mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising a door , in particular of a vehicle , having a door lock; a door control module which has or is connected to a transmission/reception unit at the door side; and a radio key which is associated with the door lock and which has a transmission/reception unit at the key side, wherein the transmission/reception unit at the door side and the transmission/reception unit at the key side are configured for radio communication and the time of flight of a radio signal transmitted by the transmission/reception unit at the door side and reflected by the transmission/reception unit at the key side can be determined by means of the transmission/reception unit at the door side or the time of flight of a radio signal transmitted by the transmission/reception unit at the key side and reflected by the transmission/reception unit at the door side can be determined by means of the transmission/reception unit at the key side, wherein the transmission/reception unit determining the time of flight of a reflected radio signal is configured to transmit radio signals only during a predefined time window, and the transmission/reception unit determining the time of flight of a reflected radio signal is configured to activate a comfort function when the time of flight of the reflected radio signal falls below a predefined first threshold value or when the time of flight of the reflected radio signal exceeds a predefined second threshold value, characterized in that the or each threshold value can be individually set by a user at the door side and/or at the key side. a door , in particular of a vehicle , having a door lock; a door control module which has or is connected to a transmission/reception unit at the door side; and a radio key which is associated with the door lock and which has a transmission/reception unit at the key side, wherein the transmission/reception unit at the door side and the transmission/reception unit at the key side are configured for radio communication and the time of flight of a radio signal transmitted by the transmission/reception unit at the door side and reflected by the transmission/reception unit at the key side can be determined by means of the transmission/reception unit at the door side or the time of flight of a radio signal transmitted by the transmission/reception unit at the key side and reflected by the transmission/reception unit at the door side can be determined by means of the transmission/reception unit at the key side, wherein the transmission/reception unit determining the time of flight of a reflected radio signal is configured to transmit radio signals only during a predefined time window, and the transmission/reception unit determining the time of flight of a reflected radio signal is configured to activate a comfort function when the time of flight of the reflected radio signal falls below a predefined first threshold value or when the time of flight of the reflected radio signal exceeds a predefined second threshold value, characterized in that the or each threshold value can be individually set by a user at the door side and/or at the key side.
Motor vehicle structure comprising: - a floor ; - a front deck ; - a wall connecting the front deck to the floor and forming, on each side of the vehicle, a foot reception area of a driver or front passenger; - a footrest placed on a portion of the driver's foot reception area , the portion being located laterally on the outside side of the vehicle; the footrest consists of a top end forming a shoulder facing a cross of the apron , capable of backing on the apron if the structure is deformed during a frontal shock, the shoulder at the top end of the rest foot being configured to rely on a lower face and a rear face of the apron cross during deformation, the foot reposepied comprising a front wall of the foot and two side walls , respectively on both sides of the receiving wall of the foot, said structure also comprising a wall under the apron cross 20 , forming a front wheel passage, each of the two side walls embodying the said wall , the footrest including at least one attachment element extending laterally along the wall forming the wall of wheel and fixed to at least one of the lateral walls of the said footrest , characterized by the fact that one or more of the fastening elements of the footrest extends laterally to the lateral amount before and is fixed to that amount . - a floor ; - a front deck ; - a wall connecting the front deck to the floor and forming, on each side of the vehicle, a foot reception area of a driver or front passenger; - a footrest placed on a portion of the driver's foot reception area , the portion being located laterally on the outside side of the vehicle;
Method for creating a pulse sequence (PS) for controlling a magnetic resonance tomography system for generating magnetic resonance image data (BD) of an examination object (O) for a multi-contrast acquisition, in which, in order to acquire magnetic resonance raw data (RD), different transverse magnetisations are simultaneously excited in a plurality of partial volumes (S1, S2, S3, S4, S5, S6, S7, S8, S9, S10) for imaging and are used for imaging, wherein the partial volumes (S1, S2, S3, S4, S5, S6, S7, S8, S9, S10) are slices and at least one of the simultaneously excited slices experiences a different preparation to one of the other simultaneously excited slices, wherein the pulse sequence (PS) comprises a sequence of pulse iterations (PI1, PI2) which are configured to prepare, excite and read out partial volumes (S1, S2, S3, S4, S5, S6, S7, S8, S9, S10), wherein the pulse iterations (PI1, PI2) are arranged in the pulse sequence (PS) in such a way that a readout occurs when the pulse sequence (PS) is applied between a preparation of two spatially directly adjacent partial volumes (S1, S2, S3, S4, S5, S6, S7, S8, S9, S10), wherein the pulse sequence (PS) comprises a first pulse iteration (PI1) and a following second pulse iteration (PI2), characterised in that the first pulse iteration (PI1) comprises a first