mhurhangee/ep-ind-claims huggingface dataset:
Holding device for a mobile radio, comprising: a baseplate; a clamping fixture comprising a first jaw which is firmly mounted on the baseplate and a second jaw attached to the baseplate and laterally moveable in a direction towards the first jaw such that the mobile radio is clamped by the two jaws (21, 22) between its left side and its right side; and a lever, coupled to the second jaw and configured to move the second jaw towards the first jaw; wherein a connection element is integrated in the first jaw and configured to electrically couple a communication interface of the mobile radio with an external communication device; wherein the second jaw comprises an opening configured to permit access to an operating element at the respective side of the mobile radio through the opening; wherein the first jaw and/or the second jaw comprise at least one holding element that fits into a corresponding opening on a side of the mobile radio. a baseplate; a clamping fixture comprising a first jaw which is firmly mounted on the baseplate and a second jaw attached to the baseplate and laterally moveable in a direction towards the first jaw such that the mobile radio is clamped by the two jaws (21, 22) between its left side and its right side; and a lever, coupled to the second jaw and configured to move the second jaw towards the first jaw; wherein a connection element is integrated in the first jaw and configured to electrically couple a communication interface of the mobile radio with an external communication device; wherein the second jaw comprises an opening configured to permit access to an operating element at the respective side of the mobile radio through the opening; wherein the first jaw and/or the second jaw comprise at least one holding element that fits into a corresponding opening on a side of the mobile radio.
A hard alloy comprising: 50 to 70 mass% of WC; 15 to 30 mass% of TiCN; and 0 to 10 mass% of at least one kind of carbide, nitride, and carbonitride of one or more metals of Groups IV, V, and VI of periodic table, other than W and Ti; and 6 to 12 mass% of at least one of Co and Ni; the hard alloy having a constitution containing a composite hard phase containing at least one kind of carbide, nitride, and carbonitride of one or more metals of Groups IV, V, and VI of periodic table including W and Ti, a WC phase, and a binder phase containing at least one of Co and Ni as the main components; wherein a surface portion having a WC content higher than a WC content of an internal portion of the hard alloy is located at a surface of the hard alloy and a high hardness portion having a hardness that is higher than a hardness of the internal portion of the hard alloy is located directly underneath the surface portion, wherein a portion where the ratio of the WC phase in the total amount of hard phase is 80 area% or more is the surface portion and a portion where the ratio of the WC phase in the total amount of hard phase is lower than the 80 area% is the high hardness portion; an average size of grains in the WC phase in the surface portion is 1.1 to 1.5 times as high as an average size of grains in the WC phase in the internal portion; a thickness of the surface portion is 5 to 20 μm; a maximum Vickers hardness in the high hardness portion is 1.2 to 1.3 times as high as an average Vickers hardness in the internal portion; a thickness of the high hardness portion is 30 to 200 μm. 50 to 70 mass% of WC; 15 to 30 mass% of TiCN; and 0 to 10 mass% of at least one kind of carbide, nitride, and carbonitride of one or more metals of Groups IV, V, and VI of periodic table, other than W and Ti; and 6 to 12 mass% of at least one of Co and Ni; the hard alloy having a constitution containing a composite hard phase containing at least one kind of carbide, nitride, and carbonitride of one or more metals of Groups IV, V, and VI of periodic table including W and Ti, a WC phase, and a binder phase containing at least one of Co and Ni as the main components; wherein a surface portion having a WC content higher than a WC content of an internal portion of the hard alloy is located at a surface of the hard alloy and a high hardness portion having a hardness that is higher than a hardness of the internal portion of the hard alloy is located directly underneath the surface portion, wherein a portion where the ratio of the WC phase in the total amount of hard phase is 80 area% or more is the surface portion and a portion where the ratio of the WC phase in the total amount of hard phase is lower than the 80 area% is the high hardness portion; an average size of grains in the WC phase in the surface portion is 1.1 to 1.5 times as high as an average size of grains in the WC phase in the internal portion; a thickness of the surface portion is 5 to 20 μm; a maximum Vickers hardness in the high hardness portion is 1.2 to 1.3 times as high as an average Vickers hardness in the internal portion; a thickness of the high hardness portion is 30 to 200 μm.
