ISO Coated v2 (ECI) / ISO Coated v2 300% (ECI)
Profile: ISOcoated_v2_eci.icc
Standard for glossy and matte coated paper
Paper: Types 1 and 2, gloss and matte coated
Tone value increase curves A (CMY) and B (K) as defined in ISO 12647-2:2004
Characterisation Data: FOGRA39L
ISOUncoated
Profile: ISOUncoated.icc
Standard for uncoated white natural paper
Paper: paper grade 4, uncoated white offset, dot gain curves C (CMY) and D (K) from ISO 12647-2: 2004
Characterisation Data: FOGRA29L
PSOCoatedV3 / Fogra 51
Profile: PSOcoated_v3.icc
The successor of ISOCoatedV2 for glossy and matte coated paper with moderate optical brighteners
Paper: paper type 1, glossy and matte coated paper with moderate optical brighteners (8-14 DeltaB according to ISO 15397)
Tone value increase curve A (CMYK) according to ISO 12647-2:2013
Paper white: CIELAB=95;1,5;-6
Characterisation Data: Fogra51 / Fogra 51 Spectral (M1)
PSOuncoated_v3 / Fogra 52
Profile: PSOuncoated_v3_FOGRA52.icc
The successor of PSOUncoated for uncoated, wood-free natural paper with many optical brighteners
Paper: Paper type 5, wood-free uncoated, with high OBAs (more than 14 DeltaB according to ISO 15397)
Tonal value increase curves C (CMYK) according to ISO 12647-2:2013
Paper white: CIELAB=93.5;2.5;-10
Characterisation Data: PresumablyFogra52L (M1)
PSO Uncoated ISO12647 (ECI)
Profile: PSO_Uncoated_ISO12647_eci.icc
The successor of ISOUncoated
Paper: Type 4, uncoated white offset
Tone value increase curves C (CMY) and D (K) as defined in ISO 12647-2:2004
Characterisation Data: FOGRA47L
PSO LWC Improved (ECI)
Profile: PSO_LWC_Improved_eci.icc
Improved LWC paper, glossy coated, successor of ISO Web Coated
Paper: Paper type 3, improved gloss coated (LWC)
Tone value increase curves B (CMY) and C (K) as defined in ISO 12647-2:2004
Characterisation Data: FOGRA45L
PSO LWC Standard (ECI)
Profile: PSO_LWC_Standard_eci.icc
LWC paper standard, glossy coated
Paper: Paper type 3, standard glossy coated (LWC)
Tone value increase curves B (CMY) and C (K) as defined in ISO 12647-2:2004
Characterisation Data: FOGRA46L
ISO Web Coated
Profile: ISOwebcoated.icc
LWC paper standard, glossy
Paper: Paper grade 3, standard glossy coated (LWC), dot gain curves B (CMY) and C (K) from ISO 12647-2: 2004
Characterisation Data: FOGRA28L
ISO Uncoated Yellowish
Profile: ISOuncoatedyellowish.icc
Uncoated natural paper slightly yellowish (chamois)
Paper: Type 5, uncoated yellowish offset
Tone value increase curves C (CMY) and D (K) as defined in ISO 12647-2:2004
Characterisation Data: FOGRA30L
SC Paper (ECI)
Profile: SC_paper_eci.icc
Paper: SC (Super Calendered) Paper
Tone value increase curves B (CMY) and C (K) as defined in ISO 12647-2:2004
Characterisation Data: FOGRA40L
PSO SC-B Paper v3
Profile: PSOsc-b_paper_v3_FOGRA54.icc
SC-B Paper, Super calendered Papier, satin-finished
Paper: Commercial offset, SC-B paper (super-calendered, satin), printing condition PC6
Tone value increase curve 2013-B, white measurement base.
