Abstract: A semiconductor device is disclosed herein. The semiconductor device includes a first conductive feature disposed over a substrate and a silicon carbon nitride (SiCN) layer disposed over the first conductive feature, wherein the SiCN layer has a nitrogen concentration of greater than about 30% and a carbon concentration of less than about 10%.

Abstract: In one example, a method includes forming in a process chamber a first oxide film on a first metallic layer, forming in the process chamber a nitride film on the first oxide film, and forming in the process chamber a second oxide film on the nitride film. Forming the nitride film includes performing a process loop N number of times. The process loop includes depositing a nitride layer and performing an in-situ treatment of the nitride layer. N is a real number greater than one. The nitride film includes N nitride layers as a result of performing the process loop N number of times.

Abstract: A method of forming at least one of a nitride or oxide layer for an integrated circuit, the method comprising: (i) positioning a semiconductor wafer in a processing chamber, the semiconductor wafer including a wafer front side and the processing chamber including differential surfaces adapted to be coupled to a plasma-igniting external radio frequency source; (ii) depositing one of a nitride or oxide on at least an exposed portion of either the semiconductor wafer or a layer affixed relative to the wafer front side by reacting at least two precursor gases for a selected one of the nitride or oxide layer in the chamber while the plasma igniting external radio frequency source is enabled; and (iii) post-treating the one of a nitride or oxide with the plasma igniting external radio frequency source enabled and with exposure to helium and nitrogen in the absence of at least one of the at least two precursor gases.

Abstract: Aspects of the invention include obtaining one or more feature values that define an architecture design of a memory array and implementing a machine learning model to obtain a predicted power, performance, and area (PPA) of the memory array based on the one or more features. The predicted PPA output by the machine leaning model is assessed based on predefined PPA goals. A design of an integrated circuit that includes the memory array is finalized and fabricated based on the predicted PPA meeting the predefined PPA goals.

Abstract: Aspects of the invention include obtaining one or more feature values that define an architecture design of a memory array and implementing a machine learning model to obtain a predicted power, performance, and area (PPA) of the memory array based on the one or more features. The predicted PPA output by the machine leaning model is assessed based on predefined PPA goals. A design of an integrated circuit that includes the memory array is finalized and fabricated based on the predicted PPA meeting the predefined PPA goals.

Abstract: The system comprises a plurality of sensing nodes for detecting real time health parameters of patients; a user interface having a plurality of entry fields allotted to a plurality of medical practitioners and pharmacy shops for updating an information of treatment, medication, disease, stage of disease, treatment duration, and the like; a 6G transceiver for wirelessly communicating with the plurality of sensing nodes and user interfaces; a blockchain-based memory for storing the real time health parameters and the information of treatment, medication, disease, stage of disease, treatment duration, and the like; and a central processing unit for generating a health record of each patients thereby storing into the blockchain-based memory such that a medical practitioner is allowed to access the stored data to study the health record of a patient before treatment or before suggesting any medication/vaccine to avoid the complications or any side effect.

Abstract: An approach is provided in which a system writes a set of data into a register file entry that includes a first memory array and a second memory array. The register file entry also includes a set of first write ports corresponding to the first memory array and a set of second write ports corresponding to the second memory array. The system configures a selection bit based on determining that a selected one of the set of first write ports is utilized to store the set of data in the first memory array. In turn, the system reads the set of data out of the first memory array based on the configured selection bit.

Abstract: An approach is provided in which a system writes a set of data into a register file entry that includes a first memory array and a second memory array. The register file entry also includes a set of first write ports corresponding to the first memory array and a set of second write ports corresponding to the second memory array. The system configures a selection bit based on determining that a selected one of the set of first write ports is utilized to store the set of data in the first memory array. In turn, the system reads the set of data out of the first memory array based on the configured selection bit.

Abstract: Reducing power consumption in a multi-slice computer processor that includes a re-order buffer and an architected register file, including: designating an entry in the re-order buffer as being invalid and unwritten; assigning a pending instruction to the entry in the re-order buffer; responsive to assigning the pending instruction to the entry in the re-order buffer, designating the entry as being valid; writing data generated by executing the pending instruction into the re-order buffer; and responsive to writing data generated by executing the pending instruction into the re-order buffer, designating the entry as being written.

Abstract: Methods and apparatus for preventing premature reads from a general purpose register (GPR) including receiving an instruction comprising a source operand identifying a source GPR entry; setting a read-enabled flag based on a value in a particular entry of a source ready vector; if the read-enabled flag indicates data in the source GPR entry is ready for reading, dispatching the received instruction, including performing a read operation of the data in the source GPR entry; and if the read-enabled flag indicates data in the source GPR entry is not ready for reading, dispatching the received instruction without performing a read operation of the data in the source GPR entry.

