Chapter 5 Joint Classifications Synarthroses Amphiarthroses

Total Page:16

File Type:pdf, Size:1020Kb

Chapter 5 Joint Classifications Synarthroses Amphiarthroses Chapter 5 Joint Classifications • Synarthroses – immovable • Amphiarthroses – slightly movable • Diarthroses (synovial) – freely movable Biomechanics of Human Skeletal Articulations Synarthroses Amphiarthroses • Immovable joints such as: • Slightly movable joints such as: – Synchondroses – Sutures • 1st sternocostal • skull – Syndesmoses – Symphyses • Tibiofibular • Intervertebral body Diarthroses Synovial Joint Architecture (synovial) • Articular cartilage – protective layer of • Freely movable joints dense white connective tissue covering such as: the articulating bone surfaces • Articular capsule – a double-layered – Knee membrane that surrounds the joint • Synovial fluid – clear, slightly yellow – Elbow liquid that provides lubrication inside the articular capsule • Bursae – small capsules filled with synovial fluid that cushion the structures they separate 1 Synovial Joint Classifications Gliding Joint • Gliding • Hinge • Tarsal metatarsal • Pivot • Condyloid • Saddle • Ball and socket Hinge Joint Pivot Joint • Humeroulnar Joint • Radioulnar Joint Condyloid Joint Saddle Joint • Metacarpal phalangeal Joint • 1st carpal metacarpal joint 2 Ball and Socket Joint Articular Cartilage • Spreads loads over a wide area reducing contact stress • Hip joint • Provides a protective lubrication that minimizes friction and mechanical wear at the joint Articular Fibrocartilage Articular Fibrocartilage Functions • Load distribution • Improving joint fit • Limiting slip between articulating bones • Protecting joint periphery • Joint lubrication soft-tissue discs or menisci that intervene between articulating bones • Shock absorption Articular Connective Tissues Joint Stability • Tendons – connect muscles to bones • Ligaments – connect bones to bones Ability of a joint to resist abnormal displacement of the articulating bones 3 Factors Increasing Joint Stability Joint Flexibility • Closely reciprocating match of the • A description of the relative ranges of articulating bone surfaces motion allowed at a joint in different – Maximal stability is in close-packed position directions • Strong array of ligaments and muscle • Range of Motion (ROM): the angle tendons crossing the joint through which a joint moves from anatomical position to the extreme limit of • Absence of muscle fatigue segment motion in a particular direction ROM Measurement Factors Influencing Joint Flexibility • Intervening tissues – Bone – Muscle – Fat • Tightness/laxity in tissues crossing the joint – Muscles – Collagenous tissue • ROM is measured directionally from anatomical position (0º) • Muscle fatigue Sensory Receptors Influencing GTO Musculotendinous Extensibility • Golgi tendon organs – inhibit tension in muscle & initiate tension development in antagonists • Muscle spindles – provoke reflex contraction in stretched muscle & inhibit tension in antagonists • Aid in slow, controlled stretching 4 Muscle Spindles GTO vs. Muscle Spindles Golgi Tendon Organs Muscle Spindles Location Within tendons near the Interspersed among muscle muscle-tendon junction fibers in parallel with the in series with muscle fibers fibers Increase in muscle length Stimulus Increase in muscle tension Response 1) inhibit tension development in stretched 1) initiate rapid contraction muscle of stretched muscle 2) initiate tension 2) inhibit tension development in stretched development in muscle antagonist muscles Overall Promote stretch in muscle Inhibit stretch in muscle Effect being stretched being stretched Active vs. Passive Stretching Ballistic vs. Static Stretching • Active Stretching – produced by active • Ballistic stretching – a series of quick development of tension in the antagonist bouncing-type stretches muscles • Static stretch – maintaining a slow • Passive Stretching – produced by a force controlled, sustained stretch over time- other than tension in the antagonist usually about 30 seconds muscles Proprioceptive Neuromuscular Osteoarthritis Facilitation PNF • Common degenerative disease of articular cartilage Group of stretching procedures involving alternating contraction and relaxation of • Symptoms include pain, swelling, ROM the muscles being stretched restriction, and stiffness • Both too little and too much mechanical stress seem to promote development 5.
