CN205486304U - Portable realtime graphic object detection of low -power consumption and tracking means - Google Patents
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Abstract
The utility model provides a portable realtime graphic object detection of low -power consumption and tracking means can be from master control cell culture process and online observation under space and equal adverse circumstances. Does wherein the image acquisition unit include camera interface module, image preprocessing module, AXI including PL subsystem and PS subsystem the DMA module, the camera interface module is used for the parameter control to camera data reading and image resolution, collection frame per second, data format, is the image preprocessing module used for flowing the preliminary treatment operation of colour correction, histogram equalization, space transform, AXI to of collection image is the DMA module used for through AXI the HP interface is realized the autonomic passback of image data to DDR3 RAM, does image accelerator module include restructural image accelerator, AXI the DMA module, restructural image accelerator is used for according to image object detection of the work phase dynamic loading of system or image target following accelerator, AXI is the DMA module used for through AXI the ACP interface is realized the autonomic passback of image data to DDR3 RAM.
Description
Technical field
This utility model belongs to image object detection and tracking technique field, relates to a kind of Low Power Consumption Portable real time imaging
Object detecting and tracking device.
Background technology
Image object detection and tracking are the important component parts of computer vision technique, mainly by extracting target object
Color, profile, texture, the feature such as kinematic parameter, it is achieved it is identified, mates or position.Secondary light source is for target
The region of feature carries out visible or infrared light irradiation, to obtain more visible target image;Video camera realizes target image
Collection;Image acquisition transmission circuit is used for reading, transmitting video camera acquired image data;Image processing equipment comprises meter
The plurality of optional forms such as calculation machine, embedded system, are mainly used in disposing and operation image enhancing, target following scheduling algorithm.
Image processing equipment be image object detection with follow the tracks of system core component, its by Camera Link,
The EBIs such as LVDS, USB, IEEE 1394, control the collection transmission of view data, then by built-in firmware, software or
Application specific hardware modules, processes view data, completes the tasks such as image enhaucament, target detection, target following.Owing to target characteristic carries
Take/model, sample matches/classification, the process such as tracking parameter calculating/renewal are generally of higher computation complexity, for protecting
On the premise of barrier real-time performance of tracking, providing broader algorithm improvement space as far as possible, real-time and data processing rate are images
The major design of processing equipment or type selecting index.
At present, the detection of major part image object mainly relies on graphics workstation or high-performance calculation mechanism with tracking system
Build, use MicrosoftVisual Studio and OpenCV to carry out algorithm software design, and using 50ms/ frame as defining system
Whether possesses the rate-valve value of real-time.As general processor, the multiplication ability of graphics workstation or high-performance computer CPU
The most limited, research worker generally uses the general-purpose computing system framework of CPU PCIe GPU, with the isomery of GPU aiding CPU
Operational pattern, it is achieved the Accelerating running to image object detect and track algorithm.Such as 2014, geology mineral portion of France
J.Gance etc. devise mobile-object tracking system based on surface DSM, and landslide is detected early warning automatically, use
Gigabit Ethernet gathers view data, and its central computer is the graphics workstation being equipped with Intel XeonE5-1607 processor.
2015, Middle East University of Science and Technology of Turkey Ilker etc. used the CPU PCIe GPU isomery computing framework of general purpose computer, it is achieved
High operand, the TLD algorithm of long time-tracking, when 1920 × 1080 image in different resolution are processed, can realize relative to
The acceleration that pure software scheme is 10.8 times.Use graphics workstation or high-performance computer as image processing equipment, can effectively protect
Barrier image object detection and the real-time demand of the system of tracking, have the advantage that design is easy, software and hardware extensibility is strong.So
And, such solution system construction cost and volume power consumption are higher, are only applicable to carry out the indoor application field of wired connection
Scape.Additionally, the NVIDIA series GPU program compatibility of occuping market main body is poor, limit CPU PCIe GPU isomery computing
The portability of program under framework.
Since the nineties in 20th century, the calculated performance of all kinds of embedded processing devices and collection rise the most rapidly, and
It is widely used at image procossing and computer vision field.As shown in table 1, for the image mesh of small-sized movable platform
Mark detection with follow the tracks of application demand, the embedded image processing equipment solution of main flow, mainly include use DSP, FPGA,
The single embedded processing devices such as ARM (Advanced RISC Machines), and DSP FPGA, ARM DSP, SoC etc. are different
Structure embedded processing systems.
