METERING METHOD AND APPARATUS FOR BUILDING STRUCTURES

Abstract: A method and apparatus for metering building structures having a plurality of service outlets each having control valves (50, 150, 250, 370, 450, 550, 650), includes the installing of meters (60, 160, 260, 370, 460, 560, 670, 680) within a given distance from each one of the valves (50, 150, 250, 370, 450, 550, 650). A transmission system (76) is coupled electrically to each one of the meters (60, 160, 260, 370, 460, 560, 670, 680) for sending meter readings periodically to remotely located equipment (94).

Description: Description METERING METHOD AND APPARATUS FOR BUILDING STRUCTURES Technical Field The present invention relates in general to a method and apparatus for metering building structures, and it more particularly relates to the metering of individual building structure units, such as apartment units, for utility consumption by the residents or other users. Background Art In the past, large building structures, such as apartment buildings and condominium buildings have been metered for utility consumption, such as water usage, by metering the main service line, such as the main water line for the entire building structure. In this manner, the utility company has billed the owners for the utility usage as opposed to each individual unit resident or owner. In the case of a condominium building structure, where each unit is owned separately, the utility company typically has submitted its billing statement to the condominium association of owners, which essentially has assessed each unit owner equally. In some condominium building structures, special supply lines, such as individual unit water supply lines, are installed initially to enable individual meters to be employed for each condominium unit separately. In this manner, billing statements have been submitted to each individual unit owner so that the unit owners are able to pay for their prorated portion of the utility consumption. In this manner, a more equitable payment system is possible. However, in the case of other types of building structures, such as apartment buildings and commercial buildings, it was not possible to meter individual units in a convenient and reliable manner. For example, in the case of water consumption, there have been no single service lines provided for each unit. Instead, each unit has had a series of pairs of hot and cold water lines for different rooms, such as bathrooms and kitchens, shared in common with other units. This is particularly true where there are several stories to the buildings. In this manner, a whole group of pairs of hot and cold water supply pipes or lines extend to supply vertically aligned units such as an apartment unit. Thus, each unit shares many different hot and cold water supply pipes with other units in the same building structure. Thus, such a building structure is not designed for individually metering units. In this regard, due to the large number of commonly shared supply lines for each unit, it has not been economically feasible, nor convenient, to meter individual units. Therefore, it would be highly desirable to have a new and improved method and apparatus for metering building structures, where individual units can be metered to enable the residents or users of each unit to be billed a prorated share of their individual utility usage. Such a new and improved metering method and apparatus should be relatively inexpensive to install and to read such meters. Also, such methods and apparatus should be useful for both existing and new building structures, without the requirement for special plumbing or customized building requirements. Sub-metering is especially suitable for enabling the specific usage of a utility resource by an individual user in a building structure to be monitored. For example, sub-metering is particularly adapted to measuring water usage in a typical one bedroom, one bath, residence apartment or condominium within a multi-family residence having seven separate water pipes for delivering water, including: (1) a kitchen sink hot water supply pipe; (2) a kitchen sink cold water supply pipe; (3) a bathroom sink hot water supply pipe; (4) a bathroom sink cold water supply pipe; (5) a toilet cold water supply pipe; (6) a shower hot water supply pipe; and (7) a shower cold water supply pipe. A wireless transmission system could be utilized with a sub-metering flow meter system to facilitate the remote monitoring of the many water supply pipes associated with each tenant of a building. As a result, a sub-metering flow meter system could be utilized within each tenant occupied space to monitor the specific usage of water therein from a remote location. Each flow meter comprising the flow meter system could be coupled to each water supply pipe, and the information obtained by the meters concerning the amount of water used could be transmitted by a wireless transmission system. However, the installation of such a sub-metering flow meter system with the wireless transmission system required that portions of the systems be exposed within the tenant occupied space in some instances, especially the flow meters for exposed water supply pipes. The resulting effect on the aesthetic appearance of the space was, in some applications, somewhat less than desirable, though, due to the presence of the flow meters. Alternatively, openings in the wall near the exposed water supply pipes would receive and hide the flow meters associated with the exposed pipes. Unfortunately, in some applications, such a procedure would be time consuming, expensive, and would not be entirely aesthetically pleasing in appearance. Therefore, it would be highly desirable to have a new and improved method for installing a flow meter system, and which method can be accomplished with a novel flow meter apparatus. Such a method should enable the flow meter system to be installed onto a utility distribution system quickly and easily, and should substantially conceal all evidence that the flow meter has been installed. Conventional flow meters have been useful for determining the amount of water delivered by a local water service to a single user to enable the water service to receive payment from the user for the amount of water actually delivered. The single user may have a relatively small requirement for water, such as a single family residence, or the single user may have a relatively large requirement for water, such as a multi- family residence or a commercial building. In either case, the water service has been provided with information regarding the total amount of water delivered to the single user by utilizing the flow meter. For example, reference may be made to the following U.S. patents, the disclosures therein being incorporated by reference: 4,015,366; 4,107,988; 4,324,135; 4,399,695; 4,654,147; 4,830,511; 4,860,923; 4,886,190; 4,889,148; 4,901,886; 5,056,554; 5,287,884; 5,381,926; and 5,435,188. Thus, a flow meter installed in-line is well known for determining the total amount of water delivered. The flow meter is installed so that it can be readily viewed by representatives from the water service, and is generally located outside of the structure which is receiving the water. Indicators, such as mechanical dials, were disposed on the housing for providing a viewable display of the water flow measurement. A measuring chamber within the meter housing, connected in fluid communication with the water supply pipe, permitted the water to pass therethrough. The flow rate of the water through the measuring chamber was proportional to the flow rate of the water through the pipe. Thus, by measuring the flow of the water through the measuring chamber, it is possible to determine the quantity of the water delivered through the pipe for customer billing purposes. An impeller disposed within the measuring chamber is coupled mechanically to the indicators, and is rotated within the measuring chamber as water flows therethrough. The amount of rotation of the impeller is indicative of the amount of water flowing past the impeller in the measuring chamber. The impeller was positioned centrally within the measuring chamber to ensure the symmetrical distribution of the water across the impeller. Thus, the force imparted by the water flowing through the measuring chamber is applied across the impeller in a substantially uniform manner to provide a representative measurement of the amount of water that passed through the measuring chamber. Although such a flow meter may adequately measure the flow rate of water delivered for some applications, the flow meter was relatively expensive to manufacture. The manufacturing expense is determined, in part, by the requirement to design the housing specially to compensate for the irregularities in the water flow caused by the impeller itself, since it is positioned within the flow path of the water, and thus disturbs the water flow. Hence, to secure more accurately the water flow, the meter housing and chamber must be constructed under close tolerances to compensate precisely for the intrusion of the impeller. In addition to being relatively expensive, the known water flow meters have been relatively difficult and time consuming to install on existing water pipes. Before some conventional flow meters can be installed, an appropriate section of pipe has been removed to enable the water meter to be connected in-line with the pipe. Thus, the installation was also time consuming as well as being burdensome and awkward. The installation of the known water meter was further complicated where the meter is required to be installed in an area with little clearance around the pipe. The relatively large size of the meter prevented it from being readily placed in confined areas. Thus, conventional meters must be installed in areas which were easily accessed by an installer and the required installation tools. Therefore, it would be highly desirable to have a new and improved flow meter system, which is relatively small and compact in size. Such a flow meter system should be relatively convenient to install and relatively inexpensive to manufacture. Where the single user is a multi-family residence, commercial building, or another facility having a number of unrelated individually billed tenants, sub-metering has been employed to distinguish the amount of water delivered to each one of the tenants individually. Due to the size and expense, the use of the known water flow meters described previously have been quite limited, or totally unacceptable for sub-metering purposes. In this regard, conventional meters have been limited to uses where each water pipe served only a single tenant occupied space. As only the one tenant was receiving water through that pipe, the measurement of the water flow through that water supply pipe could be accomplished with the prior water flow meters without taking up excessive space, or incurring an extraordinary expense. However, it is a more common situation to have a number of tenant occupied units each supplied by a plurality of water supply lines, and merely one supply line per unit. In such situations, metering a group of water supply pipes for each unit requires one water meter for each water supply line for each tenant occupied unit. Thus, the cost of the meters, as well as the expense of the installation of the meters, becomes quite prohibitive for sub-metering purposes in most applications. The use of conventional water flow meters for sub- metering purposes is especially burdensome when the meters are installed on existing water pipes. In this regard, all of the water supply pipes to be measured must be cut away to permit the in-line installation of the water flow meter. Where the pipe to be monitored is disposed within a wall, such as the hot and cold water pipes supplying a shower, it is impossible, or at least highly impractical to mount a large water meter in the wall. Therefore, it would also be highly desirable to have a new and improved flow meter system which can be used to sub-meter water use in a convenient and practical manner, and which can facilitate the determination as to how each tenant is using the water supplied thereto for each water supply line for each unit, without unduly interfering with the free enjoyment of the space by the tenant. Such a flow meter system should be easily installed in an existing water piping system, and should be capable of being readily and conveniently monitored without interfering with the use and enjoyment of the residence space being monitored. Once obtained, metering information from each individual meter in a sub-metering arrangement must be collected at an easily identifiable central location to facilitate the recordation of the meter information by a utility provider representative. Otherwise, each meter must be physically located by the representative, and the meter information recorded individually. Such a routine would be inconvenient for both the tenant, whose privacy would be unnecessarily invaded, and for the utility provider representative. By hard wiring the individual meters to a central recording location with appropriate lengths of suitable wiring, the collection of metering information would be enhanced. In this regard, the metering information for each meter could be communicated to the central recording location, thereby avoiding the need for the utility provider representative to locate each meter. Although the use of wiring to couple the individual meters of the sub-metering arrangement to the central recording location would reduce the inconvenience associated with obtaining meter information from each meter, the installation of the wiring poses significant difficulties. One such difficulty involves the expense of installing wiring. For a large multi-story building with many tenants, the central recording location may be situated hundreds of feet from a meter, resulting in a substantial expense for a sufficient length of wire to extend across this distance. Furthermore, the voltage drop along the wire associated with the large distance may require the use of larger gauge wire, thereby increasing the expense even more. Another difficulty associated with the use of wire to conduct the meter information to the central recording location arises where the sub-metering arrangement is installed after the walls of the tenant space are in place. The use of wires in such a situation is awkward and time consuming. In this regard, the wires must be positioned behind the existing walls to conceal and protect them. Openings must be made in the walls to enable the wires to be passed therethrough. Once within the space behind the walls, the wires must be guided to the central recording location. Finally, the openings must be covered and concealed. Therefore, it would be highly desirable to have a new and improved meter reading data transmission system which enables meter reading data from a group of meters to be accumulated at a central location, and which system is inexpensive. Such a meter reading data transmission system should also be relatively easy to install. Disclosure of Invention Therefore, the principal object of the present invention is to provide a new and improved method and apparatus for metering building structures, wherein each unit within the building structure can be metered individually for the prorated share of utility usage in a convenient manner, without customized or special building supply line requirements. Another object of the present invention is to provide such a new and improved metering method and apparatus, which is both relatively inexpensive to install and to use thereafter. A further object of the present invention is to provide such a new and improved metering method and apparatus for both new and existing building structures, where existing structures can be readily retrofitted. Another object of the present invention is to provide such a new and improved metering method and apparatus which hides all evidence indicating that the flow meter system has been installed. A further object of the present invention is to provide a new and improved flow meter system, wherein the flow meter is relatively small