mhurhangee/ep-ind-claims huggingface dataset:
Transfer device for a feed device with differently inclined guide tracks (6, 7) and a mobile rolling component carrier, which can be connected to the guide tracks (6, 7), for a component, wherein the transfer device comprises a manually operable lifting device with an upright linear lifting axis and with a track portion which can be connected to the guide tracks (6, 7) in an aligned manner, wherein the lifting device has a base with a frame-like lifting carrier which is arranged thereon in a height-adjustable manner and has a pivoting device, wherein the lifting carrier is oriented transversely or obliquely with respect to the lifting axis, and the track portion is mounted pivotably on the lifting carrier by means of the pivoting device, wherein the transfer device has a control platform which is connected to the base, interacts with the lifting carrier, and can be guided on a guide track (6, 7), wherein the transfer device has a control device for the movements of a component carrier, and the control device has a controllable stopper on the control platform.
A method of preparing a cation-exchange membrane, which is characterized by selectively substituting sulfonic acid groups in a perfluorinated sulfonic acid electrolyte membrane with carboxyl groups, the method comprising: a) chlorinating sulfonic acid groups in a perfluorinated sulfonic acid electrolyte membrane; b) nitrilating the chlorinated electrolyte membrane; and c) hydrolyzing the nitrilated electrolyte membrane. a) chlorinating sulfonic acid groups in a perfluorinated sulfonic acid electrolyte membrane; b) nitrilating the chlorinated electrolyte membrane; and c) hydrolyzing the nitrilated electrolyte membrane.
An osmotic material-free sanitary tissue product comprising a plurality of fibers wherein the sanitary tissue product exhibits a basis weight of from 40 g/m 2 to 500 g/m 2 as measured according to the Basis Weight Test Method, a Dry BEA of greater than 20.0 as measured according to the Dry Burst Test Method and a Dry Thick Compression of greater than 700 as measured according to the Dry Compressive Modulus Test Method, wherein the sanitary tissue product comprises at least one co-formed fibrous structure and at least one mono-fibrous wet-laid fibrous structure that are associated with one another by compression bonding or thermal bonding, said at least one mono-fibrous wet-laid fibrous structure comprising hardwood and/or softwood pulp fibers and comprising a non-random, repeating surface pattern, said at least one co-formed fibrous structure exhibiting a basis weight of from 15 g/m 2 to 400 g/m 2 as measured according to the Basis Weight Test Method and comprising a plurality of filaments and a plurality of fibers with a weight ratio of filaments to fibers of at least 1:10, said filaments comprising a thermoplastic polymer and said fibers comprised in the co-formed fibrous structure being selected from the group consisting of softwood kraft pulp fibers, hardwood fibers and mixtures thereof..
Gaseous NO (gNO) at a concentration of at least 160 ppm, for use in the treatment of a human subject suffering from a disease or disorder that is manifested in the respiratory tract or a disease or disorder that can be treated via the respiratory tract, wherein the human subject is an infant, the disease or disorder is bronchiolitis and the gNO is administered to the human subject intermittently, wherein the intermittent inhalation comprises at least one cycle of continuous inhalation of said gNO for a first time period, followed by inhalation of no gNO for a second time period.
An agricultural working machine (1, 2) with a hydraulic control system which controls valves of the working machine (1, 2) which are associated with respective machine connections, to which at least one implement with mating connections can be attached in order to control a hydraulically actuated adjusting element, as well as with an operating unit which comprises input means and output means and which is connected to the hydraulic control system for the purposes of signalling, wherein the hydraulic control system is constructed in a manner such that a hydraulic function of the at least one attached implement which can be executed by the adjusting element, as well as at least one operating element of the operating unit is directly allocated to a respective valve, wherein these allocations are stored in a data memory of the working machine (1, 2) in a retrievable manner, wherein the control system is configured to implement the allocations as a function of functional features of the attached implement, wherein the control system is configured to execute sequences which are specific to an implement model of the attached implement stored in the data memory and which define agricultural process steps by time-dependent and/or path-dependent performance profiles, wherein the control system is configured to manipulate the time-dependent and/or path-dependent performance profiles of a stored sequence by inputs which are received from the operating unit, characterized in that the control system is configured to delineate a sequence for an implement with the aid of inputs transmitted via the operating unit and to store it in the data memory in a retrievable manner. the control system is configured to execute sequences which are specific to an implement model of the attached implement stored in the data memory and which define agricultural process steps by time-dependent and/or path-dependent performance profiles, wherein the control system is configured to manipulate the time-dependent and/or path-dependent performance profiles of a stored sequence by inputs which are received from the operating unit, characterized in that the control system is configured to delineate a sequence for an implement with the aid of inputs transmitted via the operating unit and to store it in the data memory in a retrievable manner.
