1.Value of breast vascularity in differential diagnosis of benign and malignant breast lesions
Tianyun MA ; Jin ZHANG ; Wenjin WU ; Feipeng SONG ; Yi XU
Cancer Research and Clinic 2018;30(10):665-669
Objective To study the value of breast vascularity in differential diagnosis of benign and malignant breast lesions. Methods The data of 37 patients with benign and malignant breast lesions in the Second Hospital of Shanxi Medical University from February 2017 to November 2017 were respectively analyzed. The number, diameter, length and breast-feeding arteries of bilateral breast vessel were recorded in the maximal intensity projection (MIP) of magnetic resonance imaging (MRI) and were scored according to Sardanellie. The patients were divided into the benign group and the malignant group according to the pathological results. Besides, ≥2 cm group and <2 cm group was also divided according to the maximum diameter of lesions. The differences in number and score of vascularity in both groups were compared. And the diagnostic efficacy of MRI was evaluated based on Sardanellie score and breast-feeding arteries. Results There were no significant differences in the number and score of vascularity between bilateral breast in benign breast lesions group (1.11 ±0.35 vs. 1.22 ±0.45, t= 0.19, P= 0.85; 0.89 ±0.38 vs. 0.95 ±0.21, t= 0.25, P=0.80). The number and score of vascularity of the affected side were higher than those of the healthy side in breast malignant lesions group (2.61 ±1.29 vs. 0.61 ±0.21, t= 6.18, P= 0.00; 1.78 ±0.65 vs. 0.61 ±0.21, t=6.30, P=0.00 respectively). The number and score of vascularity were statistically different between benign and malignant breast lesions (t= 8.57, P< 0.001; t= 12.61, P< 0.001). The number of vascularity in the malignant group was higher than that in the benign group with the maximum diameter of lesion<2 cm (1.27 ± 0.59 vs. 2.57±0.98, t=90.5, P< 0.05), and there was no significant difference in the scores of vascularity in the malignant group and the benign group (1.09 ±0.43 vs. 1.86 ±0.38, t= 87.0, P> 0.05); The number and score of vascularity in the malignant group were higher than those in the benign group with the maximum diameter ≥2 cm (0.92±0.63 vs. 2.64±1.50, t=47.5, P<0.05; 0.92±0.33 vs. 1.73±0.79, t=53.5, P< 0.05). There was no significant improvement in the diagnostic efficacy of MRI based on the score of vascularity and positive breast-feeding arteries in the identification of benign and malignant lesions when the maximum diameter of lesions were<2 cm, and it had a high diagnostic efficacy when the maximum diameter of lesions were ≥2 cm. Conclusions The vascularity of breast can be clearly seen by using breast dynamic contrast enhanced (DCE) MRI. The increase and score of vascularity in the differential diagnosis of benign and malignant breast lesions have a certain application value. The positive of breast-feeding arteries may increase the diagnostic efficiency of MRI.
2.Pressure boost in repair of soft tissue defect in limbs by free transplantation of thinned anterolateral thigh perforator flap
Yanxi TAN ; Zhijun PAN ; Lu HUANG ; Shuying GAO ; Chaoming LIU ; Xing YANG ; Feipeng MA ; Pei SU
Chinese Journal of Microsurgery 2020;43(4):342-346
Objective:To explore the surgical technique and clinical effect of pressure boost in repairing soft tissue defects of limbs with thinned anterolateral thigh perforator flap (ALTP) .Methods:From January, 2015 to December, 2018, 18 cases with soft tissue defects of limbs with various damages of blood vessels and nerves with explosure of tendon and bone. There were 13 males and 5 females aged between 18 to 56 (averaged of 36.3) years, which were 6 defects in shank, 4 in foot and ankle, 5 in forearm, and 3 in hand. The soft tissue defect area was 7 cm ×12 cm to 13 cm ×30 cm. Thinned ALTP was used to repair the wound surface. The perforating vessels of the distal flap were anastomosed with one branch of the internal vessel pedicle flap to increase the pressure hence the blood supply of the distal region. The donor sites were sutured directly or covered by skin graft. Followed-up was conducted by 1-2 monthly clinic visits and telephone or on-line review to check the flap survival and recovery of functions.Results:All flaps survived without arterial or venous crisis. One flap had partial necrosis at the distal end, and healed after dressing change. One case had a swelling flap due to a congestion beneath the flap. The wound achieved primary healing after removal of sutures, ligation of subcutaneous vessels and drainage of hematoma. All patients were followed-up for 6 to 18 (average, 9.5) months. All flaps had good appearance and texture. After rehabilitation treatment, most of the joint activity had been recovered: extension and flexion of wrists joints ranged 60°-80°, 70°-80° for metacarpophalangeal joints and 40°-60° for ankle joints. One patient underwent ankle joint dorsiflexion function reconstruction and flap thinning at 6 months after operation due to the defects of most of the extensor tendon.Conclusion:During the use of free ALTP to repair soft tissue defect of limbs, application of the technique of pressure boost is able to increase blood supply to the distal region of flap. It helps to reduce the incidence of infection and necrosis at the edge of the flap.
