Lipo Text

Information

As a functional complement to the distinctly wide display family Lipo, Lipo Text was created, translating its character into a more readable, everyday form. While the display version works with extreme proportions, Lipo Text refines these principles and adapts them for longer texts and smaller sizes without losing its distinctive personality.
Typologically, it is a hybrid at the intersection of monospace, sans serif, and slab serif typefaces. At first glance, it evokes the mechanical logic of non-proportional fonts, preserving their rhythm and visual mimicry. Yet, in reality, it employs variable character widths, most noticeable in naturally wider letters. At the same time, it carefully adjusts letter spacing, achieving balanced typesetting without disruptive gaps. In cases where a purely monospace principle would result in overly narrow or optically weak characters, Lipo Text uses characteristic slab serifs that serve not only an aesthetic role but also actively expand character proportions and stabilize their shapes. The result is a typeface that retains a technical expression while remaining surprisingly approachable, readable, and lively—especially in extended reading, where its nuances fully emerge.
Lipo Text features extensive language support, including extended Latin, extended Cyrillic, and Greek scripts, making it suitable for multilingual projects. Its italic is designed with a strong emphasis on distinction from the upright styles—it has its own dynamics and character, allowing it to function not only as a complement but also as an independent expressive element within the typographic system.

  • Number of fonts in a family: 14
  • Release date: 2023
  • Current version: 1.000
  • Available formats: OTF, TTF, WOFF, WOFF2
  • Design: Tomáš Brousil
187 languages
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Styles

Thin 
Thin Italic 
Light 
Light Italic 
Regular 
Italic 
Medium 
Medium Italic 
Demibold 
Demibold Italic 
Semibold 
Semibold Italic 
Bold 
Bold Italic

Specimen

Lipo Text Thin

from 75 EUR

Impeach

Lipo Text Thin Italic

from 75 EUR

Alienist

Lipo Text Light

from 75 EUR

Dadaism

Lipo Text Light Italic

from 75 EUR

Memento

Lipo Text Regular

from 75 EUR

Compact

Lipo Text Italic

from 75 EUR

Sigmund

Lipo Text Medium

from 75 EUR

Freedom

Lipo Text Medium Italic

from 75 EUR

Wealthy

Lipo Text Demibold

from 75 EUR

Retwist

Lipo Text Demibold Italic

from 75 EUR

Olympus

Lipo Text Semibold

from 75 EUR

Bandage

Lipo Text Semibold Italic

from 75 EUR

Studium

Lipo Text Bold

from 75 EUR

Papyrus

Lipo Text Bold Italic

from 75 EUR

Vampire

Lipo Text Light

from 75 EUR

Refined sugar is produced from raw sugar through a process that removes molasses and other impurities very effectively.

Lipo Text Light Italic

from 75 EUR

Sugar beet became an important source of sugar in the 19th century, once efficient extraction methods were developed.

Lipo Text Regular

from 75 EUR

Non-centrifugal cane sugar (NCS) was historically the main form of sugar consumption before the rise of large-scale refined sugar production after 1700. Today, it has largely disappeared in countries that do not produce sugarcane, as it is only traded internationally in small quantities. However, it remains an important sweetener in many sugarcane-producing countries, where it still represents a notable share of daily sugar intake. Most NCS is produced on a small scale by farmers who process their own sugarcane using traditional methods. This type of production is often inefficient and results in inconsistent quality. In some countries, such as India, Colombia, Brazil, and Costa Rica, larger-scale production systems exist. These use improved technologies, allowing for better energy efficiency, more consistent quality, and economies of scale. Global production of NCS has remained relatively stable since the mid-1980s, following moderate growth in earlier decades. Annual output is estimated at around 12 to 14 million metric tons, although the true figure may be higher due to the difficulty of tracking small-scale production. While production has declined in parts of Asia, it has gradually increased in Latin America, where it has reached record levels in recent years. In Colombia, a particularly large share of sugarcane is used for NCS production, while Brazil has also seen steady growth in output. NCS is typically sold locally in solid forms such as blocks, cones, or similar shapes. These forms can be less convenient for both household use and industrial processing, which limits wider consumption. As a result, some countries are shifting toward granulated and branded versions.

