Dr Saab CLI Revascularization Techniques Case

Total Page:16

File Type:pdf, Size:1020Kb

Dr Saab CLI Revascularization Techniques Case 26 CASE REPORT MAY 2016 Critical Limb Ischemia: Revascularization Techniques to Optimize Endovascular Therapy in Complex Cases Using the JETSTREAM Atherectomy System Figure 1. Diagnostic angiogram showing flow in the superficial femoral artery (A), popliteal (B), and tibial circulation (C), and revealing a chronic total occlusion (CTO) of the popliteal, along with occlusive tibial disease. Pictured above is the latest-generation JETSTREAM atherectomy system. The device has been successfully iterated seven times since its launch in 2008. Fadi Saab, MD, FACC, FASE, FSCAI, Cardiovascular Medicine-Interventional Cardiology, Associate Director of Cardiovascular & Endovascular Laboratories, Associate Director of Pulmonary Embolism andVenousThrombosis Services, Clinical Assistant Professor-Michigan State University, School of Medicine, Figure 2. Extravascular ultrasound (EVUS) showing the .035-inch support catheter Metro Health Hospital,Wyoming, Michigan traveling through the chronic total occlusion (CTO) in the popliteal artery. may not be adequate candidates for surgi- valve replacement five years prior.There cal bypass. Endovascular therapy has been were no other significant co-morbidities. fueled by continuous innovation in tech- His clinical exam revealed a cold right Introduction niques and devices.6 The JETSTREAM™ lower extremity with no palpable pulses. The prevalence of peripheral vascu- Atherectomy System (Boston Scientific) The clinical workup included a 2-dimen- lar disease (PVD) has been increasing is a rotational device, featuring front-cut- sional echo with an ankle-brachial index worldwide.The number of patients suf- ting, expandable blades. JETSTREAM (ABI). Echo revealed his left ventricular fering from PVD is expected to increase is also the only atherectomy system with function to be preserved, with no val- by 15% in western countries and 30% in active aspiration.The rotational aspect of vular or wall motion abnormalities. The developing countries.1 This increase is a the device allows for plaque modification right-side ABI was significantly abnormal reflection of other co-morbidities driv- and debulking.The device is engineered at 0.4.The patient did not have any his- ing the rise in numbers. Patients with to predictably treat multiple morpholo- tory of deep venous thrombosis or pul- PVD suffer from higher morbidity and gies, such as calcium, plaque or thrombus, monary embolism, nor was there any his- mortality.2,3 Multiple modalities exist to commonly found in total occlusions.We tory of arterial thrombosis. A diagnostic evaluate and treat patients with PVD. will present a case that demonstrates the angiogram revealed evidence of multi- Endovascular revascularization of pa- versatility of the device in treating a com- level disease involving the right lower tients with PVD is becoming a front-line plex clinical and anatomical situation in a extremity.The lesion appeared to extend strategy adopted by several disciplines, patient with critical limb ischemia (CLI). from the distal popliteal artery into the including vascular surgery, radiology, and posterior tibial and tibio-peroneal trunks. cardiology. Bypass surgery is an excel- Case presentation The patient had an anomalous high take- Fadi Saab, MD, FACC, FASE, FSCAI lent procedure in appropriately selected A 54-year-old male originally present- off of the right posterior tibial (Figure 1). patients.4,5 However, many PVD patients ed with complaints of life-limiting clau- dication, placing him at Rutherford class Clinical course The physician was compensated by Boston Scientific for his time associated with III.The patient’s past medical history was Due to the complex nature of this oc- this article. significant for hypertension and diabetes. clusion, therapy options included medi- He underwent a bio-prosthetic aortic cal therapy, single-vessel tibial bypass, MAY 2016 CASE REPORT 27 or endovascular therapy. The lesion case required multi-vessel, multi-level burden extending from the peroneal to involved the trifurcation of all tibial intervention, and antegrade access af- the popliteal artery (Figure 4). EVUS im- vessels where the distal posterior tibial forded the operator superior pushability, ages provided similar information. The artery was the only runoff to the foot. trackability,and torquability.We use ul- hypo-echogenic appearance suggested After discussing the options with our trasound (US) guidance in gaining access soft plaque.The JETSTREAM System patient, the decision was made to at- to any vascular conduit. We started with features active aspiration, making it well- tempt medical therapy. The patient was a 5 French Pinnacle Precision sheath suited for the thrombotic-component of placed on antiplatelet therapy with as- (Terumo) and after crossing, upsized to a this lesion. Its rotational blades also pro- pirin. Aggressive lipid-lowering therapy 7 French Destination Pinnacle 45-centi- vide plaque modification and debulking, was also initiated. The patient was not meter sheath (Terumo). making JETSTREAM an ideal solution able