An edge correction apparatus comprising: a high-frequency emphasis device for emphasizing a high-frequency signal not less than a predetermined frequency of an input signal; a suppression device for suppressing noise of the high-frequency signal emphasized by said high-frequency emphasis device; and a control device for controlling a suppression level used to suppress the noise of the high-frequency signal by said suppression device in accordance with a control value characterised in that the control value is obtained by integrating absolute values of the high-frequency signal obtained in each of a plurality of pixels. a high-frequency emphasis device for emphasizing a high-frequency signal not less than a predetermined frequency of an input signal; a suppression device for suppressing noise of the high-frequency signal emphasized by said high-frequency emphasis device; and a control device for controlling a suppression level used to suppress the noise of the high-frequency signal by said suppression device in accordance with a control value characterised in that the control value is obtained by integrating absolute values of the high-frequency signal obtained in each of a plurality of pixels.
Method for operating a motor vehicle, comprising the following steps: - checking, by way of a narrow section assistant of the motor vehicle, based on data characterizing dimensions of a narrow section, whether it is possible to determine at least one trajectory for the motor vehicle to drive through the narrow section without a collision; - if it is not possible to determine a trajectory to drive through the narrow section without a collision: outputting a warning notification; - if at least one trajectory to drive through the narrow section without a collision has been determined: signalling that the narrow section is passable; wherein, in accordance with the determined trajectory, a target driving tube is displayed by way of a display device of the motor vehicle, wherein, as long as the motor vehicle drives within the target driving tube, the narrow section is able to be driven through without a collision, characterized in that the narrow section assistant determines, on the basis of provided map data and/or swarm data from other motor vehicles, whether the motor vehicle, after having driven through the narrow section, is able to continue its journey taking into consideration at least one predefined criterion from the following criteria following the narrow section: - dimensions of the motor vehicle in relation to ground clearance and/or vehicle height, - the tyres of the motor vehicle and/or - road conditions, and to make the driver aware thereof even before the driver attempts to drive through the narrow section. - checking, by way of a narrow section assistant of the motor vehicle, based on data characterizing dimensions of a narrow section, whether it is possible to determine at least one trajectory for the motor vehicle to drive through the narrow section without a collision; - if it is not possible to determine a trajectory to drive through the narrow section without a collision: outputting a warning notification; - if at least one trajectory to drive through the narrow section without a collision has been determined: signalling that the narrow section is passable; wherein, in accordance with the determined trajectory, a target driving tube is displayed by way of a display device of the motor vehicle, wherein, as long as the motor vehicle drives within the target driving tube, the narrow section is able to be driven through without a collision, characterized in that the narrow section assistant determines, on the basis of provided map data and/or swarm data from other motor vehicles, whether the motor vehicle, after having driven through the narrow section, is able to continue its journey taking into consideration at least one predefined criterion from the following criteria following the narrow section: - dimensions of the motor vehicle in relation to ground clearance and/or vehicle height, - the tyres of the motor vehicle and/or - road conditions, - dimensions of the motor vehicle in relation to ground clearance and/or vehicle height, - the tyres of the motor vehicle and/or - road conditions, and to make the driver aware thereof even before the driver attempts to drive through the narrow section.
An inclined sedimentation acceleration system comprising: a reservoir configured to store raw water, an inclined sedimentation acceleration apparatus (100, 101, 102, 103, 104, 105, 200, 201, 300, 400, 401) configured to precipitate suspended solids contained in the raw water, the inclined sedimentation acceleration apparatus being submerged inside the reservoir, and a water trough configured to collect water flowing through the inclined sedimentation acceleration apparatus and discharging the water to the outside of the reservoir, the water trough being disposed above the inclined sedimentation acceleration apparatus, wherein the inclined sedimentation acceleration apparatus comprises: an inclined part having a plurality of inclined flow paths through which raw water flows upward; and side plates disposed on both sides of the inclined part, characterized in that all of an upper ridge part of the inclined part is disposed at a height different from that of an upper ridge part of the side plate, the upper ridge part of the inclined part and the upper ridge part of the side plate being positioned beneath the water surface, and wherein the water trough is disposed at a position higher than the upper ridge part of the inclined part and the upper ridge part of the side plate. a reservoir configured to store raw water, an inclined sedimentation acceleration apparatus (100, 101, 102, 103, 104, 105, 200, 201, 300, 400, 401) configured to precipitate suspended solids contained in the raw water, the inclined sedimentation acceleration apparatus being submerged inside the reservoir, and a water trough configured to collect water flowing through the inclined sedimentation acceleration apparatus and discharging the water to the outside of the reservoir, the water trough being disposed above the inclined sedimentation acceleration apparatus, an inclined part having a plurality of inclined flow paths through which raw water flows upward; and side plates disposed on both sides of the inclined part, characterized in that all of an upper ridge part of the inclined part is disposed at a height different from that of an upper ridge part of the side plate, the upper ridge part of the inclined part and the upper ridge part of the side plate being positioned beneath the water surface, and wherein the water trough is disposed at a position higher than the upper ridge part of the inclined part and the upper ridge part of the side plate.
