Data was collected from the medical files (hospitalization and out-patient charts) for age, sex, type of fracture, type of treatment, background disease, rehabilitation and time until death. The latter was confirmed by data from ministry of home office.
A.O. classification. A1: 27. A2: 180. A3: 96. In 7 patients a failed dynamic hip screw (D.H.S.) was changed to P.F.N. All the patients were allowed to begin full weight bearing immediately. In 81% of patients short femoral nail was inserted and in the rest long one.
Complications:Malfixation(internal-rotation, varus, valgus, shorting, bad position of the screw in the neck) – 10% Deep infection 0.7%, nonuonion 1%, cut out 2%, Nail breakage 0.6%, Broken drills, bad position of locking screws. Solutions: Re-operation 1.6%, T.H.R. 1.3 %, removal of nail 1.6%, nail change 0.9%. During the last year we began to use a new and improved insertion set with less complications.
Insertional Achilles tendonitis is an inflammatory disorder affecting mainly active young patients. The etiology is multifactorial and include the combination of anatomical and biomechanical characteristics. One fifth of the tendon injuries in athletes are insertional complaints which includes bursitis and insertion tendinitis.The complex of the insertion of the Achilles tendon includes three main components of fibrocartilage sesamoid, periosteum and enthesis. A conservative regime is recommended as the first line of treatment. In case of failure a surgical decompression of the posterior margin of the calcaneum is indicated. Nine cadaveric legs were used for the experiment. The leg was mounted on an MTS machine and was axially loaded 360 N. The foot was attached to a plate which enabled dorsal and plantar flexion. The Achilles was sutured twice in an Ethibond No. 5 using the Krakow technique in order to anchor the tendon to an actuator. A thin pressure sensor plate (Teckscan) was inserted into the retrocalcaneal bursa to measure the force, pressure and contact area of the Achilles to the calcaneus in various positions of the foot. The conditions included 90 degrees of the foot, 15 and 30 degrees of dorsiflexion while the tension that was applied on the Achilles was 0, 200 N and 300 N. After resection of the posterior surface of the calcaneus in a 20 degrees inclination. The mean peak force, pressure and area did not change in Achilles tensioning while the foot was in 90 degrees and were close to zero. In 15 degrees of dorsiflexion there was increase in the mean peak force, pressure and area when the Achilles was tensed to 200 and 300 Newton. Larger increase in these parameters was achieved by further dorsiflexion of the foot to 30 degrees. After resection of the posterior margin of the calcaneus in an angle of 20 degrees the mean peak force, pressure and area dropped close to zero and remained almost unchanged during the various conditions of the experiment. Dorsiflexion and tension of the Achilles tendon increases the mean peak force, pressure and area in the Achilles retrocalcaneal bursa. These data may explain the mechanism for insertional Achilles tendinosis. Resection of the posterior surface of the calcaneus in 20 degrees efficiently decompresses the retrocalcaneal bursa in various angles of the foot and in various tensions of the Achilles.
The treatment of OA of the ankle is similar to any other large joint and includes conservative and surgical treatment. The surgical treatment is fusion or replacement but conservative treatment is limited and include mainly ankle supports and physiotherapy. Hyaluronic acid was discovered by Meyer and Palmer in 1934 and recently is widely used in the treatment of knee osteoarthritis. We evaluated the efficacy of intra-articular preparation containing Sodium Hyaluronate, in the treatment of OA of the ankle. A group of 16 patients suffering from ankle osteoarthritis were selected for the study. The mean age was 43 years (range 31–79 years) and the duration of pain from nine months to 27 years. Twelve patients had ankle fractures and four had no trauma history. The clinical presentation included at least one or more of the following conditions of the ankle joint: pain in motion or at rest, swelling and tenderness for over than nine months. The radiographic severity of the ankle osteoarthritis was grade II, III or IV according to Kellgren and Lawrence. Intra-articular injections of 25 mg Sodium-hyaluronate (Adant) were administered on five consecutive weeks. Follow-up visits were perfumed one, two, three, four and seven months post treatment and included clinical evaluation and score scale. Global assessment showed, in 13 out of 16 patients, improvement in the range of motion by 20%. Significant reduction of the OA symptoms according to the score: two to three points improvement on each scale. According to the osteoarthrithis ankle score scale: up to 20 points. Improvement continued for seven months follow-up after the treatment; no decrease in the treatment efficacy has been shown. Global assessment of two patients did not show any significant improvement after the treatment. One patient dropped off the study due to other operation. Symptomatic relief of OA of the ankle can be achieved by injection of intraarticular preparation containing Sodium Hyaluronate.
