mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for sharing an object , the method comprising: receiving, by a shared device from a computing device , an object user-selected at the computing device for copying to the shared device ; displaying, on a display of the shared device, the object at an initial object position, the initial object position determined using a predetermined rule for a task the shared device is operating; detecting, by the shared device and responsive to receiving the object, a control position of the computing device from which the object was received using one or more cameras of the shared device to track the computing device; detecting, by the shared device, a change in the control position of the computing device from which the object was received, the change in the control position corresponding to a user input to cause the object to move from the initial object position to an updated object position on the display of the shared device ; updating based on the detecting the user input the object position of the object presented on the display of the shared device ; and locking the object at the updated object position on the display in response to a triggering event. receiving, by a shared device from a computing device , an object user-selected at the computing device for copying to the shared device ; displaying, on a display of the shared device, the object at an initial object position, the initial object position determined using a predetermined rule for a task the shared device is operating; detecting, by the shared device and responsive to receiving the object, a control position of the computing device from which the object was received using one or more cameras of the shared device to track the computing device; detecting, by the shared device, a change in the control position of the computing device from which the object was received, the change in the control position corresponding to a user input to cause the object to move from the initial object position to an updated object position on the display of the shared device ; updating based on the detecting the user input the object position of the object presented on the display of the shared device ; and locking the object at the updated object position on the display in response to a triggering event.
An assembly of a container and a lid in plastic material, comprising: a container having a side wall provided with an outer skirt configured with an upwardly open annular channel and an annular hooking rib inside the annular channel ; a lid provided with a peripheral skirt downwardly extending from an annular channel , along a peripheral rim of the lid ; in which the peripheral skirt of the container and the peripheral skirt of the lid are provided with snap engaging annular locking ribs (16, 17; 30, 32); characterised in that : the skirt of the lid is provided with a hooking crown to the annular rib of the channel of the skirt of the container , in which the hooking crown is outwardly extending from a peripheral rim of the skirt of the lid , and in which the hooking crown comprised a plurality of side by side arranged tabs separated by cross slits , each hooking tab being connected to the peripheral rim of the skirt of the lid by an elastically flexible hinge . a container having a side wall provided with an outer skirt configured with an upwardly open annular channel and an annular hooking rib inside the annular channel ; a lid provided with a peripheral skirt downwardly extending from an annular channel , along a peripheral rim of the lid ; in which the peripheral skirt of the container and the peripheral skirt of the lid are provided with snap engaging annular locking ribs (16, 17; 30, 32); characterised in that : the skirt of the lid is provided with a hooking crown to the annular rib of the channel of the skirt of the container , in which the hooking crown is outwardly extending from a peripheral rim of the skirt of the lid , and in which the hooking crown comprised a plurality of side by side arranged tabs separated by cross slits , each hooking tab being connected to the peripheral rim of the skirt of the lid by an elastically flexible hinge .
A calcium-magnesium alumino-silicate (CMAS)-resistant coating system comprising: a substrate and an outer coating deposited on the substrate , the outer coating comprising: a plurality of columnar structures formed during material deposition due to preferential material accumulation and comprising: a plurality of randomly-oriented particle splats ; and a CMAS-reactive material, wherein the columnar structures have a total porosity of less than five percent; and a plurality of generally vertically-oriented gaps extending from an outermost surface of the outer coating to a first depth of the outer coating less than a total thickness of the outer coating , wherein the vertically-oriented gaps separate adjacent columnar structures , and a median gap width of the plurality of vertically-oriented gaps is less than five micrometers, wherein the plurality of vertically-oriented gaps are cracks ; characterised in that : the cracks extend from the outermost surface of the coating to a depth less than 60 percent of the outer coating thickness. a plurality of randomly-oriented particle splats ; and a CMAS-reactive material, wherein the columnar structures have a total porosity of less than five percent; and a plurality of generally vertically-oriented gaps extending from an outermost surface of the outer coating to a first depth of the outer coating less than a total thickness of the outer coating , wherein the vertically-oriented gaps separate adjacent columnar structures , and a median gap width of the plurality of vertically-oriented gaps is less than five micrometers, wherein the plurality of vertically-oriented gaps are cracks ; characterised in that : the cracks extend from the outermost surface of the coating to a depth less than 60 percent of the outer coating thickness.
