mhurhangee/ep-ind-claims huggingface dataset:
A display substrate, comprising: a first line; a second line; a thin-film transistor electrically connected between the first line and the second line, having a floating gate structure, a source electrode directly electrically connected to the first line, and a drain electrode directly electrically connected to the second line; and a first point-discharge structure electrically connected to the floating gate structure of the TFT and to the source electrode, respectively. a first line; a second line; a thin-film transistor electrically connected between the first line and the second line, having a floating gate structure, a source electrode directly electrically connected to the first line, and a drain electrode directly electrically connected to the second line; and a first point-discharge structure electrically connected to the floating gate structure of the TFT and to the source electrode, respectively.
An electron beam vapor deposition process for depositing coatings comprising: placing a source coating material in a crucible of a vapor deposition apparatus; energizing said source coating material with an electron beam raster pattern that delivers a controlled power density to said source coating material in the crucible forming a melt pool and a vapor cloud from said source coating material; depositing said source coating material onto a surface of a work piece; and characterised by columnating said vapor cloud to reduce a volume of said vapor cloud, wherein said forming a vapor cloud step further comprises directing a process gas through a predetermined pattern of gas jets surrounding the vapor cloud and oriented in the direction of the work piece to form a columnar shape; and a gas manifold configured to supply said gas jets with said process gas is formed distally from said crucible and said beam pattern to avoid interaction of the beam pattern with the process gas and to avoid coating of the manifold by inadvertent overflow of the melt pool. placing a source coating material in a crucible of a vapor deposition apparatus; energizing said source coating material with an electron beam raster pattern that delivers a controlled power density to said source coating material in the crucible forming a melt pool and a vapor cloud from said source coating material; depositing said source coating material onto a surface of a work piece; and characterised by columnating said vapor cloud to reduce a volume of said vapor cloud, wherein said forming a vapor cloud step further comprises directing a process gas through a predetermined pattern of gas jets surrounding the vapor cloud and oriented in the direction of the work piece to form a columnar shape; and a gas manifold configured to supply said gas jets with said process gas is formed distally from said crucible and said beam pattern to avoid interaction of the beam pattern with the process gas and to avoid coating of the manifold by inadvertent overflow of the melt pool.
A telemetry method for transmitting data from a downhole location to a surface location, the method comprising: (a) detecting a downhole event that requires change to a transmitted data stream; (b) causing a downhole processor to process (212, 322) the downhole event detected in (a) in combination with a predefined event database and downhole measurement data using a frame building algorithm to compute a digital data stream; (c) adding synchronization markers to the data stream computed in (b) to obtain a synchronized data stream, the synchronization markers identifying the downhole event detected in (a); (d) transmitting the synchronized data stream to the surface location using a downhole telemetry tool; (e) receiving the synchronized data stream at the surface location to obtain a decoded data stream; (f) causing a surface processor to process the synchronization markers to identify the downhole event detected in (a); and (g) causing the surface processor to process the event detected in (a) in combination with a predefined event database and the decoded data stream using a frame building algorithm processed in (b) to obtain the downhole measurements. (a) detecting a downhole event that requires change to a transmitted data stream; (b) causing a downhole processor to process (212, 322) the downhole event detected in (a) in combination with a predefined event database and downhole measurement data using a frame building algorithm to compute a digital data stream; (c) adding synchronization markers to the data stream computed in (b) to obtain a synchronized data stream, the synchronization markers identifying the downhole event detected in (a); (d) transmitting the synchronized data stream to the surface location using a downhole telemetry tool; (e) receiving the synchronized data stream at the surface location to obtain a decoded data stream; (f) causing a surface processor to process the synchronization markers to identify the downhole event detected in (a); and (g) causing the surface processor to process the event detected in (a) in combination with a predefined event database and the decoded data stream using a frame building algorithm processed in (b) to obtain the downhole measurements.
