mhurhangee/patent-ind-claim-en huggingface dataset:
An X-ray imaging system comprising: an X-ray source ; an X-ray detector ; a depth camera ; and a processor ; wherein the X-ray source and the X-ray detector are separated by an examination region for performing an X-ray imaging operation on an object when the object is received within the examination region; wherein the depth camera is configured to view the examination region for generating depth camera image data representing the object when the object is received within the examination region; and wherein the processor is configured to: receive the depth camera image data; project the depth camera image data onto a radiation-receiving surface of the X-ray detector , from a perspective of the X-ray source ; and to generate an image representation of the projected depth camera image data on the radiation-receiving surface of the X-ray detector , from a perspective of the depth camera . an X-ray source ; an X-ray detector ; a depth camera ; and a processor ; wherein the X-ray source and the X-ray detector are separated by an examination region for performing an X-ray imaging operation on an object when the object is received within the examination region; wherein the depth camera is configured to view the examination region for generating depth camera image data representing the object when the object is received within the examination region; and wherein the processor is configured to: receive the depth camera image data; project the depth camera image data onto a radiation-receiving surface of the X-ray detector , from a perspective of the X-ray source ; and to generate an image representation of the projected depth camera image data on the radiation-receiving surface of the X-ray detector , from a perspective of the depth camera . receive the depth camera image data; project the depth camera image data onto a radiation-receiving surface of the X-ray detector , from a perspective of the X-ray source ; and to generate an image representation of the projected depth camera image data on the radiation-receiving surface of the X-ray detector , from a perspective of the depth camera .
A method for enabling access to process data of a food production plant controlled by a control system , said method comprising receiving , by a central server , properties of the food production plant from the control system , generating a data model based on the properties , said data model comprising data model properties , wherein the data model is control system type independent, transmitting the data model properties to an application programming interface (API) tool , receiving adapted data model properties from the API tool , updating the data model based on the adapted data model properties , receiving , by the central server , plant design data from a plant design tool , generating an API based on the data model and the plant design data , and transmitting the API to a monitoring device , thereby providing for that the monitoring device is enabled to receive the process data from the food production plant , wherein the API provides for that the monitoring device is configured to receive the process data directly from at least one sensor (106a-f) of the food production plant , wherein the process data is sensor data inaccessible to the control system . receiving , by a central server , properties of the food production plant from the control system , generating a data model based on the properties , said data model comprising data model properties , wherein the data model is control system type independent, transmitting the data model properties to an application programming interface (API) tool , receiving adapted data model properties from the API tool , updating the data model based on the adapted data model properties , receiving , by the central server , plant design data from a plant design tool , generating an API based on the data model and the plant design data , and transmitting the API to a monitoring device , thereby providing for that the monitoring device is enabled to receive the process data from the food production plant , wherein the API provides for that the monitoring device is configured to receive the process data directly from at least one sensor (106a-f) of the food production plant , wherein the process data is sensor data inaccessible to the control system .
