Texas Instruments Corporation

A.t. Cross Company, LLC

Other

Robert O Southworth

Larry K Johnson

Eric P Reidemeister

Frank Mercurio

Paul E Linderson

Keith W Kawate

Raymond E Mandeville

Andrew A Amatruda

James L Tomlinson

William Silva

Michael D Gouin

James P McAndrews

Robert P Bishop

Stanley J Lukasiewicz

Douglas B Strott

Thomas H Peterson

John E Buckley

Douglas B Christensen

An interactive data transfer system and method is provided. In embodiments of the invention, the data transfer system includes a computing device, and a data well for interfacing with an elongate instrument, the elongate instrument having a data transfer end with a data transfer tip. The data well has a housing with an opening for receiving the data transfer tip of the elongate instrument. The data well also has a communications port operatively coupled to the computing device to provide data to the computing device, and the data well has a data communication device contained in the housing for interfacing with the data transfer tip when the data transfer end of the elongate instrument is received in the opening The computing device is programmed to receive data from the data well. The received data includes data indicative of at least one address on a global communications network. The computer device is also programmed, upon receipt of the at least one address, to launch an application to retrieve information related to the at least one address from the global communications network and transmit such information to the computing device.

Method and apparatus for storing reference codes in a writing instrument and for retrieving information identifed by the reference codes

A data well arrangement is for storing data and for interfacing with a writing implement having a writing end with a writing tip and data transfer end with a data transfer tip. The data well arrangement has a housing with an inlet opening for receiving an end of the implement. A data reader is in the housing for facing the data transfer tip to exchange data with the implement when the data transfer end of the implement is received in the opening. A shutter in the housing is engageable with an engagement portion of the implement for moving of shutter between a writing end storage position in which the data reader is inaccessible, and an interface position in which the data reader is accessible to the data transfer tip with the shutter being engaged by the engagement portion of the implement, only when the data transfer end is received in this opening.

Data/pen well

A data well arrangement for storing data and for interfacing with a writing implement having a writing end with a writing tip and data transfer end with a data transfer tip is described. The data well arrangement has a housing with an inlet opening for receiving an end of the implement. A data reader resides in the housing for facing the data transfer tip to exchange data with the implement when the data transfer end of the implement is received in the opening. A shutter in the housing is engageable with an engagement portion of the implement for moving of shutter between a writing end storage position in which the data reader is inaccessible, and an interface position in which the data reader is accessible to the data transfer tip with the shutter being engaged by the engagement portion of the implement, only when the data transfer end is received in this opening.

An acceleration sensor is shown having a substrate (16, 16', 16', 16'') on which a capacitor detect plate (24) and source plate mounting portion (28c) are disposed. An electrically conductive blade member (40, 44) having an attachment portion (40a, 44h), a source plate portion (40i, 44a) and integrally attached beams (40b, 40c; 44b) extending along opposite sides of the blade member is mounted on the substrate by welding the attachment portion to a mounting element (36, 36', 36', 36'') which is closely received in a bore (32, 32', 32', 32'') formed through the substrate at the source plate mounting portion. The mounting element or the bore is formed with a surface suitable for forming an interference fit and for making electrical engagement with a conductive layer received in the bore. The mounting element has one end (36b, 36b', 36b') which extends above the top surface (26, 26') an adjustable selected amount(s) to provide desired spacing between the source plate portion and the detect plate. A single mounting element of a pair of mounting elements can be used and may be in the form of a solid (36, 36', 36'') or a hollow (36') pin.

