Given a context passage, generate a question from the passage such that its answer is shortest continous span from the passage.

Republican Coalition Party (in Estonian: Vabariiklaste Koonderakond) 22.09.1990 -- 21.11.1992 Leo Starkov Estonian Christian-Democratic Union (Eesti Kristlik-Demokraatlik Liit) 29.08.1989 -- 21.11.1992 Illar Hallaste Estonian Christian-Democratic Party (Eesti Kristlik-Demokraatlik Erakond) 23.07.1988 -- 21.11.1992 Aivar Kala Estonian Conservative People's Party (Eesti Konservatiivne Rahvaerakond) 09.06.1990 -- 21.11.1992 Enn Tarto Estonian National Independence Party (Eesti Rahvusliku Soltumatuse Partei) 20.08.1988 -- 18.07.1993 Lagle Parek 18.07.1993 -- 27.11.1993 Ants Erm 27.11.1993 -- 02.12.1995 Tunne-Valdo Kelam Estonian National Coalition Party 'Pro Patria' (Eesti Rahvuslik Koonderakond Isamaa) 21.11.1992 -- 02.12.1995 Mart Laar Estonian Pro Patria Union (Eesti Isamaaliit) 02.12.1995 -- 24.10.1998 Toivo Jurgenson 24.10.1998 -- 14.12.2002 Mart Laar 14.12.2002 -- 16.04.2005 Tunne-Valdo Kelam 16.04.2005 -- 04.06.2006 Tonis Lukas Res Publica Party (Erakond Res Publica) 08.12.2001 -- 24.08.2002 Rein Taagepera 24.08.2002 -- 04.06.2005 Juhan Parts 04.06.2005 -- 04.06.2006 Taavi Veskimagi Pro Patria and Res Publica Union (Isamaa ja Res Publica Liit) 04.06.2006 -- 26.05.2007 Taavi Veskimagi (Res Publica) / Tonis Lukas (Pro Patria) 26.05.2007 -- 28.01.2012 Mart Laar 28.01.2012 -- 06.06.2015 Urmas Reinsalu 06.06.2015 --
Who led Pro Patria and Res Publica Union?

Community-acquired pneumonia (CAP) is a common cause of morbidity and mortality in adults worldwide, but its epidemiology varies markedly by region. Whilst in high-income countries, the predominant burden of CAP is in the elderly and those with chronic cardiovascular and pulmonary co-morbidity, CAP patients in low-income settings are often of working age and, in sub-Saharan Africa, frequently HIV-positive. Although region-specific aetiological data are limited, they are sufficient to highlight major trends: in high-burden settings, tuberculosis (TB) is a common cause of acute CAP; Gram-negative pathogens such as Klebsiella pneumoniae are regionally important; and HIV-associated opportunistic infections are common but difficult to diagnose. These differences in epidemiology and aetiological profile suggest that modified approaches to diagnosis, severity assessment and empirical antimicrobial therapy of CAP are necessary, but tailored individualized management approaches are constrained by limitations in the availability of radiological and laboratory diagnostic services, as well as medical expertise. The widespread introduction of the Xpert MTB/RIF platform represents a major advance for TB diagnosis, but innovations in rapid diagnostics for other opportunistic pathogens are urgently needed. Severity assessment tools (e.g. CURB65) that are used to guide early management decisions in CAP have not been widely validated in low-income settings and locally adapted tools are required. The optimal approach to initial antimicrobial therapy choices such as the need to provide early empirical cover for atypical bacteria and TB remain poorly defined. Improvements in supportive care such as correcting hypoxaemia and intravenous fluid management represent opportunities for substantial reductions in mortality.
CURB65 score is used for stratification of which disease?

When you look at the prickly cactus pictured below ( Figure 1.1), does the word "ouch" come to mind? Touching the cactus would be painful. Touch is the sense of pain, pressure, or temperature. Touch depends on sensory neurons, or nerve cells, in the skin. The skin on the palms of the hands, soles of the feet, and face has the most sensory neurons and is especially sensitive to touch. The tongue and lips are very sensitive to touch as well. Neurons that sense pain are also found inside the body in muscles, joints, and organs. If you have a stomach ache or pain from a sprained ankle, its because of these sensory neurons found inside of your body. The following example shows how messages about touch travel from sensory neurons to the brain, as well as how the brain responds to the messages. Suppose you wanted to test the temperature of the water in a lake before jumping in. You might stick one bare foot in the water. Neurons in the skin on your foot would sense the temperature of the water and send a message about it to your central nervous system. The frontal lobe of the cerebrum would process the information. It might decide that the water is really cold and send a message to your muscles to pull your foot out of the water. In some cases, messages about pain or temperature dont travel all the way to and from the brain. Instead, they travel only as far as the spinal cord, and the spinal cord responds to the messages by giving orders to the muscles. This allows you to respond to pain more quickly. When messages avoid the brain in this way, it forms a reflex arc, like the one shown below ( Figure 1.2). Our sense of touch is controlled by a huge network of nerve endings and touch receptors. This system is responsible for all the sensations we feel, including cold, hot, smooth, rough, pressure, tickle, itch, pain, vibrations, and more. There are four main types of receptors: mechanoreceptors, thermoreceptors, pain receptors, and proprioceptors. Mechanoreceptors perceive sensations such as pressure, vibrations, and texture. Your brain gets an enormous amount of information about the texture of objects through your fingertips because the ridges that make up your fingerprints are full of these sensitive receptors. Thermoreceptors perceive sensations related to the temperature of objects. There are two basic categories of thermoreceptors: hot receptors and cold receptors. The highest concentration of thermoreceptors can be found in the face and ears. Pain receptors, or nociceptor detect pain or stimuli that can or does cause damage to the skin and other tissues of the body. There are over three million pain receptors throughout the body, found in skin, muscles, bones, blood vessels, and some organs. Proprioceptors detect the position of different parts of the body in relation to each other and the surrounding environment. These receptors are found in joints, tendons and muscles, and allow us to do fundamental things such as feeding or clothing ourselves.
which receptors allow us to do fundamental activities?