MESSAGE DISTRIBUTION SYSTEM AND METHOD HAVING GEOGRAPHIC SENSITIVITY

Abstract: A telecommunication system configured for use with a telecommunication network (114) for delivering messages to users (Un, MUn). The network (114) includes switching junctions (Gn) and the communication channels for effecting various telecommunication milieux. Selected telecommunication service providing stations (210) serve user-operated communication devices (74, USERn) using selected telecommunication milieux of the various telecommunication milieux.

Description: MESSAGE DISTRIBUTION SYSTEM AND METHOD HAVING GEOGRAPHIC SENSITIVITY This is a continuation-in-part of application U.S. Ser. No. 09/499/773, filed February 8, 2000. (Attorney Docket No. DDM99-027) BACKGROUND OF THE INVENTION The present invention is directed to telecommunication systems, and especially to telecommunication systems having geographic sensitivity for automatic call connection with receiving stations. The present invention is especially well configured for telecommunication systems dealing with special number telecommunication systems, such as abbreviated number emergency services notification and dispatch operation telecommunication systems. Such emergency services notification and dispatch systems are commonly known as 9-1-1 systems in the United States. The present invention includes a system and method for enabling any abbreviated number (or other special number) geographically based routing in a manner that is cost effectively applicable to hybrid private/public telecommunication networks such as are found in today's market. Thus, the present invention is advantageous for use by a public telephone service provider (such as an incumbent local exchange company - ILEC), a competitive local exchange carrier (CLEC), an Internet service provider (ISP), a wireless service provider (WSP), a large enterprise customer using a private exchange such as a private branch exchange (PBX), a wireless traffic aggregator/reseller switching between various backbone providers, a satellite telephone service provider or any other telephone service provider that may have users, or customers, employing their service to access a special number service seeking assistance from a geographically proximate locus. Telecommunication systems sensitive to geographic aspects have been proposed. In U.S. Patent No. 4,757,267 to Riskin for "Telephone System for Connecting a Customer With a Supplier", issued July 12, 1988, a system is disclosed which contemplates using geographic information gleaned from a caller's telephone number for use with a N-H (vertical-horizontal) data base for ascertaining which site to connect with the caller to ensure geographic proximity between the dealer at the selected site and the caller. The Riskin system depended upon entry of the telephone number information using DTMF (Dual Tone Multi-Frequency) signaling. If a customer entered his phone number using a dial phone, Riskin provided for connecting the caller with a human operator so that the human operator could enter the telephone number information using a DTMF entry device. The N-H data base disclosed by Riskin for use with his system was a complex transformation of latitude and longitude which was used by long distance telephone companies to compute the distance between a caller and a called party in order to assess the charge for a long distance call. Riskin used the N-H coordinate system to refer a caller to a dealer that was determined to be geographically closest to the caller. Riskin also disclosed using the DTMF phone number information to connect a caller with a dealer on a territorial basis to effect "gift routing". According to Riskin' s disclosure, a dealer may be connected with a caller based upon the dealer's proximity to an intended gift recipient who was identified by DTMF phone number information relating to the intended recipient. Riskin' s invention provides only a coarse location based upon the caller's telephone number in the format: "ΝPA-ΝΝX". In that format, "ΝPA" refers to "Number Plan Area", commonly known as Area Code. "NNX", the next finer number indicator within an Area Code, refers to a Central Office of the phone service provider. As a result, Riskin' s invention provides location only to the detail of an area served by a respective Central Office of a service provider. Such an area can often be a very large geographic expanse. Locating a dense population of service locations regarding proximity to a caller is problematic when the location indicator is coarsely defined, as is the case with Riskin' s system. Emergency services notification and dispatch operations, commonly known in the United States as 9-1-1 Service, has its genesis in a 1957 recommendation by the National Association of Fire Chiefs for a single number for reporting fires. In 1967, the President's Commission on Law Enforcement and Administration of Justice recommended that a single number should be established nationwide for reporting emergency situations. The use of different telephone numbers for different types of emergencies was considered to be contrary to the pmpose of using a single, universal emergency notification number. Other federal agencies and several government officials supported and encouraged the recommendation. The President's Commission on Civil Disorders charged the Federal Communications Commission (FCC) with finding a solution. In November 1967, the FCC met with the American Telephone and Telegraph Company (AT&T) to establish a universal number that could be implemented quickly. In 1968, AT&T announced the establishment of the number 9-1-1 as the emergency notification number nationwide. The 9-1-1 code was chosen because it was considered to be brief, easily remembered, and could be dialed quickly. It was also a unique number that had never been employed as an office code, area code or service code, and it met long range numbering plans and switching configurations of the telecommunication industry. The 9-1-1 number met the requirements of all parties, in government and in private industry. Congress supported the AT&T plan and passed legislation allowing use of only the numbers 9-1-1 when creating an emergency calling service. The 9-1-1 number was thus established as a nationwide standard emergency number. The first 9-1-1 call in the United States was completed by Senator Rankin Fite in Haleyville, Alabama, using the Alabama Telephone Company. Nome, Alaska Implemented 9-1-1 service in February 1968. In 1973, The White House Office of Telecommunication issued a policy statement recognizing the benefits of 9-1-1, encouraging the nationwide adoption of 9-1-1, and establishing a Federal Information Center to assist governmental units in planning and implementing 9-1-1 service. A basic 9-1-1 System provides for programming with special 9-1-1 software a telephone company end office (also known as a "central office" or a "Class 5 office") to route all 9-1-1 calls to a single destination. The single destination was termed a Public Safety Answering Point (PSAP). In such an arrangement, all telephones served by the central office would have their 9-1-1 calls completed to the PSAP. However, the areas served by respective telephone company central offices do not line up with the political jurisdictions that determine the boundaries for which PSAP may be responsible. That is, a municipal fire department or police department may geographically include an area outside the area served by the central office, a condition known as underlap. Likewise, the municipal fire or police department may encompass an area of responsibility that is less expansive than the area served by the central office, a situation known as overlap. Further, the original basic 9-1-1 systems did not provide any identification of the caller; the PSAP human operator had to obtain such information verbally over the line after the call was connected. The major shortcoming of the basic 9-1-1 systems was that they could not support interconnection to other telecommunication providers such as independent telephone service companies, alternate local exchange carriers (ALECs), or wireless carriers. The "basic" nature of the basic 9-1-1 system also indicates that the system does not have Automatic Location Identification (ALI) capability or Automatic Number Identification (ANI) capability with a call back capability. Similar abbreviated number systems are in place for handling emergency service calls in countries other than the United States. The abbreviated number system established in Canada is the foreign system most similar to the system established in the United States. There are other abbreviated number calling systems in place in the United States and abroad for such purposes as handling municipal information and services calls (3 - 1 - 1 ) and for other purposes. All of these special, or abbreviated number call systems that have geographic-based content suffer from similar shortcomings in their abilities to automatically place incoming calls to an action-response facility geographically proximate to the locus of the caller. It is for this reason that the 9-1-1 emergency call system of the United States is employed for purposes of this application as a preferred embodiment of the system and method of the present invention. Automatic Number Identification (ANI) is a feature for 9-1-1 services that allows the caller's telephone number to be delivered with the call and displayed at the PSAP. This ANI feature is sometimes referred to as Calling Party Number (CPN). The feature is useful for identifying the caller and, if the caller cannot communicate, for callback. A signaling scheme known as Centralized Automatic Message Accounting (CAMA), originally used to identify the originator of a long distance call for billing purposes, was adapted to facilitate ANI delivery to the PSAP. CAMA uses multi-frequency (MF) signaling to deliver 8 digits to the PSAP. The first digit (called the Number Plan Digit-NPD) specifies one of four possible area codes. Digits 2-8 represent the caller's 7-digit telephone number. The ANI is framed with a key pulse (KP) at the beginning and a start (ST) at the end in the format: KP-NPD- NXX-XXXX-ST. The multi-frequency (MF) signaling used in connection with the ANI feature is not the same as the Dual Tone Multi-Frequency (DTMF) signaling also encountered in telecommunication systems. Both signaling schemes use a combination of two specific tones to represent a character, or digit, but the tones are different. There are 16 DTMF tones (0-9, #, *, A, B, C, D); there are a greater number of MF tones (including 0-9, KP, ST, ST', ST", and others). DTMF tones represent signals from a user to a network; MF tones are control signals within the network. An enhanced MF arrangement has recently been used in connection with 10-digit wireless telephone systems. The availability of the caller's telephone number to the PSAP (the ANI feature) led quickly to providing the caller's name and address as well. This was straightforwardly accomplished using the subscriber information stored by telephone companies based upon telephone number since the 1980's. New equipment at the PSAP enabled queries of an Automatic Location Identification (ALI) data base using the caller's number provided by the ANI feature to ascertain name and address information. The ALI databases are typically maintained by the respective telephone company serving the PSAP. This was an improvement, but a problem still remained where several telephone company central offices served a town or county. Other problems also developed with the