Dynamic fourier transform infrared spectrometer (DFTIR) and its operating method

Abstract

The invention relates to the new Dynamic FTIR and its operating method developed to ensure the fragmentation of artificial molecules while preserving the natural configuration stability of the molecule suitable for use in the fields of Molecular Biology and Genetics, Medicine, Organic Chemistry, Health and Industry etc. The invention particularly relates to a spectrometric method that analyzes the breaking energies of interatomic bonds and gives the radioactive wave that will break the interatomic bond molecules.

Description

[0001] Dynamic Fourier Transform Infrared Spectrometer (DFTIR) and Its Operating Method

[0002] Technical Field

[0003] The invention relates to the new Dynamic FTIR developed to ensure the fragmentation of artificial molecules while preserving the natural configuration stability of the molecule, suitable for use in the fields of Molecular Biology and Genetics, Medicine, Organic Chemistry, Health and Industry etc.

[0004] The invention particularly relates to a spectrometric method that analyses the breaking energies of interatomic bonds and emits radioactive waves that will break interatomic bond molecules.

[0005] State of Art

[0006] FTIR is a chemical analytical method that measures the wave number versus infrared intensity of light by the mathematical Fourier transform method. Fourier transform spectroscopy was first developed in the early 1950s by astronauts who studied the infrared spectra of distant stars; the separation of very weak signals from these sources from environmental noise can only be achieved with the Fourier technique. The first chemical applications of Fourier transform spectroscopy were made about ten years later in the far-infrared region. By the end of the 1960s, devices capable of operating in the far-infrared (10-400 cm-1) and mid-infrared regions were built.

[0007] Speed, resolution, sensitivity and accuracy are extremely high in FTIR spectrophotometers. There is no dispersive element in the system (no monochromator). There are single and dual- beam instrument types in the present art. The schematic representation of Single-beam FTIR Fourier Transform IR Spectrometers is given in Figure 1. Devices operating in the far-infrared region are mostly designed as single-beam path. In single-beam instruments, the reference information is recorded first, then the sample information is recorded; then the reference data is extracted from the sample. Most instruments at higher frequency levels are double-beam instruments. In Figure, it is given the schematic representation of the dual-beam FTIR Fourier Transform IR Spectrometers. In dual-beam devices, the resulting sample spectrum is taken directly.

[0008] In the technical field of Fourier Transform Infrared Spectroscopy (FTIR), devices are available for analyzing molecular formulas by interatomic bond induction graphs in the visible region wavelength MEDIUM (between 2.5 pm and 50 pm) and frequency ranges between 4000 cm”1and 10 cm"1. However, in the state of the art, there is no method or device that analyzes the breaking energies of interatomic bonds and gives the radioactive wave that will break this bond, especially in which artificial-like situations are broken down and the natural configuration stability of the molecule is preserved.

[0009] In the research carried out in the literature, the document numbered WO2024037998A2 can be shown as an example of the state of the art. The said application relates to an FTIR spectrometer with an infrared radiation source. In its most basic form, the application comprises a FTIR spectrometer, a collimated infrared radiation source, an interferometer, a reference laser, a measuring cell with a sample interface containing, for example, an ATR crystal, as well as an infrared detector and a control system. However, the document does not mention Dynamic FTIR configuration and its use to break artificial molecules while preserving the stability of the native configuration of the molecule.

[0010] As a result, due to the above-mentioned disadvantages and the inadequacy of the existing solutions, it has become necessary to make a development in the relevant technical field.

[0011] Brief Description of the Invention

[0012] The invention relates to a dynamic Fourier transform infrared Spectrometer and a method of operating DFTIR, which meet the above-mentioned requirements, eliminate all the disadvantages and bring some additional advantages.

[0013] The invention is inspired by the current situation and aims to solve the above- mentioned negativities. The main object of the invention is to provide dynamic FTIR that analyzes the tensile (breaking) energies of interatomic bonds. The invention provides the element change, reflection angle and element difference that will be radioactive from the existing FTIR devices, analyzes the breaking energies of the bonds between atoms and gives the radioactive wave that will break the bond molecules between atoms. In this way, it is aimed to ensure the degradation of artificial molecules while preserving the natural configuration stability of the molecule.

[0014] The object of the invention is to verify the device in cases of natural configuration order DNA, RNA synthesis production and to reduce / separate the nodules by affecting them and to develop cell nucleus immunity resistance against viral microbial effects in the living in Ei2 Thallium sublimed H2O vapor. Second resistance is a savior in immunity.