A buckle apparatus for a seat belt, the buckle apparatus comprising: an upper cover including a front plate formed with an opening part for insertion of a tongue plate; a lower cover engaged with a lower portion of the upper cover and provided therein with a base frame; a latch member including one end rotatably supported on the base frame and locked with the tongue plate inserted through the opening part; an ejector assembly provided on the base frame for locking and releasing between the tongue plate and the latch member; and a release button slidably provided on both sides of the base frame and disposed in an upper portion of the opening part so that one side of the release button is exposed, characterized in that at least one clastic member is integrally provided on an upper end of the front plate to elastically press a bottom surface of the inserted tongue plate to prevent the tongue plate from moving in upper and lower direction (U, L). an upper cover including a front plate formed with an opening part for insertion of a tongue plate; a lower cover engaged with a lower portion of the upper cover and provided therein with a base frame; a latch member including one end rotatably supported on the base frame and locked with the tongue plate inserted through the opening part; an ejector assembly provided on the base frame for locking and releasing between the tongue plate and the latch member; and a release button slidably provided on both sides of the base frame and disposed in an upper portion of the opening part so that one side of the release button is exposed, characterized in that at least one clastic member is integrally provided on an upper end of the front plate to elastically press a bottom surface of the inserted tongue plate to prevent the tongue plate from moving in upper and lower direction (U, L).
A power demand amount calculation apparatus for calculating a demand amount of power necessary for a plurality of electric vehicles (Va, Vb, Vc), the power demand amount calculation apparatus comprising: a floating car data reception unit configured to establish a communication connection with a plurality of vehicle-mounted apparatuses (Ua, Ub, Uc) mounted on the electric vehicles (Va, Vb, Vc) via a communication circuit and to receive floating car data including at least information representing the rated capacity and information representing the charge level of the battery of the electric vehicle and position information of the electric vehicle from the vehicle-mounted apparatus (Ua, Ub, Uc) of the electric vehicle, and a power demand amount calculation unit configured to calculate a demand amount of power necessary for each electric vehicle within a predetermined region in a predetermined time zone among the plurality of electric vehicles (Va, Vb, Vc) based on at least a rated capacity and an actual capacity of a battery of each electric vehicle within the predetermined region, the actual capacity being obtained based on the rated capacity and a ratio of the charge level; wherein the power demand amount calculation unit is configured to calculate a demand amount of power necessary for each electric vehicle within the predetermined region excluding any electric vehicle which is being charged. a floating car data reception unit configured to establish a communication connection with a plurality of vehicle-mounted apparatuses (Ua, Ub, Uc) mounted on the electric vehicles (Va, Vb, Vc) via a communication circuit and to receive floating car data including at least information representing the rated capacity and information representing the charge level of the battery of the electric vehicle and position information of the electric vehicle from the vehicle-mounted apparatus (Ua, Ub, Uc) of the electric vehicle, and a power demand amount calculation unit configured to calculate a demand amount of power necessary for each electric vehicle within a predetermined region in a predetermined time zone among the plurality of electric vehicles (Va, Vb, Vc) based on at least a rated capacity and an actual capacity of a battery of each electric vehicle within the predetermined region, the actual capacity being obtained based on the rated capacity and a ratio of the charge level; wherein the power demand amount calculation unit is configured to calculate a demand amount of power necessary for each electric vehicle within the predetermined region excluding any electric vehicle which is being charged.