Abstract: Reducing power consumption in a multi-slice computer processor that includes a re-order buffer and an architected register file, including: designating an entry in the re-order buffer as being invalid and unwritten; assigning a pending instruction to the entry in the re-order buffer; responsive to assigning the pending instruction to the entry in the re-order buffer, designating the entry as being valid; writing data generated by executing the pending instruction into the re-order buffer; and responsive to writing data generated by executing the pending instruction into the re-order buffer, designating the entry as being written.

Abstract: Reducing power consumption in a multi-slice computer processor that includes a re-order buffer and an architected register file, including: designating an entry in the re-order buffer as being invalid and unwritten; assigning a pending instruction to the entry in the re-order buffer; responsive to assigning the pending instruction to the entry in the re-order buffer, designating the entry as being valid; writing data generated by executing the pending instruction into the re-order buffer; and responsive to writing data generated by executing the pending instruction into the re-order buffer, designating the entry as being written.

Abstract: Reducing power consumption in a multi-slice computer processor that includes a re-order buffer and an architected register file, including: designating an entry in the re-order buffer as being invalid and unwritten; assigning a pending instruction to the entry in the re-order buffer; responsive to assigning the pending instruction to the entry in the re-order buffer, designating the entry as being valid; writing data generated by executing the pending instruction into the re-order buffer; and responsive to writing data generated by executing the pending instruction into the re-order buffer, designating the entry as being written.

Abstract: Reducing power consumption in a multi-slice computer processor that includes a re-order buffer and an architected register file, including: designating an entry in the re-order buffer as being invalid and unwritten; assigning a pending instruction to the entry in the re-order buffer; responsive to assigning the pending instruction to the entry in the re-order buffer, designating the entry as being valid; writing data generated by executing the pending instruction into the re-order buffer; and responsive to writing data generated by executing the pending instruction into the re-order buffer, designating the entry as being written.

Abstract: Reducing power consumption in a multi-slice computer processor that includes a re-order buffer and an architected register file, including: designating an entry in the re-order buffer as being invalid and unwritten; assigning a pending instruction to the entry in the re-order buffer; responsive to assigning the pending instruction to the entry in the re-order buffer, designating the entry as being valid; writing data generated by executing the pending instruction into the re-order buffer; and responsive to writing data generated by executing the pending instruction into the re-order buffer, designating the entry as being written.

Abstract: Methods and apparatus for preventing premature reads from a general purpose register (GPR) including receiving an instruction comprising a source operand identifying a source GPR entry; setting a read-enabled flag based on a value in a particular entry of a source ready vector; if the read-enabled flag indicates data in the source GPR entry is ready for reading, dispatching the received instruction, including performing a read operation of the data in the source GPR entry; and if the read-enabled flag indicates data in the source GPR entry is not ready for reading, dispatching the received instruction without performing a read operation of the data in the source GPR entry.

Abstract: Reducing power consumption in a multi-slice computer processor that includes a re-order buffer and an architected register file, including: designating an entry in the re-order buffer as being invalid and unwritten; assigning a pending instruction to the entry in the re-order buffer; responsive to assigning the pending instruction to the entry in the re-order buffer, designating the entry as being valid; writing data generated by executing the pending instruction into the re-order buffer; and responsive to writing data generated by executing the pending instruction into the re-order buffer, designating the entry as being written.

Abstract: Reducing power consumption in a multi-slice computer processor that includes a re-order buffer and an architected register file, including: designating an entry in the re-order buffer as being invalid and unwritten; assigning a pending instruction to the entry in the re-order buffer; responsive to assigning the pending instruction to the entry in the re-order buffer, designating the entry as being valid; writing data generated by executing the pending instruction into the re-order buffer; and responsive to writing data generated by executing the pending instruction into the re-order buffer, designating the entry as being written.

Abstract: A processor having a dependency matrix comprises a first array comprising a plurality of first cells. A second array couples to the first array and comprises a plurality of second cells. A first write port couples to the first array and the second array and writes to the first array and the second array. A first read port couples to the first array and the second array and reads from the first array and the second array. A second read port couples to the first array and reads from the first array. A second write port couples to the second read port, reads from the second read port and writes to the second array.

Abstract: A processor having a dependency matrix comprises a first array comprising a plurality of first cells. A second array couples to the first array and comprises a plurality of second cells. A first write port couples to the first array and the second array and writes to the first array and the second array. A first read port couples to the first array and the second array and reads from the first array and the second array. A second read port couples to the first array and reads from the first array. A second write port couples to the second read port, reads from the second read port and writes to the second array.