mhurhangee/patent-ind-claim-en huggingface dataset:
Carrier material for modification, manipulation and movement of electrically polarizable biomaterials, polyelectrolyte materials, atoms, ions and/or molecules (epAIMP), comprising semiconducting or piezoelectric materials, and an insulating surface covering layer on the surface of the semiconducting or piezoelectric materials characterized in that through the surface covering layer electrostatic forces act on the epAIMP, wherein the electrostatic forces are generated with a range of up to 100 nm and are determined in their strength: a. by the, due to the occupation of the interface states between the semiconducting material and the surface covering layer, where the time constant of the interfacial states (Tij) is in the range of a few nanoseconds to seconds, or the interfacial state density (Dij) varies from 10 7 to 10 14 cm -2 eV -1 as well as the near-surface doping of the semiconducting material with volume charge densities of 10 15 to 10 21 e/cm3 and surface charge densities of 10 10 to 10 14 e/cm2, resulting in an asymmetric electrostatic dipole, the surface charge density in the piezoelectric material being 10 13 to 10 15 e/cm 2 , or b. by the number of near-surface polarization charges per unit area and the thickness of the piezoelectric material and wherein the electrostatic forces are further determined in their strength by the type and thickness of the material of the surface covering layer and the near-surface electrostatic forces of the substrate material are independent of the environment and the near-surface electrostatic forces do not change the other surface properties of the substrate material and the thickness of the insulating cover layer is less than 20 nm, preferably less than 5 nm, and particularly preferably between 2 and 3 nm. a. by the, due to the occupation of the interface states between the semiconducting material and the surface covering layer, where the time constant of the interfacial states (Tij) is in the range of a few nanoseconds to seconds, or the interfacial state density (Dij) varies from 10 7 to 10 14 cm -2 eV -1 as well as the near-surface doping of the semiconducting material with volume charge densities of 10 15 to 10 21 e/cm3 and surface charge densities of 10 10 to 10 14 e/cm2, resulting in an asymmetric electrostatic dipole, the surface charge density in the piezoelectric material being 10 13 to 10 15 e/cm 2 , or b. by the number of near-surface polarization charges per unit area and the thickness of the piezoelectric material and wherein the electrostatic forces are further determined in their strength by the type and thickness of the material of the surface covering layer and the near-surface electrostatic forces of the substrate material are independent of the environment and the near-surface electrostatic forces do not change the other surface properties of the substrate material and the thickness of the insulating cover layer is less than 20 nm, preferably less than 5 nm, and particularly preferably between 2 and 3 nm.
A method for transmitting data of a biological or biochemical analysis, for example at the point-of-care, the analysis including a pre-analytical phase and an analytical phase with the contacting of the sample with a reagent and the development of the result, said method comprising: - a step for acquiring the implementation of the pre-analytical phase in order to obtain a video recording, then - a step for acquiring the obtained result during the implementation of the analytical phase, and - a step for transmission in order to transmit the recording and the result, intangibly. - a step for acquiring the implementation of the pre-analytical phase in order to obtain a video recording, then - a step for acquiring the obtained result during the implementation of the analytical phase, and - a step for transmission in order to transmit the recording and the result, intangibly.
Method for imaging a biological sample using microscopy, characterized in that it provides to use in said biological sample nanoparticles of platinum, an oxidizing agent and an oxidizable substrate to obtain an electron-dense osmiophilic precipitate localized around said nanoparticles of platinum, said osmiophilic precipitate being obtained by means of an oxidation phase of said oxidizable substrate activated by said nanoparticles of platinum and by said oxidizing agent, wherein said oxidizable substrate comprises at least a chemical compound chosen from a group consisting of: 3,3',5,5'-tetramethylbenzidine (TMB), 3,3'-diaminobenzidine (DAB), p-phenylenediamine-pyrocatechol, and homovanillic acid.
A deuterated N , N -dimethyltryptamine compound of Formula (I) or a pharmaceutically acceptable salt thereof for use in therapy: wherein: R 1 is selected from H and D; R 2 is CD 3 ; R 3 is selected from CH 3 and CD 3 ; and both y H are D. R 1 is selected from H and D; R 2 is CD 3 ; R 3 is selected from CH 3 and CD 3 ; and both y H are D.
