mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle control system, comprising: an operation unit (a to e) disposed in a vehicle and operable by a driver; an operation detection unit (1 to 5) configured to detect an operation on the operation unit (a to e), and including a displacement unit (1a to 5a) that is configured to be displaced according to an operation amount (α, β, γ) of the operation unit (a to e), and a detection unit (1b to 5b) that is configured to detect a displacement amount of the displacement unit (1a to 5a) and that is configured to output a continuous signal according to the displacement amount; and a control unit that is configured to input the continuous signal detected by the detection unit (1b to 5b) and to perform a predetermined control corresponding to the continuous signal, characterized in that the displacement unit (1a to 5a) is configured such that a magnet (M1 to M4) is attached to a predetermined position and the magnet (M1 to M4) is displaced together with the displacement unit (1a to 5a), and the detection unit (1b to 5b) is formed of a magnetic sensor which obtains an output voltage corresponding to a magnetic change from the magnet (M1 to M4), the obtained output voltage being the continuous signal corresponding to the displacement amount, and the control unit is electrically connected to a communication unit , and the communication unit includes a transmission unit attached to the vehicle, and is configured to input the continuous signal output from the detection unit (1b to 5b) and to transmit the continuous signal to other vehicles. an operation unit (a to e) disposed in a vehicle and operable by a driver; an operation detection unit (1 to 5) configured to detect an operation on the operation unit (a to e), and including a displacement unit (1a to 5a) that is configured to be displaced according to an operation amount (α, β, γ) of the operation unit (a to e), and a detection unit (1b to 5b) that is configured to detect a displacement amount of the displacement unit (1a to 5a) and that is configured to output a continuous signal according to the displacement amount; and a control unit that is configured to input the continuous signal detected by the detection unit (1b to 5b) and to perform a predetermined control corresponding to the continuous signal, characterized in that the displacement unit (1a to 5a) is configured such that a magnet (M1 to M4) is attached to a predetermined position and the magnet (M1 to M4) is displaced together with the displacement unit (1a to 5a), and the detection unit (1b to 5b) is formed of a magnetic sensor which obtains an output voltage corresponding to a magnetic change from the magnet (M1 to M4), the obtained output voltage being the continuous signal corresponding to the displacement amount, and the control unit is electrically connected to a communication unit , and the communication unit includes a transmission unit attached to the vehicle, and is configured to input the continuous signal output from the detection unit (1b to 5b) and to transmit the continuous signal to other vehicles.
A method of evaluating an evacuation process of an autonomous cleaning robot at an evacuation station, comprising: after an autonomous cleaning robot has docked at an evacuation station (100; 200), initiating an evacuation process; characterized by : during the evacuation, receiving data to check for errors; if an error is detected during evacuation, changing a status of an indicator to indicate the error and/or sending information indicating the error to a mobile device . after an autonomous cleaning robot has docked at an evacuation station (100; 200), initiating an evacuation process; characterized by : during the evacuation, receiving data to check for errors; if an error is detected during evacuation, changing a status of an indicator to indicate the error and/or sending information indicating the error to a mobile device . during the evacuation, receiving data to check for errors; if an error is detected during evacuation, changing a status of an indicator to indicate the error and/or sending information indicating the error to a mobile device .
A method for manufacturing a composite platform for an aircraft turbine engine fan, this platform comprising a wall of elongated shape and configured to extend between two fan vanes , this wall comprising an aerodynamic external face and an internal face on which is located an attachment tab configured to be attached to a fan disc , comprising the steps of: a) preparing fabrics or sheets pre-impregnated with a resin, b) depositing the fabrics or sheets in a mould, characterised in that it further comprises the steps of: c) positioning a metallic framework in the mould, on the fabrics or sheets, the framework being formed in one part with said attachment tab, d) depositing fabrics or sheets on a portion of the framework, and e) closing and heating the mould in order to solidify the assembly formed by the fabrics or sheets and the framework. comprising the steps of: a) preparing fabrics or sheets pre-impregnated with a resin, b) depositing the fabrics or sheets in a mould, a) preparing fabrics or sheets pre-impregnated with a resin, b) depositing the fabrics or sheets in a mould, characterised in that it further comprises the steps of: c) positioning a metallic framework in the mould, on the fabrics or sheets, the framework being formed in one part with said attachment tab, d) depositing fabrics or sheets on a portion of the framework, and e) closing and heating the mould in order to solidify the assembly formed by the fabrics or sheets and the framework. c) positioning a metallic framework in the mould, on the fabrics or sheets, the framework being formed in one part with said attachment tab, d) depositing fabrics or sheets on a portion of the framework, and e) closing and heating the mould in order to solidify the assembly formed by the fabrics or sheets and the framework.
