金丝猴(Rhinopithecus)的某些结构特征

本文在对金丝猴的三个种群作系统解剖的基础上,与其他灵长类以及金丝猴的三个种群之间进行了比较。结果表明:在金丝猴与其他灵长类进行比较的44个项目中,金丝猴特有者9项;与叶猴相同而与其他灵长类不同者4项;与疣猴类的共同特征9项;与叶猴、类人猿和人相似而为其他猴类所不具备的特征有5项;与类人猿和人相似而为叶猴和其他猴类所不具备的特征有17项。因此,我们认为金丝猴的地位在叶猴之上,是猴超科(Cercopithecoidea) 中最进化的一个属,在灵长类系统发育中处于猴类与猿类之间的中间地位。在金丝猴三个种群之间互异比较中,相互不同的特征均超过60％,似乎完全有理由把它分立为三个种。     

书讯

本书为我国三种金丝猴的比较解剖学专著,也是国内外对此三种动物的系统解剖的首次记载。在对我国特有的滇金丝猴、川金丝猴和黔金丝猴作系统解剖、功能形态和部分器官组织的显微形态研究的基础上,对三种金丝猴之间和金丝猴属与其它灵长类之间的形态学差异作了比较。本书重点侧重于比较形态学,从形态学角度探讨三种金丝猴的分类地位和系统演化关系。附有插图和图版     

金丝猴长骨的异速生长研究

文章利用14副成年金丝猴骨架(包括滇金丝猴Rhinopithecus bieti;黔金丝猴R.brelichi)对其长骨与体重间的异速生长进行了分析研究。结果表明,在金丝猴的生长发育过程中,前肢的生长速度大于后肢。这种形态特征与金丝猴在运动过程中攀爬垂直支撑物相联系。从肢间指数和生长系数看,金丝猴的前后肢与其它灵长类相比较,相对于体重来说比较短。这是在树上攀缘过程中使重心更接近支撑攀物和使身体稳定的一种适应。对躯干长(STL),肱骨、桡骨、股骨和胫骨经多维变量分析说明了金丝猴的长骨与体重之间的关系,长骨的结构特征与狮尾狒(Theropithecus)、狒狒(Papio)、叶猴(Presbytis)、猕猴(Mcaaca)及长鼻猴(Nasalis)更为接近。在金丝猴的运动特征上,我们据此推测,它们有一部分时间在地上活动,但休息、睡觉、寻食及逃避敌害等时在树上。因此,在运动中,跳跃、臂摆荡和悬吊不是它们的主要运动方式。     

金丝猴分类及系统发育关系

本文对金丝猴的99项形态学特征的研究结果表明:川、滇、黔金丝猴应为三个独立的种;根据我国的地质变迁推测,川、滇金丝猴间分离最早,其次是川、黔金丝猴,最后是滇、黔金丝猴;由于特殊的生态环境,滇金丝猴是属中进化较完善者,而黔金丝猴是最原始者;至于分布在阿萨姆和上缅甸的金丝猴,如果存在,很可能是一个新种或属于滇金丝猴的一个新亚种。     

青木川自然保护区川金丝猴食性的季节性变化

2005 ～2008 年于陕西省青木川自然保护区使用瞬时扫描法观察了川金丝猴的食性。结果表明,川金丝猴冬季和夏季共取食42 种植物,可鉴定植物归属23 科34 属。川金丝猴食物类型包括果实、花、树叶、树皮、树芽。夏季取食21 种植物的果实或树叶;冬季取食25 种植物。树叶是其冬季主要食物,取食频次占总取食频次的73.0% ;夏季取食果实的频次占总取食频次的72.2% ,灯台树果实是其主要食物。啃食树皮行为主要发生在落叶阔叶林、针叶林与落叶阔叶混交林;在常绿和落叶阔叶混交林中,树皮啃食强度则相对较小。与其它地区金丝猴的食性比较,该地区川金丝猴食物谱较宽。蔷薇科和壳斗科植物在川金丝猴食物组成中最多,杨柳科、桦木科、山茱萸科、槭树科和忍冬科植物也取食较多。     

