Anatomical Study of the Sphenopalatine Foramen
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Surgery in the Multimodality Treatment of Sinonasal Malignancies
Surgery in the Multimodality Treatment of Sinonasal Malignancies alignancies of the paranasal sinuses represent a rare and biologi- cally heterogeneous group of cancers. Understanding of tumor M biology continues to evolve and will likely facilitate the develop- ment of improved treatment strategies. For example, some sinonasal tumors may benefit from treatment through primarily nonsurgical ap- proaches, whereas others are best addressed through resection. The results of clinical trials in head and neck cancer may not be generalizable to this heterogeneous group of lesions, which is defined anatomically rather than through histogenesis. Increasingly sophisticated pathologic assessments and the elucidation of molecular markers, such as the human papilloma virus (HPV), in sinonasal cancers have the potential to transform the clinical management of these malignant neoplasms. Published reports often suggest that treatment approaches that include surgery result in better local control and survival. However, many studies are marked by selection bias. The availability of effective reconstruction makes increas- ingly complex procedures possible, with improved functional outcomes. With advances in surgery and radiation, the multimodal treatment of paranasal sinus cancers is becoming safer. The use of chemotherapy remains a subject of active investigation. Introduction Sinonasal malignancies, a highly heterogeneous group of cancers, account for less than 1% of all cancers and less than 3% of all upper aerodigestive tract tumors. These lesions may originate from any of the histopathologic components of the sinonasal cavities, including Schnei- derian mucosa, minor salivary glands, neural tissue, and lymphatics. Sixty percent of sinonasal tumors arise in the maxillary sinus, whereas approximately 20% arise in the nasal cavity, 5% in the ethmoid sinuses, and 3% in the sphenoid and frontal sinuses. -
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. -
View (FOV) 210, Number of in a Level C Recommendation for INALA for Acute Acquisitions 3; Sagittal T1 Weighted: TR Range 710, TE 10, Migraine Treatment [6]
Crespi et al. The Journal of Headache and Pain (2018) 19:14 The Journal of Headache https://doi.org/10.1186/s10194-018-0843-5 and Pain RESEARCHARTICLE Open Access Measurement and implications of the distance between the sphenopalatine ganglion and nasal mucosa: a neuroimaging study Joan Crespi1,2,3* , Daniel Bratbak2,4, David Dodick2,5, Manjit Matharu6, Kent Are Jamtøy2,7, Irina Aschehoug2 and Erling Tronvik1,2,3 Abstract Background: Historical reports describe the sphenopalatine ganglion (SPG) as positioned directly under the nasal mucosa. This is the basis for the topical intranasal administration of local anaesthetic (LA) towards the sphenopalatine foramen (SPF) which is hypothesized to diffuse a distance as short as 1 mm. Nonetheless, the SPG is located in the sphenopalatine fossa, encapsulated in connective tissue, surrounded by fat tissue and separated from the nasal cavity by a bony wall. The sphenopalatine fossa communicates with the nasal cavity through the SPF, which contains neurovascular structures packed with connective tissue and is covered by mucosa in the nasal cavity. Endoscopically the SPF does not appear open. It has hitherto not been demonstrated that LA reaches the SPG using this approach. Methods: Our group has previously identified the SPG on 3 T–MRI images merged with CT. This enabled us to measure the distance from the SPG to the nasal mucosa covering the SPF in 20 Caucasian subjects on both sides (n =40ganglia). This distance was measured by two physicians. Interobserver variability was evaluated using the intraclass correlation coefficient (ICC). Results: The mean distance from the SPG to the closest point of the nasal cavity directly over the mucosa covering the SPF was 6.77 mm (SD 1.75; range, 4.00–11.60). -
Nasoconchal Paranasal Sinus in White Rhino
IDENTIFICATION OF A NASOCONCHAL PARANASAL SINUS IN THE WHITE RHINOCEROS (CERATOTHERIUM SIMUM) Author(s): Mathew P. Gerard, B.V.Sc., Ph.D., Dipl. A.C.V.S., Zoe G. Glyphis, B.Sc., B.V.Sc., Christine Crawford, B.S., Anthony T. Blikslager, D.V.M., Ph.D., Dipl. A.C.V.S., and Johan Marais, B.V.Sc., M.Sc. Source: Journal of Zoo and Wildlife Medicine, 49(2):444-449. Published By: American Association of Zoo Veterinarians https://doi.org/10.1638/2017-0185.1 URL: http://www.bioone.org/doi/full/10.1638/2017-0185.1 BioOne (www.bioone.org) is a nonprofit, online aggregation of core research in the biological, ecological, and environmental sciences. BioOne provides a sustainable online platform for over 170 journals and books published by nonprofit societies, associations, museums, institutions, and presses. Your use of this PDF, the BioOne Web site, and all posted and associated content indicates your acceptance