A method to increase available energy to a harvesting device , comprising, by a WiFi transmitting device : receiving a WiFi packet from a proxy device , the WiFi packet including an identifier of the harvesting device ; determining a preferred wireless path to the harvesting device using information in the WiFi packet from the proxy device , which is separate from the harvesting device , and wherein the harvesting device is configured to communicate with the proxy device via a short-distance wireless communication link; wherein the determining of the preferred wireless path to the harvesting device comprises using the information in the WiFi packet from the proxy device for approximating the location of the harvesting device , because the short-distance communication link implies that the proxy device is within a particular distance of the harvesting device ; beamforming a WiFi signal to the harvesting device along the preferred wireless path for increasing available energy of the harvesting device . receiving a WiFi packet from a proxy device , the WiFi packet including an identifier of the harvesting device ; determining a preferred wireless path to the harvesting device using information in the WiFi packet from the proxy device , which is separate from the harvesting device , and wherein the harvesting device is configured to communicate with the proxy device via a short-distance wireless communication link; wherein the determining of the preferred wireless path to the harvesting device comprises using the information in the WiFi packet from the proxy device for approximating the location of the harvesting device , because the short-distance communication link implies that the proxy device is within a particular distance of the harvesting device ; beamforming a WiFi signal to the harvesting device along the preferred wireless path for increasing available energy of the harvesting device .
Drive for a casement of a window or the like, having a scissor stay , which is arranged on a push rod of the drive, wherein the scissor stay comprises a link bearing , which is securable in a fixed position on the frame of the window and on which a stay link having a guide slot is mounted in a rotatable manner, a lock element , which is provided with a clamping element , is positionable on the push rod and is securable with the clamping element , and a stay arm , which is mounted in a rotationally articulated manner in a pivot bearing , is connectable at the end in an articulated manner to the casement, and is guided on the push rod with the pivot bearing , wherein the pivot bearing is passed through freely by the push rod , wherein at least one pin is arranged in the guide slot for supporting the forces that arise, said pin being arranged on the lock element or on a supporting link arranged on the lock element , wherein the stay arm is connected to the stay link in an articulated manner via a lock pin , wherein the lock element is arranged between the pivot bearing and the link bearing , wherein, in order to open and close the scissor stay , the push rod is displaceable over an actuating travel, and wherein a setting device for setting a distance (s) between the link bearing in a fixed position and the lock element is arranged on the link bearing or on the lock element , characterized in that the setting device has a threaded stem or a threaded sleeve , which is received in a thread in the link bearing , or in that the setting device has a threaded stem or a threaded sleeve , which is received in a thread in the lock element , or in that the setting device is a spacer arranged on the link bearing or on the lock element .
A fluid ejection system comprising: a service station assembly including a service component ; a fluid ejection die comprising at least one strain gauge sensor being the strain gauge sensor to sense a strain exerted by the service component of the service station assembly upon the fluid ejection die when the fluid ejection die is being serviced by the service station assembly; and a controller to receive the sensed strain from the at least one strain gauge sensor during servicing of the fluid ejection die, wherein the controller is to adjust or stop servicing of the fluid ejection die in response to the sensed strain exceeding a servicing threshold. a service station assembly including a service component ; a fluid ejection die comprising at least one strain gauge sensor being the strain gauge sensor to sense a strain exerted by the service component of the service station assembly upon the fluid ejection die when the fluid ejection die is being serviced by the service station assembly; and a controller to receive the sensed strain from the at least one strain gauge sensor during servicing of the fluid ejection die, wherein the controller is to adjust or stop servicing of the fluid ejection die in response to the sensed strain exceeding a servicing threshold.
