If you don’t want the jab, and you’re in the military, guess who’s signing your discharge papers right now?

TRUMP.

🕶

That seems counter-productive.

is it? or is it emboldening the alliance?

How would that be emboldening anyone. He would be getting rid of all the good guys.

they can do much better outside of the complex

no limits full frequency defensive

But within the military complex, they would be in the positions they would need to be in to neutralize the military brass when called upon to do so.

all of it is above ground

we already ripped the complex

Then why is it that we still have high ranking officials bent on enforcing vaccine mandates for our service personnel and poisoning their minds with godless, globalist, anti-Constitution, anti-American, and anti-Christ doctrine?

in a rico case the higher the authority that makes the mistake they all come down

Raising them up to bring them down?

yup

Hope and pray you are right before they do too much damage.

my litany was answered

And how was it answered?

the actual cost of this is beyond our understanding and angels will not hesitate to fulfill gods will

Of that I'm sure. [As far as the good angels are concerned.]

even some of the fallen

Why would any of the fallen be interested in following God's will? All of the fallen follow Lucifer who is at enmity with God.

when lucifer fell it screwed with the frequency up there

there are rogue angels out there that dont reside within the light and definitely dont work for the dark

The angle of reflection is equal to the angle of incidence. Both angles are measured from the normal. The normal is an imaginary line at right angles to the plane mirror. Smooth surfaces produce strong echoes when sound waves hit them, and they can act as mirrors when light waves hit them.

In geometric optics, the angle of incidence is the angle between a ray incident on a surface and the line perpendicular to the surface at the point of incidence, called the normal. The ray can be formed by any wave: optical, acoustic, microwave, X-ray and

so

on.

ray
/reɪ/

noun
1.
each of the lines in which light (and heat) may seem to stream from the sun or any luminous body, or pass through a small opening.

beam
shaft
streak
bar
pencil
finger
stream
gleam
flash
glint

glimmer

flicker
twinkle

shimmer

any of a set of straight lines passing through one point.

"the ray that runs from the centre of the circle to the point of tangency"

verb
spread from or as if from a central point.

"delicate lines rayed out at each corner of her eyes"

spread out
fan out
radiate out

a specified form of non-luminous radiation.

"ultraviolet rays"

The Laser Firing Units are lightweight units that provide fiber optic guided infrared radiation pulses to safely and reliably initiate many types of explosive and pyrotechnic output devices—deflagration, detonation, ignition, pressure and gas generators.

LASER FIRING

generate
/ˈdʒɛnəreɪt/
verb: generate; 3rd person present: generates; past tense: generated; past participle: generated; gerund or present participle: generating
produce or create.

"changes which are likely to generate controversy"

cause
give rise to
lead to
result in
bring about
bring into being
create
make
produce
initiate
engender
spawn
sow the seeds of
occasion
effect
originate
bring to pass
bring on
precipitate
prompt
provoke
kindle
trigger
spark off
touch off
stir up
whip up
induce
inspire
promote
foster
conjure
beget
enkindle
effectuate

produce (energy, especially electricity).

MATHEMATICS•LINGUISTICS
produce (a set or sequence of items) by performing specified mathematical or logical operations on an initial set.

LINGUISTICS
produce (a sentence or other unit, especially a well-formed one) by the application of a finite set of rules to lexical or other linguistic input.

MATHEMATICS
form (a line, surface, or solid) by notionally moving a point, line, or surface.

energize (third-person singular simple present energizes, present participle energizing, simple past and past participle energized)

(transitive) To invigorate; to make energetic.

(transitive) To supply with energy, especially electricity; to turn on power to (something).

Whenever we energize that circuit we blow a fuse.

(intransitive, obsolete) To use strength in action; to act or operate with force or vigor; to act in producing an effect.

Giza

place in Egypt, from Arabic Er-ges-her "beside the high," i.e., the Great Pyramid.

The Lighthouse of Alexandria, sometimes called the Pharos of Alexandria (/ˈfɛərɒs/; Ancient Greek: ὁ Φάρος τῆς Ἀλεξανδρείας, contemporary Koine Greek pronunciation: [ho pʰá.ros tɛ̂ːs a.lek.sandrěːaːs]), was a lighthouse built by the Ptolemaic Kingdom of Ancient Egypt, during the reign of Ptolemy II Philadelphus (280–247 BC).[2] It has been estimated to have been at least 100 metres (330 ft) in overall height.[3] One of the Seven Wonders of the Ancient World, for many centuries it was one of the tallest man-made structures in the world.

