mhurhangee/patent-ind-claim-en huggingface dataset:
A process control method for a 3D-printing process using a 3D printer , said 3D printer having a build platform , a light source , a receiving device for printing material and a control device by means of which an item can be produced in layers or continuously from the printing material , characterised in that a thermal imaging camera , the output signal of which is transmitted to the control device , is connected to the 3D printer , and the method comprising the following steps: • illuminating a layer or parts of said layer positionally selectively, • detecting the temperature of the layer during the polymerisation using the thermal imaging camera , • ending the building process of a layer by ending the illumination, the time for the end of the illumination being established by a predefined temperature T max or a predefined change in temperature dT/dt being reached. • illuminating a layer or parts of said layer positionally selectively, • detecting the temperature of the layer during the polymerisation using the thermal imaging camera , • ending the building process of a layer by ending the illumination, the time for the end of the illumination being established by a predefined temperature T max or a predefined change in temperature dT/dt being reached.
An excavator comprising: a bucket comprising at least two bucket tips ; a sensor capable of measuring an angle between an imaginary horizontal or vertical line (HL or VL) and an imaginary line segment (L1, L2, L3, L4, L5, L6, L7, L8), the imaginary horizontal line (HL) representing a line perpendicular to a direction of gravity, the imaginary vertical line (VL) representing a line parallel to a direction of gravity, and the imaginary line segment (L1, L2, L3, L4, L5, L6, L7, L8) connecting two portions, that work, of the excavator, an angle between two line segments (L1, L2, L3, L4, L5, L6, L7, L8), and an angle (θ Chassis ) between a working surface and an imaginary straight line (LL) connecting the bucket tips ; Characterised in that the excavator further comprises: a selecting means configured to generate a pop-up window for displaying the at least two bucket tips so that one of the at least two bucket tips is selected; and a controller configured to calculate a distance between the working surface and the selected bucket tip based on a size of the bucket and the measured angles, wherein the selecting means is configured to display the calculated distance between the working surface and the selected bucket tip . a bucket comprising at least two bucket tips ; a sensor capable of measuring an angle between an imaginary horizontal or vertical line (HL or VL) and an imaginary line segment (L1, L2, L3, L4, L5, L6, L7, L8), the imaginary horizontal line (HL) representing a line perpendicular to a direction of gravity, the imaginary vertical line (VL) representing a line parallel to a direction of gravity, and the imaginary line segment (L1, L2, L3, L4, L5, L6, L7, L8) connecting two portions, that work, of the excavator, an angle between two line segments (L1, L2, L3, L4, L5, L6, L7, L8), and an angle (θ Chassis ) between a working surface and an imaginary straight line (LL) connecting the bucket tips ; an angle between two line segments (L1, L2, L3, L4, L5, L6, L7, L8), and an angle (θ Chassis ) between a working surface and an imaginary straight line (LL) connecting the bucket tips ; Characterised in that the excavator further comprises: a selecting means configured to generate a pop-up window for displaying the at least two bucket tips so that one of the at least two bucket tips is selected; and a controller configured to calculate a distance between the working surface and the selected bucket tip based on a size of the bucket and the measured angles, wherein the selecting means is configured to display the calculated distance between the working surface and the selected bucket tip . a selecting means configured to generate a pop-up window for displaying the at least two bucket tips so that one of the at least two bucket tips is selected; and a controller configured to calculate a distance between the working surface and the selected bucket tip based on a size of the bucket and the measured angles, wherein the selecting means is configured to display the calculated distance between the working surface and the selected bucket tip .
