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Definição e significado de Envelope

Definição

envelope (n.)

1.any wrapper or covering

2.a flat (usually rectangular) container for a letter, thin package, etc.

3.the bag containing the gas in a balloon

4.the maximum operating capability of a system (especially an aircraft)"test pilots try to push the envelope"

5.a natural covering (as by a fluid)"the spacecraft detected an envelope of gas around the comet"

6.a curve that is tangent to each of a family of curves

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Sinónimos

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Ver também

envelope (n.)

s.a.e., self-addressed envelope

Locuções

Envelope Glycoprotein gp120, HIV • Envelope Glycoprotein gp160, HIV • Envelope Protein gp41, HIV • Envelope Proteins, Viral • HIV Envelope Glycoprotein gp120 • HIV Envelope Glycoprotein gp160 • HIV Envelope Protein gp120 • HIV Envelope Protein gp160 • HIV Envelope Protein gp41 • LaCrosse Virus Envelope Glycoprotein G1 • Nuclear Envelope • Viral Envelope Glycoprotein gPr90 (Murine Leukemia Virus) • Viral Envelope Glycoprotein gp55 (Friend Virus) • Viral Envelope Proteins • Viral Envelope Proteins E1 • Viral Envelope Proteins E2 • Viral Envelope Proteins gp52 • Viral Envelope Proteins gp70 • Virus Envelope Proteins • envelope Proteins, Human Immunodeficiency Virus • floral envelope • gp120 Envelope Glycoprotein, HIV • gp160 Envelope Glycoprotein, HIV • gp41 Envelope Protein, HIV • pay envelope • self-addressed envelope • window envelope

23 Envelope • ADSR envelope • Absolutely convex envelope • Back-of-the-envelope calculation • Building envelope • Cell envelope • Cell envelope antibiotic • Circumstellar envelope • Common envelope • Common envelope binary • Convex envelope • Double envelope house • Dynamic envelope • Electronic envelope • Envelope (band) • Envelope (disambiguation) • Envelope (motion) • Envelope Collective • Envelope System • Envelope detector • Envelope from • Envelope journalism • Envelope manufacture • Envelope modulation • Envelope sender • Envelope theorem • Flight envelope • Flight envelope protection • Full envelope subcontractor • Green envelope • Karoubi envelope • Kinematic envelope • Nuclear envelope • Peak envelope power • Pushing the Salmanilla Envelope • Pushing the edge of the envelope • Red envelope • Registered Envelope • Self Addressed Stamped Envelope • Self-addressed stamped envelope • Slowly varying envelope approximation • Sound envelope • Spectral envelope • Stamped addressed envelope • Stellar Envelope • The Envelope Sessions • The Lick on the Tip of an Envelope Yet to Be Sent • Variable envelope return path • Viral envelope • Vitteline envelope • Window envelope • Windowed envelope

Dicionario analógico


envelope (n.)

chose en papier (fr)[ClasseParExt.]

chose qui contient qqch (fr)[ClasseParExt...]

(letter; missive)[termes liés]

container[Hyper.]


envelope (n.)

bag[Hyper.]

balloon[Desc]




envelope (n.)


Wikipedia

Envelope

                   
  Front of an envelope mailed in the U.S. in 1906, with a postage stamp and address
  Back of the above envelope, showing an additional receiving office postmark

An envelope is a common packaging item, usually made of thin flat material. It is designed to contain a flat object, such as a letter or card.

Traditional envelopes are made from sheets of paper cut to one of three shapes: a rhombus, a short-arm cross, or a kite. These shapes allow for the creation of the envelope structure by folding the sheet sides around a central rectangular area. In this manner, a rectangle-faced enclosure is formed with an arrangement of four flaps on the reverse side.

Contents

  Overview

  Envelope with advertising from 1905 used in the U.S.
  Patent drawing of Americus Callahan's windowed envelope.

When the folding sequence is such that the last flap to be closed is on a short side it is referred to in commercial envelope manufacture as a '"pocket"' - a format frequently employed in the packaging of small quantities of seeds. Although in principle the flaps can be held in place by securing the topmost flap at a single point (for example with a wax seal), generally they are pasted or gummed together at the overlaps. They are most commonly used for enclosing and sending mail (letters) through a prepaid-postage postal system.