growing volume of mobile callers using wireless phones, satellite phones and communications over the Internet. Information regarding the locus of the origin of the call merely identified the locus where the call entered the wireline network; even such limited location information is not always provided. No indication was presented to identify the geographic location of such mobile callers. As the situation of multiple central offices serving a PSAP occurred more frequently, it was clear that it was inefficient to build communication trunks from several central offices to a PSAP. As a result the 9-1-1 Tandem was developed. With that equipment, trunks from central offices are concentrated at a tandem office (a 9-1-1 Tandem) from which a single trunk group serves a given PSAP. Often a 9-1-1 tandem comprises an otherwise common Class 5 telephone system end office (EO), with added software to configure it for 9-1-1 operations. Such concentration of trunks reduces size and cost of PSAP equipment. The tandem is a telephone company switch that provides an intermediate concentration and switching point. Tandems are used for many purposes, including intra-LATA (Local Access and Transport Area) toll calls, access to other local exchange carriers (LECs), and access to long distance carriers and telephone operators. A significant development in 9-1-1 services has been the introduction of Enhanced 9-1-1 (E9-1-1). Some of the features of E9-1-1 include Selective Routing, ANI, ALI, Selective Transfer and Fixed Transfer. Selective Transfer enables one-button transfer capability to Police, Fire and EMS (Emergency Medical Service) agencies appropriate for the caller's location listed on the ALI display. Fixed Transfer is analogous to speed dialing. Selective Routing is a process by which 9-1-1 calls are delivered to a specific PSAP based upon the street address of the caller. Selective Routing Tandems do not directly use address information from the ALI database to execute decisions regarding which PSAP to connect. Recall that emergency services (Police, Fire and EMS) are typically delivered on a municipality basis. Often there will be one Police Department (e.g., municipal, county or state), but there may be several Fire Departments and EMS Agencies. The town will be divided into response areas served by each respective agency. The response areas are overlaid and may be defined as geographic zones served by one particular combination of Police, Fire and EMS agencies. Such zones are referred to as Emergency Service Zones (ESZ). Each ESZ contains the street addresses served by each type of responder. The ESZs are each assigned an identification number (usually 3-5 digits), known as Emergency Service numbers (ESN). The Assignment of ESZs and corresponding ESNs enables the compilation of selective routing tables. The street addresses are derived from a Master Street Address Guide (MSAG), a data base of street names and house number ranges within associated communities defining Emergency Service Zones (ESZs) and their associated Emergency Service Numbers (ESNs). This MSAG enables proper routing of 9-1-1 calls by the 9-1-1 tandem; this is Selective Routing as implemented in a 9-1-1 system. Thus, the telephone company must have an MSAG valid address to be assigned the appropriate ESN for selective routing purposes and that information must be added to the 9-1-1 ALI database. It is by using such information that the selective routing capability of the Selective Routing Tandem can properly route a 9-1-1 call to the correct PSAP. If the information is not available in the ALI database, the record is placed into an error file for further manual handling. A portion of the ALI database may be loaded into a Selective Routing Data Base (SRDB) for use by the 9-1-1 Tandem. The SRDB may be located in the Tandem, in an adjunct processor, or in the ALI database. Reliability is a very important factor considered in designing 9-1-1 systems. One approach to providing reliability is to provide diversely routed trunk groups from each central office to its respective 9-1-1 Tandem. Preferably, each trunk group is large enough to carry the entire 9-1-1 traffic load for the respective central office. However, some systems are designed with less than full traffic capacity on trunk groups to "choke" or "congestion manage" incoming calls to a tandem in order to avoid overloading a PSAP. In some arrangements, parallel 9-1-1 Tandems are provided so that a central office has capable 9-1-1 Tandem ready for use (albeit with 50% call handling capacity) without interruption if one of the 9-1-1 Tandems fails. Switched bypass to an alternate 9-1-1 Tandem, commonly using digital crossover switches, is another approach to providing reliability in 9-1-1 systems. Another approach to providing redundancy and robustness for a 9-1-1 system is the employment of Instant Network Backup (INB). Using INB, if a call does not complete to the 9-1-1 network for any reason (e.g., trunk failure, facility problem, 9-1-1 Tandem failure or port failure), the INB takes over and completes the call to a predesignated 7- or 10-digit number. Using this INB alternate path, ANI and ALI information are not delivered, but the call is completed to a local public safety agency, usually the local PSAP. The interface between Operator handled calls and a 9-1-1 system is addressed in several ways. One system provides a direct connection between an Operator Tandem and the 9-1-1 Tandem. The operator forwards the call with the caller's ANI to the 9-1-1 Tandem. The 9-1-1 Tandem treats the call as though the caller had dialed the call. A second way to effect the desired interface is by using pseudo numbers. A pseudo number is a number that, when dialed, will reach a specific PSAP as a 9-1-1 call. Pseudo numbers have some special ALI information associated with them; for example, there may be a pseudo number associated with each municipality in a state. Dialing the pseudo number, usually from outside the LATA (Local Access and Transport Area), will generate a 9-1-1 to the PSAP for that municipality. The ALI display will indicate that it is a third party conference call from an unknown address in that town. The caller is not identified, but the call goes to the PSAP where the caller is believed, or claims, to be. Pseudo numbers are useful for Alternate Local Exchange Carrier (ALEC) or Competitive Local Exchange Carrier (CLEC) operators who may be located anywhere in the country. A third method for effecting an interface for operator handled calls with a 9-1-1 system is through the public switched telephone network (PSTN), dialing the directory number for the PSAP. This is often referred to as the "back door" number by ALEC and CLEC operators. The same issues encountered in implementing a 9-1-1 system for identifying user location are also extant in other telecommunication systems where user location (or other locations) are important. As mentioned above in connection with the Riskin '267 Patent, marketing decisions, dealer contact actions and delivery actions may be more informedly effected using location information obtainable from a properly featured telecommunication system. According to Riskin, such geographic location information is of value even when it is coarse information suitable only for locating a caller within a telephone service provider central office service area. The advent of wireless communications has further exacerbated the difficulty of ascertaining caller location in telecommunication systems. The "patchwork" solutions described above regarding 9-1-1 systems have been mirrored in other special, or abbreviated number systems to a significant extent. The "patchwork" solutions have created a capability-limited telecommunication system that cannot ascertain geographic information as fully or as easily as it should for all types of callers. This capability limitation has been especially felt in connection with wireless telephone systems. The system is overly dependent upon human intervention to properly route calls to appropriate receivers, such as a proper PSAP. New modes of communication, such as Voice Over IP (Internet Protocol), further contribute to telecommunication traffic not identifiable regarding geographic origin using present telecommunication routing systems. Similar limitations will likely occur in other abbreviated number, or other special number, telephone systems handling location-based calls with resulting adverse limitations. Other such abbreviated number systems include emergency call systems in countries other than the United States, abbreviated number calling systems for reaching telephone maintenance services, abbreviated number calling systems for municipal information and services, and similar systems. There is a need for an improved telecommunication system and method with geographic sensitivity that can be employed for abbreviated number systems and other felephone systems to ascertain user location or other geographic information with less human intervention than is presently required. There is also a need for an improved telecommunication system and method with geographic sensitivity that can be employed for abbreviated number systems and other telephone systems to ascertain user location or other geographic information when involving wireless, Internet, satellite or other non-geographically fixed communication technologies. SUMMARY OF THE INVENTION A telecommunication system configured for use with a telecommunication network for delivering messages to a plurality of users. The telecommunication network includes a plurality of switching junctions connected by a network of a plurality of communication channels, a plurality of telecommunication service providing stations connected into the network at at least one of the switching junctions and the plurality of communication channels for effecting a plurality of various telecommunication milieux. Selected telecommunication service providing stations of the plurality of telecommunication service providing stations serve a plurality of user-operated communication devices using selected telecommunication milieux of the plurality of various telecommunication milieux. At least some communications established by the plurality of users include geographic- indicating information relating to respective geographic locations of respective users of the plurality of users establishing the at least some communications. The system comprises at least one message originating station configured to receive the geographic-indicating information from selected users. The at least one message originating station is configured to dispatch a predetermined message to at least one of the selected users. The predetermined message is selected and dispatched to the user according to the geographic-indicating information received from the user. The at least one message originating station is connected with the telecommunication network. The invention also contemplates a method for delivering messages to selected users of a plurality of users in a telecommunication network. The telecommunication network includes an array of switches, junctions, communication channels, customer-operated communication devices and telecommunication service providing stations connected to facilitate electronic communication among a plurality of stations using a plurality of communication milieux. At least some communications established by the plurality of users are effected by geographic-indicating calls. Each respective geographic-indicating call includes geographic-indicating information relating to locus of a calling user