mhurhangee/patent-ind-claim-en huggingface dataset:
Tool attachment having a fastening unit for fastening on a fastening interface of a hand-held power tool , wherein a centring aid is provided on the fastening unit for the purpose of centring the fastening unit axially on the fastening interface , characterized in that the fastening unit has a main body , on the outer circumference of which are provided at least two retaining members , which are designed in the manner of bayonets for forming a bayonet connection, and also has a centring member , which is arranged on the main body , in an interior of the main body , and has the at least partially conical centring aid on an outer circumference , wherein the centring aid is formed at an axial end region of the fastening unit .
Mammalian exosomes derived and isolated from cerebral endothelial cells (CECs) for use in preventing and/or treating chemotherapy-induced peripheral neuropathy (CIPN) caused by the administration of at least one platinum based chemotherapeutic agent in a subject in need thereof, wherein the subject will be treated with or is currently treated with a chemotherapeutic agent comprising at least one platinum agent.
A seismic source apparatus , configured to be maneuvered by a vehicle over a terrain and operable while in motion, said seismic source apparatus comprising: a seismic source unit mounted on a source platform and configured to be maneuvered by the vehicle, the seismic source unit being configured to generate seismic waves while the vehicle is in on the move, said seismic source unit including at least one movable mass and an energy transfer element configured to maintain continuous and intimate contact with the terrain while the vehicle is in motion and the seismic waves are generated; characterized in that the seismic source apparatus further comprises at least one motion de-coupling assembly associating said energy transfer element with said source platform or vehicle , and provided to reduce or prevent vibrational energy generated by said seismic source unit to be transferred to the source platform or the vehicle , wherein motion of said seismic source unit while the vehicle is in motion is independent of the motion of said vehicle and/or said source platform , wherein the motion of said seismic source unit is along or about at least one selected axis, within a determined range. a seismic source unit mounted on a source platform and configured to be maneuvered by the vehicle, the seismic source unit being configured to generate seismic waves while the vehicle is in on the move, said seismic source unit including at least one movable mass and an energy transfer element configured to maintain continuous and intimate contact with the terrain while the vehicle is in motion and the seismic waves are generated; characterized in that the seismic source apparatus further comprises at least one motion de-coupling assembly associating said energy transfer element with said source platform or vehicle , and provided to reduce or prevent vibrational energy generated by said seismic source unit to be transferred to the source platform or the vehicle , wherein motion of said seismic source unit while the vehicle is in motion is independent of the motion of said vehicle and/or said source platform , wherein the motion of said seismic source unit is along or about at least one selected axis, within a determined range.
A method for determining the total histamine degradation capacity in a liquid biological sample, the method comprising the steps of: - equally dividing a provided amount of liquid biological sample into a first partial sample and a second partial sample; - adding and mixing the first partial sample with a specific amount of histamine provocation solution containing histamine; - incubating the first partial sample dosed with histamine provocation solution for a specific time period and in specific first incubation conditions, while at the same time incubating the second partial sample for the same specific time period as the first partial sample and in specific second incubation conditions; - adding and mixing the second partial sample after its incubation with the same specific amount of histamine provocation solution containing histamine as previously employed for the first partial sample; - extracting quantitatively equal fractions from the charges of the first and second partial samples containing provocation solution, and modifying the histamine still present in the charges; - determining the absolute concentrations of modified histamine (histamine value) in the two partial samples; - calculating the total histamine degradation capacity. - equally dividing a provided amount of liquid biological sample into a first partial sample and a second partial sample; - adding and mixing the first partial sample with a specific amount of histamine provocation solution containing histamine; - incubating the first partial sample dosed with histamine provocation solution for a specific time period and in specific first incubation conditions, while at the same time incubating the second partial sample for the same specific time period as the first partial sample and in specific second incubation conditions; - adding and mixing the second partial sample after its incubation with the same specific amount of histamine provocation solution containing histamine as previously employed for the first partial sample; - extracting quantitatively equal fractions from the charges of the first and second partial samples containing provocation solution, and modifying the histamine still present in the charges; - determining the absolute concentrations of modified histamine (histamine value) in the two partial samples; - calculating the total histamine degradation capacity.
