mhurhangee/patent-ind-claim-en huggingface dataset:
Method of making a display device comprising at least implementation of the following steps: - fabricate a matrix of LEDs each comprising electrodes accessible from a back face of the matrix of LEDs and light emitting surfaces from a front face of the matrix of LEDs , then; - securing a stack of layers comprising at least one semiconducting layer , a gate dielectric layer and a layer of gate conducting material , onto the back face of the matrix of LEDs , then; - starting from the stack of layers, fabricate an electronic control circuit electrically coupled to the electrodes of the LEDs , including the fabrication of FET transistors comprising active zones and gates , the active zones being formed in the semiconducting layer and the gates being formed in the gate dielectric layer and in the layer of gate conducting material . - fabricate a matrix of LEDs each comprising electrodes accessible from a back face of the matrix of LEDs and light emitting surfaces from a front face of the matrix of LEDs , then; - securing a stack of layers comprising at least one semiconducting layer , a gate dielectric layer and a layer of gate conducting material , onto the back face of the matrix of LEDs , then; - starting from the stack of layers, fabricate an electronic control circuit electrically coupled to the electrodes of the LEDs , including the fabrication of FET transistors comprising active zones and gates , the active zones being formed in the semiconducting layer and the gates being formed in the gate dielectric layer and in the layer of gate conducting material .
Device for measuring an ultrasonic or biomechanical parameter of a viscoelastic medium , said device comprising at least one ultrasound transducer (12, 12', 12"), said device being characterised in that it comprises: - at least one vibrator with a fixed part and a moving part , said ultrasound transducer (12, 12', 12") being fixed to said moving part of said at least one vibrator ; - at least one adhesive element fixed to the vibrator , said adhesive element being configured so that it is fixed by adhesion onto a surface facing the viscoelastic medium and holds the emission and reception face (16, 16', 16") of the ultrasound transducer (12, 12', 12") facing the surface . - at least one vibrator with a fixed part and a moving part , said ultrasound transducer (12, 12', 12") being fixed to said moving part of said at least one vibrator ; - at least one adhesive element fixed to the vibrator , said adhesive element being configured so that it is fixed by adhesion onto a surface facing the viscoelastic medium and holds the emission and reception face (16, 16', 16") of the ultrasound transducer (12, 12', 12") facing the surface .
A kit for a helicopter , said helicopter comprising a fuselage and a rotor ; the kit comprising at least one device adapted to dampen the vibrations transmitted from said rotor to said fuselage and to be interposed between said fuselage and said rotor ; said device , in turn, comprising: - a first threaded element (21; 20) operatively connectable to said rotor and adapted to, in use, vibrate parallel to a first axis (B); - a second threaded element (20; 21) operatively connectable to said fuselage and operatively connected to said first threaded element (21; 20) so as to, in use, rotationally vibrate about said first axis (B); and - a plurality of threaded rollers , which are screwed on said first and second threaded elements (21, 20; 20, 21); said rollers being rotatable about their respective second axes (C) parallel to and separate from said first axis (B) with respect to said second threaded element (20; 21); said rollers also being rotatable about said axis (B) with respect to said first threaded element (21; 20) and to said second threaded element (20; 21); characterised in that it comprises at least one crown fastened to said second threaded element (20; 21); said crown comprising a gear tooth facing said first axis (B) and engaged by a plurality of gear teeth carried by respective rollers . - a first threaded element (21; 20) operatively connectable to said rotor and adapted to, in use, vibrate parallel to a first axis (B); - a second threaded element (20; 21) operatively connectable to said fuselage and operatively connected to said first threaded element (21; 20) so as to, in use, rotationally vibrate about said first axis (B); and - a plurality of threaded rollers , which are screwed on said first and second threaded elements (21, 20; 20, 21);
A method of forming an article of footwear, the method comprising: lasting a footwear upper (200; 204; 1102); forming a midsole core (302; 1104) to at least an underfoot portion of the footwear upper (200; 204; 1102), wherein the midsole core (302; 1104) is direct attached to the footwear upper (200; 204; 1102) through the forming; and forming a shell (502; 1106) to the midsole core (302; 1104) and a first portion of the footwear upper (200; 204; 1102) concurrently, wherein the shell (502; 1106) encapsulates at least a portion of the midsole core (302; 1104) forming an exterior surface on the midsole core (302; 1104), wherein the shell (502; 1106) is formed from different materials than the midsole core (302; 1104), wherein the shell (502; 1106) over molds both the midsole core (302; 1104) and the