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Module I - Discharge Planning, Smoking Cessation,& Pulmonary Rehabilitation
CRC 431
Special Procedures
Discharge Planning
Definition: › Process› Facilitates moving patients from one level of
health care setting to another
The process of discharge planning begins the moment a person (patient) enters a particular health care setting.
Discharge Planning
Provides the foundation for quality post-acute (subacute) care.
Guides multidisciplinary team in transferring patient from health care facility to alternative care site.
Ensures safety and efficacy of continued patient care.
Aims to contain health care costs & improve patient outcomes.
Discharge Planning
Attempts to reduce hospital length of stay (LOS).
Attempts to reduce unplanned readmission to hospital.
Improves coordination of services following discharge from hospital.
Discharge Planning
Discharge planning should ensure that patients are discharged from hospitals at an appropriate time in the course of their care.
Discharge Planning
Indications:› For all respiratory patients being considered for
discharge or transfer to alternative health care settings.
Contraindications:› NONE
Discharge Planning Websites
http://www.respiratoryupdate.com/members/AARC-CPG-Discharge-Planning-for-the-Respiratory-Care-Patient.cfm
Discharge Planning
Arrange services: Home care Nursing home Rehabilitative care Out-patient medical
treatment Hospice
Hospital discharge planning is usually conducted by the hospital’s Social Services Department.
Discharge PlanningCAVEATS and PROVISOS
Facilities with the most vacancies may
not be desirable.
Facilities located too far from family home
should not be recommended.
Patient/legal representative must consent to
placement.
Discharge Planning Multidisciplinary Team
› Utilization review› MD› Discharge planning (social service)› Respiratory therapy› Nursing› Dietary/nutrition› Physical/occupational therapy› Psychiatry/psychology› DME/home care company
Discharge Planning
MULTIDISCIPLINARY TEAM Utilization review: recommends consideration
of patient discharge, & documents patient’s in-hospital care
MD: writes order for discharge Discharge planning: ensures that patient can
be discharged to subacute care setting RT: provides respiratory care plan and follow-
up
Discharge Planning
MULTIDISCIPLINARY TEAM Nursing: composes nursing plan ; assesses
patient status; provides follow-up Dietary: assesses & determines nutritional
needs PT/OT: recommends modalities/procedures Psychiatry/psychology: emotional
status/counseling/support DME/home care:
equipment/supplies/emergencies RE: equipment
Discharge Planning
Site & Support Service Goals & needs of patient determine
appropriate site for discharge. Resources at proposed site must meet
patient needs.› Competent staff› Respiratory/ventilatory needs› Other health care services
Discharge Planning
Home discharge:› Caregivers’ abilities to learn/perform must be
evaluated.› Caregivers’ competencies must be documented.› Caregivers must provide 24-hour coverage.› Multiple caregivers (professional & non-
professional) required.
Discharge Planning
Confirmation of Skills among Nonprofessionals
verbal communication
demonstration
return-demonstration
Discharge PlanningQualities Required of DME
company’s accreditation status
cost & scope of services
dependability/location/availability (24/7)
Discharge Planning
HOME ENVIRONMENT
no fire, health, or safety hazards
adequate heating, cooling, & ventilation
adequate electrical supply
capable of supporting RT & ancillary equipment
Discharge PlanningRT HOME EQUIPMENT CONSIDERATIONS
available space
electrical power supply
amperage/grounded outlets
absence of hazardous appliances
Discharge Planning
Possible Complications of Discharge Planning:
Patient discharged before full implementation of plan
Natural course of the disease (e.g., patient dies)
Factors beyond control of discharge planners
Smoking Cessation
About 46 million American adults smoke cigarettes, but most smokers are either actively trying to quit or want to quit.
Nicotine content in cigarettes has slowly increased over the years.
One study found an average increase of 1.6% per year between the years of 1998 and 2005.
Smoking Cessation
After 1 year off cigarettes, the risk of CAD is reduced by half.
After 15 years of abstinence, the risk is similar to that for people who've never smoked.
In 5 to 15 years, the risk of stroke for ex-smokers returns to the level of those who've never smoked.
Smoking Cessation
Male smokers who quit between ages 35 to 39 add an average of 5 years to their lives.
Female quitters in this age group add 3 years.
Men and women who quit at ages 65 to 69 increase their life expectancy by 1 year.
Nicotine Addiction
Crosses BBB in 10-20 seconds after inhalation. Induces euphoria & acts as its own reinforcer. Leads to nicotine withdrawal syndrome when
absent. It’s a stimulant and it’s a depressant. Elimination half-life is about 2 hours. Metabolized by liver by P450 enzyme system.
Nicotine Addiction
Increases levels of dopamine (relaxation & reward) & norepinephrine in brain.
