Parallel Counterflow Chiller part 1 of 3

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  • Опубликовано: 29 ноя 2024

Комментарии • 23

  • @CezarRochaNeto
    @CezarRochaNeto 10 лет назад +1

    Paul, this is so didactic and instructive!!! Thanks for sharing your experiences!

  • @AndrewRobertsNC
    @AndrewRobertsNC 10 лет назад

    Im so glad you chucked up the video! I have been excited to see how it turned out!! Thanks for all the hard work!! Cheers!

    • @Time4Another1
      @Time4Another1  10 лет назад

      Cheers Andrew Roberts it took a while, there was alot of editing.

  • @rogerwebb1173
    @rogerwebb1173 2 года назад +1

    Hi, I love your Parallel Counterflow Chiller. Originally I was going to build one with all pipes copper. The beauty of your's using PVC is cost. What I need to know is where did you puchase the 20mm end pieces with a brass thread? Thanks for your video!!! Cheers

  • @sjporr
    @sjporr 10 лет назад

    You had to know I was coming here next. I'll be watching the series so I can build one as well. Cheers

  • @homebeerbrewery
    @homebeerbrewery 10 лет назад +2

    Very nice video, cool idea and looking forward to see the rest of the video series. Cheers and thanks for sharing!

  • @brandonb417
    @brandonb417 8 лет назад

    Not sure where you are man, but in the US, cheap irrigation pipe from Home Depot will do the job. The white stuff is Schedule 40, could also use Schedule 80, which is a thicker wall, there is also a special PVC used expressly for water heater drain pipes, designed for high temp, that would be good here too. That stuff is easily found at Lowe's.

  • @BHbrewing
    @BHbrewing 10 лет назад

    Well put together video and explanation. Heading to video #2 right now. Cheers!

  • @PetraKann
    @PetraKann 5 лет назад

    Temperature rating of PVC under pressure is about 40 degC and without pressure you can increase the temperature to about 60 degC.

  • @habibullaharsari5515
    @habibullaharsari5515 Год назад

    It was very very useful 👌

  • @CervezaDeGaraje
    @CervezaDeGaraje 10 лет назад +1

    Really cool, thanks for sharing!
    Cheers!

  • @petersmith8627
    @petersmith8627 10 лет назад

    +1 thanks for this Paul, Great video

  • @brandonb417
    @brandonb417 8 лет назад

    It would have been cool if you used quick release at the ends instead of protruding copper. Then you can quickly disconnect the silicon tubes and drain the chiller so you don't loose any chilled wort. Plus, the parts would then be easier to sterilize.

  • @scorp8669
    @scorp8669 7 лет назад

    Amazing! Great job

  • @GreedyDragonBrewing
    @GreedyDragonBrewing 10 лет назад

    Brilliant. Thanks for this! How would this compare to a chill plate design. CheerZ

    • @Time4Another1
      @Time4Another1  10 лет назад

      I used a chill wizard by Sabco way back, and it was a pain, it was slow at getting primed and had a slow flow rate. I don't like them due to the fact that they can block so easily on a brew day. However there are bigger plate chiller available, that may work better than the one I used.

    • @GreedyDragonBrewing
      @GreedyDragonBrewing 10 лет назад

      I like your build, the parts would be readily available here. Could the pyramid distance be reduced to add distance to the chiller? or would there be no additional benefit.

  • @Rookie_DIY
    @Rookie_DIY 10 лет назад

    Thanks for sharing. CHEERS!

  • @petermrowegmail
    @petermrowegmail 10 лет назад

    Hey Paul, of your counterflow the earlier one about a year ago and the parallel counterflow how do they compare on a cost basis?

    • @Time4Another1
      @Time4Another1  10 лет назад

      Parallel is more expensive, due to more connections. At an estimate I would say double.