A landing gear pin detection apparatus for detecting the presence of a landing gear pin retained within the apparatus , the apparatus comprising: a housing ; a pin retention member mounted to the housing of the apparatus , the pin retention member having an opening disposed therein for receiving the landing gear pin ; one or more detectors mounted in the housing ; a latch rotatably mounted to the housing , the latch having a proximal lever end and an opposing distal detector end , the latch rotatable about a location intermediate the proximal lever end and the distal detector end to move the distal detector end into and out of contact with the one or more detectors ; a pin detection lever rotatably mounted on the housing and having a distal latch end and a proximal pin end , the distal latch end configured to contact and rotate the latch and the proximal pin end disposed at a location to contact the landing gear pin when the landing gear pin is located in the opening; and a lever spring operably connected to the pin detection lever and configured to bias the pin detection lever against the landing gear pin when the pin is disposed in the pin retention member and the distal detector end of the latch is in contact with the one or more detectors , and configured, when the pin is not located in the pin retention member , to rotate the distal latch end of the pin detection lever into contact with the proximal lever end of the latch to rotate the latch to move the distal detector end of the latch out of contact with the one or more detectors . a housing ; a pin retention member mounted to the housing of the apparatus , the pin retention member having an opening disposed therein for receiving the landing gear pin ; one or more detectors mounted in the housing ; a latch rotatably mounted to the housing , the latch having a proximal lever end and an opposing distal detector end , the latch rotatable about a location intermediate the proximal lever end and the distal detector end to move the distal detector end into and out of contact with the one or more detectors ; a pin detection lever rotatably mounted on the housing and having a distal latch end and a proximal pin end , the distal latch end configured to contact and rotate the latch and the proximal pin end disposed at a location to contact the landing gear pin when the landing gear pin is located in the opening; and a lever spring operably connected to the pin detection lever and configured to bias the pin detection lever against the landing gear pin when the pin is disposed in the pin retention member and the distal detector end of the latch is in contact with the one or more detectors , and configured, when the pin is not located in the pin retention member , to rotate the distal latch end of the pin detection lever into contact with the proximal lever end of the latch to rotate the latch to move the distal detector end of the latch out of contact with the one or more detectors .
A continuous air monitor for detecting Alpha emitting radionuclides comprising a detector wherein the monitor is adapted to measure and record the energy of each detected Alpha count in one of a plurality of channels and the continuous air monitor is adapted to compensate for counts due to the presence of Radon characterised in that the continuous air monitor is adapted to carry out a channel by channel statistical test comparing the measured count in each channel to the expected count due to radon daughter products, and determining if any deviation from the expected count is statistically significant.
An electromagnetic shielding material having a structure in which at least three metal foils are laminated via insulating layers, the electromagnetic shielding material having a thickness of each insulating layer of 80 μm or more and a total thickness of the metal foils of from 15 to 150 μm, wherein all of combinations of the metal foils and the insulating layers making up the electromagnetic shielding material satisfy the equation: σ M × d M × d R ≥ 3 × 10 -3 , in which: the symbol σ M represents conductivity of each metal foil at 20 °C (S/m); the symbol d M represents the thickness of each metal foil (m); and the symbol d R represents the thickness of each insulating layer (m). the symbol σ M represents conductivity of each metal foil at 20 °C (S/m); the symbol d M represents the thickness of each metal foil (m); and the symbol d R represents the thickness of each insulating layer (m).
Motor vehicle drive assembly, comprising an electric motor and at least one output element driven directly or indirectly by the electric motor, and comprising a spring which is associated with the output element and designed to return the output element in a bidirectional manner, the spring being designed as a spiral spring , characterized in that the spring is designed such that it can be wound from the inner spring leg and from the outer spring leg .
An electromechanical actuator for an ultrasonic motor, the actuator comprising: a plate which is formed of two main surfaces extending along each other and being oriented contrary to each other and which is formed of side surfaces extending transversely to the main surfaces and connecting the main surfaces with each other, two equally shaped electrodes which are isolated from each other by an isolation area and which are arranged symmetrically to each other on a first of the main surfaces thereby defining a symmetry axis (S), and at least one electrode arranged on a second of the main surfaces , the plate comprising an electromechanical material that undergoes a deformation when an electric voltage is applied to the electrodes arranged on different main surfaces, wherein the material of the electromechanical actuator comprises a single crystalline piezoelectric ceramic with its piezoelectric charge constant d 31 differing from its piezoelectric charge constant d 32 both in sign and in value, wherein the piezoelectric charge constant d 31 defines a first main deformation direction of the actuator and the piezoelectric charge constant d 32 defines a second main deformation direction of the actuator , wherein the first main deformation and the second main deformation direction being arranged transversely to each other, and characterized, in that the orientation of the symmetry axis (S) is parallel to the first main deformation direction or to the second main deformation direction.
