A method for performing a low energy pulse testing in a power distribution network that causes contacts to close and then open in about one fundamental frequency cycle of current flow time and close on a voltage waveform that produces symmetrical fault current. The method includes energizing a magnetic actuator to move the actuator against the bias of a spring to move a movable contact towards a fixed contact. The method also includes de-energizing the actuator when the movable contact makes contact with the fixed contact so as to allow the spring to move the movable contact away from the fixed contact so that the amount of time that the current conducts is about one fundamental frequency cycle of the current, where energizing the magnetic actuator occurs when an applied voltage on the switch assembly is at a peak of the voltage wave so that the current is symmetric.

A method for performing a low energy pulse testing in a power distribution network that causes contacts to close and then open in about one fundamental frequency cycle of current flow time and close on a voltage waveform that produces symmetrical fault current. The method includes energizing a magnetic actuator to move the actuator against the bias of a spring to move a movable contact towards a fixed contact. The method also includes de-energizing the actuator when the movable contact makes contact with the fixed contact so as to allow the spring to move the movable contact away from the fixed contact so that the amount of time that the current conducts is about one fundamental frequency cycle of the current, where energizing the magnetic actuator occurs when an applied voltage on the switch assembly is at a peak of the voltage wave so that the current is symmetric.

A flat switch is provided that prevents the flat switch from protruding and thereby causing a poor appearance even in a case where it is required to install a switch box so that an end part on an opening side of the switch box is not positioned on a predetermined distance or deeper side with respect to an appearance surface that is a surface of a wall. A flat switch (1) of the present invention is a flat switch (1) that is installed in a switch box (100) having a bottom part (101) and a vertical wall part (102) which is provided along an outer periphery of the bottom part (101). The switch box (100) is installed so that, with respect to an appearance surface that is a front surface of a wall, a peripheral edge part (102A) is not positioned on a predetermined distance or deeper side in a depth direction of the wall from the appearance surface. The flat switch (1) includes a sensor unit (20) whose thickest part in a direction from the peripheral edge part (102A) of the switch box (100) to the bottom part (101) is thicker than a predetermined distance in a state of being installed in the switch box and whose outer shape is smaller than an inner shape of the peripheral edge part (102A) of the switch box (100).

A flat switch is provided that prevents the flat switch from protruding and thereby causing a poor appearance even in a case where it is required to install a switch box so that an end part on an opening side of the switch box is not positioned on a predetermined distance or deeper side with respect to an appearance surface that is a surface of a wall. A flat switch (1) of the present invention is a flat switch (1) that is installed in a switch box (100) having a bottom part (101) and a vertical wall part (102) which is provided along an outer periphery of the bottom part (101). The switch box (100) is installed so that, with respect to an appearance surface that is a front surface of a wall, a peripheral edge part (102A) is not positioned on a predetermined distance or deeper side in a depth direction of the wall from the appearance surface. The flat switch (1) includes a sensor unit (20) whose thickest part in a direction from the peripheral edge part (102A) of the switch box (100) to the bottom part (101) is thicker than a predetermined distance in a state of being installed in the switch box and whose outer shape is smaller than an inner shape of the peripheral edge part (102A) of the switch box (100).

An electrical floor box includes a body having an open top and defining an interior therewithin, a cover flange configured to be mounted on the open top of the body, a cover assembly connected to the cover flange such that it is repositionable between open and closed positions, and a light source assembly arranged within the electrical floor box. The light source assembly includes a magnet attached to a bottom surface of the cover assembly, a magnet reed switch installed on the cover flange, a LED light electrically connected to the magnetic reed switch, and a wiring tunnel configured to hold the LED light therewithin. When the cover assembly is in the open position, the magnet disengages with the magnet reed switch such that the LED light illuminates the interior of the electrical floor box.

An information handling system may include a processor to receive input from a trackpad at the information handling system, from a user; and an electropermanent magnet control system to control the activation of an electropermanent magnet (EPM) magnetically couplable to the trackpad to influence the force of actuation.

An electrical contact system is shown and described. The electrical contact system includes a housing. The housing includes a plurality of sidewalk and a top section having an interior volume. A circuit board is secured within the interior volume the circuit board has a plurality of traces located thereon. Each trace has a plurality of lands connected thereto. A plurality of electrical contacts is electrically connected to the lands such that one end of the electrical contact s connection to one trace and the second end of the electrical contact is connected to the second trace

A transportable container assembly including a transportable container defining an enclosed interior space and having an opening member cooperatively engaging a mounting frame. The opening member has a closed position and an open position and access to the interior space is permitted in the open position. A localized device or system is attached to the transportable container and is coupled to an electrical power source. A reed switch apparatus coupled to the transportable container communicates the position of the opening member to the localized device or system. The localized device or system provides a localized function depending on the reported position of the opening member. The localized function includes at least one of a group consisting of a local lighting function, local locking mechanism action and local refrigeration system action/function. The localized device or system communicates the position of the opening member to a remote device or system at a location remote from the transportable container. The remote device or system is capable of providing remote monitoring and control functions or actions at the transportable container depending on the communicated position of the opening member.

Magnetic orientation-independent magnetically actuated switches may be made by producing an outer cylinder and an actuator cylinder from ferromagnetic sheets and non-ferromagnetic sheets in alternating order. A first ferromagnetic body is attached to an end of the outer cylinder. The actuator cylinder is positioned within a first bore of the outer cylinder, the actuator pin is positioned within a second bore of the actuator cylinder and a third bore of the first ferromagnetic body with a portion of the actuator pin extending beyond the third bore of the first ferromagnetic body. A second ferromagnetic body is attached to the portion of the actuator pin, thus forming the magnetic orientation-independent magnetically operated switch.

A filtration system interconnection structure having a filter manifold including a sump housing and a first correlated magnet located on or connected to a portion of the manifold, and a filter cartridge including a filter media, first and second end caps sealed to the filter media, and a second, paired correlated magnet located on or connected to the filter cartridge housing body. The first and second correlated magnets are interconnected via magnetic communication upon insertion of the filter cartridge into the sump housing, and upon movement of the filter cartridge into an alignment position, the correlated magnet located on or connected to the manifold is permitted to translate as a result of the magnetic communication. The polarity profiles of the paired correlated magnets are aligned such that a repulsion force is created when the filter cartridge is inserted within the manifold sump housing.