mhurhangee/ep-ind-claims huggingface dataset:
Tool, notably a rotating tool for processing and chip removal processing of working pieces, with a support body, a detachable cutting body mounted upon the support body and a clamping claw for the precise positioning of the cutting body relative to the support body, whereby the cutting body is pressed flat against a supporting surface upon the support body, hereby characterized, that the clamping claw is designed in one piece with the support body and connected through a material joint to the support body, whereby the cutting body is supported in the direction of the material joint on a frontal support surface of the clamping claw, and whereby the supporting surface on the support body stands at a sharp angle (α) to the frontal support surface of the clamping claw and looks toward the material joint, whereby the cutting body is positionally adjustable in a direction parallel to the supporting surface on the support body and parallel to the frontal support surface of the clamping claw, and whereby the clamping claw is separated from the support body by an L-shaped slot originating from the material joint and extending axially parallel to a pivot axis of the tool.
An inkjet printer comprising: a main frame; a first roller attached to the main frame; a second roller attached to the main frame; a transport belt wound around the first roller and the second roller and configured to transport a medium in a transport direction by rotating while supporting the medium; and a printing unit configured to perform printing on the medium supported on the transport belt, wherein the main frame is configured of a plurality of blocks that are separably connected with one another in the transport direction, characterised in that at least one of the first roller and the second roller is defined as a roller to be consolidated, and the first roller, the second roller, and the transport belt are configured to be consolidated in a consolidation block, which is a block for consolidation, by moving the roller to be consolidated from a deployment block, which is a block where the roller to be consolidated is fixed when the medium is transported, to the consolidation block. a main frame; a first roller attached to the main frame; a second roller attached to the main frame; a transport belt wound around the first roller and the second roller and configured to transport a medium in a transport direction by rotating while supporting the medium; and a printing unit configured to perform printing on the medium supported on the transport belt, wherein the main frame is configured of a plurality of blocks that are separably connected with one another in the transport direction, characterised in that at least one of the first roller and the second roller is defined as a roller to be consolidated, and the first roller, the second roller, and the transport belt are configured to be consolidated in a consolidation block, which is a block for consolidation, by moving the roller to be consolidated from a deployment block, which is a block where the roller to be consolidated is fixed when the medium is transported, to the consolidation block.
Solar tracking system (80; 180) for orienting slats (38; 138) relative to the sun, comprising at least two slats and a device for orienting slats relative to the sun, comprising: - an elongated housing (2; 102); - an elongated guide (32; 132) connected to the housing and having engaging elements which engage the slats and are displaceable in the longitudinal direction of the elongated housing, wherein the slats are rotatable about a longitudinal axis thereof; - drive means which act on the rotatable slats and with which the slats, which extend substantially transversely of the elongated guide, are rotatable about the longitudinal axis thereof; and - rotational position determining means configured to determine the actual rotational position of the slats relative to the housing, wherein the slats are received in the guide for displacement in the longitudinal direction of the elongated housing and freely rotatable about their longitudinal axis when the slats are in a fully drawn open position, in that the device further comprises translational position determining means for determining the translational position of the slats along the elongated guide, and in that the device comprises control means to control the drive means in dependence of a desired rotational position of the slats relative to the sun, the actual rotational position of the slats relative to the housing, and the translational position of the slats along the elongated guide. - an elongated housing (2; 102); - an elongated guide (32; 132) connected to the housing and having engaging elements which engage the slats and are displaceable in the longitudinal direction of the elongated housing, wherein the slats are rotatable about a longitudinal axis thereof; - drive means which act on the rotatable slats and with which the slats, which extend substantially transversely of the elongated guide, are rotatable about the longitudinal axis thereof; and - rotational position determining means configured to determine the actual rotational position of the slats relative to the housing,
A vane airfoil assembly comprising: an airfoil piece, comprising: a first airfoil platform; a second airfoil platform; and a hollow airfoil section joining the first airfoil platform and the second airfoil platform, the hollow airfoil section including a collar projection extending past the first airfoil platform, the collar projection including at least one radial tab projecting therefrom; a spar piece defines a spar platform and a spar extends from the spar platform into the hollow airfoil section, the spar piece including a radial pocket defined by first and second opposed faces, the radial pocket configured to receive the collar projection; and characterized in that: the hollow airfoil includes first and second cavities separated by a divider, and wherein the at least one radial tab is at a circumferential location of collar projection that corresponds to a location of the divider. a first airfoil platform; a second airfoil platform; and a hollow airfoil section joining the first airfoil platform and the second airfoil platform, the hollow airfoil section including a collar projection extending past the first airfoil platform, the collar projection including at least one radial tab projecting therefrom; a spar piece defines a spar platform and a spar extends from the spar platform into the hollow airfoil section, the spar piece including a radial pocket defined by first and second opposed faces, the radial pocket configured to receive the collar projection; and characterized in that: the hollow airfoil includes first and second cavities separated by a divider, and wherein the at least one radial tab is at a circumferential location of collar projection that corresponds to a location of the divider.
