Automated accountability locating system

Abstract

An automated accountability system is achieved by a unique combination of at least one stationary, passive-infrared activated low-power wireless RF locator-transponder device, at least one personal issued “pager-like” RF transceiver device and a stationary transceiver contained in a stand-alone master command base monitor or a stationary transceiver connected to a personal computer with monitoring software. These three primary components form an automated accountability system for tracking and locating personnel. The locator-transponder device is capable of detecting the presence of a person or object. The person carries the adjustable level low power radio frequency transceiver device and as the transceiver passes the locator-transponder, a signal with at least identification, status and location information of person. The information is provided automatically without intervention to the automatic accountability system.

Description

BRIEF DESCRIPTION OF THE DRAWINGS

Preferred structural embodiments and preferred subcomponents of this invention are disclosed in the accompanying drawings in which:

FIG. 1 illustrates basic components of an automatic accountability system in accordance with the present invention;

FIG. 2 illustrates a block diagram of a locator transponder utilized in the system in accordance with the present invention;

FIG. 3 illustrates a combination of FIGS. 3A, 3B, 3C and 3D in accordance with the present invention;

FIG. 3A illustrates a side view of the location transponder utilized in the system in accordance with the present invention;

FIG. 3B illustrates an exploded top view of the location transponder utilized in the system in accordance with the present invention;

FIG. 3C illustrates an end view of the outer casing of the location transponder utilized in the system in accordance with the present invention;

FIG. 3D illustrates a bottom view of the frame of the locator transponder utilized in the system in accordance with the present invention;

FIG. 4 illustrates a block diagram of a personal transceiver device utilized in the system in accordance with the present invention;

FIG. 5 illustrates one embodiment of the system deployed in a building in accordance with present invention; and

FIG. 6 illustrates another embodiment of the automatic accountability system for locating personnel such as in a fire, ground or other emergency environments in accordance with the present invention.

DESCRIPTION OF THE INVENTION

Further scope of applicability of the present invention will become apparent from the detailed description given hereinafter. However, it should be understood that the detailed description and specific examples, while indicating preferred embodiments of the invention, are given by way of illustration only, since various changes and modifications within the spirit and scope of the invention will become apparent to those skilled in the art from this detailed description.

FIG. 1 shows the basic components of the automatic accountability system, generally indicated by reference numeral 110, as is contemplated in the first embodiment of the present invention. As is commonly known, a human body has a temperature of approximately 98.6 degrees Fahrenheit. Using this body temperature which is essentially heat being produced by the person a detection of this heat is utilized. Each person 112, as shown in the figure, carries a personal transceiver device 114.

A locator transponder 115 is mounted above a doorway 116 so that when the person or individual 112 goes through the doorway 116 the body heat of the person 112 is sensed or detected by the locator transponder 115. A more detailed description of the components of the locator transponder 115 will be given with reference to FIGS. 2 and 3. The locator transponder 115 has a controllable and limited detection zone or range 117 for determining the presence of the person 112 carrying the personal transceiver device 114. Upon sensing the person 112, carrying the personal transceiver device 114 and passing through the doorway 116, the locator transponder 115 emits a low power radio frequency (RF) signal 118. The locator transponder 115 contains an adjustable RF power output level that is used to precisely control the range or propagation distance of its emitted RF signal 118. The RF signal 118 is encoded, encrypted and transmitted in a protocol only recognizable to other devices containing the matching decoding intelligence. One such device is the small pager-sized personal transceiver device 114. The signal 118 contains a location code representing a particular place or location in which the locator transponder 115 is installed.

The personal transceiver device 114 receives this location code from the locator transponder 115 and retransmits this code along with its own unique identity and status code to a PC command base monitor, generally indicated by reference numeral 120. The PC command base monitor 120 consists of a personal computer 122 running a unique software program and is connected to a receive-capable decoding device or external tansceiver 124 that receives the radio frequency (RF) signals 126 from the personal transceiver device 114. The personal transceiver device 114 can be configured to automatically transmit a signal to the PC command base monitor 120 each time it receives a signal from the locator transponder 115 thereby showing in virtual real-time on the personal computer 122, the location and status of each individual person carrying a personal transceiver device 114.

