mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a three-dimensional workpiece with the steps: (i) applying a first raw material powder to a substrate in order to produce a raw material powder layer consisting of the first raw material powder , (ii) selectively irradiating the raw material powder layer consisting of the first raw material powder with electromagnetic radiation or particle radiation in order to produce a solidified first workpiece layer portion from the first raw material powder , (iii) removing non-solidified first raw material powder from the substrate , (iv) applying a second raw material powder to the substrate in order to produce a raw material powder layer portion consisting of the second raw material powder adjacent to the first workpiece layer portion , (v) selectively irradiating the raw material powder layer portion with electromagnetic radiation or particle radiation in order to produce a solidified second workpiece layer portion from the second raw material powder adjacent to the first workpiece layer portion , (vi) heating of non-solidified second raw material powder remaining following site-selective irradiation of the raw material powder layer portion consisting of the second raw material powder in order to produce a continuous porous sintered layer portion from the second raw material powder adjacent to the first workpiece layer portion and the second workpiece layer portion . (i) applying a first raw material powder to a substrate in order to produce a raw material powder layer consisting of the first raw material powder , (ii) selectively irradiating the raw material powder layer consisting of the first raw material powder with electromagnetic radiation or particle radiation in order to produce a solidified first workpiece layer portion from the first raw material powder , (iii) removing non-solidified first raw material powder from the substrate , (iv) applying a second raw material powder to the substrate in order to produce a raw material powder layer portion consisting of the second raw material powder adjacent to the first workpiece layer portion , (v) selectively irradiating the raw material powder layer portion with electromagnetic radiation or particle radiation in order to produce a solidified second workpiece layer portion from the second raw material powder adjacent to the first workpiece layer portion , (vi) heating of non-solidified second raw material powder remaining following site-selective irradiation of the raw material powder layer portion consisting of the second raw material powder in order to produce a continuous porous sintered layer portion from the second raw material powder adjacent to the first workpiece layer portion and the second workpiece layer portion .
A power transmission device for a tractor in which a first and a second supporting wall (Ma, Mb) are provided in a front mission case (MF) linked to a flywheel housing (F) to form a first chamber that is in communication with an interior of the flywheel housing (F), a second or middle chamber , and a third or rear chamber , and the second and third chambers serve as an oil bath, and a forward/reverse drive switch mechanism that converts power of a propeller shaft into forward or reverse drive power is provided in the second chamber , a main speed change mechanism that converts power transmitted from the forward/reverse drive switch mechanism to an input shaft into multiple speeds and transmits the power to a countershaft , a sub-speed change mechanism that receives from the countershaft the power converted by the main speed change mechanism and converts the power into a high and a low speed, and an output shaft that transmits rear-wheel drive power from the sub-speed change mechanism , are provided in a third chamber , and a front-wheel drive power extracting shaft that extracts power of the output shaft as front-wheel drive power via front-wheel drive power extracting means is supported by the first and second supporting walls (Ma, Mb), wherein the second supporting wall (Mb) includes an upper wall portion (Mb1) and a lower wall portion (Mb2) that are separated from each other in an up-and-down direction and a fore-and-aft direction, the upper wall portion (Mb1) rotatably supports the propeller shaft of the forward/reverse drive switch mechanism , the input shaft of the main speed change mechanism , and the countershaft and the output shaft of the sub-speed change mechanism , the lower wall portion (Mb2) is located apart from, behind and below the upper wall portion (Mb1) and supports the front-wheel drive power extracting shaft , an opening that is open in the up-and-down direction and the fore-and-aft direction is formed between the upper and lower wall portions (Mb1, Mb2), and the front-wheel drive power extracting means is provided in the opening , and the front-wheel drive power extracting means has a front-wheel drive power extracting gear that is provided at a front end of the output shaft at the back of the upper wall portion (Mb1), and a power transmission gear that is engaged with the front-wheel drive power extracting gear and is supported by a rear end of the front-wheel drive power extracting shaft .
