GooGle

Conferencia en Texas (Irving). “El Cinturón de Orion” 1- 2 -3

hypnotic-spiral-picture

Orión, (el Cazador), es una constelación prominente, quizás la más conocida del cielo. Sus estrellas brillantes y visibles desde ambos hemisferios hacen que esta constelación sea reconocida mundialmente. La constelación es visible a lo largo de toda la noche durante el invierno en el hemisferio norte, verano en hemisferio sur; es asimismo visible pocas horas antes del amanecer desde finales del mes de agosto hasta mediados de noviembre y puede verse en el cielo nocturno hasta mediados de abril. Orión se encuentra cerca de la constelación del río Eridanus y apoyado por sus dos perros de caza Canis Maior y Canis Minor peleando con la constelación del Tauro.

 

Orión - Constelación

Orión – Constelación

Espiral Durero

Espiral Durero

Zoom into the Orion Nebula

 

 

La Teoría de Correlación de Orión u OCT (siglas iniciales de Orion correlation theory en inglés) es una hipótesis formulada por Robert Bauval y Adrian Gilbert publicada por primera vez en 1989 en el volumen 13 deDiscussions in Egyptology, y desarrollada a mediados de los años 90, en el libro The Orion Mystery, Unlocking the Secrets of the Pyramids (El Misterio de Orión, descubriendo los secretos de las pirámides). En 1994, la BBC la llevó a la televisión en el documental The Great Pyramid: Gateway to the Stars, con el que alcanzó gran repercusión.

Esquema estelar de la constelación de Orión (Osiris). Puede observarse elCinturón de Orión orientado con sus estrellas extremas hacia Sirio (IsisSothis) y Aldebarán.

Representación gráfica de las tres pirámides de Guiza según la teoría de la correlación de Orión.

Su tesis central afirma que existe una correlación entre el emplazamiento de las 3 pirámides de la meseta de Giza y la ubicación de las tres estrellas centrales del cinturón de Orión, y que esta correlación fue deliberadamente buscada por los constructores de las pirámides, al considerar que estas enormes construcciones orientadas hacia las estrellas (dioses) facilitaban el paso de los faraones a una vida después de la muerte, de acuerdo a la religión del Antiguo Egipto. Hay teorías que aseguran que los verdaderos artíficies y constructores de las pirámides fueron unos dioses de una civilización tecnológicamente muy avanzada para la época, que se les conoce en la Biblia con el nombre de Nefilim, así como Anunnakis en la mitología babilónica y sumeria.

Orientaciones de los llamados canales de ventilación de la gran pirámide: Alfa Draconis, Osa Menor, Orión y Sirio.

Orientaciones de los llamados canales de ventilación de la gran pirámide: Alfa Draconis, Osa Menor, Orión y Sirio.

Teoría de la correlación de Orión (Pirámides)

 

Conferencia en Texas (Irving). “Orion” 1ª Parte

Conferencia en Texas (Irving). “El Cinturón de Orion” 2ª Parte

Conferencia en Texas (Irving). “Orion Pináculo” 3ª Parte

Leary

Leary

Katy Perry – Dark Horse (Official) ft. Juicy J

800px-Flag_of_the_Syriac-Aramaic_People.svg

Una Nueva Religión traerá al AntiCristo

666

666

 

#11 GooGle #policies #terms #changes #updates 11 de octubre de 2013

Actualización de las Condiciones de servicio

11 de octubre de 2013

#11 Goomagle

#11 Goomagle

Estamos actualizando las Condiciones de servicio de Google. Las nuevas Condiciones se publicarán el 11 de noviembre de 2013 y se podrán consultar en esta página.

Como sabemos que muchos de vosotros sois alérgicos a los textos legales, a continuación ofrecemos un resumen con un lenguaje sencillo.

Hemos realizado tres cambios:

  • En primer lugar, hemos aclarado cómo pueden aparecer el nombre y la foto de tu perfil en los productos de Google (incluidos anuncios, reseñas y otros contextos comerciales).
  • En segundo lugar, hemos incorporado un recordatorio para que utilices tus dispositivos móviles de forma segura.
  • En tercer lugar, hemos añadido información sobre la importancia de que mantengas la confidencialidad de tu contraseña.

A continuación, se muestran algunos detalles más:

https://www.google.com/intl/es/policies/terms/changes/

https://www.google.com/intl/es/policies/terms/update/

Google Evil

Google Evil

#11 maquinación numerica

#11 maquinación numerica

 

 

What’s changing?

I mentioned three components to the new TOS, but there’s really only one thing that’s changing here; two out of three components are general safety and security reminders.

In the first place, Google will now display shared endorsements including your profile name and picture to people with whom you share content (connections in Google+ for instance).

This means if you rated, followed, or reviewed a business, your connections might see an ad for this establishment which includes your name, picture and what you thought of it.

