会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 1. 发明授权
    • Image processing apparatus, image processing method, and non-transitory computer readable medium storing image processing program
    • 图像处理装置,图像处理方法以及存储图像处理程序的非暂时性计算机可读介质
    • US08600156B2
    • 2013-12-03
    • US13397281
    • 2012-02-15
    • Taro Yokose
    • Taro Yokose
    • G06K9/36H04N1/41
    • H04N1/648H04N19/115H04N19/124H04N19/15H04N19/176H04N19/192
    • Provided is an image processing apparatus including a receiving unit that receives a point sequence image, a point-plane conversion unit that performs a point-plane conversion processing for the image received by the receiving unit, plural lossy encoding units that perform a lossy encoding processing for the point-plane conversion image by using the point-plane conversion unit, and a control unit that performs control such that transmission of the image to the lossy encoding unit from the point-plane conversion unit is controlled to synchronize lossy encoding processings of the plural lossy encoding units, and each lossy encoding unit changes processing variables used in the encoding processing based on a code amount of the processing result of the lossy encoding unit.
    • 提供一种图像处理装置,包括接收点序列图像的接收单元,对由接收单元接收的图像执行点平面转换处理的点平面转换单元,执行有损编码处理的多个有损编码单元 对于通过使用点平面转换单元的点平面转换图像,以及控制单元,其执行控制,使得从点平面转换单元传输图像到有损编码单元被控制以同步有损编码处理 多个有损编码单元,并且每个有损编码单元基于有损编码单元的处理结果的代码量改变在编码处理中使用的处理变量。
    • 3. 发明授权
    • Coding apparatus, decoding apparatus, coding method, decoding method, computer readable medium and computer data signal
    • 编码装置,解码装置,编码方法,解码方法,计算机可读介质和计算机数据信号
    • US07382294B2
    • 2008-06-03
    • US11519947
    • 2006-09-13
    • Taro YokoseMasao MoritaTomoki Taniguchi
    • Taro YokoseMasao MoritaTomoki Taniguchi
    • H03M7/32H04N7/42
    • G06T9/004
    • A coding apparatus includes a predicting unit, an intermediate-code generating unit, a first coding unit and a second coding unit. The predicting unit generates a piece of prediction data based on each piece of pixel data constituting a color image. The intermediate-code generating unit compares each piece of prediction data with the corresponding piece of pixel data, to generate an intermediate code in accordance with whether or not a difference between each piece of prediction data and the corresponding piece of pixel data is in a predetermined range. The first coding unit performs entropy coding on the generated intermediate code. The second coding unit performs entropy coding on the generated intermediate code. The intermediate-code generating unit assigns each generated intermediate code to either of the first and second coding units according to whether or not the difference is in the predetermined range.
    • 编码装置包括预测单元,中间码产生单元,第一编码单元和第二编码单元。 预测单元基于构成彩色图像的每个像素数据产生一条预测数据。 中间码产生单元将每条预测数据与对应的像素数据进行比较,以根据每条预测数据和对应的像素数据之间的差是否处于预定的方式来生成中间码 范围。 第一编码单元对生成的中间码进行熵编码。 第二编码单元对生成的中间码进行熵编码。 中间码产生单元根据该差是否在预定范围内,将所生成的中间码分配给第一编码单元和第二编码单元。
    • 6. 发明授权
    • Image processing device
    • 图像处理装置
    • US07158683B2
    • 2007-01-02
    • US10376608
    • 2003-03-03
    • Taro Yokose
    • Taro Yokose
    • G06K9/36G06K9/00
    • G06T9/004H04N19/12H04N19/132H04N19/176H04N19/182H04N19/60H04N19/85
    • An image processing device for compressing image data using conversion to spatial frequency components may include a dividing section that divides the image data into a plurality of pixel blocks and computes spatial frequency components of each pixel block; a segmenting section that computes an intensity of predetermined high frequency components from information of the spatial frequency components and segments the image data into a first plane formed by including a pixel block having an intensity which is less than a predetermined threshold value and into a second plane formed by including a pixel block having an intensity which is equal to or greater than the threshold value; a compression section that executes compression for the first plane image data by applying quantization and entropy coding using the spatial frequency components information; and a run length compression section that executes run length compression of the second plane image data.
