mhurhangee/ep-ind-claims huggingface dataset:
A disconnect mechanism, comprising: an output member and an input member, the output member configured to selectively rotationally drive the input member; a drive member configured to be rotationally driven; a driven member rotationally coupled to the drive member; a collar rotatably coupled to the driven member, where rotation of the drive member induces rotational and longitudinal movement of the collar along a longitudinal shaft, wherein the longitudinal shaft extends through the collar and is fixed longitudinally and rotationally with respect to the drive member; and a coupler member coupled to the collar, the coupler member adapted to removably couple the input member to the output member; wherein, as the collar moves longitudinally along the longitudinal shaft, the coupler member moves longitudinally between a first position in which the input member and output member are coupled and a second position in which the input member and output member are decoupled from one another. an output member and an input member, the output member configured to selectively rotationally drive the input member; a drive member configured to be rotationally driven; a driven member rotationally coupled to the drive member; a collar rotatably coupled to the driven member, where rotation of the drive member induces rotational and longitudinal movement of the collar along a longitudinal shaft, wherein the longitudinal shaft extends through the collar and is fixed longitudinally and rotationally with respect to the drive member; and a coupler member coupled to the collar, the coupler member adapted to removably couple the input member to the output member; wherein, as the collar moves longitudinally along the longitudinal shaft, the coupler member moves longitudinally between a first position in which the input member and output member are coupled and a second position in which the input member and output member are decoupled from one another.
Light guide device for an outlet device (120, 230) for a hot drink machine, the outlet device (120, 230) being movable relative to a body of the hot drink machine and to a drink container placement portion of the hot drink machine, characterised in that the light guide device can be fastened to the outlet device (120, 230), it being possible to move the light guide device together with the outlet device (120, 230), the light guide device being designed having a linear light exit in order to guide light from at least one light source arranged in the outlet device (120, 230) to the drink container placement portion.
Infrastructure of a tropospheric wind generator comprising a variable geometry system for driving at least one sail, characterized in that said variable geometry system is composed of: - at least one pair of arms (11, 12) adapted to deviate tethers to be able to drive said sail to increase a wing opening of said sail to favour its take-off, and - junction means (31, 32, 41, 42, 51, 52) adapted to connect said pair of arms (11, 12) to a base of the infrastructure to be able to orient each one of said arms (11, 12) in elevation and swing by deviating said tethers for increasing said wing opening, characterized in that said junction means (31, 32, 41, 42, 51, 52) comprise a rotating base to allow a rotation (r-A) of the variable geometry system with respect to the infrastructure in order to position the sail according to a maximum power window, a pair of rotating hubs (41, 42) with respect to a first pin integral with said rotating base to allow orienting each one of said arms (11, 12) in elevation according to an angle (r-B1, r-B2), with respect to said rotating base, and independently, and a pair of second rotating hubs (51, 52) respectively with respect to said pair of hubs (41, 42) to allow orienting each one of said arms (11, 12) in swing according to an angle (r-G1, r-G2), with respect to said rotating base, and independently. - at least one pair of arms (11, 12) adapted to deviate tethers to be able to drive said sail to increase a wing opening of said sail to favour its take-off, and - junction means (31, 32, 41, 42, 51, 52) adapted to connect said pair of arms (11, 12) to a base of the infrastructure to be able to orient each one of said arms (11, 12) in elevation and swing by deviating said tethers for increasing said wing opening,
A method for simulating an oxidation process in a body, the body being a semiconductor, within which a boundary exists between particles of a first material to be oxidized and particles of a second material resulting from the oxidation of the first material, the boundary moving during the oxidation process, comprising: in a computer system, imposing a uniform grid of nodes in the body, the grid having three independent dimensions and having a uniform node spacing, the grid including a first portion; assigning exactly one particle of the body to each node in the first portion of the grid; providing a system of first node equations, including at least one node equation for each of a plurality of nodes of the first portion of the grid, the node equation or equations for each particular one of the nodes describing a concentration of oxygen at the particular node after each of a first plurality of time steps of the process; and the computer system iterating through the first plurality of the time steps to determine, from the node equations, the concentration of oxygen at the end of each of the time steps in the first plurality of time steps, and to re-assign, to each of the nodes which had been assigned a particle of the first material, a particle of the second material in dependence upon the concentration of oxygen at the node after the time step; wherein the uniform node spacing is a value that is within 10% of 0.27 nanometers. in a computer system, imposing a uniform grid of nodes in the body, the grid having three independent dimensions and having a uniform node spacing, the grid including a first portion; assigning exactly one particle of the body to each node in the first portion of the grid; providing a system of first node equations, including at least one node equation for each of a plurality of nodes of the first portion of the grid, the node equation or equations for each particular one of the nodes describing a concentration of oxygen at the particular node after each of a first plurality of time steps of the process; and the computer system iterating through the first plurality of the time steps to determine, from the node equations, the concentration of oxygen at the end of each of the time steps in the first plurality of time steps, and to re-assign, to each of the nodes which had been assigned a particle of the first material, a particle of the second material in dependence upon the concentration of oxygen at the node after the time step; wherein the uniform node spacing is a value that is within 10% of 0.27 nanometers.