DSP is a class towards controlling in real time or the application specific processor of signal processing, relative to general processor, its equipped with
Special multiplier or multiplicaton addition unit, it is possible to fully meet the application demand of image procossing.Image object based on DSP detection with
Track system generally uses C language to develop, and realizes high rate burst communication by built-in hardware multiplier, has real-time, exploitation
Motility and the program maintainability advantage such as preferably.But, the power consumption of High Performance DSP is higher, and cost performance is limited, software portable
Property poor, do not support the general-purpose operating system and multi-task parallel operation.At present, image object based on DSP detection and tracking in the industry
System, is mainly directed towards the simple function platform such as guided missile, monitoring device.
FPGA, by lookup table technology based on RAM (RandomAccess Memory), can realize specific function numeral
The deployment able to programme of circuit.Due to the circuit parallel of its uniqueness, when the view data that process pixel quantity is huge, have very
Strong innate advantage.But, FPGA exploitation technical threshold higher, and its add parallel fast mode be only applicable to context data without
Association, flow process better simply intensive operations link, therefore, it is difficult to use it to realize complicated exquisite high robust image object inspection
Survey and track algorithm.At present, image object based on FPGA detection and the system of tracking, be based primarily upon flow process simple early stage in the industry
Algorithm, the robustness of detect and track, accuracy are poor.
ARM, as a class low-power consumption, general processor, can carry the embedded OSs such as Linux, WinCE, in exploitation
The aspects such as motility, program maintainability, software portability, multi-task parallel operation have significant advantage.But, its floating-point
Computing and multiplying ability are poor, it is impossible to fully ensure the real-time of image object detection and the system of tracking.At present, base in the industry
Image object in ARM detects and the system of tracking, is based primarily upon the simple algorithm that the amount of calculation such as color, texture is relatively low, detection and
Robustness, the accuracy followed the tracks of are poor.
Owing to the embedded processing devices such as DSP, FPGA, ARM are respectively arranged with pluses and minuses, for fully meet image object detection with
Track system in the demand of the aspects such as real-time, accuracy, power consumption, extensibility, and equilibrium development difficulty, cost, reliability, can
The factors such as autgmentability.In recent years, occur in that the most successively based on the isomery such as DSP FPGA, ARM DSP, SoC embedded processing system
Image object detection and the system of tracking of system.Comprise the dissimilar processing apparatus of two or more in heterogeneous processing system, pass through
Task resolution, according to subtask feature, calls particular procedure device and processes, to merge the advantage of various processor part.But
It is that DSP FPGA and ARM DSP heterogeneous processing system use sheet external bus to carry out the data interaction between two processing apparatus, its
Traffic rate is relatively low, less stable, and overall engineering practical value is relatively low.SoC can be integrated on monolithic integrated circuit chip
The dissimilar processing apparatus of two or more, and realize the mutual and allotment between processing apparatus by bus on chip, relative to
DSP FPGA and ARM dsp system, it has outstanding advantage at aspects such as volume power consumption, stability, traffic rates.But, existing
The most SoC processors having use does not has master-slave between double-core structure, i.e. processing apparatus, need to coordinate in a program
Task between processing apparatus is distributed, is ensured its concurrent working, just can play the maximum treatment efficiency of SoC, system configuration and journey
Sequence design difficulty is higher.
2011, Xilinx company was proposed full Programmable Technology Zynq-7000SoC of support.Including with ARM Cortex-
PS (Processing System) subsystem centered by A9 general processor and the PL centered by FPGA
(Programmable Logic) subsystem.Relative to existing SoC product, it is can directly run the PS subsystem of operating system
System is for main side, it is achieved to the configuration of PL, programs, reconstruct;Peripheral hardware able to programme with PL subsystem as arm processor, can be used for structure
Build computing accelerating module, image coprocessor or data/control interface.Particular, it is important that PS subsystem and PL subsystem it
Between can pass through AXI (Advanced eXtensible Interface) bus, through interfaces such as AXI-GP, AXI-HP, AXI-ACP
Realize the high-speed data coupling of 400-800MB/s.The primary and secondary structure of Zynq-7000SoC avoids appointing of double-core structure SoC
Business scheduling and a coordination difficult problem, in its sheet, high speed AXI EBI ensure that the stability of system, high efficiency, and it is based on general embedding
The PS subsystem entering formula processor and standard operation system ensure that versatility and the exploitability of system, its PL based on FPGA
Subsystem can provide the parallel acceleration to intensive operations link.Meanwhile, by Xilinx Vivado HLS (High Level
Synthesis) instrument, can use C/C++ language, in PL subsystem, it is achieved accelerate graphics coprocessor or image algorithm
The FPGA of IP kernel quickly designs deployment, reduces the technological development threshold of system.