Window envelopes have a hole cut in the front side that allows the paper within to be seen. They are generally arranged so that the sending address printed on the letter is visible, saving the sender from having to duplicate the address on the envelope itself. The window is normally covered with a transparent or translucent film to protect the letter inside, as was first designed by Americus F. Callahan in 1901 and patented the following year. In some cases, shortages of materials or the need to economize resulted in envelopes that had no film covering the window. One innovative process, invented in Europe about 1905, involved using hot oil to saturate the area of the envelope where the address would appear. The treated area became sufficiently translucent for the address to be readable. As of 2009 there is no international standard for window envelopes, but some countries, including Germany and the UK, have national standards.[1]

Security envelopes have a patterned tint printed on the inside, which makes it difficult to see the contents. Various patterns exist.[2]

An aerogram is related to a lettersheet, both being designed to have writing on the inside to minimize the weight. Any handmade envelope is effectively a lettersheet because prior to the folding stage it offers the opportunity for writing a message on that area of the sheet that after folding becomes the inside of the face of the envelope.

  A Japanese funeral envelope used for offering condolence money. The white and black cords represent death. Similar-looking envelopes with red and silver cords are used for weddings.

The "envelope" used to launch the Penny Post component of the British postal reforms of 1840 by Sir Rowland Hill and the invention of the postage stamp, was a lozenge-shaped lettersheet known as a Mulready.[3] If desired, a separate letter could be enclosed with postage remaining at one penny provided the combined weight did not exceed half an ounce (about 13 grams). This was a legacy of the previous system of calculating postage, which partly depended on the number of sheets of paper used.

During the U.S. Civil War those in the Confederate States Army occasionally used envelopes made from wallpaper, due to financial hardship.

A "return envelope" is a pre-addressed, smaller envelope included as the contents of a larger envelope and can be used for courtesy reply mail, metered reply mail, or freepost (business reply mail). Some envelopes are designed to be reused as the return envelope, saving the expense of including a return envelope in the contents of the original envelope. The direct mail industry makes extensive use of return envelopes as a response mechanism.

Up until 1840 all envelopes were handmade, each being individually cut to the appropriate shape out of an individual rectangular sheet. In that year George Wilson in the United Kingdom patented the method of tessellating (tiling) a number of envelope patterns across and down a large sheet, thereby reducing the overall amount of waste produced per envelope when they were cut out. In 1845 Edwin Hill and Warren de la Rue obtained a patent for a steam-driven machine that not only cut out the envelope shapes but creased and folded them as well. (Mechanised gumming had yet to be devised.) The convenience of the sheets ready cut to shape popularized the use of machine-made envelopes, and the economic significance of the factories that had produced handmade envelopes gradually diminished.

As envelopes are made of paper, they are intrinsically amenable to embellishment with additional graphics and text over and above the necessary postal markings. This is a feature that the direct mail industry has long taken advantage of—and more recently the Mail Art movement. Custom printed envelopes has also become an increasingly popular marketing method for small business.

Most of the over 400 billion envelopes of all sizes made worldwide are machine-made.

  International standard sizes

  C5 postal stationery envelope with topic of Trans-siberian railway.

International standard ISO 269 defines several standard envelope sizes, which are designed for use with ISO 216 standard paper sizes:

Format Dimensions (HxW mm) Dimensions (in) Suitable for content format
DL 110 × 220 4.33 x 8.66 1/3 A4
C7 81 x 114 3.2 x 4.5 1/3 A5
C7/C6 81 x 162 3.19 x 6.4 1/3 A5
C6 114 × 162 4.5 x 6.4 A6 (or A4 folded in half twice)
C6/C5 114 × 229 4.5 x 9 1/3 A4
C5 162 × 229 6.4 x 9 A5 (or A4 folded in half once)
C4 229 × 324 9.0 x 12.8 A4
C3 324 × 458 12.8 x 18 A3
B6 125 × 176 4.9 x 6.9 C6
B5 176 × 250 6.9 x 9.8 C5
B4 250 × 353 9.8 x 13.9 C4
E4 280 × 400 11 x 15.75 B4

The German standard DIN 678 defines a similar list of envelope formats.

