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Tissue connective

Scieroproteins. Insoluble proteins obtained from the skeletal and connective tissues of animals. Typical classes are keratins collagens and elastin classes. [Pg.332]

Protein-Based Adhesives. Proteia-based adhesives are aormaHy used as stmctural adhesives they are all polyamino acids that are derived from blood, fish skin, caseia [9000-71 -9] soybeans, or animal hides, bones, and connective tissue (coUagen). Setting or cross-linking methods typically used are iasolubilization by means of hydrated lime and denaturation. Denaturation methods require energy which can come from heat, pressure, or radiation, as well as chemical denaturants such as carbon disulfide [75-15-0] or thiourea [62-56-6]. Complexiag salts such as those based upon cobalt, copper, or chromium have also been used. Formaldehyde and formaldehyde donors such as h exam ethyl en etetra am in e can be used to form cross-links. Removal of water from a proteia will also often denature the material. [Pg.234]

J. E. Eastoe and A. Courts, Practical Mnalytical Methods for Connective Tissue Proteins, Spon, London, 1963, Chapt. 6. [Pg.209]

Synthesis. Histamine [51-45-6] 2-(4-imidazolyl)ethylarnine (1) is formed by decarboxylation of histidine by the enzyme L-histidine decarboxylase (Fig. 1). Most histamine is stored preformed in cytoplasmic granules of mast cells and basophils. In humans mast cells are found in the loose connective tissue of all organs, especially around blood and lymphatic vessels and nerves. These cells are most abundant in the organs expressing allergic diseases the skin, respiratory tract, and gastrointestinal tract. [Pg.135]

Estrogens stimulate cellular proliferation, induce RNA and protein synthesis of uterine endometrium and the fibrous connective tissue framework for ovaries, and increase the size of the cells. This effect leads to the growth and regeneration of the endometrial layer and spinal arterioles, and increase in the number and size of endometrial glands. Under the influence of estrogen, vaginal mucosa becomes thicker, as cervical mucus becomes thinner (85,86). [Pg.242]

Tendons are composed of fibrous connective tissue. Tendon tissue is also formed by the fibroblast ceUs, similar to the way ligaments are formed. These fibroblast ceUs then further differentiate into other specialized ceUs known as fibrocytes. Mature fibrocytes are inactive and compose the ceUular portion of tendons. The function of the tendon is to attach muscles to bones and other parts. [Pg.185]

R. L. Whalen, "Connective Tissue Response to Movement at the Prosthesis /Tissue Interface," in Biocompatib/e Polymers, Metals and Composites, Technomic Publishing Co., Lancaster, Pa., 1983. [Pg.192]

Proteins can be broadly classified into fibrous and globular. Many fibrous proteins serve a stmctural role (11). CC-Keratin has been described. Fibroin, the primary protein in silk, has -sheets packed one on top of another. CoUagen, found in connective tissue, has a triple-hehcal stmcture. Other fibrous proteins have a motile function. Skeletal muscle fibers are made up of thick filaments consisting of the protein myosin, and thin filaments consisting of actin, troponin, and tropomyosin. Muscle contraction is achieved when these filaments sHde past each other. Microtubules and flagellin are proteins responsible for the motion of ciUa and bacterial dageUa. [Pg.211]

Untreated adult worms five for 5—10 years. j)a loa females are about 6 cm long and migrate constandy through connective tissues. Calabar swelling occurs as a result of local responses to worms. The swelling lasts two or three days and then subsides. If a worm migrates kito the anterior chamber of the eye, the patient may be able to see it. Sometimes one eye is swollen shut when a worm is ki the vicinity. Untreated worms will five as long as 10 years. [Pg.247]

Plasma levels of 3—5 p.g/mL are obtained two hours after adraiinistration of 200 mg ketoconazole. No accumulation in the bloodstream was noted after a 30-wk treatment with this dose. The half-life is approximately eight hours. When ketoconazole is taken with meals, higher plasma levels are obtained. Distribution studies using radioactive ketoconazole in rats show radioactivity mainly in the Hver and the connective tissue. Radioactivity is also present in the subcutaneous tissue and the sebaceous glands. After one dose of 200 mg in humans, ketoconazole is found in urine, saUva, sebum, and cenimen. Like miconazole, the mode of action is based on inhibition of the cytochrome P-450 dependent biosynthesis of ergosterol. This results in disturbed membrane permeabiUty and membrane-bound enzymes (8,10,23,25). [Pg.256]

Proteins. The most abundant and physiologically diverse natural biopolymers are proteins, which make up enzymes, hormones, and stmctural material such as hair, skin, and connective tissue. The monomer units of natural proteins, a-amino acids, condense to form dipeptides, tripeptides, polypeptides, and proteins. [Pg.94]

Dismption of the endothehal surface of blood vessels expose coUagen fibers and connective tissue. These provide surfaces that promote platelet adherence, platelet release reaction, and subsequent platelet aggregation. Substances Hberated from the platelets stimulate further platelet aggregation, eg, adenosine diphosphate maintain vasoconstriction, eg, serotonin and participate in blood coagulation, eg, platelet Factors III and IV. In addition, the release reaction modifies platelet membranes in a manner that renders phosphoHpid available for coagulation. The thrombin [9002-04-4] elaborated by the coagulation mechanism is a potent agent in the induction of the platelet release reaction. [Pg.171]

Mixed polysaccharides from animal connective tissue. [Pg.296]

