NZK6样本
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NK36K7000WS/A236" Range HoodFeatures• Wi-Fi Monitoring• ADA Compliant • 4 Fan Speeds, Including Booster • W all-Mounted Chimney Style • Digital Touch Control • E xterior Venting & Recirculating Capablilities • 74 dBA (10.8 sonnes) Noise Level • Optional Recirculating Kit Available • Optional Extension Kit AvailableAvailable ColorsStainless Steel (shown)Wi-Fi MonitoringBaffle FilterBlack Stainless SteelConvenience• LED LightingSignature FeaturesBluetooth ® Connected Hood • A utomatically sync the fans and the lights with the cooktop through Bluetooth.11Only on select Samsung cooktops.Baffle Filter • D ishwasher-safe metal filters help keep the air clean by drawing grease and odor through the hood.Powerful 390 CFM 2 Ventilation • C irculates air to remove odors quickly.2600 CFM capable.Actual color may vary. Design, specifications, and color availability are subject to change without notice. Non-metric weights and measurements are approximate.©2018 Samsung Electronics America, Inc. 85 Challenger Road, Ridgefield Park, NJ 07660. Tel: 800-SAMSUNG. . Samsung is a registered trademark of Samsung Electronics Co. Ltd.NK36K7000WS/A236" Range HoodTotal Power220WPower Source 120V / 60 Hz / 15ARange Hood• 36" Stainless Steel Chimney Hood• Vent Fan: 390 CFM (600 CFM Optional)• Front-Centered, Touch Control • 4 Fan Speeds: 3 Step, 1 Booster • 74 dBA (10.8 sonnes) Noise Level • Hood Connectivity Control • Bluetooth ® On/Off Control • M obile Monitoring: Fan Speed, Lighting On/Off, Power Control • Removable Baffle Filter • LED LightingWarrantyOne (1) Year All Parts and LaborProduct Dimensions & Weight (WxHxD)Outside (Max) Hood Dimensions: 36" x 257/16" x 1911/16"Weight: 48.5 lbsShipping Dimensions & Weight (WxHxD)Dimensions:403/16" x 261/2" x 181/16" Weight: 60.4 lbsColorModel # UPC CodeStainless Steel NK36K7000WS/A2 887276245287Black Stainless Steel NK36K7000WG/A2 887276245270Hood Extension Kit (Optional)NK-AE705PWS NK-AE705PWG Recirculation Kit (Optional)NK-AF030FNBCharcoal FilterNK-AR050FNBVenting MethodsRoof VentingWall VentingRecirculatingA. Roof capB. 6" (15.2 cm) round vent A.Wall capB. 6" (15.2 cm) round vent B. 6" (15.2 cm) round ventA.DeflectorDimensions and Clearance*For Vented Installation**For Non-Vented Recirculating Installation。
·药物临床·普瑞巴林联合血液灌流治疗维持性血液透析患者难治性皮肤瘙痒的疗效沈娴文 朱俊 张瑞林 韩静(泰州市第四人民医院肾内科 江苏泰州 225300)摘要目的:探讨普瑞巴林联合血液灌流治疗维持性血液透析患者难治性皮肤瘙痒的临床疗效。
方法:选取维持性血液透析难治性皮肤瘙痒患者80例,随机分为对照组及治疗组,对照组予血液透析加血液灌流治疗,治疗组在对照组基础上加用普瑞巴林口服,观察治疗前后临床指标,及视觉模拟量表(V AS)评分、改良Duo瘙痒评分。
结果:治疗后组间比较,治疗组患者V AS评分和改良Duo瘙痒评分较对照组降低(P<0.05)。
两组治疗后不良反应发生率无明显差异(P>0.05)。
结论:普瑞巴林联合血液灌流治疗维持性血液透析患者皮肤瘙痒能显著改善症状,不良反应发生率低。
关键词普瑞巴林 血液灌流 维持性血液透析 难治性皮肤瘙痒中图分类号:R971.6; R758.31 文献标志码:B 文章编号:1006-1533(2023)15-0023-03引用本文沈娴文, 朱俊, 张瑞林, 等. 普瑞巴林联合血液灌流治疗维持性血液透析患者难治性皮肤瘙痒的疗效[J].上海医药, 2023, 44(15): 23-25; 65.Effect of pregabalin combined with hemoperfusion on refractory pruritus among patients undergoing maintenance hemodialysisSHEN Xianwen, ZHU Jun, ZHANG Ruilin, HAN Jing(Department of Nephrology, the Fourth People’s Hospital of Taizhou, Taizhou 225300, China)ABSTRACT Objective: To explore the clinical effect of pregabalin combined with hemoperfusion on refractorypruritus among patients undergoing maintenance hemodialysis (MHD). Methods: Eighty MHD patients suffering from prurituswere enrolled in this study and randomized into a control group and a treatment group with 40 cases each. The control group underwent hemoperfusion, while the treatment group was given pregabalin combined with hemoperfusion. Clinical indicators, visual analogue scale (V AS) scores and the improved Duo pruritus scores were measured before and after the treatment. Results:V AS scores and the improved Duo pruritus scores were lower in the treatment group than the control group (P<0.05). There wasno significant difference in the incidence of adverse reactions between the two groups after treatment (P>0.05). Conclusion:Pregabalin combined with hemoperfusion can significantly improve the symptoms of the MHD patients with pruritus and theincidence of adverse reactions is low.KEY WORDS pregabalin; hemoperfusion; maintenance hemodialysis; refractory pruritus维持性血液透析患者皮肤瘙痒,又称尿毒症瘙痒,是尿毒症透析患者的常见并发症,其发病率逐年升高,且与尿毒症患者生活质量密切相关,常导致患者睡眠受损、抑郁、免疫系统受损和心脑血管风险增加,从而增加患者死亡率[1]。
nz601l说明书