Characterisation Data: FOGRA54
PSO MFC Paper (ECI)
Profile: PSO_MFC_paper_eci.icc
Paper: MFC, Machine finished coating
Tone value increase curves B (CMY) and C (K) as defined in ISO 12647-2:2004
Characterisation Data: FOGRA41L
PSO SNP Paper (ECI)
Profile: PSO_SNP_paper_eci.icc
Newsprint
Paper: SNP, Standard newsprint, heatset web offset printing
Tone value increase curves C (CMY) and D (K) as defined in ISO 12647-2:2004
Characterisation Data: FOGRA42L
WAN-IFRAnewspaper 26v5
Profile: WAN-IFRAnewspaper26v5.icc
Colour space: Primary and secondary colours according to ISO 12647-3: 2013
Dot gain: 26%
Maximum paint application: 220%
Maximum GCR: Long black with an early black start
ISONewspaper 26v4
Profile: ISONewspaper26v4.icc
Newspaper
Paper: paper type SNP, standard newsprint, heatset web offset, dot gain curves C (CMY) and D (K) from ISO 12647-2: 2004
Characterisation Data: IFRA26
PSO Coated NPscreen ISO12647 (ECI)
Profile: PSO_Coated_NPscreen_ISO12647_eci.icc
glossy and matte coated paper, FM screen
Paper: Paper types 1 and 2, glossy and matt coated paper, non-periodic screen (NPscreen), 20 µm,
Tone value increase curve F (CMYK) from ISO 12647-2:2004
Characterisation Data: FOGRA43L
PSO Coated 300% NPscreen ISO12647 (ECI)
Profile: PSO_Coated_300_NPscreen_ISO12647_eci.icc
glossy and matte coated paper, FM screen
Paper: type 1 and 2, gloss and matte coated
non-periodic screening (NPscreen), 20 μm
Tone value increase curve F (CMYK) as defined in ISO12647-2:2004
Characterisation Data: FOGRA43L
PSO Uncoated NPscreen ISO12647 (ECI)
Profile: PSO_Uncoated_NPscreen_ISO12647_eci.icc
Uncoated white natural paper, non-periodic screening (NPscreen), 30 μm
Paper: type 4, uncoated white offset
Tone value increase curve F (CMYK) as defined in ISO 12647-2:2004
Characterisation Data: FOGRA44L
Improved Newsprint, INP / PSO INP Paper (ECI)
Profile: PSO_INP_Paper_eci.icc
Commercial and specialty offset, INP paper (improved news print), positive plates
Paper: improved newsprint
Tone value increase curves C (CMY) and D (K), white measurement base
Characterisation Data: FOGRA48L
PSO Coated v2 300% Glossy laminate (ECI)
Profile: PSO_Coated_v2_300_Glossy_laminate_eci.icc
Commercial offset printing, positive copy, AM screen with 60-80 lines/cm, with subsequent gloss foil lamination (typical OPP gloss foil 12-15 μm), white measurement base.
The profile is consistent with the old profiles ISOcoated_v2_eci.icc and ISOcoated_v2_300_eci.icc and shows the matching gloss finished result.
Tone value increase curves A (CMY) and B (K) according to ISO 12647-2:2004
Characterisation Data: FOGRA50L
PSO Coated v2 300% Matte laminate (ECI)
Profile: PSO_Coated_v2_300_Matte_laminate_eci.icc
Commercial offset printing, positive copy, AM screen with 60-80 lines/cm, with subsequent matt film lamination (typical OPP matt film 15 μm with medium opacity ~70%, i.e. brightening ΔL* = 6 on black solid tone after finishing), white measurement base.
The profile is consistent with the old profiles ISOcoated_v2_eci.icc and ISOcoated_v2_300_eci.icc and shows the matching matt-finished result.
Tone value increase curves A (CMY) and B (K) according to ISO 12647-2:2004
Characterisation Data: FOGRA49L
PSO Coated v3 Matte laminate (ECI) New 2020!
Profile: PSO_Coated_v3_Matte_laminate.icc
The ECI offset profile PSO_Coated_v3_Matte_ laminate.icc is based on the characterization data set “FOGRA56.txt” applicable to the following reference printing condition according to the international standard ISO 12647-2:2013: Commercial and specialty offset, Premium coated paper, tone value increase curve 2013-A, after lamination with matte film (typical OPP matte film 15 μm with average opacity ~70%, i. e. brightening by ΔL* = 6 on the black solid after lamination), white backing.
The profile is consistent with the profile PSOcoated_v3.icc and shows the corresponding glossy laminated result. The profile was created using the Heidelberg Color Toolbox 2019 with the following settings: black length 9 (starting point 10%), black width 10, total dot area 300%, maximum black 96%.
Characterisation Data: FOGRA56.txt
PSO Coated v3 Glossy laminate (ECI) New 2020!
Profile: PSO_Coated_v3_Glossy_laminate.icc
The ECI offset profile PSO_Coated_v3_Glossy_ laminate.icc is based on the characterization data set “FOGRA57.txt” applicable to the following reference printing condition according to the international standard ISO 12647-2:2013: Commercial and specialty offset, Premium coated paper, tone value increase curve 2013-A, after lamination with glossy film (typical OPP glossy film 12–15 μm), white backing.
The profile is consistent with the profile PSOcoated_v3.icc and shows the corresponding glossy laminated result. The profile was created using the Heidelberg Color Toolbox 2019 with the following settings: black length 9 (starting point 10%), black width 10, total dot area 300%, maximum black 96%.
Characterisation Data: FOGRA57.txt
eciCMYK (Fogra 53) – CMYK exchange colour space
Profile: eciCMYK.icc
FOGRA53 is a CMYK exchange colour space and is used for colour communication in print production.
eciCMYK_v2 (Fogra 59) – CMYK exchange colour space New 2020!
