M15 Gimcheon stats & predictions

Tournament Venue Insights: An Overview Of Facilities And Atmosphere At Gimcheon Korea Republic Tennis Center!

The venue itself offers unique challenges due its distinct characteristics; understanding these elements can help both players prepare adequately while offering audiences engaging narratives surrounding each match-up.

The facilities at Gimcheon Korea Republic Tennis Center are state-of-the-art,
with multiple courts designed specifically for both singles & doubles competitions.
The atmosphere inside these venues tends towards being electrifying,
especially during evening sessions when local fans gather en masse,
creating an unforgettable ambiance that adds another layer of excitement onto already thrilling encounters!

Fans' Expectations & Excitement Surrounding Tomorrow’s Matches!

The enthusiasm among fans cannot be overstated,

. Many have traveled great distances just for this opportunity,
. Local businesses also benefit significantly from increased foot traffic during such events,
. It’s not just about watching tennis;
, it’s about experiencing culture,
, food,
, music,
and community spirit coming together!

Predictive Analytics: How Data Is Shaping Betting Strategies For Tomorrow!

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In today’s digital age,, predictive analytics has become indispensable tools utilized by experts across various domains including sports betting.By leveraging data-driven insights gathered through sophisticated algorithms, bettors can make more informed decisions regarding their wagers.<|repo_name|>c0d1ngwithjay/LLM-based-Customer-Support-Chatbot-with-Python-and-PyTorch-Multi-Modal-Capabilities-and-GPT-Neo-Tuned-for-Financial-Discussions-with-MonkeyType-Type-Hinting-and-Auto-Documentation-in-JavaScript-using-JSDoc-and-TypeScript-with-Auto-Generated-API-Docs-using-Swagger-or-Postman-to-Provide-a-Seamless-Integration-for-Full-stack-Development.-Dockerized-Version-of-TensorFlow-Serving-with-AWS-ECS-for-Scale-out-on-AWS-EKS-Kubernetes-Cluster-and-Best-practices-for-Microservices-Architecture-in-Java-using-Spring-Framework.-A-Guide-to-Linux-Kernel-Module-Development-with-a-Focus-on-Networking-Stack-and-Creating-a-New-Networking-Layer-from-scratch,-alongside-a-Tutorial-on-Writing-Native-Windows-API-Calls-in-C++.-Implementing-Rust-Based-Concurrent-Messaging-Broker-like-RabbitMQ-with-Futures-and-Tokio-asynchronous-runtime,-including-error-handling,-backpressure-mechanisms,-and-cluster-support.-Integrating-AI-powered-Voice-Assistant-with-Smart-TV-using-Alexa-skills-kit,-and-building-a-customized-user-interface-in-Kotlin-for-an-enhanced-viewer-experience.-Developing-a-Decentralized-Ethereum-DApp-for-Voting-with-Smart-contracts-written-in-Solidity,-and-integrating-it-with-a-react-native-mobile-app.-Creating-an-Incremental-State-Machine-based-Language-Parsing-Library-in-Haskell-that-supports-context-free-Grammars.-Building-an-Open-source-Machine-Learning-Library-in-Rust-that-compares-to-Python’s-scikit-learn-in-termsof-performance-and-feature-completeness., , they can assess probabilities related directly toward specific outcomes based upon historical patterns exhibited previously by individual athletes competing within respective tournaments.<|file_sep|># LLM-based Customer Support Chatbot with Python ## Project Overview This project involves developing a customer support chatbot using advanced language models like GPT Neo tuned specifically for financial discussions. ### Features: 1. **Python Implementation**: The core logic is implemented using Python. 2. **PyTorch Multi-modal Capabilities**: Utilizes PyTorch for handling multi-modal inputs. 3. **GPT Neo Tuned**: Fine-tunes GPT Neo model specifically for financial topics. 4. **MonkeyType Type Hinting**: Automatically generates function signatures. 5. **Auto Documentation**: Uses JSDoc for JavaScript documentation generation. 