HSP Application note #24
Functional Groups that can use in HSPiP2010.3.21
HSPiP Team Senior Developer, Dr. Hiroshi Yamamoto
HSPiP(Hansen Solubility Parameters in Practice)The first edition of HSPiP that appeared in November, 2008, greatly enhanced the usefulness of the Hansen solubility parameters (HSP). The HSP values of over 1200++ chemicals and 500 polymers are provided in convenient electronic format and have been revised and updated using the latest data sources in the second edition (March, 2009). A third edition of the HSPiP appeared in March, 2010. There are now 10,000 compounds in the HSP file which also includes data on density, melting point, boiling point, critical parameters, Antoine constants and much more. The user is able to carry out many different sorts of optimisations of solubility, evaporation, diffusion, adhesion, create their own datasets (automatically if required) and explore the huge range of applications for HSP in coatings, paints, nanoparticles, cosmetics, pharma, organic photovoltaics and much more. The 3rd Edition v3.1 was released on 12 December 2010. The Current users can upgrade with free charge. 2013.1.28 The Visual How to manual of HSPiP. You can understand what HSPiP can do. |
Functional Group s (FG) used in version 3 (to ver. 4.1.x). Y-Predict use same FG.
Please check your compound whether all of functional groups are in the list.
Y-MB break molecule as to below list.
Y-MB choose larger FG if it available.
Y-MB can not handle charged atoms like N+, Cl-.
@ mark means Attach to.
# means triple bond.
The FG used in the cyclic part, _R is added.
Alkane groups
1 | CH3 | 16 | Bu | 23 | CH2CH2 |
2 | CH2 | 17 | 2_Bu | 24 | CH2CH2_R |
3 | CH | 18 | iso_Bu | 25 | CH2CH2CH2 |
4 | C | 19 | ter_Bu | 110 | CH2CH2CH2_R |
11 | CH2_R | 20 | Pr | 128 | CH2CH2CH2CH2 |
12 | CH_R | 21 | iso_Pr | 129 | CH2CH2CH2CH2_R |
13 | C_R | 22 | Et | 26 | CH3_C_CH3 |
Olefine groups
5 | CH2: | 9 | #CH |
6 | CH: | 10 | #C |
7 | C: | 14 | CH:_R |
8 | :C: | 15 | C:_R |
Hydroxy groups
27 | OH | 117 | OH@Ph |
28 | 2_OH | 121 | OH@N |
29 | 3_OH | 147 | OH_Other |
Ketone groups
32 | C:O | 166 | C:O_R@AR |
33 | C:O_R | 120 | C:O@Hal |
165 | C:O@AR | 136 | C:O@N |
Ester groups
36 | COO | 161 | COO@AR |
37 | COO_R | 162 | COO_R@AR |
101 | HCOO |
Carboxylic acid groups
35 | COOH | 64 | COOH@AR |
Aldehyde groups
34 | HCO | 100 | CHO@Ar |
Nitrile groups
44 | C#N | 97 | C#N@AR |
Acid anhydride groups, Carbonate groups
57 | OCOO | 59 | COOCO |
58 | OCOO_R | 60 | COOCO_R |
Ether groups and other oxygen
30 | O | 130 | O@P | 106 | O_reso |
31 | O_R | 131 | O@S | 112 | O-ethylene |
102 | O_R@AR | 132 | O@Si | 151 | O@Other |
167 | O@AR | 104 | OO | 156 | O_EPO |
122 | O@N | 135 | O: |
that loss ether properties.
Sulfer groups
46 | SH | 103 | S@AR |
47 | S | 105 | S_R@AR |
48 | S_R | 160 | SH@AR |
49 | SS |
Other Sulfer groups
52 | S:O | 107 | COS |
119 | S: | 108 | S_reso |
127 | S{:O}2 |
But in ver. 3 we use just SO2+NH2.
Amine groups
38 | NH2 | 87 | NH2@Ar |
39 | NH | 163 | NH@AR |
40 | NH_R | 164 | NH_R@AR |
41 | N | 139 | N@AR |
42 | N_R | 140 | N_R@AR |
Other nitrogen groups
153 | N:C | 144 | N:_reso | 50 | N3res |
154 | N:C_R | 157 | N:CH | 51 | NHres |
155 | N:N | 158 | N:CH_R | 43 | N: |
148 | N#C |
Nitro groups
45 | NO2 | 98 | NO2@AR | 134 | NO3 |
Amide urethane groups
53 | NHCO | 55 | NCO | 99 | NHCOO |
54 | NHCO_R | 56 | NCO_R | 152 | C:ONHC:O |
Aromatic groups
63 | Ph | 123 | 3s_Ph | 141 | 1s_Naph | 159 | C:_rrr |
65 | o_Ph | 124 | 4s_Ph | 142 | 2s_Naph | 145 | CH:_reso |
66 | m_Ph | 125 | 5s_Ph | 143 | 3s_Naph | 146 | C:_reso |
67 | p_Ph | 126 | 6s_Ph |
C:_reso means resonance carbon connect to alkane carbon.
CH:_reso means resonance carbon connect to hydrogen.
C:_rrr means resonance carbon like the naphthalene center 2 carbon.
Xs_Ph: means X substitute.
Hydrogen & Halogen Atom
88 | H | ||||
89 | F | 93 | F@Ar | 109 | F_Ole |
90 | Cl | 94 | Cl@Ar | 118 | Cl_Ole |
91 | Br | 95 | Br@Ar | ||
92 | I | 96 | I@Ar |
Halogen groups
70 | CF3 | 74 | CF2_R | 81 | CF |
71 | CCl3 | 75 | CF2 | 84 | CCl |
72 | CF2Cl | 77 | CCl2 | 114 | CF_R |
73 | CFCl2 | 79 | CFCl | ||
76 | CHF2 | 82 | CHF | 68 | C2F5 |
78 | CHCl2 | 85 | CHCl | 69 | C2F4H |
80 | CHFCl | 111 | CHCl_R | ||
83 | CH2F | 113 | CHF_R | ||
86 | CH2Cl | 115 | CFCl_R | ||
116 | CCl2_R |
Other hydrogen atom
61 | H@N | 62 | H@C=O | 138 | H@Si |
Other atom
137 | Si | 149 | P | 150 | B |
133 | P:O |
P is parameter missing for HSP
If I increase Functional Groups, properties estimation accuracy will increase.
But Functional Groups number increase, I need more and more data.
If you want to ask me to add new FG, please send me, at least, density, vapor pressure data, heat of vaporization, Refractive Index, Dipolemoment, dielectric constant for that molecule.
For Y-predict user. 2013.9.7
The Functional Group list is same with Y-MB.
There is one discussion about 3s_Ph or pyridazine
compounds. For 3s_Ph, there are 1-2-3, 1-2-4, 1-2-5, 1-3-5 substitutions. But Y-MB and Y-Predict treat just same 3s_Ph. Some case, substitution position may change some properties, but to increase FG I need so many data but hard to get them.
For Y-Predict, I put the QEQ charge calculation function.
For these 3 compounds, FG list are same (N=_reso 2 , CH=_reso 4). But as you see, Nitrogen atom's charge are different (-0.045, -0.105, -0.064). So it means tree types of N=_reso exist. And in the calculation result, there is term of Symmetry Index. First and third molecule has 100% Symmetry, but second molecule is not 100% Symmetry. This Symmetry is "charged base" symmetry.The Max Plus Charge, Minimum Minus Charge are also different to these 3 molecules.
Application of these chrages and Symmetry to properties estimations scheme is just starting. If I find rational way to use of these Indexes, I will put them in new version.