Profile: eciCMYK_v2.icc
eciCMYK_v2 (Fogra 59) is the successor of eciCMYK (Fogra 53).
Heaven42
The absolute white tone opens up the greatest scope of colours for design and printing afforded by any coated paper worldwide. The perfect foundation for extreme contrasts and combination with ultra white natural papers. The absolutely white paper shade of heaven 42 impacts on the printing process as well as on the pre-press stage. With the same colouring and dot gain, the printed image can look significantly colder if separation remains unchanged (e.g. with
ICC-profile “IsoCoated_v2”).
We proof Heaven42 on proof paper with optical brighteners and measure the Proof in M1 Standard. Please note: Our Heaven42 proofs represent a good simulation of the original Heaven42 ICC Profile, but are not – as an ISOcoatedv2 Proof – colouraccurate and legally binding.
Scheufelen offers two ICC-Profiles for download, we proof the colour profile of Heidelberger Druck (“_HD”).
Profile: Heaven42_AM_U280_K98_G80_HD.icc (Heidelberger Druck)
Ink Coverage: ~280 % (U)
Black: GCR , 80 % (G)
Black Generation: 98 % (K)
Proofpaper: EFI Proof Paper 8245 OBA Semimatt
Characterisation Data: Made from Reference Data
Measuring method: M1 with optical brighteners (OBAs)
PaC.Space
Profile: PaC.Space_CMYK_gravure_V1a.icc
PaC.Space is the first common color standard for packaging gravure printing, which enables to process an interface from the supplied prepress data or printer-specific requirements.
Paper: Coated substrates and films for packaging gravure
Characterisation Data: FOGRA_PaCSpace_MKCheck11
ECI Rotogravure profiles for the Process Standard Rotogravure (PSR)
PSR LWC Plus V2 M1 v2 (2019)
Profile: PSR_LWC_PLUS_V2_M1_v2.icc
The Successor of PSR LWC Plus V2 (PSR_LWC_PLUS_V2_PT.icc)
Paper: Roll gravure, LWCplus glossy coated
Measuring base: unprinted LWCplus paper
Characterisation Data: PSR_LWC_PLUS_V2_M1
PSR LWC Plus V2 (2009)
Profile: PSR_LWC_PLUS_V2_PT.icc
The successor of HWC
Paper: Improved LWC (light weight coated) paper
Characterisation Data: ECI_PSR_LWC_PLUS_V2
PSR LWC Standard V2 M1 (2019)
Profile: PSR_LWC_STD_V2_M1.icc
The successor of PSR LWC Standard V2
Paper: Rotogravure, LWC
Measuring base: unprinted LWC paper (self backing)
Charakterisierungsdaten: SR_LWC_STD_V2_M1
PSR LWC Standard V2 (2009)
Profile: PSR_LWC_STD_V2_PT.icc
Paper: LWC (light weight coated) paper
Characterisation Data: ECI_PSR_LWC_STD_V2
PSR SC Plus V2 M1 (2019)
Profile: PSR_SC_PLUS_V2_M1.icc
The successor of PSR SC Plus V2
Paper: Rotogravure, SC Plus
Measuring base: Unprinted SC Plus paper
Characterisation Data: PSR_SC_Plus_V2_M1
PSR SC Plus V2 (2009)
Profile: PSR_SC_PLUS_V2_PT.icc
Paper: whiter super calandered paper
Characterisation Data: ECI_PSR_SC_Plus_V2
PSR SC Standard V2 M1 (2019)
Profile: PSR_SC_STD_V2_M1.icc
The successor of PSR SC Standard V2
Paper: Roll gravure, SC paper
Measurement document: Unprinted SC paper
Characterisation Data: PSR_SC_STD_V2_M1
PSR SC Standard V2 (2009)
Profile: PSR_SC_STD_V2_PT.icc
Paper: super calandered paper
Characterisation Data: ECI_PSR_SC_STD_V2
PSR MF V2 M1 (2019)
Profile: PSR_MF_V2_M1.icc
Paper: Rotogravure, paper type MF or INP, 55 g/m2
Measuring base: unprinted MF or INP paper
Characterisation Data: PSR_MF_V2_M1
PSR News Plus
Profile: PSRgravureMF.icc
PSRgravureMF is now reffered to as News Plus
Paper: Paper News Plus
Characterisation Data: PSRgravureMF_ECI2002
GRACoL2006_Coated1v2
Profile: GRACoL2006_Coated1v2.icc
GRACol interpretation of ISO 12647-2.