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总762期第二十八期2021年10月河南科技Journal of Henan Science and Technology 信息技术一种基于迁移学习的城市内涝识别方法研究李 芬(江西省大气探测技术中心,江西 南昌 330096)摘 要:为了有效解决目前获得城市内涝深度方法存在的问题,本研究采用迁移学习的方法对城市内涝深度进行监测。
以卷积神经网络为基础,通过将提取的特征向量集和标注内涝深度的数据集输入LASSO模型中进行训练,计算出城市内涝深度。
同时,以江西省南昌市近5年来内涝图片数据为例进行实证检验。
结果显示,该方法预测结果与真实的内涝水位偏差较小,与实际内涝发生情况的吻合程度较高。
因此,该方法能有效识别城市内涝的真实情况,对应对频发的城市洪水灾害问题具有重要意义。
关键词:迁移学习;城市内涝;卷积神经网络;图像识别中图分类号:TP18;TU992 文献标识码:A 文章编号:1003-5168(2021)28-0021-04 Research on Urban Waterlogging Identification Method Based on Transfer LearningLI Fen(Jiangxi Provincial Atmospheric Observation and Technical Center, Nanchang Jiangxi 330096)Abstract: In order to effectively solve the problems existing in the current methods of obtaining urban waterlogging depth, this study uses the migration learning method to monitor the urban waterlogging depth. Based on the convolution neural network, the urban waterlogging depth is calculated by inputting the extracted feature vector set and the data set labeled waterlogging depth into lasso model for training. At the same time, take the waterlogging picture data of Nanchang in recent 5 years as an example for empirical test. The results show that the deviation between the predicted results and the real waterlogging water level is small, and the coincidence degree with the actual waterlogging is high. Therefore, this method can effectively identify the real situation of urban waterlogging, and is of great significance to solve the problem of frequent urban flood disasters.Keywords: transfer learning;urban waterlogging;convolutional neural network;image recognition近年来,城市洪水已经成为全球范围内最频繁和最严重的城市灾害之一。
IntroductionThe Blackwing BW 635RG is an ultralight two-seater aeroplane designed for recreational flying and training purposes. It features a sleek and modern design, with a composite airframe and a low-wing configuration. The Blackwing has a cruising speed of up to 120 knots and a range of approximately 700 nautical miles, making it suitable for both short and long-distance flights. The cockpit is equipped with state-of-the-art avionics, including a glass cockpit display and an autopilot system. The Blackwing is also known for its superior handling and stability, making it a popular choice among flying enthusiasts and flight schools. The BW 635RG is powered by the venerable Rotax 915 iS engine.Development Credits:Mal Cartwright Product LeadRuss White3D Modelling, Interior and Exterior TexturingJack Lavigne IntegrationHarry Stringer AnimationPropAir Flight Model and SystemsJordan Gough ManualWith special thanks to our Beta Testers:Rob Abernathy John BurgessNick Cooper John DowMatt McGee Darryl WightmanTable of ContentsIntroduction (2)Development Credits: (2)With special thanks to our Beta Testers: (2)Table of Contents (3)Notes on Hardware (4)Overview (5)Aircraft Limitations (6)Airspeed Limitations (6)Engine Limitations (6)Operating Conditions (6)Fuel (7)Other Limitations (7)Emergency Procedures (8)Engine Failure on the Take-off Roll (8)Engine Failure after Take-off (8)Glide Performance (8)Emergency Landing (9)Spin Recovery (9)Normal Procedures (10)Before Starting Engine (10)Starting Engine (10)Before Taxiing (11)Taxiing (11)Engine Runup (11)Before Take-off (11)Take-Off (12)Initial Climb (12)Cruise Climb (12)Cruise (12)Landing (13)Balked Landing (13)After Landing (13)Securing Aircraft (14)Basic Performance (15)Stall Speeds (15)Take-Off Performance (15)Landing Performance (16)Systems Description (17)Instrument Panel Layout (17)Switch Logic and Electrical System (18)Master Switch (18)Fuel Pump Switch (19)LAND/TAXI Switch (19)Strobe/Nav Switch (19)Electrical System Diagram (20)Engine (21)Propeller (21)Fuel (21)Notes on HardwareDue to the unusual 3-position switches in this aircraft, conventional hardware 2position toggle switches (eg. strobe or nav light switches) cannot be translated tothe single 3-position switch which combine these.Additionally, as this aircraft utilises a single level power control (throttle), conventional throttle/prop/mixture hardware may interfere with the function of this system, and not work as intended. It is recommended to place your propeller and mixture levers in the IDLE position, and not move them while the engine is running.OverviewThe Orbx BW 635RG has been