mhurhangee/ep-ind-claims huggingface dataset:
A spectroscopy system, comprising: an optical fiber; a plasmonic tip coupled with the optical fiber and configured to be energized into a plasmonic mode, the plasmonic tip comprising a plasmonic material; a controller operatively coupled to the optical fiber and configured to control an electromagnetic radiation source to provide one or more frequencies to the optical fiber as an excitation electromagnetic radiation, the frequency being at a plasmonic resonance with the plasmonic tip to transmit the excitation electromagnetic radiation through the optical fiber to the tip and at the tip across a space to a sample; a receiver operatively coupled to the optical fiber and configured to receive a signal electromagnetic radiation from the tip through the optical fiber, the signal electromagnetic radiation being collected from the sample and being different from the excitation electromagnetic radiation; characterized in that the plasmonic material is configured to be energized with a bias voltage to tune material properties of the plasmonic material such as to change the plasmonic resonance of the tip and in that the controller comprises a power supply configured to apply a first bias voltage to plasmonic material of the tip and tune the plasmonic resonance of the tip. an optical fiber; a plasmonic tip coupled with the optical fiber and configured to be energized into a plasmonic mode, the plasmonic tip comprising a plasmonic material; a controller operatively coupled to the optical fiber and configured to control an electromagnetic radiation source to provide one or more frequencies to the optical fiber as an excitation electromagnetic radiation, the frequency being at a plasmonic resonance with the plasmonic tip to transmit the excitation electromagnetic radiation through the optical fiber to the tip and at the tip across a space to a sample; a receiver operatively coupled to the optical fiber and configured to receive a signal electromagnetic radiation from the tip through the optical fiber, the signal electromagnetic radiation being collected from the sample and being different from the excitation electromagnetic radiation; characterized in that the plasmonic material is configured to be energized with a bias voltage to tune material properties of the plasmonic material such as to change the plasmonic resonance of the tip and in that the controller comprises a power supply configured to apply a first bias voltage to plasmonic material of the tip and tune the plasmonic resonance of the tip.
A tire sensor fixed in a screwing manner, comprising: a sensor module attached to an inner surface of a tread of a tire to detect conditions of the tire; a sensor casing formed to surround the sensor module; and a sensor fixture comprising a fixing screw to attach the sensor casing to the inner surface of the tread of the tire, wherein the fixing screw is turned in a screwing manner to fixedly attach the sensor casing to the inner surface of the tread of the tire, characterized in that one of an adhesive, a sticking agent, and a sealant is additionally coated on a lower surface of the sensor casing and a surface of the sensor fixture. a sensor module attached to an inner surface of a tread of a tire to detect conditions of the tire; a sensor casing formed to surround the sensor module; and a sensor fixture comprising a fixing screw to attach the sensor casing to the inner surface of the tread of the tire, wherein the fixing screw is turned in a screwing manner to fixedly attach the sensor casing to the inner surface of the tread of the tire, characterized in that one of an adhesive, a sticking agent, and a sealant is additionally coated on a lower surface of the sensor casing and a surface of the sensor fixture.
A mobile earth working machine, for example a road milling machine, recycler, or surface miner, encompassing: - a working apparatus for material-removing working of a region of a substrate; and - an extraction device that is embodied to extract dust-laden air from at least one machine region at at least one extraction location, and to exhaust extracted air at a discharge location different from the extraction location, the extraction device comprising a filter apparatus arranged along an operational flow path from the at least one extraction location to the discharge location, the filter apparatus encompassing: - a filter housing; - a filter element received in the filter housing, the filter element being embodied to remove dust particles from the air flowing through the filter apparatus; and - a cleaning apparatus that is embodied to remove from the filter element dust particles that accumulate on the filter element during filtering operation, characterized in that the filter element is received in the filter housing rotatably around a rotation axis, the filter apparatus comprising a rotary drive system that is embodied to impart rotation to the filter element. - a working apparatus for material-removing working of a region of a substrate; and - an extraction device that is embodied to extract dust-laden air from at least one machine region at at least one extraction location, and to exhaust extracted air at a discharge location different from the extraction location, - a filter housing; - a filter element received in the filter housing, the filter element being embodied to remove dust particles from the air flowing through the filter apparatus; and - a cleaning apparatus that is embodied to remove from the filter element dust particles that accumulate on the filter element during filtering operation,
Method for manufacturing an artificial climbing structure, comprising the steps of: a) providing a framework, suitable for supporting the artificial climbing structure; b) mounting at least one structural panel on the framework; c) providing at least one coating panel, comprising patterns (30, 31), the coating panel or panels having a total surface defining the set and the theme of the artificial climbing structure; d) mounting the coating panel on the structural panel removably, the coating panel being conformed geometrically to cover at least 50% of the surface of the structural panel; e) mounting at least one climbing grip on the coating panel; f) fixing the climbing grip to the structural panel, through the coating panel, and removably. a) providing a framework, suitable for supporting the artificial climbing structure; b) mounting at least one structural panel on the framework; c) providing at least one coating panel, comprising patterns (30, 31), the coating panel or panels having a total surface defining the set and the theme of the artificial climbing structure; d) mounting the coating panel on the structural panel removably, the coating panel being conformed geometrically to cover at least 50% of the surface of the structural panel; e) mounting at least one climbing grip on the coating panel; f) fixing the climbing grip to the structural panel, through the coating panel, and removably.
