mhurhangee/ep-ind-claims huggingface dataset:
A cable (100, 200, 300) comprising: a cable body portion; a connector portion attached to a longitudinal end portion of the cable body portion; and a tube-shaped cable holder (106, 206, 306) which covers at least one circumferential surface of the connector portion and the cable body portion, wherein the cable holder (106, 206, 306) is disposed in the vicinity of the cable body portion and the connector portion, with its rotational axis coincident with the central axis of the cable body portion, and wherein the cable holder (106, 206, 306) is rotatably attached to the connector portion via a ring which is coupled to a continuous ring groove (104M, 106M) being formed in a circumferential direction on an outer circumferential surface of the connector portion and an inner circumferential surface of the cable holder, or via a ball bearing comprising a plurality of balls being provided in the continuous ring groove (104M, 106M) between the cable holder and the connector portion, the cable holder (106, 206, 306) being provided to be entirely or partially rotatable, in 360° or more in a circumferential direction, about a central axis line of the cable body portion relative to the cable body portion, and to be held by an operator when connected to the connector portion. a cable body portion; a connector portion attached to a longitudinal end portion of the cable body portion; and a tube-shaped cable holder (106, 206, 306) which covers at least one circumferential surface of the connector portion and the cable body portion, wherein the cable holder (106, 206, 306) is disposed in the vicinity of the cable body portion and the connector portion, with its rotational axis coincident with the central axis of the cable body portion, and wherein the cable holder (106, 206, 306) is rotatably attached to the connector portion via a ring which is coupled to a continuous ring groove (104M, 106M) being formed in a circumferential direction on an outer circumferential surface of the connector portion and an inner circumferential surface of the cable holder, or via a ball bearing comprising a plurality of balls being provided in the continuous ring groove (104M, 106M) between the cable holder and the connector portion, a ring which is coupled to a continuous ring groove (104M, 106M) being formed in a circumferential direction on an outer circumferential surface of the connector portion and an inner circumferential surface of the cable holder, or via a ball bearing comprising a plurality of balls being provided in the continuous ring groove (104M, 106M) between the cable holder and the connector portion, the cable holder (106, 206, 306) being provided to be entirely or partially rotatable, in 360° or more in a circumferential direction, about a central axis line of the cable body portion relative to the cable body portion, and to be held by an operator when connected to the connector portion.
A chip, wherein the chip is installable on an ink cartridge, and the ink cartridge is installable in an installation portion of a printer along an installation direction; the chip comprises a memory, first contact portions (201a, 204a, 205a, 209a) to be used for installation detection, and second contact portions (202a, 203a, 206a, 207a, 208a); at least one second contact portion is electrically connected to the memory; and the first contact portions (201a, 204a, 205a, 209a) and the second contact portions (202a, 203a, 206a, 207a, 208a) are respectively in contact with a stylus in the printer, wherein the first contact portions (201a, 204a, 205a, 209a) are arranged in a plurality of lines (L11, L12) in the installation direction; wherein in the installation direction, one or more lines (L21, L22) formed by the second contact portions (202a, 203a, 206a, 207a, 208a) are disposed between the plurality of lines (L11, L12) formed by the first contact portions (201a, 204a, 205a, 209a), or the plurality of lines (L11, L12) formed by the first contact portions (201a, 204a, 205a, 209a) are disposed between a plurality of lines (L21, L22) formed by the second contact portions (202a, 203a, 206a, 207a, 208a); characterized in that the first contact portions (201a, 204a, 205a, 209a) and the second contact portions (202a, 203a, 206a, 207a, 208a) are arranged in different lines (L11, L12, L21, L22). in the installation direction, one or more lines (L21, L22) formed by the second contact portions (202a, 203a, 206a, 207a, 208a) are disposed between the plurality of lines (L11, L12) formed by the first contact portions (201a, 204a, 205a, 209a), or the plurality of lines (L11, L12) formed by the first contact portions (201a, 204a, 205a, 209a) are disposed between a plurality of lines (L21, L22) formed by the second contact portions (202a, 203a, 206a, 207a, 208a); characterized in that the first contact portions (201a, 204a, 205a, 209a) and the second contact portions (202a, 203a, 206a, 207a, 208a) are arranged in different lines (L11, L12, L21, L22).
