mhurhangee/patent-ind-claim-en huggingface dataset:
A disposable portable hand-held vacuum device including: (i) a source of liquefied gas in the form of a cartridge containing liquid carbon dioxide; (ii) a gas operated vacuum generator having an inlet port and a vacuum port ; (iii) a body that is adapted to receive the source of liquefied gas and the vacuum generator, and a valve for controlling flow, in use, of carbon dioxide gas released from the cartridge to an outlet port , the inlet port of the vacuum generator being coupled to receive carbon dioxide gas from said outlet port; (iv) a suction tube having proximal and distal ends; (v) a collection container having a container outlet coupled to said vacuum port and a container inlet coupled to the proximal end of the suction tube, the arrangement being such that when said valve is opened the vacuum generator receives flow of carbon dioxide gas from the cartridge so as to create a vacuum in the container and at the distal end of the suction tube; and wherein (vi) at least those parts of the device where CO 2 from the cartridge expands are made from plastics material having a high thermal conductivity so as to enable heat transfer to the expanding CO 2 in order to avoid formation of liquid or solid carbon dioxide in those parts of the device in which the CO 2 flows. (i) a source of liquefied gas in the form of a cartridge containing liquid carbon dioxide; (ii) a gas operated vacuum generator having an inlet port and a vacuum port ; (iii) a body that is adapted to receive the source of liquefied gas and the vacuum generator, and a valve for controlling flow, in use, of carbon dioxide gas released from the cartridge to an outlet port , the inlet port of the vacuum generator being coupled to receive carbon dioxide gas from said outlet port; (iv) a suction tube having proximal and distal ends; (v) a collection container having a container outlet coupled to said vacuum port and a container inlet coupled to the proximal end of the suction tube, the arrangement being such that when said valve is opened the vacuum generator receives flow of carbon dioxide gas from the cartridge so as to create a vacuum in the container and at the distal end of the suction tube; and wherein (vi) at least those parts of the device where CO 2 from the cartridge expands are made from plastics material having a high thermal conductivity so as to enable heat transfer to the expanding CO 2 in order to avoid formation of liquid or solid carbon dioxide in those parts of the device in which the CO 2 flows.
Welding knife for a device for welding thermoplastic tubes, wherein the welding knife or a melting surface of the welding knife has a rectangular shape, has a blade on one of the two longer sides of the rectangle, is electrically conducting, the melting surface has a plurality of recesses , characterized in that provided along the two shorter sides of the rectangle are peripheral zones (4", 4′′′) which are configured to be contacted for electrically heating the welding knife by an electrical power loss in the welding knife , wherein the recesses are provided in a row along the peripheral zones (4", 4") of the two shorter sides of the rectangle, respectively.
A method of determining a crop tank filling level in an agricultural harvester , the method comprising: - receiving a first trigger signal from a first crop tank sensor , the first trigger signal corresponding to a first crop tank filling level, - after receiving the first trigger signal, estimating a harvesting yield based on a travelled distance and a predetermined average yield parameter, - calculating a current crop tank filling level based on the first crop tank filling level and the estimated harvesting yield, - receiving a second trigger signal from a second crop tank sensor , the second trigger signal corresponding to a second crop tank filling level, the second crop tank filling level being different from the first crop tank filling level, and - upon receiving the second trigger signal, calibrating the predetermined average yield parameter based on the calculated current crop tank filling level and the first and second crop tank filling levels. - receiving a first trigger signal from a first crop tank sensor , the first trigger signal corresponding to a first crop tank filling level, - after receiving the first trigger signal, estimating a harvesting yield based on a travelled distance and a predetermined average yield parameter, - calculating a current crop tank filling level based on the first crop tank filling level and the estimated harvesting yield, - receiving a second trigger signal from a second crop tank sensor , the second trigger signal corresponding to a second crop tank filling level, the second crop tank filling level being different from the first crop tank filling level, and - upon receiving the second trigger signal, calibrating the predetermined average yield parameter based on the calculated current crop tank filling level and the first and second crop tank filling levels.
