AU2014268221B2 - Enhancements to meterless remote parking monitoring systems - Google Patents

Abstract

A remote meterless parking monitoring system including a plurality of individual parking spaces, a plurality of vehicle detector/RFID units for monitoring the status of the individual parking spaces; at least one Gateway device responsive to the plurality of vehicle detector/RFID units; a Command and Control Server for employing numerous security provisions at least including encryption of data, Virtual Privacy Networks, firewalls and authenticated connections, and responsive to data from the Cellular gateway via the internet; and the Command and Control Server uses the status of each space and the ID from the motorist's RFID tag to cross reference data according to a Policy database and identifying the motorist through a Motorist Database including information about the motorist's mailing address, vehicle payment account balance or other information. Reede I Reaeer2 p 41 (C!DOW, Figure I

Description

1 2014268221 27 Nov 2014

BACKGROUND OF THE INVENTION 1. Field of the Invention

The invention relates to: (1) using RFID tags to identify parking 5 classification; (2) use of RFID tags to allow temporary exemptions to individuals for purposes of special events, temporary injury or other short-term allowances for special parking privileges; and (3) using RFID tags to identify unique customers and effect payment against an account; and (4) using RFID tags to identify unique customers and effect automatic issuance of parking citations. 10 2. Related Art

The provisional patent application Serial No. 61/213752, filed 10 July 2009 and entitled: GEN II Meter System with Multiple Detection Sensor Types, Fault Tolerance Methods, Power Sharing and Multiple User interface Methods. In a system such as the GEN II Meter System (Provisional Patent Application, Serial 15 No. 61/202201,Filed 5 February) built with multiple processors contained in a single node provides internal monitoring of the operability of all units. An alphanumeric identifying message ID for each message is transmitted from a component to identify intermittent and other communication errors such as consistently “lost” packets of information within a RAM system (Patent Application 20 Serial No. 11/802244, filed21 May 2007) for parking management. An alphanumeric identifying message ID for each message transmitted from a component to identify intermittent and other communication errors such as consistently “iosf packets of information within a RAM system for Parking Management. An alphanumeric message ID confirms message delivery between 25 radio network components in the RAM system for parking. The alphanumeric message ID confirms message delivery between radio network components in the RAM system for parking. The above alphanumeric message ID confirms message delivery between radio network components in the RAM system for parking. A Reed relay is used as a method of time stamping Parking Meter 30 collections and sending sets of commands either directly from handheld implements or through a radio network.

The provisional patent application Serial No. 61/202201 filed 5 February 2009 which relates to multiple task specific processors such as an Application 2 2014268221 27 Nov 2014

Processor, a Meter Controller and a Radio Processor all controlled via a shared SPI bus and using rechargeable batteries and solar power sources for controlling and monitoring a vehicle parking meter system.

The provisional patent application 61/213995, filed 6 August 2009 and 5 entitled: Radar Vehicle Detection System, employs a specific form of radar technology to Remote Asset Management (RAM)) parking systems such as that disclosed in U.S. patent application Serial No. 11/802244, filed 21 May 2007.

The invention entitled: Parking System Employing RAM Techniques, Serial No. 11/802244, filed 21 May 2007, which relates to the management of vehicle 10 parking systems and, in particular, to such systems using remote management techniques for enhancing management efficiency arid to provide solutions to the parking system that could otherwise not be managed by: (1) sensing, collecting, recording and displaying data regarding aii aspects of the environment pertaining to the parking system; (2) analyzing the data collected to create actionable 15 outputs responsive to the needs of the public and the management of the parking systems; (3) communicating with the various parking system components; and (4) receiving feedback to perform requested operations for the parking system.

The provisional patent application Serial No. 61-213768, entitled: Meteriess Remote Parking Monitoring System, filed 6 August 2009 relates to: (1) 20 using Radio Frequency Identification tags (RFID) for permitting in a parking lot to identify valid parkers from violators of permitted parking; (2) employing space-by-space vehicle detection in addition to RFID equipped permits; (3) employing a combined RFID permitting system with vehicle detection into a RAM system for Parking Management; (4) transmitting all proximate RFID tags read by any RFID-25 reader in the Meteriess Remote Parking Monitoring System; and (5) a version of the foregoing systems that uses the same technology for a paid parking environment. SUMMARY OF THE INVENTION Using RFID tags to identify parking classification 30 The problem solved relates to the fact that various parking lots may be used by various types of occupants with varying desired use profiles. For example, a university parking area may be used by both instructors, students housed on campus and commuting students. The university may wish to grant 3 2014268221 27 Nov 2014 instructors unlimited parking privileges, limit commuting students parking to 6 hours at a time and allow students housed on campus a maximum of 90 minutes of parking at a rime. These varying limits can cause difficulty in determining If a vehicle, as noted by vehicle presence detectors has exceeded, the allowable time 5 granted to the individual motorist.

