EverolimusTransplant MonitoringLaborauswertung
An everolimus trough level of 3–8 ng/mL is commonly targeted in certain transplant regimens, usually using a sample collected immediately before the next dose. Your transplant protocol, other medicines and collection timing determine what your result means; cancer treatment uses different dosing principles, and you should not change doses yourself.
Medizinisch geprüft von Thomas Klein, MD
Wichtigste Erkenntnisse
- Transplant targets commonly use 3–8 ng/mL in whole blood, but the organ, accompanying medicines and your team's protocol determine your personal target.
- Collection timing is immediately before the next scheduled dose—approximately 12 hours after the previous dose for a twice-daily regimen.
- Laboreinheiten are interchangeable when expressed as ng/mL or µg/L: 5 ng/mL equals 5 µg/L.
- Hohe Werte above a prescribed 3–8 ng/mL target warrant transplant-team review; 8 ng/mL is not a universal emergency or toxicity threshold.
- Low results below 3 ng/mL may indicate insufficient exposure in regimens using that lower boundary, but do not diagnose rejection.
- ist oft der richtige nächste Schritt, wenn der TSH-Wert nur leicht abweichend ist und das klinische Bild unklar bleibt. commonly occurs around 4–5 days after a clinician-directed dose change, with earlier or additional testing when circumstances require it.
- Wechselwirkungen include azole antifungals, clarithromycin, ritonavir-containing medicines, rifampicin and some seizure medicines; starting or stopping an interacting drug can change concentrations.
- Cancer treatment does not automatically use the transplant 3–8 ng/mL range; many oncology regimens use an indication-specific daily dose and toxicity-based adjustments.
- Dosis Sicherheit means asking your transplant team what to take and when to repeat testing, rather than skipping, doubling or recalculating a dose yourself.
What does an everolimus trough level actually tell you?
Ein everolimus trough level measures the medicine's whole-blood concentration immediately before the next dose, helping clinicians assess exposure rather than simply the amount prescribed. A result of 5 ng/mL can fit a 3–8 ng/mL transplant target, but only if the sample timing and treatment protocol match that interpretation.

The same everolimus dose can produce different concentrations in 2 people because absorption, liver metabolism and interacting medicines vary. The trough is a practical sampling point, not a complete measurement of exposure throughout the day; a satisfactory number also cannot prove that the transplanted organ is functioning normally or that adverse effects are absent.
At Kantesti, we separate the laboratory's printed interval from the target your team actually prescribed—for example, 3–8 ng/mL versus a narrower individualized interval. Our Organisation und unser klinischer Zweck explain the educational role of interpretation; the transplant service remains responsible for selecting the immunosuppressive regimen and deciding whether a result should change treatment.
Kantesti ist ein KI-Bluttestanalysator that can help place an everolimus result such as 5 ng/mL alongside uploaded kidney-function and blood-count results, without prescribing a dose. When everolimus accompanies another immunosuppressant, our Leitfaden zur Tacrolimus-Überwachung explains why each drug needs its own target and collection instructions.
Which everolimus therapeutic range applies to your indication?
Der everolimus therapeutic range commonly used for selected kidney and liver transplant regimens is 3–8 ng/mL in whole blood. Heart transplantation protocols in jurisdictions where this use is approved often use a similar interval, but lung transplantation, reduced-companion-drug strategies and other indications require explicit specialist targets.