[0015] In order to achieve the above-mentioned objects, the invention is the Dynamic Fourier transform infrared Spectrometer (DFTIR), which analyzes the breaking energies of interatomic bonds and provides the disintegration of artificial molecules while preserving the natural configuration stability of the molecule by giving the radioactive wave that will break the interatomic bond molecules, and comprises the following;

[0016] • IR source,

[0017] • Nernst filament located on the Moving Tape, heated by passing electric current and

[0018] • reels connected to the tape, which ensure the movement of the mentioned nerst filament in the horizontal plane,

[0019] • An Interferometer, which allows beams to attempt,

[0020] • A Globar rod that emits radiation, and

[0021] • Diamond photons and / or moving mirrors, each with a reflective surface, that reflect the radioactive waves coming from the Globar rod toward the sample and the reference,

[0022] • A detector, which detects and records the induction values occurring in the sample and the reference.

[0023] In order to achieve the above-mentioned objects, the invention is the working method of the Dynamic Fourier Transform Infrared Spectrometer (DFTIR), which analyzes the breaking energies of interatomic bonds and provides the disintegration of artificial molecules while preserving the natural configuration stability of the molecule by giving the radioactive wave that will break the interatomic bond molecules, and comprises the following process steps;

[0024] I. Activating a detector and setting moving mirrors to the open position,

[0025] II. Heating IR source and the Nerst Flag on the tape is heated,

[0026] III. Heating globar rod heats up and emits radioactive radiation,

[0027] IV. The radioactive waves coming from the globar rod are reflected to the diamond photon and / or the reference and / or sample by moving mirrors,

[0028] V. The Nerst Filament on the Tape moves and approaches the Globar bar with the movement of the reels,

[0029] VI. While the reels are operating, the moving Globar bar is bent from the center between 60°and 75°from its vertical position,

[0030] VII. The induction values formed in the sample are detected and recorded by the detector,

[0031] VIII. The IR source is heated again and the Nerst Filament on the tape is heated,

[0032] IX. The globar rod heats up and emits radioactive radiation,

[0033] X. The radioactive waves coming from the globar bar are reflected to the reference and / or sample by diamond photons and / or moving mirrors,

[0034] XI. Moving mirrors are brought to the closed position, the Nerst Filament located on the Tape moves away from the Globar bar and is brought to its initial position with the backward movement of the reels,

[0035] XII. When the reels are running backwards, the Globar bar is brought from its inclined position to its initial position perpendicular to the center at 90°,

[0036] XIII. The waves and reflections coming from the previous steps, reflected to the sample and reference, are detected and recorded by the detector.

[0037] The structural and characteristic features of the invention and all its advantages will be understood more clearly thanks to the figures given below and the detailed description written by making references to these figures, and therefore the evaluation needs to be made by taking these figures and detailed description into consideration.

[0038] Figures to Help Understand the Invention

[0039] Figure 1 , Single-beam Fourier Transform IR Spectrometers (FTIR) demonstration of the present art [ IR-D: IR detector, O: Sample compartment, I: Interferometer, SA: Fixed mirror, HA: Moving mirror, DA: Beam separator, A: Mirror with holes for laser beam, L: Laser, IR: IR source, L-D, Laser Detector ]

[0040] Figure 2, Dual-beam Fourier Transform IR Spectrometers (FTIR) demonstration of the present art [IR-D: IR detector, O: Sample compartment, I: Interferometer, SA: Fixed mirror, HA: Moving mirror, DA: Beam separator, IR: IR source, M: mirror]

[0041] Figure 3, Schematic representation of the Dynamic Fourier Transform Infrared Spectrometer (DFTIR) which is the subject of the invention.

