RadicallyBlunt:
"Fucck me welwel"

Lol.... Wetin u con do?

KashyBaby:
Funny words?


Lol...lemme remember first... too many of them.

Come on... Which one comes to mind first? Lets hear it

axeman10:
O n gbonaaaaaa ooooo!!! ( Yoruba for - it's burning down there)

Hahahahaha. Na inside cameroun pepper u put ur rod b4 d action?

Here is mine...happened yesterday

"Mmm. Christy, that feels so good!"

Christy was her own name.

Dear Candidate, Thank you for mailing us. You are advised to be patient as all candidates will be contacted in due course. Also, you are advised to regularly check your status on your scholastica profile for update. Best Regards, Help Desk Officer Tel: +234 708 8609 791 Dragnet Solutions Limited 3rd Floor 'B' Wing, Shippers Towers 4 Otunba Ayodele Soyode Lane, Apapa, Lagos maria@dragnet- solutions.com

Nixiepie:
Lmao,see hairy boobs like tubers of yam

Is ur own beta? Lets see it

BETATRON:
place 3 balls each on each sides of the balance scale ...if the balance scale is in equilibrium then uve gotten the odd ball

But if this is not the case I.e the weighing balance tilts then the lighter should be on the side that tilts upwards...now you take ur second weighing placing one ball each (from the 3 lyter part) on the weighing scale..again if the scale is in equilibrium den the 3rd ball is your lighter ball but if it is not then the side that tilts upwards is ur lighter ball..

Nice one

7 tennis balls are identical in every way, except that one of them weighs slightly less than the other 6. How can you identify the lightweight ball with no more than two separate weighings using a balance scale?

7 tennis balls are identical in every way, except that one of them weighs slightly less than the other 6. How can you identify the lightweight ball with no more than two separate weighings using a balance scale?

ireneony:
Kenya people are sex starved They can screw anything unscrewable

Sign of healthy living

ireneony:
Kenya people are sex starved They can screw anything unscrewable

Sign of healthy living

aragon4realz:
you watch too much TV or should I say too much sci fi movies

Dont b sceptical. Everytin is possible

kelvinchristus:
Just here to help those who have been trying to get the confirmation code, I will advice you to use your normal phone internet browser if you can't get a cyber cafe close to you. Avoid using opera mini, uc browser and the likes. These browsers doesn't support java scripts to some extents and so, you may have difficulties while applying. Moreover, I tried applying like for 15times with both gmail and yahoo mail. But I will advised using yahoo mail, never give up trying, after waiting for more than 30mins and you didn't get a confirmation mail, try ones again. The simple trick I used was to apply, after they said I will receive a confirmation mail soon, I just turn off my network for 5mins and gbam! The mail came in. Then another stumbling block was receiving the confirmation mail for successful submission of my application, the trick is don't submit right away, just save your application and type your mail in the box, you will receive the link in about 20mins time. ASAP click the link, rush down to submit, that's it. So simple. Good luck to us!

If u r having issues abt confirmation email, follow dis dude step. Dats how I did mine. Got mine with my first try.

D main tin to knw is after filling d application, dont submit, jux click save. Den input ur email to receive d saved application link. Wen u receive d link in ur email, click it, wen it opens click submit. It should come automatically. Thank me later and dnt pay anybody any shit.

IamAtribalist:


Same thing. You've heard of the '3' PHASE of matter - solid, liquid and gas. In actuality there is also the PLASMA phase.

I believe dey r quite different and misinterpreted in nigeria.

A phase is a region with uniform chemical
and physical properties and is separated by
distinguishable boundaries.
• States of matter are the forms in which
different phases can exist. Solid, liquid and gas
are the most common states of matter on
earth.
• In one state of matter, many forms of phases
can exist. For example consider the bottle with
gasoline and water. Both are in a liquid state,
but in different phases. The same concept can
be applied to solids, though the gasses tend to
violate this, but not explicitly.

IamAtribalist:
Pressure induced Phase Transition techniques are very common in Solid State research.