to tolerate cilostazol. He contin- for this type of lesion morphology. ued with a self-administered walking CTO crossing. The use of ultrasound program. In addition, we placed the pa- (US) in gaining access to any vascular bed Alternative access. The nature of tient on anticoagulation with warfarin has been shown to be safe and effective. the occlusion in this case highlights the in an attempt to treat what we felt was In addition, it is our experience that extra necessity of alternative access. The le- a thrombotic component on top of the vascular US (EVUS) can also guide CTO sion extended from the popliteal into atherosclerotic disease. Despite treating crossing and therapy delivery. In this case, the posterior tibial/tibio-peroneal trunk/ the patient for 3 months with the above- a .035-inch Navicross catheter (Terumo) peroneal arteries.The angiogram showed mentioned regimen, the patient’s symp- was used to advance through the CTO in a flush occlusion of the posterior tibial toms continued to worsen. The patient a rotational fashion. EVUS allowed us to with reconstitution. Retrograde posterior started complaining of intermittent rest guide the catheter and navigate the CTO tibial US-guided access was the only op- pain, placing him at Rutherford class IV. (Figure 2).We were successful in crossing tion to gain access into the distal patent At this point, we decided to proceed the CTO in the popliteal and peroneal portion (Figure 5).We placed a low-pro- with endovascular therapy in an effort arteries. Once crossing to the distal pero- file Cook tibiopedal sheath (2.9 French) to preserve tibial vessels. neal was confirmed (Figure 3), we started (Cook Medical). Using an .018-inch preparing for therapy. CXI support catheter (Cook Medical), Revascularization steps we advanced an .014-inch Glidewire Access. For any intervention requir- Lesion assessment. There are mul- Advantage wire (Terumo). Crossing into ing the crossing of a chronic total occlu- tiple modalities beyond angiography the true lumen of the popliteal artery in Figure 3. Selective angiography sion (CTO) or treatment of tibial vessels, that permit the operator to evaluate the a retrograde fashion was relatively simple. of the distal peroneal artery after it is our opinion that operators should nature of the atherosclerotic disease. In Using a 7 mm snare, we were able to crossing the occlusion. strongly consider antegrade access. This this case, we utilized EVUS and intra- trap the Glidewire Advantage wire and vascular US (IVUS). The IVUS catheter reverse access (Figure 6). After reversing (Volcano Corporation) was advanced to access, the wire in the posterior tibial ar- the distal peroneal artery. An automated tery was now flossed through the sheath. pullback is preferred to ensure that no The posterior tibial sheath acted as an segments within the vessel are missed. embolic protection system.The peroneal The IVUS image revealed evidence artery CTO was crossed in an antegrade of significant hypo-echogenic plaque fashion and the wire was placed in the Figure 4. IVUS assessment of the popliteal artery, showing significant hypo- echogenic plaque burden. Figure 5. Ultrasound-guided access of the right posterior tibial artery. Note the wire inside the posterior tibial (arrow). Figure 6. Snare system used to capture the retrograde posterior tibial wire (arrow). 28 CASE REPORT MAY 2016 Figure 7. JETSTREAM activation in the popliteal artery under ultrasound and fluoroscopy. Figure 8. JETSTREAM 1.85 mm tibial device activated in the peroneal (Panel A) and posterior tibial arteries (Panel B). distal peroneal artery. An embolic pro- to listen to the pitch of the device.A tection device was deployed in the dis- depressed pitch suggests that the device tal peroneal artery. In an effort to protect rotation has slowed down, and the opera- the distal posterior tibial, we accessed the tor should then carefully pull the device posterior tibial and crossed the occlusion back and re-advance.The operator must after performing atherectomy of the pop- not allow the aspirational capabilities liteal artery. In addition, we did not want of the device to be overwhelmed. After to use the larger JETSTREAM device successful atherectomy “blades-down,” in the popliteal while there was another a “blades-up” run was then performed wire present. with the JETSTREAM device (Figure 7). During the second stage of atherectomy, Atherectomy with JETSTREAM. the peroneal and posterior tibial arteries Atherectomy was performed in two stag- required further therapy. For this stage, we es. During the first stage,we had wire obtained posterior tibial access, crossed access from the popliteal to the peroneal the posterior tibial CTO, and snared the artery. Before crossing from the posterior posterior tibial wire. We proceeded with tibial, we wanted to treat the popliteal/ the use of a 1.85 mm JETSTREAM de- peroneal segment. A 2.4 mm/3.4 mm vice.The tibial device has the rotational JETSTREAM atherectomy device was capabilities without the “blades-up” fea- advanced into the popliteal and acti- ture, and also features active aspiration, vated.The device must be activated with like the larger JETSTREAM devices. the blades down.
