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Vol. 35. Núm. 3.
Páginas 149-157 (mayo - junio 2020)
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Vol. 35. Núm. 3.
Páginas 149-157 (mayo - junio 2020)
Original Article
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Online survey about anesthesia-related practice and patient safety in Indian hospitals
Encuesta online relacionada con la práctica anestésica y la seguridad del paciente en los hospitales de India
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M. Sinha, M. Kumar, H.M.R. Karim
Autor para correspondencia
drhabibkarim@gmail.com

Corresponding author.
Department of Anaesthesiology and Critical Care, All India Institute of Medical Sciences, Raipur, India
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Tablas (5)
Table 1. Number and percentage distribution of responders, availability and practice of standard and essential monitoring and pre-anesthetic preparations in the cohort.
Table 2. Pre anesthetic preparations sub-grouped as per working set-ups and compared using Fisher's exact test, taking ATI as standard.
Table 3. Availability of different equipment, medications and systems for patient safety among the entire cohort.
Table 4. Availability and practice of standard and essential monitoring sub-grouped as per working set-ups and compared using Fisher's exact test, taking ATI as standard.
Table 5. Availability of different equipment, medications and systems for patient safety among the different working set-ups and compared using Fisher's exact test, taking ATI as standard.
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Abstract
Background

Patient safety is a global concern, and anaesthesiologists are critically involved in patient safety-related measures and practices. Although anesthesia service has improved a lot over the last few decades, the information on the anesthesia practice and patient safety in India is lacking. The present survey was aimed to get the information on these aspects.

Methods

A cross-sectional, questionnaire-based survey including both postgraduate trainees and anaesthesiologists, working across the different hospitals of India was conducted during February–May 2019. Google form was used as the survey; responses were directly downloaded as an Excel file and calculated in absolute numbers and percentages. Autonomous teaching institutes (ATI) were taken as standard, and Fisher's exact test was used for comparisons; P<0.05 was considered significant.

Results

Six-hundred (86.1%) responses were included for analysis. Pulse oximetry and non-invasive blood pressure (NIBP) were available in nearly 99% set-ups, but end-tidal carbon-di-oxide (EtCO2), temperature, oxygen, and anesthesia gas analyzer were lacking. ATI and corporate teaching hospitals were having almost all standard monitoring, but patient safety-related advanced equipment and medications were not present in many of the hospitals. The lack was highest in both public and private non-teaching hospitals (P<0.0001).

Conclusion

Patient safety and anesthesia-related services in India are unsatisfactory. Except for pulse oximetry and NIBP, the public and private sector non-teaching hospitals were lacking even the standard monitoring. Referral and top-level corporate and public sector institutes also have scope for improvement.

Keywords:
Anesthesia
Patient safety
Preventive health services
Quality of health care
Hospitals
India
Resumen
Antecedentes

La seguridad del paciente es una cuestión de preocupación global, y los anestesiólogos están seriamente involucrados en las medidas y las prácticas relacionadas con la seguridad. Aunque el servicio de anestesia ha mejorado mucho en los últimos decenios, India carece de información acerca de la práctica anestésica y la seguridad del paciente. El objetivo de esta encuesta fue obtener información relativa a estos aspectos.

Métodos

Encuesta transversal basada en un cuestionario que incluyó a estudiantes de posgrado y anestesiólogos que trabajaban en diferentes hospitales de India, realizada de febrero a mayo de 2019. Se utilizó un formulario Google® como encuesta, descargándose directamente las respuestas en forma de archivo Excel®, respuestas que se calcularon como cifras absolutas y porcentajes. Se tomaron como estándar las instituciones autónomas docentes (IAD), utilizándose la prueba exacta de Fisher para realizar las comparaciones. Se consideró significativo el valor p<0,05.

Resultados

Se incluyeron para análisis 600 respuestas (86,1%). Se disponía de pulsioximetría y presión arterial no invasiva (PANI) en cerca del 99% de los centros, pero se carecía de dióxido de carbono espiratorio final (EtCO2), temperatura, oxígeno y analizador de gases anestésicos. Las IAD y los hospitales docentes corporativos contaban con casi todos los sistemas estándar de monitorización, pero los equipos avanzados y medicaciones relacionados con la seguridad del paciente no estaban presentes en muchos hospitales. Esta carencia fue mayor en los hospitales públicos y los hospitales privados no docentes (p<0,0001).

Conclusión

La seguridad del paciente y los servicios relacionados con la anestesia en India son insatisfactorios. Excepto en lo relacionado con la pulsioximetría y la PANI, los hospitales públicos y privados no docentes carecían incluso de monitorización estándar. Los institutos de referencia y los institutos corporativos de alto nivel y del sector público son también susceptibles de mejora.

