PROXIMITY DETECTION USING SENSORS BASED ON A PROGRAMMABLE MULTI-ARRAY STRUCTURES

• US 20140324527A1
• Filed: 01/17/2014
• Published: 10/30/2014
• Est. Priority Date: 04/25/2013
• Status: Abandoned Application

• Current Assignee: ReadMe Systems, Inc.
• Original Assignee: ReadMe Systems, Inc.
• Inventors: Das, Santanu, Kulkarni, Raghavendra, Patel, Shirish
• Application Number:
  US14/158,772
• Publication Number:
  US 20140324527A1
• Time in Patent Office: Days
• US Class Current: 705/7.29
• CPC Class Codes: G06F 8/00 Arrangements for software engineering testing or debugging G06F11/36; administrative, planning or organisation aspects of software project management G06Q10/06
• CPC Class Codes: G06Q 30/0261 based on user location
• CPC Class Codes: G06Q 30/0267 Wireless devices
• CPC Class Codes: H04L 2101/622 Layer-2 addresses, e.g. medium access control [MAC] addresses
• CPC Class Codes: H04L 67/306 User profiles
• CPC Class Codes: H04L 67/34 involving the movement of software or configuration parameters network booting or remote initial program loading [RIPL] G06F9/4416
• CPC Class Codes: H04W 4/50 Service provisioning or reconfiguring
• CPC Class Codes: H04W 4/80 Services using short range communication, e.g. near-field communication [NFC], radio-frequency identification [RFID] or low energy communication

Abstract

Embodiments of the present disclosure is directed to the use of spatially diverse multiple antenna structures and associated radio transmitters and receivers in a sensor for accurate proximity detection. In a retail environment, a system based on a network of such (smart) sensors can accurately detect presence and location of a shopper'"'"'s wireless mobile device as the shopper moves along the shopping aisles carrying the wireless mobile device (e.g. smartphone). Based on the location of the shopper and the duration of the shopper stopping in front of a product shelf in an aisle, embodiments can engage the shopper (through the wireless mobile device) in transaction-oriented interactions using the ‘sense, analyze, and connect’ capability of the various embodiments described herein. Such interactions result in increased revenue for the retailers as well as better understanding of the shopping behavior of the retail shoppers. Such understanding can be embodied in improved analytics.

Claims

1. A system, comprising:

(a) a first communication network;

(b) a computer server coupled to the first communication network and the computer server coupled to a database;

(c) one or more gateway sensor nodes coupled to the computer server using the first communication network;

(d) a second communication network and a third communication network coupled to the one or more gateway sensor nodes;

(e) a wireless mobile device;

(f) wherein the one or more gateway sensor nodes are configured to;

(i) detect the wireless mobile device dynamically over the second communication network;

(ii) collect a device identifier from the wireless mobile device and record a timestamp;

(iii) transmit the timestamp and the device identifier of the wireless mobile device to the computer server;

(iv) transmit a network connectivity offer notification, request for shopper profile information and tag module download offer notification to the wireless mobile device;

(v) receive instructions from the wireless mobile device to couple the wireless mobile device to the second communication network and to download a tag module;

(vi) transmit a link to the wireless mobile device to download the tag module such that the wireless mobile device becomes a tagged wireless mobile device when the tag module is downloaded;

(g) one or more personal communication networks;

(h) a first set of data sensors coupled to the one or more gateway sensor nodes over the third communication network, each of the first set of data sensors having, a media access control (MAC) identifier, a processor and a memory device, and each of the first set of data sensor generating a corresponding personal communication network using a directional antenna;

(i) wherein each data sensor is configured to;

(i) detect the tagged wireless mobile device over of the one or more personal communication networks;

(ii) request and receive the device identifier from the tagged wireless mobile device;

(iii) transmit the device identifier of the tagged wireless mobile device, the MAC identifier of data sensor and a timestamp to the computer server;

(j) wherein the computer server is configured to at least one of generate and update shopper information in the database with the received timestamp and the device identifier of the tagged wireless mobile device, a MAC identifier and a retail product identifier of each of the first set of data sensors.