Recommended publications
  • The Proximal Interphalangeal Joint: Arthritis and Deformity
    4.1800EOR0010.1302/2058-5241.4.180042 research-article2019 EOR | volume 4 | June 2019 DOI: 10.1302/2058-5241.4.180042 Instructional Lecture: Hand & Wrist www.efortopenreviews.org The proximal interphalangeal joint: arthritis and deformity Daniel Herren Finger joints are of the most common site of osteoarthritis Most authors, especially in the rheumatology and arthritis and include the DIP, PIP and the thumb saddle joint. literature, use a modification of the Kellgren and Lawrence 1 Joint arthroplasty provides the best functional outcome scale, initially described for patellofemoral arthritis, for for painful destroyed PIP joints, including the index finger. radiographic classification: Adequate bone stock and functional tendons are required for a successful PIP joint replacement Grade 1: doubtful narrowing of joint space and pos- sible osteophytic lipping Fixed swan-neck and boutonnière deformity are better served with PIP arthrodesis rather than arthroplasty. Grade 2: definite osteophytes, definite narrowing of joint space Silicone implants are the gold standard in terms of implant choice. Newer two-component joints may have potential Grade 3: moderate multiple osteophytes, definite nar- to correct lateral deformities and improve lateral stability. rowing of joint space, some sclerosis and possible deformation of bone contour Different surgical approaches are used for PIP joint implant arthroplasty according to the needs and the experience of Grade 4: large osteophytes, marked narrowing of joint the surgeon. space, severe sclerosis and definite deformation of bone contour Post-operative rehabilitation is as critical as the surgical procedure. Early protected motion is a treatment goal. Revision and exchange PIP arthroplasty may successfully Treatment be used to treat chronic pain, but will not correct defor- mity.
    [Show full text]
  • Synovial Joints Permit Movements of the Skeleton
    8 Joints Lecture Presentation by Lori Garrett © 2018 Pearson Education, Inc. Section 1: Joint Structure and Movement Learning Outcomes 8.1 Contrast the major categories of joints, and explain the relationship between structure and function for each category. 8.2 Describe the basic structure of a synovial joint, and describe common accessory structures and their functions. 8.3 Describe how the anatomical and functional properties of synovial joints permit movements of the skeleton. © 2018 Pearson Education, Inc. Section 1: Joint Structure and Movement Learning Outcomes (continued) 8.4 Describe flexion/extension, abduction/ adduction, and circumduction movements of the skeleton. 8.5 Describe rotational and special movements of the skeleton. © 2018 Pearson Education, Inc. Module 8.1: Joints are classified according to structure and movement Joints, or articulations . Locations where two or more bones meet . Only points at which movements of bones can occur • Joints allow mobility while preserving bone strength • Amount of movement allowed is determined by anatomical structure . Categorized • Functionally by amount of motion allowed, or range of motion (ROM) • Structurally by anatomical organization © 2018 Pearson Education, Inc. Module 8.1: Joint classification Functional classification of joints . Synarthrosis (syn-, together + arthrosis, joint) • No movement allowed • Extremely strong . Amphiarthrosis (amphi-, on both sides) • Little movement allowed (more than synarthrosis) • Much stronger than diarthrosis • Articulating bones connected by collagen fibers or cartilage . Diarthrosis (dia-, through) • Freely movable © 2018 Pearson Education, Inc. Module 8.1: Joint classification Structural classification of joints . Fibrous • Suture (sutura, a sewing together) – Synarthrotic joint connected by dense fibrous connective tissue – Located between bones of the skull • Gomphosis (gomphos, bolt) – Synarthrotic joint binding teeth to bony sockets in maxillae and mandible © 2018 Pearson Education, Inc.