Recommended publications
  • A Study of Popliteal Artery and Its Variations with Clinical Applications
    Dissertation on A STUDY OF POPLITEAL ARTERY AND ITS VARIATIONS WITH CLINICAL APPLICATIONS. Submitted in partial fulfillment for M.D. DEGREE EXAMINATION BRANCH- XXIII, ANATOMY Upgraded Institute of Anatomy Madras Medical College and Rajiv Gandhi Government General Hospital, Chennai - 600 003 THE TAMILNADU Dr.M.G.R. MEDICAL UNIVERSITY CHENNAI – 600 032 TAMILNADU MAY-2018 CERTIFICATE This is to certify that this dissertation entitled “A STUDY OF POPLITEAL ARTERY AND ITS VARIATIONS WITH CLINICAL APPLICATIONS” is a bonafide record of the research work done by Dr.N.BAMA, Post graduate student in the Institute of Anatomy, Madras Medical College and Rajiv Gandhi Government General Hospital, Chennai- 03, in partial fulfillment of the regulations laid down by The Tamil Nadu Dr.M.G.R. Medical University for the award of M.D. Degree Branch XXIII- Anatomy, under my guidance and supervision during the academic year from 2015-2018. Dr. Sudha Seshayyan,M.B.B.S., M.S., Dr. B. Chezhian, M.B.B.S., M.S., Director & Professor, Associate Professor, Institute of Anatomy, Institute of Anatomy, Madras Medical College, Madras Medical College, Chennai– 600 003. Chennai– 600 003. The Dean, Madras Medical College & Rajiv Gandhi Govt. General Hospital, Chennai Chennai – 600003. ACKNOWLEDGEMENT I wish to express exquisite thankfulness and gratitude to my most respected teachers, guides Dr. B. Chezhian, Associate Professor Dr.Sudha Seshayyan, Director and Professor, Institute ofAnatomy, Madras Medical College, Chennai – 3, for their invaluable guidance, persistent support and quest for perfection which has made this dissertation take its present shape. I am thankful to Dr. R. Narayana Babu, M.D., DCH, Dean, Madras Medical College, Chennai – 3 for permitting me to avail the facilities in this college for performing this study.
    [Show full text]
  • Muscular Variations in the Gluteal Region, the Posterior Compartment of the Thigh and the Popliteal Fossa: Report of 4 Cases
    CLINICAL VIGNETTE Anatomy Journal of Africa. 2021. Vol 10 (1): 2006-2012 MUSCULAR VARIATIONS IN THE GLUTEAL REGION, THE POSTERIOR COMPARTMENT OF THE THIGH AND THE POPLITEAL FOSSA: REPORT OF 4 CASES Babou Ba1, Tata Touré1, Abdoulaye Kanté1/2, Moumouna Koné1, Demba Yatera1, Moustapha Dicko1, Drissa Traoré2, Tieman Coulibaly3, Nouhoum Ongoïba1/2, Abdel Karim Koumaré1. 1) Anatomy Laboratory of the Faculty of Medicine and Odontostomatology of Bamako, Mali. 2) Department of Surgery B of the University Hospital Center of Point-G, Bamako, Mali. 3) Department of Orthopedic and Traumatological Surgery of the Gabriel Touré University Hospital Center, Bamako, Mali. Correspondence: Tata Touré, PB: 1805, email address: [email protected], Tel :( 00223) 78008900 ABSTRACT: During a study of the sciatic nerve by anatomical dissection in the anatomy laboratory of the Faculty of Medicine and Odontostomatology (FMOS) of Bamako, 4 cases of muscle variations were observed in three male cadavers. The first case was the presence of an accessory femoral biceps muscle that originated on the fascia that covered the short head of the femoral biceps and ended on the head of the fibula joining the common tendon formed by the long and short head of the femoral biceps. The second case was the presence of an aberrant digastric muscle in the gluteal region and in the posterior compartment of the thigh. He had two bellies; the upper belly, considered as a piriform muscle accessory; the lower belly, considered a third head of the biceps femoral muscle; these two bellies were connected by a long tendon. The other two cases were the presence of third head of the gastrocnemius.