A resistor-assembly , comprising: a substrate formed of a ceramic-material ; a heater configured to heat the resistor-assembly ; a resistor-element formed of an ion-conducting material that overlies the substrate ; and conductive-leads formed of a catalytic-metal that are in communication with a gas and in electrical contact with the resistor-element , wherein the resistor-element is characterized by a resistance-value that is influenced by an oxygen-presence in the gas when being heated by the heater to a resistor-temperature that is greater than a temperature-threshold , and wherein the resistor-assembly has a portion of the resistor-element removed by laser-trimming so as to expose a portion of the substrate , thereby reducing a cross-sectional area of the resistor-element , whereby the resistance-value is adjusted to a predetermined resistance-value. a substrate formed of a ceramic-material ; a heater configured to heat the resistor-assembly ; a resistor-element formed of an ion-conducting material that overlies the substrate ; and conductive-leads formed of a catalytic-metal that are in communication with a gas and in electrical contact with the resistor-element , wherein the resistor-element is characterized by a resistance-value that is influenced by an oxygen-presence in the gas when being heated by the heater to a resistor-temperature that is greater than a temperature-threshold , and wherein the resistor-assembly has a portion of the resistor-element removed by laser-trimming so as to expose a portion of the substrate , thereby reducing a cross-sectional area of the resistor-element , whereby the resistance-value is adjusted to a predetermined resistance-value.
A minimally invasive neutron beam generating device , comprising: a proton accelerator connected to a first channel ; a target located at one end of the first channel ; and a neutron moderator covering the end of the first channel so that the target is embedded in the neutron moderator , wherein the neutron moderator comprises an accommodating element for accommodating a moderating substance , and the accommodating element is retractable. a proton accelerator connected to a first channel ; a target located at one end of the first channel ; and a neutron moderator covering the end of the first channel so that the target is embedded in the neutron moderator , wherein the neutron moderator comprises an accommodating element for accommodating a moderating substance , and the accommodating element is retractable.
Coupling and/or damping element of a vehicle, in particular a rail vehicle, having at least two components which are movable relative to one another along at least one movement direction , and having a monitoring system with at least one transmitter and at least one sensor which are configured and arranged to detect the movement of the two components along the at least one movement direction , wherein the transmitter and the sensor are connected in a signal-transmitting manner, so that the sensor detects a signal generated by the transmitter and the at least one transmitter and the at least one sensor are positioned at a constant distance from one another and a signal transmission-modifying element is provided, which is movable with one of the components or as a function of the relative movement of the components in order to change the transmitted signal as a function of the position of the element or the transmitter and the sensor are formed by at least one coil which generates a signal in the form of an electromagnetic field , and a signal transmission-modifying element is provided, which is movable with one of the components or as a function of the relative movement of the components in order to change an inductance of the coil as a function of the position of the element by changing the electromagnetic field , characterized in that the two components are in telescopic engagement with one another in the movement direction and are secured against rotation relative to one another in the circumferential direction with respect to the movement direction by means of a rotation-prevention means , wherein the transmitter and the sensor are arranged in the rotation-prevention means . the transmitter and the sensor are formed by at least one coil which generates a signal in the form of an electromagnetic field , and a signal transmission-modifying element is provided, which is movable with one of the components or as a function of the relative movement of the components in order to change an inductance of the coil as a function of the position of the element by changing the electromagnetic field , characterized in that the two components are in telescopic engagement with one another in the movement direction and are secured against rotation relative to one another in the circumferential direction with respect to the movement direction by means of a rotation-prevention means , wherein the transmitter and the sensor are arranged in the rotation-prevention means .
A system comprising: a streamer ; a sensor package coupled to the streamer, wherein the sensor package comprises a primary orientation sensor and a complimentary orientation sensor , wherein the complimentary orientation sensor comprises a magnetometer, wherein the primary orientation sensor and the complimentary orientation sensor are capable of collecting data indicative of the orientation of the streamer and geophysical sensors distributed on the streamer , characterized in that the complimentary orientation sensor is adapted to measure magnetic field, magnetic inclination, and azimuth, information from the complimentary orientation sensor being used to determine roll angle of the streamer . a streamer ; a sensor package coupled to the streamer, wherein the sensor package comprises a primary orientation sensor and a complimentary orientation sensor , wherein the complimentary orientation sensor comprises a magnetometer, wherein the primary orientation sensor and the complimentary orientation sensor are capable of collecting data indicative of the orientation of the streamer and geophysical sensors distributed on the streamer , characterized in that the complimentary orientation sensor is adapted to measure magnetic field, magnetic inclination, and azimuth, information from the complimentary orientation sensor being used to determine roll angle of the streamer .
