103results about "Adjusting equipment" patented technology

A process for sub-dividing a laminated flooring substrate into a plurality of laminated flooring planks and a system therefore are described. The process can include providing a laminated flooring substrate having a decorative pattern on a core wherein the decorative pattern can include a plurality of indicators, and independently detecting the indicators with a plurality of detecting devices, each assigned a respective indicator. The detecting devices can individually obtain the position of the detected indicators and a control unit can align a separate saw blade per each position detected. The system includes a cutting unit with individually adjustable saws or an alignment device configured to align the laminated flooring substrate with the saws, to cut the laminated flooring substrate along positions relative to the detected indicators, for example, in the center thereof or off-set therefrom.

The invention is an attachment for a stationary power saw, attaching to an operationally non-moving base or frame member of the power saw, as opposed to the retractable saw blade portion of the power saw, providing a fully adjustable laser cutting guide for designating the strike point of the rotating saw blade on the material being cut by the saw blade.

An automated board processing system and the corresponding processes that receives job orders comprising a needed set of specifically sized boards cut to specified lengths for assembly into components such as wall structures, roof trusses or other trusses. The system and processes expediently processes a series of boards from board feeding portion comprising individually selected magazines or other board sources to convey, measure, mark and/or saw same with optimal mechanical simplicity and efficiency thereby completing the job order. A control processor receives the job order and controls operation of the plurality of magazines or other board sources, the conveying, the measuring, the marking, the sawing, and the replenishment of the board sources in the board feeding portion.

An apparatus and method for a single operator to load and control the automatic infeeding of workpieces to a saw including the loading of a first workpiece from a nearby supply and placing it onto a moveable structure that that is raised to form a ramp and lowered to release the workpiece. The workpiece moves down the ramp and stops against a stop member located on the top surface of the moveable structure positioned above a first conveyor. The operator controls the lowering of the ramp structure thereupon releasing the workpiece to the first conveyor moving the workpiece transversely past a scanner, which discerns dimensional characteristics of the workpiece. A second conveyor feeds the workpiece into the saw.

At least one geometric characteristic for each of a number of pieces of lumber is determined. Each of the pieces of lumber may then be logically associated with at least one of a log or a cant from which the piece of lumber was sawn.

Ultrasonic techniques are applied to the measurement of wooden members to detect splitting during sawing operations and thereby allow modification of sawing technique or change in saw cut placement.

At least one geometric characteristic for each of a number of pieces of lumber is determined. Each of the pieces of lumber may then be logically associated with at least one of a log or a cant from which the piece of lumber was sawn.

A wood fiber board (6) which is provided with a decorative layer (3) of paper or similar material, and where the length or width value of the decorative layer (3) deviates from its original value after it is applied to the wood fiber board (6), is cut into uniform panels using a board-dividing apparatus that compensates for these deviations. The board-dividing apparatus has a saw (1) that preferably has a plurality of saw blades (S1, S2, . . . Sn) which are adjustably spaced in parallel fashion. The board-dividing apparatus is equipped with a number of cameras and with controller which utilizes deviation measurement information to adjust the spacing of the saw blades. The wood fiber board (6) is first aligned with at least one initial camera (4a) at a point P1. Then, predetermined points (P1 and P2) in the decorative layer (3) are recorded by the first camera (4a) and a second camera (4b). A distance (L) between the points (P1 and P2) is determined, and thee discrepancy in the width or length value is determined by comparison of the actual position and the desired position of the points (P1 and P2). Then, the value of the determined discrepancy (A) is placed in relation to the number (n) of the saw blades (Sn), and the parallel spacing (a) of the saw blades (Sn) is modified by the value of the ratio of the discrepancy to the number of saw blades (A/n). The orientation of the wood fiber board (6) to the saw (1) is displaced to one side in the amount of one half the determined discrepancy (A), and then the wood fiber board (6) is transported toward the saw (1) for cutting out the panels.

In preferred embodiments the invention includes a transverse board conveyor, a board extrusion portion, a marking station, a sawing portion, and a plurality of board feeding portions, all of which are controlled by a process controller. In such preferred embodiments, a bunk feeder and magazines feed boards serially onto the transverse board conveyor and are conveyed in a direction transverse to the length of the boards. The boards are individually deposited into an elongate receiver of a board extrusion portion to be conveyed longitudinally. A carriage in the receiver transports the boards past an end detection station, past a marking station, and to a sawing station. The marking station prints desired indicia at selected positions on the board such as by an ink jet printer without physical contact of the printing mechanism with the board and while the board is moving.

A system for positioning a workpiece in an optimized position. In one embodiment a marking device places a mark on the workpiece prior to the workpiece passing through a scanner cooperating with an optimizer. The optimizer determines the optimized position of the workpiece. The orientation of the workpiece is identified by a first camera. The mark may be used as a point of reference such that the workpiece may be positioned in the optimized position by rotating the workpiece relative to the orientation of the mark. A turning mechanism rotates the workpiece to position it in the optimized position. A further camera identifies the orientation of the mark while the workpiece is being rotated. A processor compares in real time the orientation of the workpiece with the optimized position to determine if the workpiece is in the optimized position.