Phase u say. Not state of matter

Using metallic osmium (Os) in experimentation, an international group of researchers have demonstrated that ultra-high pressures cause core electrons to interplay, which results in experimentally observed anomalies in the compression behavior of the material. Os is one of Earth's most exceptional elemental materials, possessing the highest known density at ambient pressure, one of the highest cohesive energies and melting temperatures, and an incompressibility that is almost comparable to that of diamond. Researchers believe that the ability to affect core electrons – which do not participate in chemical bonding – in metals like osmium will open new opportunities in the search for new states of matter and the synthesis of materials with unique properties that do not exist at ambient conditions. "The international research team employed extreme conditions that generated a measurable change in osmium's high pressure behavior," said Vitali Prakapenka, a scientist at the University of Chicago's GeoSoilEnviros Center for Advanced Radiation Sources (GSECARS) beamline at the Advanced Photon Source (APS), a U.S. Department of Energy's (DOE) Office of Science User Facility at DOE's Argonne National Laboratory. "Although the theoretically predicted electronic transition that involves pressure- induced interaction between core (inner) electrons is much weaker than typical structural changes associated with valence (outer) electrons, we were able to detect experimentally changes in properties of this highly-compressed material which are related to the predicted phenomenon," said Leonid Dubrovinsky of the Bayerisches Geoinstitut (BGI) at Bayreuth University in Germany. "We used micro-anvils made of super hard nano-diamond to generate 770 gigapascals of pressure (more than 7 million of atmospheres, i.e. twice that of the center of the Earth) on the osmium sample," BGI's Natalia Dubrovinskaia said. The device for generating ultra-high static pressures – a two-stage diamond anvil cell – was developed by Dubrovinsky and Dubrovinskaia, who published this research technique in 2012. A schematic of the pressure chamber of the double-stage diamond anvil cell (dsDAC) for ultra-high pressure generation and a photo of a DAC produced at BGI. Semi-balls made of nanocrystalline diamond of extraordinary strength are attached to the culets of the opposed gem quality diamonds of the DAC. A sample of osmium, shown as a small red dot on the top of the lower semi-ball, has a size of ca. 3 microns. It is compressed between the tips of the semi-balls, which are supported by a pressure-medium (solidified inert gases or paraffin) filling the pressure chamber of the DAC. Ultra-high pressure is generated on the sample due to the two-stage exertion of a big force on a very small area. The diameter of the semi-balls is about 10 microns. The diameter of culets of the diamonds, to which the semi- balls are attached, is 250 microns. Credit: Elena Bykova, University of Bayreuth "Measuring the effect of ultra-high pressure required very accurate structural X-ray diffraction experiments to reveal the anomalous behavior of the lattice parameters upon compression," Prakapenka said. "We used state-of-the-art synchrotron techniques capable of penetrating bulky pressure vessels to probe tiny samples with a typical size of around 1-4 microns. We have used a very intense tightly focused high-energy X-ray beam that is only available at third-generation synchrotron facilities." The research is detailed in the paper "The most incompressible metal osmium at static pressure above 750 gigapascals," published in Nature .

The posters above me are arts students

In the list of crazy hypothetical ideas, terraforming the sun has to be one of the top 10. So just how would someone go about doing terraforming our sun, a star, if they wanted to try? In our series on terraforming other worlds. We've covered Mars, Venus, the Moon and Jupiter. Even though I solved the problem of how to terraform Jupiter (you're welcome, science), you wanted to take things to the next level and you demanded I sort out how to terraform the sun . Seriously? The sun. Fine… here we go. Let's see what we've got to work with here. It's a massive ball of plasma, containing 333,000 times more mass than the Earth. It's about 74% hydrogen and 25% helium with a few other trace elements. There's no solid surface to stand on it, so we need to fix that. The average temperature on the surface of the sun is about 5,500 Celsius, while the average temperature on Earth is about 15 C. Iron boils at only 2,800 degrees, so… that's probably too hot. We'll need to cool it down. The gravity on the surface of the sun is 28 times the gravity of Earth. If you could stand on the surface of the sun, which you can't, you'd be crushed flat. Okay, so we'll add reduce the gravity… check. There's no breathable atmosphere, there's no solid ground, the sun generates deadly X-rays. Oh, and don't forget about the terrible sunburns from the ultraviolet radiation.
So, what's the list? Hot fire unbreathable pressure cooker goo surface gravity crushing machine. Sounds impossible, or does it? First, the gas. As we covered in a previous episode, scientists have actually considered ways that you might extract the hydrogen and helium off of a star like the sun, known as "stellar lifting". There are a few ways you could work this. You could zap the surface of the sun with a powerful laser, increasing the speed of solar wind in that area, forcing the sun to throw its mass off into space. Another method is to set up powerful magnetic fields around the sun's poles, and channel its hydrogen into jets that blast out into space. I'm not sure how you actually set up those magnetic fields, but that's not my problem. Once you're done with the sun, you've stripped away all its hydrogen and helium gas. What are you left with? About 5,600 times the mass of the Earth in heavier elements, like oxygen, silicon, gold, etc. Great! Except 5,600 sounds like a lot. Jupiter is only 316 times the mass of the Earth. We're looking to reform a "planet" with more than 10 times the mass of Jupiter. And not only that, but we had to kill the sun to make this work. You monsters. This is a terrible idea. What else could we do? If you're a science fiction fan, you've heard of a Dyson sphere. If not, you've got some TNG to catch up on. First proposed by Freeman Dyson, you cover an entire sun in a metal ball. Instead of the measly amount of energy that falls on Earth, this would allow you to capture 100% of the energy released by the sun: 384 yottawatts. According to Dyson and a variety of matheletes, you could dismantle all planets in the solar system and build a sphere at a distance of 1 Earth radii at 8 to 20 centimeters thick. That would give you a surface area 550 million times more than the Earth. Although, building an actual rigid sphere is probably unfeasible because it would be pretty unstable and eventually collapse. It probably makes more sense to build a swarm of satellites surrounding the sun, capturing its energy. Source:: Universe Today

