US1852893A - Rectifying installation - Google Patents

Rectifying installation Download PDF

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Publication number
US1852893A
US1852893A US262299A US26229928A US1852893A US 1852893 A US1852893 A US 1852893A US 262299 A US262299 A US 262299A US 26229928 A US26229928 A US 26229928A US 1852893 A US1852893 A US 1852893A
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Prior art keywords
resistance
variator
windings
rectifier
transformer
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US262299A
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Mulder Johannes Gysber Wilhelm
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Koninklijke Philips NV
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Philips Gloeilampenfabrieken NV
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    • HELECTRICITY
    • H02GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02MAPPARATUS FOR CONVERSION BETWEEN AC AND AC, BETWEEN AC AND DC, OR BETWEEN DC AND DC, AND FOR USE WITH MAINS OR SIMILAR POWER SUPPLY SYSTEMS; CONVERSION OF DC OR AC INPUT POWER INTO SURGE OUTPUT POWER; CONTROL OR REGULATION THEREOF
    • H02M7/00Conversion of ac power input into dc power output; Conversion of dc power input into ac power output
    • H02M7/02Conversion of ac power input into dc power output without possibility of reversal
    • H02M7/04Conversion of ac power input into dc power output without possibility of reversal by static converters
    • H02M7/06Conversion of ac power input into dc power output without possibility of reversal by static converters using discharge tubes without control electrode or semiconductor devices without control electrode
    • H02M7/066Conversion of ac power input into dc power output without possibility of reversal by static converters using discharge tubes without control electrode or semiconductor devices without control electrode particular circuits having a special characteristic