Palabras clave:
Anestesia
Seguridad del paciente
Servicios sanitarios de prevención
Calidad de la atención sanitaria
Hospitales
India
Texto completo
Introduction

The Anaesthesiology, as a medical specialty, has contributed significantly toward improving perioperative patient safety and outcome. Today, the specific risk of anesthesia per se is low, but anesthesia contributes to the overall perioperative risk of patients.1 Nearly fifty percent of all adverse events in hospitalized patients are related to surgical care, and one-fourth of the patients who undergoes inpatient operation suffers from complications. Furthermore, at least half of the cases in which surgery led to harm are considered preventable.2 Therefore, patient safety, which is about the reduction and, if possible, elimination of avoidable harm to the patients, is of utmost importance in the perioperative period. Several interventions and safety measures have proven mortality and morbidity benefits during perioperative care. The changes in technology, such as anesthetic delivery systems and monitors, the application of human factors, the establishment of reporting systems are a few of them.3 As the anaesthesiologists are the primary caretaker of the patients undergoing surgery during the perioperative period, their work conditions and practices are likely to reflect the patient safety scenario well. The present survey was aimed to get the information about different safety measures and monitoring available to the anaesthesiologists working across different hospital set-ups of India.

Materials and methods

The present cross-sectional, national-level survey was conducted after getting approval from the affiliated institute with an exemption for consent and ethical review. Clinical trial registration was not required as per the rule of the Clinical Trial Registry of India. This survey was created and conducted using free online survey software and questionnaire tool service from Google Forms (https://docs.google.com/forms from Google LLC; Mountain View, California, United States) during February 2019 to May 2019. An electronic link to the Google form page containing the survey was sent to anesthesiologists affiliated with the different organizations across India via emails as well as WhatsApp (WhatsApp Inc.; Menlo Park, California, United States) in a few anesthesia-related groups of India. Both qualified practicing anesthesiologists and trainees (i.e., residents) were eligible to be included. If no response was received from the potential respondents within two weeks of the request, a reminder email or message was sent until the end of the survey. Responses were collected anonymously via the survey.

A questionnaire with predetermined multiple-choice options was developed internally by one author, was reviewed and edited by another author, and finally was validated by the other author along with one external anesthesiologist. The online survey questionnaire consisted of 18 questions (Annexure A) covering three specific aspects, i.e., workplace and experience, preparation for the case and patient monitoring, and patient safety-related drugs, equipment, and critical incidents reporting. The survey questions were designed to obtain necessary information about the practitioner's hospital type and sector {i.e. Autonomous Teaching Institutes (ATI), government medical colleges (GMC), private medical colleges (PMC), corporate teaching hospitals (CTH), government non-teaching hospitals (GNTH), and private non-teaching hospitals (PNTH)}, and experience of the responder. Preparation for the case and patient-related monitoring questionnaire had questions aimed at obtaining data related to preoperative machine checking, drug preparation, essential monitoring, and advanced monitoring. The American Society of Anaesthesiologists (ASA) standard monitoring, the Association of Anaesthesiologists of Great Britain and Ireland (AAGBI) patient safety, the American Society of Regional Anesthesia (ASRA), the World Health Organization-World Federation of Societies of Anaesthesiologists (WHO-WFSA) international guideline for patient safety, the All India Difficult Airway Association (AIDAA) guideline were taken as the basis for preparing the questionnaire. The survey questionnaire was in English only version.

The sample size for the present survey was calculated using the online free epidemiological tool, ‘OpenEpi’ (www.openepi.com). A hypothesized frequency (proportion) of the outcome, i.e., patient safety measures of 70%, with an absolute precision of 5% for a large population was taken. A design effect of 1.8 was also applied for the non-randomized nature of sampling. This gave us a sample size of 581 for 95% confidence level and 80% power. Therefore, we decided to conduct the survey either for the predetermined four months or till the desired numbers of responses were obtained, whichever is more.

The responses were directly downloaded from the Google form as an Excel file master chart. Post-download, grossly incomplete responses were excluded, and apparent discrepancy in the responses was processed for possible correction. If the discrepancy was not apparent, it was left as it is. The data were then expressed in absolute number and percentage scale. The processed master data was also divided into different groups based on the workplace and were further compared using Fisher's exact test and INSTAT software (GraphPad Prism Software Inc., La Jolla, CA, Unites States) for finding the differences. The ATI was taken as the standard, i.e., control for the purpose and a two-tailed P-value less than or equal to 0.05 was considered as significant.

Results

Approximately 3000 anaesthesiologists were approached for the survey, and a total of 615 (20.5%) responses were obtained. Fifteen responses (2.4%) were excluded from the analysis because of incomplete data, and a total of 600 (97.6%) responses were included. Five (0.8%) responses required slight data processing (from non-teaching to teaching where the responses showed to have residents but also indicated as a non-teaching hospital) for only one option/question.

