Ultrasonic Quotes

Sometimes people don’t have to say or do anything weird. They just sit there, quietly sipping tea, all the while putting out an ultrasonic scream like they are dying inside.

I have always believed reincarnation to be true. This will go on and on until one discovers oneself. But at times, my thinking deviates a bit from eastern philosophy. I don’t think our bad karmas would make us cockroaches, rats, pigs, etc., in our next lives. I am of the view that achieving Moksha isn’t possible unless we experience everything that could be experienced. I have to experience oppression, but I also have to oppress. I have to be a sparrow to experience the joy of flight. I have to be a bee to experience colours beyond the visible spectrum. And I have to be a dog to hear ultrasonic sounds. Do you get it? I have to experience everything to achieve moksha. Becoming a bee in the next life is not the result of my bad Karma. It is instead a stepping stone. The path to ascension has to be a spiral. Not round and round. Every decision of mine has to lead there. Every step has to lead me towards self-actualization.

Ama ben seni hiç üzemem Deliririm yalnızca Sessizce tek başıma deliririm Beni Lape'ye koyarlar Koyu Türk çayı içerim orada yalnızca

His mother is calling him on the ultrasonic frequency reserved by the government for Jewish mothers in the event of lunch.

things were created by God and for God, no exceptions. Every note of music. Every color on the palette. Every flavor that tingles the taste buds. Arnold Summerfield, the German physicist and pianist, observed that a single hydrogen atom, which emits one hundred frequencies, is more musical than a grand piano, which only emits eighty-eight frequencies. Every single atom is a unique expression of God’s creative genius. And that means every atom is a unique expression of worship. According to composer Leonard Bernstein, the best translation of Genesis 1:3 and several other verses in Genesis 1 is not “and God said.” He believed a better translation is “and God sang.” The Almighty sang every atom into existence, and every atom echoes that original melody sung in three-part harmony by the Father, Son, and Holy Spirit. Did you know that the electron shell of the carbon atom produces the same harmonic scale as the Gregorian chant? Or that whale songs can travel thousands of miles underwater? Or that meadowlarks have a range of three hundred notes? But the songs we can hear audibly are only one instrument in the symphony orchestra called creation. Research in the field of bioacoustics has revealed that we are surrounded by millions of ultrasonic songs. Supersensitive sound instruments have discovered that even earthworms make faint staccato sounds! Lewis Thomas put it this way: “If we had better hearing, and could discern the descants [singing] of sea birds, the rhythmic tympani [drumming] of schools of mollusks, or even the distant harmonics of midges [flies] hanging over meadows in the sun, the combined sound might lift us off our feet.” Someday the sound will lift us off our feet. Glorified eardrums will reveal millions of songs previously inaudible to the human ear.

I resign," says Velvel. He takes off his glasses, slips them into his pocket, and stands up. He forgot an appointment. He's late for work. His mother is calling him on the ultrasonic frequency reserved by the government for Jewish mothers in the event of lunch.

I emitted an ultrasonic signal. The beast climbed off her and scampered to my side. “Good girl, Snarg.” I patted her between the antennae, and she squeaked. Zala stood. “By the hidden moon, what is that?” “My pet ultrapede.” “I wouldn’t expect you to have a pet.” “Snarg was a gift of the ambassador of the Undersphere. She’s the fiercest ultrapede ever bred for the royal family. How could I turn down a gift like that?

I am against allowing the CIA to spend $25 million since 1947 for the express purpose, as stated before, to alter our behavior. Is the State supreme over individuals? Who owns or controls our minds? Why was CIA Director Allen Dulles allowed to order 100 million LSD tablets? Were half the U.S. population going to receive their doses? What gives the CIA and Pentagon the right to define normal, or to determine what is national security? Are we being drugged through food, water and supplied with chemicals so we become slaves and robots? Where is all the cancer coming from? Why the preoccupation with death? Why is the U.S. Government in the business of creating a "Psycho-civilized" world? Who is ordering the ultrasonic waves to lower brain waves of city populations to an alpha state, leaving citizens susceptible to mass propaganda and hypnotic suggestion? These facts have been confirmed by researcher Walter Bowart in 1977. I learned about the project years ago.

