Distribution of the Maxillary Artery in the Deep Regions of the Face and the Maxilla
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Branches of the Maxillary Artery of the Dromedary, Camelus Dromedarius
Table 3.5: Branches of the Maxillary Artery of the Dromedary, Camelus dromedarius Artery Origin Course Distribution Departs from common trunk with the deep temporal vessels, close to mandibular foramen; traverses mandibular canal, supplying Mandibular dentition; lower lip; Inferior Alveolar Maxillary Artery mandibular dentition. Terminates as mental anastomoses freely with ventral ramus artery after exiting at mental foramen, of the facial artery. whereupon supplies skin, mucosa, and muscle of the lower lip. Single deep temporal vessel is first major dorsal branch of the MA; ascends deep to the coronoid Deep Temporal Maxillary Artery Temporalis muscle process and fans out on the deep surface of the temporalis muscle. Lower lateral branch of deep temporal artery; passes through the mandibular incisure and Masseteric Deep Temporal Artery Masseter muscle curves rostrally to pierce the internal surface of the masseter muscle. Proximal to the foramen orbitorotundum and optic foramen, numerous rami anastomotica connect the maxillary artery to the carotid rete. Carotid rete, ophthalmic rete, external Ramus anastomoticus Maxillary Artery The network in the dromedary is extensive, ophthalmic artery; intracranial cavity forming a plexus between the carotid and ophthalmic retia, and giving rise to the external ophthalmic artery. Condenses from a dense retial mat (composed of maxillary rami, the extradural/extracranial portion of the carotid rete, and the ophthalmic Extraocular muscles, periorbita, External Ophthalmic MA/CR/OR rete). Perfuses the majority of the periorbita, lacrimal gland including branches to the extraocular muscles and the lacrimal gland Lateral branch of the MA, begins opposite the rami anastomotica; traverses parenchyma orbital Supplies the buccal fat pad, Buccal MA fossa, between malar and anterior border of buccinator; contributes ventral coronoid process. -
Endovascular Approach to Ruptured Sphenopalatine Artery: a Case Report and Literature Review
J Spine Res Surg 2021; 3 (2): 037-044 DOI: 10.26502/fjsrs0028 Case Report Endovascular Approach to Ruptured Sphenopalatine Artery: A Case Report and Literature Review Ram Saha1, Abu Bakar Siddik2, Masum Rahman3, Samar Ikram3, Cecile Riviere-cazaux4, Abdullah Alamgir5, Badrul Alam Mondal6, Quazi Deen Mohammad6, Sirajee Shafiqul Islam 7* 1Department of Neurology, Virginia Commonwealth University, VA, USA 2Department of Pain Medicine, Mayo Clinic, Jacksonville, Florida, USA 3Department of Neurological Surgery, Mayo Clinic, MN, USA 4Mayo Clinic Alix school of medicine, Rochester, MN, USA 5Department of Neurosurgery, National Institute of Neurosciences & Hospital, Dhaka, Bangladesh 6Department of Neurology, National Institute of Neurosciences & Hospital, Dhaka, Bangladesh 7Department of Interventional Neurology, National Institute of Neurosciences & Hospital, Dhaka, Bangladesh *Corresponding Author: Dr. Sirajee Shafiqul Islam, Associate Professor, Department of Interventional Neurology, National Institute of Neurosciences & Hospital, Dhaka, Bangladesh Received: 14 May 2021; Accepted: 25 May 2021; Published: 31 May 2021 Citation: Ram Saha, Abu Bakar Siddik, Masum Rahman, Samar Ikram, Cecile Riviere-cazaux, Abdullah Alamgir, Badrul Alam Mondal, Quazi Deen Mohammad, Sirajee Shafiqul Islam. Endovascular Approach to Ruptured Sphenopalatine Artery: A Case Report and Literature Review. Journal of Spine Research and Surgery 3 (2021): 037- 044. Abstract Epistaxis is a rare complication following the endonasal skull-base chordoma through an endonasal approach. approach of skull base surgery. Conservative methods An endovascular catheter digital subtraction angiogram like anterior and posterior nasal packing can be useful, identified the cause of epistaxis as a rupture of the left but when these fail, a neuro-interventional technique sphenopalatine artery branch of the left external carotid can be used as a last-resort measure in cases of severe artery. -
LETTERS to the EDITOR. Middle Cerebral Artery Tortuosity Associated
