mhurhangee/ep-ind-claims huggingface dataset:
A medium ejection apparatus comprising: a placement mount on which media are placed; a restriction part (32, 33, 34) that moves between a restriction position at which the restriction part (32, 33, 34) restricts media ejected toward the placement mount and a retracted position retracted from the restriction position; and a restriction driver that drives the restriction part (32, 33, 34), characterized in that the medium ejection apparatus further comprises a control unit that controls the restriction part (32, 33, 34) by adjusting a restriction frequency on the basis of an amount of heat generation of the restriction driver and at least either an amount of movement of the restriction part (32, 33, 34) from the retracted position to the restriction position or ejection intervals at which the media are ejected toward the placement mount, the restriction frequency being a frequency with which the restriction part (32, 33, 34) performs a restriction operation for the media. a placement mount on which media are placed; a restriction part (32, 33, 34) that moves between a restriction position at which the restriction part (32, 33, 34) restricts media ejected toward the placement mount and a retracted position retracted from the restriction position; and a restriction driver that drives the restriction part (32, 33, 34), characterized in that the medium ejection apparatus further comprises a control unit that controls the restriction part (32, 33, 34) by adjusting a restriction frequency on the basis of an amount of heat generation of the restriction driver and at least either an amount of movement of the restriction part (32, 33, 34) from the retracted position to the restriction position or ejection intervals at which the media are ejected toward the placement mount, the restriction frequency being a frequency with which the restriction part (32, 33, 34) performs a restriction operation for the media.
Process for manufacturing a textile round sling, being this one provided for lifting and handling loads that comprises an inner core that have a plurality of endless yarns which run longitudinally and parallel to each other and an outer casing made of a textile material which covers the inner core, wherein during a step of manufacturing of the outer casing, are applied in the wrap of this outer casing some yarns of silicone with/or a silicone base, and then are applied a mixture of polyurethane and a catalyst with a base solution aliphatic polyisocyanate, characterized in that after dispersing the polyurethane mixture a further step of padding is applied.
A pre-operative planning method for designing a glenoid implant (20, 50a, 300, 400, 500, 600, 610, 620, 630, 640, 650, 750, 800) for a patient, the method comprising: performing a pre-operative analysis by at least: adjusting an augmentation (34, 416, 516, 605, 615, 625, 635, 645, 655, 752) of the glenoid implant (20, 50a, 300, 400, 500, 600, 610, 620, 630, 640, 650, 750, 800); adjusting a medialization of the glenoid implant (20, 50a, 300, 400, 500, 600, 610, 620, 630, 640, 650, 750, 800) by assessing a volumetric amount of a glenoid bone (12, 50b, 704, 804) needed to be removed by reaming, or by assessing the minimum total distance of reaming necessary; and analyzing fixation support of the glenoid implant (20, 50a, 300, 400, 500, 600, 610, 620, 630, 640, 650, 750, 800) in the absence of central pegs (44, 320, 603, 613, 623a, 623b, 633, 643a, 643b, 653, 901, 902,903,904, 905) that penetrate a vault medially; and designing the glenoid implant (20, 50a, 300, 400, 500, 600, 610, 620, 630, 640, 650, 750, 800) based on the pre-operative analysis. performing a pre-operative analysis by at least: adjusting an augmentation (34, 416, 516, 605, 615, 625, 635, 645, 655, 752) of the glenoid implant (20, 50a, 300, 400, 500, 600, 610, 620, 630, 640, 650, 750, 800); adjusting a medialization of the glenoid implant (20, 50a, 300, 400, 500, 600, 610, 620, 630, 640, 650, 750, 800) by assessing a volumetric amount of a glenoid bone (12, 50b, 704, 804) needed to be removed by reaming, or by assessing the minimum total distance of reaming necessary; and analyzing fixation support of the glenoid implant (20, 50a, 300, 400, 500, 600, 610, 620, 630, 640, 650, 750, 800) in the absence of central pegs (44, 320, 603, 613, 623a, 623b, 633, 643a, 643b, 653, 901, 902,903,904, 905) that penetrate a vault medially; and adjusting an augmentation (34, 416, 516, 605, 615, 625, 635, 645, 655, 752) of the glenoid implant (20, 50a, 300, 400, 500, 600, 610, 620, 630, 640, 650, 750, 800); adjusting a medialization of the glenoid implant (20, 50a, 300, 400, 500, 600, 610, 620, 630, 640, 650, 750, 800) by assessing a volumetric amount of a glenoid bone (12, 50b, 704, 804) needed to be removed by reaming, or by assessing the minimum total distance of reaming necessary; and analyzing fixation support of the glenoid implant (20, 50a, 300, 400, 500, 600, 610, 620, 630, 640, 650, 750, 800) in the absence of central pegs (44, 320, 603, 613, 623a, 623b, 633, 643a, 643b, 653, 901, 902,903,904, 905) that penetrate a vault medially; and designing the glenoid implant (20, 50a, 300, 400, 500, 600, 610, 620, 630, 640, 650, 750, 800) based on the pre-operative analysis.
