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Critical Care

Take control in Critical Care

Whether as a result of infection or of a sterile trigger such as severe injury or major surgery, systemic hyperinflammation with increased levels of cytokines can cause significant hemodynamic instability and other organ dysfunction.

The Challenge

The cause

Infections or non-infective triggers like severe injury or major surgery can induce an unwanted excessive immune response.

Immune response

Overwhelming levels of inflammatory mediators can lead to a cytokine storm.

Hemodynamic instability

The cytokine storm can cause significant hemodynamic instability and vasoplegic shock, triggering multi-organ dysfunction.

Restore the balance

CytoSorb® helps to restore the balance by removal of excessive levels of cytokines, and to stabilize the patient’s hemodynamics, so you can focus on the treatment your patient needs to recover.

  • The cause

    Infections or non-infective triggers like severe injury or major surgery can induce an unwanted excessive immune response.

  • Immune response

    Overwhelming levels of inflammatory mediators can lead to a cytokine storm.

  • Hemodynamic instability

    The cytokine storm can cause significant hemodynamic instability and vasoplegic shock, triggering multi-organ dysfunction.

  • Restore the balance

    CytoSorb® helps to restore the balance by removal of excessive levels of cytokines, and to stabilize the patient’s hemodynamics, so you can focus on the treatment your patient needs to recover.

Reversing shock – restoring balance

Excessive cytokine release during systemic hyperinflammation can lead to vasoplegia and circulatory shock, posing acute and life-threatening consequences for patients. CytoSorb can help.

Stabilize hemodynamics

CytoSorb, with its unique adsorptive bead technology, has been demonstrated to effectively achieve reversal of vasoplegic shock, e.g. in sepsis.

 

In intensive care units (ICU), systemic hyperinflammation as in sepsis is the most common cause of death, particularly when it progresses to refractory vasoplegic shock, where the mortality rate increases significantly despite improvements in the standard of care.

 

Vasoplegic or distributive shock caused by non-infectious triggers can look like septic shock and be just as dangerous with high morbidity and mortality.

By removal of excessive cytokines, CytoSorb Therapy can help to stabilize hemodynamics through:

Attenuation of hyperinflammation
Reduction in vasopressor needs
Improvement in micro- and microcirculation
Promotion of shock reversal
Reduction in lactate

Best practice therapy management

  • Therapeutic goal

    Promotion of shock reversal through:

    • Attenuation of hyperinflammation
    • Reduction in vasopressor needs
    • Improvement of micro and macro circulation
  • Patient selection
    • Refractory septic/vasoplegic shock
    • High (and increasing) need for vasopressors
    • No (proper) response to standard of care
    • Biomarkers (if determined):
      • IL-6 > 500 pg/mL,
      • PCT > 3 μg/l,
      • Ferritin > 1000 μg/L
  • Timing
    • Ideally < 12 hours after diagnosis of shock/start of standard therapy
    • Do not wait until lactate is > 6.5/7 mmol/L
  • Dosing
    • For severely unstable and hyper-inflamed patients, device changes every 8-12 hours at the beginning of treatment is recommended. Otherwise, daily device changes will suffice.
    • Continue until sufficient hemodynamic stabilization is achieved

Support your decision with CytoScore

This dynamic scoring system is intended to provide support in the decision to initiate CytoSorb Therapy in refractory septic/vasoplegic shock. The score can be calculated 6 hours after initiation of standard therapy for shock. For this purpose, various categories that are meaningful for the hemodynamic condition of the patient are rated with 0, 1 or 2 points in order to arrive at a total score. If the total score is >6 clinical data suggests that initiation CytoSorb Therapy within the next 6 hours might lead to positive outcome effects.
Kogelmann et al., J Clin Med 2021; 10: 2939

Diagnosis of septic shock
Start of standard therapy
Evaluation using CytoScore
Start treatment with CytoSorb

if >6 points after 6 hours, consider starting CytoSorb

  • Diagnosis of septic shock
  • Start of standard therapy
  • Evaluation using CytoScore
  • Start treatment with CytoSorb

    if >6 points after 6 hours, consider starting CytoSorb

Postoperative hyperinflammation management

Major surgeries can trigger temporary systemic hyperinflammation. CytoSorb can help maintain the inflammatory balance crucial for patient stability.

Control postoperative hyperinflammation

 

Help control post-surgical hyperinflammation and multi-organ dysfunction. When undergoing major surgical procedures, patients often experience a transient inflammatory response that should be considered physiological.

 

An uncontrolled systemic inflammatory response, however, can contribute to multi-organ dysfunction, which plays a significant role in postoperative morbidity or mortality.

By removal of excessive cytokines, CytoSorb Therapy can help to stabilize hemodynamics through:

Attenuation of hyperinflammation
Reduction in vasopressor needs
Improvement in micro- and microcirculation
Promotion of shock reversal

Best practice therapy management

  • Therapy goal

    Promotion of shock reversal through:

    • Attenuation of hyperinflammation
    • Reduction in vasopressor needs
    • Improvement of micro and macro circulation
  • Patient selection
    • Refractory septic/vasoplegic shock
    • High (and increasing) need for vasopressors
    • No (proper) response to standard of care
    • Biomarkers (if available):
      • IL-6 > 500 pg/ml,
      • PCT > 3 μg/l,
      • Ferritin > 1000 μg/l
  • Timing
    • Ideally < 12 hours after diagnosis of shock/start of standard therapy
    • Don’t wait until lactate is > 6.5/7 mmol/L
  • Dosing
    • For severely unstable and hyper-inflamed patients, device changes every 8-12 hours at the beginning of treatment is recommended. Otherwise, daily device changes will suffice.
    • Continue until sufficient hemodynamic stabilization is achieved

Support your ECMO patients

Reduce elevated levels of cytokines to promote organ recovery for Extracorporeal Membrane Oxygenation (ECMO) patients.