The versatility, stability, the real-time that are possessed in image procossing application in view of Zynq-7000SoC, can develop
Property etc. advantage, from release since, achieve application in fields such as images steganalysis rapidly.2014, Institutes Of Technology Of Nanjing
Wang Shuling etc. use Zynq-7000SoC design to achieve Real time face detection system, but it only used PS subsystem, system
The algorithm used is relatively simple, and real-time is poor.2014, Zhuhai radio and TV university Yang Xiao peace etc. used Zynq-7000SoC to set
Meter achieves high-speed image sampling and real time processing system, but it only uses PL subsystem to achieve data acquisition interface, and not
Relate to image operation and process.2014, the employing Zynq-7000SoC designs such as Southern Yangtze University Wang Zhi is refined achieved dense optical flow
Method, it uses the technology that software-hardware synergism processes, but is only limitted to the extraction of image Optical-flow Feature, is not directed to image object detection
With the application of the high-level abstractions such as tracking.2014, the vertical treasured of the Maritime Affairs University Of Dalian etc. used Zynq-7000SoC design to achieve car
Board identification system, but it only uses PL subsystem to achieve collection and the pretreatment of image, and be not directed to image object detection with
The high-level abstractions application such as tracking.2015, Institutes Of Technology Of Taiyuan Jiao used the most by force etc. Zynq-7000SoC design to achieve embedding
Formula digital image processing system, but it only verifies in PL subsystem that the simple image such as Sobel filter process function, and do not relate to
And software-hardware synergism image procossing.
Utility model content
The purpose of this utility model is to provide a kind of Low Power Consumption Portable real time imaging object detecting and tracking device, energy
Enough Autonomous Control cell cultivation process and online observations under space and equal adverse circumstances.
The technical solution realizing this utility model purpose is:
A kind of Low Power Consumption Portable real time imaging object detecting and tracking device, including PL subsystem and PS subsystem, PS
AXI-ACP interface, AXI-HP interface and DMA channel is used to realize in the middle of view data and computing between subsystem and PL subsystem
Data mutual;Wherein PL subsystem includes image acquisition units and graphics acceleration unit;Wherein:
Image acquisition units includes utilizing camera interface module, image pre-processing module, AXI-DMA module;Described photographic head
Interface module is for photographic head digital independent and image resolution ratio, acquisition frame rate, the state modulator of data form, and image is pre-
Processing module is for gathered image stream color correction, histogram equalization, the pretreatment operation of spatial alternation, AXI-DMA mould
Block is for realizing view data to the autonomous passback of DDR3RAM by AXI-HP interface;
Graphics acceleration unit includes restructural image accelerator, AXI-DMA module;Restructural image accelerator is used for basis
The detection of system working stage dynamic load image object or tracking image target accelerator, it is achieved the acceleration to algorithms of different;
AXI-DMA module is for realizing view data to the autonomous passback of DDR3RAM by AXI-ACP interface;
AXI-DMA module in image acquisition units and graphics acceleration unit is all by AXI-Lite interconnection module and AXI-
GP interface connects.
The beneficial effects of the utility model:
(1) this utility model uses the isomery computing framework that software and hardware combines, and builds figure in PL subsystem (FPGA)
As parallel accelerating module, perform the algorithm link that computing is intensive;Operation image mesh in a software form in PS subsystem (ARM)
Mark detection and the main body software of track algorithm;Utilize data interaction that DMA and AXI bus realizes between PS and PL subsystem and appoint
Business allotment.So that this system is provided simultaneously with versatility and the exploitability of ARM-Linux embedded system, FPGA system is parallel
The real-time of computing, the low-power consumption of SoC system, portability, it is possible to fully meet the low merit such as autonomous robot, smart mobile phone
Consumption, the application demand of complex function mobile platform.