Lipo Text Italic

from 75 EUR

Sugar refineries built between about 1500 and 1800 did not require specially designed buildings. They were typically located along wide streets and canals with accessible quays, allowing raw materials and goods to be transported cheaply by boat and road. Refineries were usually positioned with some space around them to allow airflow, which helped dry the sugar and prevent moisture buildup, especially in warmer months. Their chimneys also needed to extend well above nearby structures. Around 1800, the Industrial Revolution brought major changes to sugar refining. The introduction of steam power and machinery led to the construction of purpose-built industrial facilities. These new refineries were often recognizable by their multi-level layouts with many shallow floors designed to accommodate mechanized processes. Before 1800, refinery design was particularly well developed in the Netherlands, where sugar refining was a dominant industry. An ideal refinery building was long and relatively narrow, with a warehouse facing the street or canal. This warehouse needed to be spacious, well-lit, and equipped with large doors to handle heavy barrels. It also included equipment such as hoists for lifting goods and scales capable of weighing large loads. Although it was preferable to have the warehouse and refinery in separate buildings, high land costs often made this impractical. The refinery itself was usually located directly behind the warehouse, often within the same structure. The section closest to the warehouse was used for storing raw sugar, divided into several compartments for different types. These storage areas took up a significant portion of the building.

Lipo Text Regular

from 75 EUR

The sugar refining process was thoroughly documented in the late 18th and early 19th centuries. By 1833, it was often referred to as the “old” or “German method,” which relied on substances such as lime, eggs, clay, and sometimes even blood for purification. Refineries at that time produced several types of sugar. The highest quality was loaf sugar, followed by lump sugar, and then bastard sugar, which was made from the drained residues of higher-grade sugars and often ground into powdered form. Sugar candy consisted of large crystals formed around threads and could be either white or brown depending on the quality of the raw material. The refining process began with filling large pans with fresh water and lime water, after which raw sugar was added. The mixture was left overnight to allow the sugar to dissolve. The next day, the pan was slowly heated over a fire while being stirred to prevent sticking. As the temperature approached boiling, the heat was reduced. During heating, the lime reacted with impurities, forming a thick layer of scum that rose to the surface and was removed using a long-handled skimming tool. After this initial cleaning, a solution of beaten eggs was added. The egg whites helped bind additional impurities, creating more scum that was skimmed off. This step was repeated several times until the liquid became clear and developed a smooth, light surface. The resulting purified liquid was known as “cleared” sugar solution. For lower-quality sugar, additional lime, eggs, or even groundwater were used to improve purification. In some cases, ox blood was added as a cheaper alternative to eggs, as it also helped bind impurities. However, this practice could lead to spoilage and was controversial, leading to attempts to ban its use. In the next stage, the clarified liquid was filtered and transferred into a storage container. This was done by guiding it through a tube or trough into a cloth filter, which removed remaining solid particles such as fragments of egg, wood, or other debris. The filtered liquid was then stored in a cistern, where it remained while the equipment used in the earlier stages was cleaned and prepared for further processing. The third stage of the refining process involved evaporation. Small amounts of the clarified liquid were transferred into a pan and heated over a strong fire until boiling. Within a short time, the liquid thickened to the desired consistency. Workers tested this by checking whether it could form thin threads between their fingers. At this point, the sugar could be processed in two ways: either by allowing the remaining water to drain off naturally, producing loaf, lump, or lower-grade sugar, or by continuing to heat it further to create sugar candy with large crystals. The fourth stage was cooling, which applied mainly to loaf and lump sugar. The hot liquid was poured into separate cooling pans.

