mhurhangee/ep-ind-claims huggingface dataset:
A spindle for a tool grinding machine comprising at least: - a spindle head having a first longitudinal axis and being configured for receiving a clamping means, and - a rear spindle portion, having a second longitudinal axis and being configured for being received in a bearing support and as well configured as a drive shaft for the spindle head, - a bearing being arranged between the spindle head and the rear spindle portion in order to connect same, wherein - the bearing transmits compressive and/or tensile forces in longitudinal direction from the spindle head to the drive shaft and wherein the bearing is bridged by at least one coupling (51, 52) for transmission of torques between the rear spindle portion and the spindle head, characterized in that the bearing being arranged between the spindle head and the rear spindle portion allows a tilting of the first longitudinal axis relative to the second longitudinal axis. - a spindle head having a first longitudinal axis and being configured for receiving a clamping means, and - a rear spindle portion, having a second longitudinal axis and being configured for being received in a bearing support and as well configured as a drive shaft for the spindle head, - a bearing being arranged between the spindle head and the rear spindle portion in order to connect same, wherein - the bearing transmits compressive and/or tensile forces in longitudinal direction from the spindle head to the drive shaft and wherein the bearing is bridged by at least one coupling (51, 52) for transmission of torques between the rear spindle portion and the spindle head,
An application device comprising an energy storage, a signal port connectable to a distribution line configured to: in a first mode, receive power from an AC power source for operating the application device (100 1), and in a second mode, exchange data via the distribution line; wherein the first and second modes are applied consecutively and wherein the application device (100 1) is powered with energy from the energy storage during the second mode; wherein the application device (100 1) stays in the second mode for a time period depending on the amount of data to be exchanged. an energy storage, a signal port connectable to a distribution line configured to: in a first mode, receive power from an AC power source for operating the application device (100 1), and in a second mode, exchange data via the distribution line; wherein the first and second modes are applied consecutively and wherein the application device (100 1) is powered with energy from the energy storage during the second mode; wherein the application device (100 1) stays in the second mode for a time period depending on the amount of data to be exchanged. in a first mode, receive power from an AC power source for operating the application device (100 1), and in a second mode, exchange data via the distribution line; wherein the first and second modes are applied consecutively and wherein the application device (100 1) is powered with energy from the energy storage during the second mode; wherein the application device (100 1) stays in the second mode for a time period depending on the amount of data to be exchanged.
A seal assembly for a gas turbine engine, the seal assembly comprising: a seal support disk including a radially inner mounting portion and a radially outer seal carrier portion, the inner mounting portion of the seal support disk including a snap ring and a fastenable flange; and a flow diverter assembly secured around a first axial side of the outer seal carrier portion, characterised in that: the flow diverter assembly includes a finger seal having a fixed end fastened between a flow diverter element and the first axial side of the outer seal carrier portion. a seal support disk including a radially inner mounting portion and a radially outer seal carrier portion, the inner mounting portion of the seal support disk including a snap ring and a fastenable flange; and a flow diverter assembly secured around a first axial side of the outer seal carrier portion, characterised in that: the flow diverter assembly includes a finger seal having a fixed end fastened between a flow diverter element and the first axial side of the outer seal carrier portion.
A particle detector (100, 800, 900, 1000, 1100), comprising: a housing (120, 820, 920, 1020, 1120) comprising a sample inlet (152, 852, 952, 1052) and a sample outlet (154, 854, 954, 1054), and enclosing a detection cavity (104, 804, 904, 1004, 1104) having a cavity length along a longitudinal axis (132, 932, 1032), wherein the housing defines a flow path for a sample fluid from the sample inlet (152, 852, 952, 1052), through the detection cavity (104, 804, 904, 1004, 1104), and to the sample outlet (154, 854, 954, 1054); and a light source (124, 824, 924, 1024) configured for directing irradiating light along the longitudinal axis (132, 932, 1032) to particles (112, 136) of the sample fluid flowing in the detection cavity (104, 804, 904, 1004, 1104); a flexible photoelectric material conformally disposed on the housing (120, 820, 920, 1020, 1120) and surrounding the detection cavity (104, 804, 904, 1004, 1104) such that, along at least a portion of the cavity length, the photoelectric material extends around the longitudinal axis (132, 932, 1032) through an arc length in a range from 30° to 360° in a plane orthogonal to the longitudinal axis, wherein the photoelectric material is configured for receiving measurement light propagating from the particles (112, 136) in a plurality of measurement light paths (116, 342, 344, 346) angled relative to the longitudinal axis (132, 932, 1032). a housing (120, 820, 920, 1020, 1120) comprising a sample inlet (152, 852, 952, 1052) and a sample outlet (154, 854, 954, 1054), and enclosing a detection cavity (104, 804, 904, 1004, 1104) having a cavity length along a longitudinal axis (132, 932, 1032), wherein the housing defines a flow path for a sample fluid from the sample inlet (152, 852, 952, 1052), through the detection cavity (104, 804, 904, 1004, 1104), and to the sample outlet (154, 854, 954, 1054); and a light source (124, 824, 924, 1024) configured for directing irradiating light along the longitudinal axis (132, 932, 1032) to particles (112, 136) of the sample fluid flowing in the detection cavity (104, 804, 904, 1004, 1104); a flexible photoelectric material conformally disposed on the housing (120, 820, 920, 1020, 1120) and surrounding the detection cavity (104, 804, 904, 1004, 1104) such that, along at least a portion of the cavity length, the photoelectric material extends around the longitudinal axis (132, 932, 1032) through an arc length in a range from 30° to 360° in a plane orthogonal to the longitudinal axis, wherein the photoelectric material is configured for receiving measurement light propagating from the particles (112, 136) in a plurality of measurement light paths (116, 342, 344, 346) angled relative to the longitudinal axis (132, 932, 1032).