The majority of the responders were young generation anaesthesiologists with less than ten years of experience and those working in teaching hospitals. Nearly 99% of responders were using peripheral oxyhemoglobin saturation (SpO2) and non-invasive blood pressure (NIBP) routinely followed by end-tidal carbon dioxide (EtCO2) by 88%. Preoperative surgical safety checklist use was, however, only 64.5%. Similarly, an oxygen analyzer was available to only 69.8% responders (Table 1). The compliance with the preoperative surgical safety checklist was significantly higher in the CTH (94.8%; P<0.001); it was similar in PMC and PNTH, and significantly lower in GMC and GNTH, as compared to the ATI (i.e., 70.6%) (Table 2). Pre-anesthetic anesthesia machine check-up and drug preparations were mostly done by residents in the teaching hospitals, and consultants and technicians equally in non-teaching hospitals.

Table 1.

Number and percentage distribution of responders, availability and practice of standard and essential monitoring and pre-anesthetic preparations in the cohort.

Questions with options as parameters  n (%) 
You are working as
Postgraduate  101 (16.83) 
Practicing anesthesiologist  499 (83.16) 
You have an experience of
<5 years  232 (38.66) 
5–10 years  135 (22.5) 
10–20 years  130 (21.66) 
>20 years  103 (17.16) 
You are working at
Autonomous Teaching Institute  68 (11.33) 
Government Medical College  117 (19.50) 
Private Medical College  62 (10.33) 
Corporate Teaching Hospital  97 (16.16) 
Government Non-teaching Hospital  51 (8.51) 
Private Non-teaching Hospital  203 (33.8) 
Others  02 (0.33) 
Do you fill surgical safety checklist routinely?
Yes  387 (64.5) 
No  212 (35.33) 
Blank  01 (0.16) 
Who checks the anesthesia machine and safety equipment preoperatively?
Technician or Nursing office  343 (57.16) 
Resident  276 (46.0) 
Consultant  268 (44.66) 
Who prepares the anesthesia related drug preoperatively?
Technician or Nursing office  225 (37.5) 
Resident  302 (50.33) 
Consultant  300 (50.0) 
What are the monitoring available in your working setup for routine use
Peripheral oxyhemoglobin saturation  598 (99.66) 
End-tidal carbon-di-oxide  530 (88.33) 
Non-invasive Blood Pressure  593 (98.83) 
Skin temperature  357 (59.5) 
Core temperature  270 (45.0) 
Minimum alveolar concentration  325 (54.16) 
Neuromuscular blockade testing/monitoring  191 (31.83) 
Bi-spectral Index  193 (32.16) 
Is Oxygen analyzer available in your anesthesia machine?
Yes  419 (69.83) 
No  180 (30.0) 
Blank  01 (0.16) 
Is Anesthesia Gas analyzer available in your anesthesia machine/monitor?
Yes  339 (56.5) 
No  255 (42.5) 
Blank  06 (1.0) 

n: number, N: total number is 600.

Table 2.

Pre anesthetic preparations sub-grouped as per working set-ups and compared using Fisher's exact test, taking ATI as standard.

Questions and options  ATI [N=68]  GMC [N=117]  P value  PMC [N=62]  P value  CTH [N=97]  P value  GNTH [N=51]  P value  PNTH [N=203]  P value 
Do you fill surgical safety checklist routinely?
Yes  48 (70.58)  46 (39.31)  <0.0001  43 (69.35)  1.000  92 (94.84)  <0.0001  21 (41.17)  0.001  137 (67.48)  0.763 
No  20 (29.41)  71 (60.68)  <0.0001  19 (30.64)  1.000  04 (4.12)  <0.0001  30 (58.82)  0.001  66 (32.51)  0.763 
Blanks  00 (00)  00 (00)  –  00 (00)  –  01 (1.03)  1.000  00 (00)  –  00 (00)  – 
Who checks the machine and safety equipment
Technician or Nursing office  42 (61.76)  39 (33.62)  0.0002  30 (48.38)  0.158  77 (79.38)  0.014  28 (54.90)  0.459  126 (62.06)  1.000 
Resident  51 (75)  108 (92.30)  0.001  38 (61.29)  0.130  54 (55.67)  0.013  11 (21.56)  <0.0001  14 (6.89)  <0.0001 
Consultant  13 (19.11)  20 (17.09)  0.842  23 (37.09)  0.030  44 (45.36)  0.0005  25 (49.01)  0.0007  142 (69.95)  <0.0001 
Who prepares the drug preoperatively?
Technician or Nursing office  24 (35.29)  22 (18.80)  0.014  25 (40.32)  0.590  51 (52.57)  0.038  19 (37.25)  0.849  85 (41.87)  0.392 
Resident  60 (88.23)  107 (91.45)  0.607  44 (70.96)  0.016  63 (64.94)  0.0009  10 (19.60)  <0.0001  18 (8.86)  <0.0001 
Consultant  16 (23.52)  22 (18.80)  0.455  16 (25.80)  0.839  51 (52.57)  0.0002  35 (68.62)  <0.0001  158 (77.83)  <0.0001 

n: number, N: total number, ATI: Autonomous Teaching Institutes, CTH: Corporate Teaching Hospital, GMC: Government Medical College, PMC: Private Medical College, GNTH: Government non-teaching hospital, PNTH: Private non-teaching hospital. Note. Two responders were from other category and is not included in the analysis.

