Abstract:
In order to determine the spatial position of a device (D), the device receives position data relating to a plurality of transmitters (T1, . . . , Tn) in the area surrounding the device, each of which transmitters emits its own position data in the form of radio signals (PS1, . . . , PSj). The device uses the received position data relating to at least some of these transmitters to determine its own position. The transmitters are parts of a plurality of second communication devices (T1, . . . , Tn) each having at least two radio interfaces (RI1, RI2) of a first type (RI1) and of a second type (RI2) in a network (N) of a plurality of first communication devices (AP1, . . . , APm) each having at least one radio interface of the second type (RI2), wherein the network is switched via the radio interfaces of the second type (RI2). At least some of the first and second communication devices are set up to emit first signals (BS1, . . . , BSk) via the radio interfaces of the second type (RI2).
Abstract:
In order to determine the spatial position of a device (D), the device receives position data relating to a plurality of transmitters (T1, . . . , Tn) in the area surrounding the device, each of which transmitters emits its own position data in the form of radio signals (PS1, . . . , PS j). The device uses the received position data relating to at least some of these transmitters to determine its own position. The transmitters are parts of a plurality of second communication devices (T1, . . . , Tn) each having at least two radio interfaces (RI1, RI2) of a first type (RI1) and of a second type (RI2) in a network (N) of a plurality of first communication devices (AP1, . . . , APm) each having at least one radio interface of the second type (RI2), wherein the network is switched via the radio interfaces of the second type (RI2). At least some of the first and second communication devices are set up to emit first signals (BS1, . . . , BSk) via the radio interfaces of the second type (RI2).
Abstract:
A device (1) for use in optical spectroscopy and a method for its manufacture are described. The device includes at least one light source (8) and at least one spectrometer (3) fabricated integratively, the optical components of the at least one spectrometer (3) being optical microcomponents (11,13,16,19,20,21) which are mounted integratively on the top and/or bottom side (9,12) of a substrate board (2). In the method according to the present invention, at least one light source (8) is mounted on a substrate board (2), and at least one spectrometer (3) is produced monolithically in a three-dimensional integration on the substrate board (2). In this context, the spectrometer (3) that is produced according to the method is assembled from optical microcomponents (11,13,16,19,20,21).