mhurhangee/patent-ind-claim-en huggingface dataset:
An electret fiber sheet wherein an average of -(b*)-(a*) values satisfies the following expression: 12 ≤ − b * − a * Ave ≤ 50 wherein a* and b* are values measured by a spectrophotometer, by the method described in the specification, when a red positive charge toner and a blue negative charge toner are attached; and wherein the electret fiber sheet is produced by an electretizing method comprising a spraying step of impinging jets of water or a stream of water droplets on a non-conductive fiber sheet in an environment in which misty water is present, wherein a spouting pressure is 0.5 to 6.0 MPa and a distance between the nozzle spouting face and the fiber sheet surface is 20 to 100 mm. wherein a* and b* are values measured by a spectrophotometer, by the method described in the specification, when a red positive charge toner and a blue negative charge toner are attached; and wherein the electret fiber sheet is produced by an electretizing method comprising a spraying step of impinging jets of water or a stream of water droplets on a non-conductive fiber sheet in an environment in which misty water is present, wherein a spouting pressure is 0.5 to 6.0 MPa and a distance between the nozzle spouting face and the fiber sheet surface is 20 to 100 mm.
A method of accelerating memory operations using virtualization information comprising: executing a hypervisor on hardware resources of a computing system; creating a plurality of domains under the control of the hypervisor; allocating to each domain memory resources comprising accessible memory space that is exclusively accessible by that domain; allocating to each domain one or more processor resources; identifying domain layout information comprising a boundary of accessible memory space of each domain; providing the domain layout information to each processor resource; configuring, by the hypervisor, each processor resource through a hyperprivileged register; and configuring each processor resource to implement, on a per domain basis, a restricted coherency protocol based on the domain layout information, wherein the restricted coherency protocol bypasses, relative to the domain, downstream caches when a cache line falls within the accessible memory space of that domain, and wherein the hyperprivileged register configures each processor resource based upon whether the processor resource of the domain consists of a single hardware thread, a single core, multiple cores, or multiple processors. executing a hypervisor on hardware resources of a computing system; creating a plurality of domains under the control of the hypervisor; allocating to each domain memory resources comprising accessible memory space that is exclusively accessible by that domain; allocating to each domain one or more processor resources; identifying domain layout information comprising a boundary of accessible memory space of each domain; providing the domain layout information to each processor resource; configuring, by the hypervisor, each processor resource through a hyperprivileged register; and configuring each processor resource to implement, on a per domain basis, a restricted coherency protocol based on the domain layout information, wherein the restricted coherency protocol bypasses, relative to the domain, downstream caches when a cache line falls within the accessible memory space of that domain, and wherein the hyperprivileged register configures each processor resource based upon whether the processor resource of the domain consists of a single hardware thread, a single core, multiple cores, or multiple processors.
A composition, comprising a resin mixture comprising: a resin formed of a thermoplastic material and/or a thermosetting material; and a plurality of polymer nanoparticles , wherein the plurality of polymer nanoparticles constitutes from 5 to 75 percent by volume of the resin mixture , wherein: the polymer nanoparticles are spherical and have a particle cross sectional width of 10 to 200 nanometers; the polymer nanoparticles have a greater distortion capability than the cured, unmodified resin due to a nanoparticle porosity that is greater than a porosity of the cured, unmodified resin ; and either: the polymer nanoparticles have a nanoparticle porosity provided by a plurality of pores occupying greater than 50 percent of a total nanoparticle volume, or the polymer nanoparticles have a nanoparticle porosity provided by a single pore occupying greater than 50 percent of a total nanoparticle volume. a resin formed of a thermoplastic material and/or a thermosetting material; and a plurality of polymer nanoparticles , wherein the plurality of polymer nanoparticles constitutes from 5 to 75 percent by volume of the resin mixture , the polymer nanoparticles are spherical and have a particle cross sectional width of 10 to 200 nanometers; the polymer nanoparticles have a greater distortion capability than the cured, unmodified resin due to a nanoparticle porosity that is greater than a porosity of the cured, unmodified resin ; and either: the polymer nanoparticles have a nanoparticle porosity provided by a plurality of pores occupying greater than 50 percent of a total nanoparticle volume, or the polymer nanoparticles have a nanoparticle porosity provided by a single pore occupying greater than 50 percent of a total nanoparticle volume. the polymer nanoparticles have a nanoparticle porosity provided by a plurality of pores occupying greater than 50 percent of a total nanoparticle volume, or the polymer nanoparticles have a nanoparticle porosity provided by a single pore occupying greater than 50 percent of a total nanoparticle volume.
