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    专

    一种有机分子模版调控聚苯并咪唑聚合物多孔膜的制备方法

    PH395920B1
    发明人
    焉晓明, 杨清淞, 贺高红, 高莉, 胡磊, 王荣刚
    受让人
    CANMAX TECHNOLOGIES CO LTD (CANM-Non-standard), UNIV DALIAN TECHNOLOGY (UYDA-C)
    申请人
    甘肃同兴智能科技发展有限责任公司, 国网甘肃省电力公司, 国网甘肃省电力公司嘉峪关供电公司
    申请号
    253462
    申请日
    1996-10-03
    公开(公告)号
    PH395920B1
    公开(公告)日
    2006-09-05
    IPC分类号
    H01L021/67H01L021/687
    CPC分类号
    -
    优先权号
    002981
    3490789
    015779
    500488
    SU00061
    500488
    000596
    694684
    694688
    015779
    优先权日
    1984-11-05
    1984-11-13
    1984-11-13
    1984-11-13
    1984-11-13
    1985-01-10
    1985-01-15
    1985-01-24
    1985-01-24
    1985-11-06
    摘要

    NOVELTY - The method involves applying transcranial low voltage electrical stimulation (TLVES) therapy or transcranial magnetic stimulation (TMS) therapy to a patient suffering from a condition associated with thalamocortical dysrhythmia, where the condition associated with the thalamocortical dysrhythmia is tinnitus. A dissociative anesthetic is administered to the patient during the TLVES therapy or the TMS therapy, where the TLVES or TMS is applied prior during and after the administration of an N-methyl d-aspartate receptor (NMDAR) antagonist i.e. ketamine antagonist. Treatment is primed.

    USE - Method for treating a patient e.g. animal patient and human patient, suffering from a neurological/psychiatric condition i.e. tinnitus condition (claimed), associated with thalamocortical dysrhythmia by a clinician. Can also be used for a depression condition, chronic depression condition, bipolar depression condition, neurological pain/central pain condition, complex regional pain syndrome (CRPS) condition, obsessive-compulsive disorder, panic disorder, rigidity, dystonia condition, tremor condition, epilepsy condition, petitmal epilepsy condition, absence epilepsy condition, autism condition, Parkinson's disease, obsessive-compulsive disorder (OCD), schizophrenia, schizoaffective psychosis, migraine and restless legs syndrome.

    ADVANTAGE - The method enables treating the patient with transcranial electrical or electromagnetic stimulation in combination with a dissociative anesthetic e.g. NMDAR inhibitor such as ketamine, thus improving therapeutic response at reduced dosage of the dissociative anesthetic as compared to the dosage that is typically necessary for treatment in the absence of the stimulation. The method enables providing the patients with positive outcomes from treatment with the combination of TMS and ketamine, thus achieving more robust, long lasting, positive result with reduced adverse side effects.

    DETAILED DESCRIPTION - The dissociative anesthetic is an NMDAR antagonist.

