mhurhangee/patent-ind-claim-en huggingface dataset:
A stainless steel sheet for parts, which consists essentially of: 0.01-0.08 mass % of C, 0.1-2.0 mass % of Si, 3.0 mass % or less of Mn, 10.0-20.0 mass % of Cr, 3.0-12.0 mass % of Ni, 0.02-0.24 mass % of N, as well as 0.5 mass % or less of one or more selected from Nb, Ti, and V, and optionally Ca, Al, REM and B in a total amount of 0.3 mass % or less, Cu 0.4% or less, Mo 0.4% or less, to total mass of the stainless steel as 100 mass %, the remainder being Fe and inevitable impurities, Md value derived from the formula: Md = 500 − 458 C + N − 9 Si + Mn − 14 Cr − 20 Ni − 65 Nb − 27 Ti − 61 V by substituting values in mass % of the above respective components to be contained in the stainless steel sheet satisfying within the range of 0 to 80, among compounds formed by the above components, the number of compounds whose maximum diameter is 20 μm or more being 30 or less per 5 g (mass) of the stainless steel the number being measured by taking a 5g test piece and corroding and removing the parent material by 10% bromine-methanol solution and extracting residue products through a filter and observing the residue products by using a scanning electron microscope to count the total number of the compounds having a maximum size of 20 μm or more, and the metallographic structure of the entire stainless steel being a mixed structure of recrystallized grain and unrecrystallized portion. among compounds formed by the above components, the number of compounds whose maximum diameter is 20 μm or more being 30 or less per 5 g (mass) of the stainless steel the number being measured by taking a 5g test piece and corroding and removing the parent material by 10% bromine-methanol solution and extracting residue products through a filter and observing the residue products by using a scanning electron microscope to count the total number of the compounds having a maximum size of 20 μm or more, and the metallographic structure of the entire stainless steel being a mixed structure of recrystallized grain and unrecrystallized portion.
A wireless consumption meter for measuring one or more values relating to a fluid flowing in a connected fluid pipe system , the wireless consumption meter being arranged with at least two modes of operation comprising at least: a normal operation mode having associated a normal operation algorithm, and a test mode having associated a test mode algorithm different from the normal operation mode algorithm; the wireless consumption meter comprising a control input comprising a near field communication radio receiver, and wherein the wireless consumption meter is arranged to enable an external device by near field communication via said control input to control the measuring of values or the transmission of data packages. a normal operation mode having associated a normal operation algorithm, and a test mode having associated a test mode algorithm different from the normal operation mode algorithm;
A nanocapsule system suitable for the administration of active ingredients, which comprises: a. a surface layer comprising the polypeptide protamine; b. an oily core; c. a surfactant characterized by having a hydrophilic-lipophilic ratio (hydrophilic-lipophilic balance (HLB)) greater than 8 provided that said surfactant is not a phospholipid; and d. optionally at least one active substance. a. a surface layer comprising the polypeptide protamine; b. an oily core; c. a surfactant characterized by having a hydrophilic-lipophilic ratio (hydrophilic-lipophilic balance (HLB)) greater than 8 provided that said surfactant is not a phospholipid; and d. optionally at least one active substance.
