mhurhangee/patent-ind-claim-en huggingface dataset:
A method for implementing an accessibility function in applications, the method comprising: receiving , by an application, a request for invoking an input control unit; invoking the input control unit; in response to detecting an event corresponding to an accessibility function and triggered using the input control unit, determining a service feedback instruction corresponding to the event, wherein the accessibility function is provided by third party application software; bypassing the third party application by directly invoking an accessibility function engine of a device that comprises the application, wherein the accessibility function engine bypasses an operating system of the device, the operating system comprising a system accessibility manager and an accessibility service provided by the third party application; and implementing the accessibility function using the accessibility function engine based on the service feedback instruction. receiving , by an application, a request for invoking an input control unit; invoking the input control unit; in response to detecting an event corresponding to an accessibility function and triggered using the input control unit, determining a service feedback instruction corresponding to the event, wherein the accessibility function is provided by third party application software; bypassing the third party application by directly invoking an accessibility function engine of a device that comprises the application, wherein the accessibility function engine bypasses an operating system of the device, the operating system comprising a system accessibility manager and an accessibility service provided by the third party application; and implementing the accessibility function using the accessibility function engine based on the service feedback instruction.
A method for determining a temperature-stabilized operating point of a reference light source arrangement formed from an LED , comprising: a) detecting, at a first temperature (θ 1 ): under current variation, of a first emission characteristic of the reference light source arrangement; a) detecting, at a second temperature (θ 2 ): under current variation, of a second emission characteristic of the reference light source arrangement; c) after recording the first emission characteristic and the second emission characteristic: i. finding a current different from zero, at which the intensity value ( I A ) assigned to this current has the same intensity value on the first emission characteristic as the intensity value assigned to this current on the second emission characteristic; and ii. choosing the thus-determined current as current of the operating point. a) detecting, at a first temperature (θ 1 ): under current variation, of a first emission characteristic of the reference light source arrangement; a) detecting, at a second temperature (θ 2 ): under current variation, of a second emission characteristic of the reference light source arrangement; c) after recording the first emission characteristic and the second emission characteristic: i. finding a current different from zero, at which the intensity value ( I A ) assigned to this current has the same intensity value on the first emission characteristic as the intensity value assigned to this current on the second emission characteristic; and ii. choosing the thus-determined current as current of the operating point. i. finding a current different from zero, at which the intensity value ( I A ) assigned to this current has the same intensity value on the first emission characteristic as the intensity value assigned to this current on the second emission characteristic; and ii. choosing the thus-determined current as current of the operating point.
An active material included in a power supply element having a medium to proceed an oxidation-reduction reaction and to donate lithium ions, the active material, comprising: a lithium active material, wherein the active material is in the shape of granule; and a composite layer, that entirely covers the lithium active material to block moisture and oxygen from the lithium active material, and that comprises: a metal structural layer that partially covers an outer surface of the lithium active material, that is directly contacted with the lithium active material, and that is comprised of a material which does not alloy with lithium metal or ion ; and a metal protection layer, that partially covers the outer surface of the lithium active material, that comprises a first protection material and a second protection material, the first protection material forming an alloy with lithium metal or ion provided by the medium, and the second protection material being unalloyable with lithium metal or ion ; wherein the metal protection layer and the metal structural layer are interlaced on the outer surface of the lithium active material, and wherein the metal protection layer becomes loosened after an alloying reaction to provide paths for the lithium active material to proceed with an electrical-chemical reaction and the metal structural layer serves as concluding points of an adhesion of the active material. a lithium active material, wherein the active material is in the shape of granule; and a composite layer, that entirely covers the lithium active material to block moisture and oxygen from the lithium active material, and that comprises: a metal structural layer that partially covers an outer surface of the lithium active material, that is directly contacted with the lithium active material, and that is comprised of a material which does not alloy with lithium metal or ion ; and a metal protection layer, that partially covers the outer surface of the lithium active material, that comprises a first protection material and a second protection a metal structural layer that partially covers an outer surface of the lithium active material, that is directly contacted with the lithium active material, and that is comprised of a material which does not alloy with lithium metal or ion ; and a metal protection layer, that partially covers the outer surface of the lithium active material, that comprises a first protection material and a second protection material, the first protection material forming an alloy with lithium metal or ion provided by the medium, and the second protection material being unalloyable with lithium metal or ion ; wherein the metal protection layer and the metal structural layer are interlaced on the outer surface of the lithium active material, and wherein the metal protection layer becomes loosened after an alloying reaction to provide paths for the lithium active material to proceed with an electrical-chemical reaction and the metal structural layer serves as concluding points of an adhesion of the active material.
