mhurhangee/ep-ind-claims huggingface dataset:
A sole structure for an article of footwear comprising: a midsole system including a plurality of cushioning units, each cushioning unit including: a first cushioning layer comprising a first sealed chamber; and a second cushioning layer comprising a second sealed chamber, the first sealed chamber and the second sealed chamber each retaining gas in isolation from one another; wherein the first cushioning layer underlies the second cushioning layer and has a domed lower surface extending away from the second cushioning layer; and wherein the second cushioning layer is annular and borders a central portion of the first cushioning layer above the domed lower surface. a midsole system including a plurality of cushioning units, each cushioning unit including: a first cushioning layer comprising a first sealed chamber; and a second cushioning layer comprising a second sealed chamber, the first sealed chamber and the second sealed chamber each retaining gas in isolation from one another; a first cushioning layer comprising a first sealed chamber; and a second cushioning layer comprising a second sealed chamber, the first sealed chamber and the second sealed chamber each retaining gas in isolation from one another; wherein the first cushioning layer underlies the second cushioning layer and has a domed lower surface extending away from the second cushioning layer; and wherein the second cushioning layer is annular and borders a central portion of the first cushioning layer above the domed lower surface.
A Transmission Small Angle X-Ray Scatterometry (T-SAXS) metrology system comprising: an x-ray illumination source configured to generate an amount of x-ray radiation at an energy level of 15 kiloelectronvolts or higher; an x-ray illumination optics subsystem configured to illuminate a measurement target formed on