An implantable drug-delivery pump , comprising: an electrolyte chamber ; a drug reservoir ; a cannula for conducting liquid from the drug reservoir to a target site; an expandable diaphragm separating the electrolyte chamber and the drug reservoir and providing a fluid barrier therebetween; electrolysis electrodes in the electrolyte chamber operable when current is provided to the electrodes to evolve gas to expand the diaphragm and force liquid drug out of the drug reservoir through the cannula ; and a drug reservoir fill port and an electrolyte chamber fill port each comprising an elastomeric plug extending at least partially through an aperture in a wall , the drug reservoir fill port being in fluid communication with the drug reservoir and the electrolyte chamber fill port being in fluid communication with the electrolyte chamber, wherein the elastomeric plugs are formed of a self-sealing material allowing each plug to be punctured with a needle and to re-seal itself upon removal of the needle; and wherein the apertures include threads, grooves or other features facilitating mechanical interlocking machined or molded into the walls that define the apertures to keep the plugs secured in place. an electrolyte chamber ; a drug reservoir ; a cannula for conducting liquid from the drug reservoir to a target site; an expandable diaphragm separating the electrolyte chamber and the drug reservoir and providing a fluid barrier therebetween; electrolysis electrodes in the electrolyte chamber operable when current is provided to the electrodes to evolve gas to expand the diaphragm and force liquid drug out of the drug reservoir through the cannula ; and a drug reservoir fill port and an electrolyte chamber fill port each comprising an elastomeric plug extending at least partially through an aperture in a wall , the drug reservoir fill port being in fluid communication with the drug reservoir and the electrolyte chamber fill port being in fluid communication with the electrolyte chamber, wherein the elastomeric plugs are formed of a self-sealing material allowing each plug to be punctured with a needle and to re-seal itself upon removal of the needle; and wherein the apertures include threads, grooves or other features facilitating mechanical interlocking machined or molded into the walls that define the apertures to keep the plugs secured in place.
An apparatus for charge neutralization, the apparatus comprising: an emitter nozzle comprising: an emitter ; and a housing configured to hold the emitter , the housing comprising a plurality of cams on an exterior of the housing ; and a nozzle receptacle configured to enable insertion and removal of the emitter nozzle , and to hold the emitter nozzle in place during operation of the emitter nozzle , the nozzle receptacle comprising: a plurality of threads corresponding to the plurality of cams on the emitter nozzle , the plurality of threads having a first flank angle; and a plurality of shelves located at respective distal ends of the plurality of threads , the plurality of shelves having a second flank angle less than the first flank angle. an emitter nozzle comprising: an emitter ; and a housing configured to hold the emitter , the housing comprising a plurality of cams on an exterior of the housing ; and an emitter ; and a housing configured to hold the emitter , the housing comprising a plurality of cams on an exterior of the housing ; and a nozzle receptacle configured to enable insertion and removal of the emitter nozzle , and to hold the emitter nozzle in place during operation of the emitter nozzle , the nozzle receptacle comprising: a plurality of threads corresponding to the plurality of cams on the emitter nozzle , the plurality of threads having a first flank angle; and a plurality of shelves located at respective distal ends of the plurality of threads , the plurality of shelves having a second flank angle less than the first flank angle. a plurality of threads corresponding to the plurality of cams on the emitter nozzle , the plurality of threads having a first flank angle; and a plurality of shelves located at respective distal ends of the plurality of threads , the plurality of shelves having a second flank angle less than the first flank angle.
A capacitor device comprising: a capacitor circuit in which a plurality of capacitors (41-45) are connected to each other, wherein one or two or more capacitors in the capacitor circuit have a dielectric breakdown voltage made lower than that of another capacitor (42-45), and wherein the one or two or more capacitors having the lower dielectric breakdown voltage are subjected to dielectric breakdown due to application of an overvoltage earlier than the other capacitor (42-45) so that the capacitor circuit is short-circuited, characterized in that : the one or two or more capacitors each comprise, in a portion of a separator (16-1, 16-2) interposed between electrode foils , a low insulating part (22-1, 22-2) having a low insulating function for the electrode foils . one or two or more capacitors in the capacitor circuit have a dielectric breakdown voltage made lower than that of another capacitor (42-45), and wherein the one or two or more capacitors having the lower dielectric breakdown voltage are subjected to dielectric breakdown due to application of an overvoltage earlier than the other capacitor (42-45) so that the capacitor circuit is short-circuited, characterized in that : the one or two or more capacitors each comprise, in a portion of a separator (16-1, 16-2) interposed between electrode foils , a low insulating part (22-1, 22-2) having a low insulating function for the electrode foils .