A process for identifying a material in an image, comprising: accessing two spectral bands of a multispectral image, the two bands being from different image sensors at different positions of a focal plane; separately finding edges in the images at the two bands; finding movement in the multispectral image based on changes in position of edges between the images of the two bands after geographical alignment of the images at the two bands; identifying possible pavement using nominal spectral characteristics of pavement; filtering to remove edges that indicate movement that is not along possible pavement; filtering to remove edges that indicate movement that is not at possible speeds for moving vehicles; determining (1224, 1232) one or more spectral characteristics of sample pixels of the possible pavement near edges remaining after the filtering; and automatically identifying additional pixels in the multispectral image that have one or more spectral characteristics that are within a threshold of one or more spectral characteristics of the sample pixels, the identified additional pixels depicting the material. accessing two spectral bands of a multispectral image, the two bands being from different image sensors at different positions of a focal plane; separately finding edges in the images at the two bands; finding movement in the multispectral image based on changes in position of edges between the images of the two bands after geographical alignment of the images at the two bands; identifying possible pavement using nominal spectral characteristics of pavement; filtering to remove edges that indicate movement that is not along possible pavement; filtering to remove edges that indicate movement that is not at possible speeds for moving vehicles; determining (1224, 1232) one or more spectral characteristics of sample pixels of the possible pavement near edges remaining after the filtering; and automatically identifying additional pixels in the multispectral image that have one or more spectral characteristics that are within a threshold of one or more spectral characteristics of the sample pixels, the identified additional pixels depicting the material.
An engine ignition control device for controlling ignition at start-up and during normal running of an engine started up using human power; the engine ignition control device comprising: a start-up ignition controller having a function for preventing the occurrence of kickback by either delaying an ignition position of the engine or stopping ignition when there is a risk of kickback occurring when the engine is started; start-up rotation angle detection means for detecting as a start-up rotation angle a rotation angle of a crankshaft of the engine after initiation of a start-up operation of the engine; and switching means for switching control specifics of the start-up ignition controller in accordance with the detected start-up rotation angle so that when the start-up rotation angle detected by the start-up rotation angle detection means is less than a set angle, there is created a kickback-preventive effect within a range at which engine startability is not compromised, and when the detected start-up rotation angle is equal to or greater than the set angle, there is created a kickback-preventive effect that is greater than the kickback-preventive effect for when the start-up rotation angle is equal to or less than the set angle, characterized in said set angle is set to be equal to an angle equivalent to a section in which operation force is applied from the start-up device to the crankshaft at engine start-up. a start-up ignition controller having a function for preventing the occurrence of kickback by either delaying an ignition position of the engine or stopping ignition when there is a risk of kickback occurring when the engine is started; start-up rotation angle detection means for detecting as a start-up rotation angle a rotation angle of a crankshaft of the engine after initiation of a start-up operation of the engine; and switching means for switching control specifics of the start-up ignition controller in accordance with the detected start-up rotation angle so that when the start-up rotation angle detected by the start-up rotation angle detection means is less than a set angle, there is created a kickback-preventive effect within a range at which engine startability is not compromised, and when the detected start-up rotation angle is equal to or greater than the set angle, there is created a kickback-preventive effect that is greater than the kickback-preventive effect for when the start-up rotation angle is equal to or less than the set angle, characterized in said set angle is set to be equal to an angle equivalent to a section in which operation force is applied from the start-up device to the crankshaft at engine start-up.
