mhurhangee/patent-ind-claim-en huggingface dataset:
System configured for measurement of a flow with a metering device comprising at least a first transducer (A) and a second transducer (B), which system generates a frequency f for the first transducer (A) to transmit a signal of the frequency f towards the second transducer (B), which second transducer (B) receives a transmitted signal (a) after the signal has travelled from the first transducer (A) to the second transducer (B) in a flow duct , which system generates the frequency f for the second transducer (B) to transmit a signal of the frequency f towards the first transducer (A), which transducer (A) receives a transmitted signal (b) after the signal has travelled from the second transducer (B) to the first transducer (A) in the flow duct , which system performs Analog to Digital conversion of the received signals into sampled signals by using a sampling frequency fs, which system is configured to measure the time difference between the at least two sampled signals (a, b) in order to measure the flow in the duct by defining and using a mathematical model comprising cosine and sine terms whose arguments comprise f, characterized in that in said mathematical model a reference frequency fr replaces the frequency f, where the reference frequency fr is related to the sampling frequency fs by the expression fr = fs/c, where c is a real number, said frequency f is in the range fr +/- 30%, sine and cosine values calculated based on said reference frequency fr are stored in a memory; and said system is configured to adjust said time difference by multiplication of a scale factor.
An emulsion antiperspirant (AP) composition comprising an aqueous phase, an oil phase and an emulsifier, wherein the aqueous phase comprises an aluminium-zirconium penta-chlorohydrex-glycine complex and a calcium salt having a solubility in water of 10 g/L or greater, wherein the molar ratio of aluminium to glycine is from 2 to 6 and the molar ratio of aluminium to calcium is from 2 to 7.
An exfoliating facial pad , comprising: a top layer of a first fabric weight; a bottom layer of a second fabric weight, the top and bottom layers comprising hydroentangled, non-woven fibrous material; and a coarse fabric layer of a third fabric weight sandwiched between the top layer and the bottom layer, the coarse fabric layer comprising undulations of exfoliating peaks and absorbent valleys and is configured to strengthen the pad when sandwiched between the top layer and the bottom layer, wherein the coarse fabric layer further comprises coarse fibers in a loose weave in the range of 5 to 40 yarns per inch in warp or weft directions, wherein warp fibers and weft fibers form a loose weave of 1 count to 30 count in English count units; and wherein the top layer, bottom layer, and the coarse fabric layer are pinched together along the edges. a top layer of a first fabric weight; a bottom layer of a second fabric weight, the top and bottom layers comprising hydroentangled, non-woven fibrous material; and a coarse fabric layer of a third fabric weight sandwiched between the top layer and the bottom layer, the coarse fabric layer comprising undulations of exfoliating peaks and absorbent valleys and is configured to strengthen the pad when sandwiched between the top layer and the bottom layer, wherein the coarse fabric layer further comprises coarse fibers in a loose weave in the range of 5 to 40 yarns per inch in warp or weft directions, wherein warp fibers and weft fibers form a loose weave of 1 count to 30 count in English count units; and wherein the top layer, bottom layer, and the coarse fabric layer are pinched together along the edges.
A spinel type lithium nickel manganese-containing composite oxide represented by a general formula [Li(Li a Ni y Mn 2-a-b-y-z-α Ti b Al z M α )O 4-σ ] wherein 0 < a, 0 < b, 0.30 ≤ y < 0.60, 0 < z, 0 ≤ α, 2-a-b-y-z-α < 1.7, 3 ≤ b/a ≤ 8, 0.1 < b+z+α, 0 < z/b ≤ 1, and M represents one or two or more metal elements selected from the group consisting of Mg, Fe, Co, Ba, Cr, W, Mo, Y, Zr, Nb, and Ce.
