No abstract available.
Tibia*

Anthrax toxin consists of three separate proteins, protective antigen (PA), edema factor (EF), and lethal factor (LF). PA binds to the receptor on mammalian cells and facilitates translocation of EF or LF into its cytosol. PA is the primary component of anthrax vaccines. In this study we purified PA from culture filtrates of Bacillus anthracis. The purification involved sequential chromatography through hydroxylapatite, DEAE-Sepharose CL-4B, followed by Mono-Q. The purified PA was judged to be homogeneous on SDS-PAGE, and consisted of a single polypeptide chain with a relative molecular weight of 85,000.
Anthrax ; Anthrax Vaccines ; Bacillus anthracis* ; Bacillus* ; Chromatography ; Cytosol ; Durapatite ; Edema ; Electrophoresis, Polyacrylamide Gel ; Molecular Weight

Cutaneous metastases from internal carcinomas are relatively rare, especially from pancreatic carcinoma. Pancreatic carcinomas are usually adenocarcinomas which arise in the head of the gland, and are known to rapidly metastasize to the lymphatic system by permeation and embolization. We report a case of cutaneous metastasis from pancreatic adenocarcinoma. in 74-year-old male patient who have two pea sized, slight erythematous nodules on the lower abdomen and posterior side of the neck.
Abdomen ; Adenocarcinoma* ; Aged ; Head ; Humans ; Lymphatic System ; Male ; Neck ; Neoplasm Metastasis* ; Peas

Inferior alveolar nerve block obtained maximum anesthetic effect using a small dose of local anesthetic agent, which also has low a complication incidence. Complications of an inferior alveolar nerve block include direct nerve damage, bleeding, trismus, temporary facial nerve palsy, and etc. Among them, the major iatrogenic complication is dental needle fracture. A fragment that disappears into the soft tissue would be hard to remove, giving rise to a legal problem. A 31-year-old woman was referred for the removal of a broken needle, following an inferior alveolar nerve block. Management involved the removal of the needle under local anesthesia with pre- and peri-operative computed tomography scans.
Adult ; Anesthesia, Local ; Anesthetics ; Cone-Beam Computed Tomography ; Facial Nerve ; Female ; Foreign-Body Migration ; Hemorrhage ; Humans ; Incidence ; Mandibular Nerve ; Needles* ; Paralysis ; Trismus

No abstract available.
Meningitis* ; Salmonella*

No abstract available.
Femur* ; Tibia*

No abstract available.
Knee*

Purpose: To compare the contrast sensitivities of type 2 diabetic patients without retinopathy and healthy subjects, and to assess the risk factors associated with a change in contrast sensitivity in diabetes. Methods: A total of 75 (diabetic patients without retinopathy) and 41 (healthy subjects) eyes were reviewed from the medical records. The threshold of contrast sensitivity was measured at 6.3°, 4.0°, 2.5°, 1.6°, 1.0°, and 0.64° under scotopic and photopic states. Optical coherence tomography (OCT) imaging was used to measure the retinal nerve fiber layer (RNFL) thickness and ganglion cell-inner plexiform layer (GC-IPL) thickness in diabetic patients. Results: Diabetic patients showed a lower threshold of contrast sensitivity at all degree measures than did the controls under both scotopic and photopic states. In subgroup analyses, diabetic patients with abnormal contrast sensitivity showed a longer duration of diabetes, decreased total retinal thickness, and decreased average GC-IPL, superior RNFL, superior GC-IPL, and temporal GC-IPL thicknesses. Multivariate logistic regression analyses showed that the duration of diabetes and total retinal thickness were significant predictive factors of decreased contrast sensitivity (odds ratio = 1.117 and 0.942, respectively). Conclusions As the duration of diabetes increased, the contrast sensitivity decreased in type 2 diabetic patients. Neuroretinal degeneration changes both the inner retinal thickness and total retinal thickness and affects contrast sensitivity. Therefore, for longer-term diabetic patients, it is necessary to consider the changes in contrast sensitivity and retinal thickness on OCT evaluation, even if the patient presents with normal fundus findings.

