Presentation is loading. Please wait.

Presentation is loading. Please wait.

Jorge Sánchez Rosado CRISP: 2nd Annual Meeting, PSI, Villigen, Switzerland Work package 13 – CO 2 Cooling CRISP: 2nd Annual Meeting, PSI, Villigen, Switzerland.

Similar presentations


Presentation on theme: "Jorge Sánchez Rosado CRISP: 2nd Annual Meeting, PSI, Villigen, Switzerland Work package 13 – CO 2 Cooling CRISP: 2nd Annual Meeting, PSI, Villigen, Switzerland."— Presentation transcript:

1 Jorge Sánchez Rosado CRISP: 2nd Annual Meeting, PSI, Villigen, Switzerland Work package 13 – CO 2 Cooling CRISP: 2nd Annual Meeting, PSI, Villigen, Switzerland

2 14-Mar-13Work Package 13 - CO2 Cooling - Jorge Sánchez2 TABLE OF CONTENTS 1.STS-CBM thermodynamical requirements 2.I-2PACL principle (Under patent) 3.Introduction to TRACI-XL 4.System diagram (State points + Ph diagram) 5.CO2 Line a)Remote head pump b)Pulsation Dampener c)Accumulator 6.Condensing Unit + Interface (Heat exchanger) 7.P&ID 8.Control system

3 14-Mar-13Work Package 13 - CO2 Cooling - Jorge Sánchez3 The requirements for the STS cooling are twofold: The innermost sensors with high radiation load have to be kept at or below -5 ⁰C Cooling based in gaseous, convective cooling of the (innermost) silicon sensors and other heat generating components, like power cables. Complete removal of the heat dissipated by the front-end electronics boards. This a prerequisite of the first requirement. System based in an evaporative CO 2 cooling of the front-end electronics, which is located in the FEE blocks. This kind of evaporative cooling based on CO 2, is also under consideration and thus under intense technical development for upgrades of the silicon trackers of LHC experiments. The total heat power dissipated by the STS components is estimated as: 212 FEE blocks at 200 W (10 FEBs with 20 W each), resulting in a power dissipation of 42.4 kW. The innermost sensors around the beam pipe with the highest radiation load will dissipate in operation around 6 mW on (2 x 3) cm 2 after the accumulation of a certain radiation dose. The total heat power dissipated by the STS components is estimated as: 212 FEE blocks at 200 W (10 FEBs with 20 W each), resulting in a power dissipation of 42.4 kW. The innermost sensors around the beam pipe with the highest radiation load will dissipate in operation around 6 mW on (2 x 3) cm 2 after the accumulation of a certain radiation dose.

4 14-Mar-13Work Package 13 - CO2 Cooling - Jorge Sánchez4

5 14-Mar-13Work Package 13 - CO2 Cooling - Jorge Sánchez5 Upgrade of TRACI up to 1kW unit. Accumulator  MARCO’s Adaption LEWA remote head Pump PLC Siemens Simatic S1200 controlled

6 14-Mar-13Work Package 13 - CO2 Cooling - Jorge Sánchez CO 2 Line Condensing Unit Accumulator Control Capacity Control Fill Experiment venting Flow regulation FL Q Thermal Box FT VL Ac PM HT VL PR TEV Vessel Heat Exchanger Compressor VL Concentric Hose Accumulato r Condenser FL R404a Set Point Control Box ø3/8”x0.035 Gas line ø1/4”x0.035 Liquid line

