mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for supplying a coolant to a heat exchanger, preferably an exhaust gas cooler of an internal combustion engine of a motor vehicle, comprising a connecting stub , characterised in that the connecting stub is designed for insertion into a coolant connection , wherein a flow-directing device , which is of projection-like design, for the coolant is integrated in the interior of the connecting stub, wherein the flow-directing device is formed approximately centrally on the inner wall, in a manner projecting into an interior of the connecting stub , and a contour of the flow-directing device runs in a direction of longitudinal extent of the connecting stub in a manner rising in the direction of the heat exchanger, wherein the contour of the flow-directing device is of approximately mirror-symmetrical design in the radial direction of the connecting stub , wherein a respective curvature adjoins the inner wall of the connecting stub on both sides with respect to a centrally formed maximum .
A power feed system (1, la) comprising: a power-receiving circuit ; and a power transmission circuit configured to wirelessly supply power to the power-receiving circuit , wherein the power transmission circuit includes a power transmission resonance circuit including an inductor having self-inductance L1 and a capacitor having capacity C1, the power-receiving circuit includes a power-receiving resonance circuit including an inductor having self-inductance L2 and a capacitor having capacity C2, the power transmission resonance circuit is configured to be driven at a driving frequency ω and thereby to perform power transmission from the power transmission circuit to the power-receiving circuit , and the self-inductance L1, the capacity C1, the self-inductance L2, the capacity C2, and the driving frequency co are set such that an absolute value of a reactance X1 of the power transmission resonance circuit , which is determined by the self-inductance L1, the capacity C1, and the driving frequency ω, is larger than a first threshold Th1 that is not smaller than 0 and also a reactance X2 of the power-receiving resonance circuit , which is determined by the self-inductance L2, the capacity C2, and the driving frequency ω, is 0, which in addition includes a case in which there is an error with which, in terms of an operation of the power-receiving circuit , the condition that X2 is 0 is substantially satisfied. a power-receiving circuit ; and a power transmission circuit configured to wirelessly supply power to the power-receiving circuit , wherein the power transmission circuit includes a power transmission resonance circuit including an inductor having self-inductance L1 and a capacitor having capacity C1, the power-receiving circuit includes a power-receiving resonance circuit including an inductor having self-inductance L2 and a capacitor having capacity C2, the power transmission resonance circuit is configured to be driven at a driving frequency ω and thereby to perform power transmission from the power transmission circuit to the power-receiving circuit , and the self-inductance L1, the capacity C1, the self-inductance L2, the capacity C2, and the driving frequency co are set such that an absolute value of a reactance X1 of the power transmission resonance circuit , which is determined by the self-inductance L1, the capacity C1, and the driving frequency ω, is larger than a first threshold Th1 that is not smaller than 0 and also a reactance X2 of the power-receiving resonance circuit , which is determined by the self-inductance L2, the capacity C2, and the driving frequency ω, is 0, which in addition includes a case in which there is an error with which, in terms of an operation of the power-receiving circuit , the condition that X2 is 0 is substantially satisfied.
Grinding machine housing device for a portable power tool, in particular a grinding machine, having at least one housing element that at least partially defines a drive-axis and an output-axis plane , in which a drive axis of a drive unit of the portable power tool extends in a state of the drive unit arranged in the housing element and in which an output axis of an output unit of the portable power tool extends in a state of the output unit arranged in the housing element , and having at least one energy store receiving interface , arranged on the housing element , for releasably receiving at least one energy storage device , wherein the energy store receiving interface comprises at least one receiving guide element , characterized in that the receiving guide element has a main guide axis extending at least substantially transversely to the drive-axis and output-axis plane .
A central part structure for a vehicle, comprising: a roof side rail provided so as to extend in a vehicle front-rear direction, the roof side rail being formed in a tubular shape; a roof reinforcement extending in a vehicle width direction so as to be connected to the roof side rail ; a center pillar configured to support the roof side rail ; and a first reinforcing member accommodated in the roof side rail at a position where the roof side rail and the roof reinforcement overlap with each other, wherein the first reinforcing member includes a main reinforcement wall portion extending along the roof side rail , and a traverse portion provided so as to cross the roof side rail , the traverse portion being placed at a position where the traverse portion is configured to receive a side collision load applied via an upper part of the center pillar , the central part structure being characterized in that : the roof reinforcement includes at least one vertical wall portion extending in the vehicle width direction, and the traverse portion is placed at a position on an extension line of the vertical wall portion . a roof side rail provided so as to extend in a vehicle front-rear direction, the roof side rail being formed in a tubular shape; a roof reinforcement extending in a vehicle width direction so as to be connected to the roof side rail ; a center pillar configured to support the roof side rail ; and a first reinforcing member accommodated in the roof side rail at a position where the roof side rail and the roof reinforcement overlap with each other, wherein the first reinforcing member includes a main reinforcement wall portion extending along the roof side rail , and a traverse portion provided so as to cross the roof side rail , the traverse portion being placed at a position where the traverse portion is configured to receive a side collision load applied via an upper part of the center pillar , the central part structure being characterized in that : a main reinforcement wall portion extending along the roof side rail , and a traverse portion provided so as to cross the roof side rail , the traverse portion being placed at a position where the traverse portion is configured to receive a side collision load applied via an upper part of the center pillar , the central part structure being characterized in that : the roof reinforcement includes at least one vertical wall portion extending in the vehicle width direction, and the traverse portion is placed at a position on an extension line of the vertical wall portion .
