front 1 Physical Design of the Surgery department (Race Track) | back 1 recently favored by many facilities, involves a series of ORs around a clean central core . In this design, the front entrance to each OR is from the outer corridor, and supplies are retrieved through a rear entrance to the room leading to the central-core storage and work areas. The soiled entrance areas are situated outside this central-core area to allow for separation of the two areas and related traffic. Scrub sinks are also situated in the outer corridor with easy access through the main entrances to the OR |
front 2 Physical Design of the Surgery Department (Hotel Style) | back 2 is a variation of this, in which the ORs are situated along a central corridor, with separate clean core and soiled work areas. The primary difference in this plan is that all traffic enters and exits the surgery department through a single entrance or a primary entrance and holding area entrance situated along the same corridor. |
front 3 Physical Design of the Surgery Department (Specialty Grouping Plan) | back 3 is simply a variation on the hotel or race track plan, in which ORs are grouped by specialty (e.g., neurosurgery, general surgery), each with its own closely associated clean storage areas and, in some cases, each with its own soiled instrument work area. |
front 4 Physical Design of the Surgery Department (Reason behind design) | back 4 revolves around environmental control, traffic control, and the desire to prevent surgical site infection (SSI). Such factors as the separation of clean and soiled work areas and areas of the department specified as restricted and unrestricted assist in the promotion of this idea. Efficiency is increased with strategic placement of computers, preparation areas, and staff areas. |
front 5 SSI | back 5 An infection of the surgical wound that was acquired during the course of the surgical procedure |
front 6 Unrestricted Area | back 6 usually located near the entrance and is isolated from the main hospital corridor by doors. This area often contains dressing rooms for physicians and surgery staff, an anesthesia office, a main office, and a main desk. In this area, street clothes are allowed. |
front 7 Semi Restricted | back 7 Surgical scrub suits as well as hats are required. Because there are often no doors to separate these areas, many hospitals designate the semirestricted area from the unrestricted area with the use of signage and/or a red line painted on the floor. Anyone passing this line is expected to be in proper OR attire and to observe the rules of the semirestricted area. |
front 8 Restricted | back 8 includes the ORs as well as the sterile storage areas. In addition to proper OR attire, masks are required in this area. Some hospital policies require masks to be worn in the OR only when a sterile procedure is in progress, meaning sterile supplies are being opened and/or have been opened or the patient is in the room. |
front 9 Instrument Room | back 9 A separate room for storage of nonsterile equipment and instrumentation is necessary |
front 10 Utility/ Decontamination room | back 10 with sinks for gross decontamination of instrumentation. This room often contains an ultrasonic washer for cavitation of instruments prior to sending them to central sterile for processing. In some cases this area is divided by a wall into a cleaning area and a separate preparation area. |
front 11 Electrical Outlets | back 11 majority of ORs contain both 110-volt and 220-volt outlets. are mounted well above the floor and must be on a monitored electrical system. must have ground-fault interrupters and be explosion proof. Emergency outlets are designated in red and are connected to the hospital’s backup generator system in case of power outage. These outlets should be used for such equipment as anesthesia equipment and other equipment vital to the procedure and to the safety of the patient. |
front 12 Suction Outlets | back 12 Must have two ome cases more are present or required. At least one outlet is used by the surgical team for suctioning in the sterile field and one is used by anesthesia. |
front 13 Gas Outlets | back 13 These outlets are placed on walls or ceilings within the OR. Emergency manual shut-off valves must be located in the outside corridor. The outlets are designated by color: compressed air—yellow; oxygen—green; and nitrous oxide—blue. |
front 14 Lights | back 14 should be designed to provide a range of intensity and focus with a minimum of heat and should be freely moveable. Track lights are no longer recommended because of the danger of fallout contamination. Surgical lights should be freely adjustable in both the horizontal and vertical planes and should provide a light color approximating normal sunlight. |
