Abstract: A data restoring method using compressed sensing and computer program product, the method includes (a) continuously measuring data for plural times to generate measurement results correspondingly, and processing the i-th measurement result using the compressed sensing, and starting to generate data matrix when times of measuring reaches a preset times of measurements N; (b) generating a first data matrix using the [(j+1)?N]th to the j—the measurements, and then generating a first restored data; (c) generating a second data matrix using the [(j+2)?N]th to the (j+1)—the measurements, and then generating a second restored data; (d) calculating an error between the first and the second restored data; (e) determining whether the error keeps constant for a predetermined number of times; (f) if not, repeating steps (c) to (e).

Abstract: A data restoring method using compressed sensing and computer program product, the method includes (a) continuously measuring data for plural times to generate measurement results correspondingly, and processing the i-th measurement result using the compressed sensing, and starting to generate data matrix when times of measuring reaches a preset times of measurements N; (b) generating a first data matrix using the [(j+1)?N]th to the j-the measurements, and then generating a first restored data; (c) generating a second data matrix using the [(j+2)?N]th to the (j+1)-the measurements, and then generating a second restored data; (d) calculating an error between the first and the second restored data; (e) determining whether the error keeps constant for a predetermined number of times; (f) if not, repeating steps (c) to (e).

Abstract: A transparent antistatic film of the present application includes a substrate and a transparent graphene coating, the substrate at least includes a first surface, and the transparent graphene coating is disposed above the first surface of the substrate. The transparent graphene coating has a surface resistance less than 1012 ohm/sq and a visible transmittance greater than 70% at wavelength of 550 nm, and the transparent graphene coating includes a plurality of surface modified graphene nanosheets and a carrier resin, wherein the plurality of surface modified graphene nanosheets is uniformly dispersed in the carrier resin.

Abstract: A foot pad structure adapted for a device housing includes a supporting pad and an engaging shell for containing the supporting pad. At least one engaging component is disposed on an outer surface of the engaging shell and is adapted for engaging with the device housing.

Abstract: A method for inspecting short-circuit of circuit layout and a device using the same are provided, the method including: obtaining a circuit layout, wherein the circuit layout including a plurality of components; searching at least one of physical short-circuit components on the circuit layout among the components; adjusting the at least one of the physical short-circuit components so as to set the at least one of the physical short-circuit components to an open circuit state; inspecting whether the circuit layout has a short-circuit; and recovering the at least one of the physical short-circuit components to the at least one of the physical short-circuit components before adjustment. Thus, the short-circuit errors needed to be corrected in the circuit layout are detected exactly.

Abstract: A foot pad structure adapted for a device housing includes a supporting pad and an engaging shell for containing the supporting pad. At least one engaging component is disposed on an outer surface of the engaging shell and is adapted for engaging with the device housing.

Abstract: A method for inspecting short-circuit of circuit layout and a device using the same are provided, the method including: obtaining a circuit layout, wherein the circuit layout including a plurality of components; searching at least one of physical short-circuit components on the circuit layout among the components; adjusting the at least one of the physical short-circuit components so as to set the at least one of the physical short-circuit components to an open circuit state; inspecting whether the circuit layout has a short-circuit; and recovering the at least one of the physical short-circuit components to the at least one of the physical short-circuit components before adjustment. Thus, the short-circuit errors needed to be corrected in the circuit layout are detected exactly.

Abstract: An electrolyte for anodizing magnesium products, includes a base solution, a main blackening agent, an auxiliary blackening agent, and a complexing agent. The base solution includes 2 to 25 g/l of alkali, 1 to 30 g/l of fluoride, and 1 to 35 g/l of silicate. The main blackening agent mainly includes cupric salt, concentration of the cupric salt is from 0.3 to 9 grams per liter (g/l). The auxiliary blackening agent mainly includes oxysalt, concentration of the oxysalt is from 0.1 to 8 g/l. Concentration of the complexing agent is from 0.5 to 20 g/l.

Abstract: A method for anodizing magnesium products, the method includes the steps of: providing an electrolyte, the electrolyte including a base solution, a blackening agent, and a complexing agent; putting a substrate material as an anode in the electrolyte, and putting another material as a cathode in the electrolyte; and supplying power between the anode and the cathode until a black coating is formed on the substrate material.