2. The system of claim 1, the system further comprising an incentive data sensor coupled to the one or more gateway sensor nodes over the second communication network, the incentive data sensor having, a MAC identifier, a processor and a memory device, and incentive data sensor generates a corresponding personal communication network,

wherein the incentive data sensor is configured to:

(i) detect the tagged wireless mobile device over one or more personal communication networks;

(ii) request and receive the device identifier from the tagged wireless mobile device;

(iii) determine that the tagged wireless mobile device is in communication with the incentive data sensor exceeding a predetermined threshold of time;

(iv) transmit the device identifier of the tagged wireless mobile device, the MAC identifier of the incentive data sensor and a timestamp to the computer server;

wherein the computer server is configured to;

(i) set up a communication session with the tagged wireless mobile device using at least one of a gateway sensor node and the incentive data sensor;

(ii) transmit a notification to the tagged wireless mobile device requesting interaction to offer at least one of the product information and the electronic product purchase incentive.

3. The system of claim 2, wherein the computer server is further configured to:

(i) receive one or more instructions from the tagged wireless mobile device to transmit at least one of the product information and the electronic product purchase incentive;

(ii) transmit at least one of the product information and the electronic product purchase incentive to the tagged wireless mobile device.

4. A system, comprising:

(a) a wireless mobile device transmitting and receiving one or more radio signals;

(b) one or more sensor devices each having an antenna array, each sensor device detecting the radio signal from the wireless mobile device using the antenna array, the one or more sensor devices is at least one of a gateway sensor node, data sensor, and an aisle marker sensor wherein;

(i) each sensor device includes;

(a) one or more radio transmitters;

(b) one or more radio receivers;

(c) a control unit coupled to the one or more radio transmitters and the one or more radio receivers, the control unit providing a time slot scheme for the one or more radio transmitters to radiate radio signals and for the one or more radio receivers to detect radio signals;

(ii) the antenna array is coupled to the one or more radio transmitters, one or more radio receivers, and control unit, the antenna array including one or more patch antennas;

(iii) each patch antenna detects the radio signal from the wireless mobile device wherein the control unit processes a detected power level associated with the detected radio signal from each patch antenna to determine a distance of the wireless mobile device from a sensor device of the one or more sensor devices wherein the distance is used to determine a location of the wireless mobile device.

5. The system of claim 4, wherein:

(a) a data sensor of the one or more sensor devices detects the wireless mobile device by having the control unit of the data sensor adjust sensitivity, directivity, and power level of at least one patch in the antenna array of the data sensor to a high level to determine a first distance of the wireless mobile device from the data sensor wherein the antenna array includes one or more patch antennas;

(b) the data sensor detects the wireless mobile device by having the control unit of the data sensor adjusts sensitivity, directivity, and power level of at least one patch of the antenna array of the data sensor to a low level to determine a second distance of the wireless mobile device from the data sensor wherein the second distance is the distance used to determine the location of the wireless mobile device.

6. The system of claim 4, wherein a gateway sensor node of the one or more sensor devices and the antenna array in the gateway sensor node has a hexagonal patch antenna configuration wherein hexagonal patch antenna configuration is coupled to six radio transmitters and six radio receivers wherein:

(a) four of the six radio transmitters are multiple input multiple output (MIMO) radio transmitters and four of the six radio receivers are MIMO radio receivers to generate a directional radiation and reception pattern for proximity sensing;

(b) two of the six radio transmitters and two of the six radio receivers generate an omnidirectional radiation and reception pattern for communication.

7. The system of claim 6, wherein:

(a) the gateway sensor node detects the wireless mobile device by having the control unit of the data sensor adjust sensitivity, directivity, and power level of at least one patch of the antenna array of the gateway sensor node to a high level to determine a first distance of the wireless mobile device from the gateway sensor node;

(b) the gateway sensor node detects the wireless mobile device by having the control unit of the data sensor adjusts sensitivity, directivity, and power level of at least one patch of the antenna array of the gateway sensor node to a low level to determine a second distance of the wireless mobile device from the gateway sensor node wherein the second distance is the distance used to determine the location of the wireless mobile device.

8. The system of claim 4 wherein the antenna array of a data sensor of the one or more sensor devices has a hexagonal patch configuration wherein hexagonal patch antenna configuration has six sectors each sector having a patch antenna that is a directional antenna.

9. The system of claim 8, wherein:

(a) a first patch antenna of the data sensor of the one or more sensor devices detects the wireless mobile device by having the control unit of the data sensor adjust sensitivity, directivity, and power level of the first patch antenna of the data sensor to a high level to determine a first distance of the wireless mobile device from the data sensor;

(b) the first patch antenna of the data sensor detects the wireless mobile device by having the control unit of the data sensor adjust sensitivity, directivity, and power level of the first patch antenna of the data sensor to a low level to determine a second distance of the wireless mobile device from the data sensor wherein the second distance is the distance used to determine the location of the wireless mobile device.