The consensus report by Shipkova et al. (2016), published in Therapeutic Drug Monitoring, supports interpreting everolimus concentrations within the complete transplant regimen, commonly using 3–8 ng/mL with calcineurin inhibitors. The lower boundary reflects concern about insufficient immunosuppression, while the upper boundary helps limit exposure-related adverse effects; neither boundary is a biological cliff where safety abruptly changes.
Approval and protocols differ internationally: U.S. transplant labeling covers specified kidney and liver settings, while European product information also includes selected heart-transplant use. A 3–8 ng/mL laboratory interval therefore does not identify the organ, companion-drug exposure or postoperative phase by itself, and a center may select a different target for a documented clinical reason.
Ask for 3 pieces of information: your target interval, the reason it was chosen and the target for any accompanying calcineurin inhibitor. The general principle also appears in our infliximab trough interpretation: therapeutic ranges belong to a particular drug, indication and sampling strategy, rather than to every person taking that medicine.
| Wert | Bereich | Bedeutung |
|---|---|---|
| Selected kidney-transplant regimens | Commonly 3–8 ng/mL | Whole-blood predose target used with specified accompanying immunosuppression; confirm the center's protocol. |
| Selected liver-transplant regimens | Commonly 3–8 ng/mL | Often paired with reduced tacrolimus exposure after an appropriate postoperative interval. |
| Selected heart-transplant regimens | Often 3–8 ng/mL | Applicable only where the regimen and local approval support this target. |
| Lung or other specialist transplant regimens | Center-specific | Do not infer an individualized target from another organ's protocol. |
| Cancer treatment | No universal transplant-equivalent target | Oncology dosing and adverse-effect management do not automatically use 3–8 ng/mL. |
When should the everolimus sample be collected?
Everolimus level timing should place the collection immediately before the next scheduled dose. For a twice-daily transplant regimen, this generally means approximately 12 hours after the previous dose; a specialist-requested trough for a once-daily regimen would generally be approximately 24 hours after the previous dose.

A hypothetical recipient takes everolimus at 08:00 and 20:00, then attends a planned collection just before 08:00 the next morning. The transplant team's usual instruction is to bring the morning dose and take it after collection, but obtain that instruction beforehand; a laboratory delay does not give you permission to postpone immunosuppression indefinitely.
Record the previous dose time, collection time and next dose time as 3 separate entries. A fasting instruction for glucose or lipids is a different issue from trough timing, so confirm whether you should take your usual food afterward and whether other morning medicines have separate instructions; our Checkliste für die Vorbereitung der Erstentnahme helps prevent missing these details.
Scheduling accuracy matters more than an appointment labeled simply 'morning': a 07:00 sample after a 23:00 dose represents an 8-hour interval, not a 12-hour trough. If travel, shift work or another medication makes the standard schedule difficult, arrange a collection plan with the transplant coordinator rather than changing dose times solely to fit the laboratory.
What if you took the dose before testing or missed one?
A sample collected after taking everolimus is not a true predose trough and should not be compared directly with a 3–8 ng/mL trough target. A missed dose or substantially delayed collection also changes interpretation; report the actual times rather than trying to make the result fit the expected interval.

Everolimus commonly reaches peak concentrations around 1–2 hours after an oral dose, although food and individual absorption can change that timing. A hypothetical result of 12 ng/mL collected 90 minutes after dosing could reflect the absorption phase rather than an excessive trough; the team must still review the result and symptoms, not simply dismiss the number.
Missing the evening dose can make an apparently low morning concentration unrepresentative of your usual prescribed regimen, even if the appointment occurs at the expected hour. Give the team a factual account of the last 2–3 days, including vomiting or uncertainty about a dose; a one-time low result cannot distinguish missed treatment from inadequate dosing without that history.
Do not take an extra dose to compensate for a misleading 2 ng/mL result, and do not omit the next dose because a postdose sample looks high. Different medicines have different postdose sampling rules, as our digoxin sample-timing guide illustrates; ask the transplant team whether the collection needs repeating and what to take in the meantime.
How long after a dose change should levels be rechecked?
A routine everolimus level is commonly reassessed around 4–5 days after a clinician-directed dose change, when concentrations are approaching the new steady state. Earlier collections may be appropriate for suspected toxicity or major interactions, but they should be interpreted as transitional measurements rather than final evidence of the new dose's effect.