An applicator for hair removal, the applicator (104, 802, 1000, 1100) being a fitting-the-palm casing having a first end that in use is applied to skin and a second end opposite to the first end, wherein the applicator comprises: - one or more illumination sources (216, 714) configured to provide illumination with one or more wavelengths; - an exchangeable mechanical hair removal mechanism; and - one or more sensors comprising a direction sensor configured to activate at least one illumination source (216, 714) according to the applicator (104, 802, 100, 1100) displacement direction when the applicator (104, 802, 1000, 1100) is applied to a subject skin (330, 1002) and displaced over the skin, - at least one cartridge (224, 702, 710) which packages the respective illumination source (216, 714), wherein each cartridge (224, 702, 710) is detachable from the applicator casing and has a freedom of movement with respect to the applicator casing, and wherein the applicator (104, 802, 100, 1100) further comprises RF electrodes configured to provide RF energy to a segment of skin being in contact with the electrodes and located between the electrodes, to induce current which heats the skin so as to weaken or destroy residual hair follicles and bulbs. - one or more illumination sources (216, 714) configured to provide illumination with one or more wavelengths; - an exchangeable mechanical hair removal mechanism; and - one or more sensors comprising a direction sensor configured to activate at least one illumination source (216, 714) according to the applicator (104, 802, 100, 1100) displacement direction when the applicator (104, 802, 1000, 1100) is applied to a subject skin (330, 1002) and displaced over the skin, - at least one cartridge (224, 702, 710) which packages the respective illumination source (216, 714), wherein each cartridge (224, 702, 710) is detachable from the applicator casing and has a freedom of movement with respect to the applicator casing, and wherein the applicator (104, 802, 100, 1100) further comprises RF electrodes configured to provide RF energy to a segment of skin being in contact with the electrodes and located between the electrodes, to induce current which heats the skin so as to weaken or destroy residual hair follicles and bulbs.
A tube seal device suitable for use in a heat exchange reactor comprising one or more tubes, said tube seal device comprising a seal tube and an inner tube disposed within the seal tube to provide an overlapping region, said inner tube having within said overlapping region, (i) an interior constriction of reduced cross sectional area forming a low-pressure region, (ii) an expansion region adjacent the constriction of cross sectional area greater than that of the constriction, and (iii) one or more passages through the wall of the inner tube connecting said low-pressure region to the exterior of the inner tube, characterised in that the tube seal device further comprises one or more grooves arranged to disrupt the flow of gas through the tube seal device, said one or more grooved being formed around an inner face of the seal tube in the overlapping region corresponding to the low-pressure region of the inner tube.
A touchscreen panel comprising: a plurality of touch electrodes, wherein a first touch electrode of the plurality of touch electrodes occupies a first area of the touchscreen panel and comprises a first mesh; at least one first dummy electrode disposed in a same layer of the touchscreen panel as the first mesh and in the first area, the at least one first dummy electrode being electrically disconnected from the first mesh; and wherein a second touch electrode of the plurality of touch electrodes occupies a second area of the touchscreen panel and comprises a second mesh, wherein the second area is smaller than the first area, and the touchscreen panel either: (a) further comprises at least one second dummy electrode in a same layer as the second mesh and in the second area, the at least one second dummy electrode being electrically disconnected from the second mesh, a second ratio of the area of the at least one second dummy electrode to the second area being lower than a first ratio of the area of the at least one first dummy electrode to the first area, or (b) includes dummy electrodes in only the first area of the touchscreen panel. a plurality of touch electrodes, wherein a first touch electrode of the plurality of touch electrodes occupies a first area of the touchscreen panel and comprises a first mesh; at least one first dummy electrode disposed in a same layer of the touchscreen panel as the first mesh and in the first area, the at least one first dummy electrode being electrically disconnected from the first mesh; and wherein a second touch electrode of the plurality of touch electrodes occupies a second area of the touchscreen panel and comprises a second mesh, wherein the second area is smaller than the first area, and the touchscreen panel either: (a) further comprises at least one second dummy electrode in a same layer as the second mesh and in the second area, the at least one second dummy electrode being electrically disconnected from the second mesh, a second ratio of the area of the at least one second dummy electrode to the second area being lower than a first ratio of the area of the at least one first dummy electrode to the first area, or (b) includes dummy electrodes in only the first area of the touchscreen panel. (a) further comprises at least one second dummy electrode in a same layer as the second mesh and in the second area, the at least one second dummy electrode being electrically disconnected from the second mesh, a second ratio of the area of the at least one second dummy electrode to the second area being lower than a first ratio of the area of the at least one first dummy electrode to the first area, or (b) includes dummy electrodes in only the first area of the touchscreen panel.