10. The system of claim 9, wherein the control unit of the data sensor determines that the second distance is less than the first distance and maintains the sensitivity, directivity, and power level of the first patch antenna of the data sensor to the low level wherein the second distance is the distance used to determine the location of the wireless mobile device.

11. The system of claim 8, wherein:

(a) a first patch antenna of a data sensor of the one or more sensor devices detects the wireless mobile device by having the control unit of the data sensor adjust sensitivity, directivity, and power level of the first patch antenna of the data sensor to a high level to determine a first distance of the wireless mobile device from the data sensor;

(b) the control unit of the data sensor adjusts sensitivity, directivity, and power level of the first patch antenna of the data sensor to a low level and does not detect a presence of the wireless mobile device.

12. The system of claim 11, wherein:

(a) a second patch antenna of the data sensor detects the wireless mobile device by having the control unit of the data sensor adjusts sensitivity, directivity, and power level of the second patch antenna of the data sensor to the high level to determine a third distance of the wireless mobile device from the data sensor;

(b) the second patch antenna of the data sensor detects the wireless mobile device by having the control unit of the data sensor adjusts sensitivity, directivity, and power level of the second patch antenna of the data sensor to the low level to determine a fourth distance of the wireless mobile device from the data sensor wherein the fourth distance is the distance used to determine the location of the wireless mobile device.

13. The system of claim 12, wherein the control unit of the data sensor determines that the fourth distance is less than the third distance and maintains the sensitivity, directivity, and power level of the second patch antenna of the data sensor to the low level wherein the fourth distance is the distance used to determine the location of the wireless mobile device.

14. The system of claim 11, wherein:

(a) a second patch antenna of the data sensor detects the wireless mobile device by having the control unit of the data sensor adjusts sensitivity, directivity, and power level of the second patch antenna of the data sensor to the high level to determine a third distance of the wireless mobile device from the data sensor;

(b) the control unit of the data sensor adjusts sensitivity, directivity, and power level of the second patch antenna of the data sensor to a low level and does not detect a presence of the wireless mobile device.

15. The system of claim 14, wherein:

(a) a third patch antenna of the data sensor detects the wireless mobile device by having the control unit of the data sensor adjusts sensitivity, directivity, and power level of the third patch antenna of the data sensor to the high level to determine a fifth distance of the wireless mobile device from the data sensor;

(b) the third patch antenna of the data sensor detects the wireless mobile device by having the control unit of the data sensor adjusts sensitivity, directivity, and power level of the third patch antenna of the data sensor to the low level to determine a sixth distance of the wireless mobile device from the data sensor wherein the sixth distance is the distance used to determine the location of the wireless mobile device.

16. The system of claim 15, wherein the control unit of the data sensor determines that the sixth distance is less than the fifth distance and maintains the sensitivity, directivity, and power level of the third patch antenna of the data sensor to the low level wherein the sixth distance is the distance used to determine the location of the wireless mobile device.

17. The system of claim 4, wherein the one or more radio transmitters and the one or more radio receivers use at least one of WiFi protocols and BLE protocols for proximity sensing and communication.

18. The system of claim 4, wherein a gateway sensor node of the one or more sensor devices provide Internet access, on request, to the wireless mobile device and provides an offer to download a tag module to the wireless mobile device.

19. The system of claim 18, wherein the wireless mobile device becomes a tagged wireless mobile device when the tag module is downloaded.

20. The system of claim 18, wherein the wireless mobile device is designated as an untagged wireless mobile device when the tag module is not downloaded onto the wireless mobile device.

21. The system of claim 4, further comprising:

(a) a database;

(b) a computer server coupled to the database;

(c) one or more communication networks coupled to the computer server and the one or more sensor devices, wherein the one or more sensor devices collects a device identifier from the wireless mobile device and transmits the device identifier of the wireless mobile device, over the one or more communication networks, to the computer server to be stored in the database.

22. The system of claim 21, wherein the location of the wireless mobile device is determined by the computer server through triangulation based on the device identifier of the wireless mobile device and the distance of the wireless mobile device provided by three or more sensor devices.

