Tutorial Membuat Bros Cantik dari Planel untuk Mempercantik Kerudung Ukhti

Aiza Craft – Kebanyakan orang yang kurang tahu langkah-langkah membuat bros cantik dari planel, padahal caranya cukup mudah. Bros dari planel bisa mempercantik pakaian ataupun kerudung jadi lebih menarik. Pada kesempatan ini kita akan belajar bagaimana cara membuat sebuah bros cantik dari planel. Jangan khawatir cara membuatnya gampang kok, asal mengikuti langkah-langkah yang akan kamu terangkan di sini. Untuk membuat kreasi bros ini tidak memerlukan proses lama, hanya kurang lebih 30-40 menit. Jadi jangan ragu ya, untuk terus membaca tulisan ini sampai akhir.

Bentuk bros yang paling disukai digunakan oleh perempuan adalah bentuk bunga, khususnya bunga mawar. Dengan membuat bros yang sederhana akan sangat cocok untuk kamu yang menyukai keanggunan. Selain itu dengan mengenakan bros sebagai aksesoris ini tentunya tampilan kamu akan semakin feminim. Daripada membeli bros bunga tersebut dengan harga mahal, tentu lebih baik membuatnya sendiri bukan? Berikut adalah cara membuat bros dari planel.

Ada beberapa jenis bros yang biasa digunakan dalam aksesoris baju atau hijab. Yang paling banyak digunakan adalah bros dari kain flanel atau dari bahan yang lembut. Kali ini kita akan praktek membuat bros dari pita yang mudah untuk dibuat. Langsung saja kita akan membahas cara membuat beberapa bros yang terbuat dari pita. Sebelum kamu melanjutkan membaca tutorial ini sebaiknya siapkan terlebih dahulu alat serta bahan yang dibutuhkan untuk membuat bros. Berikut adalah bahan dan alat yang harus kamu siapkan.

Bahan dan Alat yang Dibutuhkan

  • Lem tembak untuk merekatkan pita
  • Pita warna yang memiliki ukuran agag lebar
  • Berlian pipih imitasi yang nanti kita akan gunakan sebagai aksesoris bros agar terlihat lebih cantik
  • Korek api untuk merapikan potongan pita
  • Benang dan jarum yang akan digunakan untuk merakit bros

Langkah-langkah Membuat Bros dari Pita

Bila semua alat dan bahan sudah selesai disiapkan saatnya sekarang kita lanjut ke langkah selanjutnya yaitu membuat bros dari pita. Langsung saja perhatikan dulu gambar dibawah ini untuk langkah-langkah pembuatannya.

Langkah pertama untuk membuat bros

Langkah awal adalah membuat potongan pita seperti bentuk daun bunga seperti pada gambar no. 1, buatlah menjadi dua ukuran yang berbeda yaitu 3 cm dan 4 cm. Untuk potongan pita dengan ukuran 3 cm jumlahnya 10 potong sedangkan yang berukuran 4 cm jumlahnya 15 potong atau bisa juga disesuaikan dengan selera masing-masing.

Setelah pita selesai dipotong bakarlah ujung pita menggunakan korek api dan bentuk seperti kelopak bunga. Untuk lebih jelasnya bisa melihat gambar.

Langkah kedua membuat bros dari pita

Setelah selesai membentuk pita seperti kelopak bunga langkah selanjutnya adalah menyatukan semua ujung pita dengan menggunakan benang jahit.
Pertama susun ujung pita secara melingkar satu persatu menggunakan benang jahit, sampai membentuk lingkaran sempurna
Setelah itu tumpuk pada bagian tengah bros menggunakan lem tembak dan tempelkan berlian imitasi yang telah dipersiapkan tadi.

Dan bros cantik untuk hijab kamu sudah jadi. Bagaimana mudah bukan cara membuatnya? Pada artikel lainnya nanti akan dibuatkan tutorial membuat aneka bros cantik dari kain flanel. Makin banyak pilihan makin bagus bukan? Apalagi itu hasil dari kreasi kamu sendiri. Kamu juga bisa membuat dari bahan lain lho, pelajari aja caranya di artikel cara membuat bros cantik dari kain flanel.