in size, is relatively easy to install and is relatively inexpensive to manufacture. Another object of the present invention is to provide such a meter capable of being used to sub-meter a residence complex in a readily installed manner in an existing water piping system. Another object of the present invention is to provide a new and improved flow meter system and a method of using it, wherein the system is used to gather meter reading data from a group of meters at a central location, and is inexpensive and relatively easy to install. Briefly, the above and further objects of the present invention are realized by providing a metering method and apparatus which can enable individual units to be economically and conveniently metered for utility consumption purposes. A method and apparatus for metering building structures having a plurality of service outlets each having control valves, includes the installing of meters within a given distance from each one of the valves. A transmission system is coupled electrically to each one of the meters for sending meter readings periodically to a remotely located equipment. Thus, the novel method and apparatus of the present invention enables the metering of both new and existing building structures in a low cost and convenient manner. In this regard, by providing the low-cost meters constructed in accordance with the present invention and installing them in accordance with the inventive method, the installation cost is relatively inexpensive, even though a group of meters may be required for each individual unit of a building structure. Similarly, due to the transmission configuration, the installation cost is greatly reduced or minimized, and the reading of the meters periodically is greatly facilitated, since the meters can be read without human intervention. Brief Description of Drawings The above mentioned and other objects and features of this invention and the manner of attaining them will become apparent, and the invention itself will be best understood by reference to the following description of the embodiment of the invention in conjunction with the accompanying drawings, wherein: FIG. 1 is an elevation view of a meter arrangement, which is constructed and installed in accordance with the method and apparatus of the present invention; FIG. 2 is an elevation view of another meter arrangement, which is also constructed and installed in accordance with the method and apparatus of the present invention; FIG. 3 is an elevation view of a further meter arrangement, which is also constructed and installed in accordance with the method and apparatus of the present invention; FIG. 4 is an elevation view of another meter arrangement, which is also constructed and installed in accordance with the method and apparatus of the present invention; FIG. 5 is an elevation view of another meter arrangement, which is also constructed and installed in accordance with the method and apparatus of the present invention; FIG. 6 is an elevation view of a further meter arrangement, which is also constructed and installed in accordance with the method and apparatus of the present invention; and FIG. 7 is an elevation view of another meter arrangement, which is also constructed and installed in accordance with the method and apparatus of the present invention. FIG. 1A is a partially cut-away perspective view of a flow meter system which is installed on a utility distribution system in accordance with the present invention; FIGS. 2A-4A are cross-sectional elevational views illustrating the installation of the flow meter system onto the utility distribution system of FIG. 1A; FIG. 5A is cross-sectional elevational view of a flow meter apparatus which may be used in accordance with the method of the present invention; and FIG. 6A is a cross-sectional view of a meter assembly for the flow meter apparatus of FIG. 5A illustrating the flow direction dependency thereof. FIG. IB is a partially cut-away sectional diagrammatic side view of a flow meter system, which is constructed in accordance with the present invention; FIG. 2B is a cross-sectional rear view of the flow meter system of FIG. IB taken along line 2B-2B thereof; FIG. 3B is an exploded rear perspective view of the flow meter system of FIG. IB; FIG. 4B is a sectional diagrammatical side view of the flow meter system of FIG. IB; FIG. 5B is partially cut-away sectional diagrammatic side view of another flow meter system, which is also constructed in accordance with the present invention; FIG. 6B is a sectional diagrammatic side view another flow meter system, which is also constructed in accordance with the present invention; FIG. 7B is a sectional diagrammatic front view of yet another flow meter system, which is also constructed in accordance with the present invention; and FIG. 8B is a sectional diagrammatic side view of another flow meter system, which is also constructed in accordance with the present invention. FIG. 1C is a block diagram of a meter reading data transmission system which is constructed in accordance with the present invention; FIG. 2AC-2BC is a flow chart describing the operation of a meter reading transmitter of the meter reading data transmission system of FIG. 1C; and FIG. 3AC-3DC is a flow chart describing the operation of a node of the meter reading data transmission system of FIG. 1C. Best Mode for Carrying Out the Invention Referring now to the drawings, and more particularly to FIG. 1 thereof, there is shown a meter arrangement 10, which is constructed and installed in accordance with the present invention. The arrangement 10 is shown and described as a bathroom sink meter arrangement, and is coupled between a water supply pipe 12 behind a building structure wall 16 of a unit (not shown) of a building structure generally indicated at 17, and a fixture or outlet, such as bathroom sink faucet fixture 25 mounted on a bathroom sink basin (not shown) , to facilitate monitoring remotely the supply of water to the faucet fixture 25. The water supply pipe 12 is coupled in fluid communication with a water main (not shown) located upstream from the arrangement 10 to supply water thereto. The pipe 12 is shown in FIG. 1 rising vertically to supply water to multiple floors of the structure 17. Thus, the pipe 12 supplies water to different levels of a single dwelling or commercial building structure, or the pipe 12 could supply water to several vertically aligned dwellings such as condominiums or apartments. It will be understood by one skilled in the art that cold water supply pipes and hot water supply pipes are often located in close proximity to one another to supply cold and hot water to fixtures. The cold and hot water supply pipes are substantially similar in construction, thus only the cold water supply pipe 12 is shown in FIG. 1 to simplify the illustration and description of the present invention. To supply water to the fixture 25, a stub out pipe 14 extends perpendicularly from the water supply line pipe 12 through an opening 18 in the wall 16. The stub out pipe 14 terminates in a threaded nipple 15. An escutcheon plate 20 is disposed about the stub out pipe 14 to enclose the opening 18. The faucet fixture 25 includes a spout 27 coupled to a faucet tailpiece 29 for dispensing the water. A handle 31 controls a valve (not shown) to vary the amount of cold water supplied through the spout 27. Similarly, another handle (not shown) controls the amount of hot water supplied. A shut-off valve or angle stop 50 having a threaded female end 52 and a threaded male end 54 is coupled to the stub out pipe 14 at the nipple 15 thereof to control the amount of water drawn from the water pipe 12. The shut-off valve 50 is a conventional device and does not require modification to cooperate with the arrangement 10. A flow meter 60 having a threaded female end 62, a threaded male end 64 and a sensor portion 66 is disposed in fluid communication with the shut-off valve 50 to monitor the flow of water to the faucet fixture 25. An electrical conductor 68 coupled to a sensor (not shown) in the sensor portion 66 conducts an electrical signal counter 72 for accumulating information indicative of the amount of water passing through the meter 60. The counter 72 is connected electrically to a remote transmitter device 76 by a conductor 74 to facilitate remote monitoring. The transmitter device 76 transmits a quantity signal to a remotely located receiving device 90 indicative of the quantity of water passing through the meter 60. A computer processing unit (CPU) 94 connected electrically to the receiving device 90 by conductor 92 processes the quantity signal for the meter 60 to facilitate the remote monitoring of the water supplied to the fixture 25. A water supply tube 36 having coupling nuts 38 and 40 is disposed between the faucet tailpiece 29 and the threaded male end 64. The water supply tube 36 may be substantially rigid, however, the tube 36 is preferably flexible to enable the arrangement 10 to be adapted for use with various types of fixtures. Generally, the faucet fixture 25 is located in close proximity to the stub out pipe 14 and the shut-off valve 50. Thus, by installing the flow meter 60 near the shut- off valve 50, the flow meter 60 can be installed quickly and easily to enable the water supplied by the fixture 25 to be monitored separately from any other fixture or outlet. Preferably, the flow meter 60 is disposed about one foot from the shut-off valve 50. Installing the arrangement 10 is accomplished by securing threadably the shut-off valve 50 to the threaded nipple 15 of the stub out pipe 14. For some installations, the shut off valve 50 may already be coupled threadably to the stub out pipe 14, thereby eliminating the need to install the shut-off valve 50. The flow meter 60 is coupled threadably to the shut- off valve 50 at the male end 54 thereof. The electrical conductor 68 is connected electrically to the counter 72, and the counter 72 is in turn connected electrically to the transmitter 76. The receiver 90 is positioned within transmission distance of the transmitter 76 to receive the quantity signal. The CPU 94 is connected to the receiver 90 by the conductor 92. The CPU 94 can be located near the receiver 90, or it may be located far from the receiver 90, to provide flexibility in the arrangement 10. The installation is completed by coupling the water supply tube 36 between the male end 64 of the flow meter 60 and the faucet tailpiece 29 with the coupling nuts 40 and 38, respectively. As a result, the stub out pipe 14 is in fluid communication with the faucet fixture 25 via the shut-off valve 50, the flow meter 60 and the tube 36. It will be understood by one skilled in the art that the male and female ends may be reversed in some applications. However, the locations of these ends as described herein may be modified to accommodate the particular situation without requiring undue experimentation. In general, the inventive metering method and apparatus relates to the installing of a single meter within a given distance from each one of the shut-off valves in a building structure, such as the valve 50. The meters are then coupled electrically through a transmission system, such as the counter 72, the transmitter 76 and the receiver 90, for sending meter readings periodically, such as monthly, to a remotely located unit, such as the computer processor unit 94. In the arrangement 10 of FIG. 1, the meter is installed downstream of the valve 50 between it and the outlet 27. The meter 66 in FIG. 1 is disposed adjacent to the valve 50. In general, as hereinafter described in greater detail, the meter may be disposed downstream of the meter anywhere between the valve and the outlet. As hereinafter described in greater detail, the meter can also be installed upstream of the valve at a distance of up to one foot therefrom. When installed upstream of the valve, the meter can be installed adjacent to the valve on the upstream side thereof. Referring now to FIG. 2, there is shown another flow meter arrangement 100, which is also constructed and installed in accordance with the present invention. The flow meter arrangement 100 is substantially similar to the flow meter arrangement 10, and includes a shut-off valve 150, a flow meter 160 and a water supply tube 136 having coupling nuts 138 and 140. The arrangement 100 enables the supply of water to a toilet tank (not shown) to be monitored remotely. The shut-off valve 150 of the arrangement 100 is coupled threadably to a nipple 115 of a stub out pipe 114. The meter 160 is coupled threadably to the toilet tank and the tube 136 is interposed between the shut-off valve 150 and the flow meter 160. The installation of the flow meter arrangement 100 is accomplished in a similar manner as the installation of the flow meter arrangement 10, except that the relative positions of the tube 136 and the flow meter 160 are reversed. In this regard, the tube 136 is coupled directly to the shut-off valve 150 via a coupling nut 140. The flow meter 160 is coupled to the other end of the tube 136 by a coupling nut 138. Referring now to FIG. 3, there is shown yet another flow meter arrangement 200 which is also constructed and installed in accordance with the present invention. The arrangement 200 is substantially similar to the arrangement 10 (FIG. 1) and facilitates the coupling of a kitchen sink faucet fixture (not shown) to the water supply pipe 212. The arrangement 200 includes a shut-off valve 250 coupled threadably to a nipple 215 of a stub out pipe 214. The arrangement 200 further includes a flow meter 260 disposed at an intermediate portion of a water supply tube 236, and in fluid communication therewith. Coupling nuts 238 and 240 of the tube 236 enable the tube 236 and flow meter 260 to be coupled between the kitchen sink faucet fixture and the shut-off valve 250. As shown in FIG. 3, the flow meter 260 is integrally connected to the tube 236. However, it will be understood by one skilled in the art that the tube 236 could comprise two separate portions, wherein the flow meter 260 is disposed therebetween. When installing the previously described meter arrangements 10, 100 and 200 of FIGS. 1-3, the flow of water to the respective fixture can be terminated by the shut-off valves 50, 150 and 250, respectively. As a result, the coupling of the flow meters 60, 160 and 260 with the tubes 36, 136 and 336 can be accomplished without closing the main valve (not shown) for the water supply pipes, such as pipe 12 (FIG. 1) . However, other installations are also possible, and are also contemplated, wherein the main valve is closed to enable installation of the meter arrangements. Referring now to FIG. 4, there is shown a flow meter arrangement 300 which is also constructed and installed in accordance with the present invention for monitoring the amount of water supplied to a dishwasher (not shown) , and which requires a main valve (not shown) to be closed prior to installation. The arrangement 300 is similar to the arrangement 10 of FIG. 1, and includes a stub out pipe 314 having a nipple 315 and a water supply tube 336 having coupling nuts 338 and 340. Unlike the arrangement 10 (FIG. 1) , the arrangement 300 includes a flow meter/shut-off valve combination device 370 for controlling the water supplied and for monitoring the amount of supplied water. The combination device 370 is disposed between the tube 336 and the stub out pipe 314, and enables the flow of water supplied to the dishwasher to be controlled and monitored. The arrangement 300 is installed by initially closing the main valve. Where an existing shut-off valve (not shown) is coupled to the stub out pipe 314, the existing shut-off valve must be removed prior to installing the flow meter/shut-off valve combination device 370. Subsequently, the tube 336 is coupled between the dishwasher and the device 370. Referring now to FIG. 5, there is shown another flow meter arrangement 400 which is also constructed and installed in accordance with the present invention for monitoring the supply of water to a clothes washing machine (not shown) . The arrangement 400 is substantially similar to the arrangement 10 (FIG. 1) , except that the relative positions