A method of machining tooth flank surfaces of mating gear members with a first tool for machining the tooth flank surfaces of one mating gear member, and a second tool for machining the tooth flank surfaces of the other mating gear member, said method comprising: rotating said first tool and bringing said first tool and the tooth flank of said one mating gear member into contact, providing relative movement between said first tool and said one mating gear member to traverse said first tool across the tooth flank along a first path, rotating said second tool and bringing said second tool and the tooth flank of said other mating gear member into contact, and providing relative movement between said second tool and said other mating gear member to traverse said second tool across the tooth flank along a second path, characterised in that said first path and said second path produce respective tooth flank geometries of a form which, when said mating gear members are brought into mesh under no load or light load to form a mating tooth pair, provides a motion graph curve comprising a sinusoidal portion above the transfer points of the motion graph curve and a parabolic portion in form of parabolic extensions below said transfer points . rotating said first tool and bringing said first tool and the tooth flank of said one mating gear member into contact, providing relative movement between said first tool and said one mating gear member to traverse said first tool across the tooth flank along a first path, rotating said second tool and bringing said second tool and the tooth flank of said other mating gear member into contact, and providing relative movement between said second tool and said other mating gear member to traverse said second tool across the tooth flank along a second path, characterised in that said first path and said second path produce respective tooth flank geometries of a form which, when said mating gear members are brought into mesh under no load or light load to form a mating tooth pair, provides a motion graph curve comprising a sinusoidal portion above the transfer points of the motion graph curve and a parabolic portion in form of parabolic extensions below said transfer points .
Inverter circuit arrangement having three electrical half-bridges which each have two power switches (S1, S2; S3, S4; S5, S6) connected in series, the connection of which in each case constitutes an output of the inverter, and a control device for actuating the power switches of the half-bridges, wherein each of the three half-bridges has a first power switch (S1; S3; S5) and a second power switch (S2; S4; S6), characterized in that the first power switches (S1; S3; S5) have a higher on-state resistance than the second power switches (S2; S4; S6) in a first operating range (A) of the inverter and the first power switches (S1; S3; S5) have a lower on-state resistance than the second power switches (S2; S4; S6) in a second operating range (B) of the inverter that is different to the first operating range; and the control device is designed to actuate the power switches (S1, S2; S3, S4; S5, S6) in such a way that - the second power switches (S2; S4; S6) are at least predominantly switched on in the first operating range (A) of the inverter and/or the first power switches (S1; S3; S5) are at least predominantly switched on in the second operating range (B) of the inverter, - at least one of the three half-bridges remains unclocked in each phase, and - in each case that one of the first or the second power switch that has the lower on-state resistance in the current operating range (A, B) is switched on in the unclocked half-bridge. - the second power switches (S2; S4; S6) are at least predominantly switched on in the first operating range (A) of the inverter and/or the first power switches (S1; S3; S5) are at least predominantly switched on in the second operating range (B) of the inverter, - at least one of the three half-bridges remains unclocked in each phase, and - in each case that one of the first or the second power switch that has the lower on-state resistance in the current operating range (A, B) is switched on in the unclocked half-bridge.
An assembly for a piece of rotational equipment with an axis , comprising: a static structure configured with a bore ; a bearing within the bore ; and a centering spring mounting the bearing to the static structure , the centering spring comprising an annular hub and a mounting tab , the annular hub within the bore , and the mounting tab projecting radially from the annular hub into the slot ; wherein the static structure is also configured with a slot , a first slot surface and a second slot surface , the slot extending radially into the static structure from the bore , and the slot extending axially within the static structure between the first slot surface and the second slot surface ; characterized in that an inner portion of the slot extends axially within the static structure between the first slot surface and the second slot surface , and an outer portion of the slot extends axially into the static structure to the second slot surface wherein the mounting tab is disposed at least partially within the inner portion of the slot ; and in that the assembly further comprises a lock ring comprising a locking tab , the locking tab projecting radially into the slot and the locking tab engaging circumferentially between the static structure and the mounting tab . a static structure configured with a bore ; a bearing within the bore ; and a centering spring mounting the bearing to the static structure , the centering spring comprising an annular hub and a mounting tab , the annular hub within the bore , and the mounting tab projecting radially from the annular hub into the slot ; wherein the static structure is also configured with a slot , a first slot surface and a second slot surface , the slot extending radially into the static structure from the bore , and the slot extending axially within the static structure between the first slot surface and the second slot surface ; characterized in that an inner portion of the slot extends axially within the static structure between the first slot surface and the second slot surface , and an outer portion of the slot extends axially into the static structure to the second slot surface wherein the mounting tab is disposed at least partially within the inner portion of the slot ; and in that the assembly further comprises a lock ring comprising a locking tab , the locking tab projecting radially into the slot and the locking tab engaging circumferentially between the static structure and the mounting tab .
