mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine, comprising: a first-stage combustor with a plurality of first burner assemblies ; a second-stage combustor with a plurality of second burner assemblies , downstream of the first-stage combustor ; a fuel supply system , configured to supply a respective first fuel flowrate (FM1) to each first burner assembly and a respective second fuel flowrate (FM2) to each second burner assembly ; a controller , configured to control the first fuel flowrate (FM1) and the second fuel flowrate (FM2); wherein the controller is further configured to selectively activate and deactivate the second burner assemblies ; characterized in that the controller is further configured to supply a first value of the first fuel flowrate (FM1) to a first group of the first burner assemblies and a second value of the first fuel flowrate (FM1) to a second group of the first burner assemblies in partial load operating condition while at least a first group of the second burner assemblies are inactive, the first value of the first fuel flowrate (FM1) being lower than the second value of the first fuel flowrate (FM1) or being zero flowrate. a first-stage combustor with a plurality of first burner assemblies ; a second-stage combustor with a plurality of second burner assemblies , downstream of the first-stage combustor ; a fuel supply system , configured to supply a respective first fuel flowrate (FM1) to each first burner assembly and a respective second fuel flowrate (FM2) to each second burner assembly ; a controller , configured to control the first fuel flowrate (FM1) and the second fuel flowrate (FM2); wherein the controller is further configured to selectively activate and deactivate the second burner assemblies ; characterized in that the controller is further configured to supply a first value of the first fuel flowrate (FM1) to a first group of the first burner assemblies and a second value of the first fuel flowrate (FM1) to a second group of the first burner assemblies in partial load operating condition while at least a first group of the second burner assemblies are inactive, the first value of the first fuel flowrate (FM1) being lower than the second value of the first fuel flowrate (FM1) or being zero flowrate.
A modified vinyl alcohol polymer powder comprising a structural unit derived from a derivative (A) of an ethylenically unsaturated dicarboxylic acid in a content (X) calculated by 1 H-NMR analysis as described in the description of 0.05 mol% or more and 10 mol% or less, and having a degree of saponification measured following the method described in JIS K 6726 of 80.0 mol% or more and 99.9 mol% or less, the modified vinyl alcohol polymer powder having a methanol content of 0.01 weight% or more and less than 3.0 weight% as measured by headspace gas chromatography as described in the description of 500 mg of the polymer powder, the modified vinyl alcohol polymer powder containing 0.1 ppm or more and less than 2,000 ppm of a component that is insoluble in a 90°C, 5 weight% aqueous solution, wherein the content of the component that is insoluble in a 90°C, 5 weight% aqueous solution is determined as described in the description, the proportion of all particles of the modified vinyl alcohol polymer powder which pass through a sieve with 1.00 mm-openings is at least 95 weight%, and said proportion is determined using the dry sieving method described in JIS Z 8815 . the modified vinyl alcohol polymer powder having a methanol content of 0.01 weight% or more and less than 3.0 weight% as measured by headspace gas chromatography as described in the description of 500 mg of the polymer powder, the modified vinyl alcohol polymer powder containing 0.1 ppm or more and less than 2,000 ppm of a component that is insoluble in a 90°C, 5 weight% aqueous solution, wherein the content of the component that is insoluble in a 90°C, 5 weight% aqueous solution is determined as described in the description, the proportion of all particles of the modified vinyl alcohol polymer powder which pass through a sieve with 1.00 mm-openings is at least 95 weight%, and said proportion is determined using the dry sieving method described in JIS Z 8815 .
