Intel Corporation

Prakaram Joshi

Robert Valentine

Scott R Janus

Changliang Wang

Michael J Espig

Sumit Mohan

Richard R Winterton

Gaurav Kumar

Deepti Aggarwal

Srinivas Moola

Todd Snider

A method of semiconductor modelling includes determining for a virtual model of a layer of a semiconductor package, wherein the layer includes a metal layer, one or more first regions of the layer that do not satisfy a first layer design rule; adding first voids to the one or more first regions to satisfy the first layer design rule; determining for the layer including the metal pattern and the first voids, one or more second regions of the layer that do not satisfy a second layer design rule, different from the first layer design rule; and adding second voids to the one or more second regions to satisfy the second layer design rule.

Semiconductor void placement

Examples described herein relate to a system that includes a central processing unit; a trusted execution environment (TEE); and a graphics processing system. In some examples, the central processing unit is to process homomorphically encrypted video game object data. In some examples, the TEE is to transpose the processed homomorphically encrypted object data to a second encryption format. In some examples, the graphics processing system is to perform a graphics processing pipeline operation on the object data in the second encryption format and provide rendered image data of the video game to a buffer. In some examples, the TEE is to receive homomorphic decryption keys and transpose the processed homomorphically encrypted object data to a second encryption format based on the homomorphic decryption keys. In some examples, the system is to inform a gaming server of a change to object data received from the gaming server to identify cheating.

Anti-cheat game technology in graphics hardware

Systems, methods, and apparatuses to support packed data convolution instructions with shift control and width control are described. In one embodiment, a hardware processor includes a decoder circuit to decode a single instruction into a decoded single instruction, the single instruction having fields that identify a first packed data source, a second packed data source, a packed data destination, a sliding window width, and a stride, and an opcode that indicates an execution circuit is to generate a first chunk of contiguous elements of the first packed data source having a width of the sliding window width, generate a second chunk of contiguous elements of the first packed data source having the width of the sliding window width and shifted by the stride, multiply each element of the first chunk by a corresponding element of a respective chunk of the second packed data source to generate a first set of products, add the first set of products together to generate a first sum, multiply each element of the second chunk by a corresponding element of a respective chunk of the second packed data source to generate a second set of products, add the second set of products together to generate a second sum, and store the first sum in a first element of the packed data destination and the second sum in a second element of the packed data destination; and the execution circuit is to execute the decoded single instruction according to the opcode.

Apparatuses, methods, and systems for a packed data convolution instruction with shift control and width control

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Gilbert, AZ, United States of America

Prakaram Joshi