mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing an optical probe for use in ophthalmic procedures, comprising: positioning a cannula around a distal portion of a ferrule , wherein an optical fiber extends at least partially through the ferrule towards an optical element disposed within a distal portion of the cannula; coupling the cannula to the ferrule by applying laser energy to the cannula to generate a plurality of engaged deformations in the cannula and ferrule ; characterized in the cannula is coupled to the ferrule by generating a plurality of engaged deformations that extend to different depths by applying laser energy of selected different pulse duration. positioning a cannula around a distal portion of a ferrule , wherein an optical fiber extends at least partially through the ferrule towards an optical element disposed within a distal portion of the cannula; coupling the cannula to the ferrule by applying laser energy to the cannula to generate a plurality of engaged deformations in the cannula and ferrule ; characterized in the cannula is coupled to the ferrule by generating a plurality of engaged deformations that extend to different depths by applying laser energy of selected different pulse duration.
A method of providing time synchronization of facility wide data between a process automation system with one or more control devices to control one or more processes and an electrical automation system with one or more intelligent electrical devices, IEDs, to provide power to the process automation system , the method comprising: distributing a time signal from a timing device through a first network operatively coupled with the control devices of the process automation system ; and distributing the time signal from the timing device through a second network operatively coupled with the lEDs of the electrical automation system ; the method further comprising: providing, by the one or more control devices, consolidate information regarding energy consumption as well as process control states and machine status information; and shutting down a process of the one or more processes during a peak demand time period. distributing a time signal from a timing device through a first network operatively coupled with the control devices of the process automation system ; and distributing the time signal from the timing device through a second network operatively coupled with the lEDs of the electrical automation system ; the method further comprising: providing, by the one or more control devices, consolidate information regarding energy consumption as well as process control states and machine status information; and shutting down a process of the one or more processes during a peak demand time period. providing, by the one or more control devices, consolidate information regarding energy consumption as well as process control states and machine status information; and shutting down a process of the one or more processes during a peak demand time period.
An ultrasonic welding device comprising: a support device configured so as to support a work piece (W) along a predetermined conveyance surface, and a welding machine including an oscillator for generating a high-frequency electric signal, a transducer for converting the high-frequency electric signal to a mechanical vibration, and a horn to which the mechanical vibration is transmitted, the horn being disposed so as to face a part to be welded of the work piece (W) supported along the conveyance surface, and the mechanical vibration being imparted via the horn to the part to be welded, whereby the part to be welded is welded, characterized in that the ultrasonic welding device further comprises: a detector for detecting an abnormality in the part to be welded of the work piece (W), the detector being disposed further upstream in the conveyance direction of the work piece (W) than the support device , and a protective device for prohibiting the welding machine from welding the part to be welded of the work piece (W) in which the abnormality is detected by the detector . a support device configured so as to support a work piece (W) along a predetermined conveyance surface, and a welding machine including an oscillator for generating a high-frequency electric signal, a transducer for converting the high-frequency electric signal to a mechanical vibration, and a horn to which the mechanical vibration is transmitted, the horn being disposed so as to face a part to be welded of the work piece (W) supported along the conveyance surface, and the mechanical vibration being imparted via the horn to the part to be welded, whereby the part to be welded is welded, characterized in that the ultrasonic welding device further comprises: a detector for detecting an abnormality in the part to be welded of the work piece (W), the detector being disposed further upstream in the conveyance direction of the work piece (W) than the support device , and a protective device for prohibiting the welding machine from welding the part to be welded of the work piece (W) in which the abnormality is detected by the detector . a detector for detecting an abnormality in the part to be welded of the work piece (W), the detector being disposed further upstream in the conveyance direction of the work piece (W) than the support device , and a protective device for prohibiting the welding machine from welding the part to be welded of the work piece (W) in which the abnormality is detected by the detector .
