mhurhangee/patent-ind-claim-en huggingface dataset:
An access node configured to adapt a reporting period for a user equipment , wherein the user equipment is configured for a primary carrier and a secondary carrier , and wherein the access node interfaces with the user equipment and a control node , the access node comprising: at least one processor ; and, at least one memory that stores processor-executable instructions, wherein the at least one processor interfaces with the at least one memory to execute the processor-executable instructions, whereby the access node is configured to: receive , from the user equipment, a first feedback message containing a first channel quality indicator, CQI, of the secondary carrier; compute a Doppler frequency (F d2 ) of the secondary carrier using the first CQI of the secondary carrier; compute a Doppler frequency (F d1 ) of the primary carrier using the computed Doppler frequency (F d2 ) of the secondary carrier; select a second reporting period for the user equipment based on the computed Doppler frequency (F d1 ) of the primary carrier, wherein the selected second reporting period indicates how often the user equipment is to send a second feedback message containing a second CQI of the secondary carrier; and, communicate the selected second reporting period for the user equipment to the control node. at least one processor ; and, at least one memory that stores processor-executable instructions, wherein the at least one processor interfaces with the at least one memory to execute the processor-executable instructions, whereby the access node is configured to: receive , from the user equipment, a first feedback message containing a first channel quality indicator, CQI, of the secondary carrier; compute a Doppler frequency (F d2 ) of the secondary carrier using the first CQI of the secondary carrier; compute a Doppler frequency (F d1 ) of the primary carrier using the computed Doppler frequency (F d2 ) of the secondary carrier; select a second reporting period for the user equipment based on the computed Doppler frequency (F d1 ) of the primary carrier, wherein the selected second reporting period indicates how often the user equipment is to send a second feedback message containing a second CQI of the secondary carrier; and, communicate the selected second reporting period for the user equipment to the control node. receive , from the user equipment, a first feedback message containing a first channel quality indicator, CQI, of the secondary carrier; compute a Doppler frequency (F d2 ) of the secondary carrier using the first CQI of the secondary carrier; compute a Doppler frequency (F d1 ) of the primary carrier using the computed Doppler frequency (F d2 ) of the secondary carrier; select a second reporting period for the user equipment based on the computed Doppler frequency (F d1 ) of the primary carrier, wherein the selected second reporting period indicates how often the user equipment is to send a second feedback message containing a second CQI of the secondary carrier; and, communicate the selected second reporting period for the user equipment to the control node.
A liquid ejecting apparatus comprising: a liquid ejecting head configured to eject a liquid to a medium; a wiping mechanism configured to wipe a liquid ejection surface of the liquid ejecting head and including a wiper portion configured to wipe the liquid ejection surface by moving in a direction along the liquid ejection surface; an electric portion including a substrate having a surface, the electric portion being a part related to control of the apparatus; and a power supply portion configured to function as a power supply source for the liquid ejecting apparatus, wherein a moving direction (Y) of the wiper portion is a direction along the liquid ejection surface, in use, and intersecting a transport direction of the medium, and an apparatus height direction (Z) is a vertical direction in use of the liquid ejecting apparatus and is orthogonal to the moving direction (Y) of the wiper portion, characterized in that at least part of the electric portion overlaps at least part of the power supply portion along the moving direction (Y) of the wiper portion, when viewed along the apparatus height direction (Z), and the at least part of the electric portion and the at least part of the power supply portion overlap part of the wiping mechanism along the moving direction of the wiper portion, when viewed along the apparatus height direction (Z). a liquid ejecting head configured to eject a liquid to a medium; a wiping mechanism configured to wipe a liquid ejection surface of the liquid ejecting head and including a wiper portion configured to wipe the liquid ejection surface by moving in a direction along the liquid ejection surface; an electric portion including a substrate having a surface, the electric portion being a part related to control of the apparatus; and a power supply portion configured to function as a power supply source for the liquid ejecting apparatus, wherein a moving direction (Y) of the wiper portion is a direction along the liquid ejection surface, in use, and intersecting a transport direction of the medium, and an apparatus height direction (Z) is a vertical direction in use of the liquid ejecting apparatus and is orthogonal to the moving direction (Y) of the wiper portion, characterized in that at least part of the electric portion overlaps at least part of the power supply portion along the moving direction (Y) of the wiper portion, when viewed along the apparatus height direction (Z), and the at least part of the electric portion and the at least part of the power supply portion overlap part of the wiping mechanism along the moving direction of the wiper portion, when viewed along the apparatus height direction (Z).
