An apparatus is provided which comprises: one or more pads comprising metal on a first substrate surface, the one or more pads to couple with contacts of an integrated circuit die, one or more substrate layers comprising dielectric material, one or more conductive contacts on a second substrate surface, opposite the first substrate surface, the one or more conductive contacts to couple with contacts of a printed circuit board, one or more inductors on the one or more substrate layers, the one or more inductors coupled with the one or more conductive contacts and the one or more pads, and highly thermally conductive material between the second substrate surface and a printed circuit board surface, the highly thermally conductive material contacting the one or more inductors. Other embodiments are also disclosed and claimed.

Embodiments include a microelectronic device package structure having an inductor at least partially embedded within a substrate. At least one thermal solution structure may be on a surface of the inductor, and may be thermally coupled with the inductor. The one or more thermal solution structures provide a thermal pathway for cooling for the inductor, and extend a thermal time constant of the inductor.

A package includes a first redistribution structure, a second redistribution structure, an inductor, a permalloy core, and a die. The second redistribution structure is over the first redistribution structure. The inductor includes a first portion, a second portion, and a third portion. The first portion is embedded in the first redistribution structure, the third portion is embedded in the second redistribution structure, and the second portion connects the first and third portions of the inductor. The permalloy core is located between the first and third portions of the inductor. The die is disposed adjacent to the second portion of the inductor.

An electronic device can include a first die, a second die, and an interconnect. The first die or the second die has a principal function as a power module or a memory. The first die includes a first bond pad, and the second die includes a second bond pad. The device sides of the first and second dies are along the same sides as the first and second bond pads. In an embodiment, the first die and the second die are in a chip first, die face-up configuration. The first and the second bond pads are electrically connected along a first solderless connection that includes the interconnect. In another embodiment, each material within the electrical connection between the first and the second bond pads has a flow point or melting point temperature of at least 300° C.

A semiconductor memory is provided. The semiconductor memory comprises a memory chip and a voltage regulation unit. The memory chip includes at least a storage array and the voltage regulation unit includes at least an operational amplifier. The voltage regulation unit is configured to convert an external input first voltage into a second voltage to be provided to a word line driver circuit associated with the memory chip. The first voltage is greater than the second voltage. According to the semiconductor memory provided, power consumption of the memory chip (or the semiconductor memory) is reduced and the second voltage provided to the word line driver circuit reaches a threshold voltage.

This disclosure describes techniques to provide a regulator circuit using a component-on-top (CoP) package. The CoP package comprising a system-in-package (SIP) comprising regulator circuitry, the SIP having a top portion and a first side portion; and an inductor on the top portion of the SIP, wherein: the inductor is coupled to the regulator circuitry via the top portion of the SIP; and a first end of the inductor extends beyond the first side portion of the SIP.

A self-powered electronic system comprises a first chip of single-crystalline semiconductor embedded in a second chip of single-crystalline semiconductor shaped as a container bordered by ridges. The assembled chips are nested and form an electronic device assembled, in turn, in a slab of weakly p-doped low-grade silicon shaped as a container bordered by ridges. The flat side of the slab includes a heavily n-doped region forming a pn-junction with the p-type bulk. A metal-filled deep silicon via through the p-type ridge connects the n-region with the terminal on the ridge surface as cathode of the photovoltaic cell with the p-region as anode. The voltage across the pn-junction serves as power source of the device.

A method includes attaching a voltage regulator to a first redistribution structure of a first package. A second redistribution structure is formed over the voltage regulator, the voltage regulator being embedded in the second redistribution structure. The first substrate is attached to the second redistribution structure to form a second package including the first package. A first voltage may be provided to the second redistribution structure and through the second redistribution structure to the voltage regulator. The voltage regulator regulates the first voltage into a second voltage and provides the second voltage through the first redistribution structure to a first device die, where an output of the voltage regulator is attached directly to the first redistribution structure.

Systems that include integrated circuit dies and voltage regulator units are disclosed. Such systems may include a voltage regulator module and an integrated circuit mounted in a common system package. The voltage regulator module may include a voltage regulator circuit and one or more passive devices mounted to a common substrate, and the integrated circuit may include a System-on-a-chip. The system package may include an interconnect region that includes wires fabricated on multiple conductive layers within the interconnect region. At least one power supply terminal of the integrated circuit may be coupled to an output of the voltage regulator module via a wire included in the interconnect region.

Methods, systems, and devices for power distribution for stacked memory are described. A memory die may be configured with one or more conductive paths for providing power to another memory die, where each conductive path may pass through the memory die but may be electrically isolated from circuitry for operating the memory die. Each conductive path may provide an electronic coupling between at least one of a first set of contacts of the memory die (e.g., couplable with a power source) and at least one of a second set of contacts of the memory die (e.g., couplable with another memory die). To support operations of the memory die, a contact of the first set may be coupled with circuitry for operating a memory array of the memory die, and to support operations of another memory die, another contact of the first set may be electrically isolated from the circuitry.