The command base monitor or unit 120 can exist in many forms. The two most common forms of this invention are first, a stand-alone embedded computer with LCD display and integrated system radio transceiver, and secondly a personal computer (PC) running custom software program communicating with an external system radio transceiver, such as external transceiver 124. The PC software command base monitor 120 manages the radio signals transmitted to and received from the personal transceiver device 114 via the external transceiver unit 124 connected to the port of the PC. This external transceiver 124 receives and decodes the radio signals sending them to the PC for processing by the software program. The software program contains a database of personnel names and identification numbers along with the local-transponder location correlation codes. The external transceiver 124 passes along the decoded radio signals received from the personal transceiver device 114 for further PC processing. The PC then correlates the received data to determine the person's identity, status and location. Each signal received and processed by the PC software is put in a data-log and stored with a time and date stamp. The data-log can then be retrieved later and reviewed showing a history of where personnel have been located and at what time, plus provide the time and location of where an emergency situation or other event occurred. This system feature provides personnel tracking and locating at a given time and automatically records this information for future recall, thus providing accountability of personnel. The PC software can also be used to send and receive text messages to and from personal transceiver device 114, and monitor and record the text messages sent and received between personal transceiver device 114 and other similar transceiver devices.

The person 112 wearing the personal transceiver device 114 passes by the locator transponder 115. The transponder 115 detects their presence, in this instance by passive-infrared body heat or by one of the other methods described. As a result of detecting the person's presence, the locator transponder 115 begins transmitting a burst of low-power RF signals having a limited and controlled propagation range. These low-power RF signals contain data specifically representative of the local-transponder's location. The personal transceiver device 114 receives the low power RF signals and the personal transceiver device 114 can then retransmit this location data along with its personal identification and status data back to the command base monitor 120. The command base monitor 120 will then display the person by name, identification number and show their status and location plus display and record the time and date stamp as this occurs. An example would be recording the path a person takes while moving throughout a building identifying the locations they were at and when they were there.

With reference to FIG. 2, the locator transponder 115 of the present invention is illustrated in a block diagram. The locator transponder 115 performs basic functions of detecting the presence of the person 112 carrying the personal transceiver device 114, and, based on this detection, transmitting a burst of encoded low power radio frequency signals. As previously discussed, the human body has a temperature of approximately 98.6 degrees Fahrenheit and emits infrared radiation 212. The locator transponder 115 comprises of a sensor 214 for sensing the passive infrared radiation 212 to determine the presence of the person 112. This infrared radiation 212 is detected, by the sensor 214, which is a passive infrared sensor (PIR), such as the Murata IRA-E600, which uses a pyroelectric sensing element, similar to those commonly used in alarm security and home automation products. The signal 215 provided by the PIR sensor 214 is sent to a signal conditioning circuit 216 for filtering and converting from an analog signal to a digital signal. The circuit 216 conditions the signal with low-pass filtering electronics, such as a LM324 operational amplifier 218 and then converts the signal to a useable digital form by using an analog to digital converter 220, in this instance, a Linear Technologies LTC1198 is used. The resulting digitized signal 222 can then be processed by microcontroller 224, such as the widely used Microchip PIC16C55. The microcontroller 224 will then read the unique location code set by a dipswitch 226 contained within the locator transponder 115. The RF power level setting assigned to this locator transponder 115 is also read and the battery condition 228 of the locator transponder 115 is determined. This information is then encoded into an encrypted data stream with error checking codes added for insuring message integrity and security.

The microcontroller 224 then turns on the low power radio frequency (RF) transmitter 230 and modulates the RF signal according to the encrypted data stream. The RF signal 118 is propagated out of the locator transponder 115 using an antenna 232. The microcontroller 224 sets the RF output power level to limit the receivable range or detection zone 117 of the RF signal 118 by the personal transceiver device 114 carried by the person 112 passing by the locator transponder 115.

The mechanical construction of the locator transponder 115 is illustrated in FIG. 3 which is an exploded view and includes FIGS. 3A, 3B, 3C and 3D. Looking at FIG. 3A, which illustrates a side view of the locator transponder 115, there are two primary parts to the construction of the transponder 115. The first is a frame piece 332. The frame piece 332 holds power to transponder 115 with batteries 334, 335. The infrared sensor 214 is mounted in the frame piece 332. The processing electronics or microprocessor 224 and the low-power RF transmitter 230 are also mounted in the frame 332. With reference to FIG. 3B, which illustrates a top view, the second primary part is the shell 342. The shell 342 encloses the frame 332 to conceal the associated components from the outside. As shown in FIG. 3C, there is a hole 344 in the end of the shell 342, so that the frame 332 and the shell 342 can be held together with a screw 346 which pulls the frame 332 into the shell 342. FIG. 3D illustrates the bottom 350 of the frame 332 wherein the PIR senor 214 for detecting the passive infrared radiation 212 of the person 112.