6. **TypeScript Integration**: Supports TypeScript for enhanced development. 7. **API Documentation**: Generates API documentation using Swagger or Postman. ## Technical Stack ### Backend - **Language**: Python - **Library**: PyTorch - **Model**: GPT Neo - **Type Hinting**: MonkeyType ### Frontend - **Language**: JavaScript/TypeScript - **Documentation Tools**: JSDoc ### Deployment #### Dockerized TensorFlow Serving 1. **TensorFlow Serving**: - Serves machine learning models efficiently. - Dockerized version ensures easy deployment. 2. **AWS ECS**: - Manages containers on AWS Elastic Container Service (ECS). - Allows scaling out on AWS EKS Kubernetes Cluster. #### Best Practices for Microservices Architecture (Java) 1. **Spring Framework**: - Utilizes Spring Boot for microservices development. - Ensures modularity and scalability. ## Additional Components ### Linux Kernel Module Development (Networking Stack) 1. Develop new networking layers from scratch. 2. Focus on kernel module programming. ### Native Windows API Calls (C++) 1. Implement custom API calls using C++. 2. Handle system-level operations natively. ### Rust-Based Concurrent Messaging Broker (like RabbitMQ) 1. Use Futures and Tokio asynchronous runtime. 2. Implement error handling, backpressure mechanisms, cluster support. ### AI-Powered Voice Assistant Integration with Smart TV 1. Use Alexa Skills Kit. 2. Build customized UI using Kotlin. ### Decentralized Ethereum DApp (Voting) 1. Develop smart contracts using Solidity. 2. Integrate with React Native mobile app. ### Incremental State Machine-based Language Parsing Library (Haskell) 1. Supports context-free grammars. 2. Provides robust parsing capabilities. ### Open-source Machine Learning Library (Rust) 1.Aims at performance comparable to scikit-learn. ## Conclusion This project leverages cutting-edge technologies across multiple domains to create a robust customer support chatbot tailored specifically for financial discussions while ensuring seamless integration across different platforms through best practices in software engineering methodologies. --- This markdown structure provides an organized overview of how you might implement such a complex project while maintaining clarity across various technical components involved. [0]: #!/usr/bin/env python [1]: # coding=utf8 [2]: # [3]: # Copyright © 2020 SUSE LLC [4]: # [5]: # Licensed under the Apache License, Version 2.0 (the "License"); [6]: # you may not use this file except in compliance with the License. [7]: # You may obtain a copy of the License at [8]: # [9]: # http://www.apache.org/licenses/LICENSE-2.0 [10]: # [11]: # Unless required by applicable law or agreed to in writing, [12]: # software distributed under the License is distributed on an "AS IS" BASIS, [13]: # WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. [14]: # See the License for the specific language governing permissions and [15]: # limitations under the License. [16]: import argparse [17]: import logging.config [18]: def get_args(): [19]: """Parse command line arguments.""" [20]: parser = argparse.ArgumentParser( [21]: description='Collect cloud data', [22]: formatter_class=lambda prog: argparse.HelpFormatter(prog,max_help_position=50)) [23]: parser.add_argument( [24]: '-c', '--config', default='config/logging.json', help='Path where logging config file exists') parser.add_argument( '-v', '--verbose', action='store_true', help='Enable verbose output') args = parser.parse_args() return args def setup_logging(default_path='config/logging.json', default_level=logging.INFO): """Setup logging configuration""" path = default_path value = default_level if os.path.exists(path): with open(path) as f: config = json.load(f) logging.config.dictConfig(config) else: logging.basicConfig(level=value) def main(): """Main entry point.""" args = get_args() setup_logging(args.config) if args.verbose: logger.setLevel(logging.DEBUG) <|repo_name|>SUSE/spacewalk.github.io-old-backup-v4-gitbook-backup-v4-copied-via-webarchive-org-archive-it-repo-suse-spacewalk.github.io-old-backup-v4-gitbook-backup-v4-copied-via-webarchive-org-archive-it-repo-master-master-master-backup-v4-copied-via-webarchive-org-archive-it-repo-master-master-master-backup-v4-copied-via-webarchive-org-archive-it-repo-master-master-master-backup-v4-copied-via-webarchive-org-archive-it-repo-master-master-master-backup-v4-copied-via-webarchive-org-archive-it-repo-master-master-master-backup-v4-copied-via-webarchive-org-archive-it-repo-master/master/README.md <|file_sep Bachmann GmbH [](https://travis-ci.com/bachmann-gmbh/spacewalk) ## Spacewalk Enterprise Linux Management Spacewalk is used by large enterprises around Europe as management tool suite based on Red Hat Satellite Server Spacewalk allows you manage hundreds thousands Linux servers around your organization running RHEL/CentOS/SLES/Ubuntu/Debian This repository contains all source code necessary to build Spacewalk Enterprise Linux Management System Spacewalk consists following parts: * [Space](https://github.com/bachmann-gmbh/space): web frontend written PHP based on Zend Framework * [RHSM](https://github.com/bachmann-gmbh/rhn-rhn): backend daemon written Perl * [Satellite](https://github.com/bachmann-gmbh/rhn-satellite): backend daemon written Ruby * [Database](https://github.com/bachmann-gmbh/rhn-database): PostgreSQL database schema definition files * [Tools](https://github.com/bachmann-gmbh/rhn-tools): useful scripts which are used during installation process or maintenance * [Installer](https://github.com/bachmann-gmbh/rhn-installer): installer scripts which automate installation process ## Installation Instructions Please refer installation instructions available here: https://space.bcm.edu/wiki/display/BGC/SUSE+Spacewalk+Installation+Instructions+for+SLES+12SP3+or+SLE+15SP1+ ## Documentation Please refer documentation available here: https://space.bcm.edu/wiki/display/BGC/SUSE+Spacewalk+Documentation ## Development Setup ### Requirements Before you start development please ensure following requirements are met: * Ubuntu Desktop installed * Git installed * Composer installed * NodeJS v12.x installed * Yarn package manager installed * PHP >=7.x installed ### Clone Repository First clone repository locally: bash git clone https://github.com/bachmann-gmbh/space.git && cd space ### Install Dependencies Install dependencies via composer: bash composer install --no-dev --optimize-autoloader Install node dependencies via yarn: bash yarn install --ignore-engines ### Setup Database Create database schema via psql client: bash psql -U postgres -f rhn-database/schema/postgresql.sql postgres ### Start Webserver Start built-in php server: bash php -S localhost:8080 public/index.php ### Start Browser Open browser pointing it at localhost port `8080` which should show login screen:  Once logged into application you should see space menu bar visible at top left corner showing `Space` label which indicates successful login:  ## Contributing Please refer contributing guide available here: https://space.bcm.edu/wiki/display/BGC/SUSE+Spacewalk+Contributing ## Contact Information If you need help please contact us via email address `[email protected]` ## Legal Notice This software was developed by Bachmann GmbH located at Germany Munich without any funding received from Red Hat Inc located at USA Raleigh NC Software provided hereunder comes without any warranties whatsoever expressed or implied including but not limited warranty title merchantability fitness purpose non infringement etc unless otherwise provided herein expressly written Redistribution redistribution modification distribution etc permitted provided that following conditions are met Redistributions source code must retain above copyright notice this list conditions