of a shut-off valve 450 and a flow meter 460 are reversed relative to the positions of the shut-off valve 50 and flow meter 60 of the arrangement 10. As a result, the flow meter 460 is coupled to a nipple 415 of a stub out pipe 414, thereby disposing the flow meter 460 between the stub out pipe 414 and the shut-off valve 450. Prior to coupling the flow meter 460 to the stub out pipe 414, a main valve (not shown) must be closed to stop the flow of water out of the stub out pipe 414. The flow meter 460 can then be coupled threadably to the nipple 415. The shut-off valve 450 is disposed between the flow meter 460 and a water supply tube 436 having coupling nuts 438 and 440. The nuts 438 and 440 are secured to the washing machine and the valve 450, respectively, to complete the connections between the stub out pipe 414 and the dishwasher. The main valve may then be opened to supply water to the fixture. Referring now to FIG. 6, there is shown yet another flow meter arrangement 500 which is also constructed and installed in accordance with the present invention. The arrangement 500 includes a stub out pipe 514 having a nipple 515, a shut-off valve 550 and a water supply tube 536 having coupling nuts 538 and 540. The arrangement 500 also includes a flow meter 560 disposed substantially behind the wall 516 rather than in front of it for monitoring the supply of water. Therefore, the flow meter 560 may be installed prior to the installation of the wall 516. Alternatively, adequate access openings may be made through the wall 516 to enable the flow meter 560 to be disposed behind the wall 516 after the wall 516 is installed. Referring now to FIG. 7, there is shown yet another flow meter arrangement 600, which is also constructed and installed in accordance with the present invention. The arrangement 600 includes a pair of flow meters 670 and 680 disposed in fluid communication with a water supply pipe 612 having a stub out pipe 614 extending away therefrom. The stub out pipe 614 extends through a wall 616, and is coupled to a water outlet (not shown) by a shut-off valve 650 and a water supply tube 636. The meters 670 and 680 are disposed on the upstream side and downstream side, respectively, of the intersection of the stub out pipe 614 with the pipe 612. As shown in FIG. 7, the pipe 612 supplies water to at least two fixtures, one above the other, on at least two different floors of a structure (not shown) . Thus, the meter 670 and 680 enables the monitoring of water supplied to all downstream fixtures. In this regard, meter 670 monitors the supply of water to a fixture A (not shown) coupled to the tube 636 and also to a downstream fixture B (not shown) . Meter 680 monitors the supply of water to fixture B only. The difference between the water supplied to both fixtures A and B, and to fixture B only, describes the water supplied to fixture A. A transmitter 674 is coupled electrically to the meter 670 by conductor 672 to transmit a signal 676 indicative of the water supplied to fixtures A and B. A transmitter 684 is coupled electrically to the meter 680 by conductor 682 to transmit another signal 686 indicative of the water supplied to fixture B. A remotely located receiver 690 receives the signals 676 and 686, and transmits the signals 676 and 686 to a computer processing unit (CPU) 694 via a conductor 692. The CPU 694 processes the signals to determine the amount of water supplied to fixtures A and B individually based on signals 676 and 686. It will be understood by one skilled in the art that although the foregoing arrangements 10, 100, 200, 300, 400, 500 and 600 (FIGS. 1-7) are described in connection with a particular fixture or outlet, such as a kitchen sink faucet fixture 25 (FIG. 1) , each of the arrangements 10, 100, 200, 300, 400, 500 and 600 may be used in connection with other outlets and still provide remote monitoring capabilities as contemplated in the present invention. Referring now to the drawings, and more particularly to FIG. 1A thereof, there is shown a flow meter system 10A, which may be installed on a water supply system 20A in accordance with the present invention. As illustrated in FIG. 1, the water supply system 20A is disposed substantially in a space behind a wall 14A of a shower/bathtub enclosure 12A having a bathtub 16A and a tile surface 18A, or other surface such as fiberglass (not shown) , extending upwardly from the bathtub 16A along the wall 14A. Although the water supply system 20A is illustrated in connection with the shower/bathtub enclosure 12A, it will be understood by one skilled in the art that the flow meter system 10A could also be installed on other water supply systems. Furthermore, the flow meter system 10A may also be adapted for installation on other utility resource distribution systems, such as a natural gas supply system. To facilitate the supply of water to the shower/bathtub enclosure, the water supply system 20A includes an elbow 21A coupled to a shower pipe 22A and a faucet conduit 24A as shown in FIGS. 1A-4A. The conduit 24A is coupled to the shower pipe 22A disposed in the space behind the wall 14A, and extends outwardly from the space and through the wall 14A into the shower/bathtub enclosure 12A to receive a faucet fixture or tub spout 54A thereon. The elbow 21A is adapted to receive a shower head fixture 43A therein. As shown in FIGS. 2A-4A, the elbow 21A is positioned adjacent to an opening 23A to receive the showerhead fixture 43A. The conduit 24A extends outwardly from the space, through the wall 14A and outwardly through the bathtub 16A via an opening 25A to receive the fixture 54A. To facilitate the monitoring of the water supplied by the water supply system 20A, the flow meter system 10A includes a shower meter assembly 40A having an electrical conductor 42A connected thereto, and a faucet meter assembly 50A having an electrical conductor 52A connected thereto. The electrical conductors 42A and 52A each contain wire conductors to provide an electrical circuit to the meter assemblies 0A and 50A, and to transmit an electrical information signal indicative of the flow of water and generated by the meter assemblies 40A and 50A for remote monitoring purposes. A transmitter apparatus 104A having a pair of electrical conductors 108A and 110A and an antenna 106A is adapted to be coupled to the meter assemblies 40A and 50A for receiving the electrical information signal, for supplying electrical energy to the meter assemblies 40A and 50A, and for relaying the signals to a remote location (not shown) . It will be understood by one skilled in the art that two or more of such transmitters may be hard wired together to facilitate the transmission of flow information signals generated by the meter assemblies 40A and 50A. As shown in FIGS. 2A-4A, the water supply system 20A may require slight modification to receive the flow meter system 10A. In particular, the length of conduit 24A may require adjustment to receive the flow meter assembly 50A, in a concealed manner. Such an adjustment of the conduit length may be required when the water supply system 20A is adapted for receiving standard fixtures. However, it will be understood by one skilled in the art that the existing conduit 24A may be adapted to receive the flow meter system 10A, and thus, the conduit 24A would not require adjustment. Considering now the installation of the flow meter system 10A, the conduit 24A is adjusted to receive the fixture 54A, and to conceal the flow meter system 10A. The adjustment of the conduit 24A may be accomplished with a saw or other similar cutting device suitable for the purpose. The amount of conduit which must be removed to receive the meter assembly 50A is dependent upon the axial length of the meter assembly 50A, as well as the fixture to be attached thereto, such as the faucet fixture 54A. As shown in FIG. 2A, the length of conduit 24A is adapted to receive a standard faucet fixture (not shown) , wherein the standard faucet fixture engages the bathtub 16A to conceal the opening 25A. As will be described hereinafter in greater detail, the inventive faucet fixture 54A is especially adapted for use in installation of the flow meter system 10A. However, the faucet fixture 54A does not require conduit 24A to extend outwardly as far as a standard faucet fixture requires the conduit 24A to extend. Thus, a length D of conduit 24A must be removed to enable the faucet fixture 54A to conceal the meter assembly 50A. An opening 15A in the wall 14A above the tile 18A is made using a saw or other appropriate instrument. The opening 15A is adapted to receive a housing 100A having an associated cover plate 102A, wherein the housing 100A and the cover plate 102A enable the transmitter 104A to be concealed within the housing 100A when installed. In some applications (not shown) , the tile 18A may extend upwardly to cover all of wall 14A. In such situations, it may be desirable to create an opening (not shown) in another wall (not shown) that is not covered by tile to avoid possibly damaging the tile 18A, wherein the other opening would be created instead of opening 15A. Upon adjusting the length of the conduit 24A, a nipple or coupling device 29A is affixed to the conduit 24A to facilitate the coupling of the meter assembly 50A thereto. The coupling device 29A may be secured to the conduit 24A in a water tight manner by any acceptable method known in the art. Depending upon the meter assembly construction, the coupling device 29A may have either a male or female threaded portion to engage the respective fixture. For example, as shown in FIG. 3A, coupler device 29A has a male threaded portion for cooperating with meter assembly 50A. Using a wire pulling device 30A, such as fish tape or other similar device, including an extendable member 32A having a distal end 34A, the distal end 34A is extended inwardly through the opening 15A and into the space behind the wall 14A. To facilitate the installation of meter assembly 40A, the distal end 34A is further extended outwardly through the opening 23A to engage the electrical conductor 42A. As illustrated in FIGS. 3A-4A, the meter assembly 40A is then coupled threadably to the elbow 21A to connect the meter assembly 40A in fluid communication with the pipe 22A. The elbow 21A and the pipe 22A are not shown in FIG. 3A. In this regard, the meter assembly 40A is manually brought into engagement with the elbow 21A and subsequently rotated to threadably engage the meter assembly 40A. A water tight sealing compound or tape may be disposed between the elbow 21A and the meter assembly 40A. When secured, the meter assembly 40A is positioned substantially within the opening 23A. Furthermore, the meter assembly 40A is positioned remotely from the transmitter 104A. Once the meter assembly 40A is secured to the elbow 21A, the electrical conductor 42A is engaged by the distal end 34A, and brought into the space behind the wall 14A via the opening 23A where it will be concealed (FIG. 4A) . Similarly, the extendable member 32A may be extended through the opening 15A, into the space behind the wall 14A, and extended through the opening 25A to engage the electrical conductor 52A. To couple the meter assembly 50A to the coupling device 29A, the meter assembly 50A is rotated to threadably engage the coupling device 29A to secure the meter assembly 50A to the conduit 24A. The water tight sealing compound or tape may also be used between the meter assembly 50A and the coupling device 29A. Subsequently, the electrical conductor 52A may be engaged by the distal end 34A and drawn through the opening 25A and into the opening behind the wall 14A to conceal the electrical conductor 52A (FIG. 4A) . The electrical conductors 42A and 52A may be left free to spin around with the meter assemblies 40A and 50A, respectively, as they are threadably engaged with the elbow 21A and the coupling device 29A, respectively. In this way, the electrical conductors 42A and 52A do not become twisted about the respective conduits 22A and 24A. Alternatively, the electrical conductors 42A and 52A may be wrapped initially around the respective meter assemblies 40A and 50A. For example, the meter assemblies 40A and 50A are rotated clockwise to threadably engage the elbow 21A and the coupling device 29A. By initially wrapping the electrical connectors 42A and 52A about the respective meter assemblies 40A and 50A also in a clockwise manner, the electrical conductors 42A and 52A can be unwrapped from the respective meter assemblies 40A and 50A as the meter assemblies 40A and 50A are rotated in a clockwise direction. In this way, the meter assemblies 40A and 50A are coupled to the elbow 21A and the coupling device 29A without the electrical conductors 42A and 52A becoming entangled. The shower head fixture 43A is threadably engaged with the meter assembly 40A, and in fluid communication therewith, to facilitate the distribution of water therefrom. The escutcheon plate 46A is then positioned to substantially conceal the meter assembly 40A and the opening 23A. Similarly, the meter assembly 50A is received within the faucet fixture 54A, and coupled therewith, to facilitate the distribution of water therefrom, whereby the faucet fixture 54A conceals the meter assembly 50A and the opening 25A. Preferably, the electrical conductors 42A and 52A are long enough to be drawn out of the opening 15A to facilitate their connection to the conductors 108A and 110A. The connection of the electrical conductors 42A and 52A to the conductors 108A and 110A may be accomplished with standard connection devices. However, the use of a tamper proof connecting technique, such as soldering, or other comparable procedure, is preferred to prevent the connection from being tampered with. The connected conductors 42A, 52A, 108A and 110A are inserted through the opening 15A and concealed within the space behind the wall 14A. The housing 100A containing the transmitter 104A is then inserted into the opening 15A, and secured within the opening 15A. The cover plate 102A is secured to the housing 100A to conceal the transmitter 104A, the housing 100A and the opening 15A. Considering now the faucet fixture 54A with reference to FIG. 5A, the faucet fixture 54A is adapted to be quickly and easily installed onto a water supply system, such as the water supply system 20A. The faucet fixture 54A includes a housing 55A defines a hollow interior through which the supplied water flows. A threaded internal female coupler 56A disposed within the hollow interior facilitates the coupling of the fixture 54A to the conduit 24A. Coupled threadably to the internal coupler 56A, and in fluid communication therewith, are spacer members 60A and 62A. The meter assembly 50A is adapted to be threadably coupled to the spacer member 62A within the hollow interior. The spacer members 60A and 62A enable the meter assembly 50A to be secured within the hollow interior at an expanded portion of the housing 55A. The expanded portion of the housing 55A is sufficiently large enough to receive the meter assembly 50A completely therein. In this way, the meter assembly 50A and the spacer members 60A and 62A may be coupled to the faucet fixture 54A, and concealed therein, for defining a unitary component. As described previously, the conduit 24A requires modification to receive the faucet fixture 54A. In this regard, the conduit 24A is generally sized to be coupled to an internal coupler, such as internal coupler 56A. Thus, to accommodate the spacer members 60A and 62A, as well as the meter assembly 50A, the length D corresponding to the coupled length of the meter assembly 50A, the spacer 62A and the spacer member 60A must be removed. Considering now the meter assemblies 40A and 50A in greater detail, only meter assembly 50A will be described hereinafter in greater detail. Meter assembly 40A is substantially similar to the meter assembly 50A. However, as shown in FIGS. 3A and 4A, the meter assembly 40A is adapted to be coupled to the water supply system 20A by the female end of elbow 21A while the meter assembly 50A is adapted to be coupled to the water supply system 20A by male coupler 29A. As shown in FIG. 6A, the meter assembly 50A includes an elongated housing 70A defining