mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid discharging apparatus comprising: a transport section for a medium (P); a line head in which nozzles (N) discharging liquid in an intersecting direction (B) that intersects a direction (A) of transporting the medium (P) are arrayed; a sensor that is capable of detecting an end portion of the medium (P) in the intersecting direction (B); and a controller that controls discharging of the liquid, wherein the transport section is movable in the intersecting direction (B), wherein the controller sets a position of the transport section in the intersecting direction (B) based on a detection result of the sensor , and characterized in that , in a case in which a length in the intersecting direction (B) of the medium (P) based on the detection result of the scan sensor is shorter than a length in which the nozzles (N) are arrayed in the intersecting direction (B), the controller is adapted to set the position of the transport section in the intersecting direction (B) to a position where the nozzles (N) of an end portion side of the line head in the intersecting direction (B) do not face the medium (P). a transport section for a medium (P); a line head in which nozzles (N) discharging liquid in an intersecting direction (B) that intersects a direction (A) of transporting the medium (P) are arrayed; a sensor that is capable of detecting an end portion of the medium (P) in the intersecting direction (B); and a controller that controls discharging of the liquid, wherein the transport section is movable in the intersecting direction (B), wherein the controller sets a position of the transport section in the intersecting direction (B) based on a detection result of the sensor , and characterized in that , in a case in which a length in the intersecting direction (B) of the medium (P) based on the detection result of the scan sensor is shorter than a length in which the nozzles (N) are arrayed in the intersecting direction (B), the controller is adapted to set the position of the transport section in the intersecting direction (B) to a position where the nozzles (N) of an end portion side of the line head in the intersecting direction (B) do not face the medium (P).
A bus arrangement, comprising - a coordinator , - a first device with a first optical display , - a second device with a second optical display , - a third device with a third optical display and - a bus which couples the coordinator to the first, second and third devices , wherein, in a standard operating phase, the first device is designed to display first local information of the first device on the first optical display , the second device is designed to display second local information of the second device on the second optical display , and the third device is designed to display third local information of the third device on the third optical display , characterized in that the coordinator switches over from the standard operating phase to a display operating phase after the coordinator has detected an error in the first device , and then transmits second and third information to the second and third devices such that the second optical display and the third optical display form a running light in the direction of the first device . - a coordinator , - a first device with a first optical display , - a second device with a second optical display , - a third device with a third optical display and - a bus which couples the coordinator to the first, second and third devices , wherein, in a standard operating phase, the first device is designed to display first local information of the first device on the first optical display , the second device is designed to display second local information of the second device on the second optical display , and the third device is designed to display third local information of the third device on the third optical display ,
Container comprising in its inner volume a food product to be dispensed, the container volume being closed by a closure and comprising identification means ; the container being further provided with means designed to engage with corresponding driving means to displace the identification means according to a certain pre-defined path in order to allow its reading, characterized in that it further comprises a cap assembly provided with gears engaging with corresponding driving gears to allow rotational displacement of the container .
A method comprising: determining, by a first user equipment, from signaling received from a network access node on a decoded downlink control channel that a second user equipment is operating in a second transmission mode and is allocated a same radio resource as the first user equipment operating in a first transmission mode , wherein the transmission mode of the second user equipment is implicitly or explicitly indicated by or in a downlink control indication format; determining, by the first user equipment from signaling received from the network access node, a transport format for transmissions to the second user equipment ; using the determined transport format to decode a transmission received on the radio resource at the first user equipment which is directed to the second user equipment ; and canceling the decoded transmission to mitigate interference with a further transmission directed to the first user equipment . determining, by a first user equipment, from signaling received from a network access node on a decoded downlink control channel that a second user equipment is operating in a second transmission mode and is allocated a same radio resource as the first user equipment operating in a first transmission mode , wherein the transmission mode of the second user equipment is implicitly or explicitly indicated by or in a downlink control indication format; determining, by the first user equipment from signaling received from the network access node, a transport format for transmissions to the second user equipment ; using the determined transport format to decode a transmission received on the radio resource at the first user equipment which is directed to the second user equipment ; and canceling the decoded transmission to mitigate interference with a further transmission directed to the first user equipment .