Everolimus has an average elimination half-life of roughly 30 hours, with substantial variation between people. After only 24 hours, a concentration still reflects considerable exposure from the previous regimen, so a second adjustment based solely on that early result can overshoot the intended target; product instructions commonly discourage routine adjustments more frequently than every 4–5 days.
A hypothetical recipient changes dose on Monday and has a predose sample on Tuesday because another test was already booked. That 1-day interval may provide useful safety information, but the transplant team may still request a later level; our blood-test change timeline explains why the biological response and the appointment schedule are not the same thing.
Starting an inhibitor can raise exposure while everolimus is still accumulating, and stopping an inducer can have delayed effects as enzyme activity returns toward baseline. Keep 2 dates in your record—the everolimus dose change and the interacting medicine change—because 'unchanged dose' does not mean unchanged exposure, and the team may need more than one repeat collection.
Why do specimen type and laboratory method matter?
Everolimus transplant monitoring uses Vollblut, usually collected in an EDTA tube, rather than an interchangeable serum concentration. Results reported in ng/mL and µg/L are numerically equivalent: 6 ng/mL equals 6 µg/L, but values produced by different assay methods may not be directly comparable.

Liquid chromatography–tandem mass spectrometry, abbreviated LC-MS/MS, is a reference approach for everolimus measurement, while some laboratories use immunoassays. Method-dependent bias can occur, including differences in metabolite cross-reactivity, so an apparent shift from 6 to 8 ng/mL after changing laboratories deserves a method check before anyone assumes that drug exposure increased by one-third.
Whole-blood concentrations also depend partly on distribution into cellular elements, meaning a large hematocrit change may alter the relationship between the measured value and circulating drug exposure. There is no routine patient-applied hematocrit correction formula for an everolimus result of 4 ng/mL; our Leitfaden zu freiem und Gesamt-Phenytoin explains why specimen biology differs across monitored drugs.
Kantesti can help organize 3 report details—the analyte name, units and laboratory interval—but an uploaded report does not reveal an undocumented dose time or assay change. Our Rahmenwerk für Validierung und Aufsicht describes interpretation standards; it does not mean that AI performs the everolimus assay or replaces a transplant pharmacist's assessment of unexpected concentrations.
Which medicines can raise or lower everolimus levels?
Medicines that inhibit CYP3A4 or P-glycoprotein can raise everolimus exposure, while enzyme-inducing medicines can lower it. Strong inhibitors such as certain azole antifungals and ritonavir-containing treatments may require avoidance or specialist management; even a 5-day course can matter for a twice-daily transplant regimen.

Examples that can raise exposure include voriconazole, posaconazole, itraconazole, clarithromycin and ritonavir or cobicistat; fluconazole, diltiazem and verapamil can also be relevant. The effect is not identical for every drug or person, and a previous concentration of 5 ng/mL does not predict safety after an inhibitor starts; our voriconazole monitoring guide covers the antifungal's own monitoring needs.
Rifampicin, carbamazepine, phenytoin, phenobarbital and St John's wort can reduce everolimus exposure through induction, although onset and recovery depend on the particular medicine. Starting an inducer may lower a previously acceptable 6 ng/mL trough, while stopping it may subsequently raise concentrations; tell the team about both actions rather than reporting only the new prescription.
Cyclosporine can increase everolimus exposure, so changes to its dose can alter the everolimus concentration even when the everolimus prescription stays the same. Before starting 1 new antibiotic, antifungal, antiviral or supplement, ask the transplant service or pharmacist to check the complete regimen—including tacrolimus, cyclosporine and nonprescription products—rather than checking each medicine separately.
How do food, liver function and stomach illness affect results?
Food consistency, liver impairment and gastrointestinal illness can change everolimus exposure or make a result harder to interpret. Take each prescribed dose consistently with or without food, avoid grapefruit unless your specialist explicitly advises otherwise, and report vomiting or persistent diarrhea even when the latest concentration was within 3–8 ng/mL.