    [Show full text]
  • Lecture Notes on Human Anatomy. Part One, Fourth Edition. PUB DATE Sep 89 NOTE 79P.; for Related Documents, See SE 051 219-221
    DOCUMENT RESUME ED 315 320 SE 051 218 AUTHOR Conrey, Kathleen TITLE Lecture Notes on Human Anatomy. Part One, Fourth Edition. PUB DATE Sep 89 NOTE 79p.; For related documents, see SE 051 219-221. Black and white illustrations will not reproduce clearly. AVAILABLE FROM Aramaki Design and Publications, 12077 Jefferson Blvd., Culver City, CA 90506 ($7.75). PUB TYPE Guides - Classroom Use - Materials (For Learner) (051) EDRS PRICE MF01 Plus Postage. PC Not Available from EDRS. DESCRIPTORS *Anatomy; *Biological Sciences; *College Science; Higher Education; *Human Body; *Lecture Method; Science Education; Secondary Education; Secondary School Science; Teaching Guides; Teaching Methods ABSTRACT During the process of studying the specific course content of human anatomy, students are being educated to expand their vocabulary, deal successfully with complex tasks, anduse a specific way of thinking. This is the first volume in a set of notes which are designed to accompany a lecture series in human anatomy. This volume Includes discussions of anatomical planes and positions, body cavities, and architecture; studies of the skeleton including bones and joints; studies of the musculature of the body; and studiesof the nervous system including the central, autonomic, motor and sensory systems. (CW) *****1.**k07********Y*******t1.****+***********,****A*******r****** % Reproductions supplied by EDRS are the best that can be made from the original document. **************************************************************A**t***** "PERMISSION TO REPRODUCE
    [Show full text]
  • Module 6 : Anatomy of the Joints
    Module 6 : Anatomy of the Joints In this module you will learn: About the classification of joints What synovial joints are and how they work Where the hinge joints are located and their functions Examples of gliding joints and how they work About the saddle joint and its function 6.1 Introduction The body has a need for strength and movement, which is why we are rigid. If our bodies were not made this way, then movement would be impossible. We are designed to grow with bones, tendons, ligaments, and joints that all play a part in natural movements known as articulations – these strong connections join up bones, teeth, and cartilage. Each joint in our body makes these links possible and each joint performs a specific job – many of them differ in shape and structure, but all control a range of motion between the body parts that they connect. 6.2 Classifying Joints Joints that do not allow movement are known as synarthrosis joints. Examples of synarthroses are sutures of the skull, and the gomphoses which connect our teeth to the skull. Amphiarthrosis joints allow a small range of movement, an example of this is your intervertebral discs attached to the spine. Another example is the pubic symphysis in your hip region. The freely moving joints are classified as diarthrosis joints. These have a higher range of motion than any other type of joint, they include knees, elbows, shoulders, and wrists. Joints can also be classified depending on the kind of material each one is structurally made up of. A fibrous joint is made up of tough collagen fiber, examples of this are previously mentioned sutures of the skull or the syndesmosis joint, which holds the ulna and radius of your forearm in place.
    [Show full text]
  • Synovial Fluidfluid 11
    LWBK461-c11_p253-262.qxd 11/18/09 6:04 PM Page 253 Aptara Inc CHAPTER SynovialSynovial FluidFluid 11 Key Terms ANTINUCLEAR ANTIBODY ARTHROCENTESIS BULGE TEST CRYSTAL-INDUCED ARTHRITIS GROUND PEPPER HYALURONATE MUCIN OCHRONOTIC SHARDS RHEUMATOID ARTHRITIS (RA) RHEUMATOID FACTOR (RF) RICE BODIES ROPE’S TEST SEPTIC ARTHRITIS Learning Objectives SYNOVIAL SYSTEMIC LUPUS ERYTHEMATOSUS 1. Define synovial. VISCOSITY 2. Describe the formation and function of synovial fluid. 3. Explain the collection and handling of synovial fluid. 4. Describe the appearance of normal and abnormal synovial fluids. 5. Correlate the appearance of synovial fluid with possible cause. 6. Interpret laboratory tests on synovial fluid. 7. Suggest further testing for synovial fluid, based on preliminary results. 8. List the four classes or categories of joint disease. 9. Correlate synovial fluid analyses with their representative disease classification. 253 LWBK461-c11_p253-262.qxd 11/18/09 6:04 PM Page 254 Aptara Inc 254 Graff’s Textbook of Routine Urinalysis and Body Fluids oint fluid is called synovial fluid because of its resem- blance to egg white. It is a viscous, mucinous substance Jthat lubricates most joints. Analysis of synovial fluid is important in the diagnosis of joint disease. Aspiration of joint fluid is indicated for any patient with a joint effusion or inflamed joints. Aspiration of asymptomatic joints is beneficial for patients with gout and pseudogout as these fluids may still contain crystals.1 Evaluation of physical, chemical, and microscopic characteristics of synovial fluid comprise routine analysis. This chapter includes an overview of the composition and function of synovial fluid, and laboratory procedures and their interpretations.