first portion of the footwear upper (200; 204; 1102) to a biteline that represents a transition from the shell (502; 1106) to the footwear upper (200; 204; 1102) forming an exterior surface of the article of footwear, wherein the shell (502; 1106) extends from the exterior surface of the midsole core (302; 1104), past a second portion of the footwear upper (200; 204; 1102) that at least partly defines an inferior portion of an internal cavity, to the biteline , wherein the biteline forms a continuous perimeter around the article of footwear and is spaced from the underfoot portion of the footwear upper (200; 204; 1102), and wherein the shell (502; 1106) extends around and forms a perimeter of the article of footwear along a toe end, a medial side , a heel end, and a lateral side . lasting a footwear upper (200; 204; 1102); forming a midsole core (302; 1104) to at least an underfoot portion of the footwear upper (200; 204; 1102), wherein the midsole core (302; 1104) is direct attached to the footwear upper (200; 204; 1102) through the forming; and forming a shell (502; 1106) to the midsole core (302; 1104) and a first portion of the footwear upper (200; 204; 1102) concurrently, wherein the shell (502; 1106) encapsulates at least a portion of the midsole core (302; 1104) forming an exterior surface on the midsole core (302; 1104), wherein the shell (502; 1106) is formed from different materials than the midsole core (302; 1104), wherein the shell (502; 1106) over molds both the midsole core (302; 1104) and the first portion of the footwear upper (200; 204; 1102) to a biteline that represents a transition from the shell (502; 1106) to the footwear upper (200; 204; 1102) forming an exterior surface of the article of footwear, wherein the shell (502; 1106) extends from the exterior surface of the midsole core (302; 1104), past a second portion of the footwear upper (200; 204; 1102) that at least partly defines an inferior portion of an internal cavity, to the biteline , wherein the biteline forms a continuous perimeter around the article of footwear and is spaced from the underfoot portion of the footwear upper (200; 204; 1102), and wherein the shell (502; 1106) extends around and forms a perimeter of the article of footwear along a toe end, a medial side , a heel end, and a lateral side .
A computer-implemented method of guiding a user to customize a breathing exercise, comprising: at an electronic device with a display and a rotatable input mechanism : detecting a time of performance associated with a first breathing sequence; generating prompting criteria based on a predetermined prompting frequency and the detected time of performance associated with the first breathing sequence; determining, at a first time, if the prompting criteria have been met; in accordance with a determination that the prompting criteria have been met, displaying, on the display, a prompt to initiate a second breathing sequence, wherein the prompt comprises a first affordance , wherein the prompting criteria include a criterion that is met when one or more of a device motion condition and a scheduled calendar event condition are met, and wherein the scheduled calendar event condition is met when no scheduled calendar event is present at the first time, and wherein the device motion condition is determined based on sensor data from one or more sensors of the electronic device; receiving user input selection of the first affordance; in response to receiving the user input selection of the first affordance, displaying, on the display, a second breathing sequence user interface; and while the second breathing sequence user interface is being displayed, in accordance with a determination that a first user input on the rotatable input mechanism is detected, concurrently adjusting the number of cycles of the second breathing sequence and a total length of time of the second breathing sequence. detecting a time of performance associated with a first breathing sequence; generating prompting criteria based on a predetermined prompting frequency and the detected time of performance associated with the first breathing sequence; determining, at a first time, if the prompting criteria have been met; in accordance with a determination that the prompting criteria have been met, displaying, on the display, a prompt to initiate a second breathing sequence, wherein the prompt comprises a first affordance , wherein the prompting criteria include a criterion that is met when one or more of a device motion condition and a scheduled calendar event condition are met, and wherein the scheduled calendar event condition is met when no scheduled calendar event is present at the first time, and wherein the device motion condition is determined based on sensor data from one or more sensors of the electronic device; receiving user input selection of the first affordance; in response to receiving the user input selection of the first affordance, displaying, on the display, a second breathing sequence user interface; and while the second breathing sequence user interface is being displayed, in accordance with a determination that a first user input on the rotatable input mechanism is detected, concurrently adjusting the number of cycles of the second breathing sequence and a total length of time of the second breathing sequence.
