mhurhangee/patent-ind-claim-en huggingface dataset:
Method for searching a search area (S), wherein in each case at least one radar (R) is arranged in at least two missiles (AC1, AC2), comprising: a) determining a total search time for searching the search area (S), b) splitting the search area (S) into at least two search subareas (TS1, TS2), c) searching the at least two search subareas (TS1, TS2) by means of the respective radar (R) of the at least two missiles (AC1, AC2), wherein the at least two missiles (AC1, AC2) carry out the searching cooperatively, wherein the search subareas (TS1, TS2) are chosen such that a detection probability (PD) of the search area (S) is maximized; wherein the detection probability for the at least two search subareas (TS1, TS2) is the same; wherein the search subareas (TS1, TS2) have substantially no overlap; wherein the splitting of the search area (S) is performed for different combinations of in each case two search subareas (TS1, TS2) and the detection probability (PD) for searching the search area (S) is ascertained; wherein, for each combination, the detection probability (PD) of the two search subareas (TS1, TS2) is ascertained; wherein the combination of the two search subareas (TS1, TS2) for a maximum detection probability (PD) is used for the searching of the search area (S). a) determining a total search time for searching the search area (S), b) splitting the search area (S) into at least two search subareas (TS1, TS2), c) searching the at least two search subareas (TS1, TS2) by means of the respective radar (R) of the at least two missiles (AC1, AC2), wherein the at least two missiles (AC1, AC2) carry out the searching cooperatively, wherein the search subareas (TS1, TS2) are chosen such that a detection probability (PD) of the search area (S) is maximized; wherein the detection probability for the at least two search subareas (TS1, TS2) is the same; wherein the search subareas (TS1, TS2) have substantially no overlap; wherein the splitting of the search area (S) is performed for different combinations of in each case two search subareas (TS1, TS2) and the detection probability (PD) for searching the search area (S) is ascertained; wherein, for each combination, the detection probability (PD) of the two search subareas (TS1, TS2) is ascertained; wherein the combination of the two search subareas (TS1, TS2) for a maximum detection probability (PD) is used for the searching of the search area (S). wherein the detection probability for the at least two search subareas (TS1, TS2) is the same; wherein the search subareas (TS1, TS2) have substantially no overlap; wherein the splitting of the search area (S) is performed for different combinations of in each case two search subareas (TS1, TS2) and the detection probability (PD) for searching the search area (S) is ascertained; wherein, for each combination, the detection probability (PD) of the two search subareas (TS1, TS2) is ascertained; wherein the combination of the two search subareas (TS1, TS2) for a maximum detection probability (PD) is used for the searching of the search area (S).
Roof structure for an agricultural vehicle, comprising an upper roof assembly and a lower roof assembly , wherein an air-conditioning chamber is formed in the lower roof assembly , and the upper roof assembly is able to be fastened to the lower roof assembly in order to surround the air-conditioning chamber , and the roof structure furthermore comprises an inlet chamber and an outlet chamber for air-conditioned air, wherein the inlet chamber and the outlet chamber are configured, between the lower roof assembly and the upper roof assembly , as chambers that are separated from one another, and a circulation opening for supplying recirculated air is arranged at the inlet chamber , wherein a fresh-air opening for supplying fresh air is formed at the inlet chamber and/or at the air-conditioning chamber , characterized in that the roof structure comprises an air-guiding element arranged in the inlet chamber and in the air-conditioning chamber , wherein the air-guiding element is configured as a closed duct or as a tubular body, and the air-guiding element is arranged at the fresh-air opening and at the circulation opening and in the air-conditioning chamber such that the air-guiding element itself forms a region in the inlet chamber and in the air-conditioning chamber that is sealed off from regions inside and outside the roof structure .
