Abstract: The present description concerns an antenna (200) comprising: an amplifier array (201) comprising a plurality of first elementary cells (203); a transmitarray (105) comprising a plurality of second elementary cells (107); and at least one source (101), wherein said at least one source (101) is configured to irradiate, or to be irradiated by, the transmitarray (105), and the amplifier array (201) is configured to irradiate and to be irradiated by the transmitarray (105).

Abstract: The present description concerns an antenna (100) comprising an amplifier array (101) comprising a plurality of first elementary cells (103); and a transmitarray (105) comprising a plurality of second elementary cells (107), wherein the amplifier array (101) is configured to irradiate, or to be irradiated by, the transmitarray (105), the amplifier array (101) being separated from the transmitarray (105) by a distance equal, to within 20%, to a central transmission and/or reception wavelength of the antenna (100).

Abstract: A generator of a frequency modulated radar signal includes a generator of a periodic signal frequency modulated over a part Tramp of a period T, corresponding to a square signal of which the frequency varies linearly in a first frequency band Bin of central frequency fin; an oscillator generating a sinusoidal signal of frequency fc>fin and included in a second frequency band Bamp>Bin and corresponding to the linear variation of the frequency of the radar signal; and means coupled to an electrical supply input of the oscillator such that they generate a voltage for supplying the oscillator at the frequency of the frequency modulated periodic signal.

Abstract: The present description concerns a transmitarray cell (105) adapted to implementing a full-duplex communication, the cell comprising: a first antenna element (105a) located on a first surface of the cell; a second antenna element (105b) located on a second surface of the cell, opposite to the first surface; a transmit channel comprising, between the first and second antenna elements, a first phase-shift and amplifier circuit (203a); and a receive channel comprising, between the first and second antenna elements, a second phase-shift and amplifier circuit (203b).

Abstract: A transmit-array collimating assembly, this collimating assembly being able to convert a first electromagnetic wave radiated from a first focal point and in a first frequency band, into a plane electromagnetic wave of same frequency radiated in a preset first direction, and to convert a second electromagnetic wave radiated from a second focal point and in a second frequency band, into a plane electromagnetic wave of same frequency radiated in the same preset first direction, first and second primary radiating elements solely connected to first and second output ports of a transmitting module, respectively. The first and second primary radiating elements are positioned so as to radiate the first and second electromagnetic waves from the first and second focal points, respectively.

Abstract: A phase and/or amplitude modulation device includes a TORP signal generator and, during a phase modulation or a phase and amplitude modulation, a generator of a phase-modulated periodic signal of frequency FPRP applied to a control input of the power supply circuit of the TORP signal generator. The device may also include, during an amplitude modulation or a phase and amplitude modulation, 2P TORP generators, a thermometric code generator on 2P bits coding an amplitude modulation, a TORP generator control circuit, applying or not, to the control input of the TORP generator power supply, the periodic signal of frequency FPRP depending on the bits of the thermometric code signal, and a processing circuit coupled to the outputs of the TORP generators, and configured to produce a linear combination of signals outputted by the TORP generators.

Abstract: A structure including a first wafer, including first active components configured so as to introduce a phase shift; a first metal layer, formed on a first surface of the first wafer; a first interconnect structure, formed on a second surface of the first wafer, including first bias lines; a set of first planar antennas, formed on the first interconnect structure; a second wafer; a second metal layer, formed on a first surface of the second wafer; a set of second planar antennas, formed on a second surface of the second wafer; the first and second wafers being joined by way of the first and second metal layers such that the first and second planar antennas are aligned, the first and second metal layers forming a ground plane.

Abstract: A generator of a frequency modulated radar signal, comprising: a generator of a periodic signal frequency modulated over a part Tramp of a period T, corresponding to a square signal of which the frequency varies linearly in a first frequency band Bin of central frequency fin; an oscillator generating a sinusoidal signal of frequency fc>fin and comprised in a second frequency band Bamp>Bin and corresponding to the linear variation of the frequency of the radar signal; means coupled to an electrical supply input of the oscillator such that they generate a voltage for supplying the oscillator at the frequency of the frequency modulated periodic signal.

Abstract: A structure including a first wafer, including first active components configured so as to introduce a phase shift; a first metal layer, formed on a first surface of the first wafer; a first interconnect structure, formed on a second surface of the first wafer, including first bias lines; a set of first planar antennas, formed on the first interconnect structure; a second wafer; a second metal layer, formed on a first surface of the second wafer; a set of second planar antennas, formed on a second surface of the second wafer; the first and second wafers being joined by way of the first and second metal layers such that the first and second planar antennas are aligned, the first and second metal layers forming a ground plane.

Abstract: A transmit-array collimating assembly, this collimating assembly being able to convert a first electromagnetic wave radiated from a first focal point and in a first frequency band, into a plane electromagnetic wave of same frequency radiated in a preset first direction, and to convert a second electromagnetic wave radiated from a second focal point and in a second frequency band, into a plane electromagnetic wave of same frequency radiated in the same preset first direction, first and second primary radiating elements solely connected to first and second output ports of a transmitting module, respectively. The first and second primary radiating elements are positioned so as to radiate the first and second electromagnetic waves from the first and second focal points, respectively.

