mhurhangee/ep-ind-claims huggingface dataset:
An adaptation method for adapting a load curve (ACC1, ACC2, LCC, LCCP+) of a crane to a configuration of the crane, the configuration of the crane being associated with a plurality of crane parameters (HM, ML, CM) from which a selection of at least one preferential parameter may be operated, the adaptation method implementing a determination of a preferential load curve from among a plurality of load curves calculated as a function of the selected preferential parameter, wherein the adaptation of the load curve to the configuration of the crane as a function of the preferential parameter is carried out by a monitoring-control system included in a processing unit included in the crane, the processing unit being arranged, on one hand, so as to monitor actuators of the crane and on the other hand, to calculate the plurality of load curves and to store the plurality of load curves in a memory unit included in the processing unit; the adaptation method being characterized in that the plurality of crane parameters (HM, ML, CM) includes a height of a mast, a ballast mass, a mast composition, and in that the preferential parameter refers to a preferred mast height or a preferred mast composition or a preferred ballast mass or a preferred ballast capacity. the adaptation method being characterized in that the plurality of crane parameters (HM, ML, CM) includes a height of a mast, a ballast mass, a mast composition, and in that the preferential parameter refers to a preferred mast height or a preferred mast composition or a preferred ballast mass or a preferred ballast capacity.
Method for operating a direct wiper drive having a motor for a wiper device, comprising: making available a limiting load torque for normal operation; characterized by the following method steps: - determining at least a first characteristic variable for the plausibility of an exceptional case; - determining at least a second characteristic variable for the reliability of an exceptional case; and - deactivating the limiting load torque as a function of the first characteristic variable and the second characteristic variable. making available a limiting load torque for normal operation; characterized by the following method steps: - determining at least a first characteristic variable for the plausibility of an exceptional case; - determining at least a second characteristic variable for the reliability of an exceptional case; and - deactivating the limiting load torque as a function of the first characteristic variable and the second characteristic variable. - determining at least a first characteristic variable for the plausibility of an exceptional case; - determining at least a second characteristic variable for the reliability of an exceptional case; and - deactivating the limiting load torque as a function of the first characteristic variable and the second characteristic variable.
Rotor spinning machine with a multiple number of work stations arranged side by side between two front-side ends of the rotor spinning machine on at least one longitudinal side of the rotor spinning machine, each of which work stations features a multiple number of work elements for the production and winding of a yarn, whereas the work elements comprise at least one feed device, one severing device, one spinning rotor along with one winding device, and with a suction device for producing a negative spinning pressure at the work stations, whereas each work station features an individual drive, in particular a single electric drive, for the spinning rotor characterized in that the suction device includes at least two separate negative pressure sources, whereas at least one negative pressure source is arranged on each of the two front ends of the rotor spinning machine, and whereas each of the negative pressure sources is connected to a separate negative pressure channel that extends in the longitudinal direction of the rotor spinning machine only over a part of the work stations, and that the severing devices and the winding devices, of the work stations are driven by means of an individual electric drive.
An apparatus for induction heating and wireless power transmission, the apparatus comprising: a first group of working coils comprising a first working coil and a second working coil that are electrically connected to each other in parallel; a first inverter configured to perform a first switching operation to generate a first resonant current in at least one of the first working coil or the second working coil; a first semiconductor switch that is connected to the first working coil and that is configured to turn on and turn off the first working coil; a second semiconductor switch that is connected to the second working coil and that is configured to turn on and turn off the second working coil; characterised by an auxiliary power supply configured to supply power to the first semiconductor switch and the second semiconductor switch; and a controller configured to control the first inverter, the first semiconductor switch, and the second semiconductor switch. a first group of working coils comprising a first working coil and a second working coil that are electrically connected to each other in parallel; a first inverter configured to perform a first switching operation to generate a first resonant current in at least one of the first working coil or the second working coil; a first semiconductor switch that is connected to the first working coil and that is configured to turn on and turn off the first working coil; a second semiconductor switch that is connected to the second working coil and that is configured to turn on and turn off the second working coil; characterised by an auxiliary power supply configured to supply power to the first semiconductor switch and the second semiconductor switch; and a controller configured to control the first inverter, the first semiconductor switch, and the second semiconductor switch.
