MemEOL: Difference between revisions

Introduction text

Questions
Recommendations
Feedback

Do you suspect there is any physical damage to the membranes that would prevent them from being reused?

No Yes

Membrane damage

What is the tested permeability of your membranes (LMH/bar)?

Tested permeability (LMH/bar):

Find out more about standard testing methods.

What is the tested NaCl rejection of your membranes? (% NaCl rejection)

Tested permeability (LMH/bar):

membrane testing fact sheet

Please order the following criteria in the order of importance for your project (drag and drop):

Financial
Effort required
Environmental impact
Landfill impact
Public perception

Rank from most important to least important.

Find out more about these assessment criteria

Based on your inputs, the optimum end-of-life scenario for your used membrane is:

Disposal in local landfill.

Text about disposal in local landfill. Blah Blah

Energy recovery through incineration.

Text about energy recovery through incineration. Blah Blah

Energy recovery though syngas production.

Text about energy recovery though syngas production. Blah Blah

Energy recovery through use as a coke substitute in Electric Arc Furnaces.

Text about energy recovery through use as a coke substitute in Electric Arc Furnaces. Blah Blah

Material recycling.

Text about material recycling. Blah Blah

Chemical conversion to an ultrafiltration membrane and then reuse.

Text about chemical conversion to an ultrafiltration membrane and then reuse. Blah Blah

Direct membrane reuse.

Text about direct membrane reuse. Blah Blah

Direct reuse as a high quality seawater RO membranes.

Direct reuse as a high quality brackishwater RO membranes.

Direct reuse as a medium quality brackishwater RO membranes.

Direct reuse as a low quality brackishwater RO membranes.

Direct reuse as a medium quality nanofiltration membranes.

NaCl rejection range (%)	Permeability range (l.m-2.h-1.bar-1)	Designation	Action	Estimated reuse lifespan (yrs)
99.9 - 99.6	> 0.45	High quality SWRO	Direct reuse as SWRO possible in normal applications	2 –5
99.7 - 99.2	> 1.6	High quality BWRO	Direct reuse as BWRO possible in normal applications	2 – 3
99.2 – 98	> 1.6	Medium quality BWRO	Direct reuse as BWRO in standard applications possible	1 – 2
98 – 96	> 1	Low quality BWRO	Direct reuse as BWRO in harsh applications where regular replacement is required	1
96 – 80	> 5	Medium quality NF	Direct reuse as NF membrane possible	-
< 96	< 5	Unsuitable for RO or NF	Membrane suitable for UF conversion.	-

A suitable alternative is:

Disposal in local landfill.

Text about disposal in local landfill. Blah Blah

Energy recovery through incineration.

Text about energy recovery through incineration. Blah Blah

Energy recovery though syngas production.

Text about energy recovery though syngas production. Blah Blah

Energy recovery through use as a coke substitute in Electric Arc Furnaces.

Text about energy recovery through use as a coke substitute in Electric Arc Furnaces. Blah Blah

Material recycling.

Text about material recycling. Blah Blah

Chemical conversion to an ultrafiltration membrane and then reuse.

Text about chemical conversion to an ultrafiltration membrane and then reuse. Blah Blah

Direct membrane reuse.

Text about direct membrane reuse. Blah Blah

Direct reuse as a high quality seawater RO membranes.

Direct reuse as a high quality brackishwater RO membranes.

Direct reuse as a medium quality brackishwater RO membranes.

Direct reuse as a low quality brackishwater RO membranes.

Direct reuse as a medium quality nanofiltration membranes.

NaCl rejection range (%)	Permeability range (l.m-2.h-1.bar-1)	Designation	Action	Estimated reuse lifespan (yrs)
99.9 - 99.6	> 0.45	High quality SWRO	Direct reuse as SWRO possible in normal applications	2 –5
99.7 - 99.2	> 1.6	High quality BWRO	Direct reuse as BWRO possible in normal applications	2 – 3
99.2 – 98	> 1.6	Medium quality BWRO	Direct reuse as BWRO in standard applications possible	1 – 2
98 – 96	> 1	Low quality BWRO	Direct reuse as BWRO in harsh applications where regular replacement is required	1
96 – 80	> 5	Medium quality NF	Direct reuse as NF membrane possible	-
< 96	< 5	Unsuitable for RO or NF	Membrane suitable for UF conversion.	-

@@ Line 405: / Line 405: @@
 </div>
 <div class="col-sm-6">
-<input type="text" class="form-control" id="NaClRejection" name="NaClRejection" placeholder="% NaCl Rejection" data-bv-notempty="true" data-bv-notempty-message="Salt rejection is required and cannot be empty" data-bv-stringlength="true" data-bv-stringlength-min="3" data-bv-stringlength-message="The salt rejection must have at least 3 characters" data-bv-regexp="true" data-bv-regexp-regexp="^[a-zA-Z0-9]+$" data-bv-regexp-message="Please enter a number between 0 and 100." />
+<input type="text" class="form-control" id="NaClRejection" name="NaClRejection" placeholder="% NaCl Rejection" data-bv-notempty="true" data-bv-notempty-message="Salt rejection is required and cannot be empty" data-bv-stringlength="true" data-bv-stringlength-max="10" data-bv-stringlength-message="The salt rejection must be less than 10 characters in length." data-bv-regexp="true" data-bv-regexp-regexp="^[0-9]+([\.][0-9]+)?$" data-bv-regexp-message="Please enter a number between 0 and 100." />
 </div>
 </div>

MemEOL: Difference between revisions

Revision as of 23:34, 5 January 2015

Disposal in local landfill.

Energy recovery through incineration.

Energy recovery though syngas production.

Energy recovery through use as a coke substitute in Electric Arc Furnaces.

Material recycling.

Chemical conversion to an ultrafiltration membrane and then reuse.

Direct membrane reuse.

Disposal in local landfill.

Energy recovery through incineration.

Energy recovery though syngas production.

Energy recovery through use as a coke substitute in Electric Arc Furnaces.

Material recycling.

Chemical conversion to an ultrafiltration membrane and then reuse.

Direct membrane reuse.