Electric drive, comprising an electric motor having a motor housing , a drive shaft rotatably mounted by means of at least two rolling bearings , a stator fixed in the motor housing and a rotor connected to the drive shaft and rotatable in the motor housing , and a strain wave gearing comprising a gear housing , a rigid outer circle with an internal toothing , a flexible output sleeve with an external toothing , and a wave generator rotatable mounted in the gear housing and rolling on the flexible output sleeve , wherein the external toothing of the flexible output sleeve is in meshing engagement with the internal toothing of the rigid outer ring in dependence on a rotational movement of the shaft generator , wherein the rotor is mounted on the drive shaft and a first of the at least two rolling bearings is disposed within the flexible output sleeve and is adapted to rotatably support the drive shaft in the gear housing , characterized by - a flange plate to which the gear housing is flanged on one side of the flange plate , by connecting the flange plate to the rigid outer ring of the strain wave gearing , whereby - the motor housing is flanged to an opposite side of the flange plate , and - the rigid outer circle is mounted in the gear housing of the strain wave gearing . an electric motor having a motor housing , a drive shaft rotatably mounted by means of at least two rolling bearings , a stator fixed in the motor housing and a rotor connected to the drive shaft and rotatable in the motor housing , and a strain wave gearing comprising a gear housing , a rigid outer circle with an internal toothing , a flexible output sleeve with an external toothing , and a wave generator rotatable mounted in the gear housing and rolling on the flexible output sleeve , wherein the external toothing of the flexible output sleeve is in meshing engagement with the internal toothing of the rigid outer ring in dependence on a rotational movement of the shaft generator , wherein the rotor is mounted on the drive shaft and a first of the at least two rolling bearings is disposed within the flexible output sleeve and is adapted to rotatably support the drive shaft in the gear housing , characterized by - a flange plate to which the gear housing is flanged on one side of the flange plate , by connecting the flange plate to the rigid outer ring of the strain wave gearing , whereby - the motor housing is flanged to an opposite side of the flange plate , and - the rigid outer circle is mounted in the gear housing of the strain wave gearing . - a flange plate to which the gear housing is flanged on one side of the flange plate , by connecting the flange plate to the rigid outer ring of the strain wave gearing , whereby - the motor housing is flanged to an opposite side of the flange plate , and - the rigid outer circle is mounted in the gear housing of the strain wave gearing .
Method of controlling a measuring device including a data processing unit connected to means for positionally locating a pointing end of a measuring arm , the processing unit being adapted to process positional data from the positional locating means, characterized in that it comprises the steps of: - associating, in a memory of the processing unit, an instruction executable by the processing unit and a predetermined movement of the pointing end; - verifying presence of the predetermined movement in the positional data from the positional locating means; - executing the instruction by the processing unit when the predetermined movement of the pointing end is detected in the positional data; the pointing end including a manipulating handle and the processing unit further including a screen and information means (Lum, V, Sn) other than the screen , these information means being adapted to transmit information to an operator of the measuring device holding the manipulating handle in one hand, the control method including recording an initial position of the pointing end on receiving an instruction to record given by the user, the information means being moreover adapted to transmit to the operator a first signal informing them that an initial position of the pointing end has been recorded, said movement presence verification being carried out by observing the movement of the pointing end from this recorded initial position. - associating, in a memory of the processing unit, an instruction executable by the processing unit and a predetermined movement of the pointing end; - verifying presence of the predetermined movement in the positional data from the positional locating means; - executing the instruction by the processing unit when the predetermined movement of the pointing end is detected in the positional data;
A method, comprising: adjusting a field of view of a LIDAR sensor mounted to a vehicle according to a number of microelectromechanical MEMS mirrors among a plurality of MEMS mirrors of the LIDAR sensor , the number of MEMS mirrors operated to scan an external environment of the vehicle ; wherein the number of MEMS mirrors is determined according to one or more of a vehicle speed and an intended vehicle path; and reducing a number of MEMS mirrors operated responsive to a decrease in vehicle speed below a threshold speed, wherein reducing the number of MEMS mirrors operated includes stopping electrical power to an equal number of MEMS mirrors that scan out-of-path environments on both sides outside of a desired field of view while powering a second number of MEMS mirrors that scan the desired field of view , the desired field of view including the intended vehicle path and a threshold region flanking and directly adjacent to the intended vehicle path. adjusting a field of view of a LIDAR sensor mounted to a vehicle according to a number of microelectromechanical MEMS mirrors among a plurality of MEMS mirrors of the LIDAR sensor , the number of MEMS mirrors operated to scan an external environment of the vehicle ; wherein the number of MEMS mirrors is determined according to one or more of a vehicle speed and an intended vehicle path; and reducing a number of MEMS mirrors operated responsive to a decrease in vehicle speed below a threshold speed, wherein reducing the number of MEMS mirrors operated includes stopping electrical power to an equal number of MEMS mirrors that scan out-of-path environments on both sides outside of a desired field of view while powering a second number of MEMS mirrors that scan the desired field of view , the desired field of view including the intended vehicle path and a threshold region flanking and directly adjacent to the intended vehicle path.