3.Correlation analysis between Pirani score and talo-navicular angle,calcaneo-cuboid angle and tibio-calcaneall angle of infant clubfoot under ultrasound
Wenjing WANG ; Bing XIA ; Yingmei DONG ; Panpan HE ; Zhiwei CHENG ; Fengqun MA ; Chaohua WANG ; Fuyun LIU ; Weiming HU ; Feipeng WANG ; Yufeng ZHAO ; Hezhou LI ; Jiale FU
Chinese Journal of Surgery 2024;62(3):210-215
Objective:To explore the evaluation effect of ultrasonography and Pirani score on tarsal deformity, treatment effect and pseudo-correction of congenital clubfoot in infants and young children, and the correlation between the two methods.Methods:This is a retrospective case series study. The clinical data of 26 children (40 feet) with congenital clubfoot who were evaluated by ultrasonography in the Third Affiliated Hospital of Zhengzhou University from January 2020 to January 2023 were retrospectively collected. There were 16 males and 10 females. The age at the first ultrasound examination was ( M(IQR)) 9.0 (18.0) days (range: 1 to 46 days). All patients were treated with Ponseti method by the same physician. The Pirani scores before and after treatment and at the last examination, and the talonavicular angle, calcaneocuboid angle and tibiocalcaneal angle measured by ultrasound were collected, and the treatment and follow-up were recorded. Paired sample t test, repeated measures analysis of variance or Kruskal-Wallis test were used for data comparison, and Spearman correlation analysis was used for correlation analysis. The receiver operating characteristic curve was used to calculate the efficacy of ultrasound in evaluating different Pirani scores. Results:The number of plaster fixation in 26 children was 4.0 (1.0) times (range: 2 to 8 times). The medial talonavicular angle and posterior tibiocalcaneal angle were significantly improved after treatment and at the last follow-up compared with those before treatment, and the differences were statistically significant (all P<0.01). There was no difference in lateral calcaneocuboid angle before and after treatment and at the last follow-up ( F=1.971, P>0.05). Pseudo-correction occurred in 2 cases (2 feet) during the treatment, with an incidence of 5%. Correlation analysis showed that there was a moderate positive correlation between talonavicular angle and Pirani midfoot score ( r=0.480, P<0.01). There was no correlation between calcaneocuboid angle and Pirani midfoot score ( r=0.114, P=0.105). There was a moderate negative correlation between tibial heel angle and Pirani hindfoot score ( r=-0.566, P<0.01). The cut-off point of Pirani midfoot score of 1.5 was 38.78°, the sensitivity was 0.90, the specificity was 0.56, and the area under the curve was 0.75. The cut-off value of angle was 27.51 °, the sensitivity was 0.16, the specificity was 0.92, and the area under the curve was 0.44.The cut-off points of Pirani midfoot score of 3.0 were 45.08°and 9.96°, the sensitivity was 0.94 and 0.91, the specificity was 0.37 and 0.42, and the area under the curve was 0.59 and 0.62, respectively. The cut-off values of Pirani hindfoot score of 2.0 and 3.0 were 167.46° and 160.15°, respectively. The sensitivity was 0.75 and 0.67, the specificity was 0.81 and 0.83, and the area under the curve was 0.78 and 0.71, respectively. Conclusion:Ultrasound can complement with Pirani score, visually and dynamically observe the morphology and position changes of talonavicular joint, calcaneocuboid joint and tibiotalocalcaneal joint, monitor the recovery and pseudo-correction of tarsal bones, and better evaluate the therapeutic effect.