Parking assistance apparatus for a motor vehicle , having: - at least one sensor that is designed to produce a sensor signal (S) that is dependent on a relative position (D) of a vehicle-external object , - a first controller to which the at least one sensor is connected and that is designed to receive from the at least one sensor the respective sensor signal (S) thereof and to take each sensor signal (S) as a basis for producing position data (P) that describe the relative position (D) of the vehicle-external object and to output the position data (P) via a communication link of the motor vehicle , - a second controller that is designed to receive the position data (P) via the communication link and, during a parking manoeuvre of the motor vehicle , to take the position data (P) as a basis for producing a control signal (C) for controlling an actuator device of the motor vehicle and to output said control signal to the actuator device , wherein a synchronization device is provided that is designed to ascertain a time offset between a system clock of the first controller and a system clock of the second controller and/or to ascertain a transmission period (Tb) for the transmission of the position data (P) via the communication link , characterized in that the first and second controllers are designed to use the communication link to communicate in accordance with the precision time protocol (PTP). - at least one sensor that is designed to produce a sensor signal (S) that is dependent on a relative position (D) of a vehicle-external object , - a first controller to which the at least one sensor is connected and that is designed to receive from the at least one sensor the respective sensor signal (S) thereof and to take each sensor signal (S) as a basis for producing position data (P) that describe the relative position (D) of the vehicle-external object and to output the position data (P) via a communication link of the motor vehicle , - a second controller that is designed to receive the position data (P) via the communication link and, during a parking manoeuvre of the motor vehicle , to take the position data (P) as a basis for producing a control signal (C) for controlling an actuator device of the motor vehicle and to output said control signal to the actuator device , wherein a synchronization device is provided that is designed to ascertain a time offset between a system clock of the first controller and a system clock of the second controller and/or to ascertain a transmission period (Tb) for the transmission of the position data (P) via the communication link ,
Electronic device , in particular control unit, comprising a housing , wherein the housing encloses a cavity and the device has a circuit carrier arranged in the cavity , wherein the circuit carrier has at least one semiconductor component , wherein the device has a heat sink , which is thermally conductively connected to the semiconductor component , wherein the housing is a plastic housing and has a housing wall , wherein at least two wall regions adjacent to one another are embodied in the housing wall , and the heat sink is embodied as a thermally conductive wall region of the wall regions of the housing, and at least one further wall region of the wall regions has a lower thermal conductivity than the thermally conductive wall region , characterized in that the thermally conductive wall region is formed by a particle-filled thermosetting plastic that is polymerized to completion by means of ultraviolet rays .
Method for determining an optical equipment adapted to a wearer, for the purpose of manufacturing the optical equipment, the optical equipment comprising an optical lens and a spectacle frame having a rim (9; 11), the method being implemented by a processing device and comprising steps of: - providing data relative to the wearer comprising optical requirements of the wearer, - providing an optical cost function (O), the optical cost function (O) being related to an optical function parameter of the optical lens and being defined based at least on part of the data relative to the wearer, - providing a comfort cost function (C), the comfort cost function (C) being related to a comfort parameter, - providing a mechanical interaction cost function (M), the mechanical interaction cost function (M) varying as a function of a geometrical parameter of the spectacle frame and a geometrical parameter of the optical lens , and being arranged so as to be minimum when the optical lens (3; 7) only interferes with the rim (9; 11), - determining the optical equipment that minimizes a global cost function (G), the global cost function (G) being a weighted sum of the optical cost function (O), the comfort cost function (C) and the mechanical interaction cost function (M). - providing data relative to the wearer comprising optical requirements of the wearer, - providing an optical cost function (O), the optical cost function (O) being related to an optical function parameter of the optical lens and being defined based at least on part of the data relative to the wearer, - providing a comfort cost function (C), the comfort cost function (C) being related to a comfort parameter, - providing a mechanical interaction cost function (M), the mechanical interaction cost function (M) varying as a function of a geometrical parameter of the spectacle frame and a geometrical parameter of the optical lens , and being arranged so as to be minimum when the optical lens (3; 7) only interferes with the rim (9; 11), - determining the optical equipment that minimizes a global cost function (G), the global cost function (G) being a weighted sum of the optical cost function (O), the comfort cost function (C) and the mechanical interaction cost function (M).
A computer-implemented method of detecting distracted driving comprising: determining , by one or more processors, a first primary preview region (PPR) in a representation of an environment, wherein the first PPR is one of a plurality of PPRs and wherein a PPR is a region to which a driver should pay attention; determining , by the one or more processors, a gaze point for a driver based on a sequence of images of the driver; determining , by the one or more processors, that the gaze point is outside of the first PPR; based on the determined gaze point being outside of the first PPR, decreasing , by the one or more processors, an attention level for the first PPR; and based on the attention level for the first PPR, generating , by the one or more processors, an alert; the method further comprises: estimating a future path using vehicle and road information; determining that the first PPR is not along the future path; and based on the determination that the first PPR is not along the future path, removing the first PPR from the plurality of PPRs. determining , by one or more processors, a first primary preview region (PPR) in a representation of an environment, wherein the first PPR is one of a plurality of PPRs and wherein a PPR is a region to which a driver should pay attention; determining , by the one or more processors, a gaze point for a driver based on a sequence of images of the driver; determining , by the one or more processors, that the gaze point is outside of the first PPR; based on the determined gaze point being outside of the first PPR, decreasing , by the one or more processors, an attention level for the first PPR; and based on the attention level for the first PPR, generating , by the one or more processors, an alert; the method further comprises: estimating a future path using vehicle and road information; determining that the first PPR is not along the future path; and estimating a future path using vehicle and road information; determining that the first PPR is not along the future path; and based on the determination that the first PPR is not along the future path, removing the first PPR from the plurality of PPRs.