Professional Bio of Shahin Shardi, P.Eng. Materials Engineer Welding and Pressure Equipment Inspector, QA/QC Specialist Shahin Shardi is a Materials Engineer with experience in integrity management, inspection of pressure equipment, quality control/assurance of large scale oil and gas projects and welding inspection. He stared his career in trades which helped him understand fundamentals of operation of a construction site and execution of large scale projects. This invaluable experience provided him with boots on the ground perspective of requirements of running a successful project and job site. After obtaining an engineering degree from university of British Columbia, he started a career in asset integrity management for oil and gas facilities and inspection of pressure equipment in Alberta, Canada. He has been involved with numerus maintenance shutdowns at various facilities providing engineering support to the maintenance, operations and project personnel regarding selection, repair, maintenance, troubleshooting and long term reliability of equipment. In addition he has extensive experience in area of quality control and assurance of new construction activities in oil and gas industry. He has performed Owner’s Inspector and welding inspector roles in this area. Shahin has extensively applied industry codes of constructions such as ASME Pressure Vessel Code (ASME VIII), Welding (ASME IX), Process Piping (ASME B31.3), Pipe Flanges (ASME B16.5) and various pressure equipment codes and standards. Familiarity with NDT techniques like magnetic particle, liquid penetrant, eddy current, ultrasonic and digital radiography is another valuable knowledge base gained during various projects. Some of his industry certificates are CWB Level 2 Certified Welding Inspector, API 510 Pressure Vessel Inspector, Alberta ABSA In-Service Pressure Vessel Inspector and Saskatchewan TSASK Pressure Equipment Inspector. Shahin is a professional member of Association of Professional Engineers and Geoscientists of Alberta.

Ultrasonic drilling fully explains how the holes and cores found in the Valley Temple at Giza could have been cut, and it is capable of creating all the details that Petrie and I puzzled over. Unfortunately for Petrie, ultrasonic drilling was unknown at the time he made his studies, so it is not surprising that he could not find satisfactory answers to his queries. In my opinion, the application of ultrasonic machining is the only method that completely satisfies logic, from a technical viewpoint, and explains all noted phenomena. [...] The most significant detail of the drilled holes and cores studied by Petrie was that the groove was cut deeper through the quartz than through the feldspar. Quartz crystals are employed in the production of ultrasonic sound and, conversely, are responsive to the influence of vibration in the ultrasonic ranges and can be induced to vibrate at high frequency. When machining granite using ultrasonics, the harder material (quartz) would not necessarily offer more resistance, as it would during conventional machining practices. An ultrasonically vibrating tool bit would find numerous sympathetic partners, while cutting through granite, embedded right in the granite itself. Instead of resisting the cutting action, the quartz would be induced to respond and vibrate in sympathy with the high-frequency waves and amplify the abrasive action as the tool cut through it.

The knowledge needed to evaluate certain of these ancient artifacts was not available until very recently. Even today there may be numerous articles that we will not understand until we further develop our own technology. We cannot fathom technology that is unknown to us, and we seldom consider things that seem impossible to us. Petrie, though knowledgeable in engineering and surveying, could not be expected to know anything about ultrasonic machining; hence his amazement at the machining abilities of the ancient Egyptians. Even if he had been aware of this technology, the intellectual climate of his time may have precluded his considering the possibility that these methods were known to the ancient Egyptians. Quite simply, the greatest barrier to our understanding may not necessarily be knowledge. It may be attitude.

Rudolph Gantenbrink's important discovery [of a door with metallic handles found with a robot inside a shaft in the Great Pyramid] has forced many Egyptologists to finally accept that their theories are flawed. This is an interesting development. Academic mores normally dictate that when a theory contains flaws, or unsubstantiated data that supports critical elements on which the theory is built, the entire theory must either be thrown out or revised. Instead of the tomb theory being dismissed, however, Gantenbrink himself was dismissed from the project. He discovered the "door" on March 22, 1993. A week later, he was told to pack up his robot and leave Egypt. Gantenbrink has the technology to go beyond the so-called door but, presumably because of political reasons, has been refused permission to resume his research in Egypt. Gantenbrink, with an engineer's typical pragmatism, stated, 'I take an absolute neutral position. It is a scientific process, and there is no need whatsoever to answer questions with speculation when these questions could be answered much more easily by continuing the research. Yet because of a stupid feud between what I call believers and non-believers, I am condemned as someone who is speculating. But I am not. I am just stating the facts. We have a device [ultrasonic] that would discover if there is a cavity behind the slab. It is nonsensical to make theories when we have the tools to discover the facts.

Our heads may be small, but they are as full of memories as the sky may sometimes be full of swarming bees, thousands and thousands of memories, of smells, of places, of little things that happened to us and which come back, unexpectedly, to remind us who we are.

There was so much suffering in Africa that it was tempting just to shrug your shoulders and walk away. But you can't do that, she thought. You just can't.

This is how you break down the wall: Start with two beings. They can be human if you like, but that's hardly a prerequisite. All that matters is that they know how to talk among themselves. Separate them. Let them see each other, let them speak. Perhaps a window between their cages. Perhaps an audio feed. Let them practice the art of conversation in their own chosen way. Hurt them. It may take a while to figure out how. Some may shrink from fire, others from toxic gas or liquid. Some creatures may be invulnerable to blowtorches and grenades, but shriek in terror at the threat of ultrasonic sound. You have to experiment; and when you discover just the right stimulus, the optimum balance between pain and injury, you must inflict it without the remorse. You leave them an escape hatch, of course. That's the very point of the exercise: give one of your subjects the means to end the pain, but give the other the information required to use it. To one you might present a single shape, while showing the other a whole selection. The pain will stop when the being with the menu chooses the item its partner has seen. So let the games begin. Watch your subjects squirm. If—when—they trip the off switch, you'll know at least some of the information they exchanged; and if you record everything that passed between them, you'll start to get some idea of how they exchanged it. When they solve one puzzle, give them a new one. Mix things up. Switch their roles. See how they do at circles versus squares. Try them out on factorials and Fibonnaccis. Continue until Rosetta Stone results. This is how you communicate with a fellow intelligence: you hurt it, and keep on hurting it, until you can distinguish the speech from the screams.

