Presence of an intraocular lens after cataract extraction.
Absence of crystalline lens totally or partially from field of vision, from any cause except after cataract extraction. Aphakia is mainly congenital or as result of LENS DISLOCATION AND SUBLUXATION.
Absence of the crystalline lens resulting from cataract extraction.
Artificial implanted lenses.
Partial or complete opacity on or in the lens or capsule of one or both eyes, impairing vision or causing blindness. The many kinds of cataract are classified by their morphology (size, shape, location) or etiology (cause and time of occurrence). (Dorland, 27th ed)
Clarity or sharpness of OCULAR VISION or the ability of the eye to see fine details. Visual acuity depends on the functions of RETINA, neuronal transmission, and the interpretative ability of the brain. Normal visual acuity is expressed as 20/20 indicating that one can see at 20 feet what should normally be seen at that distance. Visual acuity can also be influenced by brightness, color, and contrast.

Intraocular lenses in children: changes in axial length, corneal curvature, and refraction. (1/105)

AIM: To assess changes in axial length, corneal curvature, and refraction in paediatric pseudophakia. METHODS: 35 eyes of 24 patients with congenital or developmental lens opacities underwent extracapsular cataract extraction and posterior chamber intraocular lens implantation. Serial measurements were made of axial length, corneal curvature, objective refraction, and visual acuity. RESULTS: For patients with congenital cataracts (onset < 1 year age) the mean age at surgery was 24 weeks. Over the mean follow up period of 2.7 years, the mean increase in axial length of 3.41 mm was not significantly different from the value of an expected mean growth of 3.44 mm (paired t test, p = 0.97) after correction for gestational age. In the developmental cataract group (onset > 1 year of age) the mean age at surgery was 6.4 years with a mean follow up of 2.86 years. This group showed a mean growth in axial length of 0.36 mm that was not significantly different from an expected value of 0.47 mm (paired t test, p = 0.63). The mean preoperative keratometry was 47.78 D in the congenital group and 44.35 D in the developmental group. At final follow up the mean keratometry in the congenital group was 46.15 D and in the developmental group it was 43.63 D. In eyes followed for at least 2 years, there was an observed myopic shift by 24 months postoperatively of 3.26 D in the congenital cases (n = 10) and 0.96 D in the developmental cases (n = 18). CONCLUSION: The pattern of axial elongation and corneal flattening was similar in the congenital and developmental groups to that observed in normal eyes. No significant retardation or acceleration of axial growth was found in the eyes implanted with IOLs compared with normal eyes. A myopic shift was seen particularly in eyes operated on at 4-8 weeks of age and it is recommended that these eyes are made 6 D hypermetropic initially with the residual refractive error being corrected with spectacles.  (+info)

Diabetic versus non-diabetic colour vision after cataract surgery. (2/105)

AIMS: To examine whether the colour vision abnormalities found in phakic patients with diabetes mellitus is preserved after removal of the lens by cataract surgery. METHODS: 21 diabetic (16 IDDM and five NIDDM) and 19 non-diabetic patients of comparable age, postoperative visual acuity, and sex distribution, all aphakic or pseudophakic following cataract surgery, had their monocular colour vision examined using the Farnsworth-Munsell 100 hue test. The fundus status of the diabetic patients ranged from no retinopathy to photocoagulation treated proliferative diabetic retinopathy. Patients with macular oedema were specifically excluded from the study. RESULTS: The error scores of both the diabetic (mean 146 (SD 94)) and the non-diabetic patients (83 (79)) did not deviate significantly from the age related normal range. The error score in the diabetic group was significantly higher than in the non-diabetic group (p=0.02) but the amplitude of the difference was small in comparison with previous studies of phakic subjects. The error scores in the diabetic group were not correlated with the degree of retinopathy (p>0.2). CONCLUSION: After cataract surgery only a minor difference exists between the colour vision scores of diabetic and non-diabetic patients. This indicates that accelerated yellowing of the lens in diabetes is the predominant cause of the colour vision anomaly found in phakic diabetic patients.  (+info)

Retroillumination versus reflected-light images in the photographic assessment of posterior capsule opacification. (3/105)

