Celso L. Mendes

Year	Rank	Type	Title / Venue / Authors
2024	J	`jnl`	Blue Waters system and component reliability. Concurr. Comput. Pract. Exp. Brett M. Bode, David King, Celso L. Mendes, William T. Kramer, Saurabh Jha, Roger Ford, Justin Davis, Steven Dramstad
2022	—	`conf`	Analysis of User-Support Tickets in the Lifetime of the Blue Waters System. HUST@SC Gregory H. Bauer, Albert Bode, Brett M. Bode, William T. Kramer, Celso L. Mendes, Aaron Saxton
2019	J	`jnl`	Best practices for management and operation of large HPC installations. Concurr. Comput. Pract. Exp. Scott Lathrop, Celso L. Mendes, Jeremy Enos, Brett M. Bode, Gregory H. Bauer, Roberto Sisneros, William T. Kramer
2019	J	`jnl`	Roofline analysis with Cray performance analysis tools (CrayPat) and roofline-based performance projections for a future architecture. Concurr. Comput. Pract. Exp. JaeHyuk Kwack, Galen Arnold, Celso L. Mendes, Gregory H. Bauer
2018	A	`conf`	Best practices and lessons from deploying and operating a sustained-petascale system: the blue waters experience. SC Gregory H. Bauer, Brett M. Bode, Jeremy Enos, William T. Kramer, Scott Lathrop, Celso L. Mendes, Robert Sisneros
2015	J	`jnl`	Deployment and testing of the sustained petascale Blue Waters system. J. Comput. Sci. Celso L. Mendes, Brett M. Bode, Gregory H. Bauer, Jeremy Enos, Cristina Beldica, William T. Kramer
2015	J	`jnl`	Using Migratable Objects to Enhance Fault Tolerance Schemes in Supercomputers. IEEE Trans. Parallel Distributed Syst. Esteban Meneses, Xiang Ni, Gengbin Zheng, Celso L. Mendes, Laxmikant V. Kalé
2014	Misc	`conf`	Deploying a Large Petascale System: The Blue Waters Experience. ICCS Celso L. Mendes, Brett M. Bode, Gregory H. Bauer, Jeremy Enos, Cristina Beldica, William T. Kramer
2014	—	`conf`	Dynamic load balancing in GPU-based systems for a MPI program. HPCS Alvaro Luiz Fazenda, Celso L. Mendes, Laxmikant V. Kalé, Jairo Panetta, Eduardo Rocha Rodrigues
2014	C	`conf`	Improving the Performance of Seismic Wave Simulations with Dynamic Load Balancing. PDP Rafael Keller Tesser, Laércio Lima Pilla, Fabrice Dupros, Philippe Olivier Alexandre Navaux, Jean-François Méhaut, Celso L. Mendes
2013	J	`jnl`	Dynamic Load Balancing in GPU-Based Systems - Early Experiments. CoRR Alvaro Luiz Fazenda, Celso L. Mendes, Laxmikant V. Kalé, Jairo Panetta, Eduardo Rocha Rodrigues
2013	—	`ch.`	Improving Scalability of BRAMS: a Regional Weather Forecast Model. Parallel Science and Engineering Applications Eduardo R. Rodrigues, Celso L. Mendes, Jairo Panetta
2013	J	`jnl`	Preserving the original MPI semantics in a virtualized processor environment. Sci. Comput. Program. Eduardo Rocha Rodrigues, Philippe Olivier Alexandre Navaux, Jairo Panetta, Celso L. Mendes
2012	—	`conf`	Improving the Scalability of an Operational Scientific Application in a Large Multi-core Cluster. WSCAD-SSC Alvaro Luiz Fazenda, Eduardo Rocha Rodrigues, Simone S. Tomita, Jairo Panetta, Celso L. Mendes
2011	B	`conf`	Automatic Handling of Global Variables for Multi-threaded MPI Programs. ICPADS Gengbin Zheng, Stas Negara, Celso L. Mendes, Laxmikant V. Kalé, Eduardo Rocha Rodrigues
2011	B	`conf`	Simulation-Based Performance Analysis and Tuning for a Two-Level Directly Connected System. ICPADS Ehsan Totoni, Abhinav Bhatele, Eric J. Bohm, Nikhil Jain, Celso L. Mendes, Ryan M. Mokos, Gengbin Zheng, Laxmikant V. Kalé
2010	C	`conf`	A Comparative Analysis of Load Balancing Algorithms Applied to a Weather Forecast Model. SBAC-PAD Eduardo Rocha Rodrigues, Philippe Olivier Alexandre Navaux, Jairo Panetta, Alvaro Luiz Fazenda, Celso L. Mendes, Laxmikant V. Kalé
