mhurhangee/patent-ind-claim-en huggingface dataset:
An assembly for a structure, comprising: a composite skin extending between an exterior surface and an interior surface ; and a thermal anti-icing system comprising a susceptor and a waveguide, the susceptor and the waveguide integrated into the composite skin between the exterior surface and the interior surface , and the waveguide configured to direct microwaves to the susceptor for melting and/or preventing ice accumulation on the exterior surface . a composite skin extending between an exterior surface and an interior surface ; and a thermal anti-icing system comprising a susceptor and a waveguide, the susceptor and the waveguide integrated into the composite skin between the exterior surface and the interior surface , and the waveguide configured to direct microwaves to the susceptor for melting and/or preventing ice accumulation on the exterior surface .
Pearl sugar, having a dissolution time at 20°C according to Test A lying between 3 minutes and 8 minutes, Test A being as follows: i. a weighing balance is placed on a standard, such that an item such as a beaker can be placed below it; a ballast weight of about 10 grams is placed onto the balance; the balance must be equipped such that a sample to be weighed can be attached to the balance from below as well; ii. a small sieve of about 50 x 50 mm in size with mesh size of about 1 mm is equipped with threads which are attached to the corners of the sieve and come together above the sieve where they connected to the balance from below, for example by means of a hook; iii. a standard laboratory 1000 ml glass beaker having an internal diameter of about 100 mm is filled with 600 ml of demineralised water at 20°C and placed below the balance, such that the sieve is in the water and about 4 cm below the water surface; the sieve must not touch the glass of the beaker itself; iv. the balance is set to 0.00 grams; 20 Pearl sugars, having a biggest dimension lying between 5.6 and 8.0 mm and together weighing between 4.9 and 5.1 grams, are placed onto the sieve; this marks the beginning of the determination of the dissolution time; v. the beaker is left undisturbed, the water is not stirred in any way; vi. the dissolution time is the time at which the weight indication on the balance has returned to 0.0 grams. i. a weighing balance is placed on a standard, such that an item such as a beaker can be placed below it; a ballast weight of about 10 grams is placed onto the balance; the balance must be equipped such that a sample to be weighed can be attached to the balance from below as well; ii. a small sieve of about 50 x 50 mm in size with mesh size of about 1 mm is equipped with threads which are attached to the corners of the sieve and come together above the sieve where they connected to the balance from below, for example by means of a hook; iii. a standard laboratory 1000 ml glass beaker having an internal diameter of about 100 mm is filled with 600 ml of demineralised water at 20°C and placed below the balance, such that the sieve is in the water and about 4 cm below the water surface; the sieve must not touch the glass of the beaker itself; iv. the balance is set to 0.00 grams; 20 Pearl sugars, having a biggest dimension lying between 5.6 and 8.0 mm and together weighing between 4.9 and 5.1 grams, are placed onto the sieve; this marks the beginning of the determination of the dissolution time; v. the beaker is left undisturbed, the water is not stirred in any way; vi. the dissolution time is the time at which the weight indication on the balance has returned to 0.0 grams.
A hydrogen peroxide composition comprising: - hydrogen peroxide; - a stabilizer system comprising 100 to 20,000 ppm of a colloidal stannate; - an acidifying agent or a salt thereof selected from the group consisting of methane sulfonic acid or a salt thereof; - phosphonic acid or a salt thereof; and - salicylic acid or a salt thereof, - wherein the composition does not comprise a phosphoric acid or a salt thereof, - said hydrogen peroxide composition having a pH in the range of 0.1 to 6. - hydrogen peroxide; - a stabilizer system comprising 100 to 20,000 ppm of a colloidal stannate; - an acidifying agent or a salt thereof selected from the group consisting of methane sulfonic acid or a salt thereof; - phosphonic acid or a salt thereof; and - salicylic acid or a salt thereof, - wherein the composition does not comprise a phosphoric acid or a salt thereof, - said hydrogen peroxide composition having a pH in the range of 0.1 to 6.
A composite comprising a plurality of block copolymer chains dispersed in a base polymer, the block copolymer chains comprising a polymer block (A) and a polymer block (B) having lower affinity for the base polymer than that of the polymer block (A), wherein each of the block copolymer chains has the polymer block (A) at two or more locations of the block copolymer chain, in at least some of the block copolymer chains, the polymer blocks (A) are at least partially located in the base polymer and the polymer blocks (B) are at least partially exposed from the base polymer, and the polymer block (B) exposed from the base polymer is swollen by a good solvent for the polymer block (B). wherein each of the block copolymer chains has the polymer block (A) at two or more locations of the block copolymer chain, in at least some of the block copolymer chains, the polymer blocks (A) are at least partially located in the base polymer and the polymer blocks (B) are at least partially exposed from the base polymer, and the polymer block (B) exposed from the base polymer is swollen by a good solvent for the polymer block (B).
