) data. It converts the BFB current and phase angle analog signals into a serial digital data stream that is intrinsically noise immune. Spooky2’s R&D team is constantly working to improve our products. The new version of the extended PCB contains more precise resolution and better sensitivity. The data is very clean and accurate, with a better signal-to-noise ratio. With noise effectively eliminated, every tiny bump and spike in the signal indicates information from your body, and all new GX Pros come with this improved extension PCB installed.

The Spooky2 GX Pro differs from its old version of GX in many ways, the GX uses discrete components to measure current and phase angle, and each of them adds “electrical noise” to the measured signal, the technical term for this is Johnson-Nyquis Special noise (Johnson-Nyquist noise). Johnson-Nyquist noise produces many spikes in GX, from Wikipedia explain: “Johnson-Nyquist noise (thermal noise, Johnson noise, or Nyquist noise) is caused by the internal Electronic noise produced by thermal perturbations of charge carriers (usually electrons), which occur regardless of the applied voltage. Thermal noise is present in all electrical circuits, in sensitive electronic devices such as radio receivers can swamp weak signals and can be the limiting factor in the sensitivity of electrical measuring instruments.”

In simple words, current flowing through any conductor or semiconductor creates electrical noise, and the higher the resistance, the louder the noise. This is unavoidable and not the result of poor quality components, e.g. a 100 ohm resistor will have more noise than a 1 ohm resistor, no matter how the resistor is made. The GX Pro uses multiple fast microprocessors to directly measure current and phase angle. Fewer components and digital signal processing greatly reduces Johnson-Nyquist noise, resulting in smoother GX Pro BFB graphs.

Lastly, Spooky2 guarantees that the Spooky2 software has never had data filtering mechanisms to amend its chart smoothing, and will never.

Spooky2 GeneratorX Pro can run in standalone mode, which means you can run the program without being connected to a computer, follow the steps below to learn how to use GeneratorX Pro in standalone mode.

Step 1: Load the program into GeneratorX Pro

First, complete the hardware connection, turn on Spooky2 GeneratorX Pro, open the Spooky2 software, go to the “Control” tab, you will find that two generators have been detected. Go to the Presets tab and select an Empty Shell Preset if desired. For example, I would choose Healing(R) – JW (Healing(R)-JW) to help my bones.

Then, go to the programs tab, search for the keyword “bone” and you will find many related programs. Double-click or click the “+” button on the program you want to load. You’ll see the programs added to “Loaded programs” in the lower left corner. Double check that these programs are exactly what you want before proceeding to the next step.

Go to the Controls tab, select Override Generator, select one of the two generators on your GeneratorX Pro, it doesn’t matter whether you choose Generator #3 or Generator #4. They all share the same program. In this example, I will select Generator #3.

Click “Load GX” and you’ll see a new window pop up. Under “New program name,” give your new program a name so you can remind yourself what this program is about. If not, it automatically combines all program names into the title. Here I named the program “Bone Problem”, double click where you want to store the program, you can store your program in 30 places, you can also overwrite the existing program, however, all these programs should be in within the limit of 200 frequencies. Here I’ll put them at position 16, press save now. The Load Generator Box will close and the changes will be sent to your GeneratorX Pro.

Repeat the above operations, one GX Pro can download up to 30 programs.

Step 2: Run the program in standalone mode

Once the download is complete, close the Spooky2 software and disconnect the GeneratorX Pro from the computer, connect the Spooky2 Boost and Remote to one of your GeneratorX Pro’s generators, then place your DNA sample into the Remote. Press the “G1” or “G2” button and you will see all the programs that have been loaded into GeneratorX Pro. Use the “Up” or “Down” button to select the program to run. Here I’m going to choose “Bone Problem”. Press the “Start” button and you will see the program ready on the G1. Then press the “Loop” button. “Run (Start)” means that the program is running. Now the program will run 24/7 until you manually stop it.

Appendix: There are a few things to note.

• Each program is limited to 200 frequencies.
• In a program, each frequency will use the same waveform, amplitude, offset and duration (dwell).
• You should keep your computer connected if you want to run scans, colloidal silver, or biofeedback scans.
• The Out 2 signal will be the inverse of Out 1. You cannot use Out 2 for modulation of Spooky2 Central Plasma. However, special presets are available to allow these machines to run using Out 1.
• When you connect Plasma to a standalone GeneratorX, it is suitable for frequencies over 100,000 Hz. For lower frequencies, they are boosted to harmonics above 100 kHz. Therefore, if the frequency is lower than 100 kHz, it is better to use an online GX plasma.

The function improvements of Spooky2 software from the old version 202200707 are as follows:

1. Tool to define which samples Spooky uses to derive biofeedback running averages.

2. Spooky’s percentage tolerance when searching for repeat frequencies, this option greatly reduces the program size of most DNA programs and presets without affecting effectiveness.

3. Improvement: BFB time estimation now uses the average of 10 producer poll times. Earlier versions of Spooky used only one.

4. Improvement: Bug catches presets with missing frequency strings.

5. Improvement: Frequency sweeps can now be programmed with 8 decimal resolution.

6. Improvement: biofeedback error correction.

7. Improvement: Error reporting when wave file is locked.

8. New: Show shell preset name (if used):

9. Added: Tolerance of repetition frequency detection. This is useful for reducing the size of DNA programs and presets.

10. NEW: Option to combine selected program frequencies in dual mode. This cuts the program duration in half.

11. New: Biofeedback averaging method is now user defined:

The BFB RA window sets the range over which a simple sliding window running average is calculated. Values ​​outside this range are ignored from calculations. The hold option keeps the running average calculation on hold. If selected, a portion of the previous running average will always be carried over to subsequent values, using the formula RA = RAp – (RAp/SC) + (Vn/SC) , where: RA = running average for the current sampling point. RAp = running average of the previous sample. Vn = current sample value. SC = number of samples. 1 <= SC <= WS. WS = window size (user-defined number of samples).

BFB average window value. If this value is set to zero or left blank, the sample count will automatically default to 20. The function of biofeedback is to monitor signal levels. This level can be compared to the average of surrounding readings. The range of surrounding readings is defined in the BFB Averaging Window field. Signals that differ most from the running average are reported in the final “hits” list.

12. Earlier versions of Spooky calculated running averages in real time. It is not possible to include readings after the current reading. Newer versions of Spooky do the analysis retrospectively, so later readings can be included when calculating the running average. The first field of the BFB Averaging Window option sets the number of previous samples to include when deriving a running average. The second field sets the number of samples to include after the current reading. In the example above, when Spooky reads the 50th current value (amps), Spooky will average the BFB values ​​from samples 30 to 49 and compare the 50th BFB value to that average.

Earlier versions of Spooky included the current reading in the averaging calculation. This is undesirable and has been corrected in this release.

With the above setup, Spooky is set up to find the maximum BFB value relative to the running average of the surrounding BFB values. After scanning, Spooky will open the corresponding biofeedback data file and retrieve the data for subsequent analysis. If you want to emulate an earlier version of Spooky (i.e. April 2017 or earlier), select the Retentive RA Window option and set the left RA Window field to 20.

For more advanced analysis, set both fields to 10, or experiment with other values. A beta tester found that 1 .. n .. 1 (deselect keep) is a good way to detect real world clicks.