mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a sieve-like demoulding tool, comprising the steps: - providing a nickel tube, - covering the surface of the nickel tube with a protective lacquer, - creating a plurality of holes in the protective lacquer for forming an etch mask on the nickel tube, - spray etching the nickel tube together with the etch mask, for creating a plurality of cavities in the nickel tube at the places at which the holes are located in the etch mask, characterised in that - the spray etching step is followed by at least one second spray etching step in order to create cavities in the form of through holes, and the inner surfaces of the cavities are treated in a further step by means of a laser for removing constrictions formed in the cavities as a result of the successive spray etching steps (20, 22). - providing a nickel tube, - covering the surface of the nickel tube with a protective lacquer, - creating a plurality of holes in the protective lacquer for forming an etch mask on the nickel tube, - spray etching the nickel tube together with the etch mask, for creating a plurality of cavities in the nickel tube at the places at which the holes are located in the etch mask, - the spray etching step is followed by at least one second spray etching step in order to create cavities in the form of through holes, and the inner surfaces of the cavities are treated in a further step by means of a laser for removing constrictions formed in the cavities as a result of the successive spray etching steps (20, 22).
Use of a cellulose nanofiber having an amino group as an endotoxin adsorbent, wherein the cellulose nanofiber has an average fiber diameter of from 1 to 1000 nm, and wherein the average fiber diameter is calculated based on results of dimensional measurement of at least twenty randomly selected cellulose nanofibers by using an electron microscope. wherein the cellulose nanofiber has an average fiber diameter of from 1 to 1000 nm, and wherein the average fiber diameter is calculated based on results of dimensional measurement of at least twenty randomly selected cellulose nanofibers by using an electron microscope.
A method for detecting the amplification of a target nucleic acid sequence in a sample resulting from a nucleic acid amplification reaction capable of generating a single-stranded amplification product comprising at one end a universal tag sequence having a length of between 8 and 30 nucleotides, the method being characterized in that it comprises the steps of: - adding to said sample colloidal gold nanoparticles (AuNP1, AuNP3, AuNP5, AuNP7) functionalized with a first oligonucleotide probe (20, 24, 30, 34) and colloidal gold nanoparticles (AuNP2, AuNP4, AuNP6, AuNP8) functionalized with a second oligonucleotide probe (22, 26, 32, 36), wherein said first oligonucleotide probe is at least partially complementary to a first portion of said universal tag sequence and said second oligonucleotide probe is at least partially complementary to a second portion of said universal tag sequence or said second oligonucleotide probe is at least partially complementary to said first oligonucleotide probe; - detecting the possible colour change of the sample as a result of the addition of said functionalized colloidal gold nanoparticles (AuNP1, AuNP3, AuNP5, AuNP7; AuNP2, AuNP4, AuNP6, AuNP8), wherein, when the second oligonucleotide probe is at least partially complementary to the second portion of the universal tag sequence, the colour change of the sample is indicative of the successful amplification of the target nucleic acid sequence, whereas when the second oligonucleotide probe is at least partially complementary to the first oligonucleotide probe, the absence of colour change of the sample is indicative of the successful amplification of the target nucleic acid sequence. - adding to said sample colloidal gold nanoparticles (AuNP1, AuNP3, AuNP5, AuNP7) functionalized with a first oligonucleotide probe (20, 24, 30, 34) and colloidal gold nanoparticles (AuNP2, AuNP4, AuNP6, AuNP8) functionalized with a second oligonucleotide probe (22, 26, 32, 36), wherein said first oligonucleotide probe is at least partially complementary to a first portion of said universal tag sequence and said second oligonucleotide probe is at least partially complementary to a second portion of said universal tag sequence or said second oligonucleotide probe is at least partially complementary to said first oligonucleotide probe; - detecting the possible colour change of the sample as a result of the addition of said functionalized colloidal gold nanoparticles (AuNP1, AuNP3, AuNP5, AuNP7; AuNP2, AuNP4, AuNP6, AuNP8),
A method for analysing the condition of a machine having a rotating shaft, the method comprising: receiving an analogue electric measurement signal (S EA) dependent on mechanical vibrations emanating from rotation of said shaft; sampling said analogue measurement signal at a sampling frequency (f S) so as to generate a digital measurement data signal (S MD) in response to said received analogue measurement data; performing a decimation (470; 470A; 470B; S2100, S2110) of the digital measurement data signal (S MD) so as to achieve a digital signal (S RED) having a reduced sampling frequency (f SR2); wherein said decimation includes the step of controlling (470; 470A; 470B; S2100, S2110) the reduced sampling frequency (f SR2) such that the number of sample values per revolution of the shaft is kept at a substantially constant value; characterized by receiving said digital signal (S RED, S RED2) at an input of an enhancer; performing a correlation in said enhancer so as to produce an output signal sequence wherein repetitive signal amplitude components are amplified in relation to stochastic signal components; performing a condition analysis function (F1, F2, Fn) for analysing the condition of the machine dependent on said output signal sequence. receiving an analogue electric measurement signal (S EA) dependent on mechanical vibrations emanating from rotation of said shaft; sampling said analogue measurement signal at a sampling frequency (f S) so as to generate a digital measurement data signal (S MD) in response to said received analogue measurement data; performing a decimation (470; 470A; 470B; S2100, S2110) of the digital measurement data signal (S MD) so as to achieve a digital signal (S RED) having a reduced sampling frequency (f SR2); wherein said decimation includes the step of controlling (470; 470A; 470B; S2100, S2110) the reduced sampling frequency (f SR2) such that the number of sample values per revolution of the shaft is kept at a substantially constant value; characterized by receiving said digital signal (S RED, S RED2) at an input of an enhancer; performing a correlation in said enhancer so as to produce an output signal sequence wherein repetitive signal amplitude components are amplified in relation to stochastic signal components; performing a condition analysis function (F1, F2, Fn) for analysing the condition of the machine dependent on said output signal sequence.
