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Ekambir Sidhu - One of the best experts on this subject based on the ideXlab platform.

  • High gain blind hole substrate slotted Microstrip Patch Antenna Design for X-band applications
    2016 International Conference on Automatic Control and Dynamic Optimization Techniques (ICACDOT), 2016
    Co-Authors: Divesh Mittal, Avneet Kaur, Ekambir Sidhu
    Abstract:

    This paper concentrates on the Design and performance analysis of blind hole substrate slotted microstrip patch antenna Design for X-band applications. The anticipated antenna has been Designed using Flame Retardant 4 (FR4) substrate of dielectric constant, e r of 4.4 sandwiched between copper patch and ground plane. The intended antenna has compact area with impedance bandwidth of 560 MHz (7.67 GHz– 8.22 GHz). The antenna has been fed through microstrip feedline via impedance transformer to equate the impedance of proposed antenna with the 50Ω impedance of co-aXial SMA connector used for practically feeding power to the antenna. The antenna operation has been scrutinized in terms of gain (dB), return loss (dB), directivity (dBi), bandwidth (MHz) and VSWR. The projected antenna has been intended and modelled in CST Microwave Studio 2014. This antenna resonates at frequency of 7.94 GHz with the minimal return loss of −81.25 dB, high gain of 8.5 dB and directivity of 8.12 dBi. The Designed antenna can be suitably employed for X-band applications-military, satellite to earth downlink, earth to satellite uplink, radio determination and ultra-wide band applications. The antenna has been fabricated and efficaciously tested using E5071C network analyser and anechoic chamber. It has been observed that the practical results closely match with the simulated results.

  • High gain substrate slotted microstrip patch antenna Design for X-band satellite uplink applications
    2016 Progress in Electromagnetic Research Symposium (PIERS), 2016
    Co-Authors: Divesh Mittal, Raveena Bhatoa, Anshula Garg, Avneet Kaur, Maninder Singh, Roopan, Ekambir Sidhu
    Abstract:

    This paper presents high gain substrate slotted microstrip patch antenna Design for X-band satellite applications. The proposed antenna has been Designed by using the substrate of Flame Retardant 4 (FR4) having dielectric constant e r of 4.4. The ground, patch and the feedline are made of copper material having thickness of 0.02mm and conductivity of 5.58 × 106 Siemens/m. The proposed antenna has been fed through microstrip feedline via impedance transformer. The impedance transformer has been used to match the impedance of proposed antenna to 50Ω impedance of the SMA connector used to feed power to the Designed antenna. The proposed antenna has been Designed and simulated using CST Microwave Studio 2014. The proposed antenna covers the X-band satellite uplink (7.9 GHz–8.4 GHz) frequency band making it suitable to be employed for satellite communication applications. Apart, the proposed antenna finds its applications in indoor location and RFID tag (tracking equipment) applications. The simulated antenna Design has been practically fabricated and tested by using Network Analyser E5071C and anechoic chamber. It has been observed that the practical results closely match with the simulated antenna results, thus signifying that the proposed antenna Design can be feasibly employed for proposed applications.

  • High gain substrate slotted microstrip patch antenna Design for X-band satellite uplink applications
    2016 Progress in Electromagnetic Research Symposium (PIERS), 2016
    Co-Authors: Divesh Mittal, Raveena Bhatoa, Anshula Garg, Avneet Kaur, Maninder Singh, Ekambir Sidhu
    Abstract:

    This paper presents high gain substrate slotted microstrip patch antenna Design for X-band satellite applications. The proposed antenna has been Designed by using the substrate of Flame Retardant 4 (FR4) having dielectric constant εr of 4.4. The ground, patch and the feedline are made of copper material having thickness of 0.02mm and conductivity of 5.58 × 106 Siemens/m. The proposed antenna has been fed through microstrip feedline via impedance transformer. The impedance transformer has been used to match the impedance of proposed antenna to 50Ω impedance of the SMA connector used to feed power to the Designed antenna. The proposed antenna has been Designed and simulated using CST Microwave Studio 2014. The proposed antenna covers the X-band satellite uplink (7.9 GHz-8.4 GHz) frequency band making it suitable to be employed for satellite communication applications. Apart, the proposed antenna finds its applications in indoor location and RFID tag (tracking equipment) applications. The simulated antenna Design has been practically fabricated and tested by using Network Analyser E5071C and anechoic chamber. It has been observed that the practical results closely match with the simulated antenna results, thus signifying that the proposed antenna Design can be feasibly employed for proposed applications.