The solution is that each RFID tag is recorded using its unique number in a data base in the Command and Control Interface (CCi) reference in the aforementioned RAM patent. This data record would also contain information about the motorist to whom it was issued and the classification of permit that was 10 issued to them. When the RFID tag is read by the remote space monitoring system, its unique ID number is transmitted to the CCI. This unique number is then cross-referenced by the CCI to determine what kind of permit the motorist in the space was issued. The type of motorist is then cross-referenced against a set of data records outlining the limits for each location and each type of motorist. A 15 violation notice, can then be generated and transmitted as needed to enforcement personnel once the established time limit has been exceeded.

Use of RFID tags to allow temporary exemptions to individuals for purposes of special events, temporary injury or other short term allowances for special parking privileges 20 The problem is that individual motorists, in some cases, are granted special parking privileges for a specific amount of time. The reasons can vary from a temporary physical injury to a special event. Such situations create a number of falsely identified violations in a meterless parking system.

The solution is that either groups of permits or even individual permits can 25 be granted a special policy to grant special privileges to park in spaces otherwise unavailable to them (i.e. handicapped spaces, spaces normally reserved for commuting students, etc.) for a specified time. A record can be made that associates the unique RFID tag numbers to specific time limits and locations. Such assignments operate only for the time desired by the parking managers. 30 Using RFID tags to identify unique customers and effect payment against a parking account

The problem is that Meterless Parking installations do not lend themselves to allowing users to pay for time parked based on usage. Without meters, users 2014268221 27 Nov 2014 4 must either purchase open-ended permits or the manager of the parking lot must employ attendants to monitor the entrance and exits of the parking area to allow users to pay only for the time they use the lot.

The solution is that by using the unique ID from each RFID tag, the unique 5 motorist in each spot can be definitely identifies as well as the exact arrival and departure time. The data transmitted by the meterless remote parking monitoring system can be compared with information stored in the Command and Control Interface (CCI) that identifies the motorist to whom the RFID permit was issued. This information can then charge an account associated with the motorist for the 10 time that the motorist occupied the space. The account used to charge parking fees can be either an account set up and funded with a credit balance on behalf of the motorist ahead of time or a credit or bank account authorized by the motorist to which the fees can be charged directly. The rates and policies for each location and motorist type would be stored in additional tables in databases 15 accessed by the CCI to assure the correct fee is charged based both on the motorist in question (should different classes of motorist have different rates) and the location in which they parked.

Using RFID tags to identify unique customers and effect automatic issuance of parking citations 20 The problem is that even with remote monitoring of meterless parking spaces, deploying an individual is still needed to issue a citation to the motorist.

The solution is that the unique ID of the RFID tag used by a motorist can be cross-referenced against the motorist data in the data bases accessed by the Command and Control Interface (CCI) to determine the mailing address at each 25 violating motorist. Using this information, a parking violation can be issued by mailing a citation notice to the motorist’s mailing address. Additionally, if a parking manager so chooses, permits of those individuals with some number of outstanding violations can be flagged as suspended and invalid for use. This would allow the manager to take corrective action such as towing or immobilizing 30 the vehicle to cause the motorist to respond to the outstanding citations. 4a

In one aspect the present invention provides a remote meterless parking monitoring system including: at least one vehicle detector associated with at least one parking space; an RFID reader coupled to the at least one vehicle detector, the RFID reader being arranged to read an RFID tag of the at least one parking space; and a Command and Control Server responsive to data, received through a gateway, from the at least one vehicle detector and the RFID reader; where the remote meterless parking monitoring system is programmed so that the at least one vehicle detector detecting a new vehicle causes the RFID reader to wake and the RFID reader is programmed to read the RFID tag in a reading range of the RFID reader and communicate data from the RFID tag to the Command and Control Server, where the command and control server includes a Parking Policy Database and a Motorist Database and is configured to, upon arrival of the new vehicle in the at least one parking space, cross reference the data from the at least one vehicle detector and the RFID reader with a status of each parking space and an ID from a motorist RFID tag according to the Parking Policy Database and identify a motorist through the Motorist Database, and determine a parking space location and time allowance of the at least one parking space from an associated policy in the Policy Database and a vehicle payment account balance in the Motorist Database for the motorist.