A rotor restraining apparatus for a wind turbine , comprising: a locking element associated with a rotor of the wind turbine, a rotational axis of said rotor defining an axial direction, the locking element being at least part-circular in form, the locking element comprising a plurality of engagement formations disposed on a periphery thereof; and a restraining member , comprising a plurality of engagement formations , wherein the restraining member is movable substantially along said axial direction between: (a) a non-restraining position; and (b) a restraining position in which the restraining member engagement formations are able to engage the locking element engagement formations, and wherein at least a portion of the restraining member has an arcuate form that substantially matches the curvature (A) of the locking element. a locking element associated with a rotor of the wind turbine, a rotational axis of said rotor defining an axial direction, the locking element being at least part-circular in form, the locking element comprising a plurality of engagement formations disposed on a periphery thereof; and a restraining member , comprising a plurality of engagement formations , wherein the restraining member is movable substantially along said axial direction between: (a) a non-restraining position; and (b) a restraining position in which the restraining member engagement formations are able to engage the locking element engagement formations, and wherein at least a portion of the restraining member has an arcuate form that substantially matches the curvature (A) of the locking element.
An arrangement on a tower or derrick structure for connecting and disconnecting an active and/or passive heave compensator actuator , said heave compensator actuator is operatively connected with a fixed structure at a first end, characterised in that the arrangement comprises a connection device operatively connected to a crown block or other load carrying device , said connection device being adapted to selectively grip an adaptor head fixedly connected to a movable second end of the heave compensator actuator in order to hydraulically drive the second end of the heave compensator actuator in and out of the first end of said heave compensator actuator , and that said arrangement further comprises a safety device attached to the tower or derrick structure and is adapted to selectively grip the adaptor head of the heave compensator actuator , when said adaptor head it is not in engagement with the connection device in order to hold the second end of the heave compensator actuator in a fixed position, said heave compensator actuator being disconnected from the crown block or other load carrying device when connected to the safety device .
A system for data analytics in a network between one or more local device(s) and a cloud computing platform , the system comprising: a processor configured to process data collected and/or stored on the local device(s) and/or stored on the cloud computing platform by an analytical algorithm (A) which is subdivided into at least two sub-algorithms (SA1, SA2), wherein at least one sub-algorithm (SA1) is executed on the local device(s) and at least one other sub-algorithm (SA2) is executed on the cloud computing platform based on an affinity/preference indicator, characterized wherein the affinity/preference indicator is defined regarding the location of execution and the run-time for each sub-algorithm, and based on data structure of the processed data, wherein location of execution is regarding distribution of the sub-algorithms (SA1, SA2) to their place of execution in accordance with the deployment.