A three-dimensional printing system, for printing out an object , the three-dimensional printing system comprising: a support plate ; a delivery module including a belt covering the support plate , the belt including a printing area above the support plate and including a separation section at one side of the support plate ; at least one printing device disposed corresponding to the support plate , the object being formed layer by layer in the printing area via the printing device and being moved with the belt ; characterized by further comprising: an object detaching member disposed under the belt and between the support plate and the separation section , the object detaching member including an abutment portion abutted against the belt , the abutment portion being at a position higher than a position of the separation section to form a height level difference (h) between the abutment portion and the separation section , so that the object is detached from the belt when the object is moved to the separation section , wherein the object detaching member is an extending plate extended from one side of the support plate , and the abutment portion is formed at one end of the extending plate at one side adjacent to the separation section . a support plate ; a delivery module including a belt covering the support plate , the belt including a printing area above the support plate and including a separation section at one side of the support plate ; at least one printing device disposed corresponding to the support plate , the object being formed layer by layer in the printing area via the printing device and being moved with the belt ; characterized by further comprising: an object detaching member disposed under the belt and between the support plate and the separation section , the object detaching member including an abutment portion abutted against the belt , the abutment portion being at a position higher than a position of the separation section to form a height level difference (h) between the abutment portion and the separation section , so that the object is detached from the belt when the object is moved to the separation section , wherein the object detaching member is an extending plate extended from one side of the support plate , and the abutment portion is formed at one end of the extending plate at one side adjacent to the separation section . an object detaching member disposed under the belt and between the support plate and the separation section , the object detaching member including an abutment portion abutted against the belt , the abutment portion being at a position higher than a position of the separation section to form a height level difference (h) between the abutment portion and the separation section , so that the object is detached from the belt when the object is moved to the separation section , wherein the object detaching member is an extending plate extended from one side of the support plate , and the abutment portion is formed at one end of the extending plate at one side adjacent to the separation section .
An in vitro method of selecting a therapeutic treatment for a subject in need thereof, the method comprising: determining a level of human soluble Growth Stimulation-Expressed Gene 2 (ST2) in a sample comprising blood, serum, or plasma from a subject using an isolated antibody produced by the hybridoma deposited at the American Type Culture Collection (ATCC) and designated by Patent Deposit Designation PTA-10432, or an antigen-binding fragment of an antibody produced by the hybridoma deposited at the ATCC and designated by Patent Deposit Designation PTA-10432; and identifying a subject having an elevated level of human soluble ST2 in the sample compared to a reference level of human soluble ST2 as the subject in need of the therapeutic treatment; and selecting a therapeutic treatment for the subject, wherein the therapeutic treatment is selected from the group consisting of a nitrate, a calcium channel blocker, a diuretic, a thrombolytic agent, digitalis, a renin-angiotensin-aldosterone system (RAAS) modulating agent, an angiotensin-converting enzyme inhibitor, an aldosterone antagonist, a renin inhibitor, an angiotensin II receptor blocker, and a statin. determining a level of human soluble Growth Stimulation-Expressed Gene 2 (ST2) in a sample comprising blood, serum, or plasma from a subject using an isolated antibody produced by the hybridoma deposited at the American Type Culture Collection (ATCC) and designated by Patent Deposit Designation PTA-10432, or an antigen-binding fragment of an antibody produced by the hybridoma deposited at the ATCC and designated by Patent Deposit Designation PTA-10432; and identifying a subject having an elevated level of human soluble ST2 in the sample compared to a reference level of human soluble ST2 as the subject in need of the therapeutic treatment; and selecting a therapeutic treatment for the subject, wherein the therapeutic treatment is selected from the group consisting of a nitrate, a calcium channel blocker, a diuretic, a thrombolytic agent, digitalis, a renin-angiotensin-aldosterone system (RAAS) modulating agent, an angiotensin-converting enzyme inhibitor, an aldosterone antagonist, a renin inhibitor, an angiotensin II receptor blocker, and a statin.
