₦airaland Forum

Photo taken by me with infinix s5

Shared rooms in a serene environment in Adeniyi jones, ikeja!!!

.24 HOURS POWER supply
.Proximity to every location
.Clean and adequate water supply.
.Security
.Cleaners
.gardening services

Room ensuite 1 : 600k, service charge: 100k.
Total: 700k

Room 2 and 3: 550k service charge: 92k.
Total cost: 642k

Room 4: 440k service charge: 74,520.
Total cost: 514,520

Bq ( room 5) 250k service charge: 41,880.

Total: 291,880


NOTE: NO AGENCY FEE !!!!
NO LEGAL FEE !!!
NO CAUTION FEE!!!

Delete this oo

I wanna get any of the S series and is in a fix over which one i should get between the infinix S5 or Infinix S5lite

what is the major icebreaker for them ?

Oga you no win simple and short /

Stop playing the victim here. Like the person above said you re simply annoyed but should calm down and understand why first.
I can imagine how you will look if you later found out you truly didn't win..

Oga you no win simple and short /

Stop playing the victim here. Like the person above said you re simply annoyed but should calm down and understand why first.
I can imagine how you will look if you later found out you truly didn't win.

The functions are obviously important

I HEARD IT HAS 6gb ram NOT 4 GB AS YOU WROTE HERE.

Proximity sensors detect the presence or absence of objects using electromagnetic fields, light, and sound. There are many types, each suited to specific applications and environments.

Inductive sensors

These non-contact proximity sensors detect ferrous targets, ideally mild steel thicker than one millimeter. They consist of four major components: a ferrite core with coils, an oscillator, a Schmitt trigger, and an output amplifier. The oscillator creates a symmetrical, oscillating magnetic field that radiates from the ferrite core and coil array at the sensing face. When a ferrous target enters this magnetic field, small independent electrical currents called eddy currents are induced on the metal’s surface. This changes the reluctance (natural frequency) of the magnetic circuit, which in turn reduces the oscillation amplitude. As more metal enters the sensing field the oscillation amplitude shrinks, and eventually collapses. (This is the “Eddy Current Killed Oscillator” or ECKO principle.) The Schmitt trigger responds to these amplitude changes, and adjusts sensor output. When the target finally moves from the sensor’s range, the circuit begins to oscillate again, and the Schmitt trigger returns the sensor to its previous output.

If the sensor has a normally open configuration, its output is an on signal when the target enters the sensing zone. With normally closed, its output is an off signal with the target present. Output is then read by an external control unit (e.g. PLC, motion controller, smart drive) that converts the sensor on and off states into useable information. Inductive sensors are typically rated by frequency, or on/off cycles per second. Their speeds range from 10 to 20 Hz in ac, or 500 Hz to 5 kHz in dc. Because of magnetic field limitations, inductive sensors have a relatively narrow sensing range — from fractions of millimeters to 60 mm on average — though longer-range specialty products are available.
But what inductive sensors lack in range, they make up in environment adaptability and metal-sensing versatility. With no moving parts to wear, proper setup guarantees long life. Special designs with IP ratings of 67 and higher are capable of withstanding the buildup of contaminants such as cutting fluids, grease, and non-metallic dust, both in the air and on the sensor itself. It should be noted that metallic contaminants (e.g. filings from cutting applications) sometimes affect the sensor’s performance. Inductive sensor housing is typically nickel-plated brass, stainless steel, or PBT plastic.

Capacitive sensors

Capacitive proximity sensors can detect both metallic and non-metallic targets in powder, granulate, liquid, and solid form. This, along with their ability to sense through nonferrous materials, makes them ideal for sight glass monitoring, tank liquid level detection, and hopper powder level recognition.