A receiver assembly comprising 1) a membrane structure comprising a frame portion and a moveable diaphragm, wherein one or more openings exist between the frame portion and the moveable diaphragm of the membrane structure , 2) an assembly housing being secured to the membrane structure , and 3) an acoustical venting opening connecting an interior volume of the receiver assembly to an exterior volume outside assembly housing , said acoustical venting opening forming an acoustical passage through the membrane structure characterized in that the frame portion and moveable diaphragm of the membrane structure form an integrated structure being made of the same material. 1) a membrane structure comprising a frame portion and a moveable diaphragm, wherein one or more openings exist between the frame portion and the moveable diaphragm of the membrane structure , 2) an assembly housing being secured to the membrane structure , and 3) an acoustical venting opening connecting an interior volume of the receiver assembly to an exterior volume outside assembly housing , said acoustical venting opening forming an acoustical passage through the membrane structure
A ratchet assembly for a head protection device, wherein the ratchet assembly comprises: a first cover defining an aperture , and a ratchet gear , wherein the ratchet gear is disposed within the aperture of the first cover , characterized in that the first cover comprises at least one locking element disposed along the aperture ; and the ratchet gear comprises a plurality of ratchet gear teeth disposed on an outer surface of the ratchet gear , wherein the at least one locking element is movable from a first position to a second position in a radially outward direction based on an externally applied force, and wherein the at least one locking element of the first cover is engaged with at least one of the plurality of ratchet gear teeth of the ratchet gear . a first cover defining an aperture , and a ratchet gear , wherein the ratchet gear is disposed within the aperture of the first cover , characterized in that the first cover comprises at least one locking element disposed along the aperture ; and the ratchet gear comprises a plurality of ratchet gear teeth disposed on an outer surface of the ratchet gear , wherein the at least one locking element is movable from a first position to a second position in a radially outward direction based on an externally applied force, and wherein the at least one locking element of the first cover is engaged with at least one of the plurality of ratchet gear teeth of the ratchet gear . wherein the at least one locking element is movable from a first position to a second position in a radially outward direction based on an externally applied force, and wherein the at least one locking element of the first cover is engaged with at least one of the plurality of ratchet gear teeth of the ratchet gear .
A radiating/receiving element (E2a) for a compact multiband base station antenna, said radiating/receiving element (E2a) comprising two radiating/receiving dipole parts (P1a, P2a) and a feeding and impedance matching circuit (C2a) coupled to the radiating/receiving dipole parts (P1a, P2a); wherein a multiplexer/demultiplexer (MD2a), for a plurality of frequency bands (F1a, F2a, F3a), is embedded into said feeding and impedance matching circuit (C2a) coupled to the radiating/receiving dipole parts (P1a, P2a),
A fluid analysis device , comprising: - a sensing device for analyzing a fluid sample, comprising a micro-fluidic component for propagating the fluid sample and a microchip configured for sensing the fluid sample in the micro-fluidic component ; - a sealed fluid compartment containing a further fluid, fluid-tight connected to the sensing device and adapted for providing the further fluid to the micro-fluidic component when the sealed fluid compartment is opened; and - an inlet for providing the fluid sample to the micro-fluidic component , wherein the microfluidic component is embedded in a substrate and the microchip is a lid adapted for at least partly closing the microfluidic component. - a sensing device for analyzing a fluid sample, comprising a micro-fluidic component for propagating the fluid sample and a microchip configured for sensing the fluid sample in the micro-fluidic component ; - a sealed fluid compartment containing a further fluid, fluid-tight connected to the sensing device and adapted for providing the further fluid to the micro-fluidic component when the sealed fluid compartment is opened; and - an inlet for providing the fluid sample to the micro-fluidic component , wherein the microfluidic component is embedded in a substrate and the microchip is a lid adapted for at least partly closing the microfluidic component.
A method of performing device-to-device, D2D, data transmission using resources of an identified set of subframes, the method comprising the steps of: identifying a device-to-device transmission pattern, DTP, index based on received D2D control information received via a physical downlink control channel, PDCCH, wherein the DTP specifies a time interval during which D2D transmissions are permitted; determining a DTP bitmap corresponding to the DTP index; identifying a set of subframes comprising D2D transmission resources based on the DTP bitmap; and performing D2D data transmission using resources of the identified set of subframes. identifying a device-to-device transmission pattern, DTP, index based on received D2D control information received via a physical downlink control channel, PDCCH, wherein the DTP specifies a time interval during which D2D transmissions are permitted; determining a DTP bitmap corresponding to the DTP index; identifying a set of subframes comprising D2D transmission resources based on the DTP bitmap; and performing D2D data transmission using resources of the identified set of subframes.
A method of controlling a blood analyzer for measuring platelets, comprising: determining a relationship between at least one first measurement value obtained by detecting platelets in a blood sample of a patient in at least one previous test by an electrical type detector (D1) of the blood analyzer and at least one second measurement value obtained by detecting platelets in a blood sample of the same patient in the at least one previous test by an optical type detector (D3) of the blood analyzer, and controlling the blood analyzer to prepare, from a blood sample of the same patient, a first measurement sample for the electrical type detector and a second measurement sample for the optical type detector for a current test or to prepare only the first measurement sample for the electrical type detector according to the determined relationship. determining a relationship between at least one first measurement value obtained by detecting platelets in a blood sample of a patient in at least one previous test by an electrical type detector (D1) of the blood analyzer and at least one second measurement value obtained by detecting platelets in a blood sample of the same patient in the at least one previous test by an optical type detector (D3) of the blood analyzer, and controlling the blood analyzer to prepare, from a blood sample of the same patient, a first measurement sample for the electrical type detector and a second measurement sample for the optical type detector for a current test or to prepare only the first measurement sample for the electrical type detector according to the determined relationship.
