Abstract: A socket driving tool includes a housing, a motor received in the housing, a rotating output shaft supported by and rotatable relative to the housing upon rotation of the motor, a socket retainer coupled to the rotating shaft to releasably couple a socket to the rotating shaft, and a socket release actuator coupled to the housing and including a switch that does not rotate together with the rotating shaft. The switch is operable to disengage the socket retainer from the socket to allow the socket to be removed from the rotating shaft.

Abstract: An actuator assembly for a power tool includes an actuator with a permanent magnet. The actuator is moveable between a first position for a first mode of operation, and a second position for a second mode of operation. A first positioning member is adjacent the first position composed of a ferromagnetic material to attract the permanent magnet. A second positioning member is adjacent the second position and composed of a ferromagnetic material to attract the permanent magnet. An electromagnet may be energized to move the actuator between the first position and the second position. When the electromagnet is not energized and the actuator is in the first position, the actuator is retained in the first position. When the electromagnet is not energized and the actuator is in the second position, the actuator is retained in the second position. When the electromagnet is energized, the actuator moves between the first and second positions.

Abstract: A computing device including a display, a wireless communication circuit, and a processor. The device is configured to: wirelessly contact a set of power tools; display a listing of the power tools; wirelessly receive a user selection of a first power tool from the listing; receive at least one performance data associated with a performance of the first power tool; display attributes including the performance data and identity data of the first power tool in response to the user selection; receive a user modification input modifying the at least one performance data; and transmit instructions to the first power tool to modify the performance data in accordance with the user modification input. The computing device may implement this process with a set of battery packs or non-rotary devices.

Abstract: An electric grinding tool includes a motor housing coupleable to an electrical power source, a motor configured to receive power from the electrical power source and including an output shaft extending along a motor axis, a handgrip coupled to and coaxial with the motor housing, a tool holder rotatably driven upon rotation of the motor, the tool holder configured to receive a shaft of a grinding accessory, and a light unit coupled to and at least partially recessed in a front end portion of the electric grinding tool. The light unit includes a plurality of lights mounted to an at least partially ring shaped printed circuit board that is received in a support ring, and a cover ring received over the lights.

Abstract: A power tool includes a housing, a nosepiece, and an end effector rotatably coupled to the housing. A substantially annular holder body is axially and non-rotatably coupled to the nosepiece. A circuit board is received in an internal substantially annular groove in a rear face of the front wall of the holder body between the holder body and the nosepiece. A light unit is coupled to the circuit board and configured to illuminate the workpiece. A wire assembly electrically couples the light unit to a source of electrical power.

Abstract: A tool storage system includes a tool storage container configured to receive therein a battery for a power tool with an inductive receiving unit. An inductive transmitting unit is coupled to the tool storage container and configured to receive a source of electrical power. The inductive transmitting unit is configured to induce generation of electrical power in the inductive receiving unit to charge the battery. A controller is configured to control generation of electrical power by the inductive receiving unit based on a position or alignment of the inductive receiving unit relative to the inductive transmitting unit.

Abstract: A drain cleaning device includes a power unit including a housing, a motor, and a spindle. A drum assembly incudes a shroud coupled to the housing, a drum configured to be rotated by the spindle, and a cable received in the drum. A handle assembly is coupled to the drum assembly and extends along an axis. A feed mechanism is coupled to the handle assembly and is configured to guide the cable through the handle assembly. The feed mechanism includes a quick release selector configured to selectively engage a roller assembly with the cable to enable the cable to be fed through the handle assembly along the axis, and a directional selector configured to vary a feed direction of the cable along the axis by changing a position of a roller assembly.

Abstract: A drain cleaning device includes a power unit and a drum assembly coupled to the power unit for rotation by the power unit. The drum assembly includes a base, a cable received in the base that is configured to be fed from the base and rotated to clean a drain, and a cover releasably coupleable to the base. The drum assembly includes a plurality of taper locks releasably coupling an outer peripheral portion of the cover and an outer peripheral portion of the base. Each of the taper locks is moveable between a locked position in which the cover is retained on the base and an unlocked position in which the cover is removable from the base. Each of the taper locks being biased toward the locked position.

Abstract: A battery pack is provided including a housing, rechargeable battery cells disposed in the housing, a terminal block for detachably coupling the battery pack to a power tool, and a wireless communication circuit configured to wirelessly receive a wireless signal from a computing device provided remotely from the housing. The battery pack is configured to enable or disable a supply of power via the terminal block to the power tool according to the wireless signal. A power tool may similarly be remotely enabled or disabled via the computing device.

Abstract: A battery pack includes a housing, rechargeable battery cells disposed in the housing, a terminal block for detachably coupling the battery pack to a power tool, a controller, and a wireless communication circuit electrically coupled to the controller and configured to wirelessly receive information from an external device. The controller is configured to control a performance attribute of the battery pack according to the received information.

Abstract: A computing device including a display, a wireless communication circuit, and a processor. The device is configured to: wirelessly contact a set of power tools; display a listing of the power tools; wirelessly receive a user selection of a first power tool from the listing; receive at least one performance data associated with a performance of the first power tool; display attributes including the performance data and identity data of the first power tool in response to the user selection; receive a user modification input modifying the at least one performance data; and transmit instructions to the first power tool to modify the performance data in accordance with the user modification input. The computing device may implement this process with a set of battery packs or non-rotary devices.

