While browsing old local newspapers, I discovered a reported theft of a urinometer. I wondered whether it did what I thought it did – it didn’t, it actually measures the specific gravity of urine, from which doctors claimed they could assess kidney function.
This did set me wondering whether there were other obsolete medical items and what they did – read on….
Trephines were used for making holes in the skull, the process known as trepanning.
Ecraseurs were used to strangle tumors, particularly in the uterus or ovary. It worked by tightening a wire loop around the base of the tumor.
Surgical guillotine was employed for urgent amputations, where surgeons decreed creating a flap of skin to fold over the wound would delay the procedure to an unacceptable degree.
Brass scarificators were considered a big step forward – we might view something which replaced leeches in the practice of blood letting rather differently.
Spinal saws were used for removing bone after fractures or deformities were diagnosed.
Surgical hammer – must have been of some use, and afterwards you can call a toffee hammer.
Skin hooks were obviously used to hold back the skin while playing around inside – but they do seem quite terrifying.
Showing posts with label urine. Show all posts
Showing posts with label urine. Show all posts
Sunday, 31 August 2025
Sunday, 20 November 2016
Atomic Etymologies
Following on from my recent examination of Elemental Etymologies , and after hearing the latest news on the hunt for the Higgs Bosun, thoughts turned to the origin of these. With the science of splitting the atom a very new idea, the names of the sub-atomic particles would be expected to have very recent beginnings. However some of the following have a most surprising meaning and origin.
Atom is certainly the oldest of the words and also comes first alphabetically, hence it is the logical place to start. It is first seen in the late 15th century and taken from the Latin atomus meaning 'indivisible particle'. Even though we are speaking about sub-atomic particles from hereon, this definition still fits as this is indeed the smallest state any of any element, and smaller and it is quite simply something else. Latin took the Greek atomos meaning 'uncut, unhewn, indivisible' from a 'not' and tomos 'a cutting'. What had been ancient speculation by Greeks such as Leucippus and Democritus, saw a revival in 1805 by the British scientist John Dalton.
Quark is, for a particle only named just fifty years ago, still questioned. As a sub-atomic particle it was certainly named by US physicist Murray Gell-Mann who, in correspondence with the Oxford English Dictionary, informed the editors he took it directly from James Joyce's Finnegans Wake but already had the sound in his head before he found the word in print. Now this is said to be plausible as Gell-Mann's parents emigrated to the US from Austria-Hungary and German quark does exist (its meaning of 'curds, rubbish' is hardly relevant here). The questions concern the pronunciation which in US circles is generally pronounced to rhyme with 'stark' and in the UK more often rhyming with 'walk'. Note George Zweig, who deserves equal credit in the work, suggested the name ace.
Ion, as a noun, came into being when suggested by polymath the Rev William Whewell to physicist and chemist Michael Faraday. Whewell understood the Greek ion, being the neuter present participle of ienai 'go' came from the Proto-Indo-European ei 'to go, to walk' and perfectly describes how electrons move towards the electrode of opposite charge. Incidentally, this ancient root can be traced to words with identical meaning in Greek, Latin, Old Irish, Irish, Gothic, Gaulish, Sanskrit, Avestan, Old Persian, Lithuanian, Old Church Slavonic, Bulgarian and Russian.
Electron was coined by Irish physicist George J. Stoney in 1891. He combined 'electric' with 'on', as seen in 'ion' (below) as the flow of electrons is, in a most basic sense, what the layman refers to as 'electricity'.
Proton was coined in 1920 by the English physicist John Rutherford. He used proton as the neuter of the Greek noun protos meaning 'first'.
Neutron is 'the electrically neuter part of the atom' and named in 1921 by US chemist William D Harkins, he taking 'neutral' and 'on' (see 'ion') to produce a word which has a basis in 'neuter' and originally referring solely to gender in the sense 'not capable of breeding'.
Neutrinos are particles smaller than a neutron, the term coined by Italian physicist Enrico Fermi and ultimately shares its etymology with 'neutron' (above).
Photons are units of electromagnetic radiation (light to you and I), and derives its name from the Greek photo 'light' and the suffix 'on' (see 'ion'). Note the Greek photo can be traced back to Proto-Indo-European bha 'to shine'.
