mhurhangee/ep-ind-claims huggingface dataset:
A method of removing a platform support post of a platform from a surrounding ground surface, said method comprising: a. circulating a heating fluid through a hollow fluid transfer member contained on or within the support post; and b. applying force to said support post to remove said support post from the surrounding ground. a. circulating a heating fluid through a hollow fluid transfer member contained on or within the support post; and b. applying force to said support post to remove said support post from the surrounding ground.
Transparent, flat antenna for transmitting and receiving electromagnetic waves, comprising - at least one transparent, electrically insulating substrate that has in its surface (1.1) an electrically insulating, circumferential edge region (1.1a), - a transparent, electrically conductive coating that - covers large areas of the surface (1.1) of the substrate up to the edge region (1.1a) and - is formed by at least two flat segments (2.11) that - contain or are made of at least one electrically conductive material (2.2) and - are insulated from each other by at least one linear, electrically insulating region (2.3) and - at least one connection for galvanic, capacitive, or inductive decoupling of the antenna signal from at least one flat segment (2.11), characterized in that one of the flat segments (2.11) is partially or completely surrounded by the other flat segment (2.12), the flat segment (2.12) is strip-shaped, the strip-shaped, flat segment (2.12) is divided by at least two other regions (2.3) into at least three strip-shaped, flat segments (2.12) (2.13) (2.14), the strip-shaped, flat segments (2.12) (2.13) (2.14) are divided by a plurality of linear electrically insulating regions (2.3) that run transversely through the segments (2.12) (2.13) (2.14), whereby, within the segments (2.12) (2.13) (2.14), a plurality of electrically regions result, which are separated from each other by the electrically insulating regions (2.3), and the edge lengths of the plurality of electrically conductive regions are smaller by the factor of 10 to 10,000 than the wavelengths of the radiation to be received or transmitted. - at least one transparent, electrically insulating substrate that has in its surface (1.1) an electrically insulating, circumferential edge region (1.1a), - a transparent, electrically conductive coating that - covers large areas of the surface (1.1) of the substrate up to the edge region (1.1a) and - is formed by at least two flat segments (2.11) that - contain or are made of at least one electrically conductive material (2.2) and - are insulated from each other by at least one linear, electrically insulating region (2.3) and - covers large areas of the surface (1.1) of the substrate up to the edge region (1.1a) and - is formed by at least two flat segments (2.11) that - contain or are made of at least one electrically conductive material (2.2) and - are insulated from each other by at least one linear, electrically insulating region (2.3) and - at least one connection for galvanic, capacitive, or inductive decoupling of the antenna signal from at least one flat segment (2.11),
A medical device comprising: - a fluid system for a first medical fluid, in particular blood; - a device body; and - at least one hydrophobic filter device with a filter surface through which at least a second gaseous fluid, in particular air, may be supplied to the fluid system, wherein the filter device comprises at least one filter membrane; wherein the filter membrane has a rear side and a front side; wherein the filter membrane is welded with its rear side to a section of the device body along a weld section; wherein the filter device comprises a front support structure at the front side of the filter membrane; characterized in that the front support structure is arranged to be in contact with the weld section through a first contact section of the front support structure, and in that the first contact section of the front support structure overhangs the weld portion of the device body in at least one direction or on one side of the weld portion or protrudes over it towards an inner or central section of the filter membrane or of the front support structure, and/or towards an area of the filter membrane which is pressurized or most pressurized in use. - a fluid system for a first medical fluid, in particular blood; - a device body; and - at least one hydrophobic filter device with a filter surface through which at least a second gaseous fluid, in particular air, may be supplied to the fluid system, wherein the filter device comprises at least one filter membrane; wherein the filter membrane has a rear side and a front side; wherein the filter membrane is welded with its rear side to a section of the device body along a weld section; wherein the filter device comprises a front support structure at the front side of the filter membrane; characterized in that the front support structure is arranged to be in contact with the weld section through a first contact section of the front support structure, and in that the first contact section of the front support structure overhangs the weld portion of the device body in at least one direction or on one side of the weld portion or protrudes over it towards an inner or central section of the filter membrane or of the front support structure, and/or towards an area of the filter membrane which is pressurized or most pressurized in use.
