【内容は】奢り奢られオフ21.5【相談】
On-line music distributors are hesitant to release music in MP3 format,
as this standard is an open-format and piracy of copyrighted music may
be facilitated. Instead, they pre fer to use proprietary formats and
proprietary DRM sys tems. Users do not like this approach, as it
limits the e music flexibility without giving any benefit. In this
paper we propose an alternative that enables vendors to securely
distribute open-formats and users to have benefits from us ing
legal media copies. In particular, we propose to se curely enrich
and distribute MP3 files with multimedia con tents and to adopt
security mechanisms transparent to users to protect vendors'
rights. No restriction is set on the MP3 audio play out, but
only a legitimate MP3 owner can use both audio and multimedia
contents; a non legitimate MP3 owner can still enjoy the audio
portion, but no more than that. This way, users are stimulated
to avoid music piracy.
as this standard is an open-format and piracy of copyrighted music may
be facilitated. Instead, they pre fer to use proprietary formats and
proprietary DRM sys tems. Users do not like this approach, as it
limits the e music flexibility without giving any benefit. In this
paper we propose an alternative that enables vendors to securely
distribute open-formats and users to have benefits from us ing
legal media copies. In particular, we propose to se curely enrich
and distribute MP3 files with multimedia con tents and to adopt
security mechanisms transparent to users to protect vendors'
rights. No restriction is set on the MP3 audio play out, but
only a legitimate MP3 owner can use both audio and multimedia
contents; a non legitimate MP3 owner can still enjoy the audio
portion, but no more than that. This way, users are stimulated
to avoid music piracy.
953 ：名無しさん：2006/08/06(日) 14:25:37 ID:FI+HUaoQ0
NMr6qqf50
は釣られたはらいせか？
は釣られたはらいせか？
954 ：trivia of sazan：2006/08/06(日) 14:27:55 ID:rEg8IBCn0
|ヽ＿/ l
〈;;;(帝);;;〉
（ ^ω^ ）
／⌒ く ∫
〈 ( |二つ━・. 〈ヨ E〉
ヽ_つ ｜ ; ｜ ｜
| i l ＼ _, ､_ ／
| ｜ | （ ´∀`）
| ｜ | /´￣´ヽ
L＿） _） _| |_
━ おまわりさん ━━━━━━━━━━━ ━ がおー ━━━━━━━━━━━
〈;;;(帝);;;〉
（ ^ω^ ）
／⌒ く ∫
〈 ( |二つ━・. 〈ヨ E〉
ヽ_つ ｜ ; ｜ ｜
| i l ＼ _, ､_ ／
| ｜ | （ ´∀`）
| ｜ | /´￣´ヽ
L＿） _） _| |_
━ おまわりさん ━━━━━━━━━━━ ━ がおー ━━━━━━━━━━━
955 ：trivia of sazan：2006/08/06(日) 14:29:03 ID:rEg8IBCn0
|ヽ＿/ l
〈;;;(帝);;;〉
（ ^ω^ ）
／⌒ く ∫
〈 ( |二つ━・. 〈ヨ E〉
ヽ_つ ｜ ; ｜ ｜
| i l ＼ _, ､_ ／
| ｜ | （ ´∀`）
| ｜ | /´￣´ヽ
L＿） _） _| |_
━ おまわりさん ━━━━━━━━━━━ ━ がおー ━━━━━━━━━━━
〈;;;(帝);;;〉
（ ^ω^ ）
／⌒ く ∫
〈 ( |二つ━・. 〈ヨ E〉
ヽ_つ ｜ ; ｜ ｜
| i l ＼ _, ､_ ／
| ｜ | （ ´∀`）
| ｜ | /´￣´ヽ
L＿） _） _| |_
━ おまわりさん ━━━━━━━━━━━ ━ がおー ━━━━━━━━━━━
On-line music distributors are hesitant to release music in MP3 format,
as this standard is an open-format and piracy of copyrighted music may
be facilitated. Instead, they pre fer to use proprietary formats and
proprietary DRM sys tems. Users do not like this approach, as it
limits the e music flexibility without giving any benefit. In this
paper we propose an alternative that enables vendors to securely
distribute open-formats and users to have benefits from us ing
legal media copies. In particular, we propose to se curely enrich
and distribute MP3 files with multimedia con tents and to adopt
security mechanisms transparent to users to protect vendors'
rights. No restriction is set on the MP3 audio play out, but
only a legitimate MP3 owner can use both audio and multimedia
contents; a non legitimate MP3 owner can still enjoy the audio
portion, but no more than that. This way, users are stimulated
to avoid music piracy.
