mhurhangee/patent-ind-claim-en huggingface dataset:
A universal solar module box mounted on a solar module , comprising: a junction box platform having a base plate , a blade block , and a cover , the blade block having a first electrical conducting blade and a second electrical conducting blade ; a modular diode block electrically and mechanically coupleable to the junction box platform via the blade block, the modular diode block having a first spring connector and a second spring connector , the first blade of the blade block extending through the base plate and protruding through the modular diode block for establishing an electrical connection between the first blade of the blade block and the first spring connector of the modular diode block , the second blade of the blade block extending through the base plate and protruding through the modular diode block for establishing an electrical connection between the second blade of the blade block and the second spring connector of the modular diode block ; and a plug sub-assembly having a plug block and a cable block , attachable to the junction box platform and the modular diode block , the plug sub-assembly providing a protective covering to weatherize the modular diode block, the blade block, and the cable block, the cable block attachable mechanically to the plug block, the cable block securing mechanically and electrically to one or more output cables . a junction box platform having a base plate , a blade block , and a cover , the blade block having a first electrical conducting blade and a second electrical conducting blade ; a modular diode block electrically and mechanically coupleable to the junction box platform via the blade block, the modular diode block having a first spring connector and a second spring connector , the first blade of the blade block extending through the base plate and protruding through the modular diode block for establishing an electrical connection between the first blade of the blade block and the first spring connector of the modular diode block , the second blade of the blade block extending through the base plate and protruding through the modular diode block for establishing an electrical connection between the second blade of the blade block and the second spring connector of the modular diode block ; and a plug sub-assembly having a plug block and a cable block , attachable to the junction box platform and the modular diode block , the plug sub-assembly providing a protective covering to weatherize the modular diode block, the blade block, and the cable block, the cable block attachable mechanically to the plug block, the cable block securing mechanically and electrically to one or more output cables .
A process for producing styrene monomers from styrene oligomers comprising the following steps: a) providing a composition (A) comprising at least one type of styrene oligomer, wherein the composition (A) comprises at least 15 wt.-%, based on the total weight of composition (A), of styrene dimers and/or styrene trimers; b) providing a depolymerization reactor (R) with a reaction zone (Z); c) feeding the composition (A) into the reaction zone (Z) of the reactor (R); d) depolymerizing (at least a portion of) the at least one type of styrene oligomer in the reaction zone (Z) to obtain a composition (B), comprising styrene monomers; e) removing the composition (B) from the reaction zone (Z); and f) isolating (at least a portion of) the styrene monomers from the composition (B); wherein the temperature (T) inside the reaction zone (Z) of the reactor is set to a value of above 500 °C to 670 °C; and wherein the average residence time (tA) of the composition (A) in the reaction zone (Z) of the reactor is set to a value greater than 0.01 s but less than 60 s. a) providing a composition (A) comprising at least one type of styrene oligomer, wherein the composition (A) comprises at least 15 wt.-%, based on the total weight of composition (A), of styrene dimers and/or styrene trimers; b) providing a depolymerization reactor (R) with a reaction zone (Z); c) feeding the composition (A) into the reaction zone (Z) of the reactor (R); d) depolymerizing (at least a portion of) the at least one type of styrene oligomer in the reaction zone (Z) to obtain a composition (B), comprising styrene monomers; e) removing the composition (B) from the reaction zone (Z); and f) isolating (at least a portion of) the styrene monomers from the composition (B); wherein the temperature (T) inside the reaction zone (Z) of the reactor is set to a value of above 500 °C to 670 °C; and wherein the average residence time (tA) of the composition (A) in the reaction zone (Z) of the reactor is set to a value greater than 0.01 s but less than 60 s.