Seat belt retractor for a safety belt comprising a seat belt spindle for winding up and unwinding the safety belt and a tensioning drive, which comprises: - a gas generator, - a drive wheel and - a supply pipe which connects the gas generator and the drive wheel, - a plurality of thrust elements being present in the supply pipe which, after triggering the gas generator, are accelerated and indirectly or directly drive the drive wheel for winding up the safety belt, characterized in that at least two of the thrust elements are fiber-reinforced thrust elements, the at least two thrust elements are connected to one another by a flexible, strand-shaped link, in particular a cable or a wire, and the strand-shaped link is embedded in the fiber-reinforced material of the at least two thrust elements, in particular cast with the fiber-reinforced material of the at least two thrust elements. - a gas generator, - a drive wheel and - a supply pipe which connects the gas generator and the drive wheel, - a plurality of thrust elements being present in the supply pipe which, after triggering the gas generator, are accelerated and indirectly or directly drive the drive wheel for winding up the safety belt,
A method for digital counting analysis of a sample potentially containing at least one analyte, wherein the sample has been contacted with a solid phase having a plurality of discrete capture sites, each site being capable of capturing the at least one analyte, which method comprises at least two detection cycles in which the same analyte is labelled or re-labelled with a labelling agent, where each detection cycle comprises the steps of a) triggering a signal from captured and labelled or re-labelled analyte(s), b) recordation of the number and positions of capture sites exhibiting a signal from the captured and labelled or re-labelled analyte(s), and c) before a further detection cycle is performed, deactivation of signal(s) wherein the step of deactivation of signal(s) is selected from i. detaching and removing the labelling agent from the captured analyte, ii. deactivating the ability of the labelling agent to facilitate a signal or iii. the combination of i) and ii). a) triggering a signal from captured and labelled or re-labelled analyte(s), b) recordation of the number and positions of capture sites exhibiting a signal from the captured and labelled or re-labelled analyte(s), and c) before a further detection cycle is performed, deactivation of signal(s) i. detaching and removing the labelling agent from the captured analyte, ii. deactivating the ability of the labelling agent to facilitate a signal or iii. the combination of i) and ii).
A fastener system (1, 2) for fastening a dispenser member, such as a pump, on a reservoir neck so as to constitute a fluid dispenser, the dispenser being removable by removing the fastener system (1, 2) from the neck, the system (1, 2) comprising a fastener ring and a rigid hoop, the ring comprising a skirt for engaging around the neck, the skirt including fastener tabs, the hoop being engaged around the skirt in such a manner as to push the fastener tabs hard against the neck during the first assembly of the fastening system (1, 2) on the neck, the ring with the hoop engaged around the skirt being removable from the neck, the fastener system being characterized in that the skirt further includes at least one abutment tab that projects radially outwards before the hoop is engaged around the skirt, the abutment tab is deformed radially inwards by the hoop during the first assembly of the fastening system (1, 2) on the neck and pushed elastically against the neck, and after removal of the dispenser the abutment tab projects radially and relaxes elastically inwards relative to the fastener tabs so as to come into abutment against the reservoir neck when an attempt is made to reassemble the fastener ring on the neck after the dispenser has been removed for the first time.
A rotary electric shaver comprising: an outer blade whose upper surface provides one or more annular shaving surfaces (22A,22B) having multiple hair inlets formed therein; and an inner blade that has a small blade which is rotatable in sliding contact with a lower surface of the outer blade from below the annular shaving surface(s) (22A,22B), wherein the outer blade is configured so that, in at least a predetermined circumferential area on the annular shaving surface(s) (22A,22B), the hair inlets have non-constant circumferential spacings and/or the opening density varies characterized in that the outer blade is configured so that hair inlets which are open and reach both ends in the radial direction on the annular shaving surface(s) (22A,22B) alternate in the circumferential direction in the predetermined circumferential area on the annular shaving surface(s) (22A,22B) with hair inlets in which the opening does not reach both ends. an outer blade whose upper surface provides one or more annular shaving surfaces (22A,22B) having multiple hair inlets formed therein; and an inner blade that has a small blade which is rotatable in sliding contact with a lower surface of the outer blade from below the annular shaving surface(s) (22A,22B), wherein the outer blade is configured so that, in at least a predetermined circumferential area on the annular shaving surface(s) (22A,22B), the hair inlets have non-constant circumferential spacings and/or the opening density varies characterized in that the outer blade is configured so that hair inlets which are open and reach both ends in the radial direction on the annular shaving surface(s) (22A,22B) alternate in the circumferential direction in the predetermined circumferential area on the annular shaving surface(s) (22A,22B) with hair inlets in which the opening does not reach both ends.