originating the respective geographic-indicating call. The method comprises the steps of: (a) routing the geographic-indicating calls via the telecommunication network to at least one message originating station connected with the telecommunication network; (b) evaluating the geographic- indicating information to ascertain caller locus of the calling user; and (c) dispatching a predetermined message to the calling user. The predetermined message is geographically pertinent to the caller locus. The method may further comprise the step of (d) interacting with the user based on message content to complete a transaction. Prior art special number, or abbreviated number telecommunication systems receive some geographic related information. In some presently existing situations, mostly involving wireline telephone connections, geographic information received is adequate to accomplish required routing. In other presently existing situations, such as in situations requiring rerouting of calls to wireless service providers (WSP), to private branch exchanges (PBX), to overcome a problem in the normal wireline connection, or for other special situations, required call routing is difficult. The degree of difficulty varies depending upon whether adequate arrangements were made beforehand between respective PSAPs. In such difficult rerouting situations, human operators at special number answering stations must effect connection with geographically appropriate special number action stations in order that appropriate action agencies geographically proximate to the caller initiating the special number call may be responsively employed. In some systems the human operator effects the required routing by pressing a button, or a plurality of buttons. However, in order to ascertain the desired destination of the call, the human operator must read a screen or consult a list or directory. Such consulting to ascertain desired routing decisions consume time and offer opportunities for human errors. There is a need for an automatic-connection capability for effecting the desired geographically proximate call completion with little or no human operator intervention required. Automatic routing based upon geographic information provided with call information is known for generalized telephone network systems. There is a need for employing the advantages proven to be attainable by today's generalized telephone network systems technology to the 1960's and 1970's "patchwork" system structure presently employed for special number communication systems in the United States. The special number handling and routing system of the present invention offers numerous advantages over present special number systems. The present invention contemplates adding special number handling capabilities to a telecommunication network switch, such as selective routing, enhanced Automatic Location Identification (ALI), mapping, and other capabilities peculiarly applicable to special, or abbreviated number call handling. Such added capabilities at the special number system network switch level provide significant flexibility to handling of special number calls by a telecommunication system. For example, such integration of special number call handling capability in a telephone network obviates the need for choking through overflow routing, queuing, interactive voice response (IVR) or granular plotting of calls for filtering. The new system of the present invention minimizes the difficulty in coordinating choking across a variety of Local Exchange Carriers (LECs) that may route calls to a 9-1-1 tandem. The new system provides each carrier (LEC) with an appropriately engineered network access to manage call volume and distribute calls to call takers in special call answering stations, such as Public Safety Answering Positions (PSAPs), or route the calls to queues or INRs, according to extant service policies. Another important capability provided by the system of the present invention is an ability to manage multiple special number answering stations (such as PSAPs) for disaster recovery, mutual aid, or other cooperative activities. The system of the present invention facilitates sharing of data screens, call screens, dispatch screens and other commonalities that may be instituted when needed without necessarily requiring voice connection. The system of the present invention also creates a more robust system better able to resist interruption during disaster operations. Integrating special number handling systems with a telecommunication system at the special number system network switch level provides significantly greater flexibility and speed in traffic rerouting to avoid network breaks, and similar disaster-related problems. Also of significance, such high-level integration of special number handling systems with public telecommunication systems makes it more likely that improvements and advances in communication technology will be employed for upgrading special number handling in the future. If special number handling systems are not "main stream" applications integrated within the public phone system, there may be a tendency for them to evolve differently than the public telephone system, and future compatibility between systems would be ever more difficult. Further, high level integration of special number call handling capabilities within the main stream public telephone network facilitates easier inclusion of diverse special call handling agencies within the system, such as colleges, animal control agencies, poison control agencies and others. By way of example, from a public safety perspective, two significant improvements provided by the system of the present invention are (1) interconnected PSAPs with click-through routing enabling that treats all PSAPs as one large logical PSAP across political jurisdictions and carrier service providers' boundaries; and (2) a significantly more reliable network with added redundancy, ability for calls to overflow and be backed up (e.g., eliminating choking) and enhanced network management capabilities using the latest technologies. These advantages are realized because the system of the present invention employs 9- 1 - 1 - tandems interconnected with all other 9-1-1 tandems and network switches at high level interfaces enabling more varied data types at faster speeds in the public telephone network. In its preferred embodiment, a 9-1-1 tandem configured according to the present invention is a stand-alone switch apparatus. It is, therefore, an object of the present invention to provide a telecommunication system and method for handling special, or abbreviated number calls that has geographic sensitivity. It is a further object of the present invention to provide a telecommunication system and method for handling special, or abbreviated number calls that can automatically connect a caller with a geographically proximate action agency with no human intervention using geographic information included with call information. Further objects and features of the present invention will be apparent from the following specification and claims when considered in connection with the accompanying drawings, in which like elements are labeled using like reference numerals in the various figures, illustrating the preferred embodiments of the invention. BRIEF DESCRIPTION OF THE DRAWINGS Fig. 1 is a block diagram illustrating selected elements of a prior art abbreviated number telecommunication system manifested in a 9-1-1 system. Fig. 2 is a block diagram illustrating selected elements of the preferred embodiment of the abbreviated number telecommunication system of the present invention, manifested in a 9-1-1 system. Fig. 3 is a schematic diagram illustrating a prior art employment of an abbreviated number system in a telecommunication network, manifested in a 9-1-1 system. Fig. 4 is a schematic diagram illustrating employment of an abbreviated number system in a telecommunication network, manifested in a 9-1-1 system, according to the present invention. Fig. 5 is a schematic flow diagram illustrating the preferred embodiment of the method of the present invention, manifested in a 9-1-1 system. Fig. 6 is a block diagram illustrating selected elements of the preferred embodiment of the present invention, manifested in a message distribution system having geographic sensitivity. Fig. 7 is a schematic diagram illustrating employment of a message distribution system in a telecommunication network according to the present invention. Fig. 8 is a schematic flow diagram illustrating the method of the present invention, manifested in a message distribution system. DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENT Fig. 1 is a block diagram illustrating selected elements of a prior art abbreviated number telecommunication system, manifested in a 9-1-1 system. In Fig. 1, a prior art 9-1-1 telecommunication system 10 includes a 9-1-1 tandem 12 connected with a selective router 14 and an ALI database 16. A plurality of service providers 18 are connected with 9-1-1 tandem 12. Service providers 18 are illustrated in Fig. 1 as representatively including an incumbent local exchange carrier #1 (ILEC1) 20, an incumbent local exchange carrier #2 (ILEC2) 22, an independent local exchange carrier (IndepLEC) 24, a wireless service provider (WSP) 26, a multi-services operator (MSO) 28, a competitive local exchange carrier (CLEC) 30, and a private branch exchange (PBX) 32. Service providers 18 may also include other entities, as represented by a service provider "OTHER" 34 in Fig. 1. Service providers 18 provide telecommunication services to users (not shown in Fig. 1) including, as one communication service, a connection with a 9-1-1 emergency call service. System 10 is representative of a prior art 9-1-1 system in a large metropolitan area having several political jurisdictions. Thus, 9-1-1 tandem 12 serves a plurality of public safety answering positions (PSAPs) 36, such as PSAP1, PSAP2, PSAP3, PSAP4, PSAP5, and PSAPn. The term "PSAP" may also be used to refer to "public safety answering points". Other emergency call entities 38 are illustrated in Fig. 1 as not connected with 9-1-1 tandem 12. Such entities are typically not included within a 9-1 -1 system, yet often may find it advantageous to employ a system such as 9-1-1 system 10. Other entities 38 are representatively (yet, not exhaustively) illustrated in Fig. 1 as including college campuses 40, poison control centers 42, animal control agencies 44, private alarm companies 46, language translation providers 48, private roadside assistance agencies 50, federal agencies 52 and relay entities 54. The architecture of prior art 9-1-1 system 10 is centralized primarily around incumbent local exchange carriers (ILECs), such as ILEC1 20 and ILEC2 22, and secondarily around political jurisdictions (not shown in Fig. 1). There are some cooperative agreements in effect, but they are another aspect of the "patchwork" nature of the prior art 9-1-1 systems represented by Fig. 1. The result is that prior art 9-1-1 systems, such as 9-1-1 system 10, are compartmentalized in structure, and cross-jurisdictional cooperation is not easily effected unless a group of jurisdictions - e.g., municipalities within a county - arrange to "hard wire" the connections necessary to accomplish cooperative structure. Sometimes a group of related PSAPs may make other special arrangements with a LEC (Local Exchange Carrier). Interconnection between carriers (i.e., service providers 18 in Fig. 1) or between wireline carriers and wireless carriers are cumbersome. One result is that such ad hoc cooperative