Abstract: The present invention provides microfluidic technology enabling rapid and economical manipulation of reactions on the femtoliter to microliter scale.

Abstract: This disclosure relates to a graph-data-based task scheduling method, which includes: obtaining subgraph data divided from graph data to be processed by a computing node, performing a unit computing task for a graph node in the subgraph data, obtaining a first quantized value corresponding to a completed unit computing task in response to data corresponding to the completed unit computing task being formed into blockchain data, obtaining a second quantized value corresponding to the completed unit computing task in response to the data corresponding to the completed unit computing task being not formed into blockchain data, determining a third quantized value corresponding to an uncompleted unit computing task in the subgraph data, and exchanging the graph node and the first quantized value with another computing node in response to the second quantized value and the third quantized value failing to meet an equilibrium condition.

Abstract: A display device may include (i) a display panel, (ii) a housing surrounding at least a portion of the display panel, (iii) an audio trench peripherally surrounding at least a portion of the display panel, the audio trench including a trench opening in a front side of the housing between a frame region and a peripheral region, and (iv) at least one speaker driver disposed between the display panel and a back side of the housing, the at least one speaker driver including a sound radiating surface positioned to direct sound waves into an acoustic chamber defined between the at least one speaker driver and the display panel, wherein a chamber opening is located between a lateral periphery of the acoustic chamber and the audio trench. Various other systems, devices, assemblies, and methods are also disclosed.

Abstract: This application relates to a graph data processing method performed by a distributed computer node cluster including a plurality of computer devices, each computer device distributed on a respective computing node of the distributed computer node cluster, the method including: obtaining subgraph data divided from to-be-processed graph data; performing a computation task on the subgraph data to obtain corresponding global data and local data; writing the global data to a blockchain network, the global data of the blockchain network being updated by the distributed computing node cluster; obtaining latest global data from the blockchain network; and iteratively performing, according to the obtained latest global data and the local data, the computation task on the subgraph data without obtaining a computation result until an iteration stopping condition is met.

Abstract: The present invention provides microfluidic technology enabling rapid and economical manipulation of reactions on the femtoliter to microliter scale.

Abstract: Methods for depositing a metal layer in a feature definition of a semiconductor device are provided. In one implementation, a method for depositing a metal layer for forming a semiconductor device is provided. The method comprises performing a cyclic metal deposition process to deposit a metal layer on a substrate and annealing the metal layer disposed on the substrate. The cyclic metal deposition process comprises exposing the substrate to a deposition precursor gas mixture to deposit a portion of the metal layer on the substrate, exposing the portion of the metal layer to either a plasma treatment process or hydrogen annealing process and repeating the exposing the substrate to a deposition precursor gas mixture and exposing the portion of the metal layer to either a plasma treatment process or hydrogen annealing process until a predetermined thickness of the metal layer is achieved.

Abstract: A simulator is configured to simulate the fulfillment of orders by nodes. Each node has an inventory of products and is capable of shipping the products to destinations in response to receipt of a corresponding order. The simulator divides the nodes into groups and assigns a different priority to each group based on input provided by a user to the simulator to generate an ordered sequence of priorities. The simulator maintains safety stock data corresponding to each node that indicates minimum quantities of the products required to be present at the corresponding node. The simulator selects a current priority of the sequence and next simulates a first group among the groups having the current priority fulfilling the orders for a given product among the products while a quantity of the given product at each of the nodes in the first group is below the minimum quantity in the corresponding safety stock data.

Abstract: A simulator is configured to simulate the fulfillment of orders by nodes. Each node has an inventory of products and is capable of shipping the products to destinations in response to receipt of a corresponding order. The simulator divides the nodes into groups and assigns a different priority to each group based on input provided by a user to the simulator to generate an ordered sequence of priorities. The simulator maintains safety stock data corresponding to each node that indicates minimum quantities of the products required to be present at the corresponding node. The simulator selects a current priority of the sequence and next simulates a first group among the groups having the current priority fulfilling the orders for a given product among the products while a quantity of the given product at each of the nodes in the first group is below the minimum quantity in the corresponding safety stock data.

Abstract: Disclosed is a 3D printing technology-based method for use in adjusting the digestibility of highland barley starch, comprising the following steps: (1) after mixing highland barley starch with water, adding an edible oil, thoroughly and uniformly mixing, and then forming a starch-oil complex system, the mass ratio of highland barley starch to water and oil being 1:(0.5-2):(0.2-1); (2) adding the uniformly mixed starch-oil complex system into a material cylinder of a 3D printer, setting a transfer temperature to 50° C.-100° C. and maintaining for 10-30 min, then performing 3D printing at a printing temperature of 150° C.-210° C. to obtain a highland barley starchy food product having a 3D stereoscopic shape.