Applications

With two main applications — Venoarterial (VA) ECMO for cardiac and pulmonary support, and venovenous (VV) ECMO for pulmonary support — ECMO is increasingly used in acute respiratory distress syndrome (ARDS) and cardiogenic shock, but morbidity and mortality rates remain high.

 

Treatment options to enhance the clinical benefits of ECMO support and prevent complications, such as ongoing hyperinflammation, are currently limited.

Enhanced lung rest: improve VV-ECMO outcomes

Viral or bacterial infections, such as pneumonia, influenza, COVID, and non-infectious insults, such as aspiration, trauma, pancreatitis, smoke, and ventilator-induced lung injury, can lead to acute respiratory distress syndrome (ARDS) and respiratory failure, requiring VV-ECMO intervention.

 

While VV-ECMO addresses hypoxemia and helps prevent ventilator-induced lung injury (VILI), it does not address the underlying hyperinflammation, which can have serious consequences, including endothelial and epithelial damage, capillary leakage, and loss of surfactant.

 

CytoSorb helps manage this concomitant hyperinflammation and, when used in combination with VV-ECMO to rest the lungs, can enhance lung rest and promote organ recovery — both crucial to improved survival.

Combined VV-ECMO and CytoSorb

Earlier intervention with CytoSorb and VV-ECMO allows for “Enhanced lung rest” in severe-ARDS patients and was associated with shorter need for ECMO therapy, mechanical ventilation (MV) and ICU stay, compared to patients with late treatment start.

Hayanga et al., Crit Care 2023; 27(1):243
Effects associated with hemoadsorption in ARDS patients

Substantial and statistically significant increase in PaO₂/FiO₂ ratio and concomitant substantial and statistically significant decrease of C-Reactive Protein (CRP), Lactate and norepinephrine (NE) were observed in ARDS patients treated with hemoadsorption.

Szigetváry et al., Biomedicines 2023; 11(11):3058

Best practice therapy management

  • Therapeutic goal

    Promotion of lung function recovery through the concept of “enhanced lung rest”:

    • Lung rest by ECMO and concomitant treatment of hyperinflammation by CytoSorb
    • Improvement in oxygenation
    • Faster weaning from ECMO
  • Patient selection
    • ARDS with respiratory failure requiring ECMO therapy
    • Clinical signs of severe hyperinflammation and/or elevated biomarkers:
      • IL-6 > 500 pg/mL
      • PCT > 3 μg/L
      • Ferritin > 1000 μg/L
      • CRP > 50 mg/L
  • Timing
    • Consider simultaneous integration of CytoSorb at the start of ECMO as a protocolized “enhanced lung rest” approach

    • Early intervention with CytoSorb is associated with better outcomes

  • Dosing

    Depending on the individual clinical course:

    • For patients with severe ARDS, changing the device every 12 hours for the first day is recommended, followed by daily device changes for the next 2 days, for a total of 4 devices over 72 hours. Treatment can be extended beyond 72 hours if needed.
    • Change each adsorber after a maximum use time of 24 hrs
    • Consider changing CytoSorb every 12 hrs if there is ongoing cardiopulmonary instability
    • Re-evaluate every 12-24 hrs and continue treatment as clinically indicated

Enhance VA-ECMO Outcomes

Additional Information

  • Kogelmann et al., J Clin Med 2021; 10(13):2939
  • Rugg et al., Biomedicines 2020; 8(12):539
  • Brouwer et al., Crit Care. 2019; 23(1):317
  • Akil et al., Thorac Cardiovasc Surg 2021; 69(3):246-251
  • Boss et al., PLoS One 2021; 16(2):e0246299
  • Rasch S et al., Artif Org 2022; 46(6):1019-1026
  • Traeger et al., Int J Artif Organs 2016; 39(3):141-146
  • Leonardis et al., Case Rep Crit Care 2018:1205613
  • Bottari et al., Front in Pediatrics 2023; 11:1259384
  • Friesecke et al., J Artif Organs 2017; 20(3):242-259
  • David et al., J Int Care 2017; 5:12
  • Akil et al., J Clinical Med 2022; 11(20):5990
  • Hayanga et al., Crit Care 2023; 27(1):243
  • Calabrò et al., Artif Organs 2019; 43(2):189-194
  • Hawchar et al., J Crit Care 2019; 49;172-178
  • Kogelmann et al., J Clin Med 2024; 13(1):294
  • Zuccari et al., Blood Purif 2020; 49(1-2):110 -113
  • Szigetvary et al., Biomedicines 2023; 11(11):3068
  • Piskovatska et al., Healthcare 2023; 11(3):310
  • Kogelmann et al., J Int Care Soc 2020; 21(2):183-190
  • Song, T et al., Front. Med. 2021; 8:773461
  • Hayanga J et al., Crit. Care 2023; 27:243
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Access Healthcare Professionals Area

This area is for Health Care Professionals only and provides reports about clinical experiences gained during the use of CytoSorbents products. The information presented reflects the opinions and procedural techniques of individual physicians and is not intended as medical advice. Physician experience, risks, patient outcomes and results may vary.