In another aspect the present invention provides a remote meterless parking monitoring system including a plurality of individual parking spaces, including: a plurality of vehicle detector and RFID units for monitoring the status of the individual parking spaces; at least one Gateway device responsive to said plurality of vehicle detector and RFID units; and a Command and Control Server responsive to data from the vehicle detector and RFID units via the at least one gateway, the Command and Control Server including a Parking Policy Database and a Motorist database and being configured to, upon arrival of a vehicle in one of the plurality of individual parking 2014268221 27 Nov 2014 4b spaces, cross reference data with the status of each individual parking space and an ID from a motorist RFID tag according to the Parking Policy Database, identify a motorist through the Motorist Database and determine a space and time allowance from an associated policy in the Parking Policy Database and a vehicle 5 payment account balance in the Motorist Database for the motorist. 5 2014268221 27 Nov 2014 BRIEF DESCRIPTION OF THE DRAWINGS Figure 1 outlines the components established ’in the provisional patent application Serial No. 61/2137868 for a remote meterless parking monitoring system; 5 Figure 2 illustrates a flow diagram of a sample process by which motorists may be associated with a particular parking policy;

Figure 3 illustrates a flow diagram of a sample process by which motorists may be associated with a particular parking policy; and [Figure 4 is a flow diagram of a process for identifying violations by the 10 system and then automatically cited when the embodiment of the application allows.

DETAILED DESCRIPTION

With respect to Figure 1, elements 1, 2 and 3 represent a plurality of vehicle detector/RFID reader devices which are monitoring the status of individual 15 parking spaces. They communicate with one or more Gateway devices (such as Ceiluiar Gateway 4). The device pictured in this diagram is one which connects to the internet via a cellular connection, but it is understood that gateways can connect to the internet 5 using any of a number of connection technologies as conditions would merit. Data is passed along to the Command and Control Server 20 6 from the internet 5. While not shown, or specifically required, the connection from the Vehicle Detector/R units 1, 2 and 3to the Command and Control Server 6 can employ numerous security provisions including, but not limited to, encryption of data, Virtual Private Networks (VPNs), firewails and authenticated connections. Once the data is transmitted to the Command and Control Server 6, 25 the status of each space and the ID from the motorist’s RFID tag can be used to cross reference data according to the Policy database 8 regarding the spaces reporting an updating status and the motorist - who is identified by the RFID tag’s ID number through the Motorist Database 7. The data is processed as seen in Figure 2 and any alerts for enforcement dispatched via connections to the mobile 30 computers 9 in use by enforcement personnel and/or used to create automated citation notices for mailing to the violating motorists.

Figure 2 illustrates a flow diagram of a sample process by which motorists may be associated with a particular parking policy. This process starts at Start 2014268221 27 Nov 2014 6

Space Policy Assignment component 10 after which the user determines if the policy desired already exists in the policy database 11. If the policy exists, the process continues directly to the step 13. Otherwise the process first passes to Create Policy Profile in Policy Database step 12 where the desired policy is 5 created before proceeding to step 13. In step 13, the motorist is chosen from the existing motorists in the motorist database or created if they do not exist, in step 14, the proper space policy is selected for the motorist. In step 15, the spaces, lots of other types of groupings are assigned to the motorist so that space restrictions can be applied. In step 16, the time frames for the policy assignment 10 are defined so that the assignment can be applied to begin and/or cancelled in the future without further intervention. The record is saved to an assignment database in step 17 before finishing the process in step 18.

While this is a sample of how a policy might be created, further embodiments are envisioned in which default policies could be assigned to 15 motorists and alternative policies could be applied for short periods of time by adding notations to the assignment records as to which policy is currently active on a dynamic basis by the Command and Control Interface.