川金丝猴血象和血液生物化学指标的研究

测定了１２只川金丝猴的血象和血液生物化学指标。结果发现;在各项血象指标中,只有白细胞总数和白细胞分类计数与滇金丝猴的有较大判别;在各项生物化学指标中,血清尿酸含量比滇金猴的高,血清总胆固醇和尿素氮的含量比滇金丝猴的低,血清白收白和球蛋白比值与人的差异明显;其余各项指标与滇金丝猴和人的十分接近。     

基于微卫星DNA的神农架川金丝猴遗传结构研究

川金丝猴(Rhinopithecus roxellana)是我国特有珍稀濒危物种,了解其种群遗传结构和关键影响因素,对该物种的保护具有重要意义。以我国分布最东端的湖北神农架川金丝猴种群为研究对象,基于非损伤性DNA技术和微卫星DNA遗传标记等分子生物学方法及景观遗传参数,探讨了神农架川金丝猴的遗传多样性和遗传结构,旨在为川金丝猴的研究及川金丝猴种群的可持续发展提供理论基础。利用12个多态性微卫星位点,在455份川金丝猴粪便样品中,共检测到62个微卫星等位基因;共鉴定出316个不同川金丝猴个体;种群的平均期望杂合度、平均观察杂合度和多态性信息含量分别为0.626、0.559和0.650;群体间的Nei's遗传距离为0.046—0.139,分化系数为0.015—0.046。结果表明与其他地区川金丝猴种群相比,神农架川金丝猴种群具有较低的遗传多样性水平,种群内部存在遗传分化趋势;结合景观参数分析表明地理距离不是影响神农架川金丝猴群体间遗传距离的主要因素,而生境中的灌丛和草地以及人类活动干扰可能是影响川金丝猴遗传交流的主要因素。     

金丝猴(RHINOPITHECUS)肌肉系统某些特征的比较研究

本文对金丝猴与其他灵长类之间和三种金丝猴之间特征不同的56条肌作了比较研究。结果表明:三种金丝猴的肌肉系统存在一些差异。纠正了Patterson(1942)对一例川金丝猴的一些错误观察记录。在金丝猴属的肌学方面除与猴超科共有的大部分特征外,还具有与类人猿和人相似的特征。在猴类中,金丝猴的肌肉系统更多地与叶猴相似,其中一些特征较叶猴更为进化。从进化观点看,金丝猴的肌学特征似介于叶猴与类人猿之间,故它们比其他猴超科动物更为进化。     

滇金丝猴、藏酋猴和猕猴咀嚼装置骨学特征的比较

本文对滇金丝猴、藏酋猴和猕猴毛耳亚种中与咀嚼有关的48项骨学特征作了比较,试图探讨它们在功能与形态及行为方面的相关关系。对所得变量进行了多变量统计分析、齿弓对称性分析及咀嚼能力分析。结果表明：滇金丝猴与猕猴属具有不同的下颌形状。前者齿弓对称性比后者好,且具有更强的咀嚼能力;藏酋猴的咀嚼能力远较毛耳猴接近滇金丝猴;咬啐坚果的能力与咀嚼能力大小相反。在下颌发育中有异速生长现象。据此对食性的推测与已有的野外观察资料相符。     

利用红外相机建立川金丝猴的行为谱及PAE编码系统

利用红外相机收集四川卧龙国家级自然保护区内川金丝猴Rhinopithecus roxellana的行为、动作模式及活动环境等特征的视频数据,以"姿势-动作-环境"为轴心,行为的生态功能为依据,完成川金丝猴行为谱的建立,并对其行为进行分类和系统编码。经视频数据辨识分析,共统计到野生川金丝猴的17种姿势、84种动作和116种行为。将这些行为与滇金丝猴R.bieti、黔金丝猴R.brelichi进行对比,发现3种金丝猴的大部分行为具有一致性;但栖息环境的差异、长时间的地理隔离以及后天的学习使得这些行为又表现出了差异性:一是行为的差异性,不同物种具有各自特殊的行为,如川金丝猴特有的跳跃采食行为和雌性匍匐邀配行为;二是行为效应的差异性,如快理等动作在不同物种中表达了不同的行为效应。完善和建立川金丝猴的行为谱有利于更全面、更准确地了解其行为生态学基本特征,同时为其深入研究提供基础数据。     

