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Brandon Losacker • November 26, 2024

Introduction to NTAP: New Opportunities for Hospitals

In 2021, the New Technology Add-on Payment (NTAP) program was created by The Center for Medicare & Medicaid Services (CMS) to increase the use of new inpatient technologies in the Medicare population. CMS uses NTAP codes for qualifying products that promise improvement in process or outcomes. Additionally, these new medical services and technologies are eligible for an add-on payment known as NTAP which presents significant reimbursement opportunity for hospitals and healthcare systems that adopt these technologies. 


Eligibility Criteria for NTAP Payments


To be eligible for the NTAP, these technologies must meet the following 3 criteria. When the following criteria are met, the NTAP payments are significantly greater than the standard Medicare Severity Diagnosis-Related Group (MS-DRG).


1.) Technology must be new within 2-3 years of market introduction. 


2.) The technology must “substantially improve the diagnosis or treatment relative to currently available technologies and are inadequately paid otherwise under the current diagnosis-related group (DRG) reimbursement rates.”1 


3.) The technology is deemed inadequately compensated under the current MS-DRG, as its average standardized charge for inpatient cases exceeds the set cost threshold.


FY 2025 Program Expansion: 39 New Technologies Approved


The number of approved technologies has increased each year since its inception. The FY 2025-year list is the most extensive since the program began and includes 39 Total NTAPs.


• CMS finalized the continuation of new technology add-on payments for 24 existing new technologies


• CMS finalized discontinuing new technology add-on payments for 7 current new technologies


• CMS finalized 16 of the original 27 new technologies submitted for new technology add-on payments under the traditional and alternative pathways



Financial Impact: What NTAP Can Mean for Your Hospital’s Reimbursement


According to CMS, new technology add-on payments are limited to the lesser of 65% of the costs of the technology, or 65% of the amount by which the costs of the case exceed the standard MS–DRG payment”.


The most substantial financial impact approved for FY 2025 Casegevy and Lyfgenia. Both are medications for gene therapies that treat sickle cell disease. These medications qualify for 75% NTAP amount resulting in a maximum payment of $1.65 Million for Casgevy and $2.32 Million for Lyfgenia.


Key Steps to Maximize NTAP Reimbursement


 For hospitals and health systems, it is essential to take the following steps to ensure full NTAP reimbursement:


  • Accurate Coding: Make sure the correct ICD-10-PCS code(s) are included on claims to qualify for NTAP payments. Missing or inaccurate codes can lead to lost revenue.


  • Annual Review of NTAP Services: Each year, inpatient coding staff should review the latest list of approved NTAP services and technologies to stay updated on new opportunities for reimbursement.


  • Routine Audits: Conduct regular internal and external audits to confirm that all eligible procedures and technologies are correctly coded and reimbursed. These audits help identify and prevent potential revenue leakage.


Taking these proactive measures can help ensure your hospital captures all eligible NTAP reimbursements.

 

Not Sure if You’re Capturing All Possible NTAP Revenue? 

Contact UASI for a comprehensive NTAP assessment. Our expert audit team is ready to help your hospital secure eligible NTAP payments and maximize revenue potential. 


Do not let money slip through the cracks - Reach Out Today!