A system for detection of neutrons and gamma rays, comprising: a scintillator screen comprising thermal neutron absorber material, said material interacting with neutrons to emit heavy particles, and said heavy particles interacting with said scintillator screen to produce light, a light guide into which said scintillator screen is embedded, said light guide serving as a neutron moderating medium, a first photodetector which receives the produced light through said light guide, and converts the light to a measurable signal, a further scintillator producing light on interaction with gamma-rays, a second photodetector which collects the produced light from said further scintillator, and converts the light to a measurable signal; characterized in that the system further comprises: a reflector placed between said further scintillator and said scintillator screen to prevent cross-contamination between optical signals from said scintillator screen and said further scintillator. a scintillator screen comprising thermal neutron absorber material, said material interacting with neutrons to emit heavy particles, and said heavy particles interacting with said scintillator screen to produce light, a light guide into which said scintillator screen is embedded, said light guide serving as a neutron moderating medium, a first photodetector which receives the produced light through said light guide, and converts the light to a measurable signal, a further scintillator producing light on interaction with gamma-rays, a second photodetector which collects the produced light from said further scintillator, and converts the light to a measurable signal; characterized in that the system further comprises: a reflector placed between said further scintillator and said scintillator screen to prevent cross-contamination between optical signals from said scintillator screen and said further scintillator.
An ink-jet ink comprising: a) a liquid vehicle; b) a colorant dispersed or dissolved in the liquid vehicle; c) a high T g polymer having a T g of 45°C to 125°C dispersed in the liquid vehicle, wherein T g is the glass transition temperature as calculated by the Fox equation and the high T g polymer is a hydrophobic latex polymer prepared from copolymerized monomers comprising a hydrophobic monomer present in an amount of 50 wt% to 98 wt%, an acid monomer present in an amount of 0.5 wt% to 30 wt%, and a cross-linking agent present in an amount of 0.1 wt% to 15 wt%; and d) a near-infrared absorbing dye in the liquid vehicle, wherein the ink is configured such that when printed on a substrate and irradiated with a near-infrared energy source, the near-infrared absorbing dye generates enough heat to uniformly melt the high T g polymer, thereby enhancing the durability of the ink-jet ink printed on the substrate; wherein the near infrared absorbing dye is a water soluble near-infrared absorbing dye selected from the group consisting of: and mixtures thereof, wherein M is a divalent metal atom or has OSO 3 Z axial groups filling any unfilled valencies if the metal is more than divalent, R is substituted or unsubstituted C1-C8 alkyl, and Z is a counterion such that the overall charge of the near-infrared absorbing dye is neutral; or wherein the near-infrared absorbing dye is a hydrophobic near-infrared absorbing dye selected from the group consisting of: and mixtures thereof, wherein M is a divalent metal atom or is a metal that has Cl, Br, OR' axial groups filling any unfilled valencies if the metal is more than divalent, R is substituted or unsubstituted C1-C8 alkyl, and R' is H, CH 3, COCH 3, COCH 2 COOCH 3, or COCH 2 COCH 3. a) a liquid vehicle; b) a colorant dispersed or dissolved in the liquid vehicle; c) a high T g polymer having a T g of 45°C to 125°C dispersed in the liquid vehicle, wherein T g is the glass transition temperature as calculated by the Fox equation and the high T g polymer is a hydrophobic latex polymer prepared from copolymerized monomers comprising a hydrophobic monomer present in an amount of 50 wt% to 98 wt%, an acid monomer present in an amount of 0.5 wt% to 30 wt%, and a cross-linking agent present in an amount of 0.1 wt% to 15 wt%; and d) a near-infrared absorbing dye in the liquid vehicle,