Kamu bisa berkreasi untuk membuat bros lain dengan berbagai warna dan juga bentuk. Yang harus diperhatikan adalah dalam membuat sebuah karya seni memang dibutuhkan sebuah kesabaran dan juga ketekunan, akan tetapi kesabaran dan ketekunan itu akan memberikan sebuah hasil yang bagus.

Semoga artikel tentang cara membuat bros dari pita ini bermanfaat buat kamu, kamu bisa juga mempelajari cara membuat gelang dari tali pada artikel saya yang berjudul cara membuat gelang dari tali sepatu. Selamat mencoba berkreasi di rumah masing-masing.

Sumber: http://sarungpreneur.com/cara-membuat-bros-dari-pita/

Advertisements

Socket Fusion Commercial TK-215 Tool

You are a geothermal contractor or a gas line installer and would like to equip your crew with the best tools available. So look no further because when it comes to socket fusion we offer one of the most advanced tools available on the market today. TOOL FEATURES PIPEFUSER comes with a 1600 Watt, 120 VAC heating element and 13′ power cable The thermostat control dial is infinitely adjustable for temperatures of up to 570 F PIPEFUSER comes in handy in tight spaces due to its narrow profile Heater adapters are manufactured in accordance with ASTM F 1056 and are coated with stick-resistant material Three pairs of heater adapters can be connected at a time if needed PIPEFUSER carries a two-year limited warranty NOTE: The tool is equally suitable for PE as well as PP pipe such as Aquatherm and IPEX WHAT IS INCLUDED? TK-202 Heater Tool, 1600W, 120 VAC, with 13′ power cable Heater Adapters (¾”, 1”, 1-1/4”, 1-1/2” and 2″ – IPS) Depth Gauge/Chamfer Tools (¾”, 1”, 1-1/4”, 1-1/2” and 2″ – IPS) Cold Rings (¾”, 1”, 1-1/4”, 1-1/2” and 2″ – IPS) Second handle Ratchet Pipe Cutter Tape Measure Hex Key Temperature Indicator (500 F) Insulated Heater Bag Sturdy Carry Case. Carries a two-year limited warranty

Fein Power Tools AFSC 18-TS Set

The FEIN SuperCut AFSC 18 is the most powerful cordless oscillating tool in the market today. Working speed and performance are practically the same as the corded FSC 2.0Q model. The AFSC 18 Cordless SuperCut uses Modern Lithium Ion technology which keeps the weight down and eliminates memory effects that you would have on conventional NICD batteries. This system includes 2 rechargeable lithium ion batteries and a powerful quick charger that allows for uninterrupted work, even under heavy work loads. The tool also has a very ergonomic shape for fatigue free work during long hours of continuous use. Consistent with the Fein FSC 2.0Q, the AFSC 18 also includes the patented Fein High Powered Motor. The SuperCut consists of high quality components, outstanding ergonomics which makes it the premium system for interior construction and renovation. In tough continuous operation you will be able to complete difficult sawing and cutting jobs up to 350-percent faster. Fein is the inventor of the oscillating technology and has over 40 years of experience in the market. .Included with your AFSC 18-TS; 1 Fein SuperCut Cordless AFSC 18, 1 diamond segment blade, 1 carbide segment blade thin, 2 E-Cut Universal saw blades, 1 rigid scraper, 2 carbide rasps, 1 adapter and 1 mounting bolt, 2 rechargeable batteries, 1 charger and a carrying case to protect your investment.

Xcelite TCMB100STW 86-Piece Service Tool Set

Xcelite TCMB100STW 86-Piece Service – Get the Apex Tool Group’s product reviews from the experts at this blog. Find the best Apex Tool Group’s product like Xcelite TCMB100STW 86-Piece Service Technician Tool Set with Roller Bearing Case. From the ManufacturerThe Xcelite TCMB100STW is the largest and most elaborate service technician tool set Xcelite has to offer.

Xcelite TCA100ST Aluminum Attach Tools

Tongue and groove lid with rubber gasket ensures positive seal. Case with removable 3-panel hinged tool pallet in lid , panel in bottom. Number of tools: 86. Number of screwdrivers: 43. Number of nutdrivers: 22. Number of pliers/cutters: 7. Number of other tools: 14.