An uninterruptible power supply system, UPS, comprising: a plurality of functional modules (120, 130, 140, 150, 160) configured to be interconnected to form a power distribution network coupling at least two power sources (10a-g) to a load, each functional module (120, 130, 140, 150, 160) having at least two ports configured to be coupled to at least one other of the functional modules (120, 130, 140, 150, 160) and/or to at least one other external device and each functional module (120, 130, 140, 150, 160) comprising a control circuit configured to autonomously control at least one function relating to electrical power transfer between the at least two ports; and a controller module (110, 110') configured to communicate with the respective control circuits of the functional modules (120, 130, 140, 150, 160) over at least one digital communication link to control power flow between the at least two power sources (10a-g) and the load, wherein the functional modules (120, 130, 140, 150, 160) are configured for flexible interconnection to provide a variety of different uninterruptible power system topologies including at least one on-line UPS topology and at least one off-line UPS topology and wherein the controller module (110, 110') is configured to use respective different network models to control interoperation of the functional modules (120, 130, 140, 150, 160) to support the variety of different uninterruptible power system topologies. a plurality of functional modules (120, 130, 140, 150, 160) configured to be interconnected to form a power distribution network coupling at least two power sources (10a-g) to a load, each functional module (120, 130, 140, 150, 160) having at least two ports configured to be coupled to at least one other of the functional modules (120, 130, 140, 150, 160) and/or to at least one other external device and each functional module (120, 130, 140, 150, 160) comprising a control circuit configured to autonomously control at least one function relating to electrical power transfer between the at least two ports; and a controller module (110, 110') configured to communicate with the respective control circuits of the functional modules (120, 130, 140, 150, 160) over at least one digital communication link to control power flow between the at least two power sources (10a-g) and the load, wherein the functional modules (120, 130, 140, 150, 160) are configured for flexible interconnection to provide a variety of different uninterruptible power system topologies including at least one on-line UPS topology and at least one off-line UPS topology and wherein the controller module (110, 110') is configured to use respective different network models to control interoperation of the functional modules (120, 130, 140, 150, 160) to support the variety of different uninterruptible power system topologies.
An optical adapter supporting structure for optical adapters (200, 300), comprising: - a support base; - a first pair of retaining members comprising a first retaining member and an opposite second retaining member, the first and second retaining members projecting from the support base along an insertion direction (Z-Z) and being mutually spaced apart along a transversal direction (Y-Y), perpendicular to the insertion direction (Z-Z), for receiving selectively a first optical adapter and a second optical adapter therebetween; wherein: - the first retaining member comprises a first retaining head configured to retain the first optical adapter along the insertion direction (Z-Z) and projecting towards the opposite second retaining member, the first retaining head being formed at a first distance from the support base, measured along the insertion direction (Z-Z); - the second retaining member is resiliently deformable and comprises a second retaining head, configured to retain the second optical adapter along the insertion direction (Z-Z) and projecting towards the opposite first retaining member, the second retaining head being formed at a second distance from the support base, measured along the insertion direction (Z-Z), lower than the first distance. - a support base; - a first pair of retaining members comprising a first retaining member and an opposite second retaining member, the first and second retaining members projecting from the support base along an insertion direction (Z-Z) and being mutually spaced apart along a transversal direction (Y-Y), perpendicular to the insertion direction (Z-Z), for receiving selectively a first optical adapter and a second optical adapter therebetween; - the first retaining member comprises a first retaining head configured to retain the first optical adapter along the insertion direction (Z-Z) and projecting towards the opposite second retaining member, the first retaining head being formed at a first distance from the support base, measured along the insertion direction (Z-Z); - the second retaining member is resiliently deformable and comprises a second retaining head, configured to retain the second optical adapter along the insertion direction (Z-Z) and projecting towards the opposite first retaining member, the second retaining head being formed at a second distance from the support base, measured along the insertion direction (Z-Z), lower than the first distance.