A device for transporting and hatching eggs on a farm, comprising: - a transport container ; - a hatching substrate associated with said transport container and configurable between a transport condition, wherein said hatching substrate is inserted in said transport container , and a hatching condition, wherein said hatching substrate is separated from said transport container and placed outside in a position independent of that of said transport container ; said hatching substrate comprising eggs retaining means shaped so as to maintain the eggs arranged in said transporting and hatching device in a substantially stable position; wherein said transport container comprises a base on which said hatching substrate may be positioned and at least one lateral wall transversal to said base ; said lateral wall surrounding said base ; characterised in that said transport container has at least one lateral passage opening defined by a window fashioned in said lateral wall for a sliding movement of said hatching substrate at least between the transport condition and the hatching condition through said lateral passage opening. - a transport container ; - a hatching substrate associated with said transport container and configurable between a transport condition, wherein said hatching substrate is inserted in said transport container , and a hatching condition, wherein said hatching substrate is separated from said transport container and placed outside in a position independent of that of said transport container ; said hatching substrate comprising eggs retaining means shaped so as to maintain the eggs arranged in said transporting and hatching device in a substantially stable position; wherein said transport container comprises a base on which said hatching substrate may be positioned and at least one lateral wall transversal to said base ; said lateral wall surrounding said base ;
A microorganism from the species Ensifer adhaerens having nematicidal activity on a nematode from the genus Meloidogyne, wherein the microorganism is selected from the group consisting of: (i) E. adhaerens strain B742, deposited in the Spanish Type Culture Collection (CECT) with accession number CECT 8809, (ii) E. adhaerens strain B758, deposited in the Spanish Type Culture Collection (CECT) with accession number CECT 8810, and (iii) E. adhaerens strain B760, deposited in the Spanish Type Culture Collection (CECT) with accession number CECT 8808, or a mutant of said microorganism maintaining said nematicidal activity, wherein the mutant has a genome having a sequence identity of at least 95% with the genome of one of the strains B742, B758 or B760 of E. adhaerens. (i) E. adhaerens strain B742, deposited in the Spanish Type Culture Collection (CECT) with accession number CECT 8809, (ii) E. adhaerens strain B758, deposited in the Spanish Type Culture Collection (CECT) with accession number CECT 8810, and (iii) E. adhaerens strain B760, deposited in the Spanish Type Culture Collection (CECT) with accession number CECT 8808,
A method for washing or drying a vehicle , the method comprising determining a longitudinal virtual profile of the vehicle ; moving the vehicle and an overhead unit of an apparatus for washing and/or drying the vehicle in relation to one another in a longitudinal direction of the vehicle ; determining a position of the overhead unit in relation to the vehicle ; and controlling the position of the overhead unit in relation to the vehicle by continuously controlling the position of the overhead unit in relation to the vehicle by a basic control of the overhead unit based on the determined position of the overhead unit in relation to the vehicle and by acting on the basic control of the overhead unit , when necessary, by an additional control of the overhead unit based on the longitudinal virtual profile of the vehicle ; characterised by determining the position of the overhead unit in relation to the vehicle on the basis of at least one measuring signal (MS, L20, L21) indicating a distance of the overhead unit from the vehicle and by acting on the basic control of the overhead unit by changing with the additional control of the overhead unit the value of said at least one measuring signal (MS, L20) indicating the distance of the overhead unit from the vehicle .
