mhurhangee/patent-ind-claim-en huggingface dataset:
A telecommunications network , comprising: a core network device communicatively connectable with a user equipment , wherein the core network device is configured, during a pre-alerting phase of a communication session, to: transmit to the user equipment an invitation to initiate a communication session with another device via a first access network ; receive , from the user equipment, session-progress information of the communication session with the user equipment; subsequently, receive a session-failure indication and determine action data based at least in part on the received session-failure indication; wherein, to determine the action data, the core network device is configured to retrieve the action data by mapping the received session-failure indication and an access network type of the first access network to corresponding action data from a data source, wherein the data source maps multiple, different instances of action data to multiple, different instances of session-failure indications and multiple, different access network types, with at least two different instances of session-failure indications mapping to two different access network types; and wherein the core network device is configured to determine whether the determined action data indicates a retry, and in response to the determined action data indicating a retry, to re-initiate the communication session via one of the first access network or a second access network , where the one of the first access network or the second access network is indicated in the determined action data. transmit to the user equipment an invitation to initiate a communication session with another device via a first access network ; receive , from the user equipment, session-progress information of the communication session with the user equipment; subsequently, receive a session-failure indication and determine action data based at least in part on the received session-failure indication; wherein, to determine the action data, the core network device is configured to retrieve the action data by mapping the received session-failure indication and an access network type of the first access network to corresponding action data from a data source, wherein the data source maps multiple, different instances of action data to multiple, different instances of session-failure indications and multiple, different access network types, with at least two different instances of session-failure indications mapping to two different access network types; and wherein the core network device is configured to determine whether the determined action data indicates a retry, and in response to the determined action data indicating a retry, to re-initiate the communication session via one of the first access network or a second access network , where the one of the first access network or the second access network is indicated in the determined action data.
A method of forming a crystalline Boehmite product having an average particle size d 50 that is greater than 100 nanometers and less than 3000 nanometers, and a crystallite size that is in a range of 30 nanometers to 120 nanometers, the method comprising: providing a highly dispersible grade of Boehmite obtained from a precipitation process using heat and/or shear with concentrations of 0.5% to 7.5% mineral or organic acid relative to the alumina content, the highly dispersible grade of Boehmite defined by greater than 95% of the Boehmite being configured to disperse in a water medium as particles that have an average size of less than 100 nm and act as a seed material; providing the water medium; adding an organic dispersing agent to the water medium with mixing; mixing large aluminum oxide precursors in the form of coarse grade Gibbsite having an average particle size d 50 of 50 micrometers or more and the highly dispersible grade of Boehmite, with the water medium and organic dispersing agent to form an aqueous slurry; adjusting the pH of the slurry to be between 8,0 to 12,0; heating the slurry to a temperature between 120°C and 250°C for a duration of time that is from 1,0 hour up to 24 hours; collecting the slurry to form a wet cake; and drying the wet cake to obtain the crystalline Boehmite product; wherein the water represents 60% to 90%, the large aluminum oxide precursors represent 10% to 30%, and the organic dispersing agent represents 0,001% to 0,02% of the overall weight of the aqueous slurry and the highly dispersible grade of Boehmite is present in a ratio to the large aluminum oxide precursors of 0,05 to 0,25. providing a highly dispersible grade of Boehmite obtained from a precipitation process using heat and/or shear with concentrations of 0.5% to 7.5% mineral or organic acid relative to the alumina content, the highly dispersible grade of Boehmite defined by greater than 95% of the Boehmite being configured to disperse in a water medium as particles that have an average size of less than 100 nm and act as a seed material; providing the water medium; adding an organic dispersing agent to the water medium with mixing; mixing large aluminum oxide precursors in the form of coarse grade Gibbsite having an average particle size d 50 of 50 micrometers or more and the highly dispersible grade of Boehmite, with the water medium and organic dispersing agent to form an aqueous slurry; adjusting the pH of the slurry to be between 8,0 to 12,0; heating the slurry to a temperature between 120°C and 250°C for a duration of time that is from 1,0 hour up to 24 hours; collecting the slurry to form a wet cake; and drying the wet cake to obtain the crystalline Boehmite product; wherein the water represents 60% to 90%, the large aluminum oxide precursors represent 10% to 30%, and the organic dispersing agent represents 0,001% to 0,02% of the overall weight of the aqueous slurry and the highly dispersible grade of Boehmite is present in a ratio to the large aluminum oxide precursors of 0,05 to 0,25.
