There is provided a multilayer porous film that includes a covering layer formed from a coating liquid on at least one surface of a porous film. The coating liquid has high stability and coatability. The covering layer does not decrease the intrinsic high air permeability of the porous film and has high heat resistance and adhesiveness. The multilayer porous film has excellent handleability as a battery separator without causing curling. The multilayer porous film includes the covering layer on at least one surface of a porous polyolefin resin film. The covering layer is formed from a coating liquid and contains a filler and a resin binder. The multilayer porous film satisfies the following conditions 1) and 2): 1) the filler has an average circularity of 0.3 or more and less than 0.7; and 2) an acid component in the coating liquid has a first acid dissociation constant of 5 or less and has no second acid dissociation constant or a second acid dissociation constant of 7 or more in a dilute aqueous solution at 25° C.

There is provided a multilayer porous film that includes a covering layer formed from a coating liquid on at least one surface of a porous film. The coating liquid has high stability and coatability. The covering layer does not decrease the intrinsic high air permeability of the porous film and has high heat resistance and adhesiveness. The multilayer porous film has excellent handleability as a battery separator without causing curling. The multilayer porous film includes the covering layer on at least one surface of a porous polyolefin resin film. The covering layer is formed from a coating liquid and contains a filler and a resin binder. The multilayer porous film satisfies the following conditions 1) and 2): 1) the filler has an average circularity of 0.3 or more and less than 0.7; and 2) an acid component in the coating liquid has a first acid dissociation constant of 5 or less and has no second acid dissociation constant or a second acid dissociation constant of 7 or more in a dilute aqueous solution at 25° C.

The present invention reduces the minimum detectable volume of a piece of a glove in the detection using a metal detector. A glove made of a rubber or resin film which contains magnetic particles, wherein the quantity of the magnetic particles is 0.2 to less than 40 mass % relative to the whole of the film; and the magnetic particles comprise secondary particles formed by the agglomeration of primary particles.

The present invention reduces the minimum detectable volume of a piece of a glove in the detection using a metal detector. A glove made of a rubber or resin film which contains magnetic particles, wherein the quantity of the magnetic particles is 0.2 to less than 40 mass % relative to the whole of the film; and the magnetic particles comprise secondary particles formed by the agglomeration of primary particles.

A thin film that has a flexible polymer layer and a peptide layer. The peptide layer is disposed on the flexible polymer layer and has a peptide selected from HYF, DYF and YFD. The thin film reversibly curves with changes in humidity.

A thin film that has a flexible polymer layer and a peptide layer. The peptide layer is disposed on the flexible polymer layer and has a peptide selected from HYF, DYF and YFD. The thin film reversibly curves with changes in humidity.

To provide a method for producing crosslinked rubber excellent in hardness and transparency.

The method for producing crosslinked rubber of the present invention is a method for producing crosslinked rubber, which comprises crosslinking a fluorinated copolymer in a composition comprising the fluorinated copolymer, a crosslinking agent and a crosslinking co-agent, wherein the fluorinated copolymer is a copolymer having units based on tetrafluoroethylene and units based on a perfluoro(alkyl vinyl ether), the content of the units based on tetrafluoroethylene is from 65 to 90 mol % to all units of the fluorinated copolymer, in the composition, the content of the crosslinking agent is from 0.03 to 0.7 part by mass to 100 parts by mass of the fluorinated copolymer, the content of the crosslinking co-agent is from 0.1 to 2.5 parts by mass to 100 parts by mass of the fluorinated copolymer, and the hardness is from 65 to 100.

To provide a method for producing crosslinked rubber excellent in hardness and transparency.

The method for producing crosslinked rubber of the present invention is a method for producing crosslinked rubber, which comprises crosslinking a fluorinated copolymer in a composition comprising the fluorinated copolymer, a crosslinking agent and a crosslinking co-agent, wherein the fluorinated copolymer is a copolymer having units based on tetrafluoroethylene and units based on a perfluoro(alkyl vinyl ether), the content of the units based on tetrafluoroethylene is from 65 to 90 mol % to all units of the fluorinated copolymer, in the composition, the content of the crosslinking agent is from 0.03 to 0.7 part by mass to 100 parts by mass of the fluorinated copolymer, the content of the crosslinking co-agent is from 0.1 to 2.5 parts by mass to 100 parts by mass of the fluorinated copolymer, and the hardness is from 65 to 100.

The present disclosure provides a method for performing agglutination assays on a “two plate” DMF device format. Droplets containing analytes of interest (particles, cells, etc.) are loaded into the DMF device and mixed with solution-phase or dried agglutinating antibodies or antigens. The agglutinating agents bind to their complementary targets (e.g. antibodies or antigens for example) in the sample droplets, which leads to the formation of insoluble aggregates. Active mixing on a DMF device reduces the reaction time and enhances the agglutination effect. Since the agglutinated sample is sandwiched between two plates on the DMF device, it is straightforward to visualize the result by eye or via a digital camera.

The present disclosure provides a method for performing agglutination assays on a “two plate” DMF device format. Droplets containing analytes of interest (particles, cells, etc.) are loaded into the DMF device and mixed with solution-phase or dried agglutinating antibodies or antigens. The agglutinating agents bind to their complementary targets (e.g. antibodies or antigens for example) in the sample droplets, which leads to the formation of insoluble aggregates. Active mixing on a DMF device reduces the reaction time and enhances the agglutination effect. Since the agglutinated sample is sandwiched between two plates on the DMF device, it is straightforward to visualize the result by eye or via a digital camera.