mhurhangee/patent-ind-claim-en huggingface dataset:
A memory device comprising: a first clock generator configured to generate a first clock signal (RCLKb) used for read and write operations; a second clock generator configured to generate a second clock signal (WCLKb) used for write operations; a memory array comprising memory cells and dummy cells ; characterised in that : the first clock generator comprises a first circuit configured to generate leading edges on the first clock signal based on an external clock signal (CLK) and to generate trailing edges on the first clock signal based on a first reset signal, the second clock generator is configured to receive a second reset signal and the external clock signal, wherein a reset circuit is configured to generate the first reset signal (Reset_R) for the first clock generator and the second reset signal (Reset_W) for the second clock generator. a first clock generator configured to generate a first clock signal (RCLKb) used for read and write operations; a second clock generator configured to generate a second clock signal (WCLKb) used for write operations; a memory array comprising memory cells and dummy cells ; characterised in that : the first clock generator comprises a first circuit configured to generate leading edges on the first clock signal based on an external clock signal (CLK) and to generate trailing edges on the first clock signal based on a first reset signal, the second clock generator is configured to receive a second reset signal and the external clock signal, wherein a reset circuit is configured to generate the first reset signal (Reset_R) for the first clock generator and the second reset signal (Reset_W) for the second clock generator. the first clock generator comprises a first circuit configured to generate leading edges on the first clock signal based on an external clock signal (CLK) and to generate trailing edges on the first clock signal based on a first reset signal, the second clock generator is configured to receive a second reset signal and the external clock signal, wherein a reset circuit is configured to generate the first reset signal (Reset_R) for the first clock generator and the second reset signal (Reset_W) for the second clock generator.
An active inertial damper system for damping vibrations (V1,V2) in a structure , the system comprising - a support frame configured for attachment to the structure to be damped; - an inertial mass supported by the support frame via spring means to form a mass-spring system having a resonance frequency (fn); - a force actuator configured to apply a variable driving force (Fd) between the inertial mass and the support frame ; - a vibration sensor configured to measure vibrations (V1,V2) in the structure to be damped; and - a controller configured to control the force actuator to adapt the driving force (Fd) as a function of the measured vibrations (V1,V2), wherein the controller comprises a filter (H) determining a magnitude (M) of the driving force (Fd) as a function of frequency (f) for suppressing the measured vibrations (V1,V2) in the structure , wherein the filter (H) is configured to provide increased magnitude (M) of the driving force (Fd) over a range (R) of predetermined damping frequencies that are above the resonance frequency (fn) of the mass-spring system and further configured to provide an anti-resonance dip in the magnitude (M) of the driving force (Fd) at the resonance frequency (fn) of the mass-spring system to suppress resonant behaviour of the mass-spring system itself . - a support frame configured for attachment to the structure to be damped; - an inertial mass supported by the support frame via spring means to form a mass-spring system having a resonance frequency (fn); - a force actuator configured to apply a variable driving force (Fd) between the inertial mass and the support frame ; - a vibration sensor configured to measure vibrations (V1,V2) in the structure to be damped; and - a controller configured to control the force actuator to adapt the driving force (Fd) as a function of the measured vibrations (V1,V2), wherein the controller comprises a filter (H) determining a magnitude (M) of the driving force (Fd) as a function of frequency (f) for suppressing the measured vibrations (V1,V2) in the structure , wherein the filter (H) is configured to provide increased magnitude (M) of the driving force (Fd) over a range (R) of predetermined damping frequencies that are above the resonance frequency (fn) of the mass-spring system and further configured to provide an anti-resonance dip in the magnitude (M) of the driving force (Fd) at the resonance frequency (fn) of the mass-spring system to suppress resonant behaviour of the mass-spring system itself .