Baryon comes from the Greek barys 'heavy' and the addition of 'on' (see 'ion').
Fermion is a name coined by Paul Dirac and inspired by Italian physicist Enrico Fermi with the addition of 'on' (see 'ion').
Lepton is named from the Greek leptos 'small.slight' and derived from lepein 'to peel' and ultimately from Proto-Indo-European lep 'peel, shave, to scale (from fish)'. Here the suggestion is the lepton is a weak force and shares a root with 'leper'.
Mesons are intermediate in mass between protons and electrons hence, with the suffix 'on' (see 'ion') the Greek mesos or 'middle' was used.
Hadron uses the suffix 'on' (see 'ion') to follow the Greek hadros 'thick, bulky' as well as 'great, large, ripe'. This prefix comes from the Proto-Indo-European root sa 'to satisfy' and shares an origin with 'sad'. Scientist working at the Hadron Collider (a fabulous potential pub name) might have their own opinions as to their work being related to 'thick' and 'sad'.
Higgs boson is the Holy Grail for physicists - the Holy Grail that is until they discover something ever deeper - and is named after Peter Ware Higgs CH FRS FRSE and Satyendra Nath Bose FRS. Neither men gave the alternative name of the 'God particle' to the Higgs boson, this most often attributed to Leon Lederman as the author of the book The God Particle: If the Universe Is the Answer, What Is the Question? (catchy isn't it?) but actually came from the publisher (yes, been there!) after Lederman originally came up with the phrase the "Goddamn particle".
Pions were named from the Greek letter pi, itself from the Hebrew where it meant 'little mouth', together with the suffix 'on' (see 'ion').
Positron was coined in 1933 and simply takes the first part of 'positive' and the ending of 'electron' to describe itself.
Muons were once known as the 'mu meson' but scientists agreed upon the shorter version. Hence the 'meson' (see above) took on the Greek letter mu, itself derived from the Egyptian hieroglyph for 'water' and which also formed the basis for the Polish word for 'slime', the Sanskrit word for 'urine', and the Avestan word for 'excrement'.
This is why language is so wonderful. In the modern world of science we need to travel back thousands of years, only to discover the 'water', 'urine' and 'excrement' all, etymologically speaking, stem from the same thing.
Atom is certainly the oldest of the words and also comes first alphabetically, hence it is the logical place to start. It is first seen in the late 15th century and taken from the Latin atomus meaning 'indivisible particle'. Even though we are speaking about sub-atomic particles from hereon, this definition still fits as this is indeed the smallest state any of any element, and smaller and it is quite simply something else. Latin took the Greek atomos meaning 'uncut, unhewn, indivisible' from a 'not' and tomos 'a cutting'. What had been ancient speculation by Greeks such as Leucippus and Democritus, saw a revival in 1805 by the British scientist John Dalton.
Quark is, for a particle only named just fifty years ago, still questioned. As a sub-atomic particle it was certainly named by US physicist Murray Gell-Mann who, in correspondence with the Oxford English Dictionary, informed the editors he took it directly from James Joyce's Finnegans Wake but already had the sound in his head before he found the word in print. Now this is said to be plausible as Gell-Mann's parents emigrated to the US from Austria-Hungary and German quark does exist (its meaning of 'curds, rubbish' is hardly relevant here). The questions concern the pronunciation which in US circles is generally pronounced to rhyme with 'stark' and in the UK more often rhyming with 'walk'. Note George Zweig, who deserves equal credit in the work, suggested the name ace.
Ion, as a noun, came into being when suggested by polymath the Rev William Whewell to physicist and chemist Michael Faraday. Whewell understood the Greek ion, being the neuter present participle of ienai 'go' came from the Proto-Indo-European ei 'to go, to walk' and perfectly describes how electrons move towards the electrode of opposite charge. Incidentally, this ancient root can be traced to words with identical meaning in Greek, Latin, Old Irish, Irish, Gothic, Gaulish, Sanskrit, Avestan, Old Persian, Lithuanian, Old Church Slavonic, Bulgarian and Russian.
Electron was coined by Irish physicist George J. Stoney in 1891. He combined 'electric' with 'on', as seen in 'ion' (below) as the flow of electrons is, in a most basic sense, what the layman refers to as 'electricity'.
