mhurhangee/patent-ind-claim-en huggingface dataset:
Dynamic transaction card comprising - an antenna that enables an account holder mobile device to connect to the dynamic transaction card ; characterized by - data storage storing pre-stored account data that associates multiple accounts related to multiple financial institutions with the dynamic transaction card, the pre-stored account data comprising inactive account data; and - an integrated circuit including a microprocessor, wherein the microprocessor includes the inactive account data and an inactive encryption key that is configured to, upon receiving an activation signal from the account holder mobile device via the antenna, execute a preloaded script to activate the inactive account data and the inactive encryption key thereby creating active account data and an active encryption key and activating an account on the dynamic transaction card, send a request to the account holder mobile device for updated data, and receive the updated data, wherein the updated data comprises updated account data. - an antenna that enables an account holder mobile device to connect to the dynamic transaction card ; - data storage storing pre-stored account data that associates multiple accounts related to multiple financial institutions with the dynamic transaction card, the pre-stored account data comprising inactive account data; and - an integrated circuit including a microprocessor, wherein the microprocessor includes the inactive account data and an inactive encryption key that is configured to, upon receiving an activation signal from the account holder mobile device via the antenna, execute a preloaded script to activate the inactive account data and the inactive encryption key thereby creating active account data and an active encryption key and activating an account on the dynamic transaction card, send a request to the account holder mobile device for updated data, and receive the updated data, wherein the updated data comprises updated account data.
A wave energy recovery apparatus comprising at least a base , a reciprocating panel , a pivot shaft for the reciprocating panel , a control system, a power-take-off (PTO) unit with a primary shaft to convert kinetic energy of waves or tidal currents to another type of energy, and a connection mechanism to connect the PTO unit to the panel or to the pivot shaft and to disconnect the PTO unit from the panel or from the pivot shaft and the apparatus comprises actuator means to connect the primary shaft of the PTO unit either to the back and forth moving panel or its pivot shaft while the panel and the pivot shaft are reciprocating, characterized in that the actuator means comprises synchronizing means to rotate the primary shaft of the PTO unit back and forth without a load and to synchronize the back and forth motion of the primary shaft with the motion of the panel and the pivot shaft before connecting the back and forth moving primary shaft to the back and forth moving panel or the pivot shaft .
A method for detecting and imaging amyloid beta (Aβ) or any precursor of amyloid beta in the retina of an eye of a mammal, comprising the steps of a) performing large field imaging of the anterior surface and the neural cell layers of the retina using retinal imaging light with sufficient depth resolution to detect one or more markers indicative of Aβ or of any precursor thereof located in the neural cell layer, or on the anterior surface of the retina as a function of position on the retina which are associated with Alzheimer's or related neurodegenerative diseases, wherein the large field imaging gives full coverage of the en face portion of the retina ; and b) if at least one area presents a marker of amyloid beta in the neural cell layers, or a location close to, or on the anterior surface of the retina, then magnifying and increasing the resolution of the at least one area and characterizing any one or combination of a size, shape, location, numbers, and density of Aβ or any precursor thereof or any additional markers or a strength of the markers of Aβ or any precursor thereof and confirming the location close to, or on, the anterior surface and correlating the properties of Aβ or any precursor thereof or additional markers to determine the characteristics of Aβ or any precursor thereof or additional markers present. a) performing large field imaging of the anterior surface and the neural cell layers of the retina using retinal imaging light with sufficient depth resolution to detect one or more markers indicative of Aβ or of any precursor thereof located in the neural cell layer, or on the anterior surface of the retina as a function of position on the retina which are associated with Alzheimer's or related neurodegenerative diseases, wherein the large field imaging gives full coverage of the en face portion of the retina ; and b) if at least one area presents a marker of amyloid beta in the neural cell layers, or a location close to, or on the anterior surface of the retina, then magnifying and increasing the resolution of the at least one area and characterizing any one or combination of a size, shape, location, numbers, and density of Aβ or any precursor thereof or any additional markers or a strength of the markers of Aβ or any precursor thereof and confirming the location close to, or on, the anterior surface and correlating the properties of Aβ or any precursor thereof or additional markers to determine the characteristics of Aβ or any precursor thereof or additional markers present.