A plate heat exchanger for exchanging heat between media, the heat exchanger comprising a number of stacked plates (A, B, C, D), the plates being provided with a first, large scale pressed pattern comprising ridges and grooves intended to keep first (A, B) and second (C, D) pairs of stacked plates on a distance from one another, such that flow channels for a first medium is formed in spaces between said plate pairs, and to provide contact points between the plate pairs in points where the large scale pressed pattern of neighboring plate pairs contact one another, characterized in that the plates of each plate pair (A, B; C,D) are kept on a distance from one another by a small-scale pressed pattern comprising ridges (r) and grooves (g) and in that the heat exchanger plates are arranged such that a heat exchanger pair comprising the heat exchanger plates and is arranged such that the ridges and grooves of the large scale pressed pattern run parallel and synchronously with each other and the plates and form another pair of heat exchanger plates wherein the ridges and grooves run parallel and synchronously with each other.
A high-strength hot-rolled steel strip orsheet with maximum tensile strength of 570 to 870 MPa and an excellent combination of total elongation, stretch-flange formability, and fatigue resistance, comprising (in weight percent): • between 0.015 and 0.075% C; • between 1.0 and 2.0% Mn; • between 0.02 and 0.30% V; • optionally between 0.01 and 0.08% Nb; • at most 0.5% Si; • at most 0.06% P; • at most 0.01% S; • at most 0.1% Al_sol; • at most 0.020% N; • balance of Fe and inevitable impurities; wherein the contents of Nb, V, Al_sol, C and N (in weight percent) satisfy <eq.1> and <eq.2>: 0.9 ≤ Nb 93 + V 51 + Al _ sol 27 C 12 + N 14 ≤ 2.2 0.9 ≤ Nb 93 + V 51 C 12 ≤ 2.0 wherein the steel sheet has a precipitation-strengthened and predominantly single-phase ferritic microstructure, wherein the microstructure is free of carbon-rich microstructural components, such as pearlite orcementite, in which the fraction of ferrite is not lower than 97%. • between 0.015 and 0.075% C; • between 1.0 and 2.0% Mn; • between 0.02 and 0.30% V; • optionally between 0.01 and 0.08% Nb; • at most 0.5% Si; • at most 0.06% P; • at most 0.01% S; • at most 0.1% Al_sol; • at most 0.020% N; • balance of Fe and inevitable impurities;
A multilayer structure comprising layer A: a substrate layer selected from a thermoplastic plastic, metal or glass, layer B: a barrier layer selected from titanium or the group of the noble metals, layer C: metallic reflector layer, layer D: optionally an oxidic layer selected from aluminium oxide (AlOx), titanium dioxide, SiO 2, Ta 2 O 5, ZrO 2, Nb 2 O 5 and HfO, layer E: a) is a plasma polymer layer (anticorrosion layer) deposited from siloxane precursors or in the case where layer D is aluminium oxide or SiO 2, layer E is b) a highly refractive metal oxide layer, the metal oxides being selected from titanium dioxide, SiO 2, Ta 2 O 5, ZrO 2, Nb 2 O 5 and HfO, or can be SiO 2, and a further layer according to layer E (a), a plasma polymer layer, can optionally be applied, layer F: wherein layer F is sol-gel lacquers which are prepared by hydrolysis of aqueous dispersions of colloidal silicon dioxide and an organoalkoxysilane and/or an alkoxysilane or mixtures of organoalkoxysilanes of the general formula RSi(OR')3 and/or alkoxysilanes of the general formula Si(OR')4, wherein in the organoalkoxysilane(s) of the general formula RSi(OR')3 R represents a monovalent C1- to C6-alkyl radical or a wholly or partially fluorinated C1-C6-alkyl radical, a vinyl unit or an allyl unit, an aryl radical or a C1-C6-alkoxy group and wherein this layer F does not contain any UV absorber. a) is a plasma polymer layer (anticorrosion layer) deposited from siloxane precursors or in the case where layer D is aluminium oxide or SiO 2, layer E is b) a highly refractive metal oxide layer, the metal oxides being selected from titanium dioxide, SiO 2, Ta 2 O 5, ZrO 2, Nb 2 O 5 and HfO, or can be SiO 2, and a further layer according to layer E (a), a plasma polymer layer, can optionally be applied, wherein layer F is sol-gel lacquers which are prepared by hydrolysis of aqueous dispersions of colloidal silicon dioxide and an organoalkoxysilane and/or an alkoxysilane or mixtures of organoalkoxysilanes of the general formula RSi(OR')3 and/or alkoxysilanes of the general formula Si(OR')4, wherein in the organoalkoxysilane(s) of the general formula RSi(OR')3 R represents a monovalent C1- to C6-alkyl radical or a wholly or partially fluorinated C1-C6-alkyl radical, a vinyl unit or an allyl unit, an aryl radical or a C1-C6-alkoxy group and wherein this layer F does not contain any UV absorber.