A liquid ejecting head comprising: a plurality of nozzles (N) that eject a liquid along a first axis; a row of individual flow paths (Q) that includes a plurality of individual flow paths (Q) arranged in parallel along a second axis orthogonal to the first axis when viewed in a direction of the first axis; and a common liquid chamber (K1) that is commonly in communication with the plurality of individual flow paths (Q), wherein the plurality of individual flow paths (Q) include a first individual flow path (Q1) and a second individual flow path (Q2) that are adjacent to each other in the row of individual flow paths (Q), characterised in that the liquid ejecting head further comprises a position of a first opening (O1) that is a connection port between the common liquid chamber (K1) and the first individual flow path (Q1) and a position of a second opening (O2) that is a connection port between the common liquid chamber (K1) and the second individual flow path (Q2) are different in the direction of the first axis. a plurality of nozzles (N) that eject a liquid along a first axis; a row of individual flow paths (Q) that includes a plurality of individual flow paths (Q) arranged in parallel along a second axis orthogonal to the first axis when viewed in a direction of the first axis; and a common liquid chamber (K1) that is commonly in communication with the plurality of individual flow paths (Q), wherein the plurality of individual flow paths (Q) include a first individual flow path (Q1) and a second individual flow path (Q2) that are adjacent to each other in the row of individual flow paths (Q), characterised in that the liquid ejecting head further comprises a position of a first opening (O1) that is a connection port between the common liquid chamber (K1) and the first individual flow path (Q1) and a position of a second opening (O2) that is a connection port between the common liquid chamber (K1) and the second individual flow path (Q2) are different in the direction of the first axis.
Auxiliary closing drive for the motorized adjustment of a lock latch of a motor vehicle lock within the scope of an auxiliary closing operation, wherein the auxiliary closing drive has a drive housing having a housing interior and, in the housing interior , a drive motor and an adjustment element which is connected downstream of the drive motor and is pivotable about an adjustment element axis , wherein, in order to discharge driving movements, the adjustment element can be coupled in terms of drive to a Bowden cable , wherein the Bowden cable has a Bowden cable sheath and a Bowden cable core , and wherein the adjustment element has a core holder for engagement in terms of drive to an, in particular spherical, core end piece of the Bowden cable core , characterized in that the drive housing has a Bowden cable opening for the threading-in of the Bowden cable core in a threading-in movement , and in that the auxiliary closing drive has a guide device for the Bowden cable core , said guide device guiding the core end piece during the threading-in movement in form-fitting engagement in terms of drive with the core holder of the adjustment element , the core holder being situated in the housing interior .
A composition comprising an ethylene/CO interpolymer, formed from a high pressure, free-radical polymerization, and wherein the ethylene/CO interpolymer has the following properties: a) a CO content from "greater than 0" weight percent to less than, or equal to, 10 weight percent CO (carbon monoxide), based on the weight of the interpolymer; and b) a melting point, Tm, in °C that meets the following relationship: Tm ° C ≤ 601.4 ∗ Density in g / cc − 452.5 ° C . a) a CO content from "greater than 0" weight percent to less than, or equal to, 10 weight percent CO (carbon monoxide), based on the weight of the interpolymer; and b) a melting point, Tm, in °C that meets the following relationship: Tm ° C ≤ 601.4 ∗ Density in g / cc − 452.5 ° C .