front 15 Viewing box | back 15 for diagnostic images is positioned at eye level so it can be seen by the surgeon without leaving the operating table. Radiographs, isotope, and computed tomography (CT) and magnetic resonance imaging (MRI) scans are routinely displayed |
front 16 Operating Table | back 16 narrow, padded, and flexible. The traditional operating table was operated manually, but the modern operating table is maneuvered by an electrical control system by either the circulator or anesthesia provider. The table has breakpoints, or bendable points, at the knee, waist, and head. In addition, the operating table has removable sections at the head point and at the footboard for use in procedures where the legs are placed in stirrups |
front 17 Breakpoints | back 17 Points in the operating table that indicate where a section can be moved up or down |
front 18 Time | back 18 Each OR should have a wall-mounted clock with an easily readable face and a sweep second hand for the timing of certain procedures and for the timing of cardiac or respiratory arrests. Many are equipped with an additional start/stop timer. |
front 19 Intercom | back 19 allows for communication by the surgical team with areas outside the OR and within the surgical department without going out of the room. This can also be used for discussions with the pathology department or for calling for diagnostic imaging. Some rooms are equipped with foot-activated intercom switches so that a scrubbed member of the surgical team may operate the device. |
front 20 Back Table | back 20 Large movable table that is covered with a sterile drape for placement of sterile instruments, supplies, and equipment for surgical procedures |
front 21 Mayo Stand | back 21 is the stand that is moved up to the operative field and extends across the patient’s body. The surgical technologist works from this stand to supply immediately necessary instrumentation to the surgeon. Prior to the procedure, a separate small table or Mayo stand is used to set up gowns and gloves for the surgical technologist |
front 22 Ring Stands | back 22 are four-wheeled stands with one or two metal rings at the top . They are used to hold sterile basins and are covered with a sterile drape prior to the procedure. hese basins hold the various fluids to be used during the procedure, including saline and/or sterile water for rinsing instruments and for irrigation. In some cases, such as cardiac cases, these basins may be used to hold a sterile ice/slush solution for hypothermia in the absence of a slush machine. |
front 23 Kick buckets | back 23 also four-wheeled stands, but they are very low to the floor and can be maneuvered with the foot (kicked) . These are buckets lined with biohazard trash bags. The sterile team member tosses soiled counted sponges into these buckets. The kick bucket is not for paper waste but for counted sponges only. |
front 24 Linen Hamper/ Trash Containers | back 24 are typically four-wheeled stands but are large enough that soiled linens and trash from the sterile field may be placed into them by the surgical technologist. They too may be lined with biohazardous designator bags. |
front 25 Suction Sets | back 25 are low-wheel-based stands on which the suction canisters rest. Sterile suction tubing from the field may be attached to the canister by the circulator . The canisters are connected to the suction outlet by another plastic tube. They may be lined with plastic liners and have measurements marked on the side to help estimate fluid use and/or blood loss. |
front 26 Anesthesia Cart | back 26 This will include patient monitoring equipment to keep the surgical team aware of the patient’s physiological status and it is primarily used by the anesthesia provider. |
front 27 Walls | back 27
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front 28 Floors | back 28 be nonporous and waterproof, which makes them easier to clean by wet vacuuming. Tile floors are undesirable (though often seen in older ORs) because the grout tends to harbor bacteria and is difficult to clean. Many new ORs are using cushioned flooring systems to decrease personnel fatigue. If cushioned rubber standing mats are used around the table, they should be of the solid and smooth type with no grooves to allow for easy and thorough cleaning. |
front 29 Cabinets and Doors | back 29 should be recessed into the wall when possible to avoid dust accumulation on their top surfaces. Storage cabinets should be provided with doors to lower dust accumulation on supplies and for ease of terminal cleaning of the room. Doors on cabinets should be of the surface-mounted sliding type when possible, because swinging doors move air within the room and disturb microorganisms that have settled on floors and surfaces within the room into the operative field. Cabinets and doors, like walls and floor, should be nonporous and waterproof for easy cleaning. |