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  • the resistance will likewise increase, so that the total increaseof current is limited. Therefore, such variator resistance wires are employed to keep the current in the electrical apparatus constant.
  • the bulb in which said wires are mounted is properly called a resistance lamp or variator.
  • one or'more resistance wires may be provided between the current-supply points, with one or more branches.
  • the rectifying installation according to the invention comprises a multiphase rectifier and one or more high-tension coils in addition to the usual secondary transformer coil consisting of several parts, at least one .resistance lamp according to the invention being utilized for theresistances required.
  • FIG 1 of the accompanying drawings represents resistance lamps, which may be used in the installation, according to the invention, the diagram of connections of the latter being represented by Figure 2.
  • resistance wires are mounted within a glass bulb 1 which optionally may contain a gaseous filling, 2 is a cap provided with the usual contact pins 11.
  • the current is supplied by a pole wire 7 3 to the resistance wire 8 and after passing through the latter it is carried away by a pole wire 6.
  • a pole wire 4 which serves to supply current to the resistance wire 9, which is provided in the middle with a branch 7 After this branch begins that part of the resistance wire 9 which is indicated by 9 and whose pole wire is denoted by 5.
  • the wires 9 and 9 are so calculated that during the operation of the lamp currents of the same intensity flow through the said branches.
  • the four pole wires, 3, 5, 6 and 7 are electrically connected to the contact pins 11.
  • FIG. 2 represents diagrammatically a rectifier circuit arrangement according to the invention, which comprises a full-wave rectifier 27.
  • the primary coil 15 of a transformer is connected to a suitable source of alternating tension.
  • the installation can be utilized for halfwave or full wave rectification.
  • the transformer is provided with three secondary windings. Of these windings 19 and 23 are adapted to produce an equal voltage, while the third winding 25 has a larger number of turns and produces a higher secondary voltage than do the windings 19 and 23.
  • the windings 19 and 23 are used for full wave rectification, while the winding 25 is used for half wave rectification in circuits including variator resistances, which circuits will be more fully explained hereinafter.
  • the battery By connecting the negative terminal of the battery to be charged to the negative point of connection 16, the battery is charged by means of full-wave rectified current, namely in the following manner: starting from the positive terminal 18, the charging current flows through the battery via the point of connection 16. through the resistance 9, through the coil 19 and during one half wave of the alternating current from the anode 20 to the cathode 21. through a part of the heating current coil 22 and back to the positive terminal 18. During the other halfwave the current flows from the point 16 through the resistance 9', the coil 23, the
  • the negative battery terminal is connected to a point of connection 17, which is connected to a high tension coil 25. In that case the battery will be charged by one half-wave of the alternating current.
  • the charging current flowing in this case takes the following path: starting again from the positive terminal 18, through the battery to be charged, through the coil 25, through the resistance 8, through the coil 19 from the anode 20 to the cathode 21 and back to the positive terminal 18.
  • the three resistances denoted by 8, 9, and 9 are assembled in a single lamp.
  • the resistances 9 and 9 are traversed by currents of the same intensity and as such may consequently be used the resistances denoted in Figure 1 by 9 and 9.
  • the charging current flowing in'this case takes the following path: starting again from the positive terminal 13, through the battery to be charged, through the coil 3, through the resistance 14, through the coil 2, from the anode 8 to the cathode 10 and back to the positive terminal 13.
  • the three resistances denoted by 5, 6 and 14 are assembled in a single lamp.
  • the resistances 5 and 6 are traversed by currents of the same intensity and as such may consequently be used the resistances denoted in Figure 1 by 9 and 9.
  • a rectifying installation comprising a rectifier, a transformer containing a plurality of secondary windings each cooperating with the said rectifier, said windings being adapted to produce currents of different voltages, each winding being mounted in series with a variator resistance wire, said resistance wires being arranged in one bulb.
  • a rectifying installation comprising a rectifier, a transformer having more than one secondary winding, said windings being adapted to produce currents of different voltages and a plurality of variator resistance wires, arranged in one bulb, each wire being mounted in series with a secondary transformer winding at least two of said wires having different dimensions.
  • a rectifying installation comprising a rectifier, a transformer havin two secondary windings adapted to produce currents of equal voltages and another winding adapted to produce a current of higher voltage, each winding being mounted in series with a variator resistance wire, said wires being arranged together in one bulb.
  • a rectifying installation comprising a rectifier, a transformer having two secondary windings adapted to produce currents of equal voltage, each of said windings being mounted in series with a part of a variator resistance wire, the transformer having another secondary winding adapted to produce a current of voltage higher than that of the currents produced by the first mentioned secondary windings, said high-voltage secondary winding being mounted in series with a variator resistance wire having other dimensions than the first mentioned resistance wire and arranged in one bulb with same.
  • a rectifying installation comprising a rectifier; a transformer having two secondary windings adapted to produce currents of equal voltage; a variator resistance wire parts of which are mounted between said secondary windings, each of said windings being connected in series with the adjacent end of said resistance wire; another secondary winding on said transformer, said last-mentioned winding being adapted to produce a higher voltage than that produced by said first-mentioned secondary windings; a second variator resistance wire, to one end of which the said last-mentioned secondary winding is connected in series, the other end of the said second variator resistance wire being connected to a terminal of the first-mentioned resistance wire; a single bulb in which said resistance wires are mounted, and a plurality of contact plugs on said bulb by means of which contacts with the resistance wires may be obtained.
  • a thermionic rectifier In a rectifying installation adapted for both full wave and half wave rectification, a thermionic rectifier, a transformer having two secondary windings adapted to produce currents of equal voltages, and each being connected in series with a variator resistance, said secondary windings and their corresponding variator resistances being connected in series with each other, and across said rectifier, in such manner that the effective voltage of the rectified output is substantially equal to the E. M. F.
  • a thermionic rectifier in a rectifying installation adapted for both full waveand half wave rectification, a thermionic rectifier, a transformer having two secondary windings adapted to produce currents of equal voltages, and each being connected in series with a variator resistance, said secondary windings and their corresponding variator resistances being connected in series with each other, and across said rectifier, in such manner that the effective Voltage of the rectified output is substantially equal to the E. M. F.

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  • Engineering & Computer Science (AREA)
  • Power Engineering (AREA)
  • Rectifiers (AREA)

