mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method comprising: receiving input for a virtual user in a virtual environment, the input being based on a plurality of movements performed by a physical user accessing the virtual environment; based on the plurality of movements, detecting that a hand of the virtual user is within a threshold distance of a collision zone, the collision zone associated with at least one virtual object; selecting , in response to determining that the at least one virtual object is configured to receive input in a target area on the virtual object that is smaller than the hand of the virtual user, a collision mode for the virtual user based on the hand of the virtual user and the at least one virtual object , wherein collision modes vary between fine and coarse; wherein in the fine collision mode, the user interacts with the virtual object using finger gestures and in the coarse collision mode, the user interacts with the virtual object using hand gestures; and dynamically modifying the hand of the virtual user based on the selected collision mode. receiving input for a virtual user in a virtual environment, the input being based on a plurality of movements performed by a physical user accessing the virtual environment; based on the plurality of movements, detecting that a hand of the virtual user is within a threshold distance of a collision zone, the collision zone associated with at least one virtual object; selecting , in response to determining that the at least one virtual object is configured to receive input in a target area on the virtual object that is smaller than the hand of the virtual user, a collision mode for the virtual user based on the hand of the virtual user and the at least one virtual object , wherein collision modes vary between fine and coarse; wherein in the fine collision mode, the user interacts with the virtual object using finger gestures and in the coarse collision mode, the user interacts with the virtual object using hand gestures; and dynamically modifying the hand of the virtual user based on the selected collision mode.
A ferritic heat-resistant steel, characterized by having a chemical composition consisting of, in % by mass, C: 0.03 to 0.15 %, Si: 0 to 0.8 %, Mn: 0.1 to 0.8 %, Cr: 8.0 to 11.5 %, Mo: 0.2 to 1.5 %, W: 0.4 to 3.0 %, B: 0.002 to 0.010 %, V: 0.1 to 0.4 %, Nb: 0.02 to 0.12 %, Co: 0 to less than 2.0 %, N: 0.02 to 0.10 %, with the balance of iron and inevitable impurities, wherein an optional content of Ta is 0.01 to 0.5 %, an optional content of Al is 0.020 % or less, and an optional content of Ni is 0.4 % or less, and contents of each of the inevitable impurities Ti, S and O are 0.010 % or less, a content of the inevitable impurity P is 0.020 % or less, wherein the ferritic heat-resistant steel has a tempered martensitic microstructure, and has a creep rupture ductility represented by a creep rupture elongation of 16% or more and a creep rupture reduction of area of 28% or more even when there is a load within the elastic limits at a temperature of at least 600°C at which a steel material made of the ferritic heat-resistant steel is used. C: 0.03 to 0.15 %, Si: 0 to 0.8 %, Mn: 0.1 to 0.8 %, Cr: 8.0 to 11.5 %, Mo: 0.2 to 1.5 %, W: 0.4 to 3.0 %, B: 0.002 to 0.010 %, V: 0.1 to 0.4 %, Nb: 0.02 to 0.12 %, Co: 0 to less than 2.0 %, N: 0.02 to 0.10 %, with the balance of iron and inevitable impurities, wherein an optional content of Ta is 0.01 to 0.5 %, an optional content of Al is 0.020 % or less, and an optional content of Ni is 0.4 % or less, and contents of each of the inevitable impurities Ti, S and O are 0.010 % or less, a content of the inevitable impurity P is 0.020 % or less, wherein the ferritic heat-resistant steel has a tempered martensitic microstructure, and has a creep rupture ductility represented by a creep rupture elongation of 16% or more and a creep rupture reduction of area of 28% or more even when there is a load within the elastic limits at a temperature of at least 600°C at which a steel material made of the ferritic heat-resistant steel is used.
