FR2651824A1 - SYSTEM FOR CREATING A COMFORT SPACE. - Google Patents

Abstract

The system includes an apparatus (2) for collecting environmental data, providing input information, a number of environmental factors inside and outside a space or a building (1), an arithmetic or computer computing device (3) for the environmental data to determine an optimal combination of environmental factors for the space (1) on the basis of the information gathered by the environmental data collection (2), and an environmental monitoring device (4) to bring out a new factor for space (1) based on information from the computing device (3).

Description

The present invention relates to a system for creating a space for

  comfort in which individuals are active, for example an interior space in a building, a space in a vehicle, a space in a boat or a ship, a space in an airplane, a universal or cosmic space, an underground space to

great depth, or the like.

  In practice, classic comfort spaces have already been created. However, the classic method

  does not control certain environmental factors or elements

  Reason that independently or individually, for example the temperature, humidity, lighting or density of a luminous flux, a sound, an odor or a scent, etc. In addition, almost all the systems of controls have been designed to keep environmental factors their values

respective uniforms.

  However, the environment necessary for this space varies according to the use of the space, the conditions of the environment outside this space, the condition of activity of individuals inside this space, or similar. Different environmental factors act jointly on individuals. It is impossible for conventional techniques and methods to account for action

  combination of different factors.

  In addition, air conditioning has generally been adopted in buildings, in order to give the rooms a satisfactory or excellent environment and

  occupancy conditions for comfortable places.

  Some air conditioning systems have a temperature control system inside the room. Conventional control of the interior temperature is carried out in such a way that the temperature is detected by a thermal probe installed in a suitable place such as, for example, a partition, and an air conditioner installed in the building reacts according to the signal from

thermal probe.

  - Thus, in many cases, the internal temperature detection thermal probe is installed at

  an unsuitable location. In this case, the thermometer

  mique detects the temperature of his loved one around-

  close to its location.

  For this reason, the temperature of the place where individuals actually reside in the room is not

  not directly detected, so the condition-

  Air is not controlled according to the temperature of the place where individuals actually reside. So the indoor temperature is not

optimally controlled.

  On the other hand, the temperatures inside the room can be felt differently depending on the individual. Thus, a conventional uniform control of the temperature of a room based on the proximity temperature of the location of the thermal probe, does not make it possible to provide individuals residing in the

  room a comfortable temperature.

  For this reason, it is difficult to say that a conventional interior temperature control can provide individuals living in the room with a

optimal temperature.

  In addition, conventional methods such as those described

  tes below, have been applied. For example, in a factory or similar location, background music is played through a loudspeaker to give workers a feeling of mental or spiritual comfort, allowing

  thereby increasing productivity.

  Likewise, music can help

  treatment or remedy for mental illnesses.

  All of the conventional methods mentioned above are based on the principle of audible sound. However, in recent years, it has been discovered that an ultrasonic wave equal to or greater than 20 KHz, such as for example certain noises of nature - rustling of leaves or the like - even if it is not perceived by the human ear , fear having

  beneficial effects in the medical treatment of certain

  nes modern diseases like "stress", psychosomatic diseases etc ... We also discovered that an ultrasonic wave reaching 40 KHz had

  beneficial effects in the medical treatment of certain

some modern diseases.

  On the other hand, common digital recording and reproducing devices, record and reproduce sounds at best over a range between a few

  Hz and 22 KHz, according to a reference frequency.

  As a result, it is impossible for these devices to record and reproduce natural wave sounds.

  ultrasonic from the natural environment.

  In addition, in large modern buildings, the interior space is completely cut off from the outside. They

  have air conditioning and are uniformly lit

  reminiscent of an airplane.

  Thus, the interior tends to detach itself from variations and external conditions. In particular, there are many cases where the heart of a building becomes a bleak and reliefless space, with its own light environment which remains constant and unchanged, day and night, and o person

  will not notice a rain shower outside.

  For all the reasons mentioned above, individuals are deprived of the natural rhythm necessary for everyone. As a result, people undergo repeated stress, particularly unconscious, or not being aware of the falling rain, only notice it when they pass the door of the building when they exit, which causes them and annoyance. In this way, individuals experience a mental shock which

leads them to "stress".

  In addition, a building structure is generally designed with a number of windows communicating with the outside. These windows have various functions like lighting, ventilation, the view on the outside, etc ... Possessing these functions, the windows are normally or by habit arranged in places o

  they allow communication with the outside.

  The buildings have a closed structure, like an underground, the heart of the structure can not communicate directly with the outside. This enclosed space cannot be lit or ventilated directly. In addition, since it is impossible from this enclosed space to have a view of the outside, this enclosed space becomes a dreary and cold place. It is therefore impossible for a building structure in an enclosed space to have windows having all the functions mentioned above. It is however desirable, in order to allow individuals residing inside the key space to spend as comfortable days as possible, that the functions for which the windows are designed, which have been described above, are also highlighted. best possible in the space of the building structure, to enhance this enclosed space. In addition, among the functions mentioned above, we must mention the Ection of view on the outside that has the structure of the building. On this subject,

  false windows or pseudo-windows are considered

  as highlighting this function of

exterior view.

  The pseudo-fengtres are arranged as follows. A recess is formed in a partition or other wall of the building structure. A window with panes is mounted on the opening of this recess. Visuals are pasted on the wall of the recess in its lower part, or else placed on the bottom of the side wall of the recess. Then,

  a light is directed towards the visuals to illuminate them

  rer. In this way, we can appreciate the visuals at

  through the window panes. With these pseudo-

  windows, the enclosed space mentioned above, which tends to be cold and dreary, can become a pleasant space. In classic pseudo-fengtres, the visuals are however simply glued to the bottom of the wall of the recess. Thus, there is no concept of distance or relief. It is therefore impossible to see a scene

  or a show like through a real window.

  In addition, in conventional pseudo-windows, the visuals perceived through the window panes always have a constant position for a predetermined period, without modification or movement, which removes any possibility of "fluctuation". Thus, the objects are far from a natural scene seen through a real window, and it is impossible to obtain the function of view on the outside that has a

window originally.

  In addition, it is obviously well known that such an opening is not made in an exterior wall of the building, but that it is a pseudofengtre formed only artificially. An example is particularly well perceived, in the case where it is impossible to install inside a window of identical shape and with opening similar to those of the exterior walls on a part of the building, a window frame at least similar to the window

  adjacent is installed to get a repro- wave

  duction of the design of the exterior wall. There are also pseudofengtres in which the tiles are laid so that, to the eye, there is no difference in construction between the pseudofenttres and the real or general fengtres, except as regards the functions

lighting, ventilation, etc ...