A contact apparatus , comprising: a hollow chamber with an opening disposed on one side, two spaced fixed contacts disposed on a top part of the chamber, and a moving contact assembly disposed inside the chamber, wherein the top part of the chamber is away from the opening, and the two fixed contacts extend into the chamber; and the moving contact assembly comprises: an insulating part , made of plastic; a push rod , wherein one end of the push rod is mounted on a driving apparatus , and the other end of the push rod is mounted on the insulating part; a moving contact , mounted on one side that is of the insulating part and that is back to the push rod; and an elastic part , clamped between the insulating part and the moving contact, so that the moving contact is in contact with or separated from the two fixed contacts under the action of the push rod, wherein a plurality of spaced protrusions are disposed on an outer wall that is of the insulating part and that is located between the moving contact and the push rod, and characterized in that : the insulating part comprises a base part , and the moving contact and the push rod are respectively mounted on two opposite sides of the base part; a peripheral edge of the base part protrudes in a direction moving close to the moving contact to form a cylindrical housing surrounding the elastic part; and the plurality of spaced protrusions are disposed around an outer surface of the cylindrical housing . an insulating part , made of plastic; a push rod , wherein one end of the push rod is mounted on a driving apparatus , and the other end of the push rod is mounted on the insulating part; a moving contact , mounted on one side that is of the insulating part and that is back to the push rod; and an elastic part , clamped between the insulating part and the moving contact, so that the moving contact is in contact with or separated from the two fixed contacts under the action of the push rod, wherein a plurality of spaced protrusions are disposed on an outer wall that is of the insulating part and that is located between the moving contact and the push rod, and characterized in that : the insulating part comprises a base part , and the moving contact and the push rod are respectively mounted on two opposite sides of the base part; a peripheral edge of the base part protrudes in a direction moving close to the moving contact to form a cylindrical housing surrounding the elastic part; and the plurality of spaced protrusions are disposed around an outer surface of the cylindrical housing .
A high-pressure fluid coupling comprising: a female fitting having a recess ; a tube having a male fitting having a spherical end; wherein the spherical end of the male fitting and the recess of the female fitting provide a metal-to-metal seal; wherein tube has an externally threaded portion that receives an internally threaded thrust collar ; a gland nut disposed adjacent to the thrust collar , wherein the outer surface of the gland nut has a threaded portion engaged with a threaded portion of the female fitting , wherein the outer surface of the thrust collar and a first internal surface of the gland nut define a first gap , and an outer surface of tube and a second internal surface of the gland nut define a second gap , wherein the first and second gaps allow at least some axial misalignment between the male fitting and the female fitting , wherein the gland nut bears against the thrust collar over a curved surface. a female fitting having a recess ; a tube having a male fitting having a spherical end; wherein the spherical end of the male fitting and the recess of the female fitting provide a metal-to-metal seal; wherein tube has an externally threaded portion that receives an internally threaded thrust collar ; a gland nut disposed adjacent to the thrust collar , wherein the outer surface of the gland nut has a threaded portion engaged with a threaded portion of the female fitting , wherein the outer surface of the thrust collar and a first internal surface of the gland nut define a first gap , and an outer surface of tube and a second internal surface of the gland nut define a second gap , wherein the first and second gaps allow at least some axial misalignment between the male fitting and the female fitting , wherein the gland nut bears against the thrust collar over a curved surface.
Suction drum for an inserter having a shell surface , wherein a plurality of openings , which are distributed uniformly in the shell surface , are formed in the shell surface , wherein the shell surface is in rotational symmetry with a rotational axis of the suction drum , and wherein the contour of the shell surface is described by a shell line lying in a plane with the rotational axis and the shell line has at least two different distances from the rotational axis in the longitudinal direction of the rotational axis , characterised in that the maximum distance of the course of the shell line from the rotational axis is located in the centre, wherein the shell line comprises in sections at least two straight lines with different slopes and the shell line has a convex parabolic curve course so that the shell surface has a spherical outer contour and is designed to be symmetrical with the centre of the shell surface .
A method for amplifying circular DNA, comprising the following steps: forming a reaction mixture of circular DNA as a template with a reaction solution comprising: a first enzyme group that catalyzes replication of circular DNA; a second enzyme group that catalyzes an Okazaki fragment maturation and synthesizes two sister circular DNAs constituting a catenane; a third enzyme group that catalyzes a separation of two sister circular DNAs; a buffer; ATP; GTP, CTP and UTP; dNTP; a magnesium ion source; and an alkali metal ion source, wherein the circular DNA includes a replication origin sequence that can bind to an enzyme having DnaA activity; and incubating the reaction mixture formed in step in a temperature cycle of repeating an incubation at a temperature between 30°C and 80°C and an incubation at a temperature between 10°C and 27°C. forming a reaction mixture of circular DNA as a template with a reaction solution comprising: a first enzyme group that catalyzes replication of circular DNA; a second enzyme group that catalyzes an Okazaki fragment maturation and synthesizes two sister circular DNAs constituting a catenane; a third enzyme group that catalyzes a separation of two sister circular DNAs; a buffer; ATP; GTP, CTP and UTP; dNTP; a magnesium ion source; and an alkali metal ion source, wherein the circular DNA includes a replication origin sequence that can bind to an enzyme having DnaA activity; and a first enzyme group that catalyzes replication of circular DNA; a second enzyme group that catalyzes an Okazaki fragment maturation and synthesizes two sister circular DNAs constituting a catenane; a third enzyme group that catalyzes a separation of two sister circular DNAs; a buffer; ATP; GTP, CTP and UTP; dNTP; a magnesium ion source; and an alkali metal ion source, wherein the circular DNA includes a replication origin sequence that can bind to an enzyme having DnaA activity; and incubating the reaction mixture formed in step in a temperature cycle of repeating an incubation at a temperature between 30°C and 80°C and an incubation at a temperature between 10°C and 27°C.