A process for producing moulded elements made of diamond of nanometric, submicrometric or micrometric sizes, said process comprising the following steps: a) forming beads of nanometric, submicrometric or micrometric sizes, each bead comprising a diamond nanoparticle embedded in an embedding material, by contacting diamond particles of nanometric sizes with an embedding material; b) introducing a bead into cavities of a sacrificial mould, the cavities forming a replica of the elements to be produced; c) removing the embedding material; d) forming diamond elements in the cavities containing a nanoparticle, by growing diamond from nanoparticles; e) releasing the diamond elements, by partially or totally removing the sacrificial mould. a) forming beads of nanometric, submicrometric or micrometric sizes, each bead comprising a diamond nanoparticle embedded in an embedding material, by contacting diamond particles of nanometric sizes with an embedding material; b) introducing a bead into cavities of a sacrificial mould, the cavities forming a replica of the elements to be produced; c) removing the embedding material; d) forming diamond elements in the cavities containing a nanoparticle, by growing diamond from nanoparticles; e) releasing the diamond elements, by partially or totally removing the sacrificial mould.
A radio frequency ablation device, wherein the radio frequency ablation device comprises a balloon blocking guide catheter, wherein the balloon blocking guide catheter comprises a dual-chamber or multi-chamber catheter, an inflatable closed balloon configured to block local blood flow inside a blood vessel is disposed on an outer wall of a far end of the guide catheter, a first catheter branch communicating with a first lumen inside the guide catheter is disposed on a near end of the guide catheter, the inside of the closed balloon is configured to communicate with the first lumen inside the guide catheter, the first catheter branch is configured to provide an inflation material for the closed balloon through the first lumen, a second catheter branch communicating with a second lumen inside the guide catheter is disposed on the near end of the guide catheter, an infusion port is disposed on a far end of the second lumen, and the second catheter branch is configured to infuse liquid or gas into a blood vessel on a to-be-ablated portion through the infusion port; and the radio frequency ablation device further comprises a radio frequency ablation catheter disposed in a particular lumen inside the balloon blocking guide catheter, wherein an electrode support is disposed on a far end of the radio frequency ablation catheter, at least two electrodes are disposed on the electrode support, at least one of the electrodes is connected to an output terminal of a radio frequency generator, to form a radio frequency electrode, and at least one of the electrodes is configured to be connected to a loop terminal of the radio frequency generator, to form a loop electrode; characterized in that one or more through-wall electrodes are disposed on the far end of the radio frequency ablation catheter, and the through-wall electrode is hollow and configured to communicate with a path inside the radio frequency ablation catheter, and is used to inject liquid or gas into a blood vessel wall.