    权利要求
    1. A silicon carbide semiconductor device comprising: a semiconductor substrate composed of silicon carbide; a drift layer composed of n-type silicon carbide formed on the semiconductor substrate; a well region of p-type formed on a surface portion of the drift layer; a source region of n-type formed on a surface portion of the well region and formed separated from the drift layer; a gate insulating film formed so as to be in contact with the source region, the well region, and the drift layer; a gate electrode formed so as to be opposite the well region via the gate insulating film; and a source electrode connected to the source region, wherein oxygen is contained in a region having a predetermined thickness from an interface between the well region and the gate insulating film toward the well regions side, and in a region 30 nm or more away from the interface between the well region and the gate insulating film toward the well region side, a region in which the oxygen concentration is higher than a n-type impurity concentration in the drift layer is present.
    2. The silicon carbide semiconductor device according to claim 1 , wherein an oxygen concentration peak in the region containing oxygen is within the well region.
    3. The silicon carbide semiconductor device according to claim 1 , wherein an oxygen concentration is 1×10 18 cm −3 or more in a region with a thickness of 15 nm from the interface between the well region and the gate insulating film toward the well region side.
    4. The silicon carbide semiconductor device according to claim 1 , wherein a total dose amount of oxygen contained in the well region is 1×10 11 cm −3 or more and 1×10 17 cm −3 or less.
    5. The silicon carbide semiconductor device according to claim 1 , wherein in a region 30 nm or more away from the interface between the well region and the gate insulating film toward the well region side, a region in which the oxygen concentration is higher than a p-type impurity concentration in the well region is present.
    6. The silicon carbide semiconductor device according to claim 1 , wherein a peak value of the oxygen concentration within the well region is 1×10 17 cm −3 or more and 2×10 21 cm −3 or less.
    7. The silicon carbide semiconductor device according to claim 1 , wherein the gate electrode is arranged directly above the well region containing oxygen.
    8. The silicon carbide semiconductor device according to claim 1 , wherein the gate electrode is formed in a trench adjacent to the source region and the well region and reaching the drift layer, and is opposite the well region containing oxygen via the gate insulating film.
