mhurhangee/ep-ind-claims huggingface dataset:
Rear spoiler device for a vehicle which has at least one rear door (8, 9), wherein the rear spoiler device has at least: one lateral air direction element and one roof air direction element which can be adjusted between a basic position and a travel position for contour extension and aerodynamic air direction with the rear door (8, 9) closed, wherein the rear spoiler device has a link having a first pivot joint for pivotable securing to the rear door (8, 9), wherein the link is fitted so as to be able to be adjusted to the lateral air direction element by means of at least a second pivot joint, characterized in that at least one locking device for locking the lateral air direction element to the link is provided, and a coupling device for coupling an adjustment of the locking device to the adjustment of the roof air direction element is provided. one lateral air direction element and one roof air direction element which can be adjusted between a basic position and a travel position for contour extension and aerodynamic air direction with the rear door (8, 9) closed, wherein the rear spoiler device has a link having a first pivot joint for pivotable securing to the rear door (8, 9), wherein the link is fitted so as to be able to be adjusted to the lateral air direction element by means of at least a second pivot joint, characterized in that at least one locking device for locking the lateral air direction element to the link is provided, and a coupling device for coupling an adjustment of the locking device to the adjustment of the roof air direction element is provided.
A method of transporting a hydroelectric turbine system comprising the steps of: locating a base of the system in a body of water such that at least a part of the base projects above the water; advancing a vessel (10; 110; 210) into a position above the base such that the vessel at least partially surrounds the part of the base projecting above the water; securing the base to the vessel for transport by raising the base against the vessel and securing the base to the vessel; transporting the system to a deployment site; releasing the base from beneath the vessel; and allowing the turbine to pass downwardly through the portal. locating a base of the system in a body of water such that at least a part of the base projects above the water; advancing a vessel (10; 110; 210) into a position above the base such that the vessel at least partially surrounds the part of the base projecting above the water; securing the base to the vessel for transport by raising the base against the vessel and securing the base to the vessel; transporting the system to a deployment site; releasing the base from beneath the vessel; and allowing the turbine to pass downwardly through the portal.
Detacher for a high-voltage connector locked on an ambient construction via two or more locking elements (4, 5, 6), comprising - a housing designed to be set detachably onto the plugged and locked high-voltage connector and - two or more operating means (12, 13, 14, 31, 32, 33) which are mounted on the housing and are able to be actuated by the user and which can be coupled with the locking elements (4, 5, 6) for the mechanical releasing of the locking elements (4, 5, 6) from their locked position. - a housing designed to be set detachably onto the plugged and locked high-voltage connector and - two or more operating means (12, 13, 14, 31, 32, 33) which are mounted on the housing and are able to be actuated by the user and which can be coupled with the locking elements (4, 5, 6) for the mechanical releasing of the locking elements (4, 5, 6) from their locked position.
A microfluidic chip comprising: a microfluidics channel in the microfluidic chip; a top surface and an intermediate surface, wherein the intermediate surface is lower in height than the top surface; an opening in the intermediate surface exposing the microfluidic channel; a clamping bump projecting from the intermediate surface and surrounding the opening; and a solid-state chemical sensor residing on a sensor die, at least a portion of the solid-state chemical sensor in contact with the clamping bump of the microfluidic chip, the solid-state chemical sensor exposed to the microfluidics channel. a microfluidics channel in the microfluidic chip; a top surface and an intermediate surface, wherein the intermediate surface is lower in height than the top surface; an opening in the intermediate surface exposing the microfluidic channel; a clamping bump projecting from the intermediate surface and surrounding the opening; and a solid-state chemical sensor residing on a sensor die, at least a portion of the solid-state chemical sensor in contact with the clamping bump of the microfluidic chip, the solid-state chemical sensor exposed to the microfluidics channel.