An imaging device comprising: a plurality of imaging lens arrays (411, 412, 413, 414; 511, 512, 513, 514) comprising a plurality of imaging optical lenses; and a sensing array (420; 520) comprising a plurality of sensing elements configured to sense light passing through the plurality of imaging lens arrays, wherein at least one imaging lens array among the plurality of imaging lens arrays comprises an active imaging lens with a variable focal length, characterised in that each of the plurality of imaging optical lenses is configured to focus the light to a non-integer number of sensing elements, and in that the focal length of the active imaging lens is adjustable by changing at least one of a thickness or a sagittal value of the active imaging lens. a plurality of imaging lens arrays (411, 412, 413, 414; 511, 512, 513, 514) comprising a plurality of imaging optical lenses; and a sensing array (420; 520) comprising a plurality of sensing elements configured to sense light passing through the plurality of imaging lens arrays, wherein at least one imaging lens array among the plurality of imaging lens arrays comprises an active imaging lens with a variable focal length, characterised in that each of the plurality of imaging optical lenses is configured to focus the light to a non-integer number of sensing elements, and in that the focal length of the active imaging lens is adjustable by changing at least one of a thickness or a sagittal value of the active imaging lens.
An image processing method, comprising: inputting a to-be-processed image into a trained convolutional neural network (CNN) model, obtaining a group of feature maps outputted by any convolutional layer; extracting (S210) a feature map of the to-be-processed image; dividing (S220) the feature map into a plurality of target regions; determining (S230) weights of the target regions according to feature vectors of the target regions; generating (S240) a feature vector of the to-be-processed image according to the weights of the target regions and the feature vectors of the target regions; and, performing an image recognition or retrieval step based on the feature vector determined based on the weights, and wherein the determined weights used for generating the feature vector enable to weaken a background region of the to-be-processed image and strength a foregoing region of the to-be-processed image; wherein determining (S230) weights of the target regions according to feature vectors of the target regions comprises: performing (S310) dimension reduction on the feature vectors of the target regions, to obtain feature scalars corresponding to the target regions; and normalizing (S320) the feature scalars corresponding to the target regions, to obtain the weights of the target regions. inputting a to-be-processed image into a trained convolutional neural network (CNN) model, obtaining a group of feature maps outputted by any convolutional layer; extracting (S210) a feature map of the to-be-processed image; dividing (S220) the feature map into a plurality of target regions; determining (S230) weights of the target regions according to feature vectors of the target regions; generating (S240) a feature vector of the to-be-processed image according to the weights of the target regions and the feature vectors of the target regions; and, performing an image recognition or retrieval step based on the feature vector determined based on the weights, and wherein the determined weights used for generating the feature vector enable to weaken a background region of the to-be-processed image and strength a foregoing region of the to-be-processed image; wherein determining (S230) weights of the target regions according to feature vectors of the target regions comprises: performing (S310) dimension reduction on the feature vectors of the target regions, to obtain feature scalars corresponding to the target regions; and normalizing (S320) the feature scalars corresponding to the target regions, to obtain the weights of the target regions. performing (S310) dimension reduction on the feature vectors of the target regions, to obtain feature scalars corresponding to the target regions; and normalizing (S320) the feature scalars corresponding to the target regions, to obtain the weights of the target regions.
A method for producing a DOPE chart for an optical device comprising: providing a configuration interface on a user computer ; providing at least one server for storing and processing data for the configuration interface; selecting one of a plurality of available DOPE chart styles; entering at least one desired DOPE value into a DOPE chart configuration table displayed on the configuration interface; and producing a display that includes the DOPE chart; wherein the display is generally round and having a perimeter that includes at least one indent formed into the perimeter such that the display may be released from an optic cover cap . providing a configuration interface on a user computer ; providing at least one server for storing and processing data for the configuration interface; selecting one of a plurality of available DOPE chart styles; entering at least one desired DOPE value into a DOPE chart configuration table displayed on the configuration interface; and producing a display that includes the DOPE chart; wherein the display is generally round and having a perimeter that includes at least one indent formed into the perimeter such that the display may be released from an optic cover cap .
