Abstract: The various embodiments described herein include methods and systems for enhanced oil recovery using an ultrasonic-transient electromagnetic (U-TEM) assembly. In one aspect, the U-TEM assembly includes a pressure balancer, a bridle having a first end connected to a cable and a second end connected to an adapter, an ultrasonic generator, and an electromagnetic generator. The ultrasonic generator and the electromagnetic generator are located between the bridle and the pressure balancer and coupled to the bridle via the adapter. The U-TEM assembly is configured to generate ultrasonic waves via the ultrasonic generator and transient electromagnetic waves via the electromagnetic generator concurrently in response to a control signal from the adapter.

Abstract: The present disclosure provides antibodies and antigen-binding fragments thereof that bind to human CCR8, a pharmaceutical composition comprising said antibody, and use of the antibody or the composition for treating a disease, such as cancer.

Abstract: The present disclosure pertains to the technical field of vitamin K2, and relates to a vitamin K2 microcapsule, a preparation method thereof, and use thereof in the manufacture of a medicament for preventing and treating cardiovascular and cerebrovascular diseases. The vitamin K2 microcapsule contains the following components by weight: 0.001 to 10 parts of vitamin K2, 5 to 30 parts of polyunsaturated fatty acid source, 0.1 to 10 parts of vitamin E-polyethylene glycol succinate, 50 to 95 parts of water-phase wall material and 0.01 to 10 parts of antioxidant, the polyunsaturated fatty acid source contains an ?-6 source and an ?-3 source, and the antioxidant is a water-phase antioxidant and/or an oil-phase antioxidant. The vitamin K2 microcapsule prepared by the method of the present disclosure has good water solubility, good stability and high bioavailability, can significantly improve the preventive and/or therapeutic effects on cardiovascular and cerebrovascular diseases, and has broad application prospects.

Abstract: The present disclosure discloses a composite crossarm and a power transmission tower. The composite crossarm includes at least one insulator (1100) and at least one arcing device (1200) connected to the insulator (1100). Each of the at least one arcing device (1200) includes a high-voltage end arcing component (1210) and a low-voltage end arcing component (1220). The high-voltage end arcing component (1210) is connected to a high-voltage end of the insulator (1100), and the low-voltage end arcing component (1220) is connected to a low-voltage end of the insulator (1100). The at least one arcing device (1200) includes a first arcing device having an electrical clearance between the high-voltage end arcing component (1210) and the low-voltage end arcing component (1220) less than an electrical clearance between the high-voltage end and the low-voltage end of any one of the at least one insulator (1100).

Abstract: The present disclosure provides for multi-specific antibodies and antigen-binding fragments thereof that bind to human MUC1 and CD16A, pharmaceutical compositions comprising said antibodies, and use of the antibodies or the compositions for treating a disease, such as cancer.

Abstract: The present disclosure provides methods, compounds and compositions that are relevant to DNA-repair and DNA-repair proteins such as tyrosyl-DNA phosphodiesterase 1 (TDP1) and type I topoisomerase (TOP1).

Abstract: Technology providing in-memory neural network protection can include a memory to store a neural network, and a processor executing instructions to generate a neural network memory structure having a plurality of memory blocks in the memory, scatter the neural network among the plurality of memory blocks based on a randomized memory storage pattern, and reshuffle the neural network among the plurality of memory blocks based on a neural network memory access pattern. Scattering the neural network model can include dividing each layer of the neural network into a plurality of chunks, for each layer, selecting, for each chunk of the plurality of chunks, one of the plurality of memory blocks based on the randomized memory storage pattern, and storing each chunk in the respective selected memory block. The plurality of memory blocks can be organized into a groups of memory blocks and be divided between stack space and heap space.

Abstract: Provided are an electrokinetic device and method for in-situ leaching of uranium. The electrokinetic device for in-situ leaching of uranium includes an injection well, a pumping well, a positive electrode, a negative electrode, leaching solution, and a direct current power supply. Uranium ore is provided between the injection well and the pumping well, the negative electrode is arranged in the injection well, and the positive electrode is arranged in the pumping well. The leaching solution is injected from the injection well, flows through the uranium ore, and then is pumped from the pumping well for uranium extraction. The direct current power supply is respectively connected to the positive electrode and the negative electrode, and is configured to apply direct current between the positive electrode and the negative electrode to promote the pooling of uranium-carrying ions towards the pumping well.

Abstract: The invention pertains to the field of food or medicine and more specifically to a liposome composition and a method for preparing the liposome composition. The liposome composition of the present invention has good stability, encapsulation rate, and bioavailability.