[0042] Reference Numbers

[0043] 1. I R source

[0044] 2. Nerst Filament, fixed position

[0045] 3. Nerst Filament, position after movement

[0046] 4. Globar Rod

[0047] 5. Reference

[0048] 6. Detector

[0049] 7. Moving Mirror 1

[0050] 8. Moving Mirror 2

[0051] 9. Moving Mirror 3

[0052] 10. Sample

[0053] 11. Photon

[0054] 12. Interferometer

[0055] 13. Tape

[0056] M1, M2, M3: reels

[0057] K: Closed

[0058] A: Open

[0059] Eh : Absorption Induction

[0060] Ei2: Second Absorption Induction

[0061] Detailed Description of the Invention

[0062] In this detailed description, preferred embodiments of the invention are described only for a better understanding of the subject. The invention relates to the Dynamic Fourier transform infrared Spectrometer (DFTIR), which analyzes the breaking energies of interatomic bonds and provides the disintegration of artificial molecules while preserving the natural configuration stability of the molecule by giving a radioactive wave that will break the interatomic bond molecules. The said DFTIR device comprises IR source (1), the Nerst filament located on the moving Tape (13) heated by passing electric current and the reels (M1 , M2, M3) connected to the tape (13) that enable the movement of the mentioned nerst filament in the horizontal plane, an Interferometer (12) that allows the beams to attempt, a globar rod (4) that emits radiation and a diamond photon (11) that reflects the radioactive waves coming from the globar rod (4) to the sample (10) and the reference (5) and / or moving mirrors, each with a reflective surface, and a detector (6) that allows the detection and recording of the induction values formed in the sample (10) and the reference (5).

[0063] The IR source (1) which is the subject of the invention and comprises DFTIR is preferably made of Golay, thermocouple or bolometer material.

[0064] The mentioned nerst filament is preferably ZiO or TrO rod and is heated 1800tC secondary. Heating is provided by passing IR Thermal electric current through the Nerst filament.

[0065] The subject of the invention, DFTIR; preferably comprises Lead 82 Pb coated Interferometer due to radiation emission.

[0066] The subject invention DFTIR includes the Globar rod (4), which is preferably made from Thallium (Tl) material, preferably the Globar rod (4) comprises transparent oval holes that will be TLC coated. The material properties of the mentioned rod are 20481 Tl Eii:141 Electronegativity~=1 .8 Thallium Tl.

[0067] The diamond photon (11 ) and the moving mirrors, reflect the wave coming from the Globar rod (4). In an embodiment of the DFTIR, which is the subject of the invention, preferably comprises three moving mirrors as moving mirror 1 (7), moving mirror 2 (8), moving mirror 3 (9). Moving mirrors are selected from, but not limited to, triangular sphere Ag mirror, flat Ag mirrors, flat / concave Ag mirror. M1 = M2 > M3 and M3 reel and reversible cross-working reels provide the tape (13) advancement. Preferably, M1 and M2 are fixed and M3 is movable, thus increasing the efficiency of the reel.

[0068] The invention also relates to the operating method of the Dynamic Fourier transform infrared Spectrometer (DFTIR), which analyzes the breaking energies of interatomic bonds and provides the disintegration of artificial molecules while preserving the natural configuration stability of the molecule by giving the radioactive wave that will break the interatomic bond molecules. The said method comprises the following process steps: i. The detector is operated and the moving mirrors are brought to the open position, ii. The IR source (1) is heated and the Nerst filament located on the Tape (13) is heated. iii. The globar bar (4) heats up and emits radioactive radiation, iv. The radioactive waves coming from the globar bar (4) are reflected to the diamond Photon (11) and / or to the reference (5) and / or sample (10) with moving mirrors, v. The Nerst Filament on the Tape (13) moves and approaches the Globar bar (4) with the movement of the reels, vi. While the reels are operating, the moving globar bar (4) is bent from its vertical position by 60°to 75°from the center, vii. In the sample (10), the induction values (E1 ) are detected and recorded by the detector (6), viii. The IR source (1) is heated again and the Nerst filament located on the Tape (13) is heated, ix. The globar bar (4) heats up and emits radioactive radiation, x. The radioactive waves coming from the globar bar (4) are reflected to the reference (5) and / or sample (10) by diamond photon (11) and / or moving mirrors, xi. Moving mirrors are brought to the closed position, with the backward movement of the reels, the Nerst Filament located on the Tape (13) moves away from the Globar bar (4) and is brought to its initial position, xii. When the reels are working backwards, the globar bar (4) is brought from its inclined position to its initial position perpendicular to the center at 90°, xiii. The waves and reflections coming from the previous steps, reflected to the sample (10) and the reference (5), are detected and recorded by the detector (6).

[0069] In step iii of the method which is the subject of the invention; the globar bar (4) is made of Thallium material and emits radioactive radiation in the range of 4000 - 1400 pm. The Thallium element is separated by 4 regular wave oscillations, which will reduce the electron to 2 periods. The same radiation is provided in each reduction.

[0070] In an embodiment of the method according to the invention; in step iv, radioactive waves coming from the Globar rod (4), specifically Radioactive Tl element Eii waves, are randomly reflected to the moving mirrors with diamond photons.