A method for forming a multilayer coating film comprising the steps of: applying a base paint (X) to a substrate to form a base coating film, applying an effect pigment dispersion (Y) to the base coating film formed in step to form an effect coating film, applying a clear paint (Z) to the effect coating film formed in step to form a clear coating film, and heating the uncured base coating film, the uncured effect coating film, and the uncured clear coating film formed in steps to to thereby simultaneously cure these three coating films; wherein the effect pigment dispersion (Y) contains water, a black pigment (A), a vapor deposition metal flake pigment (B), and a rheology control agent (C), and wherein the rheology control agent (C) is at least one selected from the group consisting of a polyacrylic acid-based rheology control agent and a cellulose-based rheology control agent. applying a base paint (X) to a substrate to form a base coating film, applying an effect pigment dispersion (Y) to the base coating film formed in step to form an effect coating film, applying a clear paint (Z) to the effect coating film formed in step to form a clear coating film, and heating the uncured base coating film, the uncured effect coating film, and the uncured clear coating film formed in steps to to thereby simultaneously cure these three coating films; wherein the effect pigment dispersion (Y) contains water, a black pigment (A), a vapor deposition metal flake pigment (B), and a rheology control agent (C), and wherein the rheology control agent (C) is at least one selected from the group consisting of a polyacrylic acid-based rheology control agent and a cellulose-based rheology control agent. wherein the effect pigment dispersion (Y) contains water, a black pigment (A), a vapor deposition metal flake pigment (B), and a rheology control agent (C), and wherein the rheology control agent (C) is at least one selected from the group consisting of a polyacrylic acid-based rheology control agent and a cellulose-based rheology control agent.
A composition comprising: Component (A) comprising a silsesquioxane polymer comprising a three-dimensional network of Formula (I): wherein: each R 1 and R 2 is independently a (C1-C4)alkyl; each L 1 and L 2 is independently a single bond, an alkylene, or an alkylene bonded to a group selected from oxy, thio, carbonyl, -NH-, and combinations thereof; each R 3 is independently a linear (C14-C100)alkyl; each R 5 is independently a (C1-C30)alkyl, a (C1-C30)fluorinated alkyl, or a (C2-C30)heteroalkyl having at least one oxygen, sulfur, or -NH- group; with the proviso that L 1 , L 2 , and R 5 are selected such that each Si atom is directly bonded to an alkylene or an alkyl; m is an integer of at least 2; n is an integer of 0 or above; m + n is an integer of at least 10; each oxygen atom at an asterisk (*) is bonded to another Si atom within the three-dimensional network; and the silsesquioxane polymer is a solid at 25°C; and Component (B) comprising a free siloxane. Component (A) comprising a silsesquioxane polymer comprising a three-dimensional network of Formula (I): wherein: each R 1 and R 2 is independently a (C1-C4)alkyl; each L 1 and L 2 is independently a single bond, an alkylene, or an alkylene bonded to a group selected from oxy, thio, carbonyl, -NH-, and combinations thereof; each R 3 is independently a linear (C14-C100)alkyl; each R 5 is independently a (C1-C30)alkyl, a (C1-C30)fluorinated alkyl, or a (C2-C30)heteroalkyl having at least one oxygen, sulfur, or -NH- group; with the proviso that L 1 , L 2 , and R 5 are selected such that each Si atom is directly bonded to an alkylene or an alkyl; m is an integer of at least 2; n is an integer of 0 or above; m + n is an integer of at least 10; each oxygen atom at an asterisk (*) is bonded to another Si atom within the three-dimensional network; and the silsesquioxane polymer is a solid at 25°C; and each R 1 and R 2 is independently a (C1-C4)alkyl; each L 1 and L 2 is independently a single bond, an alkylene, or an alkylene bonded to a group selected from oxy, thio, carbonyl, -NH-, and combinations thereof; each R 3 is independently a linear (C14-C100)alkyl; each R 5 is independently a (C1-C30)alkyl, a (C1-C30)fluorinated alkyl, or a (C2-C30)heteroalkyl having at least one oxygen, sulfur, or -NH- group; with the proviso that L 1 , L 2 , and R 5 are selected such that each Si atom is directly bonded to an alkylene or an alkyl; m is an integer of at least 2; n is an integer of 0 or above; m + n is an integer of at least 10; each oxygen atom at an asterisk (*) is bonded to another Si atom within the three-dimensional network; and the silsesquioxane polymer is a solid at 25°C; and Component (B) comprising a free siloxane.