A testing system for testing the performance of a detector that transmits signals and receives reflected signals from a target, the testing system comprising a target generator for generating a target and a control unit that comprises at least one of a processing sub-unit , an analyzing sub-unit and a calculation sub-unit , wherein the control unit is connected to the target generator such that the control unit is configured to control the target generator for controlling the target generated, wherein the target generator is configured to transmit signals to the detector and/or to receive signals from the detector , wherein the control unit is configured to receive and to process data related to a detected target by the detector , and wherein the control unit is configured to determine a constant false alarm rate limit based on the data received by the detector and/or the data of the target generator for characterizing the performance of the detector , wherein the constant false alarm rate limit is gathered by varying the detection capability of the target generated by the target generator until a certain target is generated that cannot be detected by the detector anymore, and wherein the detector is considered as a black box such that knowledge of the intermediate frequency and/or spectrum is not required in order to determine the performance of the detector .
A method for testing the authenticity of a document comprising the following steps: - recording a first image of the document with first image recording parameters, - recognising a piece of information in the first image, wherein the recognition of the information in the first image is performed by optical character recognition, wherein the information specifies a document type or wherein a document type of the document can be derived from the information, - making a database query to a database (136; 152, 154) using the information to query second image recording parameters, wherein the database (136; 152) for each predefined document type contains type-specific second image recording parameters, wherein the type-specific second image recording parameters can be retrieved by using the information as a database key, - recording a second image of the document with the second image recording parameters, wherein the second image recording parameters contain type-specific parameters regarding the illumination of the document and/or regarding the exposure of an optical sensor, by means of which the second image is recorded, - checking one or more security features of the document against the second image, wherein the database (136; 154) contains type-specific details on the security features, wherein the type-specific details on the security features are also queried when performing the database query and are used for the verification, wherein the details on the security features contain information on the location and form of the security features, wherein these details are compared as target features with the actual features present in the second image, wherein if the actual features sufficiently match the target features the authenticity of the document is assumed. - recording a first image of the document with first image recording parameters, - recognising a piece of information in the first image, wherein the recognition of the information in the first image is performed by optical character recognition, wherein the information specifies a document type or wherein a document type of the document can be derived from the information, - making a database query to a database (136; 152, 154) using the information to query second image recording parameters, wherein the database (136; 152) for each predefined document type contains type-specific second image recording parameters, wherein the type-specific second image recording parameters can be retrieved by using the information as a database key, - recording a second image of the document with the second image recording parameters, wherein the second image recording parameters contain type-specific parameters regarding the illumination of the document and/or regarding the exposure of an optical sensor, by means of which the second image is recorded, - checking one or more security features of the document against the second image,
An automatic and modular system for handling trays used for containing plants or the like to be grown through hydroponic, or aeroponic, or aquaponic farming, said system comprising a first module with a quadrangular plan and a vertical arrangement delimited by respective vertical supports , said first module comprising two lateral zones, each of which includes a plurality of substantially horizontal and overlapping supporting seats or guides for trays , and a central zone in which a vertical tray transfer device operates, slidably along a vertical axis (Z) arranged on movement means activated by motorized assemblies able to translate said vertical tray transfer device from a lowered position to a raised position in correspondence of each tray and vice versa, said vertical tray transfer device being provided with a resting shelf for a tray and with a first means running said tray along a first horizontal axis (Y) from and towards a respective seat provided inside one of said lateral zones, the system being characterised in that said first module further comprises a second means arranged in said central zone in which said vertical tray transfer device operates, taking charge of a tray when the latter is located on the shelf of said vertical tray transfer device and displacing said tray along a second axis (X) horizontal and orthogonal to said first horizontal axis (Y) for performing the direct transfer of said tray towards another shelf of another vertical tray transfer device of a second module arranged alongside and connected to said first module.
An air intake assembly for an automobile engine, comprising an air intake pipe , a flowmeter and an air flow straightening device positioned upstream of the flowmeter with respect to the direction (I) of circulation of the air flow in the pipe , the device for straightening an air flow comprising a peripheral part and a perforated part fixed to the peripheral part , said perforated part comprising a plurality of annular walls , the peripheral part comprising a first transverse face and a second transverse face and the perforated part comprising a plurality of walls defining a plurality of through cells , said cells between the annular walls having distinct dimensions, the air intake assembly being characterized in that , between the first transverse face and the second transverse face , the peripheral part has a longitudinal dimension that varies along a longitudinal axis (II) of the peripheral part, the second transverse face having a concave portion and a convex portion varying the longitudinal side between a maximum and a minimum and in that the annular walls are eccentric with respect to each other and are also eccentric with respect to the peripheral part .
