Category Archives: MOVING PICTURES

YouTube Channel for the book “Alien Interview”, edited by Lawrence R. Spencer

1001 THINGS TO DO WHILE YOU'RE DEAD, ART, MOVING PICTURES

DEATH: SHE’S NOT ALL BAD

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# 549 — PRETEND YOU’VE NEVER LIVED BEFORE.
Here is a really fun exercise. Try NOT to remember lives you’ve spent in bodies during your nearly infinite past. Go ahead. Try hard. See what happens.

# 550 — STOP PAYING TAXES.
This is an easy and inexpensive pastime.
# 551 — FEEL REALLY BIG.
This game can keep you amused endlessly. Size is relative to the largeness or smallness of other objects or spaces, by comparison. Some beings think “big” means 5’11”, 210 pounds. Or, a size 14 dress.
Now that you don’t have a body, those numbers shouldn’t really matter much. You can change your mind and just BE BIG.
For starters, try feeling as big as a Volkswagen. Then, a city bus. Next, be as big as a two story house. Be as big as a an apartment building. Work your way up gradually. Don’t try to leap tall buildings in a single bound. Who do you think you are, some kind of a god or something?
Well, maybe you are a god. There really isn’t anything about you, as a disembodied spirit, that is different than the ancient gods except size, strength, ability, and desire to invade the lives of men and make them miserable. Decide for yourself.

#552 — FIGURE OUT HOW LONG TO STAY DEAD.
Now that you’ve gotten used to the idea of being dead, and have gained some confidence in your ability to “conquer death” you may decide you would like to go to Earth and get another body again.
First, you should decide how long to stay dead before jumping right back into the same mess you were in before.
The reasons for planning your arrival on Earth are multitudinous and obvious. For example, you already know that warfare is almost continuous. Try to choose a time and a location on Earth where you are least likely to be killed or forced to kill others in battle. (good luck)
If this should occur you will be dead again in another 18 years, or less, anyway so it is very important to plan your birth ahead of the “blessed event”.
If you’re able to get a female body your odds of avoiding war may be better. However, women are almost universally oppressed, abused and enslaved by men, so don’t jump into this lightly either.
Of course there are always taxes, diseases, accidents, politicians and a host of other potential calamities to avoid.
Plan carefully and choose the time and place of your arrival cautiously. And, pick a place where you already know the language. Somewhere that has running water and electricity may be a good idea too.”

— Excerpts from the book 1001 THINGS TO DO WHILE YOU’RE DEAD, by Lawrence R. Spencer

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SECRETS OF THE UNIVERSE

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“IF YOU WANT TO FIND THE SECRETS OF THE UNIVERSE, THINK IN TERMS OF ENERGY, FREQUENCY AND VIBRATION.” —   Nikola Tesla

The full experiment:

WIKIPEDIA DEFINITION OF TERMINOLOGY:

The hertz is named after the German physicist Heinrich Hertz (1857–1894), who made important scientific contributions to the study of electromagnetism. The name was established by the International Electrotechnical Commission (IEC) in 1930.[6] It was adopted by the General Conference on Weights and Measures (CGPM) (Conférence générale des poids et mesures) in 1960, replacing the previous name for the unit, cycles per second (cps), along with its related multiples, primarily kilocycles per second (kc/s) and megacycles per second (Mc/s), and occasionally kilomegacycles per second (kMc/s). The term cycles per second was largely replaced by hertz by the 1970s.

Applications

Sine wave with varying frequency.

Details of a heartbeat as an example of a non-sinusoidal periodic phenomenon that can be described in terms of hertz. Two complete cycles are illustrated.

Vibration

Sound is a traveling longitudinal wave which is an oscillation of pressure. Humans perceive frequency of sound waves as pitch. Each musical note corresponds to a particular frequency which can be measured in hertz. An infant’s ear is able to perceive frequencies ranging from 20 Hz to 20,000 Hz; the average adult human can hear sounds between 20 Hz and 16,000 Hz.[7] The range of ultrasound, high-intensity infrasound and other physical vibrations such as molecular vibrations extends into the megahertz range and well beyond.

Electromagnetic radiation

Electromagnetic radiation is often described by its frequency—the number of oscillations of the perpendicular electric and magnetic fields per second—expressed in hertz.