Ninety-two percent of the operation theater (OT) and 77% of the Post Anesthesia Care Unit (PACU) were having defibrillators, while second-generation laryngeal mask airway (LMA) was available to 80% of the responders. However, an emergency cricothyrotomy kit for the emergency front of neck access in difficult airway situations was available to only 34.8% responders. Advanced equipment like ultrasound machine (USG), and peripheral nerve stimulators (PNS) were also not available to nearly 50% of the responders (Table 3).

Table 3.

Availability of different equipment, medications and systems for patient safety among the entire cohort.

Questions with options as parameters  n (%) 
Do you have access to defibrillator in OR?
Yes  553 (92.16) 
No  46 (7.66) 
Blank  01 (0.16) 
Do you have access to defibrillator in PACU?
Yes  463 (77.16) 
No  135 (22.5) 
Blank  02 (0.33) 
Do you have second generation LMA in OR?
Yes  481 (80.1) 
No  118 (19.66) 
Blank  01 (0.16) 
Do you have emergency cricothyrotomy kit in OR?
Yes  209 (34.83) 
No  389 (64.83) 
Blank  02 (0.33) 
Do you have USG for CV line placement in OR?
Yes  357 (59.5) 
No  242 (40.33) 
Blank  01 (0.5) 
Do you have USG for nerve blocks in OR?
Yes  339 (56.5) 
No  258 (43.0) 
Blank  03 (0.5) 
Do you have PNS for nerve blocks in OR?
Yes  376 (62.66) 
No  220 (36.66) 
Blank  04 (0.66) 
Do you have lipid emulsion readily available in OR?
Yes  244 (40.66) 
No  353 (58.83) 
Blank  03 (0.5) 
Do you have anonymous incident reporting system?
Yes  226 (37.66) 
No  372 (62.0) 
Blank  02 (0.33) 

n: number, N: total number is 600, OR: operating room, PACU: Post-anesthesia Care Unit, CV: central vein, LMA: laryngeal mask airway, PNS: peripheral nerve stimulator, USG: ultrasonography.

The ATIs had the highest percentages of availability of monitoring and devices, followed by the CTH. No statistically significant difference was found between ATI and CTH except for neuromuscular testing and Bi-spectral Index monitoring; CTH had slightly lower, P=0.01 (Table 4). Except for SpO2 and NIBP, other standard monitoring was significantly lower in the PMCs, GMCs, GNTH, and PNTHs as compared to both ATI and CTH (Table 4).

Table 4.

Availability and practice of standard and essential monitoring sub-grouped as per working set-ups and compared using Fisher's exact test, taking ATI as standard.

Questions, options and parameters  ATI [N=68]  GMC [N=117]  P value  PMC [N=62]  P value  CTH [N=97]  P value  GNTH [N=51]  P value  PNTH [N=203]  P value 
Monitoring available in your working setup for routine use
Peripheral oxy-hemoglobin saturation  68 (100.0)  116 (99.14)  1.000  62 (100.0)  –  97 (100.0)  –  51 (100.0)  –  202 (99.50)  1.000 
End-tidal carbon-di-oxide  68 (100.0)  107 (91.45)  0.014  57 (91.93)  0.022  97 (100.0)  –  37 (72.54)  <0.0001  163 (80.29)  <0.0001 
Non-invasive blood pressure  67 (98.52)  115 (98.29)  1.000  61 (98.38)  1.000  97 (100.0)  0.412  50 (98.03)  1.000  201 (99.01)  1.000 
Skin temperature  62 (91.17)  74 (63.24)  <0.0001  40 (64.51)  0.0002  66 (68.04)  0.0005  25 (49.01)  <0.0001  90 (44.33)  <0.0001 
Core temperature  48 (70.58)  46 (39.31)  <0.0001  28 (45.16)  0.004  79 (81.44)  0.132  10 (19.60)  <0.0001  59 (29.06)  <0.0001 
Minimum alveolar concentrations  58 (85.29)  71 (60.68)  0.0004  40 (64.51)  0.007  78 (80.41)  0.533  18 (35.29)  <0.0001  60 (29.05)  <0.0001 
Neuromuscular blockade testing  50 (73.52)  39 (33.33)  <0.0001  19 (30.64)  <0.0001  53 (54.63)  0.0149  8 (15.68)  <0.0001  22 (10.83)  <0.0001 
Bi-spectral index  48 (70.58)  53 (45.29)  0.001  16 (25.80)  <0.0001  47 (48.45)  0.016  9 (17.64)  <0.0001  20 (9.85)  <0.0001 
Is oxygen analyzer available in your anesthesia machine?
Yes  65 (95.58)  85 (72.64)  <0.0001  45 (72.58)  0.0004  85 (87.62)  0.101  29 (56.86)  <0.0001  109 (53.69)  <0.0001 
No  3 (4.41)  32 (27.35)  <0.0001  17 (27.41)  0.0004  12 (12.37)  0.101  22 (43.13)  <0.0001  93 (45.81)  <0.0001 
Blanks  00 (00)  00 (00)  –  00 (00)  –  00 (00)  –  00 (00)  –  01 (0.49)  1.000 
Is anesthesia gas analyzer available in your anesthesia machine/monitor?
Yes  59 (86.76)  73 (62.39)  0.0004  35 (56.45)  0.0002  81 (83.50)  0.661  26 (50.98)  <0.0001  64 (31.52)  <0.0001 
No  09 (13.23)  44 (37.60)  0.0004  27 (43.54)  0.0002  15 (15.46)  0.823  25 (49.01)  <0.0001  134 (66.0)  <0.0001 
Blanks  00 (00)  00 (00)  –  00 (00)  –  01 (1.03)  1.000  00 (00)  –  05 (2.46)  0.335 

