Bulb Filament Quotes

That light. It's more powerful than she can make alone. He acts like... well, like a filament. She pours her energy into him, and he heats it. Then he sends it back to her just like a light bulb. They create a kind of vacuum between them; that is the connection I am referring to. It's very special and rarely seen. When they're touching, nothing else exists outside the two of them. All they are aware of is each other.

It’s to do with knowing and being known. I remember how it stopped seeming odd that in biblical Greek knowing was used for making love. Whosit knew so-and-so. Carnal knowledge. It’s what lovers trust each other with. Knowledge of each other, not of the flesh but through the flesh, knowledge of self, the real him, the real her, in extremis, the mask slipped from the face. Every other version of oneself is on offer to the public. We share our vivacity, grief, sulks, anger, joy ... we hand it out to anybody who happens to be standing around, to friends and family with a momentary sense of indecency perhaps, to strangers without hesitation. Our lovers share us with the passing trade. But in pairs we insist that we give ourselves to each other. What selves? What’s left? What else is there that hasn’t been dealt out like a pack of cards? Carnal knowledge. Personal, final, uncompromised. Knowing, being known. I revere that. Having that is being rich, you can be generous about what’s shared – she walks, she talks, she laughs, she lends a sympathetic ear, she kicks off her shoes and dances on the tables, she’s everybody’s and it don’t mean a thing, let them eat cake; knowledge is something else, the undealt card, and while it’s held it makes you free-and-easy and nice to know, and when it’s gone everything is pain. Every single thing. Every object that meets the eye, a pencil, a tangerine, a travel poster. As if the physical world has been wired up to pass a current back to the part of your brain where imagination glows like a filament in a lobe no bigger than a torch bulb. Pain.

…you know, sometimes an electric lightbulb goes out all of a sudden. Fizzles, you say. And this burned-out bulb, if you shake it, it flashes again and it’ll burn a little longer. Inside the bulb it’s a disaster. The wolfram filaments are breaking up, and when the fragments touch, life returns to the bulb. A brief, unnatural, undeniably doomed life—a fever, a too-bright incandescence, a flash. The comes the darkness, life never returns, and in the darkness the dead, incinerated filaments are just going to rattle around. Are you following me? But the brief flash is magnificent! “I want to shake… “I want to shake the heart of a fizzled era. The lightbulb of the heart, so that the broken pieces touch… “…and produce a beautiful, momentary flash…

If your face is being illuminated by your television or computer screen, then you should increase the illumination in your environment by moving closer to the window or by using filament light bulbs.

There is a certain quality of light to be found only in midsummer in the South, as day, slipping into dusk, acquiesces to the filament, the bulb, the porch light; this seductive light is beautiful when it washes across dry cement, the sidewalk and stoop. The light spilling from the phone booth softens and cleanses all that it touches. It's a forgiving and almost protective light. The Minotaur is drawn to it from across the parking lot.

When something glows from being heated, it emits light in all parts of the spectrum, but will always peak somewhere. For household lamps that still use glowing metal filaments, the bulbs all peak in the infrared, which is the single greatest contributor to their inefficiency as a source of visible light. Our senses detect infrared only in the form of warmth on our skin. The LED revolution in advanced lighting technology creates pure visible light without wasting wattage on invisible parts of the spectrum. That’s how you can get crazy-sounding sentences like: “7 Watts LED replaces 60 Watts Incandescent” on the packaging.

Restraint is the whole purpose of want and desire; just as the resistance of the filament makes a light bulb glow, your restraint gives you character.

When I check my phone to remember I exist and I shake it and shake it I shake myself, as if to clear the Etch A Sketch of my face. If I’m dead inside how would I know, how would a bulb check its own filament.

A singular moth flutters in through the wind baffles to the naked bulb above the kettle, cuspid, a drifting piece of loose ash on the white filament, paper burnt up, caught in the rising current from some fire unseen, unfelt.

Byron, as he burns on, sees more and more of this pattern. He learns how to make contact with other kinds of electric appliances, in homes, in factories and out in the streets. Each has something to tell him. The pattern gathers in his soul (Seele, as the core of the earlier carbon filament was known in Germany), and the grander and clearer it grows, the more desperate Byron gets. Someday he will know everything, and still be as impotent as before. His youthful dreams of organizing all the bulbs in the world seem impossible now—the Grid is wide open, all messages can be overheard, and there are more than enough traitors out on the line. Prophets traditionally don't last long—they are either killed outright, or given an accident serious enough to make them stop and think, and most often they do pull back. But on Byron has been visited an even better fate. He is condemned to go on forever, knowing the truth and powerless to change anything. No longer will he seek to get off the wheel. His anger and frustration will grow without limit, and he will find himself, poor perverse bulb, enjoying it.