Food can alter everolimus absorption, so switching between fasting doses and doses with substantial meals can introduce variability without any prescription change. A practical record includes whether each of the previous 2 doses was taken with food; do not begin taking it fasting to 'improve' a low result, because that changes the exposure pattern your team is trying to assess.
Liver impairment can reduce everolimus clearance and may require indication-specific clinician-directed dose reduction, whereas reduced kidney filtration alone does not explain clearance in the same way. A change from 5 to 9 ng/mL therefore deserves a review of liver status and interacting medicines as well as kidney results; avoid unreviewed products marketed for kidney supplement support.
Diarrhea and vomiting can disrupt absorption, medication retention, hydration and the overall transplant regimen, but they do not reliably move everolimus concentrations in one predictable direction. If illness lasts more than 24 hours, or you cannot retain a scheduled dose, contact the team promptly; our norovirus recovery guidance should not substitute for transplant-specific advice.
What should you do if your everolimus level is too high?
Ein everolimus level too high means the measured concentration exceeds your prescribed target—not that one universal number proves poisoning. If your target is 3–8 ng/mL and a correctly collected trough is 12 ng/mL, contact the transplant team promptly for timing, interaction, symptom and laboratory review without independently withholding or reducing treatment.

A value of 8.4 ng/mL is only 0.4 ng/mL above an 8 ng/mL upper target and does not carry the same context as a sudden rise from 5 to 16 ng/mL. There is no universally accepted emergency cutoff that applies to every transplant regimen; the direction of change, collection accuracy, symptoms and other immunosuppressants determine how urgently the team responds.
Everolimus can cause mouth sores, low blood counts, proteinuria, increased lipids, hyperglycemia, impaired healing and noninfectious pneumonitis, including at concentrations within the intended range. New thirst or frequent urination warrants glucose assessment rather than assuming the trough explains everything; our high-glucose warning signs distinguish routine follow-up from symptoms that require urgent evaluation.
Kantesti ist ein AI-Bluttest-Auswertungsplattform that can help compare a reported 12 ng/mL concentration with accompanying uploaded results, but cannot decide whether the next dose should be held. Fever of 38°C or higher, new breathlessness, severe weakness, markedly reduced urine output or inability to keep medicines down warrants urgent clinical contact; severe breathing difficulty requires emergency care regardless of the trough.
Does a low everolimus trough mean rejection?
A low everolimus trough can indicate insufficient exposure when it falls below your protocol's lower target, but it does not diagnose rejection. For a regimen targeting 3–8 ng/mL, a genuine 2.2 ng/mL trough should prompt timely transplant-team review of adherence, timing, interactions and the complete immunosuppressive regimen.

A missed dose, an inducer such as rifampicin, inconsistent food intake or a delayed collection can each contribute to a low result. If a hypothetical recipient's usual trough is 4.5 ng/mL and the new result is 2.2 ng/mL, the useful first step is reconstructing events—not assuming the prescribed dose suddenly stopped working or taking an extra tablet.
Rejection assessment depends on graft function, symptoms and organ-specific investigations; a kidney recipient may need creatinine trends, urine testing, imaging or specialist tissue assessment. A rise in creatinine plus a 2 ng/mL trough raises concern, but dehydration, obstruction and other causes remain possible, so the transplant service decides which tests can distinguish them.
Increasing immunosuppression can worsen some viral complications, which is why a low trough cannot be managed separately from the rest of the record. Our BK virus graft-risk guide explains a setting where graft dysfunction and treatment intensity must be balanced; do not double 1 dose or change tacrolimus to compensate for an isolated everolimus result.
Which other tests make everolimus monitoring safer?
Everolimus safety monitoring commonly includes blood counts, kidney function, urine protein, liver tests, glucose and lipids, alongside the trough and companion-drug levels. A 5 ng/mL concentration within a 3–8 ng/mL target does not rule out cytopenias, proteinuria, metabolic adverse effects or a problem caused by combined immunosuppression.

