mhurhangee/ep-ind-claims huggingface dataset:
A printing apparatus for printing a three-dimensional object, comprising: an operative surface; a printing head comprising a frame attached pivotally to at least one control arm, wherein the frame is rotatable about an axis disposed at a point of attachment between the frame and control arm; a plurality of powder dispensers (22.1, 22.2, 22.3) connected at a plurality of positions along the frame, the powder dispensers being configured to deposit multiple superjacent layers of powder (24.1, 24.2, 24.3) onto the operative surface simultaneously when the printing head travels relative to the operative surface; and an energy source for emitting energy beams onto two or more layers of powder (24.1, 24.2, 24.3) simultaneously, wherein the frame is configured to be tilted at an angle when the printing head is travelling in one direction, and wherein the frame is configured to tilt at an opposed angle when the printing head is travelling in an opposite direction, and wherein the angle at which the frame tilts is such that the distance from each powder dispenser (22.1, 22.2, 22.3) to each corresponding powder bed (24.1, 24.2, 24.3) is equal. an operative surface; a printing head comprising a frame attached pivotally to at least one control arm, wherein the frame is rotatable about an axis disposed at a point of attachment between the frame and control arm; a plurality of powder dispensers (22.1, 22.2, 22.3) connected at a plurality of positions along the frame, the powder dispensers being configured to deposit multiple superjacent layers of powder (24.1, 24.2, 24.3) onto the operative surface simultaneously when the printing head travels relative to the operative surface; and an energy source for emitting energy beams onto two or more layers of powder (24.1, 24.2, 24.3) simultaneously, wherein the frame is configured to be tilted at an angle when the printing head is travelling in one direction, and wherein the frame is configured to tilt at an opposed angle when the printing head is travelling in an opposite direction, and wherein the angle at which the frame tilts is such that the distance from each powder dispenser (22.1, 22.2, 22.3) to each corresponding powder bed (24.1, 24.2, 24.3) is equal.
A vibration isolation device comprising: a flexure element comprising upper and lower flexure sections (11,12) generally aligned to a common longitudinal axis; a viscoelastic material layer (71, 72, 73, 74) having first and second facial surfaces such that the first facial surface is attached to both the upper and lower flexure sections; a stiff constraining layer (81, 82, 83, 84) attached to the second facial surface of the VEM layer such that motion of the upper flexure section relative to the lower flexure section is constrained by the stiff constraining layer and therein induces shearing of the VEM layer; wherein the upper and lower flexure sections (11, 12) each have an attachment means and an attachment proximate portion (21, 22) such that the attachment proximate portion of the upper flexure section is a minimal controlled distance from the attachment proximate portion of the lower flexure section, wherein the flexure element further comprises at least one flexure loop section (31, 32, 33, 34), wherein the attachment proximate portions of the upper and lower flexure sections (11, 12) are connected to one another within the flexure element by the at least one flexure loop section, and wherein the at least one flexure loop section (31, 32, 33, 34) is of independent shape and cross section relative to the attachment proximate portions of the upper and lower flexure sections, and is of independent shape and cross section relative to the minimal controlled distance between the attachment proximate portions of the upper and lower flexure sections. a flexure element comprising upper and lower flexure sections (11,12) generally aligned to a common longitudinal axis; a viscoelastic material layer (71, 72, 73, 74) having first and second facial surfaces such that the first facial surface is attached to both the upper and lower flexure sections; a stiff constraining layer (81, 82, 83, 84) attached to the second facial surface of the VEM layer such that motion of the upper flexure section relative to the lower flexure section is constrained by the stiff constraining layer and therein induces shearing of the VEM layer; wherein the upper and lower flexure sections (11, 12) each have an attachment means and an attachment proximate portion (21, 22) such that the attachment proximate portion of the upper flexure section is a minimal controlled distance from the attachment proximate portion of the lower flexure section, wherein the flexure element further comprises at least one flexure loop section (31, 32, 33, 34), wherein the attachment proximate portions of the upper and lower flexure sections (11, 12) are connected to one another within the flexure element by the at least one flexure loop section, and wherein the at least one flexure loop section (31, 32, 33, 34) is of independent shape and cross section relative to the attachment proximate portions of the upper and lower flexure sections, and is of independent shape and cross section relative to the minimal controlled distance between the attachment proximate portions of the upper and lower flexure sections.