A power semiconductor device comprising: a semiconductor element (20,22), which is disposed on a substrate; a plastic housing, which covers the substrate and the semiconductor element (20,22); and a terminal, which is electrically connected to the semiconductor element(20,22) within the plastic housing and extended from a front surface of the plastic housing to the outside of the plastic housing; wherein plastic housing grooves, which are grooves lower than the front surface, are formed in a portion of the front surface of the plastic housing that is positioned at a predetermined distance from the terminal; wherein the depth of the plastic housing grooves is such that the substrate and the semiconductor element (20,22) are not exposed to the outside; and wherein the plastic housing grooves are formed by transfer molding, the plastic housing grooves are positioned on the right and left sides of a terminal so that the terminal is sandwiched between the plastic housing grooves, characterized in that the power semiconductor device further comprises: an electrode holder, which is disposed on a front surface of the plastic housing to cover the middle of the terminal and determine the direction in which the terminal is extended out of the plastic housing; wherein the electrode holder is insulative and partially engages with the plastic housing grooves or adheres to the plastic housing grooves for engagement purposes. a semiconductor element (20,22), which is disposed on a substrate; a plastic housing, which covers the substrate and the semiconductor element (20,22); and a terminal, which is electrically connected to the semiconductor element(20,22) within the plastic housing and extended from a front surface of the plastic housing to the outside of the plastic housing; wherein plastic housing grooves, which are grooves lower than the front surface, are formed in a portion of the front surface of the plastic housing that is positioned at a predetermined distance from the terminal; wherein the depth of the plastic housing grooves is such that the substrate and the semiconductor element (20,22) are not exposed to the outside; and wherein the plastic housing grooves are formed by transfer molding, the plastic housing grooves are positioned on the right and left sides of a terminal so that the terminal is sandwiched between the plastic housing grooves, characterized in that the power semiconductor device further comprises: an electrode holder, which is disposed on a front surface of the plastic housing to cover the middle of the terminal and determine the direction in which the terminal is extended out of the plastic housing; wherein the electrode holder is insulative and partially engages with the plastic housing grooves or adheres to the plastic housing grooves for engagement purposes. an electrode holder, which is disposed on a front surface of the plastic housing to cover the middle of the terminal and determine the direction in which the terminal is extended out of the plastic housing; wherein the electrode holder is insulative and partially engages with the plastic housing grooves or adheres to the plastic housing grooves for engagement purposes.
A perforated forming screen suitable for use in a vacuum aperturing process or a hydroforming process to make an apertured formed film said perforated forming screen having an inner layer (14, 114) and an outer layer (16, 116), the outer layer (16, 116) being adhered to said inner layer (14, 114) with an adhesive, characterized in that the outer layer (16, 116) is a thermoset rubber having a Shore D hardness of 46-60, wherein a plurality of perforations (18, 118) traverse both the inner layer (14, 114) and the outer layer (16, 116), and wherein the outer layer (16, 116) comprises fine scale aberration or surface structures, said fine scale structures having dimensions and spacings no greater than 254 microns.
Method for operational validation of a sensor unit for a vehicle, comprising a sensor element, a communication interface, a first control apparatus and a second control apparatus, wherein - the first control apparatus comprises a memory that stores program code and/or program configuration data for operating the sensor unit, - the second control apparatus comprises a memory that stores a copy of the program code and/or a copy of the program configuration data for operating the sensor unit, - a measurement signal is captured by the sensor element, which measurement signal is representative of a speed and/or a distance covered by the vehicle, - a respective validation signal is ascertained by the control apparatuses (5, 7), which validation signal is representative of at least one part of the program code and/or program configuration data stored in the respective memory, - at least one of the validation signals is provided to the respective other control apparatus (5, 7), - the validation signals are taken as a basis for a validation identification value being ascertained by the respective control apparatus (5, 7), and - the validation identification value and the measurement signal are taken as a basis for a sensor signal being ascertained by the first control apparatus and/or by the second control apparatus, which sensor signal is provided via the communication interface of the sensor unit. - the first control apparatus comprises a memory that stores program code and/or program configuration data for operating the sensor unit, - the second control apparatus comprises a memory that stores a copy of the program code and/or a copy of the program configuration data for operating the sensor unit, - a measurement signal is captured by the sensor element, which measurement signal is representative of a speed and/or a distance covered by the vehicle, - a respective validation signal is ascertained by the control apparatuses (5, 7), which validation signal is representative of at least one part of the program code and/or program configuration data stored in the respective memory, - at least one of the validation signals is provided to the respective other control apparatus (5, 7), - the validation signals are taken as a basis for a validation identification value being ascertained by the respective control apparatus (5, 7), and - the validation identification value and the measurement signal are taken as a basis for a sensor signal being ascertained by the first control apparatus and/or by the second control apparatus, which sensor signal is provided via the communication interface of the sensor unit.