[0071] In a preferred embodiment of the method according to the invention; in step iv, radioactive waves coming from the Globar rod (4), specifically Radioactive Tl element Eii waves, are reflected to the sample (10) and the reference (5) by the moving mirror 1 (7), moving mirror 2 (8), moving mirror 3 (9).

[0072] In another embodiment of the method according to the invention; in step iv, radioactive waves coming from the Globar rod (4), specifically Radioactive Tl element E waves, are reflected to the diamond photon and the waves coming from the diamond photon are reflected to the sample (10) and the reference (5) by moving mirrors.

[0073] In another embodiment of the method according to the invention; in step iv, radioactive waves coming from the Globar rod (4), specifically Radioactive Tl element Eh waves, are reflected to the reference (5) by a diamond photon or a moving mirror.

[0074] In step vii, the induction E1 ) in the sample (10), that is, the minimum amplitude value of the bond between the atoms, is detected and recorded by the detector (6). The device records these values to the computer with the detector at the next radiation moment.

[0075] In step ix of the method, which is the subject of the invention, the Globar rod (4) radiates again in the range of 1400 - 500 pm. The Thallium element separates the electron by reducing it to 2 periods with the occurrence of 4 regular wave oscillations. The previous ionization Eii values are the coincidence of the waiting time and the later Ei2 ionization energy value. At this moment, Eii=Ei2 is in the Fingerprint region while the induction Ei2value affects the sample and the reference.

[0076] In an embodiment of the method according to the invention, in step x, the radioactive waves coming from the Globar rod (4), specifically Radioactive Tl element Eii and Ei2waves, are randomly reflected to the mirrors with diamond photons.

[0077] In an embodiment of the method according to the invention; in step x, the radioactive waves coming from the Globar rod (4), specifically Radioactive Tl element Eii and Ei2waves, are reflected to the sample (10) and the reference (5) by the moving mirror 1 (7), moving mirror 2 (8), moving mirror 3 (9).

[0078] In an embodiment of the method according to the invention, in step x, the radioactive waves coming from the Globar rod (4), specifically the waves of the Radioactive Tl element Eii and Ei2, are reflected to the diamond photon (11) and the waves coming from the diamond photon (11 ) are reflected to the sample (10) and the reference (5) by moving mirrors.

[0079] In an embodiment of the method according to the invention, in step x, the radioactive waves coming from the Globar rod (4), specifically the Radioactive Tl element Eii and Ei2waves, are reflected to the reference (5) by a diamond photon (11) or a moving mirror.

[0080] The schematic representation of the dynamic Fourier transform infrared Spectrometer (DFTIR) which is the subject of the invention is given in Figure 3. The fixed position of the Nerst element (2) and the position of the Nerst filament after the movement (3) of the Nerst filament on the Tape (13) as it moves and approaches the Globar bar (4) with the movement of the reels are shown as an example in Figure 3.

[0081] In the product and method which is the subject of the invention, fat fibril tissue that is muscled in cattle / sheep / buffalo can be used as an example. Since there is no muscle tendon yet, abnormal interatomic bond fragmentation is provided. The emission of the 1400-500 urn compound due to its electrical charge is called the unique Fingerprint. In the method of the invention; Fingerprint emission inductions are given and bond breaking is provided.

[0082] In the device which is the subject of the invention, the Triangular Sphere Ag Mirror increases the contact from the wave reflection, only the Diamond alternative or the 1 / 3 height center position of the ceiling flat mirrors can be fixed.

[0083] A preferred embodiment of the method of the invention comprises the following steps;

[0084] STEP 1 : The detector (6) is operated and the moving mirrors are brought to the open position, the Diamond photon (11 ) is suspended from the ceiling at 1 / 3 height

[0085] STEP 2: The IR source (1) heats up and the Nerst filament on the Tape (13) heats up.

[0086] STEP 3: The TIC coating heats up the Globar rod (4) comprising transparent oval holes, and the 81 Tl Thallium Element emits radioactive radiation in the range of 4000 - 1400 pm.

