Ebay, Incorporated

Rui Kong

Chintan Jain

Rajkumar Chinnakonda

In various example embodiments, a system and method for enhancing a user's on-line experience by utilizing a computer-implemented on-line session trace system is provided. The on-line session trace system is provided in connection with an on-line trading platform. The on-line session trace system records and stores a state of an on-line session associated with a user identification and permits a user associated with the user identification to commence a further on-line session from a state corresponding to the saved state of a previous on-line session.

On-line session trace system

A system and method for using super geo-fences to improve efficiency of geo-fences is disclosed. A system determines a geo-fence density based on a number of geo-fences in an area around a client system. In response to determining the geo-fence density is greater than a predetermined density value, the system selects a number of geo-fences that is greater than a fixed number of geo-fences that the client system is capable of handling. The system groups the selected geo-fences into a first and second group of geo-fences and generates a super geo-fence that encompasses the first group. The system transmits the first and second group of geo-fences and the super geo-fence to an application stored at the client device. The application adds geo-fence data corresponding to the second group to the client system in response to detecting the client system crossing a boundary of the super geo-fence.

Super geo-fences and virtual fences to improve efficiency of geo-fences

A system and method for using time to reach determinations to improve the usability of geo-fences is disclosed. A computer system accesses a current location of a client system and identifies one or more nearby geo-fences. The computer system then calculates the time to reach each of these geo-fences. If the calculated time to reach value for a particular geo-fence is within the notification range associated with that geo-fence, then the computer system generates a notification to display to a user.

Efficient geo-fence data transfer and notifications using a time to reach value

A system and method for using super geo-fences to improve efficiency of geo-fences is disclosed. A server system determines a geo-fence density based on a number of geo-fences in an area around a client system. In response to determining the geo-fence density is greater than a predetermined density value, the server system selects a number of geo-fences that is greater than a fixed number of geo-fences that the client system is capable of handling. The server system groups the selected geo-fences into a first and second group of geo-fences and generates a super geo-fence that encompasses the first group. The server system transmits the first and second group of geo-fences and the super geo-fence to an application stored at the client device. The application adds geo-fence data corresponding to the second group to the client system in response to detecting the client system crossing a boundary of the super geo-fence.

A system may identify attributes of a geofence surrounding a location. The attributes of the geofence may represent merchant characteristics of a brick-and-mortar store and may further represent item characteristics of merchandise items available for sale from the brick-and-mortar store. A subset of users from a plurality of users eligible to receive the geofence may be selected based at least in part on matching the attributes of the geofence to preferences associated with each user among the subset of users. Geofence data representing the geofence may be sent to each of the client devices operated by the subset of the plurality of users. An indication may be received from a client device operated by a user of the user crossing into the geofence based on the geofence data. Lastly, a notification may be presented to the client device operated by the user.

Selecting users relevant to a geofence

A system and method for using super geo-fences and virtual fences to improve efficiency of geo-fences is disclosed. A server system stores geo-fence data for a plurality of geo-fences and receives a request for updated geo-fence data from a client system. The server system selects one or more geo-fences and generates a super geo-fence that encompasses all the selected geo-fences. The server system determines a super geo-fence reduction factor. The server system reduces the size of the super geo-fence based on the determined reduction factor. The server system then transmits the generated super geo-fence and the selected one or more geo-fences to the client system.

A plurality of location data points is collected by a system, each location data point of the plurality of location data points corresponding to a request received at a central server from a user device of a user among a group of users. A geographic heatmap is created based on the collected plurality of location data points, the geographic heatmap identifying density distributions of the plurality of location data points, the density distributions being concentrations of the location data points included in each of a plurality of identified locations. The density distributions are analyzed within the geographic heatmap to identify a target location from one of the plurality of identified locations with a density profile including parameters exceeding one or more pre-defined thresholds. A geofence is generated around the target location, the geofence enabling detection of target users for distributions of promotional publications associated with the target location.

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Lake Oswego, OR, United States of America

Rui Kong