Xcelite TCA100ST Aluminum Attach – Get the Apex Tool Group’s product reviews from the experts at this blog. Find the best Apex Tool Group’s product like Xcelite TCA100ST Aluminum Attach Tool Case with Tools, 17-5/8″ Length, 12-5/8″ Width, 7-7/8″ Height.

Complete Tool Kit Specs

PEX GUN Complete Tool – Get the PEX GUN’s product reviews from the experts at this blog. Find the best PEX GUN’s product like PEX GUN Complete Tool Kit PG101.

Craftman 540 Piece Mechanics – Get the Craftsman’s product reviews from the experts at this blog. Find the best Craftsman’s product like Craftman 540 Piece Mechanics Tool Set.

TKT-UNICAM-PFC – Corning UniCam – Get the Corning’s product reviews from the experts at this blog. Find the best Corning’s product like TKT-UNICAM-PFC – Corning UniCam Connector Tool Kit, High-Performance, LC, SC and ST.

Ridgid RP 210-B 18-Volt – Get the Ridgid’s product reviews from the experts at this blog. Find the best Ridgid’s product like Ridgid RP 210-B 18-Volt Press Tool.

Wiha 32800 Insulated Tool – Get the Wiha’s product reviews from the experts at this blog. Find the best Wiha’s product like Wiha 32800 Insulated Tool Set with Screwdrivers, Nut Drivers, Pliers, Cutters, Ruler, Knife and Sockets in Rolling Tool Case, 80-Piece Set.

The Anatomy of the Heart is Amazing

Why talk about the heart from a medical point of view? How boring, unless you’re a doctor that is. Right?

Not necessarily.

By looking at the basic anatomy and physiology of the heart from a doctor’s perspective, we gain a unique privilege. We get to evaluate that perspective. Once we understand the underlying basis of medical treatments used to correct heart problems, we can make informed decisions as to which of those treatments and medications actually make sense for us…and, more importantly, what alternatives might actually work better. So with that in mind, let’s take a look at the human heart.

Quick facts

Your heart is located between your lungs in the middle of your chest, immediately behind and slightly to the left of your breastbone (sternum). In this location, it is protected by the breastbone in front, the spinal column in back, and the ribs on the sides. It weighs 7-15 ounces and is about the size of a human fist.

With each beat, the heart muscle expands and contracts, sending 2 to 3 ounces of blood on its way through the vascular system. The full circuit around the lungs and body (covering a mind boggling 50-60 thousand miles of branching blood vessels) takes only about one minute to complete when the body is at rest. In that same minute, your heart can pump some 1.3 gallons of blood to every cell in your body. Over the course of a day, we’re talking about 100,000 heartbeats shuttling some 2,000 gallons of oxygen rich blood throughout your body. That works out to some 35 million beats a year and an unbelievable 2.5 – 3.5 billion beats in a lifetime. Another way of looking at it is that the heart pumps approximately 700,000 gallons a year and almost 50 million gallons in an average lifetime.

Two circulatory systems

I will cover the circulatory system in detail in its own newsletter at a later date, but for now it’s important to understand in our discussion of the heart that the heart actually pumps blood through two very distinct circulatory systems.

Systemic Pulmonary

The systemic system is what most people think of when they think of the circulatory system. That’s the system that feeds the organs, tissues, and cells of your body. That’s the system in which fresh oxygenated blood pumps out through the arteries and in which deoxygenated blood returns to the heart through the veins. The pulmonary system is actually quite different – just the opposite in fact. Deoxygenated blood is pumped out of the heart through the pulmonary arteries into the lungs, and recharged oxygenated blood returns to the heart through the veins. It is this recharged oxygenated blood that gets pumped out through the systemic circulatory system. Understanding these differences will be important later. For now, just consider the simple fact that these two separate systems must be perfectly balanced in terms of input and output. If for example, the pulmonary system is just one drop a minute behind the systemic system, in short order, the left ventricle of the heart (the chamber that pumps blood out to your body) will become under-filled with blood and cease to function efficiently.