PURPOSE: To investigate the relative merit of retroillumination and of reflected light slit-lamp-derived photographs in the assessment of the opacification of the posterior lens capsule. METHODS: Retroillumination and slit-lamp-derived reflected-light photographs were taken on 23 consecutive eyes with posterior capsule opacification (PCO) in uncomplicated pseudophakia. Subjective grading was performed on both types of photographs to evaluate the extent and density of posterior capsular opacification. Best-corrected visual acuity (BCVA) before and after YAG laser capsulotomy was used to assess the impact of capsular opacification on visual function. RESULTS: After capsulotomy all patients attained a BCVA > or = 46 letters (> or =20/32) with a mean increase of 25 letters, indicating that PCO was the cause of visual impairment in these patients. The relative capacity of retroillumination and of reflected-light photographs to adequately capture the extent and the severity of posterior capsule opacification varied considerably. Reflected-light images, in addition to frequently producing higher severity scores for the opacity than retroillumination photographs, in 4 of 23 eyes (17.4%) proved to be the only technique able to document the presence of PCO. CONCLUSIONS: Our results indicate that, with respect to retroillumination images, reflected-light photography has an increased ability to adequately capture the presence and the severity of PCO and that the use of only retroillumination images may lead to its underestimation. This may be relevant to clinical studies aiming to evaluate incidence and progression of this condition.  (+info)

Is pseudophakic astigmatism a desirable goal? (4/105)

PURPOSE: To determine whether pseudophakic astigmatism is a desirable goal, and if so, which one is better: against-the-rule (ATR) or with-the-rule (WTR). METHOD: Eyes were included only if they had an uncorrected vision > or = 6/18 and N/18. Three groups, of 40 patients each were evaluated: group 1, pseudophakes with neutral astigmatism; group 2, with ATR and group 3, with WTR astigmatism Unaided distance and near visual acuity was recorded. Statistical analysis was performed using the chi-square test for independence. RESULTS: Unaided distance vision of > or = 6/7.5 was achieved in 19 eyes (47.5%) of group 1 (neutral), 12 eyes (30%) in group 2 (ATR), and 5 eyes (12.5%) in group 3 (WTR) (p = 0.0133, significant). Unaided near vision of > or = N/9 was achieved in 17 eyes (42.5%) in group 1 (neutral), 34 eyes (85%) in group 2 (ATR), and 10 eyes (25%) in group 3 (WTR) (P < 0.001, significant). Group 1 (neutral) fared the best for unaided distance visual acuity. Group 2 (ATR) was better than in group 3 (WTR) for distant vision. Group 2 (ATR) fared the best for unaided near vision. CONCLUSION: ATR astigmatism could be a desirable goal after cataract extraction in selected populations because the largest proportion of these cases achieved good unaided near vision with acceptable distant vision.  (+info)

Phakic-pseudophakic bullous keratopathy following implantation of a posterior chamber IOL in the anterior chamber to correct hypermetropia. (5/105)

There is an increasing demand for refractive surgery stemming from a heightened awareness among patients wearing spectacles or contact lenses. Cosmetic or occupational reasons prompt patients to seek the alternative option of refractive surgery.  (+info)

Primary rhegmatogenous retinal detachment: 20 years of change. (6/105)

AIM: To compare characteristics, management, and outcome of two groups of patients with primary rhegmatogenous retinal detachment (RRD) presenting to the same vitreoretinal unit approximately 20 years apart. METHODS: 124 patients in 1979-80 and 126 cases in 1999 were compared. RESULTS: More cases were pseudophakic and fewer aphakic in 1999 than 1979-80. More cases of giant retinal tear and fewer dialyses were operated on in 1999. Vitrectomy was a primary procedure in 63% of cases in 1999 but only 1% in 1979-80. Anatomical success rates were statistically similar: 79.8% primary and 88.8% final success in 1979-80, and 84% primary and 93.6% final success in 1999. CONCLUSION: Surgical management of primary RRD has changed greatly in 20 years. Success rates have changed little, despite availability of differing surgical techniques.  (+info)

The shape of the aging human lens: curvature, equivalent refractive index and the lens paradox. (7/105)