of BioOne’s Terms of Use, available at www.bioone.org/page/ terms_of_use. Usage of BioOne content is strictly limited to personal, educational, and non-commercial use. Commercial inquiries or rights and permissions requests should be directed to the individual publisher as copyright holder. BioOne sees sustainable scholarly publishing as an inherently collaborative enterprise connecting authors, nonprofit publishers, academic institutions, research libraries, and research funders in the common goal of maximizing access to critical research. Journal of Zoo and Wildlife Medicine 49(2): 444–449, 2018 Copyright 2018 by American Association of Zoo Veterinarians IDENTIFICATION OF A NASOCONCHAL PARANASAL SINUS IN THE WHITE RHINOCEROS (CERATOTHERIUM SIMUM) Mathew P. -
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. -
Macroscopic Anatomy of the Nasal Cavity and Paranasal Sinuses of the Domestic Pig (Sus Scrofa Domestica) Daniel John Hillmann Iowa State University
Iowa State University Capstones, Theses and Retrospective Theses and Dissertations Dissertations 1971 Macroscopic anatomy of the nasal cavity and paranasal sinuses of the domestic pig (Sus scrofa domestica) Daniel John Hillmann Iowa State University Follow this and additional works at: https://lib.dr.iastate.edu/rtd Part of the Animal Structures Commons, and the Veterinary Anatomy Commons Recommended Citation Hillmann, Daniel John, "Macroscopic anatomy of the nasal cavity and paranasal sinuses of the domestic pig (Sus scrofa domestica)" (1971). Retrospective Theses and Dissertations. 4460. https://lib.dr.iastate.edu/rtd/4460 This Dissertation is brought to you for free and open access by the Iowa State University Capstones, Theses and Dissertations at Iowa State University Digital Repository. It has been accepted for inclusion in Retrospective Theses and Dissertations by an authorized administrator of Iowa State University Digital Repository. For more information, please contact [email protected]. 72-5208 HILLMANN, Daniel John, 1938- MACROSCOPIC ANATOMY OF THE NASAL CAVITY AND PARANASAL SINUSES OF THE DOMESTIC PIG (SUS SCROFA DOMESTICA). Iowa State University, Ph.D., 1971 Anatomy I University Microfilms, A XEROX Company, Ann Arbor. Michigan I , THIS DISSERTATION HAS BEEN MICROFILMED EXACTLY AS RECEIVED Macroscopic anatomy of the nasal cavity and paranasal sinuses of the domestic pig (Sus scrofa domestica) by Daniel John Hillmann A Dissertation Submitted to the Graduate Faculty in Partial Fulfillment of The Requirements for the Degree of DOCTOR OF PHILOSOPHY Major Subject: Veterinary Anatomy Approved: Signature was redacted for privacy. h Charge of -^lajoï^ Wor Signature was redacted for privacy. For/the Major Department For the Graduate College Iowa State University Ames/ Iowa 19 71 PLEASE NOTE: Some Pages have indistinct print. -
MBB: Head & Neck Anatomy
MBB: Head & Neck Anatomy Skull Osteology • This is a comprehensive guide of all the skull features you must know by the practical exam. • Many of these structures will be presented multiple times during upcoming labs. • This PowerPoint Handout is the resource you will use during lab when you have access to skulls. Mind, Brain & Behavior 2021 Osteology of the Skull Slide Title Slide Number Slide Title Slide Number Ethmoid Slide 3 Paranasal Sinuses Slide 19 Vomer, Nasal Bone, and Inferior Turbinate (Concha) Slide4 Paranasal Sinus Imaging Slide 20 Lacrimal and Palatine Bones Slide 5 Paranasal Sinus Imaging (Sagittal Section) Slide 21 Zygomatic Bone Slide 6 Skull Sutures Slide 22 Frontal Bone Slide 7 Foramen RevieW Slide 23 Mandible Slide 8 Skull Subdivisions Slide 24 Maxilla Slide 9 Sphenoid Bone Slide 10 Skull Subdivisions: Viscerocranium Slide 25 Temporal Bone Slide 11 Skull Subdivisions: Neurocranium Slide 26 Temporal Bone (Continued) Slide 12 Cranial Base: Cranial Fossae Slide 27 Temporal Bone (Middle Ear Cavity and Facial Canal) Slide 13 Skull Development: Intramembranous vs Endochondral Slide 28 Occipital Bone Slide 14 Ossification Structures/Spaces Formed by More Than One Bone Slide 15 Intramembranous Ossification: Fontanelles Slide 29 Structures/Apertures Formed by More Than One Bone Slide 16 Intramembranous Ossification: Craniosynostosis Slide 30 Nasal Septum Slide 17 Endochondral Ossification Slide 31 Infratemporal Fossa & Pterygopalatine Fossa Slide 18 Achondroplasia and Skull Growth Slide 32 Ethmoid • Cribriform plate/foramina -
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. -
Sinonasal Tract and Nasopharyngeal Adenoid Cystic Carcinoma: a Clinicopathologic and Immunophenotypic Study of 86 Cases
