mhurhangee/ep-ind-claims huggingface dataset:
An assembly of air and pneumatic devices comprising segments which consist of a stator having stationary air guiding vanes and a rotor with vertical rotation axis, said segments stacked into vertical columns supported on base plates, whereas wind engines' shafts connected to each other in the columns are coupled with power receivers, characterized in that the assembly of air and pneumatic devices is composed of at least two, preferably three, columns, connected to each other with rigid connecting bars fixed to stators, whereas each stator is formed by four tubular struts evenly spaced around a circle and connected to a round lower plate and a round upper plate, whereas the struts have two panels and fixed to them, said panels located in a plane set at an acute angle with respect to a radius running through the axis of the strut, and additionally at least one strut has a compressed air conduit fixed to it, said conduit equipped with nozzles directed parallel to the panels and, whereas in the symmetry axis of the lower plate and the upper plate there are brackets of bearings in which a shaft of the rotor with blades is supported, and the shafts of the rotors of one column are coupled with a compressor unit connected to a compressed air tank which is connected to a compressed air system connected to the conduits of the stators of the other columns and.
A bottom-emission type electro-luminescence display apparatus, comprising: a transparent substrate, the display apparatus being configured to emit light toward the transparent substrate; a thin-film transistor array on the transparent substrate; a transparent first electrode on the thin-film transistor array; an electro-luminescence diode on the first electrode; a transparent second electrode on the electro-luminescence diode; an encapsulation unit on the second electrode; and an external light-absorbing layer on the encapsulation unit, characterised in that the electro-luminescence display apparatus further includes an adhesive layer on the external light-absorbing layer, and a second substrate on the adhesive layer, and wherein the second substrate comprises opaque metal. a transparent substrate, the display apparatus being configured to emit light toward the transparent substrate; a thin-film transistor array on the transparent substrate; a transparent first electrode on the thin-film transistor array; an electro-luminescence diode on the first electrode; a transparent second electrode on the electro-luminescence diode; an encapsulation unit on the second electrode; and an external light-absorbing layer on the encapsulation unit, characterised in that the electro-luminescence display apparatus further includes an adhesive layer on the external light-absorbing layer, and a second substrate on the adhesive layer, and wherein the second substrate comprises opaque metal.
A mobile communication method of a mobile station device located in a zone of a source cell controlled by a base station device, the method comprising: acquiring conflicting cell identification, ID, information from the base station device, wherein the conflicting cell ID information comprises at least a cell ID used by a neighboring cell of the source cell and a conflicting cell corresponding to the neighboring cell; acquiring a global cell ID allocated to the neighboring cell from a broadcast channel; transmitting a measurement report carrying the global cell ID and the cell ID to the base station; and receiving a handover command message, wherein the handover command message comprising the cell ID and the global cell ID, and performing a handover to the neighboring cell. acquiring conflicting cell identification, ID, information from the base station device, wherein the conflicting cell ID information comprises at least a cell ID used by a neighboring cell of the source cell and a conflicting cell corresponding to the neighboring cell; acquiring a global cell ID allocated to the neighboring cell from a broadcast channel; transmitting a measurement report carrying the global cell ID and the cell ID to the base station; and receiving a handover command message, wherein the handover command message comprising the cell ID and the global cell ID, and performing a handover to the neighboring cell.
Method for fitting a piping nozzle or a part of a piping nozzle in a piping bag, comprising the steps of: placing the piping nozzle in an initial position, which initial position is situated at a substantial distance from a piping position located in the piping bag, using a piping nozzle applicator, which is movable between the initial position and the piping position, to releasably engage with the piping nozzle at the initial position, using the piping nozzle applicator to bring the piping nozzle from the initial position substantially to the piping position in the piping bag, releasing the piping nozzle from the piping nozzle applicator at the piping position, and pulling the piping nozzle applicator back from the piping position, or withdrawing the piping bag from the piping nozzle applicator. placing the piping nozzle in an initial position, which initial position is situated at a substantial distance from a piping position located in the piping bag, using a piping nozzle applicator, which is movable between the initial position and the piping position, to releasably engage with the piping nozzle at the initial position, using the piping nozzle applicator to bring the piping nozzle from the initial position substantially to the piping position in the piping bag, releasing the piping nozzle from the piping nozzle applicator at the piping position, and pulling the piping nozzle applicator back from the piping position, or withdrawing the piping bag from the piping nozzle applicator.
