mhurhangee/ep-ind-claims huggingface dataset:
A power tool comprising: a motor, a driving mechanism in connection with the motor and an operation member, wherein the driving mechanism includes a sliding member arranged to drive the operation member, the sliding member is driven by the motor and is arranged to move between a first sliding position and a second sliding position along a longitudinal axis during an operation of the power tool so as to drive the operation member to move between a first operation position and a second operation position respectively, wherein the power tool further comprising at least one position sensor arranged to detect the sliding member positioned at the first sliding position and/or the second sliding position; and a controlling mechanism, wherein the controlling mechanism is designed such that the power tool responds differently in response to the detection of the sliding member is positioned at the first sliding position and/or the second sliding position; characterized in comprising at least one intermediate connecting member arranged to connect the sliding member to the operation member, wherein the at least one intermediate connecting member include at least one of a string, a rope, a strand, a chain, a belt and a cable, and wherein the power tool further includes a telescopic structure arranged to extend and retract so as to respectively move the operation member away from and towards the motor along the longitudinal axis. a motor, a driving mechanism in connection with the motor and an operation member, wherein the driving mechanism includes a sliding member arranged to drive the operation member, the sliding member is driven by the motor and is arranged to move between a first sliding position and a second sliding position along a longitudinal axis during an operation of the power tool so as to drive the operation member to move between a first operation position and a second operation position respectively, wherein the power tool further comprising at least one position sensor arranged to detect the sliding member positioned at the first sliding position and/or the second sliding position; and a controlling mechanism, wherein the controlling mechanism is designed such that the power tool responds differently in response to the detection of the sliding member is positioned at the first sliding position and/or the second sliding position; characterized in comprising at least one intermediate connecting member arranged to connect the sliding member to the operation member, wherein the at least one intermediate connecting member include at least one of a string, a rope, a strand, a chain, a belt and a cable, and wherein the power tool further includes a telescopic structure arranged to extend and retract so as to respectively move the operation member away from and towards the motor along the longitudinal axis.
An image capturing apparatus comprising: a finder through which a user can observe a subject image formed on a focusing screen by looking via a pentaprism into the finder; display means for displaying a subject image on a screen, the display means being provided on a rear surface of the image capture apparatus; operation means (1, 2) configured to receive a movement operation performed by a user to move a focal point detection region (305, 305b, 305d, 405, 405a, 405c) displayed on the screen of the display means or on the focusing screen of the finder; and control means configured to perform control such that a movement amount of the focal point detection region (305, 305b, 305d, 405, 405a, 405c) on the screen of the display means or on the focusing screen of the finder, in accordance with the movement operation received by the operation means, is set depending upon whether a first shooting state or a second shooting state of the image capturing means is being used, wherein the first shooting state is a state where shooting is performed while viewing the display means, and the second shooting state is a state where shooting is performed while viewing the finder, and characterized in that the control means performs control such that the movement amount of the focal point detection region (305, 305b, 305d, 405, 405a, 405c) on the screen of the display means or on the focusing screen of the finder, in accordance with the movement operation received by the operation means, is greater for the first shooting state than the second shooting state. a finder through which a user can observe a subject image formed on a focusing screen by looking via a pentaprism into the finder; display means for displaying a subject image on a screen, the display means being provided on a rear surface of the image capture apparatus; operation means (1, 2) configured to receive a movement operation performed by a user to move a focal point detection region (305, 305b, 305d, 405, 405a, 405c) displayed on the screen of the display means or on the focusing screen of the finder; and control means configured to perform control such that a movement amount of the focal point detection region (305, 305b, 305d, 405, 405a, 405c) on the screen of the display means or on the focusing screen of the finder, in accordance with the movement operation received by the operation means, is set depending upon whether a first shooting state or a second shooting state of the image capturing means is being used, wherein the first shooting state is a state where shooting is performed while viewing the display means, and the second shooting state is a state where shooting is performed while viewing the finder, and characterized in that the control means performs control such that the movement amount of the focal point detection region (305, 305b, 305d, 405, 405a, 405c) on the screen of the display means or on the focusing screen of the finder, in accordance with the movement operation received by the operation means, is greater for the first shooting state than the second shooting state.
