mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: towing at least a portion of a seismic survey spread to a first position ; imparting, by a marine vibratory source comprising a plurality of marine vibrators , a composite swept seismic signal including a plurality of randomized subsweeps , wherein the plurality of marine vibrators comprise marine vibrators configured to impart low frequency signals and marine vibrators configured to impart high frequency signals, such that each of the plurality of marine vibrators respectively impart the plurality of randomized subsweeps having different frequencies relative to one another in parallel to form the composite swept seismic signal , wherein the plurality of randomized subsweeps comprise randomized subsweeps with low frequencies and randomized subsweeps with high frequencies, and receiving a respective return for each of the plurality of randomized subsweeps; wherein the plurality of randomized subsweeps do not overlap in frequency, and characterized in that the frequency gaps between the subsweeps are randomized in either space or time or in both space and time. towing at least a portion of a seismic survey spread to a first position ; imparting, by a marine vibratory source comprising a plurality of marine vibrators , a composite swept seismic signal including a plurality of randomized subsweeps , wherein the plurality of marine vibrators comprise marine vibrators configured to impart low frequency signals and marine vibrators configured to impart high frequency signals, such that each of the plurality of marine vibrators respectively impart the plurality of randomized subsweeps having different frequencies relative to one another in parallel to form the composite swept seismic signal , wherein the plurality of randomized subsweeps comprise randomized subsweeps with low frequencies and randomized subsweeps with high frequencies, and receiving a respective return for each of the plurality of randomized subsweeps; wherein the plurality of randomized subsweeps do not overlap in frequency, and characterized in that the frequency gaps between the subsweeps are randomized in either space or time or in both space and time.
A determination method for determining a voltage for a light detection device having an avalanche photodiode , comprising: assuming that a bias voltage applied to the avalanche photodiode is "V r " and a gain of the avalanche photodiode to which the bias voltage is applied is "M", obtaining a slope and an intercept of a regression line having "(1/M) × (dM/dV r )" as an objective variable and "M" as an explanatory variable, the "(1/M) × (dM/dV r )" being of data indicating a correlation between the bias voltage and the gain; and determining a difference voltage between a breakdown voltage of the avalanche photodiode and the bias voltage, wherein the light detection device includes a temperature compensation unit configured to provide temperature compensation for the gain of the avalanche photodiode based on the determined difference voltage, and when determining the difference voltage, "ΔV" is determined as the difference voltage, the "ΔV" being calculated by substituting the slope into "a" in following Equation , substituting the intercept into "b" in the following Equation , and substituting a gain to be set in the avalanche photodiode into "M d " in the following Equation , [Equation 1] ΔV = 1 b log b / a M d + 1 assuming that a bias voltage applied to the avalanche photodiode is "V r " and a gain of the avalanche photodiode to which the bias voltage is applied is "M", obtaining a slope and an intercept of a regression line having "(1/M) × (dM/dV r )" as an objective variable and "M" as an explanatory variable, the "(1/M) × (dM/dV r )" being of data indicating a correlation between the bias voltage and the gain; and determining a difference voltage between a breakdown voltage of the avalanche photodiode and the bias voltage, wherein the light detection device includes a temperature compensation unit configured to provide temperature compensation for the gain of the avalanche photodiode based on the determined difference voltage, and when determining the difference voltage, "ΔV" is determined as the difference voltage, the "ΔV" being calculated by substituting the slope into "a" in following Equation , substituting the intercept into "b" in the following Equation , and substituting a gain to be set in the avalanche photodiode into "M d " in the following Equation , [Equation 1] ΔV = 1 b log b / a M d + 1
A modular electrical connector comprising: a housing having modules positioned therein, each module having a substrate which holds a plurality of signal pathways which include mating signal contact pads , signal traces and mounting signal contacts , the housing having a mating end and a mounting end , the mounting end having a mounting interface with at least one shield member receiving slot , at least one shield member positioned in the at least one shield member receiving slot for use in a modular electrical connector , the shield member comprising: mounting sections for mounting to a substrate; and shielding sections having first sections and second sections , the second sections being positioned in a different plane than the first sections , transition sections extend between the first sections and the second sections ; characterized in that : (i) the at least one shield member receiving slot extends across adjacent said modules ; and (ii) the shield member further comprises substrate receiving slots provided in the first sections and the second sections , resilient portions are provided on either side of the substrate receiving slots , contact surfaces extend into the substrate receiving slots , wherein the resilient portions cause a normal force to be applied to the contact surfaces to maintain the contact surfaces in mechanical and electrical engagement with ground