Short Circuit 2 Quotes

one thing that empires are not about is the efficient use of resources and the spread of happiness; both are typically accomplished despite the economic short-circuiting—corruption and favoritism, mostly—endemic to the system.

We won! We won!" Daisy jumped up and down and threw her arms around Liam, nearly knocking him over as she pressed her lips to his in a delighted kiss. Her lips were soft and warm and sweet with chocolate. The shock of them short-circuited his brain and for a moment he couldn't breathe. And then he was pressing her lips apart, hungry for her, desperate for more. She softened against him, sighed. He braced himself for her to retreat, but instead, she tightened her arms around him and kissed him back, her tongue tangling with his as she explored his mouth. "Pizza!" She pulled away, leaving him floundering, his brain struggling to understand why someone was shoving a box in his face when all he wanted was her sweet lips and her soft body and her sigh of surrender. "Pizza selfie." Daisy held up her phone and took a picture of them with the pizza box angled in the corner. She laughed when she showed him the screen. This time he was the one who looked dazed.

Despite international calls for Chernobyl to be decommissioned at once, it endured a very gradual demise. On October 11th, 1991, just five years after the Unit 4 explosion, there was a third major accident at the plant, this time at Unit 2. Prior to the event, the Unit had been taken offline following another accident - this time a fire in its section of the turbine hall, which had broken out during minor turbogenerator repair work. After extinguishing the blaze, the generator had been isolated and its turbine coasted down to about 150 rpm when a faulty breaker switch closed, reconnecting it to the grid. The turbine rapidly sped up to 3000 rpm in under 30 seconds, then, according to a 1993 report by the U.S. Nuclear Regulatory Commission, “the influx of current to TG-4 overheated the conductor elements and caused a rapid degradation of the mechanical end joints of the rotor and excitation windings. A centrifugal imbalance developed and damaged generator bearings 10 through 14 and the seal oil system, allowing hydrogen gas and seal oil to leak from the generator enclosure. Electrical arcing and frictional heat ignited the leaking hydrogen and seal oil creating hydrogen flames 8 meters high, and dense smoke which obstructed the visibility of plant personnel. When the burning oil reached the busbar of the generator it caused a three-phase 120,000-amp short circuit.”265

To give you a sense of the sheer volume of unprocessed information that comes up the spinal cord into the thalamus, let’s consider just one aspect: vision, since many of our memories are encoded this way. There are roughly 130 million cells in the eye’s retina, called cones and rods; they process and record 100 million bits of information from the landscape at any time. This vast amount of data is then collected and sent down the optic nerve, which transports 9 million bits of information per second, and on to the thalamus. From there, the information reaches the occipital lobe, at the very back of the brain. This visual cortex, in turn, begins the arduous process of analyzing this mountain of data. The visual cortex consists of several patches at the back of the brain, each of which is designed for a specific task. They are labeled V1 to V8. Remarkably, the area called V1 is like a screen; it actually creates a pattern on the back of your brain very similar in shape and form to the original image. This image bears a striking resemblance to the original, except that the very center of your eye, the fovea, occupies a much larger area in V1 (since the fovea has the highest concentration of neurons). The image cast on V1 is therefore not a perfect replica of the landscape but is distorted, with the central region of the image taking up most of the space. Besides V1, other areas of the occipital lobe process different aspects of the image, including: •  Stereo vision. These neurons compare the images coming in from each eye. This is done in area V2. •  Distance. These neurons calculate the distance to an object, using shadows and other information from both eyes. This is done in area V3. •  Colors are processed in area V4. •  Motion. Different circuits can pick out different classes of motion, including straight-line, spiral, and expanding motion. This is done in area V5. More than thirty different neural circuits involved with vision have been identified, but there are probably many more. From the occipital lobe, the information is sent to the prefrontal cortex, where you finally “see” the image and form your short-term memory. The information is then sent to the hippocampus, which processes it and stores it for up to twenty-four hours. The memory is then chopped up and scattered among the various cortices. The point here is that vision, which we think happens effortlessly, requires billions of neurons firing in sequence, transmitting millions of bits of information per second. And remember that we have signals from five sense organs, plus emotions associated with each image. All this information is processed by the hippocampus to create a simple memory of an image. At present, no machine can match the sophistication of this process, so replicating it presents an enormous challenge for scientists who want to create an artificial hippocampus for the human brain.

