GB1603778A - Creation of Inventions and Patents with Artificial Intelligence

GB1603778A – Heating and ventilation system
– Google Patents

GB1603778A – Heating and ventilation system
– Google Patents
Heating and ventilation system

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Publication number
GB1603778A

GB1603778A
GB17706/78A
GB1770678A
GB1603778A
GB 1603778 A
GB1603778 A
GB 1603778A
GB 17706/78 A
GB17706/78 A
GB 17706/78A
GB 1770678 A
GB1770678 A
GB 1770678A
GB 1603778 A
GB1603778 A
GB 1603778A
Authority
GB
United Kingdom
Prior art keywords
air
heating
heat
condenser
sections
Prior art date
1977-05-06
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)

Expired

Application number
GB17706/78A
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)

Individual

Original Assignee
Individual
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
1977-05-06
Filing date
1978-05-04
Publication date
1981-11-25

1978-05-04
Application filed by Individual
filed
Critical
Individual

1981-11-25
Publication of GB1603778A
publication
Critical
patent/GB1603778A/en

Status
Expired
legal-status
Critical
Current

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Classifications

F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING

F24—HEATING; RANGES; VENTILATING

F24D—DOMESTIC- OR SPACE-HEATING SYSTEMS, e.g. CENTRAL HEATING SYSTEMS; DOMESTIC HOT-WATER SUPPLY SYSTEMS; ELEMENTS OR COMPONENTS THEREFOR

F24D11/00—Central heating systems using heat accumulated in storage masses

F24D11/02—Central heating systems using heat accumulated in storage masses using heat pumps

F24D11/0257—Central heating systems using heat accumulated in storage masses using heat pumps air heating system

Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS

Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE

Y02B—CLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS

Y02B10/00—Integration of renewable energy sources in buildings

Y02B10/70—Hybrid systems, e.g. uninterruptible or back-up power supplies integrating renewable energies

Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE

Y02B—CLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS

Y02B30/00—Energy efficient heating, ventilation or air conditioning [HVAC]

