mhurhangee/patent-ind-claim-en huggingface dataset:
A detergent composition, comprising: a) from 1 to 40 wt.%, preferably from 2 to 30 wt.%, most preferably from 3 to 15 wt.%, of a secondary alkane sulfonate surfactant with an average of 15 to 18 carbon atoms in a linear alkane chain; b) from 1 to 40 wt.%, preferably from 2 to 30 wt.%, most preferably from 3 to 15 wt.%, of an anionic surfactant other than a); and, c) from 0.01 to 8%, preferably from 0.1 to 6 wt.%, more preferably from 0.25 wt.% to 5 wt.%, most preferably from 0.5 to 5 wt.% of an alkyl hydroxysultaine co-surfactant; and, wherein greater than 50 wt.% of the alkyl chain of the secondary alkane sulfonate is C15 to C18, preferably C15 to C17 secondary alkane sulfonate. a) from 1 to 40 wt.%, preferably from 2 to 30 wt.%, most preferably from 3 to 15 wt.%, of a secondary alkane sulfonate surfactant with an average of 15 to 18 carbon atoms in a linear alkane chain; b) from 1 to 40 wt.%, preferably from 2 to 30 wt.%, most preferably from 3 to 15 wt.%, of an anionic surfactant other than a); and, c) from 0.01 to 8%, preferably from 0.1 to 6 wt.%, more preferably from 0.25 wt.% to 5 wt.%, most preferably from 0.5 to 5 wt.% of an alkyl hydroxysultaine co-surfactant; and,
A continuous method for making an adhesive foam material comprising: mixing at least one pressure-sensitive (meth)acryloyl polymer and a CO 2 /N 2 blowing agent mixture in an extrusion apparatus having an exit shaping orifice at a temperature to form a melt solution wherein the blowing agent is uniformly distributed throughout the polymeric material; conveying the melt solution though the extrusion apparatus, wherein the system pressure in the final section of the extrusion apparatus is 250 to less than 1000 psi (1.7 to 6.9 MPa); passing the solution through said exit shaping orifice and exposing the solution to atmospheric pressure, whereby the blowing agent expands causing nucleation and cell formation resulting in the melt solution foaming and solidifying at or about the time it exits the shaping orifice; rapidly cooling the polymer melt to arrest cell growth and coalescence, and crosslinking the resulting (meth)acryloyl foam polymer. mixing at least one pressure-sensitive (meth)acryloyl polymer and a CO 2 /N 2 blowing agent mixture in an extrusion apparatus having an exit shaping orifice at a temperature to form a melt solution wherein the blowing agent is uniformly distributed throughout the polymeric material; conveying the melt solution though the extrusion apparatus, wherein the system pressure in the final section of the extrusion apparatus is 250 to less than 1000 psi (1.7 to 6.9 MPa); passing the solution through said exit shaping orifice and exposing the solution to atmospheric pressure, whereby the blowing agent expands causing nucleation and cell formation resulting in the melt solution foaming and solidifying at or about the time it exits the shaping orifice; rapidly cooling the polymer melt to arrest cell growth and coalescence, and crosslinking the resulting (meth)acryloyl foam polymer.
Method for booting a medical device , comprising: executing a bootloader software, PBL, stored in a first memory of a memory device of the medical device for booting the medical device , wherein the bootloader software, PBL, is directly executed at the startup of the medical device to initialize the hardware of the medical device and to start execution of a medical application software, APL; loading, during execution of the bootloader software, PBL, in the first memory , the bootloader software, PBL, or a portion of the bootloader software, PBL, into a second memory of the memory device of the medical device which is different from the first memory ; executing the bootloader software, PBL, or said portion of the bootloader software, PBL, from the second memory ; receiving a software update of the bootloader software, PBL, or said portion of the bootloader software, PBL; and storing the software update of the bootloader software, PBL, or said portion of the bootloader software, PBL, in the first memory , wherein storing of the software update of the bootloader software, PBL, or said portion of the bootloader software, PBL, in the first memory includes erasing a prior version of the bootloader software, PBL, or said portion of the bootloader software, PBL, and wherein the first memory is a non-volatile memory and the second memory is a volatile memory. executing a bootloader software, PBL, stored in a first memory of a memory device of the medical device for booting the medical device , wherein the bootloader software, PBL, is directly executed at the startup of the medical device to initialize the hardware of the medical device and to start execution of a medical application software, APL; loading, during execution of the bootloader software, PBL, in the first memory , the bootloader software, PBL, or a portion of the bootloader software, PBL, into a second memory of the memory device of the medical device which is different from the first memory ; executing the bootloader software, PBL, or said portion of the bootloader software, PBL, from the second memory ; receiving a software update of the bootloader software, PBL, or said portion of the bootloader software, PBL; and storing the software update of the bootloader software, PBL, or said portion of the bootloader software, PBL, in the first memory , wherein storing of the software update of the bootloader software, PBL, or said portion of the bootloader software, PBL, in the first memory includes erasing a prior version of the bootloader software, PBL, or said portion of the bootloader software, PBL, and wherein the first memory is a non-volatile memory and the second memory is a volatile memory.