(2) this utility model uses C/C++ language design software, uses C++, VHDL/Verilog HDL language to carry out
FPGA firmware design, it is the essence design standard of electronic information industry software and hardware respectively, therefore relative to other solution
There is more excellent portability.
(3) this utility model is higher with track algorithm accelerator resource consumption for using the detection of FPGA design image object
Problem, use dynamic partial reconfigurable technology, image accelerator Optimization of Word Length algorithm based on simulated annealing to carry out excellent
Change, effectively reduce system resources consumption and power consumption.
Accompanying drawing explanation
Fig. 1 is image object of the present utility model detection and tracking apparatus structure block diagram;
Fig. 2 is the detection of this utility model image object and tracking device design flow diagram;
Fig. 3 is the detection of this utility model image object and tracking device workflow diagram.
Detailed description of the invention
Develop simultaneously embodiment below in conjunction with the accompanying drawings, is described in detail this utility model.
This utility model is a kind of low-power consumption, portable real time imaging object detecting and tracking system, and it is mainly directed towards
The low-power consumption such as autonomous robot, smart mobile phone, the mobile platform of complex function.
Major design flow process of the present utility model is as shown in Figure 2.
The first step, for application demand, uses the advanced language programmings such as C/C++ to realize towards Zynq-7000PS subsystem
Image object detection and the track algorithm software code of (ARM-Linux platform).At detection-phase, image object detection is used to calculate
Method realizes the identification to interesting target;At tracking phase, tracking image target algorithm is used to realize detection gained target
Consecutive tracking.
Second step, is some relatively independent links by algorithm partition, during by timer to the operation of each algorithm link
Between be estimated, and analyze its characteristic such as arithmetic type, data association further.
3rd step, determines the software and hardware embodiment of each algorithm link according to second step assessment result, uses PS end software
Realize algorithm main body control flow process, use the computing intensity link of PL end restructural image accelerator Parallel Implementation algorithm.
4th step, uses Vivado HLS instrument, with C Plus Plus designed image target detection/Track Accelerator IP kernel.
5th step, allows category as the resource consumption of image object detection/Track Accelerator IP kernel exceedes system, uses mould
Intend annealing algorithm accelerator word length is optimized.Finally, software and firmware module being packaged and disposed, completion system sets
Meter.
Image object detection/Track Accelerator IP kernel designed by this utility model, with the image of large data capacity
Data, for processing object, therefore can cause higher FPGA resource consumption.For avoiding drawing because PL subsystem resource overuses
Stability declines sent out, the problem such as power consumption rising, this utility model is in the 5th step employing simulated annealing pair of design cycle
Image object detection/Track Accelerator is optimized.
Assuming that image object detection/Track Accelerator relates generally to the computing of n group variable, take when each variable is floating number
Operation result is canonical solution.This algorithm is expected to quantization error and is less than under 1.5% premise, tries to achieve the variable floating number of shortest word length
Representation wbest=[wbestword,1,wbestint,1,wbestword,n,wbestint,n], to save FPGA resource consumption.Wherein
wbestword,nIt is the total word length of the shortest fixed-point number of the n-th variable, wbestint,nIt it is the shortest fixed-point number integer part of the n-th variable
Word length.This Solve problems is also denoted as:
Wherein Cost (w) represents that solving result is consumed resource during w, and QuantizerError (w) expression solves knot
Fruit is quantization error during w, ratethresholdFor computing accuracy rate threshold value 98.5% (i.e. 100%-1.5%).
The first step, it is temp that this algorithm will arrange initial temperature0, and use random number array to initialize lookup center vector
wcenterWith optimal solution vector wbest, and calculate computing accuracy rate rate of correspondencecenterAnd ratebest。
Second step, entrance is circulated by this algorithm, and in each cyclic process, temperature temp all can be with under ratio decayScale
Drop once, until being reduced to threshold value tempthresh, that terminates algorithm solves execution.
3rd step, this algorithm will search center vector wcenterNear randomly choose one group of solution w with Markov chaintry, and
Calculate computing accuracy rate of its correspondencetry。
4th step, works as wtryMeet computing accuracy requirement, and Cost (wtry)<Cost(wbest), then use wtryUpdate
wbest。
5th step, works as wtryMeet computing accuracy requirement, and Cost (wtry)<Cost(wcenter), then use wtryUpdate
wcenter;Otherwise, with exp (-(Cost (wtry)-Cost(wcenter))/temp) it is that probability uses wtryUpdate wcenter。
Such as table 1, using single Gaussian Background model is that image object detection algorithm is verified.IP kernel is carried out through algorithm 1
Optimization of Word Length, the resource consumption of image object detection accelerator IP kernel is remarkably decreased, and testing result is basically unchanged, and demonstrates this
The effectiveness of algorithm.