An air supply inlet assembly for a protective garment, wherein the assembly comprises a chamber through which an air supply is arranged to pass towards an inner part of the suit, the chamber including a first conical portion which is at least in part conical in which the first conical portion comprises an apex region, and wherein the apex region is directed towards the direction of incoming air, and air arranged to then pass through a number of through-holes at a periphery of the first conical portion and into a sub-chamber defined internally of and at least in part by the first conical portion, exiting the sub-chamber via an outlet of the sub-chamber, wherein the first conical portion, serving in use, to at least in part attenuate the sound of inflowing air and the assembly comprising a second conical portion , which is at least in part conical, arranged in a substantially opposite orientation to the first conical portion in which the second conical portion is provided with a through-hole to allow passage of air through to exit the sub-chamber .
A resin film formed of a resin containing an alicyclic structure-containing polymer having crystallizability, the resin film having: a folding endurance of 2,000 times or more, determined as described in the specification; a water-absorption rate of 0.1% or less, determined as described in the specification; a heat-resistant temperature of 180°C or higher, determined as described in the specification; a crystallinity degree of the alicyclic structure-containing polymer of 10% or more, determined by X-ray diffraction; and an absolute value |Δne| of a plane orientation coefficient Δne of 0.01 or more; wherein, Δne is represented by a formula "Δne = (nx + ny)/2 - nz", and nx represents a refractive index in a direction in which the maximum refractive index is given among in-plane directions perpendicular to a thickness direction of the resin film, ny represents a refractive index in a direction perpendicular to the direction giving nx among the in-plane directions of the resin film, and nz represents a refractive index in the thickness direction of the resin film. a folding endurance of 2,000 times or more, determined as described in the specification; a water-absorption rate of 0.1% or less, determined as described in the specification; a heat-resistant temperature of 180°C or higher, determined as described in the specification; a crystallinity degree of the alicyclic structure-containing polymer of 10% or more, determined by X-ray diffraction; and an absolute value |Δne| of a plane orientation coefficient Δne of 0.01 or more; wherein, Δne is represented by a formula "Δne = (nx + ny)/2 - nz", and nx represents a refractive index in a direction in which the maximum refractive index is given among in-plane directions perpendicular to a thickness direction of the resin film, ny represents a refractive index in a direction perpendicular to the direction giving nx among the in-plane directions of the resin film, and nz represents a refractive index in the thickness direction of the resin film.
An apparatus for processing sequential writes to a block group of physical blocks , comprising: memory dies to store data in addressable locations; a controller to perform write operations with respect to the memory dies , to: receive sequential write data for a plurality of consecutive logical addresses ; determine consecutive physical blocks comprising a block group, wherein each of the physical blocks has data for a plurality of the consecutive logical addresses ; write the sequential write data to consecutive physical data locations having data for the determined consecutive physical blocks of the block group; update block group metadata for the block group; indicate in the metadata for a first physical block of the consecutive physical blocks in the block group that the metadata for the first physical block comprises the block group metadata for the block group; and indicate in the metadata for the physical blocks in the block group following the first physical block that the metadata for the physical blocks do not comprise the block group metadata . memory dies to store data in addressable locations; a controller to perform write operations with respect to the memory dies , to: receive sequential write data for a plurality of consecutive logical addresses ; determine consecutive physical blocks comprising a block group, receive sequential write data for a plurality of consecutive logical addresses ; determine consecutive physical blocks comprising a block group, wherein each of the physical blocks has data for a plurality of the consecutive logical addresses ; write the sequential write data to consecutive physical data locations having data for the determined consecutive physical blocks of the block group; update block group metadata for the block group; indicate in the metadata for a first physical block of the consecutive physical blocks in the block group that the metadata for the first physical block comprises the block group metadata for the block group; and indicate in the metadata for the physical blocks in the block group following the first physical block that the metadata for the physical blocks do not comprise the block group metadata . write the sequential write data to consecutive physical data locations having data for the determined consecutive physical blocks of the block group; update block group metadata for the block group; indicate in the metadata for a first physical block of the consecutive physical blocks in the block group that the metadata for the first physical block comprises the block group metadata for the block group; and indicate in the metadata for the physical blocks in the block group following the first physical block that the metadata for the physical blocks do not comprise the block group metadata .