disclaimer below Redistributions binary form must reproduce above copyright notice list conditions disclaimer below either in documentation accompanying distributions or other materials provided distribution Neither name Bachmann GmbH nor names contributors may used endorsement products derived this software without specific prior written permission THIS SOFTWARE PROVIDED BY COPYRIGHT HOLDERS CONTRIBUTORS "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES INCLUDING BUT NOT LIMITED TO WARRANTIES MERCHANTABILITY FITNESS FOR PARTICULAR PURPOSE NON-INFRINGEMENT ARE DISCLAIMED TO THE MAXIMUM EXTENT PERMITTED BY APPLICABLE LAW NO COPYRIGHT HOLDER CONTRIBUTOR SHALL BE LIABLE FOR ANY DIRECT INDIRECT INCIDENTAL SPECIAL EXEMPLARY CONSEQUENTIAL PUNITIVE DAMAGES INCLUDING LOSS OF USE DATA PROFITS OR BUSINESS INTERRUPTION HOWEVER CAUSED AND ON ANY THEORY LIABILITY WHETHER IN CONTRACT STRICT LIABILITY OR TORT INCLUDING NEGLIGENCE OR OTHERWISE ARISING IN ANY WAY OUT OF USE THIS SOFTWARE EVEN IF ADVISED OF POSSIBILITY SUCH DAMAGE <|repo_name|>SUSE/spacewalk.github.io-old-backup-v4-gitbook-backup-v4-copied-via-webarchive-org-archive-it-repo-suse-spacewalk.github.io-old-backup-v4-gitbook-backup-v4-copied-via-webarchive-org-archive-it-repo-master/master/README.mdarXiv identifier: cond-mat/0502409 DOI: 10.1103/PhysRevB74..144422 # Optical properties of CuGaTe$_{2}$ crystals grown by floating zone technique : Band gap dependence upon growth direction along $c$ axis ($001$) versus $ab$ plane ($100$) Authors: Tatsuo Kondo (University of Fukui), Kenji Ohtomo (NIMS), Masayuki Abe (Univ.Fukui), Hiroshi Koinuma (Univ.Fukui), Yoshiki Nakamura (Univ.Fukui), Akira Yamamoto(Univ.Fukui), Yujiro Ohara(NIMS) Date: 11 November 2009 Categories: cond-mat.mtrl-sci cond-mat.mes-hall physics.optics ## Abstract Optical properties such as absorption coefficient $alpha$, reflectance $R$, refractive index $n$, extinction coefficient $k$, band gap energy $E_{g}$ were measured along two principal crystallographic directions $c$ axis ($001$) versus $ab$ plane ($100$). It was found that optical constants such as refractive index $n$, extinction coefficient $k$, band gap energy $E_{g}$ depend strongly upon growth direction along crystallographic directions although they were very similar between them when compared with those reported values obtained along crystallographic directions other than these two directions.The difference between optical constants along two principal crystallographic directions was explained by band structure calculation performed within density functional theory plus empirical pseudopotential method plus $Gamma_8^+$-$Gamma_7^+$ exciton effect approximation.The calculated band structures were found consistent well with experimental results obtained along both crystallographic directions.In particular,the calculated band structures revealed splitting effects caused by spin-orbit coupling resulting from strong interaction between conduction bands composed mainly by s orbitals originated from Cu atoms,and valence bands composed mainly by p orbitals originated from Te atoms.Also,the calculated band structures revealed existence of lower energy levels than previously reported ones obtained along other crystallographic directions.The lower energy levels consist mainly d orbitals originated from Cu atoms.These lower energy levels exist only along crystallographic directions perpendicular to c axis because s-p hybridization occurs only along these two principal crystallographic directions.The hybridization leads formation of bonding states between s orbitals originated from Cu atoms,and p orbitals originated from Te atoms.This bonding states become lowest energy levels.In addition,the calculated band structures revealed existence of upper energy levels than previously reported ones obtained along other crystallographic directions.These upper energy levels consist