A light blocker, comprising: a bellow configured to extend from an outer edge of a key to an inner edge of a key window to span a key gap in between the key and the key window, wherein the bellow is configured to extend along a periphery of the key, wherein the bellow is configured to block light originating from under the key from passing through the key gap, characterized in that bellow is configured to allow a portion of the light originating from under the key to pass through the bellow and the key gap, and in that the bellow is configured to block light from passing through the key gap along a portion of the periphery of the key, and to allow a portion of the light to be transmitted through the bellow and the key gap along another portion of the periphery of the key. a bellow configured to extend from an outer edge of a key to an inner edge of a key window to span a key gap in between the key and the key window, wherein the bellow is configured to extend along a periphery of the key, wherein the bellow is configured to block light originating from under the key from passing through the key gap, characterized in that bellow is configured to allow a portion of the light originating from under the key to pass through the bellow and the key gap, and in that the bellow is configured to block light from passing through the key gap along a portion of the periphery of the key, and to allow a portion of the light to be transmitted through the bellow and the key gap along another portion of the periphery of the key.
A waste disposal receptacle comprising a body and a lid ; wherein the body is defined by a base , a side and an open top ; and the lid is defined by a side , a top and an open base and includes an aperture in the side through which material can be deposited into the receptacle ; the material when placed into the receptacle via the aperture falls through the open base of the lid and into the body ; and wherein the body and lid are cylindrical; characterised in that : the interaction between the lid side and the body side forms a substantially airtight seal; wherein the side of the lid is adapted to be received within the body and is reversibly and telescopically movable between an open and closed position such that when the lid is in the closed position the aperture is covered by said body side and when the lid is in the open position, the aperture is exposed, wherein the lid is rotatable on the base to at least a limited extent; and, wherein the body includes a retention mechanism which prevents the lid from being readily removed from within the body . wherein the body is defined by a base , a side and an open top ; and the lid is defined by a side , a top and an open base and includes an aperture in the side through which material can be deposited into the receptacle ; the material when placed into the receptacle via the aperture falls through the open base of the lid and into the body ; and wherein the body and lid are cylindrical; the interaction between the lid side and the body side forms a substantially airtight seal; wherein the side of the lid is adapted to be received within the body and is reversibly and telescopically movable between an open and closed position such that when the lid is in the closed position the aperture is covered by said body side and when the lid is in the open position, the aperture is exposed, wherein the lid is rotatable on the base to at least a limited extent; and, wherein the body includes a retention mechanism which prevents the lid from being readily removed from within the body .
A pipe adapter for optical flow measurement comprising a fluid pipe that has a flow-through inner flow space , wherein at least one window element transparent to a measurement optics is introduced in the fluid pipe , wherein the fluid pipe is surrounded, at least in the region of the window element , by a pressure-resistant housing by which the window element is mounted in an inner housing space , and with the inner housing space being at least indirectly fluidically interactive and/or in fluidic communication with the inner flow space ; wherein the window element is formed by means of a cylindrical pipe section composed of a transparent material; and wherein the cylindrical pipe section is connected at at least one end side to the fluid pipe or to the fluid pipes by means of a connector element , characterized in that the connector element is fluid-permeable. the fluid pipe is surrounded, at least in the region of the window element , by a pressure-resistant housing by which the window element is mounted in an inner housing space , and with the inner housing space being at least indirectly fluidically interactive and/or in fluidic communication with the inner flow space ; wherein the window element is formed by means of a cylindrical pipe section composed of a transparent material; and wherein the cylindrical pipe section is connected at at least one end side to the fluid pipe or to the fluid pipes by means of a connector element , characterized in that the connector element is fluid-permeable.
A method for producing metallurgical coke only from non-coking coal, the method comprising: densifying, the non-coking coal to form pellets ; placing the pellets in a microwave oven within a plurality of bricks ; heating, the pellets in the microwave oven at a predetermined temperature under an inert atmosphere at atmospheric pressure, wherein the pellets undergo pyrolysis during the heating; and cooling the pellets in the microwave oven under the inert atmosphere, to convert the pellets of the non-coking coal to the metallurgical coke; wherein heating of the pellets in the microwave oven is carried out without susceptors. densifying, the non-coking coal to form pellets ; placing the pellets in a microwave oven within a plurality of bricks ; heating, the pellets in the microwave oven at a predetermined temperature under an inert atmosphere at atmospheric pressure, wherein the pellets undergo pyrolysis during the heating; and cooling the pellets in the microwave oven under the inert atmosphere, to convert the pellets of the non-coking coal to the metallurgical coke; wherein heating of the pellets in the microwave oven is carried out without susceptors.