Set of chemicals comprising the following components A) a ceramic material comprising or consisting of a silicate ceramic material, B) a binder comprising or consisting of a gelling agent, wherein the gelling agent is a crosslinked polymer, characterized in that the silicate ceramic material is selected from the group consisting of feldspar and leucite ceramics. A) a ceramic material comprising or consisting of a silicate ceramic material, B) a binder comprising or consisting of a gelling agent, wherein the gelling agent is a crosslinked polymer,
A robotic surgical instrument comprising: a shaft ; a first end effector element ; an articulation connecting the first end effector element to a distal end of the shaft, the first end effector element movable relative to the articulation; and a drive mechanism at a proximal end of the shaft comprising a first actuator , the first actuator being connected to the first end effector element by a first pair of driving elements , the first pair of driving elements being configured such that a tension force applied by the first actuator to a first one of the first pair of driving elements causes the first end effector element to move relative to the articulation in a first motion direction, and the tension force applied to a second one of the first pair of driving elements causes the first end effector element to move relative to the articulation in a second motion direction; wherein the first one of the first pair of driving elements has a first path between the first actuator and the first end effector element, and the second one of the first pair of driving elements has a second path between the first actuator and the first end effector element; the first path having a lower tension force loss than the second path such that the first motion direction transfers a greater proportion of the tension force to the first end effector element than the second motion direction; wherein the robotic surgical instrument is characterised by the first one of the first pair of driving elements being constructed of a smaller number of thicker strands than the second one of the first pair of driving elements. a shaft ; a first end effector element ; an articulation connecting the first end effector element to a distal end of the shaft, the first end effector element movable relative to the articulation; and a drive mechanism at a proximal end of the shaft comprising a first actuator , the first actuator being connected to the first end effector element by a first pair of driving elements , the first pair of driving elements being configured such that a tension force applied by the first actuator to a first one of the first pair of driving elements causes the first end effector element to move relative to the articulation in a first motion direction, and the tension force applied to a second one of the first pair of driving elements causes the first end effector element to move relative to the articulation in a second motion direction; wherein the first one of the first pair of driving elements has a first path between the first actuator and the first end effector element, and the second one of the first pair of driving elements has a second path between the first actuator and the first end effector element; the first path having a lower tension force loss than the second path such that the first motion direction transfers a greater proportion of the tension force to the first end effector element than the second motion direction; wherein the robotic surgical instrument is characterised by the first one of the first pair of driving elements being constructed of a smaller number of thicker strands than the second one of the first pair of driving elements.
Conveyor belt for transporting articles, in particular for a conveyor-belt scale, comprising a belt body with a top side, with a bottom side and with a length which extends in the transporting direction of the articles, and comprising a transport belt which circulates around the belt body during the operation of the conveyor belt, wherein, on the bottom side of the belt body, a belt-guiding device is fitted between belt body and transport belt , characterized in that the belt-guiding device comprises at least two rolling bearings , wherein the inner rings of the rolling bearings are fitted on respective pins and the pins are arranged parallel to one another and so as to be positionally fixed in relation to the belt body , and wherein the outer rings of the rolling bearings are directly in contact with the transport belt , and wherein the rolling bearings are narrow in relation to the width of the transport belt and support the transport belt in a punctiform manner.
A method of wireless communication, the method comprising: selecting a precoder mode for a transmission; changing a cyclic prefix, CP length based on the selected precoder mode; and transmitting a signal that includes the changed CP length. selecting a precoder mode for a transmission; changing a cyclic prefix, CP length based on the selected precoder mode; and transmitting a signal that includes the changed CP length.
A power management arrangement located in a device , the power management arrangement being configured for managing a power consumption of the device comprising: - one or more peripherals ; - a processing module connected to data communication lines configured to exchange data within the power management arrangement and with the one or more peripherals ; - interrupt channels configured to send and receive a bidirectional interrupt signal within the power management arrangement , to and from the one or more of the peripherals to wake up the processing module and the one or more peripherals and thereby initiate exchange of items of data between the one or more peripherals and the processing module ; - a local storage connected to the processing module and configured to store logic operations relating to communication with and operation of the power management arrangement and the one or more peripherals ; and - a power management unit connected to power lines and configured to provide an adjustable supply voltage within the power management arrangement and to the one or more peripherals and to the processing module through power lines . - one or more peripherals ; - a processing module connected to data communication lines configured to exchange data within the power management arrangement and with the one or more peripherals ; - interrupt channels configured to send and receive a bidirectional interrupt signal within the power management arrangement , to and from the one or more of the peripherals to wake up the processing module and the one or more peripherals and thereby initiate exchange of items of data between the one or more peripherals and the processing module ; - a local storage connected to the processing module and configured to store logic operations relating to communication with and operation of the power management arrangement and the one or more peripherals ; and - a power management unit connected to power lines and configured to provide an adjustable supply voltage within the power management arrangement and to the one or more peripherals and to the processing module through power lines .
