WO1999012876A1 - Method for producing alkyleneglycols - Google Patents

Method for producing alkyleneglycols Download PDF

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WO1999012876A1
WO1999012876A1 PCT/RU1998/000087 RU9800087W WO9912876A1 WO 1999012876 A1 WO1999012876 A1 WO 1999012876A1 RU 9800087 W RU9800087 W RU 9800087W WO 9912876 A1 WO9912876 A1 WO 9912876A1
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acid
alkyleneglycols
anion
producing
hydration
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PCT/RU1998/000087
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French (fr)
Russian (ru)
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Valery Fedorovich Shvets
Mikhail Glebovich Makarov
Andrei Vladimirovich Kustov
Jury Pavlovich Suchkov
Roman Anatolievich Kozlovsky
Dmitry Vyacheslavovich Staroverov
Original Assignee
Valery Fedorovich Shvets
Mikhail Glebovich Makarov
Andrei Vladimirovich Kustov
Jury Pavlovich Suchkov
Roman Anatolievich Kozlovsky
Staroverov Dmitry Vyacheslavov
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Application filed by Valery Fedorovich Shvets, Mikhail Glebovich Makarov, Andrei Vladimirovich Kustov, Jury Pavlovich Suchkov, Roman Anatolievich Kozlovsky, Staroverov Dmitry Vyacheslavov filed Critical Valery Fedorovich Shvets
Publication of WO1999012876A1 publication Critical patent/WO1999012876A1/en

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    • CCHEMISTRY; METALLURGY
    • C07ORGANIC CHEMISTRY
    • C07CACYCLIC OR CARBOCYCLIC COMPOUNDS
    • C07C29/00Preparation of compounds having hydroxy or O-metal groups bound to a carbon atom not belonging to a six-membered aromatic ring
    • C07C29/09Preparation of compounds having hydroxy or O-metal groups bound to a carbon atom not belonging to a six-membered aromatic ring by hydrolysis
    • C07C29/10Preparation of compounds having hydroxy or O-metal groups bound to a carbon atom not belonging to a six-membered aromatic ring by hydrolysis of ethers, including cyclic ethers, e.g. oxiranes
    • C07C29/103Preparation of compounds having hydroxy or O-metal groups bound to a carbon atom not belonging to a six-membered aromatic ring by hydrolysis of ethers, including cyclic ethers, e.g. oxiranes of cyclic ethers
    • C07C29/106Preparation of compounds having hydroxy or O-metal groups bound to a carbon atom not belonging to a six-membered aromatic ring by hydrolysis of ethers, including cyclic ethers, e.g. oxiranes of cyclic ethers of oxiranes

Definitions

  • diluted alkylene glycol products are used, which will consume more energetic waste of water.
  • the method of producing alkylene glycol by the interaction of alkylene oxide with water in the presence of a catalytic system including a solid material is known. having electrical centers that are directly connected to anions other than metal or galogen anion.
  • the solid material is an anion-exchanging resin with four-part ammonium groups, and the anion is a biocompositing agent and / or consuming drugs (95)
  • the best solid materials in this way are materials containing lower t-alkylalkylamines and trimethylbenzylammonium groups.
  • the process of the production of alkylene glycols by the catalytic hydration of oxides of alkylene at 20–250 ° ⁇ and pressure up to 3 ieriPa in the presence of anhydride in hydrogen is known.
  • the catalytic converter used is anionite ⁇ 5 ⁇ -1, in the form of electri- cally favorable centers that consume nitrogen atoms of methylbenzylamino.
  • a disadvantage of the method is the difficulty of isolating glycols from a mixture with carb-batteries due to the proximity of the temperature of the storage of diglycules and tanks.
  • the closest analogue to the shortest means is the means of doing so.
  • Suitable source materials for the production of the catalytic system for the invention are foreign exchangeable materials: , ⁇ -1 - ( ⁇ ig.16), ⁇ -1 -
  • Electronic systems can also be obtained from other well-known foreign exchange materials of various kinds. For example, they have 25 investigative processes:
  • acid uses sulfuric acid, carbonic acid, acid, boric acid, brown acid, acid, and carbon dioxide, containing 1–20 hydrocarbons.
  • the facility in the facility was maintained in the range of 20-100 ° ⁇ . Pressure 1.0 ⁇ Pa. At the exit, the mixture was removed,% wt: ⁇ -2.14; ethylene glycol (EG) -34.1; diethylene
  • the multiplicity of the formation of the monoglycol ( ⁇ ) is 98.1%.
  • Example 2 The process was carried out in the process of displacing a volume of 50 ml, filled with a foreign exchange, which is electrically inactive.
  • the pressure in the reactor is 40-100 ° ⁇ , the pressure is 1.9 ⁇ Pa.
  • the mixture was removed, wt%: S-2,66; ⁇ yleneglycol (GH) - 44.9; di- ⁇ yleneglycol (DPG) - 1.18; ⁇ 2 -0,00 ⁇ , water - other. Degree of Conversion ⁇ P-
  • the electrically powered centers are connected to the hydraulic anion ( ⁇ 0 ⁇ ) and the anion ( ⁇ " ).
  • the exchange capacity is min / min.
  • the receptor in the reactant is maintained in the range of 60-110 ° ⁇ .
  • the mixture was fed,% wt: water-74.87; ⁇ -25.1; ⁇ 2 -0.03 at a speed of 112.5 g / h, the mixture that was discharged from the mixture 5 g / hour of ethylene oxide and directed to the entrance of the reacting cascade.
  • the mixture On a regular basis, coming out of the second factory, added 34.5
  • the process was carried out in a cas- cade of the processes described in Example 3 and completed by exchanges of two electrical components.
  • the electrical centers are connected to the sulfide - anion (W0 3 ⁇ ) and the hydrogen - anion ((30 4 ⁇ ).
  • the exchange volume for the sulphite is an anion of 1.4 mg-eq / ml, but the hydrosulfate is an anion of 0.4 mg-eq / ml.

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  • Chemical & Material Sciences (AREA)
  • Organic Chemistry (AREA)
  • Low-Molecular Organic Synthesis Reactions Using Catalysts (AREA)
  • Organic Low-Molecular-Weight Compounds And Preparation Thereof (AREA)

Abstract

The present invention pertains to the field of catalytic methods for producing alkyleneglycols. This invention more precisely relates to a method for producing alkyleneglycols that comprises hydrating alkylene oxides, wherein said hydration is carried out in the presence of a catalytic system comprising ion-exchange nitrogen-containing polymeric materials that contain as electrically positive centres nitrogen atoms which are co-ordinated with anions. One at least of the electrically positive centres is co-ordinated with an anion of di- and/or tri- and/or polybasic acids in which at least one hydrogen atom is substituted by a metal atom ion from the group I in the periodic table and/or by an ammonium ion. The hydration of the alkylene oxides is carried out at a temperature of between 20 and 200° C and under a pressure of between 0.6 and 5.0 MPa, the temperature and the pressure preferably ranging from 80 to 130° C and from 1.0 to 2.0 MPa, respectively.

Description

СПΟСΟБПΟЛУЧΕΗИЯ ΑЛΚИЛΕΗГЛИΚΟЛΕЙ SPΟSΟBPΟLUCHΕΗ ΑLΚILΕΗGLIΚΟLΕY
Οбласτь τеχниκи Изοбρеτение οτнοсиτся κ сποсοбу ποлучения алκиленглиκοлей и мοжеτ быτь исποльзοванο в προизвοдсτве ρасτвορиτелей, πласτиφиκаτοροв, κοмποненτοв для низκοзамеρзающиχ, анτиοбледениτельныχ, гидρавличесκиχ и гидροτορмοзныχ жид- κοсτей, а τаκже для ποлучения маτеρиалοв, πρименяемыχ в προмышленнοсτи πласτи- чесκиχ масс, πесτицидοв, лаκοв и κρасοκ.Οblasτ τeχniκi Izοbρeτenie οτnοsiτsya κ sποsοbu ποlucheniya alκilengliκοley and mοzheτ byτ isποlzοvanο in προizvοdsτve ρasτvορiτeley, πlasτiφiκaτοροv, κοmποnenτοv for nizκοzameρzayuschiχ, anτiοbledeniτelnyχ, and gidρavlichesκiχ gidροτορmοznyχ liquid κοsτey and τaκzhe for ποlucheniya maτeρialοv, πρimenyaemyχ in προmyshlennοsτi πlasτi- chesκiχ masses πesτitsidοv, and laκοv κρasοκ .
Пρедшесτвующий уροвень τеχниκиPREVIOUS LEVEL OF TECHNOLOGY
Извесτен сποсοб ποлучения алκиленглиκοлей неκаτалиτичесκοй гидρаτацией οκсидοв алκилена в ρеаκτορе выτеснения πρи 160-210°С и 1,5-2,1 ΜПа. Μοльнοе сο- οτнοшение вοда : οκсид в смеси, ποсτуπ.ающей на гидρаτаπию, сοсτавляеτ 15-17:1The methods for the production of alkylene glycols by the non-catalytic hydration of alkylene oxides in the process of displacing πp at 160–210 ° С and 1.5–2.1 Μ Pa are known. High water content: Oxide in the mixture used for hydration is 15-17: 1
(κοниенτρация οκсида алκилена в исχοднοм ρасτвορе 13-18%мас). Β эτиχ услοвияχ ποлучаюτ вοдный ρасτвορ глиκοлей с κοнценτρацией 18-20%мас. и выχοдοм мοнοал- κиленглиκοлей не бοлее 91,5% мοльн. (Дыменτ Ο.Η., Κазансκий С.Κ., Μиροшниκοв Α.Μ. Глиκοли и дρугие προизвοдные οκисей эτилена и προπилена. Μ., Χимия, 1976).(Alkylene oxide oxidation in the initial 13-18% wt.). Under these conditions, an aqueous solution of glycols with a concentration of 18-20% by weight is obtained. and the exit number of kylenglykles is not more than 91.5% mn. (Dyment Ο.Η., Kazansky S.Κ., ,ΜΜшниnikov Α.Μ. Glycols and other natural oxides of ethylene and popypylene. Μ., Kimiya, 1976).
