mhurhangee/ep-ind-claims huggingface dataset:
Bicycle with a bicycle frame, a rear wheel and a front wheel, wherein the rear wheel and the front wheel are rotatably mounted on the bicycle frame, a camera device for recording the bicycle environment during a ride, a sensor device for detecting and recording riding data, and a recording memory device for storing recordings recorded by the camera device and for storing the temporally associated riding data recorded by the sensor device, characterized in that the recording memory device comprises a permanent memory module, wherein the camera device records permanently during a ride, and wherein the recordings made by the camera device and the riding data recorded by the sensor device are stored in the permanent memory module of the recording memory device, the recording memory device further comprises a selection memory module for storing selected recordings, wherein the recording memory device is configured in such a way that, based on a trigger signal, a recording sequence stored in permanent memory module in time immediately prior to the trigger signal is stored with the associated riding data in the selection memory module. a bicycle frame, a rear wheel and a front wheel, wherein the rear wheel and the front wheel are rotatably mounted on the bicycle frame, a camera device for recording the bicycle environment during a ride, a sensor device for detecting and recording riding data, and a recording memory device for storing recordings recorded by the camera device and for storing the temporally associated riding data recorded by the sensor device, characterized in that the recording memory device comprises a permanent memory module, wherein the camera device records permanently during a ride, and wherein the recordings made by the camera device and the riding data recorded by the sensor device are stored in the permanent memory module of the recording memory device, the recording memory device further comprises a selection memory module for storing selected recordings, wherein the recording memory device is configured in such a way that, based on a trigger signal, a recording sequence stored in permanent memory module in time immediately prior to the trigger signal is stored with the associated riding data in the selection memory module.
A 3D-formable sheet material comprising a) a cellulose material in an amount from 5 to 55 wt.-%, based on the total dry weight of the 3D-formable sheet material, wherein the cellulose material is a cellulose material mixture comprising i) nanofibrillated cellulose and/or microfibrillated cellulose in an amount of ≥ 55 wt.-%, based on the total dry weight of the cellulose material mixture, and ii) cellulose fibres in an amount of ≤ 45 wt.-%, based on the total dry weight of the cellulose material mixture, and the sum of the amount of the nanofibrillated cellulose and/or microfibrillated cellulose and the cellulose fibres is 100 wt.-%, based on the total dry weight of the cellulose material mixture, and b) at least one particulate inorganic filler material in an amount of ≥ 45 wt.-%, based on the total dry weight of the 3D-formable sheet material, wherein the sum of the amount of the cellulose material and the at least one particulate inorganic filler material is 100.0 wt.-%, based on the total dry weight of the cellulose material and the at least one particulate inorganic filler material. a) a cellulose material in an amount from 5 to 55 wt.-%, based on the total dry weight of the 3D-formable sheet material, wherein the cellulose material is a cellulose material mixture comprising i) nanofibrillated cellulose and/or microfibrillated cellulose in an amount of ≥ 55 wt.-%, based on the total dry weight of the cellulose material mixture, and ii) cellulose fibres in an amount of ≤ 45 wt.-%, based on the total dry weight of the cellulose material mixture, and the sum of the amount of the nanofibrillated cellulose and/or microfibrillated cellulose and the cellulose fibres is 100 wt.-%, based on the total dry weight of the cellulose material mixture, and i) nanofibrillated cellulose and/or microfibrillated cellulose in an amount of ≥ 55 wt.-%, based on the total dry weight of the cellulose material mixture, and ii) cellulose fibres in an amount of ≤ 45 wt.-%, based on the total dry weight of the cellulose material mixture, b) at least one particulate inorganic filler material in an amount of ≥ 45 wt.-%, based on the total dry weight of the 3D-formable sheet material, wherein the sum of the amount of the cellulose material and the at least one particulate inorganic filler material is 100.0 wt.-%, based on the total dry weight of the cellulose material and the at least one particulate inorganic filler material.
Method for operating a dough-processing machine which has a first conveyor belt and a first roller, wherein an adjustable roller nip is formed between the first roller and the first conveyor belt or a second roller, and wherein the first conveyor belt is driven by a first servomotor and the first roller and if need be the second roller is driven by a second servomotor, characterized in that a control unit for the first servomotor and for the second servomotor continuously measures the torque, and characterized in that the control unit calculates at least one operating parameter of the dough-processing machine and/or at least one parameter of a dough processed by the dough-processing machine on the basis of the temporal profile of the measured torque of the first servomotor or of the second servomotor or on the basis of a comparison of the temporal profile of the measured torques of the first servomotor and of the second servomotor.