Persistent urine protein can require assessment even when creatinine changes little, and a urine albumin-to-creatinine ratio of 30 mg/g marks increased albumin excretion under general kidney classification. That threshold is not an automatic everolimus stopping rule; the team may use albumin or total-protein ratios, trends and graft context, while our Leitfaden bei persistierendem schaumigem Urin explains why appearance alone is insufficient.
De Simone et al. (2012) tested everolimus targeting 3–8 ng/mL with reduced tacrolimus after liver transplantation and found better kidney-function outcomes than standard tacrolimus exposure in the studied setting. This supports a deliberately coordinated regimen, not independent calcineurin-inhibitor withdrawal; our Leitfaden zum Nierenfunktionsquotienten provides background, but cannot identify the cause of graft dysfunction by itself.
A platelet decline from 180 to 70 × 10⁹/L combined with rising creatinine and evidence of red-cell fragmentation would need urgent investigation, including consideration of thrombotic microangiopathy. Those hypothetical values are not diagnostic thresholds, and other medicines or illnesses can be responsible; our dringliche Interpretation von Schistozyten explains why a normal everolimus trough cannot make this pattern safe to ignore.
Why should cancer treatment not use transplant targets automatically?
Cancer treatment should not automatically use the transplant 3–8 ng/mL everolimus target, because treatment goals, doses, formulations and supporting evidence differ. Many oncology regimens use a prescribed once-daily dose and adjust for adverse effects, interactions and liver function rather than routinely titrating every patient to a transplant trough interval.

Baselga et al. (2012), in the BOLERO-2 trial published in The New England Journal of Medicine, studied everolimus 10 mg daily with exemestane in a defined advanced breast-cancer population. That trial supports an indication-specific treatment strategy, not a universal concentration goal; a cancer patient's result above 8 ng/mL cannot be labeled excessive solely because a transplant report prints that upper boundary.
Exposure-response studies suggest potential roles for individualized oncology monitoring, but evidence has not established one universally accepted routine trough target across cancers. Separate noncancer indications also illustrate the difference: product labeling uses concentration-guided treatment targeting 5–15 ng/mL in certain tuberous-sclerosis-associated settings, and that interval must not be borrowed for cancer or transplantation without specialist direction.
A hypothetical oncology patient with a 9 ng/mL concentration needs the oncologist to review why the test was ordered, whether it was a true 24-hour predose sample and whether adverse effects are present. Our chemotherapy testing distinctions explain a different medicine-specific safety test; drug monitoring, pharmacogenetics and toxicity grading are not interchangeable routes to a self-selected dose.
How do timing and interactions change the same numerical result?
The same everolimus concentration can mean different things when the dose interval, indication or interacting medicines differ. Kantesti is an KI-gestütztes Analyse-Tool für Bluttests that can help organize these distinctions around a reported 10 ng/mL result, but only the treating team can translate the clinical context into a dosing decision.

Hypothetical example 1: a kidney recipient targeting 3–8 ng/mL has a 10 ng/mL result collected 12 hours after the last dose, several days after starting clarithromycin. That combination suggests a plausible interaction-related rise requiring prompt review; a mouth-sore history, blood count and companion-drug level would influence the clinician's decision more than the number alone.
Hypothetical example 2: another recipient has 10 ng/mL collected 1 hour after taking the morning dose, while their previous genuine trough was 5 ng/mL. The two results should not be plotted as equivalent troughs; our Workflow zur Überwachung von Trends der Arzneimittelsicherheit explains why sample annotations matter before interpreting a line rising on a chart.
Kantesti AI can support a record containing 4 fields—dose, previous-dose time, collection time and target—while our KI-Technologieerklärung describes the broader interpretation workflow. A proportional calculation such as reducing a dose by 50% because a level doubled ignores timing errors, interactions and graft risk, so it is not a safe patient dosing method.
Research publications and a safe transplant follow-up checklist
The strongest evidence for interpreting everolimus comes from drug-monitoring consensus guidance and indication-specific trials, not from general laboratory articles. Before acting on a result such as 9 ng/mL, obtain your prescribed target, verify collection timing and ask your transplant service for explicit next-dose and repeat-test instructions.