A refrigerant compressor , comprising: an impeller arranged in a main flow path and including a plurality of vanes , the impeller configured to rotate about an axis; and a channel outside the main flow path , a first orifice fluidly coupling the channel to the main flow path upstream of the vanes , and a second orifice fluidly coupling the channel to the main flow path downstream of leading edges of the vanes, wherein the channel extends helically about the axis; wherein the refrigerant compressor comprises a mixed compression stage , the mixed compression stage having both axial and radial flow components, the mixed compression stage having an inlet and an outlet , wherein flow within the mixed compression stage is inclined at an angle of less than 45 degrees relative to the axis; and wherein a radial compression stage is arranged in the main refrigerant flow path downstream of the mixed compression stage , wherein flow exits the radial compression stage in a direction inclined at an angle greater than 45 degrees and less than or equal to 90 degrees relative to the axis, wherein the impeller is part of one of the mixed compression stage and radial compression stage . an impeller arranged in a main flow path and including a plurality of vanes , the impeller configured to rotate about an axis; and a channel outside the main flow path , a first orifice fluidly coupling the channel to the main flow path upstream of the vanes , and a second orifice fluidly coupling the channel to the main flow path downstream of leading edges of the vanes, wherein the channel extends helically about the axis; wherein the refrigerant compressor comprises a mixed compression stage , the mixed compression stage having both axial and radial flow components, the mixed compression stage having an inlet and an outlet , wherein flow within the mixed compression stage is inclined at an angle of less than 45 degrees relative to the axis; and wherein a radial compression stage is arranged in the main refrigerant flow path downstream of the mixed compression stage , wherein flow exits the radial compression stage in a direction inclined at an angle greater than 45 degrees and less than or equal to 90 degrees relative to the axis, wherein the impeller is part of one of the mixed compression stage and radial compression stage .
A medical device comprising: a therapy delivery circuit configured to generate ventricular pacing pulses, each ventricular pacing pulse being generated upon expiration of a pacing interval; a motion sensor ; and a control circuit , characterized in that the motion sensor is configured to produce a motion signal comprising an atrial systolic event signal, a first ventricular systolic event signal corresponding to an onset of ventricular contraction, and a second ventricular systolic event signal corresponding to an ending of ventricular contraction; and the control circuit is configured to: determine a synchrony metric from the motion signal based on at least one of the first ventricular systolic event signal and the second ventricular systolic event signal following at least one ventricular pacing pulse generated by the therapy delivery circuit; and adjust the pacing interval based on the synchrony metric. a therapy delivery circuit configured to generate ventricular pacing pulses, each ventricular pacing pulse being generated upon expiration of a pacing interval; a motion sensor ; and a control circuit , characterized in that the motion sensor is configured to produce a motion signal comprising an atrial systolic event signal, a first ventricular systolic event signal corresponding to an onset of ventricular contraction, and a second ventricular systolic event signal corresponding to an ending of ventricular contraction; and the control circuit is configured to: determine a synchrony metric from the motion signal based on at least one of the first ventricular systolic event signal and the second ventricular systolic event signal following at least one ventricular pacing pulse generated by the therapy delivery circuit; and adjust the pacing interval based on the synchrony metric. the motion sensor is configured to produce a motion signal comprising an atrial systolic event signal, a first ventricular systolic event signal corresponding to an onset of ventricular contraction, and a second ventricular systolic event signal corresponding to an ending of ventricular contraction; and the control circuit is configured to: determine a synchrony metric from the motion signal based on at least one of the first ventricular systolic event signal and the second ventricular systolic event signal following at least one ventricular pacing pulse generated by the therapy delivery circuit; and adjust the pacing interval based on the synchrony metric. determine a synchrony metric from the motion signal based on at least one of the first ventricular systolic event signal and the second ventricular systolic event signal following at least one ventricular pacing pulse generated by the therapy delivery circuit; and adjust the pacing interval based on the synchrony metric.