A wound dressing system configured to determine an exudate uptake pattern of a wound dressing , the wound dressing system comprising the wound dressing extending in an appliance plane and comprising: - an absorbent core layer having a proximal side and a distal side , - a proximal electrode assembly comprising a first plurality of electrodes , and - a distal electrode assembly comprising a second plurality of electrodes , the proximal electrode assembly and the distal electrode assembly being layered and spaced apart by a first material in a direction normal to the appliance plane; and a monitor device configured to detect a short-circuiting event across a primary electrode (E1) and a secondary electrode (E2) of the first plurality of electrodes and a short-circuiting event across a primary electrode (F1) and a secondary electrode (F2) of the second plurality of electrodes ; and wherein the monitor device is further configured to - determine a first region of the wound dressing , wherein the first region is a region wherein the short-circuited primary electrode (E1) and secondary electrode (E2) of the first plurality of electrodes and the short-circuited primary electrode (F1) and secondary electrode (F2) of the second plurality of electrodes overlap in the direction normal to the appliance plane, and - indicate an exudate uptake pattern of the wound dressing based on at least the first region . - an absorbent core layer having a proximal side and a distal side , - a proximal electrode assembly comprising a first plurality of electrodes , and - a distal electrode assembly comprising a second plurality of electrodes , the proximal electrode assembly and the distal electrode assembly being layered and spaced apart by a first material in a direction normal to the appliance plane; and a monitor device configured to detect a short-circuiting event across a primary electrode (E1) and a secondary electrode (E2) of the first plurality of electrodes and a short-circuiting event across a primary electrode (F1) and a secondary electrode (F2) of the second plurality of electrodes ; and wherein the monitor device is further configured to - determine a first region of the wound dressing , wherein the first region is a region wherein the short-circuited primary electrode (E1) and secondary electrode (E2) of the first plurality of electrodes and the short-circuited primary electrode (F1) and secondary electrode (F2) of the second plurality of electrodes overlap in the direction normal to the appliance plane, and - indicate an exudate uptake pattern of the wound dressing based on at least the first region . - determine a first region of the wound dressing , wherein the first region is a region wherein the short-circuited primary electrode (E1) and secondary electrode (E2) of the first plurality of electrodes and the short-circuited primary electrode (F1) and secondary electrode (F2) of the second plurality of electrodes overlap in the direction normal to the appliance plane, and - indicate an exudate uptake pattern of the wound dressing based on at least the first region .
A dispensing adaptor for one-component polyurethane foam, arranged to be coupled to a valve stem (VS) of a polyurethane pressurized container (PC), the dispensing adaptor comprising: a tubular main adaptor body ; a stem coupling portion formed at one end portion of the adaptor main body and arranged to be coupled to, and communicate with, the valve stem (VS); a discharging pipe extending from the other end portion of the adaptor main body ; a stationary lever formed integrally with and extending from an outer wall of the adaptor main body ; and an extended lever which, in use, extends from the stationary lever along a lengthwise direction of the pressurized container (PC), characterised in that the stationary lever comprises a support projection , the extended lever comprises an accommodating groove , the stationary lever is pivotally coupled to the extended lever by a hinge , and the support projection of the stationary lever is inserted in and coupled to the accommodating groove of the extended lever for the dispensing operation, while allowing the support projection to be disengaged from the accommodating groove if the extended lever is pivotally moved by a user about the hinge in a direction towards the discharging pipe . a tubular main adaptor body ; a stem coupling portion formed at one end portion of the adaptor main body and arranged to be coupled to, and communicate with, the valve stem (VS); a discharging pipe extending from the other end portion of the adaptor main body ; a stationary lever formed integrally with and extending from an outer wall of the adaptor main body ; and an extended lever which, in use, extends from the stationary lever along a lengthwise direction of the pressurized container (PC), characterised in that the stationary lever comprises a support projection , the extended lever comprises an accommodating groove , the stationary lever is pivotally coupled to the extended lever by a hinge , and the support projection of the stationary lever is inserted in and coupled to the accommodating groove of the extended lever for the dispensing operation, while allowing the support projection to be disengaged from the accommodating groove if the extended lever is pivotally moved by a user about the hinge in a direction towards the discharging pipe .