as this standard is an open-format and piracy of copyrighted music may
be facilitated. Instead, they pre fer to use proprietary formats and
proprietary DRM sys tems. Users do not like this approach, as it
limits the e music flexibility without giving any benefit. In this
paper we propose an alternative that enables vendors to securely
distribute open-formats and users to have benefits from us ing
legal media copies. In particular, we propose to se curely enrich
and distribute MP3 files with multimedia con tents and to adopt
security mechanisms transparent to users to protect vendors'
rights. No restriction is set on the MP3 audio play out, but
only a legitimate MP3 owner can use both audio and multimedia
contents; a non legitimate MP3 owner can still enjoy the audio
portion, but no more than that. This way, users are stimulated
to avoid music piracy.
957 ：trivia of sazan：2006/08/06(日) 14:29:54 ID:rEg8IBCn0
|ヽ＿/ l
〈;;;(帝);;;〉
（ ^ω^ ）
／⌒ く ∫
〈 ( |二つ━・. 〈ヨ E〉
ヽ_つ ｜ ; ｜ ｜
| i l ＼ _, ､_ ／
| ｜ | （ ´∀`）
| ｜ | /´￣´ヽ
L＿） _） _| |_
━ おまわりさん ━━━━━━━━━━━ ━ がおー ━━━━━━━━━━━
〈;;;(帝);;;〉
（ ^ω^ ）
／⌒ く ∫
〈 ( |二つ━・. 〈ヨ E〉
ヽ_つ ｜ ; ｜ ｜
| i l ＼ _, ､_ ／
| ｜ | （ ´∀`）
| ｜ | /´￣´ヽ
L＿） _） _| |_
━ おまわりさん ━━━━━━━━━━━ ━ がおー ━━━━━━━━━━━
958 ：It's coooool!!：2006/08/06(日) 14:30:27 ID:NMr6qqf50
On-line music distributors are hesitant to release music in MP3 format,
as this standard is an open-format and piracy of copyrighted music may
be facilitated. Instead, they pre fer to use proprietary formats and
proprietary DRM sys tems. Users do not like this approach, as it
limits the e music flexibility without giving any benefit. In this
paper we propose an alternative that enables vendors to securely
distribute open-formats and users to have benefits from us ing
legal media copies. In particular, we propose to se curely enrich
and distribute MP3 files with multimedia con tents and to adopt
security mechanisms transparent to users to protect vendors'
rights. No restriction is set on the MP3 audio play out, but
only a legitimate MP3 owner can use both audio and multimedia
contents; a non legitimate MP3 owner can still enjoy the audio
portion, but no more than that. This way, users are stimulated
to avoid music piracy.
as this standard is an open-format and piracy of copyrighted music may
be facilitated. Instead, they pre fer to use proprietary formats and
proprietary DRM sys tems. Users do not like this approach, as it
limits the e music flexibility without giving any benefit. In this
paper we propose an alternative that enables vendors to securely
distribute open-formats and users to have benefits from us ing
legal media copies. In particular, we propose to se curely enrich
and distribute MP3 files with multimedia con tents and to adopt
security mechanisms transparent to users to protect vendors'
rights. No restriction is set on the MP3 audio play out, but
only a legitimate MP3 owner can use both audio and multimedia
contents; a non legitimate MP3 owner can still enjoy the audio
portion, but no more than that. This way, users are stimulated
to avoid music piracy.
959 ：名無しさん：2006/08/06(日) 14:30:32 ID:PGPrKHz5O
On-line music distributors are hesitant to release music in MP3 format,
as this standard is an open-format and piracy of copyrighted music may
be facilitated. Instead, they pre fer to use proprietary formats and
proprietary DRM sys tems. Users do not like this approach, as it
limits the e music flexibility without giving any benefit. In this
paper we propose an alternative that enables vendors to securely
distribute open-formats and users to have benefits from us ing
legal media copies. In particular, we propose to se curely enrich
and distribute MP3 files with multimedia con tents and to adopt
security mechanisms transparent to users to protect vendors'
rights. No restriction is set on the MP3 audio play out, but
only a legitimate MP3 owner can use both audio and multimedia
contents; a non legitimate MP3 owner can still enjoy the audio
portion, but no more than that. This way, users are stimulated
to avoid music piracy.