A male connector comprising: a male body including a curved outer surface , the outer surface including a plurality of outer surface regions , the outer surface regions not overlapping each other, at least one first male antenna provided inside the male body and located near one of the outer surface regions, the or each first male antenna being a male communication antenna configured to wirelessly communicate a signal; and at least one first male circuit board provided inside the male body , curved along the outer surface , and substantially parallel to said one of the outer surface regions near the at least one first male antenna, the at least one first male antenna being provided on the at least one first male circuit board , wherein the male body has a housing space, and the at least one first male antenna and the at least one first male circuit board are disposed in the housing space of the male body . a male body including a curved outer surface , the outer surface including a plurality of outer surface regions , the outer surface regions not overlapping each other, at least one first male antenna provided inside the male body and located near one of the outer surface regions, the or each first male antenna being a male communication antenna configured to wirelessly communicate a signal; and at least one first male circuit board provided inside the male body , curved along the outer surface , and substantially parallel to said one of the outer surface regions near the at least one first male antenna, the at least one first male antenna being provided on the at least one first male circuit board ,
Method for the local management of a device able to communicate with at least one terminal able to process and render user interface data (IHM) of the device, the method comprising, on the device: setting (E10) the device to receive mode on a first radio link; detecting (E11) the entry of said at least one terminal within the range of the device on the first radio link, the first radio link having a given range, prior to the transmission step (E16), a step (E14) of sending a signal containing a rendering request (REQ) to the terminal ; prior to the transmission step (E16), a step of establishing (E14) a communication distinct from the first link and having a range greater than the first link with the terminal on the second radio link for the transmission of the user interface data (IHM); a step of obtaining the capabilities of the terminal; preparing (E15) the user interface data (IHM) of the device to be transmitted to said terminal detected within the range of the device; the preparation step comprising adapting the user interface data based on the capabilities of the terminal; transmitting (E16) said user interface data (IHM) to said terminal on the second radio link. setting (E10) the device to receive mode on a first radio link; detecting (E11) the entry of said at least one terminal within the range of the device on the first radio link, the first radio link having a given range, prior to the transmission step (E16), a step (E14) of sending a signal containing a rendering request (REQ) to the terminal ; prior to the transmission step (E16), a step of establishing (E14) a communication distinct from the first link and having a range greater than the first link with the terminal on the second radio link for the transmission of the user interface data (IHM); a step of obtaining the capabilities of the terminal; preparing (E15) the user interface data (IHM) of the device to be transmitted to said terminal detected within the range of the device; the preparation step comprising adapting the user interface data based on the capabilities of the terminal; transmitting (E16) said user interface data (IHM) to said terminal on the second radio link.
A slide scanning device comprising: a plurality of line sensors, each configured to generate line images of a sample, wherein each of the plurality of line sensors comprises a plurality of rectangular pixel sensors elongated in the longitudinal direction of the line sensor, wherein each of the plurality of line sensors, in a longitudinal direction of the line sensor, is offset from an adjacent one of the plurality of line sensors by a fraction of a length of each pixel sensor; an objective lens configured to successively provide a same field of view of the sample to each of the plurality of line sensors; and at least one hardware processor configured to, for each of a plurality of positions on the sample: combine the line images of the same field of view to produce a plurality of subpixels for each of at least a subset of pixels within the line images of the same field of view, wherein rectangular pixels from each of the line images are combined, the combination resulting in a square image subpixel, generate an up-sampled line image of the position comprising the produced plurality of subpixels, and combine the up-sampled line images of each of the plurality of positions on the sample into an image. a plurality of line sensors, each configured to generate line images of a sample, wherein each of the plurality of line sensors comprises a plurality of rectangular pixel sensors elongated in the longitudinal direction of the line sensor, wherein each of the plurality of line sensors, in a longitudinal direction of the line sensor, is offset from an adjacent one of the plurality of line sensors by a fraction of a length of each pixel sensor; an objective lens configured to successively provide a same field of view of the sample to each of the plurality of line sensors; and at least one hardware processor configured to, for each of a plurality of positions on the sample: combine the line images of the same field of view to produce a plurality of subpixels for each of at least a subset of pixels within the line images of the same field of view, wherein rectangular pixels from each of the line images are combined, the combination resulting in a square image subpixel, generate an up-sampled line image of the position comprising the produced plurality of subpixels, and combine the up-sampled line images of each of the plurality of positions on the sample into an image. combine the line images of the same field of view to produce a plurality of subpixels for each of at least a subset of pixels within the line images of the same field of view, wherein rectangular pixels from each of the line images are combined, the combination resulting in a square image subpixel, generate an up-sampled line image of the position comprising the produced plurality of subpixels, and combine the up-sampled line images of each of the plurality of positions on the sample into an image.