Abstract: A memory system includes a memory array and a memory controller. The memory array includes a plurality of memory dies communicatively coupled via a plurality of memory channels, each memory channel communicatively coupled to a subset of the plurality of memory dies. The memory controller includes a command scheduler configured to determine an operator status of each memory die of the memory array, determine, based on the operator status of each of the memory dies, an order in which to output commands to the memory dies, update a mapping table based on the determined order in which to output the commands to the memory dies of the memory array, and output the commands to the memory dies of the memory array in the determined order in the mapping table.

Abstract: A memory system includes a memory array and a memory controller. The memory array includes a plurality of memory dies communicatively coupled via a plurality of memory channels, each memory channel communicatively coupled to a subset of the plurality of memory dies. The memory controller includes a command scheduler configured to determine an operator status of each memory die of the memory array, determine, based on the operator status of each of the memory dies, an order in which to output commands to the memory dies, update a mapping table based on the determined order in which to output the commands to the memory dies of the memory array, and output the commands to the memory dies of the memory array in the determined order in the mapping table.

Abstract: A sound proofing window system for use with an acoustic door is disclosed. The system includes 2 fully decoupled acoustic reveal formed between 2 acoustic windows, thereby providing a higher level of sound proofing than is achievable with existing art. A decoupled acoustic reveal means that there is no path of contact between the two acoustic windows that is unbroken by soundproofing material. Further, the acoustic windows may be positioned fully or partially outside the thickness of the door to increase the air gap. Prior art systems may attempt to partially decouple the acoustic reveal. A windowed standard 1.75 inch acoustic door according to the present invention provides an STC rating of 56-57, which is far superior to the 35-47 STC rating comparable prior art. The STC rating of the present invention on a 5 inch thick door is estimated at 64 compared to 54 using conventional technology.

Abstract: A sound proofing window system for use with an acoustic door is disclosed. The system includes 2 fully decoupled acoustic reveal formed between 2 acoustic windows, thereby providing a higher level of sound proofing than is achievable with existing art. A decoupled acoustic reveal means that there is no path of contact between the two acoustic windows that is unbroken by soundproofing material. Further, the acoustic windows may be positioned fully or partially outside the thickness of the door to increase the air gap. Prior art systems may attempt to partially decouple the acoustic reveal. A windowed standard 1.75 inch acoustic door according to the present invention provides an STC rating of 56-57, which is far superior to the 35-47 STC rating comparable prior art. The STC rating of the present invention on a 5 inch thick door is estimated at 64 compared to 54 using conventional technology.

Abstract: A framing corner joint includes first and second framing rails of fiberglass-reinforced resin construction. The first and second framing rails have hollow mitered ends. A pair of thermoplastic plugs are received in the mitered ends of the respective framing rails. Each of the plugs includes a body inserted into the hollow interior of an associated framing rail and a flat plug flange at an angle of 45° to the body. The plug flanges extend outwardly from the peripheries of the bodies between the rail ends and have flat end faces that are bonded to each other. The bodies of the plugs preferably are hollow, and preferably are received by interference press-fit within the ends of the rails. The plug flanges of the plugs preferably are welded to each other.

Abstract: According to one embodiment of the invention, a method for predicting burn-in conditions includes identifying a baseline IDDQ, a baseline temperature, and a baseline IDDQ current density based on a plurality of existing burn-in data for one or more existing devices, determining a theoretical IDDQ current density for a device, determining a ratio of the theoretical IDDQ current density to the baseline IDDQ current density, determining a theoretical process metric for the device at the baseline temperature based on the ratio and the baseline IDDQ, measuring a process metric for an actual device, comparing the process metric for the actual device and the theoretical process metric for the device, and determining an actual burn-in temperature for the actual device based on the comparison.