mainly d orbitals originated from Ga atoms.These upper energy levels exist only along c axis because s-p hybridization occurs only along c axis.This hybridization leads formation anti-bonding states between s orbitals originated from Ga atoms,and p orbitals originated from Te atoms.This anti-bonding states become highest energy levels.These results suggest that there exists new mechanism controlling band gap energies depending upon growth direction.The mechanism consists splitting effects caused by spin-orbit coupling resulting strong interaction between conduction bands composed mainly s orbitals originated Cu atoms,and valence bands composed mainly p orbitals originated Te atoms.And also there exists another mechanism consisting formation bonding states formed between s-p hybridization occurring only along two principal crystallographic directions perpendicular c axis,and formation anti-bonding states formed between s-p hybridization occurring only along c axis.These mechanisms result lowering effect upon lowest energy level existing only perpendicular c axis,and raising effect upon highest energy level existing only parallel c axis.Thus,optical constants depend strongly upon growth direction because there exist two mechanisms working simultaneously but oppositely depending upon growth direction.The present study suggests that optical constants depend strongly upon growth direction although they were very similar when compared those reported values obtained along other crystalograhic directions different than these two principal ones.Also,it reveals new mechanism controlling band gap energies depending upon growth direction.It shows fundamental importance controlling optical properties depending upon growth direction since semiconductor devices such as photovoltaic cells need control over optical properties depending upon growth direction.Nowadays,in order fabrication semiconductor devices such as photovoltaic cells epitaxial layers need control over optical properties depending upon growth direction since they need control over thicknesses,epitaxial quality,morphology,resistivity,hall mobility,doping concentration,density defects etc.Since epitaxial layers require control over thicknesses,epitaxial quality,morphology,resistivity,hall mobility,doping concentration,density defects etc.,optical properties need control over them too because they determine physical properties mentioned above.Optical characterization techniques such as spectroscopic ellipsometry enable simultaneous determination over four independent variables namely refractive index,n,$k$,$theta$(angle) simultaneously.Optical characterization techniques enable determination simultaneously four independent variables namely refractive index,n,$k$,$theta$(angle) simultaneously.When we measure absorption coefficient $alpha$,refractive index n,$theta$(angle),we obtain simultaneously extinction coefficient k.Reflectance R is determined simultaneously through relation $alpha=frac{4pi k}{lambda}$.The reflectance R enables determination simultaneously angle $theta$.Thus,spectroscopic ellipsometry enables simultaneous determination over four independent variables namely refractive index,n,$k$,$theta$(angle).These results suggest applicability spectroscopic ellipsometry enabling simultaneous determination over four independent variables namely refractive index,n,$k$,$theta$(angle) allowing control simultaneously over thickness,epitaxial quality,morphology,resistivity,hall mobility,doping concentration,density defects etc..In particular,it enables simultaneous determination simultaneously four independent variables namely refractive index,n,$k$,$theta$(angle).Therefore,optical characterization techniques such as spectroscopic ellipsometry enable simultaneous determination simultaneously four independent variables namely refractive index,n,$k$,$theta$(angle).These results suggest applicability spectroscopic ellipsometry enabling simultaneous determination over four independent variables namely refractive index,n,k,$theta$(angle) allowing control simultaneously over thickness,epitaxial quality,morphology,resistivity,hall mobility,doping concentration,density defects etc.. ## I Introduction CuGaTe${}_{{}_{{}_{{}_{{}_{{}_{{}_{ }}}}}}}{}_{{}_{{}_{{}_{{}_{ }}}}}{}_{{}_{{}_{{}_{ }}}}$ crystallizes orthorhomically having space group Pnma.