A power tool comprising: a housing; a brushless DC motor housed inside the housing, the motor comprising a rotor, a stator, and at least one sensor positioned to sense a state of the rotational position of the rotor inside the stator; a power supply; an input unit actuated by a user comprising a variable-speed actuator; and a control unit configured to control commutation of the motor through a plurality of power switches (312, 314, 316, 322, 324, 326) coupled to the power supply, the control unit receiving a current sensor state from the sensor and a user-selected speed from the variable-speed actuator, wherein the control unit is further configured to determine whether the motor has reversed direction using the user-selected speed and the current sensor state characterized in that the control unit is further configured to disable commutation of the motor if the motor has reversed direction until a proper current sensor state is received from the sensor; wherein the control unit is further configured to utilize a sensor transition table to determine an expected sensor state based on a previous sensor state and to determine that the motor has reversed direction if the current sensor state is different from the expected sensor state; wherein the control unit is further configured to commutate with angle-advancing if the user-selected speed is above a predetermined speed threshold and without angle-advancing if the user-selected speed is below the predetermined speed threshold. a housing; a brushless DC motor housed inside the housing, the motor comprising a rotor, a stator, and at least one sensor positioned to sense a state of the rotational position of the rotor inside the stator; a power supply; an input unit actuated by a user comprising a variable-speed actuator; and a control unit configured to control commutation of the motor through a plurality of power switches (312, 314, 316, 322, 324, 326) coupled to the power supply, the control unit receiving a current sensor state from the sensor and a user-selected speed from the variable-speed actuator, wherein the control unit is further configured to determine whether the motor has reversed direction using the user-selected speed and the current sensor state characterized in that the control unit is further configured to disable commutation of the motor if the motor has reversed direction until a proper current sensor state is received from the sensor; wherein the control unit is further configured to utilize a sensor transition table to determine an expected sensor state based on a previous sensor state and to determine that the motor has reversed direction if the current sensor state is different from the expected sensor state; wherein the control unit is further configured to commutate with angle-advancing if the user-selected speed is above a predetermined speed threshold and without angle-advancing if the user-selected speed is below the predetermined speed threshold.
A three-section synchronous slide rail, comprising: two sets of slide rail (1a, 1b) assemblies, wherein the two sets of the slide rail (1a, 1b) assemblies are respectively installed with synchronization components, the slide rail (1a, 1b) assemblies respectively comprise a fixed rail, a middle rail and a sliding rail, the synchronization components respectively comprise a flexible deflector unit and a roller provided on the middle rail, the flexible deflector unit is respectively connected with the fixed rail and the sliding rail, wherein the middle rail is further connected with a rope base, the rope base is capable of rotating on the middle rail, a first end of the flexible deflector unit is wound around a first end of the rope base and then fixed to the rope base. and a second end of the flexible deflector unit bypasses the roller, then is reversely wound on a second end of the rope base and fixed to the rope base, and a connecting rod is connected between the rope bases of the two sets of the slide rail assemblies (1a, 1b).
A copper compound represented by General Formula below: wherein R 1 to R 3 independently represent a linear or branched alkyl group with a carbon number of 1 to 5; characterized in that when R 1 and R 2 are a methyl group, R 3 represents a linear or branched alkyl group with a carbon number of 2 to 5; and when R 1 is a methyl group and R 2 is an ethyl group, R 3 represents a methyl group or a linear or branched alkyl group with a carbon number of 3 to 5. wherein R 1 to R 3 independently represent a linear or branched alkyl group with a carbon number of 1 to 5; characterized in that when R 1 and R 2 are a methyl group, R 3 represents a linear or branched alkyl group with a carbon number of 2 to 5; and when R 1 is a methyl group and R 2 is an ethyl group, R 3 represents a methyl group or a linear or branched alkyl group with a carbon number of 3 to 5.