Lipo Text Italic

from 75 EUR

The British sugar refining industry began around 1544, when the first refineries—known as “sugar houses”—were established in London. Initially, their growth was limited due to strong competition from Antwerp. However, after Antwerp’s decline in 1585, London’s sugar refining industry expanded significantly. In 1607, the first refinery in Bristol was founded by Robert Aldworth. Over time, sugar trade and refining became a major source of the city’s wealth, especially during the 18th century, when Bristol had around 20 refineries. Liverpool also became involved in the industry, establishing its first refinery in 1667. In Scotland, sugar refining began in 1667, with early refineries in Glasgow and Leith. The industry later concentrated in Greenock, a port near Glasgow, where the first refinery opened in 1765. By the 19th century, Greenock had become a major center, with numerous refineries processing large quantities of sugar. Glasgow’s strength in manufacturing heavy machinery also supported this growth, as refining required advanced equipment. During the 19th century, the industry was shaped by influential entrepreneurs such as Henry Tate and Abram Lyle. Tate expanded refining operations in Liverpool and London, while Lyle developed his own refinery nearby. In 1921, their companies merged to form Tate & Lyle, which went on to refine about half of the United Kingdom’s sugar. After the First World War, the British sugar refining industry began to decline. The war highlighted the risks of relying heavily on imported cane sugar, leading to increased support for domestic sugar beet production. Later, the United Kingdom’s entry into the European Union in 1973 introduced regulations that favored sugar production within Europe, further affecting the industry. In 2010, Tate & Lyle sold its sugar refining business to American Sugar Refining, marking a significant shift in ownership. In Germany, Hamburg was an early and important center of sugar refining, rivaling cities like Amsterdam. By 1727, the city had around 200 refineries, known as Zuckersiederei, and dominated the German sugar market. However, between 1830 and 1850, this industry declined sharply and was nearly eliminated. The last cane sugar refinery in Hamburg, established in 1848, closed in 1885. Following the development of methods for extracting sugar from sugar beets, a large number of factories were established to produce raw beet sugar. Around Magdeburg, there were hundreds of such facilities, often with one located in nearly every village. In 1894, these producers collaborated to create the Hildesheim Sugar Refinery, which processed raw beet sugar on a larger scale. By 1913, it was estimated that about 63% of Germany’s sugar beet output was first converted into raw sugar and then refined separately, unlike in the United States, where processing was typically completed within a single facility.

Lipo Text Regular

from 75 EUR

Британская сахарорафинадная промышленность начала развиваться около 1544 года, когда в Лондоне были основаны первые рафинадные заводы, известные как «сахарные дома» (sugar houses). Изначально их рост был ограничен из-за сильной конкуренции со стороны Антверпена. Однако после упадка Антверпена в 1585 году сахарорафинадная промышленность Лондона значительно расширилась. В 1607 году Роберт Олдворт основал первый рафинадный завод в Бристоле. Со временем торговля сахаром и его переработка стали важным источником богатства города, особенно в XVIII веке, когда в Бристоле насчитывалось около 20 сахарорафинадных предприятий. Ливерпуль также включился в эту отрасль, открыв свой первый завод в 1667 году. В Шотландии сахарорафинадная промышленность появилась в 1667 году, когда первые предприятия были открыты в Глазго и Лейте. Позже отрасль сосредоточилась в Гриноке — портовом городе рядом с Глазго, где первый завод был основан в 1765 году. К XIX веку Гринок стал крупным центром переработки сахара: многочисленные заводы обрабатывали большие объёмы продукции. Развитие поддерживалось также сильной машиностроительной отраслью Глазго, поскольку переработка сахара требовала сложного оборудования. В XIX веке на отрасль большое влияние оказали предприниматели Генри Тейт и Абрам Лайл. Тейт расширил рафинадное производство в Ливерпуле и Лондоне, а Лайл построил собственный завод неподалёку. В 1921 году их компании объединились, образовав Tate & Lyle, которая впоследствии перерабатывала около половины всего сахара в Соединённом Королевстве. После Первой мировой войны британская сахарорафинадная промышленность начала приходить в упадок. Война показала риски чрезмерной зависимости от импортируемого тростникового сахара, что привело к усиленной поддержке внутреннего производства сахарной свёклы. Позднее вступление Великобритании в Европейский союз в 1973 году привело к введению правил, благоприятствующих производству сахара внутри Европы, что ещё сильнее повлияло на отрасль. В 2010 году компания Tate & Lyle продала свой сахарорафинадный бизнес американской компании American Sugar Refining, что стало важным изменением в структуре собственности отрасли. В Германии Гамбург был одним из ранних и важных центров сахарорафинадной промышленности, соперничая с такими городами, как Амстердам. К 1727 году в городе насчитывалось около 200 рафинадных предприятий, известных как Zuckersiederei, и Гамбург доминировал на немецком сахарном рынке.