Paper: Type 1 and 2, glossy and matt coated paper
Dot gain curves: NPDC (Neutral Print Density Curves)
Characterisation Data: GRACoL2006_Coated1, a derivation from Fogra 39
SWOP2006_Coated3v2
Profile: SWOP2006_Coated3v2
SWOP interpretation of ISO12647-2 for web offset printing on thin coated paper.
Paper: Thin, coated paper
Tonwertzunahmekurven: NPDC (Neutral Print Density Curves)
Characterisation Data: SWOP2006_Coated3, a derivative of Adobe USWebCoated v2
SWOP2006_Coated5v2
Profile: SWOP2006_Coated5v2
Other SWOP interpretation of ISO12647-2 for web offset printing on thin coated paper
Paper: Thin, coated paper with a slightly different white tone to SWOP2006_Coated3V2
Dot gain curves: NPDC (Neutral Print Density Curves)
Characterisation Data: SWOP2006_Coated5, a derivative of Adobe USWebCoated v2
Japan Color 2011 Coated
Profile: JapanColor2011Coated.icc
The new standard of Japan Printing Machinery Association (JPMA).
Characterisation Data: JapanColor
Japan Color 2001 Coated
Profile: JapanColor2001Coated.icc
Printing process definition: ISO 12647-2:1996, sheet-fed offset printing, positive plates
Paper: Type 1, (coated, 105 gsm), screen frequency 69/cm.
SWOP 2013 C3
Profile: SWOP2013_CRPC5.icc or SWOP2013C3-CPRC5.icc
The profile is measured in M1 mode in consideration of optical brighteners and is printed on proofing papers with optical brighteners.
TAC: 260%
GCR: Medium+
Max K: 100%
TVI: CMY 16%, K19%
Paper: Grade #3 paper
Characterisation Data: CGATS21-2-CRPC5
GRACoL 2013 Uncoated
Profile: GRACoL2013UNC_CRPC3.icc
The profile is being measured in M1 Mode taking into account the Optical Brightening Agents in the paper.
TAC: 260%
GCR: Medium+
Max K: 100%
TVI: CMY 16%, K19%
Paper: N.N.
Characterisation Data: CGATS21-2-CRPC3
GRACoL 2013
Profile: GRACoL2013_CRPC6.icc
The profile is being measured in M1 Mode taking into account the Optical Brightening Agents in the paper.
TAC: 320%
GCR: Medium+
Max K: 100%
TVI: CMY 16%, K19,1%
Paper: N.N.
Characterisation Data: CGATS21-2-CRPC6
With DieDruckerei.de, the first well-known online printer has switched to PSOCoatedV3 and PSOUncoatedV3. A sign that almost exactly three years after the new Fogra51/52 standards appeared, they are increasingly being used in production and as a requirement for printers to produce data.
The fact that also here the conversion does not run completely smoothly, shows up in the data requirements, which recognize beside the new PSOCoatedV3 also a 300% variant of the profile – a legacy from the ISOCoatedV2 300% times, PSOCoatedV3 is present only in a 300% version, a profile PSOCoatedV3 300% does not exist therefore.
Nevertheless, the conversion shows that the new Fogra 51 and Fogra 52 profiles are also increasingly being used in online printing. A replacement of ISOCoatedV2 is still a long way off, the profile is simply too successfully anchored in the market and also well established as a defacto master standard for numerous printing processes in digital printing, trade fair construction, flexo printing and much more, so that this will take several more years. But with every major player in the printing market that advocates the conversion, the spread will increase and the new profiles will also be used in prepress.
It has taken almost a year, but we are all the more pleased now: The “CIELAB HLC Colour Atlas” is completed and can be ordered in our shop. The HLC Colour Atlas is a open source, high-precision colour system based on open standards.
The CIELAB HLC Colour Atlas offers professional users of colour three decisive advantages:
Every print shop in Germany adheres to a predefined standard, the process standard offset printing. This standard defines target and tolerance values for printed products. In order to prove that your proof delivered to the print shop meets these standards or is within the tolerances, the media wedge is measured and the values analysed in case of doubt – i.e. in case of a streak. If these measured values are correct, the print shop is obliged to adhere to and achieve these values.
Practice generally shows the following: If you want to have a 4-page image brochure proofed and printed, it is usually sufficient to have a single media wedge printed under the 4 pages. If the media wedge is also provided with a test report, the colour accuracy for the print shop is directly confirmed as a guideline.
However, if you want to be on the safe side, have a separate media wedge (including test report) printed under each of the 4 pages of your brochure.
A proof is only as good as the light under which it is viewed. Just going to the window or switching on the light at dusk is useless: between December and July, between 8 am and 8 pm, between cloudy and sunny days there is a huge difference in the lighting, which makes any colour evaluation impossible. And if you switch on the light, you normally switch on a bulb with 2700 Kelvin – or even worse: an energy-saving neon bulb that somehow shines in any spectra… a disaster!
