This article on the BBC web site details the grants to various museums and heritage organisations.
I am pleased that one local to me; the Geffyre Museum is getting a grant.
The Geffrye Museum in London, which specialises in the history of the English domestic interior, is being given £11m.
The funding will allow the development of a new entrance from Hoxton station, accessible spaces for the collections, library and archive, new learning facilities and a new cafe.
The second entrance from Hoxton station is to be welcomed and I hope they make sure that the cafe serves gluten-free offerings.
One thing I feel strongly about is that all lottery-funded attractions, should have good access for those like me, who can’t or don’t drive.
Obviously some on today’s list like the Geffryre and Science Museums and Lincoln Cathedral are accessible by rail, but this isn’t always the case.
Jodrell Bank is a place, I would like to visit, but on looking up travel information on their web site, it has to be a taxi from the nearest stations. That is just not good enough and a real pity considering that Jodrell Bank lies virtually alongside the rail line between Manchester and Crewe.
A station would be expensive, but I’m certain that many European countries would have provided something better than expecting visitors to take a taxi, especially as the nearest station at Goostrey is only served by one train an hour. It would be interesting to see what would happen, if the service was twice an hour and there was a free shuttle bus to Jodrell Bank.
In my view anything that makes science more accessible and also puts Jodrell Bank on a sound financial footing is to be welcomed.
In Liverpool University’s Insight magazine, there is an article entitled A Surprising New Use For Tofu Ingredient. The details are here on the University’s web site, This is the first paragraph.
The chemical used to make tofu and bath salts could also replace a highly toxic and expensive substance used to make solar cells, a University study published in the journal Nature has revealed.
It appears that a researcher has found that you can replace expensive and highly toxic cadium chloride in solar cells with cheap and safe magnesium chloride.
Small developments like this make me think that the day when I fit solar panels to my flat roof a bit closer.
I sometimes describe myself as an engineer/scientist, despite the fact that I made most of my money by programming computers.
So this morning, this article entitled Thatcher and Hodgkin: How chemistry overcame politics, on the BBC’s web site caught my eye. Here’s the introduction.
To commemorate the 50th anniversary of Dorothy Hodgkin’s Nobel Prize, a play – The Chemistry Between Them – has been written, looking at her friendship with Margaret Thatcher. Its creator Adam Ganz describes their ongoing mutual respect.
Whether you love or hate Margaret Thatcher, you must read the article about the relationship between two of the most influential British women of the twentieth century. There is this significant paragraph.
It’s a peculiar fact that the UK’s Margaret Thatcher and Germany’s Angela Merkel both studied science at university, yet no male leader of either country has had a science degree.
Is the lack of scientific knowledge amongst world leaders the reason, why the world is in such a mess?
I shall be listening to the play on Radio 4.
As regards the play, I can’t think of a serious play or film, with the exception of The Killing of Sister George and Whatever Happened To Baby Jane?, that has two female leads and no significant male parts.
Last night I was searching for something else and came across this video on YouTube. This is the description to go with the video.
The actual process: gallium and aluminum combining, add water. stir – bubbles of hydrogen with only white aluminum oxide. as demonstrated by John Woodall – Jerry M. Woodall, National Medal of Technology Laureate, Distinguished Professor of School of Electrical and Computer Engineering, Purdue University, West Lafayette.
To put it simply, you add water to aluminium doped with gallium and the aluminium combines with the oxygen in the water and the hydrogen is released. The hydrogen can then be used to power a small engine.
It’s early days yet, but could this simple process be the key to hydrogen power?
I always remember in the Electrical Engineering Department at Liverpool University in the 1960s, we were shown one of the first lasers. In some ways then, it was just a scientific curiosity and people were speculating about how they could be used. Now everybody has at least one, if they have a CD player. Many people reading this will be navigating the Internet using a laser mouse, as in fact I am with a Logitech M525.
It may not use Jerry Woodall’s invention, but at some time in the future, you’ll just put water in the fuel tank of your car and just drive away, emitting nothing more than water vapour.
There are many problems to solve, but the internal combustion engine will be here hundreds of years from now.
This science museum, made ours in South Kensington seem particularly narrow in scope, very small and boring.
They also had no objections to the taking of pictures, providing you switched the flash off.
It was very busy with families and lots of kids.
One of the great things about a lot of Italian museums, is they seem to open early, unlike in some countries like Denmark.
The probe is expected to still be transmitting data back to earth until possibly 2025.
Who said that 1960s technology wasn’t any good and thoroughly unreliable?
As I passed Kings College by the Aldwych yesterday, I passed this tribute to Charles Wheatstone.
He was one of the more unusual scientists this country has ever produced and was a true scientist and inventor.
I was having a cup of tea in a cafe, when the geologist I was talking to, said that isotopes, were first discovered a hundred years ago, and that there was a bit of a celebration.
I learned about isotopes in my physics many years ago, but now all that I seem to remember is that two isotopes of the same element, have the same numbers of electrons and protons, but differ in the number of neutrons. Carbon for example has three forms, Carbon 12, Carbon 13 and Carbon 14. The three forms all contain six protons and electrons, but 6, 7 and 8 neutrons respectively. If you ever have heard of the Carbon 14 dating of objects, there is an article here, which describes the process.
I used the different isotopes many years ago, in one of the first pieces of decent software I wrote. I was trying to analyse the compounds in the output of a mass spectrometer. The samples contained lots of carbon compounds and I was told that the two common isotopes of Carbon 12 and Carbon 13, were in the ratio of ten to one, which meant that if you had a compound with several carbon atoms, you got a particular pattern. Experienced operators could identify the patterns. So I worked out how to calculate the patterns and match them to the compounds.
So that is how I learned about one of the uses of isotopes in the analysis of compounds.
This was in 1969 and the mechanics of writing the program on a machine with only 4 Kb of memory, were much more difficult than the methods involved.
I found this blue plaque as I walked back to the Overground from the river.
Sir William Henry Perkin, FRS 4 July 1907) was an English chemist best known for his discovery, at the age of 18, of the first aniline dye, mauveine. So it is not just today, when people create something amazing before their twentieth birthday! But how many today do such work, when they were born into relatively humble circumstances?
He was certainly one of the world’s greatest chemists. He is even commemorated by the Americans with the Perkin Medal.