Abstract:
PURPOSE:To eliminate the difference between the reproduced outputs of both heads at the time of recording and reproducing by setting the angle formed by the intra-surface orientation direction of the magnetic particles constituting a magnetic recording layer and the longitudinal direction of a nonmagnetic base at the value of a prescribed range. CONSTITUTION:This magnetic recording medium is constituted by forming the recording layer on the nonmagnetic base. The angle theta formed by the intra- surface orientation direction of the magnetic particles constituting the magnetic recording layer and the longitudinal direction of the nonmagnetic base is so set as to be beta-5 deg. 5 deg.). The difference in the reproduced outputs between both heads A and B is eliminated and approximate error rate characteristics are obtainable even when recording and reproducing are executed by a recording and reproducing device using a double azimuth head in this way. The electric power consumption is reduced in this way.
Abstract:
PURPOSE:To obtain the excellent reproduced output of a slave medium even after repeated transfering by regulating relation between the residual coercive force Hr1 in a longitudinal direction of a master medium and the residual coercive force Hr2 in a vertical direction of the slave medium. CONSTITUTION:The residual coercive force Hr1, Hr2 is affected greatly by the coercive force Hc of magnetic powder to be used, the distribution of Hc, interaction between particles, degree of orientation and saturation magnetization quantity, and it does not always same as Hc. Accordingly, the master medium and the slave medium are regulated so as to be Hr1/Hr2>=2.0 by using Hr1,Hr2. At that time, the demagnetization of the master medium due to a bias magnetic field is reduced, and even after the repeated transfering, the reproduced output of the slave medium becomes favorable. The slave medium is provided with a magnetic layer whose media are the powder of MO.n(Fe2O3) (here, M is one of ba, Sr, Ca, and n = 5 to 6) and a binding agent such as vinyl chloride.vinyl acetate copolymer, etc.
Abstract:
PURPOSE:To enhance transfer efficiency particularly in a short wavelength region of =0.7 and the aspect ratio in the perpendicular direction before the correction of the diamagnetic field is specified to >=0.35. The particle size of the hexagonal ferrite is preferably 0.03 to 0.1mum and the coercive force in the perpendicular direction is 600 to 800Oe. The demagnetization of the recording medium for a master by a bias magnetic field increases and the degraded transfer efficiency and decreased output are resulted if the coercive force is larger than 800Oe. Conversely, the short wavelength output deceases if the coercive force is below 600Oe.
Abstract:
PROBLEM TO BE SOLVED: To provide a display unit that realizes high display performance and can be simply fabricated.SOLUTION: A display unit includes, on a substrate: a plurality of light emitting devices in which a first electrode layer, an organic layer including a light emitting layer, and a second electrode layer are respectively and sequentially layered; and a black insulating layer separating the organic layer for each of the light emitting devices. Outside light is absorbed in the black insulating layer. Further, since the structure does not require a black matrix layer on a counter substrate, alignment is not necessary in bonding the counter substrate.