The explosion At first the crew thought a meteoroid had hit them. As well as the noise of an explosion, the electrics were going haywire and the attitude control thrusters had fired. In fact, a short circuit had ignited some insulation in the Number 2 oxygen tank of the Service Module. The Service Module provided life support, power and other systems to the Command Module, which held the astronauts as they travelled to and from lunar orbit. The Lunar Module was a separate, though connected, craft that would be used to ferry the men to the lunar surface and back. The fire caused a surge in pressure that ruptured the tank, flooding the fuel cell bay with gaseous oxygen. This surge blew the bolts holding on the outer panel, which tore off free and spun into space, damaging a communications antenna. Contact with Earth was lost for 1.8 seconds, until the system automatically switched to another antenna. The shock also ruptured a line from the Number 1 oxygen tank. Two hours later all of the Service Module’s oxygen supply had leaked into the void. As the Command Module’s fuel cells used oxygen with hydrogen to generate electricity, it could now only run on battery power. The crew had no option but to shut down the Command Module completely and move into the Lunar Module. They would then use this as a ‘lifeboat’ for the journey back to Earth before rejoining the Command Module for re-entry. As for the mission, the Service Module was so badly damaged that a safe return from a lunar landing was impossible. These men would not be landing on the Moon. 320,000 km from home The Flight Director immediately aborted the mission. Now he just had to get the men home. The quickest way would be a Direct Abort trajectory, using the Service Module engine to essentially reverse the craft. But it was too late:

2. Stutter. I can be on the phone for hours with my best friend, but if confronted by a cute guy, wham! I get power outage, my brain is short circuited. You'd be lucky to get anything out of me besides "er...um...uh..." and a ton of blushing. 3.Stumble. I trip over my own feet. Yeah it's easy to do that when you're five feet seven and gangly, but I managed to make the dance teacher cry when I was five years old. Or even worse, I knock things over and spill things over and spill food.

Do not short-circuit a battery or allow metallic conductive objects to contact battery terminals. Replace the battery only with another battery that has been qualified with the system per this standard, IEEE-Std-1725-200x. Use of an unqualified battery may present a risk of fire, explosion, leakage or other hazard. Promptly dispose of used batteries in accordance with local regulations.

A relationship like a short circuit, their mutual frailties feeding each other.

Other times there’s a form of denial at work. Circuitous routes, extensive security checks, an ongoing internal dialogue consisting of If I were trying to get to me, how would I do it? all require a deep acceptance of the notion that there are people out there who have both the motive and the means to cut short your time on earth. This notion is innately uncomfortable for the human psyche, so much so that it produces enormous stress even for soldiers in battle. A lot of guys, the first time they come under close-range fire, they’re shocked. “Why’s he trying to kill me?” they’re asking themselves. “What did I ever do to him?

Step 2: Build the LED-Controlling Circuit Now, you’re going to connect the 4017 decade counter with resistors and LEDs. There are a lot of connections, so take as much time as you need to get them all correct. Plug the 4017 decade counter into the breadboard so that the middle of the decade counter is around row 20, with the chip marker pointing up toward row 1. Then, take out five LEDs and ten 100 Ω resistors. Connect each LED’s negative (short) leg to the negative supply column on the right, and connect each positive (long) leg to its own empty row in the component area on the right. Place the green LED in the middle, the two blue ones on each side of the green LED, and the red ones on each end. Then, connect the ten 100 Ω resistors. In the circuit diagram, notice that pins 1 to 7 and pins 9 to 11 of the 4017 decade counter each connect to one side of a resistor. The other side of each resistor needs to be on a row by itself. Take care to ensure the resistor legs don’t accidentally touch one another. Look at the following breadboard circuit to see how I connected them: Now, connect the LEDs to the resistors on the 4017 decade counter, and connect the decade counter circuit to the 555 timer circuit according to the circuit diagram. Jumper wires are the best way to make those connections. From each resistor, connect a jumper wire to the corresponding LED. Look at the circuit diagram and notice, for example, that the other side of the resistor connected to pin 4 of the 4017 decade counter should connect to the positive pin of the green LED in the middle. Go through the pins in the circuit diagram to figure out which LED to connect each resistor to. Connect pins 8 and 15 of the 4017 decade counter to the negative supply column, and connect pin 16 to the positive supply column. Use a wire to connect the output from the 555 timer (pin 3) to the clock input of the 4017 decade counter (pin 14). Make sure that you have positive and negative connections in all of your power supply columns. The breadboard I recommend in this project’s Shopping List (page 267) divides its power supply columns into two sections, one upper and one lower. Just connect each of the upper and lower halves on the left side with a wire to bridge the gap, as shown. Do the same on the right side. Alternatively, use two jumper wires from the left columns to the right columns. You can use a jumper wire, or you can cut off a small piece of wire, as I’ve done in this photo. Then, use two long jumper wires to connect the lower-left power supply columns with the two lower-right columns. When you’re done connecting the two circuits and all the power supply columns, your breadboard should look like this:

I swear to God, Amy . . . If you are dating or knocked up by a hockey player after all your ‘I don’t need a man’ schtick, I’m going to scream!” Oh God, no!” I blurted out. Hannah relaxed into the plush cushions of the booth, breathing out, “Thank God.” Flipping the ring on my finger, I held it up. “But I am married.” If Hannah’s brain was a computer, it would be short-circuiting and smoking right now.

Figure 2.2 Number of connections over 25 years across brain areas. This process — neural exuberance followed by pruning of connections — makes the human brain highly adaptable to any environment. Is the infant born in an urban or an agricultural society? Is it the year 2012 or 1012? It doesn’t really matter. The brain of a child born in New York City or in Nome, Alaska, is similar at birth. During the next two decades of life, the process of neural exuberance followed by pruning sculpts a brain that can meet the demands, and thrive in its environment. Brain differences at the “tails” of the distribution As with any natural process there is a range of functioning, with most individuals in the middle and a small percentage of individuals being far above and far below the mean. While the general pattern of increasing and decreasing brain connections is seen in all children, important differences are reported in children whose abilities are above or below those of the average population. To investigate children above the normal range, Shaw used Magnetic Resonance Imaging (MRI) to follow brain structure in 307 children over 17 years. Children with average IQs reached a peak of cortical thickness (and therefore number of neural connections) around age 10, and then pruning began and continued to age 18. Children with above-average IQs had a different pattern: a brief pruning period around age 7 followed by increasing connections again to age 13. Then pruning ensued more vigorously and finished around age 18. There were also differences in brain structure. At age 18, those with above-average IQs had higher levels of neural connections in the frontal areas, which are responsible for short-term memory, attention, sense of self, planning, and decision-making — the higher brain functions. At the other end of the spectrum, individuals diagnosed with schizophrenia, compared to normal children, lose 3% more connections each year from age 10 to 18. Symptoms of schizophrenia emerge in the late teens, when the cortical layer becomes too thin to support coherent functioning. A thinner cortical layer as a young adult — about 20% less than the average — could account for the fragmented mental world of people diagnosed with schizophrenia. Who is in control? Neural exuberance — increasing and decreasing connections — is genetically controlled, but the child’s experiences affect which connections are pruned and which remain. Circuits that a child uses are strengthened. So a youngster who learns to play the piano or to speak Italian is setting up brain circuits that support those activities — she will find it easier to learn another instrument or language. ​Warning to parents: This doesn’t mean you should inundate your toddler with Italian, violin, martial arts, and tennis lessons. Young children learn best when following their natural tendencies and curiosity. Children learn through play. Undue stress and pressure inhibits the brain’s natural ability to learn.

It’s like the mere sight of her has short-circuited my brain, opened the floodgates to me gawking at her like some sort of slack-jawed neanderthal.

The Martian Marine was like one of those cute little beach bunnies that someone had used editing software on and blown up to 150 percent normal size. The proportions, the black hair, the dark eyes, everything was the same. Only, giant. It short-circuited his neural wiring. The lizard living at the back of his brain kept jumping back and forth between Mate with it! and Flee from it! What was worse, she knew it. She seemed to have sized him up and decided he was only worth a tired smirk within moments of their meeting.

Hearing Izzy say cock has short circuited my brain. I just stare at her.

Wait, what am I supposed to do? “Hang on to me, baby girl.” His lips brush against my temple. Baby girl. Hearing his deep voice call me that short circuits my already frazzled thoughts.