Portable power tool, in particular hammer drill driver, having a transmission arrangement (14; 14b), a hammer percussion mechanism (16a; 16b) and a tool spindle (18a; 18b), wherein the hammer percussion mechanism (16a; 16b) has a linearly moved striker (68a; 68b) with a linear percussive pulse direction, which at least partially encloses the tool spindle (18a; 18b) in at least one plane, wherein the tool spindle (18b; 18b), for transmitting rotational forces, has a rotary driving contour that is intended to establish an axially displaceable and rotationally fixed connection along an axis of rotation (34a; 34b), characterized in that the tool spindle (18a; 18b) is formed in a two-part manner and the rotary driving contour divides the tool spindle (18a; 18b) axially into two parts (142a, 144a).
An electrode assembly comprising: an electrode roll having a first electrode plate, a second electrode plate, and a separator disposed between the first and second plates together, the electrode roll being wound around a winding axis and including an outer surface parallel to the winding axis and two side surfaces perpendicular to the winding axis wherein the outer surface comprises a top surface and a bottom surface, which are flat and face each other, and two curved surfaces between the top and bottom surfaces; a first electrode tab, which is electrically connected to the first electrode plate and is led out in a winding axis direction of the electrode roll; a second electrode tab, which is electrically connected to the second electrode plate and is led out in a winding axis direction of the electrode roll, wherein at least one from between the first electrode tab and the second electrode tab comprises a first tab portion buried in the electrode roll, a second tab portion facing one of the side surfaces, and a third tab portion facing the top surface or the bottom surface, the first tab portion and the third tab portion extend in winding axis direction, and the second tab portion extends in a direction perpendicular to the winding axis, and the first tab portion and the third tab portion do not overlap each other; and wherein the third tab portion of at least one of the first electrode tab and the second electrode tab is bent in a direction opposite to the direction in which the corresponding electrode tab is led out and is disposed to face the outer surface of the electrode roll. an electrode roll having a first electrode plate, a second electrode plate, and a separator disposed between the first and second plates together, the electrode roll being wound around a winding axis and including an outer surface parallel to the winding axis and two side surfaces perpendicular to the winding axis wherein the outer surface comprises a top surface and a bottom surface, which are flat and face each other, and two curved surfaces between the top and bottom surfaces; a first electrode tab, which is electrically connected to the first electrode plate and is led out in a winding axis direction of the electrode roll; a second electrode tab, which is electrically connected to the second electrode plate and is led out in a winding axis direction of the electrode roll, wherein at least one from between the first electrode tab and the second electrode tab comprises a first tab portion buried in the electrode roll, a second tab portion facing one of the side surfaces, and a third tab portion facing the top surface or the bottom surface, the first tab portion and the third tab portion extend in winding axis direction, and the second tab portion extends in a direction perpendicular to the winding axis, and the first tab portion and the third tab portion do not overlap each other; and wherein the third tab portion of at least one of the first electrode tab and the second electrode tab is bent in a direction opposite to the direction in which the corresponding electrode tab is led out and is disposed to face the outer surface of the electrode roll.