Send the service 5 essentials: the result and units, prescribed regimen, last-dose time, collection time and recent medicine or illness changes. Ask whether the sample is interpretable, what to take next and when to repeat it; the Shipkova et al. (2016) consensus and indication-specific trials provide clinical background, but none makes an unexplained high flag a patient-directed dosing instruction.
The 2 Zenodo publications listed below address coagulation and serum proteins, not everolimus pharmacokinetics, transplant target validation or oncology dose selection. Our Leitfaden zur Interpretation von Serumproteinen may help explain accompanying albumin results, but these background resources should not be cited as evidence that 3–8 ng/mL is appropriate for a particular recipient.
Die medizinische Inhaltsstandards distinguish educational interpretation from prescribing; this article cannot confirm that an individual 6 ng/mL result is correctly timed or clinically safe. Keep the transplant service's daytime and out-of-hours contact details available, and obtain urgent help for fever, breathing changes or inability to retain immunosuppression rather than waiting for another concentration.
Häufig gestellte Fragen
Wie hoch ist der angestrebte Everolimus-Talspiegel nach einer Transplantation?
An everolimus trough target of 3–8 ng/mL in whole blood is commonly used in selected kidney and liver transplant regimens and some heart-transplant protocols. Your personal target depends on the transplanted organ, accompanying immunosuppressants, postoperative phase and local protocol. A laboratory's printed range is not automatically your prescribed target. Ask the transplant team to confirm the interval before interpreting a flagged result or considering any treatment change.
Wie viele Stunden nach einer Everolimus-Dosis sollte der Spiegel kontrolliert werden?
An everolimus trough should be collected immediately before the next scheduled dose, usually approximately 12 hours after the previous dose for a twice-daily transplant regimen. If a specialist requests a trough during once-daily treatment, the expected interval is generally approximately 24 hours. Follow the team's instructions about taking the next dose after collection, and report both actual dose and collection times. A sample taken after dosing should not be treated as an ordinary predose trough.
Ist ein Everolimus-Spiegel von 10 ng/ml zu hoch?
0 Ein Everolimus-Spiegel von 10 ng/mL liegt über dem Zielbereich, wenn für Ihren Talspiegel im Vollblut ein Intervall von 3–8 ng/mL verordnet wurde, ist aber kein allgemeingültiger Toxizitätsschwellenwert. Ein korrekt vor der nächsten Dosis entnommener Messwert ist anders zu bewerten als eine Probe, die 1–2 Stunden nach der Einnahme entnommen wurde. Wenden Sie sich umgehend an Ihr Transplantationsteam, um den Zeitpunkt der Probenentnahme, wechselwirkende Medikamente, Symptome und weitere Laborwerte zu besprechen. Lassen Sie die nächste Dosis nicht eigenständig aus, reduzieren Sie sie nicht und teilen Sie sie nicht auf; bei schwerer Atemnot oder anderen schwerwiegenden Symptomen ist unabhängig von der Konzentration dringend medizinische Hilfe erforderlich.
Kann ein niedriger Everolimus-Spiegel bedeuten, dass mein Transplantat abgestoßen wird?
Ein Everolimus-Talspiegel unter 3 ng/mL kann bei einem Therapieschema mit einem Zielbereich von 3–8 ng/mL auf eine unzureichende Exposition hinweisen, aber das Ergebnis diagnostiziert keine Abstoßung. Ausgelassene Dosen, eine verspätete Probenentnahme, Erbrechen und enzyminduzierende Arzneimittel können ebenfalls zu einer niedrigen Konzentration beitragen. Die Beurteilung einer Abstoßung erfordert Trends der Transplantatfunktion und organspezifische Untersuchungen, die vom Transplantationsteam ausgewählt werden. Melden Sie ein Ergebnis wie 2,2 ng/mL umgehend, anstatt eine zusätzliche Dosis einzunehmen oder ein anderes Immunsuppressivum zu ändern.
How soon should everolimus levels be repeated after changing the dose?
Everolimus concentrations are commonly rechecked around 4–5 days after a clinician-directed dose change, when exposure is approaching the new steady state. The medicine's average half-life is roughly 30 hours, so a sample after only 1 day may still reflect the previous regimen substantially. Suspected toxicity, a major interaction or an unstable clinical situation can justify earlier or additional testing. Your transplant team should specify both the collection date and what to take while waiting.
Do people taking everolimus for cancer need a trough of 3–8 ng/mL?
People taking everolimus for cancer should not automatically be assigned the transplant trough target of 3–8 ng/mL. Many oncology regimens use indication-specific once-daily doses, such as the 10 mg daily regimen studied in BOLERO-2, with clinician-directed adjustments for adverse effects, interactions and liver function. No single universally accepted routine trough target applies across all cancers. If an oncologist orders a concentration, ask why it was measured and which interpretation framework applies.
Which medicines can make an everolimus trough level rise?
Everolimus exposure can rise with CYP3A4 or P-glycoprotein inhibitors, including certain azole antifungals, clarithromycin and ritonavir-containing medicines. Diltiazem, verapamil, fluconazole and cyclosporine can also be relevant, although the effect varies by medicine and person. Even a 5-day prescription can disrupt a previously stable 5 ng/mL trough. Check new prescriptions and supplements with the transplant service or pharmacist before starting them, and also report when interacting treatment stops.
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Referenzen
- Klein, T., Mitchell, S. & Weber, H. (2026). aPTT-Normalbereich: D-Dimer, Protein-C-Leitfaden zur Blutgerinnung. Kantesti KI-Medizinrecherche. DOI
- Klein, T., Mitchell, S. & Weber, H. (2026). Leitfaden zu Serumproteinen: Globuline, Albumin und Albumin-Globulin-Verhältnis im Bluttest. Kantesti KI-Medizinrecherche. DOI
- Shipkova M et al. (2016). Therapeutic Drug Monitoring of Everolimus: A Consensus Report. Therapeutic Drug Monitoring.
- De Simone P et al. (2012). Everolimus with reduced tacrolimus improves renal function in de novo liver transplant recipients: a randomized controlled trial. American Journal of Transplantation. DOI
- Baselga J et al. (2012). Everolimus in Postmenopausal Hormone-Receptor–Positive Advanced Breast Cancer. The New England Journal of Medicine. DOI
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Über das medizinische Team

