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Lp-PLA2Laboratorijas rezultātu interpretācijaKardiovaskulārais risks

Elevated Lp-PLA2 can be associated with higher cardiovascular risk, but it cannot diagnose an artery blockage. The assay method, lipid profile and overall risk matter more than the flag alone.

Publicēts 18 minūšu lasīšana

Galvenie secinājumi

  • Elevated activity indicates increased enzyme activity in the laboratory assay—not the location, size or severity of an artery blockage.
  • PLAC activity cutoff is commonly 225 nmol/min/mL, but some laboratories use a different method with a cutoff around 123 nmol/min/mL.
  • Mass measurement reports enzyme concentration in ng/mL; a historical risk threshold around 200 ng/mL cannot be applied to an activity result.
  • Risk association was modest after adjustment in a 2010 analysis of 79,036 participants: coronary risk increased approximately 10%–11% per standard-deviation increase.
  • Ārstēšanas lēmumi should follow established cardiovascular indications; LDL-C of 190 mg/dL or higher warrants assessment independently of Lp-PLA2.
  • Enzyme inhibition did not significantly reduce the main cardiovascular outcome in the 15,828-participant STABILITY trial.
  • Papildu testēšana is useful only when it can change a clinical decision; routine Lp-PLA2 screening has not established better patient outcomes.
  • Steidzami simptomi override the laboratory result: new chest pressure or sudden stroke symptoms require emergency assessment, even with a low Lp-PLA2.

What does the Lp-PLA2 test actually measure?

The Lp-PLA2 test measures the amount or activity of a lipoprotein-associated enzyme linked to vascular inflammatory processes. A high result may accompany increased cardiovascular risk, but one elevated value cannot diagnose blocked arteries or justify medication; its usefulness depends on the assay and your established risk factors.

Lp-PLA2 test illustration showing the enzyme attached to an LDL particle near an arterial wall
Lp-PLA2 travels on lipoproteins and participates in oxidized lipid processing.

Lp-PLA2 stands for lipoprotein-associated phospholipase A2, an enzyme produced by inflammatory cells, including macrophages. Approximately 70%–80% of circulating Lp-PLA2 is associated with LDL particles, with much of the remainder carried on HDL; this connection explains why an elevated result needs to be read alongside LDL-C and other lipid measurements rather than treated as an independent artery examination.

The enzyme acts on certain oxidized phospholipids, producing lysophosphatidylcholine and oxidized fatty acids that can influence vascular tissue responses. However, a result such as 250 nmol/min/mL measures activity under laboratory conditions—not the rate of inflammation inside an individual coronary artery; circulating activity cannot show whether a particular plaque is stable, unstable or absent.

Kantesti ir AI asins analīžu analizators that helps place an Lp-PLA2 result alongside the units, lipid panel and reported laboratory limit, rather than interpreting a value such as 240 in isolation. Our organizācijas fons explains who we are; our guide to silent LDL-related risk explains why feeling well does not establish low cardiovascular risk.

Lp-PLA2 activity versus mass: why the units matter

An Lp-PLA2 activity test measures how quickly the enzyme breaks down a test substrate, usually in nmol/min/mL. An Lp-PLA2 mass test measures how much enzyme protein is present, usually in ng/ml; the two results describe different properties and cannot be converted using a universal formula.

Lp-PLA2 test comparison showing enzyme abundance beside a diagram of substrate processing
Mass measures protein abundance; activity measures substrate processing under assay conditions.

Mass and activity can disagree without either result being wrong. A hypothetical mass result of 190 ng/mL and activity result of 240 nmol/min/mL could receive different laboratory flags because protein abundance, catalytic behavior and lipoprotein carriage are not identical; the assay substrate and calibration also influence what the activity method detects.

Nosaukums PLAC does not remove this distinction: PLAC test results may refer to an activity assay or to an older mass-based measurement. If a report says only 230, ask for the test name, units and reference limit before accepting a risk label; comparing 230 ng/mL with a 225 nmol/min/mL threshold is a category error, not a borderline clinical judgment.