Abstract: A semiconductor manufacturing process is provided. A trench is formed in a semiconductor structure and an oxide layer is deposited on sidewalls of the trench. A solid-state by-product layer is formed on surfaces of the trench by introducing a first etchant gas to react with a naturally occurred oxide layer at the bottom of the trench and the deposited oxide layer. The solid-state by-product layer has a thickness on the bottom less than a thickness on the sidewalls. A second etchant gas is introduced into the trench to react with the solid-state by-product layer, thereby providing a thinned solid-state by-product layer on the sidewalls to protect the deposited oxide layer. By a heating process, the thinned solid-state by-product layer is removed from the sidewalls of the trench, exposing the deposited oxide layer and a surface portion of the semiconductor structure in the trench.

Abstract: The present disclosure generally relates to methods for removing contaminants and native oxides from substrate surfaces. The method includes exposing a surface of the substrate to first hydrogen radical species, wherein the substrate is silicon germanium having a concentration of germanium above about 30%, then exposing the surface of the substrate to a plasma formed from a fluorine-containing precursor and a hydrogen-containing precursor, and then exposing the surface of the substrate to second hydrogen radical species.

Abstract: A method, an apparatus, a device, and a storage medium for implementing an augmented reality scene. The method including obtaining movement sensing data of a target object acquired by a positioning apparatus, determining, according to the movement sensing data, space motion information of the target object in the target site area and updating, according to the space motion information, an object model of the target object in a three-dimensional scene model corresponding to the target site area, determining an object position of the updated object model in a target area, the target area being an area determined in the three-dimensional scene model according to position information and field of view information of the display device in the target site area, and displaying virtual information on the display device according to the object position.

Abstract: The present invention provides microfabricated substrates and methods of conducting reactions within these substrates. The reactions occur in plugs transported in the flow of a carrier-fluid.

Abstract: Examples of techniques for generating an inter-store inventory transfer are disclosed. In one example implementation according to aspects of the present disclosure, a computer-implemented method may include defining a subset of stores of a plurality of stores to fulfill inter-store inventory transfer request for a product category of a plurality of product categories. The method may further include, responsive to determining that an order for a product of the product category cannot be fulfilled by one of the stores of the subset of stores of the plurality of stores, determining, by a processing device, an alternate store of the subset of stores to fulfill the order.

Abstract: A flexible liquid level sensing device includes a sensing module having a circuit board and a plurality of sensing elements. The coupled assembly includes a plurality of joining pipes connected in series. Each joining pipe includes a sleeve portion and a rotary head. The rotary head of one joining pipe is inserted into and rotatably coupled to the sleeve portion of an adjacent joining pipe. The coupled assembly forms an accommodating space for receiving the sensing module.

Abstract: The present invention provides microfabricated substrates and methods of conducting reactions within these substrates. The reactions occur in plugs transported in the flow of a carrier-fluid.

Abstract: The present invention provides a smart helmet falling detection method and a smart helmet. The falling detection method includes following steps: initializing a system, determining a free fall, determining a collision, determining motionlessness, and generating an emergency signal according to a detection result that a motionlessness event occurs within a fourth duration after the collision event occurs. The smart helmet includes a three-axis acceleration sensor and a controller. For the smart helmet falling detection method and the smart helmet provided in the present invention, the acceleration is measured by the three-axis acceleration sensor installed on the smart helmet, and whether a riding falling event occurs is determined by analyzing change of the acceleration, and alarm is given according to the falling event, such that the problem of falling detection and calling for help in a riding process is solved in a targeted manner.

Abstract: The present disclosure generally relates to methods for removing contaminants and native oxides from substrate surfaces. The method includes exposing a surface of the substrate to first hydrogen radical species, wherein the substrate is silicon germanium having a concentration of germanium above about 30%, then exposing the surface of the substrate to a plasma formed from a fluorine-containing precursor and a hydrogen-containing precursor, and then exposing the surface of the substrate to second hydrogen radical species.

Abstract: Various implementations described herein are directed to a circuit. The circuit may include a memory circuit having a first latch. The circuit may include a power-on-reset circuit having a second latch coupled to the first latch. The second latch may be configured to reset the first latch to a predetermined state at power-up.

Abstract: The invention discloses a refrigeration device, including: a first compressor unit (101), an indoor heat exchanger (3) and an outdoor heat exchanger (2), sequentially communicated; a first throttle device (401) and a second throttle device (402), sequentially connected in series; and an air supply device (5), provided between the first throttle device (401) and the second throttle device (402). The refrigeration device further includes a second compressor unit (102). An air intake port (B) of the second compressor unit (102) is communicated with an outlet of the outdoor heat exchanger (2). An outlet (E) of the second compressor unit (102) is communicated with the air supply port (C) of the first compressor unit (101) and an air exhaust port (D) of the first compressor unit (101) by means of a three-way valve (10), respectively.