Method for producing a green body (52; 82) for a machining segment (11A, 11B; 21A, 21B; 31; 41; 51; 81) from a powdered or granular first matrix material (56; 86), first hard material particles (57; 87) and second hard material particles (58; 88), wherein the machining segment is connected by a bottom side (61; 91) to a basic body (12A, 12B; 22A, 22B; 32; 42) of a machining tool (10A, 10B; 20A, 20B; 30; 40) and has at the side surfaces a projection (Δ) of the second hard material particles (58; 88), characterized by the steps of: ▪ applying a lower layer (71; 101) of a powdered or granular supporting material (63; 93), which is different from the first matrix material (56; 86), ▪ arranging the second hard material particles (58; 88) in the lower layer (71; 101) according to a defined second particle pattern, wherein the second hard material particles (58; 88) are partially embedded in the supporting material (63; 93), ▪ performing a sequence of a first and a second sequence step, which is performed N times (N ≥ 1), wherein, - in the first sequence step, a matrix layer (72; 102) composed of a first region (73; 103) is applied, wherein the first matrix material (56; 86) is applied in the first region (73; 103), and, - in the second sequence step, the first hard material particles (57; 87) are arranged in the matrix layer (72; 102) according to a defined first particle pattern, ▪ arranging the second hard material particles (58; 88) in the Nth matrix layer according to the defined second particle pattern, wherein the second hard material particles (58; 88) are partially embedded in the first matrix material (56; 86), and ▪ applying an upper layer (79; 109) of the supporting material (63; 93), wherein the second hard material particles (58; 88) are completely covered by the supporting material (63; 93). ▪ applying a lower layer (71; 101) of a powdered or granular supporting material (63; 93), which is different from the first matrix material (56; 86), ▪ arranging the second hard material particles (58; 88) in the lower layer (71; 101) according to a defined second particle pattern, wherein the second hard material particles (58; 88) are partially embedded in the supporting material (63; 93), ▪ performing a sequence of a first and a second sequence step, which is performed N times (N ≥ 1), wherein, - in the first sequence step, a matrix layer (72; 102) composed of a first region (73; 103) is applied, wherein the first matrix material (56; 86) is applied in the first region (73; 103), and, - in the second sequence step, the first hard material particles (57; 87) are arranged in the matrix layer (72; 102) according to a defined first particle pattern, - in the first sequence step, a matrix layer (72; 102) composed of a first region (73; 103) is applied, wherein the first matrix material (56; 86) is applied in the first region (73; 103), and, - in the second sequence step, the first hard material particles (57; 87) are arranged in the matrix layer (72; 102) according to a defined first particle pattern, ▪ arranging the second hard material particles (58; 88) in the Nth matrix layer according to the defined second particle pattern, wherein the second hard material particles (58; 88) are partially embedded in the first matrix material (56; 86), and ▪ applying an upper layer (79; 109) of the supporting material (63; 93), wherein the second hard material particles (58; 88) are completely covered by the supporting material (63; 93).