A disc brake provided with a rotatable brake disc and a non-rotatable component comprising a brake caliper , wherein the brake caliper comprises a brake wear removal equipment configured to collect brake wear particles and to be connectable to a collection device, the brake wear removal equipment comprises at least one tube, a first end of which is configured to collect brake wear particles and a second end of which is connectable to the collection device, and the brake caliper is configured to accommodate brake pads , and the brake caliper comprises an actuator configured to move the brake pads in a direction toward the brake disc for performing braking, and at least one caliper releasing mechanism configured to move the brake pads in a direction away from the brake disc for releasing the braking, wherein the at least one caliper releasing mechanism comprises a pair of longitudinal spring elements , a first end (8.1, 8'.1) of which is respectively joined to one of the brake pads and second ends (8.2, 8'.2) of which are joined to one another and to the non-rotatable component such that the at least one caliper releasing mechanism is configured to be tensioned by a motion of the brake pads in the direction toward the brake disc , characterized in that the longitudinal spring elements (8 ') are respectively formed by one of the at least one tube, and the first ends (8'.1) of the tubes are respectively configured to collect brake wear particles and the second ends (8'.2) are connectable to the collection device. the brake caliper comprises a brake wear removal equipment configured to collect brake wear particles and to be connectable to a collection device, the brake wear removal equipment comprises at least one tube, a first end of which is configured to collect brake wear particles and a second end of which is connectable to the collection device, and the brake caliper is configured to accommodate brake pads , and the brake caliper comprises an actuator configured to move the brake pads in a direction toward the brake disc for performing braking, and at least one caliper releasing mechanism configured to move the brake pads in a direction away from the brake disc for releasing the braking, wherein the at least one caliper releasing mechanism comprises a pair of longitudinal spring elements , a first end (8.1, 8'.1) of which is respectively joined to one of the brake pads and second ends (8.2, 8'.2) of which are joined to one another and to the non-rotatable component such that the at least one caliper releasing mechanism is configured to be tensioned by a motion of the brake pads in the direction toward the brake disc , characterized in that the longitudinal spring elements (8 ') are respectively formed by one of the at least one tube, and the first ends (8'.1) of the tubes are respectively configured to collect brake wear particles and the second ends (8'.2) are connectable to the collection device.
A compound of Formula (I), having the following structure wherein, R 1 , R 2 , and R 3 are independently selected from C 1 -C 3 alkyl; m, m' and m" are integers, each independently selected from 3 to 100; n, n', and n" are integers, each independently selected from 1 to 100. R 1 , R 2 , and R 3 are independently selected from C 1 -C 3 alkyl; m, m' and m" are integers, each independently selected from 3 to 100; n, n', and n" are integers, each independently selected from 1 to 100.
A black film comprising: a thermoplastic resin (A) that contains two or more types of dyes other than black, wherein a thickness T is 45 to 550 μm, a total concentration C of the dyes other than black is 0.4 to 5 mass% with respect to the thermoplastic resin (A), the total concentration C of the dyes and the thickness T satisfy the following expression , in a L ∗ a ∗ b ∗ color system measurement compliant with JIS Z 8781-4, L ∗ (lightness) is no more than 10, an absolute value of a ∗ is no more than 2.0, and an absolute value of b ∗ is no more than 2.0, and a total light transmittance obtained after the black film is stretched twofold in one axial direction at a temperature higher than a glass transition temperature by 20°C is no more than 3.0%, C × T ≥ 210 wherein, in the expression , the unit of T is μm and the unit of C is mass%, and wherein the total light transmittance is determined with a spectrophotometer and the measurement is carried out with an A light source, at a viewing angle of 2°, and in a reflection mode in accordance with JIS Z8722. a thermoplastic resin (A) that contains two or more types of dyes other than black, wherein a thickness T is 45 to 550 μm, a total concentration C of the dyes other than black is 0.4 to 5 mass% with respect to the thermoplastic resin (A), the total concentration C of the dyes and the thickness T satisfy the following expression , in a L ∗ a ∗ b ∗ color system measurement compliant with JIS Z 8781-4, L ∗ (lightness) is no more than 10, an absolute value of a ∗ is no more than 2.0, and an absolute value of b ∗ is no more than 2.0, and a total light transmittance obtained after the black film is stretched twofold in one axial direction at a temperature higher than a glass transition temperature by 20°C is no more than 3.0%, C × T ≥ 210 wherein, in the expression , the unit of T is μm and the unit of C is mass%, and wherein the total light transmittance is determined with a spectrophotometer and the measurement is carried out with an A light source, at a viewing angle of 2°, and in a reflection mode in accordance with JIS Z8722.
