mhurhangee/patent-ind-claim-en huggingface dataset:
An autoinjector comprising: • a body receiving a reservoir (S), said reservoir (S) containing fluid and including a piston (P), such as a pre-filled syringe, • a piston rod that is adapted to co-operate with the piston (P) of said reservoir (S), said piston rod being movable by an injection spring between a primed position and an injection position in which said piston rod has moved the piston (P) of the reservoir (S) so as to inject the fluid into an injection site, • a visual, audible and/or tactile indicator device for indicating to the user that said autoinjector may be removed from said injection site, said autoinjector including a retarding system so as to delay actuating said visual, audible and/or indicator device relative to the end of injection, said retarding system comprising a dashpot , a shear member arranged in said dashpot and a fluid arranged in said dashpot around said shear member , one of said dashpot and of said shear member being rotatably mounted in said body and the other one of said dashpot and of said shear member being stationary in rotation, the turning of one relative to the other being braked by shearing said fluid contained in said dashpot , characterized in that said dashpot includes projections on its inside surface and said shear member includes projections on its outer surface, said projections generating impediments to the flow of the fluid, and shearing the fluid when a projection of the dashpot faces a projection of the shear member . • a body receiving a reservoir (S), said reservoir (S) containing fluid and including a piston (P), such as a pre-filled syringe, • a piston rod that is adapted to co-operate with the piston (P) of said reservoir (S), said piston rod being movable by an injection spring between a primed position and an injection position in which said piston rod has moved the piston (P) of the reservoir (S) so as to inject the fluid into an injection site, • a visual, audible and/or tactile indicator device for indicating to the user that said autoinjector may be removed from said injection site,
Adapter device for connecting a focussing mount of a lens to a lens mount , with a coupling ring which is designed to form a first rotational connection to the focussing mount and a second rotational connection to the lens mount , wherein at least one of the two rotational connections is designed to produce a travel parallel to the optical axis of the lens , characterized in that at least one clamping ring is provided which is designed to produce a rotational securing of the coupling ring relative to the lens mount and/or focussing mount , in that an anti-rotation means is provided for preventing an unwanted rotation of the at least one clamping ring with respect to the coupling ring, in that one of the two rotational connections is designed to be free from travel, and in that the coupling ring is provided with an expandable slit .
A method for a network management and control system that manages one or more logical networks, the method comprising: from a provider first user of the network management and control system, receiving a definition of a first set of one or more security zones for a logical network, each security zone definition comprising a set of security rules for data compute nodes 'DCNs' assigned to the security zone, wherein the provider first user defines a plurality of tenant users of the network management and control system; from a tenant second user of the network management and control system that is one of the plurality of tenant users defined by the provider first user and that manages networking and security configurations for at least a portion of the logical network, receiving a definition of a second set of security zones for the logical network; from an application developer third user of the network management and control system, receiving a definition of an application to be deployed in the logical network, the application definition specifying a set of security requirements for the application; and based on the specified set of security requirements, assigning DCNs implementing the application to one or more of the security zones of the first and second sets of security zones for the logical network. from a provider first user of the network management and control system, receiving a definition of a first set of one or more security zones for a logical network, each security zone definition comprising a set of security rules for data compute nodes 'DCNs' assigned to the security zone, wherein the provider first user defines a plurality of tenant users of the network management and control system; from a tenant second user of the network management and control system that is one of the plurality of tenant users defined by the provider first user and that manages networking and security configurations for at least a portion of the logical network, receiving a definition of a second set of security zones for the logical network; from an application developer third user of the network management and control system, receiving a definition of an application to be deployed in the logical network, the application definition specifying a set of security requirements for the application; and based on the specified set of security requirements, assigning DCNs implementing the application to one or more of the security zones of the first and second sets of security zones for the logical network.
