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Imagine, we could direct Sound
Add Sound... Where It's Needed... & Nowhere Else...
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Imagine, we could direct Sound
Add Sound... Where It's Needed... & Nowhere Else...
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Imagine, we could direct sound...
Add Sound... Where It's Needed... & Nowhere Else...
We develop and distribute, "Directed Sound" applications.
We like to demonstrate all the possibilities that our products can provide. iSoundLabs brings sound where it's needed and nowhere else. We have "directed sound" solutions for banks, hotels, restaurants/bars, beachbars, museums, hospitals, airports, football stadiums and digital advertising... We like to work with you to offer customized solutions or we can integrate our technology into your products.
The technique of using a nonlinear interaction of high-frequency waves
to generate low-frequency waves was originally pioneered by researchers developing underwater sonar techniques dating back to the 1960's. These early acoustics researchers successfully derived the formal mathematical basis for this effect and developed innovative sonar systems with more directivity and bandwidth than would otherwise be available. They called this device a parametric array. In 1975, the first publication appeared which demonstrated that these nonlinear effects indeed occur in air. While these researchers had not attempted to reproduce audio, they nonetheless proved that such a device may be possible.
History of this very special technology
Over the next two decades, several large companies, including Matsushita (Panasonic), NC Denon, and Ricoh attempted to develop a loudspeaker based on this principle. A paper describing one attempt was published in 1983. While they were successful in producing some sort of sound, problems with cost, feasibility, and extremely high levels of distortion (>50% THD) caused the almost total abandonment of the technology by the end of the 1980's. While a graduate student developing '3D Audio' at Northwestern University in the late 1990's, Joseph Pompei had similar ideas of using ultrasound as a loudspeaker, largely to overcome deficiencies he saw with traditional methods of sound reproduction. After performing extensive research on the idea, he discovered the large body of knowledge in the field of nonlinear acoustics, as well as the earlier attempts at using ultrasound as an audible source. Soon after arriving at MIT, his insight led him to identify – and subsequently rectify – the barriers which had plagued the earlier researchers. Through a combination of careful mathematical analysis and solid engineering, he was able to construct the very first practical, high-performance audio beam system.
We develop & distribute, "Directed Sound" applications.
We like to demonstrate all the possibilities that our products can provide. We brings sound where it's needed and nowhere else. We have "directed sound" solutions for banks, hotels, restaurants/bars, beachbars, museums, hospitals, airports, football stadiums and digital advertising... We like to work with you to offer customized solutions or we can integrate our technology into your products.
The technique of using a nonlinear interaction of high-frequency waves
to generate low-frequency waves was originally pioneered by researchers developing underwater sonar techniques dating back to the 1960's. These early acoustics researchers successfully derived the formal mathematical basis for this effect and developed innovative sonar systems with more directivity and bandwidth than would otherwise be available. They called this device a parametric array. In 1975, the first publication appeared which demonstrated that these nonlinear effects indeed occur in air. While these researchers had not attempted to reproduce audio, they nonetheless proved that such a device may be possible.
History of this very special technology
Over the next two decades, several large companies, including Matsushita (Panasonic), NC Denon, and Ricoh attempted to develop a loudspeaker based on this principle. A paper describing one attempt was published in 1983. While they were successful in producing some sort of sound, problems with cost, feasibility, and extremely high levels of distortion (>50% THD) caused the almost total abandonment of the technology by the end of the 1980's. While a graduate student developing '3D Audio' at Northwestern University in the late 1990's, Joseph Pompei had similar ideas of using ultrasound as a loudspeaker, largely to overcome deficiencies he saw with traditional methods of sound reproduction. After performing extensive research on the idea, he discovered the large body of knowledge in the field of nonlinear acoustics, as well as the earlier attempts at using ultrasound as an audible source. Soon after arriving at MIT, his insight led him to identify – and subsequently rectify – the barriers which had plagued the earlier researchers. Through a combination of careful mathematical analysis and solid engineering, he was able to construct the very first practical, high-performance audio beam system.
Directed Sound Demo
Directed Sound Demo
We develop and distribute, "Directed Sound" applications.
We like to demonstrate all the possibilities that our products can provide. iSoundLabs brings sound where it's needed and nowhere else. We have "directed sound" solutions for banks, hotels, restaurants/bars, beachbars, museums, hospitals, airports, football stadiums and digital advertising... We like to work with you to offer customized solutions or we can integrate our technology into your products.
The technique of using a nonlinear interaction of high-frequency waves
to generate low-frequency waves was originally pioneered by researchers developing underwater sonar techniques dating back to the 1960's. These early acoustics researchers successfully derived the formal mathematical basis for this effect and developed innovative sonar systems with more directivity and bandwidth than would otherwise be available. They called this device a parametric array. In 1975, the first publication appeared which demonstrated that these nonlinear effects indeed occur in air. While these researchers had not attempted to reproduce audio, they nonetheless proved that such a device may be possible.
