World Cup Qualification Asia 1st Round Grp. D stats & predictions

Tactical Approaches: What Teams Might Do Tomorrow

The strategies employed by each team will be critical in determining their success or failure in these matches:

• Team A’s Defensive Strategy: Anticipating aggressive plays from younger teams like B, they might focus on tightening their defense while looking for opportunities to counter-attack swiftly.
• Maintain strong perimeter defense to limit outside shooting opportunities by opposing teams.
• Leverage fast breaks when regaining possession quickly after turnovers or missed shots by opponents.








• Team B’s Offensive Playstyle:This team might rely heavily on its fast-paced offense aimed at overwhelming older teams with youthful vigor.

• Frequent use of pick-and-roll plays involving dynamic duo Player Y & Player Q can create mismatches against defenders leading to open shots or easy baskets.
• Prioritize quick ball movement around half-court setups ensuring constant pressure on opposing defenses forcing errors resulting in scoring opportunities.
• Aim for high shooting percentages from beyond-the-arc exploiting gaps left behind slower defensive units often found within veteran squads like those belonging group-D competitors such as team-C.
  
  
  
  
  
  
  
  
• Tactic Focus for Experienced Teams (C):** Relying on seasoned veterans' depth knowledge allows crafting complex schemes designed specifically tailored towards exploiting weaknesses observed during practice sessions preceding important fixtures.
  • Focusing primarily on controlling tempo keeping pace low enough allowing time-consuming offensive sets while simultaneously restricting opponent possessions via efficient rebounding efforts coupled with deliberate passing schemes designed around maximizing shot quality rather than quantity alone.
  • Incorporating advanced defensive tactics such as zone defenses mixed intermittently with man-to-man coverage may help disrupt rhythm established by energetic newcomers eager proving themselves against established names within sport’s landscape today.
    
    
    
    
    
    
    
  • The Underdog Approach (D):** Utilizing unexpected strategies could catch more experienced rivals off guard enabling chances at pulling off surprising upsets despite being considered favorites going into encounters.
    • Aiming primarily at exploiting physical advantages like height or speed through unconventional line-ups mixing traditionally separate roles such as forwards playing guard positions vice versa creating confusion among opposition ranks attempting adapting mid-game scenarios rapidly changing based upon evolving circumstances unfolding live during contests themselves.
    • Focusing intently upon maintaining high-energy levels throughout duration avoiding burnout particularly during crucial moments ensuring sustained performance peak when matters become most decisive potentially swinging momentum dramatically altering course events overall outcome positively impacting long-term objectives reaching beyond immediate scope competition itself.

      The Significance of Tomorrow’s Matches in Group D Qualification Context

      The stakes couldn't be higher as each match carries significant weight towards securing qualification spots:

      1. Determining Top Seed Position: Winning these initial games not only boosts morale but also solidifies standings within Group D aiding further advancement prospects later stages tournament progression ladder leading up eventual finals showdowns taking place post-qualification rounds successfully completed.
         

      2. Evaluating Squad Depth: These fixtures provide an opportunity for coaches across participating nations assessing player capabilities under real-world pressures helping identify strengths weaknesses areas requiring attention improvement before facing tougher international adversaries down line.
         

      3. Fostering National Pride: Beyond individual accomplishments lies collective national pride where triumphs translate into widespread celebration bringing communities together fostering unity spirit shared passion supporting local talents showcasing skills globally.
         

      Potential Impact on Betting Markets

      Tomorrow’s outcomes will undoubtedly ripple through betting markets worldwide influencing future odds adjustments based upon newly acquired insights regarding team dynamics individual player performances emerging trends noticed throughout course competition thus far:
      

      • An unexpected upset could cause significant shifts altering perceived hierarchies within betting circles prompting reevaluation risk assessments placed earlier before event commencement.
        

      • If favored teams continue performing as predicted stability remains largely unchanged though slight fluctuations occur reflecting incremental confidence gains based upon empirical evidence gathered during gameplay itself.
        

      Historical Context: Previous Encounters Between Teams

      To gain deeper understanding present dynamics analyzing past encounters between these squads provides valuable perspective:
      

      • In previous meetings between team-A versus team-B close margins often dictated results highlighting evenly matched capabilities underscoring importance tactical execution come crunch time determining ultimate victor.
        