traces of the substrates of the modules of the modular electrical connector . a housing having modules positioned therein, each module having a substrate which holds a plurality of signal pathways which include mating signal contact pads , signal traces and mounting signal contacts , the housing having a mating end and a mounting end , the mounting end having a mounting interface with at least one shield member receiving slot , at least one shield member positioned in the at least one shield member receiving slot for use in a modular electrical connector , the shield member comprising: mounting sections for mounting to a substrate; and shielding sections having first sections and second sections , the second sections being positioned in a different plane than the first sections , transition sections extend between the first sections and the second sections ; mounting sections for mounting to a substrate; and shielding sections having first sections and second sections , the second sections being positioned in a different plane than the first sections , transition sections extend between the first sections and the second sections ;
A lawn mower robot, comprising: an outer cover ; an inner body accommodated into the outer cover to mount a plurality of wheels for traveling on both sides thereof; a plurality of blades rotatably mounted on a bottom surface of the inner body to mow the grass; a plurality of support portions arranged in front-rear and left-right directions on an upper portion of the inner body to movably support the outer cover in front-rear and left-right directions with respect to the inner body ; a user interface, UI, module mounted on an upper portion of the inner body , and provided with a user control panel and an information display unit on an upper portion thereof; a UI dust cover mounted on an inner side of the outer cover to block dust in the outer cover from entering a space where the user control panel and the information display unit is located; a cover extension portion extended downward from an upper portion of the outer cover and having an opening communicating with a space over the UI module ; and an upper cover mounted on an upper portion of the outer cover to open and close the opening of the cover extension portion , wherein an upper end portion of the UI dust cover encloses an outer surface of the cover extension portion, and the UI dust cover is fastened to an inner surface of the outer cover by a fastening frame configured to enclose the upper end portion of the UI dust cover. an outer cover ; an inner body accommodated into the outer cover to mount a plurality of wheels for traveling on both sides thereof; a plurality of blades rotatably mounted on a bottom surface of the inner body to mow the grass; a plurality of support portions arranged in front-rear and left-right directions on an upper portion of the inner body to movably support the outer cover in front-rear and left-right directions with respect to the inner body ; a user interface, UI, module mounted on an upper portion of the inner body , and provided with a user control panel and an information display unit on an upper portion thereof; a UI dust cover mounted on an inner side of the outer cover to block dust in the outer cover from entering a space where the user control panel and the information display unit is located; a cover extension portion extended downward from an upper portion of the outer cover and having an opening communicating with a space over the UI module ; and an upper cover mounted on an upper portion of the outer cover to open and close the opening of the cover extension portion , wherein an upper end portion of the UI dust cover encloses an outer surface of the cover extension portion, and the UI dust cover is fastened to an inner surface of the outer cover by a fastening frame configured to enclose the upper end portion of the UI dust cover.
A handheld surface cleaning apparatus including: a housing supporting: a suction source including a motor with an axle which rotates a fan ; and a dirt collection container , wherein the motor is positioned within a motor chamber , and wherein the motor chamber is positioned within a further chamber , and there being an opening in the motor chamber for permitting exhaust air to pass therefrom to the further chamber , wherein the housing includes an exhaust outlet on an underside of the housing, and characterised in that air from the motor chamber passes to the exhaust outlet around opposing sides (R1, R2) of the motor chamber, and through an air diffusing member that is connected to the motor chamber and to an internal wall of the housing, and the housing being connected to or including a handle for holding the apparatus, such that in use the air passes upwardly through the opening in the motor chamber, and exits downwardly from the exhaust outlet of the apparatus. a housing supporting: a suction source including a motor with an axle which rotates a fan ; and a dirt collection container , a suction source including a motor with an axle which rotates a fan ; and a dirt collection container , wherein the motor is positioned within a motor chamber , and wherein the motor chamber is positioned within a further chamber , and there being an opening in the motor chamber for permitting exhaust air to pass therefrom to the further chamber , wherein the housing includes an exhaust outlet on an underside of the housing, and characterised in that air from the motor chamber passes to the exhaust outlet around opposing sides (R1, R2) of the motor chamber, and through an air diffusing member that is connected to the motor chamber and to an internal wall of the housing, and the housing being connected to or including a handle for holding the apparatus, such that in use the air passes upwardly through the opening in the motor chamber, and exits downwardly from the exhaust outlet of the apparatus.