    [Show full text]
  • Lower Limb Vascular Dysfunction in Cyclists Disfunções Vasculares Em Membros Inferiores De Ciclistas
    REVIEW ARTICLE Lower limb vascular dysfunction in cyclists Disfunções vasculares em membros inferiores de ciclistas Thiago Ayala Melo Di Alencar1, Karinna Ferreira de Sousa Matias1, Bruno do Couto Aguiar2 Abstract Sports-related vascular insufficiency affecting the lower limbs is uncommon, and early signs and symptoms can be confused with musculoskeletal injuries. This is also the case among professional cyclists, who are always at the threshold between endurance and excess training. The aim of this review was to analyze the occurrence of vascular disorders in the lower limbs of cyclists and to discuss possible etiologies. Eighty-five texts, including papers and books, published from 1950 to 2012, were used. According to the literature reviewed, some cyclists receive a late diagnosis of vascular dysfunction due to a lack of familiarity of the medical team with this type of dysfunction. Data revealed that a reduced blood flow in the external iliac artery, especially on the left, is much more common than in the femoral and popliteal arteries, and that vascular impairment is responsible for the occurrence of early fatigue and reduced performance in cycling. Keywords: cycling; peripheral arteriopathy; blood flow; stenosis. Resumo O desenvolvimento de insuficiência vascular em membros inferiores relacionada à prática esportiva é incomum e no início do surgimento dos sinais e sintomas frequentemente pode ser confundida com lesão musculoesquelética, a exemplo de casos relatados em ciclistas profissionais, por estarem sempre no limiar entre o treinamento em nível máximo e o excesso de treinamento. O objetivo desta revisão de literatura foi analisar a ocorrência de disfunções vasculares em membros inferiores em ciclistas e as possíveis etiologias.
    [Show full text]
  • A Study of the Internal Diameter of Popliteal Artery, Anterior and Posterior Tibial Arteries in Cadavers
    Original Research Article A study of the internal diameter of popliteal artery, anterior and posterior tibial arteries in cadavers Anjali Vishwanath Telang1,*, Mangesh Lone2, M Natarajan3 1Assistant Professor, 3Professor, Dept. of Anatomy, Seth GS Medical College, Parel, Mumbai, Maharashtra, 2Assistant Professor, Dept. of Anatomy, LTMMC, Sion, Mumbai, Maharashtra *Corresponding Author: Anjali Vishwanath Telang Assistant Professor, Dept. of Anatomy, Seth GS Medical College, Mumbai, Maharashtra Email: [email protected] Abstract Introduction: Popliteal artery is the continuation of femoral artery at adductor hiatus. It is one of the most common sites for peripheral aneurysms. It is also a common recipient site for above or below knee femoro-popliteal bypass grafts in cases of atherosclerosis. The aim was to study the internal diameter of popliteal artery, anterior tibial and posterior tibial arteries and to compare findings of the current study with previous studies and to find their clinical implications. Methods: Fifty cadavers (100 lower limbs) embalmed with 10% formalin were utilised in this study. Results: Internal diameter of popliteal artery was measured at its origin and at its termination. The diameter of popliteal artery at its origin was found to be (mean in mm ± SD) 4.7±0.9 & at its termination was 4.4±0.7. The diameter of anterior tibial artery at its origin was 3.5±1.1 & that of posterior tibial artery at its origin was 4.1±0.9. These findings were compared with the previous studies. Conclusion: Metric data of internal diameter of popliteal artery, anterior tibial artery & posterior tibial artery from the present study will be of help for vascular surgeons & radiologists.