What will you do if I give you #30000 right now?

the post above me tho

Teempakguy:
hey there! I'm feeling fly actually.

What you just said above is very elementary quantum mechanics. Just forget that one here. here we are dealing with another aspect called quantum entanglement.

Which basically means that two particles are connected in such a way that action on one affects the other simultaneously. Now in physics, we ask why. What is sending information from one to the other. Or, are they just AWARE of one another?

Of course we found that basically nothing was being exchanged between the, and that has made many physicists very angry and frustrated. Including me.

So we'be all been trying to prove this wrong, that something else must be going on. And these mumu scientists just spoiled our ministry.

Quite right sir.

https://www.nairaland.com/2561862/ashely-madison-hack-400-church

Ashely Madison Hack: 400 Church Leaders Will Resign On Sunday

The Ashley Madison hack will have a
serious effect on churches. According to Ed
Stetzer, as many as 400 pastors, deacons,
elders and church staff members may resign
this Sunday after their names surfaced on
the list of users revealed in the Ashley
Madison hack.
In a post on his Christianity Today blog, The
Exchange, Stetzer said the number is based
on “conversations with leaders from several
denominations in the U.S. and Canada,”
adding, “To be honest, the number of
pastors and church leaders on Ashley
Madison is much lower than the number of
those looking to have an affair.” Along with
being a contributing editor for CT , author
and professor, Stetzer is the executive
director of LifeWay Research, and a well-
regarded expert on church leadership. He is
also the executive editor of the Christian
leadership publication Facts & Trends. All
that to say, Stetzer is well-informed, and his
number is likely accurate. Former social
conservative lobbyist and Christian reality
TV star Josh Duggar and Christian vlogger
Sam Rader recently released their own
statements, acknowledging that they were
both users of the site, which facilitates
adultery.

http://www.relevantmagazine.com/slices/expert-400-church-leaders-will-resign-sunday-because-names-surfaced-ashley-madison-hack

MrsPhyno:
See this one above me o what is he feeling like

In quantum mechanics, objects can be in
multiple states simultaneously

I thought that in quantum mechanics - even tho this is what i learned in chem tho im not sure how/if it applies in physics - energies/electrons have quantized energies and can only make jumps (quantum leaps) between states no simultaneous or inbetween ish

Did u jux quote sec physics?