Lipo Text Regular

from 75 EUR

Η βρετανική βιομηχανία διύλισης ζάχαρης ξεκίνησε περίπου το 1544, όταν ιδρύθηκαν στο Λονδίνο τα πρώτα διυλιστήρια—γνωστά ως «sugar houses». Αρχικά, η ανάπτυξή τους ήταν περιορισμένη λόγω του έντονου ανταγωνισμού από την Αμβέρσα. Ωστόσο, μετά την παρακμή της Αμβέρσας το 1585, η βιομηχανία διύλισης ζάχαρης του Λονδίνου επεκτάθηκε σημαντικά. Το 1607 ιδρύθηκε στο Μπρίστολ το πρώτο διυλιστήριο από τον Robert Aldworth. Με την πάροδο του χρόνου, το εμπόριο και η διύλιση ζάχαρης έγιναν σημαντική πηγή πλούτου για την πόλη, ιδιαίτερα κατά τον 18ο αιώνα, όταν το Μπρίστολ διέθετε περίπου 20 διυλιστήρια. Και το Λίβερπουλ συμμετείχε στη βιομηχανία, ιδρύοντας το πρώτο του διυλιστήριο το 1667. Στη Σκωτία, η διύλιση ζάχαρης ξεκίνησε επίσης το 1667, με πρώιμα διυλιστήρια στη Γλασκώβη και το Leith. Αργότερα, η βιομηχανία συγκεντρώθηκε στο Greenock, ένα λιμάνι κοντά στη Γλασκώβη, όπου άνοιξε το πρώτο διυλιστήριο το 1765. Μέχρι τον 19ο αιώνα, το Greenock είχε εξελιχθεί σε σημαντικό κέντρο, με πολυάριθμα διυλιστήρια που επεξεργάζονταν μεγάλες ποσότητες ζάχαρης. Η ισχύς της Γλασκώβης στη βιομηχανική παραγωγή βαρέων μηχανημάτων υποστήριξε επίσης αυτή την ανάπτυξη, καθώς η διύλιση απαιτούσε προηγμένο εξοπλισμό. Κατά τον 19ο αιώνα, η βιομηχανία διαμορφώθηκε από σημαντικούς επιχειρηματίες όπως ο Henry Tate και ο Abram Lyle. Ο Tate επέκτεινε τις δραστηριότητες διύλισης στο Λίβερπουλ και το Λονδίνο, ενώ ο Lyle ανέπτυξε το δικό του διυλιστήριο σε κοντινή περιοχή. Το 1921 οι εταιρείες τους συγχωνεύθηκαν για να δημιουργήσουν την Tate & Lyle, η οποία έφτασε να διυλίζει περίπου το ήμισυ της ζάχαρης του Ηνωμένου Βασιλείου. Μετά τον Πρώτο Παγκόσμιο Πόλεμο, η βρετανική βιομηχανία διύλισης ζάχαρης άρχισε να παρακμάζει. Ο πόλεμος ανέδειξε τους κινδύνους της μεγάλης εξάρτησης από εισαγόμενη ζάχαρη ζαχαροκάλαμου, οδηγώντας σε αυξημένη υποστήριξη για την εγχώρια παραγωγή ζαχαρότευτλων. Αργότερα, η είσοδος του Ηνωμένου Βασιλείου στην Ευρωπαϊκή Ένωση το 1973 εισήγαγε κανονισμούς που ευνοούσαν την παραγωγή ζάχαρης εντός της Ευρώπης, επηρεάζοντας περαιτέρω τη βιομηχανία. Το 2010, η Tate & Lyle πούλησε την επιχείρηση διύλισης ζάχαρης στην American Sugar Refining, σηματοδοτώντας μια σημαντική αλλαγή στην ιδιοκτησία. Στη Γερμανία, το Αμβούργο υπήρξε πρώιμο και σημαντικό κέντρο διύλισης ζάχαρης, ανταγωνιζόμενο πόλεις όπως το Άμστερνταμ. Μέχρι το 1727, η πόλη διέθετε περίπου 200 διυλιστήρια.

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