    [Show full text]
  • Back of Thigh
    Back of thigh Dr Garima Sehgal Associate Professor King George’s Medical University UP, Lucknow DISCLAIMER: • The presentation includes images which have been taken from google images or books. • The author of the presentation claims no personal ownership over these images taken from books or google images. • They are being used in the presentation only for educational purpose. Learning Objectives By the end of this teaching session on back of thigh – I all the MBBS 1st year students must be able to: • Enumerate the contents of posterior compartment of thigh • Describe the cutaneous innervation of skin of back of thigh • Enumerate the hamstring muscles • List the criteria for inclusion of muscles as hamstring muscles • Describe the origin, insertion, nerve supply & actions of hamstring muscles • Describe origin, course and branches of sciatic nerve • Write a short note on posterior cutaneous nerve of thigh • Write a note on arteries and arterial anastomosis at the back of thigh • Discuss applied anatomy of back of thigh Compartments of the thigh Cutaneous innervation of back of thigh 1 4 2 3 Contents of Back of thigh Muscles: Hamstring muscles & short head of biceps femoris Nerves: Sciatic nerve & posterior cutaneous nerve of thigh Arterial Anastomosis: The Posterior Femoral Cutaneous Nerve (n. cutaneus femoralis posterior) Dorsal divisions of – S1, S2 & Ventral divisions of S2, S3 Exits from pelvis through the greater sciatic foramen below the Piriformis. Descends beneath the Gluteus maximus with the inferior gluteal artery Runs down the back of the thigh beneath the fascia lata, to the back of the knee and leg Posterior Femoral Cutaneous Nerve contd….
    [Show full text]
  • Bflh Is Usually Compromised During Sprinting, but Slowspeed
    anatomY REVIEW OF HAMSTRING ANATOMY – Written by Stephanie J Woodley and Richard N Storey, New Zealand The collective term ‘hamstrings’ refers may be related. For example, BFlh is usually BICEPS FEMORIS LONG HEAD to three separate muscles located in the compromised during sprinting, but slow- This muscle is of particular interest given posterior compartment of the thigh - biceps speed stretching injuries predominantly its susceptibility to injury. Some anatomical femoris (which consists of two components, affect SM1. Increasingly, imaging is being parameters that may be relevant when a long head [BFlh] and a short head [BFsh]), employed to confirm the location and considering strain injuries include its unique semitendinosus (ST) and semimembranosus severity of hamstring injuries and to inform muscle architecture and the arrangement of (SM) (Figure 1). There are numerous theories prognosis, particularly in professional and its proximal tendon which it shares with ST, on how this muscle group derived its name, elite athletes. a feature which may explain why injuries to but it appears to originate from the early With the above factors in mind, the Germanic language as well as the butchery purpose of this paper is to provide an trade. Slaughtered pigs were hung from overview of our current understanding of these strong tendons, hence the reference the morphology of the hamstring muscles. to ‘ham’ (meaning ‘crooked’ and thus Terms used frequently within this review BFlh is usually referring to the knee, the crooked part of require some explanation. Firstly, a tendon compromised the leg) and ‘string’ (referring to the string- can be considered to consist of two main like appearance of the tendons).