A disposable polymer-structured filtering kit, comprising: a disposable funnel having an upper portion and a detachable lower portion, the lower portion comprising a base, a top end of said base having a concavity and the lower end thereof defining a stem having a flow discharge end positioned at a distal tip thereof; a filter disc received within the concavity of the lower portion of the funnel, the filtering funnel being constructed of a polymer; a vacuum take-off adapter having a port adapted for connection to an external vacuum source, the vacuum-take off adapter having a body portion with a funnel engaging end and a flask or vial engaging end, wherein the funnel engaging end of the vacuum take-off adapter releasably receives the lower portion of the filtering funnel, and wherein the vacuum take-off adapter has a funnel ground joint that receives the stem of the funnel; and a bottle flask or vial releasably connected to the adapter at the flask or vial engaging end; wherein the stem passes through a ground joint that is positioned within an upper portion of the vacuum take-off adapter such that the flow discharge end is positioned within the bottle flask or vial, such that the distal tip of the stem extends past the adapter when the funnel, adapter and flask are assembled. a disposable funnel having an upper portion and a detachable lower portion, the lower portion comprising a base, a top end of said base having a concavity and the lower end thereof defining a stem having a flow discharge end positioned at a distal tip thereof; a filter disc received within the concavity of the lower portion of the funnel, the filtering funnel being constructed of a polymer; a vacuum take-off adapter having a port adapted for connection to an external vacuum source, the vacuum-take off adapter having a body portion with a funnel engaging end and a flask or vial engaging end, wherein the funnel engaging end of the vacuum take-off adapter releasably receives the lower portion of the filtering funnel, and wherein the vacuum take-off adapter has a funnel ground joint that receives the stem of the funnel; and a bottle flask or vial releasably connected to the adapter at the flask or vial engaging end; wherein the stem passes through a ground joint that is positioned within an upper portion of the vacuum take-off adapter such that the flow discharge end is positioned within the bottle flask or vial, such that the distal tip of the stem extends past the adapter when the funnel, adapter and flask are assembled.
A bare wire continuous-flow heater, comprising a load current circuit with a bare wire heating device, a mains voltage device to which the bare wire heating device is connected by means of electrical conductors (13a, 13b, 13c), switching devices (14a, 14b, 14c), wherein for all-pole switching-on and switching-off of the bare wire heating device each switching device (14a, 14b, 14c) is connected into an associated electrical conductor (13a, 13b, 13c), and a control device for controlling the switching state of the switching devices (14a, 14b, 14c), characterised in that the switching devices (14a, 14b, 14c) have at least a first switching device (14a, 14c) and a second switching device, wherein each first switching device (14a, 14c) for the purposes of control is connected to an associated galvanic isolation means (16a, 16c), so that this switching device (14a, 14c) is directly connected to the control device, and wherein each second switching device is designed and adapted in self-controlled manner such that for purposes of control it is connected, free of direct connection to a galvanic isolation means, exclusively to the electrical conductor, into which the second switching device is connected.
An intraluminal device, comprising: a flexible shaft; and an expandable wire mesh structure formed by an arrangement of wires extending from the flexible shaft, the wire mesh structure including at least one first expandable section having a first wire arrangement pattern and at least one second expandable section having a second wire arrangement pattern different from the first wire arrangement pattern, wherein due to the differences between the first wire arrangement pattern and the second wire arrangement pattern interstices in the at least one first expandable section differ in size from interstices in the at least one second expandable section, wherein at least a portion of the at least one first expandable section is braided and at least a portion of the at least one second expandable section is non-braided, wherein the at least one second expandable section includes at least two non-braided sections separated by a braided section, and wherein the shaft includes multiple strands of continuous wire that are coiled, and wherein the expandable wire mesh structure is formed from the strands. a flexible shaft; and an expandable wire mesh structure formed by an arrangement of wires extending from the flexible shaft, the wire mesh structure including at least one first expandable section having a first wire arrangement pattern and at least one second expandable section having a second wire arrangement pattern different from the first wire arrangement pattern, wherein due to the differences between the first wire arrangement pattern and the second wire arrangement pattern interstices in the at least one first expandable section differ in size from interstices in the at least one second expandable section, wherein at least a portion of the at least one first expandable section is braided and at least a portion of the at least one second expandable section is non-braided, wherein the at least one second expandable section includes at least two non-braided sections separated by a braided section, and wherein the shaft includes multiple strands of continuous wire that are coiled, and wherein the expandable wire mesh structure is formed from the strands.
