Abstract: A differential channel circuit structure is disclosed. The differential channel circuit structure comprises a first differential circuit including a differential channel and a termination circuit. The differential channel has a differential mode impedance and a common mode impedance, and includes a first end and a second end, each capable of processing at least a first differential signal and a first common mode signal. The termination circuit includes a third end and a fourth end connected to the first end and the second end of the differential channel respectively, so as to simultaneously match the differential mode impedance and the common mode impedance of the differential channel.

Abstract: The disclosure relates to a method for the surface treatment of a polyester fiber, a modified polyester fiber obtained therefrom, and an engineered cementitious composite containing such modified polyester fibers. The method comprises subjecting the polyester fiber to an alkali hydrolysis to obtain hydrolyzed polyester fiber; applying a solution containing an acid cross-linker and a polyvinyl alcohol to the hydrolyzed polyester fiber, then curing to form a coating having a thickness of sub-micron or micron scale on the polyester fiber, thereby obtaining the modified polyester fiber.

Abstract: This disclosure provides a method, apparatus and computer-readable storage medium for visual teaching. The visual teaching method includes establishing a classroom, arranging the classroom based on the real geometric layout of at least one teaching device in the classroom, and conducting the course in the classroom based on the arranged classroom, wherein the classroom comprises at least one user smart terminal, at least one teaching device and at least one of a management smart terminal and a server, at least one teaching device and/or at least one user smart terminal being communicatively connected to at least one of the management smart terminal and the server operating the classroom, each of the user smart terminals operating at least one corresponding teaching device and obtaining the status of the corresponding teaching devices. The visual teaching solution provides a course-oriented and student-oriented visual teaching environment by combining the courses, teaching devices and students.

Abstract: The present invention discloses a method for generating a fluorescent photograph using a fluorescence microscope, wherein after a fluorescence image generated by the light of an optical channel is snapped, the fluorescent image generated by the light of the optical channel can be re-snapped and the original fluorescent image can be replaced with the re-snapped fluorescent image, without re-snapping a fluorescent image generated by the light of other optical channel which has already been snapped. Therefore, the time during which the sample is exposed to light is reduced, the sample is prevented from being bleached and the snapping time is saved.

Abstract: The disclosure relates to a method for the surface treatment of a polyester fiber, a modified polyester fiber obtained therefrom, and an engineered cementitious composite containing such modified polyester fibers. The method comprises subjecting the polyester fiber to an alkali hydrolysis to obtain hydrolyzed polyester fiber; applying a solution containing an acid cross-linker and a polyvinyl alcohol to the hydrolyzed polyester fiber, then curing to form a coating having a thickness of sub-micron or micron scale on the polyester fiber, thereby obtaining the modified polyester fiber.

Abstract: The present invention discloses a method for generating a fluorescent photograph using a fluorescence microscope, wherein after a fluorescence image generated by the light of an optical channel is snapped, the fluorescent image generated by the light of the optical channel can be re-snapped and the original fluorescent image can be replaced with the re-snapped fluorescent image, without re-snapping a fluorescent image generated by the light of other optical channel which has already been snapped. Therefore, the time during which the sample is exposed to light is reduced, the sample is prevented from being bleached and the snapping time is saved.

Abstract: This disclosure provides a method, apparatus and computer-readable storage medium for visual teaching. The visual teaching method includes establishing a classroom, arranging the classroom based on the real geometric layout of at least one teaching device in the classroom, and conducting the course in the classroom based on the arranged classroom, wherein the classroom comprises at least one user smart terminal, at least one teaching device and at least one of a management smart terminal and a server, at least one teaching device and/or at least one user smart terminal being communicatively connected to at least one of the management smart terminal and the server operating the classroom, each of the user smart terminals operating at least one corresponding teaching device and obtaining the status of the corresponding teaching devices. The visual teaching solution provides a course-oriented and student-oriented visual teaching environment by combining the courses, teaching devices and students.

Abstract: A soft magnetic composite (SMC) material is formed from atomized ferromagnetic particles. The particles of a predetermined size range are formed and are coated with at least one layer of electrically insulating nano-sized inorganic fillers to form insulated ferromagnetic powder as the SMC material. The particles are further coated with a lubricating agent to facilitated demoulding.

Abstract: The invention provides a process for preparing an overvoltage protection material comprising: (i) preparing a mixture comprising a polymer binder precursor and a conductive material; and (ii) heating the mixture to cause reaction of the polymer binder precursor and generate a polymer matrix having conductive material dispersed therein, wherein the polymer binder precursor is chosen such that substantially no solvent is generated during the reaction.

Abstract: The invention provides a process for preparing an overvoltage protection material comprising: (i) preparing a mixture comprising a polymer binder precursor and a conductive material; and (ii) heating the mixture to cause reaction of the polymer binder precursor and generate a polymer matrix having conductive material dispersed therein, wherein the polymer binder precursor is chosen such that substantially no solvent is generated during the reaction.

Abstract: The invention provides a process for preparing an overvoltage protection material comprising: (i) preparing a mixture comprising a polymer binder precursor and a conductive material; and (ii) heating the mixture to cause reaction of the polymer binder precursor and generate a polymer matrix having conductive material dispersed therein, wherein the polymer binder precursor is chosen such that substantially no solvent is generated during the reaction.

Abstract: The invention provides a process for preparing an overvoltage protection material comprising: (i) preparing a mixture comprising a polymer binder precursor and a conductive material; and (ii) heating the mixture to cause reaction of the polymer binder precursor and generate a polymer matrix having conductive material dispersed therein, wherein the polymer binder precursor is chosen such that substantially no solvent is generated during the reaction.

Abstract: The invention provides a process for preparing an overvoltage protection material comprising: (i) preparing a mixture comprising a polymer binder precursor and a conductive material; and (ii) heating the mixture to cause reaction of the polymer binder precursor and generate a polymer matrix having conductive material dispersed therein, wherein the polymer binder precursor is chosen such that substantially no solvent is generated during the reaction.

Abstract: The invention provides a process for preparing an overvoltage protection material comprising: (i) preparing a mixture comprising a polymer binder precursor and a conductive material; and (ii) heating the mixture to cause reaction of the polymer binder precursor and generate a polymer matrix having conductive material dispersed therein, wherein the polymer binder precursor is chosen such that substantially no solvent is generated during the reaction.

Abstract: The invention provides a process for preparing an overvoltage protection material comprising: (i) preparing a mixture comprising a polymer binder precursor and a conductive material; and (ii) heating the mixture to cause reaction of the polymer binder precursor and generate a polymer matrix having conductive material dispersed therein, wherein the polymer binder precursor is chosen such that substantially no solvent is generated during the reaction.

Abstract: The invention provides a process for preparing an overvoltage protection material comprising: (i) preparing a mixture comprising a polymer binder precursor and a conductive material; and (ii) heating the mixture to cause reaction of the polymer binder precursor and generate a polymer matrix having conductive material dispersed therein, wherein the polymer binder precursor is chosen such that substantially no solvent is generated during the reaction.

Abstract: A preparation method of olivine Li1+xFe1+yPO4 is disclosed, wherein ?0.2?x?0.2 and ?0.2?y?0.2, which includes the following steps: (A) adding iron powder, lithium salt, and phosphate into an acid solution to form a mixture, wherein the molar ratio of Li+:Fe2+:PO43? is 1+x:1+y:y; (B) stirring the mixture; (C) drying the mixture to obtain solid precursor powder; and (D) heating the precursor solid powder at a temperature over 500° C. to form olivine structured powders.