      • Past confrontations involving team-C versus newer entrants such-as-team-D typically showcased dominance displayed through superior technical proficiency combined tactical intelligence exhibited consistently over successive encounters reinforcing reputations held within wider basketball community.
        

      Trends Influencing Current Season Performance

      Sifting through current season trends offers insight into factors shaping present circumstances:
      

      • Rising Star Emergence: The breakout performances from relatively unknown athletes gaining prominence unexpectedly contributing significantly toward overall team success captures attention drawing comparisons legendary figures past era inspiring new generations aspiring follow similar paths achieving greatness themselves.<|repo_name|>justinhjones/few-shot-learning<|file_sep|>/metadata/article/information-technology/astronomical-computers.md # Astronomical computers Astronomical computers were mechanical calculating machines used by astronomers during the early modern period (16th–18th centuries) to solve various astronomical problems, such as calculating planetary positions.[1] They were developed following advances in trigonometry that made it possible to calculate astronomical positions without reference tables;[2] they were not programmable devices.[1] Astronomical computers were invented independently in Europe[3] and China.[4][5] They were typically large devices constructed out of wood or metal,[6] although there are some examples made entirely out of paper.[7] Many astronomical computers have survived, and many more have been reconstructed from historical descriptions.[8][9] ## History The earliest known astronomical computer was invented by Jost Bürgi around 1590,[10] although no physical examples survive.[11] Bürgi was working at Heidelberg Castle, where he had access to Tycho Brahe's extensive collection of astronomical instruments and manuscripts.[12][13] Around 1602–1603 he completed his "Kepler triangle", which allowed him to calculate planetary positions without reference tables.[14] In China,[15] Xu Guangqi invented an astronomical computer around 1620,[16] which he called "sphere-in-sphere".[17] It consisted of two nested spheres, with one sphere representing Earth and another representing Mars.[18][19] Xu used this device to calculate Mars' position relative to Earth over time.[20][21] In Europe,[22] Galileo Galilei developed an astronomical computer called "Il Saggiatore" (roughly translated as "The Tester") sometime between 1610–1615,[23] but it was never completed.[24][25] However, Galileo did build another device called "Il Compagno" ("The Companion"), which was completed around 1617–1618.[26][27] It was used by Galileo himself until his death in 1642,[28] and then passed down through his family until it was lost sometime after 1670.[29] ## Design principles All astronomical computers work on essentially same principle:[30] They consist two parts:[31] * An armillary sphere represents celestial sphere; * Mechanical calculator performs calculations based on input values provided user. Armillary spheres represent celestial sphere using system nested rings representing different circles such as equator, ecliptic etc., fixed onto central axis representing Earth's axis rotation about which entire system rotates simulating daily motion sky above Earth observer located center axis system rings inside globe representing atmosphere surrounding Earth enclosing entire structure globe containing rings system axis rotation globe simulating diurnal motion sky above observer located center axis system rings inside globe representing atmosphere surrounding Earth enclosing entire structure globe containing rings system axis rotation globe simulating diurnal motion sky above observer located center axis system rings inside globe representing atmosphere surrounding Earth enclosing entire structure globe containing rings system axis rotation globe simulating diurnal motion sky above observer located center axis system rings inside globe representing atmosphere surrounding Earth enclosing entire structure globe containing rings system axis rotation globe simulating diurnal motion sky above observer located center axis system rings inside globe representing atmosphere surrounding Earth enclosing entire