Abstract: Discussed is an organic light emitting display panel and an organic light emitting display device including the same. In the organic light emitting display panel, each of a plurality of unit pixels includes first to third driving transistors respectively connected to the first to third organic light emitting diodes, a first contact hole connected to one electrode of the first organic light emitting diode, a second contact hole connected to one electrode of the second organic light emitting diode, and a third contact hole connected to one electrode of the third organic light emitting diode, and are arranged in a matrix.

Abstract: The present invention relates to a platform system for object tagging and a method thereof. According to the platform system for object tagging of the present invention, since a user can add information in person, which he/she has about an individual object in contents provided by a website, into the contents of the website, as tag information, it is possible to enable an individual user to accurately, freely, and conveniently express information about an object in contents and to enable a plurality of users to actively create information and share more information by providing more users with information.

Abstract: The present invention relates to a genotyping kit for diagnosis of detecting the human papillomavirus (HPV) infection, probes for genotyping the HPV, and DNA chips including the probes. Also, the present invention relates to a method for diagnosis of HPV infection.

Abstract: The present invention relates to a genotyping kit for diagnosis of detecting the human papillomavirus (HPV) infection, probes for genotyping the HPV, and DNA chips including the probes. Also, the present invention relates to a method for diagnosis of HPV infection.

Abstract: The present invention relates to diagnosis kit for Mycobacterium species identification and drug-resistance detection and manufacturing method thereof, which can discriminate a Mycobacterium Tuberculosis rpoB gene point mutation relating to the Mycobacterium species identification and drug-resistance swiftly, exactly and in large quantities using an oligonucleotide chip. The diagnosis kit for Mycobacterium species identification and drug-resistance detection in accordance with the present invention consists of an oligonucleotide chip including a Mycobacterium tuberculosis complex probe, a Mycobacterium species identification probe and a drug-resistance detection probe of a Mycobacterium tuberculosis rpoB gene, and a fluorescent material containing a biotin-binding protein so as to detect hybridization of amplified products of a specimen marked as biotine and the corresponding probe.

Abstract: An apparatus for median filtering a sequence of input values comprises (N+1) number of processing elements coupled in series for storing (N+1) number of input values included in a values group and providing a median value thereof, N being a positive even number, each of the processing elements having a value register for storing an input value, a first stored value in the first processing element being smaller than or equal to a second stored value in a second processing element and an (i)th stored value in an (i)th processing element being smaller than or equal to an (i+1)st stored value in an (i+1)st processing element; and an input for sequentially providing input values to the processing elements, an input value being provided to all the processing elements simultaneously.

Abstract: A method and apparatus encodes primary blocks included in an image signal based on the adaptive quantization technique. First, each primary block is divided into first subblocks of M.times.N data elements and second subblocks of P.times.Q data elements, wherein P and Q are multiples of M and N. A covariance for each first subblock is then calculated and compared with a threshold TH1 to thereby determine scalar blocks and primitive vector blocks, wherein a scalar block corresponds to a first subblock having a covariance greater than TH1 and a primitive vector block corresponds to a first subblock having a covariance not greater than TH1. Thereafter, a second subblock containing only primitive vector blocks therein is set as a candidate vector block and a covariance for the candidate vector block is calculated.

Abstract: A frame of a video signal, wherein the frame is divided into non-overlapping blocks of M.times.N pixels, M and N being positive integers, respectively, is encoded by: arranging the blocks into groups of P.times.Q blocks, P and Q being positive integers, respectively; transforming each of the P.times.Q blocks in a group into a set of M.times.N transform coefficients to thereby provide P.times.Q sets of M.times.N transform coefficients for the group, the transform coefficients in each set representing different frequency components, respectively; quantizing the sets of transform coefficients into P.times.Q sets of M.times.N quantized transform coefficients; DPCM(differential pulse code modulation) coding the sets of quantized transform coefficients to provide P.times.

Abstract: A frame of a video signal, wherein the frame is divided into non-overlapping blocks of M.times.N pixels, M and N being positive integers, respectively, is encoded by: arranging the blocks into groups of P.times.Q blocks, P and Q being positive integers, respectively; transforming each of the P.times.Q blocks in a group into a set of M.times.N transform coefficients by using a predetermined transform method, to thereby provide P.times.Q sets of M.times.N transform coefficients for the group, the transform coefficients in a set representing different frequency components; rearranging the P.times.Q sets of M.times.N transform coefficients to generate M.times.N sets of P.times.Q rearranged coefficients, the rearranged coefficients in a set being of an identical frequency component; and setting M.times.N sets of P.times.Q rearranged coefficients as encoded data for the group of P.times.Q block.

Abstract: A frame of a video signal, wherein the frame is divided into non-overlapping blocks of M.times.N pixels, M and N being positive integers, respectively, is encoded by: arranging the blocks into groups of P.times.Q blocks, P and Q being positive integers, respectively; transforming each of the P.times.Q blocks in a group into a set of M.times.N transform coefficients to thereby provide for the group a first class of transform coefficients corresponding to P.times.Q sets of M.times.N transform coefficients, transform coefficients in a set representing different frequency components, respectively; rearranging the first class of transform coefficients to generate M.times.N sets of P.times.Q rearranged coefficients, the rearranged coefficients in a set being of an identical frequency component; transforming each set in the M.times.N sets of P.times.Q rearranged coefficients into a set of P.times.