23. The system of claim 22, wherein the computer server determines that the location of the wireless mobile device is substantially near a product based on a retail store map stored in the database indicating the location of the product.

24. The system of claim 21, wherein the location of a tagged wireless mobile device is determined by the computer server receiving the distance of the wireless mobile device from a data sensor of the one or more sensor devices and the device identifier of the data sensor.

25. The system of claim 24, wherein the computer server determines that the location of the tagged wireless mobile device is substantially near a product based on a retail store map stored in the database indicating the location of the product and the device identifier of the data sensor.

26. The system of claim 23, wherein:

(a) the data sensor determines that the untagged wireless mobile device is in communication with the data sensor within a predetermine threshold of distance and a duration exceeding a predetermined threshold of time;

(b) the data sensor provides the device identifier for the data sensor to the computer server;

(c) the computer server determines the product information associated with each data sensor based on the device identifier of the data sensor;

(d) the computer server generates analytic data based on the device identifier of the untagged wireless mobile device and the product information.

27. The system of claim 22, wherein:

a gateway sensor node of the one or more sensor devices generates a communication session between a computer server and the tagged wireless mobile device and provides at least one of a product information and an electronic product purchase incentive to a shopper when the gateway sensor node determines that the tagged wireless mobile device is substantially near a product within a predetermine threshold of distance and a duration exceeding a predetermined threshold of time.

28. The system of claim 24, wherein:

(a) the data sensor determines that the tagged wireless mobile device is in communication with the data sensor within a predetermine threshold of distance and a duration exceeding a predetermined threshold of time;

(b) the data sensor generates a communication session between the computer server and the tagged wireless mobile device to provide at least one of product information and electronic product purchase incentive associated with the data sensor to a shopper.

29. The system of claim 20, wherein:

(a) a subset of sensor devices of the one or more sensor devices located substantially near a point-of-sale (POS) terminal collects the device identifier from the untagged wireless mobile device and transmits the device identifier to the computer server;

(b) the computer server;

(i) receives the device identifier of the untagged wireless mobile device from the subset of sensor devices, and purchase information and shopper identity information from the POS terminal;

(ii) associates the device identifier and the shopper identity information to create a unique binding that is stored in a database;

(iii) generates analytics information based on the device identifier, purchase information, shopper identity information, and the unique binding.

30. The system of claim 19, wherein:

(a) a subset of sensor devices of the one or more sensor devices located substantially near a point-of-sale (POS) terminal collects the device identifier from the tagged wireless mobile device and transmits the device identifier to the computer server;

(b) the computer server;

(i) receives the device identifier of the tagged wireless mobile device from the subset of sensor devices, and purchase information and shopper identity information from the POS terminal;

(ii) associates the device identifier and the shopper identity information to create a unique binding that is stored in a database;

(iii) generates analytics information based on the device identifier, purchase information, shopper identity information, and the unique binding.

31. A gateway sensor node device, comprising:

(a) one or more radio transmitters;

(b) one or more radio receivers;

(c) a control unit coupled to the one or more radio transmitters and the one or more radio receivers, the control unit providing a time slot scheme for the one or more radio transmitters to radiate radio signals and for the one or more radio receivers to detect radio signals;

(d) antenna array wherein;

(i) the antenna array is coupled to the one or more radio transmitters, one or more radio receivers, and control unit, the antenna array including one or more patch antennas;

(ii) a patch antenna detects the radio signal from a wireless mobile device wherein the control unit processes a detected power level associated with the detected radio signal from the patch antenna to determine a distance of the wireless mobile device from the device wherein the distance is used to determine a location of the wireless mobile device;

(iii) and the antenna array is configured to produce at least one of linear polarization and circular polarization.

32. The device of claim 31, wherein the antenna array has a hexagonal patch antenna configuration wherein hexagonal patch antenna configuration is coupled to six radio transmitters and six radio receivers wherein:

(a) four of the six radio transmitters are multiple input multiple output (MIMO) radio transmitters and four of the six radio receivers are MIMO radio receivers to generate a directional radiation and reception pattern for proximity sensing;

(b) two of the six radio transmitters and two of the six radio receivers generate an omnidirectional radiation and reception pattern for communication.