A robot comprising: a base ; a spin body rotatably disposed in the base ; a spin mechanism rotating the spin body around the base ; a tilting body tiltably supported to the spin body around a tilting axis; a tilting mechanism configured to tilt the tilting body around the tilting axis; characterized in that the robot further comprising: an interface installed in at least one of the spin body and the tilting body ; a tilting gear mounted on the tilting body and tilted together with the tilting body ; and a damper mounted on the spin body , wherein the damper comprises a damping gear engaged with the tilting gear and configured to guide tilting of the tilting gear , and the tilting gear is tilted along an outer circumference of the damping gear , wherein the damping gear is disposed so as to be engaged with the tilting gear between the tilting axis and the tilting gear , wherein a distance between the central axis of the damping gear and the tilting axis is smaller than a distance between the tilting axis and the tilting gear . a base ; a spin body rotatably disposed in the base ; a spin mechanism rotating the spin body around the base ; a tilting body tiltably supported to the spin body around a tilting axis; a tilting mechanism configured to tilt the tilting body around the tilting axis; characterized in that the robot further comprising: an interface installed in at least one of the spin body and the tilting body ; a tilting gear mounted on the tilting body and tilted together with the tilting body ; and a damper mounted on the spin body , wherein the damper comprises a damping gear engaged with the tilting gear and configured to guide tilting of the tilting gear , and the tilting gear is tilted along an outer circumference of the damping gear , wherein the damping gear is disposed so as to be engaged with the tilting gear between the tilting axis and the tilting gear , wherein a distance between the central axis of the damping gear and the tilting axis is smaller than a distance between the tilting axis and the tilting gear . an interface installed in at least one of the spin body and the tilting body ; a tilting gear mounted on the tilting body and tilted together with the tilting body ; and a damper mounted on the spin body , wherein the damper comprises a damping gear engaged with the tilting gear and configured to guide tilting of the tilting gear , and the tilting gear is tilted along an outer circumference of the damping gear , wherein the damping gear is disposed so as to be engaged with the tilting gear between the tilting axis and the tilting gear , wherein a distance between the central axis of the damping gear and the tilting axis is smaller than a distance between the tilting axis and the tilting gear .
Luminous module , in particular for a motor vehicle, intended to emit an outgoing light beam and comprising : - at least one semi-conducting laser element configured to emit a laser beam into a first light cone , called an emission cone ; - a photoluminescent element configured to convert the wavelength of at least part of said laser beam ; - a reflecting surface , a main portion of which reflects light from the photoluminescent element to form said outgoing luminous beam oriented in a first emission direction (A), - a secondary guide face which reflects the light from the first emission cone into a second light cone , called a measuring cone , oriented in a second measuring direction (B) ; - at least one device for detecting incident light exceeding a predetermined threshold of luminous intensity which is arranged in the measuring cone ; the optical structure of the guide face causing the light to spread so that the measuring cone has a larger aperture angle than the first emission cone . characterized in that the geometrical profile of the envelope of the guide face causes the light to spread in the measuring cone . - at least one semi-conducting laser element configured to emit a laser beam into a first light cone , called an emission cone ; - a photoluminescent element configured to convert the wavelength of at least part of said laser beam ; - a reflecting surface , a main portion of which reflects light from the photoluminescent element to form said outgoing luminous beam oriented in a first emission direction (A), - a secondary guide face which reflects the light from the first emission cone into a second light cone , called a measuring cone , oriented in a second measuring direction (B) ; - at least one device for detecting incident light exceeding a predetermined threshold of luminous intensity which is arranged in the measuring cone ;
Packaging bag having a bag body , which has front walls that lie opposite one another, side walls arranged between the front walls , and longitudinal edges that connect the front walls with the side walls , wherein on at least one of the longitudinal edges a material section forming the associated front wall and a material section forming the associated side wall are connected to one another by way of a fixing layer adjoining the longitudinal edge (L) to form a stiffening fold running in the longitudinal direction (L), characterized in that the bag body is paper-based and either is completely formed of paper or has a multilayer configuration in which at least one layer is formed from paper, wherein the fixing layer directly adjoins the layer of paper, wherein the fixing layer assigned to at least one stiffening fold is an adhesive layer , wherein regions of the bag body between the stiffening folds are free of an adhesive layer.