金丝猴(RHINOPITHECUS)的动脉

动脉在体内的分支情况与机体各部分的结构和功能及其发育情况是相适应的,随着物种的分化,动脉的分支情况也产生了差异,并在一定程度上反映出动物在进化过程中所处的地位。所以,研究动脉的分支是推导动物演化趋向的根据之一。 关于灵长类动脉的研究,已涉及绝大多数种类,但在猴科中,尚未做过金丝猴动脉的研究。本文报导了金丝猴的动脉,并与有关种类的动脉分支情况作了比较。     

The bronchial tree and lobular division of the gorilla lung

The bronchial ramification in one specimen of gorilla lung was examined from the viewpoint of comparative anatomy, on the basis of the fundamental structure of bronchial ramification in the mammalian lung (Nakakuki, 1975, 1980). The right lung of the gorilla consists of the upper, middle, lower, and accessory lobes. The right lung has the dorsal, lateral, and ventral bronchiole systems, but the medial bronchiole system is lacking. The upper lobe is formed by the first branch of the dorsal bronchiole system. The middle lobe is formed by the first branch of the lateral bronchiole system. The accessory lobe is formed by the first branch of the ventral bronchiole system. The remaining bronchioles constitute the lower lobe. The left lung consists of the middle and lower lobes; the upper and accessory lobes are lacking. The left lung has the dorsal and lateral bronchiole systems, but the ventral and medial bronchiole systems are lacking. The middle lobe is formed by the first branch of the lateral bronchiole system. The remaining bronchioles constitute the lower lobe. The bronchial ramifications of the gorilla lung are rather similar to those of the human lung.     

The bronchial tree,lobular division,and blood vessels of the lung of the Diana monkey (Cercopithecus diana)

The authors examined the lung of one Diana monkey (Cercopithecus diana). The right lung consists of upper, middle, lower, and accessory lobes, the upper and middle lobes being united dorsally. The accessory and lower lobes are separated from the other lobes by fissures. The left lung consists of a bi-lobed middle lobe and a lower lobe. These lobes are separated by an interlobular fissure. The Diana monkey has dorsal, lateral, ventral, and medial bronchiole systems on either side. The upper lobe is formed by the first bronchiole of the dorsal bronchiole system. The middle lobe is formed by the first bronchiole of the lateral bronchiole system and the accessory lobe is formed by the first bronchiole of the ventral bronchiole system. The remaining bronchioles of the four bronchiole systems constitute the lower lobe. The right pulmonary artery runs across the ventral side of the right upper lobe bronchiole, and then across the dorsal side of the right middle lobe bronchiole. Thereafter, it runs between the dorsal and lateral bronchiole systems, along the dorso-lateral side of the right bronchus. During its course, the right pulmonary artery gives off arterial branches running along the dorsal or lateral side of each bronchiole. The left pulmonary artery runs across the dorsal side of the left middle lobe bronchiole. Thereafter, it follows the same course as in the right lung, giving off arterial branches. The pulmonary veins run along the ventral or medial side of the bronchiole, and between the bronchioles.     

The bronchial tree and lobular division of the chimpanzee lung

The bronchial ramification and lobular division in lungs of two chimpanzees (Pan troglodytes) were examined from the viewpoint of comparative anatomy, on the basis of the fundamental structure of bronchial ramification of the mammalian lung (Nakakuki, 1975, 1980). The right lung of the chimpanzee consists of the upper, middle, and lower lobes, whereas the left lung consists of the middle and lower lobes. The right and left lungs have the dorsal bronchiole system, lateral bronchiole system, and medial bronchiole system. The ventral bronchiole system is lacking on both sides. The right upper lobe is formed by the first branch of the dorsal bronchiole system. The right middle lobe is formed by the first branch of the lateral bronchiole system, and the right accessory lobe bronchiole is lacking. The remaining bronchioles constitute the right lower lobe. In the left lung, the upper and accessory lobes are lacking. The well developed middle lobe is formed by the first branch of the lateral bronchiole system. The left lower lobe is formed by the remaining bronchioles. Furthermore, these bronchioles are compared with those of the human lung byBoyden (1955).     