system arrangements too often result in a fragile system susceptible to service interruption during disaster situations. It is in such disaster situations that such emergency service systems will be needed most, yet such systems are presently configured in manners lacking robust redundant and diverse route paths to existing 9-1-1 tandems from the service provider offices (e.g., service providers 18 in Fig. 1), or from PSAPs 36 (Fig. 1). Also of significant importance is the lack of connectivity between other entities 38 and 9-1-1 tandem 12 in prior art system 10. Such a lack of connectivity means that other entities 38 effect connection with a PSAP 36 via the public switched telephone network (PSTN), not shown in Fig. 1, like any other call made between subscribers. Another significant shortcoming of prior art 9-1-1 system 10 is difficulty in rerouting of calls to an appropriate PSAP 36 geographically proximate to a caller when a PSAP receives a misrouted 9-1-1 call, that is the caller is located not in an area served by the receiving PSAP 36. If a caller reveals his location to a human operator located within system 10 (most likely in association with operation of 9-1-1 tandem 12), the human operator can manually reroute the call to connect the call to a PSAP 36 most proximate to the caller's location. Selective router 14 identifies which PSAP is appropriate for handling a particular emergency based upon location information regarding the caller. Using information from selective router 14, a human operator may effect connection with the indicated appropriate PSAP; selective router 14 does not have a straightforward robust rerouting capability as is contemplated by the present invention. Selective router 14 may present a display on a screen to a human operator for selecting an appropriate PSAP for the call being considered. The human operator selects a PSAP from the display on the screen and presses a button to complete the call. In essence, the call completion is effected as a conference call. Such a call destination selection and completion arrangement is fraught with opportunities for human error, and ties up communication resources unnecessarily. ALI database 16 is just that - a data base. ALI database 16 cooperates with selective router 14 to facilitate the identification of an appropriate PSAP by selective router 14. However, no straightforward robust rerouting of calls to PSAPs proximate to a caller's locus is effected using ALI data base 16, selective router 14, or any combination of those devices. Fig. 2 is a block diagram illustrating selected elements of the preferred embodiment of the abbreviated number telecommunication system of the present invention, manifested in a 9-1-1 system. In Fig. 2, an improved 9-1-1 system 60 includes a first emergency service complex (ESCl) 62 and a second emergency service complex (ESC2) 64. Preferably emergency service complexes ESCl 62 and ESC2 64 are substantially the same in structure and are arranged for parallel backup operational support for users of improved system 60. In order to simplify explanation of improved system 60, this description will focus upon connections and arrangements involving emergency service complex ESCl 62, with the understanding that parallel connections and arrangements are in place regarding emergency service complex ESC2 64. Emergency service complex ESCl 62 serves a plurality of service providers 66. As will be appreciated in greater detail in connection with Fig. 4, emergency service complex ESCl 62 is connected via a public telecommunication network (not shown in Fig. 2) with a significantly wider range of service providers 66 than were served by prior art 9-1-1 system 10 (Fig. 1). Thus, emergency service complex ESCl 62 serves service providers 66 including an incumbent local exchange carrier (ILEC) 68, a wireless service provider (WSP) 70, an Internet service provider (ISP) 72, and other service providers 66 not specifically identified in Fig. 2. In fact, emergency service complex ESCl 62 may be connected via a public network, such as a public switched telephone network (PSTN) (not shown in Fig. 2) with any of the service providers 18 (Fig. 1), with any or all of the other entities 38 (Fig. 1), and with additional service providers not even contemplated for connection with prior art 9-1-1 system 10. Such additional service providers may include, by way of example, Internet service provider ISP 72 (Fig. 2). Service providers 66 provide telecommunication services of various milieux to callers, or users 74. The various telecommunication milieux contemplated by system 60 of the present invention includes any electronic transmission of information including, for example, voice, data and video communications, whether delivered via systems employing digital, analog, ISDN, optical, wireline, wireless, or other delivery technologies. Also included within the contemplated technological applicability of the present invention are voice, data or video signals delivered over the Internet, via satellite communications, or via other delivery media. A similarly broad array of communication milieux are also available to connect emergency service complex ESCl 62 with a plurality of public safety answering positions (PSAPs) 76, such as PSAP1, PSAP2, PSAP3, PSAP4, PSAP5, PSAP6, and PSAPn. Similar parallel communication capability is also available between emergency service complex ESC2 64 and service providers 66 and PSAPs 76. The connections relating to emergency service complex ESC2 64 are not fully displayed in Fig. 2 in order to keep the drawing simple for purposes of explaining the present invention. Emergency service complex ESCl 62 is configured much like a digital switching node in a public telecommunication network to include a network manager device 78 and a data communication manager device 80. Improved system 60 further includes a selective call router 82 and an ALI/enhanced ALI data base 84. Network manager device 78, data communication manager device 80 and selective call router 82 cooperate to effect location-based call routing, monitor system maintenance needs and carry out other administrative functions. ALI/enhanced ALI data base 84 is substantially similar to such data bases used in present enhanced 9-1-1 systems, and provides additional information relating to callers using the 9-1-1 system, such as special medical needs, handicaps, medication needs and similar information that can be provided by subscribers, or callers, for use in case of an emergency. Preferably emergency service complex ESCl 62 also includes a reporting data base and utility 86 for ascertaining certain operational characteristics regarding emergency service complex ESCl 62 and improved system 60. For example, reporting data base and utility 86 may be configured to allow managers of improved system 60 to determine how many calls are not reaching an appropriate PSAP 76 within a prescribed time, whether changes in routing criteria might be useful in balancing loads on PSAPs 76, and similar information. A preferred embodiment of emergency service complex ESCl 62 further includes a mapping capability 88 capable of interpreting geographical information received relating to callers and displaying an indication of such geographic information on a map at emergency service complex ESCl 62, selected PSAPs 76 or elsewhere as an aid to human operators or others. A preferred embodiment of emergency service complex ESCl 62 also includes an automatic call distributor (ACD) 90. ACD 90 effects routing of calls to appropriate PSAPs 76 based upon information provided by selective call router 82. It must be emphasized here that selective call router 14 of prior art system 10 (Fig. 1) relates only street address information with PSAPs, and is not configured for or capable of comprehensive global geographic location determination as is contemplated with the present invention. The configuration of emergency service complex ESCl 62 with a telecommunication switch capability appropriate for operation within a PSTN (including virtual private networks, private networks and other limited access network configurations) as a "full participant" station operating as a telecommunication system node, as contemplated by the present invention, means that selective router 82 of improved system 60 may identify and effect routing to any PSAP reachable by the PSTN. The present invention contemplates improved system 60 being configured for full participation in a global telecommunication network (not shown in Fig. 2) as a substantially fully cognizant telecommunication switching capability. As a consequence of the fully capable network configuration of the present invention, improved system 60 can receive calls from any user connected with a global telecommunication network through service providers connected to the global network. Thus, geographic information relating to callers' loci will be received relating to a plurality of communication milieux: plain old telephone system (POTS), wireless telephones, satellite telephones, Internet connections, and data delivered by any of those conveyances. Being connected with the global network as a fully capable entity, improved system 60 may interpret geographic information received relating to callers' loci on a global basis. Further, because of the global access available to improved system 60 via the global network, connection to PSAPs may be effected worldwide depending upon the geographic information received. Thus, for example, a caller located in Arizona placing an emergency service call to a private roadside assistance agency situated in Michigan may be serviced by a local action agency (e.g., police, fire, emergency medical service or towing company) because the Michigan roadside assistance agency routed the call to a Michigan emergency service complex (ESC) along with geographic information embedded in call set up data identifying the caller's location in Arizona. The ESC in Michigan can recognize the geographic relevance of the embedded information to route the call (via the global network through its network manager capability) to the appropriate PSAP most proximate to the caller's locus in Arizona. Such geographic information may indicate location of a switch or service provider (e.g., ILEC, ALEC, WSP) handling the abbreviated number call. The geographic information may be derived from Global Positioning System (GPS) information, or triangulated information from a plurality of wireless service towers to estimate position of a wireless caller. Another type of geographic information may relate to the Internet service provider access point used by the caller to send a message, or any other geographic information appropriate to estimate the locus of the caller placing the abbreviated number call. The present invention also contemplates that an emergency service complex, such as emergency service complex ESCl 62 (Fig. 2) will have an Internet connected capability. Using such a capability, for example, an operator at emergency service complex ESCl 62 could click on an appropriate button on a tool bar display on a computer screen to effect desired connections, including Internet communications connections. One embodiment of this novel capability is to establish an emergency services "chat window" to facilitate exchange of information between an operator associated with ESCl 62 and a caller accessing the emergency service system via the Internet. Fig. 3 is a schematic diagram illustrating a prior art employment of an abbreviated number system in a telecommunication network, manifested in a 9-1-1 system. In Fig. 3, a "country" 100 includes "states" 102, 104, 106, 108. State 104 includes two "counties" 110, 112. Country 100 is served by a telecommunication network 114. State 102 has an emergency service tandem T Tandem Ti is connected with public safety answering position (PSAP) Pi; PSAP Pi has communication links with local police (P), fire (F) and emergency medical (E) agencies. Tandem Ti is also connected with central office COi, the local telephonic service provider for state 102. Central office COi supports and is connected with wireline users Uι a , Ui , Uι c , Ui d . Central office COi is connected with network 114. State 104 has two counties 110, 112. County 110 has two emergency service tandems T 21 , T 22 , both of which tandems T 21 , T 22 are connected with a PSAP P 2; PSAP P 2 has communication links with local police (P), fire (F) and emergency medical (E) agencies. Tandem T 21 is connected with central offices CO 211 , CU 212 - Central office CO 211 supports and is connected with wireline users U 2 iι a5 U 2 ii b - Central Office CO 212 supports and is connected with wireline users U 2 i 2 a 5 U 2 i 2b - Central offices CO 211 , CO 212 are each connected with network 114. Tandem T 22 is connected with central offices Cθ22i > Cθ2 22 - Central office CO 221 supports and is connected with wireline users U22ia5 U 22 ib, U22ic- Central Office CO2 22 supports and is connected with wireline users L^a, U 222 b, U 2 22c- Central offices Cθ22i, CO222 are each connected with network 114. County 112 has an emergency service tandem T 3 connected with a PSAP P 3 . Tandem T 3 is connected with a central office CO 3 . Central office CO 3 supports and is connected with wireline users U 3 a, U 3 - Central office CO 3 is connected with network 114. State 106 has an emergency service tandem T 4 . Tandem T 4 is connected with public safety answering position (PSAP) P 4 ; PSAP P 4 has communication links with local police (P), fire (F) and emergency medical (E) agencies (not shown in Fig. 3). Tandem T 4 is also connected with central offices Cθ 4 i s CO 42 . Central office CO 41 supports and is connected with wireline users U^ia, U 4 it,. Central office CO 42 supports and is connected with wireline users U 42a , U 42b - Central offices CCλn, CO 42 are connected with network 114. State 108 has an emergency service tandem T 5 . Tandem T 5 is connected with public safety answering position (PSAP) P 5 ; PSAP P 5 has communication links with local police (P), fire (F) and emergency medical (E) agencies (not shown in Fig. 3). Tandem T 5 is also connected with central offices Cθ 5 i ; CO 52 . Central office CO 51 supports and is connected with wireline users Usia, Usu,, U 5 i c . Central office CO 52 supports and is connected with wireline users U 52a5 Us 2b - Tandem T 5 may also be connected with wireless service provider (WSP) WSP 5 and Internet service provider (ISP) ISP 5 . The dotted lines connecting WSP 5 and ISP 5 with tandem T 5 are intended to indicate that such a direct connection is not always established; wireless service providers and Internet service providers often communicate with 9-1-1 systems only via the PSTN. In Fig. 3, wireless service provider WSP 5 supports mobile users MU 5a , MU 5b , MU 5c , MU 5d , MU 5e . Internet service provider ISP 5 supports Internet users (not shown in Fig. 3). Central offices Cθ 5 i, CO 52 are connected with network 114. It is important to note in connection with the prior art arrangement illustrated in Fig. 3 the lack of direct connection between any tandem Ti, T 21 , T 225 T 3 , T 4 , T 5 with network 114. Thus, the only connection of any tandem with network 114 is via a respective central office. Fig. 4 is a schematic diagram illustrating employment of an abbreviated number system in a telecommunication network, manifested in a 9-1-1 system, according to the present invention. In the interest of avoiding prolixity and keeping the explanation of the present invention straightforward and simple, a detailed description of Fig. 4 repeating aspects of Fig. 4 that are the same as were illustrated in Fig. 3 will not be undertaken. The tandems, central offices, users, wireless service provider and Internet service provider are all in the same locations and labeled using the same terminology in Fig. 4 as they are in Fig. 3. An important difference in Fig. 4 is that all connections between a tandem and a central office, a wireless service provider, or an Internet service provider have been removed. Also, each tandem is directly connected with network 114. Thus, in state 102, tandem Ti remains connected with PSAP Pi, but is not connected with central office COi. In state 104, Tandem T 21 remains connected with PSAP P 2 , but is not connected with central offices CO 21 , C0 22 - Similarly, tandem T 22 remains connected with PSAP P 2 , but is not connected with central offices Cθ 22 CC> 222 - Tandem T 3 remains connected with PSAP P 3 , but is not connected with central office CO 3 . In state 108, tandem T 5 remains connected with PSAP P 5 , but is not connected with central offices CO 51 , CO 52 , not connected with wireless service provider WSP 5 , and not connected with Internet service provider ISP 5 . In fact, direct connections between tandems and PSAPs are not strictly required by the present invention; all connections with tandems may be effected via a public switched telephone network (PSTN), such as network 114 in Fig. 4. Direct connection with a service provider such as a central office, a wireless service provider or an Internet provider may be established, if desired. However, such direct connections are not required to advantageously employ the structure of the preferred embodiment of the present invention. All tandems Ti, T 21 , T 22> T 3 , T 4 , T 5 are connected with network 114. Connection with network 114 is the only connection that any tandem Ti, T 21 , T 22* T 3 , T 4 , T 5 needs to have with any service provider, with any other tandem, or with any PSAP. Of importance is the fact that connection with network 114 effects connection between each tandem Ti, T 21 , T 225 T 3 , T 4 , T 5 and any PSAP P h P 2, 'P3, P 4 , P5 in state 100. Providing each tandem Ti, T 21 , T 22 , T 3 , T 4 , T 5 with network switching and management capabilities, as by including selective call router 82, automatic call distributor 90, network manager device 78 and data manager device 80 (Fig. 2), ensures that each tandem Ti, T 21 , T 225 T 3 , T 4 , T 5 can fully employ geographic information accompanying a call to effect routing of the call to the most proximate PSAP Pi, P 2, P 3 , P 4 , P 5 to the caller's locus for providing assistance. Further, the network connection simplifies such routing to a proximate PSAP whatever the communication milieu employed to convey the call; all of the calls eventually are conveyed over network 114 to a tandem Ti, T 21 , T 225 T 3 , T 4 , T 5 , and all calls for dispatching assistance are likewise conveyed over network 114. The desired pairing of emergency service complexes (ESC) for redundancy in case of disaster can be easily established using known network design and planning techniques, thereby avoiding installation of expensive hard wiring to effect desired parallelism. Further, using network management techniques backup capabilities may be established "on the fly" in case both a primary and a backup ESC are incapacitated. No hard wiring among tandems is necessary to establish redundancy or robustness in the system. All that is required is rerouting of calls within network 114 to create redundancy and back up arrangements, a network management software exercise. Reference has been made earlier to geographic information accompanying calls. Such geographic information may include routing information within a network identifying the portal at which the call entered the network. For Internet communications (voice or data), the local access number employed to initiate the Internet service may provide a geographic indication of a caller's locus. Global Positioning System (GPS) information, or some other multi-dimensional coordinate locating system, may be employed for locating callers using wireless or satellite communication means. Other sorts of geographic information may as well be employed in connection with practicing the present invention without departing from the spirit of the invention. Fig. 5 is a schematic flow diagram illustrating the preferred embodiment of the method of the present invention, manifested in a 9-1-1 system. In Fig. 5, the method is intended for use for handling abbreviated calls in a telecommunication network including an array of switches, junctions, communication channels, customer-operated communication devices and telecommunication service providing stations connected to facilitate electronic communication among a plurality of stations using a plurality of communication milieux (not shown in Fig. 5). The method 170 begins with the step of routing the abbreviated number call via the telecommunication network to an abbreviated number call processing center, as indicated by a block 172. The illustrative embodiment employed for explaining the invention in Fig. 5 is a 9-1-1 emergency services call in the United States. Thus, block 172 is labeled to indicate that the abbreviated number call is a 9-1-1 call routed to an emergency service complex (ESC) via a public switched telephone network (PSTN). The method continues with evaluating geographic information received with the abbreviated number call to ascertain the locus of the caller originating the abbreviated number call, as indicated by a block 174. Such geographic information may indicate location of a switch or service provider (e.g., ILEC, ALEC, WSP, ISP) handling the abbreviated number call. The geographic information may be derived from Global Positioning System (GPS) information, or triangulated information from a plurality of wireless service towers to estimate position of a wireless caller, or any other geographic information appropriate to estimate the locus of the caller placing the abbreviated number call. The method continues with selecting at least one abbreviated number call answering station (e.g., a public safety answering position - PSAP), as indicated by a block 176. The abbreviated number call is then routed to at least one abbreviated number call answering station, as indicated by a block 178. The at least one abbreviated number call answering station receiving the abbreviated call evaluates the content or nature of the call to ascertain the service required by the caller, as indicated by a block 180. Based upon the evaluation conducted according to block 180, the at least one abbreviated number call answering station chooses an abbreviated number action agency for response to the abbreviated number call, as indicated by a block 182. The selected action agency is notified of the action required by the abbreviated number call, as representatively indicated by a block 184 (in which case the response required may be provided by a police agency), a block 186 (in which case the response required may be provided by a fire agency), and a block 188 (in which case the response required may be provided by an emergency medical service agency). A further step of the method, not shown in Fig. 5, may involve actually routing the abbreviated number call to the action agency for handling directly with the caller. Even further, the abbreviated number call may be routed to the responding unit dispatched by the action agency to the scene, such as a police patrol car or an ambulance. There is a manifestation of the invention that applies to outgoing return