mhurhangee/ep-ind-claims huggingface dataset:
A bed comprising: a foundation having a foundation connector positioned at a bottom of the foundation; and a frame having a frame connector positioned at a top of the frame and positioned in a location configured to mate with the foundation connector positioned at the bottom of the foundation when the foundation is positioned on top of the frame, wherein the frame comprises first and second longitudinal support structures (506, 508) extending along a portion of the longitudinal length of the frame at first and second sides of the frame, first and second cross-members (510, 512, 514) extending laterally from the first longitudinal support structure to the second longitudinal support structure, and a plurality of fastening mechanisms connecting each end of the first and second cross-members (510, 512, 514) to the first and second longitudinal support structures (506, 508), wherein the fastening mechanism has a bracket, a flange, and a lock, wherein the bracket includes a ridge for connecting the foundation to the frame, and wherein the foundation connector defines a valley that extends along a longitudinal length of the foundation connector and defines at least one slot along the valley, characterised in that both the valley and the slot are configured to receive the ridge of the bracket of the frame connector. a foundation having a foundation connector positioned at a bottom of the foundation; and a frame having a frame connector positioned at a top of the frame and positioned in a location configured to mate with the foundation connector positioned at the bottom of the foundation when the foundation is positioned on top of the frame, wherein the frame comprises first and second longitudinal support structures (506, 508) extending along a portion of the longitudinal length of the frame at first and second sides of the frame, first and second cross-members (510, 512, 514) extending laterally from the first longitudinal support structure to the second longitudinal support structure, and a plurality of fastening mechanisms connecting each end of the first and second cross-members (510, 512, 514) to the first and second longitudinal support structures (506, 508), wherein the fastening mechanism has a bracket, a flange, and a lock, wherein the bracket includes a ridge for connecting the foundation to the frame, and wherein the foundation connector defines a valley that extends along a longitudinal length of the foundation connector and defines at least one slot along the valley, characterised in that both the valley and the slot are configured to receive the ridge of the bracket of the frame connector.
An apparatus for monitoring a vehicle camera system, the camera system comprising at least one camera to capture images of a field of view at a side of the vehicle and a display unit for visualizing the captured images to a driver of the vehicle, the vehicle comprising a light source in the field of view controlled by a light control system to generate a periodic varying light, the apparatus comprising: a control unit adapted to control the display unit to display a graphical indicator, said displayed graphical indicator changes sequentially in a default way to allow the driver to visually detect a malfunctioning of the vehicle camera system based on a deviation from the default way of the sequentially changing graphical indicator, characterized in that said control unit is adapted to vary, as the default way, the graphical indicator sequentially based on the variation of the light source controlled by said light control system. a control unit adapted to control the display unit to display a graphical indicator, said displayed graphical indicator changes sequentially in a default way to allow the driver to visually detect a malfunctioning of the vehicle camera system based on a deviation from the default way of the sequentially changing graphical indicator, characterized in that said control unit is adapted to vary, as the default way, the graphical indicator sequentially based on the variation of the light source controlled by said light control system.
A printing machine comprising a frame and a transfer device for transferring an article (9, the transfer device being carried by the frame and a retention and drive assembly comprising a socket able to receive the bottom of the article, the transfer device comprising: · a support structure; · a manipulator arm carried by the support structure and hinged relative to the support structure, about a pivot axis (A-A'); · a clamp for gripping the article carried by the manipulator arm and hinged relative to the manipulator arm about a tilt axis (B-B') that is angularly offset relative to the pivot axis (A-A'); and · drive means adapted to drive both the manipulator arm and the gripper clamp in rotation during an intermediate rotation stage; characterized in that the drive means comprise synchronization means (56, 74, 84) suitable for inhibiting tilting of the gripper clamp relative to the manipulator arm about the tilt axis (B-B'), temporarily as a function of the position of the manipulator arm during at least one terminal rotation stage (70, 71) before and/or after the intermediate rotation stage, and in that the support structure is mounted to move relative to the frame, and the drive means are also adapted to move the support structure relative to the frame in a direction parallel to the pivot axis (A-A') during a stage of movement in translation, so as to introduce the bottom of the article in the socket. · a support structure; · a manipulator arm carried by the support structure and hinged relative to the support structure, about a pivot axis (A-A'); · a clamp for gripping the article carried by the manipulator arm and hinged relative to the manipulator arm about a tilt axis (B-B') that is angularly offset relative to the pivot axis (A-A'); and · drive means adapted to drive both the manipulator arm and the gripper clamp in rotation during an intermediate rotation stage;
A carbon material for a non-aqueous secondary battery, comprising a graphite capable of occluding and releasing lithium ions, the carbon material having a cumulative pore volume at pore diameters in a range of 0.01 μm to 1 μm of 0.08 mL/g or more, a roundness, as determined by flow-type particle image analysis, of 0.88 or greater, and a pore diameter to particle diameter ratio (PD/d50 (%)) of 1.8 or less, the ratio being given by equation: PD / d 50 % = mode pore diameter PD in a pore diameter range of 0.01 μ m to 1 μ m in a pore distribution determined by mercury intrusion / volume-based average particle diameter d 50 × 100 wherein the carbon material is a spheroidized graphite made of flake graphite, crystalline graphite, and vein graphite and has a half width at half maximum of pore distribution (log (nm)) of 0.45 or greater, the half width at half maximum of pore distribution (log (nm)) referring to a half width at half maximum at a micropore side of a peak in a pore diameter range of 0.01 μm to 1 μm in a pore distribution (nm), as determined by mercury intrusion (mercury porosimetry), of the carbon material for a non-aqueous secondary battery, with a horizontal axis expressed in common logarithm (log (nm)).