A target for use in a laser desorption mass spectrometer, wherein the target has at least one surface, wherein the surface is covered at least partially with at least one layer, characterised in that the layer is a hydrogen comprising, silicon-incorporated amorphous carbon (a-C:H:Si) layer, wherein the a-C:H:Si layer comprises: • 40 at.% to 80 at.% of carbon; • 1 at.% to 20 at.% of hydrogen; and • 10 at.% to 40 at.% of silicon. • 40 at.% to 80 at.% of carbon; • 1 at.% to 20 at.% of hydrogen; and • 10 at.% to 40 at.% of silicon.
An electronic open-circuit current measuring circuit configured to measure a current delivered between a current source and a load during an open circuit condition, the electronic open-circuit current measuring circuit comprising: a first electronic buffer operational amplifier (126 a) that receives a first input voltage and generates a first buffered output voltage; a second electronic buffer operational amplifier (126 b) that receives a second input voltage different from the first input voltage, and generates a second buffered output voltage different from the first buffered output voltage; an electrical voltage difference calculating circuit in electrical communication with the first buffer operation amplifier and the second buffer operation, the voltage difference calculating circuit configured to determine a voltage differential based on the first buffered output voltage and the second buffered output voltage; and an electronic voltage drop component electrically connected between the first buffer output and the electrical voltage difference calculating circuit, the voltage drop component configured to reduce a first voltage level of the first buffered output voltage below a second voltage level of the second buffered output voltage in response to the open circuit condition. a first electronic buffer operational amplifier (126 a) that receives a first input voltage and generates a first buffered output voltage; a second electronic buffer operational amplifier (126 b) that receives a second input voltage different from the first input voltage, and generates a second buffered output voltage different from the first buffered output voltage; an electrical voltage difference calculating circuit in electrical communication with the first buffer operation amplifier and the second buffer operation, the voltage difference calculating circuit configured to determine a voltage differential based on the first buffered output voltage and the second buffered output voltage; and an electronic voltage drop component electrically connected between the first buffer output and the electrical voltage difference calculating circuit, the voltage drop component configured to reduce a first voltage level of the first buffered output voltage below a second voltage level of the second buffered output voltage in response to the open circuit condition.
A balloon-launching apparatus comprising a plurality of housing sections each formed in a box shape having an opening at an upper part of the housing section and configured to house a balloon, each housing section configured to launch the balloon from the opening, wherein the plurality of housing sections are arranged in a matrix shape, the balloon-launching apparatus further comprises: a container; and a holdingmember (42, 43) that has a plurality of openings, each of the housing sections being fitted in an opening and being removably attached to the holding member (42, 43), the container has a balloon-launching chamber and a preparation chamber divided by a partition, the partition including a communicating opening that allows the balloon-launching chamber and the preparation chamber to be in communication with each other, and a balloon-launching port provided on a top surface of the balloon-launching chamber and positioned above all the openings of the housing sections when the plurality of housing sections arranged in a matrix shape are placed in the balloon-launching chamber, and the balloon-launching apparatus further comprises: a first rail extending over the balloon-launching chamber and the preparation chamber through the communicating opening; and a carriage that is configured to be moved by an operator to run on the first rail and move the holding member (42, 43) along the first rail. the plurality of housing sections are arranged in a matrix shape, the balloon-launching apparatus further comprises: a container; and a holdingmember (42, 43) that has a plurality of openings, each of the housing sections being fitted in an opening and being removably attached to the holding member (42, 43), a container; and a holdingmember (42, 43) that has a plurality of openings, each of the housing sections being fitted in an opening and being removably attached to the holding member (42, 43), the container has a balloon-launching chamber and a preparation chamber divided by a partition, the partition including a communicating opening that allows the balloon-launching chamber and the preparation chamber to be in communication with each other, and a balloon-launching port provided on a top surface of the balloon-launching chamber and positioned above all the openings of the housing sections when the plurality of housing sections arranged in a matrix shape are placed in the balloon-launching chamber, and the balloon-launching apparatus further comprises: a first rail extending over the balloon-launching chamber and the preparation chamber through the communicating opening; and a carriage that is configured to be moved by an operator to run on the first rail and move the holding member (42, 43) along the first rail. a first rail extending over the balloon-launching chamber and the preparation chamber through the communicating opening; and a carriage that is configured to be moved by an operator to run on the first rail and move the holding member (42, 43) along the first rail.