A cable-type secondary battery comprising: an inner electrode which includes at least one first polarity electrode having a first polarity current collector with a long and thin shape, whose cross-section perpendicular to its longitudinal direction is a circular, oval or polygonal form; a first polarity electrode active material layer formed on an outer surface of the first polarity current collector; and an electrolyte layer filled to surround the first polarity electrode active material layer, and at least one wire-type second polarity electrode which wholly surrounds the inner electrode and is wound around the exterior thereof, wherein the first polarity electrode active material layer formed on the outer surface of the first polarity current collector comprises at least two first polarity electrode active material layers to be spaced apart from each other at a predetermined interval in the longitudinal direction. an inner electrode which includes at least one first polarity electrode having a first polarity current collector with a long and thin shape, whose cross-section perpendicular to its longitudinal direction is a circular, oval or polygonal form; a first polarity electrode active material layer formed on an outer surface of the first polarity current collector; and an electrolyte layer filled to surround the first polarity electrode active material layer, and at least one wire-type second polarity electrode which wholly surrounds the inner electrode and is wound around the exterior thereof, wherein the first polarity electrode active material layer formed on the outer surface of the first polarity current collector comprises at least two first polarity electrode active material layers to be spaced apart from each other at a predetermined interval in the longitudinal direction.
Upper blade rocking lever guide for oscillating double blade cutting systems comprising a guide arm, which is mounted in a guide assembly, which is at least partially surrounded by a housing, characterised in that the guide assembly is pivotably mounted in the housing and an eccentric is arranged in the housing, which eccentric is in contact with the guide assembly.
Filter holder for holding at least one filter element for a respiratory mask, wherein the filter holder comprises two flat impact elements (22, 24) on an inlet side that faces the inflowing fluid, wherein the two impact elements (22, 24) are arranged - in parallel with one another, - at a distance from one another and - viewed in an inflow direction of inflowing fluid, one behind the other and in front of a held filter element, wherein each impact element (22, 24) comprises a plurality of longitudinal ribs (26.1, 26.2), wherein one impact element comprises a plurality of transverse ribs (27.2) which are perpendicular or oblique to the longitudinal ribs (26.2) of this impact element, wherein a plurality of mechanical connecting elements mechanically connect the transverse ribs (27.2) in each case to at least one longitudinal rib (26.1) of the other impact element, wherein the connecting elements extend in parallel with the inflow direction, wherein at least one opening (Ö1, Ö2) permeable to inflowing fluid is formed between in each case two adjacent longitudinal ribs (26.1, 26.2) of an impact element (22, 24), wherein each opening (Ö1) in one impact element - viewed in the inflow direction - is arranged so as to be laterally offset relative to each opening (Ö2) in the other impact element and wherein at least one fluid channel (F1,...) is formed which leads through an opening (Ö1) in one impact element and through a laterally offset opening (Ö2) in the or another impact element. wherein the filter holder comprises two flat impact elements (22, 24) on an inlet side that faces the inflowing fluid, wherein the two impact elements (22, 24) are arranged - in parallel with one another, - at a distance from one another and - viewed in an inflow direction of inflowing fluid, one behind the other and in front of a held filter element, - in parallel with one another, - at a distance from one another and - viewed in an inflow direction of inflowing fluid, one behind the other and in front of a held filter element, wherein each impact element (22, 24) comprises a plurality of longitudinal ribs (26.1, 26.2), wherein one impact element comprises a plurality of transverse ribs (27.2) which are perpendicular or oblique to the longitudinal ribs (26.2) of this impact element, wherein a plurality of mechanical connecting elements mechanically connect the transverse ribs (27.2) in each case to at least one longitudinal rib (26.1) of the other impact element, wherein the connecting elements extend in parallel with the inflow direction, wherein at least one opening (Ö1, Ö2) permeable to inflowing fluid is formed between in each case two adjacent longitudinal ribs (26.1, 26.2) of an impact element (22, 24), wherein each opening (Ö1) in one impact element - viewed in the inflow direction - is arranged so as to be laterally offset relative to each opening (Ö2) in the other impact element and wherein at least one fluid channel (F1,...) is formed which leads through an opening (Ö1) in one impact element and through a laterally offset opening (Ö2) in the or another impact element.