A photocurable liquid silicone composition, comprising: (A) an organosilane or organopolysiloxane with 1 to 5 silicon atoms, having at least two alkenyl groups with 2 to 12 carbon atoms in a molecule, and at least two monovalent functional groups selected from aromatic groups with 6 to 12 carbon atoms and aralkyl groups with 7 to 12 carbon atoms; (C) a compound having at least two mercapto groups in the molecule {at an amount where the mercapto groups in component (C) are 0.2 to 3 mols relative to 1 mol of alkenyl groups in component (A)}; and (D) a photo-radical initiator; wherein with regards to 100 parts by mass of component (A), component (C), and component (D), the content of component (A) is in a range of 10 to 99 parts by mass and the content of component (D) is 0.01 to 3.0 parts by mass, and the refractive index of the entire liquid composition prior to curing, at 25°C, and at a wavelength of 847 nm is 1.48 or higher. (A) an organosilane or organopolysiloxane with 1 to 5 silicon atoms, having at least two alkenyl groups with 2 to 12 carbon atoms in a molecule, and at least two monovalent functional groups selected from aromatic groups with 6 to 12 carbon atoms and aralkyl groups with 7 to 12 carbon atoms; (C) a compound having at least two mercapto groups in the molecule {at an amount where the mercapto groups in component (C) are 0.2 to 3 mols relative to 1 mol of alkenyl groups in component (A)}; and (D) a photo-radical initiator; wherein with regards to 100 parts by mass of component (A), component (C), and component (D), the content of component (A) is in a range of 10 to 99 parts by mass and the content of component (D) is 0.01 to 3.0 parts by mass, and the refractive index of the entire liquid composition prior to curing, at 25°C, and at a wavelength of 847 nm is 1.48 or higher.
Transparent substrate coated with an infrared-reflecting layer, characterized in that the substrate is a soda-lime-silicate or aluminosilicate or borosilicate glass the composition of which has a redox lower than 10%, characterized by an infrared reflection RIR V between 780 and 2500 nm, defined for a glass substrate of 4 mm thickness, such that RIR V ≥ 1.087 * TL V , TL V being the light transmission of the glass between 380 and 780 nm, defined for a glass substrate of 4 mm thickness, and in that the infrared-reflecting layer is characterized by a light transmission TL C between 380 and 780 nm such that TL C ≥ 1.3 * TIR C , TIR C being the infrared transmission of the layer between 780 and 2500 nm, and in that the glass has - 1) a composition that comprises, in a content expressed in percentages by total weight of glass: Total iron (expressed in the form of Fe 2 O 3 ) 0.002 - 0.06% Cr 2 O 3 0.0001 - 0.06%; OR - 2) a composition that comprises, in a content expressed in percentages by total weight of glass: Total iron (expressed in the form of Fe 2 O 3 ) 0.002 - 0.06% Cr 2 O 3 0.0015 - 1% Co 0.0001 - 1%; OR - 3) a composition that comprises, in a content expressed in percentages by total weight of glass: Total iron (expressed in the form of Fe 2 O 3 ) 0.02 - 1% Cr 2 O 3 0.002 - 0.5% Co 0.0001 - 0.5%; OR - 4) a composition that comprises, in a content expressed in percentages by total weight of glass: Total iron (expressed in the form of Fe 2 O 3 ) 0.002 - 1% Cr 2 O 3 0.0010 - 0.5% Co 0.0001 - 0.5% Se 0.0003 - 0.5%. - 1) a composition that comprises, in a content expressed in percentages by total weight of glass: Total iron (expressed in the form of Fe 2 O 3 ) 0.002 - 0.06% Cr 2 O 3 0.0001 - 0.06%; OR - 2) a composition that comprises, in a content expressed in percentages by total weight of glass: Total iron (expressed in the form of Fe 2 O 3 ) 0.002 - 0.06% Cr 2 O 3 0.0015 - 1% Co 0.0001 - 1%; OR - 3) a composition that comprises, in a content expressed in percentages by total weight of glass: Total iron (expressed in the form of Fe 2 O 3 ) 0.02 - 1% Cr 2 O 3 0.002 - 0.5% Co 0.0001 - 0.5%; OR - 4) a composition that comprises, in a content expressed in percentages by total weight of glass: Total iron (expressed in the form of Fe 2 O 3 ) 0.002 - 1% Cr 2 O 3 0.0010 - 0.5% Co 0.0001 - 0.5% Se 0.0003 - 0.5%.