A control plate assembly for a flushing tank, comprising a mounting counterplate , fixable to an external structure and provided with one or more seats , each of the one or more seats housing a respective actuating member cooperating, in use, with a flush valve of the flushing tank; a cover plate , removably fastened to the mounting counterplate and provided with one or more supports , each of the one or more supports supporting a respective control member that can be operated by a user and cooperate with the respective actuating member ; and at least a first lever hinged to the mounting counterplate and rotating with respect to the mounting counterplate about a rotation axis (R1, R2) and extending between a first end and a second end positioned on opposite sides of the rotation axis (R1, R2), the first end being fastened to the control member and the second end cooperating with the actuating member ; characterized in that the control member can be operated by the user by traction, by pulling the control member , and against the action of a return spring ; and the control member comprises a wire , which is positioned through a hole formed through the cover plate and has a first end fixed to the lever and a second end positioned, in use, in front of a front face of the cover plate to be gripped by the user.
A gas turbine engine comprising: first and second circumferential rows of blades , the blades having respective blade tips ; and first and second seals disposed about, respectively, the first and second circumferential rows of blades , the first and second seals having, respectively, first and second abradable layers which the tips of the blades , at times, rub against when the blades rotate, the first abradable layer including, a first metal matrix , and first microballoons dispersed in the first metal matrix , the second abradable layer including, a second metal matrix , and second microballoons dispersed in the second metal matrix , wherein the second circumferential row of blades is downstream of the first circumferential row of blades , characterised in that the first and second microballoons are formed of, respectively, first and second different glasses having different glass transition temperatures, wherein the glass transition temperature of the first microballoons is at least 111°C (200°F) lower than that of the second microballoons . first and second circumferential rows of blades , the blades having respective blade tips ; and first and second seals disposed about, respectively, the first and second circumferential rows of blades , the first and second seals having, respectively, first and second abradable layers which the tips of the blades , at times, rub against when the blades rotate, the first abradable layer including, a first metal matrix , and first microballoons dispersed in the first metal matrix , a first metal matrix , and first microballoons dispersed in the first metal matrix , the second abradable layer including, a second metal matrix , and second microballoons dispersed in the second metal matrix , wherein the second circumferential row of blades is downstream of the first circumferential row of blades , a second metal matrix , and second microballoons dispersed in the second metal matrix , wherein the second circumferential row of blades is downstream of the first circumferential row of blades , characterised in that the first and second microballoons are formed of, respectively, first and second different glasses having different glass transition temperatures, wherein the glass transition temperature of the first microballoons is at least 111°C (200°F) lower than that of the second microballoons .
A semiconductor device , comprising: a first subassembly comprising a first bonding layer of (Al)(Ga)InP(As)(Sb) and a first substrate , wherein the first substrate is constructed of a group III-V material and a second subassembly , comprising: a second substrate constructed of germanium; and a second bonding layer of (Al)(Ga)InP(As)(Sb) is directly bonded to the first bonding layer , wherein the first bonding layer and the second bonding layer are lattice-mismatched to one another, and wherein: the second bonding layer is lattice-mismatched to the second substrate . a first subassembly comprising a first bonding layer of (Al)(Ga)InP(As)(Sb) and a first substrate , wherein the first substrate is constructed of a group III-V material and a second subassembly , comprising: a second substrate constructed of germanium; and a second bonding layer of (Al)(Ga)InP(As)(Sb) is directly bonded to the first bonding layer , wherein the first bonding layer and the second bonding layer are lattice-mismatched to one another, and wherein: the second bonding layer is lattice-mismatched to the second substrate . a second substrate constructed of germanium; and a second bonding layer of (Al)(Ga)InP(As)(Sb) is directly bonded to the first bonding layer , wherein the first bonding layer and the second bonding layer are lattice-mismatched to one another, and wherein: the second bonding layer is lattice-mismatched to the second substrate .
An implant material comprising a pharmaceutically acceptable carrier having adsorbed therein a liquid comprising a platelet-derived factor (PDGF) at a concentration in a range of 0.1 mg/mL to 1.0 mg/mL, wherein the pharmaceutically acceptable carrier comprises a porous calcium phosphate.