History of this very special technology
Over the next two decades, several large companies, including Matsushita (Panasonic), NC Denon, and Ricoh attempted to develop a loudspeaker based on this principle. A paper describing one attempt was published in 1983. While they were successful in producing some sort of sound, problems with cost, feasibility, and extremely high levels of distortion (>50% THD) caused the almost total abandonment of the technology by the end of the 1980's. While a graduate student developing '3D Audio' at Northwestern University in the late 1990's, Joseph Pompei had similar ideas of using ultrasound as a loudspeaker, largely to overcome deficiencies he saw with traditional methods of sound reproduction. After performing extensive research on the idea, he discovered the large body of knowledge in the field of nonlinear acoustics, as well as the earlier attempts at using ultrasound as an audible source. Soon after arriving at MIT, his insight led him to identify – and subsequently rectify – the barriers which had plagued the earlier researchers. Through a combination of careful mathematical analysis and solid engineering, he was able to construct the very first practical, high-performance audio beam system.
We develop and distribute, "Directed Sound" applications.
We like to demonstrate all the possibilities that our products can provide. iSoundLabs brings sound where it's needed and nowhere else. We have "directed sound" solutions for banks, hotels, restaurants/bars, beachbars, museums, hospitals, airports, football stadiums and digital advertising... We like to work with you to offer customized solutions or we can integrate our technology into your products.
The technique of using a nonlinear interaction of high-frequency waves
to generate low-frequency waves was originally pioneered by researchers developing underwater sonar techniques dating back to the 1960's. These early acoustics researchers successfully derived the formal mathematical basis for this effect and developed innovative sonar systems with more directivity and bandwidth than would otherwise be available. They called this device a parametric array. In 1975, the first publication appeared which demonstrated that these nonlinear effects indeed occur in air. While these researchers had not attempted to reproduce audio, they nonetheless proved that such a device may be possible.
History of this very special technology
Over the next two decades, several large companies, including Matsushita (Panasonic), NC Denon, and Ricoh attempted to develop a loudspeaker based on this principle. A paper describing one attempt was published in 1983. While they were successful in producing some sort of sound, problems with cost, feasibility, and extremely high levels of distortion (>50% THD) caused the almost total abandonment of the technology by the end of the 1980's. While a graduate student developing '3D Audio' at Northwestern University in the late 1990's, Joseph Pompei had similar ideas of using ultrasound as a loudspeaker, largely to overcome deficiencies he saw with traditional methods of sound reproduction. After performing extensive research on the idea, he discovered the large body of knowledge in the field of nonlinear acoustics, as well as the earlier attempts at using ultrasound as an audible source. Soon after arriving at MIT, his insight led him to identify – and subsequently rectify – the barriers which had plagued the earlier researchers. Through a combination of careful mathematical analysis and solid engineering, he was able to construct the very first practical, high-performance audio beam system.
We develop & distribute, "Directed Sound" applications.
We like to demonstrate all the possibilities that our products can provide. We brings sound where it's needed and nowhere else. We have "directed sound" solutions for banks, hotels, restaurants/bars, beachbars, museums, hospitals, airports, football stadiums and digital advertising... We like to work with you to offer customized solutions or we can integrate our technology into your products.
The technique of using a nonlinear interaction of high-frequency waves
to generate low-frequency waves was originally pioneered by researchers developing underwater sonar techniques dating back to the 1960's. These early acoustics researchers successfully derived the formal mathematical basis for this effect and developed innovative sonar systems with more directivity and bandwidth than would otherwise be available. They called this device a parametric array. In 1975, the first publication appeared which demonstrated that these nonlinear effects indeed occur in air. While these researchers had not attempted to reproduce audio, they nonetheless proved that such a device may be possible.
History of this very special technology
Over the next two decades, several large companies, including Matsushita (Panasonic), NC Denon, and Ricoh attempted to develop a loudspeaker based on this principle. A paper describing one attempt was published in 1983. While they were successful in producing some sort of sound, problems with cost, feasibility, and extremely high levels of distortion (>50% THD) caused the almost total abandonment of the technology by the end of the 1980's. While a graduate student developing '3D Audio' at Northwestern University in the late 1990's, Joseph Pompei had similar ideas of using ultrasound as a loudspeaker, largely to overcome deficiencies he saw with traditional methods of sound reproduction. After performing extensive research on the idea, he discovered the large body of knowledge in the field of nonlinear acoustics, as well as the earlier attempts at using ultrasound as an audible source. Soon after arriving at MIT, his insight led him to identify – and subsequently rectify – the barriers which had plagued the earlier researchers. Through a combination of careful mathematical analysis and solid engineering, he was able to construct the very first practical, high-performance audio beam system.
Directed Sound Demo
Directed Sound Demo
The Banana Demo
The Trade Fair Demo
PI your personal AI System
“It is not that I'm so smart.
But I stay with the questions much longer” , Albert Einstein
PI your personal AI System
The measure of intelligence is the ability to change. - Albert Einstein
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
We would be happy to answer your questions
If you have any questions concerning our products or services or want to schedule an appointment with one of our consultants - please contact us using the details below.
We would be happy to answer your questions
If you have any questions concerning our products or services - please contact us using the details below.
What Is Pi?
Pi is a new class of AI, designed to be, a kind and
supportive companion.
PI offers Conversations:
Pi engages in natural, flowing conversations with users.