The reasons for metamerism effects (in short: that two colors look identical under one light, but completely different under another) lie in the different printing technologies. Colors that look the same under a light bulb can suddenly look very different under a neon tube.
In recent years, ink-based digital proofs have established themselves in the proofing sector. Because it is printed in ink, specially coated paper must be used, which is not in any way similar to the subsequent production run. Anyone who has ever tried to print on glossy coated paper with an inkjet printer knows: the ink never lasts! Metamerism is therefore always involved when a proof is to be compared with offset printing.
The light under which proof and production run are viewed is particularly important.
ISO 3664 regulates standardized light, which is important for viewing proofs and prints. D50 is no longer D50: The International Lighting Commission CIE has revised ISO 3664 in recent years and adapted it to today’s circumstances. If UV components used to be strictly prohibited, they are now part of the standard. In the past, the focus was on consistency between slide and print, while today monitor, digital proof and offset printing are important. Therefore, proofs must always be viewed under D50 Standardized Light, so that they are really “colour-binding” in their perception.
If you want to check metamerism effects, we recommend the UGRA colour temperature indicator. With these strips, metamerism effects can be checked very quickly and clearly.
Since 2009, printers and proofing service providers have increasingly encountered a new D50 lighting standard: ISO 3664:2009, which defines how the new D50 standardized light, under which proofs and print products are to be evaluated, looks like. The new standard light contains UV components that address the optical brighteners that are frequently used in offset papers nowadays.
The result: next to a bluish-white glowing sheet in the pressroom, there is a yellowish-pale proof.
What is the reason for this? The standard came sort of as a surprise and was poorly communicated within the industry. All proofing substrates available from proofing service providers contain no or almost no optical brighteners – this was previously a requirement. And under the old D50 standardized light – which did not contain any UV components – the proof and production run looked identical, since the optical brighteners were not addressed in the production run. Proofing and production printing can no longer be compared on all new presses that are already equipped with light tubes of the new standard: This looks completely different, the differences in paper white are absolutely obvious.
Printers and proofing service providers have mostly replaced the old tubes with new ones. However, this is often a complex topic: The old diffusing screens, which are mounted in front of the neon tubes, had so far predominantly once again installed UV filtering in order to ensure that completely no UV components get through. If new ISO 3664:2009 tubes with a defined amount of UV components are mounted behind the diffusors, unfortunately exactly this component is missing in front of the diffusor again… So there are some extra costs for the printers.
In the meantime with M1 and the new proofing Standards Fogra51 upwards, many proofing papers with brighteners havel been launched on the market so that proof and run can be compared cleanly again in the pressroom.
The question often arises whether color profiles should be embedded in the PDF files for proofing.
To answer the question, you have to get some answers: The proof should simulate the subsequent offset printing. For offset printing, with few exceptions, the imagesetters have been configured so that a 70% black in the file is displayed as 70% black on the printing plate, no matter what profile was specified in the file. It didn’t matter whether it was coated paper or uncoated paper: 70% in the file corresponded to 70% on the plate, the choice of the paper printed on resulted in the colour representation.
The proof has also adapted to this: Most proofing service providers ignore embedded profiles, as long as the data is in CMYK and do the same as their print colleagues. Even with grayscale, the profiles are usually ignored and the grayscale is simply assigned to the CMYK black channel. Thus all CMYK and grayscale data are simply interpreted as if they had been created in the output color space. If “ISOCoated V2” is proofed, all images are treated as such, and if “PSOUncoated” is proofed, then the CMYK images are created in this color space.
This is excellent for the majority of files to be proofed. Only RGB colors contained in the data are problematic.
Since the RGB color space is considerably larger than most CMYK color spaces, it must be clear from which color space to convert to CMYK according to which criteria. Most proofing service providers specify a color space from which they convert by default if no RGB color space is defined. This can lead to difficulties: For example, many proof studios choose AdobeRGB as color space because it is large and optimized for offset printing; however, most images from digital cameras come from sRGB and these color spaces differ considerably. Therefore, it is important that the RGB color space and the rendering intend is embedded for a proof, otherwise the proofing software normally selects a color space for conversion to the CMYK color space to be proofed; and this color space is possibly not the one in which the data has be created.
Softproof means: The correct color display of a printed product on a monitor. Both a standardized print, e.g. according to process standard offset printing, can be simulated – e.g. a later offset print according to ISOCoatedV2 can be simulated correctly in colour on the screen – and the output on digital terminals such as LFP systems in advertising technology.
From a technical point of view, soft proofs are now well controllable. The monitor technology is advanced enough to provide excellent displays with a high color gamut and consistent illumination even for a few hundred euros. For example, monitors in two branches of a company can be coordinated in such a way that the result displayed on the monitors corresponds exactly to each other at both locations, i.e. one image editor in Hamburg and one in Munich can talk about retouching the same file.
