mhurhangee/ep-ind-claims huggingface dataset:
An electrochemical cell, comprising: a cathode shell, a cathode positioned inside the cathode shell, an anode shell, an anode and/or positioned inside the anode shell, and one or more ion exchange membranes, wherein the one or more ion exchange membranes are disposed between the anode shell and the cathode shell; and a plurality of V-shaped, U-shaped, or Z-shaped elements positioned outside the anode shell and in electrical contact with the anode and/or. a cathode shell, a cathode positioned inside the cathode shell, an anode shell, an anode and/or positioned inside the anode shell, and one or more ion exchange membranes, wherein the one or more ion exchange membranes are disposed between the anode shell and the cathode shell; and a plurality of V-shaped, U-shaped, or Z-shaped elements positioned outside the anode shell and in electrical contact with the anode and/or.
A case for an electronic smoking device, the case comprising: - a primary reception portion, adapted to receive an electronic smoking device, and - a first and a second wing element (200, 300), each comprising a closed compartment and being hingedly connected to the primary reception portion respectively, wherein the wing elements (200, 300) are each pivotable with respect to the primary reception portion, wherein - in a first non-pivoted state of the wing elements (200, 300), an electronic smoking device arranged within the primary reception portion is immovably fixed to the case via the wing elements (200, 300), and wherein - in a second pivoted state of the wing elements (200, 300), an electronic smoking device arranged in the primary reception portion is released and removable from the case. - a primary reception portion, adapted to receive an electronic smoking device, and - a first and a second wing element (200, 300), each comprising a closed compartment and being hingedly connected to the primary reception portion respectively, - in a first non-pivoted state of the wing elements (200, 300), an electronic smoking device arranged within the primary reception portion is immovably fixed to the case via the wing elements (200, 300), and wherein - in a second pivoted state of the wing elements (200, 300), an electronic smoking device arranged in the primary reception portion is released and removable from the case.
Assembly for the precision drilling of seed grains, comprising: a drilling machine with at least one row unit which is assigned a drive set up for instigating delivery of a seed grain into a furrow, and a control system, which is connected to a position-determining system, to a memory device for the two- or three-dimensional storage of desired delivery positions of seed grains, to the drive of the row unit and to a seed material sensor for detecting the actual delivery position of the seed grains in the furrow and which is set up to control the drive based on signals from the position-determining system, the desired delivery positions registered in the memory device and signals from the seed material sensor so that the seed grains are deposited successively at the desired delivery positions, wherein the control system is set up to evaluate on the basis of the signals from the seed material sensor a time stagger (Δt) between the activation of the drive and the moment the seed grain reaches its final position in the furrow and to take this into consideration together with the current forward drive speed (v) when controlling the drive. a drilling machine with at least one row unit which is assigned a drive set up for instigating delivery of a seed grain into a furrow, and a control system, which is connected to a position-determining system, to a memory device for the two- or three-dimensional storage of desired delivery positions of seed grains, to the drive of the row unit and to a seed material sensor for detecting the actual delivery position of the seed grains in the furrow and which is set up to control the drive based on signals from the position-determining system, the desired delivery positions registered in the memory device and signals from the seed material sensor so that the seed grains are deposited successively at the desired delivery positions, wherein the control system is set up to evaluate on the basis of the signals from the seed material sensor a time stagger (Δt) between the activation of the drive and the moment the seed grain reaches its final position in the furrow and to take this into consideration together with the current forward drive speed (v) when controlling the drive.
An air insulated medium voltage switchgear comprising a casing defining an internal volume for housing at least a circuit breaker assembly and a bus bar assembly, said circuit breaker assembly being movable between at least two operative positions and comprising for each phase, at least a first and a second insertion contacts couplable and uncouplable to corresponding first and second fixed contacts by moving said circuit breaker assembly, characterized in that said circuit breaker assembly further comprises an insulating base frame supporting an interruption unit comprising for each phase an interruption chamber, an actuator for actuating the opening/closing operation of said interruption unit and a kinematic chain operatively connecting said actuator to said interruption unit, said second insertion contact being outwardly positioned with respect to a lower surface of said insulating frame, said first and second insertion contacts (411, 412) being vertically aligned, a linear current path parallel to an axis of said interruption chamber being created between said first and second insertion contacts.