Fluid flow device , comprising: - a system chip having a substrate ; - a flow channel defined within said substrate ; - a sensor unit connected to said flow channel for determining a property of a fluid in said flow channel; - a valve unit for regulating fluid flow through said flow channel , comprising a valve chamber defined within said substrate , and comprising a valve member that is movably arranged within the valve chamber such that a fluid flow through said flow channel can be regulated, wherein said flow channel has a connection channel part defined within said substrate , wherein said connection channel part is connected to said valve unit, the connection channel part providing an internal connection, within the substrate, directly connecting the flow channel provided with the sensor unit to the valve chamber of the valve unit; and - control means connected to said valve unit and said sensor unit , and arranged for controlling said valve unit based on signals obtained by said sensor unit , wherein the valve chamber is defined by a floor, a circumferential side wall, and a ceiling, wherein the valve chamber comprises an inlet for fluid and an outlet for fluid, wherein at least one of the inlet and the outlet is provided in the side wall of the valve chamber and is connected to the connection channel part, and wherein the valve member comprises an internal flow channel defined within the valve member, having a first outer end that faces the floor, the fluid flow device being characterized in that the internal flow channel has a second outer end that faces the side wall. - a system chip having a substrate ; - a flow channel defined within said substrate ; - a sensor unit connected to said flow channel for determining a property of a fluid in said flow channel; - a valve unit for regulating fluid flow through said flow channel , comprising a valve chamber defined within said substrate , and comprising a valve member that is movably arranged within the valve chamber such that a fluid flow through said flow channel can be regulated, wherein said flow channel has a connection channel part defined within said substrate , wherein said connection channel part is connected to said valve unit, the connection channel part providing an internal connection, within the substrate, directly connecting the flow channel provided with the sensor unit to the valve chamber of the valve unit; and - control means connected to said valve unit and said sensor unit , and arranged for controlling said valve unit based on signals obtained by said sensor unit , wherein the valve chamber is defined by a floor, a circumferential side wall, and a ceiling, wherein the valve chamber comprises an inlet for fluid and an outlet for fluid, wherein at least one of the inlet and the outlet is provided in the side wall of the valve chamber and is connected to the connection channel part, and wherein the valve member comprises an internal flow channel defined within the valve member, having a first outer end that faces the floor, the fluid flow device being characterized in that the internal flow channel has a second outer end that faces the side wall.
A plant, plant cell, or plant seed comprising a PhyB loss-of-function mutation, and (a) a modified MYC nucleic acid encoding a mutant MYC protein comprising at least one mutation that reduces binding by the mutant MYC protein with more than one j asmonic acid response (JAZ) protein, wherein the at least one mutation of said mutant MYC protein is within or outside of a JAZ-interacting domain (JID) polypeptide region, (b) a loss-of-function mutation in more than one gene encoding a (JAZ) protein transcriptional repressor of jasmonic acid response; or (c) a combination of the modified MYC nucleic acid and a loss-of-function mutation in the more than one gene encoding a (JAZ) protein transcriptional repressor of j asmonic acid response, wherein the plant or a plant obtained from the plant cell or seed exhibits robust growth and resistance to environmental stress.
A method for cultivating one or more B-cells comprising the step of - co-cultivating one or more B-cells with EL-4 B5 cells, whereby the EL-4 B5 cells have been irradiated prior to the co-cultivation with a dose of from more than 0 Gy to 9.5 Gy, and whereby the number of EL-4 B5 cells at the start of the co-cultivating is less than 5 × 10 4 per B-cell. - co-cultivating one or more B-cells with EL-4 B5 cells, whereby the EL-4 B5 cells have been irradiated prior to the co-cultivation with a dose of from more than 0 Gy to 9.5 Gy, and whereby the number of EL-4 B5 cells at the start of the co-cultivating is less than 5 × 10 4 per B-cell.
A semiconductor device for detection of x-rays or gamma-rays, comprising: - a substrate of semiconductor material having a main surface , - an integrated circuit in the substrate , - a dielectric layer arranged on the main surface of the substrate , - a nanomaterial film arranged above the dielectric layer , at least part of the nanomaterial film having a scintillating property, - a semiconductor layer between the dielectric layer and the nanomaterial film , and - a photodetector element or array of photodetector elements arranged in the semiconductor layer , the photodetector element or array of photodetector elements being configured to detect electromagnetic radiation transformed by the nanomaterial film . - a substrate of semiconductor material having a main surface , - an integrated circuit in the substrate , - a dielectric layer arranged on the main surface of the substrate , - a nanomaterial film arranged above the dielectric layer , at least part of the nanomaterial film having a scintillating property, - a semiconductor layer between the dielectric layer and the nanomaterial film , and - a photodetector element or array of photodetector elements arranged in the semiconductor layer , the photodetector element or array of photodetector elements being configured to detect electromagnetic radiation transformed by the nanomaterial film .