  North American sizes

There are dozens of sizes of envelopes available. Not all are used for posting mail, but for such things as former pay packets or putting a gift card or a key in. U.S. and Canadian postal regulations[citation needed] differ from those of the rest of the world; although envelopes are still deliverable worldwide by the regulations of the Universal Postal Union, the sorting machines will not accept the international sizes. This is not as much a difference as usually thought[who?], for the location of sending address and return address differ between Germany and France, for example.[clarification needed]

The designations such as "A2"[citation needed] do not correspond to ISO paper sizes.

Format Dimensions (in) Dimensions (mm) Ratio
A2 (Lady Grey) 4⅜ × 5¾ 111.1 × 146.1 132%
A6 (Thompson's standard) 4¾ × 6½ 120.7 × 165.1 137%
A7 (Besselheim) 5¼ × 7¼ 133.4 × 184.2 138%
A8 (Carr's) 5½ × 8⅛ 139.7 × 206.4 148%
A9 (Diplomat) 5¾ × 8¾ 146.1 × 222.3 152%
A10 (Willow) 6 × 9½ 152.4 × 241.3 158%
No. 6¾ (Lady Chapham) 3⅝ × 6½ 92.1 × 165.1 179%
No. 7¾ (Monarch) 3⅞ × 7½ 98.4 × 190.5 194%
No. 9 (Windsor) 3⅞ × 8⅞ 98.4 × 225.4 229%
No. 10 (Tairy Greene) 4⅛ × 9½ 104.8 × 241.3 230%
No. 11 (Business Formal) 4½ × 10⅜ 114.3 × 263.5 231%
No. 12 (Business Casual) 4¾ × 11 120.7 × 279.4 232%
No. 14 (Business Nude) 5 × 11½ 127.0 × 292.1 230%

Envelopes accepted by the U.S. Postal Service to be eligible for mailing at the price for letters must be:

  • Rectangular
  • At least 3-1/2 inches high x 5 inches long x 0.007 inch thick.
  • No more than 6-1/8 inches high x 11-1/2 inches long x 1/4 inch thick.[4]

  Manufacture

Nearly half of the estimated 450 billion envelopes made each year worldwide are machine-made.[citation needed]

  History of envelopes

  Tablet and its sealed envelope: employment contract. Girsu, Sumer, circa 2037 BCE. Terra cotta. Museum of Fine Arts of Lyon.

Prior to 1845, hand-made envelopes were all that were available for use, both commercial and domestic. In 1845, Edwin Hill and Warren De La Rue were granted a British patent for the first envelope-making machine.[5]

The first known envelope was nothing like the paper envelope we know of today. It can be dated back to around 3500 to 3200 B.C. in the ancient Middle East. Hollow, clay spheres were molded around financial tokens and used in private transactions. The two people who discovered these first envelopes were Jacques de Morgan, in 1901, and Roland de Mecquenem, in 1907.

The "envelopes" produced by the Hill/De La Rue machine were not as we know them today. They were flat diamond, lozenge (or rhombus)-shaped sheets or "blanks" which had been precut to shape before being fed to the machine for creasing and made ready for folding to form a rectangular enclosure. The edges of the overlapping flaps treated with a paste or adhesive and the method of securing the envelope or wrapper was a user choice. The symmetrical flap arrangement meant that it could be held together with a single wax seal at the apex of the topmost flap. (That the flaps of an envelope can be held together by applying a seal at a single point is a classic design feature of an envelope).[citation needed]

Nearly 50 years passed before a commercially successful machine for producing pre-gummed envelopes effectively as we know them today appeared.

The origin of the use of the diamond shape for envelopes is debated. However as an alternative to simply wrapping a sheet of paper around a folded letter or an invitation and sealing the edges, it is a tidy and ostensibly paper-efficient way of producing a rectangular-faced envelope. Where the claim to be paper-efficient fails is a consequence of paper manufacturers normally making paper available in rectangular sheets, because the largest size of envelope that can be realised by cutting out a diamond or any other shape which yields an envelope with symmetrical flaps is smaller than the largest that can be made from that sheet simply by folding.