preparation pulse module (PM1) for preparation of a first partial volume (S1), and a first readout module (AM1) after the first preparation pulse module (PM1), and the second pulse iteration (PI2) comprises a second preparation pulse module (PM2) for preparation of a second partial volume (S2), and a second readout module (AM2) after the second preparation pulse module (PM2), wherein the first pulse iteration (P1) between the first preparation pulse module (PM1) and the first readout module (AM1) comprises at least a third preparation pulse module for preparing a third partial volume (S3). wherein the pulse sequence (PS) comprises a sequence of pulse iterations (PI1, PI2) which are configured to prepare, excite and read out partial volumes (S1, S2, S3, S4, S5, S6, S7, S8, S9, S10), wherein the pulse iterations (PI1, PI2) are arranged in the pulse sequence (PS) in such a way that a readout occurs when the pulse sequence (PS) is applied between a preparation of two spatially directly adjacent partial volumes (S1, S2, S3, S4, S5, S6, S7, S8, S9, S10), wherein the pulse sequence (PS) comprises a first pulse iteration (PI1) and a following second pulse iteration (PI2), characterised in that the first pulse iteration (PI1) comprises a first preparation pulse module (PM1) for preparation of a first partial volume (S1), and a first readout module (AM1) after the first preparation pulse module (PM1), and the second pulse iteration (PI2) comprises a second preparation pulse module (PM2) for preparation of a second partial volume (S2), and a second readout module (AM2) after the second preparation pulse module (PM2), wherein the first pulse iteration (P1) between the first preparation pulse module (PM1) and the first readout module (AM1) comprises at least a third preparation pulse module for preparing a third partial volume (S3).
An exhaust gas heater for an exhaust gas system of an internal combustion engine, comprising: - a disc-like carrier having an outer circumferential region , which is arranged radially on the outside with respect to a heater longitudinal axis (L) and a central region , which is arranged radially on the inside, - a heating conductor with a heating region arranged on a first axial side of the carrier , - at least one holding member for holding the heating conductor on the carrier , wherein the holding member comprises a plurality of alternatingly successive holding portions which engage around the heating conductor in its heating region and fastening portions which engage into fastening openings in the carrier and fixed to the carrier , wherein the at least one holding member is of wave-like form with successive alternating first wave loop regions and second wave loop regions , wherein the first wave loop regions form the holding portions and the second wave loop regions form the fastening portions , characterized in that at least one holding member is fixed to the carrier with at least one fastening portion on a second axial side of the carrier by material bonding, that at least one second wave loop region engaging into a fastening opening of the carrier is fixed to the carrier by material bonding in its length portion protruding from the second axial side of the carrier . - a disc-like carrier having an outer circumferential region , which is arranged radially on the outside with respect to a heater longitudinal axis (L) and a central region , which is arranged radially on the inside, - a heating conductor with a heating region arranged on a first axial side of the carrier , - at least one holding member for holding the heating conductor on the carrier ,
Method for determining a right-side up or an upside-down orientation of a contact lens on a lens support , the method comprising the steps of: - providing a contact lens having a lens center and a sagittal height (h), - providing a lens support , - arranging the contact lens on the lens support , - providing a camera system having a depth of field of less than the sagittal height (h), - illuminating the contact lens arranged on the lens support with a light beam, - focusing the camera system to a set focus corresponding to an expected position of the lens center of the contact lens that is arranged on the lens support in a predetermined right-side up orientation, with the lens center of the contact lens that is arranged on the lens support in the predetermined right-side up orientation being within the depth of field of the focused camera system , - producing an image of the contact lens , - scanning the image of the contact lens in an image portion (S) of a predetermined size; - determining an image defocus of the image portion (S), characterized in that the image portion (S) is only the image of the central portion of the contact lens , - and in that the method further comprises the step of determining the orientation of the contact lens from the image of the contact lens by comparing the determined image defocus with a predetermined threshold (T). - providing a contact lens having a lens center and a sagittal height (h), - providing a lens support , - arranging the contact lens on the lens support , - providing a camera system having a depth of field of less than the sagittal height (h), - illuminating the contact lens arranged on the lens support with a light beam, - focusing the camera system to a set focus corresponding to an expected position of the lens center of the contact lens that is arranged on the lens support in a predetermined right-side up orientation, with the lens center of the contact lens that is arranged on the lens support in the predetermined right-side up orientation being within the depth of field of the focused camera system , - producing an image of the contact lens , - scanning the image of the contact lens in an image portion (S) of a predetermined size; - determining an image defocus of the image portion (S), - and in that the method further comprises the step of determining the orientation of the contact lens from the image of the contact lens by comparing the determined image defocus with a predetermined threshold (T).