front 30 Doors | back 30 surface-mounted sliding doors that can swing open in an emergency situation should be used. Sliding doors lower the incidence of swinging-door air disturbance in the room, which can redistribute contaminant microbes onto the operative field. Traffic into and out of the OR should be limited during any procedure for this purpose, and particularly during open-joint orthopedic procedures; many ORs place signage to this effect on the doors. |
front 31 Ventilation System | back 31 should provide a supply of clean air; remove airborne contamination that is produced within the room; remove waste anesthetic gases, toxic fumes, and vapors; and provide a comfortable working environment for surgical personnel. |
front 32 Laminar air flow | back 32 the unidirectional positive pressure flow of air that captures microbes to be filtered |
front 33 Airborne Bacteria | back 33 Transported or spread by air Surgical Techs are primarily concerned with airborne bacteria |
front 34 Air Changes in the OR | back 34 A minimum of 15 air exchanges per hour are required for the OR, with a recommended range of 20 to 25 air exchanges per hour. Studies have shown that 20 to 25 air exchanges per hour helps keep the amount of airborne contamination in the OR to a minimum. The Centers for Disease Control and Prevention (CDC) guidelines recommend that the air is filtered. High-efficiency particulate air (HEPA) filters are usually the filter of choice. These filters are capable of removing bacteria as small as 0.5–5 μm. The CDC guidelines also recommend that at least 20% of the air change per hour be from fresh outside air. |
front 35 High-efficiency particulate air (HEPA) filters | back 35 usually the filter of choice. These filters are capable of removing bacteria as small as 0.5–5 μm. |
front 36 Temperature | back 36 is kept between 68° and 73°F. |
front 37 Humidity | back 37 The recommended range for relative humidity is 20% to 60% |
front 38 Preoperative or “Same-Day” Check-in Unit | back 38 This is the area the patient is directed and admitted to on arrival at the hospital. The patient is provided with a private dressing room to change clothes. Lockers are provided for the patient to safeguard personal items, although any jewelry or money should either be left with a family member or turned over to hospital security for safekeeping |
front 39 Preoperative Holding Area | back 39 is a designated room where patients wait within the surgery department before entering the OR. this may be a large area where all patients are held until transport to the specific OR or a small room just outside each OR. |
front 40 postanesthesia care unit (PACU), | back 40 area where immediate postoperative care of the patient takes place before transfer to the hospital room or ICU.... where he or she is “recovered” just after surgery, until transport to a nursing unit (or discharge, in the case of same-day surgery patients) is possible. |
front 41 Laboratory Department | back 41 procedures may be performed within the surgery department, such as blood gas monitoring, which is often performed by perfusionists during cardiovascular procedures. |
front 42 Perfusionists | back 42 The individual responsible for running and maintaining the cardiopulmonary bypass machine during open heart procedures |
front 43 Radiology Department | back 43 provides the OR with radiologic patient studies, including plain x-ray films, CT scans, and MRI, and intraoperative techniques such as fluoroscopy, which provides real-time radiographic monitoring for orthopedic and other cases. It is also important for surgical technologists in cases utilizing x-ray or fluoroscopy to wear protective lead shields such as leaded aprons and/or thyroid shields to prevent exposure to ionizing radiation. |
front 44 Ionizing radiation | back 44 Process by which energy either directly or indirectly induces ionization of radiation-absorbing material or tissues; X-rays |
front 45 Pathology Department | back 45 Specimens are sent for testing, processing, and diagnosis. The surgical technologist should always double check with the surgeon and circulator to ensure proper labeling and handling of the specimen. |
front 46 Environmental Services | back 46 this includes cleaning the OR for turnover between cases, but increasingly, the surgical team is being used for this purpose for speed and efficiency. In many cases, the environmental services department is charged primarily with terminal cleaning of the ORs at night. |
front 47 Hazards and Regulatory Agencies (Physical Hazards) | back 47 Noise, ionizing radiation, electricity, injury to the body, fire, explosion, and injuries from sharps |