A seat assembling method for assembling at least one seat into an airplane, said method having the following steps: a) position a moveable seat installing device in the airplane for positioning and assembling of the seat at a predetermined assembly position in the airplane, b) convey the at least one seat into the interior of the airplane to the seat installing device by means of a seat conveying device, c) transfer the seat from the seat conveying device to the seat installing device, d) install the seat by means of the seat installing device which is positioned at the assembly position. a) position a moveable seat installing device in the airplane for positioning and assembling of the seat at a predetermined assembly position in the airplane, b) convey the at least one seat into the interior of the airplane to the seat installing device by means of a seat conveying device, c) transfer the seat from the seat conveying device to the seat installing device, d) install the seat by means of the seat installing device which is positioned at the assembly position.
A battery monitoring system for monitoring and transmitting parameters relating to the state of a battery pack to the driver or pilot of an electric vehicle, comprising a first battery monitoring circuit and a second redundant battery monitoring circuit, wherein the first battery monitoring circuit comprises one or a plurality of battery management systems, BMS, wherein the first battery monitoring circuit further comprises a programmable component and a digital communication bus, wherein the programmable component is configured to monitor the battery pack, from communications on the communication bus, and provide first warning signals to a driver or pilot of said vehicle in case of dysfunction of the battery pack; wherein the second battery monitoring circuit is configured to redundantly monitor said battery pack in order to provide at least one second warning signal to a driver or pilot of said vehicle in case of dysfunction of the battery pack; wherein said second battery monitoring circuit comprises only non-programmable electronic components (3, 7). wherein the first battery monitoring circuit comprises one or a plurality of battery management systems, BMS, wherein the first battery monitoring circuit further comprises a programmable component and a digital communication bus, wherein the programmable component is configured to monitor the battery pack, from communications on the communication bus, and provide first warning signals to a driver or pilot of said vehicle in case of dysfunction of the battery pack; wherein the second battery monitoring circuit is configured to redundantly monitor said battery pack in order to provide at least one second warning signal to a driver or pilot of said vehicle in case of dysfunction of the battery pack; wherein said second battery monitoring circuit comprises only non-programmable electronic components (3, 7).
A method comprising: receiving a first traffic and scheduling information from a first control entity, wherein the first control entity belongs to a first LTE radio transceiver; and receiving a second system traffic and scheduling information from a second control entity, wherein the second control entity belongs to a second radio transceiver co-located with the first LTE radio transceiver, characterized by the method further comprising: determining, based on the first and the second traffic and scheduling information, control information to be sent to the first and the second control entity, wherein the first and the second radio transceivers are scheduled for transmitting or receiving radio signals over specific time duration based at least in part on the control information and thereby mitigating co-existence interference, and wherein the control information contains instruction to trigger the first LTE radio transceiver to send recommendation of ON/OFF duration or ON/OFF ratio or ON/OFF duty cycle or starting time for DRX operation to an LTE base station. receiving a first traffic and scheduling information from a first control entity, wherein the first control entity belongs to a first LTE radio transceiver; and receiving a second system traffic and scheduling information from a second control entity, wherein the second control entity belongs to a second radio transceiver co-located with the first LTE radio transceiver, determining, based on the first and the second traffic and scheduling information, control information to be sent to the first and the second control entity, wherein the first and the second radio transceivers are scheduled for transmitting or receiving radio signals over specific time duration based at least in part on the control information and thereby mitigating co-existence interference, and wherein the control information contains instruction to trigger the first LTE radio transceiver to send recommendation of ON/OFF duration or ON/OFF ratio or ON/OFF duty cycle or starting time for DRX operation to an LTE base station.