    [Show full text]
  • Monitoring Methods of Human Body Joints: State-Of-The-Art and Research Challenges
    sensors Review Monitoring Methods of Human Body Joints: State-of-the-Art and Research Challenges Abu Ilius Faisal 1, Sumit Majumder 1 , Tapas Mondal 2, David Cowan 3, Sasan Naseh 1 and M. Jamal Deen 1,* 1 Department of Electrical and Computer Engineering, McMaster University, Hamilton, ON L8S 4L8, Canada; [email protected] (A.I.F.); [email protected] (S.M.); [email protected] (S.N.) 2 Department of Pediatrics, McMaster University, Hamilton, ON L8S 4L8, Canada; [email protected] 3 Department of Medicine, St. Joseph’s Healthcare Hamilton, Hamilton, ON L8N 4A6, Canada; [email protected] * Correspondence: [email protected]; Tel.: +1-905-5259-140 (ext. 27137) Received: 26 April 2019; Accepted: 4 June 2019; Published: 10 June 2019 Abstract: The world’s population is aging: the expansion of the older adult population with multiple physical and health issues is now a huge socio-economic concern worldwide. Among these issues, the loss of mobility among older adults due to musculoskeletal disorders is especially serious as it has severe social, mental and physical consequences. Human body joint monitoring and early diagnosis of these disorders will be a strong and effective solution to this problem. A smart joint monitoring system can identify and record important musculoskeletal-related parameters. Such devices can be utilized for continuous monitoring of joint movements during the normal daily activities of older adults and the healing process of joints (hips, knees or ankles) during the post-surgery period. A viable monitoring system can be developed by combining miniaturized, durable, low-cost and compact sensors with the advanced communication technologies and data processing techniques.
    [Show full text]
  • Joints Classification of Joints
    Joints Classification of Joints . Functional classification (Focuses on amount of movement) . Synarthroses (immovable joints) . Amphiarthroses (slightly movable joints) . Diarthroses (freely movable joints) . Structural classification (Based on the material binding them and presence or absence of a joint cavity) . Fibrous mostly synarthroses . Cartilagenous mostly amphiarthroses . Synovial diarthroses Table of Joint Types Functional across Synarthroses Amphiarthroses Diarthroses (immovable joints) (some movement) (freely movable) Structural down Bony Fusion Synostosis (frontal=metopic suture; epiphyseal lines) Fibrous Suture (skull only) Syndesmoses Syndesmoses -fibrous tissue is -ligaments only -ligament longer continuous with between bones; here, (example: radioulnar periosteum short so some but not interosseous a lot of movement membrane) (example: tib-fib Gomphoses (teeth) ligament) -ligament is periodontal ligament Cartilagenous Synchondroses Sympheses (bone united by -hyaline cartilage -fibrocartilage cartilage only) (examples: (examples: between manubrium-C1, discs, pubic epiphyseal plates) symphesis Synovial Are all diarthrotic Fibrous joints . Bones connected by fibrous tissue: dense regular connective tissue . No joint cavity . Slightly immovable or not at all . Types . Sutures . Syndesmoses . Gomphoses Sutures . Only between bones of skull . Fibrous tissue continuous with periosteum . Ossify and fuse in middle age: now technically called “synostoses”= bony junctions Syndesmoses . In Greek: “ligament” . Bones connected by ligaments only . Amount of movement depends on length of the fibers: longer than in sutures Gomphoses . Is a “peg-in-socket” . Only example is tooth with its socket . Ligament is a short periodontal ligament Cartilagenous joints . Articulating bones united by cartilage . Lack a joint cavity . Not highly movable . Two types . Synchondroses (singular: synchondrosis) . Sympheses (singular: symphesis) Synchondroses . Literally: “junction of cartilage” . Hyaline cartilage unites the bones . Immovable (synarthroses) .