a bore therethrough to facilitate the flow of water, and having a threaded female end 72A, a central body portion 74A and a threaded male end 76A. The threaded female end (not shown) and the threaded male end (not shown) of the meter assembly 40A are disposed in a reverse manner from the corresponding ends 72A and 76A of the assembly 50A to facilitate the coupling of the meter assembly 40A to the elbow 21A. A sensor housing 80A is coupled to the housing 70A and is in communication with the interior of the housing 70A via an opening 75A. The sensor housing 80A includes a top member 82A and encloses a switch 84A therein. The switch 84A cooperates with a paddle wheel 90A disposed partially in the bore for generating an information signal indicative of the flow of water through the housing 70A, and which signal is conducted by the conductor 52A. In this regard, a magnet (not shown) in the paddle wheel 90A cooperates with the switch 84A to generate electrical pulses defining the information signal and indicative of the water flow rate. A pair of support walls, including support wall 86A, extend from the housing 80A down into the housing bore via the opening 75A to enable the paddle wheel 90A coupled rotatably between the support walls to rotate about an axle 92A as water flows through the bore of the housing 70A. Generally, water flows from the water supply system 20A through the meter assembly 50A and out of the faucet fixture 54A, as indicated by the rightwardly directed arrow (FIG. 6A) . However, on occasion, the flow of water may be reversed, as indicated by the leftwardly directed arrow (FIG. 6A) . For example, low pressure in another portion of the water supply system 20A could cause water retained in the faucet fixture 54A to flow back into the conduit 24A. To limit the activation of the switch 84A when water flows back into the system 20A, each of the support walls, such as support wall 86A, includes an offset elongated opening 88A to slidably receive the axle 92A therein. The opening 88A enables the axle 92A and the paddle wheel 90A to be substantially centered within the opening 75A when the water flows in the rightward direction, and to enable the axle 82A and the paddle wheel 90A to be urged leftwardly when the water flows leftwardly. The centered paddle wheel 90A is shown in solid lines in FIG. 6A as a result of rightward water flow. The offset paddle wheel 90A is shown in dashed lines in FIG. 6A as a result of leftward water flow. The flow of water in the leftward direction simultaneously rotates the paddle wheel 90A in a clockwise direction about the axle 92A, and also urges the axle 92A leftwardly within the slot 88A. As a result, the rotating paddle 90A engages the housing 70A as shown in dashed lines in FIG. 6A, and the paddle 90A is prevented from rotating further. Thus, the paddle 90A cannot cooperate with the switch 84A to produce the electrical pulses. Water flowing in the rightward direction urges the axle 92A and paddle 90A to the right until the paddle 90A is centered within the opening 75A. In this position, the paddle 90A is free to rotate, and cooperate with the switch 84A, to generate the electrical pulses as water flows out of the faucet 54A. Referring now to the drawings, and more particularly to FIG. IB thereof, there is shown a flow meter system 10B, which is constructed in accordance with the present invention. The flow meter system 10B can be used to measure the quantity of a substance moving through a conduit or pipe 12B in accordance with the method of the present invention. Preferably, the flow meter system 10B is used to measure the quantity of water moving through the pipe 12B. The flow meter system 10B generally comprises a flow monitor 2OB secured to the pipe 12B in a fluid tight manner. An opening 14B in the pipe 12B enables the flow monitor 20B to contact the water within the pipe 12B. As the water flows through the pipe 12B, the flow monitor 20B generates an electrical signal indicative of the quantity of water which has moved through the pipe 12B at about the opening 14B therein. A wireless transmitter device 22B is connected to the flow monitor 20B by conductor 24B to receive the electrical signal generated by the flow monitor 20B. The wireless transmitter device 22B enables the electrical signal to be transmitted as information indicative of the cumulative quantity of water moving through the pipe 12B to a remote location without the use of conductors. The wireless transmitter device 22B may be positioned as desired relative to the flow monitor 2OB. The only limitation to the positioning of the wireless transmitter device 22B being the length of the conductor 24B. For example, where the pipe 12B is located behind a wall, the flow monitor 20B will similarly be located behind the wall. To facilitate the transmission of the information from the wireless transmitter device 22B, the wireless transmitter device 22B may be positioned in front of the wall in the vicinity of the flow monitor 20B. The flow meter system 10 further includes a receiver device 26B having an antenna 28B for receiving the information transmitted from the wireless transmitter device 22B. The receiver device 26B may be positioned as desired, and preferably will be located in an easily accessible location to aid in the monitoring of the water flow. Such a receiver device is well known to those skilled in the art and will not be described hereinafter in greater detail. In use, the desired location on the pipe 12B is determined for locating the flow monitor 2OB. An opening, such as opening 14B, is produced in the pipe 12B at the desired location. Conventional tools, such as a drill, may be used to drill out the circular opening 14B. The flow monitor 2OB is secured to the pipe 12B at about the opening 14B, wherein the opening 14B is enclosed by the flow monitor 2OB in a fluid tight manner. The flow monitor 20B generates an electrical signal indicative of the quantity of water flowing through the pipe 12B. The wireless transmitter device 22B receives the electrical signal from the flow monitor 2OB, and subsequently transmits information indicative of the cumulative quantity of water that has moved past the flow monitor 2OB. The receiver device 26B receives the information transmitted by the wireless transmitter device 22B thereby permitting the quantity of water flowing through the pipe 12B to be monitored from a remote location. Considering now the construction of the flow monitor 20B in greater detail with reference to FIGS. 1B-3B, the flow monitor 2OB includes a yoke 3IB to engage the pipe 12B in a water tight manner. The yoke 3IB includes an elongated rectangular yoke member 35B having a curved bottom surface 45B for engaging transversely the pipe at about the opening 14B, wherein the curved bottom surface 45B is adapted to receive the outer surface of the pipe 12B. A watertight gasket, such as sealing ring 82B whose diameter is slightly larger than the diameter of opening 14B, is disposed between the pipe 12B and the curved bottom surface 45B surrounding the opening 14B to facilitate the watertight coupling of the flow monitor 2OB to the pipe 12B. Another elongated rectangular yoke member 5IB having a curved top surface 55B engages transversely the pipe 12B opposite the opening 14B and cooperates with the yoke member 35B to secure the yoke 3IB on the pipe 12B. Curved top surface 55B is adapted to receive the outer surface of the pipe 12B, wherein surfaces 45B and 55B engage frictionally the pipe 12B to prevent the movement of the flow monitor 2OB relative to the pipe 12B. Yoke members 35B and 5IB are preferably constructed from engineering thermoplastic material in compliance with industry accepted standards. Alternatively, the yoke members 35B and 5IB may be constructed from metal materials in compliance with industry standards, such as brass. As will be understood by those skilled in the art, the labels of up, down, top and bottom in connection with the flow meter system 10B are relative only. In this regard, the opening 14B may be located at any position on the pipe 12B, and the orientation of the flow monitor 20B adjusted accordingly. Thus, the opening 14B could be located on the bottom of the pipe 12B. The watertight connection of the flow monitor to the pipe 12B prevents water leakage, even when water is not flowing but resting within the pipe 12B. A cover 60B having a pair of oppositely disposed holes 62B and 64B therein is sized to match substantially a top surface 37B of the yoke member 35B, wherein a recess opening 39B through the top surface 37B and into the yoke member 35B is enclosed by the cover 6OB. The cover 60B is preferably constructed from a suitable metal according to industry standards, however, other acceptable materials may also be used. A pair of bolts 66B and 68B having shaft portions 70B and 72B, and head portions 74B and 76B, respectively, pass through the openings 62B and 64B, as well as openings 47B and 49B in the yoke member 35B, to permit the shaft portions 70B and 72B to engage threaded retaining members 78B and 8OB within openings 57B and 59B in the yoke member 5IB. The head portions 74B and 76B have a larger diameter than the openings 62B and 64B to engage the cover 60B for permitting the yoke 3IB to be tightened to secure it to the pipe 12B. The bolts 66B and 68B may be rotated in one direction to cause the cover 60B and the yoke member 35B to be pressed inwardly on one side of the pipe 12B, while simultaneously causing the other yoke member 51B to be urged inwardly towards the pipe on the side opposite from the opening 14B. The flow monitor 2OB further includes a flow measuring device 33B disposed within the recessed opening 39B, and which extends downwardly through a pathway 46B and the opening 14B to engage the water within the pipe 12B. The flow measuring device 33B includes a rectangular housing 91B which is sized and dimensioned to be received within the recessed opening 39B. A sealing material 92B disposed between the housing 91B and the yoke member 35B provides a watertight seal therebetween. A pair of spaced apart walls 99B and 101B extend downwardly from the housing 9IB through the pathway 46B to define a watertight compartment above the opening 14B. A paddle wheel 103B having a central hub 104B and blades, such as blade 105B, extending radially therefrom is coupled rotatably between the walls 99B and 101B within the watertight compartment. In this regard, an axle 107B is received within the hub 104B and is supported by the walls 99B and 101B on either side of the paddle 103B. As best seen in FIGS. IB and 2B, the paddle wheel 103B extends through the opening 14B and into the interior of the pipe 12B in a slightly intrusive manner to contact outermost layers of the water flowing therein, wherein the water flow is minimally disrupted. To permit the blades, such as blade 105B, to extend fully into the pipe 12B, the hub 104B is positioned at about the opening 14B. Disposed within the blade 105B is a magnet 109B for helping to generate the electrical signal indicative of the quantity of water moving through the pipe 12B, as will be discussed hereinafter in greater detail. Although in the preferred embodiment only one blade, blade 105B, of the paddle wheel 103B contains a magnet therein, the use of more than one magnet in a plurality of blades will produce a satisfactory indication of the water quantity flowing within the pipe 12B. As best seen in FIG. 4B, the radial length X of the blades is a factor in the selection of the appropriate diameter of the opening 14B relative to the pipe diameter Y of the pipe 12B. For example, typical water supply pipes for residential use generally have pipe diameters in a range between about 1/2 inch and about 2 inches. Where the opening diameter 2X is 3/8 inch for both 1/2 inch pipes and 2 inch pipes, the ratios of the maximum hole diameter to pipe diameter is 3/4 and 3/16, respectively. Thus, the minimum hole diameter may be expressed as 3/16 x 1/2 inch = 3/32 inch and the maximum hole diameter may be expressed as 3/4 x 2 inches = 4/3 inches. Using the calculated minimum and maximum hole diameters 3/32 inch and 4/3 inches, the minimum and maximum penetration ratios X ÷ Y can be determined as follows: minimum penetration ratio = (3/δ +2) /2 inches = 3 /32inch - maximum penetra tion ra tio = (3/8 +2)/— inch - — inch = X+ ϊ 2 8 As shown in FIG. 4B, 2X is about equal to the diameter of the cross hole 14B, where X is the radial length of the blades. Also, the penetration ratio can be expressed in the range of a minimum and a maximum. In this regard, the minimum such ratio is equal to X ÷ Y = y — for 2 inch pipes, and the maximum ratio is X ÷ for inch pipes. Therefore, the radial length X of the blades can be determined from the penetration ratios set forth above, given the pipe diameter Y. A magnetically activated reed relay switch 97B is disposed within the housing 9IB adjacent to the paddle wheel 103B to generate the electrical signal indicative of the quantity of water flowing through the pipe 12B. In this regard, as the water flows through the pipe 12B, it rotates the paddle wheel 103B about the axle 107B. The blade 105B is thus periodically positioned adjacent to the switch 97B to cause it to generate an electrical pulse. As the blade 105B rotates away from the switch 97B, the switch 97B is no longer activated and the electrical pulse is terminated. The continued flow of water generates a train of pulses in this manner, wherein the number of pulses is proportioned to the quantity of water flowing within the pipe 12B. The electrical pulses are conducted by conductor 24B to the wireless transmitter device 22B, wherein the conductor 24B exits the yoke 3IB through a notch 4IB in the yoke member 35B. Considering now the construction of the wireless transmitter device 22B in greater detail with reference to FIG. IB, the wireless transmitter device 22B includes a counter 12OB connected to the conductor 24B by wires 128B and 130B. The counter 120 receives the electrical pulses generated by the switch 97B for generating another electrical signal representative of the number of electrical pulses received from the switch 97B to facilitate the measurement of the cumulative water quantity flowing through the pipe 12B. A transmitter 122B having an antenna 124B is connected to the counter 120B by a conductor 132B to facilitate the wireless transmission of information indicative of the cumulative water quantity to a remote location. The transmitter 122B may utilize radio frequency transmission, infrared transmission, or other methods known to those skilled in the art. To facilitate the sustained operation of the wireless transmitter device 22B, the device 22B further includes a photo voltaic battery cell 126B coupled to the counter 120B and the transmitter 122B by conductors 134B and 136B, respectively. The use of the photo voltaic battery cell 126B reduces the maintenance required for continued operation of the flow meter system 10B as the cell 126B can be maintained in a charged state sufficient to operate the flow meter system 10B by being exposed periodically to ambient light. Referring now to the drawings, and more particularly to FIG. 5B thereof, there is shown another flow meter system 200B, which is also constructed in accordance with the present invention. The flow meter system 200B is substantially similar to the flow meter system 10B, and is particularly suited for use in situations wherein a water supply pipe 206B extends from a wall 204B to connect with a water shutoff valve 214B. For example, pipe 206B may provide the water supply for a toilet (not shown) . In this regard, the pipe 206B is generally connected to a pipe 210B of shutoff valve 214B with a threaded coupler 212B. The shutoff valve 214B controls the flow of water from the pipe 206B through the valve and into the toilet through a pipe 216B. However, the length of the pipe 206B and pipe 210B are generally not sufficient to permit a meter to be secured thereto. To adapt to this situation, the flow meter system 200 includes a pipe 218B which is sized to substantially match the diameters of the pipes 206B and 210B. The pipe 218B includes a threaded coupler 208B at one end