Packing element (14; 50) for fastening to a retaining element , wherein the packing element has an elongated carrier element , on one end of which a fastening part (16; 52) is arranged, and on the other end of which a gripping part is arranged, wherein the carrier element is retained in the fastening part (16; 52) in an axially movable manner, and wherein the fastening part (16; 52) is designed to fasten the packing element in the region of at least one perforation arranged in the retaining element , and has a contact surface which is configured to lie against a first side of the retaining element in a mounting position of the fastening part, which gripping part is configured to grip a container, in particular a bottle, wherein the fastening part (16; 52) has at least one first mounting element, which interacts with at least complementary second mounting element, which is arranged or formed on the retaining element, wherein the first mounting element can be detachably fastened to the second mounting element in a mounting position, characterised in that the fastening part comprises at least one locking engagement element (32; 56) which in particular is elastically deflectable or movable, which comprises a locking engagement section , which is designed to engage behind the retaining element in the edge region of the perforation , wherein the distance interval of the contact surface from the locking engagement section corresponds approximately to the material thickness (d) of the retaining element in the region of the perforation .
An electrode catalyst for fuel cells, comprising a carbon material having a ratio of a peak intensity I A derived from an amorphous structure to a peak intensity I G derived from a graphite structure in an X-ray diffraction spectrum (ratio I A /I G ) of 0.90 or less as a catalyst-supporting carrier and characterized in that the carbon material has a ratio of a D-band peak intensity to a G-band peak intensity in a Raman spectrum (ratio D/G) of 1.50 to 1.68, the ratios measured by the methods of the description.
A dry floor assembly that is configured to form or be positioned on a floor of an enclosed space, the dry floor assembly comprising: a grid having an array of openings configured to allow passage of liquid, the grid having members extending from a base to an upper surface , the upper surface configured to be walked upon, the members having a cross-section that tapers from the base to the upper surface , wherein the cross-section of the members of the grid defines an isosceles triangle tapering to a point at the upper surface ; a pan disposed beneath the grid , the pan defining a cavity ; a wicking layer interposed between the pan and the grid , the wicking layer configured to wick liquid that passes through the openings of the grid toward the pan ; and a strip extending around a perimeter of the grid and bonded to the grid ; wherein the pan comprises a ledge , the strip made of a metallic material, the strip secured to the ledge via magnets . a grid having an array of openings configured to allow passage of liquid, the grid having members extending from a base to an upper surface , the upper surface configured to be walked upon, the members having a cross-section that tapers from the base to the upper surface , wherein the cross-section of the members of the grid defines an isosceles triangle tapering to a point at the upper surface ; a pan disposed beneath the grid , the pan defining a cavity ; a wicking layer interposed between the pan and the grid , the wicking layer configured to wick liquid that passes through the openings of the grid toward the pan ; and a strip extending around a perimeter of the grid and bonded to the grid ; wherein the pan comprises a ledge , the strip made of a metallic material, the strip secured to the ledge via magnets .
An apparatus for light spectroscopic analysis, comprising: a sample carrier for holding a sample, wherein the sample carrier has sample sites , a base to which the sample carrier is attachable or attached, a light source to generate light that is emitted onto a sample; a detector for the analysis of light coming from the sample, a first measuring head configured to direct light produced by the light source to a sample held by the sample carrier and to receive signal light from the sample held by the sample carrier and to direct it to the detector , a second measuring head configured to direct light produced by the light source to a sample held by the sample carrier and to receive signal light from the sample held by the sample carrier and to direct it to the detector ; wherein the first measuring head and the second measuring head are attached to a common measuring head support and are movable relative to the base , characterized in that the first measuring head and the second measuring head are spaced from each other in such a way that only one of the measuring heads can be placed opposite to a sample site of the sample carrier . a sample carrier for holding a sample, wherein the sample carrier has sample sites , a base to which the sample carrier is attachable or attached, a light source to generate light that is emitted onto a sample; a detector for the analysis of light coming from the sample, a first measuring head configured to direct light produced by the light source to a sample held by the sample carrier and to receive signal light from the sample held by the sample carrier and to direct it to the detector , a second measuring head configured to direct light produced by the light source to a sample held by the sample carrier and to receive signal light from the sample held by the sample carrier and to direct it to the detector ; wherein the first measuring head and the second measuring head are attached to a common measuring head support and are movable relative to the base , characterized in that the first measuring head and the second measuring head are spaced from each other in such a way that only one of the measuring heads can be placed opposite to a sample site of the sample carrier .