PI offers Friendly Advice:
Pi provides helpful advice.
PI Concise Information:
Pi shares information in a clear and succinct manner.
Pi’s purpose
is to give people a fresh way to express themselves,
explore ideas, and experience a trusted personal AI.
It’s built on world-class proprietary
AI technology developed in-house by Inflection.
Key Features of Pi:
Kind and Supportive:
Pi listens, empowers, and helps process thoughts and feelings.
It assists with tricky decisions step by step.
Curious and Humble:
Eager to learn and adapt. Provides feedback in plain, natural language that improves over time.
Creative and Fun:
Playful, laughs easily, and makes surprising, creative connections.
Knowledgeable, but Succinct:
Transforms browsing into a simple conversation.
All Yours:
Pi is on your team, in your corner, and works to have your back.
PI is your own personal AI system,
In Development:
Early days, so information could be wrong at times. PI is still learning but gets smarter every day with your help,
CEO’s Perspective:
Mustafa Suleyman, CEO and co-founder of Inflection, describes
Pi as:
- A new kind of AI with good EQ (emotional intelligence).
- A digital companion for learning, discussing moments, or simply
- passing the time.
Pi is currently available across platforms:
Facebook :
Get in touch with Pi when you use Messenger
Instagram :
Follow @heypi.ai and send Pi a Direct Message
Whatsapp :
Add +1 (314) 333-1111 to your contacts to message Pi.
SMS
Add +1 (314) 333-1111 to your contacts to message Pi.
Mobile Phones:
Download Pi, your personal AI, for iPhone or iPad. & Android phones in Playstore
Online:
Chat with Pi at heypi.com.
What Is Pi?
Pi is a new class of AI, designed to
be, a kind and supportive companion.
PI offers Conversations:
Pi engages in natural, flowing conversations with users.
PI offers Friendly Advice:
Pi provides helpful advice.
PI Concise Information:
Pi shares information in a
clear and succinct manner.
Pi’s purpose
is to give people a fresh way to express themselves, explore ideas, and experience a trusted personal AI.
It’s built on world-class proprietary
AI technology developed in-house
by Inflection.
Key Features of Pi:
Kind and Supportive:
Pi listens, empowers, and helps process thoughts and feelings.
It assists with tricky decisions step by step.
Curious and Humble:
Eager to learn and adapt. Provides feedback in plain, natural language that improves over time.
Creative and Fun:
Playful, laughs easily, and makes surprising, creative connections.
Knowledgeable, but Succinct:
Transforms browsing into a simple conversation.
All Yours:
Pi is on your team, in your corner, and works to have your back.
PI is your own personal AI system,
In Development:
Early days, so information could be wrong at times. PI is still learning but gets smarter every day with your help,
CEO’s Perspective:
Mustafa Suleyman, CEO and co-founder of Inflection, describes Pi as:
- A new kind of AI with good EQ (emotional intelligence).
- A digital companion for learning, discussing moments, or simply passing the time.
Pi is currently available across platforms:
Facebook :
Get in touch with Pi when you use Messenger
Instagram :
Follow @heypi.ai and send Pi a Direct Message
Whatsapp :
Add +1 (314) 333-1111 to your contacts to message Pi.
SMS
Add +1 (314) 333-1111 to your contacts to message Pi.
Mobile Phones:
Download Pi, your personal AI, for iPhone or iPad. & Android phones in Playstore
Online:
Chat with Pi at heypi.com.
Imagine, we could direct Sound
Add Sound... Where It's Needed... & Nowhere Else...
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Imagine, we could direct Sound
Add Sound... Where It's Needed... & Nowhere Else...
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Imagine, we could direct sound...
Add Sound... Where It's Needed... & Nowhere Else...
We develop and distribute, "Directed Sound" applications.
We like to demonstrate all the possibilities that our products can provide. iSoundLabs brings sound where it's needed and nowhere else. We have "directed sound" solutions for banks, hotels, restaurants/bars, beachbars, museums, hospitals, airports, football stadiums and digital advertising... We like to work with you to offer customized solutions or we can integrate our technology into your products.
The technique of using a nonlinear interaction of high-frequency waves
to generate low-frequency waves was originally pioneered by researchers developing underwater sonar techniques dating back to the 1960's. These early acoustics researchers successfully derived the formal mathematical basis for this effect and developed innovative sonar systems with more directivity and bandwidth than would otherwise be available. They called this device a parametric array. In 1975, the first publication appeared which demonstrated that these nonlinear effects indeed occur in air. While these researchers had not attempted to reproduce audio, they nonetheless proved that such a device may be possible.
History of this very special technology
Over the next two decades, several large companies, including Matsushita (Panasonic), NC Denon, and Ricoh attempted to develop a loudspeaker based on this principle. A paper describing one attempt was published in 1983. While they were successful in producing some sort of sound, problems with cost, feasibility, and extremely high levels of distortion (>50% THD) caused the almost total abandonment of the technology by the end of the 1980's. While a graduate student developing '3D Audio' at Northwestern University in the late 1990's, Joseph Pompei had similar ideas of using ultrasound as a loudspeaker, largely to overcome deficiencies he saw with traditional methods of sound reproduction. After performing extensive research on the idea, he discovered the large body of knowledge in the field of nonlinear acoustics, as well as the earlier attempts at using ultrasound as an audible source. Soon after arriving at MIT, his insight led him to identify – and subsequently rectify – the barriers which had plagued the earlier researchers. Through a combination of careful mathematical analysis and solid engineering, he was able to construct the very first practical, high-performance audio beam system.