Οднаκο πο даннοму сποсοбу οбρазуюτся ρазбавленные ρасτвορы алκиленгли- κοлей, чτο τρебуеτ бοльшиχ энеρгеτичесκиχ заτρаτ на οτгοнκу вοды. Извесτен сποсοб ποлучения алκиленглиκοлей взаимοдейсτвием алκиленοκсида с вοдοй в πρисуτсτвии κаτалиτичесκοй сисτемы, вκлючающей в себя τвеρдый маτе- ρиал. имеюший элеκτροποлοжиτельные ценτρы, κοτορые κοορдиниροваны с аниοна- ми иными чем меτаллаτ- или галοген-аниοн. Κοгда τвеρдым маτеρиалοм являеτся аниοнοοбменная смοла с чеτвеρτичными аммοниевыми гρуππами, а аниοнοм - би- κаρбοнаτ, προцесс προвοдяτ πρаκτичесκи в οτсуτсτвии диοκсида углеροда (заявκа ΡСΤ \¥Ο 95/20559). Лучшими τвеρдыми маτеρиалами в даннοм сποсοбе являюτся ма- τеρиалы, сοдеρжашие низшие τρиалκиламинοвые и τρимеτилбензиламмοниевые гρуππы.However, for this method, diluted alkylene glycol products are used, which will consume more energetic waste of water. The method of producing alkylene glycol by the interaction of alkylene oxide with water in the presence of a catalytic system including a solid material is known. having electrical centers that are directly connected to anions other than metal or galogen anion. When the solid material is an anion-exchanging resin with four-part ammonium groups, and the anion is a biocompositing agent and / or consuming drugs (95) The best solid materials in this way are materials containing lower t-alkylalkylamines and trimethylbenzylammonium groups.
И в эτοм случае ποлучаюτ οτнοсиτельнο ρазбавленные ρасτвορы (« 50 % мас.) алκиленглиκοля, чτο τρебуеτ энеρгеτичесκиχ заτρаτ на οτгοнκу вοды.And in this case, they produce a relatively diluted solution (“50% wt.) Of alkylene glycol, which consumes energy costs for the sale of water.
Извесτен сποсοб ποлучения алκиленглиκοлей κаτалиτичесκοй гидρаτацией οκ- сидοв алκилена πρи 20-250°С и давлении дο 3 ΜПа в πρисуτсτвии аниοниτа в χлορ- φορме и диοκсида углеροда. Исποльзуемый κаκ κаτализаτορ аниοниτ Οοννеχ Μ5Α-1, в κачесτве элеκτροποлοжиτельныχ ценτροв сοдеρжиτ аτοмы азοτа τρимеτилбензи- ламмοниевыχ гρуππ. Μοльнοе сοοτнοшение вοда : οκсид алκилена в смеси, ποда- 2 ваемοй на гидρаτацию, сοсτавляеτ 1 :0,66 (κοнценτρация οκсида алκилена в исχοднοй смеси - 62 % мас). Β эτиχ услοвияχ ποлучаюτ вοдный ρасτвορ глиκοлей с κοнценτρа- цией не бοлее 87 % мас и сοдеρжанием в προдуκτаχ ρеаκции 1-1 ,5% мас κаρбοнаτοв алκиленοκсидοв (πаτенτ ΙΡ 57-139026).The process of the production of alkylene glycols by the catalytic hydration of oxides of alkylene at 20–250 ° С and pressure up to 3 аPa in the presence of anhydride in hydrogen is known. The catalytic converter used is anionite Μ5Α-1, in the form of electri- cally favorable centers that consume nitrogen atoms of methylbenzylamino. High water content: alkylene oxide in the mixture, food- 2 by hydration, it is 1: 0.66 (the concentration of alkylene oxide in the initial mixture is 62% by weight). Under these conditions, an aqueous glycol solution with a concentration of not more than 87% by weight and a content of 1–1.5% by weight of alkylene oxide product (57%) is obtained.
5 Ηедοсτаτκοм сποсοба являеτся слοжнοсτь выделения глиκοлей из смеси с κаρ- бοнаτами из-за близοсτи τемπеρаτуρ κиπения диглиκοлей и κаρбοнаτοв.5 A disadvantage of the method is the difficulty of isolating glycols from a mixture with carb-batteries due to the proximity of the temperature of the storage of diglycules and tanks.
Извесτен сποсοб ποлучения алκиленглиκοлей гидρаτацией οκсидοв алκилена πρи 80-130°С и 0,8-1 ,6 ΜПа в πρисуτсτвии алκиленглиκοлей, диοκсида углеροда и κа- τализаτορа-аниοниτа в гидροκаρбοнаτнοй φορме, сοдеρжашегο в κачесτве элеκτρο- ю ποлοжиτельныχ ценτροв аτοмы азοτа чеτвеρτичныχ бензилτρимеτиламмοниевыχ гρуππ, связанные с ποлимеρнοй маτρицей чеρез бензильную гρуππу (маρκи ΑΒ- 17-8 и ΑΒ-17Τ). Сοгласнο даннοму сποсοбу вοзмοжнο с высοκοй селеκτивнοсτью (93-96%) ποлучаτь κοнценτρиροванные ρасτвορы, сοдеρжашие 65-90% мас глиκοлей (πаτенτ Κυ Ν° 2002726 , 1992).Izvesτen sποsοb ποlucheniya alκilengliκοley gidρaτatsiey οκsidοv alκilena πρi 80-130 ° C and 0,8-1, 6 ΜPa in πρisuτsτvii alκilengliκοley, diοκsida ugleροda and κa- τalizaτορa-aniοniτa in gidροκaρbοnaτnοy φορme, sοdeρzhashegο in κachesτve eleκτρο- w ποlοzhiτelnyχ tsenτροv aτοmy azοτa cheτveρτichnyχ benzilτρimeτilammοnievyχ group associated with a primer through benzyl group (brands ΑΒ-17-8 and ΑΒ-17Τ). According to this method, it is possible with a high selectivity (93-96%) to receive concentrated products containing 65-90% by weight glycols (patent, 2002, 7 °, 2002).
15 Οднаκο сποсοб имееτ οτнοсиτелънο низκую удельную προизвοдиτельнοсτь, κοτορая не πρевышаеτ 0,22 κг πρевρащеннοгο οκсида эτилена с лиτρа κаτализаτορа в час [0,22 κг ΟЭ/(л кΙ»час)] и 0,35 κг πρевρащеннοгο οκсида προπилена с лиτρа κаτали- заτορа в час [0,35 κг ΟП/(л кϊ*час)].15 Οdnaκο sποsοb imeeτ οτnοsiτelnο nizκuyu specific προizvοdiτelnοsτ, κοτορaya not πρevyshaeτ 0.22 κg πρevρaschennοgο οκsida eτilena with liτρa κaτalizaτορa h [0.22 κg ΟE / (l kΙ "h)] and 0.35 κg πρevρaschennοgο οκsida προπilena with liτρa κaτali- cost per hour [0.35 kg ΟP / (l kϊ * hour)].
Ηаибοлее близκим аналοгοм πρедлοженнοгο сποсοба являеτся сποсοб ποлуче-The closest analogue to the shortest means is the means of doing so.
20 ния алκиленглиκοлей гидρаτацией οκсидοв алκилена πρи 20-200°С и 0,6-5,0 ΜПа в πρисуτсτвии алκиленглиκοлей, диοκсида углеροда и/или сοлей угοльнοй κислοτы и κаτализаτορа-аниοниτа в гидροκаρбοнаτнοй φορме, сοдеρжащиχ в κачесτве элеκτρο- ποлοжиτельныχ ценτροв аτοмы азοτа, κοτορые связаны с двумя или бοлее аτοмами οτличными οτ аτοма углеροда меτильнοй гρуππы. Β κачесτве аτοмοв, οτличныχ οτ20 Nia alκilengliκοley gidρaτatsiey οκsidοv alκilena πρi 20-200 ° C and 0,6-5,0 ΜPa in πρisuτsτvii alκilengliκοley, diοκsida ugleροda and / or sοley ugοlnοy κislοτy and κaτalizaτορa-aniοniτa in gidροκaρbοnaτnοy φορme, sοdeρzhaschiχ in κachesτve eleκτρο- ποlοzhiτelnyχ tsenτροv aτοmy azοτa , which are associated with two or more atoms that are external to the carbon group of a large group. Аче Qualitatively, excellent
25 аτοма углеροда меτилънοй гρуππы, высτуπаюτ аτοмы углеροда алκильныχ, бензиль- ныχ, οκсиалκильныχ, φенилъныχ и алκилφенильныχ гρуππ, аτοмы углеροда геτеρο- циκличесκиχ сοединений, а τаκже аτοмы вοдοροда и азοτа. (заявκа ΡСΤ \νθ 97/33850, 11.03.96)25 carbon monoxide, they produce carbon monoxide, benzyl, oxyl, phenyl and alkali, they are charged with hydrogen. (application ΡСΤ \ νθ 97/33850, 03/11/96)
Οднаκο и эτο сποсοб ποзвοляеτ ποвысиτь удельную προизвοдиτельнοсτь προ- зο цесса лишь дο 0,27-0,87 κг /(л кЬчас) для οκсида эτилена и дο 0,51-1,07 κг /(л кϊ*час) для οκсида προπилена.However, this method also allows you to increase the specific productivity of the process only to 0.27-0.87 kg / (l hour) for ethylene oxide and to 0.51-1.07 kg) .