calls to originating callers. Specifically, one may configure the present invention not only to recognize the geographic origin of the call for purposes of routing the call to the nearest call answering locus to render aid to the caller (e.g., in the emergency services implementation of the invention, as described above). The system and method of the present invention may also be configured to recognize the geographic locus of the origin of the call for purposes of determining a message to be dispatched to the caller. For example, if a caller on a mobile telephone places a call and the geographic- indicating information in the call (e.g., in call set-up protocols, or the like) indicates an origin for the call in or approaching Yellowstone National Park, then the message dispatched to the caller may be in the form of a text message advising the caller of the availability of videos or books for sale relating to Yellowstone National Park in the caller's home town (home town information may be ascertained from phone number information, billing information, or other information). Such information may be displayed as a text message, an e-mail message or another-type format message, depending upon the type of device employed to place the call under consideration. Personal Digital Assistant (PDA) devices, palm-top computers, pagers, two-way pagers and cellular phones are examples of devices that are capable of handling messages of the type contemplated by the present invention. Messages sent according to the present invention may include text, graphics, video, sound or other media, or combinations of media. One communication milieu contemplated by the present invention is communication via the Internet. An Internet user could place a call received by a geographic service complex; the geographic service complex could ascertain the locus of the call originator through an Internet service provider (ISP) registration data base, which may be loaded into a data base at the geographic service complex for handy reference. Personal computers are very portable nowadays, so that simply knowing the registered address for a use of an ISP may not be an accurate determination of the caller's locus when the call is being placed. One solution to achieving finer resolution regarding callers' loci is to route messages to the originating caller's locus based upon the ISP access phone number employed by the caller to place the call. Call routing overhead information, such as call set-up data, may narrow the locus indication sufficiently for many purposes contemplated by the present invention. Another solution to determining a mobile Internet caller's locus is to establish a telecommunication management system that matches router and hub port information to physical locations. By such a system one may match port information to determine that a call is originating from a particular room in a large building. Such a management system would launch a query using the Internet address of the caller to determine the network by which the call was delivered. Once the delivering network is determined, a determination of the switch (or switches) by which the call was delivered may be undertaken. Once it is ascertained that the nearest switch to the origination locus is found, an inquiry for the router is posed. Once the router is known, the particular port from which the call was placed may be determined. Information relating to the port may be stored in a data base to identify a particular jack in a particular room in a particular building at which the call originated. Yet another approach to dynamic route analysis for identifying geographic location of the origin of a call placed via the Internet is particularly applicable to special number calls, such as emergency service (9-1-1) calls. In this alternate approach, an Internet protocol (IP) phone may respond to recognizing a special number (e.g., 9-1-1) by sending a unique Level 2 protocol frame type, such as an Ethernet or asynchronous transfer mode (ATM) frame type, or a uniquely modified frame, to the telecommunication switch to which the IP phone is connected. The dynamic route analysis application, or mechanism, responds to a preset signaling network management protocol (SNMP) trap on recognizing the special frame to capture pertinent information. The capture may be carried out in connection with the packet switch's gatekeeper and gateway modules, the physical plant location management system, or various switch and router components depending on the configuration of the specific switch . Such pertinent information may, for example, include telephone number (TN) of the IP phone device, physical location of the jack to which the IP device is connected, media access control (MAC) address, port and IP address from which the IP call originated. The telecommunication switch would subsequently route the IP call to an IP port - on which a special number address resolution application is installed. The special number address resolution application involves, by way of example, using the identifier of the IP port through which the call was placed to query the telecommunication management system overseeing the involved network to ascertain the physical location of the IP phone, and then inquiring of a preestablished IP-to-TN (telephone number) table to look up the TN associated with the IP phone. The application would preferably route the call along with TN, or the physical location information or both TN and physical location information to a special number answering station (e.g., a public safety answering station - PSAP - in a 9-1-1 System). At the special number answering station the special number call handling application would associate the voice portion and the data/location portion of the call using the TN and display the associated information on an appropriate call taking work station at the special number answering station. Such an approach offers a speedy determination of geographic location of call origin in terms readily recognized and manageable by a special number answering station because no call trace needs to be run after receipt of the special number call in the telecommunication switch In the context of the present invention, the term "telecommunication switch" is intended to include a telecommunication circuit switch that physically effects connection among a variety of circuits. The term "telecommunication switch" is also here intended to include that term as it applies to a telecommunications packet switch, which can be embodied in a geographically distributed collection of devices such as voice gateways, call control gateways, call feature servers and other devices that together provide functionality for a call to be routed from one location to another . A portable personal computer, such as a laptop computer, that communicates wirelessly may be located using technology appropriate for geographically locating any wireless call. The provision of wireless Internet web services employing geographic-based routing according to the present invention preferably includes such components as a wireless location privacy service unit, a wireless customer data mine indicating customer characteristics, a product/advertiser characteristic data base, a location of interest data base and data manager software that can interact with the data bases and user operations. With such a suite of data bases and a capability to manipulate the data stored therein, customers of wireless carriers or an electronic commerce company could subscribe to a wireless service that preferably provides location -based services in a ' combination of content services and advertising services. Availability of such detailed information provides opportunities for better management of services offered. Pricing differentials and discounts, time limitations, and other aspects of a service offering may be better designed and monitored because of the detailed information available relating to use of the service. In subscribing to the service contemplated to be delivered using the present invention, a customer may provide demographic information and preference information for entry and storage in the customer data mine. The stored information may, for example, include second residence location, age, sex, pets, children, interest in sports, travel, art, food, dining, automotive, and other personal tastes or traits. A product/advertiser data base may include information regarding products and services for sale on a geographic basis. Preferably the product/advertiser data base would be interfaced with an electronic commerce system for information relating to price, availability, shipping, order, and other data. The product/advertiser data base may also contain product and advertising messages that may be selected for sending to a subscriber based upon subscriber characteristics or location. A location field relating to product or advertising may be matched with the location of the subscriber (caller) for effecting the desired message selection. It would be useful to flag the types of locations in this data base that a subscriber would likely visit, and to flag services or products that may likely be of interest to the subscriber. The product/advertiser data base may also contain fields indicating the service package purchased by an advertiser and the treatment their advertisements are to receive. For example, a given advertiser may be able to arrange that advertisements relating to competitors will not be sent to subscribers located at the given advertiser's premises. A location of interest data base is a spatial data base containing the coordinates of a wide variety of sites of interest throughout the geographic deployment area of the service provided by the present invention. For example, sites of interest for a given subscriber may include a theme park, large store, sports stadium, large temporary outdoor event (e.g., ethic, music, or food festival), national park or historic site, or travel destination site distant from a subscriber's home (e.g., a vacation destination). The location of interest data base also may contain fields that provide information regarding types of product interest that could be associated with a given site on a given date, or within a range of dates. For example, a stadium may host a football game on certain dates, baseball games on other dates, and a country music concert on still another date. The location of interest data base may also contain information enabling suggestion of product categories -such as books, music or sports equipment. The location of interest data base may be segmented into an "on-line" data base having only information relating to current events, and a "staging" data base containing information relating to other events than events currently underway. The staging version of these data bases can be uploaded to the production version of these databases in a timely manner to anticipate upcoming events. A privacy service module may be used to manage the permissions a subscriber provides to a wireless carrier. For example, a subscriber may allow no use of location information. Some subscribers may purchase or allow certain location information but allow no additional information to be pushed to them. The privacy service module permissions may also limit the number of items pushed, or the times of pushing. A wireless customer tracking data base receives frequent periodic or continual information updating the subscriber's locus using the wireless carrier's location determination system. The system application software may continuously (or at least