A method for managing a hardware resource, comprising: receiving , by a virtualized infrastructure manager, VIM, a hardware resource allocation request message sent by a virtualized network function, VNF management entity, wherein the hardware resource allocation request message is used to request the VIM to allocate a hardware resource to a virtual machine that runs a virtualized network function component, VNFC, and the hardware resource allocation request message comprises location information of the hardware resource that the virtual machine requests to allocate; allocating , by the VIM, the hardware resource at a corresponding location to the virtual machine according to the location information of the hardware resource; characterized in that : the hardware resource allocation request message further comprises an exclusive identity or a shared identity, the exclusive identity is used to identify that the hardware resource, at the specified location, that the virtual machine requests to allocate is exclusively occupied by the virtual machine, and the shared identity is used to identify that the hardware resource, at the specified location, that the virtual machine requests to allocate may be shared with another virtual machine; and the hardware resource allocation request message further include at least one of a quantity of CPUs, a memory size, and a hard disk capacity that the virtual machine requests to allocate. receiving , by a virtualized infrastructure manager, VIM, a hardware resource allocation request message sent by a virtualized network function, VNF management entity, wherein the hardware resource allocation request message is used to request the VIM to allocate a hardware resource to a virtual machine that runs a virtualized network function component, VNFC, and the hardware resource allocation request message comprises location information of the hardware resource that the virtual machine requests to allocate; allocating , by the VIM, the hardware resource at a corresponding location to the virtual machine according to the location information of the hardware resource; characterized in that : the hardware resource allocation request message further comprises an exclusive identity or a shared identity, the exclusive identity is used to identify that the hardware resource, at the specified location, that the virtual machine requests to allocate is exclusively occupied by the virtual machine, and the shared identity is used to identify that the hardware resource, at the specified location, that the virtual machine requests to allocate may be shared with another virtual machine; and the hardware resource allocation request message further include at least one of a quantity of CPUs, a memory size, and a hard disk capacity that the virtual machine requests to allocate.
A lighting device for a motor vehicle comprising at least one light module comprising at least one light source , a light source support , and an optical element able to receive rays emitted by the light source , the optical element comprising means for positioning said optical element in a predefined position on the support , corresponding to a predetermined position of the optical element relative to the position of the light source , and elastic attachment means for attaching said optical element in the predefined position, characterized in that the lighting device comprises a plate on which the at least one light module and a projection lens are arranged, the projection lens forming a secondary optical element while the optical element or the optical elements combined with the light module form primary optical elements .
A device for remotely controlling at least one industrial truck comprising a remote operating station and a control unit , wherein the remote operating station has operating elements corresponding to an operating station of an industrial truck, wherein the control unit is configured to generate control signals for the industrial truck to be remotely controlled, in response to an actuation of the operating elements of the remote operating station , and to transmit the control signals via a radio transmission path to the industrial truck to be remotely controlled, characterized by an industrial truck having the remote operating station as its own dedicated operating station.
A bearing unit for a bearing assembly of a yawing system of a wind turbine , the wind turbine comprising a tower and a nacelle connected by the yawing system , wherein the yawing system comprises a gear ring comprising gear-toothed arrangement configured to interact with a gear wheel of a motor to allow orientation of the nacelle with respect to the tower , the bearing unit comprising: an adjuster element arranged to be moveably secured to the bearing assembly ; a body element translatable relative to the adjuster element ; a bearing element in contact with the body element , the bearing element comprising a bearing surface for contacting a surface of the gear ring during use; and, a biasing means positioned between the body element and the adjuster element for applying a tension force to the bearing unit to bias the bearing element into contact with the surface of the gear ring during use, wherein the adjuster element is configured to adjust the tension force applied to the bearing unit by controlling the translation of the body element , the bearing unit being configured such that respective surfaces of the adjuster element and the body element are visible during use, characterized in that the biasing means is configured to apply a predetermined tension force to the bearing unit when the bearing unit is installed in the bearing assembly prior to use, and wherein the bearing unit is configured such that the respective surfaces of the adjuster element and the body element are coplanar when the predetermined tension force is applied. an adjuster element arranged to be moveably secured to the bearing assembly ; a body element translatable relative to the adjuster element ; a bearing element in contact with the body element , the bearing element comprising a bearing surface for contacting a surface of the gear ring during use; and, a biasing means positioned between the body element and the adjuster element for applying a tension force to the bearing unit to bias the bearing element into contact with the surface of the gear ring during use, wherein the adjuster element is configured to adjust the tension force applied to the bearing unit by controlling the translation of the body element , the bearing unit being configured such that respective surfaces of the adjuster element and the body element are visible during use, characterized in that the biasing means is configured to apply a predetermined tension force to the bearing unit when the bearing unit is installed in the bearing assembly prior to use, and wherein the bearing unit is configured such that the respective surfaces of the adjuster element and the body element are coplanar when the predetermined tension force is applied.