An arrangement for mounting an impact sensor assembly to a vehicle comprising a first sensor housing and a second sensor housing each of which housings has a pressure sensor ; a deformable tube connected to the first sensor housing and the second sensor housing via a tube connection ; and a fascia of the vehicle , wherein the first sensor housing , the second sensor housing and the deformable tube of the impact sensor assembly are mounted behind the fascia of the vehicle , and between an energy absorbing material and a cross beam , the deformable tube of the impact sensor assembly is mounted, wherein the deformable tube , the energy absorbing material and the cross beam extend laterally from a vehicle centerline ; characterized by a first electric device casing and/or a second electric device casing of a bumper assembly of the vehicle each of which defining a surface , wherein the first sensor housing is mounted to the surface of the first electric device casing and/or the second sensor housing is mounted to the surface of the second sensor housing ; at least two mounting elements provided on the surface of the first electric device casing and/or the second electric device casing ; and a distance element with damping properties surrounding each mounting element for isolating the first sensor housing and/or the second sensor housing from vibrations. a first sensor housing and a second sensor housing each of which housings has a pressure sensor ; a deformable tube connected to the first sensor housing and the second sensor housing via a tube connection ; and a fascia of the vehicle , wherein the first sensor housing , the second sensor housing and the deformable tube of the impact sensor assembly are mounted behind the fascia of the vehicle , and between an energy absorbing material and a cross beam , the deformable tube of the impact sensor assembly is mounted, wherein the deformable tube , the energy absorbing material and the cross beam extend laterally from a vehicle centerline ; characterized by a first electric device casing and/or a second electric device casing of a bumper assembly of the vehicle each of which defining a surface , wherein the first sensor housing is mounted to the surface of the first electric device casing and/or the second sensor housing is mounted to the surface of the second sensor housing ; at least two mounting elements provided on the surface of the first electric device casing and/or the second electric device casing ; and a distance element with damping properties surrounding each mounting element for isolating the first sensor housing and/or the second sensor housing from vibrations.
A carrier tape for carrying electronic devices , comprising: a continuous channel formed along a length of the carrier tape , the continuous channel having first and second side walls and a floor ; and electronic devices accommodated in the continuous channel ; a cover tape configured to hold said electronic devices within the continuous channel , wherein the cover tape covers top surfaces of the electronic devices and is sealed to the floor of the continuous channel on both sides of the electronic devices in between the first and second side walls and the electronic devices . a continuous channel formed along a length of the carrier tape , the continuous channel having first and second side walls and a floor ; and electronic devices accommodated in the continuous channel ; a cover tape configured to hold said electronic devices within the continuous channel , wherein the cover tape covers top surfaces of the electronic devices and is sealed to the floor of the continuous channel on both sides of the electronic devices in between the first and second side walls and the electronic devices .
A diffuser pipe assembly (20; 120) for a centrifugal compressor of a gas turbine engine defining a central axis (A) extending longitudinally through the diffuser pipe assembly (20; 120), the diffuser pipe assembly (20; 120) comprising a plurality of diffuser pipes (22; 122; 322) circumferentially distributed around the central axis (A) and configured for diffusing a flow of compressed air received from an impeller , the diffuser pipes (22; 122; 322) curving between an inlet end and an outlet end , wherein a first subset of the diffuser pipes is configured to have a natural vibration frequency different to a natural vibration frequency of at least a second subset of the diffuser pipes ; characterised in that : at least one of the diffuser pipes (22; 122; 322) is made of a material different than that of the remainder of the diffuser pipes (22; 122; 322).
An ultrasonic transducer comprising: a plurality of piezoelectric elements arranged in at least one column; individual electrodes provided on at least one surface of top and bottom surfaces of each of the piezoelectric elements ; a plurality of side electrodes formed from the individual electrodes and extending toward corresponding side surfaces of each of the plurality of piezoelectric elements; and a side electrode substrate comprising a plurality of wiring lines respectively bonded to each of the side surfaces of each of the plurality of piezoelectric elements and electrically connected to the plurality of side electrodes , wherein each of the plurality of side electrodes of the plurality of piezoelectric elements located in one column has a different height. a plurality of piezoelectric elements arranged in at least one column; individual electrodes provided on at least one surface of top and bottom surfaces of each of the piezoelectric elements ; a plurality of side electrodes formed from the individual electrodes and extending toward corresponding side surfaces of each of the plurality of piezoelectric elements; and a side electrode substrate comprising a plurality of wiring lines respectively bonded to each of the side surfaces of each of the plurality of piezoelectric elements and electrically connected to the plurality of side electrodes , wherein each of the plurality of side electrodes of the plurality of piezoelectric elements located in one column has a different height.