An apparatus comprising a container adapted to store a non-gaseous flowable specimen having fluidity said apparatus further comprising a gas chromatograph, the apparatus characterized in that it comprises a first flow channel connected to the gas release channel of the gas chromatograph and which is adapted to send at least a volatile component separated by the gas chromatograph into a mouth of a person, and a second flow channel adapted to send the flowable specimen into the mouth of the person.
A preparation, comprising: (i) a thermostable archaeal polymerase; and (ii) a synthetic oligonucleotide having a 3' end and a 5' end; and (iii) a buffer; wherein the synthetic oligonucleotide is folded to form a hairpin oligonucleotide comprising: a double-stranded region that extends from the 3' end, and a 5' single-strand extension containing at least one uracil or inosine, wherein a uracil or inosine is positioned at the fourth position in the 5' single-strand extension numbered from the 3' end of the 5' single-strand extension; wherein the synthetic oligonucleotide contains at least one derivative nucleotide and/or phosphorothioate linkage in a nucleic acid sequence at the 3' end, wherein the at least one derivative nucleotide is selected from one or more inverted nucleotides, di-deoxynucleotides or amino-modified nucleotides; and wherein the double-stranded region of the synthetic oligonucleotide melts at a temperature that is about 15°C below a temperature suitable for polymerization extension. (i) a thermostable archaeal polymerase; and (ii) a synthetic oligonucleotide having a 3' end and a 5' end; and (iii) a buffer; a double-stranded region that extends from the 3' end, and a 5' single-strand extension containing at least one uracil or inosine, wherein a uracil or inosine is positioned at the fourth position in the 5' single-strand extension numbered from the 3' end of the 5' single-strand extension;
A method of preparing a capacitor, the capacitor comprising a first electrode comprising at least two protrusions, a second electrode comprising at least two protrusions, which interlocate with the protrusions on said first electrode, and at least one curable dielectric material deposed in a gap between said interlocated protrusions of the said first and second electrodes, further wherein there is at least one through hole in the said first or second electrodes, to allow the curable dielectric material to be flowed therethrough, the method comprising the steps of: forming the first electrode comprising said at least two protrusions, forming the second electrode comprising said at least two protrusions, which co-locate with the at least two protrusions on said first electrode, bringing into alignment the at least two protrusions on both said first and second electrodes to form said gap, then causing the at least one curable dielectric material to enter, through the at least one through-hole, the gap between said two at least two protrusions on said first and second electrodes, causing said dielectric to cure, wherein at least one layer of a high breakdown material (78a,78b) is deposed and cured at a base of the first and second electrodes proximate to the tips of the adjacent protrusions, prior to causing the at least one curable dielectric material to enter the gap between said electrodes. forming the first electrode comprising said at least two protrusions, forming the second electrode comprising said at least two protrusions, which co-locate with the at least two protrusions on said first electrode, bringing into alignment the at least two protrusions on both said first and second electrodes to form said gap, then causing the at least one curable dielectric material to enter, through the at least one through-hole, the gap between said two at least two protrusions on said first and second electrodes, causing said dielectric to cure, wherein at least one layer of a high breakdown material (78a,78b) is deposed and cured at a base of the first and second electrodes proximate to the tips of the adjacent protrusions, prior to causing the at least one curable dielectric material to enter the gap between said electrodes.
A gas analysis device comprising - a gas inlet arranged to receive a gas sample (G_S), - a flow path connected to the gas inlet and being arranged to guide the gas sample (G_S) to at least first and second gas separators (GS1, GS2, GS3) with respective first and second molecule selectivity properties, wherein the first and second molecule selectivity properties are different, - at least one detector comprising a sensor arranged to generate respective first and second responses to outputs from the first and second gas separators, and - a communication module arranged to generate output data (O_D) in response to the first and second responses from the at least one detector, wherein the flow path comprises a serial flow path between the first and second gas separators (GS1, GS3) and a valve arranged in said serial flow path, wherein a first detector is arranged to generate a response to an output from the first gas separator, and wherein a control unit (C_U) is arranged to open or close the valve in response to said response from the first detector, so as to selectively provide flow or no flow of gas to the second gas separator in response to the output from the first gas separator. - a gas inlet arranged to receive a gas sample (G_S), - a flow path connected to the gas inlet and being arranged to guide the gas sample (G_S) to at least first and second gas separators (GS1, GS2, GS3) with respective first and second molecule selectivity properties, wherein the first and second molecule selectivity properties are different, - at least one detector comprising a sensor arranged to generate respective first and second responses to outputs from the first and second gas separators, and - a communication module arranged to generate output data (O_D) in response to the first and second responses from the at least one detector, wherein the flow path comprises a serial flow path between the first and second gas separators (GS1, GS3) and a valve arranged in said serial flow path, wherein a first detector is arranged to generate a response to an output from the first gas separator, and wherein a control unit (C_U) is arranged to open or close the valve in response to said response from the first detector, so as to selectively provide flow or no flow of gas to the second gas separator in response to the output from the first gas separator.