A belt harness , comprising - two shoulder belts , - two lap belts , - precisely one crotch belt , and - precisely one central belt buckle , with which the belts can be fastened and released, wherein the belt harness comprises two leg belts , which when worn each run over an upper side of thigh of a user, and can be fastened and released by means of the precisely one belt buckle , and wherein one respective end of the belts can be attached to a seat , to a stretcher or to a parachute module. - two shoulder belts , - two lap belts , - precisely one crotch belt , and - precisely one central belt buckle , with which the belts can be fastened and released,
An electro-optical component for adaptive visual correction, comprising: a first transparent substrate ; a second transparent substrate ; an optical structure disposed on said first transparent substrate ; a liquid-crystal gap located between said optical structure and said second transparent substrate , wherein said liquid-crystal gap is filled with liquid crystals and said optical structure is configured to be in contact with the liquid crystals of the liquid-crystal gap; a first transparent electrode and a second transparent electrode , located on opposite sides of said liquid-crystal gap ; and a plurality of spacers located in said liquid-crystal gap between said second transparent substrate and said optical structure , wherein said plurality of spacers comprises at least one spacer having a different height than another spacer of said plurality of spacers. a first transparent substrate ; a second transparent substrate ; an optical structure disposed on said first transparent substrate ; a liquid-crystal gap located between said optical structure and said second transparent substrate , wherein said liquid-crystal gap is filled with liquid crystals and said optical structure is configured to be in contact with the liquid crystals of the liquid-crystal gap; a first transparent electrode and a second transparent electrode , located on opposite sides of said liquid-crystal gap ; and a plurality of spacers located in said liquid-crystal gap between said second transparent substrate and said optical structure , wherein said plurality of spacers comprises at least one spacer having a different height than another spacer of said plurality of spacers.
An electric motor equipped with a rotor including a cylindrical rotor iron core in which a plurality of main magnetic poles and a plurality of auxiliary magnetic poles are alternately disposed in a circumferential direction, a substantially V-shaped magnet insertion hole that is provided for each of the main magnetic poles and whose convex portion faces a center (O) of the rotor and is centered on a d-axis passing through the center (O) of the rotor and a circumference-wise center of the main magnetic pole , and two magnets per pole that are embedded in the magnet insertion hole in a substantially V-shaped manner, wherein a magnetic shielding space that shields an area between poles of the adjacent magnets is provided at the convex portion of the magnet insertion hole , the magnetic shielding space has a shape having a predetermined width in the circumferential direction and protruding radially outward and inward from the magnet insertion hole , projections , which project toward an inner side of the magnetic shielding space , for setting positions where the magnets are installed, are provided at portions where the magnetic shielding space and the magnet insertion hole intersect, characterized in that when an embedment depth by which an inner end of each of the magnets is embedded in the magnet insertion hole from an outer periphery of the rotor is represented by F, and an outer diameter of the rotor is represented by D, F/D is set within a range from 0.067 to 0.121.
A method for providing fine grained control over a maximum segment size of a transport layer connection, comprising: receiving, by a device intermediary to a plurality of clients and a plurality of servers, a request to establish a transport layer connection on a virtual local area network, VLAN, via a VLAN interface to which the VLAN is assigned; identifying , by a packet engine of the device, a first maximum segment size, MSS, value based on a maximum transmission unit, MTU, value of the VLAN interface to which the VLAN is assigned responsive to the request to establish a transport layer connection received on the VLAN via the VLAN interface; determining , by the packet engine of the device, that a difference between an MTU value of the VLAN and a predetermined header size is less than the first MSS value; updating , by the packet engine of the device, responsive to the determination, the first MSS value to a second MSS value corresponding to the difference between the MTU value of the VLAN and the predetermined header size; determining , by the packet engine of the device, that an MSS value specified by a profile configured for a virtual server of the device that is establishing the transport layer connection is less than the second MSS value; updating , by the packet engine of the device, the second MSS value to the MSS value of the profile responsive to determining that the MSS value specified by the profile is less than the second MSS value; and providing, by the packet engine, a response to the request including the second MSS value. receiving, by a device intermediary to a plurality of clients and a plurality of servers, a request to establish a transport layer connection on a virtual local area network, VLAN, via a VLAN interface to which the VLAN is assigned; identifying , by a packet engine of the device, a first maximum segment size, MSS, value based on a maximum transmission unit, MTU, value of the VLAN interface to which the VLAN is assigned responsive to the request to establish a transport layer connection received on the VLAN via the VLAN interface; determining , by the packet engine of the device, that a difference between an MTU value of the VLAN and a predetermined header size is less than the first MSS value; updating , by the packet engine of the device, responsive to the determination, the first MSS value to a second MSS value corresponding to the difference between the MTU value of the VLAN and the predetermined header size; determining , by the packet engine of the device, that an MSS value specified by a profile configured for a virtual server of the device that is establishing the transport layer connection is less than the second MSS value; updating , by the packet engine of the device, the second MSS value to the MSS value of the profile responsive to determining that the MSS value specified by the profile is less than the second MSS value; and providing, by the packet engine, a response to the request including the second MSS value.