thereof to facilitate the installation of the flow meter system 200B between the pipes 206B and 210B. The flow meter system 20OB further includes a flow monitor 220B secured to the pipe 218B for generating an electrical signal indicative of the quantity of water flowing within the pipe 218B. A wireless transmitter device 222B is coupled to the flow monitor 220B by conductor 223B. As wireless transmitter device 222B is substantially similar to the wireless transmitter device 22B of FIG. IB, it will not be discussed hereinafter in greater detail. The wireless transmitter device 222B transmits information to a remotely located receiver device (not shown) for enabling the quantity of water flowing in pipe 218B to be monitored remotely. Considering now the flow monitor 22OB in greater detail, the flow monitor 220B includes a flow measuring device 230B disposed within a cylindrical housing 224B surrounding the pipe 218B. The flow measuring device 23OB includes a paddle wheel 232B which is substantially similar to the paddle wheel 103B, and which extends into an opening 219B of the pipe 218B to contact the water flowing therein. A magnetically activated reed relay switch 234B is disposed adjacent to the paddle wheel 232B to generate the electrical signal indicative of the water flow. Referring now to FIG. 6B, there is shown another flow meter system 300B which is also constructed in accordance with the present invention. The flow meter system 300B includes a flow monitor 320B for generating an electrical signal indicative of the quantity of water flowing within a pipe 302B, wherein the water is flowing left to right as indicated by the arrow 304B. A wireless transmitter device 322B, which is substantially similar to the wireless transmitter device 22B (FIG. IB) , is connected to the flow monitor 320B by conductor 324B to receive and transmit the electrical signal to a remotely located receiver device (not shown) . The flow monitor 32OB includes a flow measuring device 333B disposed within a yoke 33IB, and includes an elongated strip member extending through an opening 303B in the pipe 302B to contact the water therein. The strip 335B is pivotally connected at its upper end at a pivot hinge 337B, and includes an arm 339B extending from the strip 335B, wherein the water flowing within the pipe 302B causes the strip 335B to pivot about the hinge 337B and move the arm 339B. A block 34IB connected to the arm 339B engages a block 343B to impress a force thereon which is proportional to the quantity of water flowing through the pipe 302B. A strain gauge 345B secured to the block 343B generates the electrical signal indicative of the water quantity in response to the strip 335B imparting the force onto the block 343B. Referring now to FIG. 7B, there is shown another water flow meter system 400B, which is also constructed in accordance with the present invention. The flow meter system 400B is substantially similar to the flow meter system 300B, and includes a flow monitor 420B secured to a pipe 402B for generating an electrical signal indicative of the quantity of water flowing within the pipe 402B. A wireless transmitter device 422B is coupled to the flow monitor 420B by a conductor 424B, and is substantially similar to the wireless transmitter device 22B (FIG. IB) . The flow monitor 420B includes a flexible elongated metal strip 433B secured at one end and extending into a pipe 402B through an opening (not shown) to contact the water flowing within the pipe 402B. Secured to the strip 433B is a strain gauge 435B to generate the electrical signal proportional to the quantity of water flowing within the pipe 402B. In this regard, the strip 433B is deflected or bent when contacted by water flowing within the pipe 402B. Referring now to FIG. 8B, there is shown another flow meter system 500B, which is also constructed in accordance with the present invention. The flow meter system 500B is substantially similar to the flow meter systems 10B, 200B, 300B and 400B, described previously, and includes a flow monitor 52OB connected to a wireless transmitter device 522B by a conductor 524B. In this regard, the flow monitor 52OB generates an electrical signal indicative of the quantity of water flowing within the pipe 502B. The electrical signal is transmitted by the conductor 524B to the wireless transmitter device 522B for transmission to a remote location. Considering now the flow monitor 520 in greater detail, the flow monitor 520B includes a pitot tube 535B extending through an opening 504B into the pipe to contact the water therein. A pressure sensor device 537B is coupled to the pitot tube 535B to generate the electrical signal wherein the electrical signal is indicative of the quantity of water flowing within the pipe 502B. Referring now to the drawings, and more particularly to FIG. 1C thereof, there is shown a meter reading data transmission system IOC, which is constructed in accordance with the present invention. The system IOC enables a group of meters, such as meters 5C and 7C, to be monitored remotely in accordance with the method of the present invention. Although the present invention is described herein in connection with relates to the metering of water through pipes, such as pipes 2C and 4C, it will be understood by one skilled in the art that the system IOC could also be used to monitor other utility resources such as gas, electricity and the like. The system IOC generally comprises a meter reading transmitter/node unit 40C coupled to one or more meters, such as meters 5C and 7C, for the wireless transmission of meter reading messages indicative of the measurements made by each of the meters 5C and 7C. At least one intermediate meter reading transmitter/node unit, such as unit 46C, is spaced apart from the unit 40C, but within transmitting distance thereof, to receive and retransmit wirelessly the meter reading messages. A remotely located data collection station or unit (DCU) 20C receives the retransmitted meter reading messages to enable the meters 5C and 7C to be monitored at a single remote location. A terminal 12C enables a user to interact with the DCU 20C for selecting, arranging and presenting meter reading messages in a desired manner. A remote host computer (HC) 14C is coupled to the DCU 20C by a telephone line 16C to facilitate the monitoring and polling of the DCU 20C from another remote location. In operation, unit 40C periodically transmits meter reading messages pertaining to meters 5C and 7C. One or more intermediate units, such as unit 46C, receives the meter reading messages transmitted wirelessly by unit 40C, and periodically retransmits wirelessly the received meter reading messages. Thus, intermediate unit 46C relays the meter reading messages between the unit 40C and a remote location. The retransmitted meter reading messages are received by the DCU 20C at the remote location, whereby the meters 5C and 7C are monitored from the remote location. As shown and described herein, the system IOC is representative of a sub-metering system. However, it will be understood by one skilled in the art that the system IOC may also be utilized for metering purposes. In this regard, the system IOC may be used to monitor the supply of a utility resource to a commercial building, residence, or other structure wherein the utility resource is metered only at a single service connection point. For example, the unit 40C may be coupled to the service connection of one residence and unit 46C may be coupled to the service connection of an adjacent residence. Other residences may also be provided with similar intermediate units, wherein the meter reading messages transmitted by unit 40C are received by the unit 46 and retransmitted thereby. The reception and retransmission of the meter reading messages would be repeated by other intermediate units to enable the meter reader messages to be eventually received by the DCU 20C. One or more MRTs, such as MRTs 150C and 160C, cooperate with a single node, such as node 70C, to define meter reading transmitter/node unit 40C. In this regard, node 70C is within the receiving range of MRTs 150C and 160C. MRTs 150C and 160C may also be within range of another node, such as node 60C, and would define another unit (not shown) which would operate independently of unit 40C to periodically transmit wirelessly the meter reading messages from MRTs 150C and 160C. Considering now the system IOC in greater detail with reference to FIG. 1C, the system IOC further includes a group of meter reading transmitters (MRTs) 80C, 90C, 100C, HOC, 120C, 130C, 140C, 150C and 160C. Each one of the MRTs 80C, 90C, 100C, HOC, 120C, 130C, 140C, 150C and 160C is coupled directly to at least one meter to generate a meter reading message indicative of metering information for each one of the meters coupled thereto. One ore more MRTs, such as MRTs 150C and 160C, cooperate with a single node, such as node 70C, to define meter reading transmitter/node unit 40C. In this regard, node 70C is within the receiving range of MRTs 150C and 160C. MRTs 150C and 160C may also be within range of another node, such as node 60C, and would define another unit (not shown) which would operate independently of unit 40C to periodically transmit wirelessly the meter reading messages from MRTs 150C and 160C. As each one of the MRTs 80C, 90C, 100C, HOC, 120C, 130C, 140C, 150C and 160C is relatively low powered, the system IOC further includes a group of spaced apart nodes, including nodes 30C, 42C, 50C, 60C and 70C, for relaying the meter reading messages transmitted by the MRTs 80C, 90C, 100C, HOC, 120C, 130C, 140C, 150C and 160C to the DCU 20C. In this regard, the MRTs cooperate with the nodes to define meter reading transmitter/node units, such as meter reading transmitter node unit 40C and intermediate meter reading transmitter/node unit 46C. Intermediate meter reading transmitter/node units, such as unit 46C including node 42C spaced apart from node 70C but within receiving range thereof receive the meter reading messages from distant units, such as unit 40C, and retransmit the meter reading messages received therefrom. Node 42C of intermediate unit 46C may cooperate with one or more MRTs, such as MRTs 80C, 90C, HOC and 120C, to transmit meter reading messages pertaining thereto if MRTs 80C, 90C, HOC and 120C are within receiving range of node 42C, in addition to receiving and retransmitting messages from unit 40C. However, node 42C may not cooperate with any MRTs, and may only function to receive and retransmit meter reading messages from unit 40C. In this way, the meter reading messages may be received and retransmitted to enable the meters 5C and 7C to be monitored from a distant location. The meter reading transmitter/node units and intermediate meter reading transmitter/node units are arranged in a hierarchy, wherein the intermediate units, such as unit 46C, occupy a lower order than the units such as unit 40C. Furthermore, no unit has the same order as any other unit, intermediate or otherwise, within the system IOC. This hierarchy facilitates the transmission of the meter reading messages from a higher order unit, through the sequentially lower order units, until the messages are received by the lowest ordered unit. The messages are then transmitted from the lowest ordered unit to the DCU 20C for monitoring purposes. In this way, the messages are funneled through the system IOC until the lowest ordered node eventually receives all of the meter reading messages transmitted by MRTs 80C, 90C, 100C, HOC, 120C, 130C, 140C, 150C and 160C. As described in greater detail hereinafter, the system IOC is initialized during an initialization period to facilitate the desired hierarchial arrangement. However, the hierarchial arrangement may be reproduced by the careful positioning of the units relative to one another, or by any other similar method or arrangement. Considering now the MRTs 80C, 90C, 100C, HOC, 120C, 130C, 140C, 150C and 160C in greater detail with reference to FIGS. 1C and 2AC-2BC, only MRT 150C will be described hereinafter in greater detail as all of the MRTs are substantially similar. MRT 150C includes a microprocessor (MP) 156C, such as model PIC16LC16A, coupled to a set of meters including meters 5C and 7C by conductors, such as conductors 6C and 8C, to receive metering information signals indicative of the utility resource metered by each meter 5C and 7C. Using the meter information signals, the MP 156C generates meter reading messages indicative of the measurements made by each of the meters 5C and 7C, and also including identifying information for MRT 150C. Coupled to the MP 156C is a transmitter 152C having an antenna 154C for transmitting the meter reading messages. A power source (not shown) is connected to MRT 150C to supply the required electrical energy for the operation of the MRT. The power source also facilitates the generation of the meter information signals. The power source preferably comprises one or more battery cells to permit the MRT 150C to be placed in any desired location. To facilitate initialization of the system IOC, a test circuit 180C is coupled to the MP 156C to provide a test signal. A test message is then generated by the MP 156C and transmitted by the transmitter 152C via the antenna 154C. As will be described hereinafter in greater detail, the test message is retransmitted by the associated node 70C to facilitate the transmission of a meter reading message to the DCU 20C. The operation of MRT 150C may be best understood with reference to flow chart 200C (FIGS. 2AC-2BC) . Initially, the detection of a test signal, such as a test signal produced by the test circuit 180C, is undertaken at decision box 2IOC to begin the initialization process. The detection of a test signal causes the MRT to generate a test message at box 212C. The test message generated at box 212C is subsequently transmitted at box 214C. The transmission of the test message is repeated continuously until a determination is made at decision box 216C that a predetermined test message period has elapsed. Once it is determined that the predetermined test message period has elapsed, the transmission of the test message is terminated at box 218C. Upon the termination of the transmission of the test message, the detection of a meter signal is determined at decision box 220C. The meter signal is indicative of the quantity of the utility resource measured by the meter. Similarly, a determination at decision box 2IOC that no test signal has been detected causes the detection of a meter signal to be determined at decision box 220C. Should it be determined at decision box 220C that no meter signal has been detected, the MRT once again returns to decision box 2IOC to determine if a test signal has been detected. When it is determined that a meter signal has been detected at decision box 220C, the meter signal is received at box 222C, causing a meter counter for the meter generating the meter signal to be incremented at box 224C, and also causing an overall cumulative counter to be incremented at box 226C. The status of the cumulative counter is compared with a predetermined transmission count at decision box 228C to determine if the cumulative counter count is substantially equal to the transmission count. Another meter signal is detected at box 222C if the count of the cumulative counter has not yet reached the transmission count. Upon the cumulative counter count reaching the transmission count, the meter counter count for the meter is combined with identification information for the particular MRT which is receiving the meter signal at box 230C. The combined meter counter count and MRT identification information is then defined as a meter reading message. The meter reading message is transmitted at box 232C. The transmission of the meter reading message continues until it is determined at decision box 234C that a predetermined transmission period has elapsed. The end of the predetermined transmission period causes the transmission of the meter reading message to be terminated at box 236C. The cumulative counter is reset at box 238C, and the operation of the MRT ceases until of a test signal, or a meter signal is detected at either box 