An automotive electric auxiliary unit with an electric motor, comprising - a rotatable motor rotor rotating about a rotor axis, - a multi-piece motor stator comprising several stator coils (23, 25, 27, 29, 31, 33), several stator teeth (22, 24, 26, 28, 30, 32) and a separate ring-shaped magnetic back iron ring, wherein the separate ring-shaped magnetic back iron ring radially surrounds the stator teeth (22, 24, 26, 28, 30, 32) and is attached to the stator teeth (22, 24, 26, 28, 30, 32), and - a motor housing, characterised in that - the motor housing is a plastic motor housing, wherein the separate ring-shaped magnetic back iron ring is overmolded by the plastic motor housing, wherein the stator is manufactured in such a way that first the coils (23, 25, 27, 29, 31, 33) are wound onto the stator teeth (22, 24, 26, 28, 30, 32) and the magnetic back iron ring is overmoulded with the plastic material of the plastic motor housing and then the stator teeth (22, 24, 26, 28, 30, 32) with the wound coils (23, 25, 27, 29, 31, 33) are inserted into magnetic back iron ring and attached to the magnetic back iron ring. - a rotatable motor rotor rotating about a rotor axis, - a multi-piece motor stator comprising several stator coils (23, 25, 27, 29, 31, 33), several stator teeth (22, 24, 26, 28, 30, 32) and a separate ring-shaped magnetic back iron ring, wherein the separate ring-shaped magnetic back iron ring radially surrounds the stator teeth (22, 24, 26, 28, 30, 32) and is attached to the stator teeth (22, 24, 26, 28, 30, 32), and - a motor housing, characterised in that - the motor housing is a plastic motor housing, wherein
A medium and long distance guide wheel tire tread, having a tread pattern, the tread comprising a first pattern block, a second pattern block and a third pattern block, which are extending along the circumferential direction wherein the first pattern block extends continuously along the circumferential direction and first pattern grooves between the first pattern block and the second pattern block, and between the second pattern block and the third pattern block, first cutter grooves are formed along the whole breadth of the second pattern block and the third pattern block, a second cutter groove is formed in the third pattern block, and a fourth cutter groove and a fifth cutter groove are formed in the first pattern block; and a steel sheet is embedded in the first cutter groove, the steel sheet comprises an ordinary steel sheet portion, a three-dimensional steel sheet portion and a steel sheet connection portion for connecting the ordinary steel sheet portion with the three-dimensional steel sheet portion, and projections and grooves arranged alternately are arranged on the three-dimensional steel sheet portion, wherein the depth of the first cutter groove is greater than or equal to 1/2 of the depth of the first pattern groove.
An optical device for shaping laser radiation propagating along a propagation axis (z), comprising at least one beam-shaping optical module, characterized in that the beam-shaping optical module is constructed for generating a focus geometry in a processing plane with a main laser spot and at least one ancillary laser spot (NS1, NS2), wherein the beam-shaping optical module is used downstream of a collimation lens of a processing optical element, in that the main laser spot has a square or rectangular shape and the at least one ancillary laser spot (NS1, NS2) is configured in a circular, square or rectangular manner, in that the beam-shaping optical module comprises at least a first cylindrical lens array and a second cylindrical lens array and a wedge-plate arrangement, wherein the first and second cylindrical lens array (5, 6) and the wedge-plate arrangement are mechanically connected to one another to form the module and the module is mounted in the optical device in a displaceable manner along a transverse and vertical axis (x, y) running perpendicular to the propagation axis (z), in that the first and second cylindrical lens arrays (5, 6) in each case have a multiplicity of longitudinal cylindrical lenses arranged in a plane parallel to one another, in that the first and second cylindrical lens arrays (5, 6) are arranged one after the other along the propagation axis (z), spaced and crosswise with respect to one another, wherein the cylindrical lens arrays (5, 6), which are crosswise with respect to one another, are constructed for generating the main laser radiation, in that the wedge-plate arrangement is accommodated between the first and second cylindrical lens arrays (5, 6) and constructed for generating the at least one ancillary laser radiation (NLS1, NLS2), wherein a focussing optical element is arranged behind the beam-shaping optical module in the direction of the propagation axis (z), which is constructed for imaging the main laser radiation into the main laser spot and the at least one ancillary laser radiation (NLS1, NLS2) into the at least one ancillary laser spot (NS1, NS2) in the processing plane.
A component as heat sink, consisting of a composite material having a diamond content of from 40 to 90% by volume and a mean size of the diamond grains of from 5 to 300 μm, characterized in that the composite material comprises from 0.005 to 12% by volume of a silicon-carbon compound, from 7 to 49% by volume of an Ag-, Au- or Al-rich phase and less than 5% by volume of a further phase, wherein the Ag-, Au- or Al-rich phase comprises at least 95 atom% of the respective element, wherein the volume ratio of the Ag-, Au- or Al-rich phase to the silicon-carbon compound is greater than 4 and wherein at least 60% of the surface of the diamond grains is covered by the silicon-carbon compound.
