A method for producing a resistance-welded member made of three or more steel sheets including at least one plated high-tensile steel sheet having a base metal strength of 980 MPa or more, the method comprising: a main energization step of performing energization with a first current value while compressing the steel sheets with a first compressive force to form a nugget; the method being characterised by the following steps: a subsequent energization step of performing, after the main energization step, energization such that a current value gradually decreases from the first current value to a current value of 0.1 kA or less in terms of an absolute value while compressing the steel sheets with a second compressive force greater than the first compressive force; and an electrode holding step of holding an electrode while applying a current value of 0.1 kA or less in terms of an absolute value and the second compressive force after the subsequent energization, wherein the steel sheets are joined under conditions satisfying the following formulae to: A ≥ 1.9 where A = P2/t, P2 represents the second compressive force [kN], and t represents a total sheet thickness [mm] of the steel sheets, respectively, 0 ≤ Tdl ≤ 200 where Tdl represents a compression rise delay time [ms] which is a time difference between an end of energization with the first current value and a start of compression with the second compressive force, and B ≤ Tds ≤ C where B = 0.0011Tht 2 - 2.64Tht + 1284.8, C = 0.0015Tht 2 - 2.52Tht + 1268.6, Tds represents a down slope time [ms] in the subsequent energization step, and Tht represents an electrode holding time [ms] in the electrode holding step, respectively. a main energization step of performing energization with a first current value while compressing the steel sheets with a first compressive force to form a nugget; the method being characterised by the following steps: a subsequent energization step of performing, after the main energization step, energization such that a current value gradually decreases from the first current value to a current value of 0.1 kA or less in terms of an absolute value while compressing the steel sheets with a second compressive force greater than the first compressive force; and an electrode holding step of holding an electrode while applying a current value of 0.1 kA or less in terms of an absolute value and the second compressive force after the subsequent energization, wherein the steel sheets are joined under conditions satisfying the following formulae to: A ≥ 1.9 where A = P2/t, P2 represents the second compressive force [kN], and t represents a total sheet thickness [mm] of the steel sheets, respectively, 0 ≤ Tdl ≤ 200 where Tdl represents a compression rise delay time [ms] which is a time difference between an end of energization with the first current value and a start of compression with the second compressive force, and B ≤ Tds ≤ C where B = 0.0011Tht 2 - 2.64Tht + 1284.8, C = 0.0015Tht 2 - 2.52Tht + 1268.6, Tds represents a down slope time [ms] in the subsequent energization step, and Tht represents an electrode holding time [ms] in the electrode holding step, respectively. a subsequent energization step of performing, after the main energization step, energization such that a current value gradually decreases from the first current value to a current value of 0.1 kA or less in terms of an absolute value while compressing the steel sheets with a second compressive force greater than the first compressive force; and an electrode holding step of holding an electrode while applying a current value of 0.1 kA or less in terms of an absolute value and the second compressive force after the subsequent energization, wherein the steel sheets are joined under conditions satisfying the following formulae to: A ≥ 1.9 where A = P2/t, P2 represents the second compressive force [kN], and t represents a total sheet thickness [mm] of the steel sheets, respectively, 0 ≤ Tdl ≤ 200 where Tdl represents a compression rise delay time [ms] which is a time difference between an end of energization with the first current value and a start of compression with the second compressive force, and B ≤ Tds ≤ C where B = 0.0011Tht 2 - 2.64Tht + 1284.8, C = 0.0015Tht 2 - 2.52Tht + 1268.6, Tds represents a down slope time [ms] in the subsequent energization step, and Tht represents an electrode holding time [ms] in the electrode holding step, respectively.