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This volume focuses on the vernacular forms of English found at various locations both in Britain and Ireland as well as a few in continental Europe. The goal of these chapters is to provide histories of those dialects not necessarily leading to standard English, largely within the framework of language variation and change, which is the immediate concern of the opening chapters. There follow treatments of dialects in English including that of early London and the various regions of England. The English language in Scotland is given special treatment with chapters on Scots and Standard Scottish English. Wales and Ireland form the focus of subsequent chapters which in particular examine language contact and its effect on English in these regions. The volume closes with presentations of the development of English in the Channel Islands, Gibraltar, Malta and Cyprus.
This volume offers in-depth coverage of varieties of English across the world, outside of the British and North American arenas. Introductory chapters deal with the colonial transportation of English overseas and the generic types of English which resulted: first-language, second-language and foreign-language varieties, often subsumed under the label 'World Englishes'. English-lexifier pidgins and creoles are also examined. The remaining chapters treat forms of English in large geographical regions of the world. Anglophone Africa divides into three blocks, west, east and south, each with different linguistic ecologies determined by history and demography. Asia, especially South Asia and South-East Asia, is similar in the kinds of English it now shows. In recent decades, the significance of East Asia for varieties of English has increased given the economic development of China and the status of other Asian nations, such as South Korea and Japan.
This volume examines the development of forms of English in North America, from the earliest founder populations through to present-day varieties in the USA, Canada and the Caribbean. The linguistic analyses of today's forms emphasise language variation and change with a view to determining the trajectories for current linguistic change. The section on English in the United States has dedicated chapters on the history of African American English and the English of Latinos in the USA. Part II is concerned with English in Canada, with chapters on the anglophone settlement of Canada and on individual regions of that country, including English in Quebec. The third section consists of chapters devoted to the history of English in the anglophone Caribbean, looking at various creoles in that region, both in the islands and the rim, with a special chapter on Jamaica and on the connections between the Caribbean and the USA.
This volume investigates the Indo-European and Germanic background to the English language, looking at how inherited elements of phonology and morphology survived into the Old English period. It then considers various kinds of contact between the first speakers of English and speakers of Celtic, Latin and Scandinavian, under different sociolinguistic circumstances. The manner in which initial standardisation of English took place, with considerable code-switching, and the structural changes which the language underwent in this early period are discussed. The various analytical methods used to examine the available data are considered in a dedicated chapter on philology. The volume also contains a set of longer chapters. These take a detailed look at various levels of language from phonology, morphology, syntax through to semantics and pragmatics, and include reviews of historical sociolinguistics and onomastics.
Consciousness is the seamless inner subjective state which accompanies you in every moment of your wakeful life and which no-one else is privy to. It is a non-physical experience, which cannot be observed by examining the brain. In attempting to define consciousness, various scientists have strived to specify its necessary and sufficient properties or at least to narrow these down so as to get a handle on it. This is where the difficulties arise. While we all have consciousness and recognise it as an experience, it is difficult to pinpoint it in the form of a definition.1 And how would one go about doing this? One can give an operational definition: consciousness is when we show awareness and when we react to external stimuli. But it is much more than that, it is our inner world which we experience even when there are no external stimuli. Consciousness is where our thoughts are, where we get our ideas.
If you look at the animal kingdom you will see a bewildering array of life forms, with an even more astounding variety of no longer extant species in the past. Among these life forms we find the class of mammals in which the relation of brain size to body mass is greater than in other groups of animals. This is particularly true for cetaceans (sea mammals like whales and dolphins) and for elephants. However, there is one species which stands out from all others: the genus Homo, specifically the species Homo sapiens, the only surviving species of this genus. We are characterised by our large brains in proportion to our body mass and the prominent cortex (outer layer of the brain), especially at the front of the head.
Our story begins with the formation of our Earth about 4.55 billion years ago from the swirling disk of dust and gas, at the centre of which was the young Sun. The latter was formed from the large concentration of material in the middle of this disk. Other concentrations had begun to emerge outside the centre and these grew with time, attracting increasing amounts of material by their growing gravity. The more matter gathered in these concentrations the greater the gravity they had, this in turn causing some of them to steadily increase in size. These concentrations yielded the eight planets we know in our Solar System, with many smaller fragments forming asteroids in the region between Mars and Jupiter and other objects, far beyond the planets, in the Kuiper Belt and the even more distant Oort Cloud.
The term ‘artificial intelligence’ or just ‘AI’ is a buzz word tossed around at liberty in many publications and on the internet today. It is often used to refer to technologies for very specific tasks where human labour would be expensive, or subject to error due to endless repetition. Such technology has considerable applications in many fields of present-day engineering, in digitally based manufacturing and in important scientific domains such as medical research, diagnosis and treatment. Where the technology is used to replace human operators, as on assembly lines, it is more accurately known as robotics. The basis for such technology lies in high-performance computers,1 which have been programmed to perform precise complex tasks. The programming behind such computers is generally declarative, that is, the computers are given precise instructions about what they are to do.
By cognition is meant mental power, the performance of the brain. This varies among individuals but we can see when considering humans as a whole that there is a certain level which is characteristic of all humans and separates us from other animals. For instance, we can plan for the future, utilise past experiences, teach ourselves a wide variety of skills and engage in myriad activities which have nothing to do with our survival as a species.
Considering the high end of human cognitive achievement for a moment, we recognise that it is represented by our best scientists and among these there are, and have been, a small number of individuals who have furthered our scientific knowledge to an inordinate degree. Just think of the great names from the golden age of physics in the early twentieth century, of which Albert Einstein or Max Planck are among the best known to the general public.
Information, knowledge and understanding are closely related concepts but with clear differences between them. First of all, information refers to single facts and is independent of any human agent. It is a fact that the Sun is just under 150 million kilometres from the Earth; that is a piece of information. An individual may know that. Furthermore, this individual might know many other facts about our Solar System, and so have a coherent and structured amount of astronomical information, in which case one speaks of that person possessing knowledge about astronomy.
The question here is whether the biochemical processes observable on Earth would be replicated on another planet. Take photosynthesis as an example. This is the means by which plants utilise sunlight in the production of adenosine triphosphate (ATP) and glucose as sources of energy. During this process oxygen is given off and carbon dioxide is absorbed, hence the value of photosynthesis for environments on our planet. The actual process is highly complex and involves electrons going through intricate chemical reactions leading at the end to glucose formation. There is also a kind of reverse process, which involves the release of energy through the oxidation of a chemical derived from carbohydrates, fats and proteins. This is known as the citric acid cycle, an essential metabolic pathway used by aerobic organisms.
As humans we are confronted with devices which are supposed to work and often do not. Just think of all the domestic appliances you have at home. Do all of them work? I am sure that you can remember the time when the toaster gave up the ghost or the torch in the garden shed did not work. We have a notion of device and we have an expectation that it will work. But when we say a device does not work, what do we mean? Generally, we mean that it does not perform the function we expect of it. If you put sliced bread into the toaster and press down the lever at the side and nothing happens you utter a sigh of frustration because the device is not working.