33. The device of claim 31, wherein:

(a) the device detects the wireless mobile device by having the control unit of the data sensor adjust sensitivity, directivity, and power level of at least one patch of the antenna array of the device to a high level to determine a first distance of the wireless mobile device from the device;

(b) the device detects the wireless mobile device by having the control unit of the data sensor adjusts sensitivity, directivity, and power level of at least one patch of the antenna array of the device to a low level to determine a second distance of the wireless mobile device from the device wherein the second distance is the distance used to determine the location of the wireless mobile device.

34. The device of claim 31, wherein the one or more radio transmitters and one or more radio receivers use at least one of WiFi protocols and BLE protocols for proximity sensing and communication.

35. The device of claim 31, wherein each patch antenna includes a patch, dielectric material plane, a ground plane, a feedpoint and a feedline fed through the feedpoint, wherein the patch has a length and a width wherein frequency, input impedance, sensitivity and the directivity of the patch antenna are based on at least one of the length and width of the patch, a dielectric constant of the dielectric material plane and a position of the feedpoint.

36. The device of claim 31, wherein the control unit:

(a) receives a detected power level of a radio signal from a wireless mobile device by each patch antenna of the antenna array;

(b) determines a weight assigned to each detected power level corresponding to each patch antenna;

(c) sums each weighted detected power level from each patch antenna.

(d) processes the sum of the weighted detected power level from each patch antenna to determine the radiation pattern and the distance of the wireless mobile device from the device, and the distance is used to determine a location of the wireless mobile device.

37. A data sensor device, comprising:

(a) one or more radio transmitters;

(b) one or more radio receivers;

(c) a control unit coupled to the one or more radio transmitters and the one or more radio receivers, the control unit providing a time slot scheme for the one or more radio transmitters to radiate radio signals and for the one or more radio receivers to detect radio signals;

(d) antenna array wherein;

(i) the antenna array is coupled to the one or more radio transmitters, one or more radio receivers, and control unit, the antenna array is a multipatch antenna including one or more patch antennas, each patch antenna configured to be a directional antenna;

(ii) each patch antenna;

(a) detects a radio signal from the wireless mobile device wherein the control unit processes a detected power level associated with the detected radio signal from each patch antenna to determine a distance of the wireless mobile device from the device wherein the distance is used to determine a location of the wireless mobile device.

38. The device of claim 37, wherein the antenna array is configured to produce at least one of linear polarization and circular polarization.

39. The device of claim 38, wherein:

(a) the device detects the wireless mobile device by having the control unit of the device adjust sensitivity, directivity, and power level of the antenna array of the device to a high level to determine a first distance of the wireless mobile device from the device;

(b) the device detects the wireless mobile device by having the control unit of the device adjusts sensitivity, directivity, and power level of the antenna array of the device to a low level to determine a second distance of the wireless mobile device from the device wherein the second distance is used to determine the location of the wireless mobile device.

40. The device of claim 37 wherein the antenna array of device has a hexagonal patch configuration wherein hexagonal patch antenna configuration has six sectors each sector having a patch antenna that is a directional antenna.

41. The device of claim 40, wherein:

(a) a first patch antenna of the device detects the wireless mobile device by having the control unit of the device adjust sensitivity, directivity, and power level of the first patch antenna of the device to a high level to determine a first distance of the wireless mobile device from the device;

(b) the first patch antenna of the device detects the wireless mobile device by having the control unit of the device adjusts sensitivity, directivity, and power level of the first patch antenna of the device to a low level to determine a second distance of the wireless mobile device from the device.

42. The device of claim 41, wherein the control unit of the device determines that the second distance is less than the first distance and maintains the sensitivity, directivity, and power level of the first patch antenna of the device to the low level.

43. The device of claim 40, wherein:

(a) a first patch antenna of the device detects the wireless mobile device by having the control unit of the device adjust sensitivity, directivity, and power level of the first patch antenna of the device to a high level to determine a first distance of the wireless mobile device from the device;

(b) the control unit of the device adjusts sensitivity, directivity, and power level of the first patch antenna of the device to a low level and does not detect a presence of the wireless mobile device.

44. The device of claim 43, wherein:

(a) a second patch antenna of the device detects the wireless mobile device by having the control unit of the device adjusts sensitivity, directivity, and power level of the second patch antenna of the device to the high level to determine a third distance of the wireless mobile device from the device;

(b) the second patch antenna of the device detects the wireless mobile device by having the control unit of the device adjusts sensitivity, directivity, and power level of the second patch antenna of the device to the low level to determine a fourth distance of the wireless mobile device from the device.