I HAVEN’T HAD the Dream in a long time. But it’s back. And it’s changed. It does not begin as it always has, with the chase. The woods. The mad swooping of the griffins and the charge of the hose-beaked vromaski. The volcano about to erupt. The woman calling my name. The rift that opens in the ground before me. The fall into the void. The fall, where it always ends. Not this time. This time, these things are behind me. This time, it begins at the bottom. I am outside my own body. I am in a nanosecond frozen in time. I feel no pain. I feel nothing. I see someone below, twisted and motionless. The person is Jack. Jack of the Dream. But being outside it, I see that the body is not mine. Not the same face. As if, in these Dreams, I have been dwelling inside a stranger. I see small woodland creatures, fallen and motionless, strewn around the body. The earth shakes. High above, griffins cackle. Water trickles beneath the body now. It pools around the head and hips. And the nanosecond ends. The scene changes. I am no longer outside the body but in. Deep in. The shock of reentry is white-hot. It paralyzes every molecule, short-circuiting my senses. Sight, touch, hearing—all of them join in one huge barbaric scream of STOP. The water fills my ear, trickles down my neck and chest. It freezes and pricks. It soothes and heals. It is taking hold of the pain, drawing it away. Drawing out death and bringing life. I breathe. My flattened body inflates. I see. Smell. Hear. I am aware of the soil ground into my skin, the carcasses all around, the black clouds lowering overhead. The thunder and shaking of the earth. I blink the grit from my eyes and struggle to rise. I have fallen into a crevice. The cracked earth is a vertical wall before me. And the wall contains a hole, a kind of door into the earth. I see dim light within. I stand on shaking legs. I feel the snap of shattered bones knitting themselves together. One step. Two. With each it becomes easier. Entering the hole, I hear music. The Song of the Heptakiklos. The sound that seems to play my soul like a guitar. I draw near the light. It is inside a vast, round room, an underground chamber. I enter, lifted on a column of air. At the other side I see someone hunched over. The white lambda in his hair flashes in the reflected torch fire. I call to him and he turns. He looks like me. Beside him is an enormous satchel, full to bursting. Behind him is the Heptakiklos. Seven round indentations in the earth. All empty.

Ten Things I Need to Know" The brightest stars are the first to explode. Also hearts. It is important to pay attention to love’s high voltage signs. The mockingbird is really ashamed of its own feeble song lost beneath all those he has to imitate. It’s true, the Carolina Wren caught in the bedroom yesterday died because he stepped on a glue trap and tore his wings off. Maybe we have both fallen through the soul’s thin ice already. Even Ethiopia is splitting off from Africa to become its own continent. Last year it moved 10 feet. This will take a million years. There’s always this nostalgia for the days when Time was so unreal it touched us only like the pale shadow of a hawk. Parmenedes transported himself above the beaten path of the stars to find the real that was beyond time. The words you left are still smoldering like the cigarette left in my ashtray as if it were a dying star. The thin thread of its smoke is caught on the ceiling. When love is threatened, the heart crackles with anger like kindling. It’s lucky we are not like hippos who fling dung at each other with their ridiculously tiny tails. Okay, that’s more than ten things I know. Let’s try twenty five, no, let’s not push it, twenty. How many times have we hurt each other not knowing? Destiny wears her clothes inside out. Each desire is a memory of the future. The past is a fake cloud we’ve pasted to a paper sky. That is why our dreams are the most real thing we possess. My logic here is made of your smells, your thighs, your kiss, your words. I collect stars but have no place to put them. You take my breath away only to give back a purer one. The way you dance creates a new constellation. Off the Thai coast they have discovered a new undersea world with sharks that walk on their fins. In Indonesia, a kangaroo that lives in a tree. Why is the shadow I cast always yours? Okay, let’s say I list 33 things, a solid symbolic number. It’s good to have a plan so we don’t lose ourselves, but then who has taken the ladder out of the hole I’ve dug for myself? How can I revive the things I’ve killed inside you? The real is a sunset over a shanty by the river. The keys that lock the door also open it. When we shut out each other, nothing seems real except the empty caves of our hearts, yet how arrogant to think our problems finally matter when thousands of children are bayoneted in the Congo this year. How incredible to think of those soldiers never having loved. Nothing ever ends. Will this? Byron never knew where his epic, Don Juan, would end and died in the middle of it. The good thing about being dead is that you don’t have to go through all that dying again. You just toast it. See, the real is what the imagination decants. You can be anywhere with the turn of a few words. Some say the feeling of out-of-the-body travel is due to certain short circuits in parts of the brain. That doesn’t matter because I’m still drifting towards you. Inside you are cumulous clouds I could float on all night. The difference is always between what we say we love and what we love. Tonight, for instance, I could drink from the bowl of your belly. It doesn’t matter if our feelings shift like sands beneath the river, there’s still the river. Maybe the real is the way your palms fit against my face, or the way you hold my life inside you until it is nothing at all, the way this plant droops, this flower called Heart’s Bursting Flower, with its beads of red hanging from their delicate threads any breeze might break, any word might shatter, any hurt might crush. Superstition Reviews issue 2 fall 2008