  On the other hand, the development in buildings of air conditioning systems reduces the rate of opening and closing the windows of these buildings. We

  rather notes an increase in the chassis of f enS-

  be fixed so as to avoid a reduction in the efficiency of the systems of opening and

closing windows.

  In addition, with the development of lighting systems and

  increasing the size of the buildings, the lighting

  Rabies is no longer always due to natural light, but many lamps are also used, giving a constant or predetermined light intensity. In the circumstances described above, there is an increase in so-called windowless buildings used by industries such as instrumentation for

  precision, audiovisual broadcasting, or others.

  As a result, there is no need to install fengtre frames on the exterior walls of these buildings, the deep design of their construction

  representing their function in itself.

  In addition, in a building reserved for business, and which uses underground rooms, the establishment or creation of a dry zone is limited by the site of the building and the construction costs. Consequently, a business building cannot become a windowless building with trompe-l'oeil equipment, without

lighting and ventilation.

  One of the various problems with windowless buildings is this. Even if the air conditioning and the lighting system are complete and perfect, the peripheral wall without windows creates a rupture and excludes the interior and the exterior from each other. It may happen that a building without

  fengtre causes a feeling of dead end and a sense of

  oppression specific to confined spaces, leading to lower productivity and business. Therefore, the interior environment of

  work and the presence within it deteriorate.

  In this specific case, even if the classic pesudo-windows are adopted and used, these are naturally only a simple flat surface located inside and on which we take a look, a completely different solution from a vision of The exterior and the actual design of the building. So we are no longer absolutely waiting for the effects of pseudo-fengtres. After all, the lighting, ventilation, etc. of a windowless building relies on artificial equipment. It is in fact that the

  the need for pseudo-windows is not sufficiently recognized.

  An object of the invention is to provide a system

  creating a space of comfort, which

  tr $ 1e several environmental factors in a synthetic or global way, and not independently,

  to allow this comfort space to be created.

  Another Dut of the invention is to provide a system

  teme to create a comfort space that can provide an optimal temperature for people

staying in a room.

  Another object of the invention is to provide a system

  teme to create a space of comfort, which

  uses a recording and reproducing apparatus

  tion whose characteristic is the ability to record and reproduce without distortion, and with an excellent signal / noise ratio, natural sounds in a range of several tens of KHz

up to 40 KHz.

  Another object of the invention is to provide a system

  teme to create a comfort space capable of detecting a light and a color from the outside to reproduce this light and this color inside, also capable of detecting a downpour

  of rain and reproduce it in simulation.

  Another object of the invention is to provide a system making it possible to create a comfort space capable of reproducing a scene similar to a scene

seen through a real window.

  Another object of the invention is to provide a system

  teme to create a comfort space capable of reproducing a "fluctuation" to obtain a

  image as close as possible to a natural scene.

  Another object of the invention is to provide a system

  teme to create a space of comfort by which, in a windowless building, the windows seem to have their function from the point of view of their essential condition by having rational pseudo windows

  According to the present invention, a system is provided.

  teme for creating a comfort space which comprises: means for collecting environmental data making it possible to collect, as input data, at least two factors relating to the environment in this space, one of which is a factor relating to 1 '

human activity.

  means for calculating environmental data to determine the optimal combination of environmental factors based on the information obtained by the data collection means on

the environment.

  environmental control means to bring out a new environmental factor for this space on the basis of the information provided by the

  means of calculating environmental data.

  Preferably, the means for collecting environmental data collect many factors relating to the interior and exterior environment of the space. According to the provisions of the invention mentioned above, the input information collected from factors of the external and internal environment by the means for collecting environmental data, are transmitted to the means for calculating the data, o the information entered is calculated and processed to determine the optimal combination

  factors of the space environment.

  / II The information is transmitted to the environmental control means from which the new factors

  of environment are emitted towards space.

  In fact, several environmental factors acting

  on an individual in a combined way, such as temperature

  erection, humidity, noise, lighting, odors, etc. are controlled synthetically or collectively, and not independently, so as to

  that it is possible to create a very comfortable space

  table. Thus, it is possible to provide an environment

  very comfortable in a space of human activity such as an interior space in a building, a space in a vehicle, a space in a boat or a ship, a space in an airplane, a universal or cosmic space a space in a large underground depth or the like.

  Preferably, the environmental control means

  nement include an air conditioning system to regulate the temperature in the space. The means for collecting environmental data include an interior thermal probe, installed at a location

  predetermined in space, to detect the temperature

  ture in space, and a body surface thermal probe to detect surface temperature

  body of an individual staying in space.

  The environment control means further includes a control unit for controlling the air conditioning systems on the basis of the interior temperature transmitted by the interior thermal probe, and the temperature of the body surface transmitted by the probe. body surface thermal, so the temperature

  interior is brought to a predetermined value.

I2

  According to the provisions of the invention described above

  above, the air conditioning system is controlled on

  the basis of the indoor temperature and the temperature

  ture of the body surface of the individual staying in space. In fact, the indoor temperature is controlled based on the indoor temperature

  and the human body surface. Thus, the temperature

  internal erection is optimally controlled for the individual staying in space;

  According to the provisions of the invention, the temperature

  inner ture is controlled on the basis of the

  body surface temperature and temperature

  internal erasure. Likewise, the indoor temperature is not simply controlled on the basis of the indoor temperature alone, unlike a conventional system, but can be brought to an optimal level for individuals staying in space. So,

  it is possible to effectively control the temperature

internal erasure.

  Preferably, the means of collecting data on

  the environment also include a thermal probe

  only outside to detect the outside temperature outside the space. The control unit controls

  the air conditioning system based on the diff-

  temperature reference between the outside temperature given by the outside thermal probe and the inside temperature given by the outside temperature probe

interior.

  According to the provisions of the invention, the air conditioning system is also controlled on the basis of the temperature difference between the outside temperature and the inside temperature. Likewise, the temperature is controlled on the basis of the indoor temperature, the temperature difference between the outdoor temperature and the temperature.

  interior, and body surface temperature.

  Thus, the interior temperature is better controlled for the individual staying in the room.

  Preferably, the air conditioning system does not

  only a specific area in space.

  According to the provisions of the invention mentioned above

  above, the air conditioning system does not condition

  than a specific area in space. Thus, the temperature

  internal erection is effectively controlled.

  Preferably, the means for creating a comfort space further comprise relaxation means based on high frequency natural sounds. The relaxation means include a microphone for collecting natural sounds in a range of several tens of KHz up to 40 KHz and giving an output signal, an AD converter in which the microphone output signal is received, a frequency divider digital to reduce the frequency of the output signal from the AD converter by an octave, a recorder to record and reproduce the output signal from the digital frequency divider analogically and digitally, a digital frequency multiplier for multiply by one octave the signal received from the recorder, a DA converter which receives the output signal from the digital frequency multiplier, and an electric sound converter to transmit the output signal from the DA converter, natural sounds having a frequency in the range

  from several tens of KHz up to 40 KHz.