A steel product for protection of electrical components against mechanical damage and electrical short circuits resulting therefrom, said steel product being produced from a lightweight steel consisting of 6 to 30 wt.% manganese, up to 12.0 wt.% aluminium, up to 6.0 wt.% silicon, 0.04 to 2.0 wt.% carbon and additionally one or more of the elements chromium, titanium, vanadium, niobium, boron, zirconium, molybdenum, nickel, copper, tungsten, cobalt with up to 5 wt.% of each and up to 10 wt.% in total, remainder iron including impurities resulting from smelting, as hot-rolled strip or cold-rolled strip, sheet or tube, wherein the steel product is provided on at least one side with an electrically non-conductive plastic coating on the side which later faces the electrical components.
A method for controlling a gimbal used to carry a load, the method comprising: detecting a motion state of the gimbal or the load; determining whether a motion of the gimbal or the load is a user-intended motion according to the motion state; controlling the gimbal to move the load in an opposite direction to a moving direction of the motion, thereby maintaining the load in an original posture, if the motion is not a user-intended motion; and controlling the gimbal to move the load along a moving direction of the user-intended motion if the motion is a user-intended motion, wherein detecting a motion state of the gimbal or the load comprises detecting a rotation angle of the gimbal; characterized in that determining whether the motion of the gimbal is a user-intended motion according to the motion state comprises determining whether the rotation angle exceeds a preset angle threshold, the motion of the gimbal is determined as a user-intended motion if the rotation angle exceeds the preset angle threshold, while the motion of the gimbal is determined as not a user-intended motion if the rotation angle does not exceed the preset angle threshold. detecting a motion state of the gimbal or the load; determining whether a motion of the gimbal or the load is a user-intended motion according to the motion state; controlling the gimbal to move the load in an opposite direction to a moving direction of the motion, thereby maintaining the load in an original posture, if the motion is not a user-intended motion; and controlling the gimbal to move the load along a moving direction of the user-intended motion if the motion is a user-intended motion, wherein detecting a motion state of the gimbal or the load comprises detecting a rotation angle of the gimbal; characterized in that determining whether the motion of the gimbal is a user-intended motion according to the motion state comprises determining whether the rotation angle exceeds a preset angle threshold, the motion of the gimbal is determined as a user-intended motion if the rotation angle exceeds the preset angle threshold, while the motion of the gimbal is determined as not a user-intended motion if the rotation angle does not exceed the preset angle threshold.
An apparatus for dispensing a mixture, which is able to be generated from at least one gas flow and at least one fluid flow, onto a surface, the mixture being feedable to a device for dispensing the mixture, the device for dispensing the mixture comprising a gas-bearing line which is connected, downstream in the direction of flow of the compressed air, by a fluid line extending in its interior, to a connecting flange which is radially rotatable about its longitudinal axis, wherein, downstream in the direction of flow of the compressed air, the compressed air flows from the connecting flange into an outlet device, and end faces facing each other of two sections of the gas-bearing line project into the connecting flange, wherein the fluid-bearing line passes through the connecting flange along the longitudinal axis of the connecting flange and opens into the outlet device, wherein, downstream in relation to the direction of flow of the compressed air, the connecting flange is connected at its other end to the outlet device which the fluid-bearing line projects into, and the section of the gas-bearing line comprising the outlet device is arranged in the interior of the connecting flange opposite the remaining section of the gas-bearing line in a gas-tight displaceable manner, wherein the fluid-bearing line extends axially in the interior of the gas-bearing line, and both the gas-bearing line and the fluid-bearing line are configured as an outlet device for dispensing the mixture, the outlet device being further configured such that it is rotatable about the gas-bearing line eccentrically to the longitudinal axis thereof, and further having a body for cleaning the surface. wherein, downstream in the direction of flow of the compressed air, the compressed air flows from the connecting flange into an outlet device, and end faces facing each other of two sections of the gas-bearing line project into the connecting flange, wherein the fluid-bearing line passes through the connecting flange along the longitudinal axis of the connecting flange and opens into the outlet device, wherein, downstream in relation to the direction of flow of the compressed air, the connecting flange is connected at its other end to the outlet device which the fluid-bearing line projects into, and the section of the gas-bearing line comprising the outlet device is arranged in the interior of the connecting flange opposite the remaining section of the gas-bearing line in a gas-tight displaceable manner, wherein the fluid-bearing line extends axially in the interior of the gas-bearing line, and both the gas-bearing line and the fluid-bearing line are configured as an outlet device for dispensing the mixture, the outlet device being further configured such that it is rotatable about the gas-bearing line eccentrically to the longitudinal axis thereof, and further having a body for cleaning the surface.
