Portable ionization unit for attachment to an overhead airflow nozzle
A portable ionization unit for attachment to an overhead airflow nozzle is disclosed. The ionization unit includes a housing. A rechargeable self-contained ionizer is positioned inside the housing. The housing is attachable to the overhead airflow nozzle. Once the ionization unit is attached to the overhead airflow nozzle, a dome of bipolar ionized air is created above the seated passenger.
1. A portable ionization unit for attachment to an overhead airflow nozzle, the portable ionization unit comprising:
a tubular housing with an attachment device configured to be user-attachable and detachable from the overhead airflow nozzle, wherein the tubular housing includes an air inlet at a first end configured to receive air from the overhead airflow nozzle, and an axially aligned air outlet at an opposing second end via which the air exits the tubular housing, the attachment device including at least one spring-loaded grabber which is rotatably hinged proximately to the first end of the tubular housing and configured to apply a grabbing force to the overhead airflow nozzle in a direction towards a central axis of the tubular housing; and
an ionizer mounted within the tubular housing, the ionizer comprising:
a bipolar ionization emitter and associated circuitry,
a rechargeable battery to provide power for the bipolar ionization emitter and associated circuitry,
a power switch for turning the ionizer on and off,
a USB charging port with a receptacle for charging the rechargeable battery, wherein the USB charging port is mounted so that the receptacle is user-accessible from outside the tubular housing; and
an LED light that is illuminated when the ionizer is turned on;
wherein the ionizer is configured to ionize the air which passes through the tubular housing via the air inlet and the air outlet.
2. The portable ionization unit of claim 1 , wherein the at least one spring-loaded grabber includes a spring for biasing a forward portion of the at least one spring-loaded grabber in the direction towards the central axis of the tubular housing, and an opposing aft portion configured to selectively move the forward portion towards and away from the central axis of the tubular housing so as to respectively engage and disengage the portable ionization unit with the overhead airflow nozzle.
3. The portable ionization unit of claim 1 , wherein the bipolar ionization emitter is a needlepoint emitter.
4. The portable ionization unit of claim 3 , wherein the needlepoint emitter is a three-point sawtooth scorotron emitter.
5. The portable ionization unit of claim 1 , wherein the tubular housing is made of thermoplastic elastomer.
6. The portable ionization unit of claim 1 , wherein the air outlet is covered by a perforated grille.
7. The portable ionization unit of claim 6 , wherein the LED light is mounted at a center of the perforated grille.
8. The portable ionization unit of claim 1 , further comprising a flexible rubber seal positioned along an inner rim of the tubular housing adjacent to the air inlet, to provide an airtight seal when the tubular housing is attached to the overhead airflow nozzle.
9. The portable ionization unit of claim 2 , wherein the forward portion of the at least one spring-loaded grabber includes jagged grabbing surfaces for interfacing with the overhead airflow nozzle.
10. The portable ionization unit of claim 1 , wherein the at least one spring-loaded grabber includes a magnet for attachment to the overhead airflow nozzle.
11. The portable ionization unit of claim 1 , wherein the at least one spring-loaded grabber includes a suction cup for attachment to the overhead airflow nozzle.
12. The portable ionization unit of claim 6 , wherein the at least one spring-loaded grabber includes an adhesive fastener arranged for attachment to the overhead airflow nozzle.