A frame body for a battery pack , the frame body comprising a first bracket comprising a first mold chamber ; a second bracket connected end to end with the first bracket to form a receiving cavity (O), the second bracket comprising a second mold chamber ; and a block comprising a first reinforcement portion and a second reinforcement portion , wherein the first reinforcement portion is received in the first mold chamber , the second reinforcement portion is received in the second mold chamber , and the block is adapted to connect the first bracket with the second bracket , wherein the first bracket comprises a first outer top wall , the second bracket comprises a second outer top wall , and the first reinforcement portion is received in the first mold chamber of the first bracket and fixed to the first bracket , and the second reinforcement portion is received in the second mold chamber of the second bracket and fixed to the second bracket , characterized in that the first outer top wall is welded to the second outer top wall , and an end portion in a welding line between the first outer top wall and the second outer top wall close to an inner portion of the frame body is defined as a first line segment (L11), an outer surface of the block comprises a first region , and an orthographic projection of the first line segment (L11) on a plane where the first region is located falls within the first region such that the reinforcement structure is closer to the interior of the frame body than the welding line (L1). a first bracket comprising a first mold chamber ; a second bracket connected end to end with the first bracket to form a receiving cavity (O), the second bracket comprising a second mold chamber ; and a block comprising a first reinforcement portion and a second reinforcement portion , wherein the first reinforcement portion is received in the first mold chamber , the second reinforcement portion is received in the second mold chamber , and the block is adapted to connect the first bracket with the second bracket , wherein the first bracket comprises a first outer top wall , the second bracket comprises a second outer top wall , and the first reinforcement portion is received in the first mold chamber of the first bracket and fixed to the first bracket , and the second reinforcement portion is received in the second mold chamber of the second bracket and fixed to the second bracket , characterized in that the first outer top wall is welded to the second outer top wall , and an end portion in a welding line between the first outer top wall and the second outer top wall close to an inner portion of the frame body is defined as a first line segment (L11), an outer surface of the block comprises a first region , and an orthographic projection of the first line segment (L11) on a plane where the first region is located falls within the first region such that the reinforcement structure is closer to the interior of the frame body than the welding line (L1).
An optoelectronic device (5; 55; 60) comprising: light-emitting diodes (LED), each light-emitting diode comprising a semiconductor element corresponding to a nanowire, a microwire, and/or a nanometer- or micrometer-range pyramidal structure, and a shell at least partially covering the semiconductor element and adapted to emit a radiation; and for each light-emitting diode, a photoluminescent coating covering at least part of the shell and in contact with the shell or with the semiconductor element and adapted to convert by optical pumping the radiation emitted by the shell into another radiation, characterized in that the photoluminescent coating comprises a single quantum well, multiple quantum wells or a heterostructure. light-emitting diodes (LED), each light-emitting diode comprising a semiconductor element corresponding to a nanowire, a microwire, and/or a nanometer- or micrometer-range pyramidal structure, and a shell at least partially covering the semiconductor element and adapted to emit a radiation; and for each light-emitting diode, a photoluminescent coating covering at least part of the shell and in contact with the shell or with the semiconductor element and adapted to convert by optical pumping the radiation emitted by the shell into another radiation, characterized in that the photoluminescent coating comprises a single quantum well, multiple quantum wells or a heterostructure.
An aircraft wing assembly, comprising: an aircraft wing having a wing box; a winglet disposed at a wing tip of the aircraft wing and connected to the aircraft wing through the wing box; a connection part comprising a joint rib for being assembled with the wing box and a central joint for being assembled with the winglet; first and second shearing pins ; and a first bushing and a second bushing , wherein the joint rib has first and second shearing pins' holes for being pressed with the first and second shearing pins to form an interference fit, respectively; the central joint has a first and second bushing holes for being pressed with the first bushing and the second bushing to form an interference fit; a positional relationship between the first shearing pin's hole and the second shearing pin's hole is identical to that between the first bushing hole and the second bushing hole , such that when the winglet assembled with the central joint moves towards the wing box assembled with the joint rib , and when the first and second shearing pins are inserted into the first bushing hole and the second bushing hole on the central joint , respectively, a small clearance fit is achieved between the first and second shearing pins and the first bushing and the second bushing , respectively, wherein the second bushing hole is larger than the first bushing hole , and the connection part further comprises a third bushing larger than the second bushing for being pressed into the second bushing hole , such that the second bushing is pressed into the third bushing to form an interference fit. an aircraft wing having a wing box; a winglet disposed at a wing tip of the aircraft wing and connected to the aircraft wing through the wing box; a connection part comprising a joint rib for being assembled with the wing box and a central joint for being assembled with the winglet; first and second shearing pins ; and a first bushing and a second bushing , wherein the joint rib has first and second shearing pins' holes for being pressed with the first and second shearing pins to form an interference fit, respectively; the central joint has a first and second bushing holes for being pressed with the first bushing and the second bushing to form an interference fit; a positional relationship between the first shearing pin's hole and the second shearing pin's hole is identical to that between the first bushing hole and the second bushing hole , such that when the winglet assembled with the central joint moves towards the wing box assembled with the joint rib , and when the first and second shearing pins are inserted into the first bushing hole and the second bushing hole on the central joint , respectively, a small clearance fit is achieved between the first and second shearing pins and the first bushing and the second bushing , respectively, wherein the second bushing hole is larger than the first bushing hole , and the connection part further comprises a third bushing larger than the second bushing for being pressed into the second bushing hole , such that the second bushing is pressed into the third bushing to form an interference fit.