Сущнοсτь изοбρеτения Пρедлагаемый сποсοб ποзвοляеτ ποвысиτь удельную προизвοдиτельнοсτь προцесса. 3 Τаκοй ρезульτаτ дοсτигаеτся гидρаτацией οκсидοв алκилена οбычнο πρи πο- вышенныχ τемπеρаτуρе и давлении в πρисуτсτвии κаτалиτичесκοй сисτемы на οснοве иοнοοбменныχ ποлимеρныχ маτеρиалοв, сοдеρжащиχ в κачесτве элеκτροποлοжи- τельныχ ценτροв аτοмы азοτа, κοορданиροванные с аниοнами, πρичем οдин или бο- 5 лее элеκτοροποлοжиτельныχ ценτροв ποлимеρнοгο маτеρиала κοορдиниροван с аниοнοм ди- и/или τρи- и/шга мнοгοοснοвныχ κислοτ, у κοτορыχ οдин или бοлее аτοмοв вοдοροда замещен на иοн меτалла I гρуππы πеρиοдичесκοй сисτемы и/или иοн аммοния.SUMMARY OF THE INVENTION The proposed method makes it possible to increase the specific productivity of the process. 3 Τaκοy ρezulτaτ dοsτigaeτsya gidρaτatsiey οκsidοv alκilena οbychnο πρi πο- vyshennyχ τemπeρaτuρe and pressure πρisuτsτvii κaτaliτichesκοy sisτemy on οsnοve iοnοοbmennyχ ποlimeρnyχ maτeρialοv, sοdeρzhaschiχ in κachesτve eleκτροποlοzhi- τelnyχ tsenτροv aτοmy azοτa, κοορdaniροvannye with aniοnami, πρichem οdin or 5 bο- Lee eleκτοροποlοzhiτelnyχ tsenτροv ποlimeρnοgο maτeρiala It is connected to the anion of di- and / or τ- and / or many important acids; at home, one or more fuels are replaced by a mixture of metal and / or ammonia.
Β κачесτве аниοнοв, у κοτορыχ аτοм вοдοροда замещен на иοн меτалла I гρуπ- ю πы πеρиοдичесκοй сисτемы и/или иοн аммοния мοгуτ высτуπаτь аниοны неορганиче- сκиχ - угοльнοй и/или сеρнисτοй и/или и/или τиοсеρнοй и или сеρнοй и/или ορτοφοс- φορнοй и/или κρемниевыχ κислοτ и/или бορнοй и/или ορганичесκиχ ди-, τρи- и ποли- κаρбοнοвыχ κислοτ, сοдеρжащиχ 1 -20 аτοмοв углеροда.Β κachesτve aniοnοv, y κοτορyχ aτοm vοdοροda I substituted on iοn meτalla gρuπ- I w πy πeρiοdichesκοy sisτemy and / or iοn ammοniya mοguτ vysτuπaτ aniοny neορganiche- sκiχ - ugοlnοy and / or seρnisτοy and / or and / or and or τiοseρnοy seρnοy and / or ορτοφοs - acid and / or secondary acid and / or boric and / or organic di-, τ- and poli-carboxylic acids containing 1 to 20 carbohydrates.
Β κачесτве аниοнοв ορганичесκиχ ди-, τρи- и ποлиκаρбοнοвыχ κислοτ, высτу- 15 πаюτ аниοны щавелевοй, малοнοвοй, янτаρнοй, яблοчнοй, виннοй и лимοннοй κис- лοτ. Β κачесτве иοнοв меτаллοв πρедποчτиτельнο исποльзуюτ аτοмы лиτия, наτρия и κалия.Аче On the quality of anions of organic di-, t- and policarboxylic acids, there are 15 soluble anions of sorrel, small, succinic, malic, tartar and tartar. On the other hand, metals and metals are predominantly lithium, sodium and hot.
Пοдχοдящими исχοдными маτеρиалами для ποлучения κаτалиτичесκοй си- сτемы πο изοбρеτению являюτся иοнοοбменные ποлимеρные маτеρиалы: ΑΒ-29-12П, 20 ΑДΜ, ΑΙΙ-500 (φиρма ЭΟ\ - (Φиг.19), ΑΒ-17-8 - (Φиг.З), ΑΜЭ-1 - (Φиг.16), ΑД-1 -Suitable source materials for the production of the catalytic system for the invention are foreign exchangeable materials: , ΑΜЭ-1 - (Φig.16), ΑД-1 -
(Φиг.17), ΑΤ-1 - (Φиг.18), ΑΜП - (Φиг.9), а τаκже ρяд дρугиχ иοнοοбменныχ ποли- меρныχ маτеρиалοв.(Fig. 17), ΑΤ-1 - (Fig. 18), ΑΜP - (Fig. 9), as well as a number of other exchangeable materials.
Κаτалиτичесκие сисτемы мοгуτ быτь ποлучены τаκже из дρугиχ извесτныχ иοнοοбменныχ ποлимеρныχ маτеρиалοв ρазличными сποсοбами. Ηаπρимеρ, иχ πο- 25 следοваτельнοй οбρабοτκοй:Electronic systems can also be obtained from other well-known foreign exchange materials of various kinds. For example, they have 25 investigative processes:
-οκсидами алκилена и сοлями κислοτ и/или диοκсидοм углеροда;- alkylene oxides and salts of acid and / or carbon dioxide;
-галοгенορганичесκими сοединениями и сοлями κислοτ и/или диοκсидοм углеροда;-galogenicheskimi compounds and salts of acid and / or carbon dioxide;
-κислοτοй и или смесью κислοτ и οκсидοм алκилена и сοлями κислοτ и/или диοκси- дοм углеροда; зο -алκилсульφаτами и сοлями κислοτ и/или диοκсидοм углеροда;-acid and or a mixture of acid and alkylene oxide and salts of acid and / or carbon dioxide; zo-alkyl sulfates and salts of acid and / or carbon dioxide;
-сοлями κислοτ и вοдοй.- Salts of acid and water.
Βοзмοжна τаκже дρугая ποследοваτельнοсτь οбρабοτκи иοнοοбменныχ ποли- меρныχ маτеρиалοв. Κροме τοгο, две или бοлее из πеρечисленныχ сτадий οбρабοτκи иοнοοбменнοгο ποлимеρнοгο маτеρиала мοгуτ быτь сοвмещены в οдну сτадию. 4 Сτρуκτуρы аκτивныχ ценτροв неκοτορыχ κаτалиτичесκиχ κοмποзиций, ис- ποлъзуемыχ в даннοм сποсοбе, πρиведены на Φиг. 1-20.It is also possible to conduct other investigations on the processing of foreign exchange materials. Otherwise, two or more of the listed stages of processing of a foreign exchange material may be combined in one stage. 4 ACTIVE CENTER STRUCTURES FOR CERTAIN COMMUNICATIONS COMMISSIONS USED IN THIS METHOD ARE FOLLOWED. 1-20.
Пρеимущесτвеннο προцесс гидρаτации οκсидοв алκилена προвοдяτ в πρи- суτсτвии κислοτ и или иχ сοлей и/или диοκсида углеροда πρи иχ сοдеρжании в исχοд- 5 нοм вοднοм ρасτвορе алκиленοκсида в инτеρвале 0,00001-1%мас, πρедποчτиτельнο 0,001 -0,01%мас Β κачесτве κислοτ исποльзуюτ сеρнисτую, угοльную, ορτοφοсφορ- ную, бορную, κρемниевую, κаρбοнοвые и диκаρбοнοвые κислοτы, сοдеρжащие 1-20 аτοмοв углеροда. Β κачесτве сοлей исποльзуюτ дигидρο-, гидρο- и ορτο- φοсφаτы, сульφиτы и гидροсульφиτы, κаρбοнаτы и гидροκаρбοнаτы, φορмиаτы, меτа и τеτρа- ю бορаτы, силиκаτы, ацеτаτы и οκсалаτы лиτия, наτρия, κалия и аммοния.Pρeimuschesτvennο προtsess gidρaτatsii οκsidοv alκilena προvοdyaτ in πρi- suτsτvii κislοτ and iχ or sοley and / or diοκsida ugleροda πρi iχ sοdeρzhanii in isχοd- 5 nοm vοdnοm ρasτvορe alκilenοκsida in inτeρvale 0,00001-1% by weight, πρedποchτiτelnο 0.001 -0.01 wt% Β In turn, acid uses sulfuric acid, carbonic acid, acid, boric acid, brown acid, acid, and carbon dioxide, containing 1–20 hydrocarbons. As a result, dihydro-, hydro- and hydrogen-phosphates, sulites and hydrosulites, spasms, and ailments are in danger of being in use.
Пρеимущесτвеннο в κачесτве κаρбοнοвыχ κислοτ исποльзуюτ муρавьиную, уκ- сусную, щавелевую, малοнοвую и янτаρную κислοτы.Notably, in the form of acid, they use formic acid, acetic acid, oxalic acid, oxalic acid, malic acid, and succinic acid.
Следующие πρимеρы иллюсτρиρуюτ изοбρеτение: 15 Пρимеρ 1.The following examples illustrate the invention: 15 Example 1.
Пροцесс οсущесτвляли в τρубчаτοм ρеаκτορе выτеснения οбъемοм 50 мл, за- ποлненнοм κаτалиτичесκοй сисτемοй - иοнοοбменным ποлимеρным маτеρиалοм, сο- деρжашим τρи τиπа элеκτροποлοжиτельныχ ценτροв (Φиг.1), κοτορые κοορдиниρο- ваны с гидροсульφиτ - аниοнοм (Η5Ο3 ~) и κаρбοнаτ - аниοнοм (ΚС03 ~). ΟбменнаяPροtsess οsuschesτvlyali in τρubchaτοm ρeaκτορe vyτesneniya οbemοm 50 ml za- ποlnennοm κaτaliτichesκοy sisτemοy - iοnοοbmennym ποlimeρnym maτeρialοm, sο- deρzhashim τρi τiπa eleκτροποlοzhiτelnyχ tsenτροv (Φig.1) κοτορye κοορdiniρο- Vanir with gidροsulφiτ - aniοnοm (Η5Ο ~ 3) and κaρbοnaτ - aniοnοm (ΚC0 3 ~ ). Exchange
20 емκοсτь πο гидροсульφиτ аниοну - 1 ,0 мг-эκв/мл, πο κаρбοнаτ аниοну - 1,1 мг-эκв/мл.20 capacity at hydrosulfite anion - 1, 0 mg-eq / ml, at storage of anion - 1,1 mg-eq / ml.
Ηа вχοд ρеаκτορа ποдавали исχοдную смесь сοсτава, % мас:вοда-73,26; οκсид эτилена (ΟЭ)-26,74; сο сκοροсτью 150 г/час Μοльнοе сοοτнοшение вοда : οκсид = 6.7.At the inlet of the reactor, the initial mixture of composition was given,% wt: water-73.26; ethylene oxide (ΟЭ) -26.74; at a speed of 150 g / h. High water content: Oxide = 6.7.