  I4 According to the provisions of the invention mentioned above, the microphone collects natural sounds in the range of several tens of KHz up to KHz. Natural sounds are transformed into digital signals. Then, the natural sound is reduced by an octave by the digital frequency divider, and is recorded on the recorder. The recorded natural sound is reproduced and multiplied by one octave by the digital frequency multiplier. The natural sound is transformed into an analog signal. Then, the natural sound is emitted by the electric sound converter as a natural sound in the range of several tens of KHz.

up to 40 KHz.

  According to the provisions of the invention mentioned

  above, significant advantages can be obtained.

  Namely, it is possible to reproduce natural high frequency sounds having a frequency in the range of several tens of KHz up to 40 KHz and to use these natural high frequency sounds for relaxation purposes. In addition, the frequency divider and the frequency multiplier being of digital type, the only reduction of one octave of the natural high frequency input signal which must be recorded on

  the recorder, makes this sound audible.

  In addition, only one octave multiplication allows the input signal of high frequency natural sound to be easily transformed into high frequency natural sound.

  frequency for the purpose of relaxation.

AT

  Preferably, the means of controlling the environment-

  ment also include simulation means for simulating the external natural environment in space on the basis of information from

  means of collecting environmental data.

  I5 According to the provisions of the invention mentioned above, inside, the environment varies in

  depending on external conditions. Thus, the interior

  laughing is not a uniform and monotonous space, but a fluctuating space which varies with time. The fluctuating space pleasantly stimulates the individual's senses and sensitivity, so that he feels rested and relaxed. Stress can be

  eliminated. This means an improvement in the pro-

  ductivity and quality of business.

  Preferably, the means for collecting data on the environment detect rain conditions outside. The simulation means simulate the external natural environment in space on the basis of the output signal from the means

  of environmental data collection.

  According to the provisions of the invention mentioned above, adding to the fact that the advantages described above are given to the means of data collection

  on the environment which detects external conditions

  rain showers, everyone can become aware of rainy conditions. Likewise, another advantage consists in eliminating a disorder which could

  create at the exit, forcing you to return to the

space.

  Preferably, the means of creating a space for

  comfort in addition include at least a pseudo-

  window that has a recess in one of the

  walls of space, this recess having an opening

  tureun curved surface screen formed on the wall of the

  bottom of the recess, an apparatus for projecting

  tine to project images-on the screen with curved surface, and a window with tiles mounted

on the opening of the recess.

  I6 According to the provisions of the invention mentioned above, the image projected by the projector is projected onto the screen with a curved surface which has its own depth. Thus, in whatever direction we see the pseudo-window, it is possible to obtain an image creating a notion of distance and a three-dimensional notion. It is then possible to enjoy a scene closer to a natural scene in a pseudofengtre. Preferably, the means of creating a space for

  comfort include a number of pseudo-

  windows arranged next to each other, and in

  relationship to each other.

  According to the provisions of the invention mentioned above, if the pseudo-fengtra are arranged continuously, and if the projected image becomes a continuous image, it is possible to form in the pseudo-fengtre a wide or panoramic image. Thus, it is possible to form in pseudo-windows an image close to a real scene seen through real windows. In addition, the projected image depends on the conditions of the actual outdoor scene; it is thus possible to obtain in the pseudo-fengtres a scene closer to a real scene seen

through a real window.

  Preferably, the image projected on the surface screen

curve and animation.

  According to the provisions of the invention mentioned above

  above, if the image projected on the curved surface screen is a dynamic image or an animation, it is possible to produce a "fluctuation". Thus, I7 the scene seen through the pseudo-fengtre is closer to a real scene seen through a real window, so that it is possible to enjoy a

  natural scene through a pseudo-fengtre.

  Preferably, the system for creating a comfort space further comprises a pseudo-fengtre forming a fengtre without opening in a wall without fengtre from the space, the pseudo-fengtre comprising an auxiliary partition on the interior surface of the wall without window with a space between the interior surface and the exterior surface of the windowless wall, an opening formed in the auxiliary partition, a reflecting mirror arranged in this space and inclined towards the outside turned towards the opening, so that the front face of the reflecting mirror is turned towards the opening, and a lighting system arranged in this space and facing the front face of the reflecting mirror. According to the provisions of the invention mentioned above, and by the characteristics of use of the reflecting mirror, it is possible to create an extension equal to or greater than the depth of the pseudofengtre, it is possible to produce a

  likely, and at the same time, it is pos-

  likely to create an unconscious feeling of openness

  in an enclosed space. In addition, the living room and the environment-

  work in a windowless building are greatly improved, and the creation system

  of a comfort space becomes effective with the pseudo-

  window required for building without window.

  In addition, the auxiliary partition is necessary for the

  basic construction of the pseudo-fengtre. I8 However, in underground rooms, not only construction

  of a double wall is classic or usual, but the space between this double wall makes it possible to give the necessary depth to the window, to the lighting system and to the reflecting mirror, and the space allows the passage of the pipes of the air conditioning. There is therefore virtually no impact on construction costs. In addition, the space being formed by the auxiliary partition, maintenance is provided for a permanent installation

  reflective mirror and lighting system.

  Thus, transformations, replacement, etc ...

  are very easy. This allows a great freedom of action, for example, not having to fix the external imagery. We obtain a great added value which

is to be considered as a whole.

BRIEF DESCRIPTION OF THE DRAWINGS

  Fig. I is a general view showing a first embodiment of a system for creating a comfort space

according to the invention.

  Fig. 2 shows a second embodiment of a system of

  creation of a comfort space according to the

vention.

  Fig. 3 shows a modification of the second realization

tion shown in Fig. 2.

  Fig. 4 is a diagram showing a third

realization of the invention.

  Fig. 5 is a schematic view showing a fourth embodiment

sation of the invention.

  Fig. 6 is an explanatory view of an apparatus for producing and regulating lighting in the system for creating a comfort space described in

Figure 5.

  I9 Fig. 7 is an explanatory view of a rain reproducing device in the system for creating a space

  comfort described in Figures 5 and 6.

  Fig. 8 is a view showing a first modification of the fourth embodiment described in FIGS. 4 to 7. FIG. 9 is a view similar to FIG. 8, but showing a second modification of the fourth embodiment

described in Figures 5 to 7.

  Fig. IO is a perspective view showing a fifth

realization of the invention.

  Fig. II is a sectional view along line XI-XI of the

figure I0.

  Fig. I2 is a view of the fifth embodiment described

in Figures IO and II.

  Fig. I3 is a diagram of an image projector in the system for creating a comfort space described in

Figures IO to I2.

