Abstract: Disclosed are compositions and methods of treating a cytokine mediated diseases by inhibiting Sema7A and VLA-1 interaction.

Abstract: A production schedule creation device includes: a production simulator (100) simulating a production process expressing the production state and the production constraint of the production process; a mathematical expression holding device holding a mathematical model (110) crated by acquiring information relating to creation of the production schedule in attention as a mathematical model expressing, in a mathematical expression, the production state and the production constraint of the production process; and an optimization calculation device (120) performing the optimization calculation by using a predetermined evaluation function for the mathematical model (110) and calculating a production instruction for the production simulator. The production instruction obtained by the optimization calculation device is supplied to the production simulator (100) so as to execute simulation. Thus, an optimum solution can be obtained by performing only one simulation.

Abstract: Moving pictures are reproduced from a stored moving-picture signal and output at a set reproduction speed that is a first reproduction speed matching a rate of motion of the moving pictures or a second reproduction speed different from the first reproduction speed. The stored moving-picture signal is reproduced in accordance with the set reproduction speed to obtain first interlaced pictures. The first interlaced pictures are converted to obtain first progressive pictures. Moving pictures to be displayed are selected from the first progressive pictures per frame in accordance with the set reproduction speed to obtain second progressive pictures. Scanning lines of the second progressive pictures are decimated so that the number of remaining scanning lines of the second progressive pictures after decimation is equal to the number of scanning lines of interlaced pictures to be displayed, thus outputting second interlaced pictures.

Abstract: Moving pictures are reproduced from a stored moving-picture signal and output at a set reproduction speed. The stored moving-picture signal is reproduced in accordance with the set reproduction speed to obtain first interlaced pictures. The first interlaced pictures are converted to obtain first progressive pictures. Moving pictures to be displayed are selected from the first progressive pictures per frame in accordance with the set reproduction speed to obtain second progressive pictures. Scanning lines of the second progressive pictures are decimated so that the number of remaining scanning lines of the second progressive pictures after decimation is equal to the number of scanning lines of interlaced pictures to be displayed, thus outputting second interlaced pictures. The first interlaced pictures are output when the set reproduction speed is the first reproduction speed whereas the second interlaced pictures are output when the set reproduction speed is the second reproduction speed.

Abstract: First pictures as reference for inter-picture prediction of an incoming moving-picture and second pictures are coded. The first pictures are coded by intra-picture or unidirectional inter-picture predictive coding. The second pictures are coded by bidirectional inter-picture predictive coding by referring the first or their locally-decoded pictures to obtain a moving-picture bitstream. The bitstream is multiplexed with obtained motion activity information. Incoming first bitstreams are multiplexed into a bitstream at a rate lower than a total bit rate of the incoming first bitstreams. Each bitstream has first bitstreams of the first and second pictures. A code amount of the multiplexed bitstream is obtained for each reproduction period as virtual buffer occupancy, according to which a decimation rate is set on the second pictures.

Abstract: A luminance signal of each of first pictures to be used as reference pictures in inter-picture predictive encoding is encoded into a progressive moving-image signal whereas color-difference signals of each first picture are encoded into first moving-image signals having scanning lines decimated to one-half of scanning lines of the progressive moving-image signal. On the contrary, a luminance signal and also color-difference signals of second pictures not to be used as reference pictures in inter-picture predictive encoding are encoded into second moving-image signals having scanning lines decimated to one-half of the scanning lines of the progressive moving-image signal. The progressive moving-image signal and the first and second moving-image signals are combined into a color moving-image bitstream.

Abstract: In a molded product, at least an opening end, forming a window frame of a window formed as a part of a molded subassembly, is fastened integrally to a skin of the molded subassembly. Alternatively, a decorative component part is disposed on an outer periphery of the window so that a parting line between the decorative component part and the skin is visible as being joined closely in a decorative surface of the completed molded product. Processes for manufacturing the same are disclosed as well.