A measurement device for performing measurements with respect to a device under test, the measurement device comprising: a port for receiving a signal from the device under test, a signal level modification unit for modifying the corresponding level of the signal in order to form a modified signal, the signal level modification unit being operable in at least a first operation mode and a second operation mode being different, as to its signal level, from the first operation mode, a receiving unit for receiving and digitizing the modified signal in order to a form a digitized modified signal, and a processing unit, wherein the processing unit is configured to receive a first data stream of the digitized modified signal for the case that the signal level modification unit is operated in the first operation mode and to receive a second data stream for the case that the signal level modification unit is operated in the second operation mode, and wherein the processing unit is configured to determine information regarding non-linearity of the receiving unit on the basis of a comparison of the first data stream and the second data stream. a port for receiving a signal from the device under test, a signal level modification unit for modifying the corresponding level of the signal in order to form a modified signal, the signal level modification unit being operable in at least a first operation mode and a second operation mode being different, as to its signal level, from the first operation mode, a receiving unit for receiving and digitizing the modified signal in order to a form a digitized modified signal, and a processing unit, wherein the processing unit is configured to receive a first data stream of the digitized modified signal for the case that the signal level modification unit is operated in the first operation mode and to receive a second data stream for the case that the signal level modification unit is operated in the second operation mode, and wherein the processing unit is configured to determine information regarding non-linearity of the receiving unit on the basis of a comparison of the first data stream and the second data stream.
Device for loading medical containers on dosing machines, which comprises an adaptor (2, 28, 31) for medical containers and a support for said adaptor, wherein the support comprises attachment means to a dosing machine, characterised in that said adaptor (2, 28, 31) and said support are independent between them and comprise means for pivoting relative to one another and means for clipping to each other, the pivoting means comprising at least one pivot and at least one paired surface in a recess, the pivot comprising a rounded projection with a rounded surface which allows pivoting between the support and the adaptor (2, 28, 31) when the rounded projection is placed in the recess so that the rounded projection and the paired surface come in contact with one another, said clipping means being arranged in such a way that the pivoting of the adaptor and of the support by means of the pivoting means produces the clipping together of the adaptor and the support.
A laminated glazing comprising at least a first glass sheet forming an exterior face of the glazing, which first sheet is linked to a second glass sheet by a first interlayer adhesive layer, wherein the edge of the first glass sheet is set back with respect to that of the second, a peripheral portion of the free surface of the first glass sheet, the edge of this glass sheet, the edge of the first interlayer adhesive layer and a portion of the surface of the second glass sheet extending beyond the first glass sheet describing a continuous stepped contour which is covered by a stepped metal element with the interposition of an external seal, the stepped metal element being covered by an air- and watertight seal, a window press rigidly connected to the structure for mounting the laminated glazing and the shape of which is substantially complementary to that of the continuous stepped contour making contact with the laminated glazing in the volume described by the continuous stepped contour, so as to hold the laminated glazing secure to its mounting structure, characterized in that an electrical conductor links the stepped metal element and the structure for mounting the laminated glazing by way of the window press.
A method for identifying one or more specific microbial species in a sample obtained from a subject, the method comprising: (a) depleting eukaryotic DNA from the sample through selective lysis of eukaryotic cells; (b) lysing one or more microbial cells in the sample, wherein the lysing of one or more microbial cells releases a plurality of microbial genetic materials; (c) isolating the plurality of microbial genetic materials using an anion exchange resin; (d) enzymatically amplifying the plurality of microbial genetic materials; (e) contacting the amplified microbial genetic materials with a DNA Invading Artificial Nucleic Acid (DIANA) comprising a sequence of any one of SEQ ID NOS: 1-37, wherein the DIANA is a gamma-modified PNA probe and (f) detecting binding of the DIANA to the microbial genetic material of its respective single species or group of microbes, wherein the detection of binding indicates the presence of the specific microbial species or group of microbes in the sample. (a) depleting eukaryotic DNA from the sample through selective lysis of eukaryotic cells; (b) lysing one or more microbial cells in the sample, wherein the lysing of one or more microbial cells releases a plurality of microbial genetic materials; (c) isolating the plurality of microbial genetic materials using an anion exchange resin; (d) enzymatically amplifying the plurality of microbial genetic materials; (e) contacting the amplified microbial genetic materials with a DNA Invading Artificial Nucleic Acid (DIANA) comprising a sequence of any one of SEQ ID NOS: 1-37, wherein the DIANA is a gamma-modified PNA probe and (f) detecting binding of the DIANA to the microbial genetic material of its respective single species or group of microbes, wherein the detection of binding indicates the presence of the specific microbial species or group of microbes in the sample.