Construction of the heart

The tissue of the heart is comprised of three layers. The primary layer, the middle layer, is called the myocardium. This is the actual muscle tissue of the heart and the part of the heart that will feature most prominently when we talk later about what can go wrong with the heart. The myocardium is a thick strong muscle and comprises the bulk of the heart. It is formed of smooth involuntary muscle like your intestines and your bladder – but with a several key differences.

It has built in rhythmicity. That is to say, unlike other muscle tissue, it is self-stimulating and doesn’t require a signal from the nervous system to contract.

The muscle tissue itself has a spiral structure that allows for the twisting action of the heart as it contracts with each beat. (We’ll talk more about this later.)

The myocardium is lined on the inside (where all the blood is pumping) with a thin membrane called the endocardium. On the outside, the myocardium is enclosed by a membranous sac filled with fluid called the pericardium. The outside of the pericardium sac is pressed against the lungs and the chest wall. The inside of the sac (called the visceral pericardium) is actually attached to the heart muscle.

The purpose of the sac is to hold the heart in place, protect it, and eliminate inflammation by protecting the heart from friction as it beats. If you think about it, every time the heart beats it expands and contracts rubbing and sliding against the lungs and the chest wall. It is the fluid filling the pericardial sac that allows the inner and outer parts of the sac to slide against each other with no friction thus allowing the heart to beat some 2.5 – 3.5 billion times in a lifetime without rubbing itself raw.

The heart itself is divided into four chambers: the right and left atria and the right and left ventricles. As you can see below, it is separated vertically by part of the myocardium heart muscle. Horizontally, the two halves are further divided by two valves – the mitral or bicuspid valve on the left side of the heart and the tricuspid valve on the right.

The flow of blood through those chambers is actually quite simple.

All of the deoxygenated blood in need of “recharging” returns to the heart through the large veins called the vena cava (anterior and posterior). The two vena cavae empty into the right atrium, the first chamber in the heart. (Incidentally, one of the definitions of atrium is a forecourt of a building – which is essentially what the atria are: forecourts to the two ventricles.) From there, the blood passes through the one-way tricuspid valve into the right ventricle, which pumps it out through the pulmonary valve into the pulmonary aorta and into the lungs.

Note in the illustration above how much smaller the left ventricle is than the right and how much thicker the muscles are surrounding it (about 4 times thicker). The reason is simple. Smaller chamber and greater force of contraction means greater pressure. When you consider that the right ventricle only needs to push the blood a few inches into the lungs and back, whereas the left ventricle needs to push the blood throughout the entire body, this makes sense. In fact, the left ventricle produces about 4 times the pressure of the right ventricle. It is through this difference in pressure that the body keeps the blood supply perfectly balanced between the two chambers even though they are powering two entirely different circulatory systems.

Once oxygenated, the blood makes the short trip back through the pulmonary veins and back into the heart, entering through the left atrium. This is the pulmonary circulatory system we referred to above.

From the left atrium, the oxygenated blood passes down through the one-way mitral valve and into the left ventricle. From there, the large muscles surrounding the left ventricle squeeze the blood out through the aorta as it starts its circuit out to every single cell in the body.

The valves

At this point, a quick discussion of the two main valves in the heart (the mitral or bicuspid valve, and the tricuspid valve) makes sense.

In construction and function, the two valves are quite simple, but extremely important. Fundamentally they look like parachutes with tendons or cords running down into the ventricles to keep them from opening too far. (See below.) When there is no blood in the ventricle below them, there is no pressure on the valves, and they are in the open position. In the open position, blood can passively move from the atrium above down through the openings in the valve into the ventricle below. Once the ventricle fills with blood and the heart contracts creating pressure in the ventricle, that pressure pushes up on the bottom of the valve forcing it closed so the blood cannot flow back into the atrium above. At that point, the blood has only one way out of each ventricle – through the main pulmonary artery in the right ventricle and the aorta in the left ventricle. The system is brilliant, totally passive, and amazingly durable. For most people it functions flawlessly for 70-100 years, through 2.5 billion plus heartbeats.

For a great review of everything we’ve talked about so far, check out the medical animation from the University of Pennsylvania Health System.

The coronary arteries

Once the oxygenated blood leaves the heart and heads into the aorta, it almost immediately encounters the first two blood vessels off the aorta: the left and right coronary arteries. These are the main arteries that feed the heart muscle, the myocardium. One of the first things you’ll notice in the illustration below is how much branching and redundancy there is in the arteries and veins that feed the heart.

