mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a cell complex comprising a) providing cells and a device for cultivating cells, comprising a carrier plate unit comprising at least one first carrier plate and at least one second carrier plate arranged above or below, wherein the at least one first carrier plate has at least one access opening , at least one cultivation chamber , and at least one channel connecting the at least one access opening to the at least one cultivation chamber , and wherein the at least one second carrier plate has at least one media opening , at least one media chamber , and at least one media channel connecting the at least one media opening to the at least one media chamber , b) introducing the cells into the device through the at least one access opening , c) introducing the device into a rotational device enabling a rotation of the device, d) setting the device into rotation, e) receiving cells in the at least one cultivation chamber , and f) cultivating the cells in the at least one cultivation chamber , wherein a cell complex, in particular a three-dimensional cell complex, results due to the cultivation of the cells in the at least one cultivation chamber . a) providing cells and a device for cultivating cells, comprising a carrier plate unit comprising at least one first carrier plate and at least one second carrier plate arranged above or below, wherein the at least one first carrier plate has at least one access opening , at least one cultivation chamber , and at least one channel connecting the at least one access opening to the at least one cultivation chamber , and wherein the at least one second carrier plate has at least one media opening , at least one media chamber , and at least one media channel connecting the at least one media opening to the at least one media chamber , b) introducing the cells into the device through the at least one access opening , c) introducing the device into a rotational device enabling a rotation of the device, d) setting the device into rotation, e) receiving cells in the at least one cultivation chamber , and f) cultivating the cells in the at least one cultivation chamber ,
Method for controlling a computer of a motor vehicle comprising a slave clock, the vehicle being equipped with a connection to a server comprising a master clock, the method comprising: - at least one step of setting the slave clock by applying a correction to be applied, - a step of filtering the correction to be applied through a digital low-pass filter determining an average Corr average of the filtered values of the correction to be applied over a predefined number of occurrences, - a step of storing the average Corr average of the filtered values of the correction to be applied, - a step of deciding in which it is determined whether the slave clock is still able to be synchronized with the master clock, that is to say in reliable communication with the master clock, if this is the case, the method resumes at a step of receiving at least one synchronization datum, if this is not the case, the method proceeds to a ballistic correction step for a new occurrence, in which there is applied, to the slave clock, all or some of the average Corr average which is stored at a determined correction instant. - at least one step of setting the slave clock by applying a correction to be applied, - a step of filtering the correction to be applied through a digital low-pass filter determining an average Corr average of the filtered values of the correction to be applied over a predefined number of occurrences, - a step of storing the average Corr average of the filtered values of the correction to be applied, - a step of deciding in which it is determined whether the slave clock is still able to be synchronized with the master clock, that is to say in reliable communication with the master clock, if this is the case, the method resumes at a step of receiving at least one synchronization datum, if this is not the case, the method proceeds to a ballistic correction step for a new occurrence, in which there is applied, to the slave clock, all or some of the average Corr average which is stored at a determined correction instant.
Method for detecting an accident involving a motorcycle , wherein the method comprises the following steps: reading in a measured motorcycle speed of the motorcycle and selecting a threshold value for at least one sensed sensor value from an acceleration sensor of the motorcycle using the motorcycle speed ; and recognizing the accident involving the motorcycle when the sensed sensor value reaches or exceeds the threshold value selected in the selecting step , and determining an accident severity and/or accident type of the accident using the motorcycle speed and a clipping time of a sensor signal from the sensor , wherein the clipping time is a period of time in which the sensor signal is located outside a dynamic range of the sensor and is not resolvable. reading in a measured motorcycle speed of the motorcycle and selecting a threshold value for at least one sensed sensor value from an acceleration sensor of the motorcycle using the motorcycle speed ; and recognizing the accident involving the motorcycle when the sensed sensor value reaches or exceeds the threshold value selected in the selecting step , and determining an accident severity and/or accident type of the accident using the motorcycle speed and a clipping time of a sensor signal from the sensor , wherein the clipping time is a period of time in which the sensor signal is located outside a dynamic range of the sensor and is not resolvable.