Lp-PLA2 activity also is not a measurement of the total quantity of oxidized LDL in circulation. A hypothetical oxidized-LDL result and an activity value of 230 nmol/min/mL may reflect related biology, but they do not measure the same analyte; our oxidized LDL interpretation guide explains why shared mechanisms do not make specialized lipid tests interchangeable.

What counts as high on PLAC test results?

A commonly used PLAC activity decision threshold is 225 nmol/min/mL, while some other laboratory activity methods use a limit around 123 nmol/min/mL. These are method-specific risk classification limits, not interchangeable definitions of normal physiology; the threshold printed on your own report takes priority.

Lp-PLA2 test workflow illustrating why an activity result must be matched to its assay
Interpretation requires matching the result to its own assay-specific decision limit.

A clinical decision limit is different from a universal healthy range. The commonly quoted 225 nmol/min/mL threshold separates risk categories for a particular activity assay; it does not identify the point where an artery becomes blocked, and there is no established Lp-PLA2 activity level that alone defines a medical emergency.

Consider a hypothetical result of 180 nmol/min/mL: it may be below the decision limit on one assay yet flagged high on another. Kantesti AI can help organize the report's units and laboratory limits, but the ordering clinician or laboratory must resolve an unclear assay identity; the distinction between quantity and function also appears in protein amount versus function, although that test addresses a different clinical problem.

Mass thresholds require their own context. A historical Lp-PLA2 mass risk threshold around 200 ng/mL appears in older literature, and some reports use additional categories; a result of 205 ng/mL is not proof of active coronary disease, and an activity result of 205 nmol/min/mL must never be classified using that mass threshold.

A value only slightly across a cutoff deserves proportionate interpretation. For example, 229 versus 225 nmol/min/mL is about 1.8% above that limit, not evidence of a sudden biological change; ask whether measurement uncertainty, prior values and the rest of the risk assessment would change the next step before repeating the test.

Atsauces diapazoni
LīmenisDiapazonsKo tas nozīmē
Common PLAC activity method: below decision limit<225 nmol/min/mLBelow this assay's commonly used risk threshold; does not exclude atherosclerosis or future cardiovascular events.
Common PLAC activity method: elevated category≥225 nmol/min/mLElevated classification for this method; not a diagnosis of an artery blockage or an automatic treatment indication.
Alternative activity methodsSome use a limit around 123 nmol/min/mLUse the exact laboratory interval and flagging convention; do not transfer the 225 cutoff between methods.
Mass measurement: historical risk thresholdAround 200 ng/mLConcentration-based threshold from older risk literature; check the report's own categories and never apply it to activity.

How is the test performed, and do you need to fast?

The Lp-PLA2 test uses a laboratory sample, with serum or plasma requirements determined by the assay. Fasting is not universally required for Lp-PLA2 itself; an 8–12 stundu badošanās periods may be requested when other tests are collected at the same appointment, so follow the ordering laboratory's instructions.

Lp-PLA2 test laboratory setup with a kinetic assay plate and a separate mass-assay plate
Collection requirements and laboratory processing depend on the specific assay ordered.

Do not stop prescribed medication to obtain an untreated enzyme value. A statin, for example, can alter LDL-related biology and Lp-PLA2 measurements, but withholding treatment for 1 or 2 weeks would create a different clinical situation rather than improve the meaning of the report; document medication names, doses and recent changes instead.

A useful report review starts with 4 checks: the assay name, measurement units, laboratory decision limit and sample date. If any of these are missing, the risk flag may be impossible to interpret reliably; our pirmās pieņemšanas sagatavošanas kontrolsaraksts explains how recording collection conditions makes later comparisons more meaningful.

