front 1 From a list of skeleton functions, identify which is or is not a function of the skeleton (RBC storage). | back 1 RBC storage is NOT a function of the skeleton; skeleton functions include structure, protection, movement, mineral storage, and hematopoiesis (RBC production). |
front 2 The type of tissue osseous tissue belongs to. | back 2 connective tissue. |
front 3 The type of bone a vertebra belongs to. | back 3 irregular bones. |
front 4 The name of the bone cells before and after becoming enclosed in lacunae. | back 4 Osteoblasts before enclosure; osteocytes after they are enclosed in lacunae. |
front 5 Name the precursor connective tissue type that is replaced by bone in endochondral ossification. | back 5 Hyaline cartilage. |
front 6 Whether all ribs articulate with the sternum. | back 6 False |
front 7 Whether maintaining the voice resonance is a function of the paranasal sinuses. | back 7 True |
front 8 Whether the ischium is posterior to the pubis and inferior to the ilium. | back 8 True |
front 9 The average number of bones in the adult skeleton. | back 9 206 |
front 10 From a list of bones, identify which belongs/does not belong to the axial skeleton. | back 10 Axial skeleton includes skull, vertebral column, ribs, and sternum; limb bones do not belong. Bones that are not part of the axial skeleton include the limbs and girdles |
front 11 The reason why an adult human doesn’t have the same number of bones as a child. | back 11 Some bones fuse together during growth, reducing the total number in adults. |
front 12 Definition of a sesamoid bone. | back 12 A bone formed within a tendon; example: patella. |
front 13 The anatomical term referring to a hole in a bone. | back 13 Foramen |
front 14 From a list of bones, identify the one that belongs/does not belong to the appendicular skeleton. | back 14 The appendicular skeleton includes the bones of the arms, legs, pectoral girdle (shoulder), and pelvic girdle (hips) |
front 15 The name of the immovable joints connecting most of the skull bones. | back 15 Sutures |
front 16 From a list of skull bones, identify the one(s) with/without sinuses | back 16 With sinuses: frontal, maxilla, sphenoid, ethmoid. |
front 17 17. From a list of skull bones, differentiate between facial vs cranial ones | back 17 Cranial bones protect the brain and form the braincase, while facial bones structure the face, support the upper jaw, and enclose the sensory organs |
front 18 The name of the bony structure that houses the pituitary gland and the name of the bone comprises that structure | back 18 Sella turcica of the sphenoid bone. |
front 19 From a list of skull bones, differentiate between single vs paired ones | back 19 Single bones are located in the midline of the skull, while paired bones exist as a left and right symmetrical counterpart. |
front 20 The definition of a fontanelle | back 20 A soft membranous gap between cranial bones in an infant’s skull. |
front 21 From a list of skull bones, identify the bones that do/do not contribute to the wall of the orbit | back 21 The bones that do contribute to the orbit are the frontal, sphenoid, zygomatic, ethmoid, lacrimal, maxilla, and palatine bones. Bones that do not contribute include the nasal, vomer, and temporal bones, which are located elsewhere in the skull. |
front 22 Identifying the bone that is adjacent to both the coronal and lambdoid sutures | back 22 Parietal bone. |
front 23 From a list of skull bones, Identify the bone that forms the bulk of the hard palate | back 23 Maxilla (palatine process). |
front 24 From superior to inferior of a child vertebral column, identify the number of individual vertebrae of each type. | back 24 7 cervical, 12 thoracic, 5 lumbar, 5 sacral, 4 coccygeal (33 total before fusion). |
front 25 From a list of paired bones, identify the pair that belongs to both the thoracic cage and the pectoral girdle. | back 25 Clavicles |
front 26 Identifying rib # 7 according to the classification of the rib type | back 26 True rib (vertebrosternal). |
front 27 Identifying the type of vertebra with bifid spinous process | back 27 Cervical vertebrae (C2–C6). |
front 28 Identifying the bones that the costal cartilages connect together | back 28 Ribs to sternum. |
front 29 Identifying the bones of the antebrachium | back 29 Radius and ulna. |
front 30 Identifying the bone that has the glenoid cavity and the bone with which the glenoid cavity articulates. | back 30 Scapula (has glenoid cavity); articulates with humerus. |
front 31 A fall from a bike resulted in breaking the medial bone of antebrachium; this means that the fracture involved what bone. | back 31 Ulna |
front 32 . The name of the bones making the palm of your hand. | back 32 Metacarpals |
front 33 From a list of bones identify the sesamoid one | back 33 Patella |
front 34 The definition of articulation | back 34 A joint; the point where two or more bones meet. |
front 35 Whether fibrous joints are joints at which two bones are united by hyaline cartilage. | back 35 False |
front 36 The name of the joint between the left and right parietal bones | back 36 Sagittal suture. |