Abstract:
PROBLEM TO BE SOLVED: To reduce computational complexity by reducing the scale of a circuit relating to parity arithmetic. SOLUTION: A parity arithmetic unit 31 includes an exclusive OR arithmetic circuit. A parity check matrix is transformed into a fundamental matrix including unit matrices and a table is created in relation to the number of non-zero elements included in a matrix other than the unit matrices. Data are written in the table for each matrix depending on a position to allocate a parity. For example, the number of non-zero elements included in predetermined rows is related to the number of data items to be inputted to the exclusive OR arithmetic circuit, so that from the created table, a parity arithmetic circuit is designed to which a matrix reducing the number of non-zero elements included in the predetermined rows is applied. The present invention is applicable to a recording device which encodes and records data on a predetermined recording medium. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To reduce BER of transmission information and probability of detection failure. SOLUTION: In temporary encoding according to a basic code conversion table, the maximum continuous number of 1 is limited to be 2 at the start point and end point of the temporary code while the maximum continuous number of 0 at the start point and the end point of the temporary code is limited to be 4-10. In encoding according to a violation code conversion table, when the maximum continuous number of 0 at code connection point becomes 7 or higher, only for any one of temporary codes of which continuous number of 0 becomes 4 or higher at the start point or end point of the temporary code, the 3 bits at the start point of the temporary code or the 3 bits at the end point of the temporary code is converted from 0 to 1, thereby BER of transmission information and possibility of detection failure are reduced. The invention can be applied to an encoder for codes used for various devices. COPYRIGHT: (C)2008,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a manufacturing method of a semiconductor device for preventing contamination of a boundary face, between an organic semiconductor layer and a gate insulation film due to remaining resist. SOLUTION: The manufacturing method of the semiconductor device includes formation of the organic transistor by laminating a gate wire 12, a gate insulating film 13, and an organic semiconductor layer on a substrate 11, in this order. The method sequentially carries out steps of first forming a protection layer 14 on the surface of the gate insulating film 13 in contact with a channel region of the organic semiconductor layer, coating resist on the gate insulating film 13, including an upper part of the protection layer 14 to form a resist pattern 15; then forming a via-hole 16, reaching the gate wire 12 to the gate insulation film 13 by using the resist pattern 15 for a mask; and thereafter, removing the protection layer 14 to form the organic semiconductor layer to a region of the gate insulating film 13 from which the protective layer 14 is removed. COPYRIGHT: (C)2008,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To reduce required number of coding wordage regarding the codes other than an 8/10 conversion DC-free code. SOLUTION: The first half 7 bits in input data, inputted as 16 bit parallel data, are inputted into a 7/8 encoding circuit 10 and encoded into an 8-bit code, and the second half 9 bits are inputted into a 9/10 encoding circuit 11 and is coded into a 10-bit code. The 8-bit code outputted by the 7/8 coding encircuit 10 is fed to a signal processing system of the latter part for performing processing for generation of a recording signal, and the like, for recording on an information recording media, such as a magnetic tape, and the like, and also fed to a state determination circuit 12 for the 8 bits. The state determination circuit 12 for the 8 bits generates a 2-bit code X'Y' indicating any of the 3 states of the code termination point regarding the fed 8-bit code, and feeds it to the 9/10 encoding circuit 11. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To perform encoding using a code conversion table whereon parities of code sequences, until a code state becomes the same, are different. SOLUTION: A codeword assignment of the code conversion table meets q 0 ≠q 1 , for an arbitrary information sequence even if a codeword restriction length in decoding is divided into three blocks and an insertion position of a DC control bit is inserted into the position of a first bit or a second bit of an information word. For example, when information sequences d 0 and d 1 inserting temporary DC control bits 1 and 0 in the top of an information sequence [1, 1, 0, 0, 0, 1, 0] are encoded using a predetermined code conversion table with a state 3 as a starting point, code states s 0 and s 1 become the same, s 0 =s 1 =6, in the third block. A complementary q 0 of 2 of the total of a code sequence c 0 , by the time point when the code states become the same, is 0, and a complementary q 1 of 2 of the total of a code sequence c 1 is 1, so that q 0 ≠q 1 is established. The present invention is applicable to a recording and reproducing apparatus or an encoding apparatus. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a method for manufacturing a cold cathode field electron emitting element, capable of sharpening a part to emit an electron in an electron emitting part composed by a carbon based material. SOLUTION: This method for manufacturing the cold cathode field electron emitting element is provided with a process to form a thin film 20 of a metal or a metal compound on a cathode electrode 11 formed on a supporting body 10, a process to form an island-shaped electron emitting part forming region 22 comprising the thin film 20 left by applying anisotropic etching to the thin film 20 with a corpuscle 21 as an etching mask after disposing the corpuscle 21 on the thin film 20, and a process to selectively form an electron emitting part 15 of crystalline graphite on the electron emitting part forming region 22 based on a CVD method.