n: number, N: total number, ATI: Autonomous Teaching Institutes, CTH: Corporate Teaching Hospital, GMC: Government Medical College, PMC: Private Medical College, GNTH: government non-teaching hospital, PNTH: private non-teaching hospital. Note. Two responders were from other category and is not included in the analysis.

The CTH had significantly higher access to second-generation LMA for airway management even as compared to ATI (95.8% versus 75%; P<0.0001), but the availability of emergency cricothyrotomy kit was indifferent. While the PMCs were at par with the ATI except for USG availability, USG, PNS, Cricothyrotomy kit availability was significantly lower in the GMCs as compared to ATI (Table 5). Anonymous incident reporting was, however, very poor in all set-ups except for CTH (78.3%, P<0.0001 for almost all).

Table 5.

Availability of different equipment, medications and systems for patient safety among the different working set-ups and compared using Fisher's exact test, taking ATI as standard.

Questions with options as parameters  ATI [N=68]  GMC [N=117]  P value  PMC [N=62]  P value  CTI [N=97]  P value  GNTI [N=51]  P value  PNTI [N=203]  P value 
Do you have access to defibrillator in OR?
Yes  67 (98.52)  108 (92.30)  0.094  61 (98.38)  1.000  96 (98.96))  1.000  44 (86.27)  0.020  176(86.66)  0.004 
No  01 (1.47)  09 (7.69)  0.094  01 (1.61)  1.000  01 (1.03)  1.000  07 (13.72)  0.020  26(12.80)  0.004 
Blanks  00 (00)  00 (00)  –  00 (00)  –  00 (00)  –  00 (00)  –  01(0.49)  1.000 
Do you have access to defibrillator in PACU?
Yes  63 (92.64)  81 (68.23)  0.0002  58 (93.54)  1.000  90 (92.78)  1.000  31 (60.78)  <0.0001  139(68.47)  <0.0001 
No  05 (7.35)  36 (26.49)  0.0002  04 (6.45)  1.000  07 (7.21)  1.000  20 (39.21)  <0.0001  62(30.54)  <0.0001 
Blanks  00 (00)  00 (00)  –  00 (00)  –  00 (00)  –  00  –  02(0.98)  1.000 
Do you have second generation LMA in OR?
Yes  51 (75.0)  94 (80.34)  0.459  56 (90.32)  0.036  93 (95.87)  <0.0001  35 (68.62)  0.535  150(73.89)  1.000 
No  17 (25.0)  23 (19.65)  0.459  06 (9.6)  0.036  04 (4.12)  <0.0001  16 (31.37)  0.535  52(25.61)  1.000 
Blanks  00 (00)  00 (00)  –  00 (00)  –  00 (00)  –  00 (00)  –  01(0.49)  1.000 
Do you have emergency cricothyrotomy kit in OR?
Yes  25 (36.7)  34 (29.05)  0.326  27 (43.5)  0.476  49 (50.51)  0.111  17 (33.33)  0.846  57(28.07)  0.222 
No  43 (63.23)  83 (70.94)  0.326  34 (54.8)  0.374  48 (49.48)  0.111  34 (66.66)  0.846  145(71.42)  0.225 
Blanks  00 (00)  00 (00)  –  01 (1.61)  0.476  00 (00)  –  00 (00)  –  01(0.49)  1.000 
Do you have USG for central line placement in OR?
Yes  59 (86.76)  65(55.55)  <0.0001  43 (69.35)  0.019  86(88.65)  0.809  13 (25.49)  <0.0001  91(44.82)  <0.0001 
No  08 (11.76)  51(43.58)  <0.0001  19 (30.64)  0.009  11 (11.34)  1.000  38 (74.50)  <0.0001  112 (55.17)  <0.0001 
Blanks  01 (1.47)  01(0.85)  1.000  00 (00  1.000  00 (00)  0.412  00 (00)  1.000  00 (00)  0.250 
Do you have USG for nerve blocks in OR?
Yes  51 (75.0)  67 (57.26)  0.017  43 (69.35)  0.557  86 (88.65)  0.033  14 (27.45)  <0.0001  78 (38.42)  <0.0001 
No  15 (22.0)  49 (41.88)  0.006  19 (30.64)  0.319  11 (11.34)  0.082  37 (72.54)  <0.0001  125 (61.57)  <0.0001 
Blanks  02 (2.94)  01 (0.85)  0.555  00  0.497  00 (00)  0.168  00 (00)  0.506  00 (00)  0.062 