Radio frequency radiation is usually measured in kilohertz (kHz), megahertz (MHz), or gigahertz (GHz). Light is electromagnetic radiation that is even higher in frequency, and has frequencies in the range of tens (infrared) to thousands (ultraviolet) of terahertz. Electromagnetic radiation with frequencies in the low terahertz range, (intermediate between those of the highest normally usable radio frequencies and long-wave infrared light), is often called terahertz radiation. Even higher frequencies exist, such as that of gamma rays, which can be measured in exahertz. (For historical reasons, the frequencies of light and higher frequency electromagnetic radiation are more commonly specified in terms of their wavelengths or photon energies: for a more detailed treatment of this and the above frequency ranges, see electromagnetic spectrum.)

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EXTREMELY HIGH FREQUENCY CELLULAR NETWORKS

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Extremely high frequency (EHF) is the International Telecommunication Union (ITU) designation for the band of radio frequencies in the electromagnetic spectrum from 30 to 300 gigahertz (GHz). It lies between the super high frequency band, and the far infrared band, the lower part of which is the terahertz band. Radio waves in this band have wavelengths from ten to one millimetre, so it is also called the millimetre band and radiation in this band is called millimetre waves, sometimes abbreviated MMW or mmW or mmWave. Millimetre-length electromagnetic waves were first investigated by Bengali Indian physicist Jagadish Chandra Bose during 1894–1896, when he reached up to 60 GHz in his experiments.

Compared to lower bands, radio waves in this band have high atmospheric attenuation: they are absorbed by the gases in the atmosphere. Therefore, they have a short range and can only be used for terrestrial communication over about a kilometer. Absorption increases with frequency until at the top end of the band the waves are attenuated to zero within a few meters. Absorption by humidity in the atmosphere is significant except in desert environments, and attenuation by rain (rain fade) is a serious problem even over short distances. However the short propagation range allows smaller frequency reuse distances than lower frequencies. The short wavelength allows modest size antennas to have a small beam width, further increasing frequency reuse potential. Millimeter waves are used for military fire-control radar, airport security scanners, short range wireless networks, weapon system LRAD, and scientific research.

“Fifth Generation” technology standard for cellular networks, which cellular phone companies began deploying worldwide in 2019, frequencies near the low end of this band are designated for use in the newest generation of cell phone networks.

READ MORE  IN THE WIKIPEDIA.ORG ARTICLE BELOW ~

In telecommunications,  fifth generation technology standard for cellular networks, which cellular phone companies began deploying worldwide in 2019, the planned successor to the 4G networks which provide connectivity to most current cellphones. Like its predecessors, 5G networks are cellular networks, in which the service area is divided into small geographical areas called cells. All 5G wireless devices in a cell are connected to the Internet and telephone network by radio waves through a local antenna in the cell. The main advantage of the new networks is that they will have greater bandwidth, giving faster download speeds, eventually up to 10 gigabits per second (Gbit/s). Due to the increased bandwidth, it is expected that the new networks will not just serve cellphones like existing cellular networks, but also be used as general internet service providers for laptops and desktop computers, competing with existing ISPs such as cable internet, and also will make possible new applications in IoT and M2M areas. Current 4G cellphones will not be able to use the new networks, which will require new 5G enabled wireless devices.

The increased speed is achieved partly by using higher frequency radio waves than current cellular networks. However, higher frequency microwaves have a shorter range than the frequencies used by previous cell phone towers, requiring smaller cells. So to ensure wide service, 5G networks operate on up to three frequency bands, low, medium, and high. A 5G network will be composed of networks of up to 3 different types of cell, each requiring different antennas, each type giving a different tradeoff of download speed vs distance and service area. 5G cellphones and wireless devices will connect to the network through the highest speed antenna within range at their location:

Low-band 5G uses a similar frequency range as current 4G cellphones, 600 – 700 MHz giving download speeds a little higher than 4G: 30-250 megabits per second (Mbit/s). Low-band cell towers will have a similar range and coverage area to current 4G towers. Mid-band 5G uses microwaves of 2.5-3.7 GHz, currently allowing speeds of 100-900 Mbit/s, with each cell tower providing service up to several miles radius. This level of service is the most widely deployed, and should be available in most metropolitan areas in 2020. Some countries are not implementing low-band, making this the minimum service level. High-band 5G uses frequencies of 25 – 39 GHz, near the bottom of the millimeter wave band, to achieve download speeds of 1 – 3 gigabits per second (Gbit/s), comparable to cable internet. However millimeter waves (mmWave or mmW) only have a range of about 1 mile (1.6 km), requiring many small cells, and have trouble passing through some types of building walls. Due to their higher costs, current plans are to deploy these cells only in dense urban environments, and areas where crowds of people congregate such as sports stadiums and convention centers. The above speeds are those achieved in actual tests in 2020, speeds are expected to increase during rollout.