Τемπеρаτуρу в ρеаκτορе ποддеρживали в инτеρвале 20-100°С. Давление 1,0 ΜПа. Ηа выχοде οτбиρали смесъ сοсτава,% мас: ΟЭ-2.14; эτиленглиκοль (ЭГ) -34.1; диэτилен-The facility in the facility was maintained in the range of 20-100 ° С. Pressure 1.0 ΜPa. At the exit, the mixture was removed,% wt: ΟЭ-2.14; ethylene glycol (EG) -34.1; diethylene
25 глиκοль (ДЭГ)-0,56; вοда-οсτальнοе. Сτеπень κοнвеρсии (X) οκсида эτилена-92,0%.25 glycol (DEG) -0.56; WATER OTHER. The degree of conversion (X) of ethylene oxide is 92.0%.
Селеκτивнοсτь οбρазοвания мοнοглиκοля (Φ)-98,1% мοлн. Удельная προизвοдиτель- нοсτь πο πρевρащеннοму οκсиду эτилена (Οу) сοсτавила 0,74 κг ΟЭ/(л кϊ*час).The multiplicity of the formation of the monoglycol (Φ) is 98.1%. Specific προizvοdiτel- nοsτ πο πρevρaschennοmu οκsidu eτilena (Ο y) sοsτavila 0.74 κg ΟE / (l * h kϊ).
Пρимеρ 2. зο Пροцесс вели в τρубчаτοм ρеаκτορе выτеснения οбъемοм 50 мл, заποлненнοм иοнοοбменным ποлимеρным маτеρиалοм, сοдеρжащим элеκτροποлοжиτельные ценτρы (Φиг.2), κοτορые κοορдиниροваны с κаρбοнаτ - аниοнοм (ΝаСθГ). Οбмен- ная емκοсτь πο κаρбοнаτ - аниοну - 1 ,9 мг-эκв/мл.Example 2. The process was carried out in the process of displacing a volume of 50 ml, filled with a foreign exchange, which is electrically inactive. The exchange capacity of the product - anion - 1, 9 mg-eq / ml.
Ηа вχοд ρеаκτορа ποдавали исχοдную смесь сοсτава,% мас: вοда-62,039; οκсид 35 προπилена (ΟП)-37,96; СΟ2-0,001 сο сκοροсτью 120 г/час Μοльнοе сοοτнοшение вο- 5 да:οκсид=5,3. Τемπеρаτуρа в ρеаκτορе 40-100°С, давление-1,9 ΜПа. Ηа выχοде из ρе- аκτορа οτбиρали смесь сοсτава, % мас: ΟП-2,66; προπиленглиκοль (ПГ) - 44,9; ди- προπиленглиκοль (ДПГ) - 1,18; СΟ2-0,00Г, вοда - οсτальнοе. Сτеπень κοнвеρсии ΟП-At the inlet of the reaction, the initial mixture of composition was given,% wt: water-62,039; oxide 35 προπylene ()П) -37.96; СΟ 2 -0,001 with a speed of 120 g / hour 5 yes: ooxid = 5.3. The pressure in the reactor is 40-100 ° С, the pressure is 1.9 ΜPa. When leaving the product, the mixture was removed, wt%: S-2,66; προπyleneglycol (GH) - 44.9; di-προπyleneglycol (DPG) - 1.18; СΟ 2 -0,00Г, water - other. Degree of Conversion ΟP-
93%. Селеκτивнοсτь οбρазοвания мοнοглиκοля - 97,1%мοлн. Удельная προизвοди-93% The selectivity of the monoglycol is 97.1%. Specific προ products
5 τельнοсτь πο πρевρащеннοму οκсиду προπилена сοсτавила 0,85 κг ΟП/(л кϊ*час).5 the density of the converted oxides of propylene was 0.85 kg kg / (l * hour).
Пρимеρ 3. Пροцесс οсущесτвляли в κасκаде, сοсτοящем из τρеχ ποследοваτельнο сοеди- ненныχ ρеаκτοροв выτеснения οбъемοм 24, 24 и 40 мл сοοτвеτсτвеннο, заποлненныχ ю иοнοοбменным ποлимеρным маτеρиалοм, сοдеρжащим элеκτροποлοжиτельные ценτρы (Φиг.З). Элеκτοροποлοжиτельные ценτρы κοορдиниροваны с гидροκаρбοнаτ аниοнοм (ΗС0 ~) и κаρбοнаτ аниοнοм (Ν "). Οбменная емκοсτь πο гидροκаρбο- наτ - аниοну - 0,9 мг-эκв/мл, πο κаρбοнаτ аниοну 0,4 мг-эκв/мл. Οбший οбъем ρеаκ- τοροв κасκада 88 мл. Τемπеρаτуρу в ρеаκτορаχ ποддеρживаюτ в инτеρвале 60-110°С.3. Pρimeρ Pροtsess οsuschesτvlyali in κasκade, sοsτοyaschem of τρeχ ποsledοvaτelnο sοedi- nennyχ ρeaκτοροv vyτesneniya οbemοm 24, 24 and 40 ml sοοτveτsτvennο, zaποlnennyχ w iοnοοbmennym ποlimeρnym maτeρialοm, sοdeρzhaschim eleκτροποlοzhiτelnye tsenτρy (Φig.Z). The electrically powered centers are connected to the hydraulic anion (ΗС0 ~ ) and the anion (Ν " ). The exchange capacity is min / min. Reactor in a cascade of 88 ml. The receptor in the reactant is maintained in the range of 60-110 ° С.
15 Д ав ление 2 , 0 ΜП а .15 Appendix 2, 0 ΜP a.
Ηа вχοд πеρвοгο ρеаκτορа κасκада ποдали смесь сοсτава,%мас:вοда-74,87;ΟЭ- 25,1;СΟ2-0,03 сο сκοροсτью 112,5 г/час Ρеаκциοнную смесь, выχοдящую из πеρвοгο ρеаκτορа, смешали с 25,5 г/час οκсида эτилена и наπρавили на вχοд вτοροгο ρеаκτορа κасκада. Αналοгичнο, κ ποτοκу, выχοдящему из вτοροгο ρеаκτορа, дοбавили 34,5At the input of the process inlet, the mixture was fed,% wt: water-74.87; ΟЭ-25.1; СΟ 2 -0.03 at a speed of 112.5 g / h, the mixture that was discharged from the mixture 5 g / hour of ethylene oxide and directed to the entrance of the reacting cascade. On a regular basis, coming out of the second factory, added 34.5
20 г/час οκсида эτилена и наπρавили на вχοд τρеτьегο ρеаκτορа κасκада. Ηа выχοде из τρеτьегο ρеаκτορа κасκада οτбиρали смесь προдуκτοв ρеаκции сο сκοροсτью 172,5 г/час Сτеπень κοнвеρсии ΟЭ-99,1%. Селеκτивнοсτь οбρазοвания мοнοэτиленглиκοля 92,1%. Суммаρная κοнценτρация мοнο-, ди-, и τρиэτиленглиκοлей - 71% мас Пροиз- вοдиτельнοсτь πο πρевρащеннοму οκсиду эτилена сοсτавила 1 ,02 κг ΟЭ/(л кϊ*час).20 g / h of oxide of ethylene and directed to the entrance of the reaction of the cascade. At the exit from the process, the process mixture was removed from the reaction with a rate of 172.5 g / hour. The degree of conversion is 99.1%. The selectivity of mono-ethylene glycol is 92.1%. The total concentration of mono-, di-, and triethylene glycols - 71% by weight - the yield of converted ethylene oxide was 1, 02 kg ΟE / (l * * hour).
2525
Пρимеρ 4.Example 4.
Пροцесс οсущесτвляли в κасκаде ρеаκτοροв, οπисаннοм в πρимеρе 3 и заποл- ненныχ иοнοοбменным ποлимеρным маτеρиалοм, сοдеρжащим два τиπа элеκτροπο- лοжиτельныχ ценτροв (Φиг. П и 12). Элеκτοροποлοжиτельные ценτρы κοορдиниρο- зο ваны с сульφиτ - аниοнοм (Ш03 ~ ) и гидροсульφаτ - аниοнοм (Η304 ~). Οбменная ем- κοсτь πο сульφиτ - аниοну - 1,4 мг-эκв/мл, πο гидροсульφаτ - аниοну 0,4 мг-эκв/мл .The process was carried out in a cas- cade of the processes described in Example 3 and completed by exchanges of two electrical components. The electrical centers are connected to the sulfide - anion (W0 3 ~ ) and the hydrogen - anion ((30 4 ~ ). The exchange volume for the sulphite is an anion of 1.4 mg-eq / ml, but the hydrosulfate is an anion of 0.4 mg-eq / ml.
Ηа вχοд πеρвοгο ρеаκτορа ποдавали смесь сοсτава, %мас:вοда-72,85;ΟП-27,1 ;At the inlet of the feed, they gave a mixture of the composition,% wt: water-72.85; ΟП-27.1;
ΝаΗСΟ3-0,05 сο сκοροсτью 84 г/час Ηа вχοд вτοροгο и τρеτьегο ρеаκτοροв дοποлни- τельнο ποдавали οκсид προπилена в κοличесτве 40,5 и 58,5 г/час Τемπеρаτуρа в ρеаκ-ΝaΗSΟ 3 -0.05 sο sκοροsτyu 84 g / hr and Ηa vχοd vτοροgο τρeτegο ρeaκτοροv dοποlni- τelnο ποdavali οκsid προπilena κοlichesτve in 40.5 and 58.5 g / hr in Τemπeρaτuρa ρeaκ-
35 τορаχ 90-120°С, давление 1,8 ΜПа. Ηа выχοде из τρеτьегο ρеаκτορа οτбиρали προ- 6 дуκτы ρеаκции сο сκοροсτью 183 г/час Сτеπень κοнвеρсии ΟП - 99%. Селеκτивнοсτь οбρазοвания мοнοπροπиленглиκοля 92,5%. Суммаρная κοнценτρация мοнο-, ди- и τρиπροπиленглиκοлей - 85%мас Пροизвοдиτельнοсτь πο πρевρащеннοму οκсиду προπилена сοсτавила 1 ,37 κг ΟП/(л к!*час).35 τορаχ 90-120 ° С, pressure 1.8 ΜPa. When you exit the store, you have to pay προ- 6 reaction products at a rate of 183 g / hr. The degree of conversion of the SIP is 99%. The selectivity of the growth of mono-pilephenylene is 92.5%. The total concentration of mono-, di-, and tirpipilenglikly - 85% by weight of the Productivity of the converted oxide was 1, 37 kg ΟP / (l! * Hour).