developed using official documentation and Computer Aided Design (CAD) resources from Blackwing Sweden. As a result, the aeroplane has been created through masterful modelling, texturing, systems integration, and flight model development.Figure 1 – Aircraft 3-viewAircraft DimensionsLength 6.6m Height 2.2m Wingspan8.4mWeightsBasic Empty Weight 375kg Maximum Take-off Weight 600kg Maximum Fuel Capacity (Litres)130LThe content in this manual and the operation of the BW 635RG in Microsoft Flight Simulator strictly must not be used as reference material in any form for operating the real aircraft.Aircraft LimitationsAirspeed LimitationsAirspeed Description Airspeed (KIAS) RemarksVne Never Exceed Speed 157 Must not exceed this speed in any operation.Va Manoeuvring Speed 109 If full or abrupt control deflection is made, the airframe may be overstressed.Vfe1 Max flap extended speed20 degrees90 Maximum speed for flaps 20°Vfe2 Max flap extended speed35-45 degrees 70 Maximum speed for flaps 35-45°Vlo Maximum landing gearoperating speed 70Do not extended or retract the landing gearabove this speed.Vle Maximum landing gear extended speed 90 Do not exceed this speed with the landing gearalready down.Vs0 Stall speed flaps/gearextended 38 Stall speed with gear down/flaps >0° and in level flight at MTOWVs1 Stall speed clean 49 Stall speed flaps retracted, gear up and in level flight at MTOWEngine LimitationsEngineEngine Manufacturer Rotax Engine Model Rotax 915 iSMaximum Power Take-off (Max 5 min.) 141 hp Continuous 135 hpMaximum RPM Take-off (Max 5 min.) 5800 Continuous 5500Critical Altitude 15000ft AMSL Maximum OperatingAltitude23000ft AMSL Operating ConditionsAerobatic manoeuvres, flight in IFR conditionsand flights in icing conditions are prohibited inthis aircraft.FuelFuel TanksLeft Right Litres US Gal Litres US GalTotal Fuel in Tank 67.5 17.8 62.5 16.5Unusable Fuel 2.5 0.7 2.5 0.7 Total Useable Fuel in Tanks 66.5 17.6 61.5 16.2Other LimitationsMaximum demonstrated crosswind for the BW 635RG is 20 knots.Emergency ProceduresNote: The following procedures have been modified to be suitable for simulation. It does not cover emergencies that are a) not simulated and b) not reasonable. Checklist items from the real procedures have been omitted and these procedures must not under any circumstances be used for training purposes.Engine Failure on the Take-off RollThrottle: IDLEIgnition: OFFFuel Pump: MAIN (DOWN POS)Brakes: APPLYWhen stopped: SECURE AIRCRAFTEngine Failure after Take-offNose: IMMEDIATELY LOWERAirspeed: 65 KNOTSLanding Area: DETERMINE WITHIN 30° OF NOSEFlaps: USE AS REQUIREDLanding Gear: USE DESCRETIONFuel Selector: OFFIgnition: OFFMaster Switch: OFFGlide PerformanceThe BW 635RG, the approximate performance for a glide is 65 KIAS which willgive approximately a 545ft/min rate of descent in the clean configuration.Glide performance will degrade significantly on extension of flaps and landinggear.Emergency LandingAirspeed: 65 KIASField: PICK BEST OPTIONLanding Gear: USE DISCRETION DEPENDING ON FIELD TYPEFlaps: AS REQUIREDFuel Selector: OFFIgnition: OFFFuel Pump: MAIN (down)Master Switch: OFF BEFORE LANDINGSpin RecoveryThrottle: IDLEControl Stick: AILERON NEUTRALRudder: FULL OPPOSITE TO DIRECTION OF ROTATIONControl Stick: POSITIVELY FORWARD OF NEUTRALRudder: NEUTRAL WHEN ROTATION STOPSControl Stick: SMOOTHLY PULL OUT OF DIVEWARNING:INTENTIONAL SPINS ARE NOT APPROVED INTHIS AIRCRAFT.Normal ProceduresNote: The pre-flight inspection portion of the normal procedures has been removed due to impracticality in the simulator.Before Starting EngineIgnition: OFFMaster Switch: OFF (down)Backup Battery: OFF/AUTO (down)Landing Gear Lever: DOWNCircuit Breakers: INCanopy CLOSED (CLICKING THE LATCHON THE INSIDE LEFT SIDEWALL.) Starting EngineParking Brake: HOLD TOE BRAKES AND ENGAGE PARKINGBRAKEMaster Switch: ENGINE START (middle position)Fuel Selector: SETFuel Gauge: CHECKFuel Pump: BOTH (up)Ignition: BOTHNav Lights: STROBE (middle position)Throttle: SET ½-1 INCH OPENIgnition: STARTOil Pressure: GREEN WITHIN 10 SECWarnings: NONEBefore TaxiingMaster Switch: NORMAL OPERATION (up)Altimeter: SETAvionics: SETParking Brake: DISENGAGETaxiingInstruments: CHECKED (COMPASS/HSI/BALL/ATT) Engine RunupParking Brake: ENGAGERPM: 2500 RPMFuel Pump: CYCLE, CHECK FUEL