We develop & distribute, "Directed Sound" applications.
We like to demonstrate all the possibilities that our products can provide. We brings sound where it's needed and nowhere else. We have "directed sound" solutions for banks, hotels, restaurants/bars, beachbars, museums, hospitals, airports, football stadiums and digital advertising... We like to work with you to offer customized solutions or we can integrate our technology into your products.
The technique of using a nonlinear interaction of high-frequency waves
to generate low-frequency waves was originally pioneered by researchers developing underwater sonar techniques dating back to the 1960's. These early acoustics researchers successfully derived the formal mathematical basis for this effect and developed innovative sonar systems with more directivity and bandwidth than would otherwise be available. They called this device a parametric array. In 1975, the first publication appeared which demonstrated that these nonlinear effects indeed occur in air. While these researchers had not attempted to reproduce audio, they nonetheless proved that such a device may be possible.
History of this very special technology
Over the next two decades, several large companies, including Matsushita (Panasonic), NC Denon, and Ricoh attempted to develop a loudspeaker based on this principle. A paper describing one attempt was published in 1983. While they were successful in producing some sort of sound, problems with cost, feasibility, and extremely high levels of distortion (>50% THD) caused the almost total abandonment of the technology by the end of the 1980's. While a graduate student developing '3D Audio' at Northwestern University in the late 1990's, Joseph Pompei had similar ideas of using ultrasound as a loudspeaker, largely to overcome deficiencies he saw with traditional methods of sound reproduction. After performing extensive research on the idea, he discovered the large body of knowledge in the field of nonlinear acoustics, as well as the earlier attempts at using ultrasound as an audible source. Soon after arriving at MIT, his insight led him to identify – and subsequently rectify – the barriers which had plagued the earlier researchers. Through a combination of careful mathematical analysis and solid engineering, he was able to construct the very first practical, high-performance audio beam system.
Directed Sound Demo
Directed Sound Demo
We develop and distribute, "Directed Sound" applications.
We like to demonstrate all the possibilities that our products can provide. iSoundLabs brings sound where it's needed and nowhere else. We have "directed sound" solutions for banks, hotels, restaurants/bars, beachbars, museums, hospitals, airports, football stadiums and digital advertising... We like to work with you to offer customized solutions or we can integrate our technology into your products.
The technique of using a nonlinear interaction of high-frequency waves
to generate low-frequency waves was originally pioneered by researchers developing underwater sonar techniques dating back to the 1960's. These early acoustics researchers successfully derived the formal mathematical basis for this effect and developed innovative sonar systems with more directivity and bandwidth than would otherwise be available. They called this device a parametric array. In 1975, the first publication appeared which demonstrated that these nonlinear effects indeed occur in air. While these researchers had not attempted to reproduce audio, they nonetheless proved that such a device may be possible.
History of this very special technology
Over the next two decades, several large companies, including Matsushita (Panasonic), NC Denon, and Ricoh attempted to develop a loudspeaker based on this principle. A paper describing one attempt was published in 1983. While they were successful in producing some sort of sound, problems with cost, feasibility, and extremely high levels of distortion (>50% THD) caused the almost total abandonment of the technology by the end of the 1980's. While a graduate student developing '3D Audio' at Northwestern University in the late 1990's, Joseph Pompei had similar ideas of using ultrasound as a loudspeaker, largely to overcome deficiencies he saw with traditional methods of sound reproduction. After performing extensive research on the idea, he discovered the large body of knowledge in the field of nonlinear acoustics, as well as the earlier attempts at using ultrasound as an audible source. Soon after arriving at MIT, his insight led him to identify – and subsequently rectify – the barriers which had plagued the earlier researchers. Through a combination of careful mathematical analysis and solid engineering, he was able to construct the very first practical, high-performance audio beam system.
We develop and distribute, "Directed Sound" applications.
We like to demonstrate all the possibilities that our products can provide. iSoundLabs brings sound where it's needed and nowhere else. We have "directed sound" solutions for banks, hotels, restaurants/bars, beachbars, museums, hospitals, airports, football stadiums and digital advertising... We like to work with you to offer customized solutions or we can integrate our technology into your products.
The technique of using a nonlinear interaction of high-frequency waves
to generate low-frequency waves was originally pioneered by researchers developing underwater sonar techniques dating back to the 1960's. These early acoustics researchers successfully derived the formal mathematical basis for this effect and developed innovative sonar systems with more directivity and bandwidth than would otherwise be available. They called this device a parametric array. In 1975, the first publication appeared which demonstrated that these nonlinear effects indeed occur in air. While these researchers had not attempted to reproduce audio, they nonetheless proved that such a device may be possible.
