An industrial automation device, comprising: a power cabinet comprising: a direct current, DC, pre-charge module, at least two slide out rails, an inverter module, and a pre-charge module receiver; the direct current, DC, pre-charge module comprising: a power input having a positive stab and a negative stab configured to couple the DC pre-charge module to a DC power source, a direct current, DC, pre-charge circuit configured to pre-charge a direct current, DC, bus configured to couple to the inverter module, a pre-charge control circuitry positioned along a side of the DC pre-charge module, at least two slide out rail supports disposed on the top of the DC pre-charge module at each side and providing a mechanism for the DC pre-charge module to slide into and out of the power cabinet via a sliding action by a user, an electrical output providing a connection between the DC pre-charge module and the inverter module, and a removable fuse sub-assembly allowing efficient access to replace one or more fuses located in the fuse sub-assembly; wherein the at least two slide out rails are configured to receive the slide out rail supports of the DC pre-charge module; wherein the inverter module is positioned beneath the DC pre-charge module within the power cabinet, and comprises: an electrical input configured to couple to the electrical output of the DC pre-charge module, wherein a coupling device is configured to secure the input to the electrical output; at least one capacitor configured to couple across the DC bus charged during a pre-charge operation via the DC pre-charge circuit, and an inverter circuit; wherein the pre-charge module receiver includes a power fork plug functioning as a power source interface configured to couple the positive power stab and the negative power stab to the DC power source; and wherein the DC pre-charge module is configured to be removeably coupled to the inverter module and to the DC power source via a sliding action. a power cabinet comprising: a direct current, DC, pre-charge module, at least two slide out rails, an inverter module, and a pre-charge module receiver; the direct current, DC, pre-charge module comprising: a power input having a positive stab and a negative stab configured to couple the DC pre-charge module to a DC power source, a direct current, DC, pre-charge circuit configured to pre-charge a direct current, DC, bus configured to couple to the inverter module, a pre-charge control circuitry positioned along a side of the DC pre-charge module, at least two slide out rail supports disposed on the top of the DC pre-charge module at each side and providing a mechanism for the DC pre-charge module to slide into and out of the power cabinet via a sliding action by a user, an electrical output providing a connection between the DC pre-charge module and the inverter module, and a removable fuse sub-assembly allowing efficient access to replace one or more fuses located in the fuse sub-assembly; wherein the at least two slide out rails are configured to receive the slide out rail supports of the DC pre-charge module; a power input having a positive stab and a negative stab configured to couple the DC pre-charge module to a DC power source, a direct current, DC, pre-charge circuit configured to pre-charge a direct current, DC, bus configured to couple to the inverter module, a pre-charge control circuitry positioned along a side of the DC pre-charge module, at least two slide out rail supports disposed on the top of the DC pre-charge module at each side and providing a mechanism for the DC pre-charge module to slide into and out of the power cabinet via a sliding action by a user, an electrical output providing a connection between the DC pre-charge module and the inverter module, and a removable fuse sub-assembly allowing efficient access to replace one or more fuses located in the fuse sub-assembly; wherein the at least two slide out rails are configured to receive the slide out rail supports of the DC pre-charge module; wherein the inverter module is positioned beneath the DC pre-charge module within the power cabinet, and comprises: an electrical input configured to couple to the electrical output of the DC pre-charge module, wherein a coupling device is configured to secure the input to the electrical output; at least one capacitor configured to couple across the DC bus charged during a pre-charge operation via the DC pre-charge circuit, and an inverter circuit; wherein the pre-charge module receiver includes a power fork plug functioning as a power source interface configured to couple the positive power stab and the negative power stab to the DC power source; and wherein the DC pre-charge module is configured to be removeably coupled to the inverter module and to the DC power source via a sliding action. an electrical input configured to couple to the electrical output of the DC pre-charge module, wherein a coupling device is configured to secure the input to the electrical output; at least one capacitor configured to couple across the DC bus charged during a pre-charge operation via the DC pre-charge circuit, and an inverter circuit; wherein the pre-charge module receiver includes a power fork plug functioning as a power source interface configured to couple the positive power stab and the negative power stab to the DC power source; and wherein the DC pre-charge module is configured to be removeably coupled to the inverter module and to the DC power source via a sliding action.