Electromagnetic induction device comprising a magnetic core having a limb and at least one winding wound around the limb, wherein the winding comprises: - an electrical conductor forming a plurality of radially overlapping layers (6', 6",... 6 n) around an axis; - an electrically insulating material positioned between the radially overlapping layers (6', 6",... 6 n) of the electrical conductor; - at least one magnetic material end-fill positioned at at least one axial end of the winding in electrical contact with the layers (6', 6",... 6 n) of the electrical conductor so as to be at the same electrical potential with the latter, wherein the magnetic material end-fill comprises at least one magnetic strip wound around said axis so as to form a plurality of radially overlapping layers (14', 14",... 14 n), each layer of the magnetic strip being positioned in correspondence to and in electrical contact with a respective layer (6', 6",... 6 n) of the electrical conductor; characterized by at least one electrically insulating material end-fill positioned at said at least one end of the winding, such that the magnetic material end-fill is axially positioned between the electrically insulating material end-fill and the electrical conductor, wherein the electrically insulating material end-fill comprises a pressboard strip wound around said axis so as to form a plurality of radially overlapping layers (16', 16",... 16 n), wherein each layer (16', 16",... 16 n) of the pressboard strip is radially positioned in correspondence to a respective layer (14', 14",... 14 n) of the at least one magnetic strip and to a respective layer (6', 6",... 6 n) of the electrical conductor, wherein the layers (14', 14",... 14 n) of the at least one magnetic strip are axially positioned between the layers (6', 6",... 6 n) of the electrical conductor and the layers (16', 16",... 16 n) of the pressboard strip. - an electrical conductor forming a plurality of radially overlapping layers (6', 6",... 6 n) around an axis; - an electrically insulating material positioned between the radially overlapping layers (6', 6",... 6 n) of the electrical conductor; - at least one magnetic material end-fill positioned at at least one axial end of the winding in electrical contact with the layers (6', 6",... 6 n) of the electrical conductor so as to be at the same electrical potential with the latter, wherein the magnetic material end-fill comprises at least one magnetic strip wound around said axis so as to form a plurality of radially overlapping layers (14', 14",... 14 n), each layer of the magnetic strip being positioned in correspondence to and in electrical contact with a respective layer (6', 6",... 6 n) of the electrical conductor;
Swimming pool, in particular a swimming pool (10; 10') which can be at least partially received in the soil, having a circumferential edge which comprises a supporting wall, and a foundation closing this circumferential edge at the bottom, which foundation comprises a levelling layer consisting of bulk material such as gravel, grit and/or sand for levelling soil which can be provided below the foundation, and a stabilising layer which extends beyond said levelling layer and consists of individual stabilising elements which can be connected to one another, in particular plugged into one another and/or glued to one another, wherein the foundation further comprises a foundation insulation layer consisting of individual foundation insulation elements which can be connected to one another, in particular plugged into one another and/or glued to one another, wherein no further rigid or monolithic bearing layer, e.g. a concrete slab or the like, is provided between the foundation insulation layer and the levelling layer, characterised in that the supporting wall is at least partially designed as a large-area metal ring or sheet metal strip and the circumferential edge comprises an edge insulation layer consisting of individual edge insulation elements which can be connected to one another, in particular plugged into one another and/or glued to one another, and the edge insulation layer is provided on the outer side of the supporting wall, whereby a support and protection of the supporting wall against surrounding soil is created.