These levels drop when smoker quits. Body reacts by having nicotine withdrawal
› Edginess› Hunger
Nicotine Replacement Therapy
Reduces nicotine withdrawal & craving by supplying small amounts of nicotine.
Contains about ⅓ to ½ the amount of nicotine found in cigarettes.
Nicotine Replacement Therapy
Forms of NRT:› Nicotine gum › Nicotine patch › Nicotine nasal spray › Nicotine inhaler
Nicotine Replacement Therapy
Nicotine patches & nicotine gum are available over-the-counter.
Nicotine nasal spray & nicotine inhaler are currently available only by prescription.
Provide a small amount of nicotine to relieve withdrawal symptoms when quitting.
No smoking while using NRT. Goal is to be free of cigarettes and nicotine substitutes
within 3 to 6 months.
Nicotine Replacement Therapy
NICOTINE GUM Releases small amounts of nicotine,
absorbed into the body through the mucous membranes of the mouth.
Chew 10 to 15 pieces of gum a day; some chew 30.
Nicotine Replacement Therapy 1 piece at a time. Chew slowly. Sense peppery taste &
feel tingle in mouth. Park between cheek &
gum of mouth. Tingle gone. Resume chewing until
tingle returns. Park gum in different
area in mouth.
These steps repeated for 30 minutes.
Chewing NOT to be continuous.
NO swallowing saliva while chewing.
Nicotine NOT absorbed by GI system.
Chew daily for 2 to 3 months.
NO drinking fluids while or just after chewing.
Nicotine Replacement Therapy
NICOTINE PATCH Applied to skin for about 24 hours. No smoking while wearing patch. May cause:
› Headaches› Dizziness› Blurred vision diarrhea› Upset stomach
Nicotine Replacement Therapy
NICOTINE PATCH Apply to clean, dry, non-hairy part of upper
arm. Avoid using creams & lotions. Showering is permissible.
Nicotine Replacement Therapy
NICOTINE SPRAY Prescription required. No smoking while using spray. Delivers nicotine through nose. Dosage is flexible. Nicotine cravings eliminated quickly. Nicotine absorbed through mucous
membranes in nasal cavity.
Nicotine Replacement Therapy
NICOTINE INHALER Prescription required. No smoking while using spray. Delivers nicotine through mouth & throat. Dosage is flexible. 10 puffs = 1 cigarette.
Zyban
Zyban (Wellbutrin) = bupropion hydrochloride Non-nicotine prescription drug. Increases level of dopamine & norepinephrine. Zyban + NRT = more effective than either alone. Taken BID (AM and PM). 1 week needed to reach therapeutic dose. Set Quit Date 1 to 2 weeks after starting Zyban. Average length of use: 7 to 12 weeks.
Chantix
Chantix = varenicline Blocks pleasant effects of nicotine in brain. Taken PO (per os) QD or BID with food & water. Begin Chantix 1 week before Quit Date. Taken for 12 weeks:
› If smoking stopped after 12 weeks, another 12 weeks prescribed.
› If smoking continues after 12 weeks, consult with MD for another plan.
Five A’s
Ask: patient’s tobacco use & record response. Assess: willingness & readiness to attempt
quitting. Advise: clear, nonjudgmental, and suggestions
for quitting. Assist: provide cessation plan to patient. Arrange: schedule follow-up visits for
discussion.
Pulmonary Rehabilitation
Goals› Maximize patient’s functional ability› Minimize impact in
Patient Family Community
› Improve quality of life› Control & alleviate symptoms
Pulmonary Rehabilitation
Historical Perspective› 1951: Dr Barach recommended physical
reconditioning for COPD patients Walk without becoming dyspneic
› Barach was ignored; O2 therapy & bed rest prescribed Skeletal muscle deterioration Fatigue & weakness Increased dyspnea Homebound, room bound, bed bound
Pulmonary Rehabilitation
Historical Perspective› 1962: Pierce confirmed Barach› Pierce found that exercising COPD patients
Decreased pulse Decreased respiratory rates Decreased minute ventilation Decreased CO2 production
Improved pulmonary function
Pulmonary Rehabilitation
Historical Perspective› Paez demonstrated
Efficiency of motion Decreased O2 consumption
› Smoking cessation included› Education added
Pathophysiology Equipment Medications
Pulmonary Rehabilitation
Scientific Basis› Focus on patient› Include clinical sciences
Quantify degree of physiologic impairment Establish outcomes for reconditioning
› Include social sciences Psychological Social Vocational
Pulmonary Rehabilitation
Physical Reconditioning› Exercise increases energy demands
Increased circulation Increased ventilation Increased O2 deliver Increase CO2 elimination
› If O2 demands NOT met Blood lactate level increases CO2 increases as lactic acid buffered Increased stimulus to breathe
Pulmonary Rehabilitation
This point is called the “onset of blood lactate accumulation,” or OBLA
Abrupt rise in PaCO2 & minute ventilation: called “ventilatory threshold”