FIG. 4 illustrates a block diagram of the personal transceiver device 114 utilized in the system 110 in accordance with the present invention. In the present invention, to track and determine the location of an individual, the person 112 wears the personal transceiver device 114, which can be a small pager-sized RF transceiver device. The personal transceiver device 114 is a signaling device that provides the user a means for transmitting an emergency distress-call such as an alarm signal through and audio sound generator 440. There is also an alphanumeric display and LED indicators. The personal transceiver 114 can also monitor and receive signals from other personal transceiver devices as well as send and receive text messages. The emergency distress-call transmission is initiated by either pressing a panic button 442 on the device 114 or by automatic activation from a self contained lack-of-motion sensor 444. The motion sensor 444 includes solid-state accelerometer as well as a tilt and position sensor. The personal transceiver device 114 can also contain features of call-back, evacuate and those types of functions associated with a pager, such as paging. The device 114 further includes microprocessor controller 446 for managing RF transmissions, input/output, audible sounds and visual display. There is also a radio frequency transceiver 448 for receiving locator transponder signals, message signals and for transmitting encoded data. An antenna 450 is connected thereto.

As an example of the operation of the system 110 reference is now directed to FIG. 5 which illustrates the system general indicated by reference numeral 110 with all the components being deployed in a building having six rooms, one hallway and four entrance/exit areas. It should be realized the system 110 of the present invention can be applied to nearly any size building facility, campus environment or even a mine, because the system 110 is scalable to any size accountability environment.

Different physical locations for installing the locator transponder 115 will require different detection ranges, such as the detection zone 117 illustrated in FIG. 1. These detection ranges or zones are adjustable from a few feet to hundreds of feet to permit successful operation in a variety of environments ranging from a small closet to a large hallway or room. In addition to the functions described, there is a low battery detection circuit that uses an LED indicator to provide visual notification when the battery needs replacing.

In FIG. 5, each of the locator transponders is identical in construction and components. However, each locator transponder is giving a unique location code, which corresponds to or identifies where that particular transponder is placed. Locator transponder 115LE corresponds to the lobby entrance to the building. Locator transponder 115EE corresponds to the east exit. Locator transponder 115A identifies the entrance to Room A. Locator transponder 115HE corresponds to the entrance to the hallway. Locator transponder 115MH identifies the middle of the hallway. Locator transponder 115B corresponds to Room B. Locator transponder 115C identifies Room C. Locator transponder 115NE corresponds to the north exit of the building. Locator transponder 115D identifies Room D. Locator transponder 115WE corresponds to the west exit. The office, where the PC command base monitor 120 is set up, is identified by locator transponder 115O. The various dashed lines in FIG. 5 illustrate the paths that may be taken by the person 112 carrying the personal transceiver device 114 as that person moves throughout the building.

As the person 112 with a personal transceiver device 114 passes by each locator transponder 115 a new transmitted signal will be sent from the personal transceiver device 114 carried by the individual 112 to the command base monitor 120 showing the location of the person or individual 112. Also, the direction of movement by a person 112 can be determined, such as whether the person 112 is entering or exiting a location. The personal transceiver device 114 can be configured to automatically transmit the location data and other data as the person 112 passes by each local transponder. Thus, the locator system 110 provides instantaneous location and data. In a particular application, the personal transceiver device 114 can be programmed to transmit the location and status data only as needed in an emergency situation such as when a person presses the personal transceiver device 114 panic button or from a lack of movement by the person wearing the personal transceiver device 114. The location and status of a person wearing the personal transceiver device 114 can be requested intentionally or automatically from the command base monitor 120.

The system 110 can also be configured so that location and identification data are only retransmitted at a high RF power level during an emergency condition such as that which would be initiated by pressing the panic button of the personal transceiver device 114 or from the lack-of-motion sensing alarm. In addition, the system 110 can be configured so that an inquiry from the command base monitor 120 causes the personal transceiver device 114 to transmit its identification, status and location information back to the command base monitor 120. It is also a feature of the command base monitor system 120 where the personal transceiver device 114 can be configured to prompt other personal transceiver device 114 units or the command base monitor 120 for the location of other individuals 112 wearing the personal transceiver device 114. The virtual real-time status and location of personnel 112 wearing the personal transceiver device 114 can be determined and displayed at the command base monitor 120 using this method.