Silver-coated alloy powder comprising a coating layer on a surface of an alloy core particle containing copper, nickel, zinc, and inevitable impurities, the coating layer containing silver, wherein in a total 100 mass% of copper, nickel, and zinc in the alloy core particle, a proportion of copper is 40 to 95 mass%, a proportion of nickel is 4 to 40 mass%, and a proportion of zinc is 1 to 30 mass%, and a value (TAP density/(true density × D 50 )) is 0.223 or more, the value (TAP density/(true density × D 50 )) being obtained by dividing a ratio of the TAP density to a true density of the silver-coated alloy powder by a volume-based cumulative 50% particle diameter (D 50 ) of the silver-coated alloy powder as measured by a laser diffraction particle size distribution measurement apparatus. in a total 100 mass% of copper, nickel, and zinc in the alloy core particle, a proportion of copper is 40 to 95 mass%, a proportion of nickel is 4 to 40 mass%, and a proportion of zinc is 1 to 30 mass%, and a value (TAP density/(true density × D 50 )) is 0.223 or more, the value (TAP density/(true density × D 50 )) being obtained by dividing a ratio of the TAP density to a true density of the silver-coated alloy powder by a volume-based cumulative 50% particle diameter (D 50 ) of the silver-coated alloy powder as measured by a laser diffraction particle size distribution measurement apparatus.
An in vitro method for diagnosing a breast cancer in a subject, comprising the steps of: a) determining from a serum sample of a subject the protein expression level of at least one biomarker, wherein said at least one biomarker is Neudesin; and b) comparing said expression level with a reference expression level of said biomarker. a) determining from a serum sample of a subject the protein expression level of at least one biomarker, wherein said at least one biomarker is Neudesin; and b) comparing said expression level with a reference expression level of said biomarker.
An ultra-large area scanning reactive ion etching machine, comprising: an injection chamber configured to inject a sample, withdraw the sample and buffer an etching process; an etching reaction chamber downstream of the injection chamber, and the etching reaction chamber is an reaction cavity configured to etch the sample; a transition chamber downstream of the etching reaction chamber and configured to buffer the etching process; an etching ion generation chamber in communication with the etching reaction chamber and configured to generate etching ions or plasma, and introduce the etching ions or plasma to the etching reaction chamber , wherein the etching reaction chamber is connected to the injection chamber and the transition chamber through channels (105-1, 105-2); wherein the sample is placed on a sample holder which is configured to move among the injection chamber , the etching reaction chamber and the transition chamber in a scanning direction, and the sample is etched by using the etching ions or plasma in the etching reaction chamber ; and wherein a size of the channel in a horizontal direction perpendicular to the scanning direction is configured to allow the sample to pass through, and is much smaller than a size of the reaction chamber in the horizontal direction perpendicular to the scanning direction. an injection chamber configured to inject a sample, withdraw the sample and buffer an etching process; an etching reaction chamber downstream of the injection chamber, and the etching reaction chamber is an reaction cavity configured to etch the sample; a transition chamber downstream of the etching reaction chamber and configured to buffer the etching process; an etching ion generation chamber in communication with the etching reaction chamber and configured to generate etching ions or plasma, and introduce the etching ions or plasma to the etching reaction chamber , wherein the etching reaction chamber is connected to the injection chamber and the transition chamber through channels (105-1, 105-2); wherein the sample is placed on a sample holder which is configured to move among the injection chamber , the etching reaction chamber and the transition chamber in a scanning direction, and the sample is etched by using the etching ions or plasma in the etching reaction chamber ; and wherein a size of the channel in a horizontal direction perpendicular to the scanning direction is configured to allow the sample to pass through, and is much smaller than a size of the reaction chamber in the horizontal direction perpendicular to the scanning direction.
Bitumen sheet with root protection for sealing off construction surfaces comprising an upper bitumen layer , a lower bitumen layer , at least one reinforcement layer and a root protection additive, wherein the reinforcement layer is arranged between the upper bitumen layer and the lower bitumen layer , within the upper bitumen layer and/or within the lower bitumen layer , wherein the upper bitumen layer contains no root protection additive, apart from possibly along part of an edge area on an edge R2 of the bitumen sheet , characterised in that the lower bitumen layer and/or the reinforcement layer contain(s) an organic root protection additive, wherein the lower bitumen layer as well as the upper bitumen layer and the reinforcement layer along at least one edge of the bitumen sheet comprises a lateral edge layer which does not contain any root protection additive and thus forms a first edge R1 of the bitumen sheet .