front 37 From a list of tissues, identify which is/is not an anatomical component of a synovial joint | back 37 Components: articular cartilage, synovial membrane, joint capsule,
synovial fluid, ligaments. |
front 38 Whether hinge joints, such as the tibiofemoral joint, are monoaxial. | back 38 True |
front 39 From a list of joints, identify which is/is not a type of the six synovial joints | back 39 Six types: plane, hinge, pivot, condylar, saddle, ball-and-socket. |
front 40 The type of finger movement required when cupping your hands to hold some water and limit its leaking through your fingers | back 40 Adduction of fingers. |
front 41 The type of movement required while standing looking up at the stars | back 41 Hyperextension of the neck. |
front 42 The type of movement you are performing If you stand on tiptoes to reach something high | back 42 Plantar flexion. |
front 43 The type of wrist movement required, when you show your palm to someone who is in front of you, as if to tell him "Stop” | back 43 Supination (of the forearm/wrist). |
front 44 The type of movements performed, respectively, when tipping the soles of the feet medially, so they face each other, and tipping them out laterally so they face away from each other. | back 44 Inversion (medial) and eversion (lateral). |
front 45 The two articulating bones that make the jaw joint | back 45 Mandible and temporal bone (temporomandibular joint). |
front 46 The name of the fibrocartilage pad between the medial condyle of the femur and the medial condyle of the tibia | back 46 Medial meniscus. |
front 47 The cruciate ligament that prevents hyperextension of the knee | back 47 Anterior cruciate ligament (ACL). |
front 48 The suture that separates the temporal bones from the parietal bones. | back 48 Squamous (squamosal) suture. |
front 49 The term best describes muscle fibers arranged in bundles | back 49 Fascicle |
front 50 The name of the tissue sheet that separates individual muscle fibers from each other | back 50 Endomysium |
front 51 The name of myofilament that runs through the core of a thick filament anchoring it to a Z disc | back 51 Titin |
front 52 The cellular organelle of a muscle fiber that represents the sarcoplasmic reticulum | back 52 Terminal cisternae |
front 53 The names of the components of the triad of a muscle fiber | back 53 One T-tubule + two terminal cisternae |
front 54 The structure that marks the boundaries of a sarcomere | back 54 Z discs |
front 55 The term that describes the alternating pattern of light and dark bands in a skeletal muscle | back 55 Striations |
front 56 The regulatory protein that acts as a calcium receptor in a skeletal muscle cell | back 56 Troponin |
front 57 The number of somatic motor neurons stimulating one muscle fiber | back 57 One |
front 58 The effect of acetylcholine-receptor binding on the permeability of sarcolemma to Na+ | back 58 Increases Na⁺ permeability (opens ligand-gated Na⁺ channels) |
front 59 Cross bridges form between what structures & their binding sites on actin myofilaments | back 59 Myosin heads and actin active sites |
front 60 The part of the muscle cell along which the action potential is propagated | back 60 Sarcolemma |
front 61 The structure along which action potential enters the depth of the muscle fiber | back 61 T-tubules |
front 62 The single most important ion in the human body | back 62 Calcium (Ca²⁺) |
front 63 The major ion contributing to the membrane resting potential (MRP) | back 63 Potassium (K⁺) |
front 64 Whether the resting membrane potential (RMP) value is -70 volts | back 64 False |
front 65 Whether the generation of the resting membrane potential is due to the difference in ionic concentrations across the cell membrane | back 65 True |
front 66 The threshold value for the initiation of action potential | back 66 A: –55 mV |
front 67 The extent/range of depolarization of the resting membrane to trigger action potential | back 67 A: From –70 mV to –55 mV (≈ 15 mV change) |
front 68 Whether the depolarization of the membrane (sarcolemma) continues beyond the initiation of action potential | back 68 True |
front 69 The membrane potential value when Na+ gates close during muscle contraction | back 69 About +30 mV |
front 70 The effects of acetylcholine binding on its sarcolemma receptors on: the direction of sodium movement | back 70 Sodium moves into the cell |
front 71 The effects of acetylcholine binding on its sarcolemma receptors on: the membrane status | back 71 Membrane depolarizes |
front 72 The name of the contraction unit of a skeletal muscle cell | back 72 Sarcomere |
front 73 The type of Na channels/gates that respond to acetylcholine at the neuromuscular junction | back 73 Ligand-gated Na⁺ channels |
front 74 The extent/range of depolarization of the resting membrane when Na gates are closed | back 74 From –70 mV to about +30 mV |
front 75 The event/process that restores the resting membrane potential back to its normal value following muscle contraction | back 75 Repolarization (K⁺ efflux) |
front 76 The process/mechanism that restores the ionic concentration of Na & K back to their normal values following muscle contraction | back 76 Na⁺/K⁺ ATPase pump |