210C or box 220C. A source code listing for the operation of MRTs 80C, 90C, 100C, HOC, 120C, 130C, 140C, 150C and 160C is attached hereto, and is identified as Appendix 1. Considering now the nodes 30C, 42C, 50C, 60C and 70C with reference to FIGS. 1C and 3AC-3DC, in greater detail, each one of the nodes 30C, 42C, 50C, 60C and 70C has associated node identification information indicative of the node's position in the hierarchy of system IOC. In this regard, node 30C has a node identification information indicative of the lowest ordered node, node 70C has a node identification information indicative of the highest ordered node, and nodes 42C, 50C and 60C have node identification information indicative of increasing node order between that of node 30C and of node 70C. Except for the lowest ordered node 30C, all of the nodes 30C, 42C, 50C, 60C and 70C are substantially similar and only node 70C will be described hereinafter in greater detail. Node 30C is highly different from the other nodes 42C, 50C, 60C and 70C, and will be discussed separately. Node 70C includes a receiver 78C having an antenna 79C for receiving meter reading messages and test messages from MRTs. The receiver 78C may also receive test messages and meter reading messages from other nodes, as will be described in greater detail hereinafter. A microprocessor (MP) 74C, such as a model 80C31, coupled to the receiver 78C controls the operation of the node 70C to receive and retransmit test messages and meter reading messages. An address multiplexor (ADDR MUX) 76C and a memory device 77C coupled to the MP 74C enable the node 70C to modify the received test messages and meter reading messages to include node identification information for the node 70C and node identification information for a node, such as node 42C, to receive the modified meter test messages or meter reading messages which are transmitted by the node 70C. A transmitter 72C having an antenna 74C is coupled to the MP 74C to enable the modified meter reading messages to be transmitted. The MP 74C, in cooperation with the ADDR MUX 70C and memory 77C, enables the node 70C to determine if a meter reading message is being received from a higher order node or from a lower order node. If received from a higher order node, the node 70C will retransmit the received meter reading information. However, meter reading information from a lower order node will be ignored and will not be retransmitted by the node 70C. A power source (not shown) is connected to the node 70C to supply electrical energy thereto. As the node 70C can be positioned without regard to the location of the meters 5C and 7C, the power source is preferably a typical 120 volt electrical source. Thus, the node 70C should include a plug (not shown) and cord for connecting the node 70C to the 120 volt source. However, other electrical energy sources may also be suitable. During the initialization period, nodes 42C, 50C, 60C and 70C receive test messages from MRTs. In addition, they may receive test messages from other nodes, without regard to whether the other nodes are of a higher or lower order. The test messages received from other nodes include node identification information to enable the node receiving the test messages to identify the node which transmitted the test message. Using the node identification information received, the receiving or subject node determines which of the nodes that is transmitting a test message, and which is received by the subject node, is the lowest ordered node. The node identification information for this lowest ordered node is then stored as a destination node for all transmissions of meter reading messages for the subject node. Node 30C is substantially similar to nodes 42C, 50C, 60C and 70C, except that node 30C does not retransmit modified test messages or meter reading messages via a transmitter, such as transmitter 72C. In this regard, node 30C is representative of the lowest ordered node possible, and receives meter reading messages from higher order nodes only. Thus, it cannot transmit to a lower order node. Therefore, node 30C is connected directly to the DCU 20C by a conductor 31C. Node 30C includes a serial port (SP) 32C coupled to a microprocessor 34C for transmitting the received meter reading messages directly to the DCU 20C. The operation of the nodes is illustrated in the flow chart 300C of FIGS. 3AC-3DC. Node 30C does not require initialization. Thus, the initialization steps of boxes 310C-330C do not apply to node 30C. The remaining steps, however, are applicable to the transmission of meter reading message by node 30C. Initialization of nodes 42C, 50C, 60C and 70C begins with the detection of a test message transmitted by an MRT, or another node. A determination is made at decision box 3IOC as to whether such a test message has been detected. Where a test message is detected, the test message is received at box 312C. The test message is analyzed at decision box 314C to determine if it contains node identification information for another node, indicating that the subject node has received a test message from another node rather than directly from an MRT. A determination that the test message does contain node identification information for another node causes the node identification information to be analyzed at decision box 316C to determine if the node identification information is indicative of a lower order node. Should the node identification information indicate a lower ordered node, the node identification information for the lower ordered node is stored at box 318C. The test message is then modified at box 320C to contain node identification information for the subject node before the modified test message is transmitted at box 322C. A determination at decision box 314C that the test message does not include node identification information indicates that the test message was received directly from an MRT. Thus, initialization must continue until a lower ordered node is subsequently detected. The failure to detect node identification information for another node at decision box 314C causes the test message to be modified at box 320C. Where the test message is determined to contain node identification information for another node at box 314C but the node identification information is not indicative of a lower order node, the test message is modified to contain the subject node identification information at box 320C without storing the node identification information at box 318C. The modified test message is then transmitted at box 322C. The transmission of the modified test message continues until it is determined that the initialization period has ended at decision box 324C. Upon the termination of the initialization period, the stored node identification information is analyzed to determine the lowest ordered node associated with the stored information at box 326C. The lowest ordered node information is stored as destination node information at box 328C to facilitate the transmission of meter reading messages, as described in greater detail hereinafter. After the lowest ordered node identification information has been stored as destination node information at box 328C, the transmission of the modified test message is terminated at box 330C, before the node determines if a meter reading message has been detected at decision box 332C. Where no test message was detected at decision box 3IOC, the node similarly proceeds to determine whether a meter reading message has been detected at box 332C. With regard to node 42C, there is no need to determine the destination node identification information as node 30 is the only node having a lower order. Thus, the destination node identification for node 42C may be set initially without the use of test messages. The detection of a meter reading message at decision box 332C results in the meter reading message 334C being received by the node at box 334C. Alternatively, the failure to detect a meter reading message at decision box 332C returns the operation to decision box 3IOC to determine if a test message has been detected. A determination is made at decision box 336C, following the receipt of the meter reading message at box 334C, to determine if the meter reading message contains both receiving node identification information and sending node identification. Where the meter reading message is determined to contain receiving node identification information and sending node identification information, indicative of the message being received from another node, a determination is made at decision box 342C as to whether the sending node identification information is indicative of a higher ordered node than the subject node. If the sending node identification information is not indicative of a higher ordered node, the meter reading message is ignored as represented by box 342C, and the operation returns to decision box 3IOC. However, where the sending node identification information is indicative of a higher ordered node, a determination is made at decision box 346C as to whether the receiving node identification information of the received meter reading message matches the node identification information for the present or subject node. In this regard, a match would indicate that the meter reading message was intended to be received by the subject node. A determination that the message was intended for the subject node cause the meter reading message to be stored at box 348C. An acknowledgement signal is then transmitted at box 350C for enabling the sending node to terminate its transmission of the meter reading message. The receiving node information identification is then replaced with previously stored destination node identification information at box 352C. A determination at decision box 346C that the receiving node identification information does not match the subject node identification information causes the meter reading message to be stored at box 349C. The receiving node identification information is then replaced with the destination node identification information at box 352C without an acknowledgement signal being transmitted at box 350C. Once receiving node identification information has been substituted with destination node identification information at box 352C, the sending node identification information of the received meter reading message is replaced with node identification information for the subject node at box 354C. Thus, the meter reading message has been modified with new "to" and "from" information, wherein the node that is to receive the modified meter reading message from the subject node is now identified as the destination node as determined during the initialization period. Similarly, the subject node information has been incorporated into the meter reading message to identify the retransmitted meter reading message as coming from the subject node. A determination at decision box 336C that the received meter reading message does not contain receiving node identification and sending node identification information indicates that the meter reading message was received directly from an MRT, and appropriate sending node identification information and receiving node information must be added to the meter reading message. In this regard, the stored destination node identification information is added to the meter reading message and defined as receiving node identification information at box 338C. The subject node identification information is also added to the meter reading message, and defined as sending node identification information, at box 34OC to complete the sending and receiving node information. The modified meter reading message from either box 354C or from box 340C is then transmitted at box 356C. The transmission of the modified meter reading message is continued until an acknowledgement signal is received from the receiving or destination node at decision box 358C. Upon the detection of the acknowledgement signal from the destination node, the transmission of the modified meter reading message is terminated at box 360C, and the operation of the node terminates until the detection of a new test message or a new meter reading message. A source code listing for the operation of the nodes 30C, 42C, 50C, 60C and 70C is attached hereto, and is identified as Appendix 2. Considering now the DCU 20C in greater detail with reference to FIG. 1C, the DCU 20C includes an input/output (I/O) device 26C for enabling the DCU 20C to communicate with the node 30C via the serial port (SP) 32C. The DCU 20C further includes a central processing unit (CPU) 24C for controlling the operation of the DCU 20C to enable all of the meters, such as meters 5C and 7C, to be remotely monitored. A memory device 28C is coupled to the I/O 26C and the CPU 24C to facilitate the monitoring. User interaction with the CPU 24C is facilitated with the terminal 12C. A modem device 22C coupled to the CPU 24C facilitates remote access to the monitoring information obtained by the DCU 20C via telephone lines 16C. The DCU 20C is preferably a DOS based computer, and facilitates the calculation of the usage of the utility resource metered using appropriate calculation methods. A source code listing for the operation of the DCU 20C in monitoring the meter reading messages received is attached hereto, and is identified as Appendix 3. Also attached herewith, and identified as Appendix 4, is a source code listing for a basic utilities program for interacting with the DCU 20C. While particular embodiments of the present invention have been disclosed, it is to be understood that various different modifications are possible and are contemplated within the true spirit and scope of the appended claims. There is no intention, therefore, of limitations to the exact abstract or disclosure herein presented. APPENDIX 1 LIST P=16C71, F=INHX8M INDIR equ 0 TMRO equ lh PC equ 2h STATUS equ 3h FSR equ 4h PORT A equ 5h PORTB equ 6h PORTC equ 7h PCLATH equ OAH INTCON equ OBH 1- 1 APPENDIX 1 1- APPENDIX 1 ovwf temp bsf PORTB.2 btfss temp,4 goto s78 btfss temp, 5 goto s56 btfss temp,6 goto s34 btfss temp,7 goto si 2 clrf PORTB nop movf PORTB.w bcf INTCON.RBIF retfie s!2 btfss PORTB.7 goto s2 call incmeterl goto exit s2 call incmeter2 goto exit s34 btfss PORTB.6 goto s4 call incmeter3 goto exit s4 call incmeter4 goto exit s56 btfss PORTB.5 goto s6 call incmeter5 goto exit s6 call incmeterό goto exit 1-3 APPENDIX 1 s78 bcf INTCON.INTE bcf INTCON.TOIE bcf INTCON.INTF bcf INTCON.TOIF movf PORTB.w 1 -4 APPENDIX 1 bcf INTCON.RBIF bsf INTCON.RBEE retfie incmaster incfsz master, 1 return incfsz master+1,1 return incf master+2, 1 return incmeterl incfsz meter 1,1 return incfsz meter 1+1 ,1 return incfsz meter 1+2,1 return incf meterl+3,1 return incmeter2 incfsz meter2, 1 return incfsz meter2+l,l return incfsz meter2+2, 1 return incf meter2+3,l return incmeter3 incfsz meter3, l return incfsz meter3+l,l return incfsz meter3+2, 1 return incf meter3+3,l return incmeter4 incfsz meter4, 1 return 1-5 APPENDIX 1 incfsz meter4+l,l return incfsz meter4+2, l return incf meter4+3,l return incmeter5 incfsz meter5,l return incfsz meter5+l,l return incfsz meter5+2, 1 return incf meter5+3, l return incmeterό incfsz meterό, 1 return incfsz meter6+l ,l return incfsz meter6+2, 1 return incf meter6+3, l return incmeter7 incfsz meter7, 1 return incfsz meter7+l, l return incfsz meter7+2, 1 return incf meter7+3,l return clrmaster clrf master clrf master+1 clrf master+2 return clrram call clrmaster 1 -6 APPENDIX 1 1-7 APPENDIX 1 call wait movlw .255 movwf pent waitl call delay2x deefsz pent goto waitl return sendchar movwf xmitdata movlw 8 movwf sent sendl movlw .2 xonvf PORT A, 1 call delay2x rlf xmitdata, 1 btfss STATUS.C goto send2 movlw .2 xorwf PORT A, 1 send2 call delay2x deefsz scnt.l goto sendl 1-8 APPENDIX 1 return 1-9 APPENDIX 1 movlw 0 call sendchar movlw 0 call sendchar movlw 0 call sendchar movlw 0 call sendchar movlw 0 call sendchar movlw 0 call sendchar movlw 0 call sendchar movlw 0 call sendchar movlw 0 call sendchar call serial 1 addwf chksum, 1 call sendchar call serial2 addwf chksum, 1 call sendchar call serial3 addwf chksum, 1 call sendchar call serial4 addwf chksum, 1 call sendchar movf meter 1,0 addwf chksum, 1 call sendchar movf meterl+1,0 addwf chksum, 1 call sendchar movf meterl+2,0 addwf chksum, 1 call sendchar movf meterl+3,0 addwf chksum, 1 - APPENDIX 1 call sendchar movf meter2,0 addwf chksum, 1 call sendchar movf meter2+l,0 addwf chksum, 1 call sendchar movf meter2+2,0 addwf chksum, 1 call sendchar movf meter2+3,0 addwf chksum, 1 call sendchar movf meter3,0 addwf chksum, 1 call sendchar movf meter3+l,0 addwf chksum, 1 call sendchar movf meter3+2,0 addwf chksum, 1 call sendchar movf meter3+3,0 addwf chksum, 1 call sendchar movf meter4,0 addwf chksum, 1 call sendchar movf meter4+l,0 addwf chksum, 1 call sendchar movf meter4+2,0 addwf chksum, 1 call sendchar movf meter4+3,0 addwf chksum, 1 call sendchar movf meter5,0 addwf chksum, 1 call sendchar movf meter5+l,0 1- 11 APPENDIX 1 APPENDIX 1 retlw 0x34 seriaB retlw 0x56 serial4 retlw OxFE end 1- 13 - APPENDIX 2 CSEG ORG porg ajmp init ORG porg+3 ljmp rxdint ORG porg+23h seπnt: push ace push psw push dph push dpi jb ti,serint07 jnb ri.serintOό mov a.sbuf mov r2,a clr ri inc r6 2 -2 APPENDIX 2 rxdint: push ace push psw push dph push dpi pop dpi pop dph pop psw pop ace reti mov ie,#0 mov scon,//01010010b - APPENDIX 2 mov tmod.