Before he sang “You’re Beautiful,” James Blunt says he was ordered to overpower 200 Russian soldiers at an airport in Kosovo.
He questioned the order. Then a British general came on the radio.
It was June 1999. Blunt was 25, serving as a British Army officer near the front of a NATO force advancing toward Pristina airport. Russian troops had arrived first.
According to Blunt, they pointed their weapons at his men and warned them against entering.
The instruction he says came down from NATO commander General Wesley Clark was to “overrun and overpower the Russians.”
Blunt had armed troops behind him. The Russians were standing in front of them. Carrying out the order risked turning a dispute over an airport into a direct military confrontation.
He began questioning the instructions.
Then General Mike Jackson intervened.
At the Oxford Union, Blunt recalled Jackson’s words:
“I will not have my soldiers be responsible for starting World War III.”
The troops pulled back and surrounded the airfield.
Blunt says that two days later, the Russians asked to share their food and water. The British response was that they could share supplies if the Russians shared access to the airport.
The wider standoff still required negotiations. It would be misleading to say one young officer settled the entire crisis himself.
But listen to how Blunt tells the story.
He calls it the moment of his life he would most like to be remembered for. Then, after describing the confrontation, he makes a point of giving Jackson the credit.
The famous singer is telling the audience to remember someone else’s name.
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Jack Barsky, a KGB spy living undercover in America, says he avoided returning to the Soviet Union by pretending he had AIDS.
The KGB believed him and told his family he was already dead.
“I sent them my last letter with secret writing.”
“I said, ‘I wish I could come, but I can’t because I have contracted HIV/AIDS.’”
“That was the best lie ever because nobody wanted to have AIDS in their country.”
“Those days it was a death sentence, right?”
“So they believed it, and I asked them to give my dollar savings to my German family.”
“They gave them some, but they told my family that I already passed away, that I’m dead.”
“They believed it, 100%.”
“And the next three months, I made sure that I wasn’t reliably at the same spot in the same time frame.”
“So I went to work in different paths at different times.”
“After I sent the letter, I threw the shortwave radio in the Hudson River.”
“For a new life and live out my life as an American, undiscovered.”
Jack Barsky, a KGB spy living undercover in America, says he avoided returning to the Soviet Union by pretending he had AIDS.
The KGB believed him and told his family he was already dead.
“I sent them my last letter with secret writing.”
“I said, ‘I wish I could come, but I can’t because I have contracted HIV/AIDS.’”
“That was the best lie ever because nobody wanted to have AIDS in their country.”
“Those days it was a death sentence, right?”
“So they believed it, and I asked them to give my dollar savings to my German family.”
“They gave them some, but they told my family that I already passed away, that I’m dead.”
“They believed it, 100%.”
“And the next three months, I made sure that I wasn’t reliably at the same spot in the same time frame.”
“So I went to work in different paths at different times.”
“After I sent the letter, I threw the shortwave radio in the Hudson River.”
“For a new life and live out my life as an American, undiscovered.”
Psalter retweeted
The KGB looked for signs of nuclear war in Margaret Thatcher’s schedule.
Even a meeting with the Queen could make the list.
In this 1990 interview, former KGB officer Oleg Gordievsky explains how Soviet fears reached that point.
Between 1979 and 1984, he says, some Soviet leaders began to believe the Reagan administration might be preparing a surprise nuclear attack.
An attack intended to get rid of the Soviet Union and communism for good.
So the KGB and Soviet military intelligence were ordered to search for signs that preparations were underway.
Troop movements. Military activity. Weapons being prepared.
Then Gordievsky describes the smaller details they watched.
“Prime minister working until the early morning hours.”
“Prime minister visiting the Queen.”
Visits by the American ambassador to government agencies in London also attracted attention.
So did lights staying on overnight in intelligence and defence buildings.
And, as Gordievsky puts it:
“A lot of limousines between the ministries.”
An office working late. An ambassador making visits. The prime minister meeting the Queen.
Ordinary government activity was being examined for clues to an approaching nuclear attack.
Gordievsky’s account offers a disturbing glimpse into how intelligence can be interpreted when the people requesting it already fear the worst.
Someone had to report those details.
Someone else had to decide what they meant.
And in a confrontation between nuclear powers, that judgment mattered enormously.
When you are already expecting an attack, how easily does an office light become evidence?
The KGB looked for signs of nuclear war in Margaret Thatcher’s schedule.
Even a meeting with the Queen could make the list.
In this 1990 interview, former KGB officer Oleg Gordievsky explains how Soviet fears reached that point.