An apparatus, comprising an enclosure configured to contain at least one optoelectronic device and to interface the at least one optoelectronic device to a polymer-clad silica (PCS) optical fiber lead , wherein the enclosure includes: a first section including: a base portion ; and a wall portion coupled to a perimeter about the base portion , wherein the wall portion defines an open-ended slot in a first edge , and wherein the open-ended slot includes an open end that is configured to receive a first portion of the PCS optical fiber lead extending through the wall portion ; and a second section configured to sealingly engage the first edge of the wall portion and the first portion of the optical fiber lead at the open end of the open-ended slot ; wherein the first portion of the PCS optical fiber lead includes a metalized outer region and the second section includes a cap portion surrounded by a second wall portion extending to a second edge , wherein the second edge is configured to sealingly engage the first edge of the wall portion and the first portion of the PCS optical fiber lead , wherein the apparatus further comprises a preformed solder layer of the second edge , wherein heat applied proximate to the second edge causes the preformed solder layer to flow to seal the second edge to the first edge of the first section and to the first portion of the PCS optical fiber lead . a first section including: a base portion ; and a wall portion coupled to a perimeter about the base portion , wherein the wall portion defines an open-ended slot in a first edge , and wherein the open-ended slot includes an open end that is configured to receive a first portion of the PCS optical fiber lead extending through the wall portion ; and a base portion ; and a wall portion coupled to a perimeter about the base portion , wherein the wall portion defines an open-ended slot in a first edge , and wherein the open-ended slot includes an open end that is configured to receive a first portion of the PCS optical fiber lead extending through the wall portion ; and a second section configured to sealingly engage the first edge of the wall portion and the first portion of the optical fiber lead at the open end of the open-ended slot ;
A force sensor comprising: a sensing die comprising a cap and a support , wherein the cap is coupled to a first surface of the support and comprises a sensing diaphragm , wherein the support comprises a cavity defined by a recess formed in the first surface of the support , wherein the sensing diaphragm lays above the cavity ; an actuation element configured to transmit a force to the sensing diaphragm of the sensing die ; a plurality of channels formed in the first surface of the support , wherein the plurality of channels are formed in a symmetric manner about the cavity and extend from the cavity to the outer edges of the support ; wherein a depth of the cavity in the first surface of the support is greater than a depth of the plurality of channels in the first surface of the support ; and one or more sense elements supported by the sensing diaphragm of the cap . a sensing die comprising a cap and a support , wherein the cap is coupled to a first surface of the support and comprises a sensing diaphragm , wherein the support comprises a cavity defined by a recess formed in the first surface of the support , wherein the sensing diaphragm lays above the cavity ; an actuation element configured to transmit a force to the sensing diaphragm of the sensing die ; a plurality of channels formed in the first surface of the support , wherein the plurality of channels are formed in a symmetric manner about the cavity and extend from the cavity to the outer edges of the support ; wherein a depth of the cavity in the first surface of the support is greater than a depth of the plurality of channels in the first surface of the support ; and one or more sense elements supported by the sensing diaphragm of the cap .
A charger , comprising: a main body housing that comprises an upper surface, on which battery attachment portions (11 to 14) are provided, a front surface , a rear surface , a right surface , a left surface , a bottom surface and a recessed portion on a side surface of the main body housing , the recessed portion being inwardly recessed in a side area (S) in a planar view which is surrounded by a line passing through portions which protrude furthest to each side surface of the front surface , the rear surface , the right surface and the left surface of the main body housing ; and a power source cord that is drawn out from the recessed portion , wherein characterised in that the recessed portion is open in at least two directions that are different from each other, a direction in which the power source cord is drawn out from the recessed portion in the side area (S) is configured to be changed to any one of the at least two directions, the recessed portion is provided over an entire area in a height direction from the upper surface to the bottom surface of the main body housing , and the recessed portion is open both upwards and downwards in the height direction. a main body housing that comprises an upper surface, on which battery attachment portions (11 to 14) are provided, a front surface , a rear surface , a right surface , a left surface , a bottom surface and a recessed portion on a side surface of the main body housing , the recessed portion being inwardly recessed in a side area (S) in a planar view which is surrounded by a line passing through portions which protrude furthest to each side surface of the front surface , the rear surface , the right surface and the left surface of the main body housing ; and a power source cord that is drawn out from the recessed portion , wherein characterised in that the recessed portion is open in at least two directions that are different from each other, a direction in which the power source cord is drawn out from the recessed portion in the side area (S) is configured to be changed to any one of the at least two directions, the recessed portion is provided over an entire area in a height direction from the upper surface to the bottom surface of the main body housing , and the recessed portion is open both upwards and downwards in the height direction.