References

1. Adoption and Trends in the Medicare New Technology Add-On Payment Program - PubMed Central (PMC)

2. New Medical Services and New Technologies - Centers for Medicare & Medicaid Services (CMS)


By Brandon Losacker January 14, 2025
Definition Pressure ulcers are localized damage to the skin and/or soft tissue caused by prolonged pressure, often associated with immobility and/or lack of sensation. Contributing factors can include moisture and nutritional deficiencies. Diagnostics Stages and Definitions (NPIAP; www.npiap.com ): Stage 2: Partial-thickness skin loss with exposed dermis. The wound bed is viable, pink or red, moist, and may present as an intact or ruptured serum-filled blister. Stage 3: Full-thickness skin loss. Adipose tissue is visible in the ulcer, with granulation tissue and epibole (rolled wound edges) often present. Slough and/or eschar may be visible. Stage 4: Full-thickness skin and tissue loss with exposed or directly palpable fascia, muscle, tendon, ligament, cartilage, or bone. Slough and/or eschar may be present. Unstageable: Obscured full-thickness skin and tissue loss where the extent of tissue damage cannot be confirmed due to slough or eschar. Removal may reveal a Stage 3 or Stage 4 injury. Treatment Wound care/dressings, debridement, wound care referral, hyperbaric oxygen therapy Pain management, antibiotics, topical treatments Advanced stage treatment may include necrotic tissue excision, wet-to-dry saline or hypochlorite solution dressings, topical antibiotics, or specialized gels Background The term "pressure ulcer" is outdated. The National Pressure Ulcer Advisory Panel (NPIAP), founded in 1987, changed its terminology to "pressure injury" in 2016 and updated its name in 2019. A pressure injury is now defined as localized skin and soft tissue damage typically found over a bony prominence or caused by medical devices. Statistics on pressure injuries are limited. The 1999 Fifth National Pressure Prevalence Survey reported a 14.8% prevalence in acute care hospitals, with 7.1% occurring during hospital stays. Increased Risk Factors: Neurologic disease, cardiovascular disease, prolonged anesthesia, dehydration, malnutrition, hypotension, and surgery. ICD-10 Codes and HCC Mapping: HCC 379: Community, Non-Dual, Aged - 1.965 HCC 381: Community, Non-Dual, Aged - 1.075 HCC 382: Community, Non-Dual, Aged - 0.838 Coding and CDI Tips Document the pressure ulcer's location and its stage Note treatment and any complications related to the ulcer Indicate if there was a referral to wound care Clarify that pressure injuries are coded as pressure ulcers Differentiate pressure ulcers from moisture-associated skin damage (MASD) Specify ulcer stage, including unstageable ulcers, to ensure accurate HCC assignment For ulcers described as "healing," assign the code for the current stage. If "healed," no code is necessary Distinguish between pressure and chronic non-pressure ulcers , which map to different HCCs (380, 383) Query Example Visit note from [date] indicates the presence of a pressure ulcer on the right heel. The stage is not documented. Exam on [date] describes full-thickness ulceration into subcutaneous soft tissue. Please specify the stage of the pressure ulcer: Stage 2 Other stage (please specify)  References Centers for Medicare and Medicaid. (2023). Announcement of Calendar Year (CY) 2024 Medicare Advantage (MA) Capitation Rates and Part C and Part D Payment Policies. CMS Edsberg, L. E., et al. (2016). Revised National Pressure Ulcer Advisory Panel Pressure Injury Staging System. J Wound Ostomy Continence Nurs, 43(6), 585-597. doi:10.1097/won.0000000000000281 Tang, C., Pinson, R. (2024). CDI Pocket Guide by Pinson and Tang. CDI Plus Zaidi SRH, Sharma S. (2024). Pressure Ulcer. In StatPearls [Internet]. NCBI
By Brandon Losacker December 11, 2024
Obesity: Understanding the Condition and Its Implications Definition: • Obesity: A state of excess storage of body fat. • Overweight: Refers to excess body weight for height. Facts and Statistics: The Centers for Disease Control (CDC) reported in August 2024 that more than 100 million U.S. adults aged 20 or older have obesity, with 22 million classified as severely obese. Additionally, 14.7 million cases of obesity have been reported in U.S. children and adolescents aged 2-19. The National Center for Health Statistics shows that the obesity prevalence in adults (aged 20 and older) rose from 19.4% in 1997 to 31.4% by the reporting period of January-September 2017. Diagnostic Criteria: • Underweight: BMI < 18.5 kg/m² • Normal Weight: BMI 18.5–24.9 kg/m² • Overweight: BMI 25–29.9 kg/m² • Obesity (Class 1): BMI 30–34.9 kg/m² • Obesity (Class 2): BMI 35–39.9 kg/m² • Extreme Obesity (Class 3): BMI > 40 kg/m² Note: Morbid obesity is defined by a BMI > 40 kg/m², or a BMI of 35 or higher with at least one weight-related comorbidity, such as diabetes, heart disease, stroke, hypertension, or arthritis. Diagnostic Tests: • Fasting Lipid Panel • Liver Function Studies • Thyroid Function Tests • Fasting Glucose and Hemoglobin A1c (HbA1c) Treatment: • Nutritional consult • Counseling on diet and exercise • Medications such as GLP-1s • Bariatric surgery procedures • Treatment for associated comorbid conditions ________________________________________ Coding and CDI Considerations: • Overweight and obesity codes are found in category E66. An instructional note directs the reporting of BMI, if known, as an additional diagnosis (adults: Z68.1-Z68.45; pediatrics: Z68.5-). • Code E66.01 classifies morbid (severe) obesity due to excess calories. Documentation of "severe" obesity allows the assignment of this code. However, E66.01 has an Excludes1 note that it should not be coded with E66.2, which refers to morbid obesity with alveolar hypoventilation. • BMI codes can be taken from non-physician documentation, but the physician must provide an associated diagnosis. IPPS FY 2025 New Codes for Obesity: • E66.811 Obesity, Class 1 • E66.812 Obesity, Class 2 • E66.813 Obesity, Class 3 (synonymous with morbid obesity) • E66.89 Other obesity, not elsewhere classified Current coding guidance states that obesity and morbid obesity are always clinically significant and should be reported when documented. No additional documentation is required to support clinical significance for this condition (such as evaluation, treatment, or increased monitoring). Obesity and Comorbid Conditions: CDI specialists should review for obesity-related comorbid conditions, such as: • Obstructive sleep apnea (OSA) • Malignancy • Coronary artery disease (CAD) • Hypertension (HTN) • Gallbladder disease • Osteoarthritis • Diabetes • Stroke • Depression If the patient's BMI is 35 or higher and they have a comorbid condition related to obesity, this may be considered morbid obesity. The provider should document the relationship between weight and the comorbid condition to demonstrate the need for specific management and strengthen medical necessity and decision-making. Obesity also impacts risk adjustment methodologies, including Elixhauser and AHRQ PSIs. Query Example: Please specify if the condition you are managing can be represented as: • Morbid Obesity • Obesity, Class 2 • Other condition (please specify) The following clinical indicators are noted in documentation: • RN admission assessment with BMI 38.5 • Nutrition consult ordered • Chronic conditions of Type II Diabetes and Hypertension References: • AHA Coding Clinic 2018 Fourth Quarter, p. 77 • Hamdy, O. (2024). Obesity. Medscape. www.medscape.com • Official Coding Guidelines Sections I.C.19.a and I.C.19.c • Pinson, R., Tang, C. (2024). Body Mass Index and Obesity. CDI Pocket Guide. CDIPlus • Prescott, L., Manz, (2024). Morbid Obesity. ACDIS Pro • US Centers for Disease Control and Prevention. New CDC Data Show Adult Obesity Prevalence Remains High. CDC. Available at https://www.cdc.gov/media/releases/2024/p0912-adult-obesity.html . September 12, 2024; Accessed: November 26, 2024.
By Brandon Losacker December 3, 2024
Critical Illness Myopathy (CIM): Describes a rapidly evolving primary myopathy with generalized muscle wasting due to prolonged immobilization. Characterized by more proximal than distal weakness, sensory preservation, and atrophy depending on the duration of illness. Usually occurs in the intensive care setting. Providers may also refer to this as acquired care weakness when no specific etiology is identified. Critical Illness Polyneuropathy (CIP): Exhibits both sensory and motor manifestations, determined by physical exam and electrodiagnostic study. Characterized by more distal than proximal weakness, sensory changes, and limited atrophy. Critical Illness Polyneuromyopathy (CIPNM): Describes a combined myopathy with characteristics of both CIM and CIP. Characterized by a combination of proximal greater than distal weakness, distal sensory loss, and variable atrophy. Clinically, CIM and CIP manifest as limb and respiratory muscle weakness. Risk Factors for CIM Prolonged intubation/failure to wean Gram-negative bacteremia, hyperglycemia, hyperpyrexia, hyperosmolarity, hypoalbuminemia, hypoxia, hypotension, hyper/hypocalcemia Advanced age or female sex Sepsis, ARDS, COVID-19, asthma, organ transplant patients Use of steroids and/or non-depolarizing neuromuscular blockades (atracurium besylate, vecuronium bromide, pancuronium bromide) Diagnostic Criteria Electrodiagnostic studies: Nerve conduction studies, electromyography, and direct muscle stimulation Past medical history evaluation Clinical exam Medical Research Council (MRC) sum score: Used as an initial diagnostic measure of muscle strength in conscious patients (CIP and CIM are thought to be present if the score is less than 48) Diagnostic labs to rule out other conditions contributing to weakness Muscle biopsy: Usually necessary to firmly establish the diagnosis of CIM Provider documentation should clearly differentiate between critical illness myopathy and critical illness polyneuropathy to capture accurate code assignment. Example Scenario: A patient admitted to the ICU for sepsis with ARDS secondary to COVID-19 pneumonia has a prolonged recovery due to