An RF power device which is capable of monitoring a temperature and RF characteristics at a wafer level, the RF power device comprising: a single RF power transistor; a pad spaced apart from the single RF power transistor and configured to transmit a temperature and RF characteristic information of the single RF power transistor to an outside; and a temperature and RF characteristic detector connected between the pad and the ground and configured to detect the temperature and the RF characteristics of the single RF power transistor, wherein the ground is connected to the single RF power transistor, and the single RF power transistor, the pad, and the temperature and RF characteristic detector are manufactured on a same wafer. a single RF power transistor; a pad spaced apart from the single RF power transistor and configured to transmit a temperature and RF characteristic information of the single RF power transistor to an outside; and a temperature and RF characteristic detector connected between the pad and the ground and configured to detect the temperature and the RF characteristics of the single RF power transistor, wherein the ground is connected to the single RF power transistor, and the single RF power transistor, the pad, and the temperature and RF characteristic detector are manufactured on a same wafer.
A radiographic apparatus comprising: a radiographic image detection unit for acquiring an X-ray radiographic image at a permitted frame rate; a storage portion (25, 62) for mounting the radiographic image detection unit, the storage portion (25, 62) comprising a cooling portion; and a control unit for controlling said radiographic image detection unit for acquiring the X-ray radiographic image, wherein the control unit is configured to detect whether the radiographic image detection unit is mounted in the storage portion (25, 62), set a maximum frame rate (Fu) if the radiographic image detection unit is mounted in the storage portion (25, 62), and limit the permitted frame rate to a frame rate (Fo) which is lower than the maximum frame rate (Fu) if the radiographic image detection unit is not mounted in the storage portion (25, 62). a radiographic image detection unit for acquiring an X-ray radiographic image at a permitted frame rate; a storage portion (25, 62) for mounting the radiographic image detection unit, the storage portion (25, 62) comprising a cooling portion; and a control unit for controlling said radiographic image detection unit for acquiring the X-ray radiographic image, wherein the control unit is configured to detect whether the radiographic image detection unit is mounted in the storage portion (25, 62), set a maximum frame rate (Fu) if the radiographic image detection unit is mounted in the storage portion (25, 62), and limit the permitted frame rate to a frame rate (Fo) which is lower than the maximum frame rate (Fu) if the radiographic image detection unit is not mounted in the storage portion (25, 62).
A spacer for maintaining one or more pieces (100, 101, 102) during a molding process, the spacer having: - an external frame, and - a plurality of spring leaves, wherein each spring leaf has a fixed end attached to an inner face of the external frame and a free end, and wherein the free ends of the plurality of spring leaves are arranged to flexibly wrap the one or more pieces to be maintained (100, 101, 102) characterize in that: - each spring leaf is a spring curved leaf that has, in a rest position, a curvature such that the free end of each curved leaf is configured to contact the one or more pieces to be maintained (100, 101, 102) on a concave side of the curvature or on a convex side of the curvature, and - each spring curved leaf extends, in the rest position, at an oblique angle from the inner face of the external frame. - an external frame, and - a plurality of spring leaves, wherein each spring leaf has a fixed end attached to an inner face of the external frame and a free end, and wherein the free ends of the plurality of spring leaves are arranged to flexibly wrap the one or more pieces to be maintained (100, 101, 102) characterize in that: - each spring leaf is a spring curved leaf that has, in a rest position, a curvature such that the free end of each curved leaf is configured to contact the one or more pieces to be maintained (100, 101, 102) on a concave side of the curvature or on a convex side of the curvature, and - each spring curved leaf extends, in the rest position, at an oblique angle from the inner face of the external frame. - each spring leaf is a spring curved leaf that has, in a rest position, a curvature such that the free end of each curved leaf is configured to contact the one or more pieces to be maintained (100, 101, 102) on a concave side of the curvature or on a convex side of the curvature, and - each spring curved leaf extends, in the rest position, at an oblique angle from the inner face of the external frame.
A blender assembly including: a blender hub having a plurality of first guide elements; a blender vessel having a rim, the blender vessel further having a plurality of second guide elements that each cooperate with a respective one of the first guide elements for forming a coupled and a sealed engagement to the blender hub; wherein, releasing the coupling, the first and second guide elements (210, 110) cooperate to provide a two-stage release; a first stage of the release breaking the sealed engagement, and maintaining a loose coupled engagement, between the blender hub and the blender vessel to at least aid in partly dissipating pressure within the blender vessel to outside the blender vessel; and a second stage of the release, subsequent to the first stage of the release, releasing the coupled engagement between the blender hub and the blender vessel; characterized in that: each of the first guide elements includes at least two thread portions (214, 212) that are offset in a direction of engagement to thereby provide the two-stage release. a blender hub having a plurality of first guide elements; a blender vessel having a rim, the blender vessel further having a plurality of second guide elements that each cooperate with a respective one of the first guide elements for forming a coupled and a sealed engagement to the blender hub; wherein, releasing the coupling, the first and second guide elements (210, 110) cooperate to provide a two-stage release; a first stage of the release breaking the sealed engagement, and maintaining a loose coupled engagement, between the blender hub and the blender vessel to at least aid in partly dissipating pressure within the blender vessel to outside the blender vessel; and a second stage of the release, subsequent to the first stage of the release, releasing the coupled engagement between the blender hub and the blender vessel; characterized in that: each of the first guide elements includes at least two thread portions (214, 212) that are offset in a direction of engagement to thereby provide the two-stage release.