A vehicle environmental detection system arranged to be mounted in an ego vehicle and comprising at least one detector arrangement and at least one control unit arrangement configured to determine a slant angle of parking slots in a parking row, where said detector arrangement is adapted to obtain a plurality (K) of detections from said detector arrangement , forming a set of detections (d(k), k = 1 ... K), characterized in that , for each slant angle α n in a set of slant angles (α n , n = 1 ... N), the control unit arrangement is adapted to: - calculate a set of slant rotated detections (d slant (k, α n ), k = 1 ... K) by rotating coordinates of each detection in the set of detections (d(k), k = 1 ... K) by the present slant angle (α n ), - calculate a projection profile (P row (α n )) for the set of slant rotated detections (d slant (k,α n ), k = 1 ... K) by determining a histogram of slant rotated detection coordinates; and to - calculate an entropy (H row (α n )) associated with the calculated projection profile (P row (α n )); where the control unit arrangement further is adapted to determine the slant angle of parking slots in the parking row based on the calculated entropies (H row (α n ), n = 1 ... N) by determining for which slant angle the entropy reaches a minimum. - calculate a set of slant rotated detections (d slant (k, α n ), k = 1 ... K) by rotating coordinates of each detection in the set of detections (d(k), k = 1 ... K) by the present slant angle (α n ), - calculate a projection profile (P row (α n )) for the set of slant rotated detections (d slant (k,α n ), k = 1 ... K) by determining a histogram of slant rotated detection coordinates; and to - calculate an entropy (H row (α n )) associated with the calculated projection profile (P row (α n ));
A ship including a storage tank storing liquefied gas comprising: a first compressor which compresses one or more parts of a boil-off gas discharged from a storage tank; a second compressor which compresses the other part of the boil-off gas discharged from the storage tank; a boost compressor which compresses a part of the boil-off gas that has been compressed by at least any one of the first compressor and the second compressor; a first heat exchanger which heat-exchanges the boil-off gas compressed by the boost compressor and the boil-off gas discharged from the storage tank; a refrigerant decompressing device which expands another part of the boil-off gas that has been compressed by at least any one of the first compressor and/or the second compressor; a second heat exchanger which cools, by the fluid expanded by the refrigerant decompressing device as a refrigerant, the boil-off gas that has been compressed by the boost compressor and heat exchanged by the first heat exchanger; an additional compressor which compresses the refrigerant that has passed through the refrigerant decompressing device and second heat exchanger, and sends the compressed refrigerant to at least one of the first compressor and the second compressor; and a first decompressing device which expands the fluid that has been compressed by the boost compressor and then cooled by the first heat exchanger and the second heat exchanger, wherein the additional compressor is driven by power generated from the expanding of the fluid by the refrigerant decompressing device. a first compressor which compresses one or more parts of a boil-off gas discharged from a storage tank; a second compressor which compresses the other part of the boil-off gas discharged from the storage tank; a boost compressor which compresses a part of the boil-off gas that has been compressed by at least any one of the first compressor and the second compressor; a first heat exchanger which heat-exchanges the boil-off gas compressed by the boost compressor and the boil-off gas discharged from the storage tank; a refrigerant decompressing device which expands another part of the boil-off gas that has been compressed by at least any one of the first compressor and/or the second compressor; a second heat exchanger which cools, by the fluid expanded by the refrigerant decompressing device as a refrigerant, the boil-off gas that has been compressed by the boost compressor and heat exchanged by the first heat exchanger; an additional compressor which compresses the refrigerant that has passed through the refrigerant decompressing device and second heat exchanger, and sends the compressed refrigerant to at least one of the first compressor and the second compressor; and a first decompressing device which expands the fluid that has been compressed by the boost compressor and then cooled by the first heat exchanger and the second heat exchanger, wherein the additional compressor is driven by power generated from the expanding of the fluid by the refrigerant decompressing device.
An envelope detection circuit , comprising: - a first input node and a second input node configured to receive therebetween an input analog signal ( v RF ) resulting from amplitude modulation of a radio-frequency carrier by a digital signal ( V OOK ), - a first output node and a second output node configured to provide therebetween an output signal ( v out ) indicative of rising and falling edges of an envelope of said input analog signal ( v RF ) received, said rising and falling edges being indicative of rising and falling edges of said digital signal ( V OOK ), wherein said second output node is directly coupled to the second input node to provide a ground node (GND), and - a first current path between a power supply node (V dd ) and the first input node , the first current path comprising at least one first transistor (M1) having the current path therethrough coupled between the first input node and a first bias source (G1, I bias ), the first bias source (G1, I bias ) coupled between the at least one first transistor (M1) and the power supply node (V dd ), wherein the first output node is coupled to a node in the first current path intermediate the at least one first transistor (M1) and the first bias source (G1), the envelope detection circuit being characterized in that a control terminal of the at least one first transistor (M1) is coupled to the first output node via a feedback network (R, C), and in that said feedback network (R, C) comprises a resistive component (R) coupled between the control terminal of the at least one first transistor (M1) and the first output node , and a capacitive component (C) coupled between the control terminal of the at least one first transistor (M1) and the ground node (GND). - a first input node and a second input node configured to receive therebetween an input analog signal ( v RF ) resulting from amplitude modulation of a radio-frequency carrier by a digital signal ( V OOK ), - a first output node and a second output node configured to provide therebetween an output signal ( v out ) indicative of rising and falling edges of an envelope of said input analog signal ( v RF ) received, said rising and falling edges being indicative of rising and falling edges of said digital signal ( V OOK ), wherein said second output node is directly coupled to the second input node to provide a ground node (GND), and - a first current path between a power supply node (V dd ) and the first input node , the first current path comprising at least one first transistor (M1) having the current path therethrough coupled between the first input node and a first bias source (G1, I bias ), the first bias source (G1, I bias ) coupled between the at least one first transistor (M1) and the power supply node (V dd ),
A method of delivering a plant treatment agent to a selected tissue of a corn plant, wherein the plant has a surface, wherein the selected tissue is located at, and/or beneath, a portion of plant surface and wherein the selected tissue is a shoot apical meristem, the method comprising applying a centrifugal force to the plant, wherein the centrifugal force applied is from 10 g to 2000 g, to transport a solution that comprises the plant treatment agent to the selected tissue, wherein at least 5% of the surface of the plant has been contacted with the solution that comprises the plant treatment agent, including plant tissue other than the selected tissue, thereby delivering the plant treatment agent to the selected tissue of the plant.