Screening device, in particular for use in a system for producing material panels, comprising a support frame and a screening unit , wherein the screening unit is suspended from the support frame by means of suspension elements in such a way that the screening unit can preferably move on a circular trajectory, wherein the screening unit comprises at least one screening module and a drive device , and wherein the drive device is arranged to set the screening unit into a preferably circular movement on the circular trajectory, characterized in that the screening device further comprises: at least one electromotively and/or hydraulically operating adjusting device , which is adapted to adjust the suspension of the screening unit on the support frame by means of the suspension elements in order to adjust an angle of inclination of the screening unit ; and a control unit for controlling the at least one adjusting device .
A method of making an additively manufactured metal component, said method comprising: (a) providing a metal-containing feedstock comprising a high-vapor-pressure metal and at least one other metal species different than said high-vapor-pressure metal; (b) exposing a first amount of said metal-containing feedstock to an energy source for melting said first amount of said metal-containing feedstock, thereby generating a first melt layer; and (c) solidifying said first melt layer, thereby generating a first solid layer of an additively manufactured metal component, wherein said metal-containing feedstock contains a higher concentration of said high-vapor-pressure metal compared to the concentration of said high-vapor-pressure metal in said first solid layer, wherein said metal-containing feedstock further comprises grain-refining nanoparticles, wherein said nanoparticles are 2000 nm or less in size, and wherein an enrichment ratio of wt% concentration of said high-vapor-pressure metal in said metal-containing feedstock to wt% concentration of said high-vapor-pressure metal in said first solid layer is at least 1.05. (a) providing a metal-containing feedstock comprising a high-vapor-pressure metal and at least one other metal species different than said high-vapor-pressure metal; (b) exposing a first amount of said metal-containing feedstock to an energy source for melting said first amount of said metal-containing feedstock, thereby generating a first melt layer; and (c) solidifying said first melt layer, thereby generating a first solid layer of an additively manufactured metal component, wherein said metal-containing feedstock contains a higher concentration of said high-vapor-pressure metal compared to the concentration of said high-vapor-pressure metal in said first solid layer, wherein said metal-containing feedstock further comprises grain-refining nanoparticles, wherein said nanoparticles are 2000 nm or less in size, and wherein an enrichment ratio of wt% concentration of said high-vapor-pressure metal in said metal-containing feedstock to wt% concentration of said high-vapor-pressure metal in said first solid layer is at least 1.05.
A fluid sampling and measuring assembly to take and analyse at least one fluid sample from at least one sampling station of an underwater hydrocarbon extraction and/or production facility , the sampling and measuring assembly (3; 36; 38; 39) comprising: - a sampling and measuring module , configured to sample and analyse a fluid sample; - a picking module configured to contain the fluid sample; - at least one navigation module (20; 21) configured to navigate in the body of water; - at least one interface module (17; 18) configured to hydraulically connect the sampling station , the sampling and measuring module and the picking module ; wherein the sampling and measuring module and the picking module are configured to be mechanically and hydraulically coupled to each other and to the sampling station to take and analyse the fluid sample and the picking module is configured to be coupled to the navigation module (20; 21) to transfer the fluid sample to an analysis laboratory; the fluid sampling and measuring assembly comprising a first releasable or permanent connecting device , configured to connect mechanically the interface module and the navigation module ; a second releasable connecting device configured to connect mechanically, hydraulically, electrically and for data exchange the interface module (17; 18) and the sampling and measuring module or the sampling station ; and a second permanent connecting device configured to connect mechanically, hydraulically, electrically and for data exchange the interface module and the picking module . - a sampling and measuring module , configured to sample and analyse a fluid sample; - a picking module configured to contain the fluid sample; - at least one navigation module (20; 21) configured to navigate in the body of water; - at least one interface module (17; 18) configured to hydraulically connect the sampling station , the sampling and measuring module and the picking module ; wherein the sampling and measuring module and the picking module are configured to be mechanically and hydraulically coupled to each other and to the sampling station to take and analyse the fluid sample and the picking module is configured to be coupled to the navigation module (20; 21) to transfer the fluid sample to an analysis laboratory;