A compound of general formula or wherein R n and R m independently represent a C 3 -C 27 aliphatic group, X 1 and X 2 are -(CH 2) 3 - and R 1 to R 4 are methyl, and R 5 and R 6, which may be the same or different at each occurrence, represent a group selected from -O, -Alk-CH -CH 2 -SO 3 - and -Alk-CO 2 - wherein Alk represents a methylene group -CH 2 -. wherein R n and R m independently represent a C 3 -C 27 aliphatic group, X 1 and X 2 are -(CH 2) 3 - and R 1 to R 4 are methyl, and R 5 and R 6, which may be the same or different at each occurrence, represent a group selected from -O, -Alk-CH -CH 2 -SO 3 - and -Alk-CO 2 - wherein Alk represents a methylene group -CH 2 -.
A bicycle tool, comprising a valve connection means, and a tool element being connecting with the valve connection means in its longitudinal direction and comprising a tool holder at an end facing away from the valve connection means, wherein the tool holder is suitable for receiving a bit, characterized in that a longitudinal axis of a bit received in the tool holder is arranged perpendicular to a longitudinal axis of the valve connection means, and that the toolholder is formed as a ratchet. a valve connection means, and a tool element being connecting with the valve connection means in its longitudinal direction and comprising a tool holder at an end facing away from the valve connection means, wherein the tool holder is suitable for receiving a bit, characterized in that a longitudinal axis of a bit received in the tool holder is arranged perpendicular to a longitudinal axis of the valve connection means, and that the toolholder is formed as a ratchet.
A solar powered, vehicle mounted display unit (VMDU) for a vehicle, said VMDU comprising: an electronic display; a housing for said electronic display, wherein said housing is is mounted to a first and second cross bar installed to said vehicle such that said first and second crossbars extend laterally across a roof of said vehicle and said housing extends longitudinally along the roof of said vehicle when installed to said first and second crossbars; a solar energy harvesting device located above, and spaced apart from, said housing, wherein said solar energy harvesting device is electrically connected to said electronic display; support members extending between said housing and said solar energy harvesting device to support said solar energy harvesting device in an elevated position above, and spaced apart from, said housing to create a void between at least part of said solar energy harvesting device and said housing and cause said solar energy harvesting device to at least periodically cast shade on said electronic display; and stiffeners extending along a lowermost surface of the solar energy harvesting device; wherein said housing defines a first footprint, said solar energy harvesting device defines a second footprint, said second footprint is larger than, and directly and completely overlies, said first footprint such that; an outer perimeter of said second footprint extends beyond an outer perimeter of said first footprint in both a lateral and a longitudinal direction. an electronic display; a housing for said electronic display, wherein said housing is is mounted to a first and second cross bar installed to said vehicle such that said first and second crossbars extend laterally across a roof of said vehicle and said housing extends longitudinally along the roof of said vehicle when installed to said first and second crossbars; a solar energy harvesting device located above, and spaced apart from, said housing, wherein said solar energy harvesting device is electrically connected to said electronic display; support members extending between said housing and said solar energy harvesting device to support said solar energy harvesting device in an elevated position above, and spaced apart from, said housing to create a void between at least part of said solar energy harvesting device and said housing and cause said solar energy harvesting device to at least periodically cast shade on said electronic display; and stiffeners extending along a lowermost surface of the solar energy harvesting device; wherein said housing defines a first footprint, said solar energy harvesting device defines a second footprint, said second footprint is larger than, and directly and completely overlies, said first footprint such that; an outer perimeter of said second footprint extends beyond an outer perimeter of said first footprint in both a lateral and a longitudinal direction.