frequently) compare the locus of subscribers with locations of interest, with products of interest, and with privacy module control parameters to select appropriate messages and to push those messages to subscribers' wireless communication devices, e.g., cellular phones, personal digital assistants (PDAs) and similar devices. Various message delivery technologies may be employed, including short message service (SMS), wireless applications protocol (WAP) or similar communication formats, packet data technology and other technologies. By effecting comparison among various data bases, the system generates and sends value-added content or product information messages to subscribers based upon predetermined selection criteria and facilitates transactions between subscribers and electronic commerce applications. Considerations involved in selection criteria may include, for example, the time a subscriber has been in a certain location before a message is sent (to prevent errant messages being sent to people passing a store on a freeway). For example, a subscriber attending a home and garden show in a large civic center may receive a message about a home improvement book, tulip bulbs by mail or a paint sprayer. A person visiting a theme park with children may receive a message about being able to purchase merchandise carrying images of characters at that theme park delivered to their home within three days. A person on vacation in Hawaii may receive a message about pineapples being shipped directly to their home or about the location of a distributor of Hawaiian macadamia nuts near their home. The messages need not be static. Using WAP or a similar mode of delivery, the messages can provide a link/connection to an appropriately enabled web-site to gain more information or place an order. That is, the messages may establish two-way communications to make an arrangement of some sort with a subscriber, if the subscriber so desires. For example, a person in a theater may receive a message about dining locations and make a reservation. The subscriber could initiate a wireless phone call with a supplier/advertiser merely by entering a single key-stroke in response to an on- line prompt conveyed by the message. The messages may also be synchronized with other message delivery media, such as video or data presented through kiosks, bill boards, or video monitors at locations of interest or en route to locations of interest. Fig. 6 is a block diagram illustrating selected elements of the preferred embodiment of the present invention, manifested in a message distribution system having geographic sensitivity. In Fig. 6, a geographic service complex 210 includes a geographic call router 212, a geographic interpreter 214, a data communication manager 80 and a network manager 78. Geographic interpreter 214 serves to ascertain geographic locus of a caller from geographic-indicating information accompanying a call. Geographic call router 212 cooperates with geographic interpreter 214 to ascertain appropriate routing to an originating caller. Geographic call router 212 may be able to place a call to an originating caller based upon call set-up information accompanying the call without any need to cooperate with geographic interpreter 214. In any event, geographic interpreter 214 serves as an input to selecting which message is to be sent to a caller in order that the message sent will have geographic pertinence, or relevance to the caller's geographic locus. Geographic service complex 210 serves a plurality of service providers 66. Geographic service complex 210 may be connected directly with a public telecommunication network (not shown in Fig. 6), or geographic service complex 210 may be connected with service providers via one of telecommunication service providers 66, such as a telephone company central office. Thus, geographic service complex 210 may be connected with service providers 66 including an incumbent local exchange carrier (ILEC) 68, a wireless service provider (WSP) 70, an Internet service provider (ISP) 72, and other service providers 66 not specifically identified in Fig. 6. Service providers 66 provide telecommunication services of various milieux to callers, or users 74. The various telecommunication milieux contemplated by geographic service complex 210 of the present invention includes any electronic transmission of information including, for example, voice, data and video communications, whether delivered via systems employing digital, analog, ISDN, optical, wireline, wireless, or other delivery technologies. Also included within the contemplated technological applicability of the present invention are voice, data or video signals delivered over the Internet, via satellite communications, or via other delivery media. A similarly broad array of communication milieux are also available to connect geographic service complex 210 with a plurality of user positions 216, such as USER1, USER 2, USER 3, USER 4, USER 5, USER 6, and USERn. The connections relating to geographic service complex 210 are not fully displayed in Fig. 6 in order to keep the drawing simple for purposes of explaining the present invention. When geographic service complex 210 is to be connected directly with a telecommunication network, geographic service complex 210 is preferably configured much like a digital switching node in a public telecommunication network. In such a direct-network-connection configuration, geographic service complex 210 includes a network manager device 78 and a data communication manager device 80. Network manager device 78 and data communication manager device 80 cooperate to effect location-based call routing, monitor system maintenance needs and carry out other administrative functions. The present invention contemplates that geographic service complex 210 may be connected with a telephone network via a telephone service provider 66 (e.g., a central office) or geographic service complex 210 may be configured for full participation in a global telecommunication network (not shown in Fig. 6) with a substantially fully cognizant telecommunication switching capability. If geographic service complex 210 is configured for full telecommunication network participation, it can receive calls from any user connected with a global telecommunication network through service providers connected to the global network. In either configuration (direct participation or participation through a telephone service provider), geographic information relating to callers' loci will be received relating to a plurality of communication milieux: plain old telephone system (POTS), wireless telephones, satellite telephones, Internet connections, and data delivered by any of those conveyances. Being connected with the global network, geographic service complex 210 may interpret geographic information received relating to callers' loci on a global basis. Further, because of the global access available to geographic service complex 210, connection to users may be effected worldwide depending upon the geographic information received. In fact, given that geographic service complex 210 may receive call set-up information in the process of receiving geographic-indicating information, setting up to return a call to a call-originating caller/user (for delivery of a message) may be a straightforward operation. The geographic- indicating information gleaned from the incoming call information may be used to select the message content to make the message have geographic pertinence, or relevance, for the caller to whom the message is directed. Thus, for example, a caller located in Arizona placing an emergency service call to a private roadside assistance agency situated in Michigan may be serviced by a local action agency (e.g., police, fire, emergency medical service or towing company) because the Michigan roadside assistance agency routed the call to a Michigan emergency service complex (ESC) along with geographic information embedded in call set up data identifying the caller's location in Arizona. The ESC in Michigan can recognize the geographic relevance of the embedded information to route the call (via the global network through its network manager capability) to the appropriate PSAP most proximate to the caller's locus in Arizona. This capability was discussed above in connection with Fig. 2. In addition, there can be a recognition of geographic locus for the caller and a return message sent to the caller indicating local motel accommodations for use while the caller's automobile is being repaired. Discount coupons or other promotional materials may also be sent to the caller in the return message. The present invention also contemplates that a geographic service complex, such as geographic service complex 210 (Fig. 6) will have an Internet connected capability. Using such a capability, for example, an operator at geographic service complex 210 could click on an appropriate button on a tool bar display on a computer screen to effect desired connections, including Internet communications connections. One embodiment of this novel capability is to establish a "chat window" to facilitate exchange of information between an operator associated with geographic services complex 210 and a caller. Such connections and "chat window" arrangements may be effected wirelessly with PDA devices or similar devices, thereby enabling a caller to purchase items featured in messages sent. For example, the caller referred to above located in Yellowstone National Park may order the video presentation cited, and may arrange for overnight delivery to a hotel for viewing the next day. It is contemplated by the present invention that a caller could order an item featured in a geographic-relevant message for delivery electronically via the Internet for immediate viewing, or downloaded to storage on-line for later viewing. The operator could also establish voice communications with the caller if necessary to answer questions related to the caller's transaction. Establishing such communications with an operator could be established by the caller using wireless application protocol (WAP) or another appropriate protocol. Fig. 7 is a schematic diagram illustrating employment of a message distribution system in a telecommunication network according to the present invention. In Fig. 7, a "country" 100 includes "states" 102, 104, 106, 108. State 104 includes two "counties" 110, 112. Country 100 is served by a telecommunication network 114. Network 114 may be any telecommunication network, including the public switched telephone network (PSTN). For purposes of this application, the PSTN includes any network accessible by the public, including wireless service provider (WSP) networks, virtual private networks, private networks and other limited access network configurations. State 102 has a geographic service complex Gi. Complex Gi is connected with central office COi, the local telephonic service provider for state 102. Complex Gi is also directly connected with network 114. Both connections with complex Gi are indicated in Fig. 7 using dotted lines to indicate that either connection (or both) may be employed. Central office COi supports and is connected with wireline users Uι a , Ui , Uι c , Ui d - Central office COi is connected with network 114. The geographic service complex of the present invention, in its preferred embodiment, is contemplated as being offering as a service for vendors, retailers, and other sales organizations for reaching customers. Thus, for example, a vendor may subscribe to a service provided by a geographic service complex to provide