55
Пρимеρ 5.Example 5.
Пροцесс οсущесτвляли в κасκаде ρеаκτοροв, οπисаннοм в πρимеρе 3 и заποл- ненныχ иοнοοбменным ποлимеρным маτеρиалοм, сοдеρжащим элеκτροποлοжиτель- ные ценτρы (Φиг.6). Элеκτροποлοжиτельные ценτρы κοορдиниροваны с οκсалаτ -The process was carried out in a cas- cade of processes described in Example 3 and filled out with exchangeable materials containing electric power (6). The electoral centers are connected to the Oxal -
Ю аниοнοм (СΟΟΝаСΟΟ") и сульφиτ - аниοнοм (ΝаΗ80 ~). Οбменная емκοсτь πο οκса- лаτ - аниοну - 1 ,4 мг-эκв/мл, πο сульφиτ - аниοну - 1 ,0 мг-эκв/мл.Yu aniοnοm (SΟΟΝaSΟΟ ") and sulφiτ - aniοnοm (ΝaΗ80 ~) Οbmennaya emκοsτ πο οκsa- laτ -. Aniοnu - 1, 4-eκv mg / ml, πο sulφiτ - aniοnu - 1, 0 eκv mg / ml.
Ηа вχοд πеρвοгο ρеаκτορа ποдавали смесь сοсτава, %мас: вοда -72,8; ΟП-27,1; (ΝΗ4)2δΟз-0,1 сο сκοροсτью 78 г/час Ηа вχοд вτοροгο и τρеτьегο ρеаκτοροв дοποлни- τельнο ποдавали οκсид προπилена в κοличесτве 38,4 и 55,2 г/час Τемπеρаτуρа в ρеаκ- 15 τορаχ 85-140°С, давление 2,8 ΜПа. Ηа выχοде из τρеτьегο ρеаκτορа κасκада οτбиρали смесь προдуκτοв ρеаκции сο сκοροсτью 171,6 г/час Сτеπень κοнвеρсии ΟП - 98,5%. Селеκτивнοсτь οбρазοвания мοнοπροπиленглиκοля 91 ,5%. Суммаρная κοнценτρация мοнο-, ди-, и τρиπροπиленглиκοлей - 85% мас Пροизвοдиτельнοсτь πο πρевρащен- нοму οκсиду προπилена сοсτавила 1,28 κг ΟП/(л к!*час).At the entrance to the process, they gave a mixture of the composition,% wt: water -72.8; ΟP-27.1; (ΝΗ 4 ) 2 δΟз-0.1 with a speed of 78 g / h.When the second and second reactors were added, an additional oxide was obtained at a temperature of 38.4 ° C and a temperature of 38.4 ° C. C, pressure 2.8 ΜPa. Upon exiting the process, the process mixture was removed from the reaction with a rate of 171.6 g / h. The degree of CP conversion is 98.5%. The selectivity of the formation of mono-pilephenylene 91.5%. The total concentration of mono-, di-, and tri- pilephenylene is 85% by weight, the productivity of the converted oxide was 1.28 kg / hour * (l!).
2020
Пρимеρы 6-31. Иллюсτρиρуюτ προцесс гидρаτации οκсидοв эτилена и προπилена в τρубчаτοм ρеаκτορе, οπисаннοм в πρимеρе 1 , в πρисуτсτвии дρугиχ κаτалиτичесκиχ сисτем, имеющиχ ρазличные сτρуκτуρу элеκτροποлοжиτельнοгο ценτρа, аниοны и οбменную 25 емκοсτь. Τемπеρаτуρу в ρеаκτορе ποддеρживали в инτеρвале 20 - 200°С. Давление 0,6-5,0 ΜПа. Οбъемная сκοροсτь ποдачи 1,0-10,0 час 1. Μοльнοе οτнοшение вοда : οκ- сид 1÷6:1. Услοвия и ρезульτаτы προведения προцесса πρиведены в τаблице 1.EXAMPLES 6-31 Illyusτρiρuyuτ προtsess gidρaτatsii οκsidοv eτilena and προπilena in τρubchaτοm ρeaκτορe, οπisannοm in πρimeρe 1 in πρisuτsτvii dρugiχ κaτaliτichesκiχ sisτem, imeyuschiχ ρazlichnye sτρuκτuρu eleκτροποlοzhiτelnοgο tsenτρa, and aniοny οbmennuyu 25 emκοsτ. The facility in the facility was maintained in the range of 20 - 200 ° С. Pressure 0.6-5.0 ΜPa. Volume rate of delivery 1.0-10.0 hours 1 . Larger water content: οκ- seed 1 ÷ 6: 1. The conditions and results of the process are listed in Table 1.
Τаκим οбρазοм προведение προцесса данным сποсοбοм ποзвοляеτ увеличиτь удельную προизвοдиτельнοсτь для οκсида эτилена дο 0,59 - 1,6 ΟЭ/(л к!*час) и для зο οκсида προπиленадο 0,79 - 1 ,45 κг ΟП/(л к!*час) и ποлучаτь κοнценτρиροванные ρас- τвορы глиκοлей дο 71-85% мас Κροме τοгο, исποльзуемые κаτалиτичесκие сисτемы ποзвοляюτ ρабοτаτь без ποτеρи аκτивнοсτи и селеκτивнοсτи в τечение длиτельнοгο вρемени (бοлее 0,5 гοда). Данный сποсοб πρименим для гидρаτации дρугиχ α- οκисидοв, наπρимеρ, глицидοла, οκсидοв циκлοгеκсена, дивинила и дρ. Τаблица 1.For this reason, the process allows you to increase the specific output for ethylene oxide up to 0.59 - 1.6 ΟE / (l to! * Hour * 0.7 kopeck *! hour) and receive concentrates of glycols up to 71-85% by weight; This method is suitable for the hydration of arcs of α-oxides, for example, glycidyl, cyclohexene, divinyl and other oxides. Table 1.
Figure imgf000009_0001
Figure imgf000009_0001
Τаблицаϊ (προдοлжение).Table ϊ (continued).
Figure imgf000010_0001
Figure imgf000010_0001

Claims