An electroactive lens system comprising: a polarization switcher switchable between a first state in which the polarization switcher switches a polarization of light between a first polarization state and a second polarization state and a second state in which the polarization switcher transmits light in the first polarization state; a first electroactive lens in optical communication with the polarization switcher and switchable between a focusing state in which the first electroactive lens focuses light in the first polarization state and transmits light in the second polarization state without focusing the light in the second polarization state and a non-focusing state in which the first electroactive lens transmits light in the first polarization state and the second polarization state without focusing the light in the first polarization state or the second polarization state; and a second electroactive lens in optical communication with the polarization switcher and the first electroactive lens and switchable between a focusing state in which the second electroactive lens transmits light in the first polarization state without focusing the light in the first polarization state and focuses light in the second polarization state and a non-focusing state in which the second electroactive lens transmits light in the first polarization state and the second polarization state without focusing the light in the first polarization state or the second polarization state. a polarization switcher switchable between a first state in which the polarization switcher switches a polarization of light between a first polarization state and a second polarization state and a second state in which the polarization switcher transmits light in the first polarization state; a first electroactive lens in optical communication with the polarization switcher and switchable between a focusing state in which the first electroactive lens focuses light in the first polarization state and transmits light in the second polarization state without focusing the light in the second polarization state and a non-focusing state in which the first electroactive lens transmits light in the first polarization state and the second polarization state without focusing the light in the first polarization state or the second polarization state; and a second electroactive lens in optical communication with the polarization switcher and the first electroactive lens and switchable between a focusing state in which the second electroactive lens transmits light in the first polarization state without focusing the light in the first polarization state and focuses light in the second polarization state and a non-focusing state in which the second electroactive lens transmits light in the first polarization state and the second polarization state without focusing the light in the first polarization state or the second polarization state.
A radiation curable solder mask inkjet ink comprising a polymerizable compound, an adhesion promoter and a phenolic compound, characterized in that the adhesion promoter has a chemical structure according to Formula I, or salt thereof, and the phenolic compound comprises at least two phenolic groups. wherein n is 0 or 1, R 1 is selected from the group consisting of a hydrogen atom, a substituted or unsubstituted alkyl group and a substituted or unsubstituted aryl group. L 1 represents a divalent linking group, comprising 20 carbon atoms or less, with the proviso that L1 is linked to the carboxylic acid via an aliphatic carbon atom, X represents O or NR 4 , R 4 is selected from the group consisting of a hydrogen atom, a substituted or unsubstituted alkyl group, a substituted or unsubstituted alkenyl group, a substituted or unsubstituted alkynyl group, a substituted or unsubstituted alkaryl group, a substituted or unsubstituted aralkyl group and a substituted or unsubstituted (hetero)aryl group, R 4 and L1 may represent the necessary atoms to form a 5 to 8 membered ring. R 2 and R 3 are independently selected from the group consisting of hydrogen, a substituted or unsubstituted alkyl group, a substituted or unsubstituted aryl group and a substituted or unsubstituted heteroaryl group. n is 0 or 1, R 1 is selected from the group consisting of a hydrogen atom, a substituted or unsubstituted alkyl group and a substituted or unsubstituted aryl group. L 1 represents a divalent linking group, comprising 20 carbon atoms or less, with the proviso that L1 is linked to the carboxylic acid via an aliphatic carbon atom, X represents O or NR 4 , R 4 is selected from the group consisting of a hydrogen atom, a substituted or unsubstituted alkyl group, a substituted or unsubstituted alkenyl group, a substituted or unsubstituted alkynyl group, a substituted or unsubstituted alkaryl group, a substituted or unsubstituted aralkyl group and a substituted or unsubstituted (hetero)aryl group, R 4 and L1 may represent the necessary atoms to form a 5 to 8 membered ring. R 2 and R 3 are independently selected from the group consisting of hydrogen, a substituted or unsubstituted alkyl group, a substituted or unsubstituted aryl group and a substituted or unsubstituted heteroaryl group.