Scheimpflug slit images of the crystalline lens are distorted due to the refracting properties of the cornea and because they are obliquely viewed. We measured the aspheric curvature of the lens of 102 subjects ranging in age between 16 and 65 years and applied correction for these distortions. The procedure was validated by measuring an artificial eye and pseudophakic patients with intraocular lenses of known dimensions. Compared to previous studies using Scheimpflug photography, the decrease of the radius of the anterior lens surface with age was smaller, and the absolute value for the radius of the anterior and posterior lens surface was significantly smaller. A slight decrease of the posterior lens radius with age could be demonstrated. Generally, front and back surfaces were hyperbolic. Axial length was measured of 42 subjects enabling calculation of the equivalent refractive index of the lens, which showed a small, but highly significant decrease with age. These new findings explain the lens paradox and may serve as a basis for modelling the refractive properties of the lens.  (+info)

Cataract in leprosy patients: cataract surgical coverage, barriers to acceptance of surgery, and outcome of surgery in a population based survey in Korea. (8/105)

BACKGROUND/AIMS: Cataract is the leading cause of blindness in leprosy patients. There is no population based information on the cataract surgical coverage, barriers to use of surgical services, and outcome of surgery in these patients. We sought to determine these measures of cataract programme effectiveness in a cured leprosy population in South Korea. METHODS: The population consisted of residents of six leprosy resettlement villages in central South Korea. All residents were invited to participate in a study of eye disease and interviewed regarding use of surgical services and reasons for not using these services. RESULTS: The cataract surgical coverage in this population was 55.4% when <6/18 was used as the cut off and increased to 78.3% when the cut off was <6/60. Barriers reported by patients included being told by the doctor that the cataract was not mature and a perception by the patient that there was no need for surgery. Among patients who had aphakic surgery, 71% were still blind in the operative eye while among patients who had pseudophakic surgery, 14% were still blind (presenting vision). Blindness in pseudophakic patients could be reduced to 3% with spectacle correction. CONCLUSION: Cataract prevalence in leprosy patients will increase as life expectancy continues to increase. Leprosy control programmes will need to develop activities aimed at reducing the burden of cataract. Recommendations include establishing collaborative agreements with ophthalmological services to provide high quality IOL surgery to these patients, training of health staff to identify and refer patients in need of surgery, monitoring the uptake of cataract surgery among patients needing services, and monitoring the outcome of surgery to improve refractive outcome.  (+info)

Pseudophakia is considered a rare condition, as most cataract surgeries involve removal of the entire natural lens. However, there are certain situations where leaving behind some residual lens material can be beneficial, such as in cases where the patient has severe astigmatism or presbyopia (age-related loss of near vision).

The presence of pseudophakia can affect the visual outcome and refractive status of the eye, and may require additional surgical intervention to optimize visual acuity. It is important for ophthalmologists to be aware of this condition and consider it when evaluating patients with cataracts or other eye conditions.

Definition: Aphakia is a congenital or acquired condition characterized by the absence of the crystalline lens in one or both eyes. It can be classified into different types based on the severity and location of the defect.

Types of Aphakia:

1. Microphthalmia: This type of aphakia is characterized by a small eye that may or may not have a lens.
2. Anophthalmia: This is the most severe form of aphakia where one or both eyes are completely absent.
3. Coloboma: This type of aphakia is characterized by a hole in one of the structures of the eye, such as the iris or retina.

Causes: Aphakia can be caused by genetic mutations, acquired injuries, or infections during pregnancy or childhood. Some of the known causes of aphakia include:

1. Genetic disorders: Certain genetic conditions, such as Turner syndrome, can increase the risk of developing aphakia.
2. Infections: Infections such as rubella or toxoplasmosis during pregnancy can increase the risk of aphakia in the developing fetus.
3. Trauma: Injuries to the eye or head can cause aphakia, especially if they occur during childhood.
4. Tumors: Certain tumors, such as retinoblastoma, can cause aphakia if left untreated.

Symptoms: The symptoms of aphakia can vary depending on the severity of the condition and the age of onset. Some common symptoms include:

1. Blindness or vision loss in one or both eyes
2. Abnormal head positioning or posture
3. Difficulty with depth perception
4. Squinting or tilting the head to see objects clearly
5. Increased sensitivity to light
6. Lazy eye (amblyopia)
7. Poor pupillary reflex
8. Abnormal retinal development
9. Increased risk of other ocular abnormalities, such as cataracts or glaucoma

Diagnosis: Aphakia can be diagnosed through a comprehensive eye exam, including a visual acuity test, refraction test, and ophthalmoscopy. Imaging tests, such as ultrasound or MRI, may also be used to evaluate the structure of the eye and detect any underlying conditions.