An inertial particle separator (102, 200) comprising: an intake air duct having a first end and a second end downstream the first end, the intake air duct configured to pass a flow of intake air from the first end to the second end; a scavenge duct proximate the second end of the intake air duct, wherein the intake air duct and the scavenge duct share an interior common wall; a clean air duct proximate the second end of the intake air duct; a splitter configured to split the flow of intake air into a flow of scavenge air to pass through the scavenge duct and a flow of clean air to pass through the clean air duct; a plurality of valleys disposed on the intake air duct within a valley region, the plurality of valleys having a plurality of troughs (432, 434, 436, 438, 440) and peaks (422, 424, 426, 428, 430) along the interior common wall, wherein each trough (432, 434, 436, 438, 440) of the plurality of valleys extends along a direction of the flow of intake air; characterized in that a first end of at least one valley of the plurality of valleys is positioned in a region of the intake air duct where, in use, the flow of intake air is substantially at a maximum velocity. an intake air duct having a first end and a second end downstream the first end, the intake air duct configured to pass a flow of intake air from the first end to the second end; a scavenge duct proximate the second end of the intake air duct, wherein the intake air duct and the scavenge duct share an interior common wall; a clean air duct proximate the second end of the intake air duct; a splitter configured to split the flow of intake air into a flow of scavenge air to pass through the scavenge duct and a flow of clean air to pass through the clean air duct; a plurality of valleys disposed on the intake air duct within a valley region, the plurality of valleys having a plurality of troughs (432, 434, 436, 438, 440) and peaks (422, 424, 426, 428, 430) along the interior common wall, wherein each trough (432, 434, 436, 438, 440) of the plurality of valleys extends along a direction of the flow of intake air; characterized in that a first end of at least one valley of the plurality of valleys is positioned in a region of the intake air duct where, in use, the flow of intake air is substantially at a maximum velocity.
Blade wheel of an axial turbomachine, which blade wheel has: - a multiplicity of blades (56-69, 76-77) which form a blade row and are suitable and provided for extending in a flow path of the axial turbomachine that is radially outwardly delimited by an outer flow path boundary and radially inwardly delimited by an inner flow path boundary, wherein the blades (56-59, 76-77) are configured so as to be adjustable in terms of their stagger angle, - wherein the blades (56-59, 76-77) have first partial gaps (81, 811-816)) for the outer flow path boundary and/or second partial gaps for the inner flow path boundary, - wherein the first partial gaps (81, 811-816) and the second partial gaps in each case do not extend over the entire axial length of the blades (56-59, 76-77), but only over a partial length, - wherein the partial gaps (81, 811-816, 82) are specified and provided to enable a change in the stagger angle of the blades (56-59, 76-77), characterized in that the multiplicity of blades (56-59, 76-77) form N blocks (B j, B k) of blades with N ≥ 2, wherein - the blades (56-59, 76-77) of a block (B j, B k) have in each case identically configured partial gaps (81, 811-816, 82), and - the blades (56-59, 76-77) of at least two mutually adjacent blocks (B j, B k) have dissimilarly configured partial gaps (81, 811-816, 82). - a multiplicity of blades (56-69, 76-77) which form a blade row and are suitable and provided for extending in a flow path of the axial turbomachine that is radially outwardly delimited by an outer flow path boundary and radially inwardly delimited by an inner flow path boundary, wherein the blades (56-59, 76-77) are configured so as to be adjustable in terms of their stagger angle, - wherein the blades (56-59, 76-77) have first partial gaps (81, 811-816)) for the outer flow path boundary and/or second partial gaps for the inner flow path boundary, - wherein the first partial gaps (81, 811-816) and the second partial gaps in each case do not extend over the entire axial length of the blades (56-59, 76-77), but only over a partial length, - wherein the partial gaps (81, 811-816, 82) are specified and provided to enable a change in the stagger angle of the blades (56-59, 76-77), - the blades (56-59, 76-77) of a block (B j, B k) have in each case identically configured partial gaps (81, 811-816, 82), and - the blades (56-59, 76-77) of at least two mutually adjacent blocks (B j, B k) have dissimilarly configured partial gaps (81, 811-816, 82).