A computer-implemented method, comprising: receiving a seismic dataset from a survey, wherein the seismic dataset represents a portion of a subsurface geological formation and includes primary and multiple data; estimating a model of the multiple data based on a user-defined parameter; conditioning the seismic dataset by subtracting the estimated model of the multiple data from the seismic data set to derive a primary data set; computing a velocity model from the primary data set using the user-defined parameter; updating the estimated multiple model based at least on a modification of the user-defined parameter; recomputing the primary data set and the velocity model based on the modified user-defined parameter; and generating an image of the recomputed primary data set; characterized by : the user-defined parameter being a spatial aperture B, being an area B selected for computation of an integral providing an estimate of free-surface multiples for a shot at (S) and a receiver at (R), wherein aperture B lies wholly within a spatial aperture A; defining non-intersecting areas B and (A-B), wherein A = B+(A-B); separately computing the integral for areas B and (A-B); and adjusting or refining spatial aperture B for more accurate processing of aperture A. receiving a seismic dataset from a survey, wherein the seismic dataset represents a portion of a subsurface geological formation and includes primary and multiple data; estimating a model of the multiple data based on a user-defined parameter; conditioning the seismic dataset by subtracting the estimated model of the multiple data from the seismic data set to derive a primary data set; computing a velocity model from the primary data set using the user-defined parameter; updating the estimated multiple model based at least on a modification of the user-defined parameter; recomputing the primary data set and the velocity model based on the modified user-defined parameter; and generating an image of the recomputed primary data set; characterized by : the user-defined parameter being a spatial aperture B, being an area B selected for computation of an integral providing an estimate of free-surface multiples for a shot at (S) and a receiver at (R), wherein aperture B lies wholly within a spatial aperture A; defining non-intersecting areas B and (A-B), wherein A = B+(A-B); separately computing the integral for areas B and (A-B); and adjusting or refining spatial aperture B for more accurate processing of aperture A. the user-defined parameter being a spatial aperture B, being an area B selected for computation of an integral providing an estimate of free-surface multiples for a shot at (S) and a receiver at (R), wherein aperture B lies wholly within a spatial aperture A; defining non-intersecting areas B and (A-B), wherein A = B+(A-B); separately computing the integral for areas B and (A-B); and adjusting or refining spatial aperture B for more accurate processing of aperture A.
A method of non-invasively and automatically assessing global structural characteristics of a supporting pole sunk in the ground, the method comprising the following operational steps: acquiring data on the supporting pole being assessed (step 100), the acquiring comprising establishing an overall height and diameter of a cross-section of the pole (steps 101,102,110), the diameter being measured at a pre-established height of the pole above ground; - striking at least one blow against said pole (step 500) to generate pole oscillations; detecting the pole oscillations generated by said at least one blow; - analyzing detected pole oscillations to determine at least one significant parameter in an oscillation trend (step 600); and - comparing said at least one significant parameter with pre-established threshold values to obtain a conformity-non-conformity index related to pole characteristics (step 606), characterized in that said at least one significant parameter is a modulus of elasticity of said pole and said threshold values are calculated based on a model linking said modulus of elasticity to a breaking point of said pole, starting from said overall height of said pole, and further comprising a operational step of detecting position coordinates of the pole. - striking at least one blow against said pole (step 500) to generate pole oscillations; detecting the pole oscillations generated by said at least one blow; - analyzing detected pole oscillations to determine at least one significant parameter in an oscillation trend (step 600); and - comparing said at least one significant parameter with pre-established threshold values to obtain a conformity-non-conformity index related to pole characteristics (step 606), characterized in that said at least one significant parameter is a modulus of elasticity of said pole and said threshold values are calculated based on a model linking said modulus of elasticity to a breaking point of said pole, starting from said overall height of said pole, and further comprising a operational step of detecting position coordinates of the pole.
An integrated drilling and injection device, comprising: a longitudinal shank having an internal passage extending from an open first end of the shank along an axis of the shank toward a second end of the shank ; a drill bit located at a second end of the shank opposite the first end; and at least one outlet in fluid communication between the internal passage and an exterior surface of the shank , characterised by a valve within the internal passage , the valve configured to control passage of material within the internal passage . a longitudinal shank having an internal passage extending from an open first end of the shank along an axis of the shank toward a second end of the shank ; a drill bit located at a second end of the shank opposite the first end; and at least one outlet in fluid communication between the internal passage and an exterior surface of the shank , characterised by a valve within the internal passage , the valve configured to control passage of material within the internal passage .
A rotating shaft device comprising a fixed carter and driving means integral to at least one of one or more rotating shafts of the rotating shaft device, each driving means having its own integrated control and power supply unit , characterized in that it comprises: • one or more annular antennas , connected to said respective control and power supply unit and arranged so as to at least partially surround one or more of said rotating shafts , and integral to the rotating shaft of the respective control and power supply unit , so that said rotating shafts act as wave guide for the signals received from said one or more annular antennas and intended to be received by the respective control and power supply unit to drive said driving means associated thereto; and • radio transmission means , integral with the carter and associated to one or more of said rotating shafts to send signals therethrough to said one or more annular antennas . • one or more annular antennas , connected to said respective control and power supply unit and arranged so as to at least partially surround one or more of said rotating shafts , and integral to the rotating shaft of the respective control and power supply unit , so that said rotating shafts act as wave guide for the signals received from said one or more annular antennas and intended to be received by the respective control and power supply unit to drive said driving means associated thereto; and • radio transmission means , integral with the carter and associated to one or more of said rotating shafts to send signals therethrough to said one or more annular antennas .