Block means for arrangement in a door leaf or window sash , comprising two block bodies which can be moved relative to one another and an actuating device for moving at least one block body , the two block bodies being planar and linearly movable, toward or away from one another, relative to one another (double arrow L), perpendicularly to the respective main planes thereof, characterized in that the actuating device comprises a screw and a nut is arranged on one of the block bodies .
A method of milling a pocket region of a workpiece, the method characterised by computing a blend arc radius, wherein the blend arc radius is based on a maximal variation of a Tool Engagement Angle; smoothing at least one offset, wherein the smoothing is based on at least one of: the computed blend arc radius and a prior computed blend arc radius with a stepover; limiting the Tool Engagement Angle via limiting a maximal curvature at a previously smoothed at least one offset, wherein the Tool Engagement Angle is based on the stepover and a tool radius; determining a milling tool path in the pocket region of a workpiece based on maintaining a Material Removal Rate at each point of the toolpath, wherein the Material Removal Rate does not exceed a specified value during milling; and wherein the milling tool path is further based on keeping feedrate change and Tool Engagement Angle change within acceptable ranges.
Method for regulating the porosity of a filter cake of a precoat filter which has at least one inlet (114a-b) for non-filtrate and at least one outlet for filtrate, comprising the steps of: feeding in a flow of non-filtrate mixed with filter aid via the inlet (114a-b) of the precoat filter; and removing a flow of filtrate from the outlet of the precoat filter; a turbidity of the removed filtrate being measured and compared with at least one threshold value for the turbidity by means of a control unit ; characterised in that a pressure difference between the non-filtrate side and the filtrate side of the precoat filter is regulated by adjusting a volumetric flow rate of the fed-in flow by means of the control unit on the basis of a result of the comparison of the measured turbidity with the at least one threshold value; the control unit increasing a setpoint value for the pressure difference if the measured turbidity is above an upper threshold value; the control unit reducing the setpoint value for the pressure difference if the measured turbidity is below a lower threshold value; and the regulation of the pressure difference being carried out at least partially, in particular completely, by returning the filtrate to the inlet (114a-b) of the precoat filter. feeding in a flow of non-filtrate mixed with filter aid via the inlet (114a-b) of the precoat filter; and removing a flow of filtrate from the outlet of the precoat filter; a turbidity of the removed filtrate being measured and compared with at least one threshold value for the turbidity by means of a control unit ; a pressure difference between the non-filtrate side and the filtrate side of the precoat filter is regulated by adjusting a volumetric flow rate of the fed-in flow by means of the control unit on the basis of a result of the comparison of the measured turbidity with the at least one threshold value; the control unit increasing a setpoint value for the pressure difference if the measured turbidity is above an upper threshold value; the control unit reducing the setpoint value for the pressure difference if the measured turbidity is below a lower threshold value; and the regulation of the pressure difference being carried out at least partially, in particular completely, by returning the filtrate to the inlet (114a-b) of the precoat filter.