    [Show full text]
  • Examples of Condyloid Joints in the Body
    Examples Of Condyloid Joints In The Body will-lessly,Rahul slubbed templed his heptachord and ungenuine. outspans Say oftenforever alchemises or lengthwise leanly after when Millicent classable remitted Wesley and endorsees force-feeding enough,post-haste is Rolphand penned gold-leaf? her prodromes. When Seymour declassify his Sarah wited not pestilentially Some nourishment to its association with functional movements it seems, condyloid joints of the examples found in severe Joints condyloid joints, articular capsule, provided by such party to Varsity Tutors. There and seven types of synovial joint, trauma, your treatment and hurdles you wander in life. There are reinforced by ligaments carry nerve as in these are examples include running, exercise can include bruises, forms between stretching every movement. View its contents to the proximate ligaments can you are often the joints do proper wrist movement with treatments that take the condyloid joints of in the examples body, parallel to protect the redirect does not be found primarily on. In a condyloid joint a convex condylar surface articulates with a concave condylar surface. Remove the POWr logo from your Social Media Icons. Movement of the head from side to side is an example of rotation. Gliding joints occur while the surfaces of lying flat bones that are held at by ligaments. Some examples found in condyloid because they usually known as compared to stay inside of. There are examples; such as your reset link in directions alongside one example is a hinge. Each other bone articulate with the body of joints condyloid in the examples found primarily along this.
    [Show full text]
  • 38.3 Joints and Skeletal Movement.Pdf
    1198 Chapter 38 | The Musculoskeletal System Decalcification of Bones Question: What effect does the removal of calcium and collagen have on bone structure? Background: Conduct a literature search on the role of calcium and collagen in maintaining bone structure. Conduct a literature search on diseases in which bone structure is compromised. Hypothesis: Develop a hypothesis that states predictions of the flexibility, strength, and mass of bones that have had the calcium and collagen components removed. Develop a hypothesis regarding the attempt to add calcium back to decalcified bones. Test the hypothesis: Test the prediction by removing calcium from chicken bones by placing them in a jar of vinegar for seven days. Test the hypothesis regarding adding calcium back to decalcified bone by placing the decalcified chicken bones into a jar of water with calcium supplements added. Test the prediction by denaturing the collagen from the bones by baking them at 250°C for three hours. Analyze the data: Create a table showing the changes in bone flexibility, strength, and mass in the three different environments. Report the results: Under which conditions was the bone most flexible? Under which conditions was the bone the strongest? Draw a conclusion: Did the results support or refute the hypothesis? How do the results observed in this experiment correspond to diseases that destroy bone tissue? 38.3 | Joints and Skeletal Movement By the end of this section, you will be able to do the following: • Classify the different types of joints on the basis of structure • Explain the role of joints in skeletal movement The point at which two or more bones meet is called a joint, or articulation.
    [Show full text]
  • A MODEL of SYNOVIAL FLUID LUBRICANT COMPOSITION in NORMAL and INJURED JOINTS ME Blewis1, GE Nugent-Derfus1, TA Schmidt1, BL Schumacher1, and RL Sah1,2*
    MEEuropean Blewis Cells et al .and Materials Vol. 13. 2007 (pages 26-39) DOI: 10.22203/eCM.v013a03 Model of Synovial Fluid Lubricant ISSN Composition 1473-2262 A MODEL OF SYNOVIAL FLUID LUBRICANT COMPOSITION IN NORMAL AND INJURED JOINTS ME Blewis1, GE Nugent-Derfus1, TA Schmidt1, BL Schumacher1, and RL Sah1,2* Departments of 1Bioengineering and 2Whitaker Institute of Biomedical Engineering, University of California-San Diego, La Jolla, CA Abstract Introduction The synovial fluid (SF) of joints normally functions as a The synovial fluid (SF) of natural joints normally biological lubricant, providing low-friction and low-wear functions as a biological lubricant as well as a biochemical properties to articulating cartilage surfaces through the pool through which nutrients and regulatory cytokines putative contributions of proteoglycan 4 (PRG4), traverse. SF contains molecules that provide low-friction hyaluronic acid (HA), and surface active phospholipids and low-wear properties to articulating cartilage surfaces. (SAPL). These lubricants are secreted by chondrocytes in Molecules postulated to play a key role, alone or in articular cartilage and synoviocytes in synovium, and combination, in lubrication are proteoglycan 4 (PRG4) concentrated in the synovial space by the semi-permeable (Swann et al., 1985) present in SF at a concentration of synovial lining. A deficiency in this lubricating system may 0.05-0.35 mg/ml (Schmid et al., 2001a), hyaluronan (HA) contribute to the erosion of articulating cartilage surfaces (Ogston and Stanier, 1953) at 1-4 mg/ml (Mazzucco et in conditions of arthritis. A quantitative intercompartmental al., 2004), and surface-active phospholipids (SAPL) model was developed to predict in vivo SF lubricant (Schwarz and Hills, 1998) at 0.1 mg/ml (Mazzucco et al., concentration in the human knee joint.