PRESSUREIdle: CHECK IDLE 1800 +/- 100 RPM Before Take-offCanopy: CLOSED AND LOCKEDFlaps: 1 STAGE (20°)Elevator Trim: SET FOR TAKE-OFFEngine Instruments: NORMALLanding Light: ON (up)Controls: FULL FREE AND CORRECT MOVEMENTParking Brake: DISENGAGETake-OffThrottle: FULLControls: NEUTRAL45 Knots: ROTATEAccelerate: NOSE ON HORIZON, ACCEL TO 80 KIASPositive Rate of Climb: GEAR UPLanding Light: OFF (down)Flaps: RETRACT ABOVE 500’ AGLInitial ClimbThrottle: MAX CONTINUOUS (5500 RPM)Airspeed: 90 KIASFuel Pump: MAIN (down) ABOVE 500’ AGL Cruise ClimbThrottle: MAX CONTINUOUS (5500 RPM)Airspeed: 130 KIASCruiseThrottle: 55-75% PowerAirspeed: 120-157 KIAS (<130 KIAS IN TURB)LandingFuel: QTY CHECKEDFuel Selector: FULLEST TANKFuel Pump: BOTH (up position)Airspeed: 90 KIASFlaps: EXTEND FLAP 1 <90 KIASDownwind Airspeed: 65 KIASLanding Gear: DOWN @ 65 KIAS; CHECK 3 GREENLanding Light: ON (up position)Base Leg: EXTEND FLAP 2 < 65 KIASFinal Approach Airspeed: 60 KIASBalked LandingThrottle: SMOOTHLY INCREASEAirspeed: 60 KIASTrim: COURSE TRIM TO RELIEVE PRESSUREFlaps: RETRACT TO POSITION 1 (20°)Gear: UPTrim: TRIM FOR CLIMBAfter LandingFlaps: RETRACTExterior Lights: AS REQ’DFuel Pump: MAIN (down)Securing AircraftParking Brake: ENGAGEDThrottle: IDLESwitches: ALL OFF EXCEPT ACL AND MASTERIgnition: OFFNav Lights: OFF (down)Master Switch: OFFBasic PerformanceStall SpeedsMTOW 600kg | CG 32% MAC | Power Idle | Level FlightFlap Position Stall Speed (KIAS) 0° 49 20° 44 35° 39 45°38Take-Off PerformanceMTOW | ISA CONDITIONS | SEA LEVEL | FLAPS 1 (20°) | MTOW (600kg)Cruise PerformanceRunway Surface Ground RollOver 50ft Obstacleft mft mPaved Runway328 100 656 200 Unpaved (Grass) Runway 361110689208Pressure Altitude Power (%) TAS Fuel Flow LPH MAP (inHg) Endurance(hr)Range (nm) 500055 161 19.7 30 5.8 941 65 170 23.3 34.1 4.9 827 7517826.937.44.1738Landing PerformanceMTOW | ISA CONDITIONS | FLAPS 2 (35°) | MTOW (600kg) | Speed 1.3 x VsoRunway Surface Ground Roll Over 50ft Obstacle ft m ft mPaved Runway 525 160 951 290 Unpaved (Grass) Runway 558 170 984 300Systems Description Instrument Panel LayoutSwitch Logic and Electrical SystemThe electrical switches in the BW 635RG are 3-position switches. These are generally known as “DOWN”, “MIDDLE” and “UP”. They are briefly explained below.Master SwitchThe MASTER switch functions in a unique way, with the following switch logic:1.When the MASTER switch is DOWN, all battery power is off. There will beno electrical power provided to the aircraft.•Note: The engine CANNOT be shut down when the master switch isoff. Electrical power must be present for the engine to turn off.2.When the MASTER switch is in the MIDDLE (Engine Start) position, limitedsystem functionality will be present. The backup battery will be activatedand power the following systems:•Primary Flight Display•Compass•AHRS (Attitude Heading Reference System)•Radio3.When the MASTER switch is UP (Normal Operation), full electrical supplywill be provided to the aircraft. The following systems will be powered on: •Note: the engine CANNOT be started with the MASTER switch in theUP position. If the engine won’t start, check the switch is in theMIDDLE position•Multi-Function Display•Transponder•Autopilot•Audio panel•STBY instruments•Pitot Heat•Main battery is disconnected from running engine. Alternatorprovides power.See Section NORMAL PROCEDURES for positioning of the MASTER switch.Fuel Pump SwitchThe Fuel Pump switch also has some advanced logic to it, due to two fuel pumpsbeing present, however, to put it simply, it operates in the following way:1.In the DOWN position, the main fuel pump is in use.2.In the MIDDLE position, the auxiliary fuel pump is in use.3.In the UP position, both fuel pumps will be on.LAND/TAXI SwitchThe LAND/TAXI switch powers the Taxi and Landing lights. It operates in the following logic:1.In the DOWN position, both lights will be OFF.2.In the MIDDLE position, the taxi light will switch on when the landinggear is extended.3.In the UP position, the Landing Light will switch on when the landinggear is extended.Strobe/Nav SwitchThe Strobe/Nav switch powers the Navigation (Red/Green) and Strobe (flashingwhite) lights. It operates in the following logic:1.In the DOWN position, both lights will be OFF.2.In the MIDDLE position, the STROBE light will be