An aircraft galley cart , comprising: a left-side compartment having at least one left-side door and a right-side compartment having at least one right-side door , the left-side compartment and the right-side compartment hingedly coupled, the left-side compartment accessible via the at least one left-side door and the right-side compartment accessible via the at least one right-side door; the aircraft galley cart having a default configuration associated with a first cart width and a deployed configuration associated with a second cart width substantially half of the first cart width, the left-side compartment adjacent to the right-side compartment in both the default and deployed configurations and sharing with the right-side compartment a common lateral surface when in the deployed configuration, the left-side compartment hingedly articulable relative to the right-side compartment to transition the aircraft galley cart between the default configuration and the deployed configuration ; a plurality of main casters attached to an underside of the left-side compartment or the right-side compartment, the aircraft galley cart capable of travel along an aircraft floor via the plurality of main casters; and a plurality of auxiliary casters stowed within one of the common lateral surface or the underside of the left-side compartment or the right-side compartment, the plurality of auxiliary casters configured to stabilize the aircraft galley cart by deploying when in the deployed configuration. a left-side compartment having at least one left-side door and a right-side compartment having at least one right-side door , the left-side compartment and the right-side compartment hingedly coupled, the left-side compartment accessible via the at least one left-side door and the right-side compartment accessible via the at least one right-side door; the aircraft galley cart having a default configuration associated with a first cart width and a deployed configuration associated with a second cart width substantially half of the first cart width, the left-side compartment adjacent to the right-side compartment in both the default and deployed configurations and sharing with the right-side compartment a common lateral surface when in the deployed configuration, the left-side compartment hingedly articulable relative to the right-side compartment to transition the aircraft galley cart between the default configuration and the deployed configuration ; a plurality of main casters attached to an underside of the left-side compartment or the right-side compartment, the aircraft galley cart capable of travel along an aircraft floor via the plurality of main casters; and a plurality of auxiliary casters stowed within one of the common lateral surface or the underside of the left-side compartment or the right-side compartment, the plurality of auxiliary casters configured to stabilize the aircraft galley cart by deploying when in the deployed configuration.
A composition for use in the treatment of a malignant neoplasm of the central nervous system, said composition comprising an antibody specifically binding to an integrin alpha 10 subunit.
A ring laser gyroscope , comprising: an optical block that defines an optical closed loop pathway ; at least one mirror structure mounted on the optical block and in optical communication with the optical closed loop pathway; at least one volume Bragg grating mounted on the optical block and in optical communication with the optical closed loop pathway; and a first pump laser in optical communication with the volume Bragg grating, the first pump laser operative to emit a light beam at a selected incident angle such that the light beam passes through the volume Bragg grating and overlaps with the optical closed loop pathway; wherein the volume Bragg grating is operative as a gain medium to increase an optical power of the light beam; wherein a pair of counter-propagating light beams is produced within the optical closed loop pathway from the light beam; wherein the mirror structure and the volume Bragg grating are positioned and appropriately angled to reflect the counter-propagating light beams around the optical closed loop pathway. an optical block that defines an optical closed loop pathway ; at least one mirror structure mounted on the optical block and in optical communication with the optical closed loop pathway; at least one volume Bragg grating mounted on the optical block and in optical communication with the optical closed loop pathway; and a first pump laser in optical communication with the volume Bragg grating, the first pump laser operative to emit a light beam at a selected incident angle such that the light beam passes through the volume Bragg grating and overlaps with the optical closed loop pathway; wherein the volume Bragg grating is operative as a gain medium to increase an optical power of the light beam; wherein a pair of counter-propagating light beams is produced within the optical closed loop pathway from the light beam; wherein the mirror structure and the volume Bragg grating are positioned and appropriately angled to reflect the counter-propagating light beams around the optical closed loop pathway.