Extensible table comprising a main table top and comprising at least one supplementary table top which can be placed next to the main table top and is in the form of an insertable leaf which is guided obliquely downwards under the main table top by means of a main guide, wherein said insertable leaf is movable between a completely extended and a completely retracted position, and, for the completely extended position, locking of the supplementary table top in relation to the main table top is provided in such a manner that the horizontal movement of said supplementary table top in the direction of the main table top is prevented, wherein the supplementary table top is additionally guided by means of an auxiliary guide which has a guide arm which is fastened at its outwardly directed end to the supplementary table top and can be brought into engagement via its free end with a primary guide plate, which is arranged vertically below the main table top, in order to lock the supplementary table top in its completely extended position, and the primary guide plate is mounted flexibly and is held in order to take up a main position in the horizontal direction and is guided by means of a secondary guide plate, which is arranged parallel to the primary guide plate and likewise interacts with the guide arm, in such a manner that, when a force exerted horizontally from the supplementary table top on the primary guide plate via the guide arm is exceeded, the locking of the supplementary table top in relation to the main table top can be undone.
A sounding reference symbol transmission method performed by a radio remote unit, wherein the method comprises: a.) receiving identification information from a baseband processing unit, wherein the identification information is used for identifying sounding reference symbol, SRS, sampled data, wherein the identification information comprises a receiving time point and a time length; b.) receiving (step 101) a plurality of pieces of sampled data in a first period from each antenna of an antenna array; c.) detecting whether a receiving time of each of the plurality of pieces of sampled data is later than the receiving time point and whether a time interval between the receiving time of each piece of sampled data and the receiving time point is less than the time length (step 102); d.) if yes in step c.), determining that all of the plurality of pieces of sampled data are the SRS sampled data; e.) if no in step c.), determining that all of the plurality of pieces of sampled data are non-SRS sampled data; f.) after step d.), buffering (step 103) the SRS sampled data into a buffer of the radio remote unit; g.) reading (step 104) the SRS sampled data from the buffer in a second period, and sending the read SRS sampled data to the baseband processing unit, wherein a duration of the second period is longer than a duration of the first period; h.) after step e.), compressing the non-SRS sampled data, thereby arriving at compressed non-SRS sampled data, and transmitting the compressed non-SRS sampled data to the baseband processing unit. a.) receiving identification information from a baseband processing unit, wherein the identification information is used for identifying sounding reference symbol, SRS, sampled data, wherein the identification information comprises a receiving time point and a time length; b.) receiving (step 101) a plurality of pieces of sampled data in a first period from each antenna of an antenna array; c.) detecting whether a receiving time of each of the plurality of pieces of sampled data is later than the receiving time point and whether a time interval between the receiving time of each piece of sampled data and the receiving time point is less than the time length (step 102); d.) if yes in step c.), determining that all of the plurality of pieces of sampled data are the SRS sampled data; e.) if no in step c.), determining that all of the plurality of pieces of sampled data are non-SRS sampled data; f.) after step d.), buffering (step 103) the SRS sampled data into a buffer of the radio remote unit; g.) reading (step 104) the SRS sampled data from the buffer in a second period, and sending the read SRS sampled data to the baseband processing unit, wherein a duration of the second period is longer than a duration of the first period; h.) after step e.), compressing the non-SRS sampled data, thereby arriving at compressed non-SRS sampled data, and transmitting the compressed non-SRS sampled data to the baseband processing unit.
Drive device comprising an electric motor and an actuation electronics system for the electric motor, wherein the actuation electronics system is arranged on a circuit carrier, wherein the circuit carrier comprises conductor tracks, characterized in that the circuit carrier is a housing part of the electric motor, and therefore a separate power substrate is not required.