The medical term used to describe this branching is anastomosis. You don’t have to remember it. Just remember that the blood vessels of the heart have many branches that reconnect in multiple places to provide alternate pathways for the blood in case one branch is blocked. In fact, there is so much redundancy, that your heart can function with no visible symptoms with up to 70% blockage. It’s almost as though nature anticipated the western fast food diet and built in a huge reserve capacity knowing how aggressively we would seek to clog the system up.

The electrical system

We’ve established the basic bio-mechanics of the heart, but there’s one key question we haven’t addressed yet:

What makes the heart muscle contract?

Fundamentally, the contraction of the heart is an electrical phenomenon – or more precisely, a bio-electrical phenomenon based on the movement of sodium, calcium, and potassium ions across membranes. (We’ll cover this in more detail in a moment.)

For now, just understand that when a muscle cell is excited, an electrical signal is produced and spreads to the rest of the muscle cell, causing an increase in the level of calcium ions inside the cell. The calcium ions bind and interact with molecules associated with the cell’s contractile machinery, the end result being a mechanical contraction. To simplify this, a sodium ion starts the stimulation of the cell, a calcium ion extends that stimulation to allow the entire muscle to contract before potassium comes along and tells the muscle cell to relax for a moment and get ready for the next wave. Even though the heart is a specialized muscle, this fundamental principle still applies. (Makes you think about the importance of minerals in the diet, doesn’t it?) One thing, however, that distinguishes the heart from other muscles is that the heart muscle, as we’ve already discussed, has built in rhythmicity. Thus, an electrical excitation that occurs in one cell easily spreads to neighboring cells.

Under normal circumstances, the initial electrical excitation that starts the beat of the entire heart originates in the pacemaker cells of the sinoatrial node, located on top of the right atrium. This small group of cells pretty much serves as the impulse-generating pacemaker for the heart and normally discharges about one hundred times per minute. These impulses move down through fibers in the myocardial wall and come together in the atrial ventricular node where they are slowed down before entering and stimulating the controlled contraction of the muscles surrounding the two ventricles.

A simplified picture of the electrical system of the human heart. The direction of the activation is indicated by the arrows and is:

SAN (= sinoatrial node), AM (= atrial myocardium), AVN (= atrioventricular node), PF (= Purkinje fibers), VM (= ventricular myocardium).

As mentioned in the paragraph above, there is a moment of rest in the contraction of the muscle cells as the heart prepares for its next beat. This moment of rest is actually critical as we will discuss in the next newsletter as a spurious impulse during this rest period can cause premature contractions leading to compromised filling and poor ejection of blood from the heart. This can lead to life threatening arrhythmias that so severally compromise the heart’s ability to pump that death can occur quickly.

As an interesting side note, when doctors or EMTs use a defibrillator to get a “fluttering” heart going again, the primary effect is to depolarize the heart muscle and actually stop the heart. The electric shock from the defibrillator doesn’t switch the heart back on. Instead, defibrillation actually stops the heart briefly! It’s this stoppage of the heart that allows the sinoatrial node to reestablish control of the heartbeat.

Taking a break

And that’s probably a good place to stop for the moment, as we are edging into physiology. In the next issue of the newsletter, we will actually explore the physiology of the heart in some detail, specifically talking about:

What can go wrong with it.

What things must be handled by a medical doctor.

Article Source: http://EzineArticles.com/651261

All about Heart Disease

The word heart problems can be a extremely wide term. Problems could crop up in the cardiovascular system muscle, blood vessels delivering bloodstream on the cardiovascular system muscle, or maybe this valves in the cardiovascular system in which push bloodstream within the right route. Being familiar with this differences between every single ailment in the cardiovascular system may help while using difficult software in the term heart problems.

Coronary artery ailment or maybe CAD is usually the most prevalent form of heart problems plus the top source of demise throughout equally sexes within the U. Azines. Coronary artery ailment has an effect on this blood vessels delivering bloodstream on the cardiovascular system muscle. These types of coronary blood vessels solidify in addition to narrow because of the escalation of a waxy cholesterol, fatty chemical termed as plaque.