A water-soluble film containing polyvinyl alcohol resin, wherein a ratio RSm (LD/TD) is 1.2 or greater and 2.5 or less, where the RSm (LD/TD) is the ratio of an average length RSm (LD) of roughness curve elements on at least one film surface in the longitudinal direction to an average length RSm (TD) of roughness curve elements on the same film surface in the transverse direction, which has been determined using a confocal laser microscope and as being specified in JIS B0601-2001.
A composite for use as a self-shielding wire comprising: a carbon nanotube (CNT)-infused fiber core comprising a plurality of CNT-infused fibers arranged in a composite matrix, each CNT-infused fiber of the CNT-infused fiber core comprising a composite fiber material with CNTs infused directly onto a surface of the fiber material, wherein a CNT-infused fiber is a fiber material to which CNTs are bonded; and a film of thermo-plastic material formed onto an outermost layer of the CNT-infused fiber core. a carbon nanotube (CNT)-infused fiber core comprising a plurality of CNT-infused fibers arranged in a composite matrix, each CNT-infused fiber of the CNT-infused fiber core comprising a composite fiber material with CNTs infused directly onto a surface of the fiber material, wherein a CNT-infused fiber is a fiber material to which CNTs are bonded; and a film of thermo-plastic material formed onto an outermost layer of the CNT-infused fiber core.
Hybrid carrying structure for a backrest part of a vehicle seat or a back seat formed from a metal structure and a plastic structure , wherein the metal structure has at least one connecting profile (10M-12) arranged between two side-rail profiles (10M-1, 10M-2) of the hybrid carrying structure , wherein the connecting profile (10M-12), together with a central rib of a mesh structure (10K-1) designed in the form of plastic structure , follows a load-path-optimized main-load line (H) which, taking account of a force acting on the hybrid carrying structure in at least one assumed load case (I, II, III, IV, V), runs between two points of attachment (P1, P2) of the connecting profile (10M-12) to the side-rail profiles (10M-1, 10M-2), characterized in that the metal structure and the plastic structure are connected in an injection molding process to the hybrid carrying structure , wherein the metal structure is an assembly component made of several metallic components (10M-1, 10M-2, 10M-3, 10M-4, 10M-5, 10M-6, 10M-7), wherein the several metallic components, which, initially, are brought together to form the metallic assembly component, are connected to each other in the injection molding process via the simultaneously integrally-formed plastic structure .
Method for producing a container having a top part , a bottom part and a receiving element , at least comprising the following steps: the bottom part is created from a first starting material in a first processing region of a processing apparatus ; the top part is created from a second starting material in a second processing region of the processing apparatus ; the receiving element is guided into the first processing region of the processing apparatus ; the receiving element is received by the bottom part in the first processing region of the processing apparatus ; the top part is guided from the second processing region of the processing apparatus into the first processing region of the processing apparatus ; and the top part and the bottom part are joined to form the container in the first processing region of the processing apparatus , characterized in that the receiving element is an electrically active element, wherein the method further comprises the step of electrical contact being made with the receiving element which is received by the bottom part . the bottom part is created from a first starting material in a first processing region of a processing apparatus ; the top part is created from a second starting material in a second processing region of the processing apparatus ; the receiving element is guided into the first processing region of the processing apparatus ; the receiving element is received by the bottom part in the first processing region of the processing apparatus ; the top part is guided from the second processing region of the processing apparatus into the first processing region of the processing apparatus ; and the top part and the bottom part are joined to form the container in the first processing region of the processing apparatus , characterized in that the receiving element is an electrically active element, wherein the method further comprises the step of electrical contact being made with the receiving element which is received by the bottom part .