History of this very special technology
Over the next two decades, several large companies, including Matsushita (Panasonic), NC Denon, and Ricoh attempted to develop a loudspeaker based on this principle. A paper describing one attempt was published in 1983. While they were successful in producing some sort of sound, problems with cost, feasibility, and extremely high levels of distortion (>50% THD) caused the almost total abandonment of the technology by the end of the 1980's. While a graduate student developing '3D Audio' at Northwestern University in the late 1990's, Joseph Pompei had similar ideas of using ultrasound as a loudspeaker, largely to overcome deficiencies he saw with traditional methods of sound reproduction. After performing extensive research on the idea, he discovered the large body of knowledge in the field of nonlinear acoustics, as well as the earlier attempts at using ultrasound as an audible source. Soon after arriving at MIT, his insight led him to identify – and subsequently rectify – the barriers which had plagued the earlier researchers. Through a combination of careful mathematical analysis and solid engineering, he was able to construct the very first practical, high-performance audio beam system.
We develop & distribute, "Directed Sound" applications.
We like to demonstrate all the possibilities that our products can provide. We brings sound where it's needed and nowhere else. We have "directed sound" solutions for banks, hotels, restaurants/bars, beachbars, museums, hospitals, airports, football stadiums and digital advertising... We like to work with you to offer customized solutions or we can integrate our technology into your products.
The technique of using a nonlinear interaction of high-frequency waves
to generate low-frequency waves was originally pioneered by researchers developing underwater sonar techniques dating back to the 1960's. These early acoustics researchers successfully derived the formal mathematical basis for this effect and developed innovative sonar systems with more directivity and bandwidth than would otherwise be available. They called this device a parametric array. In 1975, the first publication appeared which demonstrated that these nonlinear effects indeed occur in air. While these researchers had not attempted to reproduce audio, they nonetheless proved that such a device may be possible.
History of this very special technology
Over the next two decades, several large companies, including Matsushita (Panasonic), NC Denon, and Ricoh attempted to develop a loudspeaker based on this principle. A paper describing one attempt was published in 1983. While they were successful in producing some sort of sound, problems with cost, feasibility, and extremely high levels of distortion (>50% THD) caused the almost total abandonment of the technology by the end of the 1980's. While a graduate student developing '3D Audio' at Northwestern University in the late 1990's, Joseph Pompei had similar ideas of using ultrasound as a loudspeaker, largely to overcome deficiencies he saw with traditional methods of sound reproduction. After performing extensive research on the idea, he discovered the large body of knowledge in the field of nonlinear acoustics, as well as the earlier attempts at using ultrasound as an audible source. Soon after arriving at MIT, his insight led him to identify – and subsequently rectify – the barriers which had plagued the earlier researchers. Through a combination of careful mathematical analysis and solid engineering, he was able to construct the very first practical, high-performance audio beam system.
Directed Sound Demo
Directed Sound Demo
The Banana Demo
The Trade Fair Demo
PI your personal AI System
“It is not that I'm so smart. But I stay with the questions much longer.” - Albert Einstein
PI your personal AI System
The measure of intelligence is the ability
to change. - Albert Einstein
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Imagine, we could direct Sound
Add Sound... Where It's Needed... & Nowhere Else...
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Imagine, we could direct sound...
Add Sound... Where It's Needed... & Nowhere Else...
We develop and distribute, "Directed Sound" applications.
We like to demonstrate all the possibilities that our products can provide. iSoundLabs brings sound where it's needed and nowhere else. We have "directed sound" solutions for banks, hotels, restaurants/bars, beachbars, museums, hospitals, airports, football stadiums and digital advertising... We like to work with you to offer customized solutions or we can integrate our technology into your products.
The technique of using a nonlinear interaction of high-frequency waves
to generate low-frequency waves was originally pioneered by researchers developing underwater sonar techniques dating back to the 1960's. These early acoustics researchers successfully derived the formal mathematical basis for this effect and developed innovative sonar systems with more directivity and bandwidth than would otherwise be available. They called this device a parametric array. In 1975, the first publication appeared which demonstrated that these nonlinear effects indeed occur in air. While these researchers had not attempted to reproduce audio, they nonetheless proved that such a device may be possible.
History of this very special technology
Over the next two decades, several large companies, including Matsushita (Panasonic), NC Denon, and Ricoh attempted to develop a loudspeaker based on this principle. A paper describing one attempt was published in 1983. While they were successful in producing some sort of sound, problems with cost, feasibility, and extremely high levels of distortion (>50% THD) caused the almost total abandonment of the technology by the end of the 1980's. While a graduate student developing '3D Audio' at Northwestern University in the late 1990's, Joseph Pompei had similar ideas of using ultrasound as a loudspeaker, largely to overcome deficiencies he saw with traditional methods of sound reproduction. After performing extensive research on the idea, he discovered the large body of knowledge in the field of nonlinear acoustics, as well as the earlier attempts at using ultrasound as an audible source. Soon after arriving at MIT, his insight led him to identify – and subsequently rectify – the barriers which had plagued the earlier researchers. Through a combination of careful mathematical analysis and solid engineering, he was able to construct the very first practical, high-performance audio beam system.