Do you have PNS for nerve blocks in OR?
Yes  52 (76.47)  82 (70.08)  0.396  43 (69.35)  0.430  71 (73.19)  0.717  21 (41.17)  0.0001  106 (52.21)  0.0006 
No  16 (23.52)  34 (29.05)  0.493  19 (30.64)  0.430  25 (25.77)  0.855  29 (56.86)  0.0003  96 (47.29)  0.0006 
Blanks  00 (00)  01 (0.85)  1.000  00 (00)  –  01 (1.03)  1.000  01 (1.96)  0.428  01 (0.49)  1.000 
Do you have lipid emulsion readily available in OR?
Yes  29 (42.64)  38 (32.47)  0.204  30 (48.38)  0.597  56 (57.73)  0.060  17 (33.33)  0.344  73(35.96)  0.385 
No  39 (57.35)  79 (67.52)  0.204  31 (50.0)  0.481  41 (42.26)  0.060  34 (66.66)  0.344  128(63.05  0.471 
Blanks  00 (00)  00 (00)  –  01 (1.61)  0.476  00 (00)  –  00 (00)  –  02(0.98)  1.000 
Do you have anonymous incident reporting system?
Yes  20 (29.41)  31 (26.49)  0.733  25 (40.32)  0.202  76 (78.35)  <0.0001  15 (29.41)  1.000  59(29.06)  1.000 
No  48 (70.58)  86 (73.50)  0.733  37 (59.67)  0.202  21 (21.64)  <0.0001  36 (70.58)  1.000  142(69.95)  1.000 
Blanks  00 (00)  00 (00)  –  00 (00)  –  00 (00)  –  00 (00)  –  02(0.98)  1.000 

n: number, N: total number, ATI: Autonomous Teaching Institutes, CTH: Corporate Teaching Hospital, GMC: Government Medical College, PMC: Private Medical College, GNTH: government non-teaching hospital, PNTH: private non-teaching hospital, OR: operating room, PACU: Post-anesthesia Care Unit, LMA: laryngeal mask airway, USG: ultrasonography, PNS: peripheral nerve stimulator. Note. Two responders were from other category and is not included in the analysis.

Discussion

The result of the present survey indicates that the facilities available and practices are variable across all the hospital set-ups of India. While the apex institutes like ATI, as well as a CTH, had better facilities and practices for patient safety, betterment scopes are still there even for these two set-ups. The Safe Surgery Saves Lives Study under the banner of the WHO showed that a structured checklist, with simple interventions spanning the perioperative period, could markedly improve surgical outcomes and even affect mortality.4 The point needs to be stressed that this effect was noted both across the developed and developing countries.4 Our present survey, however, shows poor compliance to the surgical safety checklist except for the CTH. The effect of anesthesia practice and the patient outcome remains unknown; however, provider errors continue to contribute to the perioperative events.5 Although anesthesia delivery systems (workstations and care-stations) have evolved a lot with many safety features, closed claim database analysis still indicates that failure to complete a full machine check leads to morbidity and mortality.5

Moreover, automated electronic checkout at the start, which is usually a standard in the present-day workstations, is not unfailing and allows circuit dysfunction to go unnoticed.6 Furthermore, most of the workstations also allow us to accept some dysfunction and thus proceed to leave a space for error to occur.6 The present survey indicates that the pre-anesthetic machine check-up was routine. However, it was mostly done by the technicians, nurses, and residents in teaching hospitals, leaving us to speculate about its complete functionality.