An endovascular intra-aortic catheter comprising: a sheath having a distal portion, a proximal portion and a lumen extending therebetween; said sheath having a length sufficient to extend from an access site of a patient to at least a patient's aortic arch; characterized by said distal portion of the sheath having a first diametrically expandable region comprising at least one longitudinal fold; said first diametrically expandable region having a malleable reinforcement structure configured to maintain said first diametrically expandable region in a first radially collapsed cross-sectional configuration; said first diametrically expandable region expandable into a second radially expanded configuration; and a hub coupled to the sheath at its proximal end; an outer jacket affixed and sealed to said sheath and arranged to assist in re-collapsing the expandable region of the sheath to a third, radially collapsed configuration during pressurization of a region interior to the outer jacket, following expansion of the first diametrically expandable region to said second radially expanded configuration. a sheath having a distal portion, a proximal portion and a lumen extending therebetween; said sheath having a length sufficient to extend from an access site of a patient to at least a patient's aortic arch; characterized by said distal portion of the sheath having a first diametrically expandable region comprising at least one longitudinal fold; said first diametrically expandable region having a malleable reinforcement structure configured to maintain said first diametrically expandable region in a first radially collapsed cross-sectional configuration; said first diametrically expandable region expandable into a second radially expanded configuration; and a hub coupled to the sheath at its proximal end; an outer jacket affixed and sealed to said sheath and arranged to assist in re-collapsing the expandable region of the sheath to a third, radially collapsed configuration during pressurization of a region interior to the outer jacket, following expansion of the first diametrically expandable region to said second radially expanded configuration.
Use of a pressure-sensitive adhesive in a single-or double-sidedly bonding adhesive-sheet strip, which is carrier-free and hence of only single-ply configuration, wherein the pressure-sensitive adhesive at least comprises (a) at least one elastomer, the elastomer having a fraction of at least 40 wt%, based on the adhesive composition, and elastomer used comprising at least one kind of a polybutadiene block copolymer, (b) at least one partly hydrogenated hydrocarbon resin (resin kind 1) having a softening temperature of at least 90°C, (c) optionally at least one further hydrocarbon resin, a terpene-phenolic resin and/or a rosin having a softening temperature of at least 90°C (resin kind 2), (d) optionally a plasticizing resin having a melt viscosity at 25°C and 1 Hz of at least 25 Pa*s and a softening temperature of < 25°C, (e) optionally further additives, wherein the tan δ of the pressure-sensitive adhesive at application temperature (here 25°C) at 10 rad/s is at least 0.20 and at 100 rad/s is at least 0.40. (a) at least one elastomer, the elastomer having a fraction of at least 40 wt%, based on the adhesive composition, and elastomer used comprising at least one kind of a polybutadiene block copolymer, (b) at least one partly hydrogenated hydrocarbon resin (resin kind 1) having a softening temperature of at least 90°C, (c) optionally at least one further hydrocarbon resin, a terpene-phenolic resin and/or a rosin having a softening temperature of at least 90°C (resin kind 2), (d) optionally a plasticizing resin having a melt viscosity at 25°C and 1 Hz of at least 25 Pa*s and a softening temperature of < 25°C, (e) optionally further additives,
A method comprising: collecting, by a computing system, performance indicators for each of a quantity of devices deployed within a network; generating health status values for each of the quantity of devices by evaluating health status rules associated with the performance indicators; determining, by the computing system, whether the quantity of devices exceeds a threshold number of devices; grouping the devices, by the computing system and based on determining that the quantity of devices exceeds the threshold number of devices, into a first group of devices that includes a first plurality of the devices and a second group of devices that includes a second plurality of the devices; determining, by the computing system and based on the health status values for each of the devices in the first group of devices, a group health status value; and outputting, by the computing system, a user interface that includes a display element representing the first group of devices, wherein the display element is presented within the user interface to provide a visual indication of the group health status value. collecting, by a computing system, performance indicators for each of a quantity of devices deployed within a network; generating health status values for each of the quantity of devices by evaluating health status rules associated with the performance indicators; determining, by the computing system, whether the quantity of devices exceeds a threshold number of devices; grouping the devices, by the computing system and based on determining that the quantity of devices exceeds the threshold number of devices, into a first group of devices that includes a first plurality of the devices and a second group of devices that includes a second plurality of the devices; determining, by the computing system and based on the health status values for each of the devices in the first group of devices, a group health status value; and outputting, by the computing system, a user interface that includes a display element representing the first group of devices, wherein the display element is presented within the user interface to provide a visual indication of the group health status value.
