Learn How Brain Tech Is Evolving

VR real­ly needs brain control

We’re already suf­fer­ing from Google and I hope no wants it go furthermore…

This is haram.

i love how enthu­si­as­tic this guys sounds!!!

Scary! For me any­way. Maybe I was born in the wrong century

2:24 So basi­cal­ly, it is able to read our inner voice? That sounds pre­pos­ter­ous, but if it’s true, then that’s extreme­ly ter­i­fy­ing and I refuse to live in a world where any com­pa­ny, gov­ern­ment, or street thug can slap a hel­met on me and have my mind spill any secrets and per­son­al opinions/political views…

We can see a real brain at 0:37. Cool!

CNet is a joke. Stop sup­port­ing them in any way, read­ing any of their stu­pid arti­cles, or watch­ing any of their lame videos. They are con­tact­ing oth­er peo­ples adver­tis­ers in an effort to dam­age them, and are con­vinc­ing adver­tis­ers to pull ads from videos they don’t like.

When will we be able to down­load info into our brains

We are almost there

3‑D print­ed elec­tron­ic mem­branes to pre­vent heart attacks

Fol­low­ing years of clin­i­cal tri­als* – ini­tial­ly in rab­bits and lat­er in humans – a new device is avail­able that can dra­mat­i­cal­ly improve the mon­i­tor­ing and treat­ment of car­diac dis­or­ders. This con­sists of an ultra-thin mem­brane, spe­cial­ly cus­tomised and 3‑D print­ed to exact­ly match the patien­t’s heart shape. Tiny sen­sors embed­ded in a grid of flex­i­ble elec­tron­ics mea­sure pulse, tem­per­a­ture, mechan­i­cal strain and pH lev­el with far greater accu­ra­cy and detail than was pos­si­ble using pre­vi­ous meth­ods. Doc­tors can deter­mine the heart’s over­all health in real-time and pre­dict an impend­ing heart attack before a patient has any phys­i­cal signs – inter­ven­ing when nec­es­sary to pro­vide ther­a­py. The device itself can deliv­er a pulse of elec­tric­i­ty in cas­es of arrhythmia.

This elec­tron­ic mem­brane can be installed in a rel­a­tive­ly non-inva­sive pro­ce­dure, by insert­ing a catheter into a vein beneath the ribs and then open­ing the mesh like an umbrel­la. At present, it is restrict­ed to the exte­ri­or sur­face of the heart. How­ev­er, new and more advanced ver­sions are now being devel­oped that will go direct­ly inside the heart to treat a vari­ety of dis­or­ders – includ­ing atri­al fib­ril­la­tion, which affects 2.5 mil­lion U.S. adults and 4.5 mil­lion peo­ple liv­ing in the EU, accounts for one-third of hos­pi­tal­i­sa­tions for car­diac rhythm dis­tur­bances and is a major risk fac­tor for stroke.

Great progress is now being made in the mon­i­tor­ing, diag­no­sis and treat­ment of heart dis­or­ders, thanks to this and oth­er break­throughs emerg­ing at this time, all of which are con­tribut­ing to a rapid decline in mor­tal­i­ty rates. By the 2040s, deaths from car­dio­vas­cu­lar dis­ease will reach neg­li­gi­ble lev­els in some nations.*

Brain implants to restore lost memories

By now, it’s becom­ing pos­si­ble to repli­cate small areas of the brain with “neur­al pros­the­ses” in order to repair dam­age from Alzheimer’s, stroke or injury. This includes the restora­tion of lost mem­o­ries. These devices can mim­ic the elec­tro­chem­i­cal sig­nals from regions like the hip­pocam­pus (involved in con­sol­i­da­tion of infor­ma­tion from short-term to long-term mem­o­ry, as well as spa­tial navigation).

Exper­i­ments were ini­tial­ly con­duct­ed on rodents,* then mon­keys,* before mov­ing to human vol­un­teers.* After years of clin­i­cal stud­ies, the process can now be safe­ly per­formed in hos­pi­tals. Elec­trode arrays are first used to record the activ­i­ty of healthy brain tis­sue. The unique pat­terns respon­si­ble for cre­at­ing mem­o­ries are detect­ed and stored by a com­put­er. These pat­terns are then used to pre­dict what the “down­stream” dam­aged areas should be doing. Final­ly, the desired activ­i­ty in healthy areas can be repli­cat­ed by stim­u­lat­ing brain cells with elec­trodes. The neur­al pros­the­sis there­fore bridges the gap from healthy to dam­aged areas.

A com­bi­na­tion of these mem­o­ry implants and drugs can treat ear­ly demen­tia and mem­o­ry loss. In patients with advanced Alzheimer’s, how­ev­er, the neur­al sig­nals are usu­al­ly too degrad­ed for a suc­cess­ful out­come. Nev­er­the­less, this new treat­ment is a sig­nif­i­cant step for­ward in under­stand­ing the brain. Even­tu­al­ly, it will be pos­si­ble to mim­ic entire regions – bypass­ing the hip­pocam­pus, for exam­ple – with com­plex func­tions being replaced entire­ly by elec­trode sig­nals. Fur­ther into the future, as neur­al implants con­tin­ue to improve in pow­er, this will pave the way for upload­ing of minds into com­put­er substrates.*

I would like to use this tech­nol­o­gy to make me bet­ter at math.

so ghost in the shell basicly.

Thought to text would be insane, imag­ine writ­ing an essay just by think­ing it.

one day we could all be able to fly and lift insane­ly heavy items in some form of mech suit con­trolled from the brain, got­ta love Elon Musk!

Well there you have it the mark of the beast

you don’t have answers to any of these ques­tions because you’re dumb, maybe you need a BCI to improve your intelligence !

When my grand­son, a 1%er, was in kinder he asked, “Why don’t the cell phone tow­ers emit an Ozone simulator?”

Cor­rec­tion: …you’re.. Could you hurt sinekne or cause the com­put­er to explode? I guess the com­put­er pro­gram could be held respon­si­ble for not hav­ing some sort of train­ing emo­tions aware­ness abd have a sys­tems alert.

Dystopia might be com­ing veryyy soon