A method for regulating a temperature of a battery having a preferred operating temperature range, the method comprising: providing an amount of a phase change material (7;7b) having a phase change temperature within the preferred operating temperature range, the amount of phase change material (7;7b) being in thermal communication with the battery, and a phase change in the amount of phase change material (7;7b) maintaining the temperature of the battery essentially at the phase change temperature; and influencing heat transfer with respect to the amount of phase change material (7;7b) in dependence of a temperature of an ambient medium, the method characterised by the influencing of heat transfer including: providing thermal insulation between the amount of phase change material (7;7b) and the ambient medium responsive to the temperature of the ambient medium being above the phase change temperature; and providing a transfer of heat from the amount of phase change material (7;7b) to the ambient medium responsive to the temperature of the ambient medium being in a selected temperature range below the phase change temperature. providing an amount of a phase change material (7;7b) having a phase change temperature within the preferred operating temperature range, the amount of phase change material (7;7b) being in thermal communication with the battery, and a phase change in the amount of phase change material (7;7b) maintaining the temperature of the battery essentially at the phase change temperature; and influencing heat transfer with respect to the amount of phase change material (7;7b) in dependence of a temperature of an ambient medium, the method characterised by the influencing of heat transfer including: providing thermal insulation between the amount of phase change material (7;7b) and the ambient medium responsive to the temperature of the ambient medium being above the phase change temperature; and providing a transfer of heat from the amount of phase change material (7;7b) to the ambient medium responsive to the temperature of the ambient medium being in a selected temperature range below the phase change temperature. providing thermal insulation between the amount of phase change material (7;7b) and the ambient medium responsive to the temperature of the ambient medium being above the phase change temperature; and providing a transfer of heat from the amount of phase change material (7;7b) to the ambient medium responsive to the temperature of the ambient medium being in a selected temperature range below the phase change temperature.
Electric machine, in particular electric drive machine, having a laminated core formed from a multiplicity of laminations which are stacked one on top of another and are configured as a sheet-metal blank, in particular for a rotor of the electric machine, wherein the laminated core has at least one recess for securing at least one magnet, wherein a plurality of the laminations stacked one on top of another are provided with a respective protrusion which has a retaining portion which is formed by bending and/or angling and reaches into the region of the recess such that the magnet is secured in a force-fitting and/or form-fitting manner in the recess, wherein the retaining portion has a shaping projecting in relation to the main plane of extent of the angled and/or bent retaining portion in the direction of the recess from a circumferential edge region of the retaining portion and having a contact surface which can be placed against the magnet, characterized in that the contact surface of the shaping is at a constant distance (a) along the edge region from a plane defined by the edge region of the retaining portion.
A method for registering with a call manager, comprising: connecting to a first call manager and a second call manager; registering with the first call manager; sending keep-alive signals to the first call manager; sending keep-alive signals to the second call manager while registered with the first call manager; when a failure is detected of the first call manager, registering with the second call manager, connecting to a third call manager and sending keep-alive signals to the third call manager while registered with the second call manager; when a failure is detected of the second call manager, registering with the third call manager; initiating (210, 212, 214) a fall back process to fall back to a call manager of a highest preference that becomes operational after failing; re-registering with either the first call manager or the second call manager when the first call manager or the second call manager regains operability according to whichever of the first or second call managers has the highest preference. connecting to a first call manager and a second call manager; registering with the first call manager; sending keep-alive signals to the first call manager; sending keep-alive signals to the second call manager while registered with the first call manager; when a failure is detected of the first call manager, registering with the second call manager, connecting to a third call manager and sending keep-alive signals to the third call manager while registered with the second call manager; when a failure is detected of the second call manager, registering with the third call manager; initiating (210, 212, 214) a fall back process to fall back to a call manager of a highest preference that becomes operational after failing; re-registering with either the first call manager or the second call manager when the first call manager or the second call manager regains operability according to whichever of the first or second call managers has the highest preference.