A venous valve prosthetic implant for implantation in a vein for treatment of venous disease, the venous valve prosthetic implant comprising: a tubular expandable anchoring frame comprising a stent-like structure having a lumen, an upstream end, a downstream end, and a middle portion between the upstream end, a downstream end, wherein the tubular expandable anchoring frame has an hourglass shape and the middle portion expands to a smaller diameter than a diameter of either the upstream end or the downstream end; a valve seat attached to the middle portion of the expandable anchoring frame; a ball disposed within the lumen of the expandable anchoring frame; and a ball retention tether attaching the ball to the anchoring frame such that the ball moves back and forth within the anchoring frame, between an open position, in which the venous valve prosthetic implant allows forward flow of blood in a downstream direction through the implant, and a closed position, in which the ball contacts the valve seat to prevent backflow of blood in an upstream direction through the venous valve prosthetic implant. a tubular expandable anchoring frame comprising a stent-like structure having a lumen, an upstream end, a downstream end, and a middle portion between the upstream end, a downstream end, wherein the tubular expandable anchoring frame has an hourglass shape and the middle portion expands to a smaller diameter than a diameter of either the upstream end or the downstream end; a valve seat attached to the middle portion of the expandable anchoring frame; a ball disposed within the lumen of the expandable anchoring frame; and a ball retention tether attaching the ball to the anchoring frame such that the ball moves back and forth within the anchoring frame, between an open position, in which the venous valve prosthetic implant allows forward flow of blood in a downstream direction through the implant, and a closed position, in which the ball contacts the valve seat to prevent backflow of blood in an upstream direction through the venous valve prosthetic implant.
A medical apparatus comprising: a basket device comprising a basket section, the basket section having a collapsed configuration and an extended configuration; and a sheath on the basket device, where the basket device and the sheath are configured to longitudinally slide relative to each other, where the basket section comprises at least two groups of loop petals comprising a first group including at least two first loop petals and a second group including at least two second loop petals, wherein the first loop petals have a different size than the second loop petals, and wherein at least two of the loop petals have a different length from the base to their distal end than at least one other of the loop petals, characterized in that the first group of loop petals are sized and shaped to be moved at a different rate than the second group of loop petals by the sheath as the basket device and the sheath are longitudinally slid relative to each other. a basket device comprising a basket section, the basket section having a collapsed configuration and an extended configuration; and a sheath on the basket device, where the basket device and the sheath are configured to longitudinally slide relative to each other, where the basket section comprises at least two groups of loop petals comprising a first group including at least two first loop petals and a second group including at least two second loop petals, wherein the first loop petals have a different size than the second loop petals, and wherein at least two of the loop petals have a different length from the base to their distal end than at least one other of the loop petals, characterized in that the first group of loop petals are sized and shaped to be moved at a different rate than the second group of loop petals by the sheath as the basket device and the sheath are longitudinally slid relative to each other.
A substrate position aligner comprising: a substrate holding assembly configured to hold a substrate in a vertical orientation, wherein the substrate holding assembly has a center of substrate rotation defined within the substrate holding assembly; at least three idler rollers and a drive roller, wherein each roller has a point on its perimeter spaced on a common radius from the center of substrate rotation and wherein, in use, the substrate is positioned on the drive roller and idler rollers; a rotation mechanism configured to rotate the drive roller; a first sensor configured to detect the substrate when located in the substrate holding assembly, and a second sensor and a third sensor, wherein the second sensor and the third sensor are configured to detect a presence of an orientation cut in the substrate when the substrate is adjacent to or in a cut-down orientation. a substrate holding assembly configured to hold a substrate in a vertical orientation, wherein the substrate holding assembly has a center of substrate rotation defined within the substrate holding assembly; at least three idler rollers and a drive roller, wherein each roller has a point on its perimeter spaced on a common radius from the center of substrate rotation and wherein, in use, the substrate is positioned on the drive roller and idler rollers; a rotation mechanism configured to rotate the drive roller; a first sensor configured to detect the substrate when located in the substrate holding assembly, and a second sensor and a third sensor, wherein the second sensor and the third sensor are configured to detect a presence of an orientation cut in the substrate when the substrate is adjacent to or in a cut-down orientation.
Hotplate device having at least one variable cooking surface, at least one operating unit, which has at least two operating modules (22, 24, 26, 28), and at least one control unit, which is provided to control the variable cooking surface as a function of inputs by way of the operating unit, characterised by an allocation unit, which is provided to allocate one of the at least two operating modules (22, 24, 26, 28) selected by an operator to at least one cooking zone (42, 44) of the variable cooking surface as a function of operator inputs.