Between 1979 and 1984, he says, some Soviet leaders began to believe the Reagan administration might be preparing a surprise nuclear attack.
An attack intended to get rid of the Soviet Union and communism for good.
So the KGB and Soviet military intelligence were ordered to search for signs that preparations were underway.
Troop movements. Military activity. Weapons being prepared.
Then Gordievsky describes the smaller details they watched.
“Prime minister working until the early morning hours.”
“Prime minister visiting the Queen.”
Visits by the American ambassador to government agencies in London also attracted attention.
So did lights staying on overnight in intelligence and defence buildings.
And, as Gordievsky puts it:
“A lot of limousines between the ministries.”
An office working late. An ambassador making visits. The prime minister meeting the Queen.
Ordinary government activity was being examined for clues to an approaching nuclear attack.
Gordievsky’s account offers a disturbing glimpse into how intelligence can be interpreted when the people requesting it already fear the worst.
Someone had to report those details.
Someone else had to decide what they meant.
And in a confrontation between nuclear powers, that judgment mattered enormously.
When you are already expecting an attack, how easily does an office light become evidence?
Psalter retweeted
This drop of metal can switch a circuit.
Electrical signals move it between contacts, turning components on and off. It can also bridge a broken connection and restore current.
The potential uses: electronics with connections that can be rearranged, circuit repair, and tiny robotic mechanisms.
Left: the droplet moves on command.
Right: it switches LEDs by connecting different contacts.
For now, these are laboratory demonstrations.
The goal is hardware whose electrical connections can physically change after it is built.
This drop of metal can switch a circuit.
Electrical signals move it between contacts, turning components on and off. It can also bridge a broken connection and restore current.
The potential uses: electronics with connections that can be rearranged, circuit repair, and tiny robotic mechanisms.
Left: the droplet moves on command.
Right: it switches LEDs by connecting different contacts.
For now, these are laboratory demonstrations.
The goal is hardware whose electrical connections can physically change after it is built.
Psalter retweeted
This flat surface can raise buttons you can actually press.
Flat Panel Haptics uses tiny electrically controlled pumps to move liquid beneath a flexible surface.
Apply voltage, and a button rises. Reverse the flow, and it sinks back down.
The pumps are just 1.5 mm thick.
The prototype creates a physical shape your fingers can feel.
That could give touchscreens a keyboard that appears when you need to type, then flattens when you’re done.
A way to bring the feel of physical controls to a surface that can change.
This flat surface can raise buttons you can actually press.
Flat Panel Haptics uses tiny electrically controlled pumps to move liquid beneath a flexible surface.
Apply voltage, and a button rises. Reverse the flow, and it sinks back down.
The pumps are just 1.5 mm thick.
The prototype creates a physical shape your fingers can feel.
That could give touchscreens a keyboard that appears when you need to type, then flattens when you’re done.
A way to bring the feel of physical controls to a surface that can change.
Psalter retweeted
Self-Healing Electrical Material. Cut into the circuit, and it keeps working.
Researchers at Carnegie Mellon embedded tiny droplets of liquid metal inside a soft, stretchable material. When damaged, the droplets rupture and connect with their neighbors, creating new paths for electricity.
The surprising part is that the damage itself triggers the response. The material can keep conducting while being punctured or having pieces removed.
For soft robots and wearable sensors, this could mean surviving a tear that would normally cause an electrical failure.
Watch what happens to the device when the material gets damaged.
Self-Healing Electrical Material. Cut into the circuit, and it keeps working.
Researchers at Carnegie Mellon embedded tiny droplets of liquid metal inside a soft, stretchable material. When damaged, the droplets rupture and connect with their neighbors, creating new paths for electricity.
The surprising part is that the damage itself triggers the response. The material can keep conducting while being punctured or having pieces removed.
For soft robots and wearable sensors, this could mean surviving a tear that would normally cause an electrical failure.
Watch what happens to the device when the material gets damaged.
Psalter retweeted
is there a cisco certification that mentally prepares network engineers for reality
Psalter retweeted
Someone made a controller fly with propellers.
Tesla made a car jump with gas thrusters.
So why choose compressed gas when propellers already work?
The interesting part is how long you need the thrust.
Propellers keep moving the air around them. Gas thrusters release a stored supply through nozzles, giving a brief burst of thrust.