ΛOO 10000 lb mov tcon,//l 101001 lb mov thl.y/OFEh clr xmitflag setb trl mov sp,//stack mov psw,//0 mov a.tfO mov r0,//127 initl: mov @r0,a djnz rO, initl clr ri clr ti mov ie,// 10010000b clr txd mov destaddr,//Offlι mov dcstaddr+l,//Ofπι mov dcstaddr+2,//0ffh mov destaddr+3,//0ffn setb ledblink mov dptr,//msg4 call prmsg init2: call pause1 call pause1 call pause1 2-4 APPENDIX 2 nownte: main: - APPENDIX 2 atimeout: mov dptr, 7msg31 call prmsg setb c ret - APPENDIX 2 getpacket: mov mtimer,//0 mov mtimer+l ,//0 mov mtimer+2,//0 mov mtimer+3,//0 gpl: APPENDIX 2 JC atimeout call waittogglea jc atimeout jmp main3a nextbit: main3 main2: setb oldstate main7: main8: main9: mainl main5: mainό: 2 -8 APPENDIX 2 timeout: main 16: ret mainl5: APPENDIX 2 ret wt3a: tick: mov a,mtimer+2 addc a,#0 mov mtimer+2,a mov a,mtimer+3 add a.tfO mov mtimert-3,a jnb ledblink.noled jnb mtimer+ 1.4, tickl clr led ret tic l : setb led noled: ret 2 -10 APPENDIX 2 wx4: ret checkless: mov r3,destaddr+3 mov r4,destaddr+2 mov r5,destaddr+l - APPENDIX 2 2-12 APPENDIX 3 // Version .00 (03/20/96) - Coding started //include <stdio.h> //include <string.h> //include "dcfs.h" //include "af.h" // cxtcrns for asm stuff /include "proto.h" // function protos unsigned char digits[] = {"0123456789ABCDEF"}; // forjprintfO unsigned int doserr; // for dos file stuff //* global variables * unsigned int done; // exit flag unsigned int apticks[3]; // ticks for receive timer short int ttimer; // exit timer unsigned int state; unsigned char *msgptr; // Message Pointer unsigned char command[256]; // Command line input and temp buffer unsigned int rxptr; // Rx char pointer unsigned char user_password[20] = "uuu"; unsigned char super_password[20] = "sss"; unsigned char sysop_password[20] = "jjy"; unsigned int wticks[3]; // ticks for wait //* data variables * unsigned long far Ipxid[DBSIZE]; // lpx transmitter id unsigned char far meter[DBSIZE]; // meter number unsigned long far counts[DBSIZE]; // meter counts unsigned long far gallons[DBSIZE]; // gallons unsigned char far pipc[DBSIZE]; // pipe size unsigned int far apt[DBSIZE]; // apartcment number unsigned char Home[] = M \xlB[2J\xlB[l ;lH"; unsigned char Login[] = "\n\rEntcr password -> "; unsigned char InvalidPort[] = "\n\rlnvalid entry - Press any key to continue."; unsigned char tempstr[] = " "; - APPENDIX 3 // * main * void main(int argc, char *argv[]) { int ij; Timerlnit(); timer(apticks); novideo(T)'. cominitl( 9600, 2, 1 1 , 0xF7, 0x2F8 ); // COM2 IRQ3 cominit2( 9600, 3, 13, OxDF, Ox3E8 ); // COM3 IRQ5 cominit3( 9600, 4, 12. OxEF, 0x2E8 ); // COM4 IRQ cls(O); done = 0; state = 0; rxptr=0; if ( --argc ) /* enter command line input mode if any args */ { jtolower( *++argv ); if( *(*argv) == 'm' ) modem_terminaIQ; } // ttimcr = TimcrStart( Mscc2Tics((unsigncd long)5001), exit_tout, 01 ); while( Idonc ) { iO; elapsed lOOO(apticks) >= 551 ) /* tick the 'active' timer system */ { timer(apticks); // set to delay one tick TimerScrverO; // tick the timers } switch(state) { case O: /******** Initial State *********/ msgptr = Home; state = 1 ; 3 -2 APPENDIX 3 break; case 1 : /*********** Clear the screen *****/ if( chkcom3() ) cputc3( *msgptr++ ); if( !*msgptr ) { msgptr = Login; state = 3; } break; case 3: /*********** Enter Password *****/ if( chkcom3() ) cputc3( *msgptr++ ); if( !*msgptr ) { while( inqcnt3 ) getcom3(); // flush buffer state=4; command[0] = 0; command[l] = 0; command[2] = 0; } break; case 4: /******** Wait for password ******/ if( GetPassword() ) { if( !jstrcmp(command,uscr_password) ) { uscr_mcnιι(); flush(); state = 10; } if( !jstrcmp(command,suρcr_password) ) { super_menu(); flushO; state = 40; } if( !jstrcmp(command,sysop_password) ) { super_menu(); flushQ; APPENDIX 3 state = 80; } if( state — 4 ) { jstrcpy(command,"\n\rIncorrect password\n\r"); msgptr = command; state = 1; } } break; II******************************************************* II* User Commands * case 10: /****** ♦ * User Commands +*****/ if( GctCommandO) { if( command[0] = '2' ) state = 0; else state=ll; } break; case 11 : /****** ♦ * Invalid command ******/ sputc3(InvalidPort); state=12; flush(); break; case 12: // Wait for key if( inqcnt3 ) { flushO; user_mcnu(); state=10; } break; II******************************************************* II* Supervisor Commands * II******************************************************* case 40: /******** Supervisor Commands ******/ 3-4 APPENDIX 3 if ( GetCommandO ) { if( command[0] = '3' ) // logoff? state = 0; else state=41; } break; case 41: /******** invalid command ******/ sputc3(InvalidPort); state=42; flushO; break; case 42: // Wait for key if( inqcnt3 ) { super_menu(); flush(); state=40; } break; II* Sysop Commands * / * ********** ***************** **** *********************** case 80: /******** Sysop Commands ******/ if ( GetCommandQ ) { id; command[0] == 27 ) // logoff? state = 0; else state=81 ; } break; case 81 : /******** invalid command ******/ sputc3(InvalidPort); state=82; flush(); break; case 82: // Wait for key - APPENDIX 3 \i inqcnt3 ) { sysop_menu(); state=80; flushO; } break; default: break; } if( chkkbdO ) done = 1 ; } comrestO; comrest2(); comrest3(); exit(O); /******** Get a Command line from terminal **************/ GetCommandO { int temp; temp = 0; if ( inqcnt3 ) { temp - getcom3() & 0x7F; /* mask out parity */ command[rxptr] = temp; if ( (temp = 0x08) && (rxptr != 0) ) { cputc3(0x08); cputc3(' '); cputc3(0x08); rxptr--; } if(temp != 0x08) { cputc3(temp); rxptr++; } } 3 - 6 APPENDIX 3 if (temp = OxOD ) /* wait for CR */ { rxptr-; command[rxptr] = 0; rxptr = 0; return(l); } return(O); } I******** Q et a p asswor | f rom terminal *****+/ GetPasswordO { int temp; temp = 0; if ( inqcnt3 ) { temp = getcom3() & 0x7F; /* mask out parity */ command [rxptr] = temp; if ( (temp = 0x08) && (rxptr != 0) ) { cputc3(0x08); cputc3("); cputc3(0x08); rxptr-; } if (temp != 0x08) { cputc3 ('*'); rxptr++; } } if (temp == OxOD ) /* wait for CR */ { rxptr--; command[rxptr] = 0; rxptr = 0; return(l); } if (rxptr > 20 ) /* don't let too many chars */ { rxptr-; command[rxptr] = 0; rxptr = 0; return(l); 3-7 APPENDIX 3 } return(O); } wait(unsigned long 1) { timer(wticks); while( elapsed lOOO(wticks) < 1 ) } 3-8 APPENDIX 4 II *********** bsubs.c - basic utilites ************ /include <stdlib.h> //include <stdio.h> //include "externs.h" //include "defs.h" /include "af.h" // externs for asm stuff /*** Quick and dumb terminal for the modem ***/ modem_terminal() { unsigned int itemp; unsigned int j; itemp = 0; tcolor = 0x07; cls(0); jprintfl;" BB Modem Terminal \n\r\n\rCOM2:9600,8.N. l\n\r"); jprintf("Fl = Clear scrcen\n\r"); jprintf("Hit Esc to exit terminal emulation\n\r\n\r"); while( itemp != 27 ) { if ( inqcnt ) { j = getcomO; cput(j ); } chkkbdO ) { itemp = fgetkeyO; if( itemp == 0x013b ) ( cls(0); curx = 0; cury = 0; } // if( itemp = 0x013c ) // tdtr(); // \χ itemp == 0x013d ) // cputstr("AT&$\n\r"); // if( itemp = 0x013e ) - APPENDIX 4 // cputstr("ATDT 9686384\nV); // ifl; itemp = 0x013f) // cputstr("AT&VO\nV); // if( itemp = 0x0140 ) // cputstr("AT&N17\nV); ifl; itemp != 27 ) { cputc( itemp ); // cput( itemp ); // echo on } } } cls(0); } void sputc3( unsigned char *sl ) { while( *sl ) { while( !chkcom3Q ) // wait for clear to send cputc3(*sl++); } } user_menu() { sputc3(Home); sputc3("Uscr Menu\n\r\n\r"); sputc3(" l Read Meter\n\r"); sputc3("2 Log oΩ\n\r"); sputc3("\n\rEnter command -> "); } super_menu() { sputc3(Home); sputc3("Supervisor Menu\n\r\n\r"); sputc3("l Read Meter\n\r"); sputc3("2 Enter New Apartement\n\r"); sputc3("3 Log ofi\n\r"); sputc3("\n\rEnter command -> "); 4 -2 APPENDIX 4 } sysop_menu() { sputc3(Home); sputc ("Sysop Menu\n\r\n\r"); sputc3("l Read Mcter\n\r"); sputc3("q Log offW); sputc3("\n\rEntcr command -> "); } flushO { mcmset( command, 0, sizcoffcommand) ); while( inqcnt3 ) getcom3(); } -

Claims: What is claimed is: 1. A method of metering building structures having a plurality of service outlets, each having individual control valves therefor, comprising: providing a group of meters; installing a single meter within a given distance from each one of the valves; and coupling electrically to each one of the meters transmission means for sending meter readings periodically to a remotely located unit. 2. A method according to claim 1, wherein the meters are each installed upstream of their valves, and wherein said given distance is up to one foot upstream from a given valve. 3. A method according to claim 2, wherein the meters are each installed adjacent to their valves. 4. A method according to claim 1, wherein the meters are each installed downstream of their valves, and said distance is equal to the length of the flow between individual valves and their outlets. 5. A method according to claim 4, wherein the meters are each installed adjacent to their valves. 6. A method according to claim 4, wherein the meters are each installed individually at their outlets. 7. A method according to claim 4, wherein the meters are each installed individually respectively intermediate the valves and their outlets controlled thereby. 8. An apparatus for metering building structures having a plurality of service outlets, each having individual control valves therefor, comprising: a group of meters; means for installing a single meter within a given distance from each one of the valves; electrical transmission means; remotely located receiving equipment for receiving meter reading information via said wireless transmission means; and means for coupling electrically to each one of the meters said transmission means for sending meter readings periodically to the remotely located equipment. 9. An apparatus according to claim 9, wherein the meters are each installed upstream of their valves, and wherein said given distance is up to one foot upstream from a given valve. 10. An apparatus according to claim 9, wherein the meters are each installed adjacent to their meter. 11. An apparatus according to claim 9, wherein the meters are each installed downstream of their valves, and said distance is equal to the length of the flow between individual valves and their outlets. 12. An apparatus according to claim 11, wherein the meters are each installed adjacent to their valves. 13. An apparatus according to claim 13, wherein the meter is installed at the outlet. 14. An apparatus according to claim 13, wherein the meters are each installed individually respectively intermediate the valves and their outlets controlled thereby. 15. An apparatus according to claim 8, wherein the meter is installed upstream of the valve at a common supply line for a plurality of units within the building structure, further including another meter being installed upstream of the first-mentioned meter at the common supply line; means for determining the difference between the readings of the two meters to determine the quantity of fluid flowing through the first-mentioned meter. 16. A method for installing a flow meter system onto a utility distribution system disposed in a space behind a wall and having a conduit extending through a conduit opening in the wall for coupling a fixture to the utility distribution system, the flow meter system including a meter assembly and a transmitter device, the method comprising: connecting the meter assembly in fluid communication with the conduit, wherein the meter assembly is positioned outside of the space and substantially in front of the wall; installing the transmitter device within the space and positioned remotely from the meter assembly; connecting electrically the transmitter device to the meter assembly; and coupling the fixture in fluid communication with the meter assembly, wherein the meter assembly and the conduit opening are substantially concealed by the fixture. 17. A method according to claim 16, wherein the utility distribution system further includes another conduit extending through another conduit opening in the wall for coupling another fixture to the utility distribution system, and the flow meter system further includes another meter assembly, the method further including: connecting the second mentioned meter assembly in fluid communication with the second mentioned conduit, wherein the second mentioned meter assembly is positioned outside of the space and substantially in front of the wall, wherein the transmitter device is located remotely from the second mentioned meter assembly; connecting electrically the transmitter device to the second mentioned meter assembly; and coupling the second mentioned fixture in fluid communication with the second mentioned meter assembly, wherein the second mentioned meter assembly and the second mentioned conduit opening are substantially concealed by the second mentioned fixture. 18. A flow meter apparatus for installation on a utility resource distribution system having a supply conduit extending through a conduit opening in a wall, comprising: a fixture means having a housing defining a hollow interior for controlling the distribution of the utility resource, said housing including an internal coupler disposed within said hollow interior to facilitate the coupling of said fixture means to the supply conduit; a meter means connected in fluid communication with said fixture means for measuring the quantity of the utility resource being supplied to said fixture means, said meter means being adapted to be disposed substantially within said hollow interior to enable said fixture means to conceal said meter means when said fixture means is installed on the distribution system. 19. A flow meter apparatus according to claim 18, wherein said meter means transmits information indicative of the quantity of the utility resource being supplied when the utility resource flows in one direction, and wherein said information is substantially not transmitted by said meter means when the utility resource flows in another direction. 20. A method of making a flow meter apparatus for installation on a utility resource distribution system having a supply conduit extending through a conduit opening in a wall, comprising: using a fixture means having a housing defining a hollow interior for controlling the distribution of the utility resource, said housing including an internal coupler disposed within said hollow interior; coupling a meter means in fluid communication with said housing means via said internal coupler for measuring the quantity of the utility resource being supplied to said fixture means; and disposing said meter means substantially within said hollow interior to enable said housing to conceal said meter means when said fixture means is installed on the distribution system. 