A system for use on a planetary surface, the system being characterized by: ridges arranged parallel to each other, wherein the ridges are configured to support a weight of an extraterrestrial vehicle rolling over the ridges; a base configured to maintain a relative position of the ridges to each other; and a controller configured to control one or more of the ridges to vibrate. ridges arranged parallel to each other, wherein the ridges are configured to support a weight of an extraterrestrial vehicle rolling over the ridges; a base configured to maintain a relative position of the ridges to each other; and a controller configured to control one or more of the ridges to vibrate.
Method performed by at least one computing device for controlling a printing process for printing a decorative target image onto a substrate, comprising: - providing the decorative target image to be printed in the printing process by at least one decorative parameter data set, - simulating the printing process in a simulation step based on the decorative parameter data set, at least one printing process parameter data set and stored historical printing data sets such that a digital decorative image is generated, - verifying the generated digital decorative image based on the decorative target image to be printed and at least one verification criterion, - wherein the verifying of the generated digital decorative image comprises comparing the digital decorative image generated by the simulation step and the decorative target image, - wherein the at least one verification criterion is a comparison criterion that specifies at least a predetermined minimum optical similarity measure between the digital decorative image generated by the simulation step and the decorative target image, and - outputting the printing process parameter data set used in the simulation step to conduct the print process, if the verification criterion is met. - providing the decorative target image to be printed in the printing process by at least one decorative parameter data set, - simulating the printing process in a simulation step based on the decorative parameter data set, at least one printing process parameter data set and stored historical printing data sets such that a digital decorative image is generated, - verifying the generated digital decorative image based on the decorative target image to be printed and at least one verification criterion, - wherein the verifying of the generated digital decorative image comprises comparing the digital decorative image generated by the simulation step and the decorative target image, - wherein the at least one verification criterion is a comparison criterion that specifies at least a predetermined minimum optical similarity measure between the digital decorative image generated by the simulation step and the decorative target image, and - outputting the printing process parameter data set used in the simulation step to conduct the print process, if the verification criterion is met.
Housing, particularly an electronics housing of an electric motor, having a housing wall enclosing at least in sections a receiver interior of the housing, the receiver interior is formed to receive a motor electronics, the housing comprising a dehumidification device having a dehumidification chamber comprising a wall, within said dehumidification chamber hygroscopic material is incorporated formed to bind air humidity from the dehumidification chamber, wherein the wall of the dehumidification chamber comprises at least one inner vapour-permeable membrane operatively connected to a receiver interior of the housing, and an outer membrane operatively connected to an outer environment of the housing, said inner and outer membranes (5, 7) are respectively vapour-permeable in at least one direction, in which an air humidity transport from the receiver interior of the housing through the dehumidification chamber to the outer environment is ensureable, said inner membrane having a lower humidity permeability than the outer membrane.
A device for shaping a workpiece comprising at least a first and a second component (11, 12) between which the workpiece to be shaped can be molded under the effect of heat, a design and material properties of the first and/or the second component (11, 12) is selected such that the component's thermal expansion is different in different directions; wherein - the first and/ or second component (11,12), which has a different thermal expansion in different directions, comprises at least one layer of carbon fiber reinforced plastic (30, 33) an at least one layer of glass fiber reinforced plastic (31,32); - fibers of the at least one layer of carbon fiber reinforced plastic (30,33) and fibers of the at least one layer of glass fiber reinforced plastic (31,32) are not oriented parallel to each other, characterized in that the layer of carbon fiber reinforced plastic and the layer glass fiber reinforced plastic of the first component are arranged in such a way, that the thermal expansion takes place in circumferential direction and does not take place in the undesired axial direction of the first component. - the first and/ or second component (11,12), which has a different thermal expansion in different directions, comprises at least one layer of carbon fiber reinforced plastic (30, 33) an at least one layer of glass fiber reinforced plastic (31,32); - fibers of the at least one layer of carbon fiber reinforced plastic (30,33) and fibers of the at least one layer of glass fiber reinforced plastic (31,32) are not oriented parallel to each other, characterized in that