Lirik Lagu Aishiteru-Zhifilia Band
Menunggu sesuatu yang sangat menyebalkan bagiku
Saat ku harus bersabar dan trus bersabar
Menantikan kehadiran dirimu
Entah sampai kapan aku harus menunggu
Sesuatu yang sangat sulit tuk ku jalani
Hidup dalam kesendirian sepi tanpamu
Kadang ku berfikir cari penggantimu
Saat kau jauh disana
Walau raga kita terpisah jauh
Namun hati kita selalu dekat
Bila kau riduku pejamkan matamu
dan rasakan a a a aku
Kekuatan cinta kita takkan pernah rapuh
terhapus ruang dan waktu
Percayakan kesetiaan ini
berkat ketulusan a a ai aishiteru
Gelisah sesaat saja tiada kabarmu kucuriga
entah penantianku takkan sia-sia
dan berikan satu jawaban pasti
entah sampai kapan aku harus bertahan
saat kau jauh disana rasa cemburu
merasuk kedalam pikiran ku melayang
tak tentu arah tentang dirimu
apakah sama yang kau rasakan
Walau raga kita terpisah jauh
Namun hati kita selalu dekat
Bila kau riduku pejamkan matamu
dan rasakan a a a aku
Kekuatan cinta kita takkan pernah rapuh
terhapus ruang dan waktu
Percayakan kesetiaan ini
berkat ketulusan a a a aishiteru
Saat ku sendiri pikiran melayang terbang
Prasan resah gelisah jalani kenyataan hidup tanpa gairah o u oo
Lupakan segala obsesi dan abmbisimu
Akhiri semuanya cukup sampai disini
dan buktikan pengorbanan cintamu padaku
Kumohon kau kembali
kimiga kumo kumii tenmo
kinoho boy ga shino ga ruta a
Shineteruyo shineteruyooo
Walau raga kita terpisah jauh
Namun hati kita selalu dekat
Bila kau riduku pejamkan matamu
dan rasakan a a a aku
Kekuatan cinta kita takkan pernah rapuh
terhapus ruang dan waktu
Percayakan kesetiaan ini
berkat ketulusan a a a aishiteru
wo wo wo
wo wo wo a a ai aishiteru
Thursday, June 30, 2011
.....
Lirik Cinta Teragung- Hazama
**
Maafkan aku sekiranya tak termampu
Untuk mencurahkan semua isi hatiku
Ternyata tak terkata
Rinduku padamu
Chorus
Ku takkan bisa menjadi lebih
Dari apa yang terdaya
Namun ku tetap berjanji
Akan masih mencuba untuk
Memujuk hatimu
Mencintai aku
Kerna semua yang ada
Hanyalah untukmu
Secebis perasaan ku hamparkan
Membawa sejuta harapan
Menagih cinta
Teragung darimu
Ulang Chorus
Maafkan aku sekiranya
Tak termampu untuk
Mencurahkan semua
Isi hatiku
**GONna MISs YOU BAD**
:(
**
Maafkan aku sekiranya tak termampu
Untuk mencurahkan semua isi hatiku
Ternyata tak terkata
Rinduku padamu
Chorus
Ku takkan bisa menjadi lebih
Dari apa yang terdaya
Namun ku tetap berjanji
Akan masih mencuba untuk
Memujuk hatimu
Mencintai aku
Kerna semua yang ada
Hanyalah untukmu
Secebis perasaan ku hamparkan
Membawa sejuta harapan
Menagih cinta
Teragung darimu
Ulang Chorus
Maafkan aku sekiranya
Tak termampu untuk
Mencurahkan semua
Isi hatiku
**GONna MISs YOU BAD**
:(
Tuesday, June 21, 2011
She is my special person.....
I LOVE U
Just three little words
don't seem like enough
for someone whose smile
still brightens my day,
whose touch can make me forget
the rest of the world.
They don't seem like enough
for someone who's always been there
to celebrate with me
when everything goes my way
and to hold my hand
when my whole world
seems to fall apart.