    • 用于使用转换为空间频率分量来压缩图像数据的图像处理装置可以包括将图像数据划分为多个像素块并计算每个像素块的空间频率分量的分割部分; 分割部分,其从所述空间频率分量的信息中计算预定高频分量的强度,并将所述图像数据分割成通过包括具有小于预定阈值的强度的像素块形成的第一平面并进入第二平面 通过包括具有等于或大于阈值的强度的像素块形成; 压缩部,其通过使用所述空间频率分量信息进行量化和熵编码来对所述第一平面图像数据执行压缩; 以及游程长度压缩部,其执行第二平面图像数据的游程长度压缩。
    • 7. 发明授权
    • Image coding device, image decoding device, image coding/decoding device and image coding/decoding method
    • 图像编码装置,图像解码装置,图像编码/解码装置以及图像编码/解码方法
    • US06636642B1
    • 2003-10-21
    • US09516931
    • 2000-03-01
    • Taro Yokose
    • Taro Yokose
    • G06K936
    • H04N19/93G06T9/004H03M7/48H04N1/417
    • To realize image coding/decoding device that can compress an input multivalued image with high compression efficiency, the following measures are taken. First and second predictors predict the value of a target pixel based upon image data according to respective predetermined methods and respectively generate predicted value data. A run counter compares the image data and the predicted value data and if prediction hits and run continues to a pixel immediately before a count value of the run of the corresponding predictor is incremented by one. If there is no predictor the prediction of which hits and the runs of which continued to a pixel immediately before, the runs are sent to a selector together with the identification number of the predictor as run data. The selector selectively outputs a run value and an identification number or prediction error data from a prediction error calculator and outputs after the selector encodes it (them).
    • 为了实现能够以高压缩效率压缩输入多值图像的图像编码/解码装置,采取以下措施。 第一和第二预测器根据各自的预定方法基于图像数据预测目标像素的值,并分别生成预测值数据。 运行计数器比较图像数据和预测值数据,并且如果预测命中和运行持续到在相应预测器的运行的计数值增加1之前的像素。 如果没有预测器预测哪个命中及其运行持续到像素之前,运行将与预测器的识别号一起发送到选择器作为运行数据。 选择器选择性地从预测误差计算器输出运行值和识别号码或预测误差数据,并在选择器对其进行编码之后输出。
    • 8. 发明授权
    • Image processing device
    • 图像处理装置
    • US06574008B1
    • 2003-06-03
    • US09514150
    • 2000-02-28
    • Taro YokoseIkken SoMitsuyuki TamataniYasuharu Sakurai
    • Taro YokoseIkken SoMitsuyuki TamataniYasuharu Sakurai
    • G06F1500
    • G06T11/20
    • An image processing device that executes high speed overwriting of an input image with one or more partial images. A processing prediction unit judges whether overwriting is completed on all the partial images held in a small area buffer. If overwriting is completed, the overwritten partial image is compressed by an encoding unit, and the coded image is stored in a compact page memory. If overwriting is not completed, the uncompressed partial image is stored in the compact page memory. The uncompressed partial image is read from the compact page memory and is fed back to the overwriting unit through an output switch unit. The coded image stored in the compact page memory is sent to a decoding unit through the output switch unit, and is decoded to be outputted as an output image.
    • 一种图像处理装置,其利用一个或多个部分图像执行输入图像的高速重写。 处理预测单元判断是否在保持在小区域缓冲器中的所有部分图像上完成覆盖。 如果覆盖完成,则重写的部分图像被编码单元压缩,并且编码图像被存储在紧凑页面存储器中。 如果覆盖未完成,则未压缩的部分图像被存储在紧凑页面存储器中。 从压缩页面存储器读取未压缩的部分图像,并通过输出开关单元反馈到重写单元。 存储在紧凑页面存储器中的编码图像通过输出开关单元被发送到解码单元,并被解码为输出图像。
    • 10. 发明授权
    • Markov model image encoding device and method
    • 马尔可夫模型图像编码装置及方法
    • US5987182A
    • 1999-11-16
    • US876484
    • 1997-06-16
    • Shunichi KimuraSetsu KunitakeTaro YokoseYutaka KoshiKoh Kamizawa
    • Shunichi KimuraSetsu KunitakeTaro YokoseYutaka KoshiKoh Kamizawa
    • H04N19/50G06T9/00H03M7/40H04N1/41H04N1/417H04N19/102H04N19/13H04N19/167H04N19/196H04N19/423H04N19/91G06K9/36
    • G06T9/00
    • A plurality of reference pixel extracting means check their corresponding reference pixel ranges and pixel values in predetermined auxiliary regions. Reference pixel range selecting means selects a reference pixel range based on the checked pixel values. When the number of types of pixel values for an input image is found to be locally low in the selected reference pixel range, the number of reference pixels is increased. On the other hand, when the number of types of the pixel values for the input image is found to be locally large, the number of reference pixels is decreased. As a result, states can be generated by a Markov model image encoding system capable of improving encoding efficiency without increasing the number of the states sharply. Owing to the above construction, even when the number of tones for the input image is high upon Markov model image encoding, the number of reference pixels can be increased without abruptly increasing the number of states later on to improve compression efficiency.
    • 多个参考像素提取装置在预定的辅助区域中检查其对应的参考像素范围和像素值。 参考像素范围选择装置基于所检查的像素值来选择参考像素范围。 当在所选择的参考像素范围中发现输入图像的像素值的数量在本地较低时,参考像素的数量增加。 另一方面,当发现输入图像的像素值的类型的数量局部地大时,参考像素的数量减少。 结果,可以通过能够提高编码效率的马尔可夫模型图像编码系统来生成状态,而不会急剧增加状态数。 由于上述结构,即使在马尔科夫模型图像编码时输入图像的色调数量高的情况下,也可以增加参考像素的数量而不会稍后突然增加状态数来提高压缩效率。