A method for wireless communication, comprising: receiving an allocation of uplink resources from a base station for a first transmission time interval, TTI" the first TTI comprising two or more orthogonal frequency division multiplexing, OFDM, symbols within a slot of a subframe; identifying a demodulation reference signal, DMRS, configuration for the first TTI; and transmitting a DMRS to the base station using the allocated uplink resources based at least in part on the DMRS configuration, characterized in that , the first TTI comprises two OFDM symbols or three OFDM symbols, and wherein the DMRS configuration indicates a pattern formed from a DMRS symbol and one or more data symbols for the first TTI. receiving an allocation of uplink resources from a base station for a first transmission time interval, TTI" the first TTI comprising two or more orthogonal frequency division multiplexing, OFDM, symbols within a slot of a subframe; identifying a demodulation reference signal, DMRS, configuration for the first TTI; and transmitting a DMRS to the base station using the allocated uplink resources based at least in part on the DMRS configuration, characterized in that , the first TTI comprises two OFDM symbols or three OFDM symbols, and wherein the DMRS configuration indicates a pattern formed from a DMRS symbol and one or more data symbols for the first TTI.
A process for preparing a composition comprising a bioactive molecule comprising the steps of a. Dissolving a bioactive molecule having at least one acid group with a base at pH=>11 to obtain a solution A b. Neutralizing the solution A with an acid to obtain the composition comprising a bioactive molecule having a pH between 6 and 9, wherein PEG is added before the neutralizing step in case either the base and/or the acid is an inorganic compound, wherein the bioactive molecule is natamycin, and wherein the base is an organic base chosen from the group consisting of choline hydroxide, tetramethylammonium hydroxide, tetraethylammonium hydroxide, and tetrabutylammonium hydroxide. a. Dissolving a bioactive molecule having at least one acid group with a base at pH=>11 to obtain a solution A b. Neutralizing the solution A with an acid to obtain the composition comprising a bioactive molecule having a pH between 6 and 9,
Working machine, in particular construction machine, having a mast , along which, by means of a positioning means , a power rotary head is vertically movable, by which a telescopic Kelly rod having at least two Kelly bars is guided in a displaceable manner, wherein an outer Kelly bar designed for being supported on the power rotary head and an inner Kelly bar are provided which comprises a rope suspension for a rope , by which the inner Kelly bar is vertically movable by means of a main rope winch , wherein, for the purpose of torque transmission, the Kelly bars are provided on their external and/or internal sides with axially running drive keys as well as locking recesses on the drive keys and/or axial latch elements which can be moved into the locking recesses for axially locking the Kelly bars or moved out of the locking recesses for unlocking, characterized in that a control is provided which is designed for automatically checking a correct locking state of the Kelly bars, irrespective of whether a locking process is carried out, wherein by the control the positioning means of the power rotary head and/or the main rope winch can be actuated so that the Kelly bars are moved axially relative to each other, in that at least one detection means is provided, with which a movement distance of the Kelly bars with respect to each other and/or an axial force during movement of the Kelly bars can be detected, and in that the control is designed to ascertain the correct locking state of the Kelly bars depending on the detected movement distance and/or the detected axial force. a control is provided which is designed for automatically checking a correct locking state of the Kelly bars, irrespective of whether a locking process is carried out, wherein by the control the positioning means of the power rotary head and/or the main rope winch can be actuated so that the Kelly bars are moved axially relative to each other, in that at least one detection means is provided, with which a movement distance of the Kelly bars with respect to each other and/or an axial force during movement of the Kelly bars can be detected, and in that the control is designed to ascertain the correct locking state of the Kelly bars depending on the detected movement distance and/or the detected axial force.