A cable gland for securing a cable to a box , the cable gland comprising: - a tightening element configured to surround the cable , the tightening element having at least two connecting ends mutually approachable to tighten the tightening element on the cable , - a gland body extending along an axial direction (X-X) between a first end and a second end , the gland body defining a passing through channel extending along the axial direction (X-X) between the first end and the second end and configured to receive the cable passing through the first and second ends , the gland body surrounding at least partially the tightening element , the cable gland comprises a first locking arrangement configured to lock along the axial direction (X-X) the gland body relative to the tightening element , the tightening element comprises first friction members configured to engage the cable and the tightening element has an outer surface facing the gland body and an inner surface facing the cable ; - the inner surface comprises the first friction members , characterized in that - the friction members are protrusions in one piece with the tightening element and project from the inner surface of the tightening element towards the cable ; wherein an annular member is arranged at the second end and is configured to surround and engage the cable , - the annular member surrounds at least partially the gland body at the second end , - a second locking arrangement is provided and configured to lock along the axial direction (X-X) the gland body relative to the annular member . - a tightening element configured to surround the cable , the tightening element having at least two connecting ends mutually approachable to tighten the tightening element on the cable , - a gland body extending along an axial direction (X-X) between a first end and a second end , the gland body defining a passing through channel extending along the axial direction (X-X) between the first end and the second end and configured to receive the cable passing through the first and second ends , the gland body surrounding at least partially the tightening element , the cable gland comprises a first locking arrangement configured to lock along the axial direction (X-X) the gland body relative to the tightening element , the tightening element comprises first friction members configured to engage the cable and the tightening element has an outer surface facing the gland body and an inner surface facing the cable ; - the inner surface comprises the first friction members , characterized in that - the friction members are protrusions in one piece with the tightening element and project from the inner surface of the tightening element towards the cable ; - the annular member surrounds at least partially the gland body at the second end , - a second locking arrangement is provided and configured to lock along the axial direction (X-X) the gland body relative to the annular member .
A method for use in a wireless communications system in which there is at least a first transceiver and a second transceiver which may communicate with each other, in which system use is made of the TDD, Time Division Duplex, principle for communication between said first and second transceiver so that said communication is divided into time frames each of which in turn can comprise a number of time slots, according to which method the first transceiver transmits a dedicated signal or channel for use as a communications quality indicator by the second transceiver, and the second transceiver reports measurements of the dedicated signal or channel to the first transceiver, the dedicated signal or channel being transmitted by the first transceiver in one or more TDD time slot, the method being characterized in that : - the second transceiver measures the individual signal strength of the dedicated signal or channel in at least a first and a second time slot of one and the same TDD frame and transmits measurement reports for each of those time slots to the first transceiver based on the individual measurements in said first and second time slots of the dedicated signal or channel, the measurement report including at least one suggested parameter which is the Recommended Transport Block Size (RTBS) or the Recommended Modulation Format (RMF). - the second transceiver measures the individual signal strength of the dedicated signal or channel in at least a first and a second time slot of one and the same TDD frame and transmits measurement reports for each of those time slots to the first transceiver based on the individual measurements in said first and second time slots of the dedicated signal or channel, the measurement report including at least one suggested parameter which is the Recommended Transport Block Size (RTBS) or the Recommended Modulation Format (RMF).