In capacitive sensors, the two conduction plates (at different potentials) are housed in the sensing head and positioned to operate like an open capacitor. Air acts as an insulator; at rest there is little capacitance between the two plates. Like inductive sensors, these plates are linked to an oscillator, a Schmitt trigger, and an output amplifier. As a target enters the sensing zone the capacitance of the two plates increases, causing oscillator amplitude change, in turn changing the Schmitt trigger state, and creating an output signal. Note the difference between the inductive and capacitive sensors: inductive sensors oscillate until the target is present and capacitive sensors oscillate when the target is present.
Because capacitive sensing involves charging plates, it is somewhat slower than inductive sensing ... ranging from 10 to 50 Hz, with a sensing scope from 3 to 60 mm. Many housing styles are available; common diameters range from 12 to 60 mm in shielded and unshielded mounting versions
Photoelectric sensors
Photoelectric sensors are so versatile that they solve the bulk of problems put to industrial sensing. Because photoelectric technology has so rapidly advanced, they now commonly detect targets less than 1 mm in diameter, or from 60 m away. Classified by the method in which light is emitted and delivered to the receiver, many photoelectric configurations are available. However, all photoelectric sensors consist of a few of basic components: each has an emitter light source (Light Emitting Diode, laser diode), a photodiode or phototransistor receiver to detect emitted light, and supporting electronics designed to amplify the receiver signal. The emitter, sometimes called the sender, transmits a beam of either visible or infrared light to the detecting receiver.
All photoelectric sensors operate under similar principles. Identifying their output is thus made easy; darkon and light-on classifications refer to light reception and sensor output activity. If output is produced when no lig

Through-beam

The most reliable photoelectric sensing is with through-beam sensors. Separated from the receiver by a separate housing, the emitter provides a constant beam of light; detection occurs when an object passing between the two breaks the beam. Despite its reliability, through-beam is the least popular photoelectric setup. The purchase, installation, and alignment

of the emitter and receiver in two opposing locations, which may be quite a distance apart, are costly and laborious. With newly developed designs, through-beam photoelectric se

nsors typically offer the longest sensing distance of photoelectric sensors — 25 m and over is now commonplace. New laser diode emitter models can transmit a well-collimated beam 60 m for increased accuracy and detection. At these distances, some through-beam laser sensors are capable of detecting an object the size of a fly; at close range, that becomes 0.01 mm. But while these laser sensors increase precision, response speed is the same as with non-laser sensors — typically around 500 Hz.

One ability unique to throughbeam photoelectric sensors is effective sensing in the presence of thick airborne contaminants. If pollutants build up directly on the emitter or receiver, there is a higher probability of false triggering. However, some manufacturers now incorporate alarm outputs into the sensor’s circuitry that monitor the amount of light hitting the receiver. If detected light decreases to a specified level without a target in place, the sensor sends a warning by means of a builtin LED or output wire.

Through-beam photoelectric sensors have commercial and industrial.benefit.

Retro-reflective

Retro-reflective sensors have the next longest photoelectric sensing distance, with some units capable of monitoring ranges up to 10 m. Operating similar to through-beam sensors without reaching the same sensing distances, output occurs when a constant beam is broken. But instead of separate housings for emitter and receiver, both are located in the same housing, facing the same direction. The emitter produces a laser, infrared, or visible light beam and projects it towards a specially designed reflector, which then deflects the beam back to the receiver. Detection occurs when the light path is broken or otherwise disturbed.
Some manufacturers have addressed this problem with polarization filtering, which allows detection of light only from specially designed reflectors ... and not erroneous target reflections.

Diffuse

As in retro-reflective sensors, diffuse sensor emitters and receivers are located in the same housing. But the target acts as the reflector, so that detection is of light reflected off the disturbance object. The emitter sends out a beam of light (most often a pulsed infrared, visible red, or laser) that diffuses in all directions, filling a detection area. The target then enters the area and deflects part of the beam back to the receiver. Detection occurs and output is turned on or off (depending upon whether the sensor is light-on or dark-on) when sufficient light falls on the reciever

Ultrasonic sensors
The most common configurations are the same as in photoelectric sensing: through beam, retro-reflective, and diffuse versions. Ultrasonic diffuse proximity sensors employ a sonic transducer, which emits a series of sonic pulses, then listens for their return from the reflecting target. Once the reflected signal is received, the sensor signals an output to a control device. Sensing ranges extend to 2.5 m. Sensitivity, defined as the time window for listen cycles versus send or chirp cycles, may be adjusted via a teach-in button or potentiometer. While standard diffuse ultrasonic sensors give a simple present/absent output, some produce analog signals, indicating distance with a 4 to 20 mA or 0 to 10 Vdc variable output. This output can easily be converted into useable distance information.