Earthing clip formed of a one-piece metal plate having an elastically deformable U-shape defined by "first" and "second" flanges (2, 3) interconnected by a base, the "first" and "second" flanges (2, 3) and said base defining a longitudinal slot adapted to receive an edge of a support, said "first" and "second" flanges (2, 3) being crossed by a transverse slot substantially perpendicular to said longitudinal slot and adapted to receive an earth wire having a conductive core and an insulative sheath, said longitudinal slot and said transverse slot open on the same side of said earthing clip so that when said earthing clip is in place on said support said earth wire is wedged between said support and the end of said transverse slot, while on at least one "first" flange portion the width of said longitudinal slot increases toward said base and simultaneously, on at least one "first" portion of said "first" flange portion, the width of said transverse slot decreases to cut said insulative sheath upon insertion of said earth wire in said transverse slot, characterized in that at least said "first" flange includes at least one "first" cut-out defining a "first" flap bent toward the interior of said longitudinal slot and the free end of which is designed, once said earthing clip is in place, to come into contact with said support to facilitate retaining said earthing clip on said support, in that said "second" flange includes at least one "second" cut-out defining a "second" flap bent toward the interior of said longitudinal slot and the free end of which is designed, once said earthing clip is in place, to come into contact with said support to facilitate retaining said earthing clip on said support, said "second" cut-out being offset toward said base with respect to said "first" cut-out, in that said "first" flange includes at least one "third" cut-out defining a "third" flap bent toward the interior of said longitudinal slot and adapted to form a stop for limiting the depth of engagement of said support in said longitudinal slot, and in that said "second" cut-out is between said "first" and "third" cut-outs (20, 22).
A DC electrical power network having a DC electrical power system and one or more further DC electrical power systems; the DC electrical power system having: a power generator converter system (6, 7, 16, 17); a positive supply rail (9, 19) extending from the converter system; a negative supply rail (9, 19) extending from the converter system; a midpoint earthing arrangement operatively connected to the supply rails, the earthing arrangement being connected to earth by a solid earth connection (10, 20); a first protective device (11, 21) on one of the supply rails which in case of a fault is operable to interrupt current flowing on that rail; and a second protective device (12, 22) on the earthing arrangement which in case of a fault is operable to interrupt current flowing to earth through the solid earth connection; and each further DC electrical power system having: a further power generator converter system; a positive supply rail extending from each further converter system; and a negative supply rail extending from each further converter system; wherein: the midpoint earthing arrangement is operatively connected to the supply rails of each further converter system, and a further protective device is located on only one of the supply rails of each further converter system, which further protective device in case of a fault is operable to interrupt current flowing on that rail. a power generator converter system (6, 7, 16, 17); a positive supply rail (9, 19) extending from the converter system; a negative supply rail (9, 19) extending from the converter system; a midpoint earthing arrangement operatively connected to the supply rails, the earthing arrangement being connected to earth by a solid earth connection (10, 20); a first protective device (11, 21) on one of the supply rails which in case of a fault is operable to interrupt current flowing on that rail; and a second protective device (12, 22) on the earthing arrangement which in case of a fault is operable to interrupt current flowing to earth through the solid earth connection; and a further power generator converter system; a positive supply rail extending from each further converter system; and a negative supply rail extending from each further converter system; wherein: the midpoint earthing arrangement is operatively connected to the supply rails of each further converter system, and a further protective device is located on only one of the supply rails of each further converter system, which further protective device in case of a fault is operable to interrupt current flowing on that rail. the midpoint earthing arrangement is operatively connected to the supply rails of each further converter system, and a further protective device is located on only one of the supply rails of each further converter system, which further protective device in case of a fault is operable to interrupt current flowing on that rail.