But even though "I Love You"
can't express the depth
of my feelings for you.
I hope you know what's in my heart.
Because loving you
means more to me
than anything in the world
and it always will.
Just three little words
don't seem like enough
for someone whose smile
still brightens my day,
whose touch can make me forget
the rest of the world.
They don't seem like enough
for someone who's always been there
to celebrate with me
when everything goes my way
and to hold my hand
when my whole world
seems to fall apart.
But even though "I Love You"
can't express the depth
of my feelings for you.
I hope you know what's in my heart.
Because loving you
means more to me
than anything in the world
and it always will.
Monday, June 20, 2011
BENDA-BENDA YANG MEMBUAT KAN AKU TAK TIDO!!!!!!
OHM'S LAW
1. Ohm's Law deals with the relationship between voltage and current in an ideal conductor. This relationship states that:
The potential difference (voltage) across an ideal conductor is proportional to the current through it.
The constant of proportionality is called the "resistance", R.
Ohm's Law is given by:
V = I R
where V is the potential difference between two points which include a resistance R. I is the current flowing through the resistance. For biological work, it is often preferable to use the conductance, g = 1/R; In this form Ohm's Law is:
I = g V
2. Material that obeys Ohm's Law is called "ohmic" or "linear" because the potential difference across it varies linearly with the current.
3. Ohm's Law can be used to solve simple circuits. A complete circuit is one which is a closed loop. It contains at least one source of voltage (thus providing an increase of potential energy), and at least one potential drop i.e., a place where potential energy decreases. The sum of the voltages around a complete circuit is zero.
4. An increase of potential energy in a circuit causes a charge to move from a lower to a higher potential (ie. voltage). Note the difference between potential energy and potential.
Because of the electrostatic force, which tries to move a positive charge from a higher to a lower potential, there must be another 'force' to move charge from a lower potential to a higher inside the battery. This so-called force is called the electromotive force, or emf. The SI unit for the emf is a volt (and thus this is not really a force, despite its name). We will use a script E, the symbol , to represent the emf.
A decrease of potential energy can occur by various means. For example, heat lost in a circuit due to some electrical resistance could be one source of energy drop.
Because energy is conserved, the potential difference across an emf must be equal to the potential difference across the rest of the circuit. That is, Ohm's Law will be satisfied:
= I R5.
Here is a nice simulated experiment on Ohm's Law for you to test your understanding of this concept. Use the "back" button to return to this place.
Active Devices
An active device is any type of circuit component with the ability to electrically control electron flow (electricity controlling electricity). In order for a circuit to be properly called electronic, it must contain at least one active device. Active devices include, but are not limited to, vacuum tubes, transistors, silicon-controlled rectifiers (SCRs), and TRIACs.
All active devices control the flow of electrons through them. Some active devices allow a voltage to control this current while other active devices allow another current to do the job. Devices utilizing a static voltage as the controlling signal are, not surprisingly, called voltage-controlled devices. Devices working on the principle of one current controlling another current are known as current-controlled devices. For the record, vacuum tubes are voltage-controlled devices while transistors are made as either voltage-controlled or current controlled types. The first type of transistor successfully demonstrated was a current-controlled device.
Passive Devices
Components incapable of controlling current by means of another electrical signal are called passive devices. Resistors, capacitors, inductors, transformers, and even diodes are all considered passive devices.
Passive devices are the resistors, capacitors, and inductors required to build electronic hardware. They always have a gain less than one, thus they can not oscillate or amplify a signal. A combination of passive components can multiply a signal by values less than one, they can shift the phase of a signal, they can reject a signal because it is not made up of the correct frequencies, they can control complex circuits, but they can not multiply by more than one because they lack gain.
Diodes
Diodes are basically a one-way valve for electrical current. They let it flow in one direction (from positive to negative) and not in the other direction. Most diodes are similar in appearance to a resistor and will have a painted line on one end showing the direction or flow (white side is negative). If the negative side is on the negative end of the circuit, current will flow. If the negative is on the positive side of the circuit no current will flow. More on diodes in later sections.