J Neurosurg 130:1763–1788, 2019 Neurosurgical Forum LETTERS TO THE EDITOR Middle cerebral artery tortuosity tective factors against aneurysm formation.” Nevertheless, according to that explanation, it can be inferred that the associated with aneurysm incidence of aneurysms in patients with local tortuosity development should be decreased rather than increased. Therefore, it would be better for the authors to provide an in-depth ex- planation about the above results and arguments. TO THE EDITOR: We read with great interest the ar- Second, the authors stated, “There are a few rare ge- ticle by Kliś et al.2 (Kliś KM, Krzyżewski RM, Kwinta netic syndromes that are linked to the presence of vessel BM, et al: Computer-aided analysis of middle cerebral tortuosity, such as artery tortuosity syndrome or Loeys- artery tortuosity: association with aneurysm develop- Dietz syndrome.” The genetic syndromes they mention ment. J Neurosurg [epub ahead of print May 18, 2018; are systemic lesions involving multiple parts of vessels DOI: 10.3171/2017.12.JNS172114]). The authors conclude of the body and therefore often involve multiple intracra- that “an increased deviation of the middle cerebral artery nial aneurysms.1,3,5 However, this article did not provide (MCA) from a straight axis (described by relative length detailed information on the characteristics of intracranial [RL]), a decreased sum of all MCA angles (described by aneurysms, for example, the incidence of multiple aneu- sum of angle metrics [SOAM]), a local increase of the rysms, the specific sites of the MCA aneurysms (M1, M2, MCA angle heterogeneity, and an increase in changes in M3, M4), and the size of the aneurysms, etc. -
Anatomy of the Ophthalmic Artery: Embryological Consideration
REVIEW ARTICLE doi: 10.2176/nmc.ra.2015-0324 Neurol Med Chir (Tokyo) 56, 585–591, 2016 Online June 8, 2016 Anatomy of the Ophthalmic Artery: Embryological Consideration Naoki TOMA1 1Department of Neurosurgery, Mie University Graduate School of Medicine, Tsu, Mie, Japan Abstract There are considerable variations in the anatomy of the human ophthalmic artery (OphA), such as anom- alous origins of the OphA and anastomoses between the OphA and the adjacent arteries. These anatomi- cal variations seem to attribute to complex embryology of the OphA. In human embryos and fetuses, primitive dorsal and ventral ophthalmic arteries (PDOphA and PVOphA) form the ocular branches, and the supraorbital division of the stapedial artery forms the orbital branches of the OphA, and then numerous anastomoses between the internal carotid artery (ICA) and the external carotid artery (ECA) systems emerge in connection with the OphA. These developmental processes can produce anatomical variations of the OphA, and we should notice these variations for neurosurgical and neurointerventional procedures. Key words: ophthalmic artery, anatomy, embryology, stapedial artery, primitive maxillary artery Introduction is to elucidate the anatomical variation of the OphA from the embryological viewpoint. The ophthalmic artery (OphA) consists of ocular and orbital branches. The ocular branches contribute to Embryology and Anatomy the blood supply of the optic apparatus, namely, the of the OphA optic nerve and the retina, and the orbital branches supply the optic adnexae, such -
Dissertation on an OBSERVATIONAL STUDY COMPARING the EFFECT of SPHENOPALATINE ARTERY BLOCK on BLEEDING in ENDOSCOPIC SINUS SURGE
Dissertation On AN OBSERVATIONAL STUDY COMPARING THE EFFECT OF SPHENOPALATINE ARTERY BLOCK ON BLEEDING IN ENDOSCOPIC SINUS SURGERY Dissertation submitted to TAMIL NADU DR. M.G.R. MEDICAL UNIVERSITY CHENNAI For M.S.BRANCH IV (OTORHINOLARYNGOLOGY) Under the guidance of DR. F ANTHONY IRUDHAYARAJAN, M.S., D.L.O Professor & HOD, Department of ENT & Head and Neck Surgery, Govt. Stanley Medical College, Chennai. GOVERNMENT STANLEY MEDICAL COLLEGE THE TAMILNADU DR. M.G.R. MEDICAL UNIVERSITY, CHENNAI-32, TAMILNADU APRIL 2017 CERTIFICATE This is to certify that this dissertation titled AN OBSERVATIONAL STUDY COMPARING THE EFFECT OF SPHENOPALATINE ARTERY BLOCK ON BLEEDING IN ENDOSCOPIC SINUS SURGERY is the original and bonafide work done by Dr. NIGIL SREEDHARAN under the guidance of Prof Dr F ANTHONY IRUDHAYARAJAN, M.S., DLO Professor & HOD, Department of ENT & Head and Neck Surgery at the Government Stanley Medical College & Hospital, Chennai – 600 001, during the tenure of his course in M.S. ENT from July-2014 to April- 2017 held under the regulation of the Tamilnadu Dr. M.G.R Medical University, Guindy, Chennai – 600 032. Prof Dr F Anthony Irudhayarajan, M.S., DLO Place : Chennai Professor & HOD, Date : .10.2016 Department of ENT & Head and Neck Surgery Government Stanley Medical College & Hospital, Chennai – 600 001. Dr. Isaac Christian Moses M.D, FICP, FACP Place: Chennai Dean, Date : .10.2016 Govt.Stanley Medical College, Chennai – 600 001. CERTIFICATE BY THE GUIDE This is to certify that this dissertation titled “AN OBSERVATIONAL STUDY COMPARING THE EFFECT OF SPHENOPALATINE ARTERY BLOCK ON BLEEDING IN ENDOSCOPIC SINUS SURGERY” is the original and bonafide work done by Dr NIGIL SREEDHARAN under my guidance and supervision at the Government Stanley Medical College & Hospital, Chennai – 600001, during the tenure of his course in M.S. -