We develop & distribute, "Directed Sound" applications.
We like to demonstrate all the possibilities that our products can provide. We brings sound where it's needed and nowhere else. We have "directed sound" solutions for banks, hotels, restaurants/bars, beachbars, museums, hospitals, airports, football stadiums and digital advertising... We like to work with you to offer customized solutions or we can integrate our technology into your products.
The technique of using a nonlinear interaction of high-frequency waves
to generate low-frequency waves was originally pioneered by researchers developing underwater sonar techniques dating back to the 1960's. These early acoustics researchers successfully derived the formal mathematical basis for this effect and developed innovative sonar systems with more directivity and bandwidth than would otherwise be available. They called this device a parametric array. In 1975, the first publication appeared which demonstrated that these nonlinear effects indeed occur in air. While these researchers had not attempted to reproduce audio, they nonetheless proved that such a device may be possible.
History of this very special technology
Over the next two decades, several large companies, including Matsushita (Panasonic), NC Denon, and Ricoh attempted to develop a loudspeaker based on this principle. A paper describing one attempt was published in 1983. While they were successful in producing some sort of sound, problems with cost, feasibility, and extremely high levels of distortion (>50% THD) caused the almost total abandonment of the technology by the end of the 1980's. While a graduate student developing '3D Audio' at Northwestern University in the late 1990's, Joseph Pompei had similar ideas of using ultrasound as a loudspeaker, largely to overcome deficiencies he saw with traditional methods of sound reproduction. After performing extensive research on the idea, he discovered the large body of knowledge in the field of nonlinear acoustics, as well as the earlier attempts at using ultrasound as an audible source. Soon after arriving at MIT, his insight led him to identify – and subsequently rectify – the barriers which had plagued the earlier researchers. Through a combination of careful mathematical analysis and solid engineering, he was able to construct the very first practical, high-performance audio beam system.
Directed Sound Demo
Directed Sound Demo
We develop and distribute, "Directed Sound" applications.
We like to demonstrate all the possibilities that our products can provide. iSoundLabs brings sound where it's needed and nowhere else. We have "directed sound" solutions for banks, hotels, restaurants/bars, beachbars, museums, hospitals, airports, football stadiums and digital advertising... We like to work with you to offer customized solutions or we can integrate our technology into your products.
The technique of using a nonlinear interaction of high-frequency waves
to generate low-frequency waves was originally pioneered by researchers developing underwater sonar techniques dating back to the 1960's. These early acoustics researchers successfully derived the formal mathematical basis for this effect and developed innovative sonar systems with more directivity and bandwidth than would otherwise be available. They called this device a parametric array. In 1975, the first publication appeared which demonstrated that these nonlinear effects indeed occur in air. While these researchers had not attempted to reproduce audio, they nonetheless proved that such a device may be possible.
History of this very special technology
Over the next two decades, several large companies, including Matsushita (Panasonic), NC Denon, and Ricoh attempted to develop a loudspeaker based on this principle. A paper describing one attempt was published in 1983. While they were successful in producing some sort of sound, problems with cost, feasibility, and extremely high levels of distortion (>50% THD) caused the almost total abandonment of the technology by the end of the 1980's. While a graduate student developing '3D Audio' at Northwestern University in the late 1990's, Joseph Pompei had similar ideas of using ultrasound as a loudspeaker, largely to overcome deficiencies he saw with traditional methods of sound reproduction. After performing extensive research on the idea, he discovered the large body of knowledge in the field of nonlinear acoustics, as well as the earlier attempts at using ultrasound as an audible source. Soon after arriving at MIT, his insight led him to identify – and subsequently rectify – the barriers which had plagued the earlier researchers. Through a combination of careful mathematical analysis and solid engineering, he was able to construct the very first practical, high-performance audio beam system.
We develop and distribute, "Directed Sound" applications.
We like to demonstrate all the possibilities that our products can provide. iSoundLabs brings sound where it's needed and nowhere else. We have "directed sound" solutions for banks, hotels, restaurants/bars, beachbars, museums, hospitals, airports, football stadiums and digital advertising... We like to work with you to offer customized solutions or we can integrate our technology into your products.
The technique of using a nonlinear interaction of high-frequency waves
to generate low-frequency waves was originally pioneered by researchers developing underwater sonar techniques dating back to the 1960's. These early acoustics researchers successfully derived the formal mathematical basis for this effect and developed innovative sonar systems with more directivity and bandwidth than would otherwise be available. They called this device a parametric array. In 1975, the first publication appeared which demonstrated that these nonlinear effects indeed occur in air. While these researchers had not attempted to reproduce audio, they nonetheless proved that such a device may be possible.
