HPC - Render Layer priorities - Science;Research:Cinematic:Movie:Design & Gaming
A List sorted for functional use in Programming:Science:Gaming:RS
https://science.n-helix.com/2020/04/render.html
The truth is the image & 8/7/6/5/4/3D Holograph/Sound/Wave/Field/Polygon standards:
(Standard Physics Model) for processing data (scans,XRay's,Ultra sound,Sonar: for example)
Are basic standards Implemented by the GPU Processor format support,
Vulkan,OpenGL:ES,DirectX,Mainframe,PC,Mac,Phone & Console
Logic necessitates maths:
Float & Integer : Dynamic,Precision,High precision,Compressed,Half & Lossless compression optimised bit range & masking(for example XOR & AVX,Vector)
Feature sets of the Standard CL_C++ divide,
Simple instruction parallel SiMD,AVX,Vector
from Float & Integer FPU full instruction set
However the supported standard algebra objects : A>Z : Sign standards like planks,
Are to be defined first.
Function call priority:
1: Memory defined maths objects : MDMO : Float,Integer & static
2: Functions by class : SiMD(Vector), Float instructions FPU & Integer instructions
3: Having defined these, We call on Vulkan,OpenGL,Metal,DirectX for supported object classes:
Images,Audio,Polygon's & other objects defined by GPU standards (compression standards for example).
Minimising calls : Parallel Identity instructions: OpenCL,Direct Compute & at the same time,
Call OpenGL,Vulkan,Metal,DirectX,Console code,
The initiated GPU standards called : OpenGL,Vulkan,Metal,DirectX,Console code..
To aquire format standards supported, Do not mean that we have to use the standard on CL_C++/C#,
Acquiring the supported definitions simply means : Usable & Load/Save available.
Order as defined below: Display the HPC Science requirements for Research,Render,CAD,Cinema,Movies,Gaming
Dual execution, Single or multiple source RAM objects; Initiated though resource allocation & management.
AMD,IBM,NVidia,Intel,Sony,Microsoft,Linux,Apple: Follow the model: Dynamic Managed execution & timing assessment with pre-fetch anticipatory cache: L1,L2,L3
(c)Rupert S
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A List sorted for functional use in Programming:Science:Gaming:RS
https://science.n-helix.com/2019/06/kernel.html } Bios : compute : HPC
https://science.n-helix.com/2018/09/hpc-pack-install-guide.html } Without HPC software & this stack nothing works BIG
Over arch API standard SDK core code:
https://www.khronos.org/openkode/
User Interaction:
https://www.khronos.org/streaminput
Display & windows:
https://www.khronos.org/openwf
Media protocols & data collection + camera & video:
Audio, Video & Media encoding standards and hardware, Data collection, Process & Save
https://www.khronos.org/openkcam
https://www.khronos.org/openmaxdl
https://www.khronos.org/sycl }
https://www.khronos.org/opencl } 3x load:code research data exploitation:Render & save+optimise+compress
https://www.khronos.org/collada/ } Dynamic data sets of precise 4/3D assets for study.
https://www.khronos.org/nnef }
https://www.khronos.org/gltf } : 2x for input & output render & data
3D data & photo input standards & compression, Data Sets
https://www.khronos.org/anari
Dispite the priority of high accuracy, Particular to research & CAD conception,
The priority of introduction to Cinematic render makes Gaming a priority,
Particularly in light of RayTrace & WebRender : WebGL, OpenGL:ES & Virtual Systems & VM
https://www.khronos.org/spir - Priority pixel & Vector & Ray-trace 8
https://www.khronos.org/opencl } 3x load:code research data exploitation:Render & save+optimise+compress
https://www.khronos.org/openxr } Extrapolation of rendered data in ML,AI & Analytics
High priority data exploration & utilisation & save:
Data base }
http://science.n-helix.com/2019/06/vulkan-stack.html } data base stack
https://www.khronos.org/collada/ } Dynamic data sets of precise 4/3D assets for study.
https://www.khronos.org/gltf } : 2x for input & output render & data
3D data & photo input standards & compression, Data Sets
https://www.khronos.org/opencl } 3x load:code research data exploitation:Render & save+optimise+compress
ANARI
Analytic Rendering Interface for Data Visualisation
Launched in November 2019, the Khronos Analytic Exploratory Group is now ANARI™, an official Working Group under Khronos governance. This new Analytic Rendering Interface API will streamline data visualisation development for any company creating scientific visualisation rendering engines, libraries and applications. ANARI will free visualisation domain experts and software developers from non-trivial rendering details while enabling graphics experts to avoid domain-specific functionality and optimisations in their rendering backends.
OpenMAX AL (Application Layer)
OpenMAX AL provides a standardized interface between an application and multimedia middleware, where multimedia middleware provides the services needed to perform expected API functionality. OpenMAX AL provides application portability with regards to the multimedia interface.
OpenMAX IL (Integration Layer)
OpenMAX IL serves as a low-level interface for audio, video, and imaging codecs used in embedded and/or mobile devices. It gives applications and media frameworks the ability to interface with multimedia codecs and supporting components (i.e., sources and sinks) in a unified manner. The codecs themselves may be any combination of hardware or software and are completely transparent to the user.
Without a standardized interface of this nature, codec vendors must write to proprietary or closed interfaces to integrate into mobile devices. The principal goal of the IL is to give codecs a degree of system abstraction using a specialized arsenal of features, honed to combat the problem of portability among many vastly different media systems.
OpenMAX DL (Development Layer)
OpenMAX DL defines an API which contains a comprehensive set of audio, video and imaging functions that can be implemented and optimized on new processors by silicon vendors and then used by codec vendors to code a wide range of codec functionality. It includes audio signal processing functions such as FFTs and filters, imaging processing primitives such as color space conversion and video processing primitives to enable the optimized implementation of codecs such as MPEG-4, H.264, MP3, AAC and JPEG. OpenMAX supports acceleration concurrency via both iDL, which uses OpenMAX IL constructs, and aDL which adds asynchronous interfaces to the OpenMAX DL API.
glTF (Image format for 3D objects & subject work)
WebGL has Faster Load Times with glTF’s GLB Format versus Json :
The glTF format GLB loads and saves & loads Vertice vectors at upto 4x the speed,The model is included in the Vulkan Render Layers Initiative & enables computes of 3D/4D/<>8D Models that we need for gaming & research,
Quantum Code can also use the model as it saves considerable time making lattice models..
Suggested standard practice for space & clock cycle; High performance gaming saving gaming.
Tessellation will be faster & Vector Vertice processing faster with a lighter memory footprint.