    9. A power conversion device comprising a silicon carbide semiconductor device according to claim 1 , wherein the power conversion device includes a main conversion circuit configured to convert power input and output thereof, a drive circuit configured to output a drive signal for driving the silicon carbide semiconductor device to the silicon carbide semiconductor device, and a control circuit configured to output a control signal for controlling the drive circuit to the drive circuit.
    10. The power conversion device according to claim 9 , wherein the drive circuit is configured to output the drive signal which equalizes a voltage of the gate electrode and a voltage of the source electrode when the silicon carbide semiconductor device is off.
    说明书
    [0001]技术领域
    [0002]本发明属于数码印花调色技术领域,具体是涉及一种数码印花智能调色方法。
    [0003]背景技术
    [0004]现有数码印花调色是没有统一的调色标准,都是根据从业人员从业时间长而积累的经验来调色,从而导致这个行业的调色人员很紧俏。即使是熟练工人,更换设备后,也需要半个月以上的时间来摸索颜色和设备,才能更好的调色,而且至少需要3次以上调整才能达到要求。
    [0005]发明内容
    [0006]本发明主要是解决上述现有技术所存在的技术问题,提供一种数码印花智能调色方法。
    [0007]本发明的上述技术问题主要是通过下述技术方案得以解决的:一种数码印花智能调色方法,包括如下步骤:
    [0008]步骤1,用分色配色软件制作标准色卡库;
    [0009]步骤2,根据标准色卡库生成打印排版图;
    [0010]步骤3,制作与色差仪配合使用的平衡支架;
    [0011]步骤4,根据打印排版图,在面料上逐一进行颜色打印;
    [0012]步骤5,色差仪和平衡支架配合使用将打印颜色逐一采集;
    [0013]步骤6,将采集到的打印颜色分别与打印排版图、标准色卡库进行匹配;
    [0014]步骤7,将未能匹配的打印颜色进行补色处理,直至匹配成功。
    [0015]作为优选,所述标准色卡库为中国标准色卡或潘通色卡。
    [0016]作为优选,所述打印排版图的排版色卡呈矩阵分布,所述排版色卡的形状为10mm*10mm的方块或直径为10mm的圆。
    [0017]作为优选,面料颜色打印采用直喷数码打印或热转印数码打印;面料颜色打印采用直喷数码打印时,打印步骤包括上浆、打印、蒸化、水洗、定型和成品;面料颜色打印采用热转印数码打印时,打印步骤包括打印热转纸、转印到面料。
    [0018]作为优选,所述打印颜色的匹配过程,包括如下步骤:
    [0019]步骤(1),将打印颜色的打印色卡号与打印排版图的排版色卡号相对应;
    [0020]步骤(2),根据打印颜色的显色在标准色卡库内匹配相应的标准色卡号,然后根据匹配到的标准色卡号在打印排版图内匹配相应的排版色卡号,判断打印色卡号与排版色卡号是否匹配;若匹配,则打印颜色与标准色卡库匹配成功;若不匹配,则打印颜色与标准色卡库匹配不成功,需将打印颜色进行补色处理。
    [0021]作为优选,所述补色处理的步骤包括:根据未能匹配到的打印排版图排版色卡号,将与之对应的打印颜色色卡进行颜色修正,修正后,重复步骤4-步骤6。
    [0022]作为优选,所述平衡支架包括平板,所述平板上设有多个取色孔,所述取色孔沿平板的长边依次设置,所述取色孔与色差仪的取色头相匹配,最外侧的所述取色孔与平板的短边之间的间距大于等于1mm。
    [0023]作为优选,所述色差仪为笔状、且色差仪的取色头为圆台结构时,所述取色孔为倒置的圆台状通孔,所述取色孔等间距设置。
    [0024]作为优选,所述色差仪为笔状、且色差仪的取色头为圆柱结构时,所述取色孔为圆柱状通孔,所述取色孔的直径比色差仪取色头的直径大0.2mm,所述取色孔等间距设置,或相邻两个所述取色孔相交叠设置。
    [0025]作为优选,所述取色孔周向设有第一平行线和第二平行线,且第一平行线和第二平行线间隔设置,所述第一平行线平行于平板的长边,所述第二平行线平行于平板的短边。
    [0026]本发明具有的有益效果:本发明通过将打印颜色和标准色卡库相匹配来完成打印排版图的调色,在后期使用时,可以不用专业的人才进行调色,操作人员进行简单的培训即可。本发明可通过色差仪取色,通过打印颜色自动转换匹配打印排版图;可通过软件的拾色器功能对打印排版图进行取色,完成打印颜色的匹配。
    [0027]附图说明
    [0028]图1是本发明色差仪的一种结构示意图;
    [0029]图2是本发明平衡支架的一种结构示意图;
    [0030]图3是本发明平衡支架的一种剖视结构示意图;
    [0031]图4是本发明色差仪的另一种结构示意图;
    [0032]图5是本发明平衡支架的另一种结构示意图;
    [0033]图6是本发明平衡支架的另一种剖视结构示意图;
    [0034]图7是本发明取色孔相交叠的一种连接结构示意图。
    [0035]图中:1、色差仪;2、取色孔;3、平板;4、第一平行线;5、第二平行线。
    [0036]具体实施方式
    [0037]下面通过实施例,并结合附图,对本发明的技术方案作进一步具体的说明。