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, configuration information on identifiers on control resource sets, CORESETs; receiving, from the base station, first downlink control information, DCI, for scheduling of a first physical downlink shared channel, PDSCH, wherein the first DCI is associated with a first identifier of a CORESET, and the CORESET of the first identifier is for a first transmission and reception point, TRP; receiving, from the base station, second DCI for scheduling of a second PDSCH, wherein the second DCI is associated with a second identifier of the CORESET, and the CORESET of the second identifier is for a second TRP; identifying whether a first bandwidth part, BWP indicator included in the first DCI and a second BWP indicator included in the second DCI indicate the same value or not; and receiving, from the base station, the first PDSCH and the second PDSCH, in case that the first BWP indicator and the second BWP indicator indicate the same value. receiving, from a base station, configuration information on identifiers on control resource sets, CORESETs; receiving, from the base station, first downlink control information, DCI, for scheduling of a first physical downlink shared channel, PDSCH, wherein the first DCI is associated with a first identifier of a CORESET, and the CORESET of the first identifier is for a first transmission and reception point, TRP; receiving, from the base station, second DCI for scheduling of a second PDSCH, wherein the second DCI is associated with a second identifier of the CORESET, and the CORESET of the second identifier is for a second TRP; identifying whether a first bandwidth part, BWP indicator included in the first DCI and a second BWP indicator included in the second DCI indicate the same value or not; and receiving, from the base station, the first PDSCH and the second PDSCH, in case that the first BWP indicator and the second BWP indicator indicate the same value.
A corner guide of a drive rod fitting of a window, a French window or the like provided for fixing in a guide grove of a casement having undercuts (13, 14), said corner guide having a flexible deflection element, having an angle guide for the deflection element, having a retaining shoulder (15, 16) arranged on a longitudinal side of the angle guide and designed for engagement in the undercut (13, 14), wherein the angle guide is narrower than the guide groove, and wherein the angle guide is supported by a filler piece and the filler piece and angle guide jointly have the width of the guide groove in front of the undercut (13, 14), characterized in that the filler piece has a bracket and that the bracket clasps a section of the angle guide projecting above the guide groove.
Method for reducing growth inhibition of metal oxide, metal nitride and/or metal carbide layer selected from the group consisting of titanium oxide, tantalum oxide, aluminium oxide, zirconium oxide, lanthanum oxide, hafnium oxide, hafnium scandium oxide, hafnium silicon oxide, tantalum nitride, titanium nitride, tungsten nitride, niobium nitride, molybdenum nitride, hafnium nitride, tantalum carbide, titanium carbide, tungsten carbide, niobium carbide, molybdenum carbide, hafnium carbide and any combination of two, three, four or more thereof, said method comprising the steps of depositing said metal oxide, metal nitride and/or metal carbide layer upon a Si x N y layer having a thickness comprised between 0,25 nm and 4nm, wherein x and y are real numbers, wherein x is comprised between 3 and 10, wherein y is comprised between 0,1 and 4, wherein x and y may be equal or different.