With respect to Figure 3, the process starts at step 19 when a vehicle arrives in the parking space. This causes the RFID reader to be awoken in step 20 20. Ail of the RFID tags in the reading range of the reader to be read in step 21 and the results transmitted to the Command and Control Server in step 22. The Command and Control Server then determines the proper RFID tag to associate with the newly arrived motorist as laid out in the Meterless Remote Parking Monitoring System, provisional patent Serial NO. 61/213768/ in step 23. The 25 results of the RFID tag to motorist association may encounter situations where there is no tag to associate with the newly arrived motorist. This is determined at step 24 and if no tag is associated with the motorist, a violation alert is issued in step 28. Otherwise, the motorist’s identity is determined from the Motorist database in step 25 and the current Policy assignment is determined for that 30 motorist by examining the record policy association records in step 26. The motorist’s space allowances are checked to see if their permit applies to the space in which they have parked in step 27. in the case that a motorist is not 2014268221 27 Nov 2014 7 permitted in the space, a violation alert is issued to enforcement personnel in step 28.

For motorists permitted to park in the associated space, further monitoring is enacted. First, the policy is examined to determine if a time limit exists for 5 parking in step 34. if a time limit exists, the spaces’ maximum occupancy time is set to equal that time limit in step 35. Otherwise, it is set to “No Limit” in step 36. Then it is determined if the policy requires monetary payment for time in step 37. if the policy requires payment, the motorist’s account balance is checked to determine the maximum time that can be purchased with the value in their 10 account in step 38 by dividing the balance by the rate for the space. This value is used to set the occupant’s maximum time. If no payment is required by the policy, the occupant’s maximum time is set to “No Limit” in step 39. The Maximum occupant time is then compared to the space’s maximum occupancy time and reset to equal the space’s maximum occupancy time if is shorter in step 40. 15 Once set, the status of the space is continuously monitored in a loop untii the motorist departs the space (steps 41 - 43). If at any time, the current time of day is after the allowable time - defined as the time of the motorists am'val plus the maximum occupant time as determined in steps 40-42, a violation alert is generated and issued to enforcement personnel in step 28. 20 Once enforcement personnel receive a violation alert on their mobile computers in step 28, they report to the space to verify the RFID Permit in the vehicle against the reported RFID tag ID (or lack of permit) generated by the system in step 29.

If the system has generated a valid violation in step 30 as determined by 25 comparing the system reported RFID tag ID to the permit in the vehicle, the enforcement person issues a citation to the motorist or boots the vehicle in step 31 and sends the information related to that citation/boot back to the Command and Control Server in step 32 using the mobile computer.

If, instead, the system generated a potentially false violation because an 30 incorrect RFID tag ID was associated with the space or the tag could not be read at all, the enforcement office records the number visible on the permit in step 33 and transmits it back to the Command and Control Server. From there, the 8 2014268221 27 Nov 2014 process resumes at step 25 and any valid violations alerted as previously described.

Figure 4 illustrates how violations are identified by the system and then automatically cited when the embodiment of the application allows. The process 5 starts at step 44 when a vehicle arrives in the space. This causes the RFID reader to be awoken in step 45. Ail of the RFID tags in the reading range of the reader to be read in step 46 and the results transmitted to the Command and Control Server in step 47. The Command and Control Server then determines the proper RFID tag to associate with the newly arrived motorist as laid out in the 10 Remote Parking Monitoring System (provisional patent Serial No. 61-213768) in step 48. The results of the RFID tag to motorist association may encounter situations where no tag to associate with the newly arrived motorist. This is determined at step 49, and if no tag is associated with the motorist, a violation alert is issued in step 53. 15 Once enforcement personnel receive a violation alert on their mobile computers in step 53, they report to the space to verify the RFID permit in the vehicle against the reported RFID tag ID (or lack of permit) generated by the system in step 54.

If the system has generated a valid violation in step 55 as determined by 20 comparing the system reported RFID tag ID to the permit in the vehicle, the enforcement person issues a citation to the motorist or boots the vehicle in step 56 and sends the information related to that citation/boot back to the Command and Control Server in step 57 using the mobile computer.

If, instead, the system generated a potentially false violation because an 25 . incorrect RFID tag !D was associated with the space or the tag could not be read at all, the enforcement officer records the number visible on the permit in step 58 and transmits it back to the Command and Control Server. From here the process resumes at step 50 and any valid violations are alerted as previously described.

If a tag is successfully associated with the new motorist, his identity is 30 determined from the Motorist database in step 50 and the current Policy assignment is determined for that motorist by examining the record policy association records in step 51. The motorist’s space allowances are checked to see if their permit applies to the space in which they have parked in step 52. In 2014268221 27 Nov 2014 9 the case that a motorist is not permitted in the space, a citation is generated and mailed to the motorist based on the address information stored in the motorist data base in step 69.

