Dr. Gupta graduated from the P T B D S Postgrad Inst of Med Sci, M Dayanand Univ, Rohtak, Haryana, India in 1985. He works in Middletown, OH and specializes in Clinical Cardiac Electrophysiology. Dr. Gupta is affiliated with Atrium Medical Center, Christ Hospital, The Jewish Hospital and West Chester Hospital.
Dr. Gupta graduated from the Univ of Ibadan, Coll of Med, Ibadan, Oyo, Nigeria in 1986. He works in Indianapolis, IN and 2 other locations and specializes in Pediatric Gastroenterology. Dr. Gupta is affiliated with Deaconess Hospital, IU Health North Hospital and Riley Hospital For Children At Indiana University Health.
Dr. Gupta graduated from the Gov't Med Coll, Nagpur Univ, Nagpur, Maharashtra, India in 1989. He works in Minneapolis, MN and 1 other location and specializes in Nephrology. Dr. Gupta is affiliated with Allina Health Unity Hospital, North Memorial Medical Center and University Of Minnesota Medical Center East Bank.
Dr. Gupta graduated from the Maulana Azad Med Coll, Delhi Univ, New Delhi, Delhi, India in 1987. He works in Stony Brook, NY and 1 other location and specializes in Thoracic Surgery and Congenital Cardiac Surgery (Thoracic Surgery). Dr. Gupta is affiliated with Peconic Bay Medical Center, Southampton Hospital and Stony Brook University Hospital.
Dr. Gupta graduated from the Maulana Azad Med Coll, Delhi Univ, New Delhi, Delhi, India in 1987. He works in Houston, TX and 1 other location and specializes in Pulmonary Disease and Pulmonary Critical Care Medicine. Dr. Gupta is affiliated with Memorial Hermann Southeast Hospital.
Dr. Gupta graduated from the Sawai Man Singh Med Coll, Rajasthan Univ, Jaipur, Rajasthan, India in 1989. He works in Bronx, NY and 2 other locations and specializes in Rheumatology and Internal Medicine. Dr. Gupta is affiliated with Montefiore Medical Center, Saint Francis Hospital The Heart Center and South Nassau Communities Hospital.
Dr. Gupta graduated from the University of Southern California Keck School of Medicine in 1998. He works in Plano, TX and 1 other location and specializes in Allergy & Immunology. Dr. Gupta is affiliated with Baylor Regional Medical Center At Plano and Texas Health Presbyterian Hospital Dallas.
Wikipedia References
Sandeep Gupta
Name / Title
Company / Classification
Phones & Addresses
Sandeep Gupta Managing
Slg Group, LLC Real Estate Investments/Management · Business Services at Non-Commercial Site · Nonclassifiable Establishments
37839 Bishop Ct, Fremont, CA 94536
Sandeep Gupta Co-founder/vice President Analog Engineer
TERANETICS, INC Manufactures Semiconductors or Related Devices · Mfg Semiconductors/Related Devices · Mfg Process Control Instruments · Nonclassifiable Establishments
1320 Ridder Park Dr, San Jose, CA 95131 870 W Maude Ave, Sunnyvale, CA 94085 2665 N 1 St, San Jose, CA 95134 3965 Freedom Cir, Santa Clara, CA 95054 4086532200
Sandeep Gupta
KRISH ARJUN LLC
Sandeep Kumar Gupta
Sandeep Gupta MD Surgeons · Emergency Medicine · Family Doctor
39500 Fremont Blvd, Fremont, CA 94538 5106879510
Sandeep Gupta
SANDEEP GUPTA MD LLC
Sandeep Gupta
TOLEDO AREA PSYCHIATRIC EMERGENCY SERVICES LLC
Sandeep K. Gupta
Sandeep Gupta MD Psychiatrist · Internist
501 W 14 St, Wilmington, DE 19801 3024282100
Sandeep Gupta Information Technology Manager
Endo Health Solutions Inc Pharmaceutical Preparations
1400 Atwater Dr, Frazer, PA 19355 100 Endo Blvd, Chadds Ford, PA 19317 6105589800
A circuit for conditioning an input control voltage signal that is used to drive an LC tank oscillator in a phase locked loop (PLL). The conditioning circuit includes a two-stage amplifier including a first stage amplifier connected to a second stage comprising an active cascode circuit, a diode-connected transistor and a resistor tied to a reference voltage (e. g. ground). The first stage amplifier receives a control voltage input signal, which would typically be produced at the output of a loop filter in a PLL, and produces a conditioned control voltage output signal at its output, which is connected to the drain of the diode-connected transistor. The purpose of the amplifier is to lower the impedance of the conditioned output signal, which is then used to drive the LC tank oscillator, wherein the series resistor acts both to lower the impedance and to act as the degenerating resistor for the diode-connected transistor. In addition, a clamping circuit comprising a second active cascode structure is provided to clamp the conditioned control voltage output signal such that it is prevented from falling below a predetermined value.