A catheter device comprising: an elongate catheter having a proximal end, a distal end, at least one inflow lumen , at least one outflow lumen and a longitudinal axis; a first tube having a proximal end and a distal end, said first tube being coiled in a series of elongated loops each of which has a first length axis and a first width axis, the first length axis being longer than the first width axis; a second tube having a proximal end and a distal end, said second tube being coiled in a series of elongated loops each of which has a second length axis and a second width axis, the second length axis being longer than the second width axis; at least one elongated loop of the first tube being positioned so that it extends around a section of the catheter such that its first length axis is transverse to the longitudinal axis of the catheter , wherein the first length axis is perpendicular to the first width axis; and at least one elongated loop of the second tube being positioned such that it extends around said section of the catheter with its second length axis transverse to the longitudinal axis of the catheter , wherein the second length axis is perpendicular to the second width axis, and wherein the second length axis of at least one elongated loop of the second tube is substantially perpendicular to the first length axis of said at least one elongated loop of the first tube ; wherein the first and second tubes are connected to the inflow and outflow lumens such that a fluid will circulate in the inflow lumen , through said first and second tubes and out of the outflow lumen . an elongate catheter having a proximal end, a distal end, at least one inflow lumen , at least one outflow lumen and a longitudinal axis; a first tube having a proximal end and a distal end, said first tube being coiled in a series of elongated loops each of which has a first length axis and a first width axis, the first length axis being longer than the first width axis; a second tube having a proximal end and a distal end, said second tube being coiled in a series of elongated loops each of which has a second length axis and a second width axis, the second length axis being longer than the second width axis; at least one elongated loop of the first tube being positioned so that it extends around a section of the catheter such that its first length axis is transverse to the longitudinal axis of the catheter , wherein the first length axis is perpendicular to the first width axis; and at least one elongated loop of the second tube being positioned such that it extends around said section of the catheter with its second length axis transverse to the longitudinal axis of the catheter , wherein the second length axis is perpendicular to the second width axis, and wherein the second length axis of at least one elongated loop of the second tube is substantially perpendicular to the first length axis of said at least one elongated loop of the first tube ; wherein the first and second tubes are connected to the inflow and outflow lumens such that a fluid will circulate in the inflow lumen , through said first and second tubes and out of the outflow lumen .
Method for adjusting an interference level for a wireless communication from a first mobile station to a second mobile station , wherein said interference level is caused by the wireless communication from said first mobile station in parallel with the wireless communication from a third mobile station , comprising a step of detecting the interference level, wherein the first, second and third mobile stations are vehicles moving on a road in the same direction and the vehicles being equipped with a wireless communication module , wherein the second vehicle is moving in front of said first vehicle and the third vehicle is moving in front of the second vehicle , characterized in that , based on the interference level, the direction of beam for the signal transmissions from the first mobile station to the second mobile station is elevated relative to an angle (Θ 1 ) between the ground level and the current direction of beam for the transmissions from the first mobile station to the second mobile station .
A method for maintaining a privacy zone on a PTZ dome camera, said method comprising: locating an object to be masked on a camera display screen; superimposing a known rectangle for masking the object, said rectangle having four corners, each corner having pixel coordinates; translating each of the pixel coordinates into absolute angular coordinates; moving the camera and displaying a second camera view/ screen; and if the object is on the second camera view/ screen, translating each of the absolute angular coordinates into pixel coordinates, creating a newly formed rectangle having the translated pixel coordinates, and displaying the newly formed rectangle to mask the object, wherein, in order to compensate for the movement of the camera, when the newly formed rectangle to mask the object is updated, predicted pan and tilt positions are used for location calculations for the newly formed rectangle. locating an object to be masked on a camera display screen; superimposing a known rectangle for masking the object, said rectangle having four corners, each corner having pixel coordinates; translating each of the pixel coordinates into absolute angular coordinates; moving the camera and displaying a second camera view/ screen; and if the object is on the second camera view/ screen, translating each of the absolute angular coordinates into pixel coordinates, creating a newly formed rectangle having the translated pixel coordinates, and displaying the newly formed rectangle to mask the object, wherein, in order to compensate for the movement of the camera, when the newly formed rectangle to mask the object is updated, predicted pan and tilt positions are used for location calculations for the newly formed rectangle.