An expandable lavatory configured for installation in a vehicle including an interior space formed between an exterior wall and a longitudinal aisle , the expandable lavatory comprising: first , second and third walls forming a lavatory interior, the first wall positionable across the interior space, the second wall positionable along the longitudinal aisle, and wherein the third wall repositionable between a first position in which the third wall is positionable across the interior space and a second position in which the third wall is positionable along the longitudinal aisle; a first door positioned in the second wall, the first door providing access to the lavatory interior from the longitudinal aisle; and a second door pivotally attached to the third wall, the second door deployable across the interior space when the third wall is in the second position, and the second door when deployed providing access to the lavatory interior from an exit pathway positioned across the interior space; wherein a footprint of the lavatory interior is greater when the third wall is in the second position. first , second and third walls forming a lavatory interior, the first wall positionable across the interior space, the second wall positionable along the longitudinal aisle, and wherein the third wall repositionable between a first position in which the third wall is positionable across the interior space and a second position in which the third wall is positionable along the longitudinal aisle; a first door positioned in the second wall, the first door providing access to the lavatory interior from the longitudinal aisle; and a second door pivotally attached to the third wall, the second door deployable across the interior space when the third wall is in the second position, and the second door when deployed providing access to the lavatory interior from an exit pathway positioned across the interior space; wherein a footprint of the lavatory interior is greater when the third wall is in the second position.
An inline plasma thermal treatment system for thermally treating a continuous product , comprising: a gas supply system configured to supply a first gas flow; a power source configured to supply power; and a plasma torch configured to receive the first gas flow from the gas supply system and power from the power source to form a plasma arc , wherein the plasma arc heats a portion of the continuous product disposed near the plasma arc , wherein the gas supply system is configured to provide a second gas flow to modify an atmosphere near the continuous product during and/or after plasma heating of the continuous product, characterized in that the inline thermal treatment system further comprises one or more gas nozzles , wherein the gas supply system is configured to provide a portion of the second gas flow to the one or more gas nozzles of the thermal treatment system , wherein the one or more gas nozzles are configured to direct the portion of the second gas flow toward one or more surfaces of the portion of the continuous product to cool the portion of the continuous product after plasma heating. a gas supply system configured to supply a first gas flow; a power source configured to supply power; and a plasma torch configured to receive the first gas flow from the gas supply system and power from the power source to form a plasma arc , wherein the plasma arc heats a portion of the continuous product disposed near the plasma arc , wherein the gas supply system is configured to provide a second gas flow to modify an atmosphere near the continuous product during and/or after plasma heating of the continuous product, characterized in that the inline thermal treatment system further comprises one or more gas nozzles , wherein the gas supply system is configured to provide a portion of the second gas flow to the one or more gas nozzles of the thermal treatment system , wherein the one or more gas nozzles are configured to direct the portion of the second gas flow toward one or more surfaces of the portion of the continuous product to cool the portion of the continuous product after plasma heating.
A heavy duty tire comprising a carcass extending from a tread part through a sidewall part to a bead core of a bead part and a belt layer arranged outside in a tire radial direction of the carcass and inside of the tread part , wherein the belt layer is formed by a belt ply comprising a first belt layer , a second belt layer , and a third belt layer which are laminated in order from inside in the tire radial direction, wherein the tread has a plurality of main grooves extending continuously in a tire circumferential direction, wherein the tread comprises a cap rubber layer constituting a tread surface and a base rubber layer adjacent to inside in a tire radial direction of the cap rubber layer , wherein the cap rubber layer and the base rubber layer are composed of a rubber composition comprising a rubber component, wherein the rubber component constituting the cap rubber layer comprises an isoprene-based rubber and a butadiene rubber, characterised in that the rubber composition constituting the cap rubber layer comprises 30 parts by mass or more of silica having a nitrogen adsorption specific surface area (N 2 SA) of 200 to 250 m 2 /g based on 100 parts by mass of the rubber component, and a tan δ of the rubber composition constituting the base rubber layer at 70°C is 0.04 to 0.07, wherein the "70°C tan δ" refers to a loss tangent tan δ under a condition of a temperature at 70°C, an initial strain of 10%, a dynamic strain of ± 2%, and a frequency of 10 Hz, and wherein the N 2 SA of silica is a value measured by a BET method according to ASTM D3037-93. wherein the belt layer is formed by a belt ply comprising a first belt layer , a second belt layer , and a third belt layer which are laminated in order from inside in the tire radial direction, wherein the tread has a plurality of main grooves extending continuously in a tire circumferential direction, wherein the tread comprises a cap rubber layer constituting a tread surface and a base rubber layer adjacent to inside in a tire radial direction of the cap rubber layer , wherein the cap rubber layer and the base rubber layer are composed of a rubber composition comprising a rubber component, wherein the rubber component constituting the cap rubber layer comprises an isoprene-based rubber and a butadiene rubber, characterised in that the rubber composition constituting the cap rubber layer comprises 30 parts by mass or more of silica having a nitrogen adsorption specific surface area (N 2 SA) of 200 to 250 m 2 /g based on 100 parts by mass of the rubber component, and a tan δ of the rubber composition constituting the base rubber layer at 70°C is 0.04 to 0.07, wherein the "70°C tan δ" refers to a loss tangent tan δ under a condition of a temperature at 70°C, an initial strain of 10%, a dynamic strain of ± 2%, and a frequency of 10 Hz, and wherein the N 2 SA of silica is a value measured by a BET method according to ASTM D3037-93.