Y02B30/13—Hot air central heating systems using heat pumps

Y10—TECHNICAL SUBJECTS COVERED BY FORMER USPC

Y10S—TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS

Y10S165/00—Heat exchange

Y10S165/909—Regeneration

Description

PATENT SPECIFICATION
C ( 21) Application No 17706/78 ( 22) Filed 4 May 1978 ( 31) Convention Application No 7705311 ( 32) Filed 6 May 1977 in > ( 33) Sweden (SE) C ( 44) Complete Specification published 25 Nov 1981 ^ ( 51) INT CL 3 F 24 F 7/00 ( 52) Index at acceptance F 4 V Bl C B 1 X 2 F 4 H G 12 G 2 L G 2 M G 2 X 1 ( 54) HEATING AND VENTILATION SYSTEM ( 71) I, ANDERS DANIEL BACKLUND, a Swedish citizen, of Holmen, S-820 Ytterhogdal, Sweden, do hereby declare the invention for which I pray that a patent may be granted to me, and the method by which it is to be performed, to be particularly described in and by the following statement:-
The present invention relates to a new and improved heatting and ventilation system of 0 the type comprising a so-called heat pumping device for converting low-temperature heat energy into high-temperature heat energy useful for e g heating objects and spaces surrounded by a preferably heat insulated outer covering, such as rooms in a building.
Heat pumping devices of various designs have for a long time been used for converting readily available low-temperature heat energy for example the low-temperature heat energy contained in cold air, cold water or in the ground during winter time into a condition of higher temperature, useful for heating purposes As is well known in the art, heat pumping devices basically consist of a closed circuit having means for compressing a heat conveying fluid, condenser means for condensing said fluid, means for expanding said fluid, and means for evaporating said fluid The evaporator means are in 0 heat exchanging contact with a fluid or a body containing heat energy of a comparatively low temperature, which is absorbed by the heat carrying fluid of the heat pumping device by causing the heat carrying fluid to evaporate at a reduced pressure and a low temperature After having passed through the evaporator means, said heat carrying fluid is compressed by the compressor means to raise the pressure and the temperature thereof 0 to the desired higher level, and it is then fed into said condenser means, which is in direct or indirect heat exchanging contact with the object or space to be heated When the heat is thus absorbed from the heat carrying fluid, the same will be condensed within said condenser means Thereafter, the heat carrying fluid is expanded in said expansion means to a reduced pressure and to a temperature lower than that of the fluid or body supplying the low-temperature energy The heat carrying fluid is then returned to the evaporator means for absorbing further low-temperature energy, and the cycle is repeated.
The function of a heat pumping device is thuus, in short, to raise the temperature of a quantity of energy The smaller this rise of the temperature has to be, the smaller the amounts of expensive energy which will be required for attaining the higher temperature level, i e for operating the said compressor means It has, until the present invention, been assumed that, as an example, it would be necessary to raise the pressure and the temperature of the heat carrying gas in the compressor means to such a high level that the coldest part of the condenser means willhave a temperature of at least 200 C in order to raise the temperature of air flowing through a conventional cooler having a built-in condenser from O C to 20 ‘C (In this example the condensation probably takes place between + 35 WC and + 250 C) The temperature of the gas immediately after the compression is also much higher because of inevitable overheating of part of the gas Similar considerations, although reversed as to the temperature conditions, apply to the evaporator means of the heat pumping device, wherein an evaporation temperature is assumed and chosen, which in total is lower than the lowest temperature of the low-temperature energy, in spite of the fact that a great part of this energy at the start has a considerably higher temperature.
It is an object of the present invention to provide an improved heating system comprising a heat pumping device having modified condenser and evaporator means making the heat pumping device operate more efficiently.
Another object of the invention is to provide an energy-saving heating and ventilation system for heatng and ventilating objects or spaces surrounded by an outer covering, such as walls and roofs of buildings.
These and other objects and advantages of the invention will be explained in further detail below.
According to one aspect of the invention the condenser and the evaporator means of a heat ( 11) 1603778 1,603,778 pumping device included in a heating system are divided into at least two separate sections, which are connected in series The series connected sections of the condenser are arranged to operate at progressively decreasing temperatures, whereas the series connected sections of the evaporator are arranged to operate at progressively increasing temperatures, said temperatures being chosen with regard to the temperature gradient of the outer covering of the object or space to be heated.
Each individual section of said condenser and evaporator means respectively is in heat exchanging communication with a corresponding slit or passage extending through said outer covering, substantially in parallel with the outer surfaces thereof and at different distances from said surfaces Those of the slits or passages, which communicate in a heat exchanging relationship with said sections of the condenser means, are interconnected in series, and the slits or passages communicating in a heat exchanging relationship with said sections of the evaporator means are series connected in a similar manner The slits or passages corresponding to the condenser means are preferably arranged in heat exchanging contact with the slits or passages corresponding to the evaporator means.
The individual sections of the condenser means and the evaporator means may either be located within said slits or channels or be located outside said outer covering In the former case the condenser and evaporator means are thus built-in in the outer covering, whereas said means in the latter case may form together with the remaining parts of the heat pumping device a separate heat pumping unit having a plurality of condenser sections, each heat exchangingly communicating with a corresponding slit or passage in the outer covering, and a plurality of evaporator sections, each heat exchangingly communicating with a corresponding slit or passage in the outer covering It should be understood that said slits or channels may extend along the entire outer covering or be located only in certain areas thereof The slits or channels may be formed in a number of different ways using different kinds of material and weak and inexpensive dimensions, as they will not be subjected to any essential pressure The slits or passages may, for example, be formed by thin tubes of plastics, metal or other suitable material The areas within the outer covering, which are not occupied by said slits or passages, preferably contain a suitable heat insulating material such as glass or mineral fibre wool.
The use according to the invention of a plurality of condenser and evaporator sections operating at progressively decreasing (condenser) or increasing (evaporator) temperatures and contacting an air flow of correspondingly varying temperatures, increases the spectrum of useful heat conveying fluids and results in a considerably increased efficiency, requiring only a minimum of expensive energy for operating the compressor.