as this standard is an open-format and piracy of copyrighted music may
be facilitated. Instead, they pre fer to use proprietary formats and
proprietary DRM sys tems. Users do not like this approach, as it
limits the e music flexibility without giving any benefit. In this
paper we propose an alternative that enables vendors to securely
distribute open-formats and users to have benefits from us ing
legal media copies. In particular, we propose to se curely enrich
and distribute MP3 files with multimedia con tents and to adopt
security mechanisms transparent to users to protect vendors'
rights. No restriction is set on the MP3 audio play out, but
only a legitimate MP3 owner can use both audio and multimedia
contents; a non legitimate MP3 owner can still enjoy the audio
portion, but no more than that. This way, users are stimulated
to avoid music piracy.
On-line music distributors are hesitant to release music in MP3 format,
as this standard is an open-format and piracy of copyrighted music may
be facilitated. Instead, they pre fer to use proprietary formats and
proprietary DRM sys tems. Users do not like this approach, as it
limits the e music flexibility without giving any benefit. In this
paper we propose an alternative that enables vendors to securely
distribute open-formats and users to have benefits from us ing
legal media copies. In particular, we propose to se curely enrich
and distribute MP3 files with multimedia con tents and to adopt
security mechanisms transparent to users to protect vendors'
rights. No restriction is set on the MP3 audio play out, but
only a legitimate MP3 owner can use both audio and multimedia
contents; a non legitimate MP3 owner can still enjoy the audio
portion, but no more than that. This way, users are stimulated
to avoid music piracy.
as this standard is an open-format and piracy of copyrighted music may
be facilitated. Instead, they pre fer to use proprietary formats and
proprietary DRM sys tems. Users do not like this approach, as it
limits the e music flexibility without giving any benefit. In this
paper we propose an alternative that enables vendors to securely
distribute open-formats and users to have benefits from us ing
legal media copies. In particular, we propose to se curely enrich
and distribute MP3 files with multimedia con tents and to adopt
security mechanisms transparent to users to protect vendors'
rights. No restriction is set on the MP3 audio play out, but
only a legitimate MP3 owner can use both audio and multimedia
contents; a non legitimate MP3 owner can still enjoy the audio
portion, but no more than that. This way, users are stimulated
to avoid music piracy.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
964 ：come on!!trivia!!：2006/08/06(日) 14:41:21 ID:NMr6qqf50
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
994 ：sagebrush：2006/08/06(日) 15:33:12 ID:NMr6qqf50
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
995 ：sagebrush：2006/08/06(日) 15:33:59 ID:NMr6qqf50
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
996 ：sagebrush：2006/08/06(日) 15:37:56 ID:NMr6qqf50
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
997 ：sagebrush：2006/08/06(日) 15:39:55 ID:NMr6qqf50
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
998 ：sagebrush：2006/08/06(日) 15:41:02 ID:NMr6qqf50
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
999 ：sagebrush：2006/08/06(日) 15:44:22 ID:NMr6qqf50
The proliferation of line connected electronic equipment using sinle phase
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
rectifiers to process the ac input power has resulted in two concerns: the
poor powerfactor of the typical rectifier and the harmonic content of its ac
line current. Poor powerfactor translates into poor utilisation of the available current
carrying capacity of the ac distributed system. High harmonic content in the
line current frequently causes mutual interference among line connected equipment,
especially on a 'weak' system and degrades the Power Quality (PQ). Hence, this
paper presents the design and simulation of a novel single stage, single switch,
Boost cell type AC-DC converter with active Power Factor Correction (PFC) to
enrich power quality. Average current-mode control technique has been used for
active current shaping in the proposed system which has the advantages of fast
current tracking and constant switching frequency. A comparison is made for
AC-DC converter with and without PFC circuitry with respect to imput power
factor and total harmonic distortion (THD) of the input current. The simulation
result validates the effectiveness of the proposed control scheme. The proposed
active power factor corrected rectifier finds applications in low-power,
low-cost system and also it enhances the power quality.
1000 ：名無しさん：2006/08/06(日) 15:44:51 ID:M8Peed6t0
１０００だったら運営も売春容認
1001 ：１００１：
このスレッドは１０００を超えました。
もう書けないので、新しいスレッドを立ててくださいです。。。
もう書けないので、新しいスレッドを立ててくださいです。。。