A method in a network node for managing radio resources, the network node being comprised in a wireless radio network, wherein a mobile station configured to operate in the wireless radio network has a maximum bandwidth for simultaneous receptions and a first carrier list comprising carriers, wherein the carriers are radio carriers assigned to the mobile station, and wherein the maximum bandwidth cannot envelope all the carriers in the first carrier list, the method being characterized by: removing one or more carriers from the first carrier list resulting in a reduced carrier list, which removing of the one or more carriers is performed, one carrier by one carrier, the one or more removed carriers having a lowest priority according to a priority list, calculating if the maximum bandwidth of the mobile station can envelope all the remaining carriers in the reduced carrier list, and when the maximum bandwidth of the mobile station cannot envelope all the remaining carriers in the reduced carrier list, the removing one or more carriers from the first carrier list further comprising, removing one or more further carriers having a lowest priority from the reduced carrier list, one by one, until the network node calculates that the maximum bandwidth can envelope all the remaining carriers after the removing the one or more further carriers, which remaining carriers comprise carriers to receive for the mobile station and carriers possible for the network node to allocate to the mobile station. removing one or more carriers from the first carrier list resulting in a reduced carrier list, which removing of the one or more carriers is performed, one carrier by one carrier, the one or more removed carriers having a lowest priority according to a priority list, calculating if the maximum bandwidth of the mobile station can envelope all the remaining carriers in the reduced carrier list, and when the maximum bandwidth of the mobile station cannot envelope all the remaining carriers in the reduced carrier list, the removing one or more carriers from the first carrier list further comprising, removing one or more further carriers having a lowest priority from the reduced carrier list, one by one, until the network node calculates that the maximum bandwidth can envelope all the remaining carriers after the removing the one or more further carriers, calculating if the maximum bandwidth of the mobile station can envelope all the remaining carriers in the reduced carrier list, and when the maximum bandwidth of the mobile station cannot envelope all the remaining carriers in the reduced carrier list, the removing one or more carriers from the first carrier list further comprising, removing one or more further carriers having a lowest priority from the reduced carrier list, one by one, until the network node calculates that the maximum bandwidth can envelope all the remaining carriers after the removing the one or more further carriers, which remaining carriers comprise carriers to receive for the mobile station and carriers possible for the network node to allocate to the mobile station.
A variable valve drive of an internal combustion piston engine having at least one functionally identical gas exchange valve per cylinder, the valve stroke of which is specified by at least one primary cam and a secondary cam of a camshaft and can be selectively transmitted to at least one associated gas exchange valve by means of a switchable cam follower, which has a primary follower and a secondary follower, wherein the respective primary follower is supported, with its one end, on a associated supporting element mounted on the housing and, with its other end, on the valve stem of the associated gas exchange valve, wherein the respective primary follower is in following contact between its two ends with the associated primary cam, and in which the secondary follower is pivotably mounted on the primary follower, with the associated secondary cam in following contact, and can be coupled to the primary follower by means of a coupling element which can be adjusted by an adjusting device, and wherein the respective coupling element of the switchable cam follower is designed as a coupling bolt guided in a transverse bore of the primary follower in an axially movable manner are such that the coupling element can be moved into an opposite coupling bore of the secondary follower against the restoring force of a spring element by means of a switching bolt which is axially movable in a transverse bore of the secondary follower, that the respective switching bolt protrudes with its axially outer end from the secondary follower, that this axially outer end of the switching bolt is connected to a rod-shaped connection element, which in turn is connected to a switching rod in an adjusting connection that the switching rod is arranged above the respective cam follower parallel to the associated camshaft, that the switching rod can be moved longitudinally from a rest position into a switching position by means of a linear actuator against the restoring force of a spring element, and that the connection elements of the switchable cam followers are formed as leaf springs.