The present invention is in the field of devices capable of detecting motion specifically small amounts of motion which are referred to herein as micro motion. Such devices are typically provided with an electrical/electronic portion which is capable of detecting motion and translating it into an audible and/or visible signal to the user of the device or nearby drivers and pedestrians. It is common for such devices to utilize as the motion sensor an electronically conductive ball that vibrates in response to such motion, in the course of which it makes and brakes electrical contact with various terminals along the way. Such devices are frequently incorporated into anti-carjacking and related security devices for automobiles and other possessions, as a critical part thereof.
A new micro motion sensor has high sensitivity and high reliability, and the false alarm prevention system can eliminate false alarms.
This invention stops and eliminates false alarms but, micro motion sensitivity remains high. It can prevent accidents, carjacking and theft. It also offers an early warning system and safer and more secure driving. It triggers high power LEDS and a chirping sound during an an occasional driver's mistake to warn nearby drivers and pedestrians that a vehicle is fast approaching and/or turning and braking.
Everyone knows that real safety can be achieved only if everybody around is aware of the dangerous situation. It navigates drivers to develop good driving habits, if it detects risky vehicle operation then it shuts down only the safe driving protection temporarily until safe driving is restored. If the vehicle is carjacked or has been stolen then the system triggers an alarm and sign Call 911 during unauthorized driving. When the intruder tries to enter the parked vehicle the false alarm triggers a chirp and power LEDS emitting diodes as long as intruder keeps trying, when the intruder stops trying then the alarm also stops.
The alarm OFF is for normal driving and for safe driving protection.
Vehicle safety devices have a number of disadvantages. for example: anti-lock brake system activates during hard braking and turning and because the vehicle will not lose traction, it will turn and not slide. After a short turn the vehicle has to be turned back to the original direction in order proceed safely. however, if turning continues too far or turning is too quick, the vehicle can turn over and crash because the anti-lock brake system is in action. on snow covered roads it is better to drive without the anti-lock brake system because locked wheels would build up the snow in front of tires and help to shorten braking distance. a skilled driver can get through safely without anti-lock brake system by using his/her judgment as to whether to employ tire slip or turning and braking with alert. also, vehicle security is not perfect—there is a long standing problem of annoying false alarms. Scientists are split in half whether the anti-lock brake system is helpful or harmful to a vehicle. A micro motion sensor has been invented and improved of previously issued patent see below
U.S. Pat. No. 5,698,827 the best theft protection can be achieved with an early warning system. This early warning system fell short because it caused false alarms during windy condition and very loud sounds at close range. Therefore, new micro motion early warning device had to be created to eliminate or stop false alarms listed above.
Further aspects and uses, as well as additional advantages of the present invention will become apparent to those of ordinary skill in the detailed description of the present invention.
In accordance with the present invention there is provided a new micro sensing warning device with a system to stop false alarms comprising: contain 4 portions
(a) a sensing portion (b) a detecting portion (c) a warning portion and (d) a false alarms prevention system portion. (A) The micro motion sensing portion of the device comprises the following: tilt sensor switches are used as a vibration sensors for the micro motion sensing portion of the device, a source of 5 volts. U.S. Pat. No. 6,198,059B1. the housing material: poliamide+glass-fiber. the cover material: poliamide+glass fiber. terminal: copper alloy, gold plated over nickel. ball material: alloy plated over nickel. Certificate: ROHS compliance.
(B) The detecting portion of the device for determining the presence of motion comprises the following components: the PNP transistor TIP 30A a source of direct current electromotive force of 5 volts.
(C) The warning portion of the device for alerting a user of the device, another person, or both, that a motion has been detected, comprises the following components: means for translating electrical current from the detecting portion into a siren and LEDS which is useful information to the user, another person, or both.
(D) In accordance with the present invention there is further provided a false alarm prevention system portion, wherein the device is upgraded by a very sensitive motion sensor.
for example:
if the car alarm is triggered by thunder or by a loud vehicle passing by at close range then the car alarm will chirp once and stop because the false alarm prevention system is in action. One chirp will bother no one!