1-{5-cyclopropyl-2-[(propan-2-yl)oxy]pyridin-3-yl}- N- (2-methylquinoline-5-sulfonyl)cyclopropane-1-carboxamide, or a pharmaceutically acceptable salt thereof.
A gas inlet system for introducing gas into an isotope ratio analyser, the gas inlet system including a reference system comprising: a first supply of a reference gas having a first known isotope ratio; a supply of a carrier gas, wherein the supplies of reference gas and carrier gas are each connected by respective reference and carrier gas lines to a first mixing junction where the reference gas and carrier gas combine; a mixing zone connected downstream of the first mixing junction wherein the combined reference gas and carrier gas mix together; an exit line for transporting the mixed gas from the mixing zone to the isotope ratio analyser; and an opening to atmosphere on the exit line, wherein the opening is downstream of the mixing zone; characterised in that the gas inlet system further comprises a second mixing junction on the exit line from the mixing zone for mixing further carrier gas with the already mixed gas, the further carrier gas being supplied to the second mixing junction via a second carrier gas line. a first supply of a reference gas having a first known isotope ratio; a supply of a carrier gas, wherein the supplies of reference gas and carrier gas are each connected by respective reference and carrier gas lines to a first mixing junction where the reference gas and carrier gas combine; a mixing zone connected downstream of the first mixing junction wherein the combined reference gas and carrier gas mix together; an exit line for transporting the mixed gas from the mixing zone to the isotope ratio analyser; and an opening to atmosphere on the exit line, wherein the opening is downstream of the mixing zone; characterised in that the gas inlet system further comprises a second mixing junction on the exit line from the mixing zone for mixing further carrier gas with the already mixed gas, the further carrier gas being supplied to the second mixing junction via a second carrier gas line.
A lyophilized daptomycin formulation comprising from 200mg to 600mg of daptomycin and the additive citric acid which, upon reconstitution in a pharmaceutically acceptable diluent, leads to a daptomycin concentration of from 20mg/mL to 100mg/mL and a citric acid concentration of from 25mM to 75mM.
An SDN network system, comprising at least one N th level controller and at least two (N+1) th level controllers, belonging to the N th level controller , wherein N is an integer greater than or equal to 1, wherein at least one of the (N+1) th level controller is configured to receive a first message sent by a node belonging to the (N+1) th level controller ; the (N+1) th level controller is configured to forward the first message to the N th level controller to which the (N+1) th level controller belongs when it is determined that the first message is a cross-domain message according to status information of each node that is managed by the (N+1) th level controller and that belongs to the (N+1) th level controller; and the N th level controller is configured to receive the first message forwarded by the (N+1) th level controller belonging to the N th level controller , and perform decision processing according to status information of the (N+1) th level controller that is managed by the N th level controller and that belongs to the N th level controller and status information of boundary nodes of the (N+1) th level controller belonging to the N th level controller , wherein the boundary nodes of each (N+1) th level controller comprise a node, of all nodes belonging to the (N+1) th level controller , which is connected to a node belonging to another (N+1) th level controller, the first message comprises an identifier of the node sending the first message, and the cross-domain message comprises an identifier of the node belonging to the another (N+1) th level controller, wherein the performing decision processing includes: determining a backbone topology of the SDN network system, determining a backbone transmission path of data transmission, or updating the status information of the (N+1) th level controller that is managed by the Nth level controller and that belongs to the Nth level controller and the status information of the boundary nodes of the (N+1)th level controller belonging to the Nth level controller, wherein the (N+1) th level controller is specifically configured to add an identifier of the (N+1) th level controller to the first message, to obtain a second message when it is determined that the received first message comprises an identifier of another (N+1) th level controller; the (N+1) th level controller is further configured to send the second message to the N th level controller to which the (N+1) th level controller belongs; and the N th level controller is further configured to receive the second message sent by each (N+1) th level controller belonging to the N th level controller , and determine a backbone topology of the SDN network system according to the second message, so as to determine a backbone transmission path of data in the SDN network system according to the backbone topology.