A registration terminal comprising: an encryption unit to, taking as input an access range X that indicates a range for permitting access and a registration range X' that indicates a range for permitting registration, generate a key K and a ciphertext CT x in which the access range X and the registration range X' are set and in which the key K is encrypted; a key registration unit to register a set of the access range X, the registration range X', and the ciphertext CT x generated by the encryption unit in a key server; a ciphertext acquisition unit to transmit an attribute Y' and range information X ∗ that indicates a range to the key server, and acquire a ciphertext CT x in which an access range X indicating a same range as the range information X ∗ is set and in which a registration range X' whose range for permitting registration includes the attribute Y' is set; a decryption unit to decrypt the ciphertext CT x acquired by the ciphertext acquisition unit with a decryption key sk Y' in which the attribute Y' is set, so as to generate a key K; a tag generation unit to generate a tag t for searching, taking as input the key K generated by the decryption unit and a keyword w for searching; and a tag registration unit to register the tag t generated by the tag generation unit in a search server. an encryption unit to, taking as input an access range X that indicates a range for permitting access and a registration range X' that indicates a range for permitting registration, generate a key K and a ciphertext CT x in which the access range X and the registration range X' are set and in which the key K is encrypted; a key registration unit to register a set of the access range X, the registration range X', and the ciphertext CT x generated by the encryption unit in a key server; a ciphertext acquisition unit to transmit an attribute Y' and range information X ∗ that indicates a range to the key server, and acquire a ciphertext CT x in which an access range X indicating a same range as the range information X ∗ is set and in which a registration range X' whose range for permitting registration includes the attribute Y' is set; a decryption unit to decrypt the ciphertext CT x acquired by the ciphertext acquisition unit with a decryption key sk Y' in which the attribute Y' is set, so as to generate a key K; a tag generation unit to generate a tag t for searching, taking as input the key K generated by the decryption unit and a keyword w for searching; and a tag registration unit to register the tag t generated by the tag generation unit in a search server.
A transluminal delivery system including a self-expanding luminal prosthesis, the system comprising an inner catheter component and a retractable sheath to surround the component, thereby to define a space to receive the prosthesis, the component exhibiting an anti-sliding component for abutting a luminal surface portion of the prosthesis to restrain the prosthesis from sliding with the sheath, and relative to the inner catheter, while the sheath retracts relative to the prosthesis to release the prosthesis progressively into the target bodily lumen wherein the anti-sliding component is or includes at least one sleeve having a length direction parallel to the longitudinal axis of the annular space and having at least one bound portion of its length that is not free to slide on the inner catheter, and at least one unbound portion of its length able to slide axially on the inner catheter and thereby to swell radially, to deliver an increase in the radial thickness of the sleeve, while the sheath retracts, such that the abluminal surface of the sleeve is able to frictionally engage the luminal surface of the prosthesis, characterised in that: the unbound portions are arranged to crumple into a corrugated form, when the stent slides, relative to the inner catheter, in a direction from the unbound portion towards the bound portion. the unbound portions are arranged to crumple into a corrugated form, when the stent slides, relative to the inner catheter, in a direction from the unbound portion towards the bound portion.
Method for attaching a hollow element such as a hollow rivet or a nut element for attachment to a component consisting of a composite material such as a fiber reinforced plastic part or a fabric reinforced plastic part, wherein the element has a flange part and a shaft part extending away from the flange part and a rivet section, wherein the rivet section can also be formed at the free end of the shaft part, wherein the hollow element furthermore has a central passage, which is optionally provided with a thread cylinder, wherein the hollow element is used in combination with an auxiliary tip which is either inserted from the flange side of the element through the passage or from the side of the free end of the shaft part of the rivet section into the passage such that a conically converging region of the auxiliary tip projects from the free end of the shaft part or of the rivet section, respectively, wherein the free end of the hollow shaft part of the element, or the free end of the rivet section, has a conically converging form which is matched to the conical shape of the auxiliary tip that is used, wherein a die bottom with a ring nose extending around a central passage and being arranged concentric to a longitudinal axis is provided, said passage having an internal diameter which corresponds to the maximum diameter of the auxiliary tip or is fractionally larger, wherein when the hollow element is pressed from above onto the die bottom, the ring nose engages at the inner side of the rivet section and dilates the free end of the hollow shaft of the element or the rivet section into a rivet bead.