System for non-lethal defense and crowd control in public and private spaces
AssigneeNon Lethal Labs LLC
InventorsSpencer Topel, Lawrence Lopata
Life of this patent
Estimating the term…
Abstract
A non-lethal electronic defense device comprising one or more effects such as light, sonic, ultrasonic, infrasonic, chemical, electrical, or mechanical devices capable of causing intense sensations of disorientation, distress, incapacitation, and/or pain for the purpose of protecting a public or private space from an intruder or attacker exhibiting an intent to cause harm to physical inhabitants or destruction of property therein.
Claims25
A sound deterrence system comprising:
- a plurality of sensors geographically spaced apart for monitoring threats and generating signals indicating a location of a threat;
- a plurality of sound deterrence subsystems, at least one of which is located in a vicinity of each of said geographically spaced apart sensor locations;
- at least one sonic emitter in each of said plurality of sound deterrence subsystems;
- a controller configured to communicate a driver signal to individual ones of each of said plurality of sound deterrence subsystems based upon receipt of a threat signal from one or more of said plurality of sensors;
- and
- an algorithm executing on said controller for generating the driver signal, the algorithm taking a random sample of one or more frequencies from within a frequency domain range, the algorithm taking a random sample of a time interval from within a time domain range, and the algorithm continuously generating and regenerating the driver signal at said random samples of time intervals with said random samples of one or more frequencies.
A sound deterrence system comprising:
- a plurality of sensors geographically spaced apart for monitoring threats and generating signals indicating a location of a threat;
- a housing containing the sound deterrence system located in a vicinity of one of said geographically spaced apart sensor locations;
- at least one high frequency sonic emitter in said housing;
- a mid frequency sonic emitter in said housing;
- a controller configured to communicate a first driver signal to said high frequency sonic emitters and a second driver signal to said mid frequency sonic emitter based upon receipt of a threat signal from one or more of said plurality of sensors;
- and
- an algorithm executing on said controller for generating the first and second driver signals respectively, the algorithm taking a first and second random sample of one or more frequencies from within a first and second frequency domain range, the algorithm taking a first and second random sample of a time interval from within a first and second time domain range, and the algorithm continuously generating and regenerating the first and second driver signal at said first and second random samples of time intervals with said first and second random samples of one or more frequencies.
A sound deterrence system comprising:
- a plurality of sensors geographically spaced apart for monitoring threats and generating signals indicating a location and an identity and sounds of a threat;
- a plurality of sound deterrence subsystems, at least one of which is located in a vicinity of each of said geographically spaced apart sensor locations;
- at least one sonic emitter in each of said plurality of sound deterrence subsystems;
- a controller configured to communicate a driver signal to individual ones of each of said plurality of sound deterrence subsystems based upon receipt of a threat signal from one or more of said plurality of sensors;
- an algorithm executing on said controller for generating the driver signal, the algorithm taking a random sample of one or more frequencies from within a frequency domain range, the algorithm taking a random sample of a time interval from within a time domain range, and the algorithm continuously generating and regenerating the driver signal at said random samples of time intervals with said random samples of one or more frequencies;
- and
- a database containing at least images, video, text, audio samples, voice snippets, medical data, personnel records, said controller configured to access said database.
A threat deterrence system comprising:
- a plurality of sensors geographically spaced apart for monitoring threats and generating signals indicating at least a location of a threat;
- a plurality of threat deterrence subsystems, at least one of which is located in a vicinity of each of said geographically spaced apart sensor locations;
- at least one non lethal defensive element in each of said plurality of threat deterrence subsystems;
- a controller configured to communicate a non lethal defensive element signal to individual ones of each of said plurality of threat deterrence subsystems based upon receipt of a threat signal from one or more of said plurality of sensors;
- and
- an algorithm executing on said controller for generating the non lethal defensive element signal, the algorithm taking a random sample of one or more frequencies from within a frequency domain range, the algorithm taking a random sample of a time interval from within a time domain range, and the algorithm continuously generating and regenerating the non lethal defensive element signal at said random samples of time intervals with said random samples of one or more frequencies.
A sound deterrence system comprising:
- a plurality of sensors geographically spaced apart for monitoring threats and generating signals indicating a location of a threat;
- a housing containing the sound deterrence system located in a vicinity of one of said geographically spaced apart sensor locations;
- a mid frequency sonic emitter arranged in said housing, said mid frequency sonic having a horn;
- a waveguide disposed within said housing;
- at least one high frequency sonic emitter arranged in said waveguide, said high frequency sonic emitter having a high frequency cone, the ratio of said high frequency cone area to said horn area being between 12 to 1 and 6 to 1;
- a controller configured to communicate a driver signal to said high frequency sonic emitter and said mid frequency sonic emitter;
- and
- an algorithm executing on said controller for generating the driver signal, the algorithm taking a random sample of one or more frequencies from within a frequency domain range, the algorithm taking a random sample of a time interval from within a time domain range, and the algorithm continuously generating and regenerating the driver signal at said random samples of time intervals with said random samples of one or more frequencies.
Dependencies are inferred from the claim text.