    [0038]实施例:一种数码印花智能调色方法,包括如下步骤:
    [0039]步骤1,用分色配色软件制作标准色卡库;
    [0040]步骤2,根据标准色卡库生产打印排版图;
    [0041]步骤3,制作与色差仪1配合使用的平衡支架;
    [0042]步骤4,根据打印排版图,在面料上逐一进行颜色打印;
    [0043]步骤5,色差仪1和平衡支架配合使用将打印颜色逐一采集;
    [0044]步骤6,将采集到的打印颜色分别与打印排版图、标准色卡库进行匹配;
    [0045]步骤7,将未能匹配的打印颜色进行补色处理,直至匹配成功。
    [0046]在步骤1中,所述分色配色软件可采用图来旺;所述标准色卡库可采用中国标准色卡或潘通色卡,使用时,将中国标准色卡或潘通色卡按一定的规律编排成打印排版图,打印排版图为电子图,可进行打印。所述标准色卡库设有多个标准色卡,每个标准色卡均有相对应的标准色卡号。
    [0047]在步骤2中,所述打印排版图设有多个排版色卡,每个排版色卡均对应标准色卡库中的一个标准色卡,每个排版色卡均有相对应的排版色卡号,且相对应的排版色卡和标准色卡,他们的色卡号也相对应。所述打印排版图的排版色卡呈矩阵分布,所述排版色卡的形状采用10mm*10mm的方块或直径为10mm的圆。在本实施例中,所述打印排版图设有90个纵列,相邻两个纵列之间的间距设置为5mm,每个纵列均设有40个排版色卡,且排版色卡之间的间距设置为2mm。
    [0048]在步骤4中,面料采用常用规格面料,如全棉、人棉、化纤等每种面料的代表,以增加调色方法的通用性。面料颜色打印采用直喷数码打印或热转印数码打印;面料颜色打印采用直喷数码打印时,打印步骤包括上浆、打印、蒸化、水洗、定型和成品;面料颜色打印采用热转印数码打印时,打印步骤包括打印热转纸、转印到面料。
    [0049]在步骤5中,色差仪1和平衡支架配合使用采集面料上的打印颜色,并通过色差仪1电性连接电脑将打印颜色录入电脑中。采集到的打印颜色包含多个打印色卡,每个打印色卡均有相对应的打印色卡号。
    [0050]在步骤6中,所述打印颜色的匹配过程,包括如下步骤:
    [0051]步骤(1),将打印颜色的打印色卡号与打印排版图的排版色卡号一一相对应,即打印颜色的一号打印色卡对应打印排版图的一号排版色卡,打印颜色的二号打印色卡对应打印排版图的二号排版色卡;
    [0052]步骤(2),根据打印颜色的显色在标准色卡库内匹配相应的标准色卡号,然后根据匹配到的标准色卡号在打印排版图内匹配相应的排版色卡号,判断打印色卡号与排版色卡号是否匹配;若匹配,则打印颜色与标准色卡库匹配成功;若不匹配,则打印颜色与标准色卡库匹配不成功,需将打印颜色进行补色处理。
    [0053]具体为:
    [0054]打印颜色的每个打印色卡对应打印排版图里对应位置的排版色卡,但颜色显示可能不同。将打印颜色的每个打印色卡都在标准色卡库内找其显色对应的标准色卡号,然后再匹配到相对应的排版色卡号,若匹配成功,则直接录入电子数据色卡库。
    [0055]在步骤7中,所述补色处理的步骤包括:根据未能匹配到的打印排版图排版色卡号,将与之对应的打印颜色色卡进行颜色修正,如将颜色数据加大或减小,修正后,重复步骤4-步骤6,直至打印颜色与标准色卡库相匹配为止,将后将数据存档,录入电子数据色卡库。
    [0056]在步骤3中,所制得的平衡支架用于检测色差仪1是否垂直取色,所述平衡支架包括平板3,所述平板3的厚度为3mm-5mm,所述平板3上设有多个用于色差仪1取色的取色孔2,所述取色孔2沿平板3的长边依次设置,所述取色孔2为同一直线设置,所述取色孔2与色差仪1的取色头相匹配,最外侧的所述取色孔2与平板3的短边之间的间距大于等于1mm。
    [0057]所述色差仪1为笔状,色差仪1的取色头可为圆台结构或圆柱结构。
    [0058]如图1-图3所示,当色差仪1的取色头为圆台结构时,所述取色孔2与色差仪1的取色头相匹配,所述取色孔2为倒置的圆台状通孔,所述取色孔2根据需求等间距设置。在本实施例中,面料是根据打印排版图进行颜色打印的,打印颜色的打印色卡形状、打印色卡的数量、以及打印色卡的间距均与打印排版图相同。因此,为便于操作,可将取色孔2之间的间距设置为2mm,取色孔2的数量设置为40个,取色孔2最大直径为10mm,平板3短边的长度应大于10mm,平板3长边的长度应大于等于480mm。
    [0059]如图4-图6所示,当色差仪1的取色头为圆柱结构时,所述取色孔2为圆柱状通孔,所述取色孔2的直径比色差仪1取色头的直径大0.2mm,以便色差仪1取色头插入取色,所述取色孔2根据需求等间距设置。在本实施例中,面料是根据打印排版图进行颜色打印的,打印颜色的打印色卡形状、打印色卡的数量、以及打印色卡的间距均与打印排版图相同。因此,为便于操作,可将取色孔2等间距设置,取色孔2之间的间距设置为2mm,取色孔2的数量设置为40个,取色孔2的直径为10.2mm,平板3短边的长度应大于10.2mm,平板3长边的长度应大于等于488mm。如图7所示,若排版色卡排版比较紧密,可将取色孔2相交叠,即相邻两个取色孔2相交叠设置。
    [0060]所述取色孔2的外周设有第一平行线4和第二平行线5,所述第一平行线4、第二平行线5以取色孔2的圆心周向分布,且第一平行线4和第二平行线5间隔设置,所述第一平行线4平行于平板3的长边,所述第二平行线5平行于平板3的短边。第一平行线4和第二平行线5相配合使用,用于检测色差仪1是否垂直取色,为便于观察,第一平行线4和第二平行线5用颜色标识。
    [0061]综上所述,本发明通过将打印颜色和标准色卡库相匹配来完成打印排版图的调色,在后期使用时,可以不用专业的人才进行调色,操作人员进行简单的培训即可。本发明可通过色差仪取色,通过打印颜色自动转换匹配打印排版图;可通过软件的拾色器功能对打印排版图进行取色,完成打印颜色的匹配。
    [0062]最后,应当指出,以上实施例仅是本发明较有代表性的例子。显然,本发明不限于上述实施例,还可以有许多变形。凡是依据本发明的技术实质对以上实施例所作的任何简单修改、等同变化与修饰,均应认为属于本发明的保护范围。
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