Thomas Edison tried two thousand five hundred different materials in the process of searching for a filament for the light bulb. None worked satisfactorily. So his young assistant complained, “So much work for nothing. We have not learnt anything so far.” Edison replied with confidence, “Really? Haven’t we learned that there are two thousand five hundred elements which we cannot use to make a good light bulb?

In the bedroom there is a queen-sized bed, a raft in the middle of a great stone ocean. On the dresser rolls a light bulb that, if held close to the ear and agitated, would reveal the broken filament rattling in the glass. Necklaces rope old wine bottles like nooses, frosted stoppers silence glass decanters. A nightstand that, wen opened, reveals- shut that, please. In the bathroom, a mirror flecked with mascara from when Bad leans in close, the amoeba of her breath growing and shrinking. You never live *with* a woman, you live inside of her, I overheard my father say to my brother once, and it was, indeed, as if, when peering into the mirror, you were blinking out through her thickly fringed eyes.

It’s to do with knowing and being known. I remember how it stopped seeming odd that in biblical Greek, knowing was used for making love. Whosit knew so-and-so. Carnal knowledge. It’s what lovers trust each other with. Knowledge of each other, not of the flesh but through the flesh, knowledge of self, the real him, the real her, in extremis, the mask slipped from the face. Every other version of oneself is on offer to the public. We share our vivacity, grief, sulks, anger, joy… we hand it out to anybody who happens to be standing around, to friends and family with a momentary sense of indecency perhaps, to strangers without hesitation. Our lovers share us with the passing trade. But in pairs we insist that we give ourselves to each other. What selves? What’s left? What else is there that hasn’t been dealt out like a deck of cards? Carnal knowledge. Personal, final, uncompromised. Knowing, being known. I revere that. Having that is being rich, you can be generous about what’s shared — she walks, she talks, she laughs, she lends a sympathetic ear, she kicks off her shoes and dances on the tables, she’s everybody’s and it don’t mean a thing, let them eat cake; knowledge is something else, the undealt card, and while it’s held it makes you free-and-easy and nice to know, and when it’s gone everything is pain. Every single thing. Every object that meets the eye, a pencil, a tangerine, a travel poster. As if the physical world has been wired up to pass a current back to the part of your brain where imagination glows like a filament in a lobe no bigger than a torch bulb. Pain.

The S curve is not just important as a model in its own right; it’s also the jack-of-all-trades of mathematics. If you zoom in on its midsection, it approximates a straight line. Many phenomena we think of as linear are in fact S curves, because nothing can grow without limit. Because of relativity, and contra Newton, acceleration does not increase linearly with force, but follows an S curve centered at zero. So does electric current as a function of voltage in the resistors found in electronic circuits, or in a light bulb (until the filament melts, which is itself another phase transition). If you zoom out from an S curve, it approximates a step function, with the output suddenly changing from zero to one at the threshold. So depending on the input voltages, the same curve represents the workings of a transistor in both digital computers and analog devices like amplifiers and radio tuners. The early part of an S curve is effectively an exponential, and near the saturation point it approximates exponential decay. When someone talks about exponential growth, ask yourself: How soon will it turn into an S curve? When will the population bomb peter out, Moore’s law lose steam, or the singularity fail to happen? Differentiate an S curve and you get a bell curve: slow, fast, slow becomes low, high, low. Add a succession of staggered upward and downward S curves, and you get something close to a sine wave. In fact, every function can be closely approximated by a sum of S curves: when the function goes up, you add an S curve; when it goes down, you subtract one. Children’s learning is not a steady improvement but an accumulation of S curves. So is technological change. Squint at the New York City skyline and you can see a sum of S curves unfolding across the horizon, each as sharp as a skyscraper’s corner. Most importantly for us, S curves lead to a new solution to the credit-assignment problem. If the universe is a symphony of phase transitions, let’s model it with one. That’s what the brain does: it tunes the system of phase transitions inside to the one outside. So let’s replace the perceptron’s step function with an S curve and see what happens.

Political ideologies are not unlike technological inventions - both have expiry dates. Take the first electric bulb for example. When electric filament bulb came into existence it turned gas lamps obsolete - but then power efficient led bulb came into the scene, which turned filament bulbs obsolete. Likewise, back in the days when world conquest was all the craze, nationalism was the fire that united the dominated souls of the invaded lands to stand up to their invaders. But today when the notion of invasion is no longer the norm, and a sense of global oneness is on the rise, nationalism is no longer cool - it is obsolete, inane, and downright prehistoric. Today, it's the fire of integration that lights the world, not tribe, heritage and tradition. No ideology is ideal, no ideology is ultimate. So, focus on ascension, not allegiance. Evolution is life, rigidity is death - the wheel just keeps turning - monarchy replaced by democracy, democracy replaced by meritocracy - fundamentalism replaced by interfaith, interfaith replaced by freethought - church replaced by state, state replaced by civic duty - capitalism replaced by socialism, socialism replaced by humanitarianism. Countries become cities, cities become neighborhoods, neighborhoods become family - that's real upward mobility - that's civilization.