front 48 Hazards and Regulatory Agencies Biological Hazards | back 48 Laser and electrosurgical plume, pathogens found in body fluids, latex sensitivity |
front 49 Hazards and Regulatory Agencies Chemical Hazards | back 49 Disinfecting agents, waste anesthetic gases, and vapors and fumes from chemical agents |
front 50 PLUME | back 50 Smoke produced by laser or electrocautery that has been shown to contain biological material |
front 51 National Fire Protection Agency (NFPA) | back 51 Organization whose mission is to reduce the frequency of fires through the establishment of fire prevention standards, research, and public fire safety education. |
front 52 Occupational Safety and Health Administration (OSHA) | back 52 Federal organization that is dedicated to protecting the health of workers by establishing standards that address issues related to safety in the workplace. |
front 53 National Institute for Occupational Safety and Health (NIOSH) | back 53 organization whose responsibilities are similar to OSHA but tends to be more research oriented in establishing permissible exposure limits (PELs) for chemical vapors and gases. |
front 54 American National Standards Institute (ANSI) | back 54 Organization of industry experts who promote and facilitate voluntary consensus standards in technical fields. An example is the laser safety standard |
front 55 American Society for Testing and Materials (ASTM) | back 55 Similar to ANSI, it is also an organization of industry experts who develop and provide voluntary consensus standards for medical equipment by testing the equipment. |
front 56 Association for the Advancement of Medical Instrumentation (AAMI) | back 56 Organization that establishes standards that reach across the spectrum of the health care field, including sterilization, electrical safety, levels of device safety, and use of medical devices. |
front 57 Surgical Lights | back 57 have placed emphasis on trying to produce lights that emit a blue-white beam that still adequately illuminates the surgical site yet produces little glare and approximates the color intensities of normal sunlight. |
front 58 Noise in the Operating Room | back 58 Noise can be irritating to patients and the surgical team. Sources of noise include music, suction, power instruments, clattering of surgical instruments, and conversation. Conversation should be kept to a minimum and, if necessary, carried on in a low to normal tone of voice. |
front 59 Ergonomics and Safety Considerations | back 59
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front 60 Fire Hazards and Safety (three components referred to as the fire triangle can result in a fire and/or explosion) | back 60
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front 61 Lasers | back 61 is an acronym for “light amplification by the stimulated emission of radiation.” This refers to
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front 62 Sterile water | back 62 must be available for the surgical team to use in the event of a small fire. is also used to keep the sponges and towels wet during the procedure to prevent them from igniting. |
front 63 Portable fire extinguishers | back 63 must be immediately available. The halon fire extinguisher is recommended for laser fires due to its low toxicity and because residue is not produced. |
front 64 When should Special caution be used during laser surgery | back 64 When surgery is being performed in the head or neck area Nitrous oxide and oxygen can build up beneath the surgical drapes, presenting an environment conducive to fire or explosion. |
front 65 What should be done during anorectal area surgery | back 65 Nitrous oxide and oxygen can build up beneath the surgical drapes, presenting an environment conducive to fire or explosion. |
front 66 What type of instrumentation finish should be used during laser procedures | back 66 Nonreflective instrumentation |
front 67 What is used for additional safety when using lasers | back 67 signs warning that a laser is in use are posted on all entrances to the OR to limit traffic in and out of the room . The surgical team should wear the appropriate eye protection and high-filtration masks when the laser is in use |
front 68 Optical Density | back 68 is the ability of the protective lens of the eyewear to absorb a specific wavelength. Each type of laser has a unique wavelength; therefore the optical density will vary. The color of the lenses does not provide the eye protection; the color simply provides an indication of the optical density of the lenses. |
front 69 Electrosurgical Unit | back 69 generates considerable heat. If inadvertently activated, the electrosurgical pencil may burn or smolder the surgical drapes. When not in use, the handpiece should be placed in a holder attached to the drapes or positioned so that the handpiece will not be inadvertently activated. |