The locator transponder 115 contains the passive-infrared sensor 214 and an adjustable RF transmit power level feature that facilitates a variable signaling range or distance between the locator transponder 115 and personal transceiver device 114 at which they can communicate. This feature is necessary for setting the transmit distance depending on the physical attributes of the environment. For example, a large hallway or large door entrance point requires the locating transponder 115 to use a slightly higher RF power level in its transmitted signal so that the personal transceiver device 114 can receive the signal. Conversely, locator transponders used at two small doors adjacent to each other would require a lower transmitted RF power level to successfully communicate their location data to the personal transceiver device 114.

Furthermore, when there is a received polling signal, this indicates a person is on the scene and it can be determined that they are present and have entered the premises. With the system 110 installed in a building, it can be determined that a person has passed through an entrance area. As noted, the received signal at the command base monitor 120 is decoded and recoded with a time-date stamp in a data-log and stored. When the polling signal is no longer received from the personal transceiver device 114, and there is a received signal indicating the person has passed through an exit area, it can be determined the person has left the premises. This method facilitates an automated accountability by knowing who is present, where they are located and what is their safety status.

As shown in FIG. 6, the locating system 110 described can be used for automatic accountability particularly in a fire, ground or other emergency incident environments. In this figure, the personal transceiver device 114 is carried by a fire fighter and is typically clipped to their belt or other piece of clothing. The personal transceiver device 114 contains a radio transceiver capable of transmitting an RF signal that has a limited propagation distance ranging from several feet to 1 mile depending on the environment and application in which it is used. A transmitted RF signal is emitted from the personal transceiver device 114 at regular intervals regardless of the ‘On’ or ‘Off’ state of the device. This signal is referred to as a polling-signal, again occurring at periodic intervals regardless of the state of the device. As personnel wearing the personal transceiver device 114 come within proximity of the command base monitor 120, their transmitted polling signals are automatically received by the system radio receiver and then processed by the monitoring software.

With reference to FIG. 6, the automated accountability system 110 is now described for use by fire fighters. Each of the fire fighters are individually indicated by reference numbers 661, 662, 663 and 664. It is important to realize the system can be used to implement any personnel accountability system in which automated means are required or desired to maintain knowledge and status of personnel present at a particular location. In this embodiment, the automated accountability system 110 is achieved by combining the personal transceiver device 114 in a TPASS. The modified TPASS or personal transceivers TPASS 611, 612, 613 and 614 are attached to each of the fire fighters 661, 662, 663, and 664, respectively. The command base monitor 620 is facilitated by personal computer 622 running the personnel accountability software program and with the personal computer 622 connected to external system radio transceiver unit 124.

A typical fire incident involves several fire fighters 661, 662, 663 and 664 and many times fire fighters from different stations and departments. As the fire fighter 664 arrives on scene, his personal transceiver TPAS S 614 is in the “off” state, meaning the motion-sensing feature 444 of the personal transceiver TPASS 614 is not yet active. The display of the personal computer 622 at the command base monitor 620 indicates that fire fighter 664 is “off”. It also displays that the TPASS 612 for fire fighter 662 is “on” meaning that fire fighter 662 is fighting the fire and not on the fire truck or at the station. Additionally, the display of the personal computer 622 at the command base monitor 620 indicates that the TPASS 613 for fire fighter 663 is “on” meaning that fire fighter 663 is fighting the fire and not on the fire truck or at the station. As for fire fighter 661, his TPASS 611 sends a signal to the personal computer 622 at the command base monitor 620 to indicate that TPASS 611 for fire fighter 661 is “on” meaning that fire fighter 661 is fighting the fire and not on the fire truck or at the station. Also, this fire fighter is down, so his TPASS 611 sounds an alarm and sends a signal that his TPASS alarm is “on.” Thus, the command base monitor 620 can immediately send help for fire fighter 661.