A temperature-sensing bulb support for an air-conditioner indoor unit, characterized by comprising: a support body, wherein the support body is adapted to be fixed to a housing of the air-conditioner indoor unit, the support body defines a filter mesh positioning groove configured to accommodate an end frame bar of a filter mesh, the support body further defines a temperature-sensing bulb accommodating groove configured to accommodate a temperature-sensing bulb, the temperature-sensing bulb accommodating groove is isolated from the filter mesh positioning groove by a partition wall, and the temperature-sensing bulb accommodating groove is located outside the filter mesh positioning groove ; wherein the temperature-sensing bulb accommodating groove is U-shaped and defined by a first side wall , a second side wall and a first connecting wall connected between the first side wall and the second side wall , and the filter mesh positioning groove is U-shaped and defined by a third side wall and a second connecting wall connected between the third side wall and the second side wall ; and wherein an end of the first side wall away from the first connecting wall is provided with a fixation plate , and the fixation plate is adapted to be fixed to the housing of the air-conditioner indoor unit; and wherein a perpendicular distance (H1) between the fixation plate and the first connecting wall is greater than a perpendicular distance (H2) between the second connecting wall and the first connecting wall . wherein the temperature-sensing bulb accommodating groove is U-shaped and defined by a first side wall , a second side wall and a first connecting wall connected between the first side wall and the second side wall , and the filter mesh positioning groove is U-shaped and defined by a third side wall and a second connecting wall connected between the third side wall and the second side wall ; and wherein an end of the first side wall away from the first connecting wall is provided with a fixation plate , and the fixation plate is adapted to be fixed to the housing of the air-conditioner indoor unit; and wherein a perpendicular distance (H1) between the fixation plate and the first connecting wall is greater than a perpendicular distance (H2) between the second connecting wall and the first connecting wall .
Device for manually applying a label to a predetermined object , the device comprising a first receptacle designed to receive and hold the label and a second receptacle designed to receive and hold the object in a predetermined position relative to the first receptacle , the second receptacle being adjacent to the first receptacle and having a window opening onto the first receptacle so that the label can be applied in whole or in part to the object , wherein the first receptacle comprises a base having a surface (12A1) forming a support for the label, and at least one holding element designed to limit the movement of the label relative to the surface (12A1), wherein the holding element comprises at least one stop (12C3), the device comprising at least one groove adjacent to the surface (12A1), the groove having a bottom (12C3) forming an angle with the surface (12A1), the bottom (12C3) forming the stop (12C3).
A damping system for damping torsional oscillation in a drive shaft of a generator providing a direct current, DC, link voltage across a load resistance shunted by a DC link capacitor smoothing the DC link voltage , the damping system comprising: a sensor disposed to measure an amplitude of a speed ripple of the drive shaft ; and a feedforward circuit connected to the sensor and to the generator , the feedforward circuit configured to determine a phase angle (34; Φ) formed by the load resistance and a load capacitance of the DC link capacitor , calculate a voltage signal value based on the amplitude and the phase angle , and adjust the DC link voltage according to the voltage signal value . a sensor disposed to measure an amplitude of a speed ripple of the drive shaft ; and a feedforward circuit connected to the sensor and to the generator , the feedforward circuit configured to determine a phase angle (34; Φ) formed by the load resistance and a load capacitance of the DC link capacitor , calculate a voltage signal value based on the amplitude and the phase angle , and adjust the DC link voltage according to the voltage signal value .
A demodulation reference signal transmission method, characterized by comprising: receiving , by a terminal device, physical layer signaling, wherein the physical layer signaling comprises configuration information, and the configuration information is used to indicate a time domain resource of a demodulation reference signal; determining , by the terminal device, the time domain resource of the demodulation reference signal according to the configuration information; and sending , by the terminal device, the demodulation reference signal and a first physical channel, wherein the demodulation reference signal is for demodulation of the first physical channel, wherein the configuration information is used to indicate one of N demodulation reference signal time domain configurations, wherein N is a positive integer, wherein the demodulation reference signal and the first physical channel are located in a same timeslot or subframe, and the configuration information is used to indicate that the demodulation reference signal is located on an a th symbol in the timeslot or in a b th symbol in the subframe, where a is 1 or 4, and b is 1, 4, 8 or 11. receiving , by a terminal device, physical layer signaling, wherein the physical layer signaling comprises configuration information, and the configuration information is used to indicate a time domain resource of a demodulation reference signal; determining , by the terminal device, the time domain resource of the demodulation reference signal according to the configuration information; and sending , by the terminal device, the demodulation reference signal and a first physical channel, wherein the demodulation reference signal is for demodulation of the first physical channel, wherein the configuration information is used to indicate one of N demodulation reference signal time domain configurations, wherein N is a positive integer, wherein the demodulation reference signal and the first physical channel are located in a same timeslot or subframe, and the configuration information is used to indicate that the demodulation reference signal is located on an a th symbol in the timeslot or in a b th symbol in the subframe, where a is 1 or 4, and b is 1, 4, 8 or 11.