This is due to the fact that the flow of air (the same flow of air) passes the condenser sections in series and is heated step-wise, resulting in a considerably lower average temperature of the condenser than in conventional heat pumping devices For example, heating air from O C to + 50 C would only require a condenser section being cooled from not more than about + 100 C, and so on.
Similar considerations apply to the evaporator part.
Similar considerations also apply to the heating of the outer covering as such Thus, the transmission losses through the covering need not be replaced to 100 per cent by heating from the inside as is done at present, but heat energy may be supplied progressively from the outside and inwards with progressively or step-wise increasing temperatures The division into a plurality of (i e at least two) slits or passages having separate supply of heat energy to each slit lowers the average temperature of the energy required for the heating, and the amount of air for heating the space inside of the outer covering as such can be strongly limited The amount of air required for the heat distribution, i e.
for cooling the condenser and for transferring energy to the evaporator, can be accomplished by means of the fan system for the necessary fresh air and ventilation in a common function.
The low-temperature energy used in the system according to the invention can be supplied from a variety of sources, which are readily available A preferred low-temperature energy source is an accumulator of the type described in my co-pending application Ser.
No 26371/77 (Serial No 1,585,528) filed June 23, 1977, said heat accumulator comprising a water absorbing mass, preferably buried in the ground, which can be loaded with e g.
waste heat, transmission heat, solar heat, etc.
The heating system according to the invention may also comprise a solar heat system for direct or indirect heating of the heat conveying air.
Some preferred embodiments of the invention will be described in the following with reference to the accompanying drawing, in which Fig 1 is a schematic diagram illustrating the principle of the heat pumping device used in the heating system according to the invention, and Fig 2 is a schematic view illustrating a building provided with a heating and ventilation system according to the invention.
In Fig 1 there is shown a heat pumping device comprising a compressor 1 and an expansion valve 2 According to the invention the condenser of the heat pumping device is divided into a plurality of condenser sections 3-8 which are connected in series Similarly the evaporator has a plurality of series 71 O 378 connected evaporator sections 9 to 12 The condenser sections 3 to 8 are arranged such that heat emission takes place with gradually decreasing temperatures on the cooling surfaces of the condenser from section 3 to section 8.
Similarly the temperatures on the heat absorbing surfaces of the evaporator gradually or step-wise increase from evaporator section 9 to evaporator section 12 In this manner the required difference between the temperature of condensation and the temperature of evaporation is reduced, thereby increasing the heat factor.
In Fig 2 there is schematically shown a building having a floor 13, walls 14, 14 ‘ and a roof 15, said parts defining a space 16 to be heated The width of the wall 14 ‘ is shown considerably enlarged in order to illustrate the composition of the wall At least a part of the outer covering formed by the parts 13, 14, 14 ‘ and 15 are built up according to the principle illustrated by the wall 14 ‘ Said wall has a first system 17 of air channels, slits, passages, tubes, or the like for circulatt 5 ing heating and ventilation air through the wall 14 ‘ into the space 16 to be heated and ventilated, and a similar second system 18 for recirculating the air from the space 16 through the wall Each of the air circulation systems 16 and 17 has a plurality of sections located at varying distances from the outer surfaces of the wall 14 ‘ The condenser sections 3 to 8 of the heat pumping device illustrated in Fig 1 are located in said first air circulation system 17 with the first condenser section 3 located closest to the space 16 and the condenser section 8 closest to the outer surface of the wall 14 ‘ The evaporator sections 9 to 12 are located 0 in the air recycling system 18 such that the recycled air first contacts evaporator section 12, then evaporator section 11, and so on The two air circulation systems 17 and 18 are preferably arranged in heat exchanging contact is with each other, and the areas of the wall 14 ‘, which are not occupied by said systems 17 and 18, are preferably filled with bodies of suitable heat insulating material (not shown) Air is circulated in the system by means of fans 19 0 and 20 In the shown embodiment lowtemperature energy is supplied to the circulating air from a heat accumulator 21, which is buried in the ground under or close to the building and which may comprise water soaked peat material or the like, the inlet air being passed through the accumulator 21 through suitable tubing 22 in heat exchanging contact with the accumulator 21 The inlet air may be fresh air and/or air discharged D from the air circulation system 18, which may be fed into the inlet conduit 22 in controllable amounts by means of a conduit 23 having an adjustable valve 24 The system may also comprise a solar energy collector 25 and a black or dark surface 26 located in the air stream 65 of the system 17.
The described embodiment of the heating and ventilation system according to the invention operates in the following manner: Fresh air (and/or discharged air taken from the 70 conduit 23) is by means of the fan 20 passed through the tubing 22, where (when the inlet air is cooler than the accumulator 21) the inlet air is preheated by the lowtemperature heat energy stored in the 75 accumulator 21 Further heating of the inlet air takes place when the air passes the solar heat collector 25 and surface 26 The air is then progressively heated when in turn passing condenser sections 8 to 3 and preferably also 80 by the heat exchanging contact with the air in the recirculation system 18 The wall 14 ‘ is at the same time heated progressively from the outer surface to the inner surface thereof Finally, the heated inlet air passes 85 to the room or space 16, which is heated, on the one hand, indirectly through the slits or channels located closest to the inner side of the wall 14 ‘, and on the other hand, directly by the heated air supplied to the space 90 16 through, for example, ventilation openings located at appropriate locations at the ceiling of the space 16 The air is then passed into the return system 18 in a suitable manner, for example via suitable openings at the floor 95 of the space 16, and the fan 19 brings the air into the return system 18, where it is preferably heat exchanged against the inlet air flowing in the circulation system 17 Before leaving the wall 14 ‘ the return air in the system 18 is 100 contacted with in rum evaporator section 12, evaporator section 11, etc, wherein the necessary heat energy is withdrawn from the air The cooled air is then discharged through opening 27 and/or recirculated via the 105 circuit 23.
The invention is not limited to the embodiments described above and illustrated in the drawing, but many variations and modifications can be made within the scope of the invention 110