Apparatus (100; 100a; 100b) for measuring a physical parameter, comprising a series connection of at least a first electrical impedance and a second electrical impedance , wherein said first electrical impedance has a first terminal and a second terminal , wherein an impedance value of at least said first electrical impedance depends on said physical parameter, wherein said second electrical impedance has a first terminal and a second terminal , and wherein said second terminal of said first electrical impedance is connected to said first terminal of said second electrical impedance forming a first node (N1), wherein said apparatus (100; 100a; 100b) further comprises a signal generator configured to apply a first amplitude modulated signal (s_am1; s_am1') to said first terminal of said first electrical impedance and a second amplitude modulated signal (s_am2; s_am2') to said second terminal of said second electrical impedance , said apparatus (100; 100a; 100b) further comprising an evaluation device configured to receive a first measurement signal (s_m1; s_m1') from said first node (N1) and to determine information on said at least one physical parameter depending on said first measurement signal (s_m1; s_m1').
An electronic device comprising a circuit substrate configured to carry a GPS receiver module and/or a processor , and a moulded interconnect device configured to carry a navigation unit which includes an inertial sensor unit , the moulded interconnect device being moulded from a plastics material and incorporating integral legs to mount the interconnect device upon the substrate , the legs spacing at least part of the interconnect device from the substrate , at least one of the legs carrying a conducting track to provide an electrical interconnection between the interconnect device and the substrate , wherein the conducting track is formed integrally with the interconnect device , and wherein the conducting track comprises a sloping track extending over part of the at least one of the legs .
Driver unit for a voltage-controlled switching element , comprising - a first output terminal for connecting a control terminal of the switching element , - a second output terminal for connecting a further terminal of the switching element , - an output stage section having an output terminal connected to the first output terminal of the driver unit , a high-side terminal and a low-side terminal and being controllable to connect one of its high-side terminal or low-side terminal to the first output terminal of the driver unit based on a control signal representative for switching the switching element , wherein, when the control signal is indicative for switching on the switching element , the high-side terminal is connected to the output terminal of the output stage section and, when the control signal is indicative for switching off the switching element , the low-side terminal is connected to the output terminal of the output stage section and - a DC conversion section configured to supply the output stage section and to convert an input voltage into a positive first voltage between the high-side terminal and the second output terminal of the driver unit and into a positive second voltage between the second output terminal of the driver unit and the low-side terminal , characterized in that the DC conversion section is configured to provide the first voltage and the second voltage such that, when a value of the first voltage is above a threshold value, with an increase of the input voltage a value of the second voltage is configured to increase more than the first voltage . - a first output terminal for connecting a control terminal of the switching element , - a second output terminal for connecting a further terminal of the switching element , - an output stage section having an output terminal connected to the first output terminal of the driver unit , a high-side terminal and a low-side terminal and being controllable to connect one of its high-side terminal or low-side terminal to the first output terminal of the driver unit based on a control signal representative for switching the switching element , wherein, when the control signal is indicative for switching on the switching element , the high-side terminal is connected to the output terminal of the output stage section and, when the control signal is indicative for switching off the switching element , the low-side terminal is connected to the output terminal of the output stage section and - a DC conversion section configured to supply the output stage section and to convert an input voltage into a positive first voltage between the high-side terminal and the second output terminal of the driver unit and into a positive second voltage between the second output terminal of the driver unit and the low-side terminal , characterized in that the DC conversion section is configured to provide the first voltage and the second voltage such that, when a value of the first voltage is above a threshold value, with an increase of the input voltage a value of the second voltage is configured to increase more than the first voltage .