A composition for use in the treatment of infections caused by bacteria, in the veterinary field, the composition comprising chlorhexidine or a salt thereof, and at least one peptide, said at least one peptide being a cationic peptide having a sequence A-B-C-D-C'-B'-A', wherein: - each unit A independently consists of 1-3 amino acids; - each unit B independently consists of a sulfur-containing amino acid; - each unit C independently consists of 5 amino acids selected from both the group (a) of hydrophobic amino acids and the group (b) of basic amino acids or hydrogen bond-forming amino acids; - unit D consists of glycine and a basic amino acid, wherein: (i) said hydrophobic amino acids are selected from: Ala, Phe, Ile, Leu, Pro, Tyr, Trp and Val; (ii) said basic amino acids are selected from: Lys, His, Arg; (iii) said hydrogen bond-forming amino acids are selected from Asn, Gln, Ser, Thr; and where the substructure C-D-C' contains a total of 5 to 9 points of alternation between an amino acid of group (a) and an amino acid of group (b) or vice versa, and being SEQ.ID.No.1, and wherein said bacteria are Pseudomonas aeruginosa and Staphylococcus aureus. - each unit A independently consists of 1-3 amino acids; - each unit B independently consists of a sulfur-containing amino acid; - each unit C independently consists of 5 amino acids selected from both the group (a) of hydrophobic amino acids and the group (b) of basic amino acids or hydrogen bond-forming amino acids; - unit D consists of glycine and a basic amino acid, (i) said hydrophobic amino acids are selected from: Ala, Phe, Ile, Leu, Pro, Tyr, Trp and Val; (ii) said basic amino acids are selected from: Lys, His, Arg; (iii) said hydrogen bond-forming amino acids are selected from Asn, Gln, Ser, Thr; and where the substructure C-D-C' contains a total of 5 to 9 points of alternation between an amino acid of group (a) and an amino acid of group (b) or vice versa, and being SEQ.ID.No.1, and wherein said bacteria are Pseudomonas aeruginosa and Staphylococcus aureus.
A method of treating a surface of a turbomachine part , the part comprising a surface to be treated, the method being characterized in that it comprises the following steps: - loading a first distributor with a chemical etching solution and a second distributor with a rinsing solution, each distributor comprising a zone of contact with the surface to be treated, the chemical etching solution being brought to the zone of contact of the first distributor, the rinsing solution being brought to the zone of contact of the second distributor - positioning of the first distributor and the second distributor facing the surface to be treated - moving together and simultaneously the first distributor and the second distributor along the surface to be treated, so that the surface to be treated receives the etching solution and then the rinsing solution in succession. - loading a first distributor with a chemical etching solution and a second distributor with a rinsing solution, each distributor comprising a zone of contact with the surface to be treated, the chemical etching solution being brought to the zone of contact of the first distributor, the rinsing solution being brought to the zone of contact of the second distributor - positioning of the first distributor and the second distributor facing the surface to be treated - moving together and simultaneously the first distributor and the second distributor along the surface to be treated, so that the surface to be treated receives the etching solution and then the rinsing solution in succession.