Thomas Klein, MD
Leitender Autor · Medizinischer Gutachter
Leitender medizinischer Direktor, Kantesti AI
Dr. Thomas Klein ist Facharzt für klinische Hämatologie und Innere Medizin mit über 15 Jahren Erfahrung in der Labormedizin und der KI-gestützten klinischen Analyse.

Sarah Mitchell, MD, PhD
Medizinischer Berater
Leitender medizinischer Berater – Klinische Pathologie und Innere Medizin
Dr. Sarah Mitchell ist eine board-zertifizierte Fachärztin für Pathologie mit über 18 Jahren Erfahrung in der Laboratoriumsmedizin und in der diagnostischen Analyse. Sie verfügt über Spezialzertifizierungen in klinischer Chemie und hat umfangreich zu Biomarker-Panels und Laboranalysen in der klinischen Praxis veröffentlicht.

Prof. Dr. Hans Weber, PhD
Mitwirkender Experte
Professor für Labormedizin und Klinische Biochemie
Prof. Dr. Hans Weber bringt 30+ Jahre Fachwissen in klinischer Biochemie, Laboratoriumsmedizin und Biomarkerforschung mit. Als ehemaliger Präsident der Deutschen Gesellschaft für Klinische Chemie ist er auf die Analyse diagnostischer Panels, die Standardisierung von Biomarkern und KI-gestützte Laboratoriumsmedizin spezialisiert.
E-E-A-T Vertrauenssignale
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Ärztlich geleitete klinische Überprüfung von Labor-Interpretations-Workflows.
Sachverstand
Fokus der Labormedizin darauf, wie Biomarker sich im klinischen Kontext verhalten.
Autorität
Medizinisch geprüft von Dr. Thomas Klein, mit Beiträgen von Dr. Sarah Mitchell und Prof. Dr. Hans Weber.
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Evidenzbasierte Interpretation mit klaren nächsten Schritten zur Reduzierung von Alarm.
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