A liquid cleaning composition, comprising: at least one compound having the following Formula 1: wherein n is an integer from 1-30; one of X and Y is SO 3 -Z, the other of X and Y is H, and X and Y are independently assigned in each repeating unit; A 1 and A 2 are linear or branched, saturated or unsaturated, substituted or unsubstituted, alkyl diradicals wherein the total number of carbons for each repeating unit is independent and in the range of C 8 to C 22; a is 0, 1, or 2, and is independently assigned in each repeating unit; R is linear or branched, saturated or unsaturated, substituted or unsubstituted, wherein the total number of carbon atoms is from about 1 to about 24; W is a cation selected from the group consisting of sodium, lithium, ammonium, and mixtures thereof; Z is a cation selected from the group consisting of sodium, lithium, ammonium, and mixtures thereof; at least one alkyl ester sulfonate surfactant; wherein the liquid composition is substantially free of settled precipitation, and has a percent transmittance of greater than about 50 at 570 nanometers measured in the absence of dyes and opacifiers, at 25 degrees Celsius. at least one compound having the following Formula 1: wherein n is an integer from 1-30; one of X and Y is SO 3 -Z, the other of X and Y is H, and X and Y are independently assigned in each repeating unit; A 1 and A 2 are linear or branched, saturated or unsaturated, substituted or unsubstituted, alkyl diradicals wherein the total number of carbons for each repeating unit is independent and in the range of C 8 to C 22; a is 0, 1, or 2, and is independently assigned in each repeating unit; R is linear or branched, saturated or unsaturated, substituted or unsubstituted, wherein the total number of carbon atoms is from about 1 to about 24; W is a cation selected from the group consisting of sodium, lithium, ammonium, and mixtures thereof; Z is a cation selected from the group consisting of sodium, lithium, ammonium, and mixtures thereof; one of X and Y is SO 3 -Z, the other of X and Y is H, and X and Y are independently assigned in each repeating unit; A 1 and A 2 are linear or branched, saturated or unsaturated, substituted or unsubstituted, alkyl diradicals wherein the total number of carbons for each repeating unit is independent and in the range of C 8 to C 22; a is 0, 1, or 2, and is independently assigned in each repeating unit; R is linear or branched, saturated or unsaturated, substituted or unsubstituted, wherein the total number of carbon atoms is from about 1 to about 24; W is a cation selected from the group consisting of sodium, lithium, ammonium, and mixtures thereof; Z is a cation selected from the group consisting of sodium, lithium, ammonium, and mixtures thereof; at least one alkyl ester sulfonate surfactant; wherein the liquid composition is substantially free of settled precipitation, and has a percent transmittance of greater than about 50 at 570 nanometers measured in the absence of dyes and opacifiers, at 25 degrees Celsius.
A diesel exhaust fluid storage unit adapted to supply a metered amount of diesel exhaust fluid provided in a diesel exhaust fluid tank to a mixing zone in an exhaust pipe coupled to a diesel engine, the diesel exhaust fluid storage unit comprising a diesel exhaust fluid tank venting control unit formed to include a fill-limit valve module adapted to receive diesel exhaust fluid from a diesel exhaust fluid tank, a breather-valve module exposed to the atmosphere, and a vapor-transfer module interposed between and coupled in fluid communication to each of the fill-limit valve module and the breather-valve module, wherein the breather-valve module includes an interior chamber and a semi-permeable membrane having a topside exposed to atmospheric air admitted into the interior chamber and an underside exposed to fluid vapor associated with diesel exhaust fluid in the diesel exhaust fluid tank and fluid vapor conducted through vapor-transfer module, wherein the vapor-transfer module is formed to include a first fluid-conducting passageway arranged to communicate fluid vapor and atmospheric air between the fill-limit valve module and the breather-valve module and the semi-permeable membrane is arranged to communicate fluidly with each of the first fluid-conducting passageway formed in the vapor-transfer module and the interior chamber formed in the breather-valve module.
A refrigerant centrifugal compressor comprising: a housing providing an inlet, an outlet consisting of a diffuser having a throat area and a volute; an electric motor provided in the housing and configured to directly drive an impeller via a shaft about an axis in response to a variable speed command, the impeller including an outlet end aligned with a variable geometry diffuser, wherein the variable geometry diffuser includes vanes and wherein no variable inlet guide vanes are provided upstream of the impeller; a magnetic bearing assembly configured to rotationally support the shaft relative to the housing in response to a magnetic bearing command; an actuator; a variable geometry diffuser member downstream of the impeller receiving a compressor regulation command, wherein the actuator adjusts the position of the variable geometry diffuser member, and wherein the variable geometry diffuser member is configured to at least partially extend into a vane throat between adjacent vanes of the variable geometry diffuser; a controller in communication with the electric motor, magnetic bearing assembly and the actuator, the controller configured to respectively provide the variable speed command, magnetic bearing command and the compressor regulation command to the electric motor to vary the throat area, magnetic bearing assembly and the actuator to obtain a desired compressor operating condition; and wherein the variable geometry diffuser member is configured to completely surround each vane of the variable geometry diffuser. a housing providing an inlet, an outlet consisting of a diffuser having a throat area and a volute; an electric motor provided in the housing and configured to directly drive an impeller via a shaft about an axis in response to a variable speed command, the impeller including an outlet end aligned with a variable geometry diffuser, wherein the variable geometry diffuser includes vanes and wherein no variable inlet guide vanes are provided upstream of the impeller; a magnetic bearing assembly configured to rotationally support the shaft relative to the housing in response to a magnetic bearing command; an actuator; a variable geometry diffuser member downstream of the impeller receiving a compressor regulation command, wherein the actuator adjusts the position of the variable geometry diffuser member, and wherein the variable geometry diffuser member is configured to at least partially extend into a vane throat between adjacent vanes of the variable geometry diffuser; a controller in communication with the electric motor, magnetic bearing assembly and the actuator, the controller configured to respectively provide the variable speed command, magnetic bearing command and the compressor regulation command to the electric motor to vary the throat area, magnetic bearing assembly and the actuator to obtain a desired compressor operating condition; and wherein the variable geometry diffuser member is configured to completely surround each vane of the variable geometry diffuser.