The problem: The fact that the two monitors emit the identical color and light result can be precisely controlled. The fact that the colleague in Hamburg is looking at the foggy Alster lake at a northern window, while the colleague in Munich moved the monitor to a southern window in the direction of the Isar river in sunshine, already shows the problem: The environment variables under which the softproof is viewed are not identical.
It is even more difficult when the soft proof is to be used in the pressroom to coordinate the production run. Many companies such as JUST offer modern solutions that can provide a soft proof directly at the press. However, the problem remains that the soft proof should be considered to be less than 10% away of the brightness of the press. While 2000 lux brightness was previously the standard for printers, JUST now writes: “The comparison of soft proofs on monitors with prints and hard proofs is regulated in accordance with ISO 12646. The light conditions basically correspond to ISO 3664, but the brightness must be adjusted to the limited luminance of the monitor, which ideally is > 120 cd/m². ”
Two scenarios therefore arise at the printing press: Either the printer is “in the light” and can then match the print with a contract proof printed on paper, or it is “in the dark” and can match the print with the soft proof. The difficulty of matching paper and monitor – and these are two completely different and difficult to compare media – is compounded by the difficulty of the printer having to dim the light at the press by up to a factor of 10 to be able to match both a contract proof and a soft proof at the same workstation. From today’s point of view, this does not really seem practicable.
Conclusion: The soft proof is on the advance and will certainly sooner or later displace the classic contract proof from the market for reasons of speed and cost. However, due to the great technical lighting and haptic differences between the monitor and the illuminated sheet of paper, a widespread introduction is still a long way off. After all, anyone who has ever performed a color match on a printing press can imagine that a match to the contract proof on the one hand and to a soft proof monitor on the other hand is difficult to imagine at the same time. The contract proof will therefore also have to remain the first choice in the near future in order to be able to carry out colour-accurate proofing of the printing result in the pressroom.
Fogra is currently working with great commitment on modernising ISO 12647 and adapting it to current environmental conditions.
Important innovations of the reformed ISO 12647 will be:
Why is ISO 12647 being revised? Environmental conditions have changed significantly at three central points since the last revision in 2004.
The previous paper types 3 and 5 with the paper whites defined in 2004 are hardly available on the market today. Even picture printing papers today show a much stronger blue colouration than just a few years ago. In addition, the revision of D50 in 2009 means that the lighting in the pressrooms now also contains considerably more UV than before 2009, which has caused problems in the matching of proofs without optical brighteners compared to papers with a high proportion of brighteners. Instead of the previous 5 paper types, there will probably now be 8 new paper types which also differentiate between glossy and matte picture printing paper:
Based on these eight types of paper, a total of 16 printing conditions are created by using frequency modulated non-periodic screening and conventional periodic screening.
(more…)
Following today’s kick-off of the new Fogra 51 (PSO Coated V3) and Fogra 52 (PSO Uncoated V3) printing conditions, Fogra and ECI (European Color Initiative) have published the new profiles and associated characterisation data on their respective websites.
The Fogra characterisation data for Fogra 51 and 52 can be found here
You can download the ECI profiles here, somewhat hidden in the middle of the page
In each download you will also find PDF files with explanations and notes on the respective profiles and characterisation data. On the Fogra page you will also find the current colour values for the UGRA/Fogra Media Wedges CMYK 3.0 for the new printing conditions PSO Coated V3 and PSO Uncoated V3.
Proof GmbH has again been certified by Fogra in September 2015, this time for the standards Fogra 51 (PSOCoated_v3), Fogra 52 (PSOuncoated_v3) and Fogra 39 (ISOcoatedv2).
The Proof GmbH has thus reaffirmed it’s quality by the strict criteria of Fogra. The tests Fogra conducted went far beyond the pure colorimetric readout of a media wedge. The special proofs for Fogra were evaluated among the following criteria:
The color matching our proofs submitted for the test was confirmed by Fogra with date of September 24, 2015. The Proof GmbH is thus the world’s first company that has certification for the production of contract proofs on a Fogra 51 and Fogra 52.
We are very pleased that our preparation and the efforts of the past few months were rewarded by a successful certification. You can order Fogra51/52 proofs in our proofing shop Order Fogra 51 / Fogra 52 Proofs (PSOCoatedV3 and PSOUncoatedV3).
