37results about How to "Make up for information loss" patented technology

Software and methods of graphic representation of data are contemplated in which the data points are displayed in a clustered and / or de-clustered format as a function of a user zooming in and out of the display. Most preferably, the zoom is a continuous zoom, and the program further allows for panning within the display.

The invention discloses a method for extracting single tree information from LiDAR in a layered clustering mode and belongs to the scope of LiDAR point cloud data processing and information extraction. According to the key technical point, 1, the point cloud is horizontally layered; 2, all the layers of point cloud are classified in a k mean value clustering mode, and different attribute values are provided for all the layers of point cloud; 3, the point cloud meeting preset conditions is fused; 4, the single tree positions, the tree height, the crown breadth and other information are extracted from the point cloud with the same attribute values, and forest stand structure information is calculated through the single tree information. The method has the key advantages that extraction of floor stratum single trees is achieved, and the number of accurately extracted forest stand forests reaches 80% or above; the function of extracting the single tree information from LiDAR and calculating the forest stand structure is achieved; no excessive requirement on the point cloud density is generated, and it is proved that the point cloud of 2p / m<2> can complete relevant work. The method can be applied to the field of LiDAR inversion information, is especially suitable for the forest stand condition with the complex structure, and can accurately extract the single tree positions, the tree height, the crown breadth, the forest stand structure parameters and other relevant information.

The invention relates to a method for finding frame alignment and accepting and monitoring TTI identifiers contained in frames in an SDH system. Advantageously the method according to the invention comprises steps in which frame alignment is first sought for by means of a frame alignment signal. When frame alignment has been found, it is monitored that it stays correct and at the same time at least one TTI identifier is read. According to the invention, at least one TTI identifier is saved from a frame after the finding of frame alignment. If a loss of frame alignment is detected, the TTI identifier saved is stored for a predetermined time. The invention further relates to an arrangement comprising means to implement the method described above in an SDH system.

A system and method are provided for transporting backward information in a digital wrapper format network of connected simplex devices. The system comprises a first simplex processor receiving downstream messages with overhead bytes. The first simplex processor selectively replaces overhead bytes with calculated overhead bytes and supplies the calculated overhead bytes. The system further comprises a buffer receiving the calculated overhead bytes from the first simplex processor and supplying the calculated overhead bytes. A second simplex processor accepts the calculated overhead bytes from the buffer and supplies an upstream message including the calculated overhead bytes. The first simplex processor receives messages in a frame format with an overhead section, drops the overhead section, and selectively reads backward message monitor bytes in the dropped overhead section to determine if upstream communication nodes are receiving transmitted messages.

This application relates to a machine translation method performed at a computer device. The method includes: obtaining an original source text and a reconstructed source text; performing semantic encoding on the original source text, to obtain a source vector sequence; sequentially decoding the source vector sequence to obtain target vectors by performing decoding on the source vector sequence at a current time according to a word vector of a candidate target word determined at a previous time, determining a candidate target word at the current time according to a target vector at the current time, and forming a target vector sequence accordingly; performing reconstruction assessment on the source vector sequence and the target vector sequence using the reconstructed source text, to obtain reconstruction scores corresponding to the candidate target words; and generating a target text according to the reconstruction scores and the candidate target words.

An electronic device with a password protection function is provided. The electronic device provides a password input area, which includes a number of sub-areas. Each of the sub-areas is designated a distinctive attribute, and is provided for inputting a single character. The characters and the attributes of the sub-areas are used to generate a login password according to a predetermined rule, thus the security of the login password is strengthened.

An on-screen data generating section generates on-screen data that becomes a superimposed image that is superimposed on an image displayed based upon a standard digital signal. A data superimposing section superimposes the on-screen data on the standard digital signal. A specific-area detecting section detects a specific area in an image displayed based upon the standard digital signal with the on-screen data superimposed thereon. In such a configuration, the on-screen data generating section generates the on-screen data only from color signal data.

A thermal head printer with image-invariant printing speeds for printing a substantially light-insensitive thermographic material having a print density-driving power level characteristic, the thermal head printer comprising a transport means, one or more thermal heads each having an array of heating elements, a thermal print head drive system capable of supplying power to each of the printing elements, and a calibration means based on the print density-driving power level characteristic of the thermographic material; a process for calibrating a thermal head printer with image-invariant printing speeds, the thermal head printer comprising one or more thermal heads each having an array of heating elements connected to a power supply capable of supplying a given number of heating element driving power levels from 0 to a maximum driving power level number, corresponding to Pmax, to each heating element for printing a substantially light-insensitive thermographic material by image-wise heating the thermographic material with the heating elements, the process comprising the steps of: (i) putting the printer into a calibration mode; (ii) printing one or more step-wedges of print densities by heating the thermographic material with the heating elements at different DPLN'S; (iii) determining the optical density of each step of the step-wedge(s) of print densities with a densitometer thereby obtaining the dependence of the print density upon DPLN; (iv) deriving from the dependence, or all the dependences of the print density upon DPLN, a single smoothed dependence of the rate of change of print density, D, with DPLN, DeltaD / DeltaDPLN, as a function of DPLN for the thermographic material; (v) establishing a threshold rate of print density change per DPLN for the specific thermographic material being printed; and (vi) setting up the thermal head printer so that the threshold rate of print density increase per DPLN cannot be undercut; and a process for printing a substantially light-insensitive thermographic material with a thermal head printer comprising one or more thermal heads each having an array of heating elements connected to a power supply capable of supplying a given number of heating element driving power levels from 0 to a maximum driving power level number, corresponding to Pmax, the process comprising the steps of: calibrating the thermal head printer according to the above-described calibration process, transporting the substantially light-insensitive thermographic material past the thermal head, and image-wise heating of the substantially light-insensitive thermographic material by means of the heating elements.

Disclosed is a method for storing process signals of a plant or technical installation. A compression method is adapted for a current operating state of the plant is applied to the set of process signals in accordance with the current operating state of the plant and a compressed process signal set which is determined during the application of the compression method is stored.

In an integrated simulation method and system, first points, which are subjected to a first entity, and second points, with a second entity as the output variable, are defined. The second points are subdivided into a first subset and a second subset, and the second points of the first subset are subjected to a similar operation. The calculation of the transfer functions between pairs of points takes place with a simulation program, so that corresponding matrices of transfer functions result. Corresponding matrices are also generated with regard to further entities. The corresponding vector models and matrices can be linked up with one another to generate flexible system models.

An automated mechanism for measuring the amount of accuracy loss attributable to reverse engineering processes that use 3D scan data is discussed. The embodiments provide a mechanism that displays to a user the effect scan data editing and CAD remodeling operations have on scan data accuracy. Additionally, the user can choose the way the graphical display illustrates the error distribution on the model such as by color mapping and whisker mapping. The accuracy loss may be displayed to the user after finishing an editing / modeling command or during the previewing of the command thereby allowing a user to take appropriate action. Parameters may also be adjusted programmatically based on the amount of accuracy loss determined to be attributable to scan data editing or CAD remodeling operations.