Google stresses that “you’re in control of what you share” and explains how you can turn this offin ads if you’re uncomfortable with the notion (they do state this “doesn’t change whether your Profile name or photo may be used in other places such as Google Play.”) The TOS change does not apply to users who already turned this setting off; it will remain off.

Secondly, Google provides a tip to “use your mobile devices safely.” Essentially, this boils down to “Don’t go online while driving” and “obey the law.” Somehow I find this one akin to the disclaimer at the bottom of beer billboards that reads “Please drink responsibly.”

Lastly, Google offers some advice on password management, why you shouldn’t share your password, how they can alert you to unusual activity, and some steps on how to use 2-step authentication and application specific passwords.

 

Richter magnitudes

The Richter magnitude of an earthquake is determined from the logarithm of the amplitude of waves recorded by seismographs (adjustments are included to compensate for the variation in the distance between the various seismographs and theepicenter of the earthquake). The original formula is:[15]

M_\mathrm{L} = \log_{10} A - \log_{10} A_\mathrm{0}(\delta) = \log_{10} [A / A_\mathrm{0}(\delta)],\

where A is the maximum excursion of the Wood-Anderson seismograph, the empirical function A0 depends only on the epicentral distance of the station, \delta. In practice, readings from all observing stations are averaged after adjustment with station-specific corrections to obtain the ML value.

Because of the logarithmic basis of the scale, each whole number increase in magnitude represents a tenfold increase in measured amplitude; in terms of energy, each whole number increase corresponds to an increase of about 31.6 times the amount of energy released, and each increase of 0.2 corresponds to a doubling of the energy released.

Events with magnitudes greater than 4.5 are strong enough to be recorded by a seismograph anywhere in the world, so long as its sensors are not located in the earthquake’s shadow.

The following describes the typical effects of earthquakes of various magnitudes near the epicenter. The values are typical only and should be taken with extreme caution, since intensity and thus ground effects depend not only on the magnitude, but also on the distance to the epicenter, the depth of the earthquake’s focus beneath the epicenter, the location of the epicenter and geological conditions (certain terrains can amplify seismic signals).

Magnitude Description Mercalli intensity Average earthquake effects Average frequency of occurrence (estimated)
Less than 2.0 Micro I Microearthquakes, not felt, or felt rarely by sensitive people. Recorded by seismographs.[16] Continual/several million per year
2.0–2.9 Minor I to II Felt slightly by some people. No damage to buildings. Over one million per year
3.0–3.9 II to IV Often felt by people, but very rarely causes damage. Shaking of indoor objects can be noticeable. Over 100,000 per year
4.0–4.9 Light IV to VI Noticeable shaking of indoor objects and rattling noises. Felt by most people in the affected area. Slightly felt outside. Generally causes none to minimal damage. Moderate to significant damage very unlikely. Some objects may fall off shelves or be knocked over. 10,000 to 15,000 per year
5.0–5.9 Moderate VI to VIII Can cause damage of varying severity to poorly constructed buildings. At most, none to slight damage to all other buildings. Felt by everyone. Casualties range from none to a few. 1,000 to 1,500 per year
6.0–6.9 Strong VII to X Damage to a moderate number of well built structures in populated areas. Earthquake-resistant structures survive with slight to moderate damage. Poorly-designed structures receive moderate to severe damage. Felt in wider areas; up to hundreds of miles/kilometers from the epicenter. Strong to violent shaking in epicentral area. Death toll ranges from none to 25,000. 100 to 150 per year
7.0–7.9 Major VIII or greater[17] Causes damage to most buildings, some to partially or completely collapse or receive severe damage. Well-designed structures are likely to receive damage. Felt across great distances with major damage mostly limited to 250 km from epicenter. Death toll ranges from none to 250,000. 10 to 20 per year
8.0–8.9 Great Major damage to buildings, structures likely to be destroyed. Will cause moderate to heavy damage to sturdy or earthquake-resistant buildings. Damaging in large areas. Felt in extremely large regions. Death toll ranges from 1,000 to 1 million. One per year
9.0 and greater Near or at total destruction – severe damage or collapse to all buildings. Heavy damage and shaking extends to distant locations. Permanent changes in ground topography. Death toll usually over 50,000. One per 10 to 50 years

(Based on U.S. Geological Survey documents.)[18]

The intensity and death toll depend on several factors (earthquake depth, epicenter location, population density, to name a few) and can vary widely.

Minor earthquakes occur every day and hour. On the other hand, great earthquakes occur once a year, on average. The largest recorded earthquake was the Great Chilean Earthquake of May 22, 1960, which had a magnitude of 9.5 on the moment magnitude scale.[19] The larger the magnitude, the less frequent the earthquake happens.

metronome

metronome