A cover device of a noodle-making machine comprises a covering member, a hinge member, and a stopper. The covering member is configured to cover an opening where a cutting blade can be exchanged therethrough. The stopper prevents the closed covering member from opening. The stopper is configured to move between a locked position and an unlocked position. When the stopper is at the unlocked position, the covering member can be opened. The stopper is configured to rotate from the unlocked position to the locked position due to gravity, without user intervention, when the covering member is at the closed position. The stopper is held by the hinge member when the covering member is at the open position.

A cover device of a noodle-making machine comprises a covering member, a hinge member, and a stopper. The covering member is configured to cover an opening where a cutting blade can be exchanged therethrough. The stopper prevents the closed covering member from opening. The stopper is configured to move between a locked position and an unlocked position. When the stopper is at the unlocked position, the covering member can be opened. The stopper is configured to rotate from the unlocked position to the locked position due to gravity, without user intervention, when the covering member is at the closed position. The stopper is held by the hinge member when the covering member is at the open position.

A safety cutting tool includes an electrically conductive cutting member, an electric motor for actuating the cutting member, a gripping handle electrically insulated from the cutting tool, a cutting trigger control that can be actuated by the hand of the user gripping the gripping handle, the cutting trigger control being electrically insulated from the cutting tool, an emergency stop device sensitive to a user coming into contact with the cutting member. The emergency stop device is controlled by a comparator comparing an impedance of a first electric circuit comprising the cutting tool and a second electric circuit used as a reference, the first and second circuits having manual contact electrodes provided on at least one of the gripping handle of the tool and the cutting trigger control. A method for controlling such a tool is also disclosed. The tool and method are is-applicable to electric secateurs and shears.

A controller of a cutting apparatus obtains cutting data and specifies a pressure value corresponding to pressure to be applied to an attaching portion by a pressure changer during cutting processing for cutting a workpiece using a cutting blade based on the cutting data and a target range defining target positions of the attaching portion in a fifth direction. While causing the pressure changer to apply, to the attaching portion, the pressure corresponding to the specified pressure value, the controller executes the cutting processing by controlling a first moving mechanism and obtains the position of the attaching portion in the fifth direction. If the obtained position of the attaching portion is out of the target range, the controller changes the pressure value to another value and executes the cutting processing while causing the pressure changer to apply, to the attaching portion, the pressure corresponding to the other value.

A conduit cutting assembly is comprised of a conduit cutting surface, a drive shaft, a top shield and a bottom guide. The conduit cutting assembly is inserted into a rotary device which provides a torque to rotate the conduit cutting assembly. The shield glides along the top surface of the conduit preventing deeper penetration of the cutting surface and deflecting dust as conduit is cut. The guide is positioned on the internal side of the conduit and prevents the cutting surface from contacting encased wiring. The distance between the bottom surface of the shield and the top surface of the guide is closely aligned to the conduit wall thickness. Conduit cutting assemblies can be customized for conduit material and conduit wall thickness. The conduit cutting assembly safely cuts through conduit without damaging encased wiring, limits incidental contact with the cutting surface, and limits contact with dust generated through the cutting procedure.

A conduit cutting assembly is comprised of a conduit cutting surface, a drive shaft, a top shield and a bottom guide. The conduit cutting assembly is inserted into a rotary device which provides a torque to rotate the conduit cutting assembly. The shield glides along the top surface of the conduit preventing deeper penetration of the cutting surface and deflecting dust as conduit is cut. The guide is positioned on the internal side of the conduit and prevents the cutting surface from contacting encased wiring. The distance between the bottom surface of the shield and the top surface of the guide is closely aligned to the conduit wall thickness. Conduit cutting assemblies can be customized for conduit material and conduit wall thickness. The conduit cutting assembly safely cuts through conduit without damaging encased wiring, limits incidental contact with the cutting surface, and limits contact with dust generated through the cutting procedure.

Disclosed is an apparatus for mechanically splitting materials, including a body with a cutting element arranged relative thereto. The cutting element includes at least one cutting surface oriented vertically. The splitting apparatus includes the cutting element applying an upward pressure against the material which is split when a separate downward force is applied to the material. The body of the splitting apparatus also includes a safety element to protect the user from the cutting element; an elongate supporting element to distance the safety element from either or both the cutting element and a surface on which the splitting apparatus is used; a stabilizing element to stabilize the splitting apparatus relative to a surface on which the splitting apparatus is used; and optionally a deflecting element to deflect split materials away from the cutting element and container element to contain therewithin split materials produced during the splitting.

Disclosed is an apparatus for mechanically splitting materials, including a body with a cutting element arranged relative thereto. The cutting element includes at least one cutting surface oriented vertically. The splitting apparatus includes the cutting element applying an upward pressure against the material which is split when a separate downward force is applied to the material. The body of the splitting apparatus also includes a safety element to protect the user from the cutting element; an elongate supporting element to distance the safety element from either or both the cutting element and a surface on which the splitting apparatus is used; a stabilizing element to stabilize the splitting apparatus relative to a surface on which the splitting apparatus is used; and optionally a deflecting element to deflect split materials away from the cutting element and container element to contain therewithin split materials produced during the splitting.

A push block for advancing a work piece over a table saw is disclosed. The push block includes a table-top; a handle mounted on the table-top; a first leg having a proximal end mounted on a first side of the table-top, where the first leg includes a first grip member arranged on distal end of the first leg; a second leg having a proximal end movably mounted underneath the table-top, the second leg is spaced apart from the first leg to form a cut tunnel therebetween, where the second leg includes a second grip member arranged on a distal end of the second leg; a maneuvering mechanism, arranged on the table-top, for moving the second leg to adjust a width of the cut tunnel; and a balancing wheel slidably mounted on a second side, opposite to the first side, of the table-top.

A sheet processing machine (10) with a jam detection device (44, 46), the jam detection device (44, 46) comprising a light emitting element and a light receiving element forming a light barrier in a detection zone (53, 78) of a processing station of the sheet processing machine (10). The jam detection device (44, 46) further comprises a control unit (48) being connected to the light receiving element and being adapted to register if the light barrier is interrupted.