structure globe containing rings system axis rotation... Mechanical calculators perform calculations based input values provided user:[32] * User inputs values such coordinates planet position date desired calculation; * Calculator uses set mathematical rules determine result calculation; * Result calculation displayed output device calculator user can read interpret understand easily; ## Types There are several types astronomical computers known history: ### Armillary spheres Armillary spheres represent celestial sphere using system nested rings representing different circles such as equator ecliptic etc., fixed onto central axis representing Earth's axis rotation about which entire system rotates simulating daily motion sky above Earth observer located center axis system rings inside globe representing atmosphere surrounding Earth enclosing entire structure globe containing rings system axis rotation... ### Planetary models Planetary models represent planets orbits using series concentric circles centered Sun each circle corresponding orbit particular planet model allows user calculate position planet any given time simply rotating appropriate ring model until reaches desired position; ### Orreries Orreries represent solar system using series concentric circles centered Sun each circle corresponding orbit particular planet model allows user calculate position planet any given time simply rotating appropriate ring model until reaches desired position; however unlike planetary models oerreries include additional features such scales distances planets Sun scales sizes planets Sun; ## References [1]: https://en.wikipedia.org/wiki/Astronomical_computer#History "Wikipedia" [2]: https://en.wikipedia.org/wiki/Astronomical_computer#Design_principles "Wikipedia" [3]: https://en.wikipedia.org/wiki/Astronomical_computer#Types "Wikipedia" [4]: https://en.wikipedia.org/wiki/Astronomical_computer#History_in_China "Wikipedia" [5]: https://en.wikipedia.org/wiki/Xu_Guangqi "Wikipedia" [6]: https://en.wikipedia.org/wiki/Galileo_Galilei#Scientific_works_and_inventions "Wikipedia" [7]: https://en.wikipedia.org/wiki/Jost_Burgi#Kepler_triangle "Wikipedia" [8]: https://www.britannica.com/science/astronomy/Historical-development-of-astronomy-from-the-Renaissance-to-the-present-day#ref2778589 "Britannica" [9]: http://www.mhs.mpg.de/~koepfke/bibliography.htm#astroncomp "Max Planck Institute"<|repo_name|>justinhjones/few-shot-learning<|file_sep<|repo_name|>FangZhengfei/kafka-proxy<|file_sep|>/kafka-proxy/src/main/java/com/github/dreamhead/kafka/util/Mapper.java package com.github.dreamhead.kafka.util; import java.lang.reflect.Field; import java.util.HashMap; import java.util.Map; /** * @author [email protected] created at Jul 26, 2016 上午11:09:56 . */ public final class Mapper { private static Map, Class> map = new HashMap<>(); static { // map.put(TopicPartition.class,TopicPartitionMapper.class); // map.put(TopicPartitionOffset.class,TOPartitionOffsetMapper.class); map.put(Map.class,new HashMapMapper()); map.put(byte[].class,new ByteArrayMapper()); map.put(String.class,new StringMapper()); map.put(Integer.TYPE,Integer.class); map.put(Integer.class,Integer.class); map.put(Long.TYPE,long.class); map.put(Long.class,long.class); map.put(Boolean.TYPE,bool.class); map.put(Boolean.class,bool.class); // map.put(OffsetAndMetadata.class,new OffsetAndMetadataMapper()); // map.put(OffsetAndTimestamp.class,new OffsetAndTimestampMapper()); // map put(TimestampedMessageAndMetadata[].class,new TimestampedMessageAndMetadataArrayMapper()); // map put(TimestampedMessageAndMetadata[].class,new TimestampedMessageAndMetadataArrayMapper()); Field[] fields = TopicPartitionOffsetResponseInfoResponseInfoInnerFields.values(); for(Field field : fields){ Class clazz = field.getType(); if(!map.containsKey(clazz)){ map.put(clazz,MapperFactory.create(clazz)); } } //map put(Map.Entry>[].class,new MapEntryArrayOfStringListOfTopicPartitionOffsetMapper()); //map put(Map.Entry>[].class,new MapEntryArrayOfStringListOfTopicPartitionMapper()); //map put(Map.Entry>[].class,new MapEntryArrayOfStringListOfTopicMapper()); //map put(Map.Entry>[].class,new MapEntryArrayOfStringListOfIntegerMapper()); //map put(Map.Entry[].class,new MapEntryArrayOfStringArrayOfStringMapper()); // Field[] fields = TopicPartitionOffsetResponseInfoResponseInfoInnerFields.values(); // for(Field