Abstract: First pictures are coded by a variable picture rate coding, the first pictures being set at a predetermined interval, to be used as reference pictures for inter-picture prediction of an incoming moving picture and second pictures different from the first pictures are coded. The first pictures are coded by intra-picture coding or unidirectional inter-picture predictive coding, thus obtaining a first bitstream. A coding picture rate is set in accordance with motion activity of the incoming moving picture. Pictures that have remained after decimation of the second pictures are coded in accordance with the picture rate by bidirectional inter-picture predictive coding using the first pictures or locally-decoded pictures of the first pictures as the reference pictures, thus obtaining a second bitstream. The first and the second bitstreams and data indicating the picture rate are multiplexed.

Abstract: First pictures, set at a predetermined interval, to be used as reference pictures for inter-picture prediction of an incoming moving picture and second pictures different from the first pictures are coded. The first pictures are coded by intra-picture coding or unidirectional inter-picture predictive coding. The second pictures are coded by bidirectional inter-picture predictive coding using the first pictures or locally-decoded pictures of the first pictures as the reference pictures, to obtain a moving-picture bitstream. Motion activity is obtained on the incoming moving picture. The moving-picture bitstream is multiplexed with the information of motion activity. An incoming first moving-picture bitstream having bitstreams of the first and the second pictures coded as above at a first code transfer rate is converted into a second moving-picture bitstream at a second code transfer rate. Motion activity is obtained on the incoming first moving-picture bitstream.

Abstract: First pictures are coded by a variable picture rate coding, the first pictures being set at a predetermined interval, to be used as reference pictures for inter-picture prediction of an incoming moving picture and second pictures different from the first pictures are coded. The first pictures are coded by intra-picture coding or unidirectional inter-picture predictive coding, thus obtaining a first bitstream. A coding picture rate is set in accordance with motion activity of the incoming moving picture. Pictures that have remained after decimation of the second pictures are coded in accordance with the picture rate by bidirectional inter-picture predictive coding using the first pictures or locally-decoded pictures of the first pictures as the reference pictures, thus obtaining a second bitstream. The first and the second bitstreams and data indicating the picture rate are multiplexed.

Abstract: An emphasis processing is applied to an input video signal to obtain a video bitstream. An emphasis level is set to the input video signal in accordance with at least one factor among control data carried by the input video signal, a picture state detected from the input video signal and encoding conditions for the input video signal. The emphasis processing is applied to the input video signal at the emphasis level to obtain a emphasized video signal. The emphasized video signal is encoded to obtain a video bitstream. The video bitstream is multiplexed with data on the emphasis level. A video bitstream is decoded and applied a deemphasis processing. A deemphasis level is set that matches an emphasis level obtained from emphasis-level data carried by the video bitstream to which an input video signal has been encoded and emphasized at the emphasis level. The video bitstream is decoded for reproducing the video signal.

Abstract: A method for forming tear lines in the rear side of an automobile interior article having a cover portion being developed from which an airbag inflates. When either an automobile interior article body having an integrally molded surface portion or an automobile interior article surface portion is to be molded, the mold is opened after tear line forming projections are moved forward and backward with the mold closed. Thus, the tear lines can be formed at the molding time without any visible extrusion marks of the tear line forming projections on the front surface side (the design face).

Abstract: Moving-picture bitstreams are switched at a predetermined switching timing to form a successive moving-picture bitstream. Each bitstream carries first pictures to be used as reference pictures for inter-picture prediction and second pictures other than the first pictures. Buffer occupancy indicator at decoder buffer is obtained on each picture carried by the successive moving-picture bitstream. A difference in buffer occupancy just before and just after the switching timing is obtained based on the buffer occupancy data to set a decimation rate and a decimation period on the second pictures so that the difference in buffer occupancy just before and just after the switching timing becomes small. The second pictures only are decimated from the successive moving-picture bitstream at the decimation rate within the decimation period, thus obtaining an output moving-picture bitstream having an adjusted buffer occupancy in accordance with the decimation.