Claims (9)

WHAT I CLAIM IS:-

1 A system for heating and ventilating objects and spaces surrounded by an outer covering, said system comprising a heat pumping device having condenser means for heating 115 the air to be used for heating said object or space, and evaporator means for recovering heat energy from the air discharged from said space or object, wherein each of said condenser means and evaporator means are divided into 120 a plurality of individual, series-connected sections, which are located in separate channels, and wherein the circulating air is arranged (a) to pass said sections one by one in such 125 a manner that heat emission to the air from the cooling surfaces of said condenser sections 1,603,778 :t 1,603,778 takes place at progressively increasing temperatures, (b) to pass said space or object after the heating, and (c) to pass said evaporator sections to give off heat to the same at progressively decreasing temperatures.

2 A heating and ventilation system according to claim 1, wherein said outer covering is provided with an intake air circulation system comprising a plurality of seriesconnected air channels, located inside said covering at varying distances from the outer surfaces thereof, and wherein each of said condenser sections is arranged in heat exchanging contact with a corresponding air channel, the air in the channel located closest to the outer surfaces of said outer covering being contacted with the condenser section operating at the lowest temperature, and the air in the channel located closest to said object or space being contacted with the condenser section operating at the highest temperature, the air in the intermediate channels being contacted with condenser sections operating at from said outer surface step-wise increasing temperatures.

3 A heating and ventilation system according to claim 2, wherein said condenser sections are located inside the corresponding air channels of said in-take air circulation system.

4 A heating and ventilation system according to claim 1, 2 or 3, wherein said outer covering is provided with an exhaust air circulation system comprising a plurality of series-connected air channels, located inside said covering at varying distances from the outer surfaces thereof, and wherein each of said evaporator sections is arranged in heat exchanging contact with a corresponding air channel of said second system.

A heating and ventilation system according to claim 4, wherein said evaporator sections are located inside the corresponding air channels of said exhaust air circulation system.

6 A heating and ventilation system according to any one of the preceding claims comprising intake and exhaust air circulation systems arranged in heat exchanging contact with each other.

7 A heating and ventilation system according to any one of claims 1 to 6, wherein said outer covering includes the outer walls of a building.