A flushing system for flushing fluid through a primary pipe between a first point on the primary pipe, and a second point downstream thereof, the system comprising of an additional, inner pipe arranged, in use, to sit within the primary pipe , and having an open port at the second point , and wherein a fluid path is provided to allow fluid to flow down one of the primary or additional inner pipe , through the open port , and back through the other pipe to the first point, and further wherein an exit port is provided at the first point for the fluid, wherein the system comprises of a unit, suitable for fitting to the primary pipe at the first point, characterised in that the unit has at least three ports, wherein a first port is adapted to be connected to an upstream portion of the primary pipe, a second port is adapted to be connected to a downstream portion of the primary pipe, and wherein the exit port comprises of the third port, and wherein the third port has fitted thereto, or downstream thereof, a valve for respectively allowing or stopping the flow of fluid therefrom.
A system for remotely and non-invasively monitoring a plasma source in a plasma chamber , said system comprising: a magnetic field antenna positioned, in use, in the near electromagnetic field of the plasma source , wherein the magnetic field antenna is a magnetic loop antenna, which, in use, is placed in the near electromagnetic field, remote from the plasma chamber , and is inductively coupled to the plasma source , and wherein the magnetic loop antenna is adapted to measure near field signals emitted from the plasma source .
An automatic vessel cannulation device comprising: a housing having a distal end with a distal tip and a proximal end; a lumen passing through the distal end and the proximal end; a needle at the distal tip of the housing, wherein the needle having a needle tip; a sensor operably coupled to the lumen , wherein the sensor being configured to detect a combination of physiologic parameters at the needle tip; and a blunting device advancing member configured to advance a blunting device through the lumen , wherein the blunting device advancing member is operably coupled to the sensor , wherein the blunting device advancing member is configured to automatically advance the blunting device when the sensor detects that the combination of physiologic parameters are within a pre-determined range. a housing having a distal end with a distal tip and a proximal end; a lumen passing through the distal end and the proximal end; a needle at the distal tip of the housing, wherein the needle having a needle tip; a sensor operably coupled to the lumen , wherein the sensor being configured to detect a combination of physiologic parameters at the needle tip; and a blunting device advancing member configured to advance a blunting device through the lumen , wherein the blunting device advancing member is operably coupled to the sensor , wherein the blunting device advancing member is configured to automatically advance the blunting device when the sensor detects that the combination of physiologic parameters are within a pre-determined range.
A method for determining a calorific value of a fuel gas in a gas network section for use for gas billing of consumers in the gas network section, the method comprising: a) determining (S101) a calorific value of a fuel gas (Bv) by at least one consumer in the gas network section; b) transmitting (S102) the calorific value (Bv) determined in step a) and position data (P) of the at least one consumer to a central unit ; c) determining (S103) the calorific value of the fuel gas in the gas network section (B Z ) by the central unit based on the transmitted calorific value (B V ) and the position data (P); and d) outputting (S104) the calorific value of the fuel gas in the gas network section (Bz) by the central unit for use for gas billing of consumers in the gas network section, characterized in that the at least one consumer is a gas heating boiler and in step a) the calorific value of the fuel gas (B V ) is determined by the at least one consumer on the basis of a relationship between degree of modulation, thermal load and air mass flow or on the basis of a relationship between thermal power and efficiency. a) determining (S101) a calorific value of a fuel gas (Bv) by at least one consumer in the gas network section; b) transmitting (S102) the calorific value (Bv) determined in step a) and position data (P) of the at least one consumer to a central unit ; c) determining (S103) the calorific value of the fuel gas in the gas network section (B Z ) by the central unit based on the transmitted calorific value (B V ) and the position data (P); and d) outputting (S104) the calorific value of the fuel gas in the gas network section (Bz) by the central unit for use for gas billing of consumers in the gas network section,
Test point card device for a test bench for testing a wire harness or a cable loom, comprising a test point card , comprising: - a plurality of test points , - modules for receiving one connector each of the cable loom or the wire harness, whereby in a module always one or more test points are housed or contacted, - a current and voltage connector for connecting a power cable with at least one supply voltage line and a ground line as power supply for the modules , where a power supply interrupter device is provided by means of which the at least one supply voltage line and the grounds line can be separated from the modules , characterized in that the test point card comprises a test point control unit for controlling the individual test points and data communication with a central control unit of the test bench , said power supply interrupter device is provided with a control input for separating the lines upon receipt of an interrupt signal (S1), a control line is connected between a test point serving as control test point and said control input , where each test point can be contacted as control test point via the control line , and - said test point control unit is designed to put out, upon receipt of an external shut-down request signal (S2), an interrupt signal (S1) via said control test point and said control line to said control input of said power supply interrupter device . - a plurality of test points , - modules for receiving one connector each of the cable loom or the wire harness, whereby in a module always one or more test points are housed or contacted, - a current and voltage connector for connecting a power cable with at least one supply voltage line and a ground line as power supply for the modules , characterized in that the test point card comprises a test point control unit for controlling the individual test points and data communication with a central control unit of the test bench , said power supply interrupter device is provided with a control input for separating the lines upon receipt of an interrupt signal (S1), a control line is connected between a test point serving as control test point and said control input , where each test point can be contacted as control test point via the control line , and - said test point control unit is designed to put out, upon receipt of an external shut-down request signal (S2), an interrupt signal (S1) via said control test point and said control line to said control input of said power supply interrupter device . - said test point control unit is designed to put out, upon receipt of an external shut-down request signal (S2), an interrupt signal (S1) via said control test point and said control line to said control input of said power supply interrupter device .
