Managing software deployment
US-2015365437-A1 · Dec 17, 2015 · US
US2019370465A1 · US · A1
| Field | Value |
|---|---|
| Publication number | US-2019370465-A1 |
| Application number | US-201916543554-A |
| Country | US |
| Kind code | A1 |
| Filing date | Aug 17, 2019 |
| Priority date | Mar 7, 2016 |
| Publication date | Dec 5, 2019 |
| Grant date | — |
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To achieve a better overall performance, a preferred pattern processor based on 3-D memory offsets large latency with massive parallelism. A searchable storage comprises a plurality of searchable 3-D memory dice, each of which has in-situ searching capabilities.
Opening claim text (preview).
1 - 20 . (canceled) 21 . A searchable storage comprising a plurality of searchable 3-D memory dice, each of said searchable 3-D memory dice comprising: a single semiconductor substrate; an input bus for transferring at least a search pattern; a plurality of storage-processing units (SPU's) communicatively coupled with said input bus, wherein each of said SPU's comprises: at least a 3-D non-volatile memory (3D-NVM) array including memory cells above said semiconductor substrate and storing at least a portion of data; a pattern-processing circuit on said semiconductor substrate for performing pattern processing for said search pattern and said portion of data; a plurality of intra-die connections for communicatively coupling said 3D-NVM array and said pattern-processing circuit; whereby the primary purpose of said searchable storage is long-term storage and the secondary purpose of said searchable storage is in-situ search. 22 . The searchable storage according to claim 21 , wherein said semiconductor substrate comprises at least a single-crystalline semiconductor material; and, said memory cells do not comprise any single-crystalline semiconductor material. 23 . The searchable storage according to claim 21 , wherein said plurality of SPU's include more than one thousand SPU's; or, said intra-die connections include contact vias through no semiconductor substrate. 24 . The searchable storage according to claim 21 , wherein said 3D-NVM array is a vertical 3D-NVM or a horizontal 3D-NVM. 25 . The searchable storage according to claim 21 being an anti-virus storage, wherein said input bus transfers at least a portion of a virus pattern; said 3D-NVM array stores at least a portion of data; said pattern-processing circuit is a code-matching circuit for searching said virus pattern in said portion of data. 26 . The searchable storage according to claim 21 being a searchable big-data storage, wherein said input bus transfers at least a portion of a keyword; said 3D-NVM array stores at least a portion of data; said pattern-processing circuit is a string-matching circuit for searching said keyword in said portion of data. 27 . The searchable storage according to claim 21 being a searchable audio storage, wherein said input bus transfers at least a portion of an acoustic/language model; said 3D-NVM array stores at least a portion of audio data; said pattern-processing circuit is a speech-recognition circuit for performing speech recognition on said portion of audio data with said acoustic/language model. 28 . The searchable storage according to claim 21 being a searchable image storage, wherein said input bus transfers at least a portion of an image model; said 3D-NVM array stores at least a portion of image data; said pattern-processing circuit is an image-recognition circuit for performing image recognition on said portion of image data with said image model. 29 . The searchable storage according to claim 21 , wherein full pattern processing on at least a fraction of said portion of data is performed by a standalone processor separate from said searchable storage. 30 . A pattern processor die, comprising a semiconductor substrate; an input bus for transferring at least a first portion of a first pattern; a plurality of storage-processing units (SPU's) communicatively coupled with said input bus, each of said SPU's comprising: at least a 3-D non-volatile memory (3D-NVM) array including memory cells above said semiconductor substrate and storing at least a second portion of a second pattern; a pattern-processing circuit on said semiconductor substrate for performing pattern processing for said first and second patterns; a plurality of intra-die connections for communicatively coupling said 3D-NVM array and said pattern-processing circuit; wherein said semiconductor substrate comprises at least a single-crystalline semiconductor material; and, said memory cells do not comprise any single-crystalline semiconductor material. 31 . The pattern processor die according to claim 30 , wherein: said plurality of SPU's include more than one thousand SPU's; or, said intra-die connections include contact vias through no semiconductor substrate. 32 . The pattern processor die according to claim 30 , wherein said 3D-NVM array is a vertical 3D-NVM or a horizontal 3D-NVM. 33 . The pattern processor die according to claim 30 , wherein said input bus transfers at least a portion of a network packet or a digital file; said 3D-NVM array stores at least a portion of a virus pattern; said pattern-processing circuit is a code-matching circuit for searching said virus pattern in said portion of said network packet or said digital file. 34 . The pattern processor die according to claim 30 , wherein said input bus transfers at least a portion of data; said 3D-NVM array stores at least a portion of a keyword; said pattern-processing circuit is a string-matching circuit for searching said keyword in said portion of data. 35 . The pattern processor die according to claim 30 , wherein said input bus transfers at least a portion of audio data; said 3D-NVM array stores at least a portion of an acoustic/language model; said pattern-processing circuit is a speech-recognition circuit for performing speech recognition on said portion of audio data with said acoustic/language model. 36 . The pattern processor die according to claim 30 , wherein said input bus transfers at least a portion of image data; said 3D-NVM array stores at least a portion of an image model; said pattern-processing circuit is an image-recognition circuit for performing image recognition on said portion of image data with said image model. 37 . The pattern processor die according to claim 30 , wherein said input bus transfers at least a portion of a virus pattern; said 3D-NVM array stores at least a portion of data; said pattern-processing circuit is a code-matching circuit for searching said virus pattern in said portion of data. 38 . The pattern processor die according to claim 30 , wherein said input bus transfers at least a portion of a keyword; said 3D-NVM array stores at least a portion of data; said pattern-processing circuit is a string-matching circuit for searching said keyword in said portion of data. 39 . The pattern processor die according to claim 30 , wherein said input bus transfers at least a portion of an acoustic/language model; said 3D-NVM array stores at least a portion of audio data; said pattern-processing circuit is a speech-recognition circuit for performing speech recognition on said portion of audio data with said acoustic/language model. 40 . The pattern processor die according to claim 30 , wherein said input bus transfers at least a portion of an image model; said 3D-NVM array stores at least a portion of image data; said pattern-processing circuit is an image-recognition circuit for performing image recognition on said portion of image data with said image model.
by virus signature recognition · CPC title
using bus bridges (G06F13/4022 takes precedence) · CPC title
Organisation of the matching processes, e.g. simultaneous or sequential comparisons of image or video features; Coarse-fine approaches, e.g. multi-scale approaches; using context analysis; Selection of dictionaries · CPC title
Matching criteria, e.g. proximity measures · CPC title
Test or assess a computer or a system · CPC title
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