A tool for lowering , alternatively later retrieval, of a flexible pipeline end (E2) which is provided with a connecting part designed for horizontal mating and connection with a first connecting part on the sea bed, the tool being configured to be brought to the surface again for reuse, wherein the tool comprises - a central lifting frame , - a guiding part forming an extension of the lifting frame , wherein said tool includes gripping mechanisms being actuatable to partly circumscribe and retain the pipeline end (E2) when lowering or retrieving the pipeline end (E2) relative the seabed, and being releasable to release the pipeline end (E2) from the lifting frame when the tool is to be brought to the surface for reuse, characterised in that the tool further comprises - a lifting yoke having two rods pivotally connected to the lifting frame via axle pins , said guiding part comprising a bail structure configured to mate with an upwardly projecting Y-structure of the first connecting part when lowered towards the seabed. - a central lifting frame , - a guiding part forming an extension of the lifting frame , wherein said tool includes gripping mechanisms being actuatable to partly circumscribe and retain the pipeline end (E2) when lowering or retrieving the pipeline end (E2) relative the seabed, and being releasable to release the pipeline end (E2) from the lifting frame when the tool is to be brought to the surface for reuse, characterised in that the tool further comprises - a lifting yoke having two rods pivotally connected to the lifting frame via axle pins ,
An all-solid state lithium battery, comprising: a positive electrode containing a positive electrode active material; a negative electrode containing a negative electrode active material; and a composite structure interposed between the positive electrode and the negative electrode ; wherein the composite structure comprises: a compact layer made of a solid electrolyte; and a porous layer which contains the solid electrolyte and is integrally formed with the compact layer without having a bonding interface, wherein at least one of the compact layer and the porous layer contains a sintering aid, and the porous layer has a relative density as defined in the description in a range of 40% or more and 60% or less. a positive electrode containing a positive electrode active material; a negative electrode containing a negative electrode active material; and a composite structure interposed between the positive electrode and the negative electrode ; wherein the composite structure comprises: a compact layer made of a solid electrolyte; and a porous layer which contains the solid electrolyte and is integrally formed with the compact layer without having a bonding interface, wherein at least one of the compact layer and the porous layer contains a sintering aid, and the porous layer has a relative density as defined in the description in a range of 40% or more and 60% or less. a compact layer made of a solid electrolyte; and a porous layer which contains the solid electrolyte and is integrally formed with the compact layer without having a bonding interface, wherein at least one of the compact layer and the porous layer contains a sintering aid, and the porous layer has a relative density as defined in the description in a range of 40% or more and 60% or less.
An image capturing device, comprising: a sensor array (210; 310); a lens (230; 330) positioned at a first distance from an intermediate image ; and a polychromat (220; 320) positioned at a second distance from the lens (230; 330), the polychromat being configured with patterned multiple pixel heights, the polychromat (220; 320) being configured to diffract the intermediate image according to a transform function to produce a dispersed sensor image onto the sensor array (210; 310), the dispersed sensor image representing a spatial code of the intermediate image, wherein the polychromat (220; 320) is incorporated directly onto the sensor array (210; 310) with a gap between the polychromat and the sensor array. a sensor array (210; 310); a lens (230; 330) positioned at a first distance from an intermediate image ; and a polychromat (220; 320) positioned at a second distance from the lens (230; 330), the polychromat being configured with patterned multiple pixel heights, the polychromat (220; 320) being configured to diffract the intermediate image according to a transform function to produce a dispersed sensor image onto the sensor array (210; 310), the dispersed sensor image representing a spatial code of the intermediate image, wherein the polychromat (220; 320) is incorporated directly onto the sensor array (210; 310) with a gap between the polychromat and the sensor array.
A powder dispersion comprising a powder of a first polymer having units based on tetrafluoroethylene and an oxygen-containing polar group, a powder of a second polymer containing units based on a fluoroolefin, wherein the second polymer is a polymer having no oxygen-containing polar group, a dispersing agent, and a liquid dispersion medium, wherein the ratio of the mass content of the first polymer to the mass content of the second polymer is at most 0.7.
Heating device for heating a building, having a heat pump with a first heat exchanger , having a hot-water store for drinking water with a storage tank and with a hot-water heat exchanger arranged in the storage tank, and having a heat-fluid-transport device with a primary-circuit pump and with at least one first heating-circuit connection and with one second heating-circuit connection , wherein the heat-fluid-transport device is able to be filled with a heat fluid and is configured to transport and to distribute the heat fluid , wherein a first secondary side of the first heat exchanger is connected fluidically to the first and/or second heating-circuit connection , characterized in that , in addition to the hot-water store , the heat-fluid-transport device has a small store with a storage container for intermediate storage of the heat fluid , wherein the storage container is thermally insulated and has a significantly smaller volumetric capacity for intermediate storage of the heat fluid than the storage tank , wherein the small store is connected fluidically to the first heating-circuit connection and/or to the first secondary side of the first heat exchanger , wherein the primary-circuit pump is configured to convey the heat fluid between the first secondary side and the small store .