History of this very special technology
Over the next two decades, several large companies, including Matsushita (Panasonic), NC Denon, and Ricoh attempted to develop a loudspeaker based on this principle. A paper describing one attempt was published in 1983. While they were successful in producing some sort of sound, problems with cost, feasibility, and extremely high levels of distortion (>50% THD) caused the almost total abandonment of the technology by the end of the 1980's. While a graduate student developing '3D Audio' at Northwestern University in the late 1990's, Joseph Pompei had similar ideas of using ultrasound as a loudspeaker, largely to overcome deficiencies he saw with traditional methods of sound reproduction. After performing extensive research on the idea, he discovered the large body of knowledge in the field of nonlinear acoustics, as well as the earlier attempts at using ultrasound as an audible source. Soon after arriving at MIT, his insight led him to identify – and subsequently rectify – the barriers which had plagued the earlier researchers. Through a combination of careful mathematical analysis and solid engineering, he was able to construct the very first practical, high-performance audio beam system.
We develop & distribute, "Directed Sound" applications.
We like to demonstrate all the possibilities that our products can provide. We brings sound where it's needed and nowhere else. We have "directed sound" solutions for banks, hotels, restaurants/bars, beachbars, museums, hospitals, airports, football stadiums and digital advertising... We like to work with you to offer customized solutions or we can integrate our technology into your products.
The technique of using a nonlinear interaction of high-frequency waves
to generate low-frequency waves was originally pioneered by researchers developing underwater sonar techniques dating back to the 1960's. These early acoustics researchers successfully derived the formal mathematical basis for this effect and developed innovative sonar systems with more directivity and bandwidth than would otherwise be available. They called this device a parametric array. In 1975, the first publication appeared which demonstrated that these nonlinear effects indeed occur in air. While these researchers had not attempted to reproduce audio, they nonetheless proved that such a device may be possible.
History of this very special technology
Over the next two decades, several large companies, including Matsushita (Panasonic), NC Denon, and Ricoh attempted to develop a loudspeaker based on this principle. A paper describing one attempt was published in 1983. While they were successful in producing some sort of sound, problems with cost, feasibility, and extremely high levels of distortion (>50% THD) caused the almost total abandonment of the technology by the end of the 1980's. While a graduate student developing '3D Audio' at Northwestern University in the late 1990's, Joseph Pompei had similar ideas of using ultrasound as a loudspeaker, largely to overcome deficiencies he saw with traditional methods of sound reproduction. After performing extensive research on the idea, he discovered the large body of knowledge in the field of nonlinear acoustics, as well as the earlier attempts at using ultrasound as an audible source. Soon after arriving at MIT, his insight led him to identify – and subsequently rectify – the barriers which had plagued the earlier researchers. Through a combination of careful mathematical analysis and solid engineering, he was able to construct the very first practical, high-performance audio beam system.
Directed Sound Demo
Directed Sound Demo
The Banana Demo
The Trade Fair Demo
PI your personal AI System
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Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
Directed Sound Applications
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Pi is a new class of AI, designed to be, a kind and supportive companion.
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Pi shares information in a clear and succinct manner.
Pi’s purpose
is to give people a fresh way to express themselves, explore ideas, and experience a trusted personal AI.
It’s built on world-class proprietary AI technology developed in-house by Inflection.
Key Features of Pi:
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Pi listens, empowers, and helps process thoughts and feelings.
It assists with tricky decisions step by step.
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PI is your own personal AI system,
In Development:
Early days, so information could be wrong at times. PI is still learning but gets smarter every day with your help,
CEO’s Perspective:
Mustafa Suleyman, CEO and co-founder of Inflection, describes Pi as:
A new kind of AI with good EQ (emotional intelligence).
A digital companion for learning, discussing moments, or simply passing the time.
Pi is currently available across platforms:
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Follow @heypi.ai and send Pi a Direct Message
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Add +1 (314) 333-1111 to your contacts to message Pi.
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Mobile Phones:
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Online:
Chat with Pi at heypi.com.
We would be happy to answer your questions
If you have any questions concerning our products or services or if you want to talk about an investment opportunity or want to
schedule an appointment with one of our consultants to discuss a wonderful idea - Please contact us using the details below.
What Is Pi?
Pi is a new class of AI, designed to
be, a kind and supportive companion.
PI offers Conversations:
Pi engages in natural, flowing conversations with users.
PI offers Friendly Advice:
Pi provides helpful advice.
PI Concise Information:
Pi shares information in a
clear and succinct manner.
Pi’s purpose
is to give people a fresh way to express themselves, explore ideas, and experience a trusted personal AI.
It’s built on world-class proprietary
AI technology developed in-house
by Inflection.
Key Features of Pi:
Kind and Supportive:
Pi listens, empowers, and helps process thoughts and feelings.
It assists with tricky decisions step by step.
Curious and Humble:
Eager to learn and adapt. Provides feedback in plain, natural language that improves over time.
Creative and Fun:
Playful, laughs easily, and makes surprising, creative connections.
Knowledgeable, but Succinct:
Transforms browsing into a simple conversation.
All Yours:
Pi is on your team, in your corner, and works to have your back.
PI is your own personal AI system,
In Development:
Early days, so information could be wrong at times. PI is still learning but gets smarter every day with your help,
CEO’s Perspective:
Mustafa Suleyman, CEO and co-founder of Inflection, describes Pi as:
- A new kind of AI with good EQ (emotional intelligence).
- A digital companion for learning, discussing moments, or simply passing the time.