As described previously, the TPASS is a motion sensing man-down alarm device containing a radio transceiver, such as transceiver 114, that is used by fire fighters and other personnel as a safety device to alert others their location, identification, and status, such as on the truck, at the scene or even that they are in danger. The TPASS is also used to send a fire fighter an evacuate signal to notify them of impending danger such as the imminent collapse of a building. As the fire fighters arrive on the scene, their TPASS devices transmit a periodic polling signal indicating they are present at the incident. As previously described, this polling signal may indicate a presence of the person and that the TPASS device is turned off, or not in the automatic motion sensing mode, for example fire fighter 664. The details of the computer screen indicate the presence of all the fire fighters 661, 662, 663 and 664 on scene. As the fire fighter 663 leaves the truck 665 an activation key 666 is removed from the TPASS device. This puts the TPASS in the “on” state. Putting the TPASS device in the “on” state causes it to transmit an RF signal that is received by the system transceiver 624 which passes this decoded signal to the PC 622 for further processing by the software where it is displayed on the PC screen. This action verifies that the fire fighters are present, their TPASS device is turned “on” and being monitored by the command base monitor 620. In addition to monitoring the status of fire fighters on scene, the system also contains the capability to indicate when a fire fighter has turned off their TPASS device and left the incident.

The foregoing is considered as illustrative only of the principles of the invention. Further, since numerous modifications and changes will readily occur to those skilled in the art, it is not desired to limit the invention to the exact construction and operation shown and described, and, accordingly, all suitable modifications and equivalents may be resorted to, falling within the scope of the invention.

Claims

1. An automatic accountability system for locating and tracking personnel throughout an environment, said system comprising: at least one locator transponder being positioned at various locations throughout the environment where the personnel pass by or through, said at least one locator transponder having sensing means for detecting the passing personnel and transmitting means for transmitting a location signal having a location code for identifying a location of the at least one locator transponder;at least one personal transceiver device being positioned on the passing personnel for receiving the location signal from the at least one locator-transponder as the personnel pass by the at least one locator-transponder, the at least one personal transceiver device transmitting a status signal having the received location code and an identification code, the identification code identifing the at least one personal transceiver device and status of the personal transceiver device; anda command base monitor for receiving the transmitted status signal and for recording, storing and displaying the location of the personnel having the at least one personal transceiver device as the personnel passes throughout the building in which the at least one locator-transponder device positioned.

2. The automatic accountability system, as claimed in claim 1 wherein said sensing means utilizing at least one of the following for sensing the passing personnel a passive-infrared activated, low-power RF means, heat means, ultrasonic means, RF-field means, magnetic field means, capacitive-sense means, visible light disturbance means, or a pressure floor mat.

3. The automatic accountability system, as claimed in claim 2, wherein said sensing means utilizing at least one of the following for sensing the passing personnel a passive infrared detector, mechanical switch input, electronic switch input, ultrasonic sonar sensor, optical sensor, radio-frequency field sensor for detecting the presence of the personnel.

4. The automatic accountability system, as claimed in claim 2, wherein the locator transponder device having a multiple-element pyroelectric sensor for determining a direction of travel as the personnel passes by the at least one locator transponder device.

5. The automatic accountability system, as claimed in claim 2, wherein said sensing means comprising an adjustable and selectable means for controlling the radiated RF transmitter power output to limit propagation of detectable radiated RF signal from a range of several inches to several hundred feet, and having a settable unique identity code contained within the emitted RF signal to identify the at least one locator transponder device and the emitted RF power output level.

6. The automatic accountability system, as claimed in claim 1, wherein the at least one personal transceiver device having querying means for sending a querying signal to other personal transceiver devices being positioned on other personnel, said other personal transceiver devices receiving the query signal and automatically transmit a signal containing location code and status back to the querying means of the at least one transceiver device that initiated the querying signal, and said at least one transceiver device determining the location of the other personnel wearing the at least one other personal transceiver device, wherein by querying each personal transceiver device, the at least one personal transceiver device obtaining a last location-transponder device code and determining from the location encoded signal received the distance between each personnel.