difficulty weaning off the ventilator. The provider documents critical illness neuropathy. Assign the principal diagnosis code for sepsis with secondary diagnosis codes for ARDS, COVID-19 pneumonia, and critical illness polyneuropathy (G62.81). A query could be considered for critical illness myopathy (G72.81) to add an additional CC if sufficient clinical indicators are present. Each code impacts risk adjustment methodologies differently. Additional Tips Critical illness myopathy is underrecognized because it has a clinical appearance that is similar to critical illness polyneuropathy. There are no identified treatment protocols other than preventative and supportive measures, with a primary focus on rehabilitation and mobilization of the patient. CIM/CIP affects over a third of severely critically ill patients and more than a quarter of those requiring ventilatory assist for at least seven days. Almost 100% of patients who demonstrate multiple organ failure experience CIM/CIP. Record reviews should consider the presence of immobility-related complications such as DVT, pressure injuries, and aspiration pneumonia. CIM and CIP can also be seen in other hospital settings and can manifest in patients with a severe illness that complicates care.  References: American Hospital Association. (2024). Coding Handbook, Disease of the Nervous System and Sense Organs; Critical Illness Myopathy. Gutmann, L., & Gutmann, L. (1999, May). Critical Illness Neuropathy and Myopathy. JAMA Neurology. Retrieved from: Critical Illness Neuropathy and Myopathy | Critical Care Medicine | JAMA Neurology | JAMA Network Prescott, L. & Manz, J. (2023). 2024 ACDIS Pocket Guide. The Essential CDI Resource (pp. 123-127). HCPro. Shepherd, S., Batra, A., & Lerner, D. (2023, August). Review of Critical Illness Myopathy and Neuropathy. NIH. National Library of Medicine. National Center for Biotechnology Information. Retrieved from: Review of Critical Illness Myopathy and Neuropathy - PMC (nih.gov)
A newborn baby wearing a white hat is being examined by a woman.
By Brandon Losacker November 13, 2024
Transient Tachypnea of the Newborn (TTN) TTN : a parenchymal lung disorder characterized by pulmonary edema resulting from delayed resorption and clearance of fetal alveolar fluid. It is the most common cause of respiratory distress in late preterm and term infants and is generally a benign, self-limited condition. Clinical Manifestations of TTN · Onset usually between the time of birth and two hours after delivery · Tachypnea – most common feature with respiratory rate > 60 breaths per minute · Infants with more severe disease may exhibit: Cyanosis Increased work of breathing which includes: Nasal flaring Mild intercostal and subcostal retractions Expiratory grunting · Anterior-posterior diameter of the chest may be increased · Typically with clear lungs (no rales/rhonchi) · Mild to moderate TTN are symptomatic for 12-24 hours but signs may persist as long as 72 hours in more severe cases · Characteristic radiographic features: o CXR – increased lung volumes with flat diaphragms, mild cardiomegaly, prominent vascular markings in a sunburst pattern originating at the hilum, fluid in the interlobar fissures, pleural effusions, alveolar edema appearing as fluffy densities. There are no areas of alveolar densities or consolidation o Lung US – pulmonary edema, compact B lines, double lung point, regular pleural line without consolidation TTN is a benign disorder and pathologic conditions that also present with respiratory distress must be excluded. Pneumonia – chest radiography differentiates PNA from TTN as neonatal PNA is characterized by alveolar densities with air bronchograms or patchy infiltrates, not seen in TTN. Sepsis – infants with sepsis and respiratory distress are differentiated from those with TTN with the persistence of additional symptoms and the lack of the characteristic chest radiographic findings of TTN. Congenital cardiac disease - TTN is distinguished from congenital heart disease by physical findings (e.g., heart murmur, abnormal precordial activity), chest radiography, pre- and post-ductal pulse oximetry, and echocardiography. Respiratory distress syndrome – differentiated from TTN with a characteristic chest radiograph of a ground glass appearance with air bronchograms. Caused by surfactant deficiency most common in very preterm infants. Code for Transient tachypnea of newborn (TTN) falls under ICD-10 Chapter 16 – Certain conditions originating in the perinatal period [P00-P96] · P19-P29 – Respiratory and cardiovascular disorders specific to the perinatal period · P22 - Respiratory distress of newborn · P22.0 – Respiratory distress syndrome of newborn · P22.1 – Transient tachypnea of newborn · P22.8 – Other respiratory distress of newborn · P22.9 – Respiratory distress of newborn, unspecified Additional Tips: · TTN is also documented as Respiratory distress syndrome Type II, Wet lung syndrome · Tachypnea alone is just a symptom · Most common risk factors for TTN include prematurity, Cesarean delivery, maternal diabetes, maternal obesity, maternal asthma · Infants with TTN rarely require a fraction of inspired oxygen (FiO2) >0.4. References Johnson, K. E. (2021, August 30). Transient tachypnea of the newborn. UpToDate. www.uptodate.com/contents/transient-tachypnea-of-the-newborn “Respiratory Conditions Neonatal.” Pro ACDIS Pocket Resource Online, pro.acdis.org/inpatient/conditions/respiratory-conditions-neonatal. Accessed 4 Dec. 2023.