It's a shame you can't transport entire beeches or oaks into the laboratory to find out more about learning. But, at least as far as water is concerned, there is research in the field that reveals more than just behavioral changes: when trees are really thirsty, they begin to scream. If you're out in the forest, you won't be able to hear them, because this all takes place at ultrasonic levels. Scientists at the Swiss Federal Institute for Forest, Snow, and Landscape Research recorded the sounds, and this is how they explain them: Vibrations occur in the trunk when the flow of water from the roots to the leaves is interrupted. This is a purely mechanical event and it probably doesn't mean anything. And yet? We know how the sounds are produced, and if we were to look through a microscope to examine how humans produce sounds, what we would see wouldn't be that different: the passage of air down the windpipe causes our vocal cords to vibrate. When I think about the research results, in particular in conjunction with the crackling roots I mentioned earlier, it seems to me that these vibrations could indeed be much more than just vibrations-they could be cries of thirst. The trees might be screaming out a dire warning to their colleagues that water levels are running low.

And every time, he concentrates on the query of the latest interlocutor, his eyes staring, his chin quivering, his neck twisting in an effort to keep pending and in plain view all the other unresolved queries, with the mournful patience of overnervous people and the ultrasonic nervousness of overpatient people.

I tried to ask him what he was actually doing I got a string of programming jargon that was so far beyond me it might as well have been one of those twelve-tone semi-ultrasonic methane-breather languages that shatter ice crystals and sound like a glass harmonica having a bad dia at work.

Ultrasonic frequency underwater creates Sonoluminescence; souls down near Hell that accelerate their resonance create light.

If you go too much higher than 150 KHz, the sound won’t be able to travel very far beyond your piano. Ultrasonic sounds can travel farther in water or solid material—which is how electric toothbrushes, medical ultrasounds, and high-frequency whale and dolphin echolocation work

when trees are really thirsty, they begin to scream. If you’re out in the forest, you won’t be able to hear them, because this all takes place at ultrasonic levels. Scientists at the Swiss Federal Institute for Forest, Snow, and Landscape Research recorded the sounds, and this is how they explain them: Vibrations occur in the trunk when the flow of water from the roots to the leaves is interrupted. This is a purely mechanical event and it probably doesn’t mean anything.

Proximity Sensors: These detect the presence of objects near the robot, helping it avoid collisions or grab objects. ●  Vision Sensors: Cameras or infrared sensors enabling the robot to "see" and interpret its surroundings. ●  Ultrasonic Sensors: These use sound waves to detect obstacles or measure distances. ●  Gyroscopes and Accelerometers: They assist in maintaining balance and understanding orientation. ●  Temperature and Pressure Sensors: Vital for robots operating in varying environmental conditions.

Lidar: Lidar (Light Detection and Ranging) is a remote sensing method that uses lasers to measure distances. In robotics, Lidar helps in creating high-resolution 3D maps of the environment, making it especially valuable for autonomous vehicles and drones. Sonar and Ultrasonic Sensors: These sensors use sound waves to detect objects and gauge distances. They’re especially useful in conditions where vision might be obscured, like underwater or in heavy smoke. Inertial Measurement Units (IMUs): These are electronic devices that measure and report a robot's velocity, orientation, and gravitational forces, often using a combination of accelerometers and gyroscopes. Force and Touch Sensors: In tasks that require delicate handling or interaction with humans, robots utilize these sensors to gauge the amount of pressure being exerted, ensuring safe and precise operations.

Challenges in Implementing Environmental Perception Sensor Limitations: No sensor is perfect. Cameras can be hampered by poor lighting, Lidar can be costly, and ultrasonic sensors might have limited range. Ensuring robust perception often means using a combination of sensors, increasing complexity and costs. Dynamic Environments: Environments that change rapidly pose a significant challenge. A robot navigating a busy street, for instance, has to deal with moving cars, pedestrians, changing traffic lights, and more. Computational Demands: Processing vast amounts of data in real-time is computationally intensive. While there have been tremendous advances in computational power, balancing performance with energy consumption remains a concern, especially for mobile robots. Safety and Reliability: Especially in applications like autonomous vehicles, the stakes are high. The system’s perception must be reliable and fail-safe to prevent accidents.

when trees are really thirsty, they begin to scream. If you’re out in the forest, you won’t be able to hear them, because this all takes place at ultrasonic levels. Scientists at the Swiss Federal Institute for Forest, Snow, and Landscape Research recorded the sounds, and this is how they explain them: Vibrations occur in the trunk when the flow of water from the roots to the leaves is interrupted.