45. The device of claim 44, wherein the control unit of the device determines that the fourth distance is less than the third distance and maintains the sensitivity, directivity, and power level of the second patch antenna of the device to the low level.

46. The device of claim 43, wherein:

(a) a second patch antenna of the device detects the wireless mobile device by having the control unit of the device adjust sensitivity, directivity, and power level of the second patch antenna of the device to the high level to determine a third distance of the wireless mobile device from the device;

(b) the control unit of the device adjusts sensitivity, directivity, and power level of the second patch antenna of the device to a low level and does not detect a presence of the wireless mobile device.

47. The device of claim 46, wherein:

(a) a third patch antenna of the device detects the wireless mobile device by having the control unit of the device adjusts sensitivity, directivity, and power level of the third patch antenna of the device to the high level to determine a fifth distance of the wireless mobile device from the device;

(b) the third patch antenna of the device detects the wireless mobile device by having the control unit of the device adjusts sensitivity, directivity, and power level of the third patch antenna of the device to the low level to determine a sixth distance of the wireless mobile device from the device.

48. The device of claim 47, wherein the control unit of the device determines that the sixth distance is less than the fifth distance and maintains the sensitivity, directivity, and power level of the third patch antenna of the device to the low level.

49. The device of claim 37, wherein the one or more radio transmitters and the one or more radio receivers use at least one of WiFi protocols and BLE protocols for proximity sensing and communication.

50. The device of claim 37, wherein each patch antenna includes a patch, dielectric material plane, a ground plane, a feedpoint cutting across the patch, dielectric material and ground plane and a feedline fed through the feedpoint, wherein the patch has a length and a width wherein frequency, input impedance sensitivity and the directivity of the patch antenna are based on at least one of the length, and width of the patch, a dielectric constant of the dielectric material plane and a position of the feedpoint.

51. The device of claim 37, wherein the control unit:

(a) receives a detected power level of a radio signal from a wireless mobile device each patch antenna of the antenna array;

(b) determines a weight assigned to each detected power level corresponding to each patch antenna;

(c) sums each weighted detected power level from each patch antenna.

(d) processes the sum of the weighted detected power level from each patch antenna to determine the radiation pattern and distance of the wireless mobile device from the device, and the distance is used to determine a location of the wireless mobile device.

52. A method, comprising:

(a) transmitting and receiving one or more radio signals by a wireless mobile device;

(b) detecting, by one or more sensor devices each having an antenna array, the radio signal from the wireless mobile device using the antenna array, the one or more sensor devices is at least one of a gateway sensor node, data sensor, and an aisle marker sensor wherein;

(i) each sensor device includes;

(a) one or more radio transmitters;

(b) one or more radio receivers;

(c) a control unit coupled to the one or more radio transmitters and the one or more radio receivers, the control unit providing a time slot scheme for the one or more radio transmitters to radiate radio signals and for the one or more radio receivers to detect radio signals;

(ii) the antenna array is coupled to the one or more radio transmitters, one or more radio receivers, and control unit, the antenna array including one or more patch antennas;

(iii) each patch antenna detects the radio signal from the wireless mobile device wherein the control unit processes a detected power level associated with the detected radio signal from each patch antenna to determine a distance of the wireless mobile device from a sensor device of the one or more sensor devices wherein the distance is used to determine a location of the wireless mobile device.

53. The method of claim 52, wherein:

(a) a data sensor of the one or more sensor devices detects the wireless mobile device by having the control unit of the data sensor adjust sensitivity, directivity, and power level of at least one patch in the antenna array of the data sensor to a high level to determine a first distance of the wireless mobile device from the data sensor wherein the antenna array includes one or more patch antennas;

(b) the data sensor detects the wireless mobile device by having the control unit of the data sensor adjusts sensitivity, directivity, and power level of at least one patch of the antenna array of the data sensor to a low level to determine a second distance of the wireless mobile device from the data sensor wherein the second distance is the distance used to determine the location of the wireless mobile device.

54. The method of claim 52, wherein a gateway sensor node of the one or more sensor devices and the antenna array in the gateway sensor node has a hexagonal patch antenna configuration wherein hexagonal patch antenna configuration is coupled to six radio transmitters and six radio receivers wherein:

(a) four of the six radio transmitters are multiple input multiple output (MIMO) radio transmitters and four of the six radio receivers are MIMO radio receivers to generate a directional radiation and reception pattern for proximity sensing;

(b) two of the six radio transmitters and two of the six radio receivers generate an omnidirectional radiation and reception pattern for communication.