An optical fiber carrying on at least part of its surface a plurality of groups A and a plurality of groups B, the groups A bearing a group R being an aryl or heteroaryl group substituted by at least two vicinal groups selected from -OH and C 1 -C 3 alkoxy groups, in particular -OMe, said vicinal groups being more particularly -OH, the groups B bearing a group R' being an organic cation. the groups A bearing a group R being an aryl or heteroaryl group substituted by at least two vicinal groups selected from -OH and C 1 -C 3 alkoxy groups, in particular -OMe, said vicinal groups being more particularly -OH, the groups B bearing a group R' being an organic cation.
A method for producing a composition having cytocidal activity, the method comprising: culturing malignant tumor cells in a culture medium to the 60 to 100% confluent state; replacing, after the culturing, the culture medium with a physiological buffer salt solution; and recovering the physiological buffer salt solution after the time at which death of the malignant tumor cells in the physiological buffer salt solution is determined by observation of the morphological aspect of said cells by microscopic observation. culturing malignant tumor cells in a culture medium to the 60 to 100% confluent state; replacing, after the culturing, the culture medium with a physiological buffer salt solution; and recovering the physiological buffer salt solution after the time at which death of the malignant tumor cells in the physiological buffer salt solution is determined by observation of the morphological aspect of said cells by microscopic observation.
A secondary battery, comprising a negative electrode composed of two or more negative electrode plates, wherein each of the negative electrode plates comprises a lithium by-product layer formed through pre-lithiation reaction on a negative electrode current collector coated with a negative electrode active material, wherein an inorganic substance layer is formed on a negative electrode tab that is extended from an end at one side of the negative electrode current collector and is composed of an active material-non-coated portion not coated with the negative electrode active material, and negative electrode tabs of the negative electrode plates are electrically connected with one negative electrode lead to form a negative electrode terminal, characterized in that the inorganic substance is one or more selected from the group consisting of SiO 2 , TiO 2 , Al 2 O 3 , ZrO 2 , SnO 2 , CeO 2 , MgO, CaO, ZnO, Y 2 O 3 , Pb(Zr,Ti)O 3 (PZT), Pb 1-x La x Zr 1-y TiyO 3 (PLZT) where 0<x<1 and 0<y<1, Pb(Mg 1/3 Nb 2/3 )O 3 -PbTiO 3 (PMN-PT), BaTiO 3 , hafnia(HfO 2 ), SrTiO 3 , and a mixture of two or more thereof.
A method for assessing the in vivo therapeutic efficacy of an agent for use in a treatment of a complement C3-related nephropathy, the method comprising: (a) administering the agent to a rodent whose genome comprises a replacement at an endogenous rodent C3 locus of a rodent gene sequence comprising an exon of a C3 gene with a nucleic acid sequence comprising at least one exon of a human C3 gene to form a modified C3 gene, wherein the nucleic acid sequence comprising at least one exon of a human C3 gene (i) comprises exon 2 through exon 41 of the human C3 gene wherein expression of the modified C3 gene is under control of rodent regulatory elements at the endogenous rodent C3 locus, or (ii) comprises the 5' regulatory elements and exon 1 through exon 41 of the human C3 gene, wherein expression of the modified C3 gene is under control of the 5' regulatory elements of the human C3 gene, wherein the rodent expresses a human or humanized C3 protein in the serum; and (b) assessing if the agent inhibits one or more symptoms of C3-related nephropathy compared to control rodents who have not been administered the agent. (a) administering the agent to a rodent whose genome comprises a replacement at an endogenous rodent C3 locus of a rodent gene sequence comprising an exon of a C3 gene with a nucleic acid sequence comprising at least one exon of a human C3 gene to form a modified C3 gene, wherein the nucleic acid sequence comprising at least one exon of a human C3 gene (i) comprises exon 2 through exon 41 of the human C3 gene wherein expression of the modified C3 gene is under control of rodent regulatory elements at the endogenous rodent C3 locus, or (ii) comprises the 5' regulatory elements and exon 1 through exon 41 of the human C3 gene, wherein expression of the modified C3 gene is under control of the 5' regulatory elements of the human C3 gene, wherein the rodent expresses a human or humanized C3 protein in the serum; and (b) assessing if the agent inhibits one or more symptoms of C3-related nephropathy compared to control rodents who have not been administered the agent.