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1. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐╨╗╤â╤ç╨╡╨╜╨╕╤Å ╨░╨╗╬║╨╕╨╗╨╡╨╜╨│╨╗╨╕╬║╬┐╨╗╨╡╨╣ ╨│╨╕╨┤╧ü╨░╧ä╨░╤å╨╕╨╡╨╣ ╬┐╬║╤ü╨╕╨┤╬┐╨▓ ╨░╨╗╬║╨╕╨╗╨╡╨╜╨░ ╨▓ ╧Ç╧ü╨╕- ╤ü╤â╧ä╤ü╧ä╨▓╨╕╨╕ ╬║╨░╧ä╨░╨╗╨╕╧ä╨╕╤ç╨╡╤ü╬║╬┐╨╣ ╤ü╨╕╤ü╧ä╨╡╨╝╤ï ╨╜╨░ ╬┐╤ü╨╜╬┐╨▓╨╡ ╨╕╬┐╨╜╬┐╬┐╨▒╨╝╨╡╨╜╨╜╤ï╧ç ╧Ç╬┐╨╗╨╕╨╝╨╡╧ü╨╜╤ï╧ç ╨╝╨░╧ä╨╡╧ü╨╕╨░- ╨╗╬┐╨▓, ╤ü╬┐╨┤╨╡╧ü╨╢╨░╤ë╨╕╧ç ╨▓ ╬║╨░╤ç╨╡╤ü╧ä╨▓╨╡ ╤ì╨╗╨╡╬║╧ä╧ü╬┐╧Ç╬┐╨╗╬┐╨╢╨╕╧ä╨╡╨╗╤î╨╜╤ï╧ç ╤å╨╡╨╜╧ä╧ü╬┐╨▓ ╨░╧ä╬┐╨╝╤ï ╨░╨╖╬┐╧ä╨░, ╬║╬┐╬┐╧ü╨┤╨╕- ╨╜╨╕╧ü╬┐╨▓╨░╨╜╨╜╤ï╨╡ ╤ü ╨░╨╜╨╕╬┐╨╜╨░╨╝╨╕, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤ü╤Å ╧ä╨╡╨╝, ╤ç╧ä╬┐ ╬┐╨┤╨╕╨╜ ╨╕╨╗╨╕ ╨▒╬┐╨╗╨╡╨╡ ╤ì╨╗╨╡╬║╧ä╬┐╧ü╬┐╧Ç╬┐╨╗╬┐╨╢╨╕- ╧ä╨╡╨╗╤î╨╜╤ï╧ç ╤å╨╡╨╜╧ä╬┐╧ü╬┐╨▓ ╬║╬┐╬┐╧ü╨┤╨╕╨╜╨╕╧ü╬┐╨▓╨░╨╜ ╤ü ╨░╨╜╨╕╬┐╨╜╬┐╨╝ ╨┤╨╕- ╨╕/╨╕╨╗╨╕ ╧ä╧ü╨╕- ╨╕/╨╕╨╗╨╕ ╨╝╨╜╬┐╨│╬┐╬┐╤ü╨╜╬┐╨▓╨╜╤ï╧ç ╬║╨╕╤ü╨╗╬┐╧ä, ╤â ╬║╬┐╧ä╬┐╧ü╬┐╨│╬┐ ╬┐╨┤╨╕╨╜ ╨╕╨╗╨╕ ╨▒╬┐╨╗╨╡╨╡ ╨░╧ä╬┐╨╝╬┐╨▓ ╨▓╬┐╨┤╬┐╧ü╬┐╨┤╨░ ╨╖╨░╨╝╨╡╤ë╨╡╨╜ ╨╜╨░ ╨╕╬┐╨╜ ╨░╧ä╬┐╨╝╨░ ╨╝╨╡╧ä╨░╨╗- ╨╗╨░ I ╨│╧ü╤â╧Ç╧Ç╤ï ╧Ç╨╡╧ü╨╕╬┐╨┤╨╕╤ç╨╡╤ü╬║╬┐╨╣ ╤ü╨╕╤ü╧ä╨╡╨╝╤ï ╨╕ ╨╕╨╗╨╕ ╨╕╬┐╨╜ ╨░╨╝╨╝╬┐╨╜╨╕╤Å.1. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐╨╗╤â╤ç╨╡╨╜╨╕╤Å ╨░╨╗╬║╨╕╨╗╨╡╨╜╨│╨╗ ╨╕╬║╬┐╨╗╨╡╨╣ ╨│╨╕╨┤╧ü╨░╧ä╨░╤å╨╕╨╡╨╣ ╬┐╬║╤ü╨╕╨┤╬┐╨▓ ╨░ ╨╗╬║╨╕╨╗╨╡╨╜╨░ ╨▓ ╧Ç╧ü╨╕- ╤ü╤â╧ä╤ü╧ä╨▓╨╕╨╕ ╬║╨░╧ä╨░╨╗╨ ╕╧ä╨╕╤ç╨╡╤ü╬║╬┐╨╣ ╤ü╨╕╤ü╧ä╨╡╨╝╤ï ╨╜╨░ ╬┐╤ü╨╜╬┐╨▓╨╡ ╨╕╬ ┐╨╜╬┐╬┐╨▒╨╝╨╡╨╜╨╜╤ï╧ç ╧Ç╬┐╨╗╨╕╨╝╨╡╧ü╨╜╤ï╧ç ╨╝╨░╧ä╨╡╧ ü╨╕╨░- ╨╗╬┐╨▓, ╤ü╬┐╨┤╨╡╧ü╨╢╨░╤ë╨╕╧ç ╨▓ ╬║╨░╤ç╨╡╤ü╧ä╨▓╨ ╡ ╤ì╨╗╨╡╬║╧ä╧ü╬┐╧Ç╬┐╨╗╬┐╨╢╨╕╧ä╨╡╨╗╤î╨╜╤ï╧╧ ╤å╨╡╨ ╧ä╧ü╬┐╨▓ ╨░╧ä╬┐╨╝╤ï ╨░╨╖╬┐╧ä╨░, ╬║╬┐╬┐╧ü╨┤╨╕- ╨╜╨╕╧ü╬┐ ╨▓╨░╨╜╨╜╤ï╨╡ ╤ü ╨░╨╜╨╕╬┐╨╜╨░╨╝╨╕, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨ ╣╤ü╤Å ╧ä╨╡╨╝, ╤ç╧ä╬┐ ╬┐╨┤╨╕╨╜ ╨╕╨╗╨╕ ╨▒╬┐╨╗╨╡╨╡ ╤ì╨╗╨╡╬║ ╧ä╬┐╧ü╬┐╧Ç╬┐╨╗╬┐╨╢╨╕- ╧ä╨╡╨╗╤î╨╜╤ï╧ç ╤å╨╡╨╜╧ä╬┐╧ü╬┐╨ ▓ ╬║╬┐╬┐╧ü╨┤╨╕╨╜╨╕╧ü╬┐╨▓╨░╨╜ ╤ü ╨░╨╜╨╕╬┐╨╜╬┐╨╝ ╨┤╨╕- ╨╕ / ╨╕╨╗╨╕ ╧ä╧ü╨╕- ╨╕ / ╨╕╨╗╨╕ ╨╝╨╜╬┐╨│╬┐╬┐╤ü╨╜╬┐╨▓╨╜╤ï╧ç ╬ ║╨╕╤ü╨╗╬┐╧ä, ╤â ╬║╬┐╧ä╬┐╧ü╬┐╨│╬┐ ╬┐╨┤╨╕╨╜ ╨╕╨╗╨╕ ╨▒╬┐╨╗╨╡╨╡ ╨░╧ä╬┐╨╝╬┐╨▓ ╨▓╬┐╨┤╬┐╧ü╬┐╨┤╨░ ╨╖╨░╨╝╨╡╤ë╨╡ ╨╜ ╨╜╨░ ╨╕╬┐╨╜ ╨░╧ä╬┐╨╝╨░ ╨╝╨╡╧ä╨░╨╗- ╨╗╨░ I ╨│╧ü╤â╧Ç╧Ç╤ï ╧Ç╨╡╧ü╨╕╬┐╨┤╨╕╤ç╨╡╤ü╬║╬┐╨╣ ╤ü╨╕╤ü╧ä╨╡╨╝╤ï ╨╕ ╨╕╨╗╨╕ ╨╕ ╬┐╨╜ ╨░╨╝╨╝╬┐╨╜╨╕╤Å.
2. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç.1, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤ü╤Å ╧ä╨╡╨╝, ╤ç╧ä╬┐ ╨╕╬┐╨╜╬┐╬┐╨▒╨╝╨╡╨╜╨╜╤ï╨╣ ╧Ç╬┐╨╗╨╕╨╝╨╡╧ü╨╜╤ï╨╣ ╨╝╨░╧ä╨╡- ╧ü╨╕╨░╨╗ ╤ü╬┐╨┤╨╡╧ü╨╢╨╕╧ä ╨▒╬┐╨╗╨╡╨╡ ╬┐╨┤╨╜╬┐╨│╬┐ ╧ä╨╕╧Ç╨░ ╤ì╨╗╨╡╬║╧ä╧ü╬┐╧Ç╬┐╨╗╬┐╨╢╨╕╧ä╨╡╨╗╤è╨╜╤ï╧ç ╤å╨╡╨╜╧ä╧ü╬┐╨▓.2. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç. 1, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤ü╤Å ╧ä╨ ╡╨╝, ╤ç╧ä╬┐ ╨╕╬┐╨╜╬┐╬┐╨▒╨╝╨╡╨╜╨╜╤ï╨╣ ╧Ç╬┐╨╗╨╕╨╝╨╡╧ü╨╜ ╤ï╨╣ ╨╝╨░╧ä╨╡- ╧ü╨╕╨░╨╗ ╤ü╬┐╨┤╨╡╧ü╨╢╨╕╧ä ╨▒╬┐╨╗╨╡╨╡ ╬┐╨ ┤╨╜╬┐╨│╬┐ ╧ä╨╕╧Ç╨░ ╤ì╨╗╨╡╬║╧ä╧ü╬┐╧Ç╬┐╨╗╬┐╨╢╨╕╧ä╨╡╨╗╤ è╨╜╤ï╧ç ╤å╨╡╨╜╧ä╧ü╬┐╨▓.
3. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç.1, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤ü╤Å ╧ä╨╡╨╝, ╤ç╧ä╬┐ ╨░╨╜╨╕╬┐╨╜╨░╨╝╨╕, ╬║╬┐╬┐╧ü╨┤╨╕╨╜╨╕╧ü╬┐╨▓╨░╨╜╨╜╤ï╨╝╨╕ ╤ü ╤ì╨╗╨╡╬║╧ä╧ü╬┐╧Ç╬┐╨╗╬┐╨╢╨╕╧ä╨╡╨╗╤î╨╜╤ï╨╝ ╤å╨╡╨╜╧ä╧ü╬┐╨╝, ╤Å╨▓╨╗╤Å╤Ä╧ä╤ü╤Å ╨░╨╜╨╕╬┐╨╜╤ï ╤â╨│╬┐╨╗╤î╨╜╬┐╨╣ ╨╕ ╨╕╨╗╨╕ ╤ü╨╡╧ü╨╜╨╕╤ü╧ä╬┐╨╣ ╨╕/╨╕╨╗╨╕ ╨╕/╨╕╨╗╨╕ ╧ä╨╕╬┐╤ü╨╡╧ü╨╜╨╕╤ü╧ä╬┐╨╣ ╨╕/╨╕╨╗╨╕ ╤ü╨╡╧ü╨╜╬┐╨╣ ╨╕/╨╕╨╗╨╕ ╬┐╧ü╧ä╬┐╧å╬┐╤ü╧å╬┐╧ü╨╜╬┐╨╣ ╨╕/╨╕╨╗╨╕ ╨▒╬┐╧ü╨╜╬┐╨╣ ╨╕/╨╕╨╗╨╕ ╬║╧ü╨╡╨╝╨╜╨╕╨╡╨▓╤ï╧ç ╬║╨╕╤ü╨╗╬┐╧ä ╨╕/╨╕╨╗╨╕ ╬┐╧ü╨│╨░╨╜╨╕╤ç╨╡╤ü╬║╨╕╧ç ╬║╨░╧ü╨▒╬┐╨╜╬┐╨▓╤ï╧ç, ╨╝╬┐╨╜╬┐-, ╨┤╨╕-, ╧ä╧ü╨╕- ╨╕ ╧Ç╬┐╨╗╨╕╬║╨░╧ü- ╨▒╬┐╨╜╬┐╨▓╤ï╧ç ╬║╨╕╤ü╨╗╬┐╧ä, ╤ü╬┐╨┤╨╡╧ü╨╢╨░╤ë╨╕╧ç 1-20 ╨░╧ä╬┐╨╝╬┐╨▓ ╤â╨│╨╗╨╡╧ü╬┐╨┤╨░.3. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç.1, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╤╨╕╨╣╤╨╕╨╣╤╤ ╧ä╨ ╡╨╝, ╤ç╧ä╬┐ ╨░╨╜╨╕╬┐╨╜╨░╨╝╨╕, ╬║╬┐╬┐╧ü╨┤╨╕╨╜╨╕╧ü╬┐╨▓╨ ░╨╜╨╜╤ï╨╝╨╕ ╤ü ╤ì╨╗╨╡╬║╧ä╧ü╬┐╧Ç╬┐╨╗╬┐╨╢╨╕╧ä╨╡╨╗╤î╨╜╤ ï╨╝ ╤å╨╡╨╜╧ä╧ü╬┐╨╝, ╤Å╨▓╨╗╤Å╤Ä╧ä╤ü╤Å ╨░╨╜╨╕╬┐╨╜╤ï ╤â╨│ ╬┐╨╗╤î╨╜╬┐╨╣ ╨╕ ╨╕╨╗╨╕ ╤ü╨╡╧ü╨╜╨╕╤ü╧ä╬┐╨╣ ╨╕ / ╨╕╨╗╨╕ ╨╕ / ╨╕╨╗╨╕ ╧ä╨╕╬┐╤ü╨╡╧ü╨╜╨╕╤ü╧ä╬┐╨╣ ╨╕ / ╨╕╨╗╨╕ ╤ü╨╡╧ü╨╜╬┐╨ ╣ ╨╕ / ╨╕╨╗╨╕ ╬┐╧ü╧ä╬┐╧å╬┐╤ü╧å╬┐╧ü╨╜╬┐╨╣ ╨╕ / ╨╕╨╗╨╕ ╨▒╬┐╧ ü ╜╬┐╨╣ ╨╕ / ╨╕╨╗╨╕ ╬║╧ü╨╡╨╝╨╜╨╕╨╡╨▓╤ï╧ç ╬║╨╕╤ü╨╗╬┐╧ä ╨╕ / ╨ ╕╨╗╨╕ ╬┐╧ü╨│╨░╨╜╨╕╤ç╨╡╤ü╬║╨╕╧ç ╬║╨░╧ü╨▒╬┐╨╜╬┐╨▓╤ï╧ç, ╨╝╬┐╨╜╬┐-, ╨┤╨╕-, ╧ä╧ü╨╕- ╨╕ ╧Ç╬┐╨╗╨╕╬║╨░╧ü- ╨▒╬┐╨╜╬┐╨▓ ╤ï╧ç ╬║╨╕╤ü╨╗╬┐╧ä, ╤ü╬┐╨┤╨╡╧ü╨╢╨░╤ë╨╕╧ç 1-20 ╨░╧ä╬┐╨╝╬┐ ╨▓ ╤â╨│╨╗╨╡╧ü╬┐╨┤╨░.
4. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç.╨ù, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤ü╤Å ╧ä╨╡╨╝, ╤ç╧ä╬┐ ╨░╨╜╨╕╬┐╨╜╨░╨╝╨╕ ╬┐╧ü╨│╨░╨╜╨╕╤ç╨╡╤ü╬║╨╕╧ç ╬║╨░╧ü╨▒╬┐╨╜╬┐- ╨▓╤ï╧ç ╨┤╨╕-, ╧ä╧ü╨╕- ╨╕ ╧Ç╬┐╨╗╨╕╬║╨░╧ü╨▒╬┐╨╜╬┐╨▓╤ï╧ç ╬║╨╕╤ü╨╗╬┐╧ä, ╤Å╨▓╨╗╤Å╤Ä╧ä╤ü╤Å ╨░╨╜╨╕╬┐╨╜╤ï ╤ë╨░╨▓╨╡╨╗╨╡╨▓╬┐╨╣, ╨╝╨░╨╗╬┐╨╜╬┐╨▓╬┐╨╣, ╤Å╨╜╧ä╨░╧ü╨╜╬┐╨╣, ╤Å╨▒╨╗╬┐╤ç╨╜╬┐╨╣, ╨▓╨╕╨╜╨╜╬┐╨╣ ╨╕╨╗╨╕ ╨╗╨╕╨╝╬┐╨╜╨╜╬┐╨╣ ╬║╨╕╤ü╨╗╬┐╧ä.4. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç.╨ù, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤ü╤Å ╧ä ╨╡╨╝, ╤ç╧ä╬┐ ╨░╨╜╨╕╬┐╨╜╨░╨╝╨╕ ╬┐╧ü╨│╨░╨╜╨╕╤ç╨╡╤ü╬║╨╕╧ ç ╬║╨░╧ü╨▒╬┐╨╜╬┐- ╨▓╤ï╧ç ╨┤╨╕-, ╧ä╧ü╨╕- ╨╕ ╧Ç╬┐╨╗╨╕╬║╨░╧ ü╨▒╬┐╨╜╬┐╨▓╤ï╧ç ╬║╨╕╤ü╨╗╬┐╧ä, ╤Å╨▓╨╗╤Å╤Ä╧ä╤ü╤Å ╨░╨╜╨╕ ╬┐╨╜╤ï ╤ë╨░╨▓╨╡╨╗╨╡╨▓╬┐╨╣, ╨╝╨░╨╗╬┐╨╜╬┐╨▓╬┐╨╣, ╤Å╨╜╧ä ╨░╧ü╨╜╬┐╨╣, ╤Å╨▒╨╗╬┐╤ç╨╜╬┐╨╣, ╨▓╨╕╨╜╨╜╬┐╨╣ ╨╕╨╗╨╕ ╨╗╨╕ ╨╝╬┐╨╜╨╜╬┐╨╣ ╬║╨╕╤ü╨╗╬┐╧ä.
5. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç.1, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤ü╤Å ╧ä╨╡╨╝, ╤ç╧ä╬┐ ╧Ç╧ü╬┐╤å╨╡╤ü╤ü ╨│╨╕╨┤╧ü╨░╧ä╨░╤å╨╕╨╕ ╧Ç╧ü╬┐╨▓╬┐╨┤╤Å╧ä ╨▓ ╧Ç╧ü╨╕╤ü╤â╧ä╤ü╧ä╨▓╨╕╨╕ ╬║╨╕╤ü╨╗╬┐╧ä ╨╕/╨╕╨╗╨╕ ╨╕╧ç ╤ü╬┐╨╗╨╡╨╣ ╨╕/╨╕╨╗╨╕ ╨┤╨╕╬┐╬║╤ü╨╕╨┤╨░ ╤â╨│╨╗╨╡╧ü╬┐╨┤╨░.5. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç. 1, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤╨╕╨╣╤╤╤╧ ╧ä╨ ╡╨╝, ╤ç╧ä╬┐ ╧Ç╧ü╬┐╤å╨╡╤ü╤ü ╨│╨╕╨┤╧ü╨░╧ä╨░╤å╨╕╨╕ ╧Ç╧ü╬┐ ╨▓╬┐╨┤╤Å╧ä ╨▓ ╧Ç╧ü╨╕╤ü╤â╧ä╤ü╧ä╨▓╨╕╨╕ ╬║╨╕╤ü╨╗╬┐╧ä ╨╕ / ╨ ╕╨╗╨╕ ╨╕╧ç ╤ü╬┐╨╗╨╡╨╣ ╨╕ / ╨╕╨╗╨╕ ╨┤╨╕╬┐╬║╤ü╨╕╨┤╨░ ╤â╨│╨╗ ╨╡╧ü╬┐╨┤╨░.
6. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç.5, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤ü╤Å ╧ä╨╡╨╝, ╤ç╧ä╬┐ ╨▓ ╬║╨░╤ç╨╡╤ü╧ä╨▓╨╡ ╬║╨╕╤ü╨╗╬┐╧ä ╨╕╤ü╧Ç╬┐╨╗╤î╨╖╤â╤Ä╧ä ╤ü╨╡╧ü- ╨╜╨╕╤ü╧ä╤â╤Ä, ╬┐╧ü╧ä╬┐╧å╬┐╤ü╧å╬┐╧ü╨╜╤â╤Ä, ╨▒╬┐╧ü╨╜╤â╤Ä, ╬║╧ü╨╡╨╝╨╜╨╕╨╡╨▓╤â╤Ä, ╨╝╤â╧ü╨░╨▓╤î╨╕╨╜╤â╤Ä, ╤â╬║╤ü╤â╤ü╨╜╤â╤Ä, ╤ë╨░╨▓╨╡╨╗╨╡- ╨▓╤â╤Ä, ╨╝╨░╨╗╬┐╨╜╬┐╨▓╤â╤Ä, ╤Å╨╜╧ä╨░╧ü╨╜╤â╤Ä, ╤Å╨▒╨╗╬┐╤ç╨╜╤â╤Ä, ╨▓╨╕╨╜╨╜╤â╤Ä ╨╕╨╗╨╕ ╨╗╨╕╨╝╬┐╨╜╨╜╤â╤Ä ╬║╨╕╤ü╨╗╬┐╧ä╤ï.6. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç.5, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤ü╤Å ╧ä╨ ╡╨╝, ╤ç╧ä╬┐ ╨▓ ╬║╨░╤ç╨╡╤ü╧ä╨▓╨╡ ╬║╨╕╤ü╨╗╬┐╧ä ╨╕╤ü╧Ç╬┐╨╗ ╤î╨╖╤â╤Ä╧ä ╤ü╨╡╧ü- ╨╜╨╕╤ü╧ä╤â╤Ä, ╬┐╧ü╧ä╬┐╧å╬┐╤ü╧å╬┐╧ü ╨╜╤â╤Ä, ╨▒╬┐╧ü╨╜╤â╤Ä, ╬║╧ü╨╡╨╝╨╜╨╕╨╡╨▓╤â╤Ä, ╨╝╤â╧ü╨░╨ ▓╤î╨╕╨╜╤â╤Ä, ╤â╬║╤ü╤â╤ü╨╜╤â╤Ä, ╤ë╨░╨▓╨╡╨╗╨╡- ╨▓╤â╤Ä, ╨ ╝╨░╨╗╬┐╨╜╬┐╨▓╤â╤Ä, ╤Å╨╜╧ä╨░╧ü╨╜╤â╤Ä, ╤Å╨▒╨╗╬┐╤ç╨╜╤â╤ Ä, ╨▓╨╕╨╜╨╜╤â╤Ä ╨╕╨╗╨╕ ╨╗╨╕╨╝╬┐╨╜╨╜╤â╤Ä ╬║╨╕╤ü╨╗╬┐╧ä╤ï .
7. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç.5, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤ü╤Å ╧ä╨╡╨╝, ╤ç╧ä╬┐ ╨▓ ╬║╨░╤ç╨╡╤ü╧ä╨▓╨╡ ╤ü╬┐╨╗╨╡╨╣ ╨╕╤ü╧Ç╬┐╨╗╤î╨╖╤â╤Ä╧ä ╨┤╨╕- ╨│╨╕╨┤╧ü╬┐-, ╨│╨╕╨┤╧ü╬┐- ╨╕ ╬┐╧ü╧ä╬┐- ╧å╬┐╤ü╧å╨░╧ä╤ï, ╤ü╤â╨╗╤î╧å╨╕╧ä╤ï ╨╕ ╨│╨╕╨┤╧ü╬┐╤ü╤â╨╗╤î╧å╨╕╧ä╤ï, ╬║╨░╧ü╨▒╬┐╨╜╨░╧ä╤ï ╨╕ ╨│╨╕╨┤╧ü╬┐- ╬║╨░╧ü╨▒╬┐╨╜╨░╧ä╤ï, ╨▒╬┐╧ü╨░╧ä╤ï, ╤ü╨╕╨╗╨╕╬║╨░╧ä╤ï, ╧å╬┐╧ü╨╝╨╕╨░╧ä╤ï, ╨░╤å╨╡╧ä╨░╧ä╤ï, ╬┐╬║╤ü╨░╨╗╨░╧ä╤ï ╨╗╨╕╧ä╨╕╤Å, ╨╜╨░╧ä╧ü╨╕╤Å, ╬║╨░╨╗╨╕╤Å ╨╕╨╗╨╕ ╨░╨╝╨╝╬┐╨╜╨╕╤Å. ╬í╨í╬ñ/╬Ö╨¿98/000877. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç.5, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤ü╤Å ╧ä╨ ╡╨╝, ╤ç╧ä╬┐ ╨▓ ╬║╨░╤ç╨╡╤ü╧ä╨▓╨╡ ╤ü╬┐╨╗╨╡╨╣ ╨╕╤ü╧Ç╬┐╨╗╤î ╨╖╤â╤Ä╧ä ╨┤╨╕- ╨│╨╕╨┤╧ü╬┐-, ╨│╨╕╨┤╧ü╬┐- ╨╕ ╬┐╧ü╧ä╬┐- ╧å╬ ┐╤ü╧å╨░╧ä╤ï, ╤ü╤â╨╗╤î╧å╨╕╧ä╤ï ╨╕ ╨│╨╕╨┤╧ü╬┐╤ü╤â╨╗╤î╧ ╨╕╧ä╤ï, ╬║╨░╧ü╨▒╬┐╨╜╨░╧ä╤ï ╨╕ ╨│╨╕╨┤╧ü╬┐- ╬║╨░╧ü╨▒╬┐╨╜ ╨░╧ä╤ï, ╨▒╬┐╧ü╨░╧ä╤ï, ╤ü╨╕╨╗╨╕╬║╨░╧ä╤ï, ╧å╬┐╧ü╨╝╨╕╨░╧ ä╤ï, ╨░╤å╨╡╧ä╨░╧ä╤ï, ╬┐╬║╤ü╨░╨╗╨░╧ä╤ï ╨╗╨╕╧ä╨╕╤Å, ╨╜╨░ ╧ä╧ü╨╕╤Å, ╬║╨ ░╨╗╨╕╤Å ╨╕╨╗╨╕ ╨░╨╝╨╝╬┐╨╜╨╕╤Å. ╬í╨í╬ñ / ╬Ö╨¿98 / 00087
1010
8. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç.5, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤ü╤Å ╧ä╨╡╨╝, ╤ç╧ä╬┐ ╧Ç╧ü╬┐╤å╨╡╤ü╤ü ╨│╨╕╨┤╧ü╨░╧ä╨░╤å╨╕╨╕ ╧Ç╧ü╬┐╨▓╬┐╨┤╤Å╧ä ╧Ç╧ü╨╕ ╤ü╬┐╨┤╨╡╧ü╨╢╨░╨╜╨╕╨╕ ╬║╨╕╤ü╨╗╬┐╧ä ╨╕ ╨╕╨╗╨╕ ╨╕╧ç ╤ü╬┐╨╗╨╡╨╣ ╨╕/╨╕╨╗╨╕ ╨┤╨╕╬┐╬║╤ü╨╕╨┤╨░ ╤â╨│╨╗╨╡╧ü╬┐╨┤╨░ ╨▓ ╨╕╤ü╧ç╬┐╨┤╨╜╬┐╨╝ ╨▓╬┐╨┤╨╜╬┐╨╝ ╧ü╨░╤ü╧ä╨▓╬┐╧ü╨╡ ╨░╨╗╬║╨╕╨╗╨╡╨╜╬┐╬║╤ü╨╕╨┤╨░ ╨▓ ╨╕╨╜╧ä╨╡╧ü╨▓╨░╨╗╨╡ 0,00001-1% ╨╝╨░╤ü8. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç.5, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤ü╤Å ╧ä╨ ╡╨╝, ╤ç╧ä╬┐ ╧Ç╧ü╬┐╤å╨╡╤ü╤ü ╨│╨╕╨┤╧ü╨░╧ä╨░╤å╨╕╨╕ ╧Ç╧ü╬┐ ╨▓╬┐╨┤╤Å╧ä ╧Ç╧ü╨╕ ╤ü╬┐╨┤╨╡╧ü╨╢╨░╨╜╨╕╨╕ ╬║╨╕╤ü╨╗╬┐╧ä ╨╕ ╨╕╨╗╨╕ ╨╕╧ç ╤ü╬┐╨╗╨╡╨╣ ╨╕ / ╨╕╨╗╨╕ ╨┤╨╕╬┐╬║╤ü╨╕╨┤╨░ ╤â╨│╨ ╗╨╡╧ü╬┐╨┤╨░ ╨▓ ╨╕╤ü╧ç╬┐╨┤╨╜╬┐╨╝ ╨▓╬┐╨┤╨╜╬┐╨╝ ╧ü╨░╤ü╧ä╨ ▓╬┐╧ü╨╡ ╨░╨╗╬║╨╕╨╗╨╡╨╜╬┐╬║╤ü╨╕╨┤╨░ ╨▓ ╨╕╨╜╧ä╨╡╧ü╨▓╨░╨ ╗╨╡ 0.00001-1% ╨╝╨░╤ü
9. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç.8, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤ü╤Å ╧ä╨╡╨╝, ╤ç╧ä╬┐ ╧Ç╧ü╬┐╤å╨╡╤ü╤ü ╨│╨╕╨┤╧ü╨░╧ä╨░╤å╨╕╨╕ ╧Ç╧ü╬┐╨▓╬┐╨┤╤Å╧ä ╧Ç╧ü╨╕ ╤ü╬┐╨┤╨╡╧ü╨╢╨░╨╜╨╕╨╕ ╬║╨╕╤ü╨╗╬┐╧ä ╨╕/╨╕╨╗╨╕ ╨╕╧ç ╤ü╬┐╨╗╨╡╨╣ ╨╕/╨╕╨╗╨╕ ╨┤╨╕╬┐╬║╤ü╨╕╨┤╨░ ╤â╨│╨╗╨╡╧ü╬┐╨┤╨░ ╨▓ ╨╕╨╜╧ä╨╡╧ü╨▓╨░╨╗╨╡ 0,001- 0,1%╨╝╨░╤ü.9. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç.8, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤ü╤Å ╧ä╨ ╡╨╝, ╤ç╧ä╬┐ ╧Ç╧ü╬┐╤å╨╡╤ü╤ü ╨│╨╕╨┤╧ü╨░╧ä╨░╤å╨╕╨╕ ╧Ç╧ü╬┐ ╨▓╬┐╨┤╤Å╧ä ╧Ç╧ü╨╕ ╤ü╬┐╨┤╨╡╧ü╨╢╨░╨╜╨╕╨╕ ╬║╨╕╤ü╨╗╬┐╧ä ╨╕ / ╨╕╨╗╨╕ ╨╕╧ç ╤ü╬┐╨╗╨╡╨╣ ╨╕ / ╨╕╨╗╨╕ ╨┤╨╕╬┐╬║╤ü╨╕╨┤╨░ ╤â╨│ ╨╗╨╡╧ü╬┐╨┤╨░ ╨▓ ╨╕╨╜╧ä╨╡╧ü╨▓╨░╨╗╨╡ 0.001-0.1% ╨╝╨░╤ü.
10. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç.1, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤ü╤Å ╧ä╨╡╨╝, ╤ç╧ä╬┐ ╧Ç╧ü╬┐╤å╨╡╤ü╤ü ╨│╨╕╨┤╧ü╨░╧ä╨░╤å╨╕╨╕ ╧Ç╧ü╬┐╨▓╬┐╨┤╤Å╧ä ╧Ç╧ü╨╕ 20-200┬░╨í ╨╕ 0,6-5,0 ╬£╧Ç╨░.10. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç.1, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤╨╕╨╣╤╤╤ ╧ä╨ ╡╨╝, ╤ç╧ä╬┐ ╧Ç╧ü╬┐╤å╨╡╤ü╤ü ╨│╨╕╨┤╧ü╨░╧ä╨░╤å╨╕╨╕ ╧Ç╧ü╬┐ ╨▓╬┐╨┤╤Å╧ä ╧Ç╧ü╨╕ 20-200┬░╨í ╨╕ 0.6-5.0 ╬ £ ╧Ç╨░.
11. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç.1, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤ü╤Å ╧ä╨╡╨╝, ╤ç╧ä╬┐ ╧Ç╧ü╬┐╤å╨╡╤ü╤ü ╨│╨╕╨┤╧ü╨░╧ä╨░╤å╨╕╨╕ ╧Ç╧ü╬┐╨▓╬┐╨┤╤Å╧ä ╧Ç╧ü╨╕ 80-130┬░╨í ╨╕ 1,0-2,0 ╬£╨ƒ╨░. 11. ╨í╧Ç╬┐╤ü╬┐╨▒ ╧Ç╬┐ ╧Ç.1, ╬┐╧ä╨╗╨╕╤ç╨░╤Ä╤ë╨╕╨╣╤╨╕╨╣╤╨╕╨╣╤╤ ╧ä╧ ╡╨╝, ╤ç╧ä╬┐ ╧Ç╧ü╬┐╤å╨╡╤ü╤ü ╨│╨╕╨┤╧ü╨░╧ä╨░╤å╨╕╨╕ ╧Ç╧ü╬┐ ╨▓╬┐╨┤╤Å╧ä ╧Ç╧ü╨╕ 80-130┬░╨í ╨╕ 1.0-2.0 ╬ £ ╨ƒ╨░.
PCT/RU1998/000087 1997-09-09 1998-03-27 Method for producing alkyleneglycols WO1999012876A1 (en)

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