A process for the production of a porous carbon product comprising the process steps of: a) Providing a substrate surface; b) Depositing silicon dioxide as a layer on the substrate surface, thereby obtaining a porous silicon dioxide material; c) Contacting the porous silicon dioxide material on the substrate surface with a first carbon source thereby obtaining a first precursor comprising the porous silicon dioxide material and the first carbon source; d) Heating the first precursor thereby obtaining a second precursor comprising the porous silicon dioxide material and carbon; and e) At least partially removing the silicon dioxide in the second precursor, thereby obtaining the porous carbon product. a) Providing a substrate surface; b) Depositing silicon dioxide as a layer on the substrate surface, thereby obtaining a porous silicon dioxide material; c) Contacting the porous silicon dioxide material on the substrate surface with a first carbon source thereby obtaining a first precursor comprising the porous silicon dioxide material and the first carbon source; d) Heating the first precursor thereby obtaining a second precursor comprising the porous silicon dioxide material and carbon; and e) At least partially removing the silicon dioxide in the second precursor, thereby obtaining the porous carbon product.
A method comprising: - obtaining, by a cleaning device, first map data through sensors of the cleaning device corresponding to a current cleaning position and second map data through sensors of the cleaning device corresponding to a previous cleaning position, each of the first and second map data comprises data associated with at least two map layers (0, 64, 100-105); - extracting, by the cleaning device, first map layer data from the first map data for each of the at least two map layers (0, 64, 100-105) and extracting, by the cleaning device, second map data from the second map data for each of the at least two map layers (0, 64, 100-105); - for at least one of the at least two map layers (0, 64, 100-105), obtaining, by the cleaning device, a difference between the first map layer data and the second map layer data, wherein the difference is a change of the second map layer data relative to the first map layer data; and - sending the difference to a computing device. - obtaining, by a cleaning device, first map data through sensors of the cleaning device corresponding to a current cleaning position and second map data through sensors of the cleaning device corresponding to a previous cleaning position, each of the first and second map data comprises data associated with at least two map layers (0, 64, 100-105); - extracting, by the cleaning device, first map layer data from the first map data for each of the at least two map layers (0, 64, 100-105) and extracting, by the cleaning device, second map data from the second map data for each of the at least two map layers (0, 64, 100-105); - for at least one of the at least two map layers (0, 64, 100-105), obtaining, by the cleaning device, a difference between the first map layer data and the second map layer data, wherein the difference is a change of the second map layer data relative to the first map layer data; and - sending the difference to a computing device.
A system (1; 1A) for use in connection with mechanical ventilation of a patient , provided by a ventilator , characterised in that the system comprises: - a bioelectric sensor arrangement (7; 7A; 7B) configured to register at least one bioelectric signal (S LP ; S LP(TA) , S LP(CT) ; S e1-5 ; S e11-12 ), hereinafter referred to as LP signal, originating from and relating to muscular activity of at least one muscle in the laryngopharyngeal region of said patient , and - at least one control unit (11; 11A, 11B) configured to control the operation of said ventilator based on said at least one LP signal wherein the control unit is configured to determine if a level of positive end-expiratory pressure [PEEP] currently applied to the patient should be adjusted, based on said at least one LP signal. - a bioelectric sensor arrangement (7; 7A; 7B) configured to register at least one bioelectric signal (S LP ; S LP(TA) , S LP(CT) ; S e1-5 ; S e11-12 ), hereinafter referred to as LP signal, originating from and relating to muscular activity of at least one muscle in the laryngopharyngeal region of said patient , and - at least one control unit (11; 11A, 11B) configured to control the operation of said ventilator based on said at least one LP signal
Hydrodynamic machine for producing a braking torque, in particular a hydrodynamic retarder, comprising a first blade wheel, in particular a rotor , and a second blade wheel, in particular a stator , arranged concentrically thereto, which wheels together form a toroidal working space , with a hydraulic system which has an open-loop and closed-loop control unit , a pump , a heat exchanger, a valve , a working medium reservoir , and a line system, wherein a volumetric flow circulation of the working medium through the line system and the working space can be produced by means of the pump , wherein the valve is a pressure-regulated valve by means of which of the braking power or the braking torque can be controlled under open-loop/closed-loop control, characterized in that the pressure-regulated valve is controlled under open-loop/closed-loop control by way of a pressure differential control .