Table 1 Low Power Consumption Portable real time imaging object detecting and tracking system Optimization of Word Length contrasts
The Low Power Consumption Portable real time imaging target detection that this utility model design realizes follows the tracks of principle of device block diagram such as Fig. 1
Shown in, it uses monolithic Zynq-7000SoC to realize the single-chip integration to system.Image detection algorithm and image tracking algorithm
Main body, is deployed in PS subsystem with the form of ARM-Linux built-in system software;Image detection algorithm and image trace are calculated
The computing intensity link of method, and each class interface, be deployed in PL subsystem with the form of FPGA firmware, and pass through AXI-GP
Interface is called by the programme-control run in PS subsystem;AXI-ACP interface, AXI-is used between PS subsystem and PL subsystem
HP interface and DMA channel realize the mutual of view data and computing intermediate data.Isomery computing by this kind of FPGA auxiliary ARM
Framework, it is achieved system versatility is equilibrium with real-time.
FPGA firmware in PL subsystem mainly includes image acquisition units and graphics acceleration unit, and it is right that the former mainly realizes
Interface Controller, image acquisition and the pretreatment of external OV7670CMOS minisize pick-up head, the latter mainly realize image object detection/
That follows the tracks of accelerates function parallel.
Image acquisition units comprises utilizing camera interface module, image pre-processing module, AXI-DMA module etc.: photographic head connects
Mouth die block mainly realizes the state modulator such as photographic head digital independent and image resolution ratio, acquisition frame rate, data form, image
Pretreatment module mainly realizes the pretreatment operation such as gathered image stream color correction, histogram equalization, spatial alternation, AXI-
Dma module is mainly realized view data to the autonomous passback of DDR3RAM by AXI-GP interface.
Image accelerating module mainly comprises restructural image accelerator, AXI-DMA module.Restructural image accelerator is PL
The a piece of restructural region divided in subsystem, it dynamically can add according to system working stage (detection-phase or tracking phase)
Carry image object detection or tracking image target accelerator, it is achieved the acceleration to algorithms of different.
Between each IP kernel of PL subsystem internal administration and functional module, the 32bitAXI-Stream bus of standard is all used to enter
Row interconnection, has higher efficiency and versatility.The AXI-DMA module of image acquisition units and graphics acceleration unit is passed through respectively
AXI-HP interface and AXI-ACP interface realize the data interaction with PS subsystem.On the one hand, by the isolation between interface, it is to avoid
The communication efficiency that bus conflict causes declines;On the other hand, the transmission of computing intermediate data directly can be synchronized to PS by AXI-ACP
In the processor cache of subsystem, frequent, the high efficiency interactive being more beneficial between software program and firmware.
It is equipped with ARM-Linux embedded OS in PS subsystem, supports that many algorithms, multi-task parallel operate, can
Fully meet the application demand of the complex function platform such as autonomous robot, smart mobile phone.In the solid-state memory that it controls,
Each driver of modules module (.ko file) and firmware program module (.bit file or .bin file) is stored with document form,
It is beneficial to system administration, upgrading and function based on dynamic reconfigurable switching.
The Low Power Consumption Portable real time imaging target detection that this utility model design realizes follows the tracks of device workflow sketch
As shown in Figure 3.Its workflow can be divided into detection-phase and tracking phase:
The first step, after system start-up, resets and initializes each device Drivers, and being loaded extremely by target detection accelerator
Restructural image accelerator.
Second step, image acquisition units collection, pretreatment image, and through AXI-DMA channel transfer to PS subsystem
DDR3 internal memory.
3rd step, the image detection algorithm in PS subsystem is by reception and processes image, performs inverse in a software form
Intensive algorithm link, and call graphics acceleration unit execution computing intensity algorithm link.
4th step, according to the result of software-hardware synergism detection, as found interesting target, then will perform dynamic part can weigh
Structure operates, and loads target following accelerator to restructural image accelerator, and starts tracking image target algorithm.