Being inside her was his second priority. His first? Making her come so hard against his fingers she'd feel the aftershocks for days. August slipped a finger inside her. Her hips' movement quickened. "Just like that, August." Her moan acted as rocket fuel to his lust. He added another finger, sliding in and out of her. His plan had been to go slow, but shit, she was so tight and so fucking wet and it felt so damned good. She squeezed her inner muscles around him. He bent his fingers, rubbing against the spot inside her that made her go wild. With his other hand, he rubbed circles around her clit. "Shit, Sloane," he gritted out when her hand wrapped around his dick. This was supposed to be all about her. "Two can play this game," she whispered in his ear. "I bet I can make you come before you make me come." He was a professional athlete. Competitiveness flowed through his veins. "You're on." Two minutes later, he was questioning his life's choices. He'd been so sure he could win this bet. Why? His hubris was going to be the death of him, but what a way to go. Her fingers were magical. "Shit," he moaned when she rubbed some of her wetness along the head of his dick and then up and down his length. Just following the movement of her fingers nearly short-circuited his brain. Her fingers moved a little easier, up and down with one hand and squeezing with the other. She knew he didn't like a gentle hand. He was fucking close. But not yet. Not yet. Not until he'd given her all the pleasure he could. Not until he made her feel more than she'd ever felt. They fell into a decadent rhythm, fully intuned to the other. She moved her hand up and down his length at the same tempo he slid his fingers in and out of her, just like they would if she was riding his dick. He was so fucking close. August ground his teeth into dust. In due time.

How Pressure Relief Valves Enhance Transformer Longevity and Reliability? Pressure relief valves (PRVs) are integral components in the safe and reliable operation of transformers. Transformers, which are vital for the efficient distribution of electrical power, are subjected to various stresses during operation. Over time, factors like temperature fluctuations, electrical faults, and other mechanical stresses can lead to internal pressure buildup, potentially damaging the transformer. This is where PRVs play a crucial role in safeguarding transformer longevity and reliability. Understanding the Function of Pressure Relief Valves A transformer’s primary function is to step up or step down voltage levels while ensuring safe energy transfer. Inside these transformers, insulating oil is used to cool and insulate the internal components. However, this oil can heat up and expand due to electrical faults, short circuits, or external temperature changes. In some cases, if the pressure becomes too high, it could cause damage to the transformer, resulting in catastrophic failure or even fire. This is where PRVs come in. These devices are designed to release excess pressure in the transformer tank, ensuring that the pressure inside the unit remains within safe limits. When the pressure inside the transformer rises beyond a certain threshold, the PRV opens, allowing gas and oil to escape and prevent the transformer from rupturing or experiencing other damage. The Role of PRVs in Enhancing Longevity By preventing overpressure conditions, Pressure relief valves protect transformers from mechanical stress, which could otherwise degrade their internal components. Excessive pressure can lead to insulation failure, seal ruptures, and even transformer explosions. The regular operation of a PRV ensures that pressure levels are always kept under control, mitigating the risk of such failures. Moreover, PRVs help maintain optimal oil conditions inside the transformer. When overpressure occurs and oil expands, it may lead to the release of gas and even oil leakage. PRVs help maintain the integrity of the transformer’s oil system, reducing the risk of oil contamination and maintaining its cooling and insulating properties. At Precimeasure, we manufacture Pressure relief valves in 2 sizes, 80 mm and 150 mm. It can be used in transformers of all sizes. The device is cast with aluminium, it has a maximum of 2 resettable switches for trip and are highly robust and reliable. Improving Reliability Through Regular Operation A transformer’s reliability hinges on its ability to operate continuously without interruption. If a transformer fails due to pressure-related issues, the entire electrical grid may experience outages, affecting homes and businesses. Pressure relief valves contribute to transformer reliability by preventing catastrophic failures. When they open in response to high pressure, they give operators the chance to address the issue before it becomes a critical problem. Regular testing and maintenance of PRVs ensure that these devices are always functioning as expected. This proactive approach further enhances transformer reliability, as it reduces the likelihood of unanticipated failures that could otherwise lead to costly repairs or replacements. Thus, Pressure relief valves play an essential role in enhancing the longevity and reliability of transformers. By preventing overpressure situations, reducing mechanical stress, and maintaining optimal operating conditions, PRVs help transformers perform efficiently and last longer. Ensuring the proper maintenance and functioning of these valves is an investment in the transformer’s health, ultimately ensuring a reliable power supply and minimizing the risk of costly failures.

