Abstract: Systems and methods are provided for creating and using personalized location information tags (geotags). Personalized geotags take the place of generic location information such as latitude/longitude coordinates or granular city/state information. Such geotags may be published to present to selected people, e.g., family and friends, a user's current location. Thus, the user's location may be shown as “Home” or “Gym,” providing user-specific information without having to list a street address or latitude/longitude coordinates. Personalized geotags may be inferred based upon historical location information of the user. Geotags may also be inferred based upon geotag selections from other users in a network. A matching engine may select an appropriate geotag given the current location of a user device or based upon historical location information associated with the user.

Abstract: The present invention pertains to enhancement or refinement of estimated locations based upon user-specific information. Upon user authorization, geographical information is extracted from a number of user-related sources, including the web browser history, search history, maps history, address book, e-mail archives and calendar entries. Such information is used to build a spatial index of specific physical locations for a geocoded result set. From this, heat maps identifying particular locations from the user-related sources are created for different periods of time. The heat maps may be used to refine an initial location estimate of the user. This may be done by determining whether one or more positions in a given heat map provide a more accurate position of the user than the initial estimate. If so, a best position is selected. This can be used to provide enhanced driving directions to the user.

Abstract: An engine, e.g., a cam drive, barrel-type internal combustion engine, that includes: a main drive shaft defining a longitudinal axis; a sinusoidal main drive cam rigidly attached to the main drive shaft; a plurality of cam members that are in contact with the sinusoidal main drive cam and that are configured to follow the sinusoidal main drive cam, wherein rotation of the sinusoidal main drive cam corresponds to reciprocating linear movement of each of the plurality of cam members in a direction parallel to the longitudinal axis; for each cam member, a pair of linear pistons disposed on opposite sides of the cam member for reciprocating linear movement within respective cylinder bores.

Abstract: An engine, e.g., a cam drive, barrel-type internal combustion engine, that includes: a main drive shaft defining a longitudinal axis; a sinusoidal main drive cam rigidly attached to the main drive shaft; a plurality of cam members that are in contact with the sinusoidal main drive cam and that are configured to follow the sinusoidal main drive cam, wherein rotation of the sinusoidal main drive cam corresponds to reciprocating linear movement of each of the plurality of cam members in a direction parallel to the longitudinal axis; for each cam member, a pair of linear pistons disposed on opposite sides of the cam member for reciprocating linear movement within respective cylinder bores.

Abstract: An engine, e.g., a cam drive, barrel-type internal combustion engine, that includes: a main drive shaft defining a longitudinal axis; a sinusoidal main drive cam rigidly attached to the main drive shaft; a plurality of cam members that are in contact with the sinusoidal main drive cam and that are configured to follow the sinusoidal main drive cam, wherein rotation of the sinusoidal main drive cam corresponds to reciprocating linear movement of each of the plurality of cam members in a direction parallel to the longitudinal axis; for each cam member, a pair of linear pistons disposed on opposite sides of the cam member for reciprocating linear movement within respective cylinder bores.

Abstract: An engine, e.g., a cam drive, barrel-type internal combustion engine, that includes: a main drive shaft defining a longitudinal axis; a sinusoidal main drive cam rigidly attached to the main drive shaft; a plurality of cam members that are in contact with the sinusoidal main drive cam and that are configured to follow the sinusoidal main drive cam, wherein rotation of the sinusoidal main drive cam corresponds to reciprocating linear movement of each of the plurality of cam members in a direction parallel to the longitudinal axis; for each cam member, a pair of linear pistons disposed on opposite sides of the cam member for reciprocating linear movement within respective cylinder bores.

Abstract: A truss plate detector preferably includes a first sensor array and a second sensor array. The first sensor array includes a plurality of sensors arranged to detect truss plates on a first side of a truss. A second sensor array preferably includes a plurality of sensors arranged to detect truss plates on a second side of a truss. A circuit is configured to receive signals from the first and second sensor arrays and to notify a user when one or more truss plates are missing or misaligned. For instance, the sensors in the first and second sensor arrays are preferably arranged opposite each other along the arrays. The truss plate detector can then be configured to notify a user when a sensor in the first sensor array detects a truss plate but neither a corresponding sensor nor an adjacent sensor in the second sensor array detects a truss plate.

Abstract: A gerotor pump is provided that includes a pump housing having a pump cover and a pump end plate. The pump cover defines an open end, an axial bore, and a bottom end. The pump end plate engages the open end of the pump cover thereby enclosing the axial bore of the pump cover and creating an inner cylindrical chamber in the pump housing. A wear plate and a gerotor gear set assembly are operatively disposed within the inner cylindrical chamber such that the gerotor gear set assembly is operatively disposed between the wear plate and the pump end plate. A biasing member is disposed between the bottom end of the pump cover and the wear plate, and is adapted to operatively bias the wear plate against the gerotor gear set assembly and the pump end to create an axial zero tolerance condition between the pump elements.

Abstract: A gerotor pump is provided that includes a pump housing having a pump cover and a pump end plate. The pump cover defines an open end, an axial bore, and a bottom end. The pump end plate engages the open end of the pump cover thereby enclosing the axial bore of the pump cover and creating an inner cylindrical chamber in the pump housing. A wear plate and a gerotor gear set assembly are operatively disposed within the inner cylindrical chamber such that the gerotor gear set assembly is operatively disposed between the wear plate and the pump end plate. A biasing member is disposed between the bottom end of the pump cover and the wear plate, and is adapted to operatively bias the wear plate against the gerotor gear set assembly and the pump end to create an axial zero tolerance condition between the pump elements.

Abstract: A truss plate detector preferably includes a first sensor array and a second sensor array. The first sensor array includes a plurality of sensors arranged to detect truss plates on a first side of a truss. A second sensor array preferably includes a plurality of sensors arranged to detect truss plates on a second side of a truss. A circuit is configured to receive signals from the first and second sensor arrays and to notify a user when one or more truss plates are missing or misaligned. For instance, the sensors in the first and second sensor arrays are preferably arranged opposite each other along the arrays. The truss plate detector can then be configured to notify a user when a sensor in the first sensor array detects a truss plate but neither a corresponding sensor nor an adjacent sensor in the second sensor array detects a truss plate.