  • High gain blind hole substrate slotted Microstrip Patch Antenna Design for X-band applications
    2016 International Conference on Automatic Control and Dynamic Optimization Techniques (ICACDOT), 2016
    Co-Authors: Divesh Mittal, Avneet Kaur, Aman Nag, Ekambir Sidhu
    Abstract:

    This paper concentrates on the Design and performance analysis of blind hole substrate slotted microstrip patch antenna Design for X-band applications. The anticipated antenna has been Designed using Flame Retardant 4 (FR4) substrate of dielectric constant, εr of 4.4 sandwiched between copper patch and ground plane. The intended antenna has compact area with impedance bandwidth of 560 MHz (7.67 GHz- 8.22 GHz). The antenna has been fed through microstrip feedline via impedance transformer to equate the impedance of proposed antenna with the 50Ω impedance of co-aXial SMA connector used for practically feeding power to the antenna. The antenna operation has been scrutinized in terms of gain (dB), return loss (dB), directivity (dBi), bandwidth (MHz) and VSWR. The projected antenna has been intended and modelled in CST Microwave Studio 2014. This antenna resonates at frequency of 7.94 GHz with the minimal return loss of -81.25 dB, high gain of 8.5 dB and directivity of 8.12 dBi. The Designed antenna can be suitably employed for X-band applications-military, satellite to earth downlink, earth to satellite uplink, radio determination and ultra-wide band applications. The antenna has been fabricated and efficaciously tested using E5071C network analyser and anechoic chamber. It has been observed that the practical results closely match with the simulated results.

Divesh Mittal - One of the best experts on this subject based on the ideXlab platform.

  • High gain blind hole substrate slotted Microstrip Patch Antenna Design for X-band applications
    2016 International Conference on Automatic Control and Dynamic Optimization Techniques (ICACDOT), 2016
    Co-Authors: Divesh Mittal, Avneet Kaur, Ekambir Sidhu
    Abstract:

    This paper concentrates on the Design and performance analysis of blind hole substrate slotted microstrip patch antenna Design for X-band applications. The anticipated antenna has been Designed using Flame Retardant 4 (FR4) substrate of dielectric constant, e r of 4.4 sandwiched between copper patch and ground plane. The intended antenna has compact area with impedance bandwidth of 560 MHz (7.67 GHz– 8.22 GHz). The antenna has been fed through microstrip feedline via impedance transformer to equate the impedance of proposed antenna with the 50Ω impedance of co-aXial SMA connector used for practically feeding power to the antenna. The antenna operation has been scrutinized in terms of gain (dB), return loss (dB), directivity (dBi), bandwidth (MHz) and VSWR. The projected antenna has been intended and modelled in CST Microwave Studio 2014. This antenna resonates at frequency of 7.94 GHz with the minimal return loss of −81.25 dB, high gain of 8.5 dB and directivity of 8.12 dBi. The Designed antenna can be suitably employed for X-band applications-military, satellite to earth downlink, earth to satellite uplink, radio determination and ultra-wide band applications. The antenna has been fabricated and efficaciously tested using E5071C network analyser and anechoic chamber. It has been observed that the practical results closely match with the simulated results.

  • High gain substrate slotted microstrip patch antenna Design for X-band satellite uplink applications
    2016 Progress in Electromagnetic Research Symposium (PIERS), 2016
    Co-Authors: Divesh Mittal, Raveena Bhatoa, Anshula Garg, Avneet Kaur, Maninder Singh, Roopan, Ekambir Sidhu
    Abstract:

    This paper presents high gain substrate slotted microstrip patch antenna Design for X-band satellite applications. The proposed antenna has been Designed by using the substrate of Flame Retardant 4 (FR4) having dielectric constant e r of 4.4. The ground, patch and the feedline are made of copper material having thickness of 0.02mm and conductivity of 5.58 × 106 Siemens/m. The proposed antenna has been fed through microstrip feedline via impedance transformer. The impedance transformer has been used to match the impedance of proposed antenna to 50Ω impedance of the SMA connector used to feed power to the Designed antenna. The proposed antenna has been Designed and simulated using CST Microwave Studio 2014. The proposed antenna covers the X-band satellite uplink (7.9 GHz–8.4 GHz) frequency band making it suitable to be employed for satellite communication applications. Apart, the proposed antenna finds its applications in indoor location and RFID tag (tracking equipment) applications. The simulated antenna Design has been practically fabricated and tested by using Network Analyser E5071C and anechoic chamber. It has been observed that the practical results closely match with the simulated antenna results, thus signifying that the proposed antenna Design can be feasibly employed for proposed applications.

  • High gain substrate slotted microstrip patch antenna Design for X-band satellite uplink applications
    2016 Progress in Electromagnetic Research Symposium (PIERS), 2016
    Co-Authors: Divesh Mittal, Raveena Bhatoa, Anshula Garg, Avneet Kaur, Maninder Singh, Ekambir Sidhu
    Abstract:

    This paper presents high gain substrate slotted microstrip patch antenna Design for X-band satellite applications. The proposed antenna has been Designed by using the substrate of Flame Retardant 4 (FR4) having dielectric constant εr of 4.4. The ground, patch and the feedline are made of copper material having thickness of 0.02mm and conductivity of 5.58 × 106 Siemens/m. The proposed antenna has been fed through microstrip feedline via impedance transformer. The impedance transformer has been used to match the impedance of proposed antenna to 50Ω impedance of the SMA connector used to feed power to the Designed antenna. The proposed antenna has been Designed and simulated using CST Microwave Studio 2014. The proposed antenna covers the X-band satellite uplink (7.9 GHz-8.4 GHz) frequency band making it suitable to be employed for satellite communication applications. Apart, the proposed antenna finds its applications in indoor location and RFID tag (tracking equipment) applications. The simulated antenna Design has been practically fabricated and tested by using Network Analyser E5071C and anechoic chamber. It has been observed that the practical results closely match with the simulated antenna results, thus signifying that the proposed antenna Design can be feasibly employed for proposed applications.

  • High gain blind hole substrate slotted Microstrip Patch Antenna Design for X-band applications
    2016 International Conference on Automatic Control and Dynamic Optimization Techniques (ICACDOT), 2016
    Co-Authors: Divesh Mittal, Avneet Kaur, Aman Nag, Ekambir Sidhu
    Abstract:

    This paper concentrates on the Design and performance analysis of blind hole substrate slotted microstrip patch antenna Design for X-band applications. The anticipated antenna has been Designed using Flame Retardant 4 (FR4) substrate of dielectric constant, εr of 4.4 sandwiched between copper patch and ground plane. The intended antenna has compact area with impedance bandwidth of 560 MHz (7.67 GHz- 8.22 GHz). The antenna has been fed through microstrip feedline via impedance transformer to equate the impedance of proposed antenna with the 50Ω impedance of co-aXial SMA connector used for practically feeding power to the antenna. The antenna operation has been scrutinized in terms of gain (dB), return loss (dB), directivity (dBi), bandwidth (MHz) and VSWR. The projected antenna has been intended and modelled in CST Microwave Studio 2014. This antenna resonates at frequency of 7.94 GHz with the minimal return loss of -81.25 dB, high gain of 8.5 dB and directivity of 8.12 dBi. The Designed antenna can be suitably employed for X-band applications-military, satellite to earth downlink, earth to satellite uplink, radio determination and ultra-wide band applications. The antenna has been fabricated and efficaciously tested using E5071C network analyser and anechoic chamber. It has been observed that the practical results closely match with the simulated results.

Avneet Kaur - One of the best experts on this subject based on the ideXlab platform.