Composition for use in the topical treatment of a skin malignancy, wherein said composition comprises a plurality of taxane nanoparticles suspended within the composition, wherein the taxane nanoparticles are uncoated neat individual particles selected from paclitaxel nanoparticles and docetaxel nanoparticles having a mean particle size based on a number distribution from 0.1 microns to 1.5 microns and a specific surface area (SSA) of at least 18 m 2 /g, the specific surface area (SSA) being the total surface area of the taxane nanoparticle per unit of taxane mass as measured by the Brunauer-Emmett-Teller (BET) isotherm in accordance with the description, and the composition is anhydrous and hydrophobic and comprises greater than 50% w/w of the composition of a hydrophobic carrier and 5 to 24% w/w of the composition of one or more volatile silicone fluids.
Electric installation cabinet for an outdoor area comprising a bottom plate , a cabinet and a foundation structure , wherein said bottom plate is provided with a first area and a second area, wherein said first area has an aperture for cable entry into said cabinet , and fastening means for attaching and mounting said cabinet , where the bottom plate in said first area has an opening path which connects said aperture to a free edge of the plate allowing cable entry into said aperture through said opening path in said first area of the bottom plate , such that a cable is passed with its longitudinal axis substantially orthogonal to a plane of the bottom plate through the opening path into the aperture , wherein said second area is different from said first area, and said second area is provided with means for mounting said bottom plate to said foundation structure , and where said second area is not covered by said cabinet , and said cabinet is arranged in an offset position to the foundation structure .
An intraocular lens , comprising: an optic portion ; and a peripheral portion , wherein an outer periphery of the optic portion has a peripheral surface , wherein a radially inner portion of the peripheral portion of the intraocular lens has an inner surface, wherein the peripheral surface is directly adjacent to the inner surface, and wherein the peripheral surface does not directly extend from the inner surface, and wherein the peripheral surface comprises a depression and wherein at least a portion of the inner surface is disposed in the depression such that the peripheral portion and the optic portion are stabilized with respect to one another, in at least one of the proximal and distal directions when the peripheral surface is directly adjacent to the inner surface but is not directly attached to the inner surface. an optic portion ; and a peripheral portion , wherein an outer periphery of the optic portion has a peripheral surface , wherein a radially inner portion of the peripheral portion of the intraocular lens has an inner surface, wherein the peripheral surface is directly adjacent to the inner surface, and wherein the peripheral surface does not directly extend from the inner surface, and wherein the peripheral surface comprises a depression and wherein at least a portion of the inner surface is disposed in the depression such that the peripheral portion and the optic portion are stabilized with respect to one another, in at least one of the proximal and distal directions when the peripheral surface is directly adjacent to the inner surface but is not directly attached to the inner surface. wherein an outer periphery of the optic portion has a peripheral surface , wherein a radially inner portion of the peripheral portion of the intraocular lens has an inner surface, wherein the peripheral surface is directly adjacent to the inner surface, and wherein the peripheral surface does not directly extend from the inner surface, and wherein the peripheral surface comprises a depression and wherein at least a portion of the inner surface is disposed in the depression such that the peripheral portion and the optic portion are stabilized with respect to one another, in at least one of the proximal and distal directions when the peripheral surface is directly adjacent to the inner surface but is not directly attached to the inner surface.
A pneumatic tire comprising annular bead cores embedded in bead portions , and a carcass layer locked on the bead cores , wherein each of the bead cores comprises a cable bead structure in which a composite cord is spirally wound around an annular core body , the composite cord comprising a core wire comprising carbon fibers and a plurality of siding wires comprising glass fibers disposed around the core wire.