Abstract: The present application discloses a DQN-based distributed computing network coordinate flow scheduling system and method.

Abstract: The present disclosure relates to a rotating cutter disc, comprising a grinding disc and an auxiliary member, wherein a grinding connecting hole is provided at a central portion of the grinding disc, the auxiliary member is mounted on the grinding disc, and an auxiliary connecting hole is provided at a central portion of the auxiliary member.

Abstract: A food waste disposer, including a fixed cutter wall (40) and a rotating cutter head (30) located below the fixed cutter wall (40), the rotating cutter head (30) includes a body portion (32) and a plurality of working teeth (33) extending outwardly from a periphery of the body portion (32); each of the working teeth (33) are provided with cutting surfaces (330) on both opposite side portions thereof, and each of the cutting surfaces (330) is obliquely disposed relative to a top surface and a bottom surface of the working tooth (33) where the cutting surface is located; the fixed cutter wall (40) includes a circular side portion (42) and a plurality of fixed teeth (41) extending outwardly from an end of the circular side portion (42) adjacent to the rotating cutter head (30); the fixed teeth (41) are engaged with the working teeth (33) of the rotating cutter head (30) to perform cutting; each of the fixed tooth (41) are provided with cutting surfaces (410) on both side portions thereof, and each of the cutting

Abstract: A plurality of blocking dielectric portions can be formed between a memory stack structure and an alternating stack of first material layers and second material layers by selective deposition of a dielectric material layer. The plurality of blocking dielectric portions can be formed after removal of the second material layers selective to the first material layers by depositing a dielectric material on surfaces of the memory stack structure while avoiding deposition on surfaces of the first material layers. A deposition inhibitor material layer or a deposition promoter material layer can be optionally employed. Alternatively, the plurality of blocking dielectric portions can be formed on surfaces of the second material layers while avoiding deposition on surfaces of the first material layers after formation of the memory opening and prior to formation of the memory stack structure. The plurality of blocking dielectric portions are vertically spaced annular structures.

Abstract: A plurality of blocking dielectric portions can be formed between a memory stack structure and an alternating stack of first material layers and second material layers by selective deposition of a dielectric material layer. The plurality of blocking dielectric portions can be formed after removal of the second material layers selective to the first material layers by depositing a dielectric material on surfaces of the memory stack structure while avoiding deposition on surfaces of the first material layers. A deposition inhibitor material layer or a deposition promoter material layer can be optionally employed. Alternatively, the plurality of blocking dielectric portions can be formed on surfaces of the second material layers while avoiding deposition on surfaces of the first material layers after formation of the memory opening and prior to formation of the memory stack structure. The plurality of blocking dielectric portions are vertically spaced annular structures.

Abstract: An electrode is provided for an electrochemical lithium battery cell. The electrode includes a bulk material that has a plurality of voids dispersed substantially throughout the bulk material. The bulk material is silicon. Numerous other aspects are provided.

Abstract: Terbium doped phosphate-based green luminescent material and preparation method thereof are provided. The chemical formula of the material is M3RE1-xTbx(PO4)3, wherein, M is alkaline-earth metals, RE is rare-earth elements, x is in a range of 0.001 to 1. The preparation method of the material includes the following steps; providing the compound used as the source of alkaline earth metal, the compound used as the source of phosphate, the compound used as the source of rare-earth, and the compound used as the source of Tb3+ according to the molar ratio of the elements in M3RE1-xTbx(PO4)3, wherein, the compound used as the source of phosphate is added at excess molar ratio in a range of 10% to 30%; mixing and grinding the compound to get mixture; sintering the mixture as pre-treatment, and then cooling the mixture to get a sintered matter; grinding; calcining in reducing atmosphere, and then cooling them.