It’s no secret – we all get annoyed by frequent Android updates on our devices. We can all admit that we’ve skipped a system update before or at least postponed it for a week, which turned into two weeks, and so on. However, giving a miss to Android updates is not in any way a smart move. It might seem like you’re saving yourself a minute by clicking that “postpone” button but you’re not doing yourself a favor.

Android updates are there because our devices need them. Hackers and other cybercriminals are always working on improving their shady methods and finding holes in our security system. They often succeed at this mission and cause numerous data breaches and other incidents worldwide.

However, system developers are working at the same time to patch up these holes and fix bugs that might be causing us issues. While they’re putting so much effort in securing our devices, we refuse the help by skipping Android updates. Here’s why you shouldn’t miss an update ever again

http://www.infinix.club/ng/forum/687/972776

Skipping Updates Leaves Your Device Vulnerable

Updates are not only there to deliver new icons and fancy wallpapers to your device. They have an essential purpose in the overall function of the Android system.

Each update improves the system by fixing known vulnerabilities that hackers might be able to track down. If you skip the next update, your device will remain unprotected, becoming vulnerable to cyber attack


Updates Are Easy to Install

Constant notifications about new available updates might be annoying, but once you give that update an approval, the installation will be over before you know it. It’s not like we have to visit a specific site, crack a code and write a three-page essay to get our devices updated. On the contrary, these updates come to us. They’re basically in front of our doors, waiting for us to let them inside.

All you have to do is approve an update, and the device will do the rest on its own. Plus, you can even turn on the auto-update feature. Your phone will update itself at a set time – usually during the night when you’re not using it anyway. Why skip an important update when you can get it over within a minute or two?

Your Device Will Perform Better

Besides improving security, updates fix bugs that slow your device down. If you notice your Android device lagging too often, you’ve probably missed a few updates.

Taking a moment to update your device will make it run smoother. You will no longer have to deal with poor performance or frequent app crashes. Just give the device some time to install an update, and it will perform much better.

You might even notice improvements in the speed of your internet connection, which comes in handy if you’re using a virtual private network application for Android.

You Paid for Them

Would you ever buy something and let it sit somewhere without ever using it again? Probably not, right? So, why should you do the same with Android updates?

When you bought the device, you also paid for a lifetime of system updates from the manufacturer. Skipping them means you’re throwing away something you’ve paid for.

Therefore, instead of giving them a miss, make use of these updates and let them keep your device in optimal health.

Updates Bring New Features

Improved security and faster performance are not the only benefits that come with Android updates. We’ve talked a lot about security here, but updating your device gives you new features as well. These range from new apps and widgets to improved display structures, new fonts, and themes, as well as numerous other applications. Updates often change the appearance of certain apps or locations on your phone.

Conclusion

These were the five most important reasons why you should never skip on a new Android update again. These updates aren’t only made to improve the performance and appearance of the system.

They carry essential changes in the security wall that keeps your data and accounts protected by malware and potential cyber attacks. Let us know in the comments below if you have the bad habit of missing updates! We hope our list of reasons to stop skipping Android updates has made you reconsider it!

bamac:
yes please.

OK WILL BE IN TOUCH

bamac:
Great job henry007.

You can get this device on Jumia now.

Please call/whatsapp on 08091180137 to order from Jumia through a reliable and trustworthy Jumia sales consultant.

jumia abi

guys the long awaited Android 9 pie updates are out on Note 5 ,all you need do is refresh and update X605
How to upgrade Android 9.0 update
To Update your device, Go to Settings from your phone.
• Tap on "About Phone".
• Tap on "System Update".
• Now, tap on "Download and Install".
• Then wait for the download to complete
• Click on install and you are good to go

enjoy hommies

cc: lalasticlala

NOTE 5

toh we don hear

WHERE IS SLIMCASE ?

MeshachMARTINS:
Sell d phone and get something better
Redmi 5plus or note 5 or note 6 pro

which yeye redmi ?

NellyDiva1:
I recently changed my phone screen, since then the brightness quality is low. It's no longer as bright as it used to be. Pls wat can I do

where did you change it ?

Health Benefit: Beans can prevent heart disease

Studies have shown that people who eat more legumes have a lower risk of heart disease, and the phytochemicals found in beans might be partially to thank, since they protect against it.