October 16, 2024
This is a short synopsis of a possible patient record and is not intended to be all-inclusive. This is for educational purposes only and not intended to replace your institutional guidelines.
A woman is looking through a magnifying glass on a yellow background.
By Brandon Losacker August 5, 2024
Common definitions for this discussion: Adverse Effect: occurs when a substance is taken according to direction and a reaction occurs Poisoning: indicates improper use of medication including combination with alcohol, overdose, wrong drug, wrong dose, or taken in error Underdosing refers to taking less or discontinuing a medication that is prescribed Toxic Effects: a reaction, consequence, or effect of a non-medicinal substance such as alcohol, animal venom, or carbon monoxide Provider documentation needs to be clear whether a drug was taken as directed or improperly administered to determine an adverse effect vs. poisoning. For example, a patient with a GI bleed due to Coumadin therapy would need clarification if the Coumadin was taken properly or not taken properly. Taken properly as directed would have an adverse effect – Principal diagnosis is the nature of the adverse effect. GI bleed is associated with Coumadin therapy, taken properly. Taken improperly would be poisoning – The principal diagnosis is the poisoning effect from improper coumadin. GI bleeding is associated with Coumadin therapy, not taken properly Provider documentation should be clear whether a diagnosis results from a cause/effect of poisoning. For example, a patient admitted/discharged with a diagnosis of musculoskeletal chest pain with cocaine use just before the onset of symptoms. Chest pain associated with cocaine use provides clarity on the etiology of the pain. Poisoning is the principal diagnosis, and chest pain is the secondary diagnosis. Provider documentation must be clear whether a diagnosis results from a toxic effect. For example, a patient is admitted with right hand cellulitis and documentation in the nurse’s notes reflects patient was bitten by a spider on the right hand the day before admission. Right-hand cellulitis due to spider bite provides clarity of the cause of the cellulitis. A toxic effect diagnosis would be the principal diagnosis and cellulitis would be a secondary diagnosis. Codes for underdosing should never be assigned as principal diagnosis or first listed codes. The exacerbation or relapse of a medical condition due to under dosing is the principal diagnosis. For example, seizure disorder will be principal when a patient is admitted after having a seizure and noted with subtherapeutic Dilantin levels. Additional Tips: Use as many codes as necessary to describe completely all manifestation of the adverse effect, poisoning, underdosing, or toxic effect. If two or more drugs, medicinal or biological substances are taken, code each individually The poisoning codes have an associated intent as their 5th or 6th character (accidental, intentional self-harm, assault and undetermined). If the intent of the poisoning is unknown or unspecified, code the intent as accidental intent. The undetermined intent is only for use if the documentation in the record specifies that the intent cannot be determined. Documentation of a change in the patient’s condition is not required in order to assign an underdosing code. Documentation that the patient is taking less of a medication than is prescribed or discontinued the prescribed medication is sufficient for code assignment. If a patient has a relapse or exacerbation of the medical condition for which the drug is prescribed because of the reduction in dose, then the medical condition itself should be coded too. If marijuana is legalized for therapeutic/recreational use per state legislature (depending on the documentation in the chart), it is no longer considered an illicit drug. To capture an adverse reaction in this case, it would be coded as poisoning or adverse effect.
A nurse is using a tablet computer in a hospital hallway.
By Brandon Losacker August 5, 2024