Clamping adapter for a catheter, having a clamping body, having a bore which passes axially through the clamping body and which continues into a syringe attachment, having a shape-elastic clamping bush which can be inserted into the clamping body, the inner channel of which clamping bush communicates with the bore of the clamping body and the end of which clamping bush is supported axially in the clamping body, having a clamping lid which can be placed onto the clamping body, has an insertion opening aligned with the inner channel of the clamping bush, is movable axially relative to the clamping body and acts on the end face of the clamping bush, wherein the catheter can be inserted through the insertion opening of the clamping lid into the inner channel of the clamping bush and can be clamped in the inner channel by axial compression of the clamping bush by means of the clamping lid, wherein the clamping lid is guided in a linearly displaceable manner relative to the clamping body, and having a clamping lever which is pivotable between an open position and a clamping position about a pivot axis which runs transversely to the longitudinal axis of the clamping adapter, wherein the clamping lever cooperates with the clamping lid in such a way that the clamping lid releases the clamping bush axially in the open position and compresses it axially in the clamping position, characterized in that the clamping body continues proximally into the syringe attachment, in that the clamping bush can be inserted distally into the clamping body, in that the inner channel of the clamping bush communicates with the distal end of the bore of the clamping body, in that the proximal end of the clamping bush is supported axially in the clamping body, in that the clamping lid engages in a pot-shaped manner over the distal end of the clamping body and engages with a coaxial pressing face in the distal end of the clamping body and bears against the distal end face of the clamping bush, in that the clamping lever is mounted pivotably on the clamping lid and moves the clamping lid axially relative to the clamping body by means of a sliding block guide (42, 44) that acts between the clamping lever and the clamping body, in that the clamping lever in its open position is moved away from the clamping adapter, wherein the clamping lid is displaced axially in the distal direction relative to the clamping body, and in that the clamping lever in its clamping position bears against the clamping adapter, wherein the clamping lid is drawn axially in the proximal direction onto the clamping body.
A non-transitory machine-readable storage medium storing instructions that upon execution cause an electronic device to: receive a configuration setting that is configurable to a first setting to indicate a first mode of operation, and a second setting to indicate a second mode of operation, wherein a feature supported by the first mode of operation is disabled in the second mode of operation; and configure a dock to which the electronic device is connected to operate according to a mode indicated by the configuration setting, characterised in that configuring the dock to the first mode allows for remote management of the electronic device over a network from a remote device, the remote management of the electronic device over the network from the remote device comprising the remote device remotely powering up or down the electronic device or the remote device booting the electronic device, and wherein configuring the dock to the second mode disables the remote management of the electronic device over the network. receive a configuration setting that is configurable to a first setting to indicate a first mode of operation, and a second setting to indicate a second mode of operation, wherein a feature supported by the first mode of operation is disabled in the second mode of operation; and configure a dock to which the electronic device is connected to operate according to a mode indicated by the configuration setting, characterised in that configuring the dock to the first mode allows for remote management of the electronic device over a network from a remote device, the remote management of the electronic device over the network from the remote device comprising the remote device remotely powering up or down the electronic device or the remote device booting the electronic device, and wherein configuring the dock to the second mode disables the remote management of the electronic device over the network.
Otoscope comprising: - a handle portion allowing a user to manipulate the otoscope during its application; and - a head portion exhibiting a substantially tapering form extending along a longitudinal axis of the head portion, wherein the head portion has a proximal end adjacent to the handle portion and a smaller distal end configured to be introduced in an ear canal of a patient's outer ear, wherein the otoscope further comprises an electronic imaging unit positioned at the distal end of the head portion, wherein the electronic imaging unit is a camera, characterized in that the otoscope further comprises a motion mechanism configured to displace the electronic imaging unit relative to the handle portion. - a handle portion allowing a user to manipulate the otoscope during its application; and - a head portion exhibiting a substantially tapering form extending along a longitudinal axis of the head portion, wherein the head portion has a proximal end adjacent to the handle portion and a smaller distal end configured to be introduced in an ear canal of a patient's outer ear,
A method to rank time sources for an autonomous driving vehicle, the method comprising: receiving a plurality of times from a plurality of time sources including sensors and real-time clocks (RTCs), wherein the sensors are in communication with the ADV and the sensors include at least a global positioning system sensor, and wherein the RTCs include at least a central processing unit real-time clock (CPU-RTC); characterised in that the method further comprises: generating a difference histogram based on a time for each of the time sources for a difference between a time of the GPS sensor and a time for each of the other sensors and RTCs; ranking the sensors and RTCs based on their respective difference histograms; selecting a time source from one of the sensors or RTCs with a least difference in time with respect to the GPS sensor; and generating a timestamp based on the selected time source to timestamp sensor data for a sensor unit of the ADV. receiving a plurality of times from a plurality of time sources including sensors and real-time clocks (RTCs), wherein the sensors are in communication with the ADV and the sensors include at least a global positioning system sensor, and wherein the RTCs include at least a central processing unit real-time clock (CPU-RTC); characterised in that the method further comprises: generating a difference histogram based on a time for each of the time sources for a difference between a time of the GPS sensor and a time for each of the other sensors and RTCs; ranking the sensors and RTCs based on their respective difference histograms; selecting a time source from one of the sensors or RTCs with a least difference in time with respect to the GPS sensor; and generating a timestamp based on the selected time source to timestamp sensor data for a sensor unit of the ADV. generating a difference histogram based on a time for each of the time sources for a difference between a time of the GPS sensor and a time for each of the other sensors and RTCs; ranking the sensors and RTCs based on their respective difference histograms; selecting a time source from one of the sensors or RTCs with a least difference in time with respect to the GPS sensor; and generating a timestamp based on the selected time source to timestamp sensor data for a sensor unit of the ADV.