A method of imaging a specimen container and/or a specimen in a specimen container , comprising: enclosing at least a portion of a specimen container with a moveable hood configured to move between an open state and a closed state; when the hood is in a closed state rotating one or more optical devices affixed to or located within the moveable hood at least partially around the specimen container along a path parallel to an arc with an optical actuator ; and generating image data of the specimen container using the one or more optical devices . enclosing at least a portion of a specimen container with a moveable hood configured to move between an open state and a closed state; when the hood is in a closed state rotating one or more optical devices affixed to or located within the moveable hood at least partially around the specimen container along a path parallel to an arc with an optical actuator ; and generating image data of the specimen container using the one or more optical devices .
A control system for a robotic surgical system, the control system comprising a control circuit configured to: determine actual closure force of a closure member ; compare the actual closure force to a threshold closure force; determine a set point velocity to displace the closure member based on the comparison; and control the actual velocity of the closure member based on the set point velocity, characterised in that the threshold closure force comprises an upper threshold and a lower threshold, wherein the set point velocity is configured to advance the closure member distally when the actual closure force is less than the lower threshold, wherein the set point velocity is configured to retract the closure member proximally when the actual closure force is greater than the upper threshold, and wherein the set point velocity is configured to hold the closure member in place when the actual closure force is between the upper and lower thresholds. determine actual closure force of a closure member ; compare the actual closure force to a threshold closure force; determine a set point velocity to displace the closure member based on the comparison; and control the actual velocity of the closure member based on the set point velocity, characterised in that the threshold closure force comprises an upper threshold and a lower threshold, wherein the set point velocity is configured to advance the closure member distally when the actual closure force is less than the lower threshold, wherein the set point velocity is configured to retract the closure member proximally when the actual closure force is greater than the upper threshold, and wherein the set point velocity is configured to hold the closure member in place when the actual closure force is between the upper and lower thresholds.
A urinary catheter assembly comprising: a urinary catheter having an insertable section and a non-insertable section ; a tubular case provided with a closed end and an open end ; and a sleeve fixedly arranged over at least a part of the non-insertable section of the urinary catheter, the sleeve including two oppositely arranged openings and a body portion extending between said openings; wherein the tubular case , in a storage position, is arranged to enclose the insertable section of the urinary catheter and removably connected to the sleeve and/or to the non-insertable section of the urinary catheter, wherein the tubular case is in a first disposition in relation to the sleeve, and wherein the body portion of the sleeve is provided with a first engagement member (27; 27'; 27"; 27"'), and wherein the tubular case is provided with a second engagement member (44; 44'; 44"; 44"'), thereby enabling the tubular case , when removed from the non-insertable section of the urinary catheter, to be releasably connected to the sleeve in a second disposition, the second disposition being different from the first disposition, characterized in that it further comprises an openable cap for closing a release opening at the non-insertable section of the urinary catheter . a urinary catheter having an insertable section and a non-insertable section ; a tubular case provided with a closed end and an open end ; and a sleeve fixedly arranged over at least a part of the non-insertable section of the urinary catheter, the sleeve including two oppositely arranged openings and a body portion extending between said openings; wherein the tubular case , in a storage position, is arranged to enclose the insertable section of the urinary catheter and removably connected to the sleeve and/or to the non-insertable section of the urinary catheter, wherein the tubular case is in a first disposition in relation to the sleeve, and wherein the body portion of the sleeve is provided with a first engagement member (27; 27'; 27"; 27"'), and wherein the tubular case is provided with a second engagement member (44; 44'; 44"; 44"'), thereby enabling the tubular case , when removed from the non-insertable section of the urinary catheter, to be releasably connected to the sleeve in a second disposition, the second disposition being different from the first disposition,
Stacking device for pallets, so as to be able to stack a second pallet on a first pallet , wherein the stacking device comprises corner posts , wherein portions of the corner posts can bear against outer sides of the first pallet in a respective corner region of the first pallet , and wherein in each case two adjacent corner posts are connected to one another via a side strut , wherein each corner post has a supporting element which is supported on an upper side of the pallet in the respective corner region, and wherein an upwardly extendable support is guided in or on each corner post , at the upper, free end of which support a receiving means for the second pallet is mounted, characterized in that the corner posts are profiled in a U-shaped manner, and in that the respective supporting element is arranged in a height-adjustable manner on the corner post .