front 70 Fiberoptic Beam | back 70 at the end of endoscopes must not be focused on the drapes. The heat from the beam can burn or smolder the drapes. |
front 71 Static Electricity | back 71 can ignite a flame under the right conditions. The humidity of the OR should be no higher than 60%. Humidity lower than 20% may be conducive to spark transmission. |
front 72 three classes of extinguishers: | back 72
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front 73 PASS mnemonic | back 73
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front 74 The three main concerns if a fire should occur in the OR are to | back 74
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front 75 RACE | back 75
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front 76 Electrical Current | back 76 Grounding prevents the passage of the electrical current through the patient by directing the current to the ground, therefore bypassing the patient. A common example of a grounding system is the three-prong plug. Electricity is supplied through the two upper prongs and the third prong is the grounding prong. |
front 77 Preventing Electrical Burns | back 77 also called the cautery or Bovie machine, produces an electrical current that is converted into thermal heat for cutting or coagulating tissue. the active electrode (formerly called Bovie pencil or electrosurgical pencil) is connected to the ESU; the electrical current travels through the active electrode and patient to the patient return electrode (formerly called grounding pad) and the current returns to the ESU. |
front 78 Static Electricity | back 78 an be a source of ignition leading to explosion, especially in the presence of oxygen and anesthetic gases. There are two processes by which static charge buildup can occur. The first is by friction between two surfaces; the second is by proximity to an electrostatic field. Friction is the concern of the OR and is described as follows |
front 79 Protection of the Surgical Patient | back 79
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front 80 Protection of the Surgical Technologist Time | back 80 <ul> <li>When not in use, make sure the fluoroscope is turned off.</li> <li>Avoid overexposure to ionizing radiation.</li> <li>Surgical technologists exposed to ionizing radiation on a frequent basis or during a long surgical procedure should wear an x-ray–monitoring device. The most popular type is the film badge.</li> </ul> <br> |
front 81 Protection of the Surgical Technologist Shielding | back 81 <ul> <li>Pregnant surgical technologists should avoid exposure. If exposure must occur, the surgical technologist should either leave the room or wear a lead shield that adequately covers the body and fetus.</li> <li>The lead apron is worn under the sterile gown and must be donned prior to scrubbing.</li> <li>Sterile and nonsterile lead gloves are available to protect the long bones of the hand.</li> <li>Lead thyroid shields should be worn during fluoroscopy.</li> <li>Lead aprons should be laid flat or preferably hung on the apron rack when not in use. Allowing the apron to fold or bend can cause cracks in the lead, rendering the lead apron inefficient.</li> </ul> <br> |
front 82 Protection of the Surgical Technologist Distance | back 82
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front 83 Biological Hazards and Safety Considerations | back 83 OSHA and the CDC have established policies to govern the disposal of infectious wastes and prevention of bloodborne diseases. |
front 84 Standard Precautions | back 84 were defined by the CDC in 1996 apply to blood and all body fluids, secretions, and excretions (except sweat). |
front 85 Causes of Injury Leading to Exposure in the Operative Environment | back 85 The strategies of Standard Precautions, including the proper use of personal protective equipment (PPE), will help to minimize risk. |
front 86 Strategies for Exposure Prevention | back 86 an increasing number of safety devices have been and are being developed, including blunt suture needles, a suturing device to avoid manual handling of needles, double-gloving, and “no-touch” techniques during wound closure.` |
front 87 Neutral Zone | back 87 in which sharps may be safely placed by one person and retrieved by another. This may be any of a number of devices, such as magnetic mats, trays, an instrument stand, or a designated area on the sterile field. Small basins are not recommended because items are deep within the basin and hard to pick up and the basin may tip over. |
front 88 Other Sharps Safety Techniques | back 88 Hypodermic needles should never be recapped. In the rare occasion where recapping is unavoidable, a safety device or one-handed technique should be used. |
