What Do They See & How Do We Know?
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Effects of Nd:YAG Laser Capsulotomy in Posterior Capsular Opacification
Original Research Article Effects of Nd:YAG laser capsulotomy in posterior capsular opacification Praveen Kumar G S1, Lavanya P2*, Raviprakash D3 1Assistant Professor, 2Associate Professor, 3Professor & HOD, Department of Ophthalmology, Shridevi institute of Medical Sciences and Research Hospital, Sira Road, NH-4 Bypass Road, Tumkur- 572106, INDIA. Email: [email protected] Abstract Background: Posterior capsular opacification (PCO) is the most common long-term complication of cataract surgery in both phacoemulsification and extracapsular cataract extraction (ECCE). The overall incidence of PCO and the incidence of neodymium-doped yttrium–aluminum–garnet (Nd:YAG) laser posterior capsulotomy has decreased from 50% in the 1980s and early 1990s to less than 10% today. Reported complications of Nd:YAG laser posterior capsulotomy include elevated intraocular pressure, iritis, corneal damage, intraocular lens (IOL) damage, cystoids macular edema, disruption of the anterior hyaloid surface, increased risk of retinal detachment, and IOL movement or dislocation. In some patients, a refraction change is noticed after Nd:YAG laser posterior capsulotomy, but proving this remains difficult. Materials and Methods: Nd; YAG LASER capsulotomy was performed in 200 eyes of 200 patients, some with pseudophakia and some with aphakia at Kurnool medical college, Kurnool. They were followed up between October 2008 and September 2010. Results: Elevation of IOP has been well documented after anterior segment laser procedures. The IOP rise after YAG laser posterior capsulotomy is of short duration starting about 1 hr after laser procedure and lasting for 24 hrs. In this study, in 1case IOP came down to normal level after 3 days and in another case after 7 days. -
Eye Abnormalities Present at Birth
Customer Name, Street Address, City, State, Zip code Phone number, Alt. phone number, Fax number, e-mail address, web site Eye Abnormalities Present at Birth Basics OVERVIEW • Single or multiple abnormalities that affect the eyeball (known as the “globe”) or the tissues surrounding the eye (known as “adnexa,” such as eyelids, third eyelid, and tear glands) observed in young dogs and cats at birth or within the first 6–8 weeks of life • Congenital refers to “present at birth”; congenital abnormalities may be genetic or may be caused by a problem during development of the puppy or kitten prior to birth or during birth • The “cornea” is the clear outer layer of the front of the eye; the pupil is the circular or elliptical opening in the center of the iris of the eye; light passes through the pupil to reach the back part of the eye (known as the “retina”); the iris is the colored or pigmented part of the eye—it can be brown, blue, green, or a mixture of colors; the “lens” is the normally clear structure directly behind the iris that focuses light as it moves toward the back part of the eye (retina); the “retina” contains the light-sensitive rods and cones and other cells that convert images into signals and send messages to the brain, to allow for vision GENETICS • Known, suspected, or unknown mode of inheritance for several congenital (present at birth) eye abnormalities • Remaining strands of iris tissue (the colored or pigmented part of the eye) that may extend from one part of the iris to another or from the iris to the lining of the -
Ophthalmology Abbreviations Alphabetical