55. The method of claim 54, further comprising:

(a) detecting, by the gateway sensor node, the wireless mobile device by having the control unit of the data sensor adjust sensitivity, directivity, and power level of at least one patch of the antenna array of the gateway sensor node to a high level to determine a first distance of the wireless mobile device from the gateway sensor node;

(b) detecting, the gateway sensor node, the wireless mobile device by having the control unit of the data sensor adjusts sensitivity, directivity, and power level of at least one patch of the antenna array of the gateway sensor node to a low level to determine a second distance of the wireless mobile device from the gateway sensor node wherein the second distance is the distance used to determine the location of the wireless mobile device.

56. The method of claim 52, wherein the antenna array of a data sensor of the one or more sensor devices has a hexagonal patch configuration wherein hexagonal patch antenna configuration has six sectors each sector having a patch antenna that is a directional antenna.

57. The method of claim 56, further comprising:

(a) detecting, by a first patch antenna of the data sensor of the one or more sensor devices, the wireless mobile device by having the control unit of the data sensor adjust sensitivity, directivity, and power level of the first patch antenna of the data sensor to a high level to determine a first distance of the wireless mobile device from the data sensor;

(b) detecting, by the first patch antenna of the data sensor, the wireless mobile device by having the control unit of the data sensor adjust sensitivity, directivity, and power level of the first patch antenna of the data sensor to a low level to determine a second distance of the wireless mobile device from the data sensor wherein the second distance is the distance used to determine the location of the wireless mobile device.

58. The method of claim 57, further comprising determining, by the control unit of the data sensor, that the second distance is less than the first distance and maintains the sensitivity, directivity, and power level of the first patch antenna of the data sensor to the low level wherein the second distance is the distance used to determine the location of the wireless mobile device.

59. The method of claim 56, further comprising:

(a) detecting, by a first patch antenna of a data sensor of the one or more sensor devices, the wireless mobile device by having the control unit of the data sensor adjust sensitivity, directivity, and power level of the first patch antenna of the data sensor to a high level to determine a first distance of the wireless mobile device from the data sensor;

(b) adjusting, by the control unit of the data sensor, sensitivity, directivity, and power level of the first patch antenna of the data sensor to a low level and does not detect a presence of the wireless mobile device.

60. The method of claim 59, further comprising:

(a) detecting, by a second patch antenna of the data sensor, the wireless mobile device by having the control unit of the data sensor adjusts sensitivity, directivity, and power level of the second patch antenna of the data sensor to the high level to determine a third distance of the wireless mobile device from the data sensor;

(b) detecting, by the second patch antenna of the data sensor, the wireless mobile device by having the control unit of the data sensor adjusts sensitivity, directivity, and power level of the second patch antenna of the data sensor to the low level to determine a fourth distance of the wireless mobile device from the data sensor wherein the fourth distance is the distance used to determine the location of the wireless mobile device.

61. The method of claim 60, further comprising determining, by the control unit of the data sensor, that the fourth distance is less than the third distance and maintains the sensitivity, directivity, and power level of the second patch antenna of the data sensor to the low level wherein the fourth distance is the distance used to determine the location of the wireless mobile device.

62. The method of claim 59, further comprising:

(a) detecting, by a second patch antenna of the data sensor, the wireless mobile device by having the control unit of the data sensor adjusts sensitivity, directivity, and power level of the second patch antenna of the data sensor to the high level to determine a third distance of the wireless mobile device from the data sensor;

(b) adjusting, by the control unit of the data sensor, sensitivity, directivity, and power level of the second patch antenna of the data sensor to a low level and does not detect a presence of the wireless mobile device.

63. The method of claim 62, further comprising:

(a) detecting, by a third patch antenna of the data sensor, the wireless mobile device by having the control unit of the data sensor adjusts sensitivity, directivity, and power level of the third patch antenna of the data sensor to the high level to determine a fifth distance of the wireless mobile device from the data sensor;

(b) detecting, by the third patch antenna of the data sensor, the wireless mobile device by having the control unit of the data sensor adjusts sensitivity, directivity, and power level of the third patch antenna of the data sensor to the low level to determine a sixth distance of the wireless mobile device from the data sensor wherein the sixth distance is the distance used to determine the location of the wireless mobile device.