A camera, comprising an optical lens and a photosensitive chip, characterized in that the camera further comprises: an optical filter comprising a first filter portion and a second filter portion, the optical filter being disposed between the optical lens and the photosensitive chip, wherein a first object point is imaged on the photosensitive chip through the optical lens and the first filter portion, and a second object point is imaged on the photosensitive chip through the optical lens and the second filter portion, the first filter portion having a thickness greater than that of the second filter portion; wherein an incident plane of the first filter portion corresponds to a field of view of a distal region of DOF and an incident plane of the second filter portion corresponds to a field of view of a proximal region of DOF; and wherein the area ratio between the incidence plane of the first filter portion and the incidence plane of the second filter portion is the ratio between the field of view of the distal region of DOF and the field of view of the proximal region of DOF, wherein the optical filter is connected with a control component via a transmission component in order to be controlled and moved to a target position, wherein at the target position, the imaging optical path of the first object point goes through the first filter portion and the imaging optical path of the second object point goes through the second filter portion. an optical filter comprising a first filter portion and a second filter portion, the optical filter being disposed between the optical lens and the photosensitive chip, wherein a first object point is imaged on the photosensitive chip through the optical lens and the first filter portion, and a second object point is imaged on the photosensitive chip through the optical lens and the second filter portion, the first filter portion having a thickness greater than that of the second filter portion; wherein an incident plane of the first filter portion corresponds to a field of view of a distal region of DOF and an incident plane of the second filter portion corresponds to a field of view of a proximal region of DOF; and wherein the area ratio between the incidence plane of the first filter portion and the incidence plane of the second filter portion is the ratio between the field of view of the distal region of DOF and the field of view of the proximal region of DOF, wherein the optical filter is connected with a control component via a transmission component in order to be controlled and moved to a target position, wherein at the target position, the imaging optical path of the first object point goes through the first filter portion and the imaging optical path of the second object point goes through the second filter portion.
A method for operating a spinning position of a spinning machine, - a fiber material being fed into a spinning unit of the spinning position, - a yarn being produced by means of the spinning unit from the fiber material fed into the spinning unit, - the yarn exiting the spinning unit via an outlet and being monitored with respect to at least one yarn parameter by means of a yarn monitoring device, - the yarn being wound onto a sleeve by means of a winding device according to prescribed winding parameters, and - a stop sequence for interrupting the normal operating mode of the spinning position being initiated when a defined deviation of a monitored yarn parameter from at least one specified value is detected in the course of a sleeve change-out at the winding device and/or in the course of shutting down the spinning position, during which the spinning unit and the winding device are stopped, - the spinning unit and the winding device are stopped in the course of the stop sequence, such that the last yarn segment produced does not run fully onto the sleeve present in the winding device, characterized in that, one or more winding parameters being changed at least temporarily after the stop sequence is initiated in order to facilitate unwinding the last yarn segment wound onto the sleeve prior to the stop of the winding device in the course of a piecing process subsequent to the stop sequence Wherein the tension of the yarn wound onto the sleeve during the stop sequence is at least temporarily reduced relative to the tension at which the yarn had been wound onto the sleeve during normal operation preceding the stop sequence. - a fiber material being fed into a spinning unit of the spinning position, - a yarn being produced by means of the spinning unit from the fiber material fed into the spinning unit, - the yarn exiting the spinning unit via an outlet and being monitored with respect to at least one yarn parameter by means of a yarn monitoring device, - the yarn being wound onto a sleeve by means of a winding device according to prescribed winding parameters, and - a stop sequence for interrupting the normal operating mode of the spinning position being initiated when a defined deviation of a monitored yarn parameter from at least one specified value is detected in the course of a sleeve change-out at the winding device and/or in the course of shutting down the spinning position, during which the spinning unit and the winding device are stopped, - the spinning unit and the winding device are stopped in the course of the stop sequence, such that the last yarn segment produced does not run fully onto the sleeve present in the winding device,
A method for operating an image display device which can perform data communication with a mobile terminal based on Near Field Communication, NFC, the method comprising: displaying an image on a display of the image display device; receiving device information of the mobile terminal via the data communication; sequentially receiving rotation angle information of the mobile terminal via the data communication; comparing the rotation angle information of the mobile terminal with a stored angle information pattern; and when the rotation angle information of the mobile terminal matches the stored angle information pattern while a broadcast image is displayed on the display, performing login operation of the image display device, after the login operation is completed, displaying a personal setting screen for a logged-in user. displaying an image on a display of the image display device; receiving device information of the mobile terminal via the data communication; sequentially receiving rotation angle information of the mobile terminal via the data communication; comparing the rotation angle information of the mobile terminal with a stored angle information pattern; and when the rotation angle information of the mobile terminal matches the stored angle information pattern while a broadcast image is displayed on the display, performing login operation of the image display device, after the login operation is completed, displaying a personal setting screen for a logged-in user.