Compound of formula (Ba 2-a-b-c-d M a A b RE c D d ) (Mg 1-e-f-g-j M' e A' f RE' g C' j ) (Si 2-h-i B' h C"i) (O 7+m-k X k ) Formula where the following applies to the symbols and indices used: M is selected from the group consisting of Ca, Sr, Zn or mixtures of these elements; A is selected from the group consisting of Na, K, Rb or mixtures of these elements; RE is selected from the group consisting of La, Y, Gd or mixtures of these elements; D is selected from the group consisting of Eu 2+ , Mn 2+ , Yb 2+ , S m 2+ or mixtures of these elements; M' is selected from the group consisting of Zr, Hf or mixtures of these elements; A' is selected from the group consisting of Li, Na or mixtures of these elements; RE' is selected from the group consisting of Sc, Lu or mixtures of these elements; C' is selected from the group consisting of B, Al, Ga, In or mixtures of these elements; B' is selected from the group consisting of Ge, Sn or mixtures of these elements; C" is selected from the group consisting of B, Al, Ga, In or mixtures of these elements; X is selected from the group consisting of F, Cl or mixtures of these elements; 0 ≤ a ≤ 0.4; 0 ≤ b ≤ 0.2; 0 ≤ c ≤0.2; 0.005 ≤ d ≤ 0.4; 0 ≤ e ≤ 0.1; 0 ≤ f ≤ 0.1; 0 ≤ g ≤ 0.1; 0 ≤ j ≤ 0.2; 0 ≤ h ≤ 0.4; 0 ≤ i ≤ 0.2; 0 ≤ k ≤ 0.7; -0.5 ≤ m ≤ 0.5; with the proviso that b ≠ 0 and/or c ≠ 0 and/or e ≠ 0 and/or g ≠ 0 and/or with the proviso that f ≠ 0 and k ≠ 0 at the same time and/or with the proviso that f ≠ 0 and j and/or i ≠ 0 at the same time. M is selected from the group consisting of Ca, Sr, Zn or mixtures of these elements; A is selected from the group consisting of Na, K, Rb or mixtures of these elements; RE is selected from the group consisting of La, Y, Gd or mixtures of these elements; D is selected from the group consisting of Eu 2+ , Mn 2+ , Yb 2+ , S m 2+ or mixtures of these elements; M' is selected from the group consisting of Zr, Hf or mixtures of these elements; A' is selected from the group consisting of Li, Na or mixtures of these elements; RE' is selected from the group consisting of Sc, Lu or mixtures of these elements; C' is selected from the group consisting of B, Al, Ga, In or mixtures of these elements; B' is selected from the group consisting of Ge, Sn or mixtures of these elements; C" is selected from the group consisting of B, Al, Ga, In or mixtures of these elements; X is selected from the group consisting of F, Cl or mixtures of these elements; 0 ≤ a ≤ 0.4; 0 ≤ b ≤ 0.2; 0 ≤ c ≤0.2; 0.005 ≤ d ≤ 0.4; 0 ≤ e ≤ 0.1; 0 ≤ f ≤ 0.1; 0 ≤ g ≤ 0.1; 0 ≤ j ≤ 0.2; 0 ≤ h ≤ 0.4; 0 ≤ i ≤ 0.2; 0 ≤ k ≤ 0.7; -0.5 ≤ m ≤ 0.5;
Mode-locked laser comprising: - an insulating substrate , - a rib extending over the substrate in an extended direction (X), the rib forming a resonant cavity for at least one electromagnetic wave, - a waveguide defined in the substrate , extending in a guiding direction (X'), the rib comprising a lower layer (C 2 ), a plurality of intermediate layers (C 3 to C N-2 ) and a top layer (C N-1 ), stacked in a stacking direction (Z) orthogonal to the direction of extent (X), the resonant cavity being able to accommodate a plurality of resonance modes equidistant in frequency, the rib having a plurality of through-apertures aligned in the direction of extension (X), the waveguide being separated from the rib by a non-zero distance in the stacking direction (Z), each orifice being separated from each adjacent orifice by a spacing, the spacings each having a dimension, measured in the direction of extension (X), which varies in the direction of extension (X) according to a law of variation, the law of variation being a symmetrical polynomial function of order greater than or equal to 4 of a position of the spacing in the direction of extension (X). - an insulating substrate , - a rib extending over the substrate in an extended direction (X), the rib forming a resonant cavity for at least one electromagnetic wave, - a waveguide defined in the substrate , extending in a guiding direction (X'), the rib comprising a lower layer (C 2 ), a plurality of intermediate layers (C 3 to C N-2 ) and a top layer (C N-1 ), stacked in a stacking direction (Z) orthogonal to the direction of extent (X), the resonant cavity being able to accommodate a plurality of resonance modes equidistant in frequency, the rib having a plurality of through-apertures aligned in the direction of extension (X), the waveguide being separated from the rib by a non-zero distance in the stacking direction (Z), each orifice being separated from each adjacent orifice by a spacing, the spacings each having a dimension, measured in the direction of extension (X), which varies in the direction of extension (X) according to a law of variation, the law of variation being a symmetrical polynomial function of order greater than or equal to 4 of a position of the spacing in the direction of extension (X).