Abstract: A method of programming a power tool includes: establishing a wireless communication link between a power tool and an external computing device having a processor; receiving on the external computing device and from the power tool a first profile associated with a working parameter for controlling an operation of the power tool; displaying, on a display of the external computing device, a graphical representation of the working parameter; receiving a user input at the external computing device to change the working parameter from the first profile to a second profile; transmitting the second profile from the external computing device to the power tool; and programming the power tool to adjust the working parameter in accordance with the second profile.

Abstract: A drain cleaning device includes a power unit and a drum assembly coupled to the power unit for rotation by the power unit. The drum assembly includes a base, a cable received in the base that is configured to be fed from the base and rotated to clean a drain, and a cover releasably coupleable to the base. The drum assembly includes a plurality of taper locks releasably coupling an outer peripheral portion of the cover and an outer peripheral portion of the base. Each of the taper locks is moveable between a locked position in which the cover is retained on the base and an unlocked position in which the cover is removable from the base. Each of the taper locks being biased toward the locked position.

Abstract: A lighting apparatus is provided with a housing forming a battery housing and a light housing separated via a partitioning wall. A light module is supported by the light housing and includes a heat sink located at least partially within the light housing and at least one LED supported by the heat sink. A battery receptacle formed within the battery housing to slidingly receive a battery pack at least partially into the battery housing. An intake opening is formed within the partitioning wall and an air vent is formed in fluid communication with the light housing. In operation, an airflow passes in thermal contact with the battery pack from the battery housing into the light housing through the intake opening, and from the light housing in thermal contact with the heat sink out of the air vent.

Abstract: A drain cleaning device includes a power unit and a drum assembly coupled to the power unit for rotation by the power unit. The drum assembly includes a base, a cable received in the base that is configured to be fed from the base and rotated to clean a drain, and a cover releasably coupleable to the base. The drum assembly includes a plurality of taper locks releasably coupling an outer peripheral portion of the cover and an outer peripheral portion of the base. Each of the taper locks is moveable between a locked position in which the cover is retained on the base and an unlocked position in which the cover is removable from the base. Each of the taper locks being biased toward the locked position.

Abstract: A power tool for forming threads includes a tool housing with a motor housing portion having a first handle, a battery receptacle configured to receive a battery, a motor housing portion with a motor, a transmission housing portion with a transmission, and an operating head portion arranged along a tool axis. A cutting head is at least partially received in the operating head portion and rotates about a rotational axis transverse to the tool axis to form threads in a workpiece. A second handle is coupled to the operating head or the tool housing adjacent the operating head. When power is applied to the motor, the motor rotates and the transmission transmits torque from the motor to rotate the cutting head. A center of gravity of the power tool is positioned at a portion of the tool housing substantially aligned with the second handle.

Abstract: A modification system for the modification of elongated pieces of stock may include a powered tool for modifying, or altering the piece of elongated stock, and a support device for supporting a position of the elongated stock relative to the powered tool. An arrangement of the components of the powered tool may provide for ergonomic balance of the powered tool. The support device may include a clamping device that clamps, or holds the elongated stock, and an adjustment device that adjusts a position of the clamping device based on a size of the elongated stock. The support device may include a latching device that maintains the position of the clamping device relative to the stock. A reaction arm may inhibit rotation of the tool relative to the stock during operation. A biasing device may provide for application of an axial biasing force on the stock, to initiate operation.

Abstract: A tool storage system includes a tool storage container configured to receive therein a battery for a power tool with an inductive receiving unit. An inductive transmitting unit is coupled to the tool storage container and configured to receive a source of electrical power. The inductive transmitting unit is configured to induce generation of electrical power in the inductive receiving unit to charge the battery. A controller is configured to control generation of electrical power by the inductive receiving unit based on a position or alignment of the inductive receiving unit relative to the inductive transmitting unit.

Abstract: A lighting apparatus is provided with a housing forming a battery housing and a light housing separated via a partitioning wall. A light module is supported by the light housing and includes a heat sink located at least partially within the light housing and at least one LED supported by the heat sink. A battery receptacle formed within the battery housing to slidingly receive a battery pack at least partially into the battery housing. An intake opening is formed within the partitioning wall and an air vent is formed in fluid communication with the light housing. In operation, an airflow passes in thermal contact with the battery pack from the battery housing into the light housing through the intake opening, and from the light housing in thermal contact with the heat sink out of the air vent.

Abstract: An actuator assembly for a power tool includes an actuator with a permanent magnet. The actuator is moveable between a first position for a first mode of operation, and a second position for a second mode of operation. A first positioning member is adjacent the first position composed of a ferromagnetic material to attract the permanent magnet. A second positioning member is adjacent the second position and composed of a ferromagnetic material to attract the permanent magnet. An electromagnet may be energized to move the actuator between the first position and the second position. When the electromagnet is not energized and the actuator is in the first position, the actuator is retained in the first position. When the electromagnet is not energized and the actuator is in the second position, the actuator is retained in the second position. When the electromagnet is energized, the actuator moves between the first and second positions.