Political ideologies are not unlike technological inventions - both have expiry dates. Take the first electric bulb for example. When electric filament bulb came into existence it turned gas lamps obsolete - but then power efficient led bulb came into the scene, which turned filament bulbs obsolete. Likewise, back in the days when world conquest was all the craze, nationalism was the fire that united the dominated souls of the invaded lands to stand up to their invaders. But today when the notion of invasion is no longer the norm, and a sense of global oneness is on the rise, nationalism is no longer cool - it is obsolete, inane, and downright prehistoric. Today, it's the fire of integration that lights the world, not tribe, heritage and tradition.

An incandescent lamp is made with a wire filament enclosed in a bulb without oxygen and glows as the filament is heated. Less than 10 percent of the electrical power into an incandescent light bulb is converted into light, and the rest is converted into heat. Lamps of this type are still used, but they are being replaced with fluorescent lights or light emitting diodes. The incandescent lamp therefore is a resistor that just happens to give out light. But what type of light? White light is measured by its color temperature in degrees Kelvin (K). Typically, when we look outside on a sunny clear day, the Sun along with the blue sky provides a color temperature of about 4,500 to 5,500 degrees Kelvin. As the sun starts to go down in the afternoon, the color temperature drops to about 3,000 to 4,000 degrees Kelvin. Finally as the sun sets, we can clearly perceive the sunlight with a yellow to red tint, which means the sun’s color temperature has dropped below 3,000 degrees Kelvin. Human eyes adapt to the color temperature for the most part from about 3,000 to 5,000 degrees Kelvin and perceive light in this range as “white,” albeit at 3,000 degrees Kelvin, it has a warm tone. A standard incandescent bulb for room lighting such as a 100 watt bulb provides light at about 2,700 degrees Kelvin, which provides warm white light. For studio or movie lighting, generally the color temperature is a bit whiter (between 3,200 and 3,500 degrees Kelvin, and sometimes up to 4,000 degrees Kelvin). Halogen lamps or white photoflood lamps provide light in this color temperature range. Incandescent lamps exceeding 4,000 degrees usually are specially made and they are often coated in blue. For standard low-power lamps such as flashlight bulbs or indicator lights, the color temperature is somewhere between 2,000 and 3,000 degrees Kelvin.

And the bulb that had burned so brightly, so briefly, popped inside her head, the filament glowing red for the briefest of moments before her mind went dark forever.

Byron, as he burns on, sees more and more of this pattern. He learns how to make contact with other kinds of electric appliances, in homes, in factories and out in the streets. Each has something to tell him. The pattern gathers in his soul (Seek, as the core of the earlier carbon filament was known in Germany), and the grander and clearer it grows, the more desperate Byron gets. Someday he will know everything, and still be as impotent as before. His youthful dreams of organizing all the bulbs in the world seem impossible now—the Grid is wide open, all messages can be overheard, and there are more than enough traitors out on the line. Prophets traditionally don’t last long—they are either killed outright, or given an accident serious enough to make them stop and think, and most often they do pull back. But on Byron has been visited an even better fate. He is condemned to go on forever, knowing the truth and powerless to change anything. No longer will he seek to get off the wheel. His anger and frustration will grow without limit, and he will find himself, poor perverse bulb, enjoying it. . . .

Graphite was used by Edison for the first light bulb filaments because it also has a high melting point, which allows it to glow white hot without melting when a high current passes through it.

In 1900, Max Planck, a critic of Boltzmann’s science for nearly two decades, published papers that hinted at a change of heart. Even more unexpectedly he seemed to be saying that Boltzmann’s statistical methods might have relevance far beyond thermodynamics. This reluctant conversion was forced upon Planck by the advent of a new technology—the electric light bulb. In these electric current flows through a filament, warming it and making it glow. This focused scientific minds on investigating the precise relationship between heat and light.

Maxwell’s discovery meant physicists knew in principle how the filament in a light bulb was made to glow. An electric current makes the filament hot. This in turn causes its constituent electrons to oscillate and emit electromagnetic waves. In fact, all objects emit some electromagnetic waves. Atoms are in constant motion, which means so are their electrons.