4.Correlation analysis between Pirani score and talo-navicular angle,calcaneo-cuboid angle and tibio-calcaneall angle of infant clubfoot under ultrasound
Wenjing WANG ; Bing XIA ; Yingmei DONG ; Panpan HE ; Zhiwei CHENG ; Fengqun MA ; Chaohua WANG ; Fuyun LIU ; Weiming HU ; Feipeng WANG ; Yufeng ZHAO ; Hezhou LI ; Jiale FU
Chinese Journal of Surgery 2024;62(3):210-215
Objective:To explore the evaluation effect of ultrasonography and Pirani score on tarsal deformity, treatment effect and pseudo-correction of congenital clubfoot in infants and young children, and the correlation between the two methods.Methods:This is a retrospective case series study. The clinical data of 26 children (40 feet) with congenital clubfoot who were evaluated by ultrasonography in the Third Affiliated Hospital of Zhengzhou University from January 2020 to January 2023 were retrospectively collected. There were 16 males and 10 females. The age at the first ultrasound examination was ( M(IQR)) 9.0 (18.0) days (range: 1 to 46 days). All patients were treated with Ponseti method by the same physician. The Pirani scores before and after treatment and at the last examination, and the talonavicular angle, calcaneocuboid angle and tibiocalcaneal angle measured by ultrasound were collected, and the treatment and follow-up were recorded. Paired sample t test, repeated measures analysis of variance or Kruskal-Wallis test were used for data comparison, and Spearman correlation analysis was used for correlation analysis. The receiver operating characteristic curve was used to calculate the efficacy of ultrasound in evaluating different Pirani scores. Results:The number of plaster fixation in 26 children was 4.0 (1.0) times (range: 2 to 8 times). The medial talonavicular angle and posterior tibiocalcaneal angle were significantly improved after treatment and at the last follow-up compared with those before treatment, and the differences were statistically significant (all P<0.01). There was no difference in lateral calcaneocuboid angle before and after treatment and at the last follow-up ( F=1.971, P>0.05). Pseudo-correction occurred in 2 cases (2 feet) during the treatment, with an incidence of 5%. Correlation analysis showed that there was a moderate positive correlation between talonavicular angle and Pirani midfoot score ( r=0.480, P<0.01). There was no correlation between calcaneocuboid angle and Pirani midfoot score ( r=0.114, P=0.105). There was a moderate negative correlation between tibial heel angle and Pirani hindfoot score ( r=-0.566, P<0.01). The cut-off point of Pirani midfoot score of 1.5 was 38.78°, the sensitivity was 0.90, the specificity was 0.56, and the area under the curve was 0.75. The cut-off value of angle was 27.51 °, the sensitivity was 0.16, the specificity was 0.92, and the area under the curve was 0.44.The cut-off points of Pirani midfoot score of 3.0 were 45.08°and 9.96°, the sensitivity was 0.94 and 0.91, the specificity was 0.37 and 0.42, and the area under the curve was 0.59 and 0.62, respectively. The cut-off values of Pirani hindfoot score of 2.0 and 3.0 were 167.46° and 160.15°, respectively. The sensitivity was 0.75 and 0.67, the specificity was 0.81 and 0.83, and the area under the curve was 0.78 and 0.71, respectively. Conclusion:Ultrasound can complement with Pirani score, visually and dynamically observe the morphology and position changes of talonavicular joint, calcaneocuboid joint and tibiotalocalcaneal joint, monitor the recovery and pseudo-correction of tarsal bones, and better evaluate the therapeutic effect.