8 A heating and ventilation system according to claim 1, substantially as described herein.

9 A heating and ventilation system substantially as shown in the accompanying drawings and described herein with reference thereto.
BATCHELLOR, KIRK & EYLES, Chartered Patent Agents, Great Russell Street, London WC 1 B 3 LA.
For the Applicant.
Printed for Her Majesty’s Stationery Office by the Courier Press, Leamington Spa, 1981.
Published by the Patent Office, 25 Southampton Buildings, London, WC 2 A l AY, from which copies may be obtained.

GB17706/78A
1977-05-06
1978-05-04
Heating and ventilation system

Expired

GB1603778A
(en)

Applications Claiming Priority (1)

Application Number
Priority Date
Filing Date
Title

SE7705311A

SE423572B
(en)

1977-05-06
1977-05-06

HEATING AND VENTILATION SYSTEM

Publications (1)

Publication Number
Publication Date

GB1603778A
true

GB1603778A
(en)

1981-11-25

Family
ID=20331248
Family Applications (1)

Application Number
Title
Priority Date
Filing Date

GB17706/78A
Expired

GB1603778A
(en)

1977-05-06
1978-05-04
Heating and ventilation system

Country Status (9)

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US
(1)

US4232821A
(en)

CA
(1)

CA1114344A
(en)

DE
(1)

DE2819839A1
(en)

DK
(1)

DK198778A
(en)

FI
(1)

FI61349C
(en)

FR
(1)

FR2389837B3
(en)

GB
(1)

GB1603778A
(en)

NO
(1)

NO148827C
(en)

SE
(1)

SE423572B
(en)

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US9816986B2
(en)

2008-09-26
2017-11-14
Children’s Medical Center Corporation
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Families Citing this family (8)

* Cited by examiner, † Cited by third party

Publication number
Priority date
Publication date
Assignee
Title

IT8123283D0
(en)

1981-07-31
1981-07-31
Marco Zambolin

HEAT RECOVERY SYSTEM PERDESTRATIFICATION, OVERPRESSURE AND THERMAL INSULATION BY DISTRIBUTION OF AIR AT EXTERNAL TEMPERATURE IN THE UPPER PART OF INDUSTRIAL BUILDINGS.

SE426720B
(en)

1982-02-24
1983-02-07
Olavi Paljakka

VENTILATING WALL ELEMENT

DE3341485A1
(en)

1983-11-17
1985-05-30
Rolf-Diether 4330 Mülheim Weiblen

THERMAL INSULATING WINDOW

FI72596C
(en)

1985-07-03
1987-06-08
Reino Miettinen

Procedure for controlling ventilation in a building and building for the application of the process.

US5000253A
(en)

1988-03-31
1991-03-19
Roy Komarnicki
Ventilating heat recovery system

US5121789A
(en)

1991-08-01
1992-06-16
Scharfe Ronald E
Warm climate solar building

ATE397193T1
(en)

2001-11-01
2008-06-15
Albisrieden Fenster

VENTILATION DEVICE

CN109282521A
(en)

2017-07-19
2019-01-29
十堰市旺朝新能源科技有限公司
A kind of heat pump

Family Cites Families (15)

* Cited by examiner, † Cited by third party

Publication number
Priority date
Publication date
Assignee
Title

US1360457A
(en)

1914-09-08
1920-11-30
Deere & Co
Air-heating apparatus

US2008407A
(en)

1932-04-28
1935-07-16
Westinghouse Electric & Mfg Co
Inverted-refrigeration plant

US2077599A
(en)

1936-11-18
1937-04-20
Nathaniel B Wales
Heating system

US2468626A
(en)

1945-07-16
1949-04-26
Gen Motors Corp
Refrigerating apparatus

CH299178A
(en)

1950-06-19
1954-05-31
Studer Hans

A suitable room ventilation device for recovering heat from the exhaust air to preheat the fresh air.