Smoking marijuana more than once a week may lower men's sperm counts by about a third, according to a new study. Researchers found that the men in the study who smoked marijuana more than once a week had sperm counts that were 29 percent lower, on average, than those who did not smoke marijuana , or used the drug less frequently. The researchers thought that amount of reduction in sperm count "was quite a lot," said study author Tina Kold Jensen, of the University of Copenhagen in Denmark. They also found that the sperm concentrations (which is measured slightly differently than sperm count) were 28 percent lower in the men who smoked marijuana more than once a week. It is not clear why marijuana use may decrease a man's sperm count and concentration, but it may have something to do with how THC — marijuana's psychoactive ingredient — interacts with certain receptors in the testes, the researchers said. In the study, the researchers asked 1,215 Danish men ages 18 to 28 whether they used marijuana and other drugs like amphetamine, ecstasy and cocaine within the past three months, and if so, how often. [11 Odd Facts About Marijuana ] The researchers also collect semen samples, to measure the men's sperm counts and concentrations. About 45 percent of the men in the study said they had smoked marijuana in the past three months. About 10 percent of the study participants had used marijuana as well as recreational drugs during this time. Moreover, in the men in the study who smoked marijuana and used other recreational drugs, the sperm counts were reduced by 55 percent, and the sperm concentrations were reduced by 52 percent, compared with men who hadn't used the drugs. The researchers found that the men who had smoked marijuana in the past three months were also more likely to smoke cigarettes, and consumed more alcohol and caffeine than those who had not. These lifestyle factors also could have affected the men's sperm levels, so the researchers took them into account, and the link between marijuana and lower sperm levels held. However, the study still does not prove that the drug caused the lower sperm counts, Jensen said. "We cannot exclude the possibility that the men who used marijuana generally have an unhealthier lifestyle and health behavior, which may also affect their semen quality and hormone levels," the researchers said in the study. "It is … important to note that marijuana users were distinct in several ways from nonusers," Dr. Michael L. Eisenberg of Stanford University School of Medicine , who was not involved in the new study, wrote in an editorial accompanying the study in the journal. And although the researchers adjusted for these differences, such as higher rates of cigarette smoking and alcohol consumption, they could have still confounded the potential effects of marijuana on sperm , he wrote. Still, the new study "provides important information for patients and providers regarding the negative association between marijuana use and semen quality," Eisenberg wrote. The study was published Aug. 16 in the American Journal of Epidemiology.

It’s a bad day both for Albert Einstein and for
hackers. The most rigorous test of quantum
theory ever carried out has confirmed that the
‘spooky action at a distance’ that the German
physicist famously hated — in which
manipulating one object instantaneously seems
to affect another, far away one — is an
inherent part of the quantum world.
The experiment, performed in the Netherlands,
could be the final nail in the coffin for models
of the atomic world that are more intuitive
than standard quantum mechanics, say some
physicists. It could also enable quantum
engineers to develop a new suite of ultrasecure
cryptographic devices.
“From a fundamental point of view, this is
truly history-making,” says Nicolas Gisin, a
quantum physicist at the University of Geneva
in Switzerland.
Einstein’s annoyance
In quantum mechanics, objects can be in
multiple states simultaneously: for example, an
atom can be in two places, or spin in opposite
directions, at once. Measuring an object forces
it to snap into a well-defined state.
Furthermore, the properties of different
objects can become ‘entangled’, meaning that
their states are linked: when a property of one
such object is measured, the properties of all
its entangled twins become set, too.
This idea galled Einstein because it seemed that
this ghostly influence would be transmitted
instantaneously between even vastly separated
but entangled particles — implying that it
could contravene the universal rule that
nothing can travel faster than the speed of
light. He proposed that quantum particles do
have set properties before they are measured,
called hidden variables. And even though those
variable cannot be access, he suggested that
they pre-program entangled particles to
behave in correlated ways.
In the 1960s, Irish physicist John Bell
proposed a test that could discriminate
between Einstein’s hidden variables and the
spooky interpretation of quantum mechanics.
He calculated that hidden variables can explain
correlations only up to some maximum limit.
If that level is exceeded, then Einstein’s model
must be wrong.
The first Bell test was carried out in 1981, by
Alain Aspect’s team at the Institute of Optics in
Palaiseau, France. Many more have been
performed since, always coming down on the
side of spookiness — but each of those
experiments has had loopholes that meant that
physicists have never been able to fully close
the door on Einstein’s view. Experiments that
use entangled photons are prone to the
‘detection loophole’: not all photons produced
in the experiment are detected, and sometimes
as many as 80% are lost. Experimenters
therefore have to assume that the properties
of the photons they capture are representative
of the entire set.
To get around the detection loophole,
physicists often use particles that are easier to
keep track of than photons, such as atoms. But
it is tough to separate distant atoms apart
without destroying their entanglement. This
opens the ‘communication loophole’: if the
entangled atoms are too close together, then,
in principle, measurements made on one could
affect the other without violating the speed-of-
light limit.
Entanglement swapping
In the latest paper, which was submitted to the
arXiv preprint repository on August 24 and has
not yet been peer reviewed, a team led by
Ronald Hanson of Delft University of
Technology reports the first Bell experiment
that closes both the detection and the
communication loopholes. The team used a
cunning technique called entanglement
swapping to combine the benefits of using
both light and matter. The researchers started
with two unentangled electrons sitting in
diamond crystals held in different labs on the
Delft campus, 1.3 kilometers apart. Each
electron was individually entangled with a
photon, and both of those photons were then
zipped to a third location. There, the two
photons were entangled with each other — and
this caused both their partner electrons to
become entangled, too.