For motorists permitted to park in the associated space, further monitoring 5 is enacted. First, the policy is examined to determine if a time limit exists for parking in step 59 if a time limit exists, the space’s maximum occupancy time is set equal to that time limit in step 60. Otherwise, it is set to “No Limit” in step 61. Then it is determined if the policy requires monetary payment for time in step 62. If the policy requires payment, the motorist’s account balance is checked to 10 determine the maximum time that can be purchased with the value in their account in step 63 by dividing the balance by the rate for the space. This value is used to set the occupant’s maximum time. If no payment is required by the policy, the occupant’s maximum time is set to “No Limit” in step 64. The maximum occupant time is then compared to the maximum occupancy time of the space 15 and re-set to equal the maximum occupancy time of the space if it is shorter in step 65.

Once set, the status of the space is continuously monitored in a loop until the motorist departs the space (steps 66 - 68). If at any time, the current time of day is after the allowable time - defined as the time of the motorist’s arrival plus 20 the maximum occupant time as determined in step 67, a citation is generated and mailed to the motorist based on the address on the address information stored in the motorist data base in step 69. 25

Claims (7)

1. THE CLAIMS DEFINING THE INVENTION ARE AS FOLLOWS:

   1. A remote meterless parking monitoring system including: at least one vehicle detector associated with at least one parking space; an RFID reader coupled to the at least one vehicle detector, the RFID reader being arranged to read an RFID tag of the at least one parking space; and a Command and Control Server responsive to data, received through a gateway, from the at least one vehicle detector and the RFID reader; where the remote meterless parking monitoring system is programmed so that the at least one vehicle detector detecting a new vehicle causes the RFID reader to wake and the RFID reader is programmed to read the RFID tag in a reading range of the RFID reader and communicate data from the RFID tag to the Command and Control Server, where the command and control server includes a Parking Policy Database and a Motorist Database and is configured to, upon arrival of the new vehicle in the at least one parking space, cross reference the data from the at least one vehicle detector and the RFID reader with a status of each parking space and an ID from a motorist RFID tag according to the Parking Policy Database and identify a motorist through the Motorist Database, and determine a parking space location and time allowance of the at least one parking space from an associated policy in the Policy Database and a vehicle payment account balance in the Motorist Database for the motorist.
2. 2. The remote meterless parking monitoring system of claim 1, further including a plurality of Mobile Computers responsive to said Command and Control Server and in use by an enforcement personnel for creating automated citation notices for mailing to a violating motorist.
3. 3. The remote meterless parking monitoring system of claim 1, where the command and control server is configured to: determine if a Parking Policy Profile exists in the Parking Policy database; if the Parking Policy Profile exists, select the Motorist associated with the Parking Policy Profile from an existing Motorist List in the Motorist database; create an Entry in the Motorist database for a new Motorist in the event the motorist is not in the motorist database; select a Space Policy for the Motorist; and select at least one of the Parking Spaces and a Space grouping allowed for the Motorist.
4. 4. The remote meterless parking monitoring system of claim 3, where the command and control server is further configured to: set a beginning and an ending effective date; save a Policy Assignment Record; and end a Space Policy Assignment.
5. 5. The remote meterless parking monitoring system of claim 3, wherein, if the Parking Policy for the Motorist does not exist in the Parking Policy database, the command and control server is configured to create the Parking Policy profile in the Parking Policy database.
6. 6. A remote meterless parking monitoring system including a plurality of individual parking spaces, including: a plurality of vehicle detector and RFID units for monitoring the status of the individual parking spaces; at least one Gateway device responsive to said plurality of vehicle detector and RFID units; and a Command and Control Server responsive to data from the vehicle detector and RFID units via the at least one gateway, the Command and Control Server including a Parking Policy Database and a Motorist database and being configured to, upon arrival of a vehicle in one of the plurality of individual parking spaces, cross reference data with the status of each individual parking space and an ID from a motorist RFID tag according to the Parking Policy Database, identify a motorist through the Motorist Database and determine a space and time allowance from an associated policy in the Parking Policy Database and a vehicle payment account balance in the Motorist Database for the motorist.
7. 7. The remote meterless parking monitoring system of claim 6, further including a plurality of Mobile Computers responsive to said Command and Control Server and in use by an enforcement personnel for creating automated citation notices for mailing to a violating motorist.