A poly(phenylene ether) composition comprising 31 to 40 weight percent of a poly(phenylene ether); 20 to 33 weight percent of a homopolystyrene; 1 to 15 weight percent of a hydrogenated block copolymer of an alkenyl aromatic monomer and a conjugated diene; 0.1 to 1.6 weight percent of a linear low density polyethylene; and 24 to 36 weight percent of a reinforcing filler; wherein weight percent of each component is based on total weight of the composition. 31 to 40 weight percent of a poly(phenylene ether); 20 to 33 weight percent of a homopolystyrene; 1 to 15 weight percent of a hydrogenated block copolymer of an alkenyl aromatic monomer and a conjugated diene; 0.1 to 1.6 weight percent of a linear low density polyethylene; and 24 to 36 weight percent of a reinforcing filler; wherein weight percent of each component is based on total weight of the composition.
An operation method with fingerprint recognition, applied to a mobile terminal, wherein the method comprises: obtaining a fingerprint event that is entered by a user at a first position on a touchscreen of the terminal; presenting at least one shortcut when the fingerprint event that is entered by the user matches a preset fingerprint event; obtaining a first sliding track entered by the user by using the first position on the touchscreen as a start position; determining, according to the first sliding track, a first sliding direction toward a first shortcut of the at least one shortcut presented on the touchscreen; determining the first shortcut according to the first sliding direction toward the first shortcut; running the first shortcut, and presenting a running result. obtaining a fingerprint event that is entered by a user at a first position on a touchscreen of the terminal; presenting at least one shortcut when the fingerprint event that is entered by the user matches a preset fingerprint event; obtaining a first sliding track entered by the user by using the first position on the touchscreen as a start position; determining, according to the first sliding track, a first sliding direction toward a first shortcut of the at least one shortcut presented on the touchscreen; determining the first shortcut according to the first sliding direction toward the first shortcut; running the first shortcut, and presenting a running result.
Mechanism for manually actuating rotation of a roller of a sheet material dispenser for dispensing a predetermined length of sheet material, said mechanism comprising: a frame member configured for attachment to a housing of the dispenser ; a driven member configured for coupling with the roller ; an actuating member configured to rotate about a rotation axis (X1) in a first direction (R1) through manual actuation by a user; a driver member coupled with the actuating member ; whereby the rotation axis (X1) is movably mounted on the frame member so as to be movable between a first position (P1, P1') in which the driver member and the driven member are connected to one another to allow rotation of the roller caused by rotation of the actuating member in the first direction (R1), and a second position (P2, P2') in which the driver member and the driven member are disconnected from one another to prevent rotation of the roller caused by rotation of the actuating member in the first direction (R1), and in that the mechanism comprises a first urging member configured to urge the rotation axis (X1) in the first position (P1, P1'). a frame member configured for attachment to a housing of the dispenser ; a driven member configured for coupling with the roller ; an actuating member configured to rotate about a rotation axis (X1) in a first direction (R1) through manual actuation by a user; a driver member coupled with the actuating member ; whereby the rotation axis (X1) is movably mounted on the frame member so as to be movable between a first position (P1, P1') in which the driver member and the driven member are connected to one another to allow rotation of the roller caused by rotation of the actuating member in the first direction (R1), and a second position (P2, P2') in which the driver member and the driven member are disconnected from one another to prevent rotation of the roller caused by rotation of the actuating member in the first direction (R1), and in that the mechanism comprises a first urging member configured to urge the rotation axis (X1) in the first position (P1, P1').