Method in a mobile (MB BB) for acquiring first subbands (RB BB) in at least a portion (ΔF C) of a broad frequency band (ΔF BB), a first base station (BS BB) transmitting frames which are distributed temporally and in the first subbands (RB BB) and support a message (PBCH) including the number of subbands (RB BB, RB NB) in the broadband, and being located in the vicinity of a second base station (BS NB) transmitting in second subbands (RB NB) which are included in the broad frequency band and differ from the first subbands, at least one of the second subbands (RB NB) being included in the broadband portion, and the subbands having the same width, characterised in that, in the mobile (MB BB), it comprises: - dividing (E12; E24) a reference signal generated in the mobile into generated subsequences (SRSGn) which are associated respectively with subbands (RB BB, RB NB) of the broadband (ΔF BB) of which the width is deduced from the number of subbands in the message (PBCH); - detecting (E13; E26) resource elements included at predetermined positions in all the subbands of the broadband portion (ΔF C) for each frame (TP1 DL; TP2 DL) transmitted by the first base station (BS BB); - grouping (E13; E26) resource elements respectively detected in the subbands of the broadband portion into detected subsequences (SRSDn); - determining (E14; E24) coefficients (Cn) which are representative of correlations between the generated subsequences (SRSGn) and the detected subsequences (SRSDn) respectively associated with the subbands (RB BB, RB NB) of the broadband portion (ΔF C); and - acquiring (E16, E17; E24) the positions of the first subbands (RB BB) in the broadband portion (ΔF C) for associated coefficients which exceed a predetermined threshold and the positions of the second subbands (RB NB) in the broadband portion for associated coefficients which are at most equal to the predetermined threshold. - dividing (E12; E24) a reference signal generated in the mobile into generated subsequences (SRSGn) which are associated respectively with subbands (RB BB, RB NB) of the broadband (ΔF BB) of which the width is deduced from the number of subbands in the message (PBCH); - detecting (E13; E26) resource elements included at predetermined positions in all the subbands of the broadband portion (ΔF C) for each frame (TP1 DL; TP2 DL) transmitted by the first base station (BS BB); - grouping (E13; E26) resource elements respectively detected in the subbands of the broadband portion into detected subsequences (SRSDn); - determining (E14; E24) coefficients (Cn) which are representative of correlations between the generated subsequences (SRSGn) and the detected subsequences (SRSDn) respectively associated with the subbands (RB BB, RB NB) of the broadband portion (ΔF C); and - acquiring (E16, E17; E24) the positions of the first subbands (RB BB) in the broadband portion (ΔF C) for associated coefficients which exceed a predetermined threshold and the positions of the second subbands (RB NB) in the broadband portion for associated coefficients which are at most equal to the predetermined threshold.
A computer program for controlling a heat treatment of tissue, said computer program comprising instructions that are configured to cause the system of claim 12, when the program is executed on the control unit, to: obtain a measured temperature value from inside or outside a boundary of a predefined treatment lesion from the thermal sensor member or MRI; control, during a warm-up period being a predefined time range, the power output of the light source connected to the heating probe until said measured temperature reaches a target temperature, when said heating probe is interstitially inserted in said predefined treatment lesion; provide a warning and/or switching off said power output if said target temperature is reached outside of said predefined time range; and control, during a subsequent treatment period, said power output for maintaining said measured temperature at said target temperature during a time period. obtain a measured temperature value from inside or outside a boundary of a predefined treatment lesion from the thermal sensor member or MRI; control, during a warm-up period being a predefined time range, the power output of the light source connected to the heating probe until said measured temperature reaches a target temperature, when said heating probe is interstitially inserted in said predefined treatment lesion; provide a warning and/or switching off said power output if said target temperature is reached outside of said predefined time range; and control, during a subsequent treatment period, said power output for maintaining said measured temperature at said target temperature during a time period.
An image capturing apparatus for capturing an image of an object by illuminating the object and receiving reflected light from the object, comprising: an image sensor for receiving the reflected light; a plurality of light-emitting devices (22, 24) mounted around the image sensor; a light guide member for guiding the light of the plurality of light-emitting devices (22, 24) to an image capturing range, and illuminating the image capturing range; an optical unit accommodated inside the light guide member and for guiding the reflected light of the object in the illuminated image capturing range to the image sensor; an optical filter disposed on an object side of the optical unit and the light guide member and attached to a case; and a hood for excluding light outside of the image capturing range of the optical unit, wherein the light guide member further comprises a projection for being pressed by a lower end of the hood, and wherein the upper end of the hood is press-fit on the optical filter. an image sensor for receiving the reflected light; a plurality of light-emitting devices (22, 24) mounted around the image sensor; a light guide member for guiding the light of the plurality of light-emitting devices (22, 24) to an image capturing range, and illuminating the image capturing range; an optical unit accommodated inside the light guide member and for guiding the reflected light of the object in the illuminated image capturing range to the image sensor; an optical filter disposed on an object side of the optical unit and the light guide member and attached to a case; and a hood for excluding light outside of the image capturing range of the optical unit, wherein the light guide member further comprises a projection for being pressed by a lower end of the hood, and wherein the upper end of the hood is press-fit on the optical filter.