A vehicle telematics device, comprising: a processor ; and a memory connected to the processor and storing a crash determination application; wherein the processor, on reading the crash determination application, is directed to: obtain sensor data from at least one sensor installed in a vehicle, wherein the at least one sensor comprises an accelerometer and a weight sensor; calculate peak resultant data based on the sensor data, where the peak resultant data describes the acceleration of the vehicle over a first time period; dynamically determine a set of crash curve data based on a weight of the vehicle, where the weight of the vehicle is determined based on the sensor data obtained from the weight sensor; generate crash score data based on the peak resultant data and the set of crash curve data for the vehicle, where the crash score data describes the likelihood that the vehicle was involved in a crash; and provide the obtained sensor data when the crash score data exceeds a crash threshold to a remote server system. a processor ; and a memory connected to the processor and storing a crash determination application; obtain sensor data from at least one sensor installed in a vehicle, wherein the at least one sensor comprises an accelerometer and a weight sensor; calculate peak resultant data based on the sensor data, where the peak resultant data describes the acceleration of the vehicle over a first time period; dynamically determine a set of crash curve data based on a weight of the vehicle, where the weight of the vehicle is determined based on the sensor data obtained from the weight sensor; generate crash score data based on the peak resultant data and the set of crash curve data for the vehicle, where the crash score data describes the likelihood that the vehicle was involved in a crash; and provide the obtained sensor data when the crash score data exceeds a crash threshold to a remote server system.
An apparatus for wrapping a load with packaging material , the apparatus comprising: a packaging material dispenser for dispensing packaging material to the load ; a load support for supporting the load during wrapping, wherein the packaging material dispenser and the load support are adapted for rotation relative to one another about a center of rotation ; characterized by a controller configured to control a dispense rate of the packaging material dispenser during the relative rotation based upon a wrap speed model, wherein the controller is further configured to offset system lag by applying a rotational data shift to the wrap speed model, wherein the controller is configured to apply the rotational data shift to the wrap speed model by applying a rotational data shift to sensed data used by the wrap speed model or to a calculated dimension or position of the load to advance the wrap speed model to an earlier point in time or rotational position. a packaging material dispenser for dispensing packaging material to the load ; a load support for supporting the load during wrapping, wherein the packaging material dispenser and the load support are adapted for rotation relative to one another about a center of rotation ; characterized by a controller configured to control a dispense rate of the packaging material dispenser during the relative rotation based upon a wrap speed model, wherein the controller is further configured to offset system lag by applying a rotational data shift to the wrap speed model, wherein the controller is configured to apply the rotational data shift to the wrap speed model by applying a rotational data shift to sensed data used by the wrap speed model or to a calculated dimension or position of the load to advance the wrap speed model to an earlier point in time or rotational position.
Apparatus for the aftertreatment of exhaust gases of an internal combustion engine, with a housing through which the exhaust gas can flow from an inlet to an outlet, with a flow path which is spatially delimited in a radial direction and through which flow can pass in an axial direction and which is arranged inside the housing , with at least one catalytic converter arranged in the flow path for catalytic conversion of the exhaust gas, wherein an annular gap through which flow can pass is formed between the flow path and the inner wall of the housing , wherein the distribution of the exhaust gas mass flow between the flow path and the annular gap can be influenced by means of a control element , characterized in that at least one heating element through which the exhaust gas can flow and which serves for electrically heating the exhaust gas is arranged in the flow path .
Autonomous device for detecting the characteristics of a measurement medium, more particularly a sensor unit for measuring the properties of a measurement medium, having a housing wherein the inside of the housing comprises: a sensor and a first microcontroller , wherein the first microcontroller has a memory chip which is not resistant to gamma rays, preferably during the sterilization of the device characterised in that the inside of the housing further comprises a second microcontroller wherein the second microcontroller comprises a memory chip which is resistant to gamma rays, preferably during sterilization of the device . a sensor and a first microcontroller , wherein the first microcontroller has a memory chip which is not resistant to gamma rays, preferably during the sterilization of the device characterised in that the inside of the housing further comprises a second microcontroller wherein the second microcontroller comprises a memory chip which is resistant to gamma rays, preferably during sterilization of the device .