2010	Misc	`conf`	A new technique for data privatization in user-level threads and its use in parallel applications. SAC Eduardo Rocha Rodrigues, Philippe Olivier Alexandre Navaux, Jairo Panetta, Celso L. Mendes
2010	Misc	`conf`	Optimizing an MPI weather forecasting model via processor virtualization. HiPC Eduardo Rocha Rodrigues, Philippe Olivier Alexandre Navaux, Jairo Panetta, Celso L. Mendes, Laxmikant V. Kalé
2010	B	`conf`	Team-Based Message Logging: Preliminary Results. CCGRID Esteban Meneses, Celso L. Mendes, Laxmikant V. Kalé
2008	A	`conf`	Massively parallel cosmological simulations with ChaNGa. IPDPS Pritish Jetley, Filippo Gioachin, Celso L. Mendes, Laxmikant V. Kalé, Thomas Quinn
2008	A	`conf`	Towards scalable performance analysis and visualization through data reduction. IPDPS Chee Wai Lee, Celso L. Mendes, Laxmikant V. Kalé
2006	J	`jnl`	HPC-Colony: services and interfaces for very large systems. ACM SIGOPS Oper. Syst. Rev. Sayantan Chakravorty, Celso L. Mendes, Laxmikant V. Kalé, Terry R. Jones, Andrew Tauferner, Todd Inglett, José E. Moreira
2006	A	`conf`	Poster reception - Cosmological simulations on supercomputers. SC Filippo Gioachin, Celso L. Mendes, Laxmikant V. Kalé, Thomas R. Quinn
2006	Misc	`conf`	Proactive Fault Tolerance in MPI Applications Via Task Migration. HiPC Sayantan Chakravorty, Celso L. Mendes, Laxmikant V. Kalé
2006	J	`jnl`	Reliability challenges in large systems. Future Gener. Comput. Syst. Daniel A. Reed, Charng-Da Lu, Celso L. Mendes
2006	—	`conf`	Scalable Cosmological Simulations on Parallel Machines. VECPAR Filippo Gioachin, Amit Sharma, Sayantan Chakravorty, Celso L. Mendes, Laxmikant V. Kalé, Thomas Quinn
2006	J	`jnl`	Special section: Large-scale system performance modeling and analysis. Future Gener. Comput. Syst. Adolfy Hoisie, Darren J. Kerbyson, Celso L. Mendes, Daniel A. Reed, Allan Snavely
2005	J	`jnl`	Intelligent Monitoring for Adaptation in Grid Applications. Proc. IEEE Daniel A. Reed, Celso L. Mendes
2005	J	`jnl`	New Grid Scheduling and Rescheduling Methods in the GrADS Project. Int. J. Parallel Program. Francine Berman, Henri Casanova, Andrew A. Chien, Keith D. Cooper, Holly Dail, Anshuman Dasgupta, W. Deng, Jack J. Dongarra, S. Lennart Johnsson, Ken Kennedy, Charles Koelbel, Bo Liu, Xin Liu, Anirban Mandal, Gabriel Marin, Mark Mazina, John M. Mellor-Crummey, Celso L. Mendes, Alex Olugbile, M. Patel, Daniel A. Reed, Zhiao Shi, Otto Sievert, Huaxia Xia, Asim YarKhan
2004	—	`ch.`	Application Tuning and Adaptation. The Grid 2, 2nd Edition Daniel A. Reed, Celso L. Mendes, Charng-Da Lu
2004	J	`jnl`	Monitoring Large Systems Via Statistical Sampling. Int. J. High Perform. Comput. Appl. Celso L. Mendes, Daniel A. Reed
2004	—	`conf`	New Grid Scheduling and Rescheduling Methods in the GrADS Project. IPDPS Next Generation Software Program - NSFNGS - PI Workshop Keith D. Cooper, Anshuman Dasgupta, Ken Kennedy, Charles Koelbel, Anirban Mandal, Gabriel Marin, Mark Mazina, John M. Mellor-Crummey, Francine Berman, Henri Casanova, Andrew A. Chien, Holly Dail, Xin Liu, Alex Olugbile, Otto Sievert, Huaxia Xia, S. Lennart Johnsson, Bo Liu, M. Patel, Daniel A. Reed, W. Deng, Celso L. Mendes, Zhiao Shi, Asim YarKhan, Jack J. Dongarra
2003	—	`conf`	Big Systems and Big Reliability Challenges. PARCO Daniel A. Reed, Charng-Da Lu, Celso L. Mendes
2001	—	`conf`	Performance Contracts: Predicting and Monitoring Grid Application Behavior. GRID Fredrik Vraalsen, Ruth A. Aydt, Celso L. Mendes, Daniel A. Reed
