Comfortable hand-touch wearable hearing-aid system

Abstract

A method and apparatus for propagating optical Beamy light and Combi signals via a cascaded line of support devices for electrically powered wiring devices and low voltage IoTs and Ai devices, combined into homes and high-rise units for operating, controlling and reporting home automation via optical, electrical and wireless communication with no collision, by providing traffic control for signals propagation. The cascaded devices linked via plastic optical fiber or other optical cable are aided by a series of testers during installation and beyond, with the electrical and low voltage devices are installed by a plug-in action into the cascaded devices and removed by a pull hand tool.

What is claimed is: 
     
         1 . A method to prevent a surround noise(s) and/or a sound from one of a human and a device, generated and penetrated into-and via at least one of Wearable Hearing Device (WHD) and at least one of n pluralities of Self-Control Means (SCM), such as generated by at least one of n voice(s) or sound(s), or a noisy music(s) and/or traffic noise(s), a group talk noises(s), a club noise(s), a street noise(s), a dining sound(s), and at least one unclear noise(s) disturbing the WHD user confronting mixed generated sounds, be it by differing sharp noisy actuated devices, or generated at given times, which a user may not be aware of nor by inner WHD prosses, but will learn via a light indicator (over-time);
 Wherein at least one wearable device provide support for setting (a) single or n mic(s), covering varying n sound and applicable n light colors, generate the selecting of light color for a POF cut, applied by a plural of straight cut(s) and plural of bending cuts(s) of (a) POF, and/or propagated thin colors Beamy light and/or Combi Switch, responding in Milli-Sec. to generate light, to a very low power consuming CPU, while higher speed feed is/are further propagated via wireless RF and/or IR;   said ISBs being self-setting and adjusting via n USB(s), at least one of setting selector and memory for said setting and for loading data particulars, circuits for operating and for calculating the power consumed by each load via each said ISB and communication circuits for communicating at least one way of bidirectional signal with said one of the controller and a command converter, via one of said home automation grid and network, said method comprising the step of:
 a. loading said data particulars to each ISB as set, including data pertaining to said at least one device into said memory via said communication circuit; 
 b. setting one of identifying numeral and one of a code and address for identifying the means to installed location within said unit of each of said ISBs, by one of said setting selectors and via said controller or wirelessly via one of hand-held loader and a pad; 
 c. recording into said memory via said communication circuit and said at least one of a memory included in said one of the home controller and command converter—the stored particulars and the identified installed location within said unit, enabling to operate and switch on-off any and all devices including lights by responding to a touch; and 
 d. identifying each means power by each said wiring device via one of said setting selectors and a given load identifier, stored in the memory of said one of home controller and command converter, or via one of said hand-held loader and power plug with one of optical port and an RFID tag mated with a reciprocal optical port, and RFID reader respectively accessed via a power outlet of said wiring device attached to said ISB. 
   
     
     
         2 . The method according to  claim 1  wherein said grid is one of a low voltage bus-line for propagating electrical signal and an optical grid for propagating at least one of said optical signals via said optical cable including IR signal propagated in line of sight in said open air, said network including propagation of signals comprising said optical signals via said optical cable and said IR signals in line of sight, said electrical signals via bus line, said RF signals and combinations thereof; and
 said controller is selected from a group comprising a video interphone monitor, a shopping terminal, a dedicated home automation controller, and home automation grid distributor, a keypad, a touch pad, handheld controller and combinations thereof becoming yet another means to operate any and all items and devices by a touch of hearing aid push means. 
 
     
     
         3 . The method according to  claim 2  wherein said optical signal and electrical signal are converted two way for interfacing the propagated optical signal with electric signal and electrical signal with optical signal via one of said command converter and automation grid distributor, and wherein said RF signal and said optical signals are converted two way for interfacing said RF signal with optical signals and said optical signals with RF signals via at least one of said automation grid distributor and said ISB for exchanging signals command and response signals of a given load via said automation grid. 
     
     
         4 . The method according to  claim 1  wherein said bidirectional signals comprising an operate commands for on-off switching and operating at least one given load powered by at least one given electrical wiring device and responses for providing said one of controller and command converter with at least one of data pertaining the status of and one of the current drawn and the power consumed by said at least one given load. 
     
     
         5 . The method according to  claim 4  wherein a combination of said particulars of a given load powered by a given electrical wiring device, said one of installed location and one of code and address, said operate commands and responses are integrated into integrated control commands stored in said memory and a memory of at least one of said controller and command converter for storing the integrated control commands during the initial setup of the system and upgrade via the controller at random, enabling the propagating of short recall of operate commands and responses via said grid and network and operate said given function of said given load in the given location via a single integrated command and a single integrated response. 
     
     
         6 . The method according to  claim 5  wherein a specific load powered via said ISB is communicating via one of said RF signal in open air and via one of said optical signal through said optical port and IR in line of sight, wherein said specific load is responsive to a specific commands and responses only and, wherein said memory and said memory of said controller and said command converter are updated to include said specific commands and responses and the ISB is further set via said controller to communicate said specific commands and responses and the ISB is further set via said controller to communicate said specific commands and responses with said specific load. 
     
     
         7 . Said method according to  claim 5  wherein variety of loads powered via ISBs are communicating via one of said RF signal in open air and via one of said optical signal through said optical port and in line of sight wherein said variety of loads are responsive to diverse commands and responses and wherein said memory and said memory of said controller and said command converter are updated to include said diverse commands and responses and the ISB is further set via said controller to communicate with each of said variety of loads only diverse commands and responses, each commensurate with each one of said variety of loads. 
     