Device for a wireless network, wherein the device is configured to: share an own potential transmission duration with a plurality of other devices , obtain a potential transmission duration from each of the other devices , and perform an access method to gain direct access to a medium of the wireless network, wherein the device is configured to, if gaining direct access to the medium: determine a shared transmission duration based on all the potential transmission durations , and publish the shared transmission duration , and wherein the device is configured to, if not gaining direct access to the medium: obtain medium reuse information and the shared transmission duration determined by one of the other devices , which has gained direct access to the medium, and reuse the medium based on the reuse information and the shared transmission duration . share an own potential transmission duration with a plurality of other devices , obtain a potential transmission duration from each of the other devices , and perform an access method to gain direct access to a medium of the wireless network, wherein the device is configured to, if gaining direct access to the medium: determine a shared transmission duration based on all the potential transmission durations , and publish the shared transmission duration , and determine a shared transmission duration based on all the potential transmission durations , and publish the shared transmission duration , and wherein the device is configured to, if not gaining direct access to the medium: obtain medium reuse information and the shared transmission duration determined by one of the other devices , which has gained direct access to the medium, and reuse the medium based on the reuse information and the shared transmission duration . obtain medium reuse information and the shared transmission duration determined by one of the other devices , which has gained direct access to the medium, and reuse the medium based on the reuse information and the shared transmission duration .
Method of producing printed products using at least one computer , at least one input device for controlling at least one machine processing printing substrates, the at least one input device receiving the technical and economic data of at least one print shop and the at least one computer receiving customer preferences in terms of print jobs by means of the at least one input device , characterized in that on the basis of the technical and economic data of the at least one print shop , the at least one computer calculates a simulation of possible print jobs producible in the at least one print shop , in that, factoring in the results of the simulation and the inputs of customer preferences, the at least one computer generates matching quotes for print jobs, in that the at least one computer compares the generated quotes with customer print jobs, and in that, when a match is found between a quote and the print job of the customer , the print job is processed by at least one machine for processing printing substrates.
An inertial sensor comprising: an angular rate detection element (C1, C5, C6) that has a mechanical structure for angular rate detection; and an angular rate detection circuit (C2, C4, C7, C8, C9) for detecting an angular rate from the angular rate detection element (C1, C5, C6); characterized in that the angular rate detection circuit (C2, C4, C7, C8, C9) is configured to calculate an angle by sampling a signal obtained from the angular rate detection element (C1, C5, C6) at a discrete time synchronized with a drive frequency of the angular rate detection element (C1, C5, C6). an angular rate detection element (C1, C5, C6) that has a mechanical structure for angular rate detection; and an angular rate detection circuit (C2, C4, C7, C8, C9) for detecting an angular rate from the angular rate detection element (C1, C5, C6); characterized in that the angular rate detection circuit (C2, C4, C7, C8, C9) is configured to calculate an angle by sampling a signal obtained from the angular rate detection element (C1, C5, C6) at a discrete time synchronized with a drive frequency of the angular rate detection element (C1, C5, C6).