Respiratory failure: a syndrome in which the respiratory system fails in one or both of the functions of gas exchange, which are oxygenation and carbon dioxide elimination. It can be classified as hypoxemic (type 1), hypercapnic (type 2), or a combination of both. Respiratory failure can be acute or chronic. The etiology of acute respiratory failure is often determined to be pneumonia, bronchiolitis, croup, trauma, or exacerbation of a chronic condition such as asthma. Chronic respiratory failure: a condition in which the inability to effectively exchange carbon dioxide and oxygen results in chronically low oxygen levels or chronically high carbon dioxide levels. Usually the underlying etiology is chronic lung disease such as cystic fibrosis, neuromuscular disorders, or muscular dystrophy. Diagnosis requires the use of home oxygen or ventilator support, or having baseline SaO2 < 88% on room air or pCO2 > 50 with normal pH. Acute respiratory distress syndrome (ARDS): often considered the end stage of acute respiratory failure, occurring when fluid builds up in the alveoli which prevents the lungs from filling with enough air. This leads to less oxygen reaching the bloodstream and organs, reducing organ function. ARDS patients have a moderate to severe impairment of oxygenation as defined by the ratio of partial pressure arterial oxygen and fraction of inspired oxygen (PaO2/FiO2). Chest imaging exhibits bilateral opacities/pulmonary edema not explained by cardiac failure or fluid overload. Diagnostic Criteria for Acute Respiratory Failure in Pediatric Patients Pediatric patients often present differently than adults and can also decompensate more quickly. Children may present with the following: Lethargy or irritability Appear anxious or demonstrate inability to concentrate May prefer positioning to aid in breathing (i.e sitting up, leaning chest/head forward) Mouth breathing, drooling Interrupted feeding and diet patterns Generally, oxygen saturation <88% on room air is supportive of acute hypoxemic respiratory failure. ABGs are rarely measured when assessing children’s respiratory function. However, diagnostic ABG levels include: PaO2 of < 60 mmHg on room air Acute increase in pCO2 of 10-15 mmHg pH decreasing to 7.32 or less PaO2 / FiO2 (PF) ratio of < 200 or < 300 Intubation/mechanical ventilation is not required to support the presence of acute respiratory failure. An acute respiratory condition and any of the following treatments may support the presence of acute respiratory failure: Supplemental oxygen with FiO2 ≥ 0.30–0.35 to maintain SpO2 ≥ 90% Any level of high-flow nasal cannula Any level of nasal continuous positive airway pressure (nCPAP) or nasal bilevel positive airway pressure (BiPAP) (except for obstructive sleep apnea) Provider documentation often describes the patient’s symptoms and assessment without stating the words “acute respiratory failure.” If clinical indicators support the presence of acute respiratory failure, a query should be sent. For example, “acute respiratory distress”, “acute exacerbation”, “respiratory insufficiency”, “respiratory acidosis” are frequently used terms that may not capture the patient’s true complexity. Providers frequently use templated notes that are copied/pasted into subsequent notes. This is a great opportunity for CDI to provide education on customizing these templates. Templated notes often have statements such as “no acute distress”, and “normal appearance” which can suggest that the patient did not have respiratory failure. Additional Tips: • Chapter-specific coding guidelines (particularly with newborns) that provide sequencing direction take precedence when determining the principal diagnosis. • A code from subcategory J96.0, Acute respiratory failure, or subcategory J96.2, Acute and chronic respiratory failure, may be assigned as a principal diagnosis when it is the condition established after study to be chiefly responsible for occasioning the admission to the hospital. • Although acute respiratory failure always has an underlying cause, do not default to the etiology as the principal diagnosis. The circumstances of the admission must be considered. Respiratory failure may be listed as either the principal or a secondary diagnosis. • For acute respiratory failure due to COVID-19, assign code U07.1, COVID-19, followed by code J96.0-, Acute respiratory failure. • If the documentation is not clear as to whether acute respiratory failure and other conditions are equally responsible for occasioning the admission, query the provider for clarification. • Common respiratory failure risk factors to look out for in pediatric patients include: young age, premature birth, immunodeficiency, chronic pulmonary/cardiac/neuromuscular diseases, anatomic abnormalities, cough/rhinorrhea/other URI symptoms, and lack of immunizations. • Other conditions that are not pulmonary in nature which may lead to acute respiratory failure include: status epilepticus leading to encephalopathy and decreased respiratory drive, a traumatic head injury or anoxic brain injury that stops respiratory drive, and septic shock. References: Pediatric Acute Lung Injury Consensus Conference Group. (2015). Pediatric acute respiratory distress syndrome: Consensus recommendations from the Pediatric Acute Lung Injury Consensus Conference. Pediatric Critical Care Medicine, 16(5), 428–439. https://doi.org/10.1097/PCC.0000000000000350 Springer, S. C. (2012, December 5). Pediatric respiratory failure. Medscape. https://emedicine.medscape.com/article/908172-overview Savage, L. (2017). Pediatric CDI Building Blocks for Success (pp. 64–71). HCPro.
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