21. A flow meter system for measuring the quantity of a substance moving through a conduit having an opening therein, comprising: sensing means adapted to be mounted to the conduit extending only partially into the path of flow of the substance in a slightly invasive manner for detecting movement of the substance through the conduit to generate a signal indicative of the quantity of the substance moving therepast; counter means responsive to said signal for generating a signal indicative of the cumulative quantity of substance moving past said sensing means; electrical communication means responsive to the cumulative quantity signal for transmitting cumulative quantity information in a wireless manner; receiver means positioned remotely from said wireless communication means for receiving said information at a remote location; wherein said signal generating means includes a magnetically activated switch for generating a number of electrical pulses; wherein said measuring means includes a revolvable paddle wheel having a plurality of blades extending radially from a hub, at least one of said blades including a magnet disposed therein for cooperating with said magnetically activated switch to produce a series of electrical pulses defining said electrical signal when said paddle wheel is rotated by the substance moving thereby; and housing means including support means for extending said paddle wheel through the opening into contact with the substance, wherein said hub is positioned near the opening to permit said blades to extend through the opening and into the conduit. 22. A method for measuring the quantity of a substance moving through a conduit having an opening therein, comprising: positioning a sensing means only partially within the path of flow of the substance within the conduit; detecting movement of the substance through the conduit and generating in response thereto, a signal indicative of the quantity of the substance moving therepast; generating a signal indicative of the cumulative quantity of the substance moving therepast; transmitting cumulative quantity information in a wireless manner; receiving said information at a remote location; said generating signal including generating a plurality of electrical pulses; using a paddle wheel having a hub and a plurality of blades extending therefrom, at least one of said blades including a magnet therein, for cooperating with a magnetic switch to produce a series of said electrical pulses; and extending said paddle wheel through the opening, wherein the hub is positioned at about the opening. 23. A water reading data transmission system for communicating meter reading information for a group of meters, comprising: one set of meter reading transmitter/node means coupled to individual ones of said meters for sending wireless meter reading messages periodically; another set of meter reading transmitter/node means for receiving and re-transmitting said messages; and a remotely located data collection station for receiving the re-transmitted messages to enable the meters to be monitored. 24. A meter reading data transmission system according to claim 23, wherein said meter reading transmitter/node means includes a plurality of meter reading transmitter units coupled to meters for sending meter reading messages, each one of said units including counter means for accumulating meter readings, and a transmitter responsive to said counter means for sending the accumulated meter readings as the meter reading messages. 25. A meter reading transmission system according to claim 24, wherein said meter reading transmitter/node means further includes node units for having a receiver for receiving the meter reading messages, and a transmitter responsive to the receipt of the messages for re-transmitting them to relay them toward the data collection station. 26. A meter reading transmission system according to claim 25, wherein each one of said node units includes a microprocessor unit for adding a receiving node identity signal to the meter reading messages to enable a receiving node unit to identify its messages intended to be received by it, and for adding its own receiving node identity signal to the meter reading messages to enable a receiving node unit to determine the identity of a sending node unit. 27. A meter reading transmission system according to claim 26, wherein said microprocessor unit causes its transmitter to re-transmit only those received messages having a higher node identity number, as well as any messages received from meter reading transmitter units. 28. A method of communicating a meter reading information for a group of meters, comprising: sending wireless meter reading messages periodically utilizing one set of meter reading transmitter/node means coupled to individual ones of said meters; receiving and re-transmitting said messages wirelessly utilizing another set of meter reading transmitter/node means; and receiving the re-transmitted messages to enable the meters to be monitored utilizing a remotely located data collection station. 29. A method according to claim 28, further including adding a receiving node means identity signal to the meter reading messages to enable a receiving node means to identify its messages intended to be received by it, and adding its own receiving node means identity signal to the meter reading messages to enable a receiving node means to determine the identity of a sending node means. 30. A method according to claim 29, further including re-transmitting only those received messages having a higher node means identity number. 31. A method of metering building structures having a plurality of service outlets (25) , each having individual control valves (50, 150, 250, 370, 450, 550, 650) therefor, including providing a group of meters (60, 160, 260, 370, 460, 560, 670, 680) , characterized by: installing a single meter (60, 160, 260, 370, 460, 560, 670, 680) within a given distance from each one of the valves (50, 150, 250, 370, 450, 550, 650); and coupling electrically to each one of the meters (60, 160, 260, 370, 460, 560, 670, 680) transmission means (e.g., 76, 674, 684) for sending meter readings periodically to a remotely located unit (e.g. , 90, 690) . 32. A method according to claim 31, further characterized in that the meters are each installed upstream of their valves, and wherein said given distance is up to one foot upstream from a given valve. 33. A method according to claim 32, further characterized in that the meters are each installed adjacent to their valves. 34. A method according to claim 31, further characterized in that the meters are each installed downstream of their valves, and said distance is equal to the length of the flow between individual valves and their outlets. 35. A method according to claim 34, further characterized in that the meters are each installed adjacent to their valves. 36. A method according to claim 34, further characterized in that the meters are each installed individually at their outlets. 37. A method according to claim 34, further characterized in that the meters are each installed individually respectively intermediate the valves and their outlets controlled thereby. 38. An apparatus for metering building structures having a plurality of service outlets, each having individual control valves therefor, including a group of meters, means for installing a single meter within a given distance from each one of the valves, and electrical transmission means, characterized by: remotely located receiving equipment for receiving meter reading information via said wireless transmission means; and means for coupling electrically to each one of the meters said transmission means for sending meter readings periodically to the remotely located equipment. 39. An apparatus according to claim 38, further characterized in that the meters are each installed upstream of their valves, and wherein said given distance is up to one foot upstream from a given valve. 40. An apparatus according to claim 39, further characterized in that the meters are each installed adjacent to their meter. 41. An apparatus according to claim 38, further characterized in that the meters are each installed downstream of their valves, and said distance is equal to the length of the flow between individual valves and their outlets. 42. An apparatus according to claim 41, further characterized in that the meters are each installed adjacent to their valves. 43. An apparatus according to claim 41, further characterized in that the meter is installed at the outlet. 44. An apparatus according to claim 41, further characterized in that the meters are each installed individually respectively intermediate the valves and their outlets controlled thereby. 45. An apparatus according to claim 38, further characterized in that the meter is installed upstream of the valve at a common supply line for a plurality of units within the building structure, further including another meter being installed upstream of the first- mentioned meter at the common supply line; and means for determining the difference between the readings of the two meters to determine the quantity of fluid flowing through the first-mentioned meter. 46. A method for installing a flow meter system (10A) onto a utility distribution system (20A) disposed in a space (14A) behind a wall (18A) and having a conduit (24A) extending through a conduit opening (25A) in the wall (18A) for coupling a fixture (54A) to the utility distribution system (20A) , the flow meter system (10A) including a meter assembly (50A) and a transmitter device (104A) , the method including connecting the meter assembly (50A) in fluid communication with the conduit (24A) , wherein the meter assembly (50A) is positioned outside of the space (14A) and substantially in front of the wall (18A) , characterized by: installing the transmitter device (104A) within the space (14A) and positioned remotely from the meter assembly (50A) ; connecting electrically the transmitter device (104A) to the meter assembly (50A) ; and coupling the fixture (54A) in fluid communication with the meter assembly (50A) , wherein the meter assembly (50A) and the conduit opening (25A) are substantially concealed by the fixture (54A) . 47. A flow meter apparatus (10A) for installation on a utility resource distribution system (20A) having a supply conduit (24A) extending through a conduit opening (25A) in a wall (18A) , including a fixture means (54A) having a housing (55A) defining a hollow interior for controlling the distribution of the utility resource, said housing (55A) including an internal coupler (56A) disposed within said hollow interior to facilitate the coupling of said fixture means (54A) to the supply conduit (24A) , characterized by: a meter means (50A) connected in fluid communication with said fixture means (54A) for measuring the quantity of the utility resource being supplied to said fixture means (54A) , said meter means (50A) being adapted to be disposed substantially within said hollow interior to enable said fixture means (54A) to conceal said meter means (50A) when said fixture means (54A) is installed on the distribution system (20A) . 48. A method of making a flow meter apparatus for installation on a utility resource distribution system (20A) having a supply conduit (24A) extending through a conduit opening (25A) in a wall (18A) , including using a fixture means (54A) having a housing (55A) defining a hollow interior for controlling the distribution of the utility resource, said housing (55A) including an internal coupler (56A) disposed within said hollow interior, characterized by: coupling a meter means (50A) in fluid communication with said housing means (55A) via said internal coupler (56A) for measuring the quantity of the utility resource being supplied to said fixture means (54A); and disposing said meter means (50A) substantially within said hollow interior to enable said housing (55A) to conceal said meter means (50A) when said fixture means (54A) is installed on the distribution system (20A) . 49. A flow meter system for measuring the quantity of a substance moving through a conduit (12B) having an opening (14B) therein, including sensing means (20B) adapted to be mounted to the conduit (12B) extending only partially into the path of flow of the substance in a slightly invasive manner for detecting movement of the substance through the conduit (12B) to generate a signal indicative of the quantity of the substance moving therepast, counter means (120B) responsive to said signal for generating a signal indicative of the cumulative quantity of substance moving past said sensing means (20B) , wherein said sensing means (20B) includes a magnetically activated switch (97B) for generating a number of electrical pulses, and wherein said sensing means (2OB) further includes a revolvable paddle wheel (103B) having a plurality of blades (e.g. , 105B) extending radially from a hub (104B) , at least one of said blades (e.g., 105B) including a magnet (109B) disposed therein for cooperating with said magnetically activated switch (97B) to produce a series of electrical pulses defining said electrical signal when said paddle wheel (103B) is rotated by the substance moving thereby, characterized by: electrically communication (122B) means responsive to the cumulative quantity signal for transmitting cumulative quantity information; receiver means (26B) positioned remotely from said communication means (122B) for receiving said information at a remote location; and housing means (9IB) including support means (99B, 101B) for extending said paddle wheel (103B) through the opening (14B) into contact with the substance, wherein said hub (104B) is positioned near the opening (14B) to permit said blades (e.g., 105B) to extend through the opening (14B) and into the conduit (12B) . 50. A method for measuring the quantity of a substance moving through a conduit (12B) having an opening (14B) therein including detecting movement of the substance through the conduit (12B) and generating in response thereto a signal indicative of the quantity of the substance moving therepast, generating a signal indicative of the cumulative quantity of the substance moving therepast, said generating a quantity signal including generating a plurality of electrical pulses, using a sensing means (2OB) including paddle wheel (103B) having a hub (104B) and a plurality of blades (e.g. 105B) extending therefrom, at least one of said blades (e.g., 105B) including a magnet (109B) therein for cooperating with a magnetic switch (97B) to produce a series of said electrical pulses, characterized by: positioning the sensing means (2OB) only partially within the path of flow of the substance within the conduit (12B) ; transmitting cumulative quantity information; and receiving said cumulative quantity information at a remote location. 51. A water reading data transmission system for communicating meter reading information for a group of meters (5C, 7C) , including a set of meter reading transmitter/node means (80C, 90C, 100C, HOC, 120C, 130C, 140C, 150C, 160C) coupled to individual ones of said meters (5C, 7C) for sending meter reading messages periodically, characterized by: another set of meter reading transmitter/node means (30C, 40C, 42C, 50C, 60C) for receiving and retransmitting said meter reading messages; and a remotely located data collection station (20C) for receiving the retransmitted messages to enable the meters (5C, 7C) to be monitored. 52. A method of communicating a meter reading information for a group of meters (5C, 7C) , including sending wireless meter reading messages periodically utilizing one set of meter reading transmitter/node means (80C, 90C, 100C, HOC, 120C, 130C, 140C, 150C, 160C) coupled to individual ones of said meters (5C, 7C) ; characterized by: receiving and re-transmitting said messages wirelessly utilizing another set of meter reading transmitter/node means (30C, 40C, 42C, 50C, 60C) ; and receiving the re-transmitted messages to enable the meters (5C, 7C) to be monitored utilizing a remotely located data collection station (20C) . 53. A flow meter system as described and illustrated herein. 54. A method of installing a flow meter system as described and illustrated herein.

Inventors: BEYER ROBERT W, FRANKLIN MARK T, LUCAS GERALD, MCGREGOR JOHN E III, BEYER, ROBERT, W., FRANKLIN, MARK, T., LUCAS, GERALD, MCGREGOR, JOHN, E., III
Applicants: WATER SAVERS INC, WATER SAVERS, INC.
Application year: 1996
Main classification: G01B
IPC codes: G01F1, G01F15, G08C17, G08C19, H04Q9