on.3.In the UP position, both the strobe and Nav lights will be on.Electrical System DiagramThe BW 635RG’s electrical system is modelled in the following way in Microsoft Flight Simulator.Because the starter system is connected to the BACKUP BUS, this means you cannot start the engine with the MASTER switch in the UP position, due to the BACKUP BUS being disconnected from the circuit once the MAIN BAT BUS is powered.Page 21 of 21User Guide v1.0 –RevisionEngineThe BW 635RG is powered by the Rotax 915iS. The Rotax 915iS is a four-stroke, four-cylinder, fuel-injected, turbocharged aircraft engine with a maximum power output of141 horsepower. The engine utilizes electronic fuel injection (EFI) technology toprovide precise fuel delivery and improved fuel efficiency. It also features a modernliquid-cooling system and a dual electronic ignition system for reliable performance.The Rotax 915iS engine has a maximum operating RPM of 5,200, with a recommended continuous operation range of 5,000 RPM or less.PropellerThe propeller is a 3-blade wood-composite design, which is hydraulically adjustable for operation at various pitch angles, controlled independently of the pilot. The propeller is linked to the engine through an electronically controlled governor, where RPM isadjusted in accordance with the position of the throttle control. This pitch curve cannot be adjusted in flight, however is designed to ensure maximum performance in allphases of flight.FuelBoth wings have fuel tanks, which are fed to the engine via electric fuel pumps. Fuelsystem information is fed via sensors to the Garmin avionics suite and can be viewedon the displays inside the cockpit.AIRPLANE WEIGHTSBasic Empty Weight……………………….…375 KgMaximum Takeoff Weight…………………..600 KgMaximum Fuel Weight………………………...95 Kg Maximum Landing Weight………………….600 Kg TANK USABLE FUEL LEFT WING TANK67.5 litres 17.8 US Gallons RIGHT WING TANK62.5 litres 16.5 US Gallons TOTAL 130 litres34.3 US GallonsFUEL CAPACITY AIRSPEEDS Never Exceed Speed ……….…………….173 KIAS Max Structural Cruising Speed…………..156 KIAS Maneuvering Speed MTOW……………….109 KIAS Initial Climb………………………………………80 KIASBest Angle Climb……………………………….75 KIASBest Rate of Climb……………………………..90 KIASMax Flap Ext 20°……………………..............90 KIASMax Flap Ext 35-45°……………………………70 KIASMax Landing Gear Operation……………….70 KIASMax Landing Gear Extended………………..90 KIASPlanned Cruise TAS………………………….130 KIASFinal Approach Speed………………………..60 KIAS POWERPLANT LIMITATIONSENGINE LIMITS (RPM)Take-off (5 Minutes)………....5800 RPM Max Continuous……………….5500 RPMALTITUDE LIMITSMaximum Operating Altitude………………23 000ftFor Microsoft Flight Simulator Use Only0-12023 Orbx Simulation Systems Pty. Ltd BW 635RG QUICK REFERENCESHEETIssued: 21 Apr 2023Revised: 21 Apr 20230-2PROCEDURESBEFORE STARTING ENGINEPreflight Inspection………………………….COMPLETECrew Briefing………………………………….COMPLETEIgnition…………………………………………………….OFFMaster Switch…………………………………………..OFFBackup Battery …..…………………………….OFF/AUTOLanding Gear Lever………………………………..DOWNCircuit Breakers…………………………………………..IN Canopy………………………………………………CLOSED STARTING ENGINEArea……………………………………………………..CLEARParking Brake……………….HOLD TOE BRAKES ANDENGAGEMaster Switch …..……………….ENGINE START (MID)Fuel Selector…………………………………………….SETFuel Pump………………………………………BOTH (UP)Ignition………………………………………………….BOTHExternal Lights……………………………………..AS REQThrottle ………………………..………..Τ12-1 INCH OPENIgnition………………………………………………….START AFTER START Oil Pressure.…………………………………………RISING Master Switch ……………………………..NORMAL (UP)Radios………………………………………………………SET Altimeter…………………………………………………..SET ATIS and Clearance…………………………..OBTAINEDBEFORE TAXIBrakes/Park Brake ………………………….DISENGAGEFlight Instruments……………………………..CHECKEDCompass…………………………………………CHECKED BEFORE TAKEOFFCanopy/Harnesses………………………………SECURE Flaps…………………………………….……1 STAGE (20°)Trim ..……………………………………SET FOR TAKEOFF Flight Instruments………………………………………SET Engine Instruments………………CHECKED NORMAL Avionics…………………………………………………….SET External Lights………………………………………AS REQ Flight Controls…………..FULL, FREE AND CORRECT Takeoff Safety Brief………………………….DELIVERED TAKEOFFBrakes/Park Brake………………………….DISENGAGEPower…………SMOOTHLY INCREASE TO MAXIMUM45 knots………………………………………………ROTATEAccelerate……….…NOSE ON HORIZON, TO 80 KTSPositive Rate of Climb………………………….GEAR UPLanding Light.