Abstract: The amount of codes is controlled, which are generated during re-coding in conversion of a first bitstream obtained by efficient coding of a moving-picture video signal to a second bitstream. Extracted, from the first bitstream, is at least either information on code amount or information on quantization, as a parameter indicating moving-picture coding difficulty. Otained, from the parameter per given period, is an amount of quasi-generated codes which is estimated to be required for achieving a given picture quality. The amount of quasi-generated codes is adjusted for each of the given period to obtain a target code amount. The target code amount is assigned to a given portion of the moving-picture video signal so that a total code amount of the given portion of the moving-picture video signal matches a recordable total code amount for a storage medium for storing the given portion of the moving-picture video signal.

Abstract: In temporal scalable moving-picture video signal coding, an input interlaced moving-picture video signal is converted into a progressive moving-picture video signal at the same frame rate as the interlaced moving-picture video signal. The progressive moving-picture video signal is coded to produce a first bitstream. Fields of the interlaced moving-picture video signal are coded with inter-picture prediction using a locally decoded picture signal as a reference video signal, thus producing a second bitstream. The fields are different in time from frames of the progressive moving-picture video signal. The locally decoded picture signal are produced by locally decoding the progressive moving-picture video signal. The first and second bitstreams are multiplexed into an output temporal scalable moving-picture video bitstream.

Abstract: In a video signal encoding and recording apparatus, a video signal is quantized into a quantization-resultant signal in response to a variable quantization scale. The quantization-resultant signal is recorded on a recording medium. The quantization scale is controlled in response to an encoding rate. The quantization scale is limited to within a range determined by a limit quantization scale. A remaining record capacity of the recording medium is measured. A remaining record time is measured. The encoding rate and the limit quantization scale are updated in response to the measured remaining record capacity and the measured remaining record time.

Abstract: Video-emphasis encoding processing generates a high-frequency-emphasized video signal by emphasizing high-frequency components of an input video signal and encoding the high-frequency-emphasized video signal, to generate a bitstream of the video signal. Detected in this processing are spatial high-frequency components related to the input video signal, per portion of a picture carried by the input video signal. A high-frequency-component emphasizing level related to the video signal is set per portion of the picture in accordance with levels of the detected high-frequency components. The detected high-frequency components are emphasized in accordance with the set emphasizing level, to generate the high-frequency-emphasized video signal. Orthogonal transform coding is applied to the high-frequency-emphasized video signal per block of the picture, to generate the bitstream.

Abstract: A luminance signal of each of first pictures to be used as reference pictures in inter-picture predictive encoding is encoded into a progressive moving-image signal whereas color-difference signals of each first picture are encoded into first moving-image signals having scanning lines decimated to one-half of scanning lines of the progressive moving-image signal. On the contrary, a luminance signal and also color-difference signals of second pictures not to be used as reference pictures in inter-picture predictive encoding are encoded into second moving-image signals having scanning lines decimated to one-half of the scanning lines of the progressive moving-image signal. The progressive moving-image signal and the first and second moving-image signals are combined into a color moving-image bitstream.

Abstract: An input moving picture signal is selectively coded by intra-picture coding or inter-picture coding in unit of frame or field to output a main bit stream. Specific frames or fields carried by the input moving picture signal are coded by intra-picture coding to output a subsidiary bit stream. The specific frames or fields are also coded by the inter-picture coding. The main and subsidiary bit streams are multiplexed so that the subsidiary bit streams are periodically inserted in the main bit stream in the vicinity of a predetermined number of the frames or fields coded by the inter-picture coding, thus generating an output bit stream. In decoding, a coding-type of the bit stream is detected and a coding-type signal is generated.

Abstract: A variable transfer rate control coding apparatus which can distribute codes of an amount most suitable to the contents of a moving picture to be recorded and to a recording medium, on which information is recorded by this transfer rate coding apparatus, by obtaining an amount of codes to be temporarily generated in each unit period of time by a temporary or tentative coding, and then storing a temporary transfer rate (namely, a value of the temporary amount of codes to be generated in each unit period of time), and setting a target transfer rate (namely, a target value of an amount) of codes to be sent in each unit period of time from a total of the temporary transfer rates and the recordable capacity of the recording medium and next performing an actual or real coding according to the target transfer rates.