Proton was coined in 1920 by the English physicist John Rutherford. He used proton as the neuter of the Greek noun protos meaning 'first'.
Neutron is 'the electrically neuter part of the atom' and named in 1921 by US chemist William D Harkins, he taking 'neutral' and 'on' (see 'ion') to produce a word which has a basis in 'neuter' and originally referring solely to gender in the sense 'not capable of breeding'.
Neutrinos are particles smaller than a neutron, the term coined by Italian physicist Enrico Fermi and ultimately shares its etymology with 'neutron' (above).
Photons are units of electromagnetic radiation (light to you and I), and derives its name from the Greek photo 'light' and the suffix 'on' (see 'ion'). Note the Greek photo can be traced back to Proto-Indo-European bha 'to shine'.
Baryon comes from the Greek barys 'heavy' and the addition of 'on' (see 'ion').
Fermion is a name coined by Paul Dirac and inspired by Italian physicist Enrico Fermi with the addition of 'on' (see 'ion').
Lepton is named from the Greek leptos 'small.slight' and derived from lepein 'to peel' and ultimately from Proto-Indo-European lep 'peel, shave, to scale (from fish)'. Here the suggestion is the lepton is a weak force and shares a root with 'leper'.
Mesons are intermediate in mass between protons and electrons hence, with the suffix 'on' (see 'ion') the Greek mesos or 'middle' was used.
Hadron uses the suffix 'on' (see 'ion') to follow the Greek hadros 'thick, bulky' as well as 'great, large, ripe'. This prefix comes from the Proto-Indo-European root sa 'to satisfy' and shares an origin with 'sad'. Scientist working at the Hadron Collider (a fabulous potential pub name) might have their own opinions as to their work being related to 'thick' and 'sad'.
Higgs boson is the Holy Grail for physicists - the Holy Grail that is until they discover something ever deeper - and is named after Peter Ware Higgs CH FRS FRSE and Satyendra Nath Bose FRS. Neither men gave the alternative name of the 'God particle' to the Higgs boson, this most often attributed to Leon Lederman as the author of the book The God Particle: If the Universe Is the Answer, What Is the Question? (catchy isn't it?) but actually came from the publisher (yes, been there!) after Lederman originally came up with the phrase the "Goddamn particle".
Pions were named from the Greek letter pi, itself from the Hebrew where it meant 'little mouth', together with the suffix 'on' (see 'ion').
Positron was coined in 1933 and simply takes the first part of 'positive' and the ending of 'electron' to describe itself.
Muons were once known as the 'mu meson' but scientists agreed upon the shorter version. Hence the 'meson' (see above) took on the Greek letter mu, itself derived from the Egyptian hieroglyph for 'water' and which also formed the basis for the Polish word for 'slime', the Sanskrit word for 'urine', and the Avestan word for 'excrement'.
This is why language is so wonderful. In the modern world of science we need to travel back thousands of years, only to discover the 'water', 'urine' and 'excrement' all, etymologically speaking, stem from the same thing.
Sunday, 16 October 2016
Acidic Answers
Not all acids are the highly corrosive substances introduced to us by our chemistry teacher. Amino acids for example are the basis for life as we know it. While defining the origins and meanings of various elements in previous posts, the question of what is an acid and how it got its name came to mind. The answers are below and beginning with the word 'acid' itself.
Acid, rather unsurprisingly, got its name for its taste - remember acid drops? Derived from the Latin acidus or 'sour', this is ultimately from the Proto-Indo-European ak meaning 'sharp' but also used to mean 'pointed'. When it comes to the chemical names with which we are most familiar, these are self-explanatory. For example hydrochloric simply means 'composed of chloring and hydrogen'; Sulphuric is 'of or pertaining to sulphur'; Nitric derives its name from 'nitre'; boric from 'boron'; and carbonic is derived from 'carbon dioxide'.
Formic acid is familiar to anyone who has been on the receiving end of a nettle sting - that irritant is formic acid. It is also used by ants and German chemist Andreas Sigismund Marggraf first obtained a pure form by distilling it from red ants. The name comes from the Latin formica meaning 'ants'.