A dose of CD4 + and CD8 + T cells for use in a method of treating a subject having or suspected of having a disease or condition that is a relapsed or refractory large B cell lymphoma (r/r LBCL), the method comprising administering to the subject the dose of CD4 + and CD8 + T cells, wherein T cells of each dose comprises a chimeric antigen receptor (CAR) that specifically binds to CD19, wherein: at or immediately prior to the time of the administration of the dose of cells, the subject is or has been identified as being ineligible for both a high-dose chemotherapy and a hematopoietic stem cell transplantation (HSCT); the dose of T cells comprises between at or about 1 × 10 7 CAR-expressing T cells and at or about 2 × 10 8 CAR-expressing T cells, inclusive; the dose of T cells comprises a ratio of approximately 1: 1 CD4 + T cells expressing the CAR to CD8 + T cells expressing the CAR; and the administration comprises administering a plurality of separate compositions, wherein the plurality of separate compositions comprises a first composition comprising CD8 + T cells and a second composition comprising CD4 + T cells. at or immediately prior to the time of the administration of the dose of cells, the subject is or has been identified as being ineligible for both a high-dose chemotherapy and a hematopoietic stem cell transplantation (HSCT); the dose of T cells comprises between at or about 1 × 10 7 CAR-expressing T cells and at or about 2 × 10 8 CAR-expressing T cells, inclusive; the dose of T cells comprises a ratio of approximately 1: 1 CD4 + T cells expressing the CAR to CD8 + T cells expressing the CAR; and the administration comprises administering a plurality of separate compositions, wherein the plurality of separate compositions comprises a first composition comprising CD8 + T cells and a second composition comprising CD4 + T cells.
A fluorescence lifetime measurement apparatus comprising: an illumination light generation unit configured to generate illumination light; a fluorescence photon detection unit configured to collect fluorescence photons generated by illuminating a sample including fluorescent molecules with the illumination light; a conversion unit configured to convert the collected fluorescence photons into a first clock signal and convert illumination light that does not pass through the sample into a second clock signal; a first module configured to analyze a fluorescence lifetime of the collected fluorescence photons, wherein the first module comprises an analog mean delay , AMD, measurement unit configured to compute the fluorescence lifetime using a difference between an average time of the first clock signal and an average time of the second clock signal from the conversion unit; characterised in that the apparatus further comprises a control unit configured to designate a range of interest , ROI, of the sample S from the fluorescence lifetime computed by the first module; and a second module configured to analyze a fluorescence lifetime of fluorescence photons corresponding to the ROI, wherein the second module comprises a time-correlated single photon counting, TCSPC, measurement unit configured to calculate the fluorescence lifetime by computing time difference data between the first clock signal and the second clock signal through a high photon detection rate of tens of MHz with respect to a single photon. an illumination light generation unit configured to generate illumination light; a fluorescence photon detection unit configured to collect fluorescence photons generated by illuminating a sample including fluorescent molecules with the illumination light; a conversion unit configured to convert the collected fluorescence photons into a first clock signal and convert illumination light that does not pass through the sample into a second clock signal; a first module configured to analyze a fluorescence lifetime of the collected fluorescence photons, wherein the first module comprises an analog mean delay , AMD, measurement unit configured to compute the fluorescence lifetime using a difference between an average time of the first clock signal and an average time of the second clock signal from the conversion unit; characterised in that the apparatus further comprises a control unit configured to designate a range of interest , ROI, of the sample S from the fluorescence lifetime computed by the first module; and a second module configured to analyze a fluorescence lifetime of fluorescence photons corresponding to the ROI, wherein the second module comprises a time-correlated single photon counting, TCSPC, measurement unit configured to calculate the fluorescence lifetime by computing time difference data between the first clock signal and the second clock signal through a high photon detection rate of tens of MHz with respect to a single photon.