A continuous process for forming at least one constituent, selected from metallic-based nanoparticles and/or metallic ions, in at least one liquid comprising: flowing at least one liquid through at least one trough member, said at least one liquid having a surface and a flow direction; providing at least one plasma-forming electrode which is metallic-based or non-metallic-based; creating a plasma between said at least one plasma-forming electrode and at least a portion of said surface of said at least one flowing liquid; providing at least one set of metallic-based electrodes in contact with said at least one flowing liquid, and located downstream in said flow direction from said at least one plasma-forming electrode; wherein said at least one set of metallic-based electrodes comprises at least one material selected from the group consisting of platinum, titanium, zinc, silver, copper, gold and alloys thereof; and conducting at least one electrochemical reaction at said at least one set of metallic-based electrodes, to produce said at least one metallic-based constituent within said at least one flowing liquid; wherein the at least one liquid comprises water. flowing at least one liquid through at least one trough member, said at least one liquid having a surface and a flow direction; providing at least one plasma-forming electrode which is metallic-based or non-metallic-based; creating a plasma between said at least one plasma-forming electrode and at least a portion of said surface of said at least one flowing liquid; providing at least one set of metallic-based electrodes in contact with said at least one flowing liquid, and located downstream in said flow direction from said at least one plasma-forming electrode; wherein said at least one set of metallic-based electrodes comprises at least one material selected from the group consisting of platinum, titanium, zinc, silver, copper, gold and alloys thereof; and conducting at least one electrochemical reaction at said at least one set of metallic-based electrodes, to produce said at least one metallic-based constituent within said at least one flowing liquid; wherein the at least one liquid comprises water.
Method for the electrochemical preparation of alkanedicarboxylic acids by ring-opening oxidation in aqueous alkaline solution, characterized in that the oxidation is carried out at a Ni OH foam electrode doped with elements of main group 5 and/or 6, wherein the Ni OH foam electrode comprises 2 to 10% by weight phosphorus, phosphorus here being considered as an element, and based on the metal mass of the electrode, according to scheme where represents a single or double bond, R accordingly being present or not, where R is hydrogen or an acyl radical, wherein the acyl radical is the radical of an aliphatic monocarboxylic acid having 2 to 8 carbon atoms and where A is a hydrocarbon having 4 to 30 carbon atoms, in which all ring carbons of A in the cyclic reactant of scheme bear at least one hydrogen substituent. where represents a single or double bond, R accordingly being present or not, where R is hydrogen or an acyl radical, wherein the acyl radical is the radical of an aliphatic monocarboxylic acid having 2 to 8 carbon atoms and where A is a hydrocarbon having 4 to 30 carbon atoms, in which all ring carbons of A in the cyclic reactant of scheme bear at least one hydrogen substituent.
A detachable handle for adjusting a valve by rotation of a rotatable adjustment element of said valve about a rotation axis, said detachable handle comprises a body, said detachable handle is provided with a coupling element that is configured to be detachably and operably connectable to said rotatable adjustment element, said body has a front side and opposite rear side and a circumferential gripping face, said front side is provided with an angular scale, characterized in that said coupling element comprises a slot in said body that opens to said rear side, said coupling element being configured such that the detachable handle can only be coupled in one angular position to said rotatable adjustment element, at least a portion of said body along an edge of said angular scale is transparent or open so that an operator of the handle can see through said portion of said body when said detachable handle is coupled to said rotatable adjustment member.