Treatment: The treatment for aphakia depends on the severity of the condition and the age of onset. Some possible treatments include:

1. Glasses or contact lenses: To correct refractive errors and improve vision.
2. Patching: To strengthen the weaker eye and improve amblyopia.
3. Atropine therapy: To reduce the amount of accommodation and improve alignment of the eyes.
4. Orthoptic exercises: To improve eye movement and alignment.
5. Surgery: To correct refractive errors, align the eyes properly, or remove any cataracts or other ocular abnormalities.
6. Prosthetic implantation: In some cases, a prosthetic eye may be recommended to restore the natural appearance of the eye and improve vision.

Prognosis: The prognosis for aphakia varies depending on the severity of the condition and the age of onset. In general, early diagnosis and treatment can improve the chances of successful management and a good visual outcome. However, some individuals with aphakia may experience long-term vision loss or other complications, such as amblyopia or glaucoma. Regular follow-up with an eye care professional is important to monitor the condition and adjust treatment as needed.

Synonyms for Aphakia, postcataract include:

* Postoperative aphakia
* Postcataract aphakia
* Aphakic vision loss
* Blindness following cataract surgery

Causes and risk factors for Aphakia, postcataract:

* Cataract surgery: The most common cause of aphakia, postcataract is complications from cataract surgery. During the procedure, the natural lens of the eye may be damaged or removed accidentally.
* Infection: Infections after cataract surgery can cause inflammation and damage to the eye, leading to aphakia.
* Vitreous loss: During cataract surgery, the vitreous gel in the eye may be disturbed or lost, leading to vision loss.

Symptoms of Aphakia, postcataract:

* Blindness or vision loss
* Difficulty seeing objects clearly
* Double vision or ghosting
* Sensitivity to light
* Reduced peripheral vision

Diagnosis and treatment of Aphakia, postcataract:

* Comprehensive eye exam: An ophthalmologist will perform a comprehensive eye exam to determine the cause of the aphakia and assess the extent of vision loss.
* Visual acuity testing: The ophthalmologist will perform visual acuity tests to measure the patient's ability to see objects clearly.
* Retinal imaging: Imaging tests such as ultrasound or MRI may be used to evaluate the retina and diagnose any underlying conditions.
* Glasses or contact lenses: In some cases, glasses or contact lenses may be prescribed to improve vision.
* Intracorneal implant: An intracorneal implant may be recommended to improve vision in cases where the natural lens has been removed and there is no cataract present.
* Corneal transplant: In severe cases of aphakia, a corneal transplant may be necessary to restore vision.

Prevention of Aphakia, postcataract:

* Early detection and treatment of cataracts: Regular eye exams can help detect cataracts early, which can improve the chances of preserving vision and avoiding aphakia.
* Proper follow-up care after cataract surgery: Patients who have undergone cataract surgery should follow their postoperative instructions carefully and attend follow-up appointments to ensure that any complications are detected and treated promptly.
* Preventing eye injuries: Protective eyewear can help prevent eye injuries, which can lead to aphakia.

Prognosis of Aphakia, postcataract:
The prognosis for aphakia after cataract surgery is generally good if the condition is detected and treated promptly. With appropriate treatment, many patients can regain some or all of their vision. However, in severe cases or those with complications, the prognosis may be poorer.

It's important to note that aphakia is a rare complication of cataract surgery, and the vast majority of patients who undergo the procedure do not experience this condition. If you have undergone cataract surgery and are experiencing any unusual symptoms, it is important to seek medical attention promptly to ensure proper diagnosis and treatment.

There are different types of cataracts, including:

1. Nuclear cataract: This is the most common type of cataract and affects the center of the lens.
2. Cortical cataract: This type of cataract affects the outer layer of the lens and can cause a "halo" effect around lights.
3. Posterior subcapsular cataract: This type of cataract affects the back of the lens and is more common in younger people and those with diabetes.
4. Congenital cataract: This type of cataract is present at birth and can be caused by genetic factors or other conditions.

Symptoms of cataracts can include:

* Blurred vision
* Double vision
* Sensitivity to light
* Glare
* Difficulty seeing at night
* Fading or yellowing of colors

Cataracts can be diagnosed with a comprehensive eye exam, which includes a visual acuity test, dilated eye exam, and imaging tests such as ultrasound or optical coherence tomography (OCT).