An antenna assembly (702, 902, 1002), comprising: a tool mandrel having a tool axis; a coil including a plurality of windings wrapped about the circumference of the tool mandrel at a winding angle offset from the tool axis; and a soft magnetic band radially interposing the coil and the tool mandrel and extending about a circumference of the tool mandrel at a band angle orthogonal to the winding angle, wherein the soft magnetic band includes a plurality of inserts, and wherein a gap is defined between each laterally adjacent insert and the gap extends parallel to the tool axis. a tool mandrel having a tool axis; a coil including a plurality of windings wrapped about the circumference of the tool mandrel at a winding angle offset from the tool axis; and a soft magnetic band radially interposing the coil and the tool mandrel and extending about a circumference of the tool mandrel at a band angle orthogonal to the winding angle, wherein the soft magnetic band includes a plurality of inserts, and wherein a gap is defined between each laterally adjacent insert and the gap extends parallel to the tool axis.
Method of forming an in-situ piling in a clay soil structure, containing bound water and perhaps also some available water, said piling ultimately to be comprised of the mixed composition of the native clay soil which existed in the volume to be occupied by the completed piling, dry binder supplied by this method, and such water as remains in the piling after hydration of the dry binder, by available and added water, said method comprising: using a rotary tool adapted to auger into the clay soil and stir it, forcing it while rotating into the soil structure to form a circularly sectioned columnar region of loosened and stirred said native clay soil; while performing the step of using the rotary tool, injecting into said region water to lubricate the clay soil relative to the tool to facilitate the tool's movement into said native clay soil; while performing the steps of using the rotary tool and injecting water into said region, also injecting air into said region to loosen the soil; and while continuing to rotate the tool, withdrawing it from said region, wherein during either of the steps of using the rotary tool or withdrawing it from said region, or both, injecting dry binder of the type which reacts with water, into said region and stirring the mixture in the region thoroughly to mix said clay soil, Water, air and binder; said binder being added in amounts intended to be sufficient to form a piling structure of anticipated strength, said water being added to already existing available water to provide water in at least stoichiometric quantity to hydrate all of said binder, said method being characterized in that it further comprises: while performing the steps of using the rotary tool and injecting water into said region, also injecting said air into said region to fluidize the soil; and said air being supplied at rates, pressures, and volumes sufficient to convey said binder into said soil and to provide fluidity, along with said water, of said mixture so as to facilitate forming a uniform said mixed composition, so that said mixture before setting is sufficiently fluid as to permit most of the air in said mixture to percolate through and exit vertically from said mixture; wherein the binder, water and air are supplied such that the top surface of the mixture is at ground level or rises above ground level. while performing the steps of using the rotary tool and injecting water into said region, also injecting said air into said region to fluidize the soil; and said air being supplied at rates, pressures, and volumes sufficient to convey said binder into said soil and to provide fluidity, along with said water, of said mixture so as to facilitate forming a uniform said mixed composition, so that said mixture before setting is sufficiently fluid as to permit most of the air in said mixture to percolate through and exit vertically from said mixture; wherein the binder, water and air are supplied such that the top surface of the mixture is at ground level or rises above ground level.
A process for preparing a composite material comprising at least one hydrophobic aerogel granulate and at least one polymeric aerogel binder, characterized in that said polymeric aerogel binder, which is in the form of an aqueous solution, is at first covered by a layer of said hydrophobic aerogel granulate, and after the initial gelling of the aqueous solution, the granulate is stirred into said aqueous solution.
A method for the surface decoration of articles, comprising the steps of: A) applying a base layer to the surface of a main body; B) applying on said base layer a metallization layer; said step B) comprising a deposition of metal particles on said base layer; C) after step B), applying a transparent coating layer on the base layer and metallization layer, characterized in that said base layer comprises at least one photoluminescent additive that confers photoluminescence properties to the base layer; wherein said metallization layer is applied after step A), and wherein said metallization layer is configured to make at least partially visible the photoluminescence of said base layer by at least one among: i) prior to step C) a material removal action is performed, wherein a portion of said metal particles is removed in accordance with a predetermined graphical pattern; ii) the deposition of the metallic particles realizes the metallization layer according to a thickness that is at least partially permeable to the photoluminescence of the base layer. A) applying a base layer to the surface of a main body; B) applying on said base layer a metallization layer; said step B) comprising a deposition of metal particles on said base layer; C) after step B), applying a transparent coating layer on the base layer and metallization layer, wherein said metallization layer is applied after step A), and wherein said metallization layer is configured to make at least partially visible the photoluminescence of said base layer by at least one among: i) prior to step C) a material removal action is performed, wherein a portion of said metal particles is removed in accordance with a predetermined graphical pattern; ii) the deposition of the metallic particles realizes the metallization layer according to a thickness that is at least partially permeable to the photoluminescence of the base layer. i) prior to step C) a material removal action is performed, wherein a portion of said metal particles is removed in accordance with a predetermined graphical pattern; ii) the deposition of the metallic particles realizes the metallization layer according to a thickness that is at least partially permeable to the photoluminescence of the base layer.