An isolation mount assembly comprising: a resilient member defining a central aperture that defines a load axis (L), the resilient member further defining an annular depression about the load axis (L); and an adapter plate including an outer mechanical attachment structure that defines a first thickness measured along the load axis and an inner attachment structure that is closer to the load axis than the outer attachment structure along a direction that is perpendicular to the load axis and that defines a second thickness measured along the load axis; wherein the inner attachment structure is disposed in the annular depression and the second thickness of the inner attachment structure is at least twice the thickness of the outer mechanical attachment structure ; characterized in that the adapter plate is an assembly that includes at least two formed sheets that are attached to each other; and in that the inner attachment structure is at least partially hollow and the assembly further comprises a support tube that is disposed in the hollow portion of the inner attachment structure wherein the support tube is configured to attach the formed sheets together and support the assembly when loaded. a resilient member defining a central aperture that defines a load axis (L), the resilient member further defining an annular depression about the load axis (L); and an adapter plate including an outer mechanical attachment structure that defines a first thickness measured along the load axis and an inner attachment structure that is closer to the load axis than the outer attachment structure along a direction that is perpendicular to the load axis and that defines a second thickness measured along the load axis; wherein the inner attachment structure is disposed in the annular depression and the second thickness of the inner attachment structure is at least twice the thickness of the outer mechanical attachment structure ; characterized in that the adapter plate is an assembly that includes at least two formed sheets that are attached to each other; and in that the inner attachment structure is at least partially hollow and the assembly further comprises a support tube that is disposed in the hollow portion of the inner attachment structure wherein the support tube is configured to attach the formed sheets together and support the assembly when loaded.
A wireless target system unit for a weapon effect simulation system, comprising a radio transmitter and receiver arranged for communication with a control system, the wireless target system unit further comprising a laser receiver arranged for receiving laser light from an attacking system, characterized in that said wireless target system unit comprises two retro-reflecting prisms arranged to retro-reflect an incident laser light from an attacking system, said laser light has a laser pulse pattern comprising of a first laser lobe , a second laser lobe and a third laser lobe , wherein each reflecting centre of said retro-reflecting prisms and a sensor centre of said laser receiver are mounted such that they form an isosceles triangle, and that the distance (D1, D2) between the reflecting centre of each said retro-reflecting prism and the sensor centre of said laser receiver are equal, wherein said isosceles triangle form of said reflecting centres of said retro-reflecting prisms and said sensor centre of said laser receiver is arranged to correspond with said laser pulse pattern .
A mechanism for releasing a plate from a recess in a tire mold part , the mechanism comprising a bolt or rod insertable into a hole in the tire mold part and extending from a first end at an outer surface of the tire mold part to a second end at a recess for a slug, plate or pocket plate in the tire mold part , the second end of the bolt or rod having an axially extending projection allowing a manipulation of the bolt or rod about an axis , characterized in that the projection is defined by two diametrically opposite curved surfaces interconnected by two diametrically opposite planar surfaces .