Abstract: Disclosed are a packaging structure, a battery and an electronic device. The packaging structure includes a packaging film and a partition plate. The packaging film includes a first film housing, a second film housing and a connecting part between them. The connecting part is provided with a groove, and an opening of the groove faces the partition plate. The partition plate is provided in the groove. The partition plate separates the first film housing and the second film housing to form a first accommodating chamber for accommodating a first battery cell and form a second accommodating chamber for accommodating a second battery cell.

Abstract: Disclosed are a battery and an electronic device. The battery includes a film housing, a first cell, a second cell and a partition plate. The film housing is provided with an accommodating cavity, a first accommodating groove adapted for the first cell is formed on a side of the partition plate. The first cell is placed in the first accommodating groove, the second cell is placed on another side of the partition plate, the first accommodating groove and the second cell are disposed side by side in the accommodating cavity, and the first cell and the second cell are separated by the partition plate.

Abstract: Disclosed are a separator and a battery cell. The separator is used for being winded together with an electrode plate to prepare a battery cell, and the separator includes: a first section, a second section and a third section which are sequentially arranged in a length direction of the separator. A width of the first section is less than a width of the second section, and/or, a width of the third section is less than the width of the second section.

Abstract: Disclosed is a foaming composition, comprising: (a) at least one oil. (b) at least one polymeric interface stabilizer of improving rheology of the composition and boosting and stabilizing the foams formed therein, and (c) a surfactant system, comprising, substantially consisting of, or even consisting of at least one alkyl sulfosuccinate, at least one amphoteric surfactant, and optionally, at least one nonionic surfactant.

Abstract: It relates to a composition for cleansing and/or removing makeups from keratin materials, comprising in an aqueous phase: a) at least one amino acid surfactant: b) at least one C12-C24 saturated monoalcohol: and c) at least one divalent and/or trivalent metal salt. It also relates to a non-therapeutic process for cleansing and/or removing makeups from keratin materials, in particular the skin or the hair, comprising the application of the composition to the keratin materials, in particular the skin or the hair, and rinsing off said composition after an optional period of time.

Abstract: The present invention discloses a fluorescent chromic material having a chemical formula of [PPy3Cu2I2]n, wherein PPy3 is tripyridylphosphine. The present invention also provides a method for preparing the fluorescent chromic material, and the use of the fluorescent chromic material in the detection of dichloromethane vapor. The fluorescent chromic material of the present invention has simple synthesis steps, high yield, and capability of large production; and can be used as a fluorescent probe for detecting dichloromethane vapor. It has the advantages of simple operation, high selectivity, high sensitivity, good cycle performance and good stability.

Abstract: A light-emitting diode includes an N-type semiconductor layer, a light-emitting layer, a first P-type semiconductor layer, a hole diffusion layer and a second P-type semiconductor layer sequentially stacked in that order. The hole diffusion layer includes a first sub-layer, a second sub-layer and a third sub-layer sequentially stacked along a direction from the first P-type semiconductor layer to the second P-type semiconductor layer. The first sub-layer is an AlN layer, the second sub-layer is an AlInGaN layer or an AlGaN layer, and the third sub-layer is an AlInGaN layer or an AlGaN layer. As a result, advantages of alleviating a current crowding problem and improving luminous efficiency can be achieved.

Abstract: The present disclosure provides a technical solution related to tagging user behavior data. The processing device and method may determine and tag user behavior data according to an application to which the user behavior data belong based on analysis on an inheritance relationship between tasks associated with the user behavior data, so as to facilitate selectively deleting the user behavior data later.

Abstract: Disclosed is a composition for cleansing and/or removing makeups from keratin materials, comprising in an aqueous phase: a) at least one amino acid surfactant; b) at least one sulfosuccinate surfactant; and c) at least one divalent and/or trivalent metal salt. Also disclosed is a process for cleansing and/or removing makeups from keratin materials, in particular the skin, comprising the application to the keratin materials, in particular the skin, of the composition according to the present invention, and rinsing off said composition after an optional period of time.

Abstract: A method of identifying genes relating to cellular differentiation is provided herein. In some embodiments, a method of identifying regulatory genes relating to cellular differentiation includes: contacting a plurality of stem cells with one or more tagged regulatory genes and a selection marker to form a first plurality of transfected/transduced stem cells; selecting the first plurality of transfected/transduced stem cells; culturing the plurality of transfected/transduced stem cells under conditions suitable to allow the plurality of transfected/transduced stem cells to differentiate into a plurality of differentiated cells expressing the one or more tagged regulatory genes; and performing a single cell RNA sequencing on the plurality of differentiated cells to identify genes relating to cellular differentiation.

Abstract: Cosmetic composition comprising one or more particular non-volatile oils, one or more volatile oils and one or more lipophilic dyes, methods and uses thereof.