A telecommunications panel assembly comprising: a chassis including a front , the chassis further defining a top , a bottom , and two sides ; a plurality of adapter mounting modules mounted to the chassis at the front , each adapter mounting module defining a first wall separated from a second opposing parallel wall by an opening , each adapter mounting module defining a plurality of adapter mounting locations, each configured to slidably receive at least one adapter block defining a plurality of fiber optic adapters in an insertion direction; wherein each adapter mounting location defines a flexible cantilever arm at the first wall for latching with the at least one adapter block and a corresponding third wall extending perpendicularly from the second wall toward the flexible cantilever arm , the third wall defining a keying slot for orienting the at least one adapter block in the correct orientation for insertion into the adapter mounting module , the third wall also defining a positive stop surface for limiting further movement of the at least one adapter block in the insertion direction , wherein at least one of the adapter mounting locations is configured such that two adjacent adapter blocks can share the same flexible cantilever arm at the first wall and the corresponding third wall extending perpendicularly from the second wall toward the flexible cantilever arm in keying and latching the adapter blocks to the adapter mounting module . a chassis including a front , the chassis further defining a top , a bottom , and two sides ; a plurality of adapter mounting modules mounted to the chassis at the front , each adapter mounting module defining a first wall separated from a second opposing parallel wall by an opening , each adapter mounting module defining a plurality of adapter mounting locations, each configured to slidably receive at least one adapter block defining a plurality of fiber optic adapters in an insertion direction; wherein each adapter mounting location defines a flexible cantilever arm at the first wall for latching with the at least one adapter block and a corresponding third wall extending perpendicularly from the second wall toward the flexible cantilever arm , the third wall defining a keying slot for orienting the at least one adapter block in the correct orientation for insertion into the adapter mounting module , the third wall also defining a positive stop surface for limiting further movement of the at least one adapter block in the insertion direction , wherein at least one of the adapter mounting locations is configured such that two adjacent adapter blocks can share the same flexible cantilever arm at the first wall and the corresponding third wall extending perpendicularly from the second wall toward the flexible cantilever arm in keying and latching the adapter blocks to the adapter mounting module .
A plasma generation device comprising: a device main body in which a reaction chamber for plasmatizing a processing gas is formed; a ceramic nozzle in which a first ejection port for ejecting a plasma gas that is plasmatized in the reaction chamber is formed; and a nozzle cover in which a second ejection port for ejecting a gas so as to cover the plasma gas is formed to cover the first ejection port , wherein the nozzle cover includes a cover main body formed of ceramic, and a cover tip wherein the cover tip is shaped so as to extend in a direction away from the cover main body , so that the cover main body is closer to the reaction chamber and the cover tip is distant from the reaction chamber , characterised in that the cover tip is made of metal. a device main body in which a reaction chamber for plasmatizing a processing gas is formed; a ceramic nozzle in which a first ejection port for ejecting a plasma gas that is plasmatized in the reaction chamber is formed; and a nozzle cover in which a second ejection port for ejecting a gas so as to cover the plasma gas is formed to cover the first ejection port , wherein the nozzle cover includes a cover main body formed of ceramic, and a cover tip wherein the cover tip is shaped so as to extend in a direction away from the cover main body , so that the cover main body is closer to the reaction chamber and the cover tip is distant from the reaction chamber , characterised in that the cover tip is made of metal. a cover main body formed of ceramic, and a cover tip wherein the cover tip is shaped so as to extend in a direction away from the cover main body , so that the cover main body is closer to the reaction chamber and the cover tip is distant from the reaction chamber , characterised in that the cover tip is made of metal.