Treatment for cataracts typically involves surgery to remove the clouded lens and replace it with an artificial one called an intraocular lens (IOL). The type of IOL used will depend on the patient's age, visual needs, and other factors. In some cases, cataracts may be removed using a laser-assisted procedure.

In addition to surgery, there are also non-surgical treatments for cataracts, such as glasses or contact lenses, which can help improve vision. However, these treatments do not cure the underlying condition and are only temporary solutions.

It's important to note that cataracts are a common age-related condition and can affect anyone over the age of 40. Therefore, it's important to have regular eye exams to monitor for any changes in vision and to detect cataracts early on.

In summary, cataracts are a clouding of the lens in the eye that can cause blurred vision, double vision, sensitivity to light, and other symptoms. Treatment typically involves surgery to remove the clouded lens and replace it with an artificial one, but non-surgical treatments such as glasses or contact lenses may also be used. Regular eye exams are important for detecting cataracts early on and monitoring vision health.

His textbook Pseudophakia: Current Trends and Concepts; published in 1980, was one of the first formal textbooks on the ... Kwitko was author of six books, including Glaucoma in Infants and Children; Pseudophakia: Current Trends and Concepts; Surgery ... ISBN 0-390-53034-4. Kwitko, Marvin; Praeger, Donald L (1980). Pseudophakia: Current Trends and Concepts. New York: Wms. & ...
Mandal AK, Netland PA (2004). "Glaucoma in aphakia and pseudophakia after congenital cataract surgery". Indian J Ophthalmol. 52 ...
Replacement of the lens as treatment for cataract can cause pseudophakic macular edema ('pseudophakia' means 'replacement lens ...
Pseudophakia is the substitution of the natural crystalline lens with an IOL, as is often done after cataract extraction or to ...
pseudophakia' means 'replacement lens') also known as Irvine-Gass syndrome The surgery involved sometimes irritates the retina ...
Prevalence of cataract and pseudophakia/aphakia among adults in the United States. Arch Ophthalmol 2004;122:487-94. ...
Pseudophakia / diagnosis Actions. * Search in PubMed * Search in MeSH * Add to Search ...
7. [Corneal edema in pseudophakia. A case report].. DHermies F; Ellies P; Meyer A; Dighiero P; Legeais JM; Hannah K; Morel X; ...
Myopia, aphakia or pseudophakia, familial conditions, and inflammation are among the common causes. In other cases, retinal ...
Monovision pseudophakia. J Cataract Refract Surg 2002;28:1439-43. doi:10.1016/S0886-3350(02)01218-X. ... preserve future options for presbyopic correction and may be used in pseudophakia and/or combined with LVC.34 In addition, they ...
Clinical evaluation of automated refraction in anterior chamber pseudophakia.. P Sunder Raj, J R Villada, K Myint, A E Lewis, T ...
Macular edema, including cystoid macular edema, has been reported during clinical trials in patients with pseudophakia ...
... pseudophakia (ie, cataract removal with lens implant), and trauma. Approximately 40-50% of all patients with detachments have ...
Pseudophakia Preferred Concept UI. M0029093. Scope Note. Presence of an intraocular lens after cataract extraction.. Terms. ... Pseudophakia Preferred Term Term UI T058308. Date01/01/1999. LexicalTag NON. ThesaurusID NLM (1998). ... Pseudophakia. Tree Number(s). C23.888.681. Unique ID. D019591. RDF Unique Identifier. http://id.nlm.nih.gov/mesh/D019591 ...
Trabeculectomy with or without mitomycin-C for paediatric glaucoma in aphakia and pseudophakia following congenital cataract ...
No adjustment for glasses or contacts shall be made in cases of aphakia or pseudophakia where the central visual efficiency was ... 6) For traumatic pseudophakia, the corrected central visual acuity efficiency of the eye is 80 percent of the central visual ...
ICD-10 code H59.35 for Postprocedural seroma of eye and adnexa following an ophthalmic procedure is a medical classification as listed by WHO under th
... laser posterior capsulotomy in pseudophakia is not contraindicated if the intraocular lens fully covers the posterior capsule ...