The invention relates to an intelligent deviation adjusting type artificial board longitudinal and transverse edge trimming production line and a method. The production line comprises a board edge visual identification system 2, a board transverse deviation adjusting system 3, a conveying mechanism 4, a board longitudinal edge trimming system 5, a conveying mechanism 6, a board longitudinal centering mechanism 7, a board transverse edge trimming system 8 and a stacking mechanism 9. The deviation adjusting method comprises the following steps: adopting the board edge visual identification system 2 to collect and extract the transverse edge and longitudinal edge outlines of the board and the breadth flaw feature image information; calculating the finished board dimension and the offset and the offset direction of an artificial board; transferring the offset and the offset direction to the board transverse deviation adjusting system 3, adopting a servo motor 31 to drive a deviation adjusting sliding table 35 to move to realize automatic deviation adjustment of the board; and comparing the dimension of the finished board with the specification of a standard board, calculating intervals between longitudinal saws and between transverse saws, and automatically adjusting the intervals of saw blades of the board longitudinal edge trimming system 5 and the board transverse edge trimming system 8, thus realizing self-adaption of wide board cutting.

In combination with a cant sawing or cutting unit, a system for guiding two-faced cants through the cut along the line of their natural curvature which includes at the infeed and outfeed ends of the unit, laterally moveable rollers for clamping upon parallel planar faces of the cant and imparting to it a pivotal movement in the horizontal plane while it is moving forward through the cut, so that the saws or cutters follow along a controlled curve in relation to the natural curvature of the cant.

The invention provides a three-axis automatic planing and sawing combination machine. The three-axis automatic planing and sawing combination machine comprises a conveying unit, a planing unit, a cutting unit, a lateral adjusting unit and a polishing unit. The lateral adjusting unit is arranged on the outer side face of a conveying path. The cutting unit comprises at least two saw blade sets, a conversion support capable of switching the two saw blade sets, and a saw blade driving mechanism. The saw blade sets are connected with the corresponding conversion supports. Each saw blade set comprises a plurality of saw blades and a saw blade rotating shaft used for connecting the saw blades in series. The saw blades are evenly distributed in the direction parallel to the long axis of each saw blade rotating shaft. The long axis of each saw blade rotating shaft is perpendicular to the front-back direction. The three-axis automatic planing and sawing combination machine can process panels of different widths. Due to arrangement of the cutting unit with the saw blade sets capable of being switched, the cutting distances of the saw blade sets can be switched quickly, there is no need to dismount original saw blade sets and mount new saw blade sets, equipment universality is enhanced, the planing, cutting and polishing technologies of the panels are achieved on one piece of equipment, space usage is small, production efficiency is high, and production cost can be better reduced.

The purpose of the present invention is to provide a cutting machine that performs cutting work by moving the cutting material on the upper workbench protruding from the saw blade, even in a dark place, the cutting material can be easily carried out relative to the saw The ink line alignment work of the sheet. The guard (50) covering the upper part of the saw blade (3) protruding from the upper surface of the workbench (2) is supported on the mounting frame (30) mounted on the riving knife (20), and on this mounting An illuminating device (60) is arranged on the frame (30) to illuminate the cutting site from above.

A log handling and cutting system which cuts logs into lengths, and allows for maximum use of fiber. The system includes equipment for singulating the logs, optimally removing the bark from the logs, scanning the true log image, cutting the logs to length, and sorting the cut logs arranged in a sequence of coupled operations. The logs are singulated using a dual quadrant singulation system to provide maximum singulation reliability, thereby allowing a single operator to attend to this process. Once singulated, the logs are fed automatically into a debarker where the diameter and volume are scanned and debarker-operating parameters are set for optimum bark removal. The log is then scanned, tree length, using a unique scanning system, which determines the true image of the log. This enables the determination by computer of the optimum bucking solution of the log as well as a proper sorting of the optimum random lengths. The saws are adjusted in response to the computer solution and the log is positioned by a positioner according to a computer generated reference datum. This results in the log being positioned for cutting to the optimum random lengths. A command signal is sent from the computer to the log sorting system, which tracks the position of the random lengths and allows them to be sorted to the appropriate sort storage bin.

A lumber feeding mechanism for feeding lumber pieces laterally on a supply conveyor after scanning them with a light scanner to determine a reference axis for the optimum yield of boards. The lumber pieces are fed by dogs from a start position to a feed position in alignment with a feed conveyor which feeds such pieces longitudinally through a lumber edger with adjustable cutting saws. The feeding mechanism includes alternating sets of first and second dogs which are pivoted between a raised position for engagement with the rear edges of the lumber pieces to push such pieces from the start position to the feed position and a retracted position to enable the dogs to be returned to the start position passing on opposite sides or on the same side of the piece. Electrical actuation motors or fluid cylinder actuation motors with rotating output gears are used to pivot the dogs in response to a control signal produced by an electrical control system. The dogs are moved between the start position and the feed position along guides by drive cylinders and the lumber pieces are engaged by air stop cylinders as the pieces are moved toward the feed position to accurately position such pieces at the feed position where they are engaged by hold-down rolls and fed by the feed conveyor through the lumber edger.