front 89 Hazardous Waste Disposal | back 89 Two basic microbiological concepts govern the transmission of disease:
must be disposed of separately from routine surgery department waste material.The bags should also be of a color, usually red, that distinguishes the waste material as separate from routine waste |
front 90 Management of Exposure | back 90 Health care professionals should know how to respond to exposure incidents immediately. Appropriate postexposure measures, including HIV postex-posure prophylaxis (PEP), are important for the prevention of occupationally acquired HIV and other diseases. |
front 91 prophylaxis | back 91 Prevention of Disease or condition For HIV: Further testing should be performed at 6 weeks, 12 weeks, and 6 months postexposure. |
front 92 Laser and Electrosurgical Plume | back 92 When a laser beam strikes tissue, the tissue is coagulated, or a powered surgical instrument such as a saw cuts bone, a plume of smoke is produced depending on the power, duration of exposure, and tissue type. Research has been conducted over the years on the plume emitted during surgical procedures. Experiments have documented the content of the plume, particulate matter size, and toxicity of such plumes when inhaled by surgical personnel. Electrosurgical plume causes an offensive odor and may produce watery eyes and respiratory irritation in surgical personnel. |
front 93 Why are special evacuator units required? | back 93 for laser surgery and may soon be required for electrosurgical plume. Units available on the market filter laser plume from 0.1 to 0.5 μm. |
front 94 Who handles the positioning of the evacuation wand | back 94 the duty of the surgical technologist during a laser procedure. When the tip is held within 1 cm of the impact site, approximately 98% of the plume is removed. |
front 95 Latex Allergy | back 95 made from the natural rubber harvested from trees found in warm tropical climates. |
front 96 Two types of Latex Allergy | back 96 Type IV is the less serious, more localized reaction characterized by skin irritation and discomfort. The common benign reactions associated with Type IV are allergic contact dermatitis and irritant dermatitis. Type I is immu-noglobulin E (IgE) mediated and is the most serious reaction, possibly leading to respiratory arrest. |
front 97 How do you diagnose latex allergy? | back 97 consists of detailed patient history, skin-prick tests, and the RAST (radioallergosorbent testing) immunoassay. There are drawbacks to both the RAST and the skin-prick test. The RAST blood test, while safe, can render false negatives, and skin-prick tests can be dangerous to the latex-allergic person if the latex extract’s dilution is not carefully controlled. |
front 98 Chemical Hazards and Safety Considerations | back 98 Surgical technologists should be familiar with the chemicals used in the OR and general information concerning the chemicals. Information can be gained from the Material Safety Data Sheets (MSDS) that the surgery department must have available to workers. |
front 99 Waste Anesthetic Gases | back 99 are vapors that escape from the anesthesia machine and tubing. gas-scavenging system, which should be connected to every anesthesia machine used in the surgery department, removes waste anesthetic gases to be filtered and then dispersed to the outside atmosphere. |
front 100 Polymethyl Methacrylate | back 100 a chemical compound composed of a mixture of liquid and powder. The common name of PMMA used in surgery is bone cement. It is used for cementing metal prostheses in place during total joint arthro-plasties. The liquid and powder components are combined by the surgical technologist at the sterile back table. |
front 101 How does PMMA pose a risk to the patient | back 101 in the form of a pathology known as bone cement implantation syndrome. PMMA infiltrates the interstices of cancellous bone and binds the prosthetic device to the patient’s bone. can also cause vasodilatation and a decrease in systemic vascular resistance, which is thought to be the cause of hypotension frequently associated with the use of PMMA. |
front 102 Formalin | back 102 is a commonly used preservative for tissue specimens to be sent to the pathology department. The vapors from the liquid are an irritant to the mucous membranes of the respiratory tract. |
front 103 Ethylene Oxide | back 103 is a liquid chemical converted to a gas for sterilization purposes.
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front 104 Glutaraldehyde | back 104 is a liquid disinfectant and sterilizing agent. Commercially known as Cidex®, the fumes can be irritating to the eyes and mucous membranes. . It must be used in a well-ventilated area, and many health facilities have installed commercial ventilation systems for the removal of the fumes. |