A vertical cavity surface emitting device comprising: a substrate ; a first multilayer film reflecting mirror formed on the substrate; a light-emitting structure layer (EM) that is formed on the first multilayer film reflecting mirror and includes a light-emitting layer ; and a second multilayer film reflecting mirror formed on the light-emitting structure layer, a resonator (OC) being constituted between the second multilayer film reflecting mirror and the first multilayer film reflecting mirror, wherein the light-emitting structure layer (EM) includes a low resistance region (LR) and a high resistance region (HR), the low resistance region is disposed in a ring shape between the first multilayer film reflecting mirror and the second multilayer film reflecting mirror, and the high resistance region is formed inside the low resistance region and has an electrical resistance higher than an electrical resistance of the low resistance region, characterized in that the resonator (OC) includes a ring-shaped region (R2), a central region (R1), and an outer region (R3), the ring-shaped region corresponds to the low resistance region of the light-emitting structure layer and extends between the first and the second multilayer film reflecting mirrors, the central region is disposed corresponding to the high resistance region inside the ring-shaped region, and the outer region is disposed outside the ring-shaped region, and the central region (R1) and the outer region (R3) have equivalent refractive indexes lower than an equivalent refractive index of the ring-shaped region (R2). a substrate ; a first multilayer film reflecting mirror formed on the substrate; a light-emitting structure layer (EM) that is formed on the first multilayer film reflecting mirror and includes a light-emitting layer ; and a second multilayer film reflecting mirror formed on the light-emitting structure layer, a resonator (OC) being constituted between the second multilayer film reflecting mirror and the first multilayer film reflecting mirror, wherein the light-emitting structure layer (EM) includes a low resistance region (LR) and a high resistance region (HR), the low resistance region is disposed in a ring shape between the first multilayer film reflecting mirror and the second multilayer film reflecting mirror, and the high resistance region is formed inside the low resistance region and has an electrical resistance higher than an electrical resistance of the low resistance region, characterized in that the resonator (OC) includes a ring-shaped region (R2), a central region (R1), and an outer region (R3), the ring-shaped region corresponds to the low resistance region of the light-emitting structure layer and extends between the first and the second multilayer film reflecting mirrors, the central region is disposed corresponding to the high resistance region inside the ring-shaped region, and the outer region is disposed outside the ring-shaped region, and the central region (R1) and the outer region (R3) have equivalent refractive indexes lower than an equivalent refractive index of the ring-shaped region (R2).
Crimping tool comprising crimping jaws , the crimping jaws , by means of assigned end regions of the crimp indentor, being rotatably mounted about an axis of rotation for swivelling into a crimp end position in order to form a crimping region, the crimping jaws each having an action surface forming part of the crimping region, the action surface , in a plan view of the crimping jaw in which the axis of rotation is formed in a point shape, being convexly curved and ending in a jaw tip on the crimping region side and the jaw tip of a first crimping jaw moving, in the course of the swivelling in along the convexly curved action surface of an adjacent, simultaneously swivelling second crimping jaw , in the direction of the jaw tip of this second crimping jaw , the crimping jaw also having, with regard to its action surface , a circular segment line having a radius (R), and wherein there is a distance (d) between the axis of rotation and the jaw tip , characterised in that the action surface is formed by a plurality of ribs which extend starting from an action base surface transversely to the axis of rotation , and in that the radius (R) is greater than the distance (d).