The lobular division,bronchial tree and blood vessels of the squirrel monkey lung

The lobular division, bronchial tree, and blood vessels in lungs of seven squirrel monkeys (Saimiri sciureus) were examined from the viewpoint of comparative anatomy. The right lung of the squirrel monkey consists of the upper, middle, lower, and accessory lobes, whereas the left lung consists of the upper, middle, and lower lobes. These lobes are completely separated by interlobular fissures. In three of seven examples examined the left middle lobe was lacking. The squirrel monkey lung has four bronchiole systems, i.e. dorsal, lateral, ventral, and medial, on both sides. The upper lobes are formed by the first branches of the dorsal bronchiole systems. The middle lobes are formed by the first branches of the lateral bronchiole systems. The remaining bronchioles constitute the lower lobes. In addition to the above lobes, in the right lung, the accessory lobe is present, being formed by the first branch of the ventral bronchiole system. The right pulmonary artery runs across the ventral side of the right upper lobe bronchiole, and then across the dorsal side of the right middle lobe bronchiole. Thereafter, it runs between the dorsal bronchiole and lateral bronchiole systems along the dorso-lateral side of the right bronchus. During its course, the right pulmonary artery gives off the arterial branches which run along each bronchiole. These branches run mainly along the dorsal or lateral side of the bronchioles. In the left lung, the pulmonary artery and its branches run the same course as in the right lung. The pulmonary veins run mainly the ventral or medial side of the bronchioles, and between the bronchioles.     

The bronchial tree and blood vessels of the Japanese monkey lung

The author injected various colored celluloid solutions into the bronchial tree and blood vessels of the lungs of five adult Japanese monkeys (Macaca fuscata) in order to prepare cast specimens. These specimens were investigated from the comparative anatomical viewpoint to determine whether the bronchial ramification theory of the mammalian lung (Nakakuki, 1975, 1980) can be applied to the Japanese monkey lung or not. The bronchioles are arranged stereotaxically like those of other mammalian lungs. The four bronchiole systems, dorsal, ventral, medial, and lateral, arise from both bronchi, respectively, although some bronchioles are lacking. In the right lung, the bronchioles form the upper, middle, accessory, and lower lobes, while in the left lung, the upper and accessory lobes are lacking and bi-lobed middle and lower lobes are formed. In the right lung, the upper lobe is formed by the first branch of the dorsal bronchiole system. The middle lobe is the first branch of the lateral bronchiole system. The accessory lobe is the first branch of the ventral bronchiole system. The lower lobe is formed by the remaining bronchioles of the four bronchiole systems. In the left lung, the middle lobe is formed by the first branch of the lateral bronchiole system. The lower lobe is formed by the remaining bronchioles. Thus, the bronchial ramification theory of the mammalian lung applied well to the Japanese monkey lung. The right pulmonary artery runs across the ventral side of the right upper lobe bronchiole. It then runs along the dorso-lateral side of the right bronchus between the dorsal bronchiole system and the lateral bronchiole system. On its way, it gives off branches of the pulmonary artery which run along the dorsal or lateral side of each bronchiole except in the ventral bronchiole system. In the ventral bronchiole system, the branches run along the ventral side of the bronchioles. The distributions of the pulmonary artery in the left lung are the same as those in the right lung. The pulmonary veins do not always run along the bronchioles. Most of them run on the medial or ventral side of the bronchioles. Some of them run between the pulmonary segments. In the right lung, these pulmonary veins finally form the right upper lobe vein, right middle lobe vein and the right lower lobe pulmonary venous trunk before entering the left atrium. However, the right accessory lobe vein runs on the dorsal side of the bronchiole and pours into the right lower lobe pulmonary venous trunk. In four cases out of the five examples, part of the right lower lobe veins pour into the right middle lobe vein, while the others enter the right lower lobe pulmonary venous trunk. In the left lung, the branches of the pulmonary veins finally form the left middle lobe vein and the left lower lobe pulmonary venous trunk.     