Description

April 5, 1932- J. G. w. MULDER 1,852,893
RECTIFYING INSTALLATION Filed March 16, 1928 Patented Apr. 5, 1932 UNITED STATES PATENT OFFICE J OI'IANN ES GYSBERTUS WILHELM MULDER, OF EINDHOVEN, NETHERLANDS, ASSIGNOIR TO N. V. PHILIPS GLOEILAMIENFABRIEKEN, OF EIND'HOVEN, NETHERLANDS, A
LIMITED LIABILITY COMPANY RECTIFYING INSTALLATION Application filed March 16, 1928, Serial No. 262,299, and in the Netherlands May 7, 1927.
vas they vary their resistance with the temperature. When the current passing through the Wire increases the temperature, the resistance will likewise increase, so that the total increaseof current is limited. Therefore, such variator resistance wires are employed to keep the current in the electrical apparatus constant.
The bulb in which said wires are mounted is properly called a resistance lamp or variator.
According to the invention, one or'more resistance wires may be provided between the current-supply points, with one or more branches.
The rectifying installation according to the invention comprises a multiphase rectifier and one or more high-tension coils in addition to the usual secondary transformer coil consisting of several parts, at least one .resistance lamp according to the invention being utilized for theresistances required.
Figure 1 of the accompanying drawings represents resistance lamps, which may be used in the installation, according to the invention, the diagram of connections of the latter being represented by Figure 2.
Referring to Figure 1, resistance wires are mounted within a glass bulb 1 which optionally may contain a gaseous filling, 2 is a cap provided with the usual contact pins 11. According to this mode of realization, there are two separate resistance wires 8 and 9 which are calculated for different current intensities. The current is supplied by a pole wire 7 3 to the resistance wire 8 and after passing through the latter it is carried away by a pole wire 6. To the wire 3 is secured a pole wire 4 which serves to supply current to the resistance wire 9, which is provided in the middle with a branch 7 After this branch begins that part of the resistance wire 9 which is indicated by 9 and whose pole wire is denoted by 5. The wires 9 and 9 are so calculated that during the operation of the lamp currents of the same intensity flow through the said branches.
The four pole wires, 3, 5, 6 and 7 are electrically connected to the contact pins 11. A central rod 10 secured to a stem 12, carries four sets of supporting hooks 13 and 14 to which the resistance wires are secured.
Figure 2 represents diagrammatically a rectifier circuit arrangement according to the invention, which comprises a full-wave rectifier 27. To operate this rectifier, the primary coil 15 of a transformer is connected to a suitable source of alternating tension. The installation can be utilized for halfwave or full wave rectification.
The transformer is provided with three secondary windings. Of these windings 19 and 23 are adapted to produce an equal voltage, while the third winding 25 has a larger number of turns and produces a higher secondary voltage than do the windings 19 and 23. The windings 19 and 23 are used for full wave rectification, while the winding 25 is used for half wave rectification in circuits including variator resistances, which circuits will be more fully explained hereinafter.
Thus it will be seen that for half Wave rectification the windings 25 and 19 are connected in series, thereby ensuring a higher voltage output than would be available with the winding 25 alone.
By connecting the negative terminal of the battery to be charged to the negative point of connection 16, the battery is charged by means of full-wave rectified current, namely in the following manner: starting from the positive terminal 18, the charging current flows through the battery via the point of connection 16. through the resistance 9, through the coil 19 and during one half wave of the alternating current from the anode 20 to the cathode 21. through a part of the heating current coil 22 and back to the positive terminal 18. During the other halfwave the current flows from the point 16 through the resistance 9', the coil 23, the
anode 24, the cathode 21 to the positive terminal 18. If a higher charging voltage has to be utilized, the negative battery terminal is connected to a point of connection 17, which is connected to a high tension coil 25. In that case the battery will be charged by one half-wave of the alternating current. The charging current flowing in this case, takes the following path: starting again from the positive terminal 18, through the battery to be charged, through the coil 25, through the resistance 8, through the coil 19 from the anode 20 to the cathode 21 and back to the positive terminal 18.
According to the invention, the three resistances denoted by 8, 9, and 9 are assembled in a single lamp. The resistances 9 and 9 are traversed by currents of the same intensity and as such may consequently be used the resistances denoted in Figure 1 by 9 and 9. In that case the battery will be charged by one half-wave of the alternating current. The charging current flowing in'this case, takes the following path: starting again from the positive terminal 13, through the battery to be charged, through the coil 3, through the resistance 14, through the coil 2, from the anode 8 to the cathode 10 and back to the positive terminal 13. Y
According to the invention, the three resistances denoted by 5, 6 and 14 are assembled in a single lamp. The resistances 5 and 6 are traversed by currents of the same intensity and as such may consequently be used the resistances denoted in Figure 1 by 9 and 9.