Expert opinion based on the current literature suggests that the postoperative morbidity and mortality can probably be improved by implementing evidence-based safety protocols, checklists, appropriate patient monitoring.7 The provision of appropriate life support measures takes precedence both during elective and emergency, and patient monitoring is intended for quality patient care. The ASA Committee on Standards and Practice Parameters recommends continual monitoring of the patient's oxygenation, ventilation, circulation, and temperature during all anesthesia procedures.8 The pulse oximetry, NIBP, electrocardiogram, inspired and expired oxygen, carbon dioxide, nitrous oxide, and volatile anesthetic agent if used, airway pressure, PNS if neuromuscular blocking drugs used, and temperature for any procedure lasting more than 30minutes duration is considered as minimum monitoring for anesthesia by the AAGBI.9 The present survey, however, points toward a very poor availability and practice of basic standards monitoring modality except for the pulse oximetry. Even EtCO2 monitoring was lacking in many set-ups. On the contrary, EtCO2 monitoring for confirmation of correct placement of an endotracheal tube is a mandatory and highly recommended practice by the WHO-WFSA.10 A recent Indian survey on anesthesia gases and fresh gas flow indicates that the use of Nitrous Oxide is very much prevalent.11 The use of oxygen analysis as a measure to prevent and detect hypoxia or hypoxemic mixture delivery during Nitrous oxide-based anesthesia is recommended.9 However, the present survey indicates that the availability and the practice of monitoring of end-tidal oxygen and anesthesia gas concentrations were very poor; 50–75% of the GMCs, PMCs, and non-teaching hospitals of both public and private sectors did not have the facilities.

The Utstein formula for survival indicates that the survival of a patient depends on medical science, educational efficiency, and local implementation.12 It is therefore clear that only the advancement of medical science in terms of evidence-based medicine and knowledge of healthcare providers is not enough for patient safety and survival; local implementation of those evidence into practice is equally essential. The present survey shows a poor implementation of preventive strategies like the availability of second-generation supraglottic airways, USG for central venous catheterization, regional anesthesia, and PNS for guiding nerve blocks. Second generation LMA has been recommended as a mandatory content of difficult airway cart by the AIDAA.13 The Difficult Airway Society (United Kingdom) recommends second-generation devices to be available in all hospitals for both routine use and rescue airway management.14 Even the difficult airway algorithm of the ASA indicates multiple crucial roles for this simple, low-cost, and relatively readily available device.15 However, our survey indicates that this device is not even available in many of the teaching and tertiary level institutes and hospitals. Considering the airway as one of the most critical causes of anesthesia-related mortality and litigation, this result of the survey is worrisome not only from the patient safety point of view but also from the practice condition of the anaesthesiologists across the country. Similar results were also shown for the availability of lipid emulsion. Intravenous lipid emulsion is the proven, immediate, and priority regimen for the treatment for local anesthetic systemic toxicity, which has the potential benefit in-terms of even mortality.16 While local anesthetics are used by the anaesthesiologists day-in and day-out, in every corner of the country, lipid emulsion was available only to 40% of the responders.

As far as our information and knowledge, no such previous survey was done in India. A recent survey conducted in the Peoples Republic of China on the anesthesia quality and patient safety also indicates similar results, i.e., reduced availability and practice of intraoperative standard monitoring.17 The first-ever World Patient Safety Day was celebrated by the WHO on 2019 September 17, to establish patient safety as a global health priority. Our survey shows that a lot can be done toward improving patient safety by the anaesthesiologists, anesthesia societies, and administrations.

The present study, although, has adequate power with the 600 sample size, the number 600 represents only a minor part of the practitioners in a country like India having nearly 18000 anaesthesiologists. The cross-sectional surveys and questionnaire as a tool also have its limitations. Despite having these limitations, we believe that the responders were 100% honest in answering, and the survey puts a lime-light on the practice condition and patient safety-related issues in India. Although the survey asked about preoperative preparation, some relevant aspects such as the safe use of medication (labeling of high-risk medication, marking of routes of administration) are not explicitly addressed in the questionnaire. Furthermore, the questionnaire used is not previously validated one and data are not much stratified.

To conclude, patient safety in the perioperative period and anesthesia-related services for surgical patients in India is poor. Except for pulse oximetry and NIBP, the public and private sector non-teaching hospitals were lacking even for basic and minimum other standard monitorings too. The secondary level and non-teaching hospital lack a lot in this aspect in terms of patient-safety related equipment and practice, but, referral and top-level corporate and public sector teaching hospitals too have room for improvement. However, we need validation of this questionnaire and more surveys with larger sample.

Plagiarism check note

Checked using http://smallseotools.com/plagiarism-checker/ on 14th Nov 2019: 99% Unique. The 1% (one sentence) which is shown as plagiarized is actually a recommendation from a society which is duly cited.

CTRI Registration: Not applicable for an online survey as per the Clinical Trial Registry of India.

Contribution

All authors contributed in tool development, data collection, analysis, interpretation and manuscript draft preparation and revision. The corresponding author will act as guarantor.