A detergent composition comprising: a) 1,2-dihydroxybenzene-3,5-disulfonic acid (tiron), b) a ligand capable of chelating to Fe 3+, wherein the ligand has a binding constant for Fe 3+ that is greater than 10 18 M -1, c) an iron-displacing species selected from the group consisting of i) a boron-containing compound of formula RB 2, wherein R is not OH, ii) Al 3+, and iii) mixtures thereof; and d) Fe 3+. a) 1,2-dihydroxybenzene-3,5-disulfonic acid (tiron), b) a ligand capable of chelating to Fe 3+, wherein the ligand has a binding constant for Fe 3+ that is greater than 10 18 M -1, c) an iron-displacing species selected from the group consisting of i) a boron-containing compound of formula RB 2, wherein R is not OH, ii) Al 3+, and iii) mixtures thereof; and i) a boron-containing compound of formula RB 2, wherein R is not OH, ii) Al 3+, and iii) mixtures thereof; and d) Fe 3+.
A personal care composition comprising: a. glutathione precursor comprising, by weight of the composition: i. from about 0.001% to about 2% of cystine; ii. optionally, from about 0.01 to about 10% of glycine; iii. from about 0.01 to about 10% of a glutamate source selected from the group consisting of glutamine, glutamine ester, glutamic acid, pyroglutamic acid, salts, and mixtures thereof; and iv. from about 0.001 to about 3% of a resorcinol of Formula I: wherein R is an ethyl group optionally substituted with a phenyl or substituted phenyl group or C3 to C16 straight or branched alkyl group optionally substituted with a phenyl or substituted phenyl group; and b. a cosmetically acceptable carrier; c. wherein the pH of the composition is in the range of from about 3.5 to about 8.5. a. glutathione precursor comprising, by weight of the composition: i. from about 0.001% to about 2% of cystine; ii. optionally, from about 0.01 to about 10% of glycine; iii. from about 0.01 to about 10% of a glutamate source selected from the group consisting of glutamine, glutamine ester, glutamic acid, pyroglutamic acid, salts, and mixtures thereof; and iv. from about 0.001 to about 3% of a resorcinol of Formula I: wherein R is an ethyl group optionally substituted with a phenyl or substituted phenyl group or C3 to C16 straight or branched alkyl group optionally substituted with a phenyl or substituted phenyl group; and i. from about 0.001% to about 2% of cystine; ii. optionally, from about 0.01 to about 10% of glycine; iii. from about 0.01 to about 10% of a glutamate source selected from the group consisting of glutamine, glutamine ester, glutamic acid, pyroglutamic acid, salts, and mixtures thereof; and iv. from about 0.001 to about 3% of a resorcinol of Formula I: wherein R is an ethyl group optionally substituted with a phenyl or substituted phenyl group or C3 to C16 straight or branched alkyl group optionally substituted with a phenyl or substituted phenyl group; and b. a cosmetically acceptable carrier; c. wherein the pH of the composition is in the range of from about 3.5 to about 8.5.
A multipurpose device for transmitting radiation from a source to an object, wherein the device comprises two antennas, each designed as a truncated segment of a curved surface, established with the formation of a joint focal zone, a distributed source of radiation provided in the aperture plane of at least one of the antennas or in one of the focal areas of each antenna, and an object placed in the combined focal area of the two antennas, characterized in that the joint focal zone is reconfigurable in concentration and volume by varying the distance between the antennas.
A method comprising: displaying, on a display of an electronic device, at least one available status update from a contact; upon detecting selection of the status update, automatically opening a chat window in context with the selected status update; receiving user input in the chat window; and in response to the user closing the chat window, transmitting the user input to the contact. displaying, on a display of an electronic device, at least one available status update from a contact; upon detecting selection of the status update, automatically opening a chat window in context with the selected status update; receiving user input in the chat window; and in response to the user closing the chat window, transmitting the user input to the contact.
A porous structure comprising: a plurality of struts, each strut comprises: a first end; a second end; and a continuous elongated body between said first and second ends, said body having a thickness and a length; and a plurality of nodes, each node comprises an intersection between one end of a first strut and the body of a second strut, wherein no more than two struts intersect at a node. a first end; a second end; and a continuous elongated body between said first and second ends, said body having a thickness and a length; and a plurality of nodes, each node comprises an intersection between one end of a first strut and the body of a second strut, wherein no more than two struts intersect at a node.