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公开(公告)号:US20240146306A1
公开(公告)日:2024-05-02
申请号:US18296649
申请日:2023-04-06
Applicant: TEXAS INSTRUMENTS INCORPORATED
Inventor: Athanasios RAMKAJ , Michael H. PERROTT , Baher S. HAROUN , Boris MURMANN
IPC: H03K19/0185 , H03K3/356
CPC classification number: H03K19/018521 , H03K3/356113
Abstract: An apparatus includes: buffer circuitry having a buffer input and a buffer output; a transistor coupled between the buffer output and a current terminal, the transistor having a control terminal; and level shifter circuitry having a level shifter input and a level shifter output, the level shifter input coupled to the buffer input, and the level shifter output coupled to the control terminal.
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公开(公告)号:US20230063409A1
公开(公告)日:2023-03-02
申请号:US17463406
申请日:2021-08-31
Applicant: Texas Instruments Incorporated
Inventor: Michael Henderson PERROTT , Ting-Ta YEN , Bichoy BAHR , Baher S. HAROUN
Abstract: A temperature compensated oscillator circuit includes a first oscillator, a second oscillator, a first divider, a second divider, a frequency ratio circuit, and a temperature compensation circuit. The first divider is coupled to the first oscillator, and is configured to divide a frequency of a first oscillator signal generated by the first oscillator. The second divider is coupled to the second oscillator, and is configured to divide a frequency of a second oscillator signal generated by the second oscillator. The frequency ratio circuit is coupled to the first divider and the second divider, and is configured to determine a frequency ratio of an output of the first divider to an output of the second divider. The temperature compensation circuit is coupled to the frequency ratio circuit and the first oscillator, and is configured to generate a compensated frequency based on the frequency ratio and the first oscillator signal.
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公开(公告)号:US20200182950A1
公开(公告)日:2020-06-11
申请号:US16657281
申请日:2019-10-18
Applicant: TEXAS INSTRUMENTS INCORPORATED
Inventor: Baher S. HAROUN , Arup POLLEY , Srinath M. RAMASWAMY
Abstract: An amplifier includes a graphene Hall sensor (GHS). The GHS includes a graphene layer formed above a substrate, a dielectric structure formed above a channel portion of the graphene layer, and a conductive gate structure formed above at least a portion of the dielectric structure above the channel portion of the graphene layer for applying a gate voltage. The GHS also includes first and second conductive excitation contact structures coupled with corresponding first and second excitation portions of the graphene layer for applying at least one of the following to the channel portion of the graphene layer: a bias voltage; and a bias current. The GHS further includes first and second conductive sense contact structures coupled with corresponding first and second sense portions of the graphene layer. The amplifier also includes a current sense amplifier (CSA) coupled to the GHS. The CSA senses current output from the GHS.
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14.
公开(公告)号:US20140368376A1
公开(公告)日:2014-12-18
申请号:US13916273
申请日:2013-06-12
Applicant: TEXAS INSTRUMENTS INCORPORATED
Inventor: Phillip Michel NADEAU , Baher S. HAROUN , Srinath M. RAMASWAMY
IPC: G01S7/40
Abstract: A technique for removing the background from a transmission spectrum including determining performance characteristics of a detector, measuring a transmission spectrum that includes an absorption line, determining performance characteristics of a gas cell, and removing a background spectrum from the transmission spectrum by combining the transmission spectrum with the performance characteristics of the detector and the performance characteristics of the gas cell.