5th step, the image tracking algorithm in PS subsystem is by reception and processes image, performs inverse in a software form
Intensive algorithm link, and call graphics acceleration unit execution computing intensity algorithm link.
6th step, system, by continuous positioning target location, terminates until following the tracks of.
This utility model selects Gaussian Background model to be image object detection algorithm, and selecting compression track algorithm is image mesh
Mark track algorithm.Use PS subsystem software to realize the target designation link of Gaussian Background model, use the inspection of PL subsystem objectives
Survey accelerator and realize the foreground detection link of Gaussian Background model;PS subsystem software is used to realize the candidate of compression track algorithm
The links such as sample collection, integrogram calculating, compressed sensing, grader renewal, use PL subsystem objectives detection accelerator to realize
The Naive Bayes Classifier link of compression track algorithm.Relative to high-performance computer (Intel Core i7-4712MQ,
8GB DDR3RAM, Windows 764-bit), the built-in real time image object detecting and tracking system designed by this utility model
System, can realize higher processing speed, and weight only 125g, volume only 118 × 98 × 45mm, peak power only 2.99W, it is possible to
Fully meet low-power consumption, portable application demand.
In sum, these are only preferred embodiment of the present utility model, be not intended to limit of the present utility model
Protection domain.All within spirit of the present utility model and principle, any modification, equivalent substitution and improvement etc. made, all should wrap
Within being contained in protection domain of the present utility model.
Claims (1)
1. a Low Power Consumption Portable real time imaging object detecting and tracking device, including PL subsystem and PS subsystem, it is special
Levy and be: between PS subsystem and PL subsystem, use AXI-ACP interface, AXI-HP interface and DMA channel to realize view data
Mutual with computing intermediate data;Wherein PL subsystem includes image acquisition units and graphics acceleration unit;Wherein:
Image acquisition units includes utilizing camera interface module, image pre-processing module, AXI-DMA module;Described utilizing camera interface
Module is for photographic head digital independent and image resolution ratio, acquisition frame rate, the state modulator of data form, Image semantic classification
Module is for gathered image stream color correction, histogram equalization, the pretreatment operation of spatial alternation, and AXI-DMA module is used
In being realized view data to the autonomous passback of DDR3RAM by AXI-HP interface;
Graphics acceleration unit includes restructural image accelerator, AXI-DMA module;Restructural image accelerator is for according to system
The detection of working stage dynamic load image object or tracking image target accelerator, it is achieved the acceleration to algorithms of different;AXI-DMA
Module is for realizing view data to the autonomous passback of DDR3RAM by AXI-ACP interface;
AXI-DMA module in image acquisition units and graphics acceleration unit is all connect with AXI-GP by AXI-Lite interconnection module
Mouth connects.
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CN105631798A (en) * | 2016-03-04 | 2016-06-01 | 北京理工大学 | Low-power consumption portable real-time image target detecting and tracking system and method thereof |
CN107861906A (en) * | 2017-09-26 | 2018-03-30 | 成都九洲迪飞科技有限责任公司 | A kind of FPGA and arm processor high-speed data interactive system and method |
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CN105631798A (en) * | 2016-03-04 | 2016-06-01 | 北京理工大学 | Low-power consumption portable real-time image target detecting and tracking system and method thereof |
CN105631798B (en) * | 2016-03-04 | 2018-11-27 | 北京理工大学 | Low Power Consumption Portable realtime graphic object detecting and tracking system and method |
CN107861906A (en) * | 2017-09-26 | 2018-03-30 | 成都九洲迪飞科技有限责任公司 | A kind of FPGA and arm processor high-speed data interactive system and method |
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CN111178322A (en) * | 2020-01-10 | 2020-05-19 | 济南浪潮高新科技投资发展有限公司 | Identification acceleration system and method for edge image |
CN111178322B (en) * | 2020-01-10 | 2022-09-30 | 山东浪潮科学研究院有限公司 | Identification acceleration system and method for edge image |
CN113763416A (en) * | 2020-06-02 | 2021-12-07 | 璞洛泰珂(上海)智能科技有限公司 | Automatic labeling and tracking method, device, equipment and medium based on target detection |
CN112184537A (en) * | 2020-09-30 | 2021-01-05 | 王汉 | Heterogeneous computing architecture camera system and image processing method |
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