A head-mounted display device comprising: a display panel comprising a flat central portion, and a curved peripheral portion curved towards a user of the head-mounted display device and extending from the flat central portion; an optical system spaced apart from the display panel by a predetermined distance; a controller to provide a data signal representing an image to be displayed on the flat central portion and the curved peripheral portion to the display panel; and a case part on which the display panel is mounted; characterized in that the controller is configured to provide a data signal representing an image (Im') that is reduced at a predetermined ratio to the curved peripheral portion, as compared with the flat central portion; the controller is further configured to pre-distort a data signal for the curved peripheral portion from a flat image (Im) to a curved surface image (Im') such that partial images (Im' (i, j)) that correspond to partial images (Im (i; j)) at points of an equivalent area are displayed at corresponding points of the curved peripheral portion, the equivalent area being defined as a virtual plane extending from the flat central portion, and providing a viewing angle substantially the same as a viewing angle of the curved peripheral portion in a first direction when viewed from the user's viewing point. a display panel comprising a flat central portion, and a curved peripheral portion curved towards a user of the head-mounted display device and extending from the flat central portion; an optical system spaced apart from the display panel by a predetermined distance; a controller to provide a data signal representing an image to be displayed on the flat central portion and the curved peripheral portion to the display panel; and a case part on which the display panel is mounted; characterized in that the controller is configured to provide a data signal representing an image (Im') that is reduced at a predetermined ratio to the curved peripheral portion, as compared with the flat central portion; the controller is further configured to pre-distort a data signal for the curved peripheral portion from a flat image (Im) to a curved surface image (Im') such that partial images (Im' (i, j)) that correspond to partial images (Im (i; j)) at points of an equivalent area are displayed at corresponding points of the curved peripheral portion, the equivalent area being defined as a virtual plane extending from the flat central portion, and providing a viewing angle substantially the same as a viewing angle of the curved peripheral portion in a first direction when viewed from the user's viewing point.
Use of at least one compound selected from the group consisting of tebuconazole, metconazole and prothioconazole for enhancing the resistance of plants to abiotic stress factors, in combination with abscisic acid.
A method, performed by a proxy, for facilitating real time multimedia communications between a constrained device and a multimedia client, the method comprising: discovering an identity and a multimedia capability of a constrained device; receiving, from a multimedia client, a request for multimedia content from the constrained device; mapping information from the request to a message format used by the constrained device, wherein the information mapped from the request to a message format used by the constrained device comprises at least: an indication of a multimedia resource specified in the request, and transport layer information for a destination to which transmission of the specified resource should be initiated; and forwarding the mapped information to the constrained device. discovering an identity and a multimedia capability of a constrained device; receiving, from a multimedia client, a request for multimedia content from the constrained device; mapping information from the request to a message format used by the constrained device, wherein the information mapped from the request to a message format used by the constrained device comprises at least: an indication of a multimedia resource specified in the request, and transport layer information for a destination to which transmission of the specified resource should be initiated; and an indication of a multimedia resource specified in the request, and transport layer information for a destination to which transmission of the specified resource should be initiated; and forwarding the mapped information to the constrained device.
A beam information acquisition method applied to a network side device, wherein the beam information acquisition method comprises: Transmitting configuration information to a terminal, wherein the configuration information comprises at least one of: (i) a report type identifier, (ii) a report offset, and (iii) an information reporting identifier; and receiving beam information reported by the terminal based on the configuration information, wherein the report type identifier is configured to indicate whether at least two types of beam information are reported together, wherein the at least two types of the beam information comprise a resource identifier of a beam and beam quality information; the resource identifier comprises a transmission resource identifier, the transmission resource identifier is configured to be used by the terminal to distinguish a transmission beam at a network side; and the beam quality information is formed by the terminal through measuring the transmission beam and configured to indicate beam quality of the transmission beam; the report offset is configured to indicate, when the at least two types of the beam information are reported together, an offset on a reported resource; and the information reporting identifier is configured to indicate to, when the resource identifier and the beam quality information are reported separately, report the resource identifier and/or the beam quality information. Transmitting configuration information to a terminal, wherein the configuration information comprises at least one of: (i) a report type identifier, (ii) a report offset, and (iii) an information reporting identifier; and receiving beam information reported by the terminal based on the configuration information, wherein the report type identifier is configured to indicate whether at least two types of beam information are reported together, wherein the at least two types of the beam information comprise a resource identifier of a beam and beam quality information; the resource identifier comprises a transmission resource identifier, the transmission resource identifier is configured to be used by the terminal to distinguish a transmission beam at a network side; and the beam quality information is formed by the terminal through measuring the transmission beam and configured to indicate beam quality of the transmission beam; the report offset is configured to indicate, when the at least two types of the beam information are reported together, an offset on a reported resource; and the information reporting identifier is configured to indicate to, when the resource identifier and the beam quality information are reported separately, report the resource identifier and/or the beam quality information.