The folded diamond-shaped sheet (or "blank") was in use at the beginning of the 19th century as a novelty wrapper for invitations and letters among the segment of the population that had the time to sit and cut them out and were affluent enough not to bother about the waste offcuts. Their use first became widespread in the UK when the British government took monopoly control of postal services and tasked Rowland Hill with its introduction. The new service was launched in May 1840 with a postage-paid machine-printed illustrated (or pictorial) version of the wrapper and the much-celebrated first adhesive postage stamp: the Penny Black- for the production of which the Jacob Perkins printing process was used to deter counterfeiting and forgery. The wrappers were printed and sold as a sheet of 12, with cutting the purchaser's task. Known as Mulready stationery, because the illustration was created by the respected artist William Mulready, the envelopes were withdrawn when the illustration was ridiculed and lampooned. Nevertheless the public apparently saw the convenience of the wrappers being available ready-shaped, and it must have been obvious that with the stamp available totally plain versions of the wrapper could be produced and postage prepaid by purchasing a stamp and affixing it to the wrapper once folded and secured. In this way although the postage-prepaid printed pictorial version died ignominiously,the diamond-shaped wrapper acquired de facto official status and became readily available to the public notwithstanding the time taken to cut them out and the waste generated. With the issuing of the stamps and the operation and control of the service (which is a communications medium) in government hands the British model spread around the world and the diamond-shaped wrapper went with it.

Hill also installed his brother Edwin as The Controller of Stamps, and it was he with his partner Warren De La Rue who patented the machine for mass-producing the diamond-shaped sheets for conversion to envelopes in 1845. Today, envelope-making machine manufacture is a long- and well-established international industry, and blanks are produced with a short-arm-cross shape and a kite shape as well as diamond shape. (The short-arm-cross style is mostly encountered in "pocket" envelopes i.e. envelopes with the closing flap on a short side. The more common style, with the closing flap on a long side, are sometimes referred to as "standard" or "wallet" style for purposes of differentiation.)

The most famous paper-making machine was the Fourdrinier machine. The process involves taking processed pulp stock and converting it to a continuous web which is gathered as a reel. Subsequently the reel is guillotined edge to edge to create a large number of properly rectangular sheets because ever since the invention of Gutenberg's press paper has been closely associated with printing.

To this day all other mechanical printing and duplicating equipments devised in the meantime, including the typewriter (which was used up to the 1990s for addressing envelopes), have been primarily designed to process rectangular sheets. Hence the large sheets are in turn are guillotined down to the sizes of rectangular sheet commonly used in the commercial printing industry, and nowadays to the sizes commonly used as feed-stock in office-grade computer printers, copiers and duplicators (mainly ISO, A4 and US Letter).

Using any mechanical printing equipment to print on envelopes, which although rectangular, are in fact folded sheets with differing thicknesses across their surfaces, calls for skill and attention on the part of the operator. In commercial printing the task of printing on machine-made envelopes is referred to as "overprinting" and is usually confined to the front of the envelope. If printing is required on all four flaps as well as the front, the process is referred to as "printing on the flat". Eye-catching illustrated envelopes or pictorial envelopes, the origins of which as an artistic genre can be attributed to the Mulready stationery - and which was printed in this way - are used extensively for direct mail. In this respect, direct mail envelopes have a shared history with propaganda envelopes (or "covers") as they are called by philatelists.

At the end of the 20th century a top of the range envelope-making machine cost in the region of $1 million and could produce 1200 pre-gummed envelopes per minute in boxes of 1000 ready for distribution. With manufacturing costs as high as this very few envelope-making machinery manufacturers appeared in the 19th and 20th centuries, and at the beginning of the 21st century the number satisfying the world demand remained low, with a single enterprise, Winkler+Dünnebier, producing two-thirds of the machines producing the 450 billion envelopes referred to above (which includes "pockets").