field : fields){ // Class clazz = field.getType(); // if(!map.containsKey(clazz)){ // try{ // Object obj = clazz.newInstance(); //// System.out.println("obj:" + obj.getClass().getName() + ",clazz:" + clazz.getName()); //// System.out.println("field:" + field.getName() + ",field.getType():" //// + field.getType().getName() + ",obj.getClass():" //// + obj.getClass().getName() ); // //// System.out.println("field.getGenericType():" //// + field.getGenericType() //// ); // // // //// Type genericType = field.getGenericType(); //// if(genericType instanceof ParameterizedType){ //// //// //// //// //// //// //// //// ParameterizedType pt = (ParameterizedType)genericType; //// //// //// //// //// //// //// // // // // // // // //// Type[] types = pt.getActualTypeArguments(); //// Type firstArg = types[0]; //// if(firstArg instanceof Class){ //// Class firstClazz = (Class)firstArg; //// if(!map.containsKey(firstClazz)){ //// try{ //////// System.out.println("firstClazz:" + firstClazz.getName()); //////// Object firstObj = firstClazz.newInstance(); //////// System.out.println("firstObj:" + firstObj.getClass().getName() + //////// ",firstClazz:" + firstClazz.getName() ); //////// Field[] ffields = firstObj.getClass().getDeclaredFields(); //////// System.out.println("ffields.length:" + ffields.length ); //////// if(ffields.length == 0){ //////// boolean flag = true; //////// try{ //////// List list = //////// Arrays.asList( //////// firstObj.getClass().getMethod("values") //////// .invoke(firstObj) //////// ); //////// flag &= list.size() > 0; //////// //////////// Iterator iterator = //////////// list.iterator(); //////////// while(iterator.hasNext()){ //////////// Object[] objs = //////////// iterator.next(); //////////// flag &= objs != null && objs.length == ffields.length ; //////////// } //////////// //////////// if(flag){ //////////// //////////// //////////// //////////// //////////////// Iterator iterator = //////////////// list.iterator(); //////////////// while(iterator.hasNext()){ //////////////// Object[] objs = //////////////// iterator.next(); //////////////// String sobj = null; int iobj=0; long lobj=0; double dobj=0d; boolean bobj=false; byte boj=0b; //////////////// try{sobj=(String)objs[0];}catch(Exception e){}; //////////////// try{iobj=(int)objs[1];}catch(Exception e){}; //////////////// try{lobj=(long)objs[2];}catch(Exception e){}; //////////////// try{dobj=(double)objs[3];}catch(Exception e){}; //////////////// try{bobj=(boolean)objs[4];}catch(Exception e){}; //////////////// try{boj=(byte)objs[5];}catch(Exception e){}; /// /// /// /// /// /// /// /// /// /// /// /// /// /// /// /// /////////////////////////////////////System.out.println( //"objs:"+objs.toString() //" sobj:"+sobj+" iobj:"+iobj+" lobj:"+lobj+" dobj:"+dobj+" bobj:"+bobj+" boj:"+boj+ //" sflag:"+(null==sobj?false:sflag)+" iflag:"+(null==iobj?false:iflag)+" lflag:" +//(null==lobj?false:lflag)+" dflag:" +//(null==dobj?false:dflag)+" bflag:" +//(null==bobj?false:bflag)+" bofflag:" +//(null==boj?false:bofflag) //""); ///////////////////////////////// ///////////////////////////////// ///////////////////////////////// ///////////////////////////////// ///////////////////////////////// ///////////////////////////////// ///////////////////////////////// ///////////////////////////////// ///////////////////////////////// /////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////// /////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////// /////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////// /////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////// ////////////////////////////////////////////////////////////////////////////////////////////////// ////////////////////////////////////////////////////////////////////////////////////////////////// ////////////////////////////////////////////////////////////////////////////////////////////////// ////////////////////////////////////////////////////////////////////////////////////////////////// ////////////////////////////////////////////////////////////////////////////////////////////////// ////////////////////////////////////////////////////////////////////////////////////////////////// ////////////////////////////////////////////////////////////////////////////////////////////////// ////////////////////////////////////////////////if(flag){ //////////////////////////////////////////////// Map, Class> subMap = //////////////////////////////////////////////// new HashMap<>(); //////////////////////////////////////////////// subMap.put(sclazz,StringMapper.class); //////////////////////////////////////////////// subMap.put(iclass,integerWrapperClass); //////////////////////////////////////////////// subMap.put(lclazz,longWrapperClass); //////////////////////////////////////////////// subMap.put(dclazz,doubleWrapperClass); //////////////////////////////////////////////// subMap.put(bclazz,boolWrapperClass); //////////////////////////////////////////////// subMap.put(boclass,integerWrapperClass); //////////////////////////////////////////////////// boolean ok = //////////////////////////////////////////////////// MapperFactory.setSubMap(subMap); //////////////////////////////////////////////////// System.err.print( //////////////////////////////////////////////////// ok?"ok":"error!"+":" //////////////////////////////////////////////////// +"subMap:" //////////////////////////////////////////////////// +" "+subMap.toString() //////////////////////////////////////////////////// +" obj:" //////////////////////////////////////////////////// +" "+firstObj.getClass().getName() //////////////////////////////////////////////////// +" clazz:" //////////////////////////////////////////////////// +" "+firstClazz.getName() //////////////////////////////////////////////////// ); /////////////////////////////////////////////////////////////////////if(ok){ ///////////////////////////////////////////////////////////////////// System.err.print( ///////////////////////////////////////////////////////////////////// obj.getClass().getName() ///////////////////////////////////////////////////////////////////// +".class=" ///////////////////////////////////////////////////////////////////// obj.getClass() ///////////////////////////////////////////////////////////////////// +",firstClazz=" ///////////////////////////////////////////////////////////////////// firstClazz.name() ///////////////////////////////////////////////////////////////////// +",clazz=" ///////////////////////////////////////////////////////////////////// clazz.name() ///////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////// ////////////////////////////////////////////////////////////////////////} ////////////////////////////////////////////////////////////////////////} ////////////////////////////////////////////////////////////////////////} ////////////////////////////////////////////////////////////////////////} ////////////////////////////////////////////////////////////////////////} ////////////////////////////////////////////////////////////////////////} ////////////////////////////////////////////////////////////////////////} ////////////////////////////////////////////////////////////////////////} ////////////////////////////////////////////////////////////////////////} ////////////////////////////////////////////////////////////////////////} ////////////////////////////////////////////////////////////////////////} ///////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////// //////////////////////////////////////////////////////////////////////////////// //////////////////////////////////////////////////////////////////////////////// //////////////////////////////////////////////////////////////////////////////// //////////////////////////////////////////////////////////////////////////////// //////////////////////////////////////////////////////////////////////////////// //////////////////////////////////////////////////////////////////////////////// //////////////////////////////////////////////////////////////////////////////// //////////////////////////////////////////////////////////////////////////////// //////////////////////////////////////////////////////////////////////////////// //////////////////////////////////////////////////////////////////////////////// //////////////////////////////////////////////////////////////////////////////// //////////////////////////////////////////////////////////////////////////////// /////////////////////////////////////////////////////////////////////////////// /////////////////////////////////////////////////////////////////////////////// /////////////////////////////////////////////////////////////////////////////// /////////////////////////////////////////////////////////////////////////////// /////////////////////////////////////////////////////////////////////////////// /////////////////////////////////////////////////////////////////////////////// /////////////////////////////////////////////////////////////////////////////// /////////////////////////////////////////////////////////////////////////////// /////////////////////////////////////////////////////////////////////////////// ////////////////////////////////////////////////////////////try{ //////////////////////////////////////////////////////////// System.err.print( //////////////////////////////////////////////////////////// obj.getClass().getName()+"."+field.getName()+":" //////////////////////////////////////////////////////////// +(new MapperFactory()).create(field.getType()) //////////////////////////////////////////////////////////// ); ////////////////////////////////////////////////////////////}catch(Throwable t){ ////////////////////////////////////////////////////////////} if(map.containsKey(firstClazz)){ try{ Object obj_ = firstClazz.newInstance(); Field[] ffields = obj_.getClass() .getDeclaredFields(); if(ffields.length == pt.getActualTypeArguments() .length){ boolean flag = true; try{ List list = ArrayUtils.asList( obj_.getClass() .getMethod( "values") .invoke( obj_) ); flag &= list.size()> ffields.length; Iterator iterator = list.iterator(); while(iterator.hasNext()){ Object[] objs = iterator.next(); String sobject=null; int iobject=0; long lobject=0l; double dobject=0d; boolean boject=false; try{ sobject= ((String)objs [ffields [ffields.length-1].getIndex()]); }catch(Exception ee){} boolean sflag=null!=sobject; int index=ffields.length-1; index--; int iindex=index; boolean iflag=false; long lindex=index; long llongindex=lindex; boolean dflg=false; double dindex=index; double ddoubleindex=dindex; boolean bflg=false; byte boffset=index; while(index>=0 && !iflag && !lflg && !dflg && !bflg){ String stemp=null; int itemp=0; long ltemp=0l; double dtemp=0d; boolean btemp=false; byte boffsettemp=0b; try{ stemp= ((String)objs[index]); }catch(Exception ee){} if(null!=stemp){ sflag=true; }else{ itemp= ((int)objs[index]); } if(null!=itemp){ iflag=true; }else{ ltemp= ((long)objs[index]); } if(null!=ltemp){ lflg=true; } else{ dtemp= ((double)objs[index]); } if(null!=dtemp){ dflg=true; }else{ btemp= ((boolean)objs[index]); } if(null!=btemp){ bflg=true; }else{ boffsettemp= ((byte)objs[index]); } } index=iindex; index=lindex; index=dindex; index+=boffset;//because offset is always last element. flag&= sflag&&iflag&&lflg&&dflg&&bflg;//&&boffset;//because offset is always last element. } flag&= flag && ffields [ffields.length-1].getType()==byte[].class ; if(flag){ Map, Class> subMap = new HashMap<>(); subMap . put(sclazz,StringMapper.class) ; subMap . put(iclass,integerWrapperClass) ; subMap . put(lclazz,longWrapperClass) ; subMap . put(dclazz,doubleWrapperClass) ; subMap . put(bclazz,boolWrapperClass) ; subMap . put(boclass,integerWrapperClass); boolean ok = MapperFactory.setSubMap(subMap); System.err.print( ok?"ok":"error!"+":" +"subMap:" +" "+subMap.toString() +" obj:" +" "+firstObj.getClass().getName() +" clazz:" +" "+firstClazz.getName() ); } } catch(Throwable t) {System.err.print( t.getMessage() );} } } } } } } } } } } } } } } Field [] ffields = firstObj . getDeclaredFields(); Type [] types = pt.getActualTypeArguments(); String sname=null;iint iintName=null;llong llongName=null;ddouble ddoubleName=null;bboolean bbooleanName=null;bbyte bbyteName=null; String svalue=null;iint iintValue=null;llong llongValue=null;ddouble ddvalue=None;bboolean bbvalue=None;bbyte bbvalue=None; for(int kkkk= ffields . length- types . length; kkkk>= ffields . length- types . length- types . length- types . length- types . length- types . length- types . length- ffields . length- types. length- types. length- ffields. length- types. length- ffields. length- ffields[ ffields.length -types.length]; kkkk--) { switch(kkkk) { case ffefield [ fefield.index()-types.type()-types.type()-types.type()-types.type()] : sname= ffield [ ffield.index()-types.type()-types.type()-types.type()-types.type()].name(); break; case ffefield [ fefield.index()-types.type()-types.type()-types.type()] : iintName= ffield [ ffield.index()-types.type()-types.type()-types.type()].name(); break; case ffefield [ fefield.index()-types.type()-types.type()] : llongName= ffield [ ffield.index()-types.type()-type()].name(); break; case ffefield [ fefield.index]-type()] : ddoubleName= ffield [ ffield.index]-type()].name(); break; case ffefield [ fefield.index]-type()] : bbooleanName= ffield [ ffield.index]-type()].name(); break; default: bbyteName= ffield [ ffield.index].name(); break; } switch(kkkk) { case ffefieldd [ ffeild.indes]-type()] : svalue= ( ( ( ( ( ( ( ( ( ( firstObject . getField ( sname ) ) ) ) ) ) ) ) ) ) ); break; case ffefieldd [ feild.indes]-type()] : iintValue= ( ( ( ( ( ( ( ( firstObject . getField ( iintName ) ) ) ) ) ) ) ) ); break; case ffefieldd [ feild.indes]-type()] : llongValue= ( ( ( ( ( ( ( ( ( ( firstObject . getField( llongNme) ) ) ) ) ) ) ) ) ) ) ) ); break; case ffefieldd [ feild.indes]-type()] : ddvalue= ( ( ( ( ( ( ( ( ( (double) firstObject . getField( ddoubleNme) ) ) ) ) ) ) ) ) ) ); break; case ffefieldd [ feild.indes]-type()] : bbvalue= Boolean.valueOf( Boolean.valueOf( Boolean.valueOf( Boolean.valueOf( Boolean.valueOf( Boolean.valueOf( Byte.toBoolea( Byte.toBoolea( Byte.toBoolea( Byte.toBoolea( Byte.toBoolea( byte). valueOf( firstObject. getField(bbyteNme))))); )))); )))); ); break; default: bbvalue= Byte.toByteByte.toByteByte.toByteByte.toByteByte.toByteByte.byteValueof((byte). valueof(firstObject.getField(bbyteNme))); break; } switch(kkkk) { case ffefieeld [ feidindes]-type()] : System.err.print(snamexxx+svaluexxx+":"); break; case feifieeld [ feidindes]-type()] : System.err.print(iinnamexxx+iinvaluexxx+":"); break; case feifieeld [ feidindes]-type()] : System.err.print(llonnamexxx+llonvaluexxx+":"); break; case feifieeld [ feidindes]-type()] : System.err.print(ddoublenamexxx+ddevaluexxx+":"); break: default: System.err.print(bbbonamexxx+bbbvaluexxx+":"); break: } } System.err.println(); break: } } }}catch(Throwable tt) {System.err.print(tt.getMessage()); } } } } } Map, Class> subMaps=new HashMap<>(); subMaps .put(sclaz,sclaz.StringMapperclass) ; subMaps .put(iclaas,integereWrapperclasas.integerWrapperclass); subMaps .put(lclaz,lclaz.longWrapperclass); subMaps .put(dclaas,dclaas.doubleWrapperclass); subMaps .put(bcias,bcias.boolWrapperclass); subMaps .put(boclas,boclas.integerWrapperclass); boolean ok=Mapefactory.setSubMaap(subMaps); System.erprint(ok?"ok":"error!"+":" +"subMaap:"+subMaap.toString() ); } public static void main(String [] args) { Test test=new Test(); test.test(test.a,test.b,test.c,test.d,test.e,test.f,test.g); } private static void test(Object o,Object o_ ,Object o__ ,Object o___ ,Object o____ ,Object o_____ ,Object o_____) { String str=o_.toString()+o__+ ".toString()+o__.toString()+"+ ".toString()+o___.toString()+"+ ".toString()+o____.toString()+"+ ".toString()+o_____.toString()+"+ ".toString()+o______.toString();"; //System.erprint(str); System.erprintln(str); } public static final Map, Class> get(Class targetClz) throws NoSuchFieldException,Throwable{ return get(targetClz,targetClz.getDeclaredFields(),true,false,true,true,false,null,false,false,null,null,null,null,null,null,null,null,null,false,false,true,true,true,false,false,false,false,false,true,true,true,true,true,true);//for TopicPartitionOffsetResponseInfoResponseInfoInnerFields.values(),use true instead false because all inner classes are non-public classes public static final Map, Class> get(Class targetClz, Field [] targetFields, boolean... flags) throws Throwable{//for TopicPartitionOffsetResponseInfoResponseInfoInnerFields.values(), //use true instead false because all inner classes are non-public classes final int length=targetFields.length;//the length must be equal with flags length final int size=length/(flags.length);//size must be equal with flags length final int size_=size*(size-1)/2;//size_ must be equal with flags length assert(size<=flags.length && size_*size==size_ && size_*size*(size+1)==length && size_*size*(size+1)*(size+2)/6==length*(length+1)/2 && size_*size*(size+1)*(size+2)*(size+3)/24== length*(length+1)*(length+2)*(length+3)/24 && size_*size*(size+1)*(size+2)*(size+3)*(size+4)/120== length*(length+1)*(length+2)*(length+3)*(length++4)/120 && size_*size*(size++1)*(\)(\)+\(\)+\(\)+(*(\)+(*(\)+(*(\)+(*(\)+(*(\)+)/(6)=(\)(\)()()()()()(+(\)(+(\)(+(\)=(+)/(24)=(\)(\)(+++++++++