  • High gain blind hole substrate slotted Microstrip Patch Antenna Design for X-band applications
    2016 International Conference on Automatic Control and Dynamic Optimization Techniques (ICACDOT), 2016
    Co-Authors: Divesh Mittal, Avneet Kaur, Ekambir Sidhu
    Abstract:

    This paper concentrates on the Design and performance analysis of blind hole substrate slotted microstrip patch antenna Design for X-band applications. The anticipated antenna has been Designed using Flame Retardant 4 (FR4) substrate of dielectric constant, e r of 4.4 sandwiched between copper patch and ground plane. The intended antenna has compact area with impedance bandwidth of 560 MHz (7.67 GHz– 8.22 GHz). The antenna has been fed through microstrip feedline via impedance transformer to equate the impedance of proposed antenna with the 50Ω impedance of co-aXial SMA connector used for practically feeding power to the antenna. The antenna operation has been scrutinized in terms of gain (dB), return loss (dB), directivity (dBi), bandwidth (MHz) and VSWR. The projected antenna has been intended and modelled in CST Microwave Studio 2014. This antenna resonates at frequency of 7.94 GHz with the minimal return loss of −81.25 dB, high gain of 8.5 dB and directivity of 8.12 dBi. The Designed antenna can be suitably employed for X-band applications-military, satellite to earth downlink, earth to satellite uplink, radio determination and ultra-wide band applications. The antenna has been fabricated and efficaciously tested using E5071C network analyser and anechoic chamber. It has been observed that the practical results closely match with the simulated results.

  • High gain substrate slotted microstrip patch antenna Design for X-band satellite uplink applications
    2016 Progress in Electromagnetic Research Symposium (PIERS), 2016
    Co-Authors: Divesh Mittal, Raveena Bhatoa, Anshula Garg, Avneet Kaur, Maninder Singh, Roopan, Ekambir Sidhu
    Abstract:

    This paper presents high gain substrate slotted microstrip patch antenna Design for X-band satellite applications. The proposed antenna has been Designed by using the substrate of Flame Retardant 4 (FR4) having dielectric constant e r of 4.4. The ground, patch and the feedline are made of copper material having thickness of 0.02mm and conductivity of 5.58 × 106 Siemens/m. The proposed antenna has been fed through microstrip feedline via impedance transformer. The impedance transformer has been used to match the impedance of proposed antenna to 50Ω impedance of the SMA connector used to feed power to the Designed antenna. The proposed antenna has been Designed and simulated using CST Microwave Studio 2014. The proposed antenna covers the X-band satellite uplink (7.9 GHz–8.4 GHz) frequency band making it suitable to be employed for satellite communication applications. Apart, the proposed antenna finds its applications in indoor location and RFID tag (tracking equipment) applications. The simulated antenna Design has been practically fabricated and tested by using Network Analyser E5071C and anechoic chamber. It has been observed that the practical results closely match with the simulated antenna results, thus signifying that the proposed antenna Design can be feasibly employed for proposed applications.

  • High gain substrate slotted microstrip patch antenna Design for X-band satellite uplink applications
    2016 Progress in Electromagnetic Research Symposium (PIERS), 2016
    Co-Authors: Divesh Mittal, Raveena Bhatoa, Anshula Garg, Avneet Kaur, Maninder Singh, Ekambir Sidhu
    Abstract:

    This paper presents high gain substrate slotted microstrip patch antenna Design for X-band satellite applications. The proposed antenna has been Designed by using the substrate of Flame Retardant 4 (FR4) having dielectric constant εr of 4.4. The ground, patch and the feedline are made of copper material having thickness of 0.02mm and conductivity of 5.58 × 106 Siemens/m. The proposed antenna has been fed through microstrip feedline via impedance transformer. The impedance transformer has been used to match the impedance of proposed antenna to 50Ω impedance of the SMA connector used to feed power to the Designed antenna. The proposed antenna has been Designed and simulated using CST Microwave Studio 2014. The proposed antenna covers the X-band satellite uplink (7.9 GHz-8.4 GHz) frequency band making it suitable to be employed for satellite communication applications. Apart, the proposed antenna finds its applications in indoor location and RFID tag (tracking equipment) applications. The simulated antenna Design has been practically fabricated and tested by using Network Analyser E5071C and anechoic chamber. It has been observed that the practical results closely match with the simulated antenna results, thus signifying that the proposed antenna Design can be feasibly employed for proposed applications.