A retrograde reamer for use in surgical procedures, comprising: a first tubular shaft ; at least one second shaft movably disposable within the first tubular shaft; and at least one cutting member movably coupled to one of the first tubular shaft and the second shaft, wherein, in response to relative movement of the first tubular shaft and the second shaft, the cutting member is adapted to be displaced from a collapsed position to at least one deployed position, thereby defining at least one cutting diameter, and wherein the reamer is cannulated to accommodate a guidewire, in use, wherein the cutting member includes one or more helical blades , and wherein, in response to relative rotational and axial movement of the first tubular shaft and the second shaft, the helical blades are operative to unwind from the second shaft, thereby displacing the helical blades from the collapsed position to the deployed position. a first tubular shaft ; at least one second shaft movably disposable within the first tubular shaft; and at least one cutting member movably coupled to one of the first tubular shaft and the second shaft, wherein, in response to relative movement of the first tubular shaft and the second shaft, the cutting member is adapted to be displaced from a collapsed position to at least one deployed position, thereby defining at least one cutting diameter, and wherein the reamer is cannulated to accommodate a guidewire, in use, wherein the cutting member includes one or more helical blades , and wherein, in response to relative rotational and axial movement of the first tubular shaft and the second shaft, the helical blades are operative to unwind from the second shaft, thereby displacing the helical blades from the collapsed position to the deployed position.
A genset, comprising: a gas turbine engine having a low pressure shaft wherein the gas turbine engine is adapted to provide mechanical power to a propulsion type load; a generator having an input power shaft wherein the generator is adapted to receive mechanical power to develop electric power; an output power shaft having a first end coupled to the low pressure shaft of the gas turbine and a second end coupled to the input power shaft of the generator; first and second struts wherein first ends of the first and second struts are coupled to the gas turbine engine and second ends of the first and second struts are coupled to the generator at locations diametrically opposed on a radially outer surface of the generator; and a suspension apparatus comprising first and second suspension devices , wherein the first suspension device attaches to the gas turbine engine at a mounting location disposed in a first plane that includes a gas turbine engine center of gravity and the second suspension device attaches to the generator at a mounting location disposed in a second plane that includes the generator center of gravity, wherein the first and second planes are axial planes normal to a central rotational axis. a gas turbine engine having a low pressure shaft wherein the gas turbine engine is adapted to provide mechanical power to a propulsion type load; a generator having an input power shaft wherein the generator is adapted to receive mechanical power to develop electric power; an output power shaft having a first end coupled to the low pressure shaft of the gas turbine and a second end coupled to the input power shaft of the generator; first and second struts wherein first ends of the first and second struts are coupled to the gas turbine engine and second ends of the first and second struts are coupled to the generator at locations diametrically opposed on a radially outer surface of the generator; and a suspension apparatus comprising first and second suspension devices , wherein the first suspension device attaches to the gas turbine engine at a mounting location disposed in a first plane that includes a gas turbine engine center of gravity and the second suspension device attaches to the generator at a mounting location disposed in a second plane that includes the generator center of gravity, wherein the first and second planes are axial planes normal to a central rotational axis.