Abstract translation: 一种用于从传输频谱中去除背景的技术,包括确定检测器的性能特征,测量包括吸收线的透射光谱,确定气体单元的性能特征,以及通过组合透射光谱来从透射光谱中去除背景光谱 具有检测器的性能特征和气室的性能特征。
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公开(公告)号:US20240113063A1
公开(公告)日:2024-04-04
申请号:US17957446
申请日:2022-09-30
Applicant: TEXAS INSTRUMENTS INCORPORATED
Inventor: Udit RAWAT , Bichoy BAHR , Swaminathan SANKARAN , Baher S. HAROUN
CPC classification number: H01L24/24 , A61B8/4494 , H01L24/05 , H01L24/73 , H01L2224/05005 , H01L2224/2401 , H01L2224/73251
Abstract: In examples, a semiconductor die comprises a semiconductor substrate having a surface, the surface having first and second surface portions, and a radiator layer on the surface. The radiator layer comprises a metal member having a first metal member portion above the first surface portion and a second metal member portion above the second surface portion, a first distance between the first metal member portion and the first surface portion, and a second distance between the second metal member portion and the second surface portion, the first distance less than the second distance. The radiator layer includes first and second electrodes. The radiator layer includes a piezoelectric layer extending along a length of the radiator layer and on each of the first and second electrodes, the piezoelectric layer between the first and second metal members and the semiconductor substrate.
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16.
公开(公告)号:US20240006734A1
公开(公告)日:2024-01-04
申请号:US17854535
申请日:2022-06-30
Applicant: TEXAS INSTRUMENTS INCORPORATED
Inventor: Juan HERBSOMMER , Baher S. HAROUN
CPC classification number: H01P3/122 , H01P11/002 , G01R15/00
Abstract: A quantum-based sensor includes a hollow electromagnetic (EM) waveguide having non-metallic layers and external metallic layers. The hollow EM waveguide encloses a gas having a pressure that is less than a threshold pressure, and all interior surfaces of the hollow EM waveguide in contact with the gas are non-metallic.
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公开(公告)号:US20220397649A1
公开(公告)日:2022-12-15
申请号:US17872383
申请日:2022-07-25
Applicant: TEXAS INSTRUMENTS INCORPORATED
Inventor: Baher S. HAROUN , Nirmal C. WARKE , David P. MAGEE
IPC: G01S7/4861 , G01S7/4865 , G01S17/26
Abstract: An optical distance measurement system includes a transmission circuit and a receive circuit. The transmission circuit is configured to generate narrowband intensity modulated light transmission signals over a first band of frequencies and direct the narrowband light transmission signal toward a target object. The receive circuit is configured to receive reflected light off the target object, convert the reflected light into a current signal proportional to the intensity of the reflected light, filter frequencies outside a second band of frequencies from the current signal to create a filtered current signal, and convert the filtered current signal into a voltage signal. The second band of frequencies corresponds with the first band of frequencies.
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公开(公告)号:US20220221353A1
公开(公告)日:2022-07-14
申请号:US17538782
申请日:2021-11-30
Applicant: TEXAS INSTRUMENTS INCORPORATED
Inventor: Tobias Bernhard FRITZ , Baher S. HAROUN , Benjamin Stassen COOK , Sreenivasan Kalyani KODURI , Michael SZELONG , Ernst MUELLNER
IPC: G01L1/18 , H01L23/31 , H01L23/495
Abstract: A force sensor including a semiconductor die, and a die pad coupled to the semiconductor die, the semiconductor die configured to detect a force in the die pad. In addition, the force sensor includes a mold compound covering the semiconductor die and having an outer perimeter, a first side, and a second side opposite the first side, the outer perimeter extending between the first side and the second side, the die pad exposed out of the mold compound along the first side. Further, the force sensor includes a mounting frame engaged with the die pad along the second side of the mold compound, the mounting frame including multiple mounting pads extended outward in multiple directions from the outer perimeter.
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公开(公告)号:US20190018138A1
公开(公告)日:2019-01-17
申请号:US15649493
申请日:2017-07-13
Applicant: TEXAS INSTRUMENTS INCORPORATED
Inventor: Nirmal C. WARKE , David P. MAGEE , Baher S. HAROUN
IPC: G01S17/10
Abstract: An optical time of flight system includes a transmitter and a receiver. The transmitter is configured to generate a modulation signal having a modulation signal frequency that varies as a function of time, generate an optical waveform with amplitude modulation corresponding to the modulation signal, and direct the optical waveform toward a field of view (FOV). The receiver is configured to receive the optical waveform reflected off of an object within the FOV and determine a distance to the object based on a time of flight from the transmitter to the object and back to the receiver.
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