That plaque escalation is known as atherosclerosis. Your boost throughout plaque escalation causes this coronary blood vessels for being narrower. It will bring about blood circulation for being minimal, reducing how much air shipped to the guts muscle. Decreasing how much air offered on the cardiovascular system muscle can cause angina (chest pain) in addition to cause any cardiovascular system attack. Coronary artery ailment after a while could weaken the guts muscle leading to cardiovascular system failure in addition to arrhythmias (abnormal cardiovascular system rhythms).

Heart ailment is usually an additional difficult form of heart problems. Heart ailment is usually not similar factor since coronary artery ailment. Although coronary artery ailment means this coronary blood vessels, heart ailment means this diseases in the coronary blood vessels in addition to caused problems. For example this kind of problems for example upper body soreness, any cardiovascular system attack, plus the scar tissue formation attributable to the guts attack. Being familiar with this particular simple distinction between the a couple may impress ones cardiologist.

Cardiomyopathy can be a ailment which affects this muscle in the cardiovascular system. Cardiomyopathy may be hereditary or maybe caused by virus-like contamination. Cardiomyopathy may be categorized since key or maybe supplementary. Key cardiomyopathy is usually due to a specific bring about (hypertension, congenital cardiovascular system problems, cardiovascular system control device disease). Second cardiomyopathy is usually due to certain causes (diseases which affects additional organs).

You will discover about three main forms of cardiomyopathy. Dilated cardiomyopathy is usually enhancement in addition to elongating in the heart failure muscle. Hypertrophic cardiomyopathy causes thickening in the cardiovascular system muscle. Limited cardiomyopathy causes this ventricles in the cardiovascular system for being excessively strict triggering blood circulation on the ventricles to be hard between heartbeats.

Valvular heart problems can be a ailment in which has an effect on this valves in the cardiovascular system. Valves in the cardiovascular system maintain bloodstream sweeping within the right route. Injury to valves may be caused by selection of conditions ultimately causing regurgitation or maybe insufficiency (leaking valve), prolapse (improper final in the valve), or maybe stenosis (narrowing in the valve). Valvular heart problems may be hereditary. Valvular heart problems can also be attributable to specific transmissions for example rheumatic a fever, in addition to specific medications or maybe light treatments for cancer.

Your pericardium can be a sac in which encompasses the guts. Pericardial ailment is usually irritation (pericarditis), hardness (constrictive pericarditis), or maybe liquid pile-up (pericardial effusion) in the pericardium. Pericardial ailment may be attributable to many things for example developing after having a cardiovascular system attack.

Congenital heart problems is usually a sort of heart problems in which builds up prior to delivery. Congenital heart problems is usually an particularly wide term. However, these diseases generally have an impact on this creation in the cardiovascular system muscle, chambers, or maybe valves. Several examples include coarctation or even a narrowing of a part of this aorta; atrial or maybe ventricular septal deficiency is referred to as holes within the cardiovascular system. Congenital heart problems must be categorized additional properly for inborn deficiency that comes about throughout close to 1% associated with births. Congenital heart problems may be inherited (heredity), or maybe attributable to specific transmissions for example German born measles contracted even though expecting. However, research workers are currently learning components which could bring about congenital heart problems.

Center failure is usually yet another kind of heart problems seen as this heart’s inability to help successfully push enough bloodstream on the human body’s internal organs in addition to areas. If the human body’s vital internal organs will not be given enough blood circulation specific signs or symptoms can take place for example shortness associated with breath, low energy, in addition to liquid retention. Congestive cardiovascular system failure is usually a form of cardiovascular system failure leading to help liquid escalation chemistry. It is very important remember that not every cardiovascular system failure is usually congestive. Center failure may originate from additional aerobic diseases for example cardiomyopathy or maybe heart ailment. Center failure will come upon instantly or maybe build more than a long time.

Your thirty days associated with Feb would be the Countrywide Heart problems attention thirty days. However, heart problems attention must be every single day. With surprising data, attention starts with being familiar with this a variety of heart problems. A diet and lifestyle which is good to help cardiovascular system wellness can indicate this distinction between existence in addition to as being a figure.

Article Source: http://EzineArticles.com/157191