Sap Bpc 450 Pdf 41
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Currency in SAP is largely handled extensively with the currency functionality and TCURC and TCURX tables. However, every now and then we come across a requirement where we need to extend this to accommodate other requirements.
In this blog we would like to share our experience of a requirement we came across in our project where the number of decimal places for a currency needed to be increased in order to attain more precision.
The requirement for this extension is usually when the user needs more precision in calculations based on an amount. This can be a rate charged per unit quantity, this rate (with higher decimal places) when multiplied with a large total quantity ends up giving a huge difference in net amount (as compared to normal currency of USD/ JPY etc.)
The user can choose the number of decimal places for a currency based on the scenario and all the subsequent calculations for that scenario will take place based on the chosen number of decimal places.
Although there is a standard approach for maintaining different decimal places for the same currency using the TCURC and TCURX tables, but with the standard approach the user has to do so for all the currencies in use. In case we need to use 20 Currencies with up to 5 decimal place, the user will have to maintain 100 entries in both the tables.
Also, with the standard approach we would see a different currency such as USDN with the different decimal places. Although this USDN would in turn be linked to the ISO currency( USD in this case), the user will see USDN instead of USD on the UI which is not always desirable.
However, the approach explained above is useful when there is a need for a consistent user experience with regards to the currency with varying decimal places. Also, this approach reduces the manual effort for maintenance of records in TCURC and TCURX tables for separate currencies for different decimal places.
So at a guess you are using this for the decimal rates that can't be calculated. It would seem to me that you would be "modifying" SAP tables and structures. Am I wrong? You would have to do that so standard SAP code would pick up the correct number of decimal places - correct?
How you handle currency conversion between currencies? say USD to EURO and still consider all decimal places in the conversion? are you able to use all the decimal places in the standard currency conversion function modules?.
This method is only for solving the problem of decimal places, however, we would still use the standard ISO currency for the other standard functionality. ( We already have that stored as a separate currency field )
It's also not clear what business scenario exactly would require this. It says it could be a calculated value, e.g. "per unit". But normally we don't store such values in DB, those are calculated as needed. So if you had, say, an ALV report you'd just add a numeric field with no currency reference and then a separate currency column, problem solved.
Changing the field type to numeric would remove all the validations with respect to the decimal places. We require the decimal places to be dynamic, however we still want it to be same for a particular scenario. Removing the decimal places validation completely would mean that all the checks that are provided by standard SAP for decimal places would have to be re-written for the numeric field.
It seems to me that you are simply reinventing an existing "functionality" in many modules, which is the price per number of units. No need to increase the decimal precision of the price, just define a factor for the number of units, i.e. price 10.99 USD for 10 units, or to increase the precision 109.92 USD for 100 units. The only thing you have to do is during calculations, you'll have to divide the final unit price by the number of units. Please give a real example, with more useful prices than the current ones, that would help people to understand better what you're trying to achieve.
We are expecting the user to enter the rate manually, so it will be a cumbersome task for the user to do the prior calculations ( multiply/divide by a factor of 10*n ) before updating the price/rate field.
Since we are talking about the actual money here, obviously it's not possible to have a real amount with more than 2 decimals. If there are items that have such small price per unit then, as Sandra said, they really need to be priced per 10 or other multiples. E.g. previously I worked for a company that also sold very small items like nuts and bolts and they were priced per 100. This pricing has never come up as an issue and that company had a lot of odd requirements otherwise.
Even if you price something at 3.333 per piece then how are you going to sell it? Obviously you can't sell 1 unit for 3.333 because such amount does not exist in real life. Customers can't pay a bill with 3 decimals. IRS does not require financial reports with 3 decimals (tax declarations are actually rounded to a nearest dollar).
Sorry but I'm having trouble envisioning a valid business case for this. "User convenience", while understandable, can't be the sole driver behind such changes. Why not just create a program that would take 3.333 input from the user and recalculate it as 33.33 per 10 items? Now that would be a good application of ABAP that fulfills SAP's mandate "keep the Core clean" and offers something helpful to the users.
Often copper also has a bit of gold and silver attached to it, and those are sold in Troy Ounce and Grams respectively. Since there are plenty of unit conversions, losing decimal precision often can lead to very noticeable deviations.
So managing higher decimal places is a requirement in such business transactions, currently the proposal for SAP is to create parallel currency types that handle 5 decimals, but often fall short when dealing with very large quantities (such as 30.000 mt tons of ore being sold). Not sure the explanation here solves the issue, but sounds promising.
I'm guessing SAP would need to offer some better solution for this since, as you've mentioned in the comment above, many standard tables can't handle more decimals. Curious if this is somehow solved in S4.
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SAP materials have hydrophilic networks that can absorb large amounts of water (other solutions) without being dissolved [18]. Further, SAP absorbs water and swells to form a hydrogel, providing additional water during the concrete hardening process [19]. Liu et al. [20] indicated that SAP, as an internal curing agent, could delay the appearance of cracks and reduce the early AS of UHPC. In composite cement systems with fly ash or slag, the water absorbed/released by SAP has an effective shrinkage reduction [21]. Justs et al. [6] explored the internal curing effect of SAP on UHPC, which reduced shrinkage by around 75% when 2% SAP was added. When SAP is used as an internal curing agent, it can promote hydration to improve the microstructure, but the formation of pores during the release of water also increases the porosity [22] and affects the mechanical properties [7]. Song et al. [23] indicated that SAP mitigated the internal relative humidity drop and was effective in reducing AS, but the strength of the samples was also reduced. In mortars with a w/c of 0.55, the addition of SAP reduces the early strength, but the effect gradually decreases at a later stage [24]. From previous studies, it can be concluded that SAP as an internal curing agent has excellent performance in reducing AS, but with a corresponding reduction in strength.
Although many studies have been conducted to examine SAP internal curing of UHPC, previous studies show some weak points. (1) The binder used in UHPC in previous studies mainly consists of cement and silica fume. The study of sustainable, ultra-high-performance paste (SUHPP) with other SCMs and fillers, such as limestone and slag, was insufficient. Moreover, the internal curing of SUHPP was rarely studied. (2) The cement used in UHPC in previous studies mainly consisted of type I Portland cement. Other types of cement, such as BPC, were seldom used. Compared with OPC, the CO2 emission of BPC is around 10% lower [25]. Moreover, BPC can reduce hydration heat, which is helpful for reducing thermal cracking. Hence, BPC is a sustainable material compared with OPC. In addition, compared with OPC, the rate of hydration of BPC is much slower, which may be helpful for reducing AS in UHPC [26]. In addition, UHPC has a high binder content and experiences a high temperature rise. The utilization of BPC can lower the temperature rise of UHPC. Furthermore, the hydration of C2S in BPC can enhance the late-age strength of UHPC. Due to these advantages of BPC, concrete factories were eager to know whether BPC was suitable for producing UHPC. (3) Previous studies mainly focus on the AS and strength of SAP-blended UHPC. Studies on other aspects have also been insufficient, i.e., studies regarding internal relative humidity and temperature of hardening specimens, strength monitoring with ultrasonic pulse velocity (UPV), and electrical resistivity development.
The innovation points of this study can be summarized as follows: First, silica fume, limestone, and slag were used to produce SUHPP. The internal curing effect of SAP on SUHPP was investigated. Second, we clarified the effects of the type of cement on the differences in the performance of SUHPP. Finally, a systematical experimental investigation into hydration, AS, strength, and durability was performed. 2b1af7f3a8