A floating device for treating gases emitted by wastewater contained in a wastewater container, said floating device comprising [a] a first surface which when the floating device is floating on the wastewater surface is oriented towards said wastewater surface (P), [b] a second surface , opposite to said first surface , and [c] a photocatalytic surface arranged on at least part of the surface of said floating device , such that when the floating device is floating on the wastewater surface, when said gases emitted by said wastewater flow by said photocatalytic surface, said gases are treated by photocatalysis, characterized in that said floating device further comprises [d] at least one first opening extending in the direction from said first surface to said second surface , said at least one first opening defining an inner surface, and [e] said photocatalytic surface is arranged at least on said inner surface of said one first opening . [a] a first surface which when the floating device is floating on the wastewater surface is oriented towards said wastewater surface (P), [b] a second surface , opposite to said first surface , and [c] a photocatalytic surface arranged on at least part of the surface of said floating device , such that when the floating device is floating on the wastewater surface, when said gases emitted by said wastewater flow by said photocatalytic surface, said gases are treated by photocatalysis, characterized in that said floating device further comprises [d] at least one first opening extending in the direction from said first surface to said second surface , said at least one first opening defining an inner surface, and [e] said photocatalytic surface is arranged at least on said inner surface of said one first opening .
A process for the preparation of an antimicrobial coating solution, the process comprising the steps of: (i) mixing a chelating agent with a titanium alkoxide and fluoroacetic acid; and (ii) adding an aqueous solution to the mixture formed from step (i); wherein the fluoroacetic acid is one of mono fluoroacetic acid, difluoroacetic acid or trifluoroacetic acid. (i) mixing a chelating agent with a titanium alkoxide and fluoroacetic acid; and (ii) adding an aqueous solution to the mixture formed from step (i);
A housing , comprising a first housing , a second housing , and a decoration part , wherein the first housing is disposed outside the second housing, a first through-hole is disposed in the first housing, and the decoration part is disposed on the first housing and covers the first through-hole, wherein: a second through-hole is disposed in the second housing; the decoration part is provided with a third through-hole , and an orthographic projection of the third through-hole on the second housing is located outside an orthographic projection of the second through-hole on the second housing; and a first gap exists between the decoration part and the second housing, and the first gap is communicated with both the second through-hole and the third through-hole; and the housing further comprises a first breathable film , and the first breathable film is disposed on the second housing between the first housing and the second housing and covers the second through-hole; wherein a first groove is disposed on a side of the second housing that faces the first housing, and the first groove intersects the second through-hole; and the decoration part is connected to the first housing on a peripheral side of the first through-hole in a sealed manner, and the first gap exists between the decoration part and a groove wall of the first groove. a second through-hole is disposed in the second housing; the decoration part is provided with a third through-hole , and an orthographic projection of the third through-hole on the second housing is located outside an orthographic projection of the second through-hole on the second housing; and a first gap exists between the decoration part and the second housing, and the first gap is communicated with both the second through-hole and the third through-hole; and the housing further comprises a first breathable film , and the first breathable film is disposed on the second housing between the first housing and the second housing and covers the second through-hole; wherein a first groove is disposed on a side of the second housing that faces the first housing, and the first groove intersects the second through-hole; and the decoration part is connected to the first housing on a peripheral side of the first through-hole in a sealed manner, and the first gap exists between the decoration part and a groove wall of the first groove.
A fastener , comprising: a first clip member , comprising a first base portion and two first arm portions that extend upwardly from two sides of the first base portion ; a second clip member locked with the first clip member , comprising a second base portion and two second arm portions that extend upwardly from two sides of the second base portion ; and at least one hook portion extending from a distal end of one of the first and second arm portions , wherein the first and second clip members are arranged horizontally along two different directions, and the second base portion is positioned on the first base portion , characterized in that each first arm portion is interlocked with at least one second arm portion by at least a pair of tab and aperture formed on adjacent sides of the first and second arm portions . a first clip member , comprising a first base portion and two first arm portions that extend upwardly from two sides of the first base portion ; a second clip member locked with the first clip member , comprising a second base portion and two second arm portions that extend upwardly from two sides of the second base portion ; and at least one hook portion extending from a distal end of one of the first and second arm portions , wherein the first and second clip members are arranged horizontally along two different directions, and the second base portion is positioned on the first base portion , characterized in that