[0087] STEP 4: Radioactive Tl Eh waves coming from the globar rod (4) are reflected; Here; i. the radioactive waves are randomly reflected from diamond Photon (circle triangle cut) (11) to the moving mirrors or ii. the radioactive waves are reflected to the sample (10) and the reference (5) by moving mirrors or iii. the radioactive waves are reflected to the diamond photon and the waves from the diamond photon are reflected to the sample (10) and the reference (5) by the moving mirrors or iv. the radioactive waves are reflected to the reference (5) by diamond photon or moving mirrors

[0088] STEP 5: The Nerst Filament located on the tape (13) moves and approaches the Globar bar (4) with the movement of the reels, Here, the fixed M1 and fixed M2 reels are connected to the M3 wheel. While the M3 wheel rotates in the <- 1 (M1 ) direction, M2 wraps the tape in the (13) -» 2 direction, the Nerst Filament advances in the -» 2 direction on the tape connected to M1 and M2, the Nerst Filament approaches the Global bar and stops, and the Nerst Filament comes to the position after the movement (3).

[0089] STEP 6: While the reels are operating, the moving globar bar (4) is bent from its vertical position between 60° and 75°from the cent er,

[0090] STEP 7: The induction values (E1) formed in the sample (10), for example the minimum amplitude value of the bond between the atoms, are recorded with the detector (6).

[0091] Here, the device records these values to the computer with the detector until the next radiation moment,

[0092] STEP 8: The IR source (1 ) is heated again and the Nerst filament on the Tape (13) is heated again.

[0093] STEP 9: The Globar rod (4) comprising transparent oval holes with a TIC coating heats up and the8ITI Thallium Element emits radioactive radiation again in the range of 1400 - 500 pm,

[0094] (Previous ionization Eii values are the coincidence of the waiting time and the subsequent Ei2 ionization energy value. At this moment, Eii=Ei2, while in the Fingerprint region, the induction Ei2value affects the sample and the reference.)

[0095] STEP 10: The Tl element Eii and Ei2 waves coming from the globar rod (4) are reflected. Here; i. the radioactive waves are randomly reflected from diamond Photon (circle triangle cut) (11) moving mirrors or ii. the radioactive waves are reflected to the sample (10) and the reference (5) by moving mirrors or iii. the radioactive waves are reflected to the diamond photon (11) and the waves from the diamond photon (11 ) are reflected to the sample (10) and the reference (5) by the moving mirrors or iv. the radioactive waves are randomly reflected to the reference (5) by diamond photon or moving mirrors.

[0096] STEP 11 : The moving mirrors are brought to the closed position, the Diamond photon (11) is wound back to the ceiling at 1 / 3 height. The Nerst Filament located on the Tape (13) moves away from the Globar bar (4) with the backward movement of the reels and is brought to its first position,

[0097] Here, the fixed M1 and fixed M2 reels are connected to the M3 wheel. While the M3 wheel rotates in the direction of -» 2 (M2), M1 wraps the tape in the direction of <- 1 , the Nerst filament advances in the direction of - 1 on the band (13) connected to M1 and M2. The Nerst filament returns to the fixed position (1 ).

[0098] STEP 12: While the reels are working backwards, the globar bar (4) is brought from its inclined position to its initial position perpendicular to the center at 90°.

[0099] STEP 13: The waves and reflections from the previous steps, Eii and Ei2inductions, reflected to the sample (10) and reference (5) are recorded by the detector (6). After a while, it is transferred to the computer. The detector is turned off.

[0100] In the method, which is the subject of the invention, the sample (10) is removed from the compartment. Here, the sample (10) is only exposed to reflections and waves and can be re-inserted if necessary.

[0101] Sample Induction Eii = Ei2and Reflected Waves affect the molecule in the Fingerprint Region. It is possible that artificial-like abnormal situations will break down and the molecule will maintain its natural configuration stability.

[0102] Contact increases from the Triangle Sphere Ag Mirror wave reflection, only Diamond alternative or ceiling flat mirrors can be 1 / 3 height center position.

Claims

CLAIMS1. A Dynamic Fourier transform infrared Spectrometer (DFTIR) that analyzes the breaking energies of interatomic bonds and provides the disintegration of artificial molecules while preserving the natural configuration stability of the molecule by giving a radioactive wave that will break the interatomic bond molecules, characterized by comprising;• IR source (1 ),• Nernst filament located on the Moving Tape (13), heated by passing electric current and• Reels (M1 , M2, M3) connected to the tape (13), which ensure the movement of the mentioned nerst filament in the horizontal plane,• An Interferometer (12), which allows beams to attempt,• A Globar rod (4) that emits radiation, and• Diamond photon (11) and / or moving mirrors, each with a reflective surface, that reflect the radioactive waves coming from the Globar rod (4) toward the sample (10) and the reference (5),• A detector (6), which detects and records the induction values occurring in the sample (10) and the reference (5).

