Abstract: The present invention relates to a structure of a memory device. The structure of a memory device includes a substrate, including a bottom electrode layer formed therein. A buffer layer is disposed on the substrate, in contact with the bottom electrode layer. A resistive layer surrounds a whole sidewall of the buffer layer, and extends upward vertically from the substrate. A mask layer is disposed on the buffer layer and the resistive layer. A noble metal layer is over the substrate, and fully covers the resistive layer and the mask layer. A top electrode layer is disposed on the noble metal layer.

Abstract: The disclosure relates to a battery lower casing and a battery system. The battery lower casing comprises: a support frame comprising a plurality of fixing beams that are connected end to end to form an accommodating space, wherein each of two fixing beams opposite to each other comprises a fixing portion extending toward the accommodating space, each of the fixing beams comprises fixing tabs at a side of the fixing beam away from the accommodating space, and the battery lower casing is connected to a target object through the fixing tabs; and a bottom plate connected to the fixing beams. The battery lower casing according to the disclosure carries weight of the battery module through the fixing portions of the support frame, and fixes the battery module to the vehicle through the fixing tabs. The bottom plate is only used to isolate the external environment. Therefore, the weight and manufacturing cost of the battery lower casing can be minimized.

Abstract: The disclosure relates to a battery lower casing and a battery system. The battery lower casing includes: a bottom plate; a plurality of fixing beams sequentially connected end to end and fixed to the bottom plate; a cross beam disposed between the oppositely disposed fixing beams; and a supporting bracket including a base plate and limiting portions, wherein the limiting portions are connected to the base plate and disposed opposite to each other, the base plate and the oppositely disposed limiting portions enclose and form a recess, the base plate is connected to the fixing beam and an end portion of the cross beam adjacent to the fixing beam is embedded in the recess such that the cross beam is connected to the fixing beam.

Abstract: An isolation chip for separating and isolating target particles from a bioliquid sample includes a reagent reservoir, a first filtration membrane, a second filtration membrane, a first chamber, and a second chamber. The reagent reservoir includes a first sidewall and a second sidewall opposite to the first sidewall. The first filtration membrane is disposed at an upper portion of the first sidewall. The reagent reservoir defines a first window at a lower portion of the first sidewall. The second filtration membrane is disposed at the second sidewall. The first chamber is connected to the reagent reservoir through the first filtration membrane. The second chamber is connected to the reagent reservoir through the second filtration membrane. A device and a method for detecting the target particles are further provided.

Abstract: The disclosure relates to a battery lower casing and a battery system. The battery lower casing includes: a bottom plate; a plurality of fixing beams sequentially connected end to end and fixed to the bottom plate; a cross beam disposed between the oppositely disposed fixing beams; and a supporting bracket including a base plate and limiting portions, wherein the limiting portions are connected to the base plate and disposed opposite to each other, the base plate and the oppositely disposed limiting portions enclose and form a recess, the base plate is connected to the fixing beam and an end portion of the cross beam adjacent to the fixing beam is embedded in the recess such that the cross beam is connected to the fixing beam.

Abstract: The present disclosure provides methods and systems for separating one or more target analytes from a fluid sample. The systems may comprise a microfluidic device. The microfluidic device may comprise a fluidic channel having an array of obstacles disposed therein. The array of obstacles may be oriented at an angle greater than 0° relative to a direction of a fluid flow in the fluidic channel. The array of obstacles may be configured to separate the target analytes from the fluid upon flow of the fluid through the fluidic channel. The methods of the present disclosure may comprise separating target analytes from a fluid using a microfluidic device comprising obstacles disposed in a fluidic channel of the device. The target analytes may be separated with a high efficiency, sensitivity and/or specificity.