Abstract: Phase and/or amplitude modulation device, comprising a TORP signal generator, and further including, during a phase modulation or a phase and amplitude modulation, a generator of a phase-modulated periodic signal of frequency FPRP applied to a control input of the power supply circuit of the TORP generator, and/or including, during an amplitude modulation or a phase and amplitude modulation: 2P TORP generators, a thermometric code generator on 2P bits coding an amplitude modulation, a TORP generator control circuit, applying or not, to the control input of the TORP generator power supply, the periodic signal of frequency FPRP depending on the bits of the thermometric code signal, and a processing circuit coupled to the outputs of the TORP generators, and configured to produce a linear combination of signals outputted by the TORP generators.

Abstract: A carrier recovery system for a receiver of a phase-modulated signal N-PSK, the system including a first pre-conditioning circuit of the signal received (S(t)), with the pre-conditioned signal (SP(t)) having a component, non-modulated in phase, at the frequency Nƒc where ƒc is the carrier used for the modulation N-PSK, and a carrier regeneration circuit to regenerate two sinusoidal signals in quadrature at the frequency ƒc, with these signals being phase locked with respect to said non-modulated component in phase of the pre-conditioned signal.

Abstract: Device for adjusting the locking of an injection locked frequency multiplier, including: a first input receiving a first signal of frequency f1, and a second input receiving a second signal of frequency f2 outputted by the frequency multiplier; a sub-sampler of the second signal; a control circuit configured for: receiving a third signal corresponding to the second signal sub-sampled by the first signal or by another multiple signal of frequency of f1, then carrying out a high-pass or band-pass filtering of the third signal; determining that the frequency multiplier is locked on a multiple of f1 when the signal obtained after filtering is substantially zero, then outputting a signal the value of which is representative of the locking or not of the frequency multiplier.

Abstract: Device for adjusting the locking of an injection locked frequency multiplier, including: a first input receiving a first signal of frequency f1, and a second input receiving a second signal of frequency f2 outputted by the frequency multiplier; a sub-sampler of the second signal; a control circuit configured for: receiving a third signal corresponding to the second signal sub-sampled by the first signal or by another multiple signal of frequency of f1, then carrying out a high-pass or band-pass filtering of the third signal; determining that the frequency multiplier is locked on a multiple of f1 when the signal obtained after filtering is substantially zero, then outputting a signal the value of which is representative of the locking or not of the frequency multiplier.

Abstract: A carrier recovery system for a receiver of a phase-modulated signal N-PSK, the system including a first pre-conditioning circuit of the signal received (S(t)), with the pre-conditioned signal (SP(t)) having a component, non-modulated in phase, at the frequency Nƒc where ƒc is the carrier used for the modulation N-PSK, and a carrier regeneration circuit to regenerate two sinusoidal signals in quadrature at the frequency ƒc, with these signals being phase locked with respect to said non-modulated component in phase of the pre-conditioned signal.

Abstract: A voltage-controlled oscillator, including a voltage-controlled LC resonator including at least one first output node; an amplifier including at least one first dual-gate MOS transistor including first and second gates, coupling the first output node to a second node of application of a reference potential; and a regulation circuit capable of applying to the second gate of the first transistor a bias voltage variable according to the amplitude of the oscillations of a signal delivered on the first output node of the oscillator.

Abstract: A clock receiver including: a ring oscillator adapted to generate a clock signal, the ring oscillator having a sequence of N inverters, an input of a first inverter being coupled to a feedback node, an input of a second inverter being connected to an output of the first inverter and to an input line for receiving a reference clock signal, and an output of the second inverter or of a third inverter providing a first phase signal; a further sequence of inverters, an input of a first further inverter being coupled to the feedback node, and an output of another further inverter providing a second phase signal; and a control circuit for adjusting an oscillation frequency of the ring oscillator based on the relative phases of the first and second phase signals.

Abstract: Electronic device comprising an interconnection structure comprising an alternating stack of arrays of conducting lines and dielectric layers in which: all the lines of a same array extend in a same plane and form an equipotential; a first pattern of a first array is such that the lines of the first array intersect at several intersections; a third pattern of a third array is similar, superimposed and aligned with the first pattern; a second pattern of a second array arranged between the first and third arrays is such that the lines of the second array intersect at several intersections offset with respect to those of the first and third patterns; a first conducting via extends from a line of the first and/or third array and is not in contact with the second array.

Abstract: Device for emitting-receiving signals in two symmetrical frequency bands in relation to a first frequency FCA and such that each one of the bands comprises symmetrical channels in relation to second frequencies FCLA, FCUA, comprising: a first circuitry generating a signal of frequency FA, a signal of frequency FB=FA/N1, a signal of frequency F1=|FCA?FCLA| and a periodic signal of frequency F2 equal to the difference between a central frequency of one of the channels and the associated second frequency, and wherein FA=N1·(FCLA+F1)/(N1+1); a second circuitry able to carry out non-linear operations between the signals of frequencies FA and F1 and those of frequencies FB and F2, generating multitone signals comprising the frequencies FA?F1, FA+F1, FB?F2 and FB+F2.

Abstract: A voltage-controlled oscillator, including a voltage-controlled LC resonator including at least one first output node; an amplifier including at least one first dual-gate MOS transistor including first and second gates, coupling the first output node to a second node of application of a reference potential; and a regulation circuit capable of applying to the second gate of the first transistor a bias voltage variable according to the amplitude of the oscillations of a signal delivered on the first output node of the oscillator.