7 14-Mar-13Work Package 13 - CO2 Cooling - Jorge Sánchez7 -45 ⁰C-40 ⁰C -30 ⁰C

8 14-Mar-13Work Package 13 - CO2 Cooling - Jorge Sánchez8 1-2  Pumping: P suctionline = 15 bar P dischargeline = 27 bar ΔP pump = 12 bar h 1 (-45) = kJ/kg Q pump ?? = m co2 (h 2 -h 1 ) = = 0.015( ) = 0.09 kW increment of 3 ⁰C h 1 = kJ/kg h 2 = kJ/kg 2-3  Coil heating: Q coil = m co2 (h 3 – h 2 ) =0.165 kW h 3 = kJ/kg 3-4  Inner hose: Q transferline = m co2 (h 4 – h 3 ) = 0.3 kW h 4 = kJ/kg (Hose calculation required) 4-5  Restriction valve: ΔP = -12 bar h 5 = h 4 = kJ/kg 5-6  DETECTOR: Q detector = m co2 (h 6 – h 5 ) = 1kW h 6 = kJ/kg 6-7  Outer hose: Q transferline = m co2 (h 7 – h 6 ) = 0.3 kW h 7 = kJ/kg (Hose calculation required) 7-1  Heat Exchanger: Q hex = m co2 (h 1 – h 7 ) = kW interpolating we should set up the compressor working at: 30 hz provides 0.5kW 87 hz provides 1.6 kW Therefore 1.26kW are providing fixing a frequency of 69.38hz

9 14-Mar-13Work Package 13 - CO2 Cooling - Jorge Sánchez9 At least 30° inclination & Less than 1m Q TRACIXL = l/h oil transfer line GSI AeroShell Fluid 4 oil transfer line GSI AeroShell Fluid 4

10 14-Mar-13Work Package 13 - CO2 Cooling - Jorge Sánchez10 Necessity of a pulsation dampener to prevent pulsations which produce negative effects in the stability of the temperatures and therefore in the heat extraction by the biphasic system. Dampener effect Values for a possible version applied in TRACI-XL: Bladder: NBR Low Temperature -40/85 ⁰C With 150 ml of oil for low temperatures inside the bladder Pre-charged at 18 bar

11 14-Mar-13Work Package 13 - CO2 Cooling - Jorge Sánchez11 - Resizing of the diameter of the coil to ¼” - Inlet and outlet coming from the top of the vessel instead like from the bottom as in MARCO Data sheet: 1x Accumulator, according to drawing Design code : R.T.o.D. / PED Design conditions : /40°C (vessel). Design conditions : /40°C (coil). Medium : Harmless, gas. Category / Module : II / A1. Material : /316L. Corrosion allowance : 0mm. Shell : ø168.3x10.97mm, LG.400mm. Heads : 2x pipecap, 6”sch.80s. Coil : ø6.35x1.24mm. Connections : See drawing. Data sheet: 1x Accumulator, according to drawing Design code : R.T.o.D. / PED Design conditions : /40°C (vessel). Design conditions : /40°C (coil). Medium : Harmless, gas. Category / Module : II / A1. Material : /316L. Corrosion allowance : 0mm. Shell : ø168.3x10.97mm, LG.400mm. Heads : 2x pipecap, 6”sch.80s. Coil : ø6.35x1.24mm. Connections : See drawing. resizing

12 14-Mar-13Work Package 13 - CO2 Cooling - Jorge Sánchez12 - Compressor with crankcase heater, discharge and suction service valve, frequency inverter, HP/LP safety switch. - Discharge line with vibration damper. - Condenser with condenser fan 1x230V. - Hot gas bypass valve including service valve. - Alfa Laval heat exchanger AXP10-10H-F - Swagelok connections on CO 2 side. - Suction line mounted with vibration dampener and suction accumulator both insulated with Armaflex. - Gauge panel with two service valve, LP and HP pressure transmitter. System performance: at 30 Hz aprox. ; Q o = 0,50 kW, T o = -45 ⁰C, T suction = -30 ⁰C, T c = +35 ⁰C, T sc = 3 K, T sh = 5 K? R404a. at 87 Hz aprox. ; Q o = 1,60 kW, T o = -45 ⁰C, T suction = -30 ⁰C, T c = +35 ⁰C, T sc = 3 K, T sh = 5 K? R404a. All parts functionally mounted on the compressor base plate. All parts functionally mounted on the compressor base plate. Recent provider change

13 14-Mar-13Work Package 13 - CO2 Cooling - Jorge Sánchez13 Reliable brazed heat exchanger with enough capacity for a maximum 1.6 kW provided by the chiller. In terms of pressure is more than enough for CO 2 applications.