     
         8 . The method according to  claim 1  wherein said ISB comprising horizontally oriented boxes diversified in size and capacity and vertically oriented boxes diversified in size and capacity for supporting said electrical wiring devices selected from a group comprising manual switches, hybrid switches, relays, power outlets, power sockets and combinations thereof. 
     
     
         9 . The method according to  claim 8  wherein said ISB is structured to switch on-off a load directly connected to one of an attached manual switch and an hybrid switch including the switching on-off of a load powered via a given power outlet jointly attached to said ISB for powering a load. 
     
     
         10 . The method according to  claim 1  wherein said residential and commercial unit is selected from a group comprising a single home, an apartment of a building, one of a room and suit of an hotel, a shop, a restaurant, a club, a given area of a warehouse, an office, a garage, a workshop, one of a class and classes of school, a library, one of a room and rooms of an hospital, at least one of a room and rooms of a public building, and at least one of area and a zone of a factory. 
     
     
         11 . A structurally integrated one of a cascaded electrical grid in a residential and a commercial unit, with at least one of home automation grid and network via plurality of ISBs each connects to said electrical grid directly and to at least one load via at least one electrical wiring device, said plurality of ISBs are linked to at least one of a controller and a command converter by one of bidirectional optical signals via one of cascading grid of optical cable and at least one of wireless RF and IR signals bidirectionally propagated in open air;
 each of said plurality of ISBs comprising a CPU, at least one of setting selector and a memory for setting the home automation grid and for loading particulars data pertaining to each installed ISB as structured including data pertaining to said at least one wiring device, circuits for operating and for calculating the power consumed by each load via said wiring device and communication circuits for communicating at least one of controller and command.   
     
     
         12 . The structurally integrated electrical grid according to  claim 11  wherein said grid is one of a low voltage bus-line for propagating electrical signal and an optical grid for propagating at least one of said optical signals via said optical cable including IR signal propagated in line of sight in said open air, said network including propagation of signals comprising said optical signals via said optical cable and said IR signals in line of sight, said electrical signals via bus line, said RF signals and combinations thereof; and
 said controller is selected from a group comprising a video interphone monitor, a shopping terminal, a dedicated home automation controller, an home automation grid distributor, a key pad, a touch pad, hand held controller and combinations thereof. 
 
     
     
         13 . The structurally integrated electrical grid according to  claim 12  wherein said optical signal and electrical signal are converted two way for interfacing the propagated optical signal with electric signal and electrical signal with optical signal via one of said command converter and an automation grid distributor, and wherein said RF signal and said optical signals are converted two way for interfacing said RF signal with optical signals and said optical signals with RF signals via at least one of said automation grid distributor and said intelligent support box for exchanging signals commensurate with command and response signals of a given load via said automation grid. 
     
     
         14 . The structurally integrated electrical grid according to  claim 11  wherein said bidirectional signals comprising an operate commands for on-off switching and operating at least one given load powered by at least one given electrical wiring device and responses for providing said one of controller and command converter with at least one of data pertaining the status of and one of the current drawn and the power consumed by said at least one given load. 
     
     
         15 . The structurally integrated electrical grid according to  claim 14  wherein a combination of said particulars of a given load powered by a given electrical wiring device, said one of installed location and one of code and address, said operate commands and responses are integrated into integrated control commands stored in said memory and a memory of at least one of said controller and command converter for storing the integrated control commands during the initial setup of the system and upgrade via the controller at random, enabling the propagating of short recall of operate commands and responses via said grid and network and operate said given function of said given load in the given location via a single integrated command and a single integrated response. 
     
     
         16 . The structurally integrated electrical grid according to  claim 15  wherein a specific load powered via said ISB is communicating via one of said RF signal in open air and via one of said optical signal through said optical port and IR in line of sight wherein said specific load is responsive to a specific commands and responses only and, wherein said memory and said memory of said controller and said command converter are updated to include said specific commands and responses and the ISB is further set via said controller to communicate said specific commands and responses with said specific load. 
     
     
         17 . Said structurally integrated electrical grid according to  claim 15  wherein variety of loads powered via said ISBs are communicating via one of said RF signal in open air and via one of said optical signal through said optical port and in line of sight wherein said variety of loads are responsive to diverse commands and responses and wherein said memory and said memory of said controller and said command converter are updated to include said diverse commands and responses and the ISB is further set via said controller to communicate with each of said variety of loads only diverse commands and responses, each commensurate with each one of said variety of loads. 
     
     
         18 . The structurally integrated electrical grid according to  claim 11  wherein said ISBs comprising horizontally oriented boxes diversified in size and capacity and vertically oriented boxes diversified in size and capacity for supporting said electrical wiring devices selected from a group comprising manual switches, hybrid switches, relays, power outlets, power sockets and combinations thereof. 
     
     
         19 . The structurally integrated electrical grid according to  claim 18  wherein said ISB is structured to switch on-off a load directly connected to one of an attached manual switch and an hybrid switch including the switching on-off of a load powered via a given power outlet jointly attached to said ISB for powering a load. 
     
     
         20 . The structurally integrated electrical grid according to  claim 11  wherein said residential and commercial unit is selected from a group comprising a single home, an apartment of a building, one of a room and suit of an hotel, a shop, a restaurant, a club, a given area of a warehouse, an office, a garage, a workshop, one of a class and classes of a school, a library, one of a room and rooms of an hospital, at least one of a room and rooms of a public building, and at least one of area and a zone of a factory.