An image processor comprising: a mode setting part adapted to selectively set a display output mode selected from a 2D display output mode and 3D display output mode; and a play control part adapted to control switching from a first display image to a second display image, wherein the switching from a first display image to a second display image includes applying a cross-fade effect to the first and second display images, and the play control part changing the manner in which to control switching between display images in accordance with the display output mode set by the mode setting part, wherein the play control part changes the opacities of first and second display images with time so that when the two display images are cross-faded, the sum of the opacities of the first and second display images in the 3D display output mode is smaller than the sum of the opacities of the first and second display images in the 2D display output mode during a cross-fading period. a mode setting part adapted to selectively set a display output mode selected from a 2D display output mode and 3D display output mode; and a play control part adapted to control switching from a first display image to a second display image, wherein the switching from a first display image to a second display image includes applying a cross-fade effect to the first and second display images, and the play control part changing the manner in which to control switching between display images in accordance with the display output mode set by the mode setting part, wherein the play control part changes the opacities of first and second display images with time so that when the two display images are cross-faded, the sum of the opacities of the first and second display images in the 3D display output mode is smaller than the sum of the opacities of the first and second display images in the 2D display output mode during a cross-fading period.
A dynamic facade system for controlling shading, characterized in that said facade system comprises a block composed of an outer glass panel , an intermediate framework inside which a series of steel cables are fixed, and an inner framework that incorporates an inner glass panel ; said outer glass panel , said intermediate framework and said inner framework being joined to one another: said system comprises modules fixed on said cables ; said modules comprise a first outer structure ; said first outer structure comprises a frame-shaped square base and at least one first wing ; said at least one first wing is movably connected to said frame-shaped square base by means of a first hinge ; wherein said first hinge is made with a shape memory element with passive configuration.
An optical element comprising: a window formed of synthetic diamond material; and an optical surface pattern formed directly in a surface of the synthetic diamond material, the optical surface pattern comprising a plurality of projections separated by trenches, the projections spaced apart with a periodicity d, wherein the periodicity d is between 65 and 99% of a zeroeth order diffraction limit above which non zeroeth diffraction orders are observed at an operating wavelength λ, and wherein the optical surface pattern has a fill fraction in a range 0.1 to 0.6, the fill fraction defined as [area of projection in one periodic unit]/[area of the periodic unit]; wherein the window of synthetic diamond material is in the form of a wedged diamond window with non-parallel major surfaces defining a wedge angle in a range 1 arcminute to 60 arcminutes and the optical surface pattern is formed directly in one or both of the non-parallel major surfaces. a window formed of synthetic diamond material; and an optical surface pattern formed directly in a surface of the synthetic diamond material, the optical surface pattern comprising a plurality of projections separated by trenches, the projections spaced apart with a periodicity d, wherein the periodicity d is between 65 and 99% of a zeroeth order diffraction limit above which non zeroeth diffraction orders are observed at an operating wavelength λ, and wherein the optical surface pattern has a fill fraction in a range 0.1 to 0.6, the fill fraction defined as [area of projection in one periodic unit]/[area of the periodic unit]; wherein the window of synthetic diamond material is in the form of a wedged diamond window with non-parallel major surfaces defining a wedge angle in a range 1 arcminute to 60 arcminutes and the optical surface pattern is formed directly in one or both of the non-parallel major surfaces.
Control method implemented by a communication device , comprising the following steps: - acquisition (S2) of a current location (P1) of an autonomous locomotion craft ; - acquisition (S4) of current capabilities (DT2) of the autonomous locomotion craft; - selection (S6), on the basis of the current location and of the current capabilities, of a destination point (P2) reachable by the autonomous locomotion craft, said destination point being situated in the area of coverage (Z2) of an access point (PA2) to a mobile communication network (NT); and - provision (S14), to the autonomous locomotion craft , of a set of instructions (INS) specifying the destination point (P2) toward which the autonomous locomotion craft should move, and specifying at least one communication operation to be carried out in connection with the mobile communication network, in which the selection step (S6) comprises an identification of a plurality of access points providing, in an associated area of coverage, access to the mobile communication network; the selected destination point being situated in the area of coverage of one among the plurality of access points. - acquisition (S2) of a current location (P1) of an autonomous locomotion craft ; - acquisition (S4) of current capabilities (DT2) of the autonomous locomotion craft; - selection (S6), on the basis of the current location and of the current capabilities, of a destination point (P2) reachable by the autonomous locomotion craft, said destination point being situated in the area of coverage (Z2) of an access point (PA2) to a mobile communication network (NT); and - provision (S14), to the autonomous locomotion craft , of a set of instructions (INS) specifying the destination point (P2) toward which the autonomous locomotion craft should move, and specifying at least one communication operation to be carried out in connection with the mobile communication network, in which the selection step (S6) comprises an identification of a plurality of access points providing, in an associated area of coverage, access to the mobile communication network; the selected destination point being situated in the area of coverage of one among the plurality of access points.