Intraarticular injections of 25 mg Sodium-hyaluronate in 5 following weeks were administrated to 16 patients, 31–79 years old (average 43 years) suffering from pain in the ankle, 9 months to 27 years. 12 patients after operation, 4 with no trauma history. Follow-up visits were performed 1,2,3,4,7 months post treatment and included clinical evaluation and score scale.
Global assessment of 2 patients did not show any significant improvement after the treatment. One patient dropped off the study due to other operation.
Age ranged between 66 and 79 years (mean 71 years). A control group consisted of 6 cadaver knees (mean age 31 years) with no previous history of knee problems. All the patients in the research group were graded functionally for their knee score by the system of Hospital for Special Surgery Functional Score. Additional plain X-ray score on a three point scale was performed. During surgery macroscopic changes on the articular surface of all three compartments were recorded on a four point scale. Synovial specimens were taken from each compartment for microscopic examination.
The importance of meniscal tears repair is discussed widely in the literature. The repair should be performed if the conditions promise some chance for healing. Due to technical difficulties many orthopaedic surgeons still prefer partial meniscectomy to meniscal repair. We describe our techniques for meniscal repair. The described techniques could be used by any surgeon with basic skills in arthroscopic surgery. No special equipment is needed. The basic equipment for this technique is a standard 18 gouge needle. The plastic cup of the needle is cut away in order to overcome the ridge between the plastic and the metal part of the needle, thus making the suture passage easier. Following the arthroscopic identification of the meniscal tear and preparing the torn parts for repair, the place for the first suture is identified. A 2–3 mm long skin incision is made. The subcutaneous tissue is bluntly developed to the capsule. The 18 gouge needle is past from outside-in in the desired point through the torn margins of the meniscus. The tip of the needle is emerged above or under the meniscal surface, depends on our decision of suture position. 1st step – Producing a loop outside the joint: Two ends of a nylon 2/0 suture are inserted through the needle into the joint cavity, and pulled out through one of the arthroscopic portals. The needle is removed. The result of this step is a nylon 2/0 suture passing through the torn parts of the meniscus with a loop outside the joint. 2nd step – Producing a double-loop inside the joint cavity: A second nylon 2/0 suture is passed through the first loop. The first suture is pulled into the joint. At this stage, both loops are inside the joint, holding each other. The free ends of the first loop are emerged through one of the arthroscopic portals, while the free ends of the second loop pass through the torn parts of the meniscus and emerge through the capsule. 3rd step – Producing the meniscal suture: A second 19 gouge needle is inserted close to the point of insertion of the first one, directed into the joint. The emerging point of this needle, on the meniscus, should be positioned according to the desired suture direction (transverse, vertical, or oblique). The tip of the needle is then directed into the “2nd” nylon loop (the “1st” nylon loop can assist at this stage). The loop is wrapped over the needle, and the 1st suture is removed. PDS suture (1/0 or 2/0) is inserted through the needle until a 5 cm free end is positioned intra articular. The needle is removed with caution without pulling the PDS suture, leaving the PDS free end inside the nylon loop. The nylon loop is used as a pooling tool for the PDS suture. Pulling the free end of the PDS suture out of the joint results in a PDS loop for the meniscal suture (in order to avoid iatrogenic tear of the meniscal tissue while pulling the sutures, a probe should be positioned under the PDS suture during the process). The PDS is tightened over the capsule. The technique is repeated as much as necessary for perfect repair of the meniscus. The advantage of this method is that it does not necessitates unique equipment, but rather uses the ordinary arthroscopic tools and sutures. This method was used successfully upon large number of meniscal tears. We recommend its use routinely.