An unexpected result should prompt a laboratory-quality check before a disease assumption. A hypothetical activity value of 270 nmol/min/mL accompanied by a sample-quality warning may require clarification about interference or handling, but interference is method-specific; ask whether the laboratory accepted the sample as valid rather than assuming that every lipemic or visibly altered sample invalidates this particular test.

What can cause elevated Lp-PLA2 activity?

Paaugstināts Lp-PLA2 activity can accompany a greater burden of LDL-associated enzyme, differences in lipoprotein composition and vascular inflammatory biology. A value above 225 nmol/min/mL on the relevant assay does not identify one cause; LDL-C, ApoB, smoking history and established cardiovascular disease help explain the result.

Lp-PLA2 test illustration comparing lower and higher numbers of LDL-associated enzyme particles
LDL particle burden can influence enzyme activity without revealing plaque location.

LDL-C and ApoB answer different questions about lipoprotein burden. LDL-C reports cholesterol cargo, whereas ApoB broadly reflects the number of atherogenic particles; in the 2018 AHA/ACC cholesterol guideline, ApoB of 130 mg/dL vai vairāk is a risk-enhancing factor, making our borderline ApoB discussion more directly relevant to many treatment decisions than an isolated enzyme flag.

A hypothetical 48-year-old with LDL-C 182 mg/dL, ApoB 142 mg/dL and activity 255 nmol/min/mL has several concordant findings suggesting increased atherogenic exposure. The reason to take this pattern seriously is the established lipid burden—not a claim that the activity result proves an inflamed blockage; persistent LDL elevation also warrants consideration of inherited cholesterol influences.

Lp-PLA2 is not a broad inflammation checklist. A result of 250 nmol/min/mL cannot identify an autoimmune disorder, dental problem or infection as its cause, and there is no validated everyday formula linking a particular meal or stressful week to that number; a targeted review of cardiovascular risks is more useful than searching for an unspecified inflammatory source.

How does Lp-PLA2 differ from hs-CRP and lipoprotein(a)?

Lp-PLA2, hs-CRP and lipoprotein(a) measure different biological features: lipoprotein-associated enzyme activity, a systemic inflammatory protein and a largely inherited lipoprotein risk factor, respectively. An hs-CRP value of 2 mg/L or higher has a recognized risk-enhancer role in the 2018 AHA/ACC cholesterol guideline; Lp-PLA2 is not listed equivalently.

Lp-PLA2 test cellular illustration showing macrophages and LDL particles within an arterial wall
Vascular cellular responses differ from the systemic signal measured by hs-CRP.

A low hs-CRP does not cancel a high Lp-PLA2 result, and the reverse is also true. A hypothetical hs-CRP of 0.8 mg/L with Lp-PLA2 activity of 245 nmol/min/mL reflects discordant measurements rather than a contradiction; hs-CRP responds strongly to many systemic conditions, while Lp-PLA2 is tied more closely to circulating lipoproteins.

An hs-CRP virs 10 mg/L often needs reassessment when a person is clinically well before it is used for cardiovascular risk classification. That convention should not be transferred automatically to Lp-PLA2; our hs-CRP result guide explains why a marker's response to illness determines how and when repeating it helps.

Kantesti ir AI biomarķieru interpretācijas platforma that separates activity values in nmol/min/mL from inflammatory protein values in mg/L and lipoprotein(a) results in mg/dL or nmol/L. The similar names can mislead: an Lp-PLA2 activity of 240 nmol/min/mL is not a lipoprotein(a) concentration, and Lp-PLA2 is also unrelated to the PLA2R antibody test used in certain kidney evaluations.

Can a high result diagnose blocked arteries?

A high Lp-PLA2 result cannot diagnose blocked coronary, carotid or leg arteries. Even an activity value of 300 nmol/min/mL provides no information about blockage percentage or location; symptoms, examination and appropriately selected imaging or functional tests—not this enzyme measurement—determine whether obstructive disease is present.