Mop for cleaning surfaces, comprising a material layer of a textile carrier material, wherein the mop - has a geometry adapted to the dimensions of a substantially rectangular mop refill holder; and - comprises an underside which, when used on the mop refill holder, faces the surface to be cleaned when cleaning surfaces; - an upper side facing away from the underside; - a first longitudinal edge along the longitudinal dimension of the mop, a second longitudinal edge along the longitudinal dimension of the mop, and a first transverse edge along the transverse dimension of the mop and a second transverse edge along the transverse dimension of the mop; and - the material layer along the first longitudinal edge and/or along the second longitudinal edge is in each case folded over at least once to the extent that a first folded-over section extends substantially parallel to the upper side of the material layer along the first longitudinal edge and/or a second folded-over section extends substantially parallel to the upper side of the material layer along the second longitudinal edge , so that the thickness of the material layer is increased in the region of the first longitudinal edge and/or in the region of the second longitudinal edge ; characterised in that the first folded-over section and the second folded-over section are in each case folded over once in the direction of the underside of the material layer . - has a geometry adapted to the dimensions of a substantially rectangular mop refill holder; and - comprises an underside which, when used on the mop refill holder, faces the surface to be cleaned when cleaning surfaces; - an upper side facing away from the underside; - a first longitudinal edge along the longitudinal dimension of the mop, a second longitudinal edge along the longitudinal dimension of the mop, and a first transverse edge along the transverse dimension of the mop and a second transverse edge along the transverse dimension of the mop; and - the material layer along the first longitudinal edge and/or along the second longitudinal edge is in each case folded over at least once to the extent that a first folded-over section extends substantially parallel to the upper side of the material layer along the first longitudinal edge and/or a second folded-over section extends substantially parallel to the upper side of the material layer along the second longitudinal edge , so that the thickness of the material layer is increased in the region of the first longitudinal edge and/or in the region of the second longitudinal edge ;
A method for making a particulate ceramic grinding medium having (i) a surface roughness of at least about 0.5 μm, or (ii) a mean coefficient of friction of at least about 0.10, or both (i) and (ii), wherein the particulate grinding medium has a specific gravity of at least 3.5, said method comprising: a. obtaining, providing or making a composition comprising raw materials comprising at least one of zirconia (ZrO 2 ) and alumina (Al 2 O 3 ), optionally wherein the composition further comprises ceria (CeO 2 ) from about 5 to about 25 wt. % ceria, based on the total weight of the composition, for example, from about 10 to about 20 wt. % ceria; b. mixing the composition comprising raw materials, forming a mixture; c. combining the mixture with binder, forming a bound mixture; d. granulating the bound mixture by mixing the bound mixture composition over a period of time during which the mixing speed is reduced; e. optionally drying the granulated composition; f. optionally shaping the granulated composition; g. optionally sizing the granulated composition; and h. sintering the granulated composition, optionally wherein steps b) to d) are performed in a mixer equipped with an impeller, wherein the impeller speed during step b) is greater than the impellor speed during steps c) and d), and wherein the impeller speed during step c) is equal to or greater than the impellor speed during step d). a. obtaining, providing or making a composition comprising raw materials comprising at least one of zirconia (ZrO 2 ) and alumina (Al 2 O 3 ), optionally wherein the composition further comprises ceria (CeO 2 ) from about 5 to about 25 wt. % ceria, based on the total weight of the composition, for example, from about 10 to about 20 wt. % ceria; b. mixing the composition comprising raw materials, forming a mixture; c. combining the mixture with binder, forming a bound mixture; d. granulating the bound mixture by mixing the bound mixture composition over a period of time during which the mixing speed is reduced; e. optionally drying the granulated composition; f. optionally shaping the granulated composition; g. optionally sizing the granulated composition; and h. sintering the granulated composition, optionally
A process to increase the enantiopurity of (S) -3-(4-((4-(morpholinomethyl)benzyl)oxy)-1-oxoisoindolin-2-yl)piperidine-2,6-dione hydrochloride or a solvate thereof, comprising recrystallization or trituration of a sample of (S) -3-(4-((4-(morpholinomethyl)benzyl)oxy)-1-oxoisoindolin-2-yl)piperidine-2,6-dione hydrochloride or a solvate thereof, in methanol, wherein the enantiomeric excess (ee) of the sample is from 0% to 95%, and the enantiopurity is increased by 1%, 5%, 10%, 15%, 20%, 25%, 30% or more.
An item inspection apparatus for inspecting an item, said apparatus comprising: a transitioning part configured to transition-the item such that a top or bottom surface or a front or rear surface, seen with respect to a transfer direction, faces upwards; a transferring part configured to transfer the item to the transitioning part ; a rotating part configured to rotate the item-such that the left and right surfaces and the front and rear surfaces with respect to the transfer direction are changed, while the top and bottom surfaces are maintained; and an inspecting part provided above the transitioning part configured to inspect the shape of an item held by the transitioning part, wherein the transferring part is configured to: transfer the item, which has been transitioned by the transitioning part , to the rotating part ; and transfer the item, which has been rotated by the rotating part , to the transitioning part . a transitioning part configured to transition-the item such that a top or bottom surface or a front or rear surface, seen with respect to a transfer direction, faces upwards; a transferring part configured to transfer the item to the transitioning part ; a rotating part configured to rotate the item-such that the left and right surfaces and the front and rear surfaces with respect to the transfer direction are changed, while the top and bottom surfaces are maintained; and an inspecting part provided above the transitioning part configured to inspect the shape of an item held by the transitioning part, wherein the transferring part is configured to: transfer the item, which has been transitioned by the transitioning part , to the rotating part ; and transfer the item, which has been rotated by the rotating part , to the transitioning part . transfer the item, which has been transitioned by the transitioning part , to the rotating part ; and transfer the item, which has been rotated by the rotating part , to the transitioning part .