An ophthalmic surgical laser system , comprising: a laser source , configured to generate a laser beam; a scanning delivery system , configured to: direct the laser beam to an ocular target region; and scan the laser beam along a scan pattern in the ocular target region of an eye; a system controller in communication with the scanning delivery system, the system controller configured to control the scanning delivery system to scan the laser beam along the scan pattern to create a pattern of cuts for relaxing ophthalmic tissue in the ocular target region, the ophthalmic tissue comprising a layer having an anterior side and a posterior side, wherein: each cut of the pattern of cuts extends only partially through the ophthalmic tissue; characterized in that : at least one cut of the pattern of cuts originates from the posterior side; and the pattern of cuts comprises cuts that originate from the anterior side and the posterior side of the ophthalmic tissue in an alternating manner. a laser source , configured to generate a laser beam; a scanning delivery system , configured to: direct the laser beam to an ocular target region; and scan the laser beam along a scan pattern in the ocular target region of an eye; direct the laser beam to an ocular target region; and scan the laser beam along a scan pattern in the ocular target region of an eye; a system controller in communication with the scanning delivery system, the system controller configured to control the scanning delivery system to scan the laser beam along the scan pattern to create a pattern of cuts for relaxing ophthalmic tissue in the ocular target region, the ophthalmic tissue comprising a layer having an anterior side and a posterior side, wherein: each cut of the pattern of cuts extends only partially through the ophthalmic tissue; characterized in that : at least one cut of the pattern of cuts originates from the posterior side; and the pattern of cuts comprises cuts that originate from the anterior side and the posterior side of the ophthalmic tissue in an alternating manner. at least one cut of the pattern of cuts originates from the posterior side; and the pattern of cuts comprises cuts that originate from the anterior side and the posterior side of the ophthalmic tissue in an alternating manner.
A signal detection circuit that detects at least one of an amplitude, a phase, and a frequency signal based on an input signal and reference signals comprising a sine function and a cosine function that are at the same frequency as that of the input signal, the signal detection circuit comprising: a first oscillation circuit (23; 33) that generates the reference signals; a complex signal generation circuit that generates a complex signal from the input signal and the reference signals; a vector operation circuit that calculates an argument of the complex signal by performing a vector operation; and a subtracting phase comparator that compares the argument with a phase of the reference signals by calculating a difference between the argument and the phase of the reference signals, wherein the complex signal generation circuit includes: a multiplication circuit that multiplies the input signal by the sine function and the cosine function; and a high-pass filter that removes a DC component from a signal output from the multiplication circuit. a first oscillation circuit (23; 33) that generates the reference signals; a complex signal generation circuit that generates a complex signal from the input signal and the reference signals; a vector operation circuit that calculates an argument of the complex signal by performing a vector operation; and a subtracting phase comparator that compares the argument with a phase of the reference signals by calculating a difference between the argument and the phase of the reference signals, wherein the complex signal generation circuit includes: a multiplication circuit that multiplies the input signal by the sine function and the cosine function; and a high-pass filter that removes a DC component from a signal output from the multiplication circuit. a multiplication circuit that multiplies the input signal by the sine function and the cosine function; and a high-pass filter that removes a DC component from a signal output from the multiplication circuit.
Container compressing arrangement , mountable in a reverse vending machine, for compacting empty containers, in particular beverage bottles or cans which are preferably made of plastic or metallic material, such as PET or tinned metal, said container compressing arrangement comprising: a first and a second rotatable roller , each of said rollers having a working surface arranged between two oppositely arranged ends (110a-110b, 110c-110d), wherein said rollers are arranged adjacent to each other to rotate in opposite directions around a respective rotation axis in a common geometrical xz-plane (x-z); and wherein said working surface comprises a plurality of ridges extending across said working surface , in an axial direction of said roller, and distributed in the circumferential direction of said working surface , each ridge having a longitudinal extension in said axial direction; and wherein said rollers are adapted to rotate in a meshed and contactless co-operation such that a roller gap (Rg) is always present between said rollers along a c-c direction between said rotation axes ; and characterized in that at least one of said ridges of at least one roller is provided with recesses extending in the axial direction, and wherein the recesses form a clearance between the rollers in the x-direction. a first and a second rotatable roller , each of said rollers having a working surface arranged between two oppositely arranged ends (110a-110b, 110c-110d), wherein said rollers are arranged adjacent to each other to rotate in opposite directions around a respective rotation axis in a common geometrical xz-plane (x-z); and wherein said working surface comprises a plurality of ridges extending across said working surface , in an axial direction of said roller, and distributed in the circumferential direction of said working surface , each ridge having a longitudinal extension in said axial direction; and wherein said rollers are adapted to rotate in a meshed and contactless co-operation such that a roller gap (Rg) is always present between said rollers along a c-c direction between said rotation axes ; and characterized in that at least one of said ridges of at least one roller is provided with recesses extending in the axial direction, and wherein the recesses form a clearance between the rollers in the x-direction.