Abstract: A method of establishing an enhanced three-dimensional (3D) model of intracranial angiography is provided and includes: obtaining a bright-blood image group, a black-blood image group and an enhanced black-blood image group; preprocessing image pairs to obtain first bright-blood images and black-blood images; registering the first bright-blood image by taking the first black-blood image as reference to obtain a registered bright-blood image group; eliminating flowing void artifact to obtain an artifact-elimination enhanced black-blood image group; subtracting each image of the artifact-elimination enhanced black-blood image group from corresponding black-blood image to obtain angiography enhanced images; establishing a blood 3D model and a vascular 3D model with blood boundary expansion by using the registered bright-blood image group; establishing an angiography enhanced 3D model by using the angiography enhanced images; obtaining an enhanced 3D model of intracranial angiography based on the blood 3D model,

Abstract: The invention pertains to the field of food or medicine, and relates to a method for preparing modified starch, a liposome and a method for preparing liposome. Specifically, the method for preparing modified starch, comprises: (1) in a supercritical carbon dioxide medium, starch is used as raw material, ethanol is used as an entrainer, and the reaction is carried out under supercritical CO2 conditions to obtain a pretreated product; (2) separating and purifying the pretreated product of step (1); (3) using the pretreated product obtained in step (2) to prepare modified starch; and (4) separating and purifying the modified starch prepared in step (3). The liposome prepared from the modified starch of the present invention has good stability, encapsulation rate and bioavailability.

Abstract: Systems, apparatuses and methods include technology that identifies data that is to be transferred from a first device to a second device. The technology classifies the data into a category from a plurality of categories, selects a compression scheme from a plurality of compression schemes based on the category and compresses the data based on the compression scheme.

Abstract: A gathering-type folding cart frame comprises a plurality of support mechanisms and corresponding wheels arranged under the support mechanisms, a central folding mechanism is arranged between the support mechanisms, enclosure folding mechanisms are arranged on the cart frame, and a handle is arranged on one side of the cart frame in the direction of travel; after the central folding mechanism is folded, the support mechanisms gather towards the central folding mechanism. The invention adopts a gathering-type folding method, and can be folded in the length direction and width direction at the same time after folding, the folding method is simple, easy to use, the folded volume is small, there is no sharp angle structure, and there is no safety hazard. The invention is provided with enclosures on the top of the cart frame, which can improve the strength of the top of the cart frame.

Abstract: The present disclosure belongs to the technical field of coenzyme Q10, and relates to a coenzyme Q10 oiling agent, a preparation method and a use thereof. The coenzyme Q10 oiling agent comprises the following components in percentage by mass: 20-40% of coenzyme Q10, 45-65% of mixed oil, 10-15% of biphase emulsifying agent, wherein the coenzyme Q10 in the coenzyme Q10 oiling agent is present in a molecular form above 0° C.; the mixed oil simultaneously contains a saturated fatty acid (ester) and an unsaturated fatty acid (ester); the biphase emulsifying agent simultaneously contains a hydrophilic emulsifying agent and a lipophilic emulsifying agent. The coenzyme Q10 in the coenzyme Q10 oiling agent provided by the present disclosure still can be stably present in the molecular form at high content, and therefore has high bioavailability.

Abstract: The embodiments of the present application provide a frame body, a battery pack, and a device. The frame body used for a battery pack includes a first bracket comprising a first mold chamber; a second bracket connected end to end with the first bracket to form a receiving cavity, the second bracket comprising a second mold chamber; and a block comprising a first reinforcement portion and a second reinforcement portion, wherein the first reinforcement portion received in the first mold chamber and the second reinforcement portion received in the second mold chamber, and the block is adapted to connect the first bracket with the second bracket. The frame body is provided with a block at a connecting portion of the first bracket and the second bracket, thereby improving a connection strength and rigidity of the frame body and the overall bearing capacity of the lower housing including the frame body.

Abstract: The present disclosure provides an interactive method and apparatus, an electronic device, and a storage medium. The method includes: receiving an effect instruction; identifying an effect type corresponding to the effect instruction; if the effect type is a first type, triggering a first effect in the first livestreaming party, and triggering an effect corresponding to the first effect in at least one second livestreaming party; if the effect type is a second type, triggering a second effect in the first livestreaming party; and playing corresponding interaction effects in the first livestreaming party and the at least one second livestreaming party, respectively.

Abstract: A method, apparatus and computer program product to defend learning models that are vulnerable to adversarial example attack. It is assumed that data (a “dataset”) is available in multiple modalities (e.g., text and images, audio and images in video, etc.). The defense approach herein is premised on the recognition that the correlations between the different modalities for the same entity can be exploited to defend against such attacks, as it is not realistic for an adversary to attack multiple modalities. To this end, according to this technique, adversarial samples are identified and rejected if the features from one (the attacked) modality are determined to be sufficiently far away from those of another un-attacked modality for the same entity. In other words, the approach herein leverages the consistency between multiple modalities in the data to defend against adversarial attacks on one modality.

Abstract: Provided are an electrokinetic device and method for in-situ leaching of uranium, belonging to the technical field of in-situ leaching of uranium. The electrokinetic device for in-situ leaching of uranium includes an injection well, a pumping well, a positive electrode, a negative electrode, leaching solution, and a direct current power supply. Uranium ore is provided between the injection well and the pumping well, the negative electrode is arranged in the injection well, and the positive electrode is arranged in the pumping well. The leaching solution is injected from the injection well, flows through the uranium ore, and then is pumped from the pumping well for uranium extraction. The direct current power supply is respectively connected to the positive electrode and the negative electrode, and is configured to apply direct current between the positive electrode and the negative electrode to promote the pooling of uranium-carrying ions towards the pumping well.