This is a legacy product. Please contact us for the latest version.sales@ocaire.com, THERMO CHILLER, OTHERS, HRZ- THERMO CHILLER, 2X, HRZ - NO SIZE RATING, .00000 lb
The HRW series thermo-chiller is a high-performance device for circulating a fluid at a constant temperature (Water-cooled type).? Energy saving is substantially increased by exchanging cooling water and heat directly.? The HRW can achieve reduction in power consumption as it does not have a compressor, and reduction in the amount of facility water used because heat is exchanged directly
The HRW series thermo-chiller is a high-performance device for circulating a fluid at a constant temperature (Water-cooled type).? Energy saving is substantially increased by exchanging cooling water and heat directly.? The HRW can achieve reduction in power consumption as it does not have a compressor, and reduction in the amount of facility water used because heat is exchanged directly
The HRW series thermo-chiller is a high-performance device for circulating a fluid at a constant temperature (Water-cooled type).? Energy saving is substantially increased by exchanging cooling water and heat directly.? The HRW can achieve reduction in power consumption as it does not have a compressor, and reduction in the amount of facility water used because heat is exchanged directly
The HRW series thermo-chiller is a high-performance device for circulating a fluid at a constant temperature (Water-cooled type).? Energy saving is substantially increased by exchanging cooling water and heat directly.? The HRW can achieve reduction in power consumption as it does not have a compressor, and reduction in the amount of facility water used because heat is exchanged directly
The HRW series thermo-chiller is a high-performance device for circulating a fluid at a constant temperature (Water-cooled type). Energy saving is substantially increased by exchanging cooling water and heat directly. The HRW can achieve reduction in power consumption as it does not have a compressor, and reduction in the amount of facility water used because heat is exchanged directly with
The HRW series thermo-chiller is a high-performance device for circulating a fluid at a constant temperature (Water-cooled type).? Energy saving is substantially increased by exchanging cooling water and heat directly.? The HRW can achieve reduction in power consumption as it does not have a compressor, and reduction in the amount of facility water used because heat is exchanged directly
The HRW series thermo-chiller is a high-performance device for circulating a fluid at a constant temperature (Water-cooled type). Energy saving is substantially increased by exchanging cooling water and heat directly. The HRW can achieve reduction in power consumption as it does not have a compressor, and reduction in the amount of facility water used because heat is exchanged directly
Select U or NZ for the valve when the SI unit output polarity is N (negative common). * Only Z and NZ types are available for the JSY1000 series. * When the non-polar common specification type is selected, take measures to prevent surge voltage. For details, refer to page 138.
D1 D2 H1 H2 H3 H4 H5 L1 L2 L3 Symbol Metric size Inch size TMH-23J TMH-01J 8.5 3.3 4.5 4.6 7.5 6 12 7.2 6.6 18 1/8J TMH-04J TMH-03J 9.4 4 5/32J TMH-06J 11.7 3.3 6.3 6.4 9.3 7.7 15.4 8.5 8.3 21 6J TMH-07J 12.1 1/4J TMH-06 13.1 4.3 7.1 7.2 11.1 10 20 11 10.6 26.5 6 TMH-07 13.5 1/4 TMH-08 TMH-09 15.5 8 5/16 TMH-10 18.8 4.3 9.5 9.6 13.5 14 28 14.2 14.6 34 10 TMH-12 21.2 12 TMH-13 22 1/
oO OUT 12,17 304 609 913 1217 1522 1765 30 IN 11 .08 277 554 831 1108 1385 1606 Note) Theoretical outpul(lbl) :: Pressure (pSI) X Piston area (IrI(:h2) Bore SlZ9 .
Applicable bore size B2 C2 d H2 SNJ-010C 10 11 12.7 M8 x 1.0 4 NTJ-010C 10 7 8.1 M4 x 0.7 3.2 Y-J016C 16 11 16.6 21 M5 x 0.8 SNJ-016C 16 14 16.2 M10 x 1.0 4 Part no. NDd9 NDH10 NX R1 U1 Y-J010C 3.30.030 0.060 3.3+0.048 0 3.2 8 10 NTJ-015C 16 8 9.2 M5 x 0.8 4 Y-J016C 50.030 0.060 5+0.048 0 6.5 12 10 * A knuckle pin and retaining rings are included.
I = m x (a2 + b2) / 12 + m x H2 I = 0.15 x (0.062 + 0.042) / 12 + 0.15 x 0.032 = 0.0002 kgm2 Moment of inertia Kinetic energy 6 Confirm that the loads kinetic energy is within the allowable value. 1/2 x I x 2 = < Allowable energy 1 / 2 x (0.0002) x (2 x ( / 2) / 0.3)2 = = 2 / t (: Terminal angular velocity) 0.01096 J < Allowable energy OK : Rotation angle (rad) t: Rotation time (s) Allowable
High-temperature type (Temperature specifications/ H0, H2, H3) 1. In models with heater (thermistor), take care not to damage the insulation components of the lead wires and connector section. 2. The setting temperature for models with heater should be established without a draft or heat insulation.
High temperature type (Model/XLA, XLC, XLD, XLF, XLG; Temperature specifications/H0, H2, H3) 1. In models with heater (thermistor), take care not to damage the insulation components of the lead wires and connector section. 2. The setting temperature for models with heater should be established without a draft or heat insulation.
High temperature type (Model/XLA, XLC, XLD, XLF, XLG; Temperature specifications/H0, H2, H3) 1. In models with heater (thermistor), take care not to damage the insulation components of the lead wires and connector section. 2. The setting temperature for models with heater should be established without a draft or heat insulation.
= m x (a2 + b2) / 12 + m x H2 = 0.4 x (0.102 + 0.062) / 12 + 0.4 x 0.042 = 0.00109 kgm2 Inertial moment Kinetic energy 6 Confirm that the load's kinetic energy is within the allowable value. 1 / 2 x x 2 allowable energy = 2 / t (: Terminal angular velocity) : Rotation angle (rad) 1/ 2 x 0.00109 x (2 x ( / 2) / 0.3)2 = 60 mJ Allowable energy OK t : Rotation time (s) Allowable kinetic
I = m x (a2 + b2) / 12 + m x H2 I = 0.15 x (0.062 + 0.042) / 12 + 0.15 x 0.032 = 0.0002 kgm2 Moment of inertia Kinetic energy 6 Confirm that the loads kinetic energy is within the allowable value. 1/2 x I x 2 = < Allowable energy 1 / 2 x (0.0002) x (2 x ( / 2) / 0.3)2 = = 2 / t (: Terminal angular velocity) 0.01096 J < Allowable energy OK : Rotation angle (rad) t: Rotation time (s) Allowable
I = m x (a2 + b2) / 12 + m x H2 I = 0.15 x (0.062 + 0.042) / 12 + 0.15 x 0.032 = 0.0002 kgm2 Moment of inertia Kinetic energy 6 Confirm that the loads kinetic energy is within the allowable value. 1/2 x I x 2 = < Allowable energy 1 / 2 x (0.0002) x (2 x ( / 2) / 0.3)2 = = 2 / t (: Terminal angular velocity) 0.01096 J < Allowable energy OK : Rotation angle (rad) t: Rotation time (s) Allowable