A method for manufacturing an automobile weather strip having a seal part having a sectional shape of U and a sealing function, a coupling member formed unitarily with the seal part in such a manner as to be coupled to a flange portion of an automobile, and a seam material insertedly disposed inside the coupling member , the method comprising: (a) weather strip manufacturing step (S10) wherein the seam material and a thermoplastic elastomer are extruded and molded; and being characterized by : (b) pretreatment step (S20) wherein the surface of the weather strip manufactured is pretreated; (c) slip agent applying step (S30) wherein a slip agent made by mixing silicone and polyurethane is applied to the surface of the weather strip pretreated through the pretreatment step; and (d) curing step (S40) wherein the slip agent coating layer formed through the slip agent applying step is cured, wherein the pretreatment step (b) is carried out through any one of a primer applying method and an electrical plasma radiation method, and wherein the slip agent being made by mixing 50 to 90% by weight of the silicone and 10 to 50% by weight of the polyurethane. (a) weather strip manufacturing step (S10) wherein the seam material and a thermoplastic elastomer are extruded and molded; (b) pretreatment step (S20) wherein the surface of the weather strip manufactured is pretreated; (c) slip agent applying step (S30) wherein a slip agent made by mixing silicone and polyurethane is applied to the surface of the weather strip pretreated through the pretreatment step; and (d) curing step (S40) wherein the slip agent coating layer formed through the slip agent applying step is cured, wherein the pretreatment step (b) is carried out through any one of a primer applying method and an electrical plasma radiation method, and wherein the slip agent being made by mixing 50 to 90% by weight of the silicone and 10 to 50% by weight of the polyurethane.
A control system for an electrical motor comprising a rotor, a stator having a plurality of phase windings, and an inverter for applying voltage to the plurality of phase windings by connecting individual phase windings to a first or second voltage level, the control system configured: a) to measure a first rate of change of current in a first phase winding, of said plurality of phase windings, connected to the first voltage level; b) to measure a second rate of change of current in a second, different phase winding connected to the first voltage level; c) to calculate a difference between the first and second rate of change of current to obtain a first signal A; d) to repeat steps a) to c) for the first and a third phase windings and for the second and third phase windings when both phase windings are connected to the same first or second voltage level to obtain a second signal, B, and a third signal, C; and e) to use the first, second and third signals, A, B and C, to obtain data related to a position of the rotor f) to use said data related to the position of the rotor to determine the position of the rotor relative to the stator, and to use the determined position to control operation of the electrical motor; g) to operate the motor in a low speed regime; and characterized in that the control system is further configured: while operating in the low speed regime: to measure the stator current in the phase windings of the stator arising from the application of stator voltage; to determine positions of the rotor according to steps a) to f); and to calculate a motor characteristic of the electrical motor from the determined positions of the rotor, the stator voltages and stator current, and a resistance of the phase windings. a) to measure a first rate of change of current in a first phase winding, of said plurality of phase windings, connected to the first voltage level; b) to measure a second rate of change of current in a second, different phase winding connected to the first voltage level; c) to calculate a difference between the first and second rate of change of current to obtain a first signal A; d) to repeat steps a) to c) for the first and a third phase windings and for the second and third phase windings when both phase windings are connected to the same first or second voltage level to obtain a second signal, B, and a third signal, C; and e) to use the first, second and third signals, A, B and C, to obtain data related to a position of the rotor f) to use said data related to the position of the rotor to determine the position of the rotor relative to the stator, and to use the determined position to control operation of the electrical motor; g) to operate the motor in a low speed regime; and to measure the stator current in the phase windings of the stator arising from the application of stator voltage; to determine positions of the rotor according to steps a) to f); and to calculate a motor characteristic of the electrical motor from the determined positions of the rotor, the stator voltages and stator current, and a resistance of the phase windings.
A microsphere suitable for embolization comprising a polymer, wherein the polymer comprises a polymerized monomer of Formula Ia or Formula Ib: or a salt thereof; wherein the polymer further comprises at least one of a polymerized acrylamide, a polymerized acrylic, a polymerized acrylate, or a polymerized methacrylate monomer; and wherein the polymer comprises at least 20% of polymerized monomers of Formula la, Formula Ib, or a salt thereof. or a salt thereof; wherein the polymer further comprises at least one of a polymerized acrylamide, a polymerized acrylic, a polymerized acrylate, or a polymerized methacrylate monomer; and wherein the polymer comprises at least 20% of polymerized monomers of Formula la, Formula Ib, or a salt thereof.
A recombinant lipase comprising an amino acid sequence comprising at least 85%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, or at least 99% sequence identity to SEQ ID NO: 2, wherein said polypeptide sequence comprises at least one substitution or substitution set at one or more positions selected from 175, 149, 189, 174, 2, 3, 4, 22, 27/46/97/136/149/385, 27/46/385, 27/70/136/231/385, 27/136/323/385, 27/149, 27/149/385, 27/385, 34, 38, 41, 44, 46/70, 46/149/183/231/385, 48, 70, 73, 73/305, 82, 82/94/101/194/199, 82/94/199, 83, 85, 87, 89, 92, 94, 96, 97/149/385, 135, 136/385, 140, 141, 142, 144, 146, 149, 149/231/385, 151, 178, 181, 183/385, 194, 194/199, 195, 195/231/385, 199, 199/213, 210, 212, 213, 213/330, 216, 218, 219, 226, 231/385, 238, 247, 250, 270, 274, 281, 292, 296, 300, 308, 330, 338, 379, and 385, wherein the amino acid positions of said polypeptide sequence are numbered with reference to SEQ ID NO: 2.