Health Benefit: Beans can fight cancer

Beans contain a wide range of cancer-fighting plant chemicals, specifically, isoflavones and phytosterols which are associated with reduced cancer risk.

Health Benefit: Beans can lower cholesterol

Beans provide the body with soluble fiber, which plays an important role in controlling blood cholesterol levels. Studies find that about 10 grams of soluble fiber a day—the amount in 1/2 to 1 1/2 cups of navy beans—reduces LDL cholesterol by about 10 percent. Beans also contain saponins and phytosterols, which help lower cholest
A serving of beans will help you feel full more quickly, because the rich fiber content fills your stomach and causes a slower rise in blood sugar. That should stave off hunger longer and give you a steady supply of energy.

Health Benefit: Beans can help manage diabetes

Beans are a diabetes sufferer’s superfood! The balance of complex carbohydrates and protein provides a slow, steady source of glucose instead of the sudden surge that can occur after eating simple carbohydrates.

Health Risk: Beans can cause migraines

Some legumes can trigger migraines or an allergic reaction in some people. If this happens, talk to a doctor and eliminate the culprit from your diet.

Health Risk: Beans can raise blood pressure

If you take a monoamine oxidase (MAO) inhibitor to treat depression, avoid fava beans because they can interact with your medication and raise blood pressure.

Health Risk: Beans can interfere with vitamin absorption

Some beans, like soybeans, contain substances that interfere with the absorption of betacarotene and vitamins B12 and D. The heat from cooking inactivates most of these substances, making vitamin absorption more likely. But it’s still smart to compensate for potential vitamin loss by consuming plenty of fresh fruits and yellow or dark green veggies (to up your betacarotene) and lean meat (for vitamin B12).

Health Risk: Beans can trigger gout

If you suffer from gout, talk to your doctor about your bean consumption. People with gout are often advised to forgo dried peas, beans, lentils, and other legumes because of their high purine content. In susceptible people, purines increase levels of uric acid and can precipitate a gout attack.

Health Risk: Beans can make you gassy

While not technically a health risk, beans can cause an embarrassing flatulence problem, particularly dried beans, lentils, and peas. Help reduce gas production by changing the water several times during the soaking and cooking process, and always rinse canned beans. Adding herbs like lemon balm, fennel, and caraway, or combining cooked legumes with an acidic food, might also help prevent flatulence.

http://www.infinix.club/ng/forum/686/848115

Tarivanessa:
Cool one, lemme go participate.

is it still on

encryptjay:
Yes boss.

tossie101:
SMH for dumb Africans, There is nothing they won't say. Yet they don't produce any.
So infinix can't make call

yeye abeg so siddon

I like the idea of a wide notch screen, since the notch hides screen. this way its easy to see.
nice phone sha

encryptjay:
Black is classy and doesn't draw attention.

very correct my oga, just like black benz

Something big is coming !
This Friday there is something for everyone
including you.

Wisdomkosi:
The leader of the Indigenous People of Biafra, IPOB, Mazi Nnamdi Kanu, yesterday met with the legendary Israeli Flying Aid in Tel Aviv.

Kanu who shared the picture via twitter said Biafrans look forward to working with more Israeli agencies like IFAID.

Below is what he posted via,

“My meeting with the legendary Israeli Flying Aid went well yesterday in Tel Aviv. Received by Maya the COO. Biafrans look forward to working with more Israeli agencies like @ifaid. The cause of justice and aiding those in distress is noble. Elohim bless Israel and Biafra!”

Igbere TV gathered that Israeli Flying Aid (IFA) is a humanitarian NGO, providing life-saving aid and relief to communities affected by natural disaster and human conflict. Their aid is provided without regard to race, religion, sex, nationality, or creed. IFA’s missions are focused on countries that lack diplomatic relations with Israel and countries that deny entry of critically-needed foreign aid following natural disasters and human conflicts.

Source : http://igberetvnews.com/475168/breaking-biafra-nnamdi-kanu-meets-israeli-flying-aid-reveals-next-movephoto/

So the self aclaimed leader of Ipob uses outdated Infinix Hot 5

IKON360:
smart child, so "X" is a word?!

what is it

otabuko:
I'm definitely getting this one.

cool, buy am make we see.

infinix playing with the word X again

sounds like something big