US3143952A
(en)

1960-08-24
1964-08-11
Dualjet Corp
Method and apparatus for conditioning gas

DE2131936A1
(en)

1970-06-29
1972-01-05
Rinipa Ab

Air conditioning for buildings

FR2109052A5
(en)

1970-07-07
1972-05-26
Alsthom

US3623549A
(en)

1970-08-14
1971-11-30
Smitherm Industries
Heat exchange methods and apparatus

DE2231469A1
(en)

1972-06-27
1974-03-07
Siemens Ag

HEAT EXCHANGER FOR AN ELECTRONIC CABINET

FR2435670A1
(en)

1974-12-30
1980-04-04
Barthalon Maurice
Space heating system with heat pump device – has parameters of system chosen to allow compressor to operate at resonant frequency

US3968833A
(en)

1975-03-18
1976-07-13
Aktiebolaget Svenska Flaktfabriken
Method for heat recovery in ventilation installations

US3981445A
(en)

1975-05-23
1976-09-21
Custer Warren L
Variable volume air wall

US4071080A
(en)

1976-01-14
1978-01-31
Bridgers Frank H
Air conditioning system

DE2738018A1
(en)

1976-08-25
1978-03-02
Leo Van Der Weeen
Air conditioner using heat exchangers – passes preset quantities of air from premises and outside through both heat exchangers

1977

1977-05-06
SE
SE7705311A
patent/SE423572B/en
not_active
IP Right Cessation

1978

1978-05-04
GB
GB17706/78A
patent/GB1603778A/en
not_active
Expired

1978-05-04
US
US05/902,620
patent/US4232821A/en
not_active
Expired – Lifetime

1978-05-05
DE
DE19782819839
patent/DE2819839A1/en
not_active
Ceased

1978-05-05
NO
NO781597A
patent/NO148827C/en
unknown

1978-05-05
DK
DK198778A
patent/DK198778A/en
not_active
Application Discontinuation

1978-05-05
FI
FI781411A
patent/FI61349C/en
not_active
IP Right Cessation

1978-05-05
CA
CA302,696A
patent/CA1114344A/en
not_active
Expired

1978-05-08
FR
FR7813564A
patent/FR2389837B3/fr
not_active
Expired

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Children’s Medical Center Corporation
Detection of 5-hydroxymethylcytosine by glycosylation

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Measuring a level of a 5-hydroxymethylcytosine in a sample from a subject having a cancer or suspected of having cancer

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Labeling hydroxymethylated residues

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Selective oxidation of 5-methylcytosine by TET-family proteins

US10612076B2
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Selective oxidation of 5-methylcytosine by TET-family proteins

US10031131B2
(en)

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Selective oxidation of 5-methylcytosine by TET-family proteins

US9816986B2
(en)

2008-09-26
2017-11-14
Children’s Medical Center Corporation
Detection of 5-hydroxymethylcytosine by glycosylation

US10465234B2
(en)

2008-09-26
2019-11-05
Children’s Medical Center Corporation
Selective oxidation of 5-methylcytosine by TET-family proteins

US10731204B2
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Selective oxidation of 5-methylcytosine by TET-family proteins

US10767216B2
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The Children’s Medical Center Corporation
Methods for distinguishing 5-hydroxymethylcytosine from 5-methylcytosine

US10774373B2
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Compositions comprising glucosylated hydroxymethylated bases

US10793899B2
(en)

2008-09-26
2020-10-06
Children’s Medical Center Corporation
Methods for identifying hydroxylated bases

US11072818B2
(en)

2008-09-26
2021-07-27
The Children’s Medical Center Corporation
Selective oxidation of 5-methylcytosine by TET-family proteins

DE102013018938A1
(en)

2013-11-12
2015-05-28
Gea Air Treatment Gmbh

Plant for heat recovery

Also Published As

Publication number
Publication date

DE2819839A1
(en)

1978-11-09

SE423572B
(en)

1982-05-10

NO148827C
(en)

1983-12-21

US4232821A
(en)

1980-11-11

NO781597L
(en)

1978-11-07

NO148827B
(en)

1983-09-12

FI61349C
(en)

1982-07-12

SE7705311L
(en)

1978-11-07

CA1114344A
(en)

1981-12-15

FI781411A
(en)

1978-11-07

FR2389837A1
(en)

1978-12-01

FI61349B
(en)

1982-03-31

DK198778A
(en)

1978-11-07

FR2389837B3
(en)

1981-01-02

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