A method for cell separation, comprising: (a) plating an umbilical cord blood sample on a surface; (b) allowing adhesion of cells in said umbilical cord blood sample to said surface for about 5 minutes, about 10 minutes, about 15 minutes, about 20 minutes, about 25 minutes, about 30 minutes, about 35 minutes, about 40 minutes, about 45 minutes, about 50 minutes, about 55 minutes, or about 60 minutes, to generate an adherent fraction and a non-adherent fraction of said umbilical cord blood sample; and (c) separating said non-adherent fraction from said adherent fraction, wherein said non-adherent fraction comprises a hematogenic progenitor cell or a hematopoetic stem cell, and wherein said adherent fraction comprises at least one of an endothelial cell and an endothelial progenitor cell. (a) plating an umbilical cord blood sample on a surface; (b) allowing adhesion of cells in said umbilical cord blood sample to said surface for about 5 minutes, about 10 minutes, about 15 minutes, about 20 minutes, about 25 minutes, about 30 minutes, about 35 minutes, about 40 minutes, about 45 minutes, about 50 minutes, about 55 minutes, or about 60 minutes, to generate an adherent fraction and a non-adherent fraction of said umbilical cord blood sample; and (c) separating said non-adherent fraction from said adherent fraction, wherein said non-adherent fraction comprises a hematogenic progenitor cell or a hematopoetic stem cell, and wherein said adherent fraction comprises at least one of an endothelial cell and an endothelial progenitor cell.
A generally tubular braided flow diverting stent for treatment of aneurysms, comprising: at least one first elongate member helically wound in a first helical direction in a generally tubular shape, said at least one first elongate member having a substantially round cross-sectional shape; and at least one second elongate member helically wound in a second helical direction counter to said first helical direction and braided with said at least one first elongate member in said generally tubular shape, said at least one second elongate member having a substantially flat radially outer surface. at least one first elongate member helically wound in a first helical direction in a generally tubular shape, said at least one first elongate member having a substantially round cross-sectional shape; and at least one second elongate member helically wound in a second helical direction counter to said first helical direction and braided with said at least one first elongate member in said generally tubular shape, said at least one second elongate member having a substantially flat radially outer surface.
A method comprising the steps of: monitoring, by an onboard vehicle computer of a connected vehicle, a channel of a Vehicle-to-Everything, V2X, radio (147, 148, 167, 168) for a V2X message from a plurality of channels; and determining waveform data describing a waveform that is measured on the channel by the onboard vehicle computer when monitoring the channel, characterized by determining, based on the waveform data and mask data including digital data that describes a transmission mask for each of the plurality of channels, interference data which describes an adjacent channel interference waveform which is measured on the channel by the onboard vehicle computer when monitoring the channel, wherein the waveform includes the adjacent channel interference waveform; and canceling out the adjacent channel interference waveform described by the interference data from the waveform described by the waveform data by canceling out the transmission mask for the channel, which is described by the mask data, to generate digital data describing a version of the V2X message that substantially does not include the adjacent channel interference waveform. monitoring, by an onboard vehicle computer of a connected vehicle, a channel of a Vehicle-to-Everything, V2X, radio (147, 148, 167, 168) for a V2X message from a plurality of channels; and determining waveform data describing a waveform that is measured on the channel by the onboard vehicle computer when monitoring the channel, determining, based on the waveform data and mask data including digital data that describes a transmission mask for each of the plurality of channels, interference data which describes an adjacent channel interference waveform which is measured on the channel by the onboard vehicle computer when monitoring the channel, wherein the waveform includes the adjacent channel interference waveform; and canceling out the adjacent channel interference waveform described by the interference data from the waveform described by the waveform data by canceling out the transmission mask for the channel, which is described by the mask data, to generate digital data describing a version of the V2X message that substantially does not include the adjacent channel interference waveform.