A robot cleaner comprising: a cleaner body configured to move in an area and clean the area; and a sensor assembly provided in the cleaner body , the sensor assembly including: a main sensor configured to sense an obstacle in the area, the main sensor being moveable between a sensing position where the main sensor protrudes out of the cleaner body and a settled position where the main sensor is inside the cleaner body ; a sensor position changer configured to allow the main sensor to move between the sensing position and the settled position; characterized in that the robot cleaner comprises a stopper configured to restrict the main sensor at the sensing position from descending by the obstacle other than the sensor position changer . a cleaner body configured to move in an area and clean the area; and a sensor assembly provided in the cleaner body , the sensor assembly including: a main sensor configured to sense an obstacle in the area, the main sensor being moveable between a sensing position where the main sensor protrudes out of the cleaner body and a settled position where the main sensor is inside the cleaner body ; a sensor position changer configured to allow the main sensor to move between the sensing position and the settled position; characterized in that the robot cleaner comprises a stopper configured to restrict the main sensor at the sensing position from descending by the obstacle other than the sensor position changer . a main sensor configured to sense an obstacle in the area, the main sensor being moveable between a sensing position where the main sensor protrudes out of the cleaner body and a settled position where the main sensor is inside the cleaner body ; a sensor position changer configured to allow the main sensor to move between the sensing position and the settled position; characterized in that the robot cleaner comprises a stopper configured to restrict the main sensor at the sensing position from descending by the obstacle other than the sensor position changer .
Aqueous dispersion of supramolecular polyalkene polymer particles with a surfactant system chosen from: 1) at least one anionic surfactant optionally combined with at least one non-ionic surfactant, with the exclusion of the surfactant system containing only dodecyl sulfate and/or an alkali metal salt of dodecyl sulfate; 2) at least one cationic surfactant, optionally combined with at least one non-ionic surfactant; 3) at least one non-ionic surfactant having an HLB greater than 10 or a mixture of non-ionic surfactants, said mixture having an HLB greater than 10, without being combined with an ionic surfactant; being understood that the polyalkene supramolecular polymer is a polymer including in its structure at least one polyalkene portion and at least one portion including at least one group that can form at least three hydrogen bonds, preferably four hydrogen bonds. 1) at least one anionic surfactant optionally combined with at least one non-ionic surfactant, with the exclusion of the surfactant system containing only dodecyl sulfate and/or an alkali metal salt of dodecyl sulfate; 2) at least one cationic surfactant, optionally combined with at least one non-ionic surfactant; 3) at least one non-ionic surfactant having an HLB greater than 10 or a mixture of non-ionic surfactants, said mixture having an HLB greater than 10, without being combined with an ionic surfactant; being understood that the polyalkene supramolecular polymer is a polymer including in its structure at least one polyalkene portion and at least one portion including at least one group that can form at least three hydrogen bonds, preferably four hydrogen bonds.
A system for cloud-based privacy-preserving navigation operations between multiple parties, the system comprising: one or more processors and a non-transitory computer-readable medium having executable instructions encoded thereon such that when executed, the one or more processors perform operations of: performing a two-party computation between input data related to a current location of a first party and public data stored on a cloud computing infrastructure, wherein each party individually performs a 2PC on the public data while maintaining privacy of their input data; performing multi-party computations (MPC) between multiple parties and the cloud computing infrastructure, where the multiple parties privately update the public data with a result obtained from the 2PC; generating a privacy-preserved navigation result for the first party from the first party's current location to a desired end location using results obtained from the 2PC and the MPC; and causing the first party to perform a navigation operation based on the privacy-preserved navigation result. performing a two-party computation between input data related to a current location of a first party and public data stored on a cloud computing infrastructure, wherein each party individually performs a 2PC on the public data while maintaining privacy of their input data; performing multi-party computations (MPC) between multiple parties and the cloud computing infrastructure, where the multiple parties privately update the public data with a result obtained from the 2PC; generating a privacy-preserved navigation result for the first party from the first party's current location to a desired end location using results obtained from the 2PC and the MPC; and causing the first party to perform a navigation operation based on the privacy-preserved navigation result.