(JCPDS card No.:36–0396)(RefJCPDS36–0396 ; RefBGS1968 ; RefBGS1975 ; RefJSSC1989 ; RefPRB1998 ; RefPRB1999 ; RefPRL1999 ; RefAPLB2000 ; RefJAP2000 ; RefAPLB2000_II ; RefJAP2001 ; RefJAP2003 ; RefPRL2005).It was discovered almost half century ago.(RefBGS1968)(RefBGS1975)(RefJSSC1989)(RefPRB1998)(RefPRB1999)(RefPRL1999)(RefAPLB2000)(RefJAP2000)(RefAPLB2000_II)(RefJAP2001)(RefJAP2003)(RefPRL2005)It attracted much interest recently because it exhibits direct allowed transition near infrared region.(RefPRB1998)(RefPRB1999)(RefPRL1999)(RefAPLB2000)(RefJAP2000)(RefAPLB2000_II)(RefJAP2001)(Refschmehl_jssc_00)-(Refschmehl_jssc_02)It exhibits direct allowed transition near infrared region.(Refschmehl_jssc_00)-(Refschmehl_jssc_02)Its indirect allowed transition lies far beyond near infrared region.(Refschmehl_jssc_00)-(Refschmehl_jssc_02)Its direct allowed transition lies near infrared region.(Refschmehl_jssc_00)-(Refschmehl_jssc_02)It exhibits direct allowed transition near infrared region.(Refschmehl_jssc_00)-(Refschmehl_jssc_02)Its indirect allowed transition lies far beyond near infrared region.(Refschmehl_jssc_00)-(Refschmehl_jssc_02).(Refschmehl_prl99),(Reflinzer_aplb00),(Reflinzer_aplb01),(Reflinzer_prba03),(Reflinzer_ssc04),(Reflinzer_prba05),(Reffuruya_prba06),(Reffuruya_ssc07),(Reffuruya_ssc08),(Reffuruya_prba09),(Reffuruya_ssc09),(Reffuruya_prl09),(Reffuruya_ssc09II).It exhibits direct allowed transition near infrared region.(Refschmehl_prl99),(Reflinzer_aplb00),(Reflinzer_aplb01),(Reflinzer_prba03),(Reflinzer_ssc04),(Reflinzer_prba05),(Reffuruya_prba06),(Reffuruya_ssc07),(Reffuruya_ssc08),(Reffuruya_prba09).(ReferencesForBackgroundTheoryOfBandStructureCalculationUsingEmpiricalPseudopotentialMethodAndOrbitallyProjectedWannierFunctionsForCuGaTe${{}_{{{}}}}{}_{{{}}}{}_{{{}}}$CuGaTe${{}_{{{}}}}{}_{{{}}}{}_{{{}}}$CuGaTe${{}_{{{}}}}{}_{{{}}}{}_{{{}}}$.ReferencesForBackgroundTheoryOfBandStructureCalculationUsingEmpiricalPseudopotentialMethodAndOrbitallyProjectedWannierFunctionsForCuGaTe${{}_{{{}}}}{}_{{{}}}{}_{{{}}}$.ReferencesForBackgroundTheoryOfBandStructureCalculationUsingEmpiricalPseudopotentialMethodAndOrbitallyProjectedWannierFunctionsForCuGaTe${{}_{{{}}}}{}_{{{}}}{}_{{{}}}$.ReferencesForBackgroundTheoryOfBandStructureCalculationUsingEmpiricalPseudopotentialMethodAndOrbitallyProjectedWannierFunctionsForCuGaTe${{}_{{{}}}}{}_{{{}}}{}_{{{}}}$.ReferencesForBackgroundTheoryOfBandStructureCalculationUsingEmpiricalPseudopotentialMethodAndOrbitallyProjectedWannierFunctionsForCuGaTe${{}_{{{}}}}{}_{{{}}}{}_{{{}}}$. References For Background Theory Of Band Structure Calculation Using Empirical Pseudopotential Method And Orbitally Projected Wannier Functions For CuGaTe${{}_{_}{_}{_}{_}{_}{_}{_}{_}{_}{_}{}{}{}{ }}{}{}{}{}__$ Cu Ga Te ${}{}{}{}{}____$ ${}{}{}{}___$ References For Background Theory Of Band Structure Calculation Using Empirical Pseudopotential Method And Orbitally Projected Wannier Functions For Cu Ga Te ${}{}{}{}{}___$ ${}{}{}__$ ${}{}__$ References For Background Theory Of Band Structure Calculation Using Empirical Pseudopotential Method And Orbitally Projected Wannier Functions For Cu Ga Te ${}{}__${}${}${}${}${}${}${}$ ${}{}__${}${}${}${}${}${}$ ${}{}_$ References For Background Theory Of Band Structure Calculation Using Empirical Pseudopotential Method And Orbitally Projected Wannier Functions For Cu Ga Te ${}_${}$$$$$$$$ $$ $$ $$ $$ $$ $$ $$ {rm{bf References }} {rm{bf For }} {rm{bf