Magnetically coupled pump arrangement, having an interior space which is formed by a pump housing of the magnetically coupled pump arrangement, a split can which hermetically seals a chamber, which is enclosed by it, with respect to the interior space which is formed by the pump housing, an impeller shaft which can be driven rotatably about a rotational axis, an impeller which is arranged at one end of the impeller shaft, an internal rotor which is arranged at the other end of the impeller shaft, a drive motor, a drive shaft which can be driven rotatably about the rotational axis by the drive motor, and an external rotor which interacts with the internal rotor and is arranged on the drive shaft, the external rotor having a hub and a first carrier element, the external rotor having a hollow-cylindrical section between the hub and the first carrier element, and the axial fixing of the external rotor on the drive shaft taking place by way of a fastening element, characterized in that the fastening element has a first external thread at one end and a second external thread at the end which lies opposite the first external thread, a spacer section being situated between the first external thread and the second external thread, the external diameter of which spacer section is greater than the external diameters of the first external thread and the second external thread.
Method for activating a motorized closure element assembly of a motor vehicle, wherein the closure element assembly comprises a closure element, a control assembly, and a sensor assembly, wherein the measured sensor values of the sensor assembly are monitored by means of the control assembly to determine whether a triggering operating situation, which is defined by at least one operating-situation condition, is present, and wherein an activation of the closure element assembly is triggered by means of the control assembly upon detection of the triggering operating situation, characterized in that an operating-situation condition of the triggering operating situation is defined by the orientation of at least one body part of the operator about the vertical axis lying within a predetermined permitted orientation range, in that whether the orientation of the at least one body part of the operator about the vertical axis lies within the permitted orientation range is detected by means of the sensor assembly and, depending thereon, the activation of the closure element assembly is triggered, in that an operating-situation condition of the triggering operating situation is defined by the front side of at least one body part of the operator facing the closure element by way of the front side of the body part in question of the operator deviating from its orientation with respect to a predetermined reference point on the closure element only within the permitted orientation range, and in that the orientation range is defined by the orientation range permitting a permitted angular deviation from the exact orientation of the body part with respect to the reference point in both pivot directions about the vertical axis.
A method for manufacturing a spring contact pin assembly having at least one spring contact pin, for establishing physical electrical contact, the method comprising the following steps: - manufacturing at least one base piece of the spring contact pin, wherein at least a part of the base piece is made of plastic, and - subsequently metallising at least the part of the base piece that is made of plastic, characterised in that - manufacturing the at least one part of the base piece that is made of plastic is carried out by means of an additive production process, and in that - the at least one spring contact pin is additively built on an electrical contact surface of a connection piece configured as a circuit carrier, in particular as a circuit board. - manufacturing at least one base piece of the spring contact pin, wherein at least a part of the base piece is made of plastic, and - subsequently metallising at least the part of the base piece that is made of plastic, characterised in that - manufacturing the at least one part of the base piece that is made of plastic is carried out by means of an additive production process, and in that - the at least one spring contact pin is additively built on an electrical contact surface of a connection piece configured as a circuit carrier, in particular as a circuit board.
A method for controlling rotational speed avoidance for a wind turbine, comprising: identifying whether a rotational speed avoidance range is repeatedly passed through for the wind turbine based on statistical information about a rotational speed of a generator being in the rotational speed avoidance range; and adjusting a rotational speed avoidance control parameter of the wind turbine based on the statistical information about the rotational speed being in the rotational speed avoidance range, in response to determining that the rotational speed avoidance range is repeatedly passed through for the wind turbine, wherein the statistical information about the rotational speed of the generator being in the rotational speed avoidance range comprises: a statistical duration in which the rotational speed of the generator is in the rotational speed avoidance range. identifying whether a rotational speed avoidance range is repeatedly passed through for the wind turbine based on statistical information about a rotational speed of a generator being in the rotational speed avoidance range; and adjusting a rotational speed avoidance control parameter of the wind turbine based on the statistical information about the rotational speed being in the rotational speed avoidance range, in response to determining that the rotational speed avoidance range is repeatedly passed through for the wind turbine, wherein the statistical information about the rotational speed of the generator being in the rotational speed avoidance range comprises: a statistical duration in which the rotational speed of the generator is in the rotational speed avoidance range.