……………………………….OFF (DOWN)Flaps ………………………..RETRACT ABOVE 500’ AGLMEMORY ITEMS 2023 Orbx Simulation Systems Pty. Ltd ENGINE RUN UP Parking Brake ……………………………………..ENGAGE Engine Instruments……………………………CHECKED Engine RPM…………………………………SET 2500 RPM Fuel Pump…………………………………………….CYCLE Idle …………………..…..CHECK IDLE 1800 ±100RPM Navigation Equipment …..…………………………….SETFor Microsoft Flight Simulator Use OnlyIssued: 21 Apr 2023Revised: 21 Apr 2023AFTER TAKEOFF Engine Instruments……………………..WITHIN LIMITS Climb Speed…………………………………………90 KIAS Fuel Pump………….MAIN (DOWN ) ABOVE 500’ AGL0-3CRUISEPower….……………………………………….SET 55-75%Airspeed…..……….120-157KTS (<130KTS IN TURB.)DESCENTAltimeter…………………………………………………..SETFuel Selector………………………………FULLEST TANKPower Lever………………….AS REQUIRED FOR RODApproach Brief………………………………PLETE BEFORE LANDINGBrakes……………………………………………………..OFFFuel ………….………………………………QTY CHECKEDFuel Selector………………………………FULLEST TANK Fuel Pump……….………………………………BOTH (UP)LANDINGDOWNWINDAirspeed….………………………………………….90 KIASFlaps….………………………………………STAGE 1 (20°)Airspeed………….………………………………….65 KIASLanding Gear…..…………………….DOWN @ 65 KIASCHECK 3 GREENLanding Light………………………………………ON (UP)BASEFlaps…………………………… STAGE 2 (35°) < 65 KIASFINALAirspeed………….………………………………….60 KIASTouchdown ……………………….MAIN WHEELS FIRSTStick………………………………………………FULL BACK Brakes…………………………………………………..APPLYAFTER LANDING Flaps………………………………………………..RETRACT Landing Lights…………………………………………..OFFFuel Pump….………………………………MAIN (DOWN)SHUTDOWNParking Brake ……………………………………..ENGAGE Throttle……………………………………………………IDLE Switches….………………………….OFF EXCL. MASTERIgnition..…………………………………………………..OFFLights….……………………………………….OFF (DOWN)Master Switch..……………………………..OFF (DOWN)MEMORY ITEMS 2023 Orbx Simulation Systems Pty. Ltd For Microsoft Flight Simulator Use OnlyPROCEDURESIssued: 21 Apr 2023Revised: 21 Apr 2023。
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2.多种燃油供应方式:6K系列发动机可以采用多种燃油供应方式,包括汽油和柴油。
这样可以满足消费者对不同燃油类型的需求,并且适用于不同的市场。
3.全铝合金发动机:6K系列发动机采用全铝合金材料制造,轻量化的设计使得发动机整体重量较轻。
这不仅有助于提高汽车的燃油经济性,还可以减少车辆的净重,提高操控性和加速性能。
4.高效的燃烧系统:6K系列发动机采用了高效的燃烧系统,包括燃油喷射技术和可变气门正时技术。
这些技术可以提高发动机的燃烧效率,减少燃料消耗和排放,同时提升发动机的动力输出和响应性能。
5.先进的涡轮增压系统:6K系列发动机配备了先进的涡轮增压系统,可以提供更大的进气量和增压压力。
这可以使发动机在高速和高负荷条件下提供更强大的动力输出,提高加速性能和超车能力。
6.多种变速器匹配选项:6K系列发动机可以与多种变速器匹配,包括手动变速器和自动变速器。
这些变速器可以满足不同驾驶需求和驾驶风格,提供更加舒适和灵活的驾驶体验。
7.先进的电控系统:6K系列发动机配备了先进的电控系统,可以监测和调节发动机的运行状况。
这些电控系统可以确保发动机在各种工况下的稳定性和可靠性,并提供故障诊断和维护提示。
总之,6K系列发动机具有广泛的排量范围、多种燃油供应方式、全铝合金结构、高效的燃烧系统、先进的涡轮增压系统、多种变速器匹配选项以及先进的电控系统等主要技术参数。
这些技术参数使得6K系列发动机具有出色的性能和可靠性,适应不同的车型和市场需求。
重组人p53腺病毒注射液残留细胞DNA检测(SLOT-BLOT法)方法验证方案1 目的使用SLOT-BLOT法检测重组人p53腺病毒注射液残留细胞DNA含量,验证相关的灵敏度和符合率,判断该方法是否能达到相应的检测要求及检测结果的有效性和可靠性。
2 范围重组人p53腺病毒注射液残留细胞DNA检测(SLOT-BLOT法)。
3 验证依据3.1 《中华人民共和国药典》;3.2 《药品生产验证指南》;4 责任人验证委员会:公司质量受权人、生产总监,质量部经理、设备部经理、生产部经理。
验证工作小组:质量管理部、设备部、生产部人员为验证工作小组成员。
6 验证所需文件6.1 《重组人p53腺病毒注射液残留细胞DNA检测(SLOT-BLOT法)》(SOP-A02-038)。
6.2 《PR648狭缝转印多孔滤器标准操作规程》(SOP-A08-080)。
6.3 《Shake ‘N’ Stack杂交炉标准操作规程》(SOP-A08-006)。
6.4 《防腐蚀真空压力泵标准操作规程》(SOP-A08-090)。
6.5 《TFP-N/WL凝胶成像定量系统标准操作规程》(SOP-A08-007)。
7 验证用仪器7.1 Minifold I Slot-Blot System,仪器编号:Sbnzk-JQ-08001。
7.2 Shake ‘N’ Stack杂交炉,仪器编号:Sbnzk-JQ-02201。
7.3 TFP-N/WL 型凝胶成像定量系统,仪器编号:Sbnzk-JQ-03301。
7.4 WP61 220 50型防腐蚀真空压力泵,仪器编号:Sbnzk-QT-08303。
7.5 吉尔森1000μl 、200μl 、100μl 、20μl 、2μl 移液枪,校验合格。
8 验证用试剂8.1 Dig High Prime DNA Labeling and Detection Starter Kit I (Roche )。
8.2 293 Cell Genomic DNA (Clontech )。
胃蛋白酶检测对咽喉反流的诊断价值王秀;李益飞;陈伟;许莉;吴明海;张勇;季俊峰;王秋萍【摘要】目的目前国内运用胃蛋白酶诊断咽喉反流的研究相对较少.文中旨在通过对慢性咽炎患者进行唾液/痰液胃蛋白酶检测,评价胃蛋白酶检测方法在咽喉反流诊断中的应用价值. 方法选取2017年1月至6月于南京军区南京总医院耳鼻咽喉头颈外科就诊的35例慢性咽炎患者.进行电子喉镜检查、反流检查计分量表(RFS)评分、反流症状指数量表(RSI)评分,同时对患者的唾液/痰液行胃蛋白酶浓度的检测(PEPTEST检测),共收集受试者3次唾液/痰液样本,第1次为晨起未漱口之前,第2次为午餐后1 h,第3次为症状明显时收集样本.将上述检查结果进行对比研究. 结果RSI、RFS平均为(11.31±6.21)、(5.97±1.98)分.晨起唾液/痰液中胃蛋白酶含量[26.80(0,109.80)ng/mL]较午餐后1 h[89.00(16.0,254.8) ng/mL]、症状明显时[105.70(34.3,254.8)ng/mL]明显降低(P<0.05).胃蛋白酶值诊断咽喉反流的ROC 曲线下面积晨起[0.759(0.602,0.917)]、午餐后1 h[0.824(0.670,0.978)]、症状明显时[0.873(0.725,1.000)]均大于RSI联合RFS,差异有统计学意义(P<0.05). 结论与传统方法(RFS评分联合RSI评分)相比,胃蛋白酶检测方法在咽喉反流诊断中具有更重要的临床价值.