Purpose: To compare the contrast sensitivities of type 2 diabetic patients without retinopathy and healthy subjects, and to assess the risk factors associated with a change in contrast sensitivity in diabetes. Methods: A total of 75 (diabetic patients without retinopathy) and 41 (healthy subjects) eyes were reviewed from the medical records. The threshold of contrast sensitivity was measured at 6.3°, 4.0°, 2.5°, 1.6°, 1.0°, and 0.64° under scotopic and photopic states. Optical coherence tomography (OCT) imaging was used to measure the retinal nerve fiber layer (RNFL) thickness and ganglion cell-inner plexiform layer (GC-IPL) thickness in diabetic patients. Results: Diabetic patients showed a lower threshold of contrast sensitivity at all degree measures than did the controls under both scotopic and photopic states. In subgroup analyses, diabetic patients with abnormal contrast sensitivity showed a longer duration of diabetes, decreased total retinal thickness, and decreased average GC-IPL, superior RNFL, superior GC-IPL, and temporal GC-IPL thicknesses. Multivariate logistic regression analyses showed that the duration of diabetes and total retinal thickness were significant predictive factors of decreased contrast sensitivity (odds ratio = 1.117 and 0.942, respectively). Conclusions As the duration of diabetes increased, the contrast sensitivity decreased in type 2 diabetic patients. Neuroretinal degeneration changes both the inner retinal thickness and total retinal thickness and affects contrast sensitivity. Therefore, for longer-term diabetic patients, it is necessary to consider the changes in contrast sensitivity and retinal thickness on OCT evaluation, even if the patient presents with normal fundus findings.

We carried out animal experiment in order to determine the effect of resection of nerves, muscles and tendons on the induction of osteoporosis. One hundred and forty rats, weighing approximately 250 gm, were divided into seven groups. In Group I, as a control group, the three skin incisions, one on the anterior aspect of the knee, one on the anteromedial aspect of proximal thigh, and one on the posterior aspect of proximal thigh were made and wounds were sutured. In Group II, the patellar tendon and the extensor digitorum longus tendon were divided to disable knee extension. In Group III, all the knee flexors were divided. In Group IV, all the knee extensors and flexors were divided. In Group V, the femoral nerve was divided to disable knee extension. In Group VI, the sciatic and obturator nerves were divided to diable knee flexion. In Group VII, the sciatic, and obtrator nerves were all divided. Before the procedures, bone density was measured by photon absorptiometry and postoperatively, the measurement was repeated every two weeks until the eighth week. At the time of each measurement, two rats were sacrificed out of each group and were submitted to microphotographic measurement of the tibial cortices. The results were as follows. l. In the muscle and tendon resection groups (Group II, Group III, Group IV), the bone density significantly decreased two weeks after operation and then, gradually increased four, six and eight weeks. 2. In the nerve resection groups (Group V, Group VI, and Group VII), the bone density decreased significantly two and four weeks after operation and then gradually increased six, and eight weeks after operation. 3. In both motor resection and denervation, the paralysis of both flexors and extensors of the knee, caused more decrease in bone density than the paralysis of either flexor or extensor. 4. In the muscle and tendon resection groups, the bone density was significantly more decrease two weeks after operation when the flexors were resected, but thereafter there was no significant difference between the flexors and extensors resection. In the nerve resection group, the paralysis of knee flexors caused more decrease in bone density than the paralysis of knee extensors throughout the entire experimental period. 5. The nerve resection groups demonstrated significantly more severe loss of bone density than muscle and tendon resection groups throughout the entire experimental period. 6. The values of bone density measured by photon absorptiometry correlated well with the cortical thickness indices. Bssed upon these observations, we came to the following conclusions. 1. The osteoporosis following injuries of the nerve, muscle, and tendon is most significant at two weeks after injury. 2. Denervation causes more severe osteoporosis than muscle and tendon injuries. 3. It is suggested that the photon absorptiometry is a reliable means in the evaluation of the osteoporosis.
Absorptiometry, Photon ; Animal Experimentation ; Animals ; Bone Density ; Denervation ; Femoral Nerve ; Knee ; Muscles ; Obturator Nerve ; Osteoporosis ; Paralysis ; Patellar Ligament ; Rats ; Skin ; Tendon Injuries ; Tendons ; Thigh ; Tibia ; Wounds and Injuries