  Fig. I4 is a diagram of a selector reflecting device of the system for creating a comfort space

described in Figures IO to I3.

* Fig. I5 is a view from the top of the first modification of the fifth embodiment described in the figures

IO to I4.

  Fig. I6 is an explanatory view of an example of use of the system for creating a comfort space

derives from Figures IO to I5.

  Fig. I7 is a view showing a second modification of the

  fifth embodiment described in Figures IO to 14.

  Fig .. I8 is a vertical section view of a pseudo-window of the system for creating a comfort space

  according to the sixth embodiment of the invention.

  Fig. I9 -is a perspective view of the interior of the pseudo-

window described in figure I8.

  Fig 20 is an explanatory sectional view of the function and advantages of the pseudo-window described in Figs.

18 and 19.

  First, Figure 1 schematically shows a system for creating a following comfort space

  the first embodiment of the invention.

  The system for creating a comfort space comprises an apparatus 2 for collecting data on the environment, giving the input information, a certain number of factors on the environment inside and outside. a space or a building I, an arithmetic or computer computing device 3 of the environmental data to determine an optimal combination of the environmental factors for the space I on the basis of the information collected by the device of environmental data collection 2, and an environmental monitoring device 4 to bring out a new factor for space I based on

  calculator information 3.

  The environment data collection device 2

  includes a unit 5 for collecting data on the

  external environment, to collect data on the external environment in space I, a unit of data collection on human activity 6 to detect the conditions of activity of individuals in space I, a factor database -space 7 provided beforehand according to the use of space I, and a probe 8 of the interior environment to detect the environmental conditions in space I. The unit for collecting data on human activity 6 understands

  elements 6a and 6b, while the environmental probe

  8 several elements 8a and 8b.

  2I The external environment data collection unit 5 is installed with a view to the environmental conditions of space I; these conditions, in

  which the individual is active, must be determined

  mined as close as possible to the reality of the external environment, and natural fluctuation is an important factor in the concept of comfort. The external environment data collection unit 5 is installed

  so that the outside temperature, the humidity

  radiation, wind speed, air pressure, brightness or lighting, etc. are measured by techniques based on current probes, or by probes improved to the point of detecting fluctuations , and factors capable of controlling the indoor environment allowing

  collect the results of the probe measurements.

  Human activity data collection unit 6 detects human activity in space I, and sends

  data collected at the calculator 3.

  Methods of detecting human activity include photography using a television camera to perform pictorial analysis, measuring a certain amount of radiation according to

  a range of radiation from human skin, the use

  station of a probe, radar or the like for

  detect human activity, inside a room

  this or at its entrance, comprising a transmitter which also serves as an ID card for people active in the

  room to see the movement of people, a detection

  selective tion of a single voice among a set of

conversation to be measured, etc ...

  The factor-space 7 database is designed as follows. Given the fact that, as environmental factors peripheral to space I, there are factors which vary from hour to hour

  as the environmental data collection unit

  externally, the unit for collecting data on human activity 6, and the factors previously supplied as a function of the use of space I. Depending on these factors or conditions, a database is prepared, and the information necessary for environmental monitoring is obtained from

  of this database. The information being memorized

  laughs in the database it is possible to

  specify the use of space, that is, the information

  list of uses of a multi-purpose space, the conditions of the pitches, the season,

  the organization of a group of targeted people, etc.

  Organizing a target group includes

the distinction of sex and age.

  The indoor environment sensor 8 detects the con-

  environmental conditions inside space I, including temperature, humidity, radiation,

  brightness, sound level, odors, etc ...

  The indoor environment probe 8 is designed to detect the fluctuation by reduction of the time constant on the basis of the current probe technique. In addition, it is desirable that several probes are installed in space I to measure the distribution inside space I. On the other hand, the calculating device 3 determines an optimal combination of the different factors of 1 environment, based on information collected by the external environment data collection unit 5, the human activity data collection unit 6, the factor-space database 7, and the environment probe unit 8, for transmitting control information to the various environment monitoring instruments 9 and 9 of the environment monitoring device 4. These are in particular: I. The evaluation or estimation of a degree of comfort of space I at this point of time on the basis of the various information obtained from the probe

indoor environment 8.

  2. A similar development of information coming from the data collection unit on the external environment 5, the data collection unit

  human activity data 6, and the database

  born factor-space 7, to assess the degree of comfort desired in space I. 3. Obtaining an output necessary for the various environmental factors to make coincide

  the estimated value of I and the estimated value of 2.

  4. Contribution of a certain fluctuation to the output information sent to the various factors of the environment to send the output information

  to the environmental monitor 4.

  Environmental monitor 4 brings together

  the various environmental control instruments

  9 and 9, and this section of the system provides

  an output. Thus, ins-

  instruments with capacities such as variation of the input data, and realization of fluctuation, which

  are added to classical instruments of the environment-

  such as air conditioning, lighting, etc.

  How the space creation system works

  of comfort mentioned above will be described later.

  As shown in Figure I, the outdoor environment is detected by the outdoor environment data collection unit 5, the indoor environment is detected by the indoor environment probe 8, and human activity is detected by the unit of

  human activity data collection 6.

  The result of the detections is transmitted to the environment calculating device 3. The environment calculating device 3 calculates the optimal environment the output data and the fluctuation values

  respective subsystems of the factors of about-

  necessary for an optimal environment, on the basis of the variable data mentioned above and data from the factor-space database 7, to send a signal to a pair of factor-environment control units IO and 10.- The environmental factor IO and IO control units control the various environmental control instruments 9 and 9 comprising an output variation system and a possibility of fluctuation on the basis of the signal.

  emitted by the environment calculator 3.

  Thus, various environmental factors such as air conditioning, lighting, odors, or the like originate respectively from the various environmental control instruments 9 and 9 in

  space I in optimal conditions.

  According to the first implementation of the system for creating a comfort space, environmental factors such as temperature, humidity, noise, lighting, odors, etc. are synthetically controlled and not independently, to create

  automatically a very comfortable environment.

  In addition, the environmental control described above

  Also, the natural conditions outside at the given moment, the conditions of human activity, function of the space in question, its use, in addition to the environmental conditions of space I, are used as input data, allowing

  thus creating an even more efficient space.

  In addition, the fluctuation is provided by various factors

  of the environment which are the outputs of the system.

  Thus, we consider a physiological action and a mental action of man in the face of variations in the environment, we can therefore be led

  to consider a countermeasure more in line with reality.

  In Figure 2 is shown a system for creating a comfort space according to the second embodiment of the invention. The comfort space system is designed to control the temperature

inside a room.