A slide for a linear guide which comprises the slide and a rail element having two running surfaces which face one another, wherein the slide comprises a main part , and a plurality of rolling bodies , wherein the plurality of rolling bodies is received on the main part such that the plurality of rolling bodies can roll at least on the two running surfaces or carry out a sliding movement relative to the two running surfaces , wherein the main part defines a position of each one of the plurality of rolling bodies in a pull-out direction relative to the main part , characterised in that the slide further comprises two slide elements , and a spring element , wherein each of the two slide elements is mounted on the main part such that it can move in a vertical direction perpendicular to the pull-out direction sothat each of the two slide elements can be brought into frictional engagement with a respective running surface , and wherein the spring element is mounted on the main part such that the spring element biases the two slide elements away from one another in the vertical direction. a main part , and a plurality of rolling bodies , wherein the plurality of rolling bodies is received on the main part such that the plurality of rolling bodies can roll at least on the two running surfaces or carry out a sliding movement relative to the two running surfaces , wherein the main part defines a position of each one of the plurality of rolling bodies in a pull-out direction relative to the main part , the slide further comprises two slide elements , and a spring element , wherein each of the two slide elements is mounted on the main part such that it can move in a vertical direction perpendicular to the pull-out direction sothat each of the two slide elements can be brought into frictional engagement with a respective running surface , and wherein the spring element is mounted on the main part such that the spring element biases the two slide elements away from one another in the vertical direction.
An orthopedic implant comprising a metal surface and a hydroxyapatite layer disposed on at least part of the metal surface, the hydroxyapatite layer comprising gallium ions therein, wherein the hydroxyapatite layer is crystalline, and characterized in that : wherein the hydroxyapatite layer, when subjected to XRD, produces a XRD peak that corresponds to a d-spacing shift of 0.001 Å to 0.05 Å compared to the XRD peak of crystalline hydroxyapatite without gallium, and wherein the hydroxyapatite layer, when subjected to XRD, produces a XRD peak and a XRD peak, and the XRD peak has an intensity 1.5 to 10 times greater than the XRD peak. wherein the hydroxyapatite layer, when subjected to XRD, produces a XRD peak that corresponds to a d-spacing shift of 0.001 Å to 0.05 Å compared to the XRD peak of crystalline hydroxyapatite without gallium, and wherein the hydroxyapatite layer, when subjected to XRD, produces a XRD peak and a XRD peak, and the XRD peak has an intensity 1.5 to 10 times greater than the XRD peak.
A transmucosal film dosage form comprising by weight: 2-20 % a dopamine agonist selected from D 1 dopamine agonists, D 2 dopamine agonists and combinations of a D 1 dopamine agonist and a D 2 dopamine agonist, 0.5-10 % film forming agent, 2-20 % stabilizing enhancer, 20-95 % bioadhesion enhancers, 3.8-45 % cyclodextrin, and optionally 1-5 % oleic acid. 2-20 % a dopamine agonist selected from D 1 dopamine agonists, D 2 dopamine agonists and combinations of a D 1 dopamine agonist and a D 2 dopamine agonist, 0.5-10 % film forming agent, 2-20 % stabilizing enhancer, 20-95 % bioadhesion enhancers, 3.8-45 % cyclodextrin, and
A battery system, comprising: - a housing configured to receive a battery cell , wherein the battery cell is configured to output thermal energy as a byproduct of electrical energy generation and/or consumption; - a wall of the housing with a first side positioned proximate to the battery cell ; characterized by - a plurality of fins extending from a second side of the wall , wherein the plurality of fins is configured to absorb thermal energy from the battery cell and dissipate the thermal energy to air, or a heat sink , or both, and wherein a fin of the plurality of fins comprises a channel configured to facilitate a flow of the air between the fin of the plurality of fins and an adjacent fin of the plurality of fins . - a housing configured to receive a battery cell , wherein the battery cell is configured to output thermal energy as a byproduct of electrical energy generation and/or consumption; - a wall of the housing with a first side positioned proximate to the battery cell ; characterized by - a plurality of fins extending from a second side of the wall , wherein the plurality of fins is configured to absorb thermal energy from the battery cell and dissipate the thermal energy to air, or a heat sink , or both, and wherein a fin of the plurality of fins comprises a channel configured to facilitate a flow of the air between the fin of the plurality of fins and an adjacent fin of the plurality of fins .
A method for inducing differentiation of induced pluripotent stem cells into differentiated cells, which comprises culturing induced pluripotent stem cells on a structure comprising nerve cells, wherein the cells in the structure and the differentiated cells are the same type of cell, and wherein the structure comprising nerve cells is a culture substrate coated with a section of biological tissue and/or organ.