Heat pump system comprising a heat medium circuit in turn comprising at least three heat exchanging means arranged to transfer thermal energy between the heat medium and a respective heat source or sink selected from outdoor air, a water body, the ground, indoor air, pool water, tap water or a topmost ground layer, a valve means arranged to selectively direct the heat medium to at least two of said heat exchanging means, and a control means arranged to control said valve means, wherein the heat pump system comprises respective temperature sensors (314a,314b;315a,315b;316a,316b;423,424,425;432,434,435) both upstream and down-stream of at least one of said heat exchanging means, in that the control means is arranged to, based upon temperature measurement values comprising at least one value read from said sensors, determine to which heat exchanging means the heat medium is to be directed, characterised in that when heat medium is not directed to a certain heat exchanging means the control means is arranged to read, repeatedly over time, a measured temperature value upstream and downstream of the certain heat exchanging means, and to set off an alert in case a difference between the read temperatures increases by more than a predetermined value between a reference reading, measured previously but after the disconnection of the delivery of heat medium to the heat exchanger in question, and a later reading, measured after the reference reading while the heat exchanger still does not receive any heat medium.
A method for indicating an exhale direction for a user to exhale after drawing on an aerosol generating device , the method comprising: determining an air pattern in proximity to an aerosol generating device ; and indicating the exhale direction based on the air pattern. determining an air pattern in proximity to an aerosol generating device ; and indicating the exhale direction based on the air pattern.
A cell-free protein synthesis system suitable for protein synthesis comprising: a) a eukaryotic cellular lysate, wherein said eukaryotic cellular lysate is a tobacco BY-2 cell lysate b) a reaction buffer, and c) an expression cassette comprising a DNA promoter construct comprising in the 5' - 3' direction: - a promoter element of an RNA polymerase, - an enhancing element of at least 6 consecutive nucleotides including the transcription start site, wherein the enhancing element comprises the sequence GGGAGA, GCAAGA or GGAAGA, - a 5' UTR sequence element, wherein said 5' UTR sequence element is an omega 5' UTR sequence from Tobacco mosaic virus (TMV), and - a translation initiation start site., - a gene of interest linked to said promoter construct, and - optionally a transcription end site polyadenylation signal. a) a eukaryotic cellular lysate, wherein said eukaryotic cellular lysate is a tobacco BY-2 cell lysate b) a reaction buffer, and c) an expression cassette comprising a DNA promoter construct comprising in the 5' - 3' direction: - a promoter element of an RNA polymerase, - an enhancing element of at least 6 consecutive nucleotides including the transcription start site, wherein the enhancing element comprises the sequence GGGAGA, GCAAGA or GGAAGA, - a 5' UTR sequence element, wherein said 5' UTR sequence element is an omega 5' UTR sequence from Tobacco mosaic virus (TMV), and - a translation initiation start site., - a gene of interest linked to said promoter construct, and - optionally a transcription end site polyadenylation signal. - a promoter element of an RNA polymerase, - an enhancing element of at least 6 consecutive nucleotides including the transcription start site, wherein the enhancing element comprises the sequence GGGAGA, GCAAGA or GGAAGA, - a 5' UTR sequence element, wherein said 5' UTR sequence element is an omega 5' UTR sequence from Tobacco mosaic virus (TMV), and - a translation initiation start site., - a gene of interest linked to said promoter construct, and - optionally a transcription end site polyadenylation signal.
A conductive material dispersion containing a conductive material containing carbon fibers, a dispersant, and a dispersion medium, wherein the dispersant contains a copolymer A containing a nitrile group-containing structural unit and an aliphatic hydrocarbon structural unit, and a Mooney viscosity (ML 1+4 , 100°C) of the copolymer A is 40 to 70, and a phase angle of the conductive material dispersion at a frequency of 1 Hz obtained by dynamic viscoelasticity measurement is 19° or greater, the Mooney viscosity and the phase angle being measured according to the description. the dispersant contains a copolymer A containing a nitrile group-containing structural unit and an aliphatic hydrocarbon structural unit, and a Mooney viscosity (ML 1+4 , 100°C) of the copolymer A is 40 to 70, and a phase angle of the conductive material dispersion at a frequency of 1 Hz obtained by dynamic viscoelasticity measurement is 19° or greater, the Mooney viscosity and the phase angle being measured according to the description.
Electrically conductive material for applying it under a non-conductive water insulation layer, comprising a nonwoven PET (Polyethylene terephthalate) or PP (Polypropylene) polymer layer and a conductive particle coating consisting of electrically conductive carbon and/or metal particles in the range of 0.1 to 20 micrometres, preferably 0.2 to 5 micrometres, and an acrylic binder , wherein fibres of the nonwoven PET or PP polymer layer are in the range of 0.9 dtex to 16.0 dtex, preferably 1.7 dtex to 6.0 dtex, and wherein the electrically conductive carbon and/or metal particles within the acrylic binder cover entire surface of the polymer layer in such an amount that a resistance of the conductive particle coating is 1000Ω/sq or less.