From Ancient Greek Φάρος (Pháros).

Pronunciation
IPA(key): /ˈfɛəɹɒs/
Noun
pharos (plural pharoi)

(historical) An ancient lighthouse or beacon to guide sailors.

(figuratively) That which stands out; a shining light.

irradiance (n.)

1660s, from Latin irradiantem (nominative irradians), present participle of irradiare "to shine forth" (see irradiate).

And when he thus had spoken, he cried with a loud voice, Lazarus, come forth

Superconducting thin films of 123 compound were deposited on (100) single-crystalline SrTiO3 substrates using a molecular-beam-epitaxy system. Films were characterized by x-ray diffraction, scanning electron microscopy and compositional analysis using the EDAX technique. The films were irradiated by a 1.064 mu m wavelength Q-switched Nd:YAG laser of 20 ns pulse duration at 1.0 J cm-2/shot energy density. A systematic comparison of the film microstructure and compositional analysis before and after irradiation is presented here. Theoretical calculations based on a thermal model of laser heating to determine the surface-temperature rise of the film were performed using the finite-difference method. The film microstructure, showing fusion of grains, is attributed to the bolometric response of the whole film during 1.064 mu m laser irradiation.

Purpose: To prepare magnetic solid lipid nanoparticles (MSLN) containing Ibuprofen (IB) by an emulsification dispersion-ultrasonic method. Methods: Ibuprofen (IB) was chosen as a model drug loaded on MSLN. Magnetite can be synthesized by co-precipitation from a ferrous and ferric aqueous solution by addition of a base, and the magnetite nanoparticles should be coated with oleic acid during precipitation process. Magnetic solid lipid nanoparticles (MSLN) containing Ibuprofen (IB) were prepared by an emulsification dispersion-ultrasonic method.

magnetic solid lipid nanoparticles

18 Feb 2021 — Lipid nanoparticles are a vital component of the new Pfizer/BioNTech and Moderna mRNA COVID-19 vaccines

https://www.osapublishing....

Wavelength shifting properties of nanoparticles can be understood in terms of the atomic properties of the materials when their dimensions are measured in a few to 100 nm range21. When the dimensions of a particle (atoms or molecules) are smaller than the electron-hole distance (Bohr exciton radius) in that material, some particle properties are changed in very significant ways21,22,23,24.

For example, the energy band gap is increased and many discrete energy levels form at the edges of the band gap21,22,23,24. So, the absorption of photons is shifted to higher energies (from visible to UV wavelengths). Absorption of a photon puts the molecule in an excited state, which then relaxes back to its ground state by emission of a longer wavelength photon25.

The difference in wavelength between the excitation spectrum (absorbed photon wavelength) and the emitted spectrum is called the Stokes shift. By this mechanism, the absorption of a high energy photon is determined by detection of the Stokes-shifted emitted photon – the nanoparticle effectively operates as a wavelength-shifter. In addition, the emission wavelength can be tuned since the energy gap is highly dependent on the nanoparticle size21,22,23,24.

These changes in particle properties occurring for particle sizes at the Bohr exciton radius are collectively known as quantum confinement effects21,22,23,24. Since these effects are happening at the atomic or molecular level, absorption and emission of light is more efficient for nanoparticles than it is in bulk materials as a result of quantum size confinement, mainly due to the increase of the electron-hole wavefunction overlap and the split of the energy levels into discreet values21,22,23,24. Also, since the size of the nanoparticles determines the wavelength range of the shifted light, a nanoparticle wavelength-shifter can be tuned to match the optimal sensitivity of an existing photodetector.

The quantum size confinement is not only effective for undoped semiconductors but also applicable for doped semiconductors21,26. For doped nanomaterials, the emission wavelength is mainly determined by the luminescence centers.

luminescence
/ˌluːmɪˈnɛs(ə)ns/

noun: luminescence

the emission of light by a substance that has not been heated, as in fluorescence and phosphorescence.
Origin

late 19th century: from Latin lumen, lumin- ‘light’ + -escence (denoting a state).