COMMON OPHTHALMOLOGY ABBREVIATIONS Listed as one of America’s Illinois Eye and Ear Infi rmary Best Hospitals for Ophthalmology UIC Department of Ophthalmology & Visual Sciences by U.S.News & World Report Commonly Used Ophthalmology Abbreviations Alphabetical A POCKET GUIDE FOR RESIDENTS Compiled by: Bryan Kim, MD COMMON OPHTHALMOLOGY ABBREVIATIONS A/C or AC anterior chamber Anterior chamber Dilators (red top); A1% atropine 1% education The Department of Ophthalmology accepts six residents Drops/Meds to its program each year, making it one of nation’s largest programs. We are anterior cortical changes/ ACC Lens: Diagnoses/findings also one of the most competitive with well over 600 applicants annually, of cataract whom 84 are granted interviews. Our selection standards are among the Glaucoma: Diagnoses/ highest. Our incoming residents graduated from prestigious medical schools ACG angle closure glaucoma including Brown, Northwestern, MIT, Cornell, University of Michigan, and findings University of Southern California. GPA’s are typically 4.0 and board scores anterior chamber intraocular ACIOL Lens are rarely lower than the 95th percentile. Most applicants have research lens experience. In recent years our residents have gone on to prestigious fellowships at UC Davis, University of Chicago, Northwestern, University amount of plus reading of Iowa, Oregon Health Sciences University, Bascom Palmer, Duke, UCSF, Add power (for bifocal/progres- Refraction Emory, Wilmer Eye Institute, and UCLA. Our tradition of excellence in sives) ophthalmologic education is reflected in the leadership positions held by anterior ischemic optic Nerve/Neuro: Diagno- AION our alumni, who serve as chairs of ophthalmology departments, the dean neuropathy ses/findings of a leading medical school, and the director of the National Eye Institute. -
Ranked by Temperament
Comparing Temperament and Breed temperament was determined using the American 114 DOG BREEDS Popularity in Dog Breeds in Temperament Test Society's (ATTS) cumulative test RANKED BY TEMPERAMENT the United States result data since 1977, and breed popularity was determined using the American Kennel Club's (AKC) 2018 ranking based on total breed registrations. Number Tested <201 201-400 401-600 601-800 801-1000 >1000 American Kennel Club 50% 60% 70% 80% 90% 1. Labrador 100% Popularity Passed 2. German Retriever Passed Shepherd 3. Mixed Breed 7. Beagle Dog 4. Golden Retriever More Popular 8. Poodle 11. Rottweiler 5. French Bulldog 6. Bulldog (Miniature)10. Poodle (Toy) 15. Dachshund (all varieties) 9. Poodle (Standard) 17. Siberian 16. Pembroke 13. Yorkshire 14. Boxer 18. Australian Terrier Husky Welsh Corgi Shepherd More Popular 12. German Shorthaired 21. Cavalier King Pointer Charles Spaniel 29. English 28. Brittany 20. Doberman Spaniel 22. Miniature Pinscher 19. Great Dane Springer Spaniel 24. Boston 27. Shetland Schnauzer Terrier Sheepdog NOTE: We excluded breeds that had fewer 25. Bernese 30. Pug Mountain Dog 33. English than 30 individual dogs tested. 23. Shih Tzu 38. Weimaraner 32. Cocker 35. Cane Corso Cocker Spaniel Spaniel 26. Pomeranian 31. Mastiff 36. Chihuahua 34. Vizsla 40. Basset Hound 37. Border Collie 41. Newfoundland 46. Bichon 39. Collie Frise 42. Rhodesian 44. Belgian 47. Akita Ridgeback Malinois 49. Bloodhound 48. Saint Bernard 45. Chesapeake 51. Bullmastiff Bay Retriever 43. West Highland White Terrier 50. Portuguese 54. Australian Water Dog Cattle Dog 56. Scottish 53. Papillon Terrier 52. Soft Coated 55. Dalmatian Wheaten Terrier 57. -
Study of Visual Outcome After Neodymium YAG Laser Therapy in Posterior Capsular Opacity
perim Ex en l & ta a l O ic p in l h t C h f a o l m l Journal of Clinical and Experimental a o n l r o g u y o J ISSN: 2155-9570 Ophthalmology Research article Study of Visual Outcome after Neodymium YAG Laser Therapy in Posterior Capsular Opacity Pawan N. Jarwal* Department of Ophthalmology, Jaipuriya Hospital, Jaipur, Rajasthan, India ABSTRACT Purpose: Posterior capsular opacification is the most common long term complication of modern IOL surgery. Neodymium YAG laser remains the cornerstone of its treatment .In this study, an attempt was made to study the visual outcome following Neodymium YAG laser capsulotomy Methods: This was a prospective study of 50 patients conducted in Hospital , attached to R.U.H.S.-CMS Medical College ,Jaipur. All patients aged 50 years and above, attending the regular OPD who presented with visually significant posterior capsular opacification were treated with Neodymium YAG laser capsulotomy. After capsulotomy, follow up was done 1 – 4 hour after Capsulotomy, day one, end of first week, end of first month and at the end of minimum 3 months. During follow-up the visual acuity Intra Ocular Pressure (IOP) and other relevant tests were conducted and appropriate intervention were made during the follow-up period. Results: In my study duration of onsetofsymptoms of Posteriorcapsularopacity (PCO) is more between 2-3 years period after surgery. Pearls type of is Posteriorcapsular opacity more when compared to fibrous type. Most of the patients treated for Posterior capsular opacity with Neodymium: YAG laser capsulotomy showed an improvement in visual acuity .There was no incidence of major complications in patients treated with procedure. -