2. The DFTIR according to claim 1 , characterized in that; the said IR source (1 ) is made of Golay, thermocouple or bolometer material.

3. The DFTIR according to claim 1 , characterized in that; the said nerst filament is a ZiO or TrO rod and is a secondary heating at 18000 .

4. The DFTIR according to claim 1 , characterized in that; the said Globar rod (4) is made of Thallium (Tl) material.

5. The DFTIR according to claim 1 , characterized in that; the said Globar rod (4) comprises transparent oval holes and holes is coated with TLC.

6. The DFTIR according to claim 1 , characterized by comprising; three moving mirrors as moving mirror 1 (7), moving mirror 2 (8), moving mirror 3 (9).

7. A operating method of the Dynamic Fourier transform infrared Spectrometer (DFTIR), which analyzes the breaking energies of interatomic bonds and provides the disintegration of artificial molecules while preserving the natural configuration stability of the molecule by giving the radioactive wave that will break the interatomic bond molecules, characterized by comprising the following process steps:I. The detector (6) is operated and the moving mirrors are brought to the open position,II. The IR source (1 ) is heated and the Nerst filament located on the Tape (13) is heated.III. The globar bar (4) heats up and emits radioactive radiation,IV. The radioactive waves coming from the globar bar (4) are reflected to the diamond Photon (11) and / or to the reference (5) and / or sample (10) with moving mirrors,V. The Nerst Filament on the Tape (13) moves and approaches the Globar bar (4) with the movement of the reels,VI. While the reels are operating, the moving globar bar (4) is bent from its vertical position by 60°to 75°from the center,VII. Detection and recording of the induction values in sample (10) with detector (6),VIII. The IR source (1) is heated again and the Nerst filament located on the Tape (13) is heated,IX. The globar bar (4) heats up and emits radioactive radiation,X. The radioactive waves coming from the globar bar (4) are reflected to diamond photon (11) and / or to the reference (5) and / or sample (10) by moving mirrors,XI. Moving mirrors are brought to the closed position, with the backward movement of the reels, the Nerst Filament located on the Tape (13) moves away from the Globar bar (4) and is brought to its initial position,XII. When the reels are working backwards, the globar bar (4) is brought from its inclined position to its initial position perpendicular to the center at 90°,XIII. The waves and reflections coming from the previous steps, reflected to the sample (10) and the reference (5), are detected and recorded by the detector (6).

8. The method according to claim 7, characterized in that; in step iii, the Globar rod (4) is made of Thallium material and emits radioactive radiation in the range of 4000 - 1400 pm.

9. The method according to claim 7, characterized in that; in step iv, the radioactive waves coming from the Globar rod (4) are randomly reflected to the mirrors with the diamond photon (11).

10. The method according to claim 7, characterized in that; in step iv, the radioactive waves coming from the Globar rod (4) are reflected to the sample (10) and the reference (5) by the moving mirror 1 (7), moving mirror 2 (8), moving mirror 3 (9).

11. The method according to claim 7, characterized in that; in step iv, the radioactive waves coming from the Globar rod (4) are reflected to the diamond photon (11) and the waves coming from the diamond photon (11) are reflected to the sample (10) and the reference (5) by moving mirrors.

12. The method according to claim 7, characterized in that; in step iv, the radioactive waves coming from the Globar rod (4) are reflected to the reference (5) with a diamond photon (11) or a moving mirror.

13. The method according to claim 7, characterized in that; in step ix, the Globar rod (4) emits radioactive radiation again in the range of 1400 - 500 pm.

14. The method according to claim 7, characterized in that; in step x, the radioactive waves coming from the Globar rod (4) are randomly reflected to the mirrors with diamond photons.

15. The method according to claim 7, characterized in that; in step x, the radioactive waves coming from the Globar rod (4) are reflected to the sample (10) and the reference (5) by the moving mirror 1 (7), moving mirror 2 (8), moving mirror 3 (9).

16. The method according to claim 7, characterized in that; in step x, the radioactive waves coming from the Globar rod (4) are reflected to the diamond photon (11) andthe waves coming from the diamond photon (11) are reflected to the sample (10) and the reference (5) by moving mirrors.

17. The method according to claim 7, characterized in that; in step x, the radioactive waves coming from the Globar rod (4) are reflected to the reference (5) with a diamond photon (11) or a moving mirror.

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