Lp-PLA2 test context diagram showing coronary arteries and separate artery cross-sections
Artery anatomy requires appropriate clinical assessment, not inference from enzyme activity.

Acute chest symptoms should not be evaluated with Lp-PLA2. A hypothetical person with chest pressure lasting 15 minutes needs prompt clinical assessment even if yesterday's enzyme activity was below the laboratory limit; electrocardiography and appropriately timed cardiac troponin testing address different urgent questions, explained in our krūškurvja sāpju testēšanas ceļvedis.

Sudden facial weakness, arm weakness or speech difficulty requires emergency action, regardless of whether an enzyme value is 180 or 280 nmol/min/mL. Call the local emergency number—such as 999, 112 or 911—and do not wait for another laboratory result; our BE-FAST warning signs distinguish stroke symptoms from long-term prevention questions.

Imaging is selected to answer a specific clinical question. Coronary calcium scoring estimates calcified plaque burden and can refine prevention discussions, whereas coronary CT angiography can evaluate anatomy when clinically appropriate; a calcium score of 0 does not exclude every noncalcified plaque, and an elevated Lp-PLA2 result alone is not a reason to order either examination.

Does Lp-PLA2 add useful information beyond standard risk?

Lp-PLA2 is associated with cardiovascular events, but its added clinical usefulness beyond standard risk assessment is limited and uncertain. A 2010 collaborative analysis of 79,036 participants found modest associations after adjustment; demonstrating association is not the same as showing that testing changes treatment appropriately or improves patient outcomes.

Lp-PLA2 test decision context showing a calcium-imaging scanner and a coronary teaching model
An additional test helps only when its result can improve a decision.

The Lp-PLA2 Studies Collaboration combined 32 prospective studies and reported adjusted coronary heart disease risk ratios of approximately 1.10 for activity and 1.11 for mass per standard-deviation increase (Lp-PLA2 Studies Collaboration, 2010). These population-level comparisons do not mean that every result above 225 nmol/min/mL increases an individual's risk by 10%, because the study contrast was not a universal high-versus-normal cutoff.

Useful prediction requires more than a statistically significant association. A new marker should meaningfully improve risk discrimination, calibration or movement across a treatment threshold, and ideally support better outcomes; if a person's established 10-year risk already supports lipid-lowering treatment, adding Lp-PLA2 may change the explanation without changing the appropriate action.

Kantesti treats an elevated enzyme result as contextual information, not an automatic reason to upgrade a person's calculated risk category. For a hypothetical person with a 10-year risk estimate of 4%, there is no validated rule saying that activity of 260 nmol/min/mL converts that risk to 8%; our specialized lipid score guide explores the same distinction between prognostic association and proven clinical utility.

Which cardiovascular measurements matter more first?

Standard cardiovascular assessment starts with age, blood pressure, smoking, diabetes, lipid measurements and clinical history, using a validated risk framework where appropriate. LDL-C of 190 mg/dL or higher, approximately 4.9 mmol/L, merits assessment independently of Lp-PLA2; an enzyme test should not delay attention to an established high-risk finding.

Lp-PLA2 test context in a watercolor arterial anatomy illustration with lipid particles
Established risk factors guide prevention before specialized vascular enzyme testing is considered.

The 2018. gada AHA/ACC holesterīna vadlīnijas, published in Circulation in 2019, lists established risk-enhancing factors and coronary calcium scoring for selected uncertain decisions, but does not include Lp-PLA2 among its listed risk enhancers (Grundy et al., 2019). In that framework, lipoprotein(a) of 50 mg/dL vai 125 nmol/L vai augstāka is a risk enhancer; our lipoproteīna(a) skrīninga ceļvedis explains why that inherited marker is a separate consideration.

Risk frameworks differ internationally and cannot be swapped casually. UK practice commonly uses QRISK3, European practice uses SCORE2 or SCORE2-OP in suitable populations, and US tools have their own populations and endpoints; a 10-year estimate from one calculator is not automatically comparable with another, and none offers a standard patient-facing formula for inserting an Lp-PLA2 activity result.