Abstract: The present disclosure provides a connecting assembly and a battery pack, the connecting assembly comprises a busbar, a first insulating sleeve, a second insulating sleeve and a third insulating sleeve. The busbar comprises a main body portion, an extending portion, and a bent connection portion. The first insulating sleeve covers the main body portion. The second insulating sleeve covers the extending portion. The third insulating sleeve comprises a first covering portion, the first covering portion covers the bent connection portion. Because the first insulating sleeve, the second insulating sleeve and the third insulating sleeve are independent components, and they segmentally cover different parts of the busbar, so that each of them has a shorter length and less portion required to be bent, thereby facilitating the first insulating sleeve, the second insulating sleeve and the third insulating sleeve to be respectively sheathed on the different parts of the busbar.

Abstract: The present invention relates to a structure of a memory device. The structure of a memory device includes a substrate, including a bottom electrode layer formed therein. A buffer layer is disposed on the substrate, in contact with the bottom electrode layer. A resistive layer surrounds a whole sidewall of the buffer layer, and extends upward vertically from the substrate. A mask layer is disposed on the buffer layer and the resistive layer. A noble metal layer is over the substrate, and fully covers the resistive layer and the mask layer. A top electrode layer is disposed on the noble metal layer.

Abstract: The present disclosure provides a wire-bundle receiving bracket and a battery module. The wire-bundle receiving bracket is configured to fix a wire-bundle of the battery module and includes: a wire-bundle receiving slot including a first side wall and a second side wall opposite to the first side wall; a clasp part including a cover plate for covering the wire-bundle receiving slot, as well as a curved portion and a buckling portion that are disposed at two ends of the cover plate. The curved portion is connected to the first side wall, and the buckling portion is buckled on the second side wall. The present disclosure can facilitate the installing and receiving of the wire-bundle, thereby improving reliability of the received wire-bundle.

Abstract: A composition for treating a keratin material, comprising at least one amino acid surfactant, at least one amphoteric or zwitterionic surfactant, at least one solid fatty acid, at least one starch phosphates, and at least one acrylic thickening polymer. The composition has an improved rinsing speed after application, and is stable over 2 months, with an improved foaming properties, such as density of foam, and foaming volume.

Abstract: A composition for treating a keratin material, comprising at least one amino acid surfactant, at least one amphoteric or zwitterionic surfactant, at least one solid fatty acid, at least one starch phosphates, and at least one acrylic thickening polymer. The composition has an improved rinsing speed after application, and is stable over 2 months, with an improved foaming properties, such as density of foam, and foaming volume.

Abstract: A sound manipulation system is provided. The sound manipulation system includes a flow chamber arranged and disposed to receive a fluid containing a particulate and provide in-line sound wave manipulation of at least a portion of the particulate from the fluid, and a transducer positioned to facilitate the in-line sound wave manipulation within the flow chamber. The flow chamber includes at least a first portion and a second portion, the first portion being self-aligned and secured to the second portion.

Abstract: An apparatus for sorting cells from a mixed population of cells using surface acoustic waves is described. Methods for separating cancer cells from a mixed population of cells are provided. Methods for separating cells or particles having different size, density and/or compressibility properties are also provided.

Abstract: A sound manipulation system is provided. The sound manipulation system includes a flow chamber arranged and disposed to receive a fluid containing a particulate and provide in-line sound wave manipulation of at least a portion of the particulate from the fluid, and a transducer positioned to facilitate the in-line sound wave manipulation within the flow chamber. The flow chamber includes at least a first portion and a second portion, the first portion being self-aligned and secured to the second portion.

Abstract: An acoustic manipulation process and acoustic manipulation device are disclosed. The acoustic manipulation process includes providing a device having a pathway positioned to receive a flow of a particle-containing fluid, transporting the particle-containing fluid into the pathway, and applying standing surface acoustic waves to the particle-containing fluid while the particle-containing fluid is flowing through the pathway. The applying of the standing surface acoustic waves to the particle-containing fluid includes nodes and anti-nodes of the standing surface acoustic waves extending through the particle-containing fluid. The acoustic manipulation device includes a pathway positioned to receive a flow of a particle-containing fluid, and a mechanism for generating and applying standing surface acoustic waves to the particle-containing fluid while the particle-containing fluid is flowing through the pathway.