A medical tube comprising a hydrogenated styrenic block copolymer having a formula A-B-A, (A-B-A) n X, (A-B) n X, or mixtures thereof, where n is an integer from 2 to 30, and X is residue of a coupling agent; wherein prior to hydrogenation, each A block is a monoalkenyl arene homopolymer block having a true peak molecular weight of 5 kg/mol to 15 kg/mol, each B block has a true peak molecular weight of 30 kg/mol to 200 kg/mol and is a controlled distribution copolymer block of at least one conjugated diene and at least one monoalkenyl arene; the coupling efficiency is 30% - 95% for the styrenic block copolymers having X; and a midblock monoalkenyl arene blockiness index is 3% to 15 %, wherein the mono alkenyl arene blockiness index is the proportion of mono alkenyl arene units in the block B having two mono alkenyl arene neighbors on the polymer chain; and subsequent to hydrogenation, 0 - 10 % of the arene double bonds have been reduced, and at least 90% of the conjugated diene double bonds have been reduced; wherein the hydrogenated styrenic block copolymer has a midblock poly(monoalkenyl arene) content of 35 wt. % to 50 wt. % based on the total weight of the midblock; and wherein the hydrogenated styrenic block copolymer has: a melt flow ratio of 1.0 to 10.0 measured according to ASTM D-1238 at 230°C and 2.16 kg load; a Shore A hardness of 60 to 80 measured according to ASTM D-2240; a DMA peak tan delta temperature of 0°C to 40°C at 1 Hz measured according to ASTM D-4065, and an order-disorder transition temperature of 200°C to 300°C. a melt flow ratio of 1.0 to 10.0 measured according to ASTM D-1238 at 230°C and 2.16 kg load; a Shore A hardness of 60 to 80 measured according to ASTM D-2240; a DMA peak tan delta temperature of 0°C to 40°C at 1 Hz measured according to ASTM D-4065, and an order-disorder transition temperature of 200°C to 300°C.
An ophthalmologic apparatus , comprising: an acquisition unit including an optical scanner capable of deflecting light in a predetermined deflection angle range and configured to acquire data of a subject's eye (E) by performing A-scan on the subject's eye (E) using optical coherence tomography by measurement light (LS) deflected by the optical scanner ; and a controller configured to cause the acquisition unit to perform A-scan based on a deflection operation state of the optical scanner , characterised in that the controller is configured to cause the acquisition unit to perform A-scan so that intervals between the deflection angles are substantially equal; and in that the ophthalmologic apparatus further comprises: a storage unit configured to store timing information of the A-scan in advance, wherein the controller is configured to cause the acquisition unit to perform A-scan based on the timing information . an acquisition unit including an optical scanner capable of deflecting light in a predetermined deflection angle range and configured to acquire data of a subject's eye (E) by performing A-scan on the subject's eye (E) using optical coherence tomography by measurement light (LS) deflected by the optical scanner ; and a controller configured to cause the acquisition unit to perform A-scan based on a deflection operation state of the optical scanner , characterised in that the controller is configured to cause the acquisition unit to perform A-scan so that intervals between the deflection angles are substantially equal; and in that the ophthalmologic apparatus further comprises: a storage unit configured to store timing information of the A-scan in advance, wherein the controller is configured to cause the acquisition unit to perform A-scan based on the timing information . a storage unit configured to store timing information of the A-scan in advance, wherein the controller is configured to cause the acquisition unit to perform A-scan based on the timing information .
Composition containing N-((3 -methyl-1H-pyrazol-1-yl)methyl)acetamide (MPA) (I) as nitrification inhibitor, N-(2-nitrophenyl)phosphoric acid triamide (II) as urease inhibitor, vegetable oil, at least one wax and optionally a diluent
Composition for use in the treatment of a central nervous system injury in a subject, the composition comprising an active agent, said active agent containing the amino acids leucine, isoleucine, valine, threonine, lysine and the carboxylic acids citric acid, succinic acid, malic acid.