64. The method of claim 63, further comprising determining, by the control unit of the data sensor, that the sixth distance is less than the fifth distance and maintains the sensitivity, directivity, and power level of the third patch antenna of the data sensor to the low level wherein the sixth distance is the distance used to determine the location of the wireless mobile device.

65. The method of claim 52, wherein the one or more radio transmitters and the one or more radio receivers use at least one of WiFi protocols and BLE protocols for proximity sensing and communication.

66. The method of claim 52, further comprising providing, by a gateway sensor node of the one or more sensor devices, Internet access, on request, to the wireless mobile device and providing an offer to download a tag module to the wireless mobile device.

67. The method of claim 66, wherein the wireless mobile device becomes a tagged wireless mobile device when the tag module is downloaded.

68. The method of claim 66, wherein the wireless mobile device is designated as an untagged wireless mobile device when the tag module is not downloaded onto the wireless mobile device.

69. The method of claim 52, further comprising collecting, by the one or more sensor devices, a device identifier from the wireless mobile device and transmits the device identifier of the wireless mobile device, over one or more communication networks, to the computer server to be stored in the database.

70. The method of claim 69, wherein the location of the wireless mobile device is determined by the computer server through triangulation based on the device identifier of the wireless mobile device and the distance of the wireless mobile device provided by three or more sensor devices.

71. The method of claim 70, further comprising determining, by the computer server, that the location of the wireless mobile device is substantially near a product based on a retail store map stored in the database indicating the location of the product.

72. The method of claim 69, wherein the location of a tagged wireless mobile device is determined by the computer server receiving the distance of the wireless mobile device from a data sensor of the one or more sensor devices and the device identifier of the data sensor.

73. The method of claim 72, further comprising determining, by the computer server, that the location of the tagged wireless mobile device is substantially near a product based on a retail store map stored in the database indicating the location of the product and the device identifier of the data sensor.

74. The method of claim 71, further comprising:

(a) determining, by the data sensor, that the untagged wireless mobile device is in communication with the data sensor within a predetermine threshold of distance and a duration exceeding a predetermined threshold of time;

(b) providing, by the data sensor, the device identifier for the data sensor to the computer server;

(c) determining, by the computer server, the product information associated with each data sensor based on the device identifier of the data sensor;

(d) generating, by the computer server, analytic data based on the device identifier of the untagged wireless mobile device and the product information.

75. The method of claim 70, further comprising generating, by a gateway sensor node of the one or more sensor devices, a communication session between a computer server and the tagged wireless mobile device and provides at least one of a product information and an electronic product purchase incentive to a shopper when the gateway sensor node determines that the tagged wireless mobile device is substantially near a product within a predetermine threshold of distance and a duration exceeding a predetermined threshold of time.

76. The method of claim 72, further comprising:

(a) determining, by the data sensor, that the tagged wireless mobile device is in communication with the data sensor within a predetermine threshold of distance and a duration exceeding a predetermined threshold of time;

(b) generating, by the data sensor, a communication session between the computer server and the tagged wireless mobile device to provide at least one of product information and electronic product purchase incentive associated with the data sensor to a shopper.

77. The method of claim 68, further comprising:

(a) collecting, by a subset of sensor devices of the one or more sensor devices located substantially near a point-of-sale (POS) terminal, the device identifier from the untagged wireless mobile device and transmits the device identifier to the computer server;

(b) receiving, by a computer server, the device identifier of the untagged wireless mobile device from the subset of sensor devices, and purchase information and shopper identity information from the POS terminal;

(c) associating, by a computer server, the device identifier and the shopper identity information to create a unique binding that is stored in a database;

(d) generating, by a computer server, analytics information based on the device identifier, purchase information, shopper identity information, and the unique binding.

78. The method of claim 67, further comprising:

(a) collecting, by a subset of sensor devices of the one or more sensor devices located substantially near a point-of-sale (POS) terminal, the device identifier from the tagged wireless mobile device and transmits the device identifier to the computer server;

(b) receiving, by a computer server, the device identifier of the tagged wireless mobile device from the subset of sensor devices, and purchase information and shopper identity information from the POS terminal;

(c) associating, by a computer server, the device identifier and the shopper identity information to create a unique binding that is stored in a database;

(d) generating, by a computer server, analytics information based on the device identifier, purchase information, shopper identity information, and the unique binding.