A filter element (10; 400; 500), comprising: a filter media pack (12; 412; 512) including an outer surface , the outer surface extending between a first flow face (16; 416; 516) and a second flow face (18; 418; 518); and a polymeric coating (20; 420; 520) applied to the outer surface of the filter media pack, characterized in that the polymeric coating (20; 420; 520) is not a molded structure, and a frame is adhered or bonded to the polymeric coating (20; 420; 520). a filter media pack (12; 412; 512) including an outer surface , the outer surface extending between a first flow face (16; 416; 516) and a second flow face (18; 418; 518); and a polymeric coating (20; 420; 520) applied to the outer surface of the filter media pack, characterized in that the polymeric coating (20; 420; 520) is not a molded structure, and a frame is adhered or bonded to the polymeric coating (20; 420; 520).
Battery cell , in particular lithium-ion battery cell, having a first terminal which is electrically conductively connected to a first electrode and a second terminal which is electrically conductively connected to a second electrode, wherein the first terminal is arranged within the second terminal and the first terminal comprises a first screw thread and the second terminal comprises a second screw thread , characterized in that the ends of the screw thread of the first terminal and second terminal , which ends are situated outside the battery cell , start at the same height.
An imaging capsule , comprising: a radiation source ; a collimator configured to provide a collimated beam from the radiation source ; a detector configured to detect particles resulting from X-ray fluorescence and/or Compton backscattering in response to the collimated beam; a motor configured to rotate the collimator and detector around an axle to scan a partial or full inner circumference of a user's colon with radiation; characterized by the motor comprising a segmented commutator configured to be fed with a power signal via brush contacts ; and wherein the motor is configured to provide a pulsed output signal based on mechanical switching of the segmented commutator on the brush contacts , providing an indication of the rotation angle of the motor as a function of time. a radiation source ; a collimator configured to provide a collimated beam from the radiation source ; a detector configured to detect particles resulting from X-ray fluorescence and/or Compton backscattering in response to the collimated beam; a motor configured to rotate the collimator and detector around an axle to scan a partial or full inner circumference of a user's colon with radiation; characterized by the motor comprising a segmented commutator configured to be fed with a power signal via brush contacts ; and wherein the motor is configured to provide a pulsed output signal based on mechanical switching of the segmented commutator on the brush contacts , providing an indication of the rotation angle of the motor as a function of time.
An impact wrench, comprising: a motor ; a tool housing comprising the motor ; a hammer comprising a first drive member rotatably driven by the motor ; an anvil comprising a second drive member, the first drive member of the hammer periodically engaging and disengaging the second drive member of the anvil such that the first and second drive members impact against each other; an output drive rotatably driven by the anvil ; a battery supplying power to the motor ; and a handle comprising a switch to turn the motor on and off; characterized in that the battery is disposed between a stator of the motor and the handle ; and a battery dock , for the battery , is disposed laterally within an outer boundary of a motor opening , of the tool housing , enclosing the stator . a motor ; a tool housing comprising the motor ; a hammer comprising a first drive member rotatably driven by the motor ; an anvil comprising a second drive member, the first drive member of the hammer periodically engaging and disengaging the second drive member of the anvil such that the first and second drive members impact against each other; an output drive rotatably driven by the anvil ; a battery supplying power to the motor ; and a handle comprising a switch to turn the motor on and off; characterized in that the battery is disposed between a stator of the motor and the handle ; and a battery dock , for the battery , is disposed laterally within an outer boundary of a motor opening , of the tool housing , enclosing the stator .
A method for transmitting a bidirectional packet flow (Pk, Pk') carrying live traffic exchanged between a first node and a second node of a packet-switched communication network , said method comprising: a) at respective predefined times, by said first node transmitting to said second node a first marked packet (Pks) of said bidirectional packet flow (Pk, Pk') and by said second node transmitting to said first node a second marked packet (Pke) of said bidirectional packet flow (Pk, Pk'), and b) by said first node , transmitting to said second node unmarked packets of said bidirectional packet flow (Pk, Pk') until said second marked packet (Pks') is received from said second node and, in response thereto, transmitting to said second node a third marked packet (Pke) of said bidirectional packet flow (Pk, Pk'). a) at respective predefined times, by said first node transmitting to said second node a first marked packet (Pks) of said bidirectional packet flow (Pk, Pk') and by said second node transmitting to said first node a second marked packet (Pke) of said bidirectional packet flow (Pk, Pk'), and b) by said first node , transmitting to said second node unmarked packets of said bidirectional packet flow (Pk, Pk') until said second marked packet (Pks') is received from said second node and, in response thereto, transmitting to said second node a third marked packet (Pke) of said bidirectional packet flow (Pk, Pk').