Pi is currently available across platforms:
Facebook :
Get in touch with Pi when you use Messenger
Instagram :
Follow @heypi.ai and send Pi a Direct Message
Whatsapp :
Add +1 (314) 333-1111 to your contacts to message Pi.
SMS
Add +1 (314) 333-1111 to your contacts to message Pi.
Mobile Phones:
Download Pi, your personal AI, for iPhone or iPad. & Android phones in Playstore
Online:
Chat with Pi at heypi.com.
iSoundLabs develops and distributes, "Directed Sound" applications.
We like to demonstrate all the possibilities that our products can provide. iSoundLabs brings sound where it's needed and nowhere else. We have "directed sound" solutions for banks, hotels, restaurants/bars, beachbars, museums, hospitals, airports, football stadiums and digital advertising... We like to work with you to offer customized solutions or we can integrate our technology into your products.
The technique of using a nonlinear interaction of high-frequency waves
to generate low-frequency waves was originally pioneered by researchers developing underwater sonar techniques dating back to the 1960's. These early acoustics researchers successfully derived the formal mathematical basis for this effect and developed innovative sonar systems with more directivity and bandwidth than would otherwise be available. They called this device a parametric array. In 1975, the first publication appeared which demonstrated that these nonlinear effects indeed occur in air. While these researchers had not attempted to reproduce audio, they nonetheless proved that such a device may be possible.
History of this very special technology
Over the next two decades, several large companies, including Matsushita (Panasonic), NC Denon, and Ricoh attempted to develop a loudspeaker based on this principle. A paper describing one attempt was published in 1983. While they were successful in producing some sort of sound, problems with cost, feasibility, and extremely high levels of distortion (>50% THD) caused the almost total abandonment of the technology by the end of the 1980's. While a graduate student developing '3D Audio' at Northwestern University in the late 1990's, Joseph Pompei had similar ideas of using ultrasound as a loudspeaker, largely to overcome deficiencies he saw with traditional methods of sound reproduction. After performing extensive research on the idea, he discovered the large body of knowledge in the field of nonlinear acoustics, as well as the earlier attempts at using ultrasound as an audible source. Soon after arriving at MIT, his insight led him to identify – and subsequently rectify – the barriers which had plagued the earlier researchers. Through a combination of careful mathematical analysis and solid engineering, he was able to construct the very first practical, high-performance audio beam system.
Imagine, we could direct sound
ADD SOUND... WHERE IT'S NEEDED... AND NOWHERE ELSE...
Imagine, we could direct sound
ADD SOUND... WHERE IT'S NEEDED... AND NOWHERE ELSE...
Imagine, we could direct sound
ADD SOUND... WHERE IT'S NEEDED... AND NOWHERE ELSE...
Imagine, we could direct sound
ADD SOUND... WHERE IT'S NEEDED... AND NOWHERE ELSE...
Imagine, we could direct sound
ADD SOUND... WHERE IT'S NEEDED... AND NOWHERE ELSE...
Imagine, we could direct sound
ADD SOUND... WHERE IT'S NEEDED... AND NOWHERE ELSE...
Imagine, we could direct sound
ADD SOUND... WHERE IT'S NEEDED... AND NOWHERE ELSE...
Imagine, we could direct sound
ADD SOUND... WHERE IT'S NEEDED... AND NOWHERE ELSE...
Imagine, we could direct sound
ADD SOUND... WHERE IT'S NEEDED... AND NOWHERE ELSE...
Imagine, we could direct sound
ADD SOUND... WHERE IT'S NEEDED... AND NOWHERE ELSE...
Imagine, we could direct sound
ADD SOUND... WHERE IT'S NEEDED... AND NOWHERE ELSE...
Imagine, we could direct sound
ADD SOUND... WHERE IT'S NEEDED... AND NOWHERE ELSE...
Imagine, we could direct sound
ADD SOUND... WHERE IT'S NEEDED... AND NOWHERE ELSE...
Imagine, we could direct sound
ADD SOUND... WHERE IT'S NEEDED... AND NOWHERE ELSE...
We would be happy to answer your questions
If you have any questions concerning our products or services or want to schedule an appointment with one of our consultants - please contact us using the details below.
We would be happy to answer your questions
If you have any questions concerning our products or services or want to schedule an appointment with one of our consultants - please contact us using the details below.
We would be happy to answer your questions
If you have any questions concerning our products or services or want to schedule an appointment with one of our consultants - please contact us using the details below.
Address:
Neuburgerstr. 40, Augsburg 86167 - Germany
Call or Whatsapp
+32 477 50 17 48
Call or Whatsapp
+32 477 50 17 48
Email us:
info@ianusinvestments.com
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We would be happy to answer your questions
If you have any questions concerning our products or services or want to schedule an appointment with one of our consultants - please contact us using the details below.
We would be happy to answer your questions
If you have any questions concerning our products or services or want to schedule an appointment with one of our consultants - please contact us using the details below.
Address
Neuburgerstr. 40,
Augsburg 86167
Germany
Office Hours
8:30 - 18:00
Call or whatsapp us
+32 477 50 17 48
Email us
info@ianusinvestments.com
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Request Info
Route planning
Navigate to our location, faster and easier with Google Maps.
Weather Forecast