    [Show full text]
  • Cyclotron Produced Radionuclides: Guidelines for Setting up a Facility, Technical Reports Series No
    f f f IAEAIAEA RADIOISOTOPESRADIOISOTOPES ANDAND RADIOPHARMACEUTICALSRADIOPHARMACEUTICALS REPORTSREPORTS NNo.. 13 IAEA RADIOISOTOPES AND RADIOPHARMACEUTICALS REPORTSRADIOISOTOPESIAEA RADIOPHARMACEUTICALS AND N Production,Cyclotron Produced Quality ControlRadionuclides: andEmerging Clinical Positron Applications Emitters for ofMedical Radiosynovectomy Applications: Agents64Cu and 124I o . 3 . Atoms for Peace INTERNATIONAL ATOMIC ENERGY AGENCY VIENNA Atoms for Peace Atoms for Peace IAEA RADIOISOTOPES AND Atoms for Peace RADIOPHARMACEUTICALS SERIES PUBLICATIONS One of the main objectives of the IAEA Radioisotope Production and Radiation Technology programme is to enhance the expertise and capability of IAEA Member States in deploying emerging radioisotope products and generators for medical and industrial applications in order to meet national needs as well as to assimilate new developments in radiopharmaceuticals for diagnostic and therapeutic applications. This will ensure local availability of these applications within a framework of quality assurance. Publications in the IAEA Radioisotopes and Radiopharmaceuticals Series provide information in the areas of: reactor and accelerator produced radioisotopes, generators and sealed sources development/production for medical and industrial uses; radiopharmaceutical sciences, including radiochemistry, radiotracer development, production methods and quality assurance/ quality control (QA/QC). The publications have a broad readership and are aimed at meeting the needs of scientists, engineers,
    [Show full text]
  • Spline Joints for Multibody Dynamics
    To appear in the ACM SIGGRAPH conference proceedings Spline Joints for Multibody Dynamics Sung-Hee Lee∗ Demetri Terzopoulos† University of California, Los Angeles Figure 1: A spline joint can much more accurately model complex biological joints than is possible using conventional joint models. Abstract When it comes to designing practical machines, using only the lower pair joints seems reasonable, not because they are ideal Spline joints are a novel class of joints that can model general scle- choices for every mechanism, but because it is difficult to man- ronomic constraints for multibody dynamics based on the minimal- ufacture more complex types of joints. For the same reason, coordinates formulation. The main idea is to introduce spline the creation of more sophisticated joints has been largely ne- curves and surfaces in the modeling of joints: We model 1-DOF glected in multibody dynamics research. Not surprisingly, there- joints using splines on SE(3), and construct multi-DOF joints as fore, most dynamics simulators and game physics engines, such the product of exponentials of splines in Euclidean space. We as ADAMS (www.mscsoftware.com), the Open Dynamics Engine present efficient recursive algorithms to compute the derivatives of (www.ode.org), and SD/FAST (www.sdfast.com), provide only the spline joint, as well as geometric algorithms to determine op- fairly simple types of joint models limited to fixed joint axes. timal parameters in order to achieve the desired joint motion. Our spline joints can be used to create interesting new simulated mecha- By contrast, more complex joints are common in biological sys- nisms for computer animation and they can more accurately model tems.
    [Show full text]