A binding device includes: a binding unit configured to bind a binding object with a consumable item; a consumable item accommodation unit configured to accommodate a consumable item to be supplied to the binding unit; a loading consumable item accommodation unit configured to accommodate a consumable item to be loaded into the consumable item accommodation unit; and a loading unit configured to load the consumable item accommodated in the loading consumable item accommodation unit into the consumable item accommodation unit.

A binding device includes: a binding unit configured to bind a binding object with a consumable item; a consumable item accommodation unit configured to accommodate a consumable item to be supplied to the binding unit; a loading consumable item accommodation unit configured to accommodate a consumable item to be loaded into the consumable item accommodation unit; and a loading unit configured to load the consumable item accommodated in the loading consumable item accommodation unit into the consumable item accommodation unit.

A twisted helically-shaped member (15) in the form of a twisted tie, twisted fastener, twisted wire or twisted rod; said twisted helically-shaped member (15) having an axial core (12) and a plurality of helical threads (13H) extending along the axial core (12); and wherein a variation in lead measurements along the length of at least one helical thread (13H), is less than a variation in pitch measurements along the lengths of the helical threads (13H); wherein the axial core (12) has a transverse cross-sectional area comprising two-fifths or less of the transverse circumscribed cross-sectional area of the helical threads (13H).

A twisted helically-shaped member (15) in the form of a twisted tie, twisted fastener, twisted wire or twisted rod; said twisted helically-shaped member (15) having an axial core (12) and a plurality of helical threads (13H) extending along the axial core (12); and wherein a variation in lead measurements along the length of at least one helical thread (13H), is less than a variation in pitch measurements along the lengths of the helical threads (13H); wherein the axial core (12) has a transverse cross-sectional area comprising two-fifths or less of the transverse circumscribed cross-sectional area of the helical threads (13H).

A method of twisting a pair of wires includes the steps of arranging a first wire parallel to a second wire along a longitudinal axis, securing ends of the first and second wires, and gripping outer surfaces of central portions of the first and second wires. The inner surfaces of the central portions of the first and second wires are in contact with one another. The method further includes deflecting central portions of the first and second wires orthogonally from the longitudinal axis and rotating the central portions of the central portions of the first and second wires, thereby twisting the first and second wires about one another.

A method of twisting a pair of wires includes the steps of arranging a first wire parallel to a second wire along a longitudinal axis, securing ends of the first and second wires, and gripping outer surfaces of central portions of the first and second wires. The inner surfaces of the central portions of the first and second wires are in contact with one another. The method further includes deflecting central portions of the first and second wires orthogonally from the longitudinal axis and rotating the central portions of the central portions of the first and second wires, thereby twisting the first and second wires about one another.

A twisted helically-shaped member (15) in the form of a twisted tie, twisted fastener, twisted wire or twisted rod; said twisted helically-shaped member (15) having an axial core (12) and a plurality of helical threads (13H) extending along the axial core (12); and wherein a variation in lead measurements along the length of at least one helical thread (13H), is less than a variation in pitch measurements along the lengths of the helical threads (13H); wherein the axial core (12) has a transverse cross-sectional area comprising two-fifths or less of the transverse circumscribed cross-sectional area of the helical threads (13H).

A twisted helically-shaped member (15) in the form of a twisted tie, twisted fastener, twisted wire or twisted rod; said twisted helically-shaped member (15) having an axial core (12) and a plurality of helical threads (13H) extending along the axial core (12); and wherein a variation in lead measurements along the length of at least one helical thread (13H), is less than a variation in pitch measurements along the lengths of the helical threads (13H); wherein the axial core (12) has a transverse cross-sectional area comprising two-fifths or less of the transverse circumscribed cross-sectional area of the helical threads (13H).

The method for binding metal wires and similar products around a first element and a second element, in particular having an elongated shape, for example reinforcing rods, includes the step of preparing the first element and the second element in a crossed superimposed configuration, so as to define four respective quadrants (Q1, Q2, Q3, Q4) at a crossing zone, on a plane containing the longitudinal axis (Y) of one of the first element and the second element, and the projection (P) of the longitudinal axis of the other. The method then provides for inserting a calendering assembly mounted around a binding axis (A, A′) in front of a binding apparatus, abutting against at least one of the first element and the second element, at the crossing area, engaging the four quadrants (Q1, Q2, Q3, Q4).

The method for binding metal wires and similar products around a first element and a second element, in particular having an elongated shape, for example reinforcing rods, includes the step of preparing the first element and the second element in a crossed superimposed configuration, so as to define four respective quadrants (Q1, Q2, Q3, Q4) at a crossing zone, on a plane containing the longitudinal axis (Y) of one of the first element and the second element, and the projection (P) of the longitudinal axis of the other. The method then provides for inserting a calendering assembly mounted around a binding axis (A, A′) in front of a binding apparatus, abutting against at least one of the first element and the second element, at the crossing area, engaging the four quadrants (Q1, Q2, Q3, Q4).