A process for manufacturing disposable diapers, the process comprising the steps of: a) providing a continuous web of a plurality of diaper chassis; b) providing a composite web having a longitudinally repeating pattern of windows forming designated sections, wherein said windows are at least partially covered with one or more strips having different functional characteristics that is different elastic properties than the web; c) intermittently attaching to the web of diaper chassis sections of the composite web; and d) cutting across adjacent diaper chassis and the composite web so that a first section of the composite web comprising the strip(s) with an underlying window forms a rear panel of the diaper, and a second section of the composite web without underlying window forms a front panel of the next diaper, or cutting across the diaper chassis so that elasticated belts extend from the rear parts of the diaper. a) providing a continuous web of a plurality of diaper chassis; b) providing a composite web having a longitudinally repeating pattern of windows forming designated sections, wherein said windows are at least partially covered with one or more strips having different functional characteristics that is different elastic properties than the web; c) intermittently attaching to the web of diaper chassis sections of the composite web; and d) cutting across adjacent diaper chassis and the composite web so that a first section of the composite web comprising the strip(s) with an underlying window forms a rear panel of the diaper, and a second section of the composite web without underlying window forms a front panel of the next diaper, or cutting across the diaper chassis so that elasticated belts extend from the rear parts of the diaper.
A hearing aid comprising an earpiece for insertion into the ear canal of the user of the hearing aid, where a through-going vent is provided in the earpiece, the hearing aid comprises activation means (36, 42) for automatically changing the acoustical impedance of the vent and a receiver arranged in the vent characterised in that the receiver comprises said activation means (6, 8, 141, 341) for changing the acoustical impedance of the vent, and wherein the hearing aid further comprises means for monitoring sound signals, including means for detecting acoustical feedback, and wherein the activation means for automatically changing the acoustical impedance of the vent changes the acoustical impedance of the vent on the basis of sound signals provided by the means for monitoring sound signals.
An electrosurgical generator, comprising: an RF output stage configured to output an electrosurgical waveform through at least one pair of electrodes; sensing circuitry configured to measure an impedance between the at least one pair of electrodes configured to grasp tissue; and a controller, characterized in that the controller is configured to: (a) determine whether the impedance of the tissue disposed between the at least one pair of electrodes exceeds an impedance threshold indicative of the at least one pair of electrodes being at least partially open; (b) subsequently determine whether a change in the impedance is greater than an upper change in impedance threshold indicative of the at least one pair of electrodes being at least partially open, wherein said change in impedance is a non-causal derivative of the impedance (dZ) taken at a center-point of an envelope of a predetermined time period of from 1ms to 100ms, or a derivative of the impedance over time (dZ/dt); and output an alarm indicative of the at least one pair of electrodes being at least partially open based on at least one of the impedance exceeding the impedance threshold or the change in impedance exceeding the change in impedance threshold. an RF output stage configured to output an electrosurgical waveform through at least one pair of electrodes; sensing circuitry configured to measure an impedance between the at least one pair of electrodes configured to grasp tissue; and a controller, characterized in that the controller is configured to: (a) determine whether the impedance of the tissue disposed between the at least one pair of electrodes exceeds an impedance threshold indicative of the at least one pair of electrodes being at least partially open; (b) subsequently determine whether a change in the impedance is greater than an upper change in impedance threshold indicative of the at least one pair of electrodes being at least partially open, wherein said change in impedance is a non-causal derivative of the impedance (dZ) taken at a center-point of an envelope of a predetermined time period of from 1ms to 100ms, or a derivative of the impedance over time (dZ/dt); and (a) determine whether the impedance of the tissue disposed between the at least one pair of electrodes exceeds an impedance threshold indicative of the at least one pair of electrodes being at least partially open; (b) subsequently determine whether a change in the impedance is greater than an upper change in impedance threshold indicative of the at least one pair of electrodes being at least partially open, wherein said change in impedance is a non-causal derivative of the impedance (dZ) taken at a center-point of an envelope of a predetermined time period of from 1ms to 100ms, or a derivative of the impedance over time (dZ/dt); and output an alarm indicative of the at least one pair of electrodes being at least partially open based on at least one of the impedance exceeding the impedance threshold or the change in impedance exceeding the change in impedance threshold.