Atlas of the Facial Nerve and Related Structures
Rhoton Yoshioka Atlas of the Facial Nerve Unique Atlas Opens Window and Related Structures Into Facial Nerve Anatomy… Atlas of the Facial Nerve and Related Structures and Related Nerve Facial of the Atlas “His meticulous methods of anatomical dissection and microsurgical techniques helped transform the primitive specialty of neurosurgery into the magnificent surgical discipline that it is today.”— Nobutaka Yoshioka American Association of Neurological Surgeons. Albert L. Rhoton, Jr. Nobutaka Yoshioka, MD, PhD and Albert L. Rhoton, Jr., MD have created an anatomical atlas of astounding precision. An unparalleled teaching tool, this atlas opens a unique window into the anatomical intricacies of complex facial nerves and related structures. An internationally renowned author, educator, brain anatomist, and neurosurgeon, Dr. Rhoton is regarded by colleagues as one of the fathers of modern microscopic neurosurgery. Dr. Yoshioka, an esteemed craniofacial reconstructive surgeon in Japan, mastered this precise dissection technique while undertaking a fellowship at Dr. Rhoton’s microanatomy lab, writing in the preface that within such precision images lies potential for surgical innovation. Special Features • Exquisite color photographs, prepared from carefully dissected latex injected cadavers, reveal anatomy layer by layer with remarkable detail and clarity • An added highlight, 3-D versions of these extraordinary images, are available online in the Thieme MediaCenter • Major sections include intracranial region and skull, upper facial and midfacial region, and lower facial and posterolateral neck region Organized by region, each layered dissection elucidates specific nerves and structures with pinpoint accuracy, providing the clinician with in-depth anatomical insights. Precise clinical explanations accompany each photograph. In tandem, the images and text provide an excellent foundation for understanding the nerves and structures impacted by neurosurgical-related pathologies as well as other conditions and injuries. -
Anatomy of the Periorbital Region Review Article Anatomia Da Região Periorbital
RevSurgicalV5N3Inglês_RevistaSurgical&CosmeticDermatol 21/01/14 17:54 Página 245 245 Anatomy of the periorbital region Review article Anatomia da região periorbital Authors: Eliandre Costa Palermo1 ABSTRACT A careful study of the anatomy of the orbit is very important for dermatologists, even for those who do not perform major surgical procedures. This is due to the high complexity of the structures involved in the dermatological procedures performed in this region. A 1 Dermatologist Physician, Lato sensu post- detailed knowledge of facial anatomy is what differentiates a qualified professional— graduate diploma in Dermatologic Surgery from the Faculdade de Medician whether in performing minimally invasive procedures (such as botulinum toxin and der- do ABC - Santo André (SP), Brazil mal fillings) or in conducting excisions of skin lesions—thereby avoiding complications and ensuring the best results, both aesthetically and correctively. The present review article focuses on the anatomy of the orbit and palpebral region and on the important structures related to the execution of dermatological procedures. Keywords: eyelids; anatomy; skin. RESU MO Um estudo cuidadoso da anatomia da órbita é muito importante para os dermatologistas, mesmo para os que não realizam grandes procedimentos cirúrgicos, devido à elevada complexidade de estruturas envolvidas nos procedimentos dermatológicos realizados nesta região. O conhecimento detalhado da anatomia facial é o que diferencia o profissional qualificado, seja na realização de procedimentos mini- mamente invasivos, como toxina botulínica e preenchimentos, seja nas exéreses de lesões dermatoló- Correspondence: Dr. Eliandre Costa Palermo gicas, evitando complicações e assegurando os melhores resultados, tanto estéticos quanto corretivos. Av. São Gualter, 615 Trataremos neste artigo da revisão da anatomia da região órbito-palpebral e das estruturas importan- Cep: 05455 000 Alto de Pinheiros—São tes correlacionadas à realização dos procedimentos dermatológicos. -
Clinical Anatomy of the Maxillary Artery