    [Show full text]
  • Arteries of the Lower Limb
    BLOOD SUPPLY OF LOWER LIMB Ali Fırat Esmer, MD Ankara University Faculty of Medicine Department of Anatomy Abdominal aorta Aortic bifurcation Right common iliac artery Left common iliac artery Right external Left external iliac artery iliac artery Rigt and left internal iliac arteries GLUTEAL REGION Structures passing through the suprapriform foramen Superior gluteal artery and vein Superior gluteal nerve Structures passing through the infrapriform foramen Inferior gluteal artery and vein Inferior gluteal nerve Sciatic nerve Posterior femoral cutaneous nerve Internal pudendal artery and vein Pudendal nerve • Femoral artery is the principal artery of the lower limb • Femoral artery is the continuation of the external iliac artery • External iliac artery becomes the femoral artery as it passes posterior to the inguinal ligament • Femoral artery, first enters the femoral triangle. Leaving the tirangle it passes through the adductor canal and then adductor hiatus and reaches to the popliteal fossa, where it becomes the popliteal artery Contents of the femoral triangle (from lateral to medial) • Femoral nerve (and its branches) • Saphenous nerve (sensory branch of the femoral nerve) • Femoral artery (and its several branches) • Deep femoral artery (deep artery of the thigh) and its branches in this region; medial and lateral circumflex femoral arteries and perforating branches • Femoral vein (and veins draining to its proximal part such as the great saphenous vein and deep femoral vein) • Deep inguinal lymph nodes MUSCULAR AND VASCULAR COMPARTMENTS
    [Show full text]
  • The Femoral Artery and Its Branches in the Baboon Papio Anubis
    Folia Morphol. Vol. 66, No. 4, pp. 291–295 Copyright © 2007 Via Medica O R I G I N A L A R T I C L E ISSN 0015–5659 www.fm.viamedica.pl The femoral artery and its branches in the baboon Papio anubis Dyl Ł., Topol M. Department of Angiology, Chair of Anatomy, Medical University, Łódź, Poland [Received 13 July 2007; Revised 19 October 2007; Accepted 19 October 2007] The aim of the research was to examine the anatomy of the arterial system in the inguinal region, hip and thigh of Papio anubis. No description of this was found in the available scientific literature, although, at the same time, the baboon is con- sidered to be a good animal model in biomedical research. Macroscopic anatomical research was carried out on 20 hind limbs (10 cadav- ers: 9 male and 1 female) of adult Papio anubis and the results were then compared with the anatomy of the arterial hind limb systems of other apes as described in the literature. The circulatory system of the whole body was filled with coloured latex via the common carotid artery and internal jugular vein, and traditional methods were then used to prepare the vessels. The arterial system in the hind extremity of Papio anubis was recorded. The anatomical names of human arteries were used as well as the names of those of apes as applied in the literature. The femoral artery was the only artery supplying the hind limb of Papio anubis. It started under the inguinal ligament as a continuation of the external iliac artery.
    [Show full text]
  • A Current Approaches to Popliteal Artery Repair
    a Current approaches to popliteal artery repair JOHN T. MILES, MD, FRCS[C]; ALBERTO G. DE LA ROCHA, MD, FRCS(C]; RONALD J. BAIRD, MD, FRCS[C] Trauma to the popliteal artery is In this paper we review the patho- who did not undergo amputation subse- potentially dangerous, and limb loss genesis of injury and management, and quently had contracture deformities and may result, especially with delayed describe an illustrative case of popliteal persistent paresthesias in the foot. Pop- diagnosis. Three anatomic factors artery injury. liteal artery injuries in civilians there- contribute to the seriousness of the fore appear to be as dangerous as those outcome: proximity of the artery to Background incurred by the military in combat. bone, superficial position of the artery The relative danger of popliteal vas- and consequent lack of protection, DeBakey and Simeone' found that cular injuries must be stressed. While and frequent associated injury to 49% of all arterial injuries in Amer- the amputation rate for popliteal ar- associated collateral blood vessels. ican troops in World War II resulted tery injuries is 32%, the rate for all Diagnosis of injury to the popliteal in limb loss and that the proportion other extremity injuries has been 7% .' artery rests on suspicion and vigilance; was 72.5% when popliteal arterial the Doppler transcutaneous flow detector injuries alone were considered. The ad- Pathogenesis of injury: and angiography are often useful aids vances in vascular techniques follow- anatomic factors to diagnosis. Methods of treatment ing World War II led to improvement that have been used include arterial in the treatment of vascular injuries, The popliteal artery is not intrinsic- repair, grafting and fasciotomy, together though Rich, Baugh and Hughes2 noted ally different from other peripheral ar- with management of associated that 32% of 150 patients with popliteal teries of its size.
