A device and a method for machining a workpiece are provided, wherein said workpiece includes segments of wood, wood-based materials, synthetic material or the like, having a first milling tool for contour machining an edge attached to said workpiece, a second milling tool for contour machining the edge attached to said workpiece, which is adjustable in relation to said first milling tool between a resting position, in which said first milling tool is engageable with the workpiece, and a machining position, in which said second milling tool is engageable with a workpiece. The device is characterized by a third milling tool for flush milling a narrow side of the edge attached to said workpiece, the three milling tools being arranged coaxially to each other and all are jointly drivable by one device.

An apparatus for profiling a shake, includes two opposed sets of rollers configured and arranged to support a wooden blank and to transport the wooden blank from an infeed end of the apparatus to an outfeed end of the apparatus along a transport path, the wooden blank having a pair of opposed major faces, and a pair of opposed rotatable cutting heads, configured and arranged to engage the major faces of the wooden blank as it is conveyed through a cutting region of the transport path, wherein each of the cutting heads comprises a plurality of knives having respective varied profiles such that as the wooden blank passes between the cutting heads, a selected profile is imparted to each of the major faces.

An apparatus for profiling a shake, includes two opposed sets of rollers configured and arranged to support a wooden blank and to transport the wooden blank from an infeed end of the apparatus to an outfeed end of the apparatus along a transport path, the wooden blank having a pair of opposed major faces, and a pair of opposed rotatable cutting heads, configured and arranged to engage the major faces of the wooden blank as it is conveyed through a cutting region of the transport path, wherein each of the cutting heads comprises a plurality of knives having respective varied profiles such that as the wooden blank passes between the cutting heads, a selected profile is imparted to each of the major faces.

A coping cut machine can include a workpiece platform having a support surface for receiving a workpiece support surface. The coping cut machine can have first and second rotary cutting devices, each supporting at least one knife, and at least one workpiece alignment member supported by the workpiece platform for aligning a workpiece supported by the workpiece platform relative to at least one of the first and second rotary cutting devices. In response to sliding the workpiece along the at least one workpiece alignment member and during rotation of at least one of the first and second rotary cutting devices, the at least one knife operates to perform a coping cut on an end of the workpiece. The first and second rotary cutting devices can optionally be rotated in opposite directions to cut either end of a workpiece. At least one of the first and second rotary cutting devices can comprise a modular rotary cutting assembly having a keyed profile portion received in a keyed profile aperture of a drive wheel, and that is removable from the coping cut machine.

The invention relates to a method for machining a workpiece, in particular for a profiled leaf element of a window leaf frame, wherein the workpiece is initially machined using a first machining device in order to create a machined first surface to which an adhesive tape is to be applied, and the workpiece is further machined once the adhesive tape has been applied.

A machining device, including: a cart, for carrying a master-piece and a work-piece; a rail, for allowing manual sliding of the cart along the rail thereabove; a first vice for securing the master-piece, the first vice being fixed to the movable cart; a second vice for securing the work-piece, the second vice being fixed to the movable cart; a limiting element, for limiting the manual sliding of the cart upon meeting of the master-piece with the limiting element; and a protrusion including at least two points extending downwards from the rail; thereby the machining device utilizes parallelism between the channel and a cutting blade of the table saw.

A system for reconditioning barrels comprising: a robot arm; a router assembly for routing the inside surface of a barrel; and a laser assembly for measuring the inside profile of a barrel, wherein: the router assembly is fixedly attached to the robot arm; and the laser assembly is removably attached to the router assembly thus allowing the laser assembly to be removed while the barrel is being routed in order to protect the laser from airborne particles and vibrations from the router.

A system for reconditioning barrels comprising: a robot arm; a router assembly for routing the inside surface of a barrel; and a laser assembly for measuring the inside profile of a barrel, wherein: the router assembly is fixedly attached to the robot arm; and the laser assembly is removably attached to the router assembly thus allowing the laser assembly to be removed while the barrel is being routed in order to protect the laser from airborne particles and vibrations from the router.

A dust and debris collection system for use with woodworking routers, including a baffle, a dust collection hood, and a brush. The baffle includes a top surface, where the top surface is configured to deflect cooling air generated by a woodworking router out and away from the woodworking router in order to allow the woodworking router adequate cooling and efficient dust collection. The dust collection hood is located adjacent to the baffle and includes a sloped wall that is aerodynamically shaped to remove dust and debris and includes a central bit hole configured to accept a bit. The brush has a series of bristles extending from the dust collection hood. The brush and its bristles contain dust and debris.

A dust and debris collection system for use with woodworking routers, including a baffle, a dust collection hood, and a brush. The baffle includes a top surface, where the top surface is configured to deflect cooling air generated by a woodworking router out and away from the woodworking router in order to allow the woodworking router adequate cooling and efficient dust collection. The dust collection hood is located adjacent to the baffle and includes a sloped wall that is aerodynamically shaped to remove dust and debris and includes a central bit hole configured to accept a bit. The brush has a series of bristles extending from the dust collection hood. The brush and its bristles contain dust and debris.