Abstract: A thermal management system of a ship composite energy power system and a control method thereof are provided, including a thermal management circuit, which includes a seawater heat exchange circuit, an internal combustion engine thermal management circuit, a hydrogen fuel cell thermal management circuit, and a power battery and accessories thermal management circuit. It provides a thermal management control strategy for composite energy of internal combustion engine, fuel cell, and power battery; the various circuits can be independently adjusted; the heat dissipation effect is obvious, and the temperature of each cooling circuit can be better controlled; the energy utilization rate can be improved; the heat can be transferred to the other subsystems, and the heat dissipation area can be enlarged; and the fuel cell circuit can be elevated to the temperature by the heat exchanger and the electric heater, and it can reach the target working temperature more quickly.

Abstract: This application provides a pixel collection circuit comprising an optical-to-electrical converter circuit configured to convert a collected optical signal into an analog signal; an analog-to-digital converter circuit configured to: receive the analog signal from the optical-to-electrical converter circuit; and perform analog-to-digital conversion on the analog signal to obtain a digital signal; a differential circuit configured to: receive the digital signal from the analog-to-digital converter circuit; and obtain a difference signal between a digital signal of a previous triggering moment and the digital signal of a current triggering moment; the previous triggering moment and the current triggering moment are determined by at least a digital clock signal; a comparison circuit configured to receive the difference signal from the differential circuit, and output a pulse signal.

Abstract: This application provides a pixel collection circuit comprising an optical-to-electrical converter circuit configured to convert a collected optical signal into an analog signal; an analog-to-digital converter circuit configured to: receive the analog signal from the optical-to- electrical converter circuit; and perform analog-to-digital conversion on the analog signal to obtain a digital signal; a differential circuit configured to: receive the digital signal from the analog-to-digital converter circuit; and obtain a difference signal between a digital signal of a previous triggering moment and the digital signal of a current triggering moment; the previous triggering moment and the current triggering moment are determined by at least a digital clock signal; a comparison circuit configured to receive the difference signal from the differential circuit, and output a pulse signal.

Abstract: Antibodies selective for pathological tau dimers and/or prefibrillar pathological tau oligomers, immunogenic peptides and epitopes of these antibodies, hydridomas producing these antibodies, uses of these antibodies, immunogenic peptides and epitopes in preparation of pharmaceutical compositions for the treatment of tauopathies, and uses of these antibodies, immunogenic peptides, epitopes and pharmaceutical compositions in the treatment of tauopathies are described. Also described are uses of these antibodies, immunogenic peptides, epitopes in diagnosis and monitoring of tauopathies.

Abstract: Antibodies selective for pathological tau dimers and/or prefibrillar pathological tau oligomers, immunogenic peptides and epitopes of these antibodies, hydridomas producing these antibodies, uses of these antibodies, immunogenic peptides and epitopes in preparation of pharmaceutical compositions for the treatment of tauopathies, and uses of these antibodies, immunogenic peptides, epitopes and pharmaceutical compositions in the treatment of tauopathies are described. Also described are uses of these antibodies, immunogenic peptides, epitopes in diagnosis and monitoring of tauopathies.