A hypothetical 57-year-old who smokes, has repeated blood pressure readings around 152/94 mmHg and LDL-C of 165 mg/dL already has actionable risk factors before enzyme testing. Confirming blood pressure and discussing prevention is more useful than waiting for an inflammation panel; our pēkšņs vienpusējs vājums, runas traucējumi vai ģībonis, nepieciešams steidzams vietējs neatliekamās palīdzības izvērtējums neatkarīgi no Lp(a). Cilvēkiem ar augstu asinsspiedienu līdzās iedzimtam lipīdu riskam mūsu pārskats par explains when additional laboratory investigation addresses a specific cause.

Should elevated Lp-PLA2 trigger a statin or other treatment?

Elevated Lp-PLA2 alone should not trigger a statin, aspirin or an enzyme-targeted treatment. Medication decisions need an established cardiovascular indication; in the 15,828-participant STABILITY trial, directly inhibiting Lp-PLA2 with darapladib did not significantly reduce the primary composite of cardiovascular death, heart attack or stroke.

Lp-PLA2 test kinetic assay setup illustrating laboratory evaluation of enzyme inhibition
Lowering enzyme activity is not automatically equivalent to preventing cardiovascular events.

In STABILITY, darapladib 160 mg daily was compared with placebo in people with stable coronary heart disease over a median 3.7 years. The primary outcome occurred in 9.7% versus 10.4%, respectively, with a hazard ratio of 0.94 and 95% confidence interval of 0.85–1.03, which crossed no effect (White et al., 2014); these results weaken the assumption that the enzyme is a proven treatment target.

Statins can reduce Lp-PLA2 measurements, but that does not create a treat-to-enzyme target. If someone has established atherosclerotic cardiovascular disease or LDL-C of 195 mg/dL, a lipid-lowering discussion has a conventional basis regardless of the enzyme result; the appropriate drug and intensity depend on the whole clinical picture, not on bringing activity below 225 nmol/min/mL.

Aspirin should not be self-started because an activity value is 260 nmol/min/mL: its potential benefit depends on the clinical indication and must be balanced against bleeding risk. If statin adverse-effect concerns are the barrier to indicated prevention, our statin gene-test discussion explains a different, more targeted question about medication susceptibility—not whether an enzyme flag itself requires treatment.

Can food, exercise or supplements lower a high result?

Lifestyle changes should target proven cardiovascular benefits, not an unvalidated Lp-PLA2 goal. Regular activity, smoking cessation and a heart-supportive eating pattern can improve established risks; adults commonly aim for at least 150 minūtes vidējas intensitātes fizisko aktivitāšu nedēļā, adjusted to health status, without needing to demonstrate an enzyme response.

Lp-PLA2 test context showing oats, legumes and walnuts beside an LDL teaching model
Food choices support established lipid goals rather than a specific enzyme target.

There is no established supplement prescription for an isolated high Lp-PLA2 result. Claims that a product will normalize activity from 270 to below 225 nmol/min/mL do not demonstrate fewer heart attacks, and a laboratory reduction should not be marketed as proof of plaque reversal; concentrated supplements also can interact with antiplatelet drugs, anticoagulants or other prescribed treatment.

Dietary changes are more measurable when tied to LDL-C, non-HDL-C or triglycerides. A hypothetical person with LDL-C of 170 mg/dL might replace some saturated fat with unsaturated fat and increase soluble-fiber foods, then review the lipid response; our uz pierādījumiem balstītas pārtikas izvēles discusses dietary patterns without promising that one food treats vascular enzyme activity.

Smoking cessation remains worthwhile even if Lp-PLA2 does not fall on the next test. Two people following the same 12-week exercise plan may show different enzyme changes because baseline lipoproteins, medications and measurement variation differ; success is better judged through smoking status, fitness, blood pressure and indicated lipid follow-up than through a single specialized biomarker.