Transistors
A transistor is a semiconductor device, commonly used as an amplifier or an electrically controlled switch. The transistor is the fundamental building block of the circuitry in computers, cellular phones, and all other modern electronic devices.
Because of its fast response and accuracy, the transistor is used in a wide variety of digital and analog functions, including amplification, switching, voltage regulation, signal modulation, and oscillators. Transistors may be packaged individually or as part of an integrated circuit, some with over a billion transistors in a very small area - part of a trend of increasing transistor density known as Moore's Law.
Transistor stands for transit resistor, the temporary name, now permanent, that the inventors gave it. These semidconductors control the electrical current flowing between two terminals by applying voltage to a third terminal. You now have a minature switch, presenting either a freeway to electrons or a brick wall to them, depending on whether a signal voltage exists. Bulky mechanical relays that used to switch calls, like the crossbar shown above, could now be replaced with transistors. There's more.
Transistors amplify when built into a proper circuit. A weak signal can be boosted tremendously. Let's say you have ten watts flowing into one side of the transistor. Your current stops because silicon normally isn't a good conductor. You now introduce a signal into the middle of the transistor, say, at one watt. That changes the transistor's internal crystalline structure, causing the silicon to go from an insulator to a conductor. It now allows the larger current to go through, picking up your weak signal along the way, impressing it on the larger voltage. Your one watt signal is now a ten watt signal.
Transistors use the properties of semi-conductors, seemingly innocuous materials like geranium and now mostly silicon. Materials like silver and copper conduct electricity well. Rubber and porcelain conduct electricity poorly. The difference between electrical conductors and insulators is their molecular structure, the stuff that makes them up. Weight, size, or shape doesn't matter, it's how tightly the material holds on to its electrons, preventing them from freely flowing through its atoms.
There are two types of standard transistors, NPN and PNP, with different circuit symbols. The letters refer to the layers of semiconductor material used to make the transistor. Most transistors used today are NPN because this is the easiest type to make from silicon. If you are new to electronics it is best to start by learning how to use NPN transistors.
The leads are labelled base (B), collector (C) and emitter (E).
These terms refer to the internal operation of a transistor but they are not much help in understanding hjavascript:void(0)ow a transistor is used, so just treat them as labels.
1. Ohm's Law deals with the relationship between voltage and current in an ideal conductor. This relationship states that:
The potential difference (voltage) across an ideal conductor is proportional to the current through it.
The constant of proportionality is called the "resistance", R.
Ohm's Law is given by:
V = I R
where V is the potential difference between two points which include a resistance R. I is the current flowing through the resistance. For biological work, it is often preferable to use the conductance, g = 1/R; In this form Ohm's Law is:
I = g V
2. Material that obeys Ohm's Law is called "ohmic" or "linear" because the potential difference across it varies linearly with the current.
3. Ohm's Law can be used to solve simple circuits. A complete circuit is one which is a closed loop. It contains at least one source of voltage (thus providing an increase of potential energy), and at least one potential drop i.e., a place where potential energy decreases. The sum of the voltages around a complete circuit is zero.
4. An increase of potential energy in a circuit causes a charge to move from a lower to a higher potential (ie. voltage). Note the difference between potential energy and potential.
Because of the electrostatic force, which tries to move a positive charge from a higher to a lower potential, there must be another 'force' to move charge from a lower potential to a higher inside the battery. This so-called force is called the electromotive force, or emf. The SI unit for the emf is a volt (and thus this is not really a force, despite its name). We will use a script E, the symbol , to represent the emf.
A decrease of potential energy can occur by various means. For example, heat lost in a circuit due to some electrical resistance could be one source of energy drop.
Because energy is conserved, the potential difference across an emf must be equal to the potential difference across the rest of the circuit. That is, Ohm's Law will be satisfied:
= I R5.