The device of the present invention provides total safety and security protection for the vehicle, driver and passengers.
For convenience of description and recitation, the device, of the present invention has been divided into four innovations: No. 1, vehicle safe driving protection No. 2 vehicle theft protection innovation, No. 3 Vehicle anti-carjacking protection innovation No. 4 vehicle false alarm prevention system innovation. Drawings
No 1 Vehicle safe driving protection. How it works:
See
The IC 1 will amplified and carry on that signal through No 13 and No 8 will trigger the siren. The IC 2 will also amplify that signal and carry on to No 25 to trigger high power LED's No 26.
For example: if the driver makes a mistake 2 times in 15 minutes then the capacitor C 10 will use all the electrical energy needed to trigger the alarm therefore, the vehicle safe driving protection will be shut down. however, if the driver for next 20 minutes does not make any mistakes during driving then the resistor R 33 will recharge the capacitor C10 and the vehicle safe driving protection will be restored.
This system rewards only safe drivers by protecting them.
No one is a perfect driver. This system can convert ordinary drivers to a safe drivers.
No. 2) vehicle theft protection innovation.
If On-Off alarm switch
How the vehicle theft protection works:
How all of that works:
see
No. 3 Vehicle anti-carjacking protection innovation, see
The anti-carjacking protection can be achieved with the manually operated On-Off alarm switch and with easy access to it by the driver. No. 4 vehicle false alarm prevention system innovation.
A vehicle false alarm prevention system comprised of D10, R51, D11, R16, C8, D3, R99, and transistor Tip 30 A No. 22. How it works:
If the alarm switch is On and siren No. 9 is triggered then the same power of 12 volt Dc is also going through D10, R51, D11 to a capacitor C8. when this happens the +12 volt starts charging the capacitor C8. It takes about a half second of charging time to elevate the voltage to about +7 volts. When this happens the +7 volts passes the D3 into a base of the transistor No. 22. When this happens it blocks the sensor's signal from entering the transistor base therefore it shuts down the transistor. However, this happens the alarm will stop. When the alarm stops the R16 will lower the voltage of C8 back to +5 volts and that takes about half a second therefore, after half a second the transistor will be restored and ready to trigger the alarm again if the external forces are present.
If the external forces are continuing then the alarm goes on for half a second and then off for half a second and on for half a second until external forces stop, then alarm will stop.
Number | Name | Date | Kind |
---|---|---|---|
3733448 | Brady | May 1973 | A |
3745551 | Smith | Jul 1973 | A |
4030087 | Ritchie | Jun 1977 | A |
4322714 | Morgan | Mar 1982 | A |
4479114 | Yamamoto | Oct 1984 | A |
4675593 | Minakuchi | Jun 1987 | A |
4771193 | Ohta | Sep 1988 | A |
4772879 | Hein | Sep 1988 | A |
4794368 | Grossheim et al. | Dec 1988 | A |
4980667 | Ames | Dec 1990 | A |
5027105 | Dailey | Jun 1991 | A |
5278553 | Cornett | Jan 1994 | A |
5319350 | DeMarco | Jun 1994 | A |
5321390 | Yuen | Jun 1994 | A |
5430432 | Camhi et al. | Jul 1995 | A |
5625337 | Medawar | Apr 1997 | A |
5698827 | Turjancik | Dec 1997 | A |
5774002 | Guo | Jun 1998 | A |
5963131 | D'Angelo et al. | Oct 1999 | A |
6198059 | Jou | Mar 2001 | B1 |
6456194 | Carlson | Sep 2002 | B1 |
7256360 | Chou et al. | Aug 2007 | B1 |
7342373 | Newman | Mar 2008 | B2 |
20070012552 | Chou | Jan 2007 | A1 |
20080030316 | Flick | Feb 2008 | A1 |
20100033329 | Davis et al. | Feb 2010 | A1 |
20100133075 | Chou | Jun 2010 | A1 |
20110292554 | Yao | Dec 2011 | A1 |
20120105635 | Erhardt | May 2012 | A1 |