14 14-Mar-13Work Package 13 - CO2 Cooling - Jorge Sánchez14 Based in EN , EN , EN will be translated to CERN nomenclature

15 14-Mar-13Work Package 13 - CO2 Cooling - Jorge Sánchez15 For TRACI-XL PLC Siemens S1200 replaces rail transmitters used in TRACI Distributed Inputs/Outputs modules PROFINET protocol HMI touch panel to have total automation control from TRACI-XL Siemens TIA V11 (2 CBM) PROFINET protocol Data logging In contact with Siemens to clarify Control cabinet 544x800x847 enough?

16 14-Mar-13Work Package 13 - CO2 Cooling - Jorge Sánchez16 Analog inputs RTD signal (Pt 100) (1) BT01 (Temperature transmitter - pump inlet/heat exchanger output) (2) BT02 (Temperature transmitter - pomp outlet) (3) BT03 (Temperature transmitter – Accumulator gas) (4) BT04 (Temperature transmitter – Accumulator coil outlet) (5) BT05 (Temperature transmitter – supply line,before lexible trans. line) (6) BT06 (Temperature transmitter – experiment input) (7) BT07 (Temperature transmitter – experiment output) (8) BT08 (Temperature transmitter – Heat exchanger input) Other sensors (1) BT09 (Termocouple type K on EB01) (2) Experiment heater protection (3) BP01 (Pressure transmitter – accumulator pressure) (4) BP02 (Pressure transmitter - supply line,before flexible trans. line) (5) Pressure transmitter – R404A chiller suction line (6) BF01(Mass flow meter) Digital output Compressor frequency, Chiller condenser fan Service valve(HB chiller) Pump Frequency? Power supply Input 120/230 V AC, output 24 V DC/2.5 A S CPU 1215C 14 Digital input 2 Analog input (0-10V) 10 Digital output 2 Analog output (0-20mA) SM 1231 RTD Module 8 Analog input RTD signal SM 1231 TC Module 4 Analog input - termocouple SM 1231 AI Module 4 Analog input (±10V, ±5V, ±2.5V, ±1.25V 0-20mA, 4-20mA)

17 14-Mar-13Work Package 13 - CO2 Cooling - Jorge Sánchez17 -Temperature sensors PT100 OD4mm (NiCrNi) by RODAX. (8UNITS) -Pressure sensors Unik 5000 PTX5072-TC-A2-CA-H0-PE 0-100bar abs by General Electric (2 UNITS, PROBABLY 3) -Coriolis Mass flow meter Rehonik RHM03 TA P1 PMO MO N1 AT without terminal box with Mass flow transmitter RHE14 T1 D1 I2 N by General Electric (1 UNIT) -Pump LEWA: Manometer pressure gage ? + Frequency. -Heater with thermocouple type k (NiCr-Ni) 1000W 80mm TC 'k' 3000mm by Türk Hillinger (1UNIT) - Condensing unit R kW evaporating system -45⁰C : LP and HP pressure transmitter Main switch Johnson control (fan speed regulator) Lodan compressor/condenser regulator with display Potential contacts for running and alarm. Inputs / Outputs

18 14-Mar-13Work Package 13 - CO2 Cooling - Jorge Sánchez18 FOR YOUR ATENTION


Download ppt "Jorge Sánchez Rosado CRISP: 2nd Annual Meeting, PSI, Villigen, Switzerland Work package 13 – CO 2 Cooling CRISP: 2nd Annual Meeting, PSI, Villigen, Switzerland."

Similar presentations


Ads by Google