A floor panel assembly comprising sheet-shaped floor panels (1, 2), which floor panels are provided with a plurality of edges (5, 6, 7, 8), a lower side and an upper side, whereby the floor panels (1, 2) are intended to be joined by means of joining members (11, 12, 13, 14), each floor panel (1, 2) being provided on at least a first edge with a first joining member and, on a second edge, with a second joining member, the first and second joining members (11, 12) of two panels (1, 2) being adapted to be joined by a movement of the two panels (1, 2) with their first and second edges (5, 6) towards to each other such that in the joined position the panels (1, 2) meet each other near their upper side along a seam, the first and second joining members (11, 12) locking the panels (1, 2) at the adjacent edges (5, 6) at least in a direction perpendicular to the upper side and in a direction parallel to the upper side but perpendicular to the adjacent first and second edges (5, 6) in their joined position, the first and second joining members (11, 12) being provided with at least one deformable locking element which is deformable, during said joining, from a first position allowing the first and second joining members to be joined, to a second position in which it locks the first and second joining members (11, 12) to each other, said locking element being provided with at least two hinges (37, 38) and in the joined position, a first end of the locking element is fixed to one of said first and second joining members (11, 12) and the second end is in engagement with the other one of said first and second joining members (11, 12), wherein the first and second joining members (11, 12) are configured as a male and female vertical joining member, the locking element being attached to the female vertical joining member, wherein the female vertical joining member comprises a lip protruding substantially parallel to and from the lower side of the panel at the second edge, characterized in that said lip has a depression which is at least locally covered by the locking element, said depression having an upright wall near the free end of the lip and the locking element being adjacent to this upright wall when the locking element is in its second position, wherein the male vertical joining member comprises a protrusion adapted to co-operate with the locking element at a position above the depression of the female vertical joining member.
A saddle-type vehicle, comprising an airbag apparatus mounted to the saddle-type vehicle and comprising an airbag to be deployed and inflated in a rider constraining area formed in front of a rider in case of a front collision of the saddle-type vehicle, the airbag being stored in an airbag storage body mounted to the vehicle, wherein the airbag is configured to be deployed and inflated with a constraining surface for constraining the rider at the time of complete deployment and inflation extending along a direction connecting the abdominal portion and the chest portion of the rider when constraining the rider, and wherein the airbag is configured such that it forms an abutment surface that comes into abutment with a fuel tank of the saddle-type vehicle on the vehicle-front side thereof with respect to the airbag storage body when being deployed and being inflated, and wherein the airbag, in the stored state, is folded toward the vehicle-front with respect to the airbag storage body in a rolled manner, so that the airbag is deployed and inflated, in terms of the vertical direction of a vehicle body of the saddle-type vehicle, not over the entire rider constraining area, but locally toward a lumbar part area of the rider constraining area, the lumbar part area being defined as an area upwardly of the femoral region of the rider and downwardly of a chest portion of the rider, characterized in that the airbag is configured such that it presses and holds the femoral region of the rider when fully inflated so that the rider is effectively prevented from rising up in case of a front collision of the vehicle.
A process for manufacturing a silicon ingot by seeded regrowth in a directional solidification furnace, comprising at least the steps consisting of: (i) providing a crucible of longitudinal axis, the bottom of which comprises a tiling of monocrystalline silicon seeds of straight prism shape, the tiling being formed: - from one or more central seeds G c; and - from one or more peripheral seeds G p, adjacent to the seed(s) G c; and (ii) carrying out the directional solidification of silicon by seeded regrowth, in a growth direction collinear to the axis; characterized in that a seed Gp has a crystal lattice symmetrical to the crystal lattice of the adjacent seed G c, relative to the plane P defined by the boundary between said seeds G p and Gc; at step (ii), the directional solidification is carried out with a spatially or temporally concave solidification front; said seed(s) G p having, in a vertical cutting plane, a width (l p) strictly smaller than the total width (l u) of said central seed(s); and the peripheral seeds G p being sized so that: l p = d − b with: - d satisfying: d ≥ H.tan θ max, wherein θ max is the maximum value of the angle θ of the solidification front of the furnace used, and H is the desired height, measured along the axis, of the silicon ingot; and - b=0 for a crucible with right angles, and b=R internal crucible, wherein R internal crucible is the size of the bevel for a crucible with rounded edges. (i) providing a crucible of longitudinal axis, the bottom of which comprises a tiling of monocrystalline silicon seeds of straight prism shape, the tiling being formed: - from one or more central seeds G c; and - from one or more peripheral seeds G p, adjacent to the seed(s) G c; and - from one or more central seeds G c; and - from one or more peripheral seeds G p, adjacent to the seed(s) G c; and (ii) carrying out the directional solidification of silicon by seeded regrowth, in a growth direction collinear to the axis; - d satisfying: d ≥ H.tan θ max, wherein θ max is the maximum value of the angle θ of the solidification front of the furnace used, and H is the desired height, measured along the axis, of the silicon ingot; and - b=0 for a crucible with right angles, and b=R internal crucible, wherein R internal crucible is the size of the bevel for a crucible with rounded edges.