Timepiece which includes, in addition to a crystal, the following external elements: a back cover , a middle part , a dial , a bezel and two wristband strands , wherein at least one of these external elements is at least partially transparent or translucent, the back cover , the middle part and the bezel define an internal volume of the watch case which houses a watch movement (M), the timepiece includes at least one light source housed in the internal volume of the watch case and producing a light which passes through the transparent or translucent part of the external element concerned, the timepiece further includes, on the side of a crystal , a digital display underneath which there is arranged a light guide into which the light produced by the light source is injected for back lighting said digital display , and the timepiece is characterized in that the light which escapes through the sides of the light guide which are opposite the middle part and the back cover of the watch case pass through the transparent or translucent part of the external element concerned, the external element concerned is made of a transparent or translucent material selected from the group comprising plastic materials, ceramic materials, sapphire or silica glass, the external element concerned is dyed in the mass except at the location(s) where the light is required to escape from the internal volume of the watch case .
Gas turbine engine with a geared turbofan arrangement with a gearbox in a drive shaft assembly driven by a turbine , the drive shaft assembly comprising a shaft connecting at least one propulsive fan to the gearbox , the shaft comprising a fan shaft , a thrust shaft and a torque bearing coupling , the torque bearing coupling connecting the shaft with the gearbox at the junction of the fan shaft and the thrust shaft , a driving side of the gearbox being driveably connected with the at least one propulsive fan , with at least one mechanical fuse in the drive shaft assembly enabling a controlled disengagement of at least one engine part from the drive shaft assembly in case of a mechanical failure of the gas turbine engine or a part thereof and at least one load stop for bearing a load and for retaining the at least one propulsive fan in the gas turbine engine , in case of the mechanical failure of the gas turbine or a part thereof, wherein a first mechanical fuse is positioned in a torque carrying shaft or a torque carrying part of the shaft .
A polishing composition comprising an abrasive, a water-soluble polymer and water, the composition comprising, as the water-soluble polymer, a polymer A having an adsorption ratio of lower than 5 % and a polymer B having an adsorption ratio of 5 % or higher, but lower than 95 % based on an adsorption ratio measurement as follows: a test solution L0 is obtained, comprising 0.018 % by mass of a measured polymer and 0.01 % by mass of ammonia with the rest being water; a test solution L1 is obtained, comprising 0.18 % by mass of the abrasive as well as 0.018 % by mass of the measured polymer and 0.01 % by mass of ammonia with the rest being water; the test solution L1 is centrifuged to precipitate the abrasive; and the measured polymer in the test solution L0 has a mass W0, the measured polymer in the supernatant of the centrifuged test solution L1 has a mass W1, and the measured polymer has an adsorption ratio determined by the next equation: Adsorption ratio % = W0 − W1 / W0 × 100 ; wherein the polymer A is a nonionic polymer selected from a vinyl alcohol-based polymer and an oxyalkylene unit-containing polymer, and the polymer B is selected from nitrogen atom-containing polymers excluding hydroxyethyl celluloses, and wherein the abrasive is silica grains. a polymer A having an adsorption ratio of lower than 5 % and a polymer B having an adsorption ratio of 5 % or higher, but lower than 95 % based on an adsorption ratio measurement as follows: a test solution L0 is obtained, comprising 0.018 % by mass of a measured polymer and 0.01 % by mass of ammonia with the rest being water; a test solution L1 is obtained, comprising 0.18 % by mass of the abrasive as well as 0.018 % by mass of the measured polymer and 0.01 % by mass of ammonia with the rest being water; the test solution L1 is centrifuged to precipitate the abrasive; and the measured polymer in the test solution L0 has a mass W0, the measured polymer in the supernatant of the centrifuged test solution L1 has a mass W1, and the measured polymer has an adsorption ratio determined by the next equation: Adsorption ratio % = W0 − W1 / W0 × 100 ; a test solution L0 is obtained, comprising 0.018 % by mass of a measured polymer and 0.01 % by mass of ammonia with the rest being water; a test solution L1 is obtained, comprising 0.18 % by mass of the abrasive as well as 0.018 % by mass of the measured polymer and 0.01 % by mass of ammonia with the rest being water; the test solution L1 is centrifuged to precipitate the abrasive; and the measured polymer in the test solution L0 has a mass W0, the measured polymer in the supernatant of the centrifuged test solution L1 has a mass W1, and the measured polymer has an adsorption ratio determined by the next equation: Adsorption ratio % = W0 − W1 / W0 × 100 ; wherein the polymer A is a nonionic polymer selected from a vinyl alcohol-based polymer and an oxyalkylene unit-containing polymer, and the polymer B is selected from nitrogen atom-containing polymers excluding hydroxyethyl celluloses, and wherein the abrasive is silica grains.