1998	—	`conf`	Integrated Compilation and Scalability Analysis for Parallel Systems. IEEE PACT Celso L. Mendes, Daniel A. Reed

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0x11\n    \n    if (rsi_3 u<= 8)\n        jump(internal/abi.(*Type).ExportedMethods.jump7[rsi_3])\n    \n    rsi_4 = arg1 + 0x30\n\nif (rsi_4 == 0)\n    return 0\n\nuint64_t rdx = zx.q(*(rsi_4 + 6))\n\nif (rdx.w == 0)\n    return nullptr\n\nif (rdx u<= 0x10000)\n    return rsi_4 + zx.q(*(rsi_4 + 8))\n\nruntime.panicSlice3Alen()\nbreakpoint', 'decompiled_function_name': 'internal/abi.(*Type).ExportedMethods', 'decompiled_function_prototype': 'void* internal/abi.(*Type).ExportedMethods(void* arg1 @ rax)', 'decompiled_function_address': 4198880, 'function_type': 'USER', 'functions_caller': [], 'functions_call': ['jump(internal/abi.(*Type).ExportedMethods.jump7[rsi_3])', 'runtime.panicSlice3Alen()'], 'flattened_score': 0.0, 'mba_score': 0.125, 'disassembled_function_hash': 'e2558c9cf3ebac3a28dff29dcc0b8918965ca5091e4d5e0361af301ebc9d7fba'}, {'decompiled_function_hash': '407d3d24d10ffe65a17c09aa88e6d7283d00fcdd9df10741af968c91841cc9b2', 'decompiled_function': 'while (&__return_addr u<= *(arg3 + 0x10))\n    runtime.morestack_noctxt.abi0()\n\nuint64_t rcx_1 = zx.q(*(arg1 + 0x17)) & 0x1f\n\nif (rcx_1 == 0x14)\n    return *(arg1 + 0x40)\n\ninternal/abi.(*Type).ExportedMethods(arg1, rcx_1)\nreturn arg2', 'decompiled_function_name': 'internal/abi.(*Type).NumMethod', 'decompiled_function_prototype': 'int64_t internal/abi.(*Type).NumMethod(void* arg1 @ rax, int64_t arg2 @ rbx, void* arg3 @ r14)', 'decompiled_function_address': 4199072, 'function_type': 'USER', 'functions_caller': [], 'functions_call': ['internal/abi.(*Type).ExportedMethods(arg1, rcx_1)', 'runtime.morestack_noctxt.abi0()'], 'flattened_score': 1.0, 'mba_score': 0.14285714285714285, 'disassembled_function_hash': '270037f0c8addf478f25bc075eb0dc05fc54dff87fba6dff63ab8d0555e4929a'}, {'decompiled_function_hash': '9f2a44ad4622a0e2d0e1b439b1d46754301fd5f7060b91e3766482b1383494da', 'decompiled_function': 'if (arg1 == 0)\n    return 0\n\nint64_t rcx = 0\nint64_t rdx = 0\n\nwhile (true)\n    int64_t rbx_2 = rcx * 7\n    *(arg1 + rcx + 1)\n    \n    if (rbx_2 s< 0)\n        runtime.panicshift()\n        breakpoint\n    \n    uint32_t rdi_3 = zx.d(*(arg1 + rcx + 1))\n    rdx += (zx.q(rdi_3) & 0x7f) << rbx_2.b & sbb.q(rbx_2, rbx_2, rbx_2 u< 0x40)\n    \n    if ((rdi_3.b & 0x80) == 0)\n        break\n    \n    rcx += 1\n\nint64_t rcx_1\n\nif (rdx != 1)\n    rcx_1 = 0\nelse\n    rcx_1.b = *(arg1 + 2) == 0x5f\n\nreturn zx.q(rcx_1.d)', 'decompiled_function_name': 'internal/abi.Name.IsBlank', 'decompiled_function_prototype': 'uint64_t internal/abi.Name.IsBlank(void* arg1 @ rax)', 'decompiled_function_address': 4199168, 'function_type': 'USER', 'functions_caller': [], 'functions_call': ['runtime.panicshift()'], 'flattened_score': 0.7692307692307693, 'mba_score': 0.05, 'disassembled_function_hash': '7a693574e5a54de381301402832a96b61c8f4d2a2671d8150e93fb29f8692e0f'}, {'decompiled_function_hash': 'aaadbfaff6f26ed203060269065749f25f44d295aadde2386ab73f8c4a5dd767', 'decompiled_function': 'while (true)\n    int64_t* rsp\n    \n    if (rsp u> *(arg3 + 0x10))\n        *(rsp - 8) = arg2\n        rsp -= 8\n        arg2 = rsp\n        \n        if (arg1 == 0)\n            *rsp\n            return 0\n        \n        void* rcx_1 = nullptr\n        int64_t rdx_1 = 0\n        \n        while (true)\n            void* rsi_2 = rcx_1 * 7\n            *(rcx_1 + arg1 + 1)\n            \n            if (rsi_2 s< 0)\n                break\n            \n            uint32_t r8_3 = zx.d(*(rcx_1 + arg1 + 1))\n            rdx_1 += (zx.q(r8_3) & 0x7f) << rsi_2.b & sbb.q(rsi_2, rsi_2, rsi_2 u< 0x40)\n            \n            if ((r8_3.b & 0x80) == 0)\n                if (rdx_1 s>= 0)\n                    int64_t rcx_4 = neg.q(rcx_1 + arg1 + 2)\n                    \n                    if (rcx_4 u>= rdx_1)\n                        *rsp\n                        return rcx_1 + arg1 + 2\n                    \n                    if (rcx_1 + arg1 != -2)\n                        runtime.panicunsafestringlen(rcx_4)\n                    \n                    runtime.panicunsafestringnilptr()\n                \n                runtime.panicunsafestringlen()\n                break\n            \n            rcx_1 += 1\n        \n        arg1 = runtime.panicshift()\n    \n    rsp[1] = arg1\n    runtime.morestack_noctxt.abi0()\n    arg1 = rsp[1]', 'decompiled_function_name': 'internal/abi.Name.Name', 'decompiled_function_prototype': 'void* internal/abi.Name.Name(int64_t arg1 @ rax, int64_t* arg2 @ rbp, void* arg3 @ r14)', 'decompiled_function_address': 4199296, 'function_type': 'USER', 'functions_caller': [], 'functions_call': ['runtime.panicunsafestringlen(rcx_4)', 'runtime.panicunsafestringnilptr()', 'runtime.panicunsafestringlen()', 'arg1 = runtime.panicshift()', 'runtime.morestack_noctxt.abi0()'], 'flattened_score': 1.0, 'mba_score': 0.029411764705882353, 'disassembled_function_hash': '21ad7fe65b5907f2e2bd82711c3d5cda50e2cda11dd6cb13e472a1879a0f5ee0'}, {'decompiled_function_hash': '6bc616921202fbee6edcbe36548ca6c0123ae51ecb86c0eea217f3889c581d25', 'decompiled_function': 'while (true)\n    int64_t* rsp\n    \n    if (rsp u> *(arg3 + 0x10))\n        *(rsp - 8) = arg2\n        rsp -= 8\n        arg2 = rsp\n        \n        if ((*arg1 & 2) == 0)\n            *rsp\n            return 0\n        \n        void* rcx_1 = nullptr\n        void* rdx_2 = nullptr\n        \n        while (true)\n            void* rsi_2 = rcx_1 * 7\n            *(rcx_1 + arg1 + 1)\n            \n            if (rsi_2 s< 0)\n                break\n            \n            uint32_t r8_3 = zx.d(*(rcx_1 + arg1 + 1))\n            rdx_2 += (zx.q(r8_3) & 0x7f) << rsi_2.b & sbb.q(rsi_2, rsi_2, rsi_2 u< 0x40)\n            \n            if ((r8_3.b & 0x80) == 0)\n                int64_t rcx_3 = 0\n                int64_t rbx_3 = 0\n                \n                while (true)\n                    void* rsi_4 = rdx_2 + rcx_1 + rcx_3\n                    int64_t rdi_3 = rcx_3 * 7\n                    *(arg1 + rsi_4 + 2)\n                    \n                    if (rdi_3 s< 0)\n                        break\n                    \n                    uint32_t r8_9 = zx.d(*(arg1 + rsi_4 + 2))\n                    rbx_3 += (zx.q(r8_9) & 0x7f) << rdi_3.b & sbb.q(rdi_3, rdi_3, rdi_3 u< 0x40)\n                    \n                    if ((r8_9.b & 0x80) == 0)\n                        if (rbx_3 s>= 0)\n                            int64_t rcx_6 = neg.q(arg1 + rsi_4 + 3)\n                            \n                            if (rcx_6 u>= rbx_3)\n                                *rsp\n                                return arg1 + rsi_4 + 3\n                            \n                            if (arg1 + rsi_4 != -3)\n                                runtime.panicunsafestringlen(rcx_6)\n                            \n                            runtime.panicunsafestringnilptr()\n                        \n                        runtime.panicunsafestringlen()\n                        break\n                    \n                    rcx_3 += 1\n                \n                runtime.panicshift()\n                break\n            \n            rcx_1 += 1\n        \n        arg1 = runtime.panicshift()\n    \n    rsp[1] = arg1\n    runtime.morestack_noctxt.abi0()\n    arg1 = rsp[1]', 'decompiled_function_name': 'internal/abi.Name.Tag', 'decompiled_function_prototype': 'void* internal/abi.Name.Tag(char* arg1 @ rax, int64_t* arg2 @ rbp, void* arg3 @ r14)', 'decompiled_function_address': 4199488, 'function_type': 'USER', 'functions_caller': [], 'functions_call': ['runtime.panicunsafestringlen(rcx_6)', 'runtime.panicunsafestringnilptr()', 'runtime.panicunsafestringlen()', 'runtime.panicshift()', 'arg1 = runtime.panicshift()', 'runtime.morestack_noctxt.abi0()'], 'flattened_score': 1.0, 'mba_score': 0.041666666666666664, 'disassembled_function_hash': '0621c0c17af04d429b48b7855fd82627f2e835ec864eaa49d0de3183fd3d9fbf'}, {'decompiled_function_hash': '917d57a1b59aad9ee7b1197909e67f4ee8d39a0d26f2390ceacbbc54bde37a43', 'decompiled_function': 'while (true)\n    void* rsp\n    \n    if (rsp - 0x30 u> *(arg9 + 0x10))\n        *(rsp - 8) = arg6\n        arg6 = rsp - 8\n        rsp -= 0xb0\n        *(rsp + 0xb8) = arg4\n        *(rsp + 0xc8) = arg1\n        \n        if (arg5 s< 0x20000000)\n            if (arg8 s< 0x20000000)\n                __builtin_memset(rsp + 0x84, 0, 0x14)\n                int64_t rdx = arg5\n                int64_t r9_1 = 0\n                \n                while (true)\n                    char r10_2 = arg5.b\n                    arg5 s>>= 7\n                    char r10_3 = r10_2 & 0x7f\n                    \n                    if (arg5 == 0)\n                        if (r9_1 u< 0xa)\n                            *(rsp + r9_1 + 0x8e) = r10_3\n                            int64_t rbx = arg8\n                            int64_t r10_4 = 0\n                            \n                            while (true)\n                                char r11_2 = arg8.b\n                                arg8 s>>= 7\n                                char r11_3 = r11_2 & 0x7f\n                                \n                                if (arg8 == 0)\n                                    if (r10_4 u< 0xa)\n                                        *(rsp + r10_4 + 0x84) = r11_3\n                                        int64_t r11_4 = rdx + r9_1\n                                        int64_t r12_3\n                                        \n                                        if (rbx == 0)\n                                            r12_3 = r9_1 + rdx + 2\n                                        else\n                                            r12_3 = rbx + r10_4 + r11_4 + 3\n                                            arg7 |= 2\n                                        \n                                        *(rsp + 0x78) = rdx\n                                        *(rsp + 0x48) = r9_1 + rdx + 2\n                                        *(rsp + 0x70) = rbx\n                                        *(rsp + 0xb8) = arg4\n                                        *(rsp + 0xc8) = arg1\n                                        *(rsp + 0x68) = r11_4\n                                        *(rsp + 0x50) = r10_4\n                                        *(rsp + 0x58) = r9_1\n                                        \n                                        if (arg3 != 0)\n                                            arg7 |= 8\n                                        \n                                        *(rsp + 0x3f) = arg7.b\n                                        *(rsp + 0x60) = r12_3\n                                        char* result = runtime.makeslice(r12_3)\n                                        void* rcx_1 = *(rsp + 0x60)\n                                        \n                                        if (rcx_1 u> 0)\n                                            *(rsp + 0xa0) = result\n                                            *result = *(rsp + 0x3f)\n                                            void* rsi = rcx_1 - 1\n                                            uint64_t rdx_6 = (zx.q((neg.q(rcx_1 - 1) s>> 0x3f).d) & 1) + result\n                                            void* rdi_2 = *(rsp + 0x58)\n                                            \n                                            if (rdi_2 + 1 s< rsi)\n                                                rsi = rdi_2 + 1\n                                            \n                                            if (rsp + 0x8e != rdx_6)\n                                                runtime.memmove(rsi, rdx_6, rsp + 0x8e)\n                                                result = *(rsp + 0xa0)\n                                                rcx_1 = *(rsp + 0x60)\n                                                rdi_2 = *(rsp + 0x58)\n                                            \n                                            if (rcx_1 u>= rdi_2 + 2)\n                                                void* rdi_3 = rcx_1 - rdi_2 - 2\n                                                void* rdx_9 = ((rdi_2 + 2) & neg.q(rcx_1 - rdi_2 - 2) s>> 0x3f) + result\n                                                void* rsi_6 = *(rsp + 0x78)\n                                                \n                                                if (rsi_6 s< rdi_3)\n                                                    rdi_3 = rsi_6\n                                                \n                                                int128_t* rbx_3 = *(rsp + 0xb8)\n                                                void* rdx_10\n                                                bool cond:0_1\n                                                \n                                                if (rbx_3 != rdx_9)\n                                                    runtime.memmove(rdi_3, rdx_9, rbx_3)\n                                                    rdx_10 = *(rsp + 0x70)\n                                                    cond:0_1 = rdx_10 == 0\n                                                    result = *(rsp + 0xa0)\n                                                    rcx_1 = *(rsp + 0x60)\n                                                else\n                                                    rdx_10 = *(rsp + 0x70)\n                                                    cond:0_1 = rdx_10 == 0\n                                                \n                                                if (cond:0_1)\n                                                    *(rsp + 0xa8)\n                                                    return result\n                                                \n                                                uint64_t rsi_7 = *(rsp + 0x48)\n