Method, comprising: - determining of at least one expected receiving parameter value and/or at least one expected tire parameter value for each wheel position of the commercial vehicle, - receiving at least a first wireless communication signal of a first tire sensor by wireless communication means of a commercial vehicle ; - determining whether the first tire sensor is assignable to a wheel position of the commercial vehicle , based at least partially on at least one receiving parameter value of the first wireless communication signal and/or at least one representation of a tire parameter value included in the first wireless communication signal; - wherein the determining whether the first tire sensor is assignable to a wheel position of the commercial vehicle is further based at least partially on a speed of the commercial vehicle , and wherein the first tire sensor is assignable to a wheel position of the commercial vehicle only if the speed of the commercial vehicle is greater than or equal to a predetermined speed, - wherein the determining whether the first tire sensor is assignable to a wheel position of the commercial vehicle is further based at least partially on the expected receiving parameter values and/or the expected tire parameter values, and - wherein the determining of the expected receiving parameters and/or the expected tire parameter values is further based at least partially on a speed of the commercial vehicle . - determining of at least one expected receiving parameter value and/or at least one expected tire parameter value for each wheel position of the commercial vehicle, - receiving at least a first wireless communication signal of a first tire sensor by wireless communication means of a commercial vehicle ; - determining whether the first tire sensor is assignable to a wheel position of the commercial vehicle , based at least partially on at least one receiving parameter value of the first wireless communication signal and/or at least one representation of a tire parameter value included in the first wireless communication signal; - wherein the determining whether the first tire sensor is assignable to a wheel position of the commercial vehicle is further based at least partially on a speed of the commercial vehicle , and wherein the first tire sensor is assignable to a wheel position of the commercial vehicle only if the speed of the commercial vehicle is greater than or equal to a predetermined speed, - wherein the determining whether the first tire sensor is assignable to a wheel position of the commercial vehicle is further based at least partially on the expected receiving parameter values and/or the expected tire parameter values, and - wherein the determining of the expected receiving parameters and/or the expected tire parameter values is further based at least partially on a speed of the commercial vehicle .
A user equipment for a wireless communication system , comprising a processor and memory configured to: construct a unified subscription identifier data structure ; wherein the unified subscription identifier data structure comprises a plurality of fields (402-426, 602-616) that specify a selected one of two or more subscription identifier fields associated with a selected subscription identifier type; and use the selected one of two or more subscription identifier fields in the unified subscription identifier data structure to access one or more networks associated with the wireless communication system based on an authentication scenario corresponding to the selected subscription identifier type. construct a unified subscription identifier data structure ; wherein the unified subscription identifier data structure comprises a plurality of fields (402-426, 602-616) that specify a selected one of two or more subscription identifier fields associated with a selected subscription identifier type; and use the selected one of two or more subscription identifier fields in the unified subscription identifier data structure to access one or more networks associated with the wireless communication system based on an authentication scenario corresponding to the selected subscription identifier type.