A method in a mobile device for reporting crowdsourcing data, the method comprising: receiving, from a base station almanac server, a base station almanac based on a current cell; collecting crowdsourcing information for at least one base station, collecting comprising, for each base station of the at least one base station: identifying a cellular identifier for each base station; determining a position estimate of the mobile device for each base station that is independent of signals from the particular base station; recording crowdsourcing information for the particular base station, wherein the crowdsourcing information comprises: the cellular identifier; and the position estimate of the mobile device; and determining a crowdsourcing throttle based on conditions of a network used by the mobile device or conditions of the position estimate; and sending, to the base station almanac server based on the crowdsourcing throttle, the crowdsourcing information. receiving, from a base station almanac server, a base station almanac based on a current cell; collecting crowdsourcing information for at least one base station, collecting comprising, for each base station of the at least one base station: identifying a cellular identifier for each base station; determining a position estimate of the mobile device for each base station that is independent of signals from the particular base station; recording crowdsourcing information for the particular base station, wherein the crowdsourcing information comprises: the cellular identifier; and the position estimate of the mobile device; and identifying a cellular identifier for each base station; determining a position estimate of the mobile device for each base station that is independent of signals from the particular base station; recording crowdsourcing information for the particular base station, wherein the crowdsourcing information comprises: the cellular identifier; and the position estimate of the mobile device; and the cellular identifier; and the position estimate of the mobile device; and determining a crowdsourcing throttle based on conditions of a network used by the mobile device or conditions of the position estimate; and sending, to the base station almanac server based on the crowdsourcing throttle, the crowdsourcing information.
A resolver cable connection structure in which a plurality of cables used for transferring signals are connected with resolver terminals, wherein the plurality of cables are connected with the resolver terminals via a relay member, characterised in that the relay member includes a holding plate and a plurality of relay terminals that pass through the holding plate, are protruded from both plate surfaces of the holding plate, and are arranged and held in the holding plate, a conductor of each of the cables is connected to one end side of each of the relay terminals, a recess is formed in a resolver terminal part in which the resolver terminals are arranged, a plurality of notches are provided on a side wall of the recess, and bottom surface corners of the recess are configured with curved surfaces, the holding plate is inserted in the recess, and one end side of each of the relay terminals and the conductors are positioned in the recess so as to be separated from a bottom surface of the recess, a tip of a coating following the conductor of each of the cables passes through each of the notches and is positioned in the recess, and each of the relay terminals and the coating are separated, the other end side of each of the relay terminals is connected to each of the resolver terminals, and resin is injected into the recess, and one end side of each of the relay terminals and the conductors are sealed.
Winding device for successively winding of at least one material web, in particular a plastic film web, onto the winding, and comprising: • a machine frame • at least one rotary disk which is rotatably mounted in the machine frame, • at least two winding stations (5, 5', 5") to support the winding, which is rotatably mounted in the rotary disk, • of which a first winding station (5") and a second winding station (5, 5') may be brought into a loading and/or unloading position, characterized in that at least one protective element is inserted into the region between the two winding stations (5', 5"). • a machine frame • at least one rotary disk which is rotatably mounted in the machine frame, • at least two winding stations (5, 5', 5") to support the winding, which is rotatably mounted in the rotary disk, • of which a first winding station (5") and a second winding station (5, 5') may be brought into a loading and/or unloading position,
A cross-flow fan for generating a fluid flow with a cylindrical impeller extending in an axial direction from a first end to a second end, wherein an annularly designed first magnetically effective core is provided at the first end, and an annularly designed second magnetically effective core is provided at the second end, wherein a plurality of vanes is provided, each of which is arranged between the first magnetically effective core and the second magnetically effective core with respect to the axial direction, wherein a first stator is provided, which is designed as a bearing and drive stator, and which interacts with the first magnetically effective core as a first electromagnetic rotary drive, wherein a second stator is provided, which is designed at least as a bearing stator, with which the second magnetically effective core can be magnetically levitated without contact with respect to the second stator, wherein the impeller can be magnetically driven without contact by means of the first and the second stator (41, 42) and can be magnetically levitated without contact with respect to the first stator and the second stator, characterized in that the first stator is arranged within the first magnetically effective core such that the first magnetically effective core surrounds the first stator.
Gripper for transporting an upright semiconductor wafer, comprising a flat body having a head portion and a foot portion, which form a planar front side; arms, which extend from the head portion to spaced-apart ends in the foot portion; at end portions of the arms, a supporting surface, which is arranged so as to be set back from the plane of the front side; and holding pins, which are arranged on the end portions and are intended for establishing a clamping connection between the semiconductor wafer and the body, characterized by a channel which follows an inner side of the arms, is made in the arms and terminates at edges, wherein the edges are separated from the ends of the arms. a flat body having a head portion and a foot portion, which form a planar front side; arms, which extend from the head portion to spaced-apart ends in the foot portion; at end portions of the arms, a supporting surface, which is arranged so as to be set back from the plane of the front side; and holding pins, which are arranged on the end portions and are intended for establishing a clamping connection between the semiconductor wafer and the body, characterized by a channel which follows an inner side of the arms, is made in the arms and terminates at edges, wherein the edges are separated from the ends of the arms.