Okajimas CnlinicalFolia Anat. Anatomy Jpn., 87 of(4): the 155–164, Maxillary February, Artery 2011155 Clinical Anatomy of the Maxillary Artery By Ippei OTAKE1, Ikuo KAGEYAMA2 and Izumi MATAGA3 1 Department of Oral and Maxilofacial Surgery, Osaka General Medical Center (Chief: ISHIHARA Osamu) 2 Department of Anatomy I, School of Life Dentistry at Niigata, Nippon Dental University (Chief: Prof. KAGEYAMA Ikuo) 3 Department of Oral and Maxillofacial Surgery, School of Life Dentistry at Niigata, Nippon Dental University (Chief: Prof. MATAGA Izumi) –Received for Publication, August 26, 2010– Key Words: Maxillary artery, running pattern of maxillary artery, intraarterial chemotherapy, inner diameter of vessels Summary: The Maxillary artery is a component of the terminal branch of external carotid artery and distributes the blood flow to upper and lower jawbones and to the deep facial portions. It is thus considered to be a blood vessel which supports both hard and soft tissues in the maxillofacial region. The maxillary artery is important for bleeding control during operation or superselective intra-arterial chemotherapy for head and neck cancers. The diagnosis and treatment for diseases appearing in the maxillary artery-dominating region are routinely performed based on image findings such as CT, MRI and angiography. However, validations of anatomical knowledge regarding the Maxillary artery to be used as a basis of image diagnosis are not yet adequate. In the present study, therefore, the running pattern of maxillary artery as well as the type of each branching pattern was observed by using 28 sides from 15 Japanese cadavers. In addition, we also took measurements of the distance between the bifurcation and the origin of the maxillary artery and the inner diameter of vessels. -
Branches of the External Carotid Artery of the Dromedary, Camelus Dromedarius Artery Origin Course Distribution
Table 3.4: Branches of the External Carotid Artery of the Dromedary, Camelus dromedarius Artery Origin Course Distribution Originates at the bifurcatio of the occipital artery from the common carotid artery. Superficial Occipital region, lateral face, pharynx, Common Carotid External Carotid course is throughout occipital and posteroinferior tongue, hyoid musculature, and Artery facial regions; deeper course is throughout sublingual glands. pharyngeal, lingual, and hyoid regions. The proper occipital artery is the first dorsal branch of the ECA. It arises near the caudal border of the wing of the atlas, traverses the atlantal fossa, and then splits into: 1. Multitude External Carotid of muscular branches; 2. Anastomosis with Collateral circulation with vertebral Occipital Artery vertebral artery (through alar foramen); 3. arteries; neck and occipital muscles Superior termination continues to course toward the external occipital protuberance, supplying the parenchyma of the occipital region inferior to and surrounding the foramen magnum. Variable origin: from the ECA or the "ascending pharyngeal." Condylar and ascending pharyngeal External Carotid may share a short common trunk. An anterior Artery (var: branch of the condylar artery follows the Inferior meninges and inferolateral Condylar Ascending hypoglossal nerve into the hypoglossal canal to occipital region. Pharyngeal) supply the inferior meninges. A posterior branch of the condylar provides collateral circulation to the occipital region. External Carotid Small, tortuous division from medial wall of Cranial Thyroid Thyroid Artery ECA From posteromedial surface of ECA Descending External Carotid immediately posterior to the jugular process. Extensive distribution throughout the Pharyngeal Artery Convoluted and highly dendritic throughout the pharynx lateral and posterior wall of the pharynx. -
Ed Quick Quiz What Is the Diagnosis? Background
ED QUICK QUIZ WHAT IS THE DIAGNOSIS? BACKGROUND A 63 year old man presents to A&E with 3 hours of heavy nose-bleeding. Blood is coming from both nostrils and running down the back of his throat, causing him to gag. He feels light-headed and generally unwell but has not lost consciousness and has no chest pain. There has been no history of trauma or infection. Past medical history: atrial fibrillation, hypertension. Drug history: ramipril, warfarin. Examination He is alert and oriented. There is bleeding from both nostrils and there is a mix of fresh and clotted blood at the back of the throat. Observations: HR 140, BP 103/66, RR 22, SpO2 96%, air, temperature 36.2. Capillary refill time is two seconds and his ECG shows fast atrial fibrillation. Respiratory and abdominal examinations are normal. QUESTIONS 1. Where do you think the bleeding is coming from? 2. What first aid measures are helpful in stopping or limiting bleeding? 