Device for supporting the wrist and/or the forearm, in particular in the form of a mat for an office mouse or keyboard, comprising: - a protective coating , which is deformable and defines the top of the device ; and - a pressure redistribution layer , in which a plurality of bubbles extends, the pressure redistribution layer comprising: - a compressible sheet ; - a flexible element arranged to define an upper face of the pressure redistribution layer and defining an element for covering the compressible sheet ; - a first piece of flexible film and a second piece of flexible film , separate from the flexible element, which extend under the flexible element and parallel to this element; with set bubbles of the plurality of bubbles being distributed parallel to the protective coating and included in the thickness of the pressure redistribution layer , the content of the bubbles being made up of a fluid and being encapsulated, for each of the set bubbles , between the first and second film parts , where - the compressible sheet includes said first and second film parts for encapsulating the content of the bubbles , and the pressure redistribution layer comprises a fluid supplementing the fluid of the bubbles , contained between the first film part and the flexible element, allowing the bubbles to deform by virtue of spacing zones between the bubbles that contain the supplementary fluid; the protective coating being either defined by the flexible element or overlaid on the pressure redistribution layer and designed and arranged to resiliently bend in response to a pressure exerted on the top of the device . - a protective coating , which is deformable and defines the top of the device ; and - a pressure redistribution layer , in which a plurality of bubbles extends, the pressure redistribution layer comprising: - a compressible sheet ; - a flexible element arranged to define an upper face of the pressure redistribution layer and defining an element for covering the compressible sheet ; - a first piece of flexible film and a second piece of flexible film , separate from the flexible element, which extend under the flexible element and parallel to this element; with set bubbles of the plurality of bubbles being distributed parallel to the protective coating and included in the thickness of the pressure redistribution layer , the content of the bubbles being made up of a fluid and being encapsulated, for each of the set bubbles , between the first and second film parts , where - the compressible sheet includes said first and second film parts for encapsulating the content of the bubbles , and the pressure redistribution layer comprises a fluid supplementing the fluid of the bubbles , contained between the first film part and the flexible element, allowing the bubbles to deform by virtue of spacing zones between the bubbles that contain the supplementary fluid; the protective coating being either defined by the flexible element or overlaid on the pressure redistribution layer and designed and arranged to resiliently bend in response to a pressure exerted on the top of the device .
A method for screening for a TCR-binding peptide ligand/MHC molecule complex (pMHC), comprising the steps of: a) providing a suitably stabilized MHC I molecule, which is a HLA-A protein, wherein said MHC molecule comprises at least one artificially introduced covalent bridge: between two amino acids of the alpha1 domain of said stabilized MHC molecule by mutating an amino acid corresponding to position 22 of SEQ ID NO: 322 and an amino acid corresponding to position 71 of SEQ ID NO: 322, b) contacting said suitably stabilized MHC I molecule with a multitude of peptide ligands thereof, to form peptide ligand/MHC (pMHC) molecule complexes, and c) screening said pMHC molecule complexes for TCR-binding. a) providing a suitably stabilized MHC I molecule, which is a HLA-A protein, wherein said MHC molecule comprises at least one artificially introduced covalent bridge: between two amino acids of the alpha1 domain of said stabilized MHC molecule by mutating an amino acid corresponding to position 22 of SEQ ID NO: 322 and an amino acid corresponding to position 71 of SEQ ID NO: 322, b) contacting said suitably stabilized MHC I molecule with a multitude of peptide ligands thereof, to form peptide ligand/MHC (pMHC) molecule complexes, and c) screening said pMHC molecule complexes for TCR-binding.