Abstract: The present invention discloses a fluorescent chromic material having a chemical formula of [PPy3Cu2I2]n, wherein PPy3 is tripyridylphosphine. The present invention also provides a method for preparing the fluorescent chromic material, and the use of the fluorescent chromic material in the detection of dichloromethane vapor. The fluorescent chromic material of the present invention has simple synthesis steps, high yield, and capability of large production; and can be used as a fluorescent probe for detecting dichloromethane vapor. It has the advantages of simple operation, high selectivity, high sensitivity, good cycle performance and good stability.

Abstract: The present disclosure provides a technical solution related to tagging user behavior data. The processing device and method may determine and tag user behavior data according to an application to which the user behavior data belong based on analysis on an inheritance relationship between tasks associated with the user behavior data, so as to facilitate selectively deleting the user behavior data later.

Abstract: An automatic coffee pot helical launch structure includes a base body and motor installed in the base body, a concave-upward chamber, in which an inner turntable gear and an outer turntable gear are disposed, installed on the bottom surface of the base body, an outlet being installed through the inner turntable gear axially a center gear extending downward from the middle of the top wall of the base body's chamber, the center gear meshes with inner turntable gear, which sleeves inside the eccentric hole of the outer turntable gear and rotates around the shaft, a water inlet through the base body installed in the center gear axially, wherein the motor drives the outer turntable gear through the motor gear, and wherein the inner turntable gear whose upper surface is concave-downward is arranged below the water inlet.

Abstract: A latex paint composition that contains a film-forming binder and pigment dispersed in an aqueous vehicle and also contains an effective amount of one or more cellulose-supportable fungus growth-inhibiting benzoxaborole compounds of Formula C is disclosed. A method of using that latex paint to inhibit the growth of a cellulose-supportable fungus on a cellulosic surface is also disclosed, as is a method of inhibiting such growth by painting over an fungus-infected surface with a contemplated latex paint.

Abstract: An anti-fungal composition for the control of one or more target fungi (or a similar heterotrophic, hyphae-producing organism) that infect plant materials and are(is) separately controllable by a benzoxaborole and an anti-fungal compound of a preselected FRAC Target Site Code is disclosed, as is a method of its use. A composition contains a diluent medium having dissolved or dispersed therein a synergistic effective amount of each of a first and a second anti-fungal compound. The first anti-fungal compound is a benzoxaborole of Formula I. The second anti-fungal compound is other than a benzoxaborole and is known to control said one or more target species of fungus when utilized as the sole anti-fungal compound at a concentration greater than the synergistic effective amount and has a preselected FRAC Target Site Code of B, C, D, E, G, H, or M.

Abstract: An anti-fungal composition for the control of one or more target fungi (or a similar heterotrophic, hyphae-producing organism) that infect plant materials and are(is) separately controllable by a benzoxaborole and an anti-fungal compound of a preselected FRAC Target Site Code is disclosed, as is a method of its use. A composition contains a diluent medium having dissolved or dispersed therein a synergistic effective amount of each of a first and a second anti-fungal compound. The first anti-fungal compound is a benzoxaborole of Formula I. The second anti-fungal compound is other than a benzoxaborole and is known to control said one or more target species of fungus when utilized as the sole anti-fungal compound at a concentration greater than the synergistic effective amount and has a preselected FRAC Target Site Code of B, C, D, E, G, H, or M.

Abstract: An anti-fungal composition for the control of one or more target fungi (or a similar heterotrophic, hyphae-producing organism) that infect plant materials and are (is) separately controllable by a benzoxaborole and an anti-fungal compound of a preselected FRAC Target Site Code is disclosed, as is a method of its use. A composition contains a diluent medium having dissolved or dispersed therein a synergistic effective amount of each of a first and a second anti-fungal compound. The first anti-fungal compound is a benzoxaborole of Formula I. The second anti-fungal compound is other than a benzoxaborole and is known to control said one or more target species of fungus when utilized as the sole anti-fungal compound at a concentration greater than the synergistic effective amount and has a preselected FRAC Target Site Code of B, C, D, E, G, H, or M.

Abstract: A latex paint composition that contains a film-forming binder and pigment dispersed in an aqueous vehicle and also contains an effective amount of one or more cellulose-supportable fungus growth-inhibiting benzoxaborole compounds of Formula C is disclosed. A method of using that latex paint to inhibit the growth of a cellulose-supportable fungus on a cellulosic surface is also disclosed, as is a method of inhibiting such growth by painting over an fungus-infected surface with a contemplated latex paint.

Abstract: An anti-fungal composition for the control of one or more target fungi (or a similar heterotrophic, hyphae-producing organism) that infect plant materials and are (is) separately controllable by a benzoxaborole and an anti-fungal compound of a preselected FRAC Target Site Code is disclosed, as is a method of its use. A composition contains a diluent medium having dissolved or dispersed therein a synergistic effective amount of each of a first and a second anti-fungal compound. The first anti-fungal compound is a benzoxaborole of Formula I. The second anti-fungal compound is other than a benzoxaborole and is known to control said one or more target species of fungus when utilized as the sole anti-fungal compound at a concentration greater than the synergistic effective amount and has a preselected FRAC Target Site Code of B, C, D, E, G, H, or M.