A microscopic device comprising: a specimen container part which can store a collected specimen and having an observation area in which cells contained in the collected specimen can be observed; an objective lens aligned at a position corresponding to the observation area ; and a portable device mounting section on which a portable device having an imaging function can be mounted, wherein the observation of the cells by the objective lens can be performed by using the portable device mounted on the portable device mounting section , wherein the specimen container part has a specimen container body for storing the collected specimen, and a specimen container lid provided with the observation area , detachable from the specimen container body , characterized in that the specimen container body is a centrifuge tube, the observation area of the specimen container lid is an observation cell , the observation cell having a thin hollow section , is provided at an upper end of the specimen container lid so that the observation cell is connected to the specimen container body , and the observation cell is transparent. a specimen container part which can store a collected specimen and having an observation area in which cells contained in the collected specimen can be observed; an objective lens aligned at a position corresponding to the observation area ; and a portable device mounting section on which a portable device having an imaging function can be mounted, wherein the observation of the cells by the objective lens can be performed by using the portable device mounted on the portable device mounting section , wherein the specimen container part has a specimen container body for storing the collected specimen, and a specimen container lid provided with the observation area , detachable from the specimen container body , characterized in that the specimen container body is a centrifuge tube, the observation area of the specimen container lid is an observation cell , the observation cell having a thin hollow section , is provided at an upper end of the specimen container lid so that the observation cell is connected to the specimen container body , and the observation cell is transparent.
A method of identifying a fluid leak around a borehole by determining a location of an acoustic source outside of and around the borehole, the method comprising: receiving acoustic data signals from respective acoustic sensors spaced along a tool lowered within the borehole; calculating, from the acoustic data signals, stacked energies for different radial distances (514, 516, 518, 520, 522, 524, 526, 528, 530 532) from the borehole, wherein the stacked energy for each different radial distance (514, 516, 518, 520, 522, 524, 526, 528, 530 532) from the borehole is computed by offsetting the acoustic data signals in time in accordance with a borehole model specifying acoustic delay to the respective acoustic sensor as a function of the radial distance (514, 516, 518, 520, 522, 524, 526, 528, 530 532) from the borehole and an offset in the displacement along the borehole to the respective acoustic sensor , and summing the offset acoustic data signals to produce a stacked signal, and evaluating energy of the stacked signal over a time window; and translating at least one of the stacked energies to an indication of a radial distance (514, 516, 518, 520, 522, 524, 526, 528, 530 532) of the acoustic source from the borehole including comparing the stacked energies to a threshold and finding that said at least one of the stacked energies exceeds the threshold. receiving acoustic data signals from respective acoustic sensors spaced along a tool lowered within the borehole; calculating, from the acoustic data signals, stacked energies for different radial distances (514, 516, 518, 520, 522, 524, 526, 528, 530 532) from the borehole, wherein the stacked energy for each different radial distance (514, 516, 518, 520, 522, 524, 526, 528, 530 532) from the borehole is computed by offsetting the acoustic data signals in time in accordance with a borehole model specifying acoustic delay to the respective acoustic sensor as a function of the radial distance (514, 516, 518, 520, 522, 524, 526, 528, 530 532) from the borehole and an offset in the displacement along the borehole to the respective acoustic sensor , and summing the offset acoustic data signals to produce a stacked signal, and evaluating energy of the stacked signal over a time window; and translating at least one of the stacked energies to an indication of a radial distance (514, 516, 518, 520, 522, 524, 526, 528, 530 532) of the acoustic source from the borehole including comparing the stacked energies to a threshold and finding that said at least one of the stacked energies exceeds the threshold.
A biologically active agent for use in reducing or preventing the formation of drusen in an eye of a mammalian subject in need thereof: wherein the biologically active agent is preloaded into a microporous device the microporous device having a device body and an outer surface , the total area of the outer surface being 3-250mm 2 , wherein the microporous device is formed of a biocompatible elastomeric material and comprises a plurality of interconnected pores throughout the device body and extending to the outer surface, and wherein substantially all the interconnected pores in the microporous device are each interconnected to at least 2 other pores, a mean diameter of the pores being between about 5 and about 50 micrometers, and any two adjacent pores are connected by a throat , a mean throat diameter being at least 5 micrometers. wherein the biologically active agent is preloaded into a microporous device the microporous device having a device body and an outer surface , the total area of the outer surface being 3-250mm 2 , wherein the microporous device is formed of a biocompatible elastomeric material and comprises a plurality of interconnected pores throughout the device body and extending to the outer surface, and wherein substantially all the interconnected pores in the microporous device are each interconnected to at least 2 other pores, a mean diameter of the pores being between about 5 and about 50 micrometers, and any two adjacent pores are connected by a throat , a mean throat diameter being at least 5 micrometers.