  • High gain blind hole substrate slotted Microstrip Patch Antenna Design for X-band applications
    2016 International Conference on Automatic Control and Dynamic Optimization Techniques (ICACDOT), 2016
    Co-Authors: Divesh Mittal, Avneet Kaur, Aman Nag, Ekambir Sidhu
    Abstract:

    This paper concentrates on the Design and performance analysis of blind hole substrate slotted microstrip patch antenna Design for X-band applications. The anticipated antenna has been Designed using Flame Retardant 4 (FR4) substrate of dielectric constant, εr of 4.4 sandwiched between copper patch and ground plane. The intended antenna has compact area with impedance bandwidth of 560 MHz (7.67 GHz- 8.22 GHz). The antenna has been fed through microstrip feedline via impedance transformer to equate the impedance of proposed antenna with the 50Ω impedance of co-aXial SMA connector used for practically feeding power to the antenna. The antenna operation has been scrutinized in terms of gain (dB), return loss (dB), directivity (dBi), bandwidth (MHz) and VSWR. The projected antenna has been intended and modelled in CST Microwave Studio 2014. This antenna resonates at frequency of 7.94 GHz with the minimal return loss of -81.25 dB, high gain of 8.5 dB and directivity of 8.12 dBi. The Designed antenna can be suitably employed for X-band applications-military, satellite to earth downlink, earth to satellite uplink, radio determination and ultra-wide band applications. The antenna has been fabricated and efficaciously tested using E5071C network analyser and anechoic chamber. It has been observed that the practical results closely match with the simulated results.

George Q. Huang - One of the best experts on this subject based on the ideXlab platform.

  • Synchronised Design for X platform for performance measurement on the WWW
    International Journal of Technology Management, 2003
    Co-Authors: George Q. Huang
    Abstract:

    This paper is concerned with establishing a synchronised Design for X (DFX) platform for various performance measurement (PM) tools that can be used by a variety of users on the Internet to evaluate various product Designs, through the standard web browser. Four assistant facilities are contained in the platform. The first one is used to capture the product-related data. The second offers the user the process improvement information. The third provides measurement information of the interaction between process activities and product elements. The last one is an integrative worksheet displaying performance measurement results. To coordinate various users of the system, issues of synchronisation control and conflict resolution are taken into consideration. Finally, a case study is introduced to see how a Design for Disassembly (DFD) tool can be used in the platform with collaborations among users.

  • Synchronized system for “Design for X” guidelines over the WWW
    Journal of Materials Processing Technology, 2000
    Co-Authors: George Q. Huang
    Abstract:

    Abstract This paper presents a Web-based and synchronized system to provide Design for X guidelines on the Internet. The system introduces a new guideline data model to build up the system database and uses the ActiveX technology to provide the dynamic and interactive Web pages. Two operation modes are available in the system. One is for the user to select and apply guidelines to assist their product Design. The other is for the user to compile new guidelines. A synchronization facility is provided for the system to send up-to-date information to all online users synchronously.

  • Web-based product and process data modelling in concurrent “Design for X”
    Robotics and Computer-integrated Manufacturing, 1999
    Co-Authors: George Q. Huang
    Abstract:

    Abstract This paper is concerned with employing the web technology for concurrent modelling of product and process data on the Internet. This is one of the essential tasks of an attempt to develop a generic web-based Design for X (DFX) shell which can be tailored or eXtended to develop and apply a variety of DFX tools easily, quickly and consistently. The emphasis is placed on the use of a number of formal but pragmatic constructs. Bills of materials are used to describe and analyse the overall product structure and characteristics. Flow process charts are used to describe and analyse the overall process structure and characteristics. Standard operation process charts are modified to describe and analyse the interactions between the overall product and process structures. These concepts have already been widely used by practitioners or at least are familiar to various personnel involved in product development. They are coded as reusable ActiveX components that can be easily deployed in the DFX shell.

  • The DFX shell: A generic framework for applying ‘Design for X’ (DFX) tools
    International Journal of Computer Integrated Manufacturing, 1998
    Co-Authors: George Q. Huang
    Abstract:

    The 'Design for X' (DFX) shell is a generic platform which can be easily eXtended or tailored to develop a variety of DFX tools quickly and consistently. Resulting DFX tools share a high degree of commonality and consistence essential for rapid implementation, integration and trade-off analysis. The aim of this paper is to demonstrate how DFX tools basically work through a general procedure. Seven steps are involved, each corresponding to a major DFX function and addressing associated important issues. This DFX procedure is then placed in a wider conteXt of Business Process Reengineering (BPR) to maXimize its effectiveness in transforming product development from a problem-prone sequential engineering environment to a problem-free concurrent engineering environment.