3. How will you stop the bleeding? 4. What will you do about the warfarin? HAP 19 Stephen Foley 10/10/2016 ANSWERS & DISCUSSION 1. Bleeding location Epistaxis is either anterior or posterior. Anterior bleeds usually arise from Little’s area, also known as Kesselbach’s plexus, which is a region of the nasal septum in which four arteries anastomose: the anterior ethmoidal, sphenopalatine, greater palatine and septal branch of the superior labial artery. It is easily injured from minor trauma such as nose-picking. Around 90% of epistaxis arises from this area. Posterior bleeds arise from further back in the nasal cavity, often from branches of the sphenopalatine artery. -
INFERIOR MAXILLECTOMY Johan Fagan
OPEN ACCESS ATLAS OF OTOLARYNGOLOGY, HEAD & NECK OPERATIVE SURGERY INFERIOR MAXILLECTOMY Johan Fagan Tumours of the hard palate and superior Figure 2 illustrates the bony anatomy of alveolus may be resected by inferior the lateral wall of the nose. The inferior maxillectomy (Figure 1). A Le Fort 1 turbinate (concha) may be resected with osteotomy may also be used as an inferior maxillectomy, but the middle tur- approach to e.g. angiofibromas and the binate is preserved. nasopharynx. Frontal sinus Posterior ethmoidal foramen Orbital process palatine bone Anterior ethmoidal Sphenopalatine foramen foramen Foramen rotundum Lacrimal fossa Uncinate Max sinus ostium Pterygoid canal Inferior turbinate Pterygopalatine canal Palatine bone Lateral pterygoid plate Figure 1: Bilateral inferior maxillectomy Pyramidal process palatine bone A sound understanding of the 3-dimen- Figure 2: Lateral view of maxilla with sional anatomy of the maxilla and the windows cut in lateral and medial walls of surrounding structures is essential to do the maxillary sinus operation safely. Hence the detailed description of the relevant surgical anatomy that follows. Frontal sinus Crista galli Surgical Anatomy Sella turcica Bony anatomy Figures 2, 3 & 4 illustrate the detailed bony anatomy relevant to maxillectomy. Uncinate Critical surgical landmarks to note include: • The floor of the anterior cranial fossa (fovea ethmoidalis and cribriform Maxillary sinus ostium plate) corresponds with anterior and Medial pterygoid plate posterior ethmoidal foramina located, Pterygoid -
Anatomical Variations of the Greater Palatine Nerve in the Greater Palatine Canal
Anatomical Variations of the Greater Palatine Nerve in the Greater Palatine Canal Najmus Sahar Hafeez, MD, MSc; Sugantha Ganapathy, MD, FRCPC; Rakesh Sondekoppam, MD; Marjorie Johnson, PhD; Peter Merrifield, PhD; Khadry A. Galil, DDS, DO&MF Surg, PhD, FAGD, FADI, Cert. Periodontist Posted on July 21, 2015 Tags: diagnosis oral surgery Cite this as: J Can Dent Assoc 2015;81:f14 ABSTRACT The greater palatine nerve and the greater palatine canal are common sites for maxillary anesthesia during dental and maxillo facial procedures. The greater palatine nerve is thought to course as a single trunk through the greater palatine canal, branching after its exit from the greater palatine foramen. We describe intracanalicular branching variations of the greater palatine nerve found in 8 of 20 embalmed dissection specimens. Such variation is previously unreported in the literature. We characterize the variations in branching pattern and discuss the possible implications for clinical practice. The greater palatine nerve (GPN), which is the continuation of the descending palatine nerve, innervates palatal tissues and the palatal gingiva posterior to the canines after passing through the greater palatine foramen. Anesthetising the GPN (i.e., GPN block) at the greater palatine foramen is common during procedures on the maxillary teeth and palate. The greater palatine canal also provides access for maxillary anesthesia in dental practice.1 Studies have suggested that the greater palatine neurovascular bundle is the most critical structure to be identified during subepithelial connective tissue palatal graft procedures.2 Multiple studies in clinical practice have demonstrated that a GPN block produces the most effective, consistent and prolonged analgesia following palatoplasty in children with cleft palate.3 Although a number of studies have shown anatomical variations in greater palatine foramen location, number and morphology,4,5 studies describing anatomical variations in the GPN within and outside the canal are sparse.