Beyond VT, metabolism = anaerobic respiration (decreased NRG production efficiency, lactic acid rise, fatigue)
Pulmonary Rehabilitation
Physical Reconditioning› MVV index of respiratory system’s ability to
handle increased physical activity› MVV = FEV1 x 35› Normal: 60% to 70% of predicted MVV during
max exercise› Indicates adequate respiratory reserve› Indicates ventilation NOT primary limiting factor
for ending exercise
Pulmonary Rehabilitation
Physical Reconditioning› MVV decreased with COPD› COPDs have limited exercise ability
Increased CO2 production
Respiratory acidosis SOB O2 consumption increases faster than normal
Pulmonary Rehabilitation
Physical Reconditioning› Rehab programs must:
Physically recondition Increase exercise tolerance
Pulmonary Rehabilitation
Psychosocial Support› Indicators bettor predictors of frequency & LOS
for COPD patients compared to PFTs› Psychosocial indicators better determine rehab
program completion than physical reconditioning› COPD negatively affects person’s outlook on life› Can reduce motivation
Pulmonary Rehabilitation
Psychosocial Support› Depression/hostility occur with acute & chronic
disease› Economic loss & fear of death produce hostility › Interaction among patients is beneficial› Patient’s lacking social support at higher risk for
re-hospitalization› Intolerance for physical exertion lessens social
activity
Pulmonary Rehabilitation
Psychosocial Support› Physical reconditioning & psychosocial support
linked› Reducing exercise intolerance & improving
cardiovascular response to exercise = independent, active lifestyle
› Improve social importance & self-worth› Occupational training & job placement important
Pulmonary Rehabilitation
Program Goals› Control respiratory infection› Basic airway management› Improve ventilation & cardiac status› Improve ambulation & other physical activities› Reduce medical costs› Reduce hospitalizations
Pulmonary Rehabilitation
Program Goals› Reduce LOS when hospitalized› Reduce # of MD office visits› Provide psychosocial support› Occupational training/job placement› Family education, counseling, support› Patient education, counseling, support
Pulmonary Rehabilitation
PROGRAM OBJECTIVES› Development of diaphragmatic breathing skills› Development of stress management and relaxation techniques› Involvement in a daily physical exercise regimen to condition
both skeletal and respiratory-related muscles› Adherence to proper hygiene, diet, and nutrition› Proper use of medications, oxygen, and breathing equipment (if
applicable)› Application of airway clearance techniques (when indicated)› Focus on group support› Provisions for individual and family counseling
Pulmonary Rehabilitation
Chronic lung disease progressive & irreversible
Rehabilitation slows progressive deterioration Rehabilitation does NOT alter progressive
deterioration Rehabilitation improves tissue utilization of O2
by:› Increasing muscle use effectiveness› Promoting effective breathing techniques
Pulmonary Rehabilitation
O2 cost for given amount of ventilation is excessive
Training skeletal muscle groups alone NOT beneficial
Training respiratory related muscles improves exercise tolerance
Pulmonary Rehabilitation
Evaluation of Rehabilitation Program Outcomes› Changes in exercise tolerance› Before and after 6 minute walking distance› Review of patient home exercise logs› Strength measurement› Flexibility and posture› Performance on specific exercises (e.g., ventilatory muscle,
upper extremity)› Changes in symptoms› Dyspnea measurement comparison› Frequency of cough, sputum production, or wheezing› Weight loss or gain› Psychological test instruments
Pulmonary Rehabilitation
Evaluation of Rehabilitation Program Outcomes› Other changes› Activities of daily living (ADL) changes› Postprogram follow-up questionnaires› Preprogram and postprogram knowledge tests› Compliance improvement with pulmonary rehabilitation
medical regimen› Frequency and duration of respiratory exacerbations› Frequency and duration of hospitalizations› Frequency of emergency department visits› Return to productive employment
Pulmonary Rehabilitation
Program Results› Evaluate
Patient Program outcomes
› Preprogram/current program status› Data
Physiological Psychological Sociological
Pulmonary Rehabilitation
Potential Hazards› Cardiovascular abnormalities
Cardiac arrhythmias (can be reduced with supplemental O2 during exercise)
Systemic hypotension› Blood gas abnormalities
Arterial desaturation Hypercapnia Acidosis
› Muscular abnormalities Functional or structural injuries Diaphragmatic fatigue and failure Exercise-induced muscle contracture
Pulmonary Rehabilitation