The bronchial tree and lobular division of the lung of the white handed gibbon

The bronchial tree and lobular division of the lungs of four white handed gibbons (Hylobates agilis) were examined from the viewpoint of comparative anatomy, based upon the fundamental structure of the bronchial ramifications of the mammalian lung (Nakakuki, 1975, 1980). The right lung of the white handed gibbon consists of the upper, middle, lower, and accessory lobes, whereas the left lung consists of the middle and lower lobes. Each lobe is separated by the interlobular fissure, on both sides. The right and left lungs have the dorsal bronchiole system, lateral bronchiole system, and ventral bronchiole system. The medial bronchiole system is lacking on both sides. In the right lung, the upper lobe is formed by the first branch of the dorsal bronchiole system. The middle lobe is formed by the first brach of the lateral bronchiole system, and the accessory lobe by the first branch of the ventral bronchiole system. The remaining bronchioles constitute the right lower lobe. In the left lung, the upper lobe bronchiole, which is the first branch of the dorsal bronchiole system, is lacking. Therefore, the middle lobe bronchiole, i.e. the first branch of the lateral bronchiole system, is well developed. The accessory lobe bronchiole, the first branch of the ventral bronchiole system, is also lacking. The remaining bronchioles constitute the left lower lobe. These features were compared with those of other apes and man.     

江豚气管和肺的解剖学与组织学研究

鲸类气管和肺的解剖学研究,早在17世纪末就开始进行。近年来,我国的珍稀动物白鱀豚(Lipotes vexillifer)已分别由陈宜瑜等(1975)进行了形态解剖,刘仁俊等(1980)进行了呼吸系统的解剖和组织学研究。有关江豚(Neophocaena asiaeorientalis)的呼吸系统仅秉志(1926)作过极简短的大体结构描述,有关其组织学的观察,目前尚无报道。本文对江豚气管、肺的解剖和组织学进行了详细的观察。     

The bronchial tree,lobular division,and blood vessels of the lung of the silvered lutong (Presbytis cristata)

The lungs of three silvered lutongs (Presbytis cristata) were examined. The right and left lungs have the dorsal, lateral, ventral, and medial bronchiole systems, which arise from the corresponding sides of both bronchi, respectively. Bronchioles in the dorsal and lateral bronchiole systems are well developed, whereas those in the ventral and medial bronchiole systems are poorly developed and lack some portions. According to the fundamental structure of bronchial ramifications of the mammalian lung (Nakakuki, 1975, 1980), the right lung consists of the upper, middle, lower, and accessory lobes, whereas the left lung consists of a bilobed middle lobe and a lower lobe, in which the right upper lobe is extremely well developed. The right pulmonary artery runs across the ventral side of the right upper lobe bronchiole, and then across the dorsal side of the right middle lobe bronchiole. Initially it runs along the lateral side of the right bronchus and then gradually comes to run along the dorsal side. During its course, it gives off branches which run mainly along the dorsal or lateral side of the bronchiole. The left pulmonary artery runs across the dorsal side of the left middle lobe bronchiole, and then follows the same course as that in the right lower lobe. The pulmonary veins run medially or ventrally to the bronchioles, and finally enter the left atrium as four or five large veins.     

Role of pulmonary blood flow in postpneumonectomy lung growth.

To study the influence of blood flow on postpneumonectomy lung growth, we banded the left caudal lobe pulmonary artery of eight ferrets in such a way that blood flow to the caudal lobe did not increase when the right lung was excised 1 wk later. The fraction of the cardiac output received by the right lung before pneumonectomy was therefore directed entirely to the left cranial lobe. Three weeks after pneumonectomy the weight, volume, and protein and DNA contents of the two lobes of the left lung were measured and compared with those of five unoperated animals and eight animals after right pneumonectomy alone. Although its perfusion did not increase after pneumonectomy, the left caudal lobe of banded animals participated in compensatory growth, increasing in weight and protein and DNA contents. Although the cranial lobe of banded animals received 25% more of the cardiac output than the same lobe in pneumonectomized animals, cranial lobe volume and protein and DNA contents in the two groups were similar. Caudal lobes were smaller in banded than in simple pneumonectomized animals and tended to contain less protein, whereas the cranial lobes tended to be heavier. We conclude that increased pulmonary perfusion is not necessary for compensatory lung growth in adult ferrets, but it may modify this response.