A method for use in an IEEE 802.11 station, STA, the method comprising: receiving, from a first access point, AP, a first probe response frame including one or more indicators indicating multiple AP operation capabilities of the first AP and a second AP, wherein the first AP and the second AP are included in a multiple AP service set comprising a plurality of APs that are able to support a multiple AP operation; transmitting, to at least one of the first AP or the second AP, a multiple AP association request frame for the multiple AP operation with the IEEE 802.11 STA, wherein the multiple AP operation includes reception of signals by the IEEE 802.11 STA from the first AP and the second AP; receiving, from the first AP, based on a predetermined order in the multiple AP service set, a first multiple AP association response frame that indicates acceptance or rejection of the multiple AP operation with the first AP; and receiving, from the second AP, based on the predetermined order in the multiple AP service set, a second multiple AP association response frame that indicates acceptance or rejection of the multiple AP operation with the second AP. receiving, from a first access point, AP, a first probe response frame including one or more indicators indicating multiple AP operation capabilities of the first AP and a second AP, wherein the first AP and the second AP are included in a multiple AP service set comprising a plurality of APs that are able to support a multiple AP operation; transmitting, to at least one of the first AP or the second AP, a multiple AP association request frame for the multiple AP operation with the IEEE 802.11 STA, wherein the multiple AP operation includes reception of signals by the IEEE 802.11 STA from the first AP and the second AP; receiving, from the first AP, based on a predetermined order in the multiple AP service set, a first multiple AP association response frame that indicates acceptance or rejection of the multiple AP operation with the first AP; and receiving, from the second AP, based on the predetermined order in the multiple AP service set, a second multiple AP association response frame that indicates acceptance or rejection of the multiple AP operation with the second AP.
A window leaf or door leaf having a glass element which comprises at least two glass panes held together by a spacer (17a, 17b) while forming an intermediate space (18a, 18b) between the panes; and having a fitting for actuating a window closure or door closure, wherein the fitting is fastened to at least one of the glass panes and/or to the spacer of the glass element or forms a part of the spacer of the glass element, characterized in that at least one coupling element (29, 31) is provided at at least one outer side of the glass element and can be brought into engagement with a counter coupling element of a leaf frame element in order to attach the leaf frame element to the window leaf or door leaf.
A cover configured to cover a drain bag, comprising: a layer of material defining a front panel, rear panel, a left edge, and a bottom edge, wherein the layer of material further defines an upper opening, and a right edge opening; a closure device (512, 513) disposed at the upper opening and being configured to retain the front panel and rear panel together to close the upper opening; and at least one complementary closure device (552, 553) disposed along the right edge opening and being configured to retain the front panel and rear panel together to close the right edge opening, the cover being characterized by: the layer of material being configured to further define a corner opening configured to run from the left edge to the upper opening, the corner opening being non-orthogonal with both the left edge and the upper opening, the corner opening being configured for accommodating a connector of a urinary catheter drain bag when the closure device (512,513) and the at least one complementary closure device (552,553) are coupled together to enclose the urinary catheter drain bag within the cover. a layer of material defining a front panel, rear panel, a left edge, and a bottom edge, wherein the layer of material further defines an upper opening, and a right edge opening; a closure device (512, 513) disposed at the upper opening and being configured to retain the front panel and rear panel together to close the upper opening; and at least one complementary closure device (552, 553) disposed along the right edge opening and being configured to retain the front panel and rear panel together to close the right edge opening, the cover being characterized by: the layer of material being configured to further define a corner opening configured to run from the left edge to the upper opening, the corner opening being non-orthogonal with both the left edge and the upper opening, the corner opening being configured for accommodating a connector of a urinary catheter drain bag when the closure device (512,513) and the at least one complementary closure device (552,553) are coupled together to enclose the urinary catheter drain bag within the cover.
An apparatus for distributing power, comprising: a power configuration device, the power configuration device configured to couple with at least one input power feed and including a host box configuration configured for a particular power characteristic; an outlet power strip, wherein the outlet power strip includes a set of outlet power groups configured to supply a particular output power characteristic; and a cable including a connector device configured to removably couple the power configuration device with the outlet power strip, the cable including twelve live conductors and two ground conductors, wherein the connector device of the cable is configured to connect with a corresponding connector device associated with the outlet power strip. a power configuration device, the power configuration device configured to couple with at least one input power feed and including a host box configuration configured for a particular power characteristic; an outlet power strip, wherein the outlet power strip includes a set of outlet power groups configured to supply a particular output power characteristic; and a cable including a connector device configured to removably couple the power configuration device with the outlet power strip, the cable including twelve live conductors and two ground conductors, wherein the connector device of the cable is configured to connect with a corresponding connector device associated with the outlet power strip.