  • The DFX shell: A generic framework for developing Design for X tools
    Robotics and Computer-integrated Manufacturing, 1997
    Co-Authors: George Q. Huang
    Abstract:

    Abstract The Design for X (DFX) shell is a generic framework which can be easily eXtended or tailored to develop a variety of DFX tools quickly with consistent quality. A number of formal but pragmatic constructs are provided. Bills of materials are used to describe and analyse the overall product structure and product characteristics. Flow process charts are used to describe and analyse the overall process structure and process characteristics in relation to individual product elements. Standard operation process charts are modified to describe and analyse the overall process structure in relation to the product structure. Appropriate performance measures are used to evaluate the interactions between the elements of products, processes and resources. This paper discusses a systematic DFX development procedure. The DFX development procedure consists of seven steps, and each step focuses on a major building block of the DFX shell.

Maninder Singh - One of the best experts on this subject based on the ideXlab platform.

  • High gain substrate slotted microstrip patch antenna Design for X-band satellite uplink applications
    2016 Progress in Electromagnetic Research Symposium (PIERS), 2016
    Co-Authors: Divesh Mittal, Raveena Bhatoa, Anshula Garg, Avneet Kaur, Maninder Singh, Roopan, Ekambir Sidhu
    Abstract:

    This paper presents high gain substrate slotted microstrip patch antenna Design for X-band satellite applications. The proposed antenna has been Designed by using the substrate of Flame Retardant 4 (FR4) having dielectric constant e r of 4.4. The ground, patch and the feedline are made of copper material having thickness of 0.02mm and conductivity of 5.58 × 106 Siemens/m. The proposed antenna has been fed through microstrip feedline via impedance transformer. The impedance transformer has been used to match the impedance of proposed antenna to 50Ω impedance of the SMA connector used to feed power to the Designed antenna. The proposed antenna has been Designed and simulated using CST Microwave Studio 2014. The proposed antenna covers the X-band satellite uplink (7.9 GHz–8.4 GHz) frequency band making it suitable to be employed for satellite communication applications. Apart, the proposed antenna finds its applications in indoor location and RFID tag (tracking equipment) applications. The simulated antenna Design has been practically fabricated and tested by using Network Analyser E5071C and anechoic chamber. It has been observed that the practical results closely match with the simulated antenna results, thus signifying that the proposed antenna Design can be feasibly employed for proposed applications.

  • High gain substrate slotted microstrip patch antenna Design for X-band satellite uplink applications
    2016 Progress in Electromagnetic Research Symposium (PIERS), 2016
    Co-Authors: Divesh Mittal, Raveena Bhatoa, Anshula Garg, Avneet Kaur, Maninder Singh, Ekambir Sidhu
    Abstract:

    This paper presents high gain substrate slotted microstrip patch antenna Design for X-band satellite applications. The proposed antenna has been Designed by using the substrate of Flame Retardant 4 (FR4) having dielectric constant εr of 4.4. The ground, patch and the feedline are made of copper material having thickness of 0.02mm and conductivity of 5.58 × 106 Siemens/m. The proposed antenna has been fed through microstrip feedline via impedance transformer. The impedance transformer has been used to match the impedance of proposed antenna to 50Ω impedance of the SMA connector used to feed power to the Designed antenna. The proposed antenna has been Designed and simulated using CST Microwave Studio 2014. The proposed antenna covers the X-band satellite uplink (7.9 GHz-8.4 GHz) frequency band making it suitable to be employed for satellite communication applications. Apart, the proposed antenna finds its applications in indoor location and RFID tag (tracking equipment) applications. The simulated antenna Design has been practically fabricated and tested by using Network Analyser E5071C and anechoic chamber. It has been observed that the practical results closely match with the simulated antenna results, thus signifying that the proposed antenna Design can be feasibly employed for proposed applications.