Potential Hazards› Miscellaneous
Exercise-induced asthma (more common in young patients with asthma than in patients with COPD)
Hypoglycemia Dehydration
Pulmonary Rehabilitation
Patient Selection› Evaluation› Testing
Patient Evaluation› History (medical, psychological, vocational,
social)› Questionnaire/interview form› Physical exam› CXR
Pulmonary Rehabilitation
Patient Evaluation› CBC› Electrolytes› Urinalysis› PFTs (pre/post spirometry, volumes, DLCO)› Cardiopulmonary exercise evaluation
Quantifies initial exercise capacity Provides basis for exercise prescription Renders baseline data for assessing progress Shows degree of hypoxemia/desaturation
during exercise
Pulmonary Rehabilitation
Patient Selection› Ex-smokers› Smoking cessation program for smokers
Patients Excluded› Concurrent problems limiting or precluding
exercising› Condition complicated by malignant neoplasms,
e.g., bronchogenic carcinoma
Pulmonary Rehabilitation
Common Physiological Measurements Obtained before Rehab Program› Blood pressure› Heart rate› ECG› Respiratory rate› Arterial blood gases (ABGs)/O2 saturation› Maximum ventilation (max)› O2 consumption (either absolute O2 or METS, the metabolic
equivalent of energy expenditure)› CO2 production (CO2)› Respiratory quotient (RQ)› O2 pulse
Pulmonary Rehabilitation
Relative Contraindications to Exercise Testing› Patients who cannot or will not perform the test› Severe pulmonary hypertension/cor pulmonale› Known electrolyte disturbances (hypokalemia, hypomagnesemia)› Resting diastolic blood pressure > 110 mm Hg or resting systolic
blood pressure > 200 mm Hg› Neuromuscular, musculoskeletal, or rheumatoid disorders
exacerbated by exercise› Uncontrolled metabolic disease (e.g., diabetes)› SaO2 or SpO2 < 85% with the subject breathing room air› Untreated or unstable asthma
Pulmonary Rehabilitation
Indications for Pulmonary Rehabilitation› Symptomatic patients with COPD› Patients with bronchial asthma and associated
bronchitis (asthmatic bronchitis)› Patients with combined obstructive and restrictive
respiratory defects› Patients with chronic mucociliary clearance problems
(Kartagener’s syndrome, PCD, immotile cilia syndrome)
› Patients having exercise limitations caused by severe dyspnea
Pulmonary Rehabilitation
Program Design› Open-ended format
Participate until predetermined objectives achieved
No set timeframe Completed at patient’s pace Good format for self-directed patients Good format for schedule difficulties Good format for individual attention Lack group support/involvement
Pulmonary Rehabilitation
Program Design› Closed design
Set timeframe (8 to 16 weeks; 1 to 3 sessions/wk)
Sessions last 1 to 3 hours Presentations formal Offer group support/involvement Schedule determines program completion Insurance coverage may dictate length for
which person qualifies
Pulmonary Rehabilitation
Session Example: Closed Design (1 day)
Component Focus Time FrameEducation Welcome (group interaction) 5 min
Review of program diaries (past week’s activities) 20 minPresentation of education topic 20 minQuestions, answers, groupdiscussion 15 min
Physical Physical activity/reconditioning 45 minReconditioning Individual goal-setting/session
summary 15 min
Total: 120 minutes (2 hours)
Pulmonary Rehabilitation
Physical Reconditioning› Exercise prescription with target HR based on
initial exercise evaluation› Target HR set using Karvonen’s formula› THR = [(MHR-RHR) x (50% to 70%)] + RHR
› THR = target heart rate› MHR = maximum heart rate› RHR = resting heart rate
Pulmonary Rehabilitation
Physical Reconditioning
MHR = 150 bpm
RHR = 90 bpm
THR = [(150 – 90) x (0.60)]+ 90 = 126 bpm
Pulmonary Rehabilitation
Exercise Prescription› Lower extremity aerobic exercises› Timed walking› Upper extremity aerobic exercises› Respiratory muscle training
Monitoring during Exercise› Pulse oximetry› Blood pressure› Heart rate
Pulmonary Rehabilitation
Lower Extremity› Walking (treadmill/flat surface)
Goals for distance, time, grade on treadmill 6 minute / flat surface / increase distance
› Bicycling (stationary) Upper Extremity
› Arm ergometers› Rowing machines
Pulmonary Rehabilitation
Inspiratory resistance breathing device› Adjustable flow resistor› One-way valve› Inhale through restricted orifice (variable size)› Change inspiratory load› Exhalation through one-way valve
Pulmonary Rehabilitation Instruction
› Sit upright› Breathe slowly through device (10 to 12 bpm)› MIP < 30% of measured Pimax, use next smaller
orifice› Repeat effort until 30% is consistently achieved› 1 or 2 daily sessions for 10 to 15 minutes/session› When 30% is consistently achieved, increase
resistance› Increase session time to 30 minutes