Industrial truck having a hitch for transporting trailers and having a lifting device for lifting loads, wherein the lifting device comprises a fork carrier which is equipped with a fork-shaped load pick-up means , wherein the load pick-up means has at least one load section (14a; 14b) which is arranged on the fork carrier so as to be pivotable through substantially 90° about a substantially horizontal first pivot axis (D1) between a folded-out position and a folded-in position, characterized in that the fork carrier is arranged on a lifting carriage so as to be pivotable about a substantially horizontal second pivot axis (D2), wherein the lifting carriage is arranged so as to be raisable and lowerable on the lifting device , and a positioning drive is provided by means of which the fork carrier is pivotable relative to the lifting carriage about the second pivot axis (D2) and by means of which the at least one load section (14a; 14b) of the load pick-up means is pivotable relative to the fork carrier about the first pivot axis (D1).
A type of front finger paste for N-type solar cells, which is characterized by that, in parts by weight, the raw materials for preparing it include 1-5 parts of high-activity glass powder, 1-5 parts of silicon powder, 75-79 parts of aluminum-silicon alloy powder and 15-20 parts of organic component; characterized by that, in parts by weight, the raw materials for preparing the above-mentioned high-activity glass powder include 5-20 parts of boric acid, 45-70 parts of lead oxide, 0-10 parts of lithium carbonate, 2-15 parts of zinc oxide, 0-10 parts of antimony trioxide, 5-30 parts of cesium carbonate, and 1-10 parts of silicon dioxide.
An unloading apparatus that unloads cargo items from a cargo group on a cargo bed , the unloading apparatus characterized by comprising: a cargo bed lifting and lowering mechanism that lifts and lowers a cargo bed ; a first detection unit that measures heights of cargos items forming an upper surface of a cargo group and positions, in plan view, of the cargo items forming the upper surface of the cargo group ; a moving device that moves the cargo items to an unloading position (P) by individually holding and lifting a cargo item based on a measurement by the first detection unit ; a second detection unit that detects whether a lower end of a cargo item being held by the moving device is above a position that is higher than the highest position of the cargo items at the upper surface of the cargo group ; and a controller configured to: control the cargo bed lifting and lowering mechanism to lower the cargo bed in conjunction with the lifting of cargo items by the moving device , and stop the lowering of the cargo bed based on a detection result of the second detection unit , control the moving device to move the cargo items to the unloading position (P), and a cargo bed rotating mechanism that rotates the cargo bed , wherein the controller controls rotation of the cargo bed in a direction in which the next cargo to be held by the moving device becomes close to the unloading position (P). a cargo bed lifting and lowering mechanism that lifts and lowers a cargo bed ; a first detection unit that measures heights of cargos items forming an upper surface of a cargo group and positions, in plan view, of the cargo items forming the upper surface of the cargo group ; a moving device that moves the cargo items to an unloading position (P) by individually holding and lifting a cargo item based on a measurement by the first detection unit ; a second detection unit that detects whether a lower end of a cargo item being held by the moving device is above a position that is higher than the highest position of the cargo items at the upper surface of the cargo group ; and a controller configured to: control the cargo bed lifting and lowering mechanism to lower the cargo bed in conjunction with the lifting of cargo items by the moving device , and stop the lowering of the cargo bed based on a detection result of the second detection unit , control the moving device to move the cargo items to the unloading position (P), and control the cargo bed lifting and lowering mechanism to lower the cargo bed in conjunction with the lifting of cargo items by the moving device , and stop the lowering of the cargo bed based on a detection result of the second detection unit , control the moving device to move the cargo items to the unloading position (P), and a cargo bed rotating mechanism that rotates the cargo bed , wherein the controller controls rotation of the cargo bed in a direction in which the next cargo to be held by the moving device becomes close to the unloading position (P).