Acetic acid has been tasted by most of us, be it in pickle or splashed liberally on chips, it is commonly known as vinegar. The word comes to English from the French acetique meaning 'vinegar' and ultimately from the Latin vinum acetum or 'wine turned sour'. Incidentally 'vinegar is derived from the Latin vinum aigre with the same 'sour wine' meaning.
Oxalic is related to 'oxygen' for both first elements come from the Latin oxalis 'sharp' and ultimately from the Greek oxys 'sharp'.
Tartaric acid is found in foods such as apples, bananas, avocados, apricots and grapes and thus in wine. Its name is derived from tartar or bitartrate of potash, this from Greek tartaron, a reference to the 'tartar encrusting the sides of wine casks'. It is thought to be of Semitic origin but the exact source has yet to be identified.
Folic acid is a B vitamin, important during pregnancy, and derived from the Latin folium meaning 'leaf' as it is found in abundance in green leaves such as spinach.
Ascorbic acid is a naturally occurring antioxidant. Its name comes from Middle Latin scorbuticus or 'scurvy' as was originally a reference to Vitamin C which is an anti-scorbutic.
Citric acid is found in citrus fruits. Here 'citrus' is a Latin word referring to the citron tree, the name given to a tree with a lemon-like fruit and aromatic wood native to Africa and was the first citrus fruit available to the west.
Lactic acid is obtained from sour milk, the name meaning 'procured from milk' and ultimately derived from the Latin lac or 'milk'.
Uric acid is, as any gout sufferer will tell you, the acid in urine which crystallizes in the joint (usually of the big toe) to cause the pain. It is, of course, present in urine and also blood and came to English from the French orine. We can trace this back to a Proto-Indo-European we-r, used to mean 'water, liquid, milk' and the root of Sanskrit var 'water', Avestan var 'rain', Lithuanian jures and Old Norse ver both meaning 'sea', and Old Norse ur referring very specifically to 'drizzling rain'.
Acid, rather unsurprisingly, got its name for its taste - remember acid drops? Derived from the Latin acidus or 'sour', this is ultimately from the Proto-Indo-European ak meaning 'sharp' but also used to mean 'pointed'. When it comes to the chemical names with which we are most familiar, these are self-explanatory. For example hydrochloric simply means 'composed of chloring and hydrogen'; Sulphuric is 'of or pertaining to sulphur'; Nitric derives its name from 'nitre'; boric from 'boron'; and carbonic is derived from 'carbon dioxide'.
Formic acid is familiar to anyone who has been on the receiving end of a nettle sting - that irritant is formic acid. It is also used by ants and German chemist Andreas Sigismund Marggraf first obtained a pure form by distilling it from red ants. The name comes from the Latin formica meaning 'ants'.
Acetic acid has been tasted by most of us, be it in pickle or splashed liberally on chips, it is commonly known as vinegar. The word comes to English from the French acetique meaning 'vinegar' and ultimately from the Latin vinum acetum or 'wine turned sour'. Incidentally 'vinegar is derived from the Latin vinum aigre with the same 'sour wine' meaning.
Oxalic is related to 'oxygen' for both first elements come from the Latin oxalis 'sharp' and ultimately from the Greek oxys 'sharp'.
Tartaric acid is found in foods such as apples, bananas, avocados, apricots and grapes and thus in wine. Its name is derived from tartar or bitartrate of potash, this from Greek tartaron, a reference to the 'tartar encrusting the sides of wine casks'. It is thought to be of Semitic origin but the exact source has yet to be identified.
Folic acid is a B vitamin, important during pregnancy, and derived from the Latin folium meaning 'leaf' as it is found in abundance in green leaves such as spinach.
Ascorbic acid is a naturally occurring antioxidant. Its name comes from Middle Latin scorbuticus or 'scurvy' as was originally a reference to Vitamin C which is an anti-scorbutic.
Citric acid is found in citrus fruits. Here 'citrus' is a Latin word referring to the citron tree, the name given to a tree with a lemon-like fruit and aromatic wood native to Africa and was the first citrus fruit available to the west.
Lactic acid is obtained from sour milk, the name meaning 'procured from milk' and ultimately derived from the Latin lac or 'milk'.