A medical device designed for insertion in a body passageway comprising: a. a stent with abluminal and luminal surfaces and comprising at least 60 weight percent of a metal alloy comprising as primary metals molybdenum and rhenium, wherein a "primary metal" is a metal component of the metal alloy that is not a metal impurity, the metal alloy being (i) a solid solution or homogenous solution including the primary metals (rhenium and molybdenum) in at least about 95 wt.-%, or (ii) a solid solution including the primary metals rhenium and molybdenum at about 95-99 wt.-%; b. a base drug coating applied to the device; c. a bioabsorbable coating; d. a secondary drug coating; wherein the base drug coating is comprised of 100% drug and is sufficient to suppress inflammation resulting from absorption of the bioabsorbable coating; wherein the secondary drug coating is applied to the luminal surface of the device; wherein the secondary drug coating is sufficient to promote the growth of endothelium on the luminal surface of the stent. a. a stent with abluminal and luminal surfaces and comprising at least 60 weight percent of a metal alloy comprising as primary metals molybdenum and rhenium, wherein a "primary metal" is a metal component of the metal alloy that is not a metal impurity, the metal alloy being (i) a solid solution or homogenous solution including the primary metals (rhenium and molybdenum) in at least about 95 wt.-%, or (ii) a solid solution including the primary metals rhenium and molybdenum at about 95-99 wt.-%; (i) a solid solution or homogenous solution including the primary metals (rhenium and molybdenum) in at least about 95 wt.-%, or (ii) a solid solution including the primary metals rhenium and molybdenum at about 95-99 wt.-%; b. a base drug coating applied to the device; c. a bioabsorbable coating; d. a secondary drug coating; wherein the base drug coating is comprised of 100% drug and is sufficient to suppress inflammation resulting from absorption of the bioabsorbable coating; wherein the secondary drug coating is applied to the luminal surface of the device; wherein the secondary drug coating is sufficient to promote the growth of endothelium on the luminal surface of the stent.
A method for scheduling traffic in a network, wherein at least four nodes of the network are connected to each other by transmission lines in a line topology or in a ring topology comprising an even number of at least four nodes, wherein for a network node, the at least two neighboring network nodes (B1, B3) and the at least one next-but-one neighboring network node phase-shifted traffic schedules are configured for traffic of a first traffic class only; wherein the phase shifted cyclic traffic schedule (C1, C2) for a first traffic class, comprises a reception phase and a transmission phase, and wherein the phase shifted cyclic traffic schedules of adjacent network nodes are phase-shifted with respect to reception phases and transmission phases for traffic of the first traffic class and at least two neighboring nodes (B1, B3) omit transmission of one or more data packets of the first traffic class in direction of the network node and at least one next-but-one neighboring network node in a transmission phase (TOO of the network node; the method comprising: Setting the transmission phase of the network node to coincide with the reception phase of at least two neighboring network nodes (B1, B3); and Setting the transmission phase of the network node to coincide with the transmission phase of at least one next-but-one neighboring network node. wherein for a network node, the at least two neighboring network nodes (B1, B3) and the at least one next-but-one neighboring network node phase-shifted traffic schedules are configured for traffic of a first traffic class only; wherein the phase shifted cyclic traffic schedule (C1, C2) for a first traffic class, comprises a reception phase and a transmission phase, and wherein the phase shifted cyclic traffic schedules of adjacent network nodes are phase-shifted with respect to reception phases and transmission phases for traffic of the first traffic class and at least two neighboring nodes (B1, B3) omit transmission of one or more data packets of the first traffic class in direction of the network node and at least one next-but-one neighboring network node in a transmission phase (TOO of the network node; the method comprising: Setting the transmission phase of the network node to coincide with the reception phase of at least two neighboring network nodes (B1, B3); and Setting the transmission phase of the network node to coincide with the transmission phase of at least one next-but-one neighboring network node. Setting the transmission phase of the network node to coincide with the reception phase of at least two neighboring network nodes (B1, B3); and Setting the transmission phase of the network node to coincide with the transmission phase of at least one next-but-one neighboring network node.