A method of producing a composite shielding material in the form of a syntactic foam for shielding electromagnetic radiation, acoustic and thermal emissions, said method comprising filling a mould with spherical articles SA made of ceramics, glass, or carbon, wherein said articles are coated on their external surface with graphene or graphene flakes; and filling the voids between said articles with a matrix material, wherein said articles are coated with at least one metal layer.
An automotive body assembly comprising: a roll-formed component swept in at least one dimension; and at least one bracket (12, 14, 16, 18) having a pair of members engaging opposing walls of the component and, before being attached to the component, adapted to be adjustably positioned with respect to the component at least laterally and longitudinally and, whereby the bracket provides dimensional compensation and an attachment structure for body components. a roll-formed component swept in at least one dimension; and at least one bracket (12, 14, 16, 18) having a pair of members engaging opposing walls of the component and, before being attached to the component, adapted to be adjustably positioned with respect to the component at least laterally and longitudinally and, whereby the bracket provides dimensional compensation and an attachment structure for body components.
Process for the production of iron ore fines agglomerate for metallic load replacement in reduction furnaces, characterized in that it is conducted without use of carbonaceous material as fuel by comprising the following steps: a) mixing a nanomaterial and a catalyst to sodium silicate for preparing the binder mixture; b) mixing 1-5% of the binder mixture from step a) with 70-100% iron ore fines, 0-30% fines of fluxes and 0-5% plasticizer in intensive mixer; c) adjusting the moisture in such a way as to obtain the amount of 0-30% of water weight in the mixture; d) performing agglomeration by pelletizing, briquetting or extrusion; e) keeping the agglomerates at room temperature for 2-10 days for curing; wherein the following dosages are used: 0.05 to 2% by weight of nanomaterial relative to sodium silicate; and 0.05 to 5% by weight of catalyst relative to sodium silicate, wherein the catalyst used in step a) is selected from the group consisting of sodium pyrophosphate, magnesium hydroxide, propylene carbonate, glycerin carbonate, calcium hydroxide, calcium oxide, glycerol triacetate, aluminum chloride, aluminum hydroxide, triacetin, diacetin, and metallic aluminum. a) mixing a nanomaterial and a catalyst to sodium silicate for preparing the binder mixture; b) mixing 1-5% of the binder mixture from step a) with 70-100% iron ore fines, 0-30% fines of fluxes and 0-5% plasticizer in intensive mixer; c) adjusting the moisture in such a way as to obtain the amount of 0-30% of water weight in the mixture; d) performing agglomeration by pelletizing, briquetting or extrusion; e) keeping the agglomerates at room temperature for 2-10 days for curing; wherein the following dosages are used: 0.05 to 2% by weight of nanomaterial relative to sodium silicate; and 0.05 to 5% by weight of catalyst relative to sodium silicate, 0.05 to 2% by weight of nanomaterial relative to sodium silicate; and 0.05 to 5% by weight of catalyst relative to sodium silicate, wherein the catalyst used in step a) is selected from the group consisting of sodium pyrophosphate, magnesium hydroxide, propylene carbonate, glycerin carbonate, calcium hydroxide, calcium oxide, glycerol triacetate, aluminum chloride, aluminum hydroxide, triacetin, diacetin, and metallic aluminum.
A combination comprising an effective amount of varenicline and an effective amount of bupropion for use in treating alcohol use disorder and/or treating alcohol risk consumption in a subject in need thereof.