    [Show full text]
  • Back of Thigh
    Hamstring muscles The word ham originally referred to the fat and muscle behind the knee. String refers to tendons, and thus, the hamstrings are the string- like tendons felt on either side of the back of the knee. THE ADDUCTOR MAGNUS Adductor magnus Adductor part: inferior ramus of pubis, ramus of ischium Hamstrings part: ischial tuberosity Adductor part: gluteal tuberosity, linea aspera, medial supracondylar line Hamstrings part: adductor tubercle of femur Adductor part: obturator nerve (L2, L3, L4), branches of posterior division Hamstrings part: tibial part of sciatic nerve (L4) Adducts thigh Adductor part: flexes thigh Hamstrings part: extends thigh THE BICEPS FEMORIS MUSCLE Long head: ischial tuberosity Short head: linea aspera and lateral supracondylar line of femur Lateral side of head of fibula; tendon is split at this site by fibular collateral ligament of knee Long head: tibial division of sciatic nerve (L5, S1, S2) Short head: common peroneal division of sciatic nerve (L5, S1, S2) Flexes leg and rotates it laterally when knee is flexed; extends thigh (e.g., when starting to walk) THE SEMITENDINOSUS MUSCLE Ischial tuberosity Medial surface of superior part of tibia Tibial division of sciatic nerve (L5, S1, S2) Extend thigh; flex leg and rotate it medially when knee is flexed; when thigh and leg are flexed, these muscles can extend trunk THE SEMIMEMBRANOSUS MUSCLE Ischial tuberosity Posterior part of medial condyle of tibia; reflected attachment forms oblique popliteal ligament (to lateral femoral condyle) Tibial division of
    [Show full text]
  • 17-Vascular Anatomy of Lower Limb.Pdf
    Color Code Important Vasculature of Lower Limb Doctors Notes Notes/Extra explanation Editing File Objectives • List the main arteries of the lower limb. • Describe their origin, course distribution & branches. • List the main arterial anastomosis . • List the sites where you feel the arterial pulse. • Differentiate the veins of LL into superficial & deep • Describe their origin, course & termination and tributaries • Some related clinical points Overview of the lecture: Arteries Veins Arteries Of Lower Limb Extra (Lower limp) Femoral Artery Femoral artery /vein At the inguinal ligament: It is the main arterial supply to the lower limb. The vein lies medial to Origin: the artery. It is the continuation of the External iliac artery. At the apex of the Beginning: femoral triangle: How does it enter the thigh? The vein lies posterior to Behind the inguinal ligament (it is btw anterior superior iliac the artery. )هنا spine & pubic tubercle), midway at the midinguinal point At the opening in the Femoral a ( between the anterior superior iliac يصبح اسمه adductor magnus: spine and the symphysis pubis. The vein lies lateral to the artery Termination by passing through the Adductor )ينتهي(The femoral artery terminates Canal (deep to sartorius) It exits the canal by passing through the Adductor Hiatus (& enters popliteal fossa) and becomes the Popliteal artery. Femoral Artery Relation Upper part: Skin & fascia.(its superficial) Lower part: Sartorius. Anteriorly Relations (in the Laterally Medially femoral triangle) Femoral nerve Femoral vein and
    [Show full text]
  • Vascular Anatomy of the Lower Extremities
    129 Vascular Anatomy of the Lower Extremities The external iliac artery becomes the common femoral popliteal artery courses through the popliteal fossa, it artery after passing under the inguinal ligament. The gives multiple branches of geniculate arteries (superior common femoral artery and vein are enveloped by the lateral and medial geniculate arteries, inferior lateral and femoral sheath. Scarpa’s triangle is defined by the adduc- medial geniculate arteries). The popliteal vein lies pos- tor longus muscle medially, the Sartorious muscle later- terolateral to the artery in the adductor hiatus, dorsal to ally, and by the inguinal ligament superiorly.The femoral the artery behind the knee, and then moves medial to the vessels and nerves are in the following orientation lateral artery inferiorly. The small saphenous vein joins the to medial: femoral nerve, femoral artery, femoral vein, popliteal vein in the popliteal fossa. and lymphatics (NAVeL). The common femoral artery Approximately 3cm below the knee, the popliteal gives off several branches that include the superficial artery bifurcates into the anterior tibial artery and the epigastric artery, the superficial circumflex artery, and tibioperoneal trunk. The anterior tibial artery exits the the superficial and deep external pudendal arteries. The deep posterior compartment through the interosseous fossa ovalis is a medial opening in the fascia lata where membrane and enters the anterior compartment medial the saphenous vein enters the femoral triangle. Approx- to the fibula. Here it is joined by the deep peroneal nerve imately 4cm below the inguinal ligament, the common and continues to travel through the anterior compart- femoral artery splits into the superficial femoral artery ment toward the dorsum of the foot.
    [Show full text]