Aphakia or pseudo-phakia was noted in 216 (18.5%) eyes of those who had been successfully managed for TT (mean age 63.3 years ...
Blood-aqueous barrier changes after the use of prostaglandin analogues in patients with pseudophakia and aphakia: a 6-month ... Blood-aqueous barrier changes after the use of prostaglandin analogues in patients with pseudophakia and aphakia: a 6-month ... and travoprost use may lead to disruption of the blood-aqueous barrier in patients with pseudophakia and aphakia.[1]. ...
RESULTS: Only 1 case of glaucoma was found among 377 eyes with primary pseudophakia (mean age of patient, 5.1 +/- 4.7 years; ...
Pseudophakia - Preferred Concept UI. M0029093. Scope note. Presence of an intraocular lens after cataract extraction. ...
Pseudophakia Preferred Concept UI. M0029093. Scope Note. Presence of an intraocular lens after cataract extraction.. Terms. ... Pseudophakia Preferred Term Term UI T058308. Date01/01/1999. LexicalTag NON. ThesaurusID NLM (1998). ... Pseudophakia. Tree Number(s). C23.888.681. Unique ID. D019591. RDF Unique Identifier. http://id.nlm.nih.gov/mesh/D019591 ...
Pseudophakia (HR, 1.76; 95% CI, 1.07-2.90; P = .03) and prior PPV (HR, 3.28; 95% CI, 1.77-6.07; P < .001) were significant ...
... yes pseudophakia,noun,E0050811,pseudophakic,adj,E0050812,yes antihyperalgesia,noun,E0610203,antihyperalgesic,adj,E0585022,yes ...
Preservation of the posterior capsule remains appropriate for older children with pseudophakia. ... Preservation of the posterior capsule remains appropriate for older children with pseudophakia.", ... Preservation of the posterior capsule remains appropriate for older children with pseudophakia. ... Preservation of the posterior capsule remains appropriate for older children with pseudophakia. ...
... pseudophakia, and nuclear sclerosis. However, for purposes of description, the IOL embodiments of the present disclosure are ...
Waiting for pseudophakia: an insiders view of cataract surgery April 28, 2023 Naomi Meltzer ...
pseudophakia. A condition in which a cataractous lens has been removed and replaced with a plastic lens implant ...
Key words: Presbyopia; Pseudophakia; Carbachol; Brimonidine; Depth of focus; Miosis © 2018 The Author(s). Published by ACT ... Outcomes of small aperture corneal inlay implantation in patients with pseudophakia. J Refract Surg. 2014; 30(2): 110-6.[DOI: ...
Pseudophakia OU. * ERM OU. * Lamellar macular hole OS. * Myopia and presbyopia. Past Medical History. *Myotonic dystrophy (type ...
Aphakia or pseudophakia 8 (36.4) 10 (41.7) 7 (38.9) 10 (31.3) No. of past intraocular surgeries, mean ± SD 0.8 ± 0.9 0.7 ± 0.7 ...
  • 14. Trabeculectomy with or without mitomycin-C for paediatric glaucoma in aphakia and pseudophakia following congenital cataract surgery. (nih.gov)
  • Glaucoma-related AEs incidence rate in a 5-year period was 29% (95% CI, 25%-35%) in 443 eyes with aphakia and 7% (95% CI, 5%-9%) in 606 eyes with pseudophakia. (ophthalmologybreakingnews.com)
  • Her ocular history was notable for indiscriminate trauma to her left eye, primary open-angle glaucoma in both eyes treated with dorzolamide hydrochloride and brimonidine tartrate, and pseudophakia in both eyes. (jamanetwork.com)
  • Preservation of the posterior capsule remains appropriate for older children with pseudophakia. (northwestern.edu)
  • Clinical evaluation of automated refraction in anterior chamber pseudophakia. (nih.gov)
  • WHO) has expressed its commitment The study population was Omani (based on recognizing single optotype to the elimination of blinding trachoma people aged 40+ years in these en- `E' at 3 m distance) using a pinhole was by the year 2020 [1]. (who.int)
  • Pseudophakia includes diagnosis codes indicating the presence of intraocular lens or aphakia. (cdc.gov)
  • Glaucoma associated with aphakia, but particularly pseudophakia, are important considerations given the more than 1.25 million cataract surgeries performed each year. (medscape.com)
  • Note that treated and untreated cataract summary states rely on the presence of diagnosis codes for pseudophakia to identify treated cataract, which may not always be included in claims. (cdc.gov)
  • Treated cataract includes diagnosed cataract at any stage AND diagnosed pseudophakia. (cdc.gov)