A printing system (100, 120, 200) comprising: printing components; a dryer having components; a dryer engine configured to determine whether the components of the dryer are functioning properly, an input voltage engine configured to determine whether an input voltage level is outside of a predetermined voltage level range in response to a determination that the components of the dryer are functioning properly; and a printing components engine configured to control the printing components to operate in one of a normal mode and a reduced throughput mode based upon whether the input voltage level is outside of the predetermined voltage level range; wherein, in response to a determination that the input voltage level is within the predetermined voltage level range, the dryer engine is to: attempt to activate the dryer; determine whether the dryer is functioning as expected; and wherein, in response to a determination that the dryer is not functioning as expected, the printing components engine is to control the printing components to operate in the reduced throughput mode. printing components; a dryer having components; a dryer engine configured to determine whether the components of the dryer are functioning properly, an input voltage engine configured to determine whether an input voltage level is outside of a predetermined voltage level range in response to a determination that the components of the dryer are functioning properly; and a printing components engine configured to control the printing components to operate in one of a normal mode and a reduced throughput mode based upon whether the input voltage level is outside of the predetermined voltage level range; wherein, in response to a determination that the input voltage level is within the predetermined voltage level range, the dryer engine is to: attempt to activate the dryer; determine whether the dryer is functioning as expected; and attempt to activate the dryer; determine whether the dryer is functioning as expected; and wherein, in response to a determination that the dryer is not functioning as expected, the printing components engine is to control the printing components to operate in the reduced throughput mode.
A work station for a packaging line which comprises an apparatus prepared for executing a certain simultaneous action on packages of an alignment of packages by means of the use of a tool with the capacity to be arranged above the level of the packages; and a transfer mechanism for the simultaneous transport of an alignment of packages to be processed from a delivery area to the apparatus and of an alignment of processed packages from the apparatus to an output area, the station being characterized in that said transfer mechanism is prepared for simultaneously moving the alignments of packages to be processed and processed packages (10b, 10c), said alignments being arranged parallel to each other and the transport direction being perpendicular to that of said alignments, the transfer mechanism, to this end, comprising a first and a second transport group (31a, 31b) arranged transversal to the forward direction of the alignments of packages capable of simultaneously providing the insertion and the removal to and from the apparatus, respectively, of the alignments of packages to be processed and processed packages when they are actuated in coordination, of which at least one of the first or second transport group (31a or 31b) hangs by two opposing ends each one from a corresponding movable part of the transfer mechanism which are movable on respective parallel planes of movement and which do not interfere with the vertical projection of the tool of the apparatus by means of which the cited transfer mechanism is capable of impressing on the cited first or second transport group (31a or 31b) a movement with a path which passes below the cited tool of the apparatus without interfering with the same.
Apparatus for mixing two or more components (A, B), in particular of a plastics mixture, comprising a mixing chamber, which is received in a frame-fixed manner in a housing and has at least two feed channels (8a, 8b) via which the components to be mixed are able to be fed into the mixing chamber, a mixing element, which is arranged in the mixing chamber and is rotatable by way of a first motor via a drive shaft, and a stroke device, by means of which the mixing element within the mixing chamber is movable in an axial direction relative to the mixing chamber from a release position into a closed position for the purpose of closing off an outlet opening arranged in the movement path of the mixing element, characterized in that the drive shaft has a first, motor-side shaft portion and a second, mixing-head-side shaft portion, which are coupled to one another in a rotationally conjoint manner via a compensation element, said compensation element comprising resiliently elastic means which push the first, motor-side shaft portion away from the second, mixing-head-side shaft portion.
A method for treating substrates, comprising: flowing an aqueous liquid medium through a flow channel and at least one outlet slit onto a substrate to be treated; exposing the aqueous liquid medium to UV-radiation of a specific wavelength at least in a portion of the flow channel immediately adjacent the at least one outlet slit and after the aqueous liquid medium has flown through the outlet slit towards the substrate and thus prior to and while applying the aqueous liquid medium to the surface of the substrate to be treated, the UV radiation generating reactive species in the aqueous liquid medium; and adjusting the electrical conductance of the aqueous liquid medium to be in the range of 20 to 2000 μS, by the addition of an additive to the aqueous liquid medium, prior to or while exposing the same to the UV-radiation, wherein prior to the addition of the additive the aqueous liquid medium has an electrical conductance below 20 μS. flowing an aqueous liquid medium through a flow channel and at least one outlet slit onto a substrate to be treated; exposing the aqueous liquid medium to UV-radiation of a specific wavelength at least in a portion of the flow channel immediately adjacent the at least one outlet slit and after the aqueous liquid medium has flown through the outlet slit towards the substrate and thus prior to and while applying the aqueous liquid medium to the surface of the substrate to be treated, the UV radiation generating reactive species in the aqueous liquid medium; and adjusting the electrical conductance of the aqueous liquid medium to be in the range of 20 to 2000 μS, by the addition of an additive to the aqueous liquid medium, prior to or while exposing the same to the UV-radiation, wherein prior to the addition of the additive the aqueous liquid medium has an electrical conductance below 20 μS.
