Abstract: Devices are provided to measure the mass inertia of moving surfaces (e.g., aircraft components). In certain embodiments, the devices will include a support frame formed by first and second structural frame members which form a space for positioning of a moving surface to be measured for mass inertia. A pivot joint assembly is supported by an upper portion of the first structural frame member while a distance alignment device is arranged at a lower portion of the support frame. The second structural frame member including an extension and a dynamometer supported operatively by the extension. The first structural frame member includes a comparator clock at a lower portion thereof.

Abstract: A method for measuring mass inertia of moving surfaces, comprising the steps of: (a) Alignment of the center of gravity of an assembly (90) formed by the moving surface (50) and a support device (70) fastened to at least two joints (31, 32) in a rest position, this alignment comprising a reading in a comparing clock (40) and driving of an adjusting element arranged in the support device (70) for obtainment of a predetermined value in the comparing clock (40); (b) Measurement of the static moment of assembly (Mstatic) in an intermediate position through a dynamometer (60); (c) Measurement of the oscillation period of assembly (T) in a pendulum position through an accelerometer arranged in the support device (70) and (d) Reading of the static moment of assembly (Mstatic) and that of oscillation period of assembly (T) and obtainment of the inertial moment of the moving surface (Ihhsup)—An equipment (10) for measurement of mass inertia of moving surfaces, is further described, comprising: a structure (20) formed

Abstract: A computer implemented method for providing location-based services using a mobile device is provided. A first anchor is generated by sensing a location-identifying physical characteristic proximate to a mobile device present at a first location and generating a representation of the location-identifying physical characteristic; determining a descriptive identification of the first location; and combining the descriptive identification and the representation of the location-identifying physical characteristic. The first anchor is transmitted to a computer remote from the first location. A request is made to a remote computer for a chronotope retrieved from a database of previously generated anchors, the received chronotope indicating a logical distance between the first anchor and a second anchor, wherein the second anchor is associated with a second location distinct from the first location.

Abstract: A computer implemented method for providing location-based services using a mobile device is provided. A first anchor is generated by sensing a location-identifying physical characteristic proximate to a mobile device present at a first location and generating a representation of the location-identifying physical characteristic; determining a descriptive identification of the first location; and combining the descriptive identification and the representation of the location-identifying physical characteristic. The first anchor is transmitted to a computer remote from the first location. A request is made to a remote computer for a chronotope retrieved from a database of previously generated anchors, the received chronotope indicating a logical distance between the first anchor and a second anchor, wherein the second anchor is associated with a second location distinct from the first location.

Abstract: An information system based on time, space and relevance is provided. The system comprises a client that displays information in a user-friendly manner and is located in a domestic environment; a proxy that handles the collection and parsing of data; a server that gathers usage data from the client; a database data mining cluster that allows for user profiling and time, space and relevance analysis; a set of information channels, which are periodically updated, and upon which automatic suggestions are given based on a user profile.

Abstract: A computer implemented method for providing location-based services using a mobile device is provided. A location of a mobile device is automatically determined. A user context is generated based at least on a user preference and the automatically determined location of the mobile device, wherein the user preference represents at least a content interest of a user. A request is made to a computer remote from the location of the mobile device for an available service relevant to the user context and compatible with a capability of the mobile device. The available service is executed using the mobile device.

Abstract: A computer implemented method for providing location-based services using a mobile device is provided. A first anchor is generated by sensing a location-identifying physical characteristic proximate to a mobile device present at a first location and generating a representation of the location-identifying physical characteristic; determining a descriptive identification of the first location; and combining the descriptive identification and the representation of the location-identifying physical characteristic. The first anchor is transmitted to a computer remote from the first location. A request is made to a remote computer for a chronotope retrieved from a database of previously generated anchors, the received chronotope indicating a logical distance between the first anchor and a second anchor, wherein the second anchor is associated with a second location distinct from the first location.

Abstract: A domestic system that gathers extensible markup language (XML) feeds from the Internet, presents them in a unified, structured format, and utilizes usage data to make suggestions to the user.