What I claim is:
1. A rectifying installation, comprising a rectifier, a transformer containing a plurality of secondary windings each cooperating with the said rectifier, said windings being adapted to produce currents of different voltages, each winding being mounted in series with a variator resistance wire, said resistance wires being arranged in one bulb.
2. A rectifying installation comprising a rectifier, a transformer having more than one secondary winding, said windings being adapted to produce currents of different voltages and a plurality of variator resistance wires, arranged in one bulb, each wire being mounted in series with a secondary transformer winding at least two of said wires having different dimensions.
3. A rectifying installation comprising a rectifier, a transformer havin two secondary windings adapted to produce currents of equal voltages and another winding adapted to produce a current of higher voltage, each winding being mounted in series with a variator resistance wire, said wires being arranged together in one bulb.
4. A rectifying installation comprising a rectifier, a transformer having two secondary windings adapted to produce currents of equal voltage, each of said windings being mounted in series with a part of a variator resistance wire, the transformer having another secondary winding adapted to produce a current of voltage higher than that of the currents produced by the first mentioned secondary windings, said high-voltage secondary winding being mounted in series with a variator resistance wire having other dimensions than the first mentioned resistance wire and arranged in one bulb with same.
5. A rectifying installation, comprising a rectifier; a transformer having two secondary windings adapted to produce currents of equal voltage; a variator resistance wire parts of which are mounted between said secondary windings, each of said windings being connected in series with the adjacent end of said resistance wire; another secondary winding on said transformer, said last-mentioned winding being adapted to produce a higher voltage than that produced by said first-mentioned secondary windings; a second variator resistance wire, to one end of which the said last-mentioned secondary winding is connected in series, the other end of the said second variator resistance wire being connected to a terminal of the first-mentioned resistance wire; a single bulb in which said resistance wires are mounted, and a plurality of contact plugs on said bulb by means of which contacts with the resistance wires may be obtained.
6. In a rectifying installation adapted for both full wave and half wave rectification, a thermionic rectifier, a transformer having two secondary windings adapted to produce currents of equal voltages, and each being connected in series with a variator resistance, said secondary windings and their corresponding variator resistances being connected in series with each other, and across said rectifier, in such manner that the effective voltage of the rectified output is substantially equal to the E. M. F. of either one of said windings, and being adapted for full wave rectification, a third secondary winding for said transformer, a third variator resistance of higher ohmic value than said firstmentioned variator resistances, said third winding and one of said first-mentioned windings being connected in series with said third variator resistance and across said rectifier, for half wave rectification, and a single bulb in which said variator resistances are disposed.
7. In a rectifying installation adapted for both full waveand half wave rectification, a thermionic rectifier, a transformer having two secondary windings adapted to produce currents of equal voltages, and each being connected in series with a variator resistance, said secondary windings and their corresponding variator resistances being connected in series with each other, and across said rectifier, in such manner that the effective Voltage of the rectified output is substantially equal to the E. M. F. of either one of said windings, and being adapted for full wave rectification, a third secondary winding for said transformer adapted to produce a current of higher Voltage than the first-mentioned secondary windings, a third variator resistance of higher ohmic value than said first-mentioned variator resistances, said third winding being connected in series with said third variator resistance and across said rectifier, for half wave rectification, and a single bulb in which said variator resistances are disposed.
In" testimony whereof I aifix my signature, at the city of Eindhoven, this 24th day of February, 1928.
JOHANNES GYSBERTUS WILHELM MULDER.
US262299A 1927-05-07 1928-03-16 Rectifying installation Expired - Lifetime US1852893A (en)

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Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2594801A (en) * 1950-02-24 1952-04-29 Albert R Rees Power supply for radio sets
US2611118A (en) * 1947-11-22 1952-09-16 Willard Storage Battery Co Trickle charger
US2974292A (en) * 1957-08-09 1961-03-07 Tung Sol Electric Inc Oscillator control circuit

Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2611118A (en) * 1947-11-22 1952-09-16 Willard Storage Battery Co Trickle charger
US2594801A (en) * 1950-02-24 1952-04-29 Albert R Rees Power supply for radio sets
US2974292A (en) * 1957-08-09 1961-03-07 Tung Sol Electric Inc Oscillator control circuit

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