Article from Henryk Szubinski
CLARITY and It's various translations.
This was sent to Steven Greer ( SIRIUS DISCLOSURE) and was accepted.
CLARITY and It's various translations.
This was sent to Steven Greer ( SIRIUS DISCLOSURE) and was accepted.
from
Wikipedia
date 2018
July 05
time, 14:09
Specific clarificationThere are some common situations where use of a more specific clarification template might make the desired clarification clearer. A common case is an article citing a scientific measurement without indicating how the measurement was taken. For example, the following statement about solar intensity at the earth's surface without specifying the sun's elevation could be annotated with the following tag:
from:
en.wiktionary.org/wiki/qualification#English
date 2018
July 05
time, 14:02
Noun[edit]qualification (countable and uncountable, plural qualifications)
from:
en.wikipedia.org/wiki/Underwater_vision
date 2018
July 05
time, 14:14
as related to UNDERWATER CLARITY as VISION in water.
Underwater, things are less visible because of lower levels of natural illumination caused by rapid attenuation of light with distance passed through the water. They are also blurred by scattering of light between the object and the viewer, also resulting in lower contrast. These effects vary with wavelength of the light, and color and turbidity of the water. The vertebrate eye is usually either optimised for underwater vision or air vision, as is the case in the human eye. The visual acuity of the air-optimised eye is severely adversely affected by the difference in refractive index between air and water when immersed in direct contact. Provision of an airspace between the cornea and the water can compensate, but has the side effect of scale and distance distortion. The diver learns to compensate for these distortions. Artificial illumination is effective to improve illumination at short range.[1]
Stereoscopic acuity, the ability to judge relative distances of different objects, is considerably reduced underwater, and this is affected by the field of vision. A narrow field of vision caused by a small viewport in a helmet results in greatly reduced stereoacuity, and associated loss of hand-eye coordination.[1]
At very short range in clear water distance is underestimated, in accordance with magnification due to refraction through the flat lens of the mask, but at greater distances - greater than arm's reach, the distance tends to be overestimated to a degree influenced by turbidity. Both relative and absolute depth perception are reduced underwater. Loss of contrast results in overestimation, and magnification effects account for underestimation at short range.[1]
Divers can to a large extent adapt to these effects over time and with practice.[1]
Light rays bend when they travel from one medium to another; the amount of bending is determined by the refractive indices of the two media. If one medium has a particular curved shape, it functions as a lens. The cornea, humours, and crystalline lens of the eye together form a lens that focuses images on the retina. The human eye is adapted for viewing in air. Water, however, has approximately the same refractive index as the cornea (both about 1.33), effectively eliminating the cornea's focusing properties. When immersed in water, instead of focusing images on the retina, they are focused behind the retina, resulting in an extremely blurred image from hypermetropia.[2]
from
Wikipedia
date 2018
July 05
time, 14:16
The Secchi disk, as created in 1865 by Angelo Secchi, is a plain white, circular disk 30 cm (12 in) in diameter used to measure water transparency or turbidity in bodies of water. The disc is mounted on a pole or line, and lowered slowly down in the water. The depth at which the disk is no longer visible is taken as a measure of the transparency of the water. This measure is known as the Secchi depth and is related to water turbidity. Since its invention, the disk has also been used in a modified, smaller 20 cm (8 in) diameter, black and white design to measure freshwater transparency.
Wikipedia
date 2018
July 05
time, 14:09
Specific clarificationThere are some common situations where use of a more specific clarification template might make the desired clarification clearer. A common case is an article citing a scientific measurement without indicating how the measurement was taken. For example, the following statement about solar intensity at the earth's surface without specifying the sun's elevation could be annotated with the following tag:
- The following tag links to a Wikipedia project to clear bias based on the source of the information:
from:
en.wiktionary.org/wiki/qualification#English
date 2018
July 05
time, 14:02
Noun[edit]qualification (countable and uncountable, plural qualifications)
- A clause or condition which qualifies something; a modification, a limitation. [from 16th c.]