A coated paperboard comprising: a paperboard substrate having a first side and a second side; a multilayer coating having two or more layers in contact with the first side of the paperboard substrate, the multilayer coating comprising a base coating in contact with the paperboard substrate, the base coating having a coat weight from 9.76g/m 2 to 16.26g/m 2 (6 to 10 lbs per 3000 ft 2 ) and comprising binder and pigment, and a top coating forming the outermost layer of the multilayer coating, the top coating having a coat weight from 4.88g/m 2 to 16.26g/m 2 (3 to 10 lbs per 3000 ft 2 ) and comprising binder and pigment, the multilayer coating containing substantially no fluorochemical or wax; wherein the pigment comprises at least one of a clay and calcium carbonate; wherein the binder comprises one or more synthetic polymer binders and one or more additional natural biodegradable binders and wherein the additional biodegradable binder comprises between 1 to 10 parts per 100 parts pigment, by weight; wherein the binder to pigment ratio in the multilayer coating is from about 25 to about 40 parts binder per 100 parts pigment, by weight; wherein the coated paperboard has a caliper of at least 254μm (0.010"); and wherein the coated paperboard is compostable according to the ASTM D6868-11 standard for compostability. a paperboard substrate having a first side and a second side; a multilayer coating having two or more layers in contact with the first side of the paperboard substrate, the multilayer coating comprising a base coating in contact with the paperboard substrate, the base coating having a coat weight from 9.76g/m 2 to 16.26g/m 2 (6 to 10 lbs per 3000 ft 2 ) and comprising binder and pigment, and a top coating forming the outermost layer of the multilayer coating, the top coating having a coat weight from 4.88g/m 2 to 16.26g/m 2 (3 to 10 lbs per 3000 ft 2 ) and comprising binder and pigment, the multilayer coating containing substantially no fluorochemical or wax; wherein the pigment comprises at least one of a clay and calcium carbonate; wherein the binder comprises one or more synthetic polymer binders and one or more additional natural biodegradable binders and wherein the additional biodegradable binder comprises between 1 to 10 parts per 100 parts pigment, by weight; wherein the binder to pigment ratio in the multilayer coating is from about 25 to about 40 parts binder per 100 parts pigment, by weight; wherein the coated paperboard has a caliper of at least 254μm (0.010"); and wherein the coated paperboard is compostable according to the ASTM D6868-11 standard for compostability.
A non-transitory computer readable storage medium having stored thereon processor-executable software instructions configured to cause a processor to perform operations comprising: receiving airborne navigation data, airborne gravity data, and airborne LiDAR data; generating position information based on the navigation data; generating gravity field information based on a combination of the airborne gravity data and the generated position information; generating orthometric height information based on a combination of the airborne LiDAR data and the generated position information; and computing a geoid using a combination of the generated orthometric height information and the generated gravity field information. receiving airborne navigation data, airborne gravity data, and airborne LiDAR data; generating position information based on the navigation data; generating gravity field information based on a combination of the airborne gravity data and the generated position information; generating orthometric height information based on a combination of the airborne LiDAR data and the generated position information; and computing a geoid using a combination of the generated orthometric height information and the generated gravity field information.
A package substrate comprising: a substrate having opposing first surface and second surface ; at least one vent hole extending through the first surface and the second surface of the substrate, the vent hole comprising at least a long-strip hole; characterized in that a passivation layer is formed on the inner wall of the vent hole and on an inner wall of the long-strip hole formed by connecting a plurality of continuous circular holes . a substrate having opposing first surface and second surface ; at least one vent hole extending through the first surface and the second surface of the substrate, the vent hole comprising at least a long-strip hole; characterized in that a passivation layer is formed on the inner wall of the vent hole and on an inner wall of the long-strip hole formed by connecting a plurality of continuous circular holes .
An implantable prosthesis for creating a venous valve of autologous tissue, the prosthesis comprising: a valve creation device that in a preset closed configuration forces opposing portions of a vein wall together to create a valve of autologous vein tissue to substantially prevent retrograde blood flow through the valve, wherein the valve creation device assumes a temporary open configuration in response to antegrade blood flow through the vein, characterized in that the valve creation device is a wire-like structure having a first leg , a second leg , and a segment extending between the first leg and the second leg and wherein the first and second legs have contact portions that are biased toward each other to operably force opposing portions of the vein wall together in situ to create the valve.
A fault detection method for an air conditioning system, wherein the air conditioning system has an injector and a liquid pump for providing pressure compensation; the fault detection method comprising: I, learning to obtain a monotonically decreasing fault detection characteristic curve Y=K(X-Xmax)+A by using an electrical power consumption of the liquid pump and a high-pressure-side pressure of the injector; where Y is the electrical power consumption of the liquid pump, X is the high-pressure-side pressure of the injector, K is a slope of the fault detection characteristic curve obtained by learning, A is a set fault tolerance value, which is not less than 0, and Xmax corresponds to a maximum high-pressure-side pressure of the injector; and II, when the current pressure of the injector Xcurrent≤Xmax: if the current electrical power consumption Ycurrent<K(Xcurrent-Xmax)+A, then a probability of the injector state of the air conditioning system being normal is greater than a first preset value; and if the current electrical power consumption Ycurrent>K(Xcurrent-Xmax)+A, a probability of the injector of the air conditioning system having a fault is greater than a second preset value. I, learning to obtain a monotonically decreasing fault detection characteristic curve Y=K(X-Xmax)+A by using an electrical power consumption of the liquid pump and a high-pressure-side pressure of the injector; where Y is the electrical power consumption of the liquid pump, X is the high-pressure-side pressure of the injector, K is a slope of the fault detection characteristic curve obtained by learning, A is a set fault tolerance value, which is not less than 0, and Xmax corresponds to a maximum high-pressure-side pressure of the injector; and II, when the current pressure of the injector Xcurrent≤Xmax: if the current electrical power consumption Ycurrent<K(Xcurrent-Xmax)+A, then a probability of the injector state of the air conditioning system being normal is greater than a first preset value; and if the current electrical power consumption Ycurrent>K(Xcurrent-Xmax)+A, a probability of the injector of the air conditioning system having a fault is greater than a second preset value.