Finally, benzpiperylon or l-(l-methyl-4-piperidyl)-3-phenyl-4-benzyl-2- (or 3-) pyrazolin-5-one has been utilized by Sandoz as an investigational agent in connective tissue disorders (B-76MI40404). [Pg.296]

Kielty, C.M., Hopkinson, 1., Grant, M.E. Collagen structure, assembly and organization in the extracellular matrix. In Connective Tissue and its Heritable Disorders Wiley-Liss, Chichester, pp. 103-147, 1993. [Pg.298]

Microporous and microfibrous surfaces on metals are increasingly used in biomedical applications. A recent review by Wen et al. [60] identified advantages over metals with smooth surfaces which included early better adhesion of biomolecules and cells and firmer fixation of bone or connective tissue. [Pg.335]

Airway cross-sections have the nominal anatomy shown in Fig. 5.16. Airway surface liquid (AST), primarily composed of mucus gel and water, surrounds the airway lumen with a thickness thought to vary from 5 to 10 mm. AST lies on the apical surface of airway epithelial cells (mostly columnar ciliated epithelium). This layer of cells, roughly two to three cells thick in proximal airways and eventually thinning to a single cell thickness in distal airways, rests along a basement membrane on its basal surface. Connective tissue (collagen fibers, basement membranes, elastin, and water) lies between the basement membrane and airway smooth muscle. Edema occurs when the volume of water within the connective tissue increases considerably. Interspersed within the smooth muscle are respiratory supply vessels (capillaries, arteriovenous anastomoses), nerves, and lymphatic vessels. [Pg.200]

Subcutaneous The deepest layer of skin, containing fatty and connective tissue that provides a cushion and insulative base for the skin and also binds the skin to the underlying tissues. [Pg.1479]

FIGURE 4.4 The structures of several atniuo acids that are less cotntnou but nevertheless found in certain proteins. Hydroxylysine and hydroxyproline are found in connective-tissue proteins, pyroglutatnic acid is found in bacteriorhodopsin (a protein in Halohacterium halohium), and atninoadipic acid is found in proteins isolated from corn. [Pg.87]


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Analysis connective tissue

Breast implants and connective tissue disease

Carcinomas, connective tissue

Collagen connective tissue disorders

Collagen, connective tissue

Components of the Connective Tissue (Stromal) Matrix

Compound Connective tissue

Connective Tissue and Extracellular Matrix

Connective tissue arterial wall

Connective tissue articular cartilage

Connective tissue augmentation

Connective tissue basement membrane

Connective tissue breakdown

Connective tissue cartilage

Connective tissue cells, culture

Connective tissue cellular differentiation

Connective tissue collagen fibers

Connective tissue disease

Connective tissue diseases polymyositis/dermatomyositis

Connective tissue diseases rheumatoid arthritis

Connective tissue diseases systemic sclerosis

Connective tissue disorders

Connective tissue elastic

Connective tissue extracellular matrix

Connective tissue extracellular matrix collagen

Connective tissue extracellular matrix components

Connective tissue extracellular matrix elastin

Connective tissue extracellular matrix fibrillar

Connective tissue extracellular matrix fibronectin

Connective tissue extracellular matrix glycosaminoglycans

Connective tissue extracellular matrix groups

Connective tissue extracellular matrix integrins

Connective tissue extracellular matrix types

Connective tissue fibrous

Connective tissue function

Connective tissue genetic

Connective tissue glycosaminoglycan

Connective tissue glycosaminoglycan structure

Connective tissue ground substance

Connective tissue growth factor

Connective tissue injuries

Connective tissue keratan sulfate

Connective tissue lipid

Connective tissue magnification

Connective tissue nutritional

Connective tissue palatal mucosa

Connective tissue papillae

Connective tissue proliferation

Connective tissue proteoglycan

Connective tissue proteoglycans

Connective tissue ratio

Connective tissue remodeling

Connective tissue replacement

Connective tissue research needs

Connective tissue table

Connective tissue teeth

Connective tissue tendon

Connective tissue transduction

Connective tissue, glycoproteins

Connective tissue, homocysteine

Connective tissue, polysaccharide role

Connective tissues, components

Dense irregular connective tissue

Effects on Differentiation of Connective Tissue Cells

Extracellular matrix in connective tissue

Genetic causes connective tissue

Hyaluronan connective tissue extracellular matrix

Inherited connective tissue

Inherited connective tissue disorders

Inhibitors, connective tissue

Loose connective tissue

Matrix of connective tissue

Mechanical Modeling of Aligned Connective Tissue

Metabolism) connective tissue

Mixed Connective Tissue Disease and Overlap Syndromes

Mixed connective tissue disease

Mixed connective tissue disease MCTD)

Muscle biopsy connective tissue

Muscle connective tissue

Occupational connective tissue disorders

Oral mucosa connective tissue

Other Pleuropulmonary Complications of Connective Tissue Diseases

Other connective tissue macromolecules

Papillary dermis, connective tissue

Perivascular connective tissu

Polysaccharide connective tissue

Polysaccharides of connective tissue

Protein connective tissues

Respiratory system connective tissue

Subepithelial cells connective tissue

Tissue plasminogen activator connection

Tissue, slices connective

Tissue, stacked series of nested arcs in connective

Tissues connective, structural elements

Undifferentiated connective tissue

Undifferentiated connective tissue disease

Undifferentiated connective tissue disease UCTD)

Wound healing connective tissue proliferation

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