A sliding bearing comprising at least one bearing shell, the bearing shell comprising: a metallic substrate; a first electrically insulating layer on the metallic substrate; and a second electrically insulating layer on the first insulating layer; and a plurality of electrically isolated conductive pads (308A, 308B) positioned between the first electrically insulating layer and the second electrically insulating layer, the plurality of electrically isolated conductive pads (308A, 308B) being axially spaced across the bearing shell, wherein the plurality of electrically isolated conductive pads (308A, 308B) comprises at least two pads (308A, 308B) of different thickness that are configured to become exposed after different levels of wear of the second electrically insulating layer proximate to each pad (308A, 308B). a metallic substrate; a first electrically insulating layer on the metallic substrate; and a second electrically insulating layer on the first insulating layer; and a plurality of electrically isolated conductive pads (308A, 308B) positioned between the first electrically insulating layer and the second electrically insulating layer, the plurality of electrically isolated conductive pads (308A, 308B) being axially spaced across the bearing shell, wherein the plurality of electrically isolated conductive pads (308A, 308B) comprises at least two pads (308A, 308B) of different thickness that are configured to become exposed after different levels of wear of the second electrically insulating layer proximate to each pad (308A, 308B).
A battery module, comprising: a battery unit comprising a top surface, a bottom surface, and a side surface connecting the top surface and the bottom surface; a housing for accommodating the battery unit, wherein the housing comprises a limit frame and an injection channel arranged on the limit frame, the limit frame is arranged around the side surface of the battery unit; an accommodation cavity is formed by a bottom of the battery module and a cooling component, and the injection channel is configured to be communicated with the accommodation cavity; and thermally conductive slurry which is injected into the accommodation cavity from the injection channel, wherein the limit frame comprises an end plate assembly provided at an end of the battery unit, the injection channel is provided in the end plate assembly, the end plate assembly comprises an end plate, an insulation plate, and a connection pipe, at least part of the insulation plate is provided between the end plate and the battery unit, the injection channel penetrates both the end plate and the insulation plate, two ends of the connection pipe are respectively connected to the end plate and the insulation plate, and the injection channel penetrates the end plate, the connection pipe and the insulation plate. a battery unit comprising a top surface, a bottom surface, and a side surface connecting the top surface and the bottom surface; a housing for accommodating the battery unit, wherein the housing comprises a limit frame and an injection channel arranged on the limit frame, the limit frame is arranged around the side surface of the battery unit; an accommodation cavity is formed by a bottom of the battery module and a cooling component, and the injection channel is configured to be communicated with the accommodation cavity; and thermally conductive slurry which is injected into the accommodation cavity from the injection channel, wherein the limit frame comprises an end plate assembly provided at an end of the battery unit, the injection channel is provided in the end plate assembly, the end plate assembly comprises an end plate, an insulation plate, and a connection pipe, at least part of the insulation plate is provided between the end plate and the battery unit, the injection channel penetrates both the end plate and the insulation plate, two ends of the connection pipe are respectively connected to the end plate and the insulation plate, and the injection channel penetrates the end plate, the connection pipe and the insulation plate.
A catheter (10b, 10c, 10d) comprising: an outer tube (30, 30a); an inner tube inserted into the outer tube (30, 30a); a first core wire inserted between the outer tube (30, 30a) and the inner tube, the first core wire being fixed to the outer tube (30, 30a) or the inner tube; a second core wire (80a, 80b) inserted parallel to the first core wire, the second core wire (80a, 80b) being capable of moving between the outer tube (30, 30a) and the inner tube; and a restriction part (100, 110) restricting a movement of the second core wire (80a, 80b) toward a distal end of the catheter (10b, 10c, 10d) and being provided at the second core wire (80a, 80b), wherein the restriction part (100, 110) is positioned in a proximal side relative to a proximal end of the first core wire or a proximal end of the outer tube, characterized by comprising a portion where a cross sectional area of the second core wire (80a, 80b) is smaller than that of the first core wire. an outer tube (30, 30a); an inner tube inserted into the outer tube (30, 30a); a first core wire inserted between the outer tube (30, 30a) and the inner tube, the first core wire being fixed to the outer tube (30, 30a) or the inner tube; a second core wire (80a, 80b) inserted parallel to the first core wire, the second core wire (80a, 80b) being capable of moving between the outer tube (30, 30a) and the inner tube; and a restriction part (100, 110) restricting a movement of the second core wire (80a, 80b) toward a distal end of the catheter (10b, 10c, 10d) and being provided at the second core wire (80a, 80b), wherein the restriction part (100, 110) is positioned in a proximal side relative to a proximal end of the first core wire or a proximal end of the outer tube, characterized by comprising a portion where a cross sectional area of the second core wire (80a, 80b) is smaller than that of the first core wire.