A bacterial biocalcification method for producing constructional/architectural/industrial materials, characterized by comprising the steps of; i) Obtaining a structure from a 3 dimensional printer that is formed from an environmentally friendly biodegradable polymer composite containing fibers, ii) Immobilizing bacteria and nutrients by spraying on or impregnating in the biodegradable structure successively onto or into the said structure, iii) Embedding the structure carrying the bacteria into sand and fiber mixture, iv) Waiting for the bacteria to spread around the structure in order to turn the sand and fiber mixture into a fibrous sandstone composite structure (cementation process). v) Removing the sand that has not turned into sandstone following the cementation process. i) Obtaining a structure from a 3 dimensional printer that is formed from an environmentally friendly biodegradable polymer composite containing fibers, ii) Immobilizing bacteria and nutrients by spraying on or impregnating in the biodegradable structure successively onto or into the said structure, iii) Embedding the structure carrying the bacteria into sand and fiber mixture, iv) Waiting for the bacteria to spread around the structure in order to turn the sand and fiber mixture into a fibrous sandstone composite structure (cementation process). v) Removing the sand that has not turned into sandstone following the cementation process.
An agent for use in the treatment or prevention of inflammation or colibacillosis in poultry or for use in the amelioration of ascites, or emaciation in poultry, said agent comprising unheated cashew nut shell liquid, heated cashew nut shell liquid, anacardic acid, cardanol, and/or cardol as an active ingredient.
A foamable personal care composition, comprising components: (a) 1 to 8% by weight of a cosmetically acceptable acidic component, (b) 1 to 8% by weight of an alkali metal carbonate or bicarbonate component, (c) a carrier component, comprising: (c1) 0.7 to 1.6% by weight of a cellulose thickener having a Brookfield viscosity of from 800 to 50,000 mPa•s, measured by a Brookfield RVDV II+ viscometer using spindles No. 2 to 6 at a rotation speed of 20 min -1 in 1% by weight aqueous solution of the cellulose thickener at 20 °C, (c2) 1.5 to 6% by weight of a surfactant selected from the group consisting of amphocarboxylate salt having from 2 to 12 carbon atoms in the carboxylate group, amphodicarboxylate salt having from 2 to 12 carbon atoms in the carboxylate group, and combination thereof, and (c3) 80 to 95% by weight of water, in which the weight ratios of the components are based on the total amount of all components of the foamable personal care composition. (a) 1 to 8% by weight of a cosmetically acceptable acidic component, (b) 1 to 8% by weight of an alkali metal carbonate or bicarbonate component, (c) a carrier component, comprising: (c1) 0.7 to 1.6% by weight of a cellulose thickener having a Brookfield viscosity of from 800 to 50,000 mPa•s, measured by a Brookfield RVDV II+ viscometer using spindles No. 2 to 6 at a rotation speed of 20 min -1 in 1% by weight aqueous solution of the cellulose thickener at 20 °C, (c2) 1.5 to 6% by weight of a surfactant selected from the group consisting of amphocarboxylate salt having from 2 to 12 carbon atoms in the carboxylate group, amphodicarboxylate salt having from 2 to 12 carbon atoms in the carboxylate group, and combination thereof, and (c3) 80 to 95% by weight of water, in which the weight ratios of the components are based on the total amount of all components of the foamable personal care composition. (c1) 0.7 to 1.6% by weight of a cellulose thickener having a Brookfield viscosity of from 800 to 50,000 mPa•s, measured by a Brookfield RVDV II+ viscometer using spindles No. 2 to 6 at a rotation speed of 20 min -1 in 1% by weight aqueous solution of the cellulose thickener at 20 °C, (c2) 1.5 to 6% by weight of a surfactant selected from the group consisting of amphocarboxylate salt having from 2 to 12 carbon atoms in the carboxylate group, amphodicarboxylate salt having from 2 to 12 carbon atoms in the carboxylate group, and combination thereof, and (c3) 80 to 95% by weight of water, in which the weight ratios of the components are based on the total amount of all components of the foamable personal care composition.