An imaging system , comprising: a focal spot configured to rotate along a path around an examination region and emit a radiation beam that traverses a field of view of the examination region and a subject or object therein; a detector array located opposite the radiation source, across the examination region, which is configured to detect radiation traversing the field of view and outputs a signal indicative of the detected radiation; and a beam shaper located between the radiation source and the examination region, wherein the beam shaper has an outer perimeter , an inner perimeter defining at least one material free region there through, wherein the inner perimeter mimics a profile of a model of a cross section of a human subject in the field of view; and an x-ray attenuating material between the outer and inner perimeters; and wherein the beam shaper is configured to rotate with the focal spot and, relative to the focal spot, in an opposite direction of the focal spot with a same angular frequency as the rotating of the focal spot and is configured to attenuate the radiation beam which reduces a flux density across the detector array at each rotational angle of the focal spot. a focal spot configured to rotate along a path around an examination region and emit a radiation beam that traverses a field of view of the examination region and a subject or object therein; a detector array located opposite the radiation source, across the examination region, which is configured to detect radiation traversing the field of view and outputs a signal indicative of the detected radiation; and a beam shaper located between the radiation source and the examination region, wherein the beam shaper has an outer perimeter , an inner perimeter defining at least one material free region there through, wherein the inner perimeter mimics a profile of a model of a cross section of a human subject in the field of view; and an x-ray attenuating material between the outer and inner perimeters; and wherein the beam shaper is configured to rotate with the focal spot and, relative to the focal spot, in an opposite direction of the focal spot with a same angular frequency as the rotating of the focal spot and is configured to attenuate the radiation beam which reduces a flux density across the detector array at each rotational angle of the focal spot.
An aerosol generating system comprising: a cigarette including a first substrate section and a second substrate section which include a non-tobacco material sheet that has at least one surface coated with an aerosol generating material; and an aerosol generating device including an accommodation space configured to accommodate the cigarette , a heater configured to heat the cigarette accommodated in the accommodation space, a battery configured to supply power to the heater , and a controller configured to control a heating operation of the heater , wherein the heater is disposed such that a surface area of a first portion of the heater facing the first substrate section in a radial direction of the cigarette is different from a surface area of a second portion of the heater facing the second substrate section in the radial direction of the cigarette , wherein one of the first substrate section and the second substrate section includes nicotine, and the other of the first substrate section and the second substrate section does not include nicotine; and/or wherein the first substrate section and the second substrate section include different amounts of the aerosol generating material. a cigarette including a first substrate section and a second substrate section which include a non-tobacco material sheet that has at least one surface coated with an aerosol generating material; and an aerosol generating device including an accommodation space configured to accommodate the cigarette , a heater configured to heat the cigarette accommodated in the accommodation space, a battery configured to supply power to the heater , and a controller configured to control a heating operation of the heater , wherein the heater is disposed such that a surface area of a first portion of the heater facing the first substrate section in a radial direction of the cigarette is different from a surface area of a second portion of the heater facing the second substrate section in the radial direction of the cigarette , wherein one of the first substrate section and the second substrate section includes nicotine, and the other of the first substrate section and the second substrate section does not include nicotine; and/or wherein the first substrate section and the second substrate section include different amounts of the aerosol generating material.
A vehicle management apparatus for efficiently managing electric power required for operating electric vehicles in view of energy efficiency and environment, comprising: a) a communication unit configured to transmit an electric power transaction request to a service apparatus , and to receive weather information and electric power transaction information from the service apparatus ; and b) a control unit configured to receive weather information from the service apparatus , to calculate electric power required for vehicle operation based on a vehicle operation pattern or the weather information, to transmit the electric power transaction request to the service apparatus , the electric power transaction request including information about surplus electric power that corresponds to current battery power minus the electric power required for vehicle operation, and if the electric power transaction information is received from the service apparatus , to sell the surplus electric power according to the electric power transaction information, c) wherein the electric power required for vehicle operation is calculated on vehicle operation pattern or weather information. a) a communication unit configured to transmit an electric power transaction request to a service apparatus , and to receive weather information and electric power transaction information from the service apparatus ; and b) a control unit configured to receive weather information from the service apparatus , to calculate electric power required for vehicle operation based on a vehicle operation pattern or the weather information, to transmit the electric power transaction request to the service apparatus , the electric power transaction request including information about surplus electric power that corresponds to current battery power minus the electric power required for vehicle operation, and if the electric power transaction information is received from the service apparatus , to sell the surplus electric power according to the electric power transaction information, c) wherein the electric power required for vehicle operation is calculated on vehicle operation pattern or weather information.