The full, 12-page report from Fogra can be downloaded here:
Fogra certification report on Proof GmbH of 2015 No. 29712
Three weeks ago, we have introduced two new proofing papers for the proof of Fogra 51 and Fogra 52 Beta standard and other color standards, that require proof papers with optical brighteners:
EFI Proof Paper 8245 OBA Semimatte
EFI Proof Paper 8175 OBA Matte
A proof for coated papers with optical brighteners, we offer on semi matte EFI 8245 OBA semimatte with 245 gr / sqm. The EFI Proof Paper 8245OBA Semimatte has been specifically designed for proofing white and brightened, coated papers. The white point of this semi matte paper is very close to the values of the FOGRA51 profile and thus allows proofing of FOGRA51 with virtually no paper white simulation at all. It is also well suited for simulating paper conditions PC1 according to ISO 12647-2:-2013.
EFI Proof Paper 8245 OBA Semimatt
Weight: 245 g / sqm
Thickness: 245 microns
Opacity:> 95%
Gloss: 22%
CIE L * a * b * (M0): 95.8 | 0.9 | -4.3
CIE L * a * b * (M1): 96.0 | 1.1 | -5.6
For Proofs on uncoated papers with optical brighteners, we offer proofing on matte EFI 8175 OBA matte with 175gr / sqm. The EFI Proof Paper 8175OBA Matte has been specifically designed for uncoated proof standards. It is highly brightened and very suitable for proofing of Fogra52.
EFI Proof Paper 8175 OBA Matte
Weight: 175 g / m²
Thickness: 230 microns
Opacity: 97%
Gloss: 5%
CIE L * a * b * (M0): 96.8 | 2.5 | -7.7
CIE L * a * b * (M1): 97.0 | 3.0 | -10.8
Fogra Fogra 51 and 52, optical brighteners and the new standards for offset printing and proofing are currently on everyone’s lips. In the proof area we still see only announcements and beta versions, but no real solutionsby now. In 2013 the reorganization of ISO 12647-2 was adopted for offset printing, but according to ECI the earliest “expected recommendation on the implementation of the new ISO 12647-2 as well as the provision of appropriate handouts and instruments’ will be in 2015. The current status of Fogra 51 and Fogra 52 from our perspective:
The Proof GmbH has again successfully completed Fogra certification for the production of contract proofs – Contract Proof Creation.
The certification proofs have been produced both on EPSON 7900 and EPSON 9900 proof printers with SpectroProofer measuring instruments. Our two proofing papers were included in the certification process. Proof GmbH is therefore certified for the most frequently used Proofing Standards.
The requirements for the Fogra certification go far beyond simply measuring the media wedge. So the proofs are analyzed according to the following criteria:
In parallel to the measurements, control measurements were carried out with a second X-Rite meter in order to eliminate measurement errors.
The conclusion of the Fogra: “The proofs of the company Proof GmbH are as color accurate and binding in the following combinations:
1. Fogra 39 / ISOCoatedV2
Software Fiery XF 5.2.2
Proofing Substrate: EFI Gravure Proof Paper 4245
EPSON Stylus Pro 7900
Fogra 39
2. Fogra 47 / PSOUncoated
Software Fiery XF 5.2.2
Proofing Substrate: EFI Proof Paper 9120 XF matt
Epson Stylus Pro 9900
Fogra 47
The Fogra certification and the full 11-page report from Fogra can be downloaded here::
With long delay, the new printing conditions Fogra Fogra 51 and 52 – PSOCoatedV3 and PSOUncoatedV3 – will be presented at the end of September and finally come into practice. The German bvdm invites together with Fogra and ECI to a joint “kick-off” of the new printing conditions in the “Hochschule der Medien” in Stuttgart.
On Wednesday, the 30th of September 2015 from 10 o’clock representatives of the associations will introduce in the university the innovations, Karl Michael Meinecke wrote of the ECI mailing list.
In this kick-off the new, jointly developed printing conditions and to implement the ISO 12647-2:2013 are presented to printing and media professionals. Attendance is expected to be free, but registration with name and company to the email address ks@bvdm-online.de is requested. The event takes place at the HdM in auditorium i003 in the Nobel Straße 10, D-70569 Stuttgart (Vaihingen) in the Stuttgart Media University.
Fogra51 and Fogra52: A difficult start
The launch of Fogra51 and Fogra52 had been marked by delays and disruptions. Large series of measurements had to be discarded after testing, measurement technology as the new SpectroProofer ILS 30 or new proofing papers were delivered only with great delay. Several seminars on how to manage the change to the new ISO standards in the Fogra are running since late last year with numerous participants in full swing – only the new standards were still not in sight. Now there is at least the kick-off date at the end of September in sight.