Device for taking a soil sample from an underwater bottom , comprising - an elongate hollow drill casing and a soil sample holder received in the drill casing and having an internal cavity connecting to an inlet opening provided on an underside of the drill casing ; - a support frame configured for placement on the underwater bottom and for positioning the drill casing relative to the underwater bottom ; and - a drive for driving the underside of the drill casing into the underwater bottom so that the internal cavity of the soil sample holder can fill up with soil material via the inlet opening to obtain a soil sample; characterized in that : - a transverse dimension of the internal cavity of the soil sample holder amounts to at least 200 mm, allowing to take an undisturbed soil sub-sample of smaller size from the soil sample, - the drive is configured to produce a driving-in force of at least 500 kN; and - the drive comprises a hydraulic vibratory block configured to generate waves having a frequency within the range of 5 to 100 Hz, and/or a sonic drilling device configured to generate waves having a frequency amounting to at least 100 Hz, wherein the drive engages on an upper side of the drill casing . - an elongate hollow drill casing and a soil sample holder received in the drill casing and having an internal cavity connecting to an inlet opening provided on an underside of the drill casing ; - a support frame configured for placement on the underwater bottom and for positioning the drill casing relative to the underwater bottom ; and - a drive for driving the underside of the drill casing into the underwater bottom so that the internal cavity of the soil sample holder can fill up with soil material via the inlet opening to obtain a soil sample; characterized in that : - a transverse dimension of the internal cavity of the soil sample holder amounts to at least 200 mm, allowing to take an undisturbed soil sub-sample of smaller size from the soil sample, - the drive is configured to produce a driving-in force of at least 500 kN; and - the drive comprises a hydraulic vibratory block configured to generate waves having a frequency within the range of 5 to 100 Hz, and/or a sonic drilling device configured to generate waves having a frequency amounting to at least 100 Hz, wherein the drive engages on an upper side of the drill casing . - a transverse dimension of the internal cavity of the soil sample holder amounts to at least 200 mm, allowing to take an undisturbed soil sub-sample of smaller size from the soil sample, - the drive is configured to produce a driving-in force of at least 500 kN; and - the drive comprises a hydraulic vibratory block configured to generate waves having a frequency within the range of 5 to 100 Hz, and/or a sonic drilling device configured to generate waves having a frequency amounting to at least 100 Hz, wherein the drive engages on an upper side of the drill casing .
An outdoor unit for an air conditioner , comprising: a compressor ; an outdoor heat exchange unit through which a refrigerant flows by driving of the compressor ; an outdoor fan that includes an outdoor fan motor and is installed near the outdoor heat exchange unit ; and a control unit , characterized in that the control unit is adapted to provide notification of whether maintenance is needed for the outdoor heat exchange unit based on an airflow resistance during an outdoor air-sending operation in which the outdoor fan is driven to send outdoor air into the outdoor heat exchange unit while the compressor is stopped. a compressor ; an outdoor heat exchange unit through which a refrigerant flows by driving of the compressor ; an outdoor fan that includes an outdoor fan motor and is installed near the outdoor heat exchange unit ; and a control unit , characterized in that the control unit is adapted to provide notification of whether maintenance is needed for the outdoor heat exchange unit based on an airflow resistance during an outdoor air-sending operation in which the outdoor fan is driven to send outdoor air into the outdoor heat exchange unit while the compressor is stopped.
Compositions comprising 1) as component I: compound I-3 2-[4-(4-chlorophenoxy)-2-(trifluoromethyl)phenyl]-1-(1,2,4-triazol-1-yl)propan-2-ol; and 2) as component II triflumezopyrim (Mesoionic) (II-7). 1) as component I: compound I-3 2-[4-(4-chlorophenoxy)-2-(trifluoromethyl)phenyl]-1-(1,2,4-triazol-1-yl)propan-2-ol; and 2) as component II triflumezopyrim (Mesoionic) (II-7).
A method of navigating between images of an object obtained in different imaging modalities of the object, the method comprising: obtaining a number of x-ray images of the object at varying angles relative to the object in a digital breast tomosynthesis (DBT) acquisition; obtaining a three-dimensional volumetric image of the object in a 3D imaging acquisition; forming a DBT volume of the object from the x-ray images; forming a synthetic two-dimensional image of the object from the x-ray images and/or the DBT volume; forming a navigation map correlating locations of pixels of the synthetic 2D image within associated planes in the DBT volume; registering the 3D volumetric image from the 3D imaging acquisition with the DBT volume from the DBT acquisition; displaying the synthetic 2D image; and displaying a section of the 3D volumetric image corresponding to a location of a pixel in the synthetic 2D image in response to a selection of the pixel in the displayed synthetic 2D image. obtaining a number of x-ray images of the object at varying angles relative to the object in a digital breast tomosynthesis (DBT) acquisition; obtaining a three-dimensional volumetric image of the object in a 3D imaging acquisition; forming a DBT volume of the object from the x-ray images; forming a synthetic two-dimensional image of the object from the x-ray images and/or the DBT volume; forming a navigation map correlating locations of pixels of the synthetic 2D image within associated planes in the DBT volume; registering the 3D volumetric image from the 3D imaging acquisition with the DBT volume from the DBT acquisition; displaying the synthetic 2D image; and displaying a section of the 3D volumetric image corresponding to a location of a pixel in the synthetic 2D image in response to a selection of the pixel in the displayed synthetic 2D image.
An amylase mutant, having the amino acid sequence of SEQ ID NO: 2.