  The system for creating a comfort space includes an air conditioner 101, a control unit (CPU) 102 for the conditioner 101, an indoor thermal probe 103 for detecting the indoor temperature, an indoor infrared thermal probe 104 for detecting the surface body temperature of the people staying in the room, and an outdoor thermal probe 105 for detecting the outside temperature. In FIG. 2, the air conditioner 101 is connected to a location in the room by a suction pipe 106, one end of which opens into the ceiling. In addition, the conditioner 101 is connected to a location in the room by a blowing pipe I07, one end of which opens into the ceiling. The IOI air conditioner is connected to an indoor instrument I09 installed on the floor of the room, by a blower pipe I08. Thus, the air conditioner IOI is designed in such a way that the air in the room is sucked in through the suction line I06, is cleaned, the air temperature is regulated, and the air is blown from the ceiling and the inner instrument I09 using the

blowing lines I07 and I08.

  The I02 control unit is connected to the IOI air conditioner. Are connected to the control unit I02, the indoor thermal probe I03, installed at a location

  part, for example on the upper part

  behind an interior partition of the embodiment shown in the figure, the infrared thermal probe I04 mounted at a location A, place where people stay more particularly in the room, for example a computer terminal, a design office, or the like , and the outdoor thermal probe I05

  mounted in a suitable place outside, e.g.

  ple on the top of an exterior wall of the

  realization shown in the figure.

  In the system for creating a comfort space designed like the one described above, the interior temperature detected by the thermal probe I03, the surface body temperature detected by the infrared thermal probe I04, and the exterior temperature detected by the probe external thermal I05, are transmitted to the control unit I02. The I02 control unit controls the IOI air conditioner so that the temperature becomes comfortable based on the indoor temperature, the body temperature of

  surface, and the temperature difference between the temperature

  indoor temperature and outdoor temperature.

  Figure 3 shows a modification of the second embodiment shown in Figure 2. In Figure 3, parts or components similar to those shown in Figure 2 have the same reference numbers

  and description of these parts or similar components

  will be omitted to avoid repetition.

  As shown in Figure 3, an indoor instrument I09a is installed in location A. The indoor instrument IO9a only conditions air in a specific area in the room, for example, location A. case, the interior thermal probe I03 is installed in location A. In this modification,

  there is no external thermal probe.

  In the system of creating a comfort space

  designed like the one described above and following the modi-

  Fication of the second embodiment, the control unit 102 controls the air conditioner IOI on the basis of the temperature recorded at location A by the indoor thermal probe I03 and the surface body temperature recorded by the infrared thermal probe I04 . In this case, the indoor instrument I09a only conditions the air in location A in a localized manner. Thus, a location where air conditioning is not necessarily necessary, will not be conditioned, so that there is no waste

  and that it is possible to condition the air in the place

cement A effectively.

  In connection with the above, the invention is not limited to the second embodiment described above and to its modification, but numerous modifications and

  variations can be made to the invention.

  For example, in the second embodiment, the outside temperature is also taken into account to control

  indoor temperature. However, the thermal probe

  that outdoor I05 is not necessary in a location where the indoor temperature is not affected or influenced

  affected by the outside temperature. Likewise, the modi-

  fication above of the second embodiment does not have an external thermal probe. However, the probe

  external thermal can be used, this consi-

  deration being also valid for the control of the

  indoor temperature by outdoor temperature.

  Figure 4 shows a system for creating a space

  comfort according to the third embodiment of the invention

  tion. Although it is not indicated in the figure, the system for creating a comfort space in FIG. 4 is of a concept identical to that shown in FIGS. I, 2, or 3, and further comprises a relaxation device whose circuit diagram is indicated

in figure 4.

  The relaxation apparatus comprises a microphone 20I, and a sound processing and recording apparatus 2II. The sound processing and recording apparatus comprises an AD converter 202, a digital-to-digital conversion frequency divider 203, and a DA converter. The microphone is capable of collecting natural sounds in a range of

  several tens of KHz, for example of an audible sound

  ble having a frequency of 20 KHz or more in a noise of rustling leaves, up to 40 KHz including an ultrasonic wave. The AD 202 converter transforms an analog signal emitted by the microphone 20I into a digital signal. The digital-to-digital conversion frequency divider 203 reduces the signal representing natural sound by an octave in the range of several tens of KHz to 40 KHz, and therefore divides the natural sound signal into audible sound signal in a range of several tens from KHz to 20 KHz, to add for example the digital sound to a flic-flac which will be transformed into half-frequency signal so as to be able to record the audible sound on a recorder

  breeder 205 which is described later. The converted-

  DA 204 transforms the half-frequency signal into an analog signal. The recorder 205 is

  lo connected to the DA 204 converter. The recorder-reproduc-

  tor 205 has a magnetic stripe intended to record the analog signal from the

DA 204 converter.

  On the other hand, the relaxation apparatus also includes a signal processing apparatus reproduced

  212 which includes an AD 206 converter, a multiplica-

  frequency converter with digital-to-digital conversion 207, and a DA converter 208. The AD converter 206 transforms the analog signal coming from the recorder-reproducer 205 into a digital signal. The

  frequency converter with digital conversion-

  digital 207 divides the digital input signal, for example by two, so as to multiply the digital signal by one octave, i.e. to multiply the digital signal into a natural sound signal in the range of several tens of KHz to 40 KHz. One of the two signals

  split is directly introduced into an OR channel.

  The other signal is put on hold on a timing circuit which allows multiplication to be obtained.

  of the frequency, then is introduced into the OR channel.

  The frequency converter with digital conversion-

  digital 207 then emits a multi-frequency signal.

  The DA 208 converter transforms the multi-signal

  frequency in analog signal. DA converter

  208 has output signal amplified by an amplifier

  cateur 209 connected to a speaker 210. The loudspeaker

  speaker 210 can emit an audible sound and an ultrasonic wave in the range of several tens of KHz

at 40 KHz.

  The operation of the system for creating a comfort space according to the third embodiment will be

  described below with reference to figure 4.-

  The natural sound signal containing the audible sound and the ultrasonic wave in the range of several tens of KHz to 40 KHz collected by the microphone 20I is transformed into digital signal by the converter AD 202, and is transmitted to the frequency divider 203 o le natural sound signal is reduced by one octave and transformed into a signal in the range of several tens of KHz to 20 KHz. The signal is transmitted from the frequency divider 203 to the DA converter 204, and is transformed into an analog signal. The analog signal is recorded on the magnetic tape of

the recorder-reproducer 205.

  At reproduction, the analog signal in the range of

  several tens of KHz to 20 KHz of the magnetic strip

  that of the recorder-reproducer 205 is transmitted to the converter AD 206. The digital signal of the converts_

  AD 206 is multiplied by one octave by the multi-

  frequency plier 207. The digital signal thus obtained in the range of several tens of KHz at

  KHz is introduced into the DA 208 converter.