That supply runs out quickly. For a short airborne maneuver, though, it creates a very different set of possibilities.
how does a car hang upside down, let go, and still land on its wheels?
watch Tesla’s Roadster on the curved ramp
underneath, fans pull air out of the gap between the car and the surface. seals help keep that air from rushing straight back in
the result works like a suction cup: the air outside presses the car against the ramp. Tesla says the grip is strong enough to hold it upside down even while standing still
once it leaves the ramp, a different system takes over
the car carries compressed gas and releases it through small nozzles. think of letting go of an inflated balloon: air shoots one way, the balloon goes the other
with nozzles around the car, those pushes can also turn it. push one way to start rotating, then counter that turn to bring the wheels back underneath
before landing, downward jets push upward on the car to slow its fall. Tesla says the system makes tiny, rapid adjustments to keep it stable
there’s a catch: every burst uses up some of the stored gas. how long it can stay airborne depends on how much it carries and how quickly it spends it
Someone made a controller fly with propellers.
Tesla made a car jump with gas thrusters.
So why choose compressed gas when propellers already work?
The interesting part is how long you need the thrust.
Propellers keep moving the air around them. Gas thrusters release a stored supply through nozzles, giving a brief burst of thrust.
That supply runs out quickly. For a short airborne maneuver, though, it creates a very different set of possibilities.
how does a car hang upside down, let go, and still land on its wheels?
watch Tesla’s Roadster on the curved ramp
underneath, fans pull air out of the gap between the car and the surface. seals help keep that air from rushing straight back in
the result works like a suction cup: the air outside presses the car against the ramp. Tesla says the grip is strong enough to hold it upside down even while standing still
once it leaves the ramp, a different system takes over
the car carries compressed gas and releases it through small nozzles. think of letting go of an inflated balloon: air shoots one way, the balloon goes the other
with nozzles around the car, those pushes can also turn it. push one way to start rotating, then counter that turn to bring the wheels back underneath
before landing, downward jets push upward on the car to slow its fall. Tesla says the system makes tiny, rapid adjustments to keep it stable
there’s a catch: every burst uses up some of the stored gas. how long it can stay airborne depends on how much it carries and how quickly it spends it
Psalter retweeted
Your router can make walls “transparent.”
An ESP32 running ESPectre can detect movement through walls using Wi-Fi CSI tiny changes in how radio waves travel through a room.
When you move, your body changes the signal. The chip picks up the difference.
No camera. No microphone. Everything is processed locally.
That movement can trigger lights or other smart-home automations.
A tiny board turns the Wi-Fi you already use into a sensor.
Your router can make walls “transparent.”
An ESP32 running ESPectre can detect movement through walls using Wi-Fi CSI tiny changes in how radio waves travel through a room.
When you move, your body changes the signal. The chip picks up the difference.
No camera. No microphone. Everything is processed locally.
That movement can trigger lights or other smart-home automations.
A tiny board turns the Wi-Fi you already use into a sensor.
Psalter retweeted
AI reverse engineering, Now you can now pair an Apple Watch Ultra-2 with Android.
This open-source tool connect an Apple Watch to Android devices instead of being locked to iPhone.
- and manage parts of the watch from a non-Apple phone.
- Android version currently requires Root Magisk.
- Full feature parity isn’t here yet, but pairing, basic management, and interface control already work.
- github.com/LordixDemon/apple…
Psalter retweeted
Recordatorio de que, aunque sirvan para jugar, los volantes direct drive NO son juguetes y, como se pongan tontos, te pueden desde dar un susto hasta hacerte una avería. Esta tarde subo un vídeo completo de una sucesión de eventos extraños que me pasaron "gracias" a...
F1 2012.
Psalter retweeted
you can make light behave like sand.
tilt this little device and the glowing dots tumble toward the bottom. turn it over and they fall the other way, colliding and settling into a new pile
this is Adafruit’s LED Sand, a DIY physics toy built around a Feather microcontroller, a tiny accelerometer and a 15×7 LED matrix
the sensor measures tilt. the code uses those readings to calculate how each virtual grain moves, then lights the LEDs to show the result
watch the dots as the direction changes. even on a grid this small, the movement feels familiar
the code and printable enclosure files are open, so you can build your own📒
you can make light behave like sand.
tilt this little device and the glowing dots tumble toward the bottom. turn it over and they fall the other way, colliding and settling into a new pile
this is Adafruit’s LED Sand, a DIY physics toy built around a Feather microcontroller, a tiny accelerometer and a 15×7 LED matrix
the sensor measures tilt. the code uses those readings to calculate how each virtual grain moves, then lights the LEDs to show the result
watch the dots as the direction changes. even on a grid this small, the movement feels familiar
the code and printable enclosure files are open, so you can build your own📒