Disc brake, preferably actuated by means of compressed air, in particular for a motor vehicle, comprising a brake disc, a brake caliper which engages around the brake disc and in which a clamping device is arranged, wherein a brake pad (3, 3') is provided in each case on both sides of the brake disc, and comprising an adjuster device having at least one adjuster means (7, 7') for adjusting friction surface wear on the brake pads (3, 3') and brake disc, wherein the at least one adjuster means (7, 7') can be operated independently of the clamping device by means of a pressure medium, wherein the at least one adjuster means (7, 7') is designed having a first cylinder unit having a first pressure piston, characterised in that the at least one adjuster means (7, 7') is designed having a second cylinder unit having a second pressure piston, wherein the second pressure piston of the second cylinder unit comprises a piston, which is in contact with the brake pad (3, 3'), and an adjuster piston, which is arranged on the piston.
A mobile handheld device comprising: a processor and a Wi-Fi module for communicating with a sink device to stream audio/video data from a real-time digital video screen capture thereto; wherein the sink device is a receiving device having a display for rendering content to a user, the processor configured to: identify manufacturer and model of the sink device, retrieve (330, 340) input lag data for the sink device from a database indexed by manufacturer and model of the sink device, and optimize encoding of the audio/video data by adjusting transmission parameters based on the input lag data, wherein the input lag of the sink device is defined as the difference between the time that a signal is input into the sink device. and the time that it is shown by the display of the sink device. a processor and a Wi-Fi module for communicating with a sink device to stream audio/video data from a real-time digital video screen capture thereto; wherein the sink device is a receiving device having a display for rendering content to a user, the processor configured to: identify manufacturer and model of the sink device, retrieve (330, 340) input lag data for the sink device from a database indexed by manufacturer and model of the sink device, and optimize encoding of the audio/video data by adjusting transmission parameters based on the input lag data, identify manufacturer and model of the sink device, retrieve (330, 340) input lag data for the sink device from a database indexed by manufacturer and model of the sink device, and optimize encoding of the audio/video data by adjusting transmission parameters based on the input lag data, wherein the input lag of the sink device is defined as the difference between the time that a signal is input into the sink device. and the time that it is shown by the display of the sink device.
A microwave heating construct, comprising: a first side wall and a second side wall opposite one another; and a food-supporting panel extending between the first side wall and the second side wall, the first side wall including at least one line of disruption that defines a movable portion of the first side wall, wherein the movable portion of the first side wall is for being separated along the at least one line of disruption and positioned over the food-supporting panel, and the food-supporting panel and the movable portion of the first side wall each include microwave energy interactive material, the food-supporting panel is joined to the first side wall and the second side wall along a respective first line of disruption and second line of disruption, characterised in that the food-supporting panel extends downwardly from the first line of disruption and second line of disruption. a first side wall and a second side wall opposite one another; and a food-supporting panel extending between the first side wall and the second side wall, the first side wall including at least one line of disruption that defines a movable portion of the first side wall, wherein the movable portion of the first side wall is for being separated along the at least one line of disruption and positioned over the food-supporting panel, and the food-supporting panel and the movable portion of the first side wall each include microwave energy interactive material, the food-supporting panel is joined to the first side wall and the second side wall along a respective first line of disruption and second line of disruption, characterised in that the food-supporting panel extends downwardly from the first line of disruption and second line of disruption.