Method of making an acceleration sensor

Acceleration sensor apparatus and method for making same

An acceleration sensor (10, 10', 10') in which a metal blade member (24) having a source plate portion (24a), attachment portion (24p) and integral resilient beams (24b) extending between the source plate portion and the attachment portion is attached to a pin (22) received in turn in a bore (18a) of a substrate (18). The metal blade member (24) is mounted on the substrate (18) so that the source plate portion is a selected distance from a detect plate (18b) mounted on the substrate. The sensor is disposed in a cylindrical housing (12, 12', 12') which can be directly mounted to a circuit board (50) through terminal pins (18g, 18h, 18i) or can be provided with a threaded fastener (12'd). In one embodiment first and second sensor modules are received in a housing (42) to sense acceleration forces in two perpendicular directions. In another embodiment tab (30b) extending from a signal conditioning circuit (30) is placed between a connector body (20') and the sidewall (12b) of housing (12) with a detent (12c) formed in the sidewall (12b) to effect an electrical connection between circuit (30) and housing (12'). An O-ring gasket (13) is placed between the sidewall (12b) and the connector body (20') outboard of the detent to provide an environmental seal.

Compact capacitive acceleration sensor

A monolithic capacitive differential pressure transducer (10, 44,) is shown composed of ceramic material having first and second cavities formed adjacent to opposed face surfaces to form first and second flexible diaphragms (12, 14; 50, 52) and a motion transfer pin (24, 58) attached to and extending between the diaphragms. Capacitor plates are disposed on a surface of at least one flexible diaphragm and a stationary member to form a capacitive gap. Component parts are first pressed from ceramic powder and assembled into a unit using one of several methods including relatively high pressure to press them together or using a combination of low pressure along with raising the temperature of the material to soften the binder in the ceramic material at surfaces of the parts which are to be joined together. Selected gaps, both along the x-y direction and along the z direction may be obtained, particularly in assembling the parts using high pressure using consumable spacer material which is sublimated in a debinderization cycle prior to sintering of the unit to form a monolithic body.

Pressure transducer apparatus

An accelerometer unit has a capacitor detect plate and a source place connector preferably defined respectively inside and outside a groove in one surface of a ceramic substrate. A flat metal member has an attachment portion secured in electrically conductive relation to the connector, has a source plate portion spaced over the detect plate to form a capacitor, and has integral resilient beams extending from the attachment portion to support the source plate portion spaced from the detect plate to be movable relative to the detect plate in response to acceleration force to provide an electrical signal. Preferably glass rods between the attachment member portion and source place connector facilitate the spacing. An electrically insulating housing base has integral pins extending through openings in the accelerometer unit substrate and in a separate electrical circuit unit to mount the circuit unit in spaced, overlying relation to the accelerometer unit, and an electrically conductive adhesive extends through guide holes in a gasket between the accelerometer and circuit units to electrically connect the circuit to the detect plate and to the connector on the ceramic substrate.

Accelerometer

A pressure responsive variable capacitive transducer is shown in which a flat flexible diaphragm having a capacitor plate disposed thereon is mounted overlying a recess in a substrate having a capacitor plate disposed on the surface of the recess so that the plates are spaced apart a selected distance determined by the depth of the recess. In one embodiment a glass seal is located between the diaphragm and the substrate inwardly of the outer perimeter of the disphragm while in a second embodiment a glass seal is located outwardly from the outer perimeter of the diaphragm. The substrate is formed with bores adapted to receive electrical connection pins. Electrically conductive traces extend from electrically conductive layers to wells formed in the substrate contiguous with the bores to provide a gradual transition for the traces and an electrically conductive epoxy is infilled to electrically connect the pins to the traces.

A pressure responsive variable capacitive transducer is shown in which a flat flexible diaphragm having a capacitor plate disposed thereon is mounted overlying a recess in a substrate having a capacitor plate disposed on the surface of the recess so that the plates are spaced apart a selected distance determined by the depth of the recess. In one embodiment a glass seal is located between the diaphragm and the substrate inwardly of the outer perimeter of the diaphragm while in a second embodiment a glass seal is located outwardly from the outer perimeter of the diaphragm. The substrate is formed with bores adapted to receive electrical connection pins. Electrically conductive traces extend from electrically conductive layers to wells formed in the substrate contiguous with the bores to provide a gradual transition for the traces and an electrically conductive epoxy is infilled to electrically connect the pins to the traces.

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Pawtucket, RI, United States of America

Robert O Southworth