  The transformed analog signal is fed into

  the loudspeaker 210 via the amplifier

  ficitor 209, to emit a natural sound including an audible sound and an ultrasonic wave in the range

  from several tens of KHz to 40 KHz.

3I

  In connection with the above-mentioned facts, the investigation

  recorder-player is not limited to an analog recording or reproduction system, but an audio-digital recording system capable of recording and reproducing digitally can

  apply to the recorder-player.

  In Figure 5, there is shown schematically a system for creating a comfort space according to the fourth embodiment of the invention. Although it is not shown in the figure, the system for creating a comfort space in Figure 5 is of a concept identical to that shown in Figures I, 2, or 3,

  and further includes an apparatus for generating about-

  which creates certain environmental conditions.

  As shown in FIG. 5, the environment-generating device is integrated into the roof of a building 30I, and several probes are installed on the roof of this building 30I The probes include a colorimetric and light probe 302 for detecting light and the colors of the natural world, a rain sensor 303, to detect rain, etc. * The information coming from the sensors 302 and 303, representing the external conditions, are transmitted to a control unit 304. A control signal adjusted by the control unit 304 operates a system

  305 and / or a device creating a pseudo-

  rain or artificial rain 306, to reproduce the natural conditions of an exterior 308, in c-haùn

  interiors 307 of building 30I.

  The diagram of the system comprising the control unit 304 at the center of the lighting system 305 is indicated

in figure 6.

  The probes 302 and 303 placed on the roof include a global light probe 309, a light probe directed towards the sky 310, and a probe 311 for temperature, humidity, etc. The brightness and the weather conditions are detected by probes 309, 310, and 3II and are transmitted to the unit

of control 304.

  The control unit 304 includes a processor CPU 312, a database 313, a clock 314, and a controller 315. The database 313 stores information regarding optimal lighting such as color and brightness depending on each of

  conditions like weather, season, time, etc ...

  The database 313 provides the information to the processor CPU 312 according to its needs. The clock 314 transmits the information according to

  the time - and the operational diagram to the CPU -

  312. The controller 315 adjusts its output signal by a number of 33I probes arranged in certain locations in interiors 307 and 307

  to provide the output signal to the processor CPU 312.

  A light control signal is sent to the lighting system 305 which is suitably arranged in the interior 307, and controlled by a number of switches

  332 and 332 to obtain different lighting.

  An example of lighting is shown in FIG. 6, and the lighting system 305 comprises an indirect lighting system 316, a ceiling lighting system 317, a partition lighting system 318 to give a light variation. on the surface of the partitions. The lighting and colors of the lighting system 305 are variable, but can be adjusted as follows: (I) Spring season: selection of colors representing the color of a flower or greenery Summer: selection of a warm color lighting with high color temperature and brightness. Fall: selection of predominantly brown colors. Winter; color light selection

  cold and low color temperature and brightness.

(2 hours

  Morning: selection of colors at low temperatures

color and light.

  Noon: increase in temperature

their.

  Evening: selection of colors at low temperatures

color and dark streaks.

  (3) Clear weather: dominant blue selection

or white.

  Cloudy weather: dark dominant selection.

  The artificial rain apparatus 306 will be described

  later related to Figure 7.

  The artificial rain apparatus 306 is installed in an interior corner 307. The artificial rain apparatus 306 comprises a sprinkler 319 installed in the ceiling of the building and a water tank 32I installed on the building floor. The drops of water 320 falling from the sprinkler 3I1 fill the water tank 32I. Various plants 322 are placed in the water tank 32I and are useful for relaxing the atmosphere in the interior 307, The drops of water 320 moisten the plants 322 and the

color of their green lightens.

  The artificial rain apparatus 306 includes a water level sensor 323 for detecting the water level created

  by the drops 320 falling into the water tank 32I.

  The drops of water 320 are discharged by means of a

1C drain line 324.

  The artificial rain apparatus 306 further comprises a water supply or an intermediate equipment, a pipe 325 connected to the intermediate equipment,

  and an electromagnetic valve 326 on the line 325.

  The water flow is regulated by this electromagnetic valve.

  tick 326, which is opened or closed by the control unit

  304, which receives its information from the rain sensor

  metric 303. The water flow is then modulated in

  depending on external conditions.

  A first modification of the fourth embodiment (Figures 5 to 7) is shown in Figure 8 and

  includes a 327 color projector instead of the system

  lighting device 305 shown in FIG. 5. The color projector 327 does not only adjust the light and a color on the surface of a wall or on the ceiling, but projects a specific and desired image on the surface of a wall depending on the season, time and time. A feeling of nature is made

then feel.

  A second modification of the fourth embodiment (FIGS. 5 to 7) is shown in FIG. 9. In this second modification, the lighting of plants or similar objects, such as for example a rain system or the like, is adjusted in intensity according to the external conditions to produce freshness in the morning, and a. relaxed atmosphere in the evening,

depending on the time.

  Figure I0 shows a space creation system for

  comfort according to the fifth embodiment of the invention.

  Although it is not indicated in the figure, the system for creating a comfort space of figure IO is of a concept similar to that shown in the figures

  I, 2, or 3, and additionally includes a 40I pseudo-fengtre.

  The pseudo-window 40I comprises a recess 403 which is formed by the partition 402 and has a depth, a window opening 404 formed by a cut in the partition 402 corresponding to the recess 403, a window with tiles 405 fitted on the opening window 404, a curved screen 406 formed on the

  cylindrical partition of the recess 403, and a pro-

  407 wide-angle multi-slide or similar

to project an image.

  As shown in Figures II and I2, the image is projected onto the curved surface screen 406 by the wide angle projector 407. In this case; lcurved surface screen 406 being formed on a cylindrical surface and having a depth, the image projected on the curved surface screen 406 has a notion of distance and a notion

  three-dimensional, whatever the direction in the-

  which image is seen through the pseudo-fengtre 40I.

  Thus, it is possible to obtain an image such as it is closer to nature, outside the

pseudo-fengtre 40I.

  In addition, as shown in Figure I3, in the project-

  wide angle film maker 407, there are arranged a film 408, an image selection unit 409, and a control unit 410. Scenic or similar images of the respective seasons, spring, summer, autumn and winter, scenic or similar images of the weather conditions clear, overcast, rain, snow, or similar, and scenic or similar images of the different times of the day, morning,

  noon, night, etc ... are recorded on film 408.

  The image selection unit 409 selects the desired image from the different images of the film 408 to put the desired image at a predetermined location of the wide angle projector 407. The control unit 410 controls the selection unit 409 so that an image almost identical to an actual outdoor scene is selected based on the actual external conditions, i.e. on the

  reality of the season, time, time, etc ...