A non-pneumatic tire comprising a plurality of springs, each spring comprising a first end portion, a second end portion, and an arching middle portion, each spring being interwoven with at least one other spring thereby forming a toroidal structure extending about an entire circumference of the non-pneumatic tire (100, 300), the toroidal structure being at least partially coated with an elastomer, characterized by one end portion of at least one spring being secured to a first bead spring adjacent to a rim.
Pneumatic vehicle tire for utility vehicles having a profiled tread comprising at least two circumferential ribs (3, 4) that are adjacent in the axial direction A and are separated by a circumferential groove of depth H measured in the radial direction R, wherein the circumferential groove is delimited in the axial direction A by two groove walls, wherein the circumferential ribs (3, 4) are outwardly delimited in the radial direction R by a radially outer surface forming the road contact surface, and in the axial direction A toward the circumferential groove by a respective flank (15, 16) that forms a groove wall of the circumferential groove oriented toward the circumferential rib (3, 4), and wherein the circumferential groove is formed from a radially inner extension section of height H 1 measured in the radial direction and, adjoining the latter radially, a radially outer extension section of height H 2, wherein the circumferential groove in the radially inner extension section is configured as a channel of height H 1 and breadth B 1 measured in the axial direction A and extending over the entire circumference of the tire, wherein the radially outer extension section of the circumferential groove is designed, along its extent in the circumferential direction U, with an alternating sequence of first circumferential regions and second circumferential regions over the circumference, wherein the radially outer extension section of the circumferential groove is designed with a maximum breadth B 3 in the second circumferential regions such that B 3 ≥ B 1 and with a breadth B 2 in the first circumferential regions along its extent in the circumferential direction U such that B 2 < B 1, characterized in that the two flanks (15, 16) in the first circumferential regions, which form the groove walls, are designed, in the transition to the radially outer surface of the circumferential rib (3, 4), with in each case a chamfer (17, 18) of height H 4 measured in the radial direction R such that H 4 < H 2, and are spaced apart from one another by a distance B 2 along their radial extent in the radially outer extension section from radially inner to radially outer as far as the chamfer (17, 18).
A foaming assistant material for use in foam blow-molding wherein the foaming assistant material is kneaded together with a raw material resin pellet and subjected to foam blow-molding, wherein the foaming assistant material is prepared by adding inorganic particles, a main chemical foaming agent, and an assistant chemical foaming agent for forming a foaming nucleus, a phenolic antioxidant, a phosphorous antioxidant, and a dispersant to a dilution resin, and wherein the phenolic antioxidant is contained by 1.25 to 3.75 mass%, the phosphorus antioxidant is contained by 3.00 to 15.00 mass%, the inorganic particles are contained by 5.00 to 10.00 mass%, the main chemical foaming agent is contained by 2.80 to 11.20 mass%, the assistant chemical foaming agent is contained by 2.20 to 8.80 mass%, the dispersant is contained by 5.00 to 20.00 mass%, and the dilution resin is contained by 31.25 to 80.75 mass%.
A combined cycle power plant comprising: a first gas turbine engine comprising a first turbine section; a second gas turbine engine comprising a second turbine section having an aft outlet configured to discharge an exhaust gas stream; an emissions reduction system configured to receive the exhaust gas stream discharged from the second gas turbine engine, and configured to remove oxides of nitrogen from the exhaust gas stream; characterized in that the combined cycle power plant further comprises an interstage extraction system communicatively coupled with the first turbine section, the interstage extraction system configured to selectively extract turbine extraction air from the first turbine section for providing heat to the emissions reduction system. a first gas turbine engine comprising a first turbine section; a second gas turbine engine comprising a second turbine section having an aft outlet configured to discharge an exhaust gas stream; an emissions reduction system configured to receive the exhaust gas stream discharged from the second gas turbine engine, and configured to remove oxides of nitrogen from the exhaust gas stream; characterized in that the combined cycle power plant further comprises an interstage extraction system communicatively coupled with the first turbine section, the interstage extraction system configured to selectively extract turbine extraction air from the first turbine section for providing heat to the emissions reduction system.
