The Sweetness at the Bottom of the Pie

Each became a recluse in his own dominion, and each had forbidden the other ever to set foot across the black line which they caused to be painted dead center from the vestibule in the front, across the foyer, and straight through to the butler's WC. behind the back stairs. Their two yellow brick annexes, pustulantly Victorian, folded back like the pinioned wings of a boneyard angel which, to my eyes, gave the tall windows and shutters of Buckshaw's Georgian front the prim and surprised look of an old maid whose bun is too tight.

A later de Luce, Tarquin—or Tar, as he was called—in the wake of a sensational mental breakdown, made a shambles of what had promised to be a brilliant career in chemistry, and was sent down from Oxford in the summer of Queen Victoria's Silver Jubilee.

Tar's indulgent father, solicitous of the lad's uncertain health, had spared no expense in outfitting a laboratory on the top floor of Buckshaw's east wing: a laboratory replete with German glassware, German microscopes, a German spectroscope, brass chemical balances from Lucerne, and a complexly shaped mouth-blown German Geisler tube to which Tar could attach electrical coils to study the way in which various gases fluoresce.

On a desk by the windows was a Leitz microscope, whose brass still shone with the same warm luxury as it had the day it was brought by pony cart from the train at Buckshaw Halt. Its reflecting mirror could be angled to catch the first pale rays of the morning sun, while for cloudy days or for use after dark, it was equipped with a paraffin microscope lamp by Davidson & Co. of London.

There was even an articulated human skeleton on a wheeled stand, given to Tar when he was only twelve by the great naturalist Frank Buckland, whose father had eaten the mummified heart of King Louis XIV.

Three walls of this room were lined from floor to ceiling with glass-fronted cabinets, two of them filled row upon row with chemicals in glass apothecary jars, each labeled in the meticulous copperplate handwriting of Tar de Luce, who in the end had thwarted Fate and outlived them all. He died in 1928 at the age of sixty in the midst of his chemical kingdom, where he was found one morning by his housekeeper, one of his dead eyes still peering sightlessly through his beloved Leitz. It was rumored that he had been studying the first-order decomposition of nitrogen pentoxide. If that was true, it was the first recorded research into a reaction which was to lead eventually to the development of the A-bomb.

Uncle Tar's laboratory had been locked up and preserved in airless silence, down through the dusty years until what Father called my “strange talents” had begun to manifest themselves, and I had been able to claim it for my own.

I still shivered with joy whenever I thought of the rainy autumn day that Chemistry had fallen into my life.

I had been scaling the bookcases in the library, pretending I was a noted Alpinist, when my foot slipped and a heavy book was knocked to the floor. As I picked it up to straighten its creased pages, I saw that it was filled not just with words, but with dozens of drawings as well. In some of them, disembodied hands poured liquids into curiously made glass containers that looked as if they might have been musical instruments from another world.

The book's title was An Elementary Study of Chemistry, and within moments it had taught me that the word

iodine comes from a word meaning “violet,” and that the name bromine was derived from a Greek word meaning “a stench.” These were the sorts of things I needed to know! I slipped the fat red volume under my sweater and took it upstairs, and it wasn't until later that I noticed the name H. de Luce written on the flyleaf. The book had belonged to Harriet.

Soon, I found myself poring over its pages in every spare moment. There were evenings when I could hardly wait for bedtime. Harriet's book had become my secret friend.

In it were detailed all the alkali metals: metals with fabulous names like lithium and rubidium; the alkaline earths such as strontium, barium, and radium. I cheered aloud when I read that a woman, Madame Curie, had discovered radium.

And then there were the poisonous gases: phosphine, arsine (a single bubble of which has been known to prove fatal), nitrogen peroxide, hydrogen sulfide…the lists went on and on. When I found that precise instructions were given for formulating these compounds, I was in seventh heaven.

Once I had taught myself to make sense of the chemical equations such as K₄FeC₆N₆ + 2K = 6KCN + Fe (which describes what happens when the yellow prussiate of potash is heated with potassium to produce potassium cyanide), the universe was laid open before me: It was like having stumbled upon a recipe book that had once belonged to the witch in the wood.