A liquid crystal display (LCD) device comprising: an upper substrate; a lower substrate opposing the upper substrate and comprising a data line (DL) and a gate line insulated from the data line (DL); a liquid crystal layer between the lower substrate and the upper substrate; a current sensing unit which detects a data current (I_data) based on a data signal applied to the data line (DL) so as to detect a change in a liquid crystal capacitance of the liquid crystal layer; an amplifier which amplifies the detected data current (I data) so as to generate and output a rectified signal (I_rec) characterized by a reference voltage (Vref) conversion unit which sets a reference voltage (Vref) proportional to a voltage difference between data signals successively applied to the data line (DL) in real time in an operating state in which the display panel displays image information; a pulse generator which generates a sensing pulse by comparing the rectified signal (I_rec) with ; the reference voltage (Vref) to detect the portion of the rectified signal (I_rec) exceeding the reference voltage (Vref); and a duty width detector which detects the pulse width of the sensing pulse generated by the pulse generator , wherein, for a given temperature of the liquid crystal layer, the reference voltage conversion unit is adapted to set the reference voltage (Vref) such that the pulse width of the sensing pulse generated by the pulse generator is kept constant regardless of the data signal value. an upper substrate; a lower substrate opposing the upper substrate and comprising a data line (DL) and a gate line insulated from the data line (DL); a liquid crystal layer between the lower substrate and the upper substrate; a current sensing unit which detects a data current (I_data) based on a data signal applied to the data line (DL) so as to detect a change in a liquid crystal capacitance of the liquid crystal layer; an amplifier which amplifies the detected data current (I data) so as to generate and output a rectified signal (I_rec) characterized by a reference voltage (Vref) conversion unit which sets a reference voltage (Vref) proportional to a voltage difference between data signals successively applied to the data line (DL) in real time in an operating state in which the display panel displays image information; a pulse generator which generates a sensing pulse by comparing the rectified signal (I_rec) with ; the reference voltage (Vref) to detect the portion of the rectified signal (I_rec) exceeding the reference voltage (Vref); and a duty width detector which detects the pulse width of the sensing pulse generated by the pulse generator , wherein, for a given temperature of the liquid crystal layer, the reference voltage conversion unit is adapted to set the reference voltage (Vref) such that the pulse width of the sensing pulse generated by the pulse generator is kept constant regardless of the data signal value.
A communications processing device for a base station , the communications processing device comprising: measurement report acquisition means for obtaining a measurement report relating to a communications environment from a mobile communications terminal located within a cell of the base station ; wireless quality determination means for determining whether or not a quality of wireless communications between the mobile communications terminal and the base station, comprised in the measurement report, is lower than a threshold value; and message transmission means for, in response to the measurement report, sending to the mobile communications terminal a handover instruction message when the quality of wireless communications is not less than the threshold value and for sending to the mobile communications terminal a RRC connection release message, including a carrier frequency of a base station to which the mobile communications terminal should be handed over, when the quality of wireless communications is less than the threshold value, and wherein the RRC connection message has a data volume size that is lower than a data volume size of said handover instruction message. measurement report acquisition means for obtaining a measurement report relating to a communications environment from a mobile communications terminal located within a cell of the base station ; wireless quality determination means for determining whether or not a quality of wireless communications between the mobile communications terminal and the base station, comprised in the measurement report, is lower than a threshold value; and message transmission means for, in response to the measurement report, sending to the mobile communications terminal a handover instruction message when the quality of wireless communications is not less than the threshold value and for sending to the mobile communications terminal a RRC connection release message, including a carrier frequency of a base station to which the mobile communications terminal should be handed over, when the quality of wireless communications is less than the threshold value, and wherein the RRC connection message has a data volume size that is lower than a data volume size of said handover instruction message.
A communication system including: at least one communication device controlling packet forwarding; and a controller setting a first table entry used for packet forwarding in a table held by the communication device according to a request from said communication device ; said communication device determining based on a rule for identifying a received packet whether to forward a received packet according to said first table entry or forward the received packet according to a second table entry in said table set by said communication device . at least one communication device controlling packet forwarding; and a controller setting a first table entry used for packet forwarding in a table held by the communication device according to a request from said communication device ; said communication device determining based on a rule for identifying a received packet whether to forward a received packet according to said first table entry or forward the received packet according to a second table entry in said table set by said communication device .