Funding

None declared.

Conflicts of interest

None.

Acknowledgment

We acknowledge the help of Mrs. Shikha Srivastava, Research Assistant of Dr. Habib Md Reazaul Karim for her help in calculations and analysis. We also acknowledge the help of Prof. (Dr.) P.K. Neema, head of the department for giving us permission for conducting this survey. Lastly, we thank the responders for taking our survey.

References
[1]
J. Wacker, S. Staender.
The role of the anesthesiologist in perioperative patient safety.
Curr Opin Anaesthesiol, 27 (2014), pp. 649-656
[2]
World Health Organisation. Safe Surgery. Geneva: WHO. Available from http://www.who.int/patientsafety/topics/safe-surgery/en/ [cited 30.09.19].
[3]
R. Botney.
Improving patient safety in anesthesia: a success story?.
Int J Radiat Oncol Biol Phys, 71 (2008), pp. S182-S186
[4]
A.B. Haynes, T.G. Weiser, W.R. Berry, S.R. Lipsitz, A.H. Breizat, E.P. Dellinger, et al.
A surgical safety checklist to reduce morbidity and mortality in a global population.
N Engl J Med, 360 (2009), pp. 491-499
[5]
S.P. Mehta, J.B. Eisenkraft, K.L. Posner, K.B. Domino.
Patient injuries from anesthesia gas delivery equipment: a closed claims update.
Anesthesiology, 119 (2013), pp. 788-795
[6]
M.P. Dosch.
Automated checkout routines in anesthesia workstations vary in detection and management of breathing circuit obstruction.
Anesth Analg, 118 (2014), pp. 7-1254
[7]
M.S. Avidan, S. Kheterpal.
Perioperative mortality in developed and developing countries.
[8]
Committee on Standards and Practice Parameters. Standards for Basic Anesthetic Monitoring. The American Society of Anesthesiologists. 21 Oct 1986, last amended 28 Oct 2015. Available from: https://www.asahq.org/standards-and-guidelines/standards-for-basic-anesthetic-monitoring [cited 30.09.19].
[9]
M.R. Checketts, R. Alladi, K. Ferguson, L. Gemmell, J.M. Handy, A.A. Klein, et al.
Recommendations for standards of monitoring during anaesthesia and recovery 2015: Association of Anaesthetists of Great Britain and Ireland.
Anaesthesia, 71 (2016), pp. 85-93
[10]
A.W. Gelb, W.W. Morris, W. Johnson, A.F. Merry, A. Abayadeera, N. Belli, et al.
International Standards for a Safe Practice of Anesthesia Workgroup World Health Organization-World Federation of Societies of Anaesthesiologists (WHO-WFSA) International Standards for a Safe Practice of Anesthesia.
Anesth Analg, 126 (2018), pp. 2047-2055
[11]
M. Kumar, M. Sinha, H.M. Reazaul Karim, C.K. Panda, S.K. Singha.
Practice pattern of fresh gas flow and volatile agent choices among anesthesiologists working in different Indian hospitals: an online survey.
Anesth Essays Res, 12 (2018), pp. 907-913
[12]
E. Søreide, L. Morrison, K. Hillman, K. Monsieurs, K. Sunde, D. Zideman, et al.
Utstein Formula for Survival Collaborators. The formula for survival in resuscitation.
Resuscitation, 84 (2013), pp. 93-1487
[13]
S.N. Myatra, A. Shah, P. Kundra, V. Ramkumar, J.V. Divatia, U.S. Raveendra, et al.
All India Difficult Airway Association 2016 guidelines for the management of unanticipated difficult tracheal intubation in adults.
Indian J Anaesth, 60 (2016), pp. 885-898
[14]
C. Frerk, V.S. Mitchell, A.F. McNarry, C. Mendonca, R. Bhagrath, A. Patel, et al.
Difficult Airway Society 2015 guidelines for management of unanticipated difficult intubation in adults.
Br J Anaesth, 115 (2015), pp. 827-848
[15]
Committee on Standards and Practice Parameters, J.L. Apfelbaum, C.A. Hagberg, R.A. Caplan, C.D. Blitt, R.T. Connis, D.G. Nickinovich, et al.
Practice guidelines for management of the difficult airway: an updated report by the American Society of Anesthesiologists Task Force on Management of the Difficult Airway.
Anesthesiology, 118 (2013), pp. 251-270
[16]
K. El-Boghdadly, A. Pawa, K.J. Chin.
Local anesthetic systemic toxicity: current perspectives.
Local Reg Anesth, 11 (2018), pp. 35-44
[17]
B. Zhu, H. Gao, X. Zhou, J.AT Anesthesia quality and patient safety in China: a survey Huang.
Am J Med Qual, 33 (2018), pp. 93-99
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