Background }} {rm{bf Theory }} {rm{bf Of }} {rm{bf Band }} {rm{bf Structure }} {rm{bf Calculation }} {rm{bf Using }} {rm{bf Empirical }} {rm{bf PseudoPotential }} {rm{bf Method }} {rm{bf And }} {rm{bf Orbitally }} {rm{bf Projected }} {rm{bf Wannier }} {rm{bf Functions }} {rm{for }} {} {} {} {} {} {} {}_{ } {} {} {} {}_{ } {} {}_{ } Reference Books On Solids Reference Books On Solid State Physics Reference Books On Solid State Physics Reference Books On Solid State Physics Reference Books On Solid State Physics Reference Books On Solids Reference Books On Solid State Physics Reference Books On Solid State Physics Reference Books On Solid State Physics Reference Books On Solid State Physics ReferenceBooksOnSolidStatePhysicsReferenceBooksOnSolidStatePhysicsReferenceBooksOnSolidStatePhysicsReferenceBooksOnSolidStatePhysicsReferenceBooksOnSolidsReferenceBooksOnSolidStatePhysicsReferenceBooksOnSolidStatePhysicsReferenceBooksOnSolidStatePhysicsReferenceBooksOnSolidStatePhysics ) It exhibits direct allowed transition near infrared region.(refschock_JMMMCElecMatChemPhys_CuInSeTe_SolarCellMaterialsVolIIReducedDimensionalSystemsPartIIPhotovoltaicMaterialsVolumeOne_Part_I_Photovoltaic_Materials_Volume_One_Part_I_Photovoltaic_Materials_Volume_One_Part_I_Photovoltaic_Materials_Volume_One_Part_I_Photovoltaic_Materials_Volume_One_Part_I_PhotoVoltaic_Materials_Volume_One_Part_I_PhotoVoltaic_Materials_Volume_One_Part_I_PhotoVoltaic_Materials_Volume_One_Part_I_PhotoVoltaic_Materials_Volume_One_Part_I_PhotoVoltaics_Materials_Volume_One_Part_I_PhotoVoltaics_Materials_Volume_One_Part_I_PhotoVoltaics_Material,_Volume_One,_Part_I_PhotoVoltaics_Material,_Volume_One,_Part_I_PhotoVoltaics_Material,_Volume_One,_Part_) It attracts much interest recently because it exhibits direct allowed transition near infrared region.(refschock_JMMMCElecMatChemPhys_CuInSeTe_SolarCellMaterialsVolIIReducedDimensionalSystemsPartIIPhotovoltaicMaterialsVolumeOne_Part_I_Photovoltaic_Materials_Volume_One_Part_I_Photovoltaic_Materials_Volume_One_Part_I_Photovoltaic_Materials_Volume_One_Part_I_Photovoltaic_Materials_Volume_One_Part_I_PhotoVoltaic_Materials_Volume_One_Part_I_PhotoVoltaic_Materials_Volume_One_Part_I_PhotoVoltaic_Materials_Volume_One_Part_I_PhotoVoltaic_Materials_Volume_One_Part_I_PhotoVoltaics_Materials_Volume_One_Part_I_PhotoVoltaics_Material,_Volume_One,_Part_) Its indirect allowed transition lies far beyond near infrared region.(refschock_JMMMCElecMatChemPhys_CuInSeTe_SolarCellMaterialsVolIIReducedDimensionalSystemsPartIIPhotovoltaicMaterialsVolumeOne _Part _I _Photovolta ic _Materials _Volume _One _Part _I _Photovolta ic _Materials _Volume _One Part I Photovoltai cs Materials Volume One Part I Photovoltai cs Materials Volume One Part I Photovoltai cs Materials Volume One Part I Photovoltai cs Materials Volume One Part I PhotoVolt ai cs Materials Volume One Part I PhotoVolt ai cs Materials Volume One Part I PhotoVolt ai cs Materials Volume One Part I PhotoVolt ai cs Materials , Volume One , Part I PhotoVolt ai cs Materials , Vol u me One , Par t I PhotoV ol t ai cs Mat erials , Vol u me O ne , Par t _) Its direct allowed transition lies near infrared region.(refschock_JMMMCElecMatChemPhys_CuInSeTe_SolarCellMaterialsVolIIReducedDimensionalSystemsPartIIPhotovoltaicMaterialsVolumeOne _Part _I _Photov ol ta ic _Mater ia ls __ V ol um e __ O ne __ Par t __ I__ Ph otov ol ta ic__ Ma ter ia ls__ V ol um e__ O ne__ Pa rt __ Ph otov ol ta ic__ Ma ter ia ls__ V ol um e__ O ne__ Pa rt __ Ph otov ol ta ic__ Ma ter ia ls __ V ol um e __ O ne __ Pa rt __ Ph otov ol ta ic__ Ma ter ia ls__ V ol um e O ne Par t Ph ot ov ol ta ic Ma te r ia ls Vo lu m e O ne Pa rt Ph ot ov ol ta ic Ma te r ia ls Vo lu m e O ne Pa rt Ph ot ov ol ta ic Ma te r ia ls Vo lu m e O ne Pa rt ) It exhibits direct allowed transition near infrared region.(refschock_JMMMCElecMatChemPhys_CuInSeTe_SolarCellMaterialsVol