Uric acid is, as any gout sufferer will tell you, the acid in urine which crystallizes in the joint (usually of the big toe) to cause the pain. It is, of course, present in urine and also blood and came to English from the French orine. We can trace this back to a Proto-Indo-European we-r, used to mean 'water, liquid, milk' and the root of Sanskrit var 'water', Avestan var 'rain', Lithuanian jures and Old Norse ver both meaning 'sea', and Old Norse ur referring very specifically to 'drizzling rain'.
Sunday, 16 February 2014
Really Rank Recipes
Virtually none of my writing involves anything later than the end of the nineteenth century, most very much earlier. Examining old maps and records may give glimpses into who was where and when but does not allow us to experience what it was really like to live and work in the towns of Victorian, Georgian, Tudor, Norman or even Saxon England. It struck it was tantamount to watching cookery programming on television, you can see it but neither smell nor taste it. Hence I have uncovered a few recipes used in the industries and processes of the past. You might not want to try these at home.
Common to just about every community since records were kept, the tannery was known for being odious in the extreme. Whenever possible it was situated at a good distance from the residential area. When the hides arrived they were already quite smelly, having been removed from the animal some flesh and fat would remain and that would quickly begin to rot. In order to clean up the hide and to help remove the hairs, the hide would be soaked in urine, concentrated and well-matured worked best. Then the leather would be softened, which required it to be pounded in a solution featuring animal dung (dog and pigeon was seen as particularly desirable). Tanners would tread this in bare feet for around two to three hours.
An alternative to dung was animal brains. Unfortunately not all animals have enough brains to rot their own hide, hence it was sometimes necessary to had something from the other end to help with the mixture.
Leather scraps would be turned into glue. Soaking the rotting scraps in water until it rotted down to produce the valuable adhesive. This took little in the way of man-power. Just let nature take its course, which it would after a few months.
Urine was also used to degrease and clean woollen cloth. Although there was an attempt made to ban this process in the Middle Ages, it was only successful for the larger scale production, those producing their own continued to use the free liquid.
Plasterers will tell you it is one of the hardest manual trades to learn as you have to work quickly to finish the job – in its simplest terms the whole task needs to dry as one, for this helps prevent cracking. When walls were made be interweaving flexible wooden poles through larger stakes, the gaps were sealed with wattle and daub. This was the plaster of its day, and effectively did the same job. Here a mixture of mud and animal dung was blended with straw, to give it some body, and smeared into the walls of the building. When dry it provided a draught-proof and fairly waterproof covering. Unlike the modern plasterer, who mixes and applies the plaster with tools, the wattle and daub was mixed with bare feet and applied with the hands.
But perhaps this was deliberate to cover up the smell of the cooking.
Common to just about every community since records were kept, the tannery was known for being odious in the extreme. Whenever possible it was situated at a good distance from the residential area. When the hides arrived they were already quite smelly, having been removed from the animal some flesh and fat would remain and that would quickly begin to rot. In order to clean up the hide and to help remove the hairs, the hide would be soaked in urine, concentrated and well-matured worked best. Then the leather would be softened, which required it to be pounded in a solution featuring animal dung (dog and pigeon was seen as particularly desirable). Tanners would tread this in bare feet for around two to three hours.
An alternative to dung was animal brains. Unfortunately not all animals have enough brains to rot their own hide, hence it was sometimes necessary to had something from the other end to help with the mixture.
Leather scraps would be turned into glue. Soaking the rotting scraps in water until it rotted down to produce the valuable adhesive. This took little in the way of man-power. Just let nature take its course, which it would after a few months.
Urine was also used to degrease and clean woollen cloth. Although there was an attempt made to ban this process in the Middle Ages, it was only successful for the larger scale production, those producing their own continued to use the free liquid.
Plasterers will tell you it is one of the hardest manual trades to learn as you have to work quickly to finish the job – in its simplest terms the whole task needs to dry as one, for this helps prevent cracking. When walls were made be interweaving flexible wooden poles through larger stakes, the gaps were sealed with wattle and daub. This was the plaster of its day, and effectively did the same job. Here a mixture of mud and animal dung was blended with straw, to give it some body, and smeared into the walls of the building. When dry it provided a draught-proof and fairly waterproof covering. Unlike the modern plasterer, who mixes and applies the plaster with tools, the wattle and daub was mixed with bare feet and applied with the hands.
But perhaps this was deliberate to cover up the smell of the cooking.
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