A mechanical circulatory support device, comprising: an inner housing having an inlet end, an outlet end, and a flow path there between, the flow path defining a longitudinal axis; a volute downstream of the outlet end having an outlet port; a rotor mounted within the inner housing upstream of the volute and configured to rotate about the longitudinal axis; the volute including an inner surface having a minimum radius immediately adjacent the rotor and a maximum radius at the outlet port that is larger than the minimum radius; characterised by an elongate housing portion disposed between the rotor and the volute, the elongate housing portion having an inlet end radius and an outlet end radius, the inlet end radius being at least one of larger than and equal to an inner surface radius of the inner housing, and the outlet end radius being larger than the inner surface radius of the inner housing; and a center post extending through at least a portion of the volute and through at least a portion of the elongate housing portion, the center post being downstream from the rotor, the elongate housing portion defining a gap between the rotor and the center post. an inner housing having an inlet end, an outlet end, and a flow path there between, the flow path defining a longitudinal axis; a volute downstream of the outlet end having an outlet port; a rotor mounted within the inner housing upstream of the volute and configured to rotate about the longitudinal axis; the volute including an inner surface having a minimum radius immediately adjacent the rotor and a maximum radius at the outlet port that is larger than the minimum radius; characterised by an elongate housing portion disposed between the rotor and the volute, the elongate housing portion having an inlet end radius and an outlet end radius, the inlet end radius being at least one of larger than and equal to an inner surface radius of the inner housing, and the outlet end radius being larger than the inner surface radius of the inner housing; and a center post extending through at least a portion of the volute and through at least a portion of the elongate housing portion, the center post being downstream from the rotor, the elongate housing portion defining a gap between the rotor and the center post.
A method for controlling a ground compaction machine, in particular for avoiding compaction errors, comprising the steps of: a) exciting a vibration with a vibration frequency (f) in at least one compaction drum by means of an excitation device, b) advancing the ground compaction machine at a travel speed (v) over a ground to be compacted, c) varying the travel speed (v) and/or the vibration frequency (f), d) determining and monitoring the number of vibration impacts per traveled distance from the travel speed (v) and the vibration frequency (f), and e) comparing the determined number of vibration impacts per traveled distance with predetermined limit values (IPF max, IPF min, IPF end), characterized by f) reducing the vertical vibration amplitude of the compaction drum if exceeding and/or falling below at least one of the limit values (IPF max, IPF min, IPF end). a) exciting a vibration with a vibration frequency (f) in at least one compaction drum by means of an excitation device, b) advancing the ground compaction machine at a travel speed (v) over a ground to be compacted, c) varying the travel speed (v) and/or the vibration frequency (f), d) determining and monitoring the number of vibration impacts per traveled distance from the travel speed (v) and the vibration frequency (f), and e) comparing the determined number of vibration impacts per traveled distance with predetermined limit values (IPF max, IPF min, IPF end),
An instrument for setting a fracture in a bone and affixing a bone plate to the fractured bone with a connection to an intramedullary rod fixed in the fractured bone, said instrument comprising: a connector for connecting the instrument to the intramedullary rod, at least two tines, each tine having a distal end configured to contact the bone, the tines movably connected to the connector and configured to orient the fractured bone with respect to the rod; and at least one plate carrier (44a, 44b) configured to receive the bone plate, the at least one plate carrier (44a, 44b) movably connected to the connector and configured to move relative to the connector and the tines to position the bone plate adjacent the bone in a predetermined alignment with the intramedullary rod. a connector for connecting the instrument to the intramedullary rod, at least two tines, each tine having a distal end configured to contact the bone, the tines movably connected to the connector and configured to orient the fractured bone with respect to the rod; and at least one plate carrier (44a, 44b) configured to receive the bone plate, the at least one plate carrier (44a, 44b) movably connected to the connector and configured to move relative to the connector and the tines to position the bone plate adjacent the bone in a predetermined alignment with the intramedullary rod.
A method for operating a traveling-wave tube module of a communication satellite, the method comprising the steps of: receiving a high-frequency signal from an antenna of the communication satellite; determining that the high-frequency signal is to be amplified; increasing a cathode current of a traveling-wave tube to a predetermined operating value if the high-frequency signal is to be amplified; amplifying the high-frequency signal using the traveling-wave tube; detecting and analyzing a measured value (62, 64) of the traveling-wave tube module; wherein it is determined based on the measured value (62, 64) that the high-frequency signal is to be amplified; wherein the measured value (62, 64) is detected over a time period, and the analyzing involves determining whether at least one peak value of the measured value (62, 64) lies above a threshold value in order to determine that the high-frequency signal is to be amplified. receiving a high-frequency signal from an antenna of the communication satellite; determining that the high-frequency signal is to be amplified; increasing a cathode current of a traveling-wave tube to a predetermined operating value if the high-frequency signal is to be amplified; amplifying the high-frequency signal using the traveling-wave tube; detecting and analyzing a measured value (62, 64) of the traveling-wave tube module; wherein it is determined based on the measured value (62, 64) that the high-frequency signal is to be amplified; wherein the measured value (62, 64) is detected over a time period, and the analyzing involves determining whether at least one peak value of the measured value (62, 64) lies above a threshold value in order to determine that the high-frequency signal is to be amplified.