Understanding the Role of Liquid Temperature Indicators Transformers are the backbone of modern electrical systems, facilitating the safe and efficient transmission of electrical power. To ensure the longevity and reliability of these critical assets, it is essential to monitor and maintain their health consistently. One key element in transformer monitoring is the use of liquid temperature indicators, which play a crucial role in preventing damage, enhancing performance, and optimizing maintenance efforts. What are Liquid Temperature Indicators? Liquid Temperature Indicators (LTIs) are devices installed in transformers to monitor and display the temperature of the insulating oil or liquid coolant inside the transformer. Insulating oil, typically used in oil-immersed transformers, helps dissipate the heat generated during transformer operation. The temperature of this oil directly correlates with the overall operating condition of the transformer. An LTI typically provides real-time temperature readings, which can be displayed on a dial or electronically, allowing operators to track the temperature fluctuations over time. At Precimeasure, we manufacture dial type, bimetallic, and digital liquid temperature indicators suitable for all power and distribution transformers. The Importance of Monitoring Transformer Oil Temperature Temperature is one of the most critical factors influencing the performance and lifespan of transformers. As transformers operate, electrical energy is converted into heat due to losses within the transformer windings and core. If the heat generated is not effectively dissipated, it can cause the oil temperature to rise, leading to potential damage to both the insulating oil and the transformer's internal components. Excessive oil temperatures can lead to: 1. Degradation of Insulating Oil: Elevated temperatures cause the insulating oil to break down over time, reducing its dielectric strength. This degradation can lead to insulation failure, which may result in a short circuit or transformer failure. 2. Winding Damage: The transformer windings are typically made of copper or aluminum and are insulated using the transformer oil. If the temperature exceeds certain thresholds, the insulation on the windings may degrade, causing winding faults that could result in catastrophic transformer failure. 3. Overheating of the Core: If the temperature continues to rise unchecked, the transformer's magnetic core can also become damaged. Overheating the core can reduce its efficiency and may lead to transformer malfunction. The Role of Liquid Temperature Indicators Liquid temperature indicators serve as an early warning system for transformer operators, providing real-time data on the temperature of the transformer’s insulating oil. This data is invaluable for a number of reasons: 1. Prevention of Overheating: By continuously monitoring the oil temperature, operators can quickly identify if the temperature rises beyond safe operating limits. In such cases, corrective measures can be taken promptly, such as adjusting the load or initiating cooling systems, preventing further damage. 2. Enhanced Maintenance Planning: Regular temperature readings enable operators to detect trends and identify if a transformer is experiencing abnormal heating patterns. By tracking these fluctuations, maintenance teams can plan for more efficient, proactive maintenance, addressing issues before they escalate into expensive repairs or downtime. 3. Improving Transformer Life: Keeping the temperature of the insulating oil within optimal ranges is essential for extending the lifespan of the transformer. Liquid temperature indicators help in maintaining this by providing data to manage transformer operation and cooling efficiently. Conclusion In the world of electrical transformers, where uptime and reliability are crucial, maintaining the health of the transformer is non-negotiable. Liquid temperature indicator