Gas cooking appliance having at least one gas cooking zone and having a gas burner for the gas cooking zone, wherein the gas cooking appliance includes on the gas cooking zone and the gas burner a pot support for holding a pot on the gas cooking zone above the gas burner, wherein a sensor device for detecting the position or the rotational movement of the pot support relative to the gas burner and/or relative to the other gas cooking appliance is integrated in the gas cooking appliance for power adjustment at the gas cooking zone by turning the pot support with the pot placed-on, characterized in that the pot support is turnable relative to the gas cooking zone and/or relative to the gas burner about a rotational axis which has a vertical extension.
A method of pyrolysis of a hydrocarbon-containing solid biomass for obtaining liquid and/or gaseous energy sources in the presence of a heat carrier by heating a mixture of a heat carrier and the biomass to the point of pyrolysis of the biomass, wherein the pyrolysis is performed in the form of a liquid phase pyrolysis and a heavy oil is used as the heat carrier, characterized in that the biomass is impregnated with a volatile non-aqueous liquid before it is mixed with the heat carrier, wherein the volatile liquid has a final boiling point (95%) lower than or, at most, equal to the temperature of the pyrolysis step and the pyrolysis is performed at an overpressure of 0.5 bar or less, with a final boiling point (95%) indicating the temperature at which 95% of the volatile liquid has evaporated.
A separator containing polyphenylenesulfide fibers, aramid fibers, and cellulose fibers at ratios of 50 to 85 mass%, 10 to 30 mass%, and 5 to 35 mass%, respectively.
A system for hip fixation, comprising: a fixation element configured to be placed into a proximal femur of a subject such that a leading end of the fixation element is anchored in a head of the proximal femur and the fixation element extends from the head to a lateral portion of the proximal femur; a stop member ; one or more support members configured to be connected to the proximal femur in a fixed relation to the lateral portion of the proximal femur and operatively associated with the fixation element and the stop member; wherein the system includes a deformable region configured to plastically deform in response to a load applied to the system by the subject, such that the fixation element moves parallel to a long axis of the fixation element relative to the stop member and to the one or more support members . a fixation element configured to be placed into a proximal femur of a subject such that a leading end of the fixation element is anchored in a head of the proximal femur and the fixation element extends from the head to a lateral portion of the proximal femur; a stop member ; one or more support members configured to be connected to the proximal femur in a fixed relation to the lateral portion of the proximal femur and operatively associated with the fixation element and the stop member; wherein the system includes a deformable region configured to plastically deform in response to a load applied to the system by the subject, such that the fixation element moves parallel to a long axis of the fixation element relative to the stop member and to the one or more support members .
Device for determining and/or monitoring a process variable of a medium , comprising at least one sensor element arranged in a sensor head for determining and/or monitoring the process variable, wherein at least a partial region of an inner volume (V) of the sensor head , in which the sensor element is arranged, is completely filled with a filler in such a way that the sensor element is enclosed in within and/or encapsulated by the filler within the volume (V) of the sensor head , wherein the filler comprises at least one filler material , for which a phase transition occurs at at least one predeterminable phase transition temperature (T P ), for which phase transition the material remains in the solid phase, wherein the filler material is in a first phase state (P 1 ), if a temperature (T) of the filling material is less than the phase transition temperature (T P ), and wherein the filling material is in a second phase state (P 2 ) if the temperature (T) of the filling material is greater than the phase transition temperature (T P ), wherein the filling material is an electrical insulator in the first phase state (P 1 ). wherein at least a partial region of an inner volume (V) of the sensor head , in which the sensor element is arranged, is completely filled with a filler in such a way that the sensor element is enclosed in within and/or encapsulated by the filler within the volume (V) of the sensor head , wherein the filler comprises at least one filler material , for which a phase transition occurs at at least one predeterminable phase transition temperature (T P ), for which phase transition the material remains in the solid phase, wherein the filler material is in a first phase state (P 1 ), if a temperature (T) of the filling material is less than the phase transition temperature (T P ), and wherein the filling material is in a second phase state (P 2 ) if the temperature (T) of the filling material is greater than the phase transition temperature (T P ), wherein the filling material is an electrical insulator in the first phase state (P 1 ).