How should you organize an elevated result for review?

A useful review combines the Lp-PLA2 report with lipids, blood pressure, medication history and symptoms. Preserve the assay name and units alongside a result such as 245 nmol/min/mL; an interpretation that loses those details can confuse activity with mass or attach the wrong cutoff.

Lp-PLA2 test review scene with hands comparing enzyme and LDL teaching models at a workstation
A structured review preserves assay details while keeping established risk factors visible.

Kantesti ir AI asins analīžu rezultātu platforma that accepts laboratory PDFs or photos and helps organize results in approximately 60 seconds, although processing time can vary. For Lp-PLA2, the useful output is a contextual explanation and a list of questions—not a claim that activity of 245 nmol/min/mL proves a blockage; our AI tehnoloģiju ceļvedis apraksta interpretācijas darbplūsmu.

Automated interpretation cannot replace cardiovascular diagnosis or a prescribing decision. A hypothetical report with activity 245 nmol/min/mL, LDL-C 118 mg/dL and ApoB 88 mg/dL still needs age, smoking status, blood pressure, diabetes status and family history to support a prevention discussion; our methodology and clinical oversight explains the boundaries readers should examine when considering AI assistance.

Before sharing a report, check whether it includes identifiers, information about relatives or results belonging to more than 1 personMūsu privātuma un datu apstrādes information explains the platform's privacy-focused approach; for the clinical appointment, bring three questions: which assay was used, whether established risk changes the plan, and whether repeating this particular marker would change a decision.

Research publications: what supports this interpretation?

The most relevant evidence separates risk association from treatment benefit: the 2010 Lp-PLA2 collaborative analysis supports a modest association, the 2014 STABILITY trial did not establish primary-outcome benefit from enzyme inhibition, and the 2018 AHA/ACC cholesterol guideline provides established prevention decision points rather than an Lp-PLA2 treatment target.

Lp-PLA2 test education scene with a coronary model and enzyme assay tools during evidence review
Association studies and treatment trials answer different questions about the same marker.

A cutoff should be traceable to the assay, not just to an article. The frequently quoted 225 nmol/min/mL activity threshold cannot be substituted for another laboratory's approximately 123 nmol/min/mL limit, and neither threshold establishes a blocked artery; readers can review our medicīniskā satura standarti for how we distinguish educational interpretation from diagnostic or treatment claims.

The 2 Kantesti companion publications listed below concern urinalysis and iron studies, not Lp-PLA2 validation. Our urīna analīžu uzziņu ceļvedis may help with other results appearing in a complete report, but it does not establish vascular enzyme thresholds; a repository DOI makes a publication identifiable and does not itself demonstrate peer review or clinical utility.

Tāpat dzelzs izmeklējumu atsauces ceļvedis addresses iron availability and binding measurements rather than cardiovascular enzyme prediction. For an Lp-PLA2 activity of 250 nmol/min/mL, the practical next step remains a proportionate review of the assay and established cardiovascular risks—not treating the number, assuming a blockage or ordering repeated panels without a decision they can improve.

Bieži uzdotie jautājumi

Ko nozīmē paaugstināts Lp-PLA2 aktivitātes rezultāts?

High Lp-PLA2 activity means the enzyme processed the laboratory substrate faster than the assay's decision limit allows for its lower-risk category. A commonly used PLAC activity cutoff is 225 nmol/min/mL, but other methods can use different limits. The result can be associated with increased cardiovascular risk, yet it cannot identify a blocked artery or show plaque location. Interpretation should include the assay, lipid profile, blood pressure, smoking, diabetes and clinical history.

Kāds ir Lp-PLA2 testa normālais diapazons?