Head and Neck Pathol DOI 10.1007/s12105-013-0487-3 ORIGINAL RESEARCH Sinonasal Tract and Nasopharyngeal Adenoid Cystic Carcinoma: A Clinicopathologic and Immunophenotypic Study of 86 Cases Lester D. R. Thompson • Carla Penner • Ngoc J. Ho • Robert D. Foss • Markku Miettinen • Jacqueline A. Wieneke • Christopher A. Moskaluk • Edward B. Stelow Received: 14 July 2013 / Accepted: 23 August 2013 Ó Springer Science+Business Media New York (outside the USA) 2013 Abstract ‘Primary sinonasal tract and nasopharyngeal (n = 44), with a mean size of 3.7 cm. Patients presented adenoid cystic carcinomas (STACC) are uncommon equally between low and high stage disease: stage I and II tumors that are frequently misclassified, resulting in inap- (n = 42) or stage III and IV (n = 44) disease. Histologi- propriate clinical management. Eighty-six cases of STACC cally, the tumors were invasive (bone: n = 66; neural: included 45 females and 41 males, aged 12–91 years (mean n = 47; lymphovascular: n = 33), composed of a variety 54.4 years). Patients presented most frequently with of growth patterns, including cribriform (n = 33), tubular obstructive symptoms (n = 54), followed by epistaxis (n = 16), and solid (n = 9), although frequently a com- (n = 23), auditory symptoms (n = 12), nerve symptoms bination of these patterns was seen within a single tumor. (n = 11), nasal discharge (n = 11), and/or visual symp- Pleomorphism was mild with an intermediate N:C ratio in toms (n = 10), present for a mean of 18.2 months. The cells containing hyperchromatic nuclei. Reduplicated tumors involved the nasal cavity alone (n = 25), naso- basement membrane and glycosaminoglycan material was pharynx alone (n = 13), maxillary sinus alone (n = 4), or commonly seen. -
NASAL CAVITY and PARANASAL SINUSES, PTERYGOPALATINE FOSSA, and ORAL CAVITY (Grant's Dissector [16Th Ed.] Pp
NASAL CAVITY AND PARANASAL SINUSES, PTERYGOPALATINE FOSSA, AND ORAL CAVITY (Grant's Dissector [16th Ed.] pp. 290-294, 300-303) TODAY’S GOALS (Nasal Cavity and Paranasal Sinuses): 1. Identify the boundaries of the nasal cavity 2. Identify the 3 principal structural components of the nasal septum 3. Identify the conchae, meatuses, and openings of the paranasal sinuses and nasolacrimal duct 4. Identify the openings of the auditory tube and sphenopalatine foramen and the nerve and blood supply to the nasal cavity, palatine tonsil, and soft palate 5. Identify the pterygopalatine fossa, the location of the pterygopalatine ganglion, and understand the distribution of terminal branches of the maxillary artery and nerve to their target areas DISSECTION NOTES: General comments: The nasal cavity is divided into right and left cavities by the nasal septum. The nostril or naris is the entrance to each nasal cavity and each nasal cavity communicates posteriorly with the nasopharynx through a choana or posterior nasal aperture. The roof of the nasal cavity is narrow and is represented by the nasal bone, cribriform plate of the ethmoid, and a portion of the sphenoid. The floor is the hard palate (consisting of the palatine processes of the maxilla and the horizontal portion of the palatine bone). The medial wall is represented by the nasal septum (Dissector p. 292, Fig. 7.69) and the lateral wall consists of the maxilla, lacrimal bone, portions of the ethmoid bone, the inferior nasal concha, and the perpendicular plate of the palatine bone (Dissector p. 291, Fig. 7.67). The conchae, or turbinates, are recognized as “scroll-like” extensions from the lateral wall and increase the surface area over which air travels through the nasal cavity (Dissector p. -
Splanchnocranium
splanchnocranium - Consists of part of skull that is derived from branchial arches - The facial bones are the bones of the anterior and lower human skull Bones Ethmoid bone Inferior nasal concha Lacrimal bone Maxilla Nasal bone Palatine bone Vomer Zygomatic bone Mandible Ethmoid bone The ethmoid is a single bone, which makes a significant contribution to the middle third of the face. It is located between the lateral wall of the nose and the medial wall of the orbit and forms parts of the nasal septum, roof and lateral wall of the nose, and a considerable part of the medial wall of the orbital cavity. In addition, the ethmoid makes a small contribution to the floor of the anterior cranial fossa. The ethmoid bone can be divided into four parts, the perpendicular plate, the cribriform plate and two ethmoidal labyrinths. Important landmarks include: • Perpendicular plate • Cribriform plate • Crista galli. • Ala. • Ethmoid labyrinths • Medial (nasal) surface. • Orbital plate. • Superior nasal concha. • Middle nasal concha. • Anterior ethmoidal air cells. • Middle ethmoidal air cells. • Posterior ethmoidal air cells. Attachments The falx cerebri (slide) attaches to the posterior border of the crista galli. lamina cribrosa 1 crista galli 2 lamina perpendicularis 3 labyrinthi ethmoidales 4 cellulae ethmoidales anteriores et posteriores 5 lamina orbitalis 6 concha nasalis media 7 processus uncinatus 8 Inferior nasal concha Each inferior nasal concha consists of a curved plate of bone attached to the lateral wall of the nasal cavity. Each consists of inferior and superior borders, medial and lateral surfaces, and anterior and posterior ends. The superior border serves to attach the bone to the lateral wall of the nose, articulating with four different bones.