Here is a nice simulated experiment on Ohm's Law for you to test your understanding of this concept. Use the "back" button to return to this place.
Active Devices
An active device is any type of circuit component with the ability to electrically control electron flow (electricity controlling electricity). In order for a circuit to be properly called electronic, it must contain at least one active device. Active devices include, but are not limited to, vacuum tubes, transistors, silicon-controlled rectifiers (SCRs), and TRIACs.
All active devices control the flow of electrons through them. Some active devices allow a voltage to control this current while other active devices allow another current to do the job. Devices utilizing a static voltage as the controlling signal are, not surprisingly, called voltage-controlled devices. Devices working on the principle of one current controlling another current are known as current-controlled devices. For the record, vacuum tubes are voltage-controlled devices while transistors are made as either voltage-controlled or current controlled types. The first type of transistor successfully demonstrated was a current-controlled device.
Passive Devices
Components incapable of controlling current by means of another electrical signal are called passive devices. Resistors, capacitors, inductors, transformers, and even diodes are all considered passive devices.
Passive devices are the resistors, capacitors, and inductors required to build electronic hardware. They always have a gain less than one, thus they can not oscillate or amplify a signal. A combination of passive components can multiply a signal by values less than one, they can shift the phase of a signal, they can reject a signal because it is not made up of the correct frequencies, they can control complex circuits, but they can not multiply by more than one because they lack gain.
Diodes
Diodes are basically a one-way valve for electrical current. They let it flow in one direction (from positive to negative) and not in the other direction. Most diodes are similar in appearance to a resistor and will have a painted line on one end showing the direction or flow (white side is negative). If the negative side is on the negative end of the circuit, current will flow. If the negative is on the positive side of the circuit no current will flow. More on diodes in later sections.
Transistors
A transistor is a semiconductor device, commonly used as an amplifier or an electrically controlled switch. The transistor is the fundamental building block of the circuitry in computers, cellular phones, and all other modern electronic devices.
Because of its fast response and accuracy, the transistor is used in a wide variety of digital and analog functions, including amplification, switching, voltage regulation, signal modulation, and oscillators. Transistors may be packaged individually or as part of an integrated circuit, some with over a billion transistors in a very small area - part of a trend of increasing transistor density known as Moore's Law.
Transistor stands for transit resistor, the temporary name, now permanent, that the inventors gave it. These semidconductors control the electrical current flowing between two terminals by applying voltage to a third terminal. You now have a minature switch, presenting either a freeway to electrons or a brick wall to them, depending on whether a signal voltage exists. Bulky mechanical relays that used to switch calls, like the crossbar shown above, could now be replaced with transistors. There's more.
Transistors amplify when built into a proper circuit. A weak signal can be boosted tremendously. Let's say you have ten watts flowing into one side of the transistor. Your current stops because silicon normally isn't a good conductor. You now introduce a signal into the middle of the transistor, say, at one watt. That changes the transistor's internal crystalline structure, causing the silicon to go from an insulator to a conductor. It now allows the larger current to go through, picking up your weak signal along the way, impressing it on the larger voltage. Your one watt signal is now a ten watt signal.
Transistors use the properties of semi-conductors, seemingly innocuous materials like geranium and now mostly silicon. Materials like silver and copper conduct electricity well. Rubber and porcelain conduct electricity poorly. The difference between electrical conductors and insulators is their molecular structure, the stuff that makes them up. Weight, size, or shape doesn't matter, it's how tightly the material holds on to its electrons, preventing them from freely flowing through its atoms.
There are two types of standard transistors, NPN and PNP, with different circuit symbols. The letters refer to the layers of semiconductor material used to make the transistor. Most transistors used today are NPN because this is the easiest type to make from silicon. If you are new to electronics it is best to start by learning how to use NPN transistors.
The leads are labelled base (B), collector (C) and emitter (E).
These terms refer to the internal operation of a transistor but they are not much help in understanding hjavascript:void(0)ow a transistor is used, so just treat them as labels.
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