  The information concerning the actual external conditions is supplied to the control unit 410 by

  a 4II information input unit placed outside

laughing of the building.

  More particularly, as indicated in FIG. I4, the information relating to time, temperature,

  humidity, or other, are introduced into a process

  central generator 415 by means of a probe 416. The information concerning a wish or request from a person staying in the building is entered into the central processor 415 via the controller 417. The information concerning the time is entered in the central processor 415 via the clock 418. The central processor 415 processes this information and determines the selection of optimal image data from the database.

  419 data, or using an image of a moni-

  external sensor 416, based on the results processed. The chosen image is sent to a projector 420. The projector 420 projects the chosen image onto the pseudo-fengtre. In the case where several pseudo-fengtres are arranged continuously or side by side, the central processor 415 calculates the identical optimal data to be sent to the projector 420. Thus, the image projected on the screen with curved surface 406 varies according to the external conditions. We can thus obtain scenes closer to reality

on the 401 pseudo-window.

  In addition, one can use and project a static image on the screen with curved surface 406. Likewise, a dynamic image or an animation can be used and projected on the screen with curved surface 406. In the case where the we project a dynamic image, it is possible to produce a "fluctuation". We can then obtain

  scenes close to real scenes.

* Figure I5 shows a first modification of the

  fifth embodiment shown in Figures IO to I4.

  As shown in Figure I5, in the first modi-

  fication, the various pseudo-windows mentioned above 40I and 40I are placed on a relatively long partition, for example a partition along

  from a passage 412. The images projected in the pseudo-

  windows 40I and 40I, adjacent to each other form a continuous image. It is in fact assumed that a passer-by M crosses passage 412 from left to right. Then, the adjustment is carried out in such a way that the passer-by M can see a part X of an image projected on the screen with curved surface 406 at

  through a glass window 405 at location B and AA.

  We also assume that a part including a segment

  XI of part X and a segment YI contiguous to an extrg-

  mite of part X is formed in part Y. Then, when passer-by M staying at location B and AA sees the pseudo-fengtre 40I adjacent or next. part Y is projected onto the screen with curved surface 406 of the adjacent pseudo-fengtre 40I, so that the

  part Y is visible through the pseudo-fengtre adja-

  cente 4OI. When passer-by M moves to the right, the image, which passer-by M sees, changes

  of the image of the Y part of the adjacent pseudo-fengtre

  te 40I, in image of part Z. The adjustment is made so that, when the passer-by M reaches a point B and BA, this passer-by M can see the part Z. In this way, when the passer-by M moves from left to right, it is possible for this passer-by M to take advantage, through the pseudo-fengtres 40I and 40I of an image having a part X, a part Y, and a

  part Z, continuously relative to each other.

  In addition, when the passer-by M moves in the direction

  opposite, that is to say from right to left, it is possible for this passer-by M to take advantage in the same way of an image having a part Z, a part Y, and a part X, continuously one relative

to the other.

  Thanks to the formation of a continuous image as described above, it is possible to approach

  the reality of a scene seen through a real window.

  In addition to passage 412 where the pseudo-fengtres are installed continuously, as indicated in FIG. I6, it is possible to install pseudofengtres 40I and I on a partition 414, next to an escalator 4I3. In this case, if the series of pseudo-windows 40I and I are mounted at an inclination corresponding to the inclination of the escalator 413, it is possible to take advantage of the images of the pseudo-fengtres 40I

  and 40I continuously following the movement of the esca-

link mechanical.

  Figure I7 shows a second & modification of the

  fifth embodiment shown in Figures IO to I4.

  In figure I7, parts and components similar to those indicated in figures I0 to I4 are designated by similar or identical reference numbers, and 1

  description of identical parts or components or

  similar will be omitted to avoid repetition.

  As shown in Figure I7, in the second modification

  cation, the curved surface screen 406 is formed on a spherical surface. The screen with a curved surface being formed on a spherical surface, it is possible to see an image even if the spectator looks at the pseudo-windows I and 40I diagonally from a high point or from a

low point.

  In Figures I8 and I9, there is shown a system for creating a comfort space according to a sixth embodiment of the invention. Although it is not shown in the figure, the system for creating a comfort space in Figures I8 and I9 is of a concept identical to that shown in Figures I, 2, or 3, and further comprehd a pseudo-fengtre 510. FIG. 18 represents a vertical section of the pseudo-window 510, while FIG. 19 is a perspective of the face

  interior of the 510 pseudo-window.

  The pseudo-fengtre 510 is formed in an exterior wall 502 of reinforced concrete or the like, of a windowless building 50I. The advanced partition 503 is built inside an exterior wall 502 in correspondence with a pillar, and its finish agrees with a

  interior 504. An exterior is designated under the ref-

  505 and an interior floor is designated under the reference 506. A space 507 is formed between the wall

  exterior 502 and the advanced partition 503.

  In the pseudo-fengtre 510 of a system for creating a comfort space according to the sixth embodiment of the invention, an auxiliary partition 5II is located inside the external wall 502, a space 507 having a predetermined interval between the exterior wall 502 and the auxiliary partition 5II. The auxiliary partition II also serves as an advanced partition 503. The auxiliary partition is also arranged in a direction of

  sharing of space 507, and serves as a partition of parti-

tion 512 to space 507.

  As shown in Figures I8 and I9, the auxiliary partition 5iI has an opening 520 with its

  depth "a" and its height "lb". A fenS- chassis

  tre 52I is mounted on the opening 520. The window frame 52I is for example double-leaf, the sides of the frame 522 being mounted on hinges 523. Des

  524 panes are fitted to the 522 frames, and the

  verture is made relative to the opening 520.

  A reflecting mirror 530 inclined towards the outside is installed between the external wall 502 and the auxiliary partition 5II, in a vertical diagonal position by

compared to opening 520.

  4I The reflecting mirror 530 has a width "a" and a height "b" which correspond to the front face of the opening 520. The upper edge 533 rests on the auxiliary partition 5II in such a way that the front face or face 53I looks downwards, and that the rear face or face 532 faces upwards. The lower edge 534 rests on the outer wall 502 and the reflecting mirror 530 is mounted obliquely to about 450 when the space "d" is equal to the height "b". It is preferable that the reflecting mirror 530 is removable. The reflective mirror 530 is a

mirror of trade.

  A lighting system 540 is installed under the reflecting mirror 530 in space 507. The system 540 includes a luminaire 54I which is used for direct lighting. As shown in Figures I8 and I9, the luminaire 54I is recessed in the exterior wall 502 or the

  auxiliary partition 5II and is used for indirect lighting.

  The 540 lighting system is of course part of the

  lighting system - 50I building. The lighting system

  rage 540 has sufficient capacity to light the interior 504. It is preferable that several lamps

  be used as a 54I luminaire.