7. An automatic accountability system for use by emergency first responders, said system including a personal alert safety system being carried by each emergency first responder, each said personal alert safety system having condition responsive sensor means and alarm means indicative of personal safe safety conditions comprising: a small size portable semi-transparent casing, said semi-transparent casing being a watertight sealed cavity and having a sound resonating cavity with surrounding walls including at least one sound port providing a passage from said cavity; electric and electronic control and operating circuitry means disposed in said casing including a source of electric power, two series connected, single pole, push button control switches each having “on” and “off” positions and being spring biased to the “off” position, and flip-flop electronic switching means controlled by said control switches to enable said circuitry means to be turned “on” and “off” respectively by a sequence of simultaneous operations of said two control switches; a thin flat sound generating piezoelectric transducer device electrically connected to said circuitry means; a motion detector, and means rigidly mounting said motion detector within said chamber, said motion detector being responsive to motion of said casing; and said circuitry means further including a tone oscillator, a rate oscillator and an amplifier, connected between said motion detector and said piezoelectric sound generating transducer and responsive to the output of said motion detector and said piezoelectric sound generating transducer to cause a specific high intensity sweeping alarm signal to be emitted when the circuitry means is turned “on” and in the event that the casing is motionless, wherein said improvement comprising: at least one personal transceiver device being positioned in said personal alert safety system and on each of the first emergency responders, the at least one personal transceiver device transmitting a status signal having the received location code and an identification code, the identification code identifying the at least one personal transceiver device and status of the personal transceiver device; anda command base monitor for receiving the transmitted status signal and for recording, storing and displaying the location of the first emergency responders having the at least one personal transceiver device.

8. The automated accountability system of claim 7, wherein the system identifying by name, location and ID number, each said at least one personal transceiver device and indicating a safety status of each said at least on personal transceiver device; and the system identifying a presents of a specific group of emergency first responders, such as fire fighters and police.

9. The automated accountability system of claim 7, wherein the system generating and displaying a Personal Accountability Report or PAR check and providing a roll-call feature, wherein the PAR check being initiated from the command base monitor.

10. The automated accountability system of claim 9, wherein the system being configured to automatically perform the PAR check on a periodic basis or on demand wherein said command base unit initiating the PAR request by transmitting a specially encoded RF signal to the personal alert safety system having the personal transceiver device, wherein once, the PAR request being received by the personal alert safety system having the personal transceiver device, the device immediately responding by automatically transmitting back a PAR request acknowledgement to the command base monitor to provide information that indicates that the personal alert safety system having the personal transceiver device has received the PAR request, the personal alert safety system having the personal transceiver device gathering status data and transmitting the PAR information in an RF signal containing identity and status data of the personal alert safety system having the personal transceiver device to the command base monitor for displaying wherein the displayed date includes motion or movement of the personal alert safety system having the personal transceiver device carried by the particular emergency responder, temperature of the environment surrounding the personal alert safety system having the personal transceiver device, location of the personal alert safety system having the personal transceiver device, air pressure of a breathing apparatus air tank, the elapsed time of operation, the amount of air remaining, motion alarm activated, panic alarm activated and recall or evacuate signal activated or acknowledged.

11. The automated accountability system of claim 9, wherein the personal alert safety system having the personal transceiver device being attached to the emergency responder provides location and status of other emergency responders by way of each of the personal alert safety system having the personal transceiver device as requested through the personal alert safety system having the personal transceiver device.

12. An automatic accountability system for locating and tracking personnel throughout an environment, in combination with an automatic accountability system for use by emergency first responders, said emergency first responder system including a personal alert safety system being carried by each emergency first responder, each said personal alert safety system having condition responsive sensor means and alarm means indicative of personal safe safety conditions comprising: a small size portable semi-transparent casing, said semi-transparent casing being a watertight sealed cavity and having a sound resonating cavity with surrounding walls including at least one sound port providing a passage from said cavity; electric and electronic control and operating circuitry means disposed in said casing including a source of electric power, two series connected, single pole, push button control switches each having “on” and “off” positions and being spring biased to the “off” position, and flip-flop electronic switching means controlled by said control switches to enable said circuitry means to be turned “on” and “off” respectively by a sequence of simultaneous operations of said two control switches; a thin flat sound generating piezoelectric transducer device electrically connected to said circuitry means; a motion detector, and means rigidly mounting said motion detector within said chamber, said motion detector being responsive to motion of said casing; and said circuitry means further including a tone oscillator, a rate oscillator and an amplifier, connected between said motion detector and said piezoelectric sound generating transducer and responsive to the output of said motion detector and said piezoelectric sound generating transducer to cause a specific high intensity sweeping alarm signal to be emitted when the circuitry means is turned “on” and in the event that the casing is motionless, wherein said systems comprising in combination: at least one locator transponder being positioned at various locations throughout the environment where the personnel pass by or through, said at least one locator transponder having sensing means for detecting the passing personnel and transmitting means for transmitting a location signal having a location code for identifying a location of the at least one locator transponder;at least one personal transceiver device being positioned on the passing personnel for receiving the location signal from the local-transponder as the personnel pass by the at least one local-transponder, the at least one personal transceiver device transmitting a status signal having the received location code and an identification code, the identification code identifying the at least one personal transceiver device and status of the personal transceiver device; andan environment command base monitor for receiving the transmitted status signal and for recording, storing and displaying the location of the personnel having the at least one personal transceiver device as the personnel passes throughout the environment in which the at one local-transponder device positioned;at least one personal transceiver device being positioned in said personal alert safety system and on each of the emergency responders, the at least one personal transceiver device transmitting a status signal having the received location code and an identification code, the identification code identifying the at least one personal transceiver device and status of the personal transceiver device; andan emergency responder command base monitor for receiving the transmitted status signal and for recording, storing and displaying the location of the emergency first responders having the at least one personal transceiver device and the personnel having the personal transciever as the emergency first responders and the personnel pass throughout the environment in which the at one local-transponder device being positioned at various locations in the environment.

