Provided is a slurry composition for an all-solid-state secondary battery that has excellent fluidity and preservation stability and can form a solid electrolyte-containing layer having excellent ion conductivity. The slurry composition contains a solid electrolyte, a polymer, and a solvent. The ratio of fineness of grind of the solid electrolyte, as measured by a grind gauge method based on JIS K5600-2-5:1999, relative to the average primary particle diameter of the solid electrolyte is more than 1 and less than 30.

A device includes an ion-conducting membrane with ion-conducting ceramic particles, and an ion-conducting polymer that surrounds the ion-conducting membrane. The ion-conducting polymer includes a pressure-deformable film with a glass transition temperature lower than an operation temperature of the device.

A device includes an ion-conducting membrane with ion-conducting ceramic particles, and an ion-conducting polymer that surrounds the ion-conducting membrane. The ion-conducting polymer includes a pressure-deformable film with a glass transition temperature lower than an operation temperature of the device.

A conductive tape comprising a conductive particle-containing layer containing at least a binder resin layer and a plurality of conductive particles, In this conductive tape, the plurality of conductive particles are distributedly disposed independently from each other on one surface of the binder resin layer, a surface of the binder resin layer in a vicinity of each of the conductive particles has an inclination or an undulation with respect to a tangent plane of the binder resin layer in a center portion between adjacent conductive particles, in the inclination, the surface of the binder resin layer around the conductive particle is lacked with respect to the tangent plane, and in the undulation, a resin amount of the binder resin layer right above the conductive particle is smaller than that when the surface of the binder resin layer right above the conductive particle is flush with the tangent plane.

A conductive tape comprising a conductive particle-containing layer containing at least a binder resin layer and a plurality of conductive particles, In this conductive tape, the plurality of conductive particles are distributedly disposed independently from each other on one surface of the binder resin layer, a surface of the binder resin layer in a vicinity of each of the conductive particles has an inclination or an undulation with respect to a tangent plane of the binder resin layer in a center portion between adjacent conductive particles, in the inclination, the surface of the binder resin layer around the conductive particle is lacked with respect to the tangent plane, and in the undulation, a resin amount of the binder resin layer right above the conductive particle is smaller than that when the surface of the binder resin layer right above the conductive particle is flush with the tangent plane.

Provided are a conductive composite structure for an electronic device, a method of preparing the conductive composite structure, an electrode for an electronic device including the conductive composite structure, and an electronic device including the conductive composite structure. The conductive composite structure may contain graphene and an organic composite layer including a conductive polymer having a work function of about 5.3 eV or lower, and has a sheet resistance deviation of about 10% or less.

A polymeric adhesive film including a conductive filler of polyaniline (PANI) and MXene is provided. The adhesive film can be painted, printed, or applied to different substrate structures, including aircraft and wind turbine blades. The adhesive film has potential as a fatigue sensor, a strain sensor, a gas sensor, a humidity sensor, and a temperature sensor, by non-limiting example. In one embodiment, a force sensing material includes a conductive filler of PANI and MXene within an organic or polymer matrix. The force sensing material is used to measure local mechanical strain by detecting the change in electrical conductivity induced by the mechanical strain. The force sensing material can also be used in other applications where local strain changes, including the detection of local humidity and local temperature.

A polymeric adhesive film including a conductive filler of polyaniline (PANI) and MXene is provided. The adhesive film can be painted, printed, or applied to different substrate structures, including aircraft and wind turbine blades. The adhesive film has potential as a fatigue sensor, a strain sensor, a gas sensor, a humidity sensor, and a temperature sensor, by non-limiting example. In one embodiment, a force sensing material includes a conductive filler of PANI and MXene within an organic or polymer matrix. The force sensing material is used to measure local mechanical strain by detecting the change in electrical conductivity induced by the mechanical strain. The force sensing material can also be used in other applications where local strain changes, including the detection of local humidity and local temperature.

Conductive or semiconductive nanoparticles are modified with conductive ligands so as to be able to obtain conductive or semiconductive layers without requiring a thermal treatment for forming the structures upon application of the layers. A composition can include a matrix polymer for producing conductive composites.

Conductive or semiconductive nanoparticles are modified with conductive ligands so as to be able to obtain conductive or semiconductive layers without requiring a thermal treatment for forming the structures upon application of the layers. A composition can include a matrix polymer for producing conductive composites.