Consequently too the high cost of buying these high capital investment machines has to be factored into the operating costs of any enterprise which engages in producing printed envelopes, and so their line of business is the production of very large runs of the order of 50,000 and upwards. Depending on the size of the run this can entail the use of an entire web or reel. The result of this is that over the last 150 years or so the most common way of producing printed envelopes commercially has been to overprint on machine-made envelopes. Needless to say, only the largest of companies have a need for 50,000 or more envelopes at any one time. The drawback is that although printing on the face of an envelope is reasonably straight- forward, an envelope is not a flat sheet of paper and so if printing is required on one or more flaps this incurs higher cost as specialist printing skill is required. For small businesses with a need for relatively low volumes of printed envelopes, even if a case is made for a batch customised with no more than the company logo on the face, there is seldom justification for the added expense of printing on the flap side too. However the volume-related barrier to the use of customised envelopes by small businesses was subsequently lowered in the late-20th century with the advent of the digital printing revolution which saw the introduction of PC printers. Although designed primarily to process flat rectangular sheets these could be adjusted to also overprint on the face of rectangular machine-made envelopes in spite of the extra thickness - given suitable office applications software such as Microsoft's Word.[citation needed]

  Records

1992 was a memorable year in the world of envelopes, since an Italian company, the Sacchettificio Monzese, produces the biggest envelopes in the world (after entered in the Guinness World Records book of the same year).[6] The three biggest envelopes in the world are: "REGINA" (516x736 cm), "PRINCIPESSA" (414x865 cm with a window whose size is 137x342 cm) and "RE" (755x757 cm).

  Present and future state of envelopes

Then right at the end of the 20th century, in 1998, the digital printing revolution delivered another benefit for small businesses when the U.S. Postal Service became the first postal authority to approve the introduction of a system of applying to an envelope in the printer bin of a PC sheet printer a digital frank or stamp delivered via the Internet. With this innovative alternative to an adhesive-backed postage stamp as the basis for an Electronic Stamp Distribution (ESD) service, a business envelope could be produced in-house, addressed and customised with advertising information on the face, and ready to be mailed.

The fortunes of the commercial envelope manufacturing industry and the postal service go hand in hand, and both link to the printing industry and the mechanized envelope processing industry producing equipments such as franking and addressing machines. They are all four symbiotic: technological developments affecting one obviously ricochet through the others: addressing machines print addresses, postage stamps are a print product, franking machines imprint a frank on an envelope. If fewer envelopes are required; fewer stamps are required; fewer franking machines are required and fewer addressing machines are required.[citation needed] For example, the advent and adoption of information-based indicia (IBI) (commonly referred to as digitally-encoded electronic stamps or digital indicia) by the US Postal Service in 1998 caused widespread consternation in the franking machine industry, as their equipments were effectively rendered obsolescent and resulted in a flurry of lawsuits involving Pitney Bowes among others. The advent of e-mail in the late 1990s appeared to offer a substantial threat to the postal service. By 2008 letter-post service operators were reporting significantly smaller volumes of letter-post, specifically stamped envelopes, which they attributed mainly to replacement by e-mail. Although a corresponding reduction in the volume of envelopes required would have been expected, no such decrease was reported as widely as the reduction in letter-post volumes.

Although as regards e-mail developments there is a substantial threat of "technology replacing tradition", this is offset by the equal reasoning that the Universal Postal Union is an international specialised agency of the United Nations, and a source of revenue for government. Consequently any deterioration of domestic and international postal services attended by loss of revenue is a matter of governmental concern.

  Envelopes for laser printers

The latest born in the family of envelopes are the envelopes for laser printers. Thanks to these kind of envelopes, it is possible to print the graphics of the envelopes directly with a common office laser printer. This process makes possible a personalized and bespoke marketing and mailing.

The first envelope suitable for laser printing machines has been patented by an Italian company, the Sacchettificio Monzese.[7]

  Mailers

  Tyvek Mailing envelope

Some envelopes are available for full size documents. The Postal Service and Express mail carriers have large mailing envelopes for their express services. Other similar envelopes are available at stationery supply locations.

These mailers usually have an opening on an end with a flap that can be attached by gummed adhesive, integral pressure sensitive adhesive or adhesive tape. Construction is usually:

  Padded mailers

Shipping envelopes can have padding to provide stiffness and some degree of cushioning. The padding can be ground newsprint, plastic foam sheets, or air filled bubbles.

  See also

  References

  External links

   
               

 

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