A method for determining at least one impedance value, in particular a lurality of impedance values, of at least one accumulator cell of a first set of accumulator cells, wherein the first set of accumulator cells is formed by a first number of accumulator cells and a second number of accumulator cells, wherein at least one voltage value, in particular at least one voltage and/or voltage change, of at least one of the accumulator cells of the first and/or the second number is determined, the accumulator cells of the first number being connected in series with the accumulator cells of the second number, and the first and the second number each being at least two, and the first number of accumulator cells having at least two series-connected accumulator cells, and the second number of accumulator cells having at least two series-connected accumulator cells, characterised in that, during the determination of said at least one voltage value, charge is transferred back and forth, in particular periodically, between the first number of accumulator cells and the second number of accumulator cells.
A method for tracking the user's gaze on a displaying surface of a mobile terminal viewed by the user, consisting in determining the position of the user's gaze on the viewed displaying surface, wherein a first video camera is provided along the axis of the user's gaze and a first light source directed towards the eye and located near the lens of the first video camera, in order to collect a first video signal including at least the pupil image and that of the corneal reflection of the first light source, a second video signal including images of the displaying surface is collected, the first video signal is analyzed to measure within the eye reference mark, the direction of the gaze according to the position of the pupil center relatively to the corneal reflection center of the first light source, and, on the second video signal, a pointer representative of the gaze position on the viewed displaying surface according to the gaze direction measured in the eye reference mark is displayed, the method being characterized in that the second video signal is captured in a reference frame, separate from the reference frame of the first video camera, bound to that of the viewed displaying surface, within the capture reference frame of the second video signal, a plurality of reference light sources (16a, 16b, 16c, 16d) are positioned directed towards the eye and disposed according to a bi-dimensional network coplanar with the viewed displaying surface, so that the first video signal collected by the first video camera further includes the image of the corneal reflections (R1, R2, R3, R4) of the reference light sources on the eye, the first video signal is analyzed to provide the position of the corneal reflections center of the reference light sources on the eye, the position of the gaze in the plan of the displaying surface viewed is determined from the position of the corneal reflections center of the reference light sources on the eye and the direction of the gaze measured in the eye reference mark, in the eye reference mark, from the position of the corneal reflections center of the reference light sources on the eye, the position of the gaze relatively to the position of the surface viewed on the eye is determined and a conversion relationship between a reference frame related to the eye reference mark and a reference frame related to the plan formed by the plurality of reference light sources corresponding to the plan of the viewed displaying surface is used to determine the position of the gaze in the plan of the viewed displaying surface according to the position of the gaze determined in the eye reference mark.
A welding method comprising: placing a workpiece including aluminum in a region to which laser light is emitted, the workpiece including two members (W1, W2) to be lap-welded together; and irradiating the laser light to the workpiece to melt an irradiated portion of the work piece to perform welding, wherein the laser light is split into a main beam and plural auxiliary beams (B2, B3) by a beam shaper and emitted to the workpiece, the plural auxiliary beams (B2, B3) are positioned so as to surround a periphery of the main beam, and a sweep speed of the laser light is 83.3 mm/sec to 300 mm/sec, characterized in that the workpiece including aluminum is made of A6061 and each of the two members (W1, W2) has a sheet thickness of 2 mm, a ratio between power of the main beam and a total power of the plural auxiliary beams (B2, B3) is 1:9, and a laser output is 5 kW to 11 kW. placing a workpiece including aluminum in a region to which laser light is emitted, the workpiece including two members (W1, W2) to be lap-welded together; and irradiating the laser light to the workpiece to melt an irradiated portion of the work piece to perform welding, wherein the laser light is split into a main beam and plural auxiliary beams (B2, B3) by a beam shaper and emitted to the workpiece, the plural auxiliary beams (B2, B3) are positioned so as to surround a periphery of the main beam, and a sweep speed of the laser light is 83.3 mm/sec to 300 mm/sec, characterized in that the workpiece including aluminum is made of A6061 and each of the two members (W1, W2) has a sheet thickness of 2 mm, a ratio between power of the main beam and a total power of the plural auxiliary beams (B2, B3) is 1:9, and a laser output is 5 kW to 11 kW.