  With the installation described above, it is possible to illuminate the interior 504 by means of the reflecting mirror 530. Simultaneously, the interior 504 is illuminated as with natural light from 1 '

outside 505.

  A molding 550 is placed in the space 507 as a component of the lighting system 540. Like the molding 550, a plant placed in a planter for a close-up view, an artificial arbra 55I in a plantation of natural or artificial shrubs, a false building 552, a cloud, a mountain, a horizon, or the like 553, on an appropriate reduced scale, are arranged for a distant view. The casts are placed so that to keep their posture

  natural vertical, they are placed vertically.

  The scene being of course seen through the reflecting mirror 530, is also considered by

  report to the construction of the plans of the bulkhead of-

partition 512 and floor 506.

  Furthermore, it is needless to say that the mirror reflects

  basic health 530 is modified inside and outside, and a second lighting system 542 and the

  molding 550 are arranged above the reflective mirror

health 530.

  In addition, the reflecting mirror 530 being installed

  in space 507, it is possible to use a mirror-

  one way. The one-way mirror is a standard or ordinary mirror on its front face 53I, but is transparent to light on its rear face 532. If a one-way mirror is used, the lighting system 540 and the molding 550 are arranged above the above and below or on both sides of the reflecting mirror 530, by installing a reflecting mirror 535 on the plane of the

floor 506 in space 507.

  In addition, as shown in FIG. 19, a general air conditioner 560 of the building 50I has its air propulsion or air intake orifice in the space 507. An opening 56I is formed for example, below the partition wall 512 and is connected

to the sheaths 562.

  Naturally, the pseudo-window 510 of the system for creating a comfort space according to the sixth embodiment, is not limited to the specific example described above. The invention is not limited to a building constructed without a window because of its function. The invention applies to part of a building where a windowless living room has been formed by a partition in the room, or applies to an original basement. The pseudo-fengtre 510 of the system for creating a

  comfort space has a practical basic construction

  only identical to a current or usual window.

  The invention will be essentially understood by the

  description of the function of the 530 reflective mirror

  and a description of its use.

  The pseudo-fengtre 510 of the system for creating a comfort space according to the sixth embodiment of the invention is constructed for using the space 507 between the external wall 502 and the auxiliary partition 5II. Thus, a ground surface having a spacing "dl is necessary. The spacing" d "is used to give likelihood to the pseudo-fengtre 510

  with the depth "d" + "x". Thanks to the mirror

  chissant 530 and lighting system-540 installed in space 507, a light source is formed in which the opening 520 is identical to a normal window. Due to the existence of this light, a feeling of liberation from a closed space is unconsciously felt. In particular, if the standard fengtre frame 52I mounted on the opening

  520, is open, air from the condition-

  air neur 560 enters interior 504 in the same manner as unmodified air in a conventional window frame, so that a freshness similar to outside air is felt. The existence of the window is then felt as not being a pseudo-window. Then, although its principle is clear and simple, the lighting coming from the lighting system 540 will be described below, as well as the formation of

outdoor scenes.

  As shown in FIG. 20, a certain number of false trees 551, a false building 552, representing the moldings 550 are arranged on a suitable reduced scale according to a near or distant view, and are arranged horizontally, the inner surface of the

  exterior wall 502 being their near end.

  When the mold 550 is illuminated by the lighting system 542, the light is reflected on the surface 53I, that is to say the lower surface of the reflecting mirror 530, so that the image "s" is

  vertical view of the interior side 504.

  The height "x" of space 507, in which the mo-

  lages are arranged, has a visible upper part when viewed in close-up view. So, the false trees 55I are considered as a real scene of a plantation near the outside of the window. In addition, under the action of the air conditioner 560, the wind makes the false trees 55I shudder. A supplement

realism is added to the scene.

  If, for the reflecting mirror 530, a

  one-way mirror, the reflecting mirror doubles the effect.

  For example, the view 553 is carried on a background like clouds, a mountain or the horizon line, is on demand lit by a color on the cover 543 of the lighting system 542. An image seen in the distance 553 is transmitted by the reflecting mirror 530 only a distance "z" down from the rear surface 532. The image is reflected by the horizontal reflecting mirror 535 which is installed on the floor 506. In the same way, the the image reaches the surface 53I of the reflecting mirror 530., and the image is composed, comprising the image of the false trees 55I or the like. As explained in the figure, the passage distance of the image "S" is

  x + z and is projected onto the interior. One of the advantages

  Age management is to provide a sense of liberation. Meanwhile, the fake images

  objects 55I and 552 are superimposed on each other.

  A small number of moldings 550 can therefore be used.

Claims (10)

  I. System for creating a comfort space comprising: means for collecting data on the environment making it possible to collect, as input data, at least two factors relating to the environment in a space, including one is one   factor regarding human activity.   means of calculating data on   the environment to determine an op-   timale between said environmental factors based on said information obtained by said environmental data collection means; and   means of environmental control   to bring out a new factor of about-   nement for said space on the basis of information supplied by said means for calculating environmental data. 2. The system of claim 1, wherein   said means of collecting environmental data   nement collect a number of factors on the environment outside and inside said space. 3. The system of claim 2, wherein   said means of collecting environmental data   nement include means for collecting data on the external environment to collect at least one factor on the external environment, means for collecting data on human activity to detect a condition of human activity in said space, database means for storing therein the factors of the space provided beforehand in accordance with the use of said space, and at least one interior probe for detecting a condition indoor environment.   4. The system of claim 3, wherein   said means of collecting environmental data   outdoor collection collect a number of factors including outdoor temperature, humidity, radiation, wind speed, wind pressure, brightness and brightness, and in which   said environmental control means   slow an indoor environment in said space based on an output signal from said external environment data collection means. 5. The system as claimed in claim 3, in which the factors stored in said basic means include, in order to specify the use of said space, data relating to location conditions, data relating to a season and relative data the organization of a group of people determined.   6. The system of claim 5, wherein the data relating to the operation of a group of people comprises data relating to   the age and sex of the said persons.   7. The system as claimed in claim 3, in which said interior probe detects the environmental conditions in said space, including temperature, humidity, radiation, light intensity, a sound level and odors.   8. The system of claim 1, wherein said means for controlling the environment   include environmental monitoring instruments   particularly air conditioning, lighting or odor control devices. 9. The system of claim 8, wherein   said means for calculating environmental data   nement calculate an optimal environment in said space on the basis of variable data and data from said database means, said data   variables including the external environment, the environment   internal reason and human movement, and in which a signal is transmitted from said means for computing environmental data to said means for environmental monitoring.   10. The system of claim 9, wherein said means for controlling the environment   control said environmental monitoring instruments   with their variable outputs, on the basis of said signal from said calculation means environmental data.