Nav viena normāla diapazona, kas attiecas uz visiem Lp-PLA2 testiem. Vienā plaši izmantotā PLAC aktivitātes metodē tiek izmantota robežvērtība 225 nmol/min/mL, savukārt dažās citās aktivitātes noteikšanas metodēs tiek izmantota robežvērtība aptuveni 123 nmol/min/mL. Masas noteikšanas testos rezultātu norāda ng/mL, un vēsturiski riska robežvērtības ir bijušas aptuveni 200 ng/mL. Izmantojiet robežvērtību, kas norādīta jūsu analīžu rezultātu pārskatā, jo šīs metodes un mērvienības nav savstarpēji aizstājamas.

Vai paaugstināts Lp-PLA2 līmenis nozīmē, ka manas artērijas ir nosprostotas?

Elevated Lp-PLA2 does not diagnose blocked arteries, even when activity is 300 nmol/min/mL or higher. The test cannot measure narrowing percentage, plaque location or whether a specific plaque is unstable. Clinicians select anatomical or functional tests according to symptoms and the clinical question. New chest pressure or sudden stroke symptoms require emergency assessment regardless of the enzyme result.

What is the difference between Lp-PLA2 activity and mass?

Lp-PLA2 activity measures substrate breakdown rate, usually in nmol/min/mL, whereas Lp-PLA2 mass measures protein concentration, usually in ng/mL. A mass result of 240 ng/mL cannot be compared with an activity cutoff of 225 nmol/min/mL. The two results can disagree because protein abundance and catalytic activity are different properties. There is no universal conversion formula between them.

Should I take a statin or aspirin for high Lp-PLA2?

A high Lp-PLA2 result alone is not an established reason to start a statin or aspirin. Statin decisions should follow recognized indications, such as established atherosclerotic cardiovascular disease, severe LDL elevation or an appropriate overall risk assessment. LDL-C of 190 mg/dL or higher warrants assessment independently of the enzyme result. Aspirin has bleeding risks and should not be self-started because activity exceeds 225 nmol/min/mL.

Is the Lp-PLA2 test worth adding to routine cholesterol testing?

Routine Lp-PLA2 screening has not established better cardiovascular outcomes beyond standard risk-based care. A 2010 analysis of 79,036 participants found modest adjusted associations with coronary events, but association does not prove that the test improves treatment decisions. Testing is most defensible when a clinician can identify a specific decision the result might change. For many people, completing the lipid profile and assessing blood pressure, smoking, diabetes and family history is more useful first.

How often should a high Lp-PLA2 result be repeated?

There is no universally accepted Lp-PLA2 retesting schedule or treat-to-target activity level. A repeat may be reasonable if the result is unexpected, the sample validity is uncertain or confirmation would change a clinical decision. A change from 240 to 228 nmol/min/mL is a 5% decrease, but that alone does not prove meaningful improvement. Compare the same assay under reasonably comparable conditions, and do not substitute enzyme monitoring for established lipid follow-up.

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Atsauces

  1. Klein, T., Mitchell, S., & Weber, H. (2026). Urobilīnogēna urīna tests: pilnīgs urīna analīzes ceļvedis 2026. Kantesti mākslīgā intelekta medicīniskie pētījumi. DOI
  2. Klein, T., Mitchell, S., & Weber, H. (2026). Dzelzs izmeklējumu ceļvedis: TIBC, dzelzs piesātinājums un saistīšanas spēja. Kantesti mākslīgā intelekta medicīniskie pētījumi. DOI
  3. Lp-PLA2 Studies Collaboration (2010). Lipoprotein-associated phospholipase A2 and risk of coronary disease, stroke, and mortality: collaborative analysis of 32 prospective studies. The Lancet. DOI
  4. White HD et al. (2014). Darapladib for preventing ischemic events in stable coronary heart disease. The New England Journal of Medicine. DOI
  5. Grundy SM et al. (2019). 2018. gada AHA/ACC/AACVPR/AAPA/ABC/ACPM/ADA/AGS/APhA/ASPC/NLA/PCNA vadlīnijas par holesterīna līmeņa asinīs pārvaldību. Circulation. DOI
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