A laminated medium comprising: a heat-sensitive medium comprising: a first base material having a transparency; and a first heat-sensitive layer having a transparency, the first heat-sensitive layer being provided on one surface of the first base material , the first heat-sensitive layer being configured to develop a first color when heated to a first temperature or higher; and an adhesive medium comprising: a second base material ; and a first adhesive layer provided on one surface of the second base material , wherein the heat-sensitive medium and the adhesive medium are superimposed such that the first heat-sensitive layer and the first adhesive layer are interposed between the first base material and the second base material , and wherein the adhesive medium has an ultraviolet absorbance greater than an ultraviolet absorbance of the first base material , characterized in that the adhesive medium further comprises a second adhesive layer provided on another surface of the second base material , and the laminated medium further comprises a release paper superimposed on an opposite side of the second adhesive layer from the second base material . a heat-sensitive medium comprising: a first base material having a transparency; and a first heat-sensitive layer having a transparency, the first heat-sensitive layer being provided on one surface of the first base material , the first heat-sensitive layer being configured to develop a first color when heated to a first temperature or higher; and a first base material having a transparency; and a first heat-sensitive layer having a transparency, the first heat-sensitive layer being provided on one surface of the first base material , the first heat-sensitive layer being configured to develop a first color when heated to a first temperature or higher; and an adhesive medium comprising: a second base material ; and a first adhesive layer provided on one surface of the second base material , a second base material ; and a first adhesive layer provided on one surface of the second base material , wherein the heat-sensitive medium and the adhesive medium are superimposed such that the first heat-sensitive layer and the first adhesive layer are interposed between the first base material and the second base material , and wherein the adhesive medium has an ultraviolet absorbance greater than an ultraviolet absorbance of the first base material , characterized in that the adhesive medium further comprises a second adhesive layer provided on another surface of the second base material , and the laminated medium further comprises a release paper superimposed on an opposite side of the second adhesive layer from the second base material .
A computer-implemented method for reducing perceived latency between a selection of a selectable item on a web page and display of content that is referenced by the selectable item, the method comprising: receiving object information comprising an amount of time an object is located within a threshold distance above a region of a touch screen associated with the selectable item; determining , whether the object is located within the threshold distance above the region of the touch screen for a threshold time based on the object information; generating , when the object is determined to be located within the threshold distance above the region of the touch screen for the threshold time, instructions to perform a first action on a URL associated with the selectable item that includes at least a part of an action that would be performed if the selection was completed; and in response to the selection of the selectable item, displaying the content that is referenced by the selectable item, wherein the threshold time is determined based on a weighted average of two hover-and-click history time periods; wherein each of the two hover-and-click history time periods indicate a time period between time an object is located within a threshold distance above a given region of a touch screen that is associated with a given selectable item and a time the given selectable item is selected by a user; wherein the first action includes at least one of a plurality of actions that are performed to display the content that is referenced by the selectable item. receiving object information comprising an amount of time an object is located within a threshold distance above a region of a touch screen associated with the selectable item; determining , whether the object is located within the threshold distance above the region of the touch screen for a threshold time based on the object information; generating , when the object is determined to be located within the threshold distance above the region of the touch screen for the threshold time, instructions to perform a first action on a URL associated with the selectable item that includes at least a part of an action that would be performed if the selection was completed; and in response to the selection of the selectable item, displaying the content that is referenced by the selectable item, wherein the threshold time is determined based on a weighted average of two hover-and-click history time periods; wherein each of the two hover-and-click history time periods indicate a time period between time an object is located within a threshold distance above a given region of a touch screen that is associated with a given selectable item and a time the given selectable item is selected by a user; wherein the first action includes at least one of a plurality of actions that are performed to display the content that is referenced by the selectable item.