Cirtainly, all involved representatives of associations and interested companies were often reminded of the negative model of the US standardization bodies:
The IDEAlliance had presented in 2013 probably too hastily developed new printing conditions for GRACol 2013 and SWOP 2013, but so far they hardly play any role in practice. Why? Even the IDEAlliance open most their publications on the new standards with the tenor: “If you are not extremely color-critical, there is no reason to change from the old standards to the new ones … Conclusion: Please stay with their established, old workflow with profiles from 2006 … we are currently working on numerous ‘supplements’ …”
PSOCoatedV3 and PSOUncoatedV3: What definitely comes
But it is clear: The new standards will bring many changes to companies in printing and prepress: The individual changes in detail: (more…)
It seems that by the end of 2017 the new standards PSOCoatedV3 and PSOUncoatedV3 are finally arriving on the wider printing market. At least with the printing company Thieme and – as of today – Schleunungdruck, two major operators in the market and Flyeralarm partners have switched to the new standards.
After experts such as Christian Piskulla of Cleverprinting have already provocatively pointed out the failure of the new standards – “Scheitern PSOcoated_v3 und die ISO 12647-2:2013?” (Are PSOcoated_v3 and ISO 12647-2:2013 failing?), the new printing standards seem to be spreading in practice at the moment. Two of the four Flyeralarm partner printing houses are now explicitly demanding the new profile, Flyeralarm itself still refers to ISOCoatedV2. However, it is probably only a matter of time before the large online printing companies will also switch to the new standards. Prognosis: If the first one starts, the others will follow.
Two years after the introduction of the new profiles, the Fogra51 and Fogra52 standards have thus arrived on the larger market for the first time and are also actively demanded by printers.
In the proofing sector at least Fogra51 still plays a subordinate role, Fogra39 is still the absolute top dog here. In the area of proofs for uncoated papers, Fogra52 already has a firm place because of the numerous papers with a high proportion of optical brighteners. On many papers, the colour shades of Fogra47/PSOUncoated simply cannot be achieved anymore.
So it seems that the drumming up of the BVDM in particular with regard to new printing conditions has paid off in the long run. If the large market players change over, the small ones will soon follow or will have to follow.
Recently, Fogra provided the first web offset printing condition based on the new ISO 12647-2:2013 with the printing condition FOGRA54. Fogra 54 describes standardised offset printing in AM screen (48-70’cm) on supercalendered B-substance material (SC-B) with mineral oil-free printing inks.
The ECI writes: “Mainly due to paper differences, the printing condition on today’s SC-B paper types no longer matches the characterization data set FOGRA40 and the profile »SC paper (ECI)«. As a consequence, when printing on SC-B paper, printers face significant problems to achieve the ink solid aim values of »FOGRA40« and the higher saturated colour appearance of »SC Paper« proof prints. In addition new aim values, especially new dot gain curves of the international printing standard ISO12647-2:2013) are reflected in the new printing condition.
Proofs according to PSO SC-B Paper v3 can now be ordered directly from our shop.
PSO SC-B Paper v3
Profile: PSOsc-b_paper_v3_FOGRA54.icc
SC-B Paper, Super calendered Papier, calendered
Paper: Commercial offset, SC-B paper (super-calendered, satin), printing condition PC6
Tone value increase curve 2013-B, white measurement base.
Characterisation Data: FOGRA54
A proof is prepared according to the currently valid ISO standard 12647-7 and is legally binding with a UGRA-Fogra media wedge and measurement report.
How does this check work?
If you need a proof with UGRA/Fogra Media Wedge CMYK V3.0, there are two ways to add the test report to your data.
What is the advantage of automated creation and checking of the media wedge directly in the proofing device?
Further information on the test report, the media wedge and on the work and responsibility of UGRA/Fogra can be found at www.ugra.ch and www.fogra.org.
By switching to the new Fiery XF 6.1 and the use of the new X-Rite SpectroProofer ILS-30 measuring instruments, we are now able to proof the current beta versions of the new printing standards Fogra 51 and Fogra 52.
Since the current proofing profiles are available only in preliminary beta versions, the versions are of course not color binding and legally binding. Nevertheless, interested agencies and printers can get a picture of the current state of development and evaluate the coming changes of the OBA proofing papers used better match the colors of the new proofing standards.
We have created a new category in our Proof.de Store:
Fogra 51 / Fogra 52 Beta Proofs
The Fogra 51/52 Beta proofs are listed as follows:
Proof profile Coated:
PSO_Coated_v3_ECI Practice Fred15_Oct2014.icc
Proof profiles Uncoated:
PSO_Uncoated_v3_eci_Fred15-July2014.icc
PSO_Uncoated_blueish_v3_ (ECI) -Fred15-July.icc
Software: Fiery XF 6.1
Proof printer: EPSON 7900/9900
Measurement: Epson / X-Rite SpectroProofer ILS30
Measuring standard: M1 with UV
Proof Paper Coated: EFI Proof Paper 8245OBA Semimatt 245gr / sqm
Proof Paper Uncoated: EFI Proof Paper 8175OBA Matt 175gr / sqm
© 2021 – Proof GmbH
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