A method for detecting an analyte using surface enhanced Raman spectroscopy (SERS), the method comprising a) contacting one or more analyte-binding molecules with the analyte under conditions that allow binding of the analyte to the one or more analyte-binding molecules to form a first mixture, wherein the one or more analyte-binding molecules comprise haemoglobin, wherein the analyte comprises haptoglobin, b) adding citric acid, or citric acid and a citrate buffer, to the first mixture so as to adjust pH of the first mixture to be 3 or less, c) contacting a liquid reagent comprising a peroxidase substrate and a peroxide source with the first mixture to form a second mixture, while maintaining pH of the second mixture at 3 or less, d) quenching the second mixture to form a third mixture, e) optionally contacting the third mixture with a SERS-active substrate, and f) detecting a surface enhanced Raman signal from the third mixture and/or a surface of the SERS-active substrate. a) contacting one or more analyte-binding molecules with the analyte under conditions that allow binding of the analyte to the one or more analyte-binding molecules to form a first mixture, wherein the one or more analyte-binding molecules comprise haemoglobin, wherein the analyte comprises haptoglobin, b) adding citric acid, or citric acid and a citrate buffer, to the first mixture so as to adjust pH of the first mixture to be 3 or less, c) contacting a liquid reagent comprising a peroxidase substrate and a peroxide source with the first mixture to form a second mixture, while maintaining pH of the second mixture at 3 or less, d) quenching the second mixture to form a third mixture, e) optionally contacting the third mixture with a SERS-active substrate, and f) detecting a surface enhanced Raman signal from the third mixture and/or a surface of the SERS-active substrate.
Apparatus for transferring products, for example eggs, from an endless conveyor to carrier units, comprising, - said conveyor with at least a single row of transport carriers, and - a transfer unit positioned near the conveyor, which further comprises an arm pivotable around a shaft and having at the end thereof a transfer carrier, wherein the conveyor, the transfer unit and the carrier unit are adapted to move such that the relative velocities upon takeover from the conveyor and upon transfer to such a carrier unit are virtually 0 m/s, and characterized in that the shaft is driven by a motor with independently controllable speed, wherein the transfer unit follows a trajectory in a substantially vertical plane. - said conveyor with at least a single row of transport carriers, and - a transfer unit positioned near the conveyor, which further comprises an arm pivotable around a shaft and having at the end thereof a transfer carrier, wherein the conveyor, the transfer unit and the carrier unit are adapted to move such that the relative velocities upon takeover from the conveyor and upon transfer to such a carrier unit are virtually 0 m/s, and characterized in that the shaft is driven by a motor with independently controllable speed, wherein the transfer unit follows a trajectory in a substantially vertical plane.
A neurostimulation system, comprising: a neurostimulation lead configured for being implanted along a spinal cord of a patient, the neurostimulation lead including a paddle having a longitudinal axis and an array of electrodes; a neurostimulation device configured for delivering electrical stimulation energy to active ones of the electrode array; and control/processing circuitry (54; 68) configured for instructing the neurostimulation device to configure an active one of the electrode array as a cathode, and two active ones of the electrode array longitudinally flanking and laterally offset from the cathode as anodes, selecting a ratio of stimulation amplitude values for the two anodes based on a known longitudinal location of the implanted neurostimulation lead relative to the spinal cord, and instructing the neurostimulation device to distribute the electrical stimulation energy between the two anodes in accordance with the selected stimulation amplitude value ratio. a neurostimulation lead configured for being implanted along a spinal cord of a patient, the neurostimulation lead including a paddle having a longitudinal axis and an array of electrodes; a neurostimulation device configured for delivering electrical stimulation energy to active ones of the electrode array; and control/processing circuitry (54; 68) configured for instructing the neurostimulation device to configure an active one of the electrode array as a cathode, and two active ones of the electrode array longitudinally flanking and laterally offset from the cathode as anodes, selecting a ratio of stimulation amplitude values for the two anodes based on a known longitudinal location of the implanted neurostimulation lead relative to the spinal cord, and instructing the neurostimulation device to distribute the electrical stimulation energy between the two anodes in accordance with the selected stimulation amplitude value ratio.
A method for measuring a glycated protein in a sample, comprising: a step of allowing a sample in which a degradation product has been generated from a glycated protein by a protease to react with fructosyl amino acid oxidase in the presence of 300 mmol/L or more of hexaammineruthenium chloride to generate a reduced hexaammineruthenium chloride; and a step of detecting the reaction state in the step by an electrochemical technique using an interdigitated electrode, wherein the interdigitated electrode has a total area of 1.8 mm 2 to 4 mm 2, an interelectrode distance of less than 50 μm, a working electrode width of 5 μm to 50 μm, and a counter electrode width of 5 μm to 100 μm.. a step of allowing a sample in which a degradation product has been generated from a glycated protein by a protease to react with fructosyl amino acid oxidase in the presence of 300 mmol/L or more of hexaammineruthenium chloride to generate a reduced hexaammineruthenium chloride; and a step of detecting the reaction state in the step by an electrochemical technique using an interdigitated electrode, wherein the interdigitated electrode has a total area of 1.8 mm 2 to 4 mm 2, an interelectrode distance of less than 50 μm, a working electrode width of 5 μm to 50 μm, and a counter electrode width of 5 μm to 100 μm..