NOVELTY - An electrically conductive film is obtained by forming an electrically conductive layer having a mesh-like structure formed from a fibrous electrically conductive filler on a resin substrate that is able to undergo elastic deformation.    USE - The electrically conductive film is used in a display, touch sensor and solar cell (all claimed).    ADVANTAGE - The electrically conductive film exhibits recoverability following extension and stress relaxation properties, thus addressing the requirements of attachability and shape following properties. The electrically conductive film is able to undergo elastic deformation, has little residual strain and exhibits stress relaxation properties.    DETAILED DESCRIPTION - An electrically conductive film is obtained by forming an electrically conductive layer having a mesh-like structure formed from a fibrous electrically conductive filler on a resin substrate that is able to undergo elastic deformation, where the stress relaxation rate (R) and the residual strain rate (alpha), as measured in a tensile-compression test described below, satisfy the following relationships: 20% less than or equal to R less than or equal to 95% and 0% less than or equal to alpha less than or equal to 3%; where in extension-restoration test, a piece of film (thickness: 50 mu m, sample shape: No. 6 type dumbbell (width of measured portion: 4 mm, length of linear portion: 25 mm)) being subjected to an extension process and then a restoration process under the conditions described below using a tensile-compression tester in accordance with ISO 3384, and the stress relaxation rate (R) and the residual strain rate (alpha) being calculated using the calculation methods described below, and where extension process conditions comprise: in order to eliminate deflection generated when the test piece is attached to a clamp, deflection connection being carried out at a force of 0.05 N or lower; Speed of testing: 25 mm/minute (0-25% extension); Temperature conditions: 23 degrees C; Extension/holding conditions: Holding for 5 minutes at 25% extension; where the restoration process conditions comprise: Speed of testing: 0.1 mm/minute (until the tensile force reaches 0 plus minus 0.05 N); Temperature conditions: 23 degrees C; Stress relaxation rate calculation method: the tensile force being measured at the point when the extension process is complete, and this being defined as the initial tensile force (FAO), then the amount of strain being maintained for 5 minutes under the extension/holding conditions, after which the tensile force is measured, and this being defined as FA (t5), with the stress relaxation rate (R) being calculated using the following formula: R=((FAO-FA(t5))/FAO)x100, where Residual strain rate calculation method: the amount of strain being measured at the point where the tensile force in the restoration process reaches 0 plus minus 0.05 N and this being defined as the residual strain rate (alpha). INDEPENDENT CLAIMS are:    (1) a patterned electrically conductive film obtained by partially removing the electrically conductive layer;    (2) a display that uses the electrically conductive film above;    (3) a touch sensor that uses the electrically conductive film above; and    (4) a solar cell that uses the electrically conductive film above.