An apparatus for twisting an elongate element such as a wire or cable, includes a) a first holder configured to hold a first portion of the element; b) a second holder configured to hold a second portion of the element; c) a twisting unit configured to twist the element at a third portion between the first and the second portion. The twisting unit and the second holder are configured to be movable relative to the first holder in the same direction.

It provides a reinforcing bar binding machine that allows binding objects such as reinforcing bars to be bound by wires with end portions of the wires directed to the binding object side. The reinforcing bar binding machine (1A) includes: a magazine (2A) in which two wires (W) are housed in a drawable manner; a curl guide unit (5A) that winds the juxtaposed wires (W) around the reinforcing bars (S); a wire feeding unit (3A) that winds the wires (W) around the reinforcing bars (S) with the curl guide unit (5A) in an operation of juxtaposing and feeding the wires (W) and winds the wires (W), which is wound around the reinforcing bars (S), around the reinforcing bars (S); and a binding unit (7A) that twists crossing portions of one end side and the other end side of each of the wires (W) wound around the reinforcing bars (S). The binding unit (7A) includes a bending portion (71) that bends the one end side and the other end side of each of the wires (W), which are wound around the reinforcing bars (S), toward the reinforcing bars (S).

It provides a reinforcing bar binding machine that allows binding objects such as reinforcing bars to be bound by wires with end portions of the wires directed to the binding object side. The reinforcing bar binding machine (1A) includes: a magazine (2A) in which two wires (W) are housed in a drawable manner; a curl guide unit (5A) that winds the juxtaposed wires (W) around the reinforcing bars (S); a wire feeding unit (3A) that winds the wires (W) around the reinforcing bars (S) with the curl guide unit (5A) in an operation of juxtaposing and feeding the wires (W) and winds the wires (W), which is wound around the reinforcing bars (S), around the reinforcing bars (S); and a binding unit (7A) that twists crossing portions of one end side and the other end side of each of the wires (W) wound around the reinforcing bars (S). The binding unit (7A) includes a bending portion (71) that bends the one end side and the other end side of each of the wires (W), which are wound around the reinforcing bars (S), toward the reinforcing bars (S).

A twisted wire producing apparatus includes an electric wire twisting unit that twists two electric wires, a controller that controls the electric wire twisting unit, and a tension adding part that adds tension to the two electric wires. The electric wire twisting unit includes a one end chuck part, the other end chuck part, and chuck rotating parts for rotating the one end chuck part and/or the other end chuck part under control of the controller. The other end chuck part includes a base, a chuck main body, twist prevention parts, and a wire length difference absorbing part. The wire length difference absorbing part includes an inter-electric wire inserting part which is movable in a direction perpendicular to the electric wires extending direction.

A twisted wire producing apparatus includes an electric wire twisting unit that twists two electric wires, a controller that controls the electric wire twisting unit, and a tension adding part that adds tension to the two electric wires. The electric wire twisting unit includes a one end chuck part, the other end chuck part, and chuck rotating parts for rotating the one end chuck part and/or the other end chuck part under control of the controller. The other end chuck part includes a base, a chuck main body, twist prevention parts, and a wire length difference absorbing part. The wire length difference absorbing part includes an inter-electric wire inserting part which is movable in a direction perpendicular to the electric wires extending direction.

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 biomaterial collection device can include a wire that includes a functional member including a proximal end, a distal end, a first flat surface and a second flat surface opposing the first surface. The functional member can be configured to fit within a body lumen. The functional member can include binding elements configured to bind circulating biomolecules and cells. The functional member can include curved portions that form revolutions around the longitudinal axis of the device.

An apparatus and method for continuous operation for the production of conductors that include twisted or stranded wires or filaments includes supply payoff for providing a plurality of strands that have been work hardened. The wires or strands are annealed in line with the payoff and subsequently cooled by a chiller in line with the annealer for cooling the annealed strands output from the annealer to a predetermined temperature. A strander in line with the annealer and cooler or chiller is provided for imparting at least one twist to the annealed and cooled strands. Speed control, for example a dancer, is provided in line between the cooler and the strander for adjusting and controlling the speed or velocity of the strands moving along the line to maintain a speed compatible with the take up speed of the strander. The predetermined temperature is selected to be the ambient operating temperature of the strander for copper or aluminum cable.

An apparatus and method for continuous operation for the production of conductors that include twisted or stranded wires or filaments includes supply payoff for providing a plurality of strands that have been work hardened. The wires or strands are annealed in line with the payoff and subsequently cooled by a chiller in line with the annealer for cooling the annealed strands output from the annealer to a predetermined temperature. A strander in line with the annealer and cooler or chiller is provided for imparting at least one twist to the annealed and cooled strands. Speed control, for example a dancer, is provided in line between the cooler and the strander for adjusting and controlling the speed or velocity of the strands moving along the line to maintain a speed compatible with the take up speed of the strander. The predetermined temperature is selected to be the ambient operating temperature of the strander for copper or aluminum cable.