A cross coupled output stage for a transmitter. It is desirable to have high impedance for a differential cascode output stage of an externally terminated transmitter in order to improve return loss. However, at high frequencies, parasitic capacitances cause shunts at the output nodes due to drain to bulk capacitances and negative feedback loops due to gate-to-drain capacitance. In order to counteract this, cross coupled capacitors are connected to the circuit to cause a positive feedback loop. This counteracts the reduction in impedance causing the impedance to remain high over all frequencies and to improve the return loss.
Apparatus And Method For Obtaining Stable Delays For Clock Signals
A circuit and method for obtaining a stable delay for a clock signal comprises a current source to generate a constant current having a first value; first and second current over capacitance (I/C) stages coupled to the current source and between a supply voltage and ground; and a capacitor, having a second value and coupled to a node formed by an output of the first I/C stage and an input of the second I/C stage. Application of a clock signal to an input of the first I/C stage produces an output at a logic gate coupled to an output of the second I/C stage. The output has a stable delay based on the first and second values. Additionally, the first and second values (i. e. , the value of the current or capacitance) can be changed to achieve a desired amount of the delay applied to the input clock signal.
Mosfet Well Biasing Scheme That Migrates Body Effect
A biasing scheme for a MOSFET that mitigates the MOSFET body effect. The biasing scheme can be realized replicating the voltage at the source terminal of a MOSFET and applying this replicated voltage to the body terminal. In this manner, the effect of the body transconductance, at high frequencies, becomes a function of the ratio of the well-to-substrate capacitance of the MOSFET to the sum of the well-to-substrate capacitance and the source-to-body capacitance of the transistor. At high frequencies, the biasing scheme mitigates the reduction in gain of a source follower caused by the body effect of a driven MOSFET within the source follower, improves the stability of a feedback network established by a gain boosting amplifier and the driven MOSFET by contributing a negative half plane zero to the transfer function of the feedback network, and reduces the power consumed by the gain boosting amplifier.
Replica Network For Linearizing Switched Capacitor Circuits
The present invention relates to a replica network for linearizing switched capacitor circuits. A bridge circuit with a MOSFET resistor disposed in a resistor branch of the bridge circuit is provided. A noninverting terminal of an operational amplifier is connected to a first node of the bridge circuit and an inverting terminal of the operational amplifier is connected to a second node of the bridge circuit. The second node is separated from the first node by another node of the bridge circuit. An output of the operational amplifier is provided to a gate terminal of the MOSFET resistor and to the gate terminal of the MOSFET switch in a switched capacitor circuit, thereby controlling the resistance of the MOSFET switch so that it is independent of the signal voltage. In this manner, the replica network of the present invention linearizes the switched capacitor circuit. In this manner, the replica network of the present invention linearizes the switched capacitor circuit.
A method and apparatus enables echo reduction in a full duplex transceiver system. A replica current is subtracted from a receiver via a first differential circuit path that adaptively matches a time constant associated with a second differential circuit path that connects the receiver with an external data line.
A switched capacitor circuit having an integrator, a switch, a capacitor, a field effect transistor, and a network. The switch is connected to the integrator. The capacitor is connected to the switch. The field effect transistor is connected to the capacitor. The network is connected to a gate terminal of the field effect transistor. The network is configured to control a resistance of the field effect transistor in response to variations in an input signal voltage received at the field effect transistor.
Mosfet Well Biasing Scheme That Mitigates Body Effect
A biasing scheme for a MOSFET that mitigates the MOSFET body effect. The biasing scheme can be realized replicating the voltage at the source terminal of a MOSFET and applying this replicated voltage to the body terminal. In this manner, the effect of the body transconductance, at high frequencies, becomes a function of the ratio of the well-to-substrate capacitance of the MOSFET to the sum of the well-to-substrate capacitance and the source-to-body capacitance of the transistor. At high frequencies, the biasing scheme mitigates the reduction in gain of a source follower caused by the body effect of a driven MOSFET within the source follower, improves the stability of a feedback network established by a gain boosting amplifier and the driven MOSFET by contributing a negative half plane zero to the transfer function of the feedback network, and reduces the power consumed by the gain boosting amplifier.
Alexa on the Fire TV Cube cant do everything it can on a normal Echo speaker: in a briefing in New York City this week, Sandeep Gupta, Amazons vice president of smart TV and home products, specifically mentioned that it doesnt have any functionality in the way of communications. That means no tex
Walter Knott Elementary School Buena Park CA 1983-1985, W.R. Nelson Elementary School Tustin CA 1985-1989, Greentree Elementary School Irvine CA 1988-1989, Deerfield Elementary School Irvine CA 1989-1990, Venado Middle School Irvine CA 1990-1992