A computer-implemented character display method, comprising: receiving (S101) a display parameter, the display parameter comprising one or more of a line width, a character spacing, an initial origin position, a line spacing and an alignment style; obtaining (S102) a to-be-displayed character; obtaining (S103) a texture of the to-be-displayed character; and displaying (S104) the texture of the to-be-displayed character on a screen based on the display parameter and an attribute of the texture of the to-be-displayed character, wherein said displaying (S104) the texture of the to-be-displayed character on the screen based on the display parameter and the attribute of the texture of the to-be-displayed character comprises: determining (S401), based on the display parameter and the attribute of the texture of the to-be-displayed character, whether the texture of the to-be-displayed character is to be displayed in a wrapping manner; determining (S402) a display position of the texture of the to-be-displayed character on the screen, based on the display parameter that corresponds to the determination and the attribute of the texture of the to-be-displayed character; and displaying (S403) the texture of the to-be-displayed character on the screen based on the display position. receiving (S101) a display parameter, the display parameter comprising one or more of a line width, a character spacing, an initial origin position, a line spacing and an alignment style; obtaining (S102) a to-be-displayed character; obtaining (S103) a texture of the to-be-displayed character; and displaying (S104) the texture of the to-be-displayed character on a screen based on the display parameter and an attribute of the texture of the to-be-displayed character, wherein said displaying (S104) the texture of the to-be-displayed character on the screen based on the display parameter and the attribute of the texture of the to-be-displayed character comprises: determining (S401), based on the display parameter and the attribute of the texture of the to-be-displayed character, whether the texture of the to-be-displayed character is to be displayed in a wrapping manner; determining (S402) a display position of the texture of the to-be-displayed character on the screen, based on the display parameter that corresponds to the determination and the attribute of the texture of the to-be-displayed character; and displaying (S403) the texture of the to-be-displayed character on the screen based on the display position. determining (S401), based on the display parameter and the attribute of the texture of the to-be-displayed character, whether the texture of the to-be-displayed character is to be displayed in a wrapping manner; determining (S402) a display position of the texture of the to-be-displayed character on the screen, based on the display parameter that corresponds to the determination and the attribute of the texture of the to-be-displayed character; and displaying (S403) the texture of the to-be-displayed character on the screen based on the display position.
A probe head of an NMR-MAS assembly comprising a MAS stator for receiving a MAS rotor , which can be set in rotation in a measuring position in which the cylinder axis of the MAS rotor is at the magic angle to a B 0 field of the NMR-MAS assembly, wherein the MAS stator has an opening for inserting a MAS rotor , wherein the MAS stator is arranged in the NMR-MAS probe head in such a way that it can be pivoted between the measuring position and a loading position, in which a MAS rotor can be inserted into the MAS stator , characterized in that the NMR-MAS probe head has a detection device which makes it possible to contactlessly identify from outside whether or not the MAS stator is currently fitted with a MAS rotor , in that the detection device has a light source , from which light can be introduced into a lower end (6") of a light guide , and in that the MAS stator has a first bore , in which a first light guide stump is positioned such that, in the loading position of the MAS stator , it produces an optical connection between a MAS rotor inserted in the MAS stator and an upper end of the light guide opposite the lower end (6").
Support, comprising a first bar (12; 156), a first abutment element which is held on the first bar (12; 156) by means of a first thread with a first thread direction, a second bar , a second abutment element which is held on the second bar by means of a second thread with a second thread direction, the first thread direction being opposite to the second thread direction, and a guiding device by which the first bar (12; 156) is displaceably guided on the second bar , wherein a handle (62; 62') which can be gripped with a single hand and by means of which the combination of first bar (12; 156) and second bar can be rotated is arranged on the second bar , in that an actuating device which acts on the first bar (12; 156) and which comprises an actuating element is arranged on the second bar , it being possible for a displacement of the first bar (12; 156) in a first direction of displacement to be initiated by actuation of the actuating element , and the first direction of displacement being a direction of increase in distance between the first abutment element and the second abutment element , in that the actuating device comprises a blocking device (114; 184) which blocks a displacement of the first bar (12; 156) in relation to the second bar in a second direction of displacement , which is opposite to the first direction of displacement , at least when no active releasing action occurs at the blocking device (114; 184), and in that the actuating element is arranged in relation to the handle (62; 62') such that when holding the support at the handle with a holding hand, the actuating element is actuatable with one or more fingers of this holding hand.