predetermined messages to callers identified as calling from preselected geographic loci, or identified as having particular caller characteristics or both. The service contemplated being provided by a geographic service complex such as is contemplated by the present invention may be offered by an independent company, or maybe a service offered by a telephone service provider. Hence, a geographic service complex according to the present invention may be physically located at a central office of a telecommunication service provider and remain within the scope of the present invention. State 104 has two counties 110, 112. County 110 has two geographic service complexes G 21 , G 22 - Complex G 21 is connected with central offices CO 211 , C0 2 i 2 - Central office CO 211 supports and is connected with wireline users U 2 ii a , U 2 ii b - Central Office CO 212 supports and is connected with wireline users U2i 2 a 5 U 2 i2b- Central offices CO2115 CO212 are each connected with network 114. Complex G 21 may also be connected with network 114. Complex G 22 is connected with central offices Cθ22 CO2 22 5 or may be connected directly with network 114. Central office CO 221 supports and is connected with wireline users U 22 i a5 U 2 2ib, U 22 ic- Central Office CO 222 supports and is connected with wireline users U 22 2a > U 222 b, U 222c - Central offices CO 221 , CO 222 are each connected with network 114. County 112 has a geographic service complex G3. Complex G3 is connected with a central office CO 3 , or may be connected directly with network 114. Central office CO 3 supports and is connected with wireline users U 3a , U 3 - Central office CO 3 is connected with network 114. State 106 has a geographic service complex G 4 . Complex G 4 is connected with central offices CCλu , CO 42 ; complex G 4 may be directly connected with network 114. Central office CO 41 supports and is connected with wireline users L u a , U 411 ). Central office CO 42 supports and is connected with wireline users U 42a , U 42b - Central offices CCλu, CO 42 are connected with network 114. State 108 has a geographic service complex G 5 . Complex G 5 is connected with central offices COsi , CO 52 • Complex G 5 may be connected with network 114. Central office CO 51 supports and is connected with wireline users U 5 i a , Usi b , Usi c - Central office CO 52 supports and is connected with wireline users U 52 , Us 2b - Complex G 5 may also be connected with wireless service provider (WSP) WSP 5 and Internet service provider (ISP) ISP 5 . The dotted lines connecting WSP 5 and ISP 5 with complex G 5 are intended to indicate that such a direct connection is not always established; wireless service providers and Internet service providers may communicate with geographic services complexes via the PSTN. In Fig. 7, wireless service provider WSP 5 supports mobile users MU 5a , MUs b , MUs c , MUs d , MU 5e . Internet service provider ISP 5 supports Internet users (not shown in Fig. 7). Central offices COsi , CO 52 are connected with network 114. Fig. 8 is a schematic flow diagram illustrating the method of the present invention, manifested in a message distribution system. In Fig. 8, the method is intended for use in delivering messages to selected users of a plurality of users in a telecommunication network including an array of switches, junctions, communication channels, user-operated communication devices and telecommunication service providing stations connected to facilitate electronic communication among a plurality of stations using a plurality of communication milieux (not shown in Fig. 8). The method 220 begins with the step of routing geographic-indicating calls via a telecommunication network to at least one message originating station connected with the network, as indicated by a block 222. The method continues with evaluating geographic-indicating information received with the abbreviated number call to ascertain the locus of the caller originating the call, as indicated by a block 224. The geographic information may be derived from Global Positioning System (GPS) information, or triangulated information from a plurality of wireless service towers to estimate position of a wireless caller, or any other geographic information appropriate to estimate the locus of the caller placing the call. The method continues with dispatching a predetermined message to the caller that is geographically pertinent to the locus of the caller, as indicated by a block 226. It is to be understood that, while the detailed drawings and specific examples given describe preferred embodiments of the invention, they are for the purpose of illustration only, that the apparatus and method of the invention are not limited to the precise details and conditions disclosed and that various changes may be made therein without departing from the spirit of the invention which is defined by the following claims:

Claims: I Claim: 1. A telecommunication system configured for use with a telecommunication network for delivering messages to a plurality of users, said telecommunication network including a plurality of switching junctions connected by a network of a plurality of communication channels, a plurality of telecommunication service providing stations connected into said network at at least one of said switching junctions and said plurality of communication channels for effecting a plurality of various telecommunication milieux; selected telecommunication service providing stations of said plurality of telecommunication service providing stations serving a plurality of user-operated communication devices using selected telecommunication milieux of said plurality of various telecommunication milieux; at least some communications established by said plurality of users including geographic-indicating information relating to respective geographic locations of respective users of said plurality of users establishing said at least some communications; the system being characterized by at least one message originating station; said at least one message originating station being configured to receive said geographic-indicating information from selected users of said plurality of users; said at least one message originating station being configured to dispatch a predetermined message to at least one user of said selected users, said predetermined message being selected and dispatched to said at least one user according to said geographic- indicating information received from said at least one user; said at least one message originating station being connected with said telecommunication network. 2. A telecommunication system configured for use with a telecommunication network for delivering messages to a plurality of users as recited in Claim 1 wherein said at least one said message originating station is directly connected with said telecommunication network. 3. A telecommunication system configured for use with a telecommunication network for delivering messages to a plurality of users as recited in Claim 1 wherein said at least one said message originating station is connected with said telecommunication network via at least one of said plurality of telecommunication service providing stations. 4. A telecommunication system configured for use with a telecommunication network for delivering messages to a plurality of users as recited in Claim 2 or 3 wherein said plurality of various telecommunication milieux includes Internet communications. 5. A telecommunication system configured for use with a telecommunication network for delivering messages to a plurality of users as recited in Claim 2 or 3 wherein said plurality of various telecommunication milieux includes wireless communications. 6. A telecommunication system for use with a telecommunication network for delivering messages to a plurality of users; said telecommunication network including an array of switches, junctions, communication channels, user-operated communication devices and telecommunication service providing stations connected to facilitate electronic communication among a plurality of stations using a plurality of communication milieux; at least some communications established by said plurality of users including geographic-indicating information relating to respective geographic locations of respective users of said plurality of users establishing said at least some communications; the telecommunication system being characterized by at least one message originating station connected with said telecommunication network; said at least one message originating station being configured to receive said geographic-indicating information from selected users of said plurality of users; said at least one message originating station being configured to dispatch a predetermined message to at least one user of said selected users, said predetermined message being selected and dispatched to said at least one user according to said geographic-indicating information received from said at least one user. 7. A telecommunication system configured for use with a telecommunication network for delivering messages to a plurality of users as recited in Claim 6 wherein said at least one said message originating station is directly connected with said telecommunication network. 8. A telecommunication system configured for use with a telecommunication network for delivering messages to a plurality of users as recited in Claim 6 wherein said at least one said message originating station is connected with said telecommunication network via at least one of said plurality of telecommunication service providing stations. 9. A telecommunication system configured for use with a telecommunication network for delivering messages to a plurality of users as recited in Claim 7 or 8 wherein said plurality of various telecommunication milieux includes Internet communications. 10. A telecommunication system configured for use with a telecommunication network for delivering messages to a plurality of users as recited in Claim 7 or 8 wherein said plurality of various telecommunication milieux includes wireless communications. 11. A method for use with a telecommunication network for delivering messages to selected users of a plurality of users; said telecommunication network including an array of switches, junctions, communication channels, customer-operated communication devices and telecommunication service providing stations connected to facilitate electronic communication among a plurality of stations using a plurality of communication milieux; at least some communications established by said plurality of users being effected by geographic- indicating calls; each respective said geographic-indicating call including geographic-indicating information relating to locus of a calling user of said plurality of users originating said respective geographic-indicating call; the method being characterized by the steps of: (a) routing said geographic-indicating calls via said telecommunication network to at least one message originating station connected with said telecommunication network; (b) evaluating said geographic-indicating information to ascertain caller locus of said calling user; and dispatching a predetermined message to said calling user; said predetermined message being geographically pertinent to said caller locus.

Inventors: ANTONUCCI JAMES T, BARNIER BRIAN GLEN, WEKSEL DAVID, ZIEMANN DONALD ROBERT, ANTONUCCI, JAMES, T., BARNIER, BRIAN, GLEN, WEKSEL, DAVID, ZIEMANN, DONALD, ROBERT
Applicants: LUCENT TECHNOLOGIES INC, LUCENT TECHNOLOGIES INC.
Application year: 2001
Main classification: H04M11
IPC codes: H04M11