A method of assessing a condition of a fluid conduit, the method comprising: providing a measurement apparatus comprising at least one wideband acoustic transducer internally of the fluid conduit; transmitting a wideband acoustic signal comprising a plurality of stacked frequency chirps from the measurement apparatus to excite at least a portion of the fluid conduit; wherein the wideband acoustic signal comprises a first chirp having a first frequency range, and a second chirp having a second frequency range, higher than the first frequency range; and wherein the first and second chirps overlap in time for greater than 50% of the duration of the first chirp; receiving a wideband acoustic signal in the measurement apparatus to obtain a wideband acoustic data set; and analysing the wideband acoustic data set by comparing the wideband acoustic data set with a database of wideband acoustic data signatures to assess the condition of the fluid conduit; wherein the wideband acoustic signal comprises frequencies in the range of 10 kHz to 150 kHz. providing a measurement apparatus comprising at least one wideband acoustic transducer internally of the fluid conduit; transmitting a wideband acoustic signal comprising a plurality of stacked frequency chirps from the measurement apparatus to excite at least a portion of the fluid conduit; wherein the wideband acoustic signal comprises a first chirp having a first frequency range, and a second chirp having a second frequency range, higher than the first frequency range; and wherein the first and second chirps overlap in time for greater than 50% of the duration of the first chirp; receiving a wideband acoustic signal in the measurement apparatus to obtain a wideband acoustic data set; and analysing the wideband acoustic data set by comparing the wideband acoustic data set with a database of wideband acoustic data signatures to assess the condition of the fluid conduit; wherein the wideband acoustic signal comprises frequencies in the range of 10 kHz to 150 kHz.
A steel cord for reinforcing rubber products comprising at least one core strand and a plurality of outer strands, said plurality of outer strands being helically twisted around said at least one core strand, each of said strands (12,14) comprising a plurality of core steel filaments (16, 20) with the number of m and a plurality of outer steel filaments (18, 22) with the number of n, said outer steel filaments (18, 22) being helically twisted around said core steel filaments (16, 20), the diameter of said core steel filaments in said core strand being Dcc, the diameter of said outer steel filaments in said core strand being Doc, the diameter of said core steel filaments in said outer strand being Dco, the diameter of said outer steelfilaments in said outer strand being Doo, the ratio of said Doc/Dco is equal to or more than 1, characterized in that the ratio of said Dcc/Doc is between 1.06 and 1.14, the ratio of said Dco/Doo is between 1.07 and 1.15, all said core steel filaments (16, 20) and all said outer steel filaments (18, 22) are polygonally preformed before being twisted into strands (12, 14) the carbon content of said steel filaments (16, 18, 20, 22) being equal to or more than 0.7%.
A plug connector (10a-c), in particular optical plug connector, with a plug unit (12a-c) comprising at least one plug element (14a-c, 16a-c) which has at least one locking element (18a, 20a), and with an actuation unit (22a-c) comprising at least one actuation element (24a-b, 26a-b) which is translationally displaceable with respect to the plug unit (12a-c) for the purpose of actuating the locking element (18a, 20a), wherein the actuation unit (22a-c) comprises at least one additional actuation element (28a-b) which is translationally displaceable with respect to the plug unit (12a-c) for the purpose of actuating the locking element (18a,20a) and is connected to the at least one actuation element (24a-b, 26a-b) and thereby indirectly connected to the locking element (18a,20a), the additional actuation element (28a-b) being embodied as a cable anti-kink element, characterized in that the additional actuation element (28a-b) is embodied separate from the actuation element (24a-b, 26a-b) and connected thereto in a force fit and/or form fit fashion.