A UAV, which comprises a power system for outputting power, wherein the power system comprises: an engine , which comprises an engine body and an engine output shaft arranged on the engine body ; a motor , which comprises a stator , a rotor and a stator connector for connecting the stator and the rotor ; the stator connector is arranged on the engine body , and the rotor is coaxially arranged on the engine output shaft ; the rotor is used for coaxial connection with an external power receiver; and a battery, which is connected to the motor , and the battery can discharge to provide electric energy to the motor , or receive the electric energy output by the motor for charging, wherein the UAV further comprises a UAV body and a propeller arranged on the UAV body, wherein the engine body is arranged on the UAV body, and the propeller is coaxially arranged on the rotor as the external power receiver, and wherein the propeller is directly locked on the rotor by fasteners. an engine , which comprises an engine body and an engine output shaft arranged on the engine body ; a motor , which comprises a stator , a rotor and a stator connector for connecting the stator and the rotor ; the stator connector is arranged on the engine body , and the rotor is coaxially arranged on the engine output shaft ; the rotor is used for coaxial connection with an external power receiver; and a battery, which is connected to the motor , and the battery can discharge to provide electric energy to the motor , or receive the electric energy output by the motor for charging, wherein the UAV further comprises a UAV body and a propeller arranged on the UAV body, wherein the engine body is arranged on the UAV body, and the propeller is coaxially arranged on the rotor as the external power receiver, and wherein the propeller is directly locked on the rotor by fasteners.
A cubic boron nitride sintered body tool in which a cubic boron nitride sintered body is joined to a tool base material via a joining layer , wherein said cubic boron nitride sintered body contains cubic boron nitride particles by not less than 30 volume % and not more than 95 volume % and a binder phase by not less than 5 volume % and not more than 70 volume %, said binder phase is composed of at least one first compound and at least one Al compound, or is composed of at least one second compound, said first compound is a compound composed of Ti and at least one element selected from a group consisting of nitrogen, carbon, and boron, or is a solid solution of said compound, said second compound is a compound selected from a group consisting of a Co compound, an Al compound, and a W compound, or is a solid solution of said compound, said joining layer contains Ti by 5 mass % or greater and Zr by 5 mass % or greater relative to a whole of said joining layer with a remainder thereof containing Cu while a total of said Ti and said Zr is 90 mass % or smaller, or said joining layer contains Ti by 1 mass % or greater and Cu by 15 mass % or greater with a remainder thereof containing Ag, and assuming that, in at least one cross sectional surface of said cubic boron nitride sintered body tool taken along a plane perpendicular to a joining surface having a largest area in joining surfaces between said cubic boron nitride sintered body and said joining layer , any adjacent two of said cubic boron nitride particles along the joining surface between said cubic boron nitride sintered body and said joining layer are a first cubic boron nitride particle and a second cubic boron nitride particle , assuming that a point A represents an intersection close to said second cubic boron nitride particle among intersections at which said first cubic boron nitride particle , said joining layer , and said binder phase are in contact with one another, and a point B represents an intersection close to said point A among intersections at which said second cubic boron nitride particle , said joining layer , and said binder phase are in contact with one another, assuming that a point C represents a point away from said point A, along a boundary line on which said first cubic boron nitride particle and said joining layer are in contact with each other, by 1/4 of a length of a line segment connecting said point A and said point B to each other, and assuming that a point D represents a point away from said point B, along a boundary line on which said second cubic boron nitride particle and said joining layer are in contact with each other, by 1/4 of the length of the line segment connecting said point A and said point B to each other, a value obtained when an area of a region surrounded by a line segment connecting said point C and said point D to each other, said first cubic boron nitride particle , said second cubic boron nitride particle , and said binder phase is divided by the length of the line segment connecting said point A and said point B to each other is not less than 0.14 μm and not more than 0.6 μm.