%Objective At present,there are relatively few studies on the application of pepsin in the diagnosis of laryngopha -ryngeal reflux disease(LPRD)in China.This paper aimed to evaluate the application value of Peptest in the diagnosis of LPRD by measuring saliva/sputum pepsin in patients with chronic pharyngitis. Methods From January to June 2017,35 patients with chronic pharyngitis treated in our department were selected to undertake electronic laryngoscopy and evaluated by reflux finding score(RFS) and reflux symptom index(RSI)scoring.Thepatients'saliva/sputum samples were collected three times for pepsin concentration de-tection(PEPTEST).The first collection was before mouthwash in the morning,the second was 1h after lunch,and the third was the time of evident parative research was carried out on the above results. Results The average RSI score and RFS scorewere11.31±6.21 and 5.97±1.98.The pepsin content in morningsaliva/sputum[26.80(0,109.80)ng/mL]was significantly lower than that at 1 h after lunch[89.00(16.0,254.8)ng/mL]and that at the time of obvious symptoms[105.70(34.3,254.8)ng/mL](P<0.05).The area under ROC of Peptest in the morning[0.759(0.602, 0.917)],1h afterlunch[0.824(0.670,0.978)], at the time of ob-vious symptoms were all greater than the combination of RSI and RFS, representing significant statistical differences(P<0.05). Conclusion Compared with traditional method(a combination of RSI and RFS),Peptest has more important clinical value in the diag-nosis of LPRD.【期刊名称】《医学研究生学报》【年(卷),期】2018(031)004【总页数】4页(P408-411)【关键词】咽喉反流;慢性咽炎;胃蛋白酶【作者】王秀;李益飞;陈伟;许莉;吴明海;张勇;季俊峰;王秋萍【作者单位】210002 南京,南京大学医学院附属金陵医院(南京军区南京总医院)耳鼻咽喉头颈外科;210002 南京,南京大学医学院附属金陵医院(南京军区南京总医院)耳鼻咽喉头颈外科;210002 南京,南京大学医学院附属金陵医院(南京军区南京总医院)耳鼻咽喉头颈外科;210002 南京,南京大学医学院附属金陵医院(南京军区南京总医院)耳鼻咽喉头颈外科;210002 南京,南京大学医学院附属金陵医院(南京军区南京总医院)耳鼻咽喉头颈外科;210002 南京,南京大学医学院附属金陵医院(南京军区南京总医院)耳鼻咽喉头颈外科;210002 南京,南京大学医学院附属金陵医院(南京军区南京总医院)耳鼻咽喉头颈外科;210002 南京,南京大学医学院附属金陵医院(南京军区南京总医院)耳鼻咽喉头颈外科【正文语种】中文【中图分类】R7660 引言慢性咽炎的发病率较高,广泛涉及儿童及成人,是病因至今未能明确的临床难题。
- 10 -[16]杨莹,赵谦,张淑悦,等.i-PRF 复合Bio-Oss 骨粉在拔牙位点保存中的应用研究[J].临床口腔医学杂志,2021,37(4):205-210.[17]郑少平.拔牙位点保存技术对前牙口腔种植患者牙槽骨骨量及牙槽美学效果的影响[J].当代医学,2020,26(3):173-174.[18]承峥,孙秋望月,葛昕,等.前牙拔牙位点保存术后牙槽嵴软硬组织变化的临床研究[J].口腔医学,2019,39(1):20-24.[19]刘宇,姜华茂,王海鑫.微创拔牙联合位点保存技术在口腔后牙种植修复中的应用效果[J].山东医药,2020,60(28):84-87.[20]马临生,解军军.研究拔牙位点保存技术应用于种植牙的效果[J/OL].临床医药文献电子杂志,2020,7(38):17-18.https:///kcms2/article/abstract?v=sSXGFc3NEDK9RIJH0zn7H882MZSKwVd2s8fkpGjY8L2yOW8u5FDiObsJ2NW WU3_OJ5_7vXdioJ5tj-lzDh4nONmo-ifterZxGnVwVZApsYfp4tQ sT3qLpn45Jc971XGz2i-Rc70L2MOi65MRvycxmA==&uniplatfor m=NZKPT&language=CHS.(收稿日期:2023-05-12) (本文编辑:何玉勤)*基金项目:保定市科技计划项目(2041ZF135)①首都医科大学附属北京儿童医院保定医院耳鼻喉科 河北 保定 071000②首都医科大学附属北京儿童医院保定医院口腔科 河北 保定 071000通信作者:高士培奥马珠单抗辅助治疗难治性过敏性哮喘伴鼻炎患儿的效果*李慧① 聂雷① 张佩瑶① 刘煜① 高士培②【摘要】 目的:探讨奥马珠单抗辅助治疗难治性过敏性哮喘伴鼻炎患儿的效果。
方法:选取首都医科大学附属北京儿童医院保定医院2021年6月—2022年6月收治的96例难治性过敏性哮喘伴鼻炎患儿作为研究对象,按照治疗方案分为对照组(予以沙美特罗替卡松+布地奈德+丙酸氟替卡松+孟鲁司特钠+地氯雷他定治疗)48例和观察组(予以奥马珠单抗辅助治疗)48例。
- 6 -[7] NEERAJA A,PRASAD A H,OOMMEN M,et al.Evaluation and correlation of nociceptive response index and spectral entropy indices as monitors of nociception in anesthetized patients[J].Journal of Neurosciences in Rural Practice,2023,14(3):440-446.[8]赵曦,金毅,于砾淳,等.熵指数监测在神经内镜垂体瘤手术全身麻醉深度监测中的应用[J].现代肿瘤医学,2021,29(24):4388-4391.[9]徐海峰,王开俊,黄龙,等.熵指数在腹腔镜手术全身麻醉深度监测中的应用[J].中国现代药物应用,2021,15(10):78-80.[10]朱玉梅.熵指数监测在老年全身麻醉下行腹部手术患者中的应用[J].中国当代医药,2020,27(13):121-124.[11]陈玲坤,苏春燕,陈海林.熵指数在老年全身麻醉患者中的应用效果[J].吉林医学,2016,37(3):542-544.[12]张萱,高静.麻醉深度监测指标在围术期麻醉中的应用研究[J].医学信息,2022,35(14):168-171.[13]肯内特(Kenneth Zinzal).熵指数指导下不同剂量的右美托咪定对全凭静脉麻醉苏醒期的影响[D].通辽:内蒙古民族大学,2022.[14]李威,段春艳,高航.熵指数用于老年患者麻醉的临床效果观察[J].中国医药指南,2019,17(10):90-91.[15]邓大立,孙丽杰,崔艳,等.熵指数监测下不同全身麻醉方法用于腹腔镜胃癌根治术患者的效果比较[J/OL].临床医药文献电子杂志,2020,7(39):25.https:///kcms2/article/abstract?v=w1Je9LIFm5DsHfE0QofnujxMlnEUg9GzfCAm qGh8S-SdeUHwrMkLX-uswvmzWXSupu0_0dYVL-0zsDWyzZG FRhe1CaPzJZhoPOxAb4XO3lq2BudKvvqpqopZWPtZ64HmH7o DAPP9KYeIb8XjRmJt0Q==&uniplatform=NZKPT&language=C HS.[16]袁亮婧,金梅,张晓光.“三叶草”法超声引导下腰丛阻滞应用于髋关节镜术后镇痛的前瞻性随机对照研究[J].中国微创外科杂志,2019,19(11):964-968.[17]杨益锋,范智东.麻醉深度监测指标在围手术期麻醉中的应用研究进展[J].现代医药卫生,2021,37(12):2026-2029.[18]许克路,沈勤,柏耀林,等.腰丛阻滞复合不同麻醉深度喉罩全麻在老年THA 围手术期的应用[J].蚌埠医学院学报,2021,46(8):1017-1022.[19]谢秀秀,黄常君,赵建勇,等.镇痛指数与手术容积指数指导全麻镇痛药物使用的价值研究[J].浙江医学,2023,45(19):2080-2083,2088.[20]谢鹏程,李占芳,赵晓红,等.手术体积描计指数指导髋关节置换术中镇痛药使用的效果研究[J].临床麻醉学杂志,2019,35(5):451-453.(收稿日期:2024-02-02) (本文编辑:何玉勤)①承德医学院 河北 承德 067000②保定市第一中心医院全科医疗科 河北 保定 071000通信作者:杨晰晰二甲双胍恩格列净片治疗2型糖尿病合并HFpEF的临床效果杨玥①② 杨晰晰②【摘要】 目的:探讨二甲双胍恩格列净片治疗2型糖尿病(T2DM)合并射血分数保留性心力衰竭(HFpEF)患者的临床效果和安全性。
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俄罗斯新莫斯科夫斯克氮气简介
嘿,你知道俄罗斯的新莫斯科夫斯克吗?那地方可有个很有趣的东西——氮气呢!