Method for capturing, by means of an imager, one or more images of an object or of a portion of an object presented at a distance in front of said imager, said object being lit by means of a lighting system, comprising the following steps: - a step of estimating a 3D model of the object as it will be at a predefined time at which said imager captures the image, referred to as the predicted 3D model, said step of estimating the predicted 3D model comprising a step of defining a plurality of 3D models of said object at a plurality of respective consecutive times, referred to as the acquired 3D models, the step of estimating the acquired 3D models comprising, for each acquired 3D model, a step of acquiring images of the object by means of a 3D image-capturing system and a step of defining the acquired 3D model on the basis of the images of the object captured by the image-capturing system, said predicted 3D model being estimated by extrapolating from said acquired 3D models, - a step of simulating, using said predicted 3D model, the lighting of the object as it will be at said predefined time according to a plurality of lighting modes in order to obtain, for each lighting mode of the plurality, an estimated image of said object in said lighting mode, - a step of selecting a lighting mode of the lighting system on the basis of the estimated images, - a step of controlling the lighting system in order for it to be in the lighting mode that was selected, and - a step of controlling the imager, at said time at which the image of said object is captured, in order for said capture to be made. - a step of estimating a 3D model of the object as it will be at a predefined time at which said imager captures the image, referred to as the predicted 3D model, said step of estimating the predicted 3D model comprising a step of defining a plurality of 3D models of said object at a plurality of respective consecutive times, referred to as the acquired 3D models, the step of estimating the acquired 3D models comprising, for each acquired 3D model, a step of acquiring images of the object by means of a 3D image-capturing system and a step of defining the acquired 3D model on the basis of the images of the object captured by the image-capturing system, said predicted 3D model being estimated by extrapolating from said acquired 3D models, - a step of simulating, using said predicted 3D model, the lighting of the object as it will be at said predefined time according to a plurality of lighting modes in order to obtain, for each lighting mode of the plurality, an estimated image of said object in said lighting mode, - a step of selecting a lighting mode of the lighting system on the basis of the estimated images, - a step of controlling the lighting system in order for it to be in the lighting mode that was selected, and - a step of controlling the imager, at said time at which the image of said object is captured, in order for said capture to be made.
A differential device comprising: an outer case receiving torque and rotatable about an axis (C); a differential gear set housed in the outer case and combinable with first and second axles, the differential gear set being so geared as to allow differential motion between the first and the second axles; a clutch including an inner case supporting the differential gear set , and a clutch ring drivingly engaged with the outer case to transmit the torque from the outer case and axially movable to disconnectably connect with the inner case , the clutch ring having an end section led out of the outer case; a second spring creating a repulsive force in a direction to make the clutch ring connect with the inner case ; and an actuator including a plunger so disposed as to exert a thrust force axially on the end section of the clutch ring , and a solenoid , in response to input of an electric power, driving the plunger in a direction to make the clutch ring disconnect from the inner case , wherein the solenoid comprises a core at least partly made of a material having magnetism so as to conduct a magnetic flux generated in accordance with the electric power and enclosing the solenoid , and the second spring is repulsively interposed between the core and the plunger ; characterized in that : the differential device comprises a first spring creating a repulsive force in a direction to make the clutch ring disconnect from the inner case ; and the plunger , the core and the second spring are so dimensioned that the plunger abuts on the core to rest. an outer case receiving torque and rotatable about an axis (C); a differential gear set housed in the outer case and combinable with first and second axles, the differential gear set being so geared as to allow differential motion between the first and the second axles; a clutch including an inner case supporting the differential gear set , and a clutch ring drivingly engaged with the outer case to transmit the torque from the outer case and axially movable to disconnectably connect with the inner case , the clutch ring having an end section led out of the outer case; a second spring creating a repulsive force in a direction to make the clutch ring connect with the inner case ; and an actuator including a plunger so disposed as to exert a thrust force axially on the end section of the clutch ring , and a solenoid , in response to input of an electric power, driving the plunger in a direction to make the clutch ring disconnect from the inner case , wherein the solenoid comprises a core at least partly made of a material having magnetism so as to conduct a magnetic flux generated in accordance with the electric power and enclosing the solenoid , and the second spring is repulsively interposed between the core and the plunger ; characterized in that : the differential device comprises a first spring creating a repulsive force in a direction to make the clutch ring disconnect from the inner case ; and the plunger , the core and the second spring are so dimensioned that the plunger abuts on the core to rest.
A glass-based substrate having a transmission of light in the visible wavelength range, comprising a glass sheet, one of the main faces of which comprises relief patterns, and a reflecting layer applied at every point of the main face comprising the said patterns, aside from any potential edge exclusion, , characterized in that there exists a plane H orthogonal to the substrate such that the set E of points on the surface of the substrate, such that the angle theta between the local normal to the surface and the plane H is at least 25°, represents more than 30% of the developed area of the main surface of the substrate carrying the patterns.