A polymerizable composition, comprising at least one first monomer and at least one second monomer, wherein the at least one first monomer comprises an isohexide bis(allyl carbonate) monomer, and wherein the at least one second monomer comprises one or more ethylenic unsaturations.
A vegetable-based lipid composition comprising: (i) docosahexaenoic acid (22:6n-3) in an amount of from 50% to 85% by weight of the total fatty acid content of the composition; (ii) a second polyunsaturated fatty acid in an amount of from 10% to 90% by weight of the docosahexaenoic acid; and (iii) a third polyunsaturated fatty acid in an amount of from 10% to 70% by weight of the second polyunsaturated fatty acid; wherein the total amount of all other fatty acids in the composition is up to 20% by weight of the total fatty acid content of the composition, and wherein each of the docosahexaenoic acid, and the second and third polyunsaturated fatty acids is independently provided independently in the form of a fatty acid, a fatty acid salt, a fatty acid ester or a salt of a fatty acid ester; wherein the amount of EPA in the composition is less than 10% by weight of the amount of DHA; wherein the lipid composition is obtained by a process comprising transesterification and distillation of a vegetable-based lipid. (i) docosahexaenoic acid (22:6n-3) in an amount of from 50% to 85% by weight of the total fatty acid content of the composition; (ii) a second polyunsaturated fatty acid in an amount of from 10% to 90% by weight of the docosahexaenoic acid; and (iii) a third polyunsaturated fatty acid in an amount of from 10% to 70% by weight of the second polyunsaturated fatty acid; wherein the total amount of all other fatty acids in the composition is up to 20% by weight of the total fatty acid content of the composition, and wherein each of the docosahexaenoic acid, and the second and third polyunsaturated fatty acids is independently provided independently in the form of a fatty acid, a fatty acid salt, a fatty acid ester or a salt of a fatty acid ester; wherein the amount of EPA in the composition is less than 10% by weight of the amount of DHA; wherein the lipid composition is obtained by a process comprising transesterification and distillation of a vegetable-based lipid. wherein the total amount of all other fatty acids in the composition is up to 20% by weight of the total fatty acid content of the composition, and wherein each of the docosahexaenoic acid, and the second and third polyunsaturated fatty acids is independently provided independently in the form of a fatty acid, a fatty acid salt, a fatty acid ester or a salt of a fatty acid ester; wherein the amount of EPA in the composition is less than 10% by weight of the amount of DHA; wherein the lipid composition is obtained by a process comprising transesterification and distillation of a vegetable-based lipid.
A laminate structure comprising: a first metal sheet having a first thickness; a second metal sheet having a second thickness; wherein the first and second metal sheets are made of an aluminum based material; an adhesive core having an adhesive core thickness; wherein the adhesive core is a viscoelastic adhesive core which is composed of a combination of one or more of an acrylic, polyester, polyacrylate, phenolic, rubber and urethane based material; wherein the adhesive core is disposed between and bonded to the first and second metal sheets ; wherein a ratio of the sum of the first and second thickness to the adhesive core thickness is 8:1 or more; an intermediate layer disposed between the adhesive layer and a surface of one of the first and second metal sheets ; wherein the intermediate layer passivates the surface of the one of the first and second metal sheets ; wherein the intermediate layer includes one of 2. 2. titanium and J zirconium, and tri-chromium oxide; and wherein the laminate structure has a composite loss factor at 1,000 Hertz which is continuously greater than 0.1 within a temperature range of 25 degrees Celsius to 50 degrees Celsius. a first metal sheet having a first thickness; a second metal sheet having a second thickness; wherein the first and second metal sheets are made of an aluminum based material; an adhesive core having an adhesive core thickness; wherein the adhesive core is a viscoelastic adhesive core which is composed of a combination of one or more of an acrylic, polyester, polyacrylate, phenolic, rubber and urethane based material; wherein the adhesive core is disposed between and bonded to the first and second metal sheets ; wherein a ratio of the sum of the first and second thickness to the adhesive core thickness is 8:1 or more; an intermediate layer disposed between the adhesive layer and a surface of one of the first and second metal sheets ; wherein the intermediate layer passivates the surface of the one of the first and second metal sheets ; wherein the intermediate layer includes one of 2. 2. titanium and J zirconium, and tri-chromium oxide; and wherein the laminate structure has a composite loss factor at 1,000 Hertz which is continuously greater than 0.1 within a temperature range of 25 degrees Celsius to 50 degrees Celsius.