A method comprising: a) providing a biological sample from a subject having bladder cancer; b) measuring levels of expression in the biological sample of genes BAMBI, SPINK1, TIMP2, GRHL3, ERBB2, SAA1, TGFBI, UPK3A, VIM, PAQR7, TMEM45B, LAMC2, FLRT3, TNFRSF21, ATP8B1, BGN, TACSTD2, LRRC37A2, CPSF6, PLP2, SAMD9, ZNF486, DCN, FBP1, EFEMP1, TPM2, MALL, TMPRSS2, MYL9, HLA-DRA, C3, IGFL1, KRT7, CTSK, SYTL2, MMP2, GBP5, SPRR2F, IER3, KRT23, GJB2, PLXNB2, TMSB10, ITGA6, HIST1H2BF, TBX3, PPARG, FGFBP1, ZNF91, ACOX1, MAL, STS, SERPINB3, TOX3, TWIST2, HLA-A, SCCPDH, CYP4Z2P, GSTM2, SNAI2, ACTG2, UGT1A8, IFITM2, DDIT4, MGP, CRISP3, UGT1A3, SNCG, SEMA5A, PTPRM, RNF128, POSTN, LAPTM5, MMP1, ASPN, SULF1, TNC, DSP, ADAM10, CD74, SCNN1B, TIMP3, CASP14, S100P, PVRL4, IGFBP3, MMP13, GABRP, MUC16, COL3A1, RNF138P1, IFI30, CFH, LYZ, AHR, BTBD16, LUM, NQO1, MACC1, TIMP1, GBP1, SFRP2, DUSP1, KRT8, UGT1A4, GOS2, UGT1A1, CGB2, TPX2, EPCAM, NDRG1, SNX31, GATA3, PSCA, KRT5, OLFM4, CALD1, VCAN, EHF, MT1L, PTN, DHRS2, UPK1B, GSTM3, UPK2, MMP12, ACER2, MYH11, SLC14A1, SPARCL1, HPGD, HLA-DRB5, COL1A2, ELF3, THBS2, CD68, RALBP1, CLDN1, CCL5, SAT1, KRT18, SPP1, CXCL17, UGT1A5, ANXA1, AHNAK, UGT1A10, AGR2, and RARRES1; and c) subtyping the bladder cancer of the subject according to a genomic subtyping classifier based on the levels of expression of the plurality of genes, wherein said subtyping comprises assigning the bladder cancer to one of four subtypes selected from the group consisting of a claudin-low subtype, a basal subtype, a luminal-infiltrated subtype, and a luminal non-infiltrated subtype. a) providing a biological sample from a subject having bladder cancer; b) measuring levels of expression in the biological sample of genes BAMBI, SPINK1, TIMP2, GRHL3, ERBB2, SAA1, TGFBI, UPK3A, VIM, PAQR7, TMEM45B, LAMC2, FLRT3, TNFRSF21, ATP8B1, BGN, TACSTD2, LRRC37A2, CPSF6, PLP2, SAMD9, ZNF486, DCN, FBP1, EFEMP1, TPM2, MALL, TMPRSS2, MYL9, HLA-DRA, C3, IGFL1, KRT7, CTSK, SYTL2, MMP2, GBP5, SPRR2F, IER3, KRT23, GJB2, PLXNB2, TMSB10, ITGA6, HIST1H2BF, TBX3, PPARG, FGFBP1, ZNF91, ACOX1, MAL, STS, SERPINB3, TOX3, TWIST2, HLA-A, SCCPDH, CYP4Z2P, GSTM2, SNAI2, ACTG2, UGT1A8, IFITM2, DDIT4, MGP, CRISP3, UGT1A3, SNCG, SEMA5A, PTPRM, RNF128, POSTN, LAPTM5, MMP1, ASPN, SULF1, TNC, DSP, ADAM10, CD74, SCNN1B, TIMP3, CASP14, S100P, PVRL4, IGFBP3, MMP13, GABRP, MUC16, COL3A1, RNF138P1, IFI30, CFH, LYZ, AHR, BTBD16, LUM, NQO1, MACC1, TIMP1, GBP1, SFRP2, DUSP1, KRT8, UGT1A4, GOS2, UGT1A1, CGB2, TPX2, EPCAM, NDRG1, SNX31, GATA3, PSCA, KRT5, OLFM4, CALD1, VCAN, EHF, MT1L, PTN, DHRS2, UPK1B, GSTM3, UPK2, MMP12, ACER2, MYH11, SLC14A1, SPARCL1, HPGD, HLA-DRB5, COL1A2, ELF3, THBS2, CD68, RALBP1, CLDN1, CCL5, SAT1, KRT18, SPP1, CXCL17, UGT1A5, ANXA1, AHNAK, UGT1A10, AGR2, and RARRES1; and c) subtyping the bladder cancer of the subject according to a genomic subtyping classifier based on the levels of expression of the plurality of genes, wherein said subtyping comprises assigning the bladder cancer to one of four subtypes selected from the group consisting of a claudin-low subtype, a basal subtype, a luminal-infiltrated subtype, and a luminal non-infiltrated subtype.