This did not work every time. In total, the
team managed to generate 245 entangled pairs
of electrons over the course of nine days. The
team's measurements exceeded Bell’s bound,
once again supporting the standard quantum
view. Moreover, the experiment closed both
loopholes at once: because the electrons were
easy to monitor, the detection loophole was
not an issue, and they were separated far
enough apart to close the communication
loophole, too.
“It is a truly ingenious and beautiful
experiment,” says Anton Zeilinger, a physicist
at the Vienna Centre for Quantum Science and
Technology.
“I wouldn’t be surprised if in the next few
years we see one of the authors of this paper,
along with some of the older experiments,
Aspect’s and others, named on a Nobel prize,”
says Matthew Leifer, a quantum physicist at
the Perimeter Institute in Waterloo for
Theoretical Physics, Ontario. “It’s that
exciting.”
A loophole-free Bell test also has crucial
implications for quantum cryptography, says
Leifer. Companies already sell systems that use
quantum mechanics to block eavesdroppers.
The systems produce entangled pairs of
photons, sending one photon in each pair to
the first user and the other photon to the
second user. The two users then turn these
photons into a cryptographic key that only
they know. Because observing a quantum
system disrupts its properties, if someone tries
to eavesdrop on this process it will produce a
noticeable effect, setting off an alarm.
The final chink
But loopholes, and the detection loophole in
particular, leave the door open to
sophisticated eavesdroppers. Through this
loophole, malicious companies could sell
devices that fool users into thinking that they
are getting quantum-entangled particles, while
they are instead being given keys that the
company can use to spy on them. In 1991,
quantum physicist Artur Ekert observed that
integrating a Bell test into the cryptographic
system also would ensure that the system uses
a genuine quantum process. For this to be
valid, however, the Bell test must be free of
any loopholes that a hacker could exploit. The
Delft experiment “is the final proof that
quantum cryptography can be unconditionally
secure”, Zeilinger says.
In practice, however, the entanglement-
swapping idea will be hard to implement. The
team took more than week to generate a few
hundred entangled electron pairs, whereas
generating a quantum key would require
thousands of bits to be processed per minute,
points out Gisin, who is a co-founder of the
quantum cryptographic company ID Quantique
in Geneva.
Zeilinger also notes that there remains one last,
somewhat philosophical loophole, first
identified by Bell himself: the possibility that
hidden variables could somehow manipulate
the experimenters’ choices of what properties
to measure, tricking them into thinking
quantum theory is correct.
Leifer is less troubled by this ‘freedom-of-
choice loophole’, however. “It could be that
there is some kind of superdeterminism, so
that the choice of measurement settings was
determined at the Big Bang,” he says. “We can
never prove that is not the case, so I think it’s
fair to say that most physicists don’t worry too
much about this.”

http://www.scientificamerican.com/article/quantum-spookiness-passes-toughest-test-yet/

INTROVERT:
ayyya... was the car moving

No it was jogging......

Of Course it was moving

Today, at a motor park in onitsha on my way to zaria, I noticed dis young boy begging. What really caught my attention was his style of begging. He was begging wit a local fuel tanker he constructed using cardboard paper, bathroom slippers cutout and some electric batteries.

People at the bank were preety amazed and were giving him money.

I couldnt help but wonder what that young man could have acheived or will acheive if afforded d proper education, or if he will turn out as another local mechanic.

Nigeria system rewards cramming, and lets d creatiive roam around.

I pray our system changes while am alive.

Cc lalasticalala

Good day nairalanders.

UNIZIK

I think the worst xtics of my school is d transportation. Rubbish buses that God knows where they were picked from.
Dilapidated roads especially those in science village.
God help u if u hav exam by 8 and u choose to go to school by 8....u willl look for bus like a lukman.