13. The automatic accountability system, as claimed in claim 12, wherein said sensing means utilizing at least one of the following for sensing the passing personnel a passive-infrared activated, low-power RF means, heat means, ultrasonic means, RF-field means, magnetic field means, capacitive-sense means, visible light disturbance means, a pressure floor mat, or other mechanical means.

14. The automatic accountability system, as claimed in claim 13, wherein said sensing means utilizing at least one of the following for sensing the passing personnel a passive infrared detector, mechanical switch input, electronic switch input, ultrasonic sonar sensor, optical sensor, radio-frequency field sensor for detecting the presence of the personnel.

15. The automatic accountability system, as claimed in claim 13, wherein the locator transponder device having a multiple-element pyroelectric sensor for determining a direction of travel as the personnel passes by the at least one locator transponder device.

16. The automatic accountability system, as claimed in claim 13, wherein said sensing means comprising an adjustable and selectable means for controlling the radiated RF transmitter power output to limit propagation of detectable radiated RF signal from a range of several inches to several hundred feet, and having a settable unique identity code contained within the emitted RF signal to identify the at least one locator transponder device and the emitted RF power output level.

17. The automatic accountability system, as claimed in claim 12, wherein the at least one personal transceiver device having querying means for sending a querying signal to other personal transceiver devices being positioned on other personnel, said other personal transceiver devices receiving the query signal and automatically transmit a signal containing location code and status back to the querying means of the at least one transceiver device that initiated the querying signal, and said at least one transceiver device determining the location of the other personnel wearing the at least one other personal transceiver device, wherein by querying each personal transceiver device, the at least one personal transceiver device obtaining a last location-transponder device code and determining from the location encoded signal received the distance between each personnel.

18. The automated accountability system of claim 12, wherein the system identifying by name, location and ID number, each said at least one personal transceiver device and indicating a safety status of each said at least on personal transceiver device; and the system identifying a presents of a specific group of emergency first responders, such as fire fighters and police.

19. The automated accountability system of claim 12, wherein the system generating and displaying a Personal Accountability Report or PAR check and providing a roll-call feature, wherein the PAR check being initiated from the command base monitor.

20. The automated accountability system of claim 14, wherein the system being configured to automatically perform the PAR check on a periodic basis or on demand wherein said command base unit initiating the PAR request by transmitting a specially encoded RF signal to the personal alert safety system having the personal transceiver device, wherein once, the PAR request being received by the personal alert safety system having the personal transceiver device, the device immediately responding by automatically transmitting back a PAR request acknowledgement to the command base monitor to provide information that indicates that the personal alert safety system having the personal transceiver device has received the PAR request, the personal alert safety system having the personal transceiver device gathering status data and transmitting the PAR information in an RF signal containing identity and status data of the personal alert safety system having the personal transceiver device to the command base monitor for displaying wherein the displayed date includes motion or movement of the personal alert safety system having the personal transceiver device carried by the particular emergency responder, temperature of the environment surrounding the personal alert safety system having the personal transceiver device, location of the personal alert safety system having the personal transceiver device, air pressure of a breathing apparatus air tank, the elapsed time of operation, the amount of air remaining, motion alarm activated, panic alarm activated and recall or evacuate signal activated or acknowledged.