A road vehicle comprising: two front wheels; two rear wheels; an engine, which transmits the motion to drive wheels; and a cooling system, which is connected to the engine and comprises: a cooling circuit where a cooling liquid flows; and at least two radiators, which are connected to the cooling circuit, are designed to transfer heat from the cooling liquid to the external air and each have the shape of a parallelepiped; wherein the two radiators are contiguous to one another, so that an end of a radiator is close to an end of the other radiator; and wherein the two radiators face one another and are inclined so as to form, between them, an acute angle and so as to create, together, a "V"-shaped structure; the road vehicle is characterized in that the cooling system comprises: two first radiators, which make up, together, a first "V"-shaped structure, which is arranged on a right side of the road vehicle; and two second radiators, which make up, together, a second "V"-shaped structure, which is arranged on a left side of the road vehicle. two front wheels; two rear wheels; an engine, which transmits the motion to drive wheels; and a cooling system, which is connected to the engine and comprises: a cooling circuit where a cooling liquid flows; and at least two radiators, which are connected to the cooling circuit, are designed to transfer heat from the cooling liquid to the external air and each have the shape of a parallelepiped; wherein the two radiators are contiguous to one another, so that an end of a radiator is close to an end of the other radiator; and wherein the two radiators face one another and are inclined so as to form, between them, an acute angle and so as to create, together, a "V"-shaped structure; the road vehicle is characterized in that the cooling system comprises: two first radiators, which make up, together, a first "V"-shaped structure, which is arranged on a right side of the road vehicle; and two second radiators, which make up, together, a second "V"-shaped structure, which is arranged on a left side of the road vehicle. two first radiators, which make up, together, a first "V"-shaped structure, which is arranged on a right side of the road vehicle; and two second radiators, which make up, together, a second "V"-shaped structure, which is arranged on a left side of the road vehicle.
A method of determining a DC offset in a communications signal received via a communications channel, the communications signal comprising a sequence of training symbols; the method comprising providing a channel estimate of the communications channel based on said sequence of training symbols; determining, based on the channel estimate, an estimate of a noise contribution introduced by the communications channel; and determining an estimate of the DC offset from the determined estimate of the noise contribution; characterized in that determining the estimate of the DC offset from the determined estimate of the noise contribution comprises calculating an inner product of a rotation trend vector [ 1 e -jα e -j2α... e -j(n-m-1)α] and an estimated noise vector representing the determined estimate of the noise contribution, wherein each element of the rotation trend vector represents a rotation by a multiple of a rotation angle α, and wherein the length of the rotation trend vector is determined by the number n of training symbols and the window size m of an equalizer for compensating channel distortions.
A last system (100, 800, 1300) for making an article of footwear, comprising: a last member (102, 300, 802, 1302) made from a first material with an outer surface; an exterior layer (104, 804, 1304) being made of a second material disposed on the outer surface of the last member (102, 300, 802, 1302); the second material of the exterior layer (104, 804, 1304) having a characteristic temperature, wherein the second material is configured to be moldable when heated to a temperature above the characteristic temperature; and a footwear component (500, 1002) formed onto the exterior layer (104, 804, 1304), the footwear component (500, 1002) having a plurality of braided strands (550, 1004), wherein: the exterior layer (104, 804, 1304) is joined with the braided footwear component (500, 1002) to form a composite structure; and the braided strands (550, 1004) are completely encased within the exterior layer (104, 804, 1304). a last member (102, 300, 802, 1302) made from a first material with an outer surface; an exterior layer (104, 804, 1304) being made of a second material disposed on the outer surface of the last member (102, 300, 802, 1302); the second material of the exterior layer (104, 804, 1304) having a characteristic temperature, wherein the second material is configured to be moldable when heated to a temperature above the characteristic temperature; and a footwear component (500, 1002) formed onto the exterior layer (104, 804, 1304), the footwear component (500, 1002) having a plurality of braided strands (550, 1004), wherein: the exterior layer (104, 804, 1304) is joined with the braided footwear component (500, 1002) to form a composite structure; and the braided strands (550, 1004) are completely encased within the exterior layer (104, 804, 1304). the exterior layer (104, 804, 1304) is joined with the braided footwear component (500, 1002) to form a composite structure; and the braided strands (550, 1004) are completely encased within the exterior layer (104, 804, 1304).
Rear window roller blind for motor vehicles, with a rotatably mounted winding shaft, with a blind sheet, which is fastened to the winding shaft at one edge and to a pull rod at the other edge, with a biasing device, which is arranged in such a manner that the blind sheet is held at tension, with two bend-resistant swivel lever arrangements (15, 16; 60, 61), which are mounted next to the winding shaft, the swivel axis running at right angles to the axis of the winding shaft, and which are connected to the pull rod, with at least one stop brake device, which is arranged and configured in such a manner in the path of movement of the swivel lever arrangements (15, 16; 60, 61) that it slows down the movement of the swivel lever arrangements (15, 16; 60, 61) during movement into the resting position, which corresponds to the retracted blind sheet, and with an electric drive device, which is arranged to actively move the blind sheet at least in one of its directions of movement, wherein the stop brake device is formed from an elastic part, characterised in that the elastic part is an elastomeric part, which contains multiple passages (53... 56) running axis-parallel to one another, that the elastomeric part has two semi-cylindrical or hemi-ellipsoidal walls (48, 49) running concentrically to one another and spaced from one another in radial direction, and that the semi-cylindrical walls (48, 49) are connected to another by means of two plane walls (51, 52) running in a web shape, which run at least approximately in radial direction.