I accept your offer, but with the following qualification. - The act or process of qualifying for a position, achievement etc. [from 16th c.]
Qualification for this organization is extraordinarily difficult. - (obsolete) A quality or attribute. [17th-19th c.] quotations ▼
- An ability or attribute that aids someone's chances of qualifying for something; specifically, completed professional training. [from 17th c.]
What are your qualifications for this job?
from:
en.wikipedia.org/wiki/Underwater_vision
date 2018
July 05
time, 14:14
as related to UNDERWATER CLARITY as VISION in water.
Underwater, things are less visible because of lower levels of natural illumination caused by rapid attenuation of light with distance passed through the water. They are also blurred by scattering of light between the object and the viewer, also resulting in lower contrast. These effects vary with wavelength of the light, and color and turbidity of the water. The vertebrate eye is usually either optimised for underwater vision or air vision, as is the case in the human eye. The visual acuity of the air-optimised eye is severely adversely affected by the difference in refractive index between air and water when immersed in direct contact. Provision of an airspace between the cornea and the water can compensate, but has the side effect of scale and distance distortion. The diver learns to compensate for these distortions. Artificial illumination is effective to improve illumination at short range.[1]
Stereoscopic acuity, the ability to judge relative distances of different objects, is considerably reduced underwater, and this is affected by the field of vision. A narrow field of vision caused by a small viewport in a helmet results in greatly reduced stereoacuity, and associated loss of hand-eye coordination.[1]
At very short range in clear water distance is underestimated, in accordance with magnification due to refraction through the flat lens of the mask, but at greater distances - greater than arm's reach, the distance tends to be overestimated to a degree influenced by turbidity. Both relative and absolute depth perception are reduced underwater. Loss of contrast results in overestimation, and magnification effects account for underestimation at short range.[1]
Divers can to a large extent adapt to these effects over time and with practice.[1]
Light rays bend when they travel from one medium to another; the amount of bending is determined by the refractive indices of the two media. If one medium has a particular curved shape, it functions as a lens. The cornea, humours, and crystalline lens of the eye together form a lens that focuses images on the retina. The human eye is adapted for viewing in air. Water, however, has approximately the same refractive index as the cornea (both about 1.33), effectively eliminating the cornea's focusing properties. When immersed in water, instead of focusing images on the retina, they are focused behind the retina, resulting in an extremely blurred image from hypermetropia.[2]
from
Wikipedia
date 2018
July 05
time, 14:16
The Secchi disk, as created in 1865 by Angelo Secchi, is a plain white, circular disk 30 cm (12 in) in diameter used to measure water transparency or turbidity in bodies of water. The disc is mounted on a pole or line, and lowered slowly down in the water. The depth at which the disk is no longer visible is taken as a measure of the transparency of the water. This measure is known as the Secchi depth and is related to water turbidity. Since its invention, the disk has also been used in a modified, smaller 20 cm (8 in) diameter, black and white design to measure freshwater transparency.
The same SECCHI disc could be used to define the CLARITY of SPACE and ZERO VACUUM as the functions of FREE ENERGY or FLYING SAUCER MECHANISMS.
The facts of the Secchi disc are defined as "underwater" measurements of clarity.
But what happens when they are used in space, in zero gravity and vacuum.
The answer is that the 3 functions of space, zero gravity and vacuum are clarity "ITSELF" so to apply the SECHHI to them would be easy to derive free energy.
The fill of the cylinder for the discs to rotate about some common center may be water=space, while the functions of the vacuum will define the function of the
secchi disc 1 and secchi disc 2 interacting to create the 3 rd as the zero gravity.
So because of these interactions creating each other , they will continue to exchange their results depending on the speed of the whole 3 in the cylinder.
yours sincerily
Henryk Szubinski
date 2018
July 05
time, 14:53