新莫斯科夫斯克的氮气呀,就像是一个神秘的小精灵。
氮气在我们生活里到处都有它的影子,在新莫斯科夫斯克更是有着独特的存在。
你看啊,氮气是无色无味的,就像个低调的小透明,但是它的作用可一点都不小。
在当地的工业里,氮气就像个超级英雄。
比如说在一些金属加工的工厂里,氮气就像是个保护神。
它能防止金属在高温加工的时候被氧化,就像给金属穿上了一层看不见的防护服。
那些金属在氮气的保护下,就可以乖乖地按照人们的想法被加工成各种各样的形状,像变成汽车零件啦,或者是精美的小饰品之类的。
还有啊,在新莫斯科夫斯克的农业方面,氮气也有它的一席之地。
它就像是个默默奉献的小农夫助手。
土壤里要是有合适的氮气含量,那些农作物就会长得特别好。
就像给植物们吃了营养大餐一样,小麦能长得高高的,玉米的颗粒也会饱满得不像话。
在医疗领域呢,氮气也没闲着。
它就像是个安静的小护士。
在一些特殊的医疗过程中,氮气可以被用来制造低温环境,这对保存一些特殊的药品或者生物样本可太重要了。
要是没有氮气帮忙,那些珍贵的药品和样本可能就没办法好好保存啦。
新莫斯科夫斯克的氮气啊,虽然它不是那种特别耀眼的东西,但就像我们身边那些默默付出的好朋友一样,总是在关键的时候发挥着不可替代的作用。
它让这个城市的工业、农业、医疗等各个方面都变得更加出色,就像一颗低调却又闪闪发光的星星。
第 1 页共 1 页。
撰文 / 陈曦绘图 / 骆玫——轰-6K轰炸机是主要对地面和水上目标实施轰炸的飞机,它可以单独执行任务,也能和其他战机组成编队协同作战。
而中国的轰-6K 型轰炸机(以下简称“轰-6K”)被称为“战神”轰炸机。
让我们一起来认识一下这位空中“战神”吧!空中“战神”雷达驾驶舱舱门光电转塔机翼用于探测地面或水上的目标能探测远距离目标敌我识别装置和探测目标对“暗号”的装置。
它会向探测目标发出电子信号,一旦目标无法对出“暗号”,就会将其识别为敌方发动机进气口翼下重型挂架可以挂数吨重的弹药起落架照明灯起落架大国利剑轰-6K 的诞生想要了解轰-6K,就不得不提到轰-6系列轰炸机最早的原型机——轰-6型轰炸机(以下简称“轰-6”)。
它是中国仿制苏联中型喷气轰炸机图-16型轰炸机(以下简称“图-16”)的产物。
图-16是苏联图波列夫设计局在19世纪50年代设计与生产的一款轰炸机,机身长34.8米、翼展33米、空重37.2吨,最大飞行速度1050千米/小时,航程7200千米,采用两台涡轮喷气发动机,后掠翼型主翼。
1959年,中国开始仿制图-16,几经波折,终于在1968年12月24日轰-6首飞成功,次年实现批量生产。
轰-6是中国研制改装成功的第一代中远程轰炸机,结束了中国不能制造轰炸机的历史,填补了中国航空工业的空白。
成功国产化轰-6后,科研人员并没有停下研制、改进的脚步。
通过更换发动机、增加载弹量和航程,轰-6K 横空出世!数据传输天线垂直尾翼水平尾翼后向告警雷达接收器能探测到敌方雷达发出的雷达波可以将雷达探测到的信息传输给指挥部知识拓展 机翼的形状大有玄机这是早期低速飞机常采用的一种机翼形状。
平直翼可细分为矩形翼(机翼两端宽度相同,见于第一次世界大战期间的飞机)、梯形翼(机翼两端宽度不同,见于第二次世界大战期间的飞机)等。
平直翼这种形状的机翼,能减小风行阻力。
图-16、轰-6系列的主翼就是后掠翼。
后掠翼与后掠翼刚好相反,其机翼是向前掠的。
俄罗斯新一代冲锋枪全透视
佚名
【期刊名称】《中国尖端武器报道:武器较量》
【年(卷),期】2006(000)003
【摘要】冲锋枪登上历史舞台以来经历了几个迥然相异的发展阶段,最初它是作为一种辅助性的近战武器出现在一战的阵地攻防战中,二战时期是自动武器开始大规模使用的时期,在自动步枪还未正名的年代里,冲锋枪的使用相当普遍,在各个参战国都大量装备。
战后,随着冷战的到来以及自动步枪技术的成熟,冲锋枪的发展一度陷入低谷。
【总页数】7页(P72-78)
【正文语种】中文
【中图分类】TJ23
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