Visual Impairment Care Needs of the Public Through Clinical Care, Research, and Education, All of Which Enhance the Quality of Life
OPTOMETRY: OPTOMETRIC CLINICAL THE PRIMARY EYE CARE PROFESSION PRACTICE GUIDELINE Doctors of optometry (ODs) are the primary health care professionals for the eye. Optometrists examine, diagnose, treat, and manage diseases, injuries, and disorders of the visual system, the eye, and associated structures as well as identify related systemic conditions affecting the eye. Optometrists provide more than two-thirds of the primary eye care services in the United States. They are more widely distributed geographically than other eye care providers and are readily accessible for the delivery of eye and vision care services. Approximately 37,000 full-time equivalent doctors of optometry practice in more than 7,0000 communities across the United States, serving as the sole primary eye care provider in more than 4,300 communities. Care of the Patient with The mission of the profession of optometry is to fulfill the vision and eye Visual Impairment care needs of the public through clinical care, research, and education, all of which enhance the quality of life. (Low Vision Rehabilitation) OPTOMETRIC CLINICAL PRACTICE GUIDELINE CARE OF THE PATIENT WITH VISUAL IMPAIRMENT (LOW VISION REHABILITATION) Reference Guide for Clinicians Prepared by the American Optometric Association Consensus Panel on Care of the Patient with Low Vision Kathleen Fraser Freeman, O.D., Principal Author Roy Gordon Cole, O.D. Eleanor E. Faye, M.D. Paul B. Freeman, O.D. Gregory L. Goodrich, Ph.D. Joan A. Stelmack, O.D. Reviewed by the AOA Clinical Guidelines Coordinating Committee: David A. Heath, O.D., Chair John F. Amos, O.D., M.S. Stephen C. Miller, O.D. -
IOC Mednick: Challenging Surgical Cases
Top 5 Pearls to Consider When Implanting Advanced Technology IOLs in Patients With Unusual Circumstances Zale D. Mednick, BA Guillermo Rocha, MD, FRCSC ’ Pearl #1: The Use of a Toric Multifocal Intraocular Lens (IOL) in the Management of Hyperopic Astigmatism Background The mainstay of treatment for those with hyperopic astigmatism who wish to bypass the need for glasses or contacts has traditionally been laser treatment. Both hyperopic laser in situ keratomileusis (LASIK) and photorefractive keratotomy (PRK) have been used to correct hyperopic astigmatism. Although LASIK can provide promising results for a portion of patients with hyperopic eyes, it becomes less effective when dealing with more exaggerated degrees of hyperopia. Refractive results are much more successful for low diopter (D) hyperopia, with a drop in efficacy starting at + 4.00 to + 5.00 D.1 Esquenazi and Mendoza2 reported that when LASIK is performed on eyes with >5.00 D of hyperopia, both the safety profile of the procedure and the refractive outcomes dramatically decline, coinciding with decreased corrected distance visual acuity (CDVA). Choi and Wilson3 echoed this notion, citing a 2-line drop in CDVA when LASIK was used to treat hyperopia of 5.00 to 8.75 D. This is in stark contrast to the results achieved by LASIK to improve myopia, where corrections are feasible for a far greater range of refractions. Part of the reason that hyperopia is less amenable to correction of higher diopter errors may owe to the fact that larger ablation zones are needed to achieve better refractive results.4 The optimal size of the ablation zone for hyperopic LASIK is >5.5 mm,1 and as such, more corneal alteration is required. -
Design and Methods in the Eye and Vision Consortium of UK Biobank
Open access Cohort profile BMJ Open: first published as 10.1136/bmjopen-2018-025077 on 21 February 2019. Downloaded from Cohort profile: design and methods in the eye and vision consortium of UK Biobank Sharon Yu Lin Chua,1 Dhanes Thomas,1 Naomi Allen,2 Andrew Lotery,3 Parul Desai,1 Praveen Patel,1 Zaynah Muthy,1 Cathie Sudlow,4 Tunde Peto,5 Peng Tee Khaw,1 Paul J Foster,1 UK Biobank Eye & Vision Consortium To cite: Chua SYL, Thomas D, ABSTRACT Strengths and limitations of this study Allen N, et al. Cohort profile: Purpose To describe the rationale, methods and research design and methods in the potential of eye and vision measures available in UK ► UK Biobank is the largest prospective cohort with eye and vision consortium Biobank. of UK Biobank. BMJ Open extensive measures on ophthalmic diseases and Participants UK Biobank is a large, multisite, prospective 2019;9:e025077. doi:10.1136/ conditions. cohort study. Extensive lifestyle and health questionnaires, bmjopen-2018-025077 ► Repeated physical measures every few years and a range of physical measures and collection of biological linkage to National Health Service records will pro- ► Prepublication history for specimens are collected. The scope of UK Biobank was vide valuable information on health outcomes. this paper is available online. extended midway through data collection to include ► A large number of incident cases of eye diseases in To view these files, please visit assessments of other measures of health, including eyes the journal online (http:// dx. doi. 5 years will allow the detection and quantification of and vision. -
Differences of Progressive Retinal Atrophy in Dogs
Swedish University of Agricultural Sciences Faculty of Veterinary Medicine and Animal Science Differences of Progressive Retinal Atrophy in dogs Lisen Ekroth Examensarbete / Swedish University of Agricultural Examensarbete, 15 hp Sciences, Department of Animal Breeding and Genetics – Bachelor Thesis (Literature study) 416 Agriculture programme Uppsala 2013 – Animal Science Swedish University of Agricultural Sciences Faculty of Veterinary Medicine and Animal Science Department of Animal Breeding and Genetics Differences of Progressive Retinal Atrophy in dogs Skillnader i progressiv retinal atrofi hos hund Lisen Ekroth Supervisor: Tomas Bergström, SLU, Department of Animal Breeding and Genetics Examiner: Stefan Marklund, SLU, Department of Clinical Sciences Credits: 15 hp Course title: Bachelor Thesis – Animal Science Course code: EX0553 Programme: Agriculture programme – Animal Science Level: Basic, G2E Place of publication: Uppsala Year of publication: 2013 Cover picture: Lisen Ekroth Name of series: Examensarbete 416 Department of Animal Breeding and Genetics, SLU On-line publication: http://epsilon.slu.se Key words: Atrophy, Retina, Dog, PRA Contents Sammanfattning ......................................................................................................................... 2 Abstract ...................................................................................................................................... 2 Introduction ............................................................................................................................... -
Diseases of the Vitreous, Retina and Optic Nerve
Diseases of the Vitreous, Retina and Optic Nerve University of Florida Normal dog fundic appearance tapetum- reflective area of the superior X fundus optic disk retinal vessels nontapetum Cat Dog Tapetal fundus color dependent on age, breed and coat color blue until 6 to 10 wks 4, 8, 13, 18 wks Tapetal fundus cellular layer of the choroid variable boundary with the nontapetum area centralis (cone rich) – visual streak: RGCs no melanin in tapetal RPE nontapetal color depends on the degree of RPE and iris pigmentation choroidal vessels (orange) may be visible Retinal vasculature usually 3 or 4 major venules – form a circle (not always complete) on the optic disk surface up to 20 arterioles – may be tortuous Optic disk variable amount of myelin pale pink in color physiological pit ± pigmented ring Normal fundic variations Cat – circular optic disk lacks myelin – 3 major venules leave the disk edge with 3 major arterioles – Tapetum is usually yellow or green in color Normal fundic variations horse – 30-60 small blood vessels extend a short distance from the disk edge – oval optic disk – Stars of Winslow – fibrous tapetum Vitreal opacities Vitreal degeneration from inflammation, trauma, senile changes may predispose to retinal detachment leukocytes hemorrhage – resolution over months asteroid hyalosis – calcium-lipid complexes Choroidal coloboma Equatorial staphyloma: Australian Shepherds Progressive Retinal Atrophy (PRA) in the dog inherited retinal photoreceptor dysplasia or degeneration PRA: progressive loss of night -
Retinal Dysplasia
Retinal Dysplasia Rhea V. Morgan, DVM, DACVIM (Small Animal), DACVO BASIC INFORMATION and leads to complete blindness. Occasionally, bleeding in the Description back of the eye or secondary glaucoma may occur with retinal Retinal dysplasia is abnormal development of the retina that detachment. results in retinal folds or round, medallion-shaped lesions in the Diagnostic Tests retina. If the retina is severely affected, it may detach, which results in blindness. Retinal dysplasia is present at birth, and, with Retinal dysplasia is diagnosed in most animals by examination of the exception of retinal detachment, the lesions do not change or the retina with an ophthalmoscope. Since the condition is present worsen with time. Usually, both eyes are affected. at birth or develops soon after birth, it can be seen as early as 6 Causes weeks of age in most animals. Retinal examination is facilitated In purebred dogs, the condition is often inherited. It occurs in by application of drops to dilate the pupils. It is common for entire numerous breeds, such as the American cocker spaniel, Labrador litters of puppies to be examined by a veterinary ophthalmologist retriever, golden retriever, Pembroke Welsh corgi, English springer at 6-7 weeks for retinal dysplasia and other inherited eye defects. spaniel, Akita, Rottweiler, Samoyed, Bedlington terrier, and oth- Examination at an early age helps to differentiate retinal dysplasia ers. Retinal dysplasia may occur alone, or it may be accompanied from retinal scars that may show up later in life. by other inherited ocular defects. Retinal dysplasia must be differentiated from normal folds in Retinal dysplasia can also be caused by certain neonatal infec- the retinas of growing animals. -
Stockdog Program Rules
Stockdog Program Rules ASCA® is a registered trademark for the Australian Shepherd Club of America. Copyright© 2021 The Australian Shepherd Club of America. All rights reserved. 6091 E. State Hwy 21, Bryan, TX 77808 | (979) 778-1082 | www.asca.org 2 These rules were last updated: • August 27, 2021, to remove the Finals prize and rosette cost table from Section 24.5 Awards. This table can be found in the National Specialty Rules. • August 2021, to replace Stockdog Judge Directory. • May 2021, to prepare for June 2021 edition. Shaded areas indicate rule changes with effective date listed. The following contents are clickable links that will take you directly to that section. CONTENTS: Chapter 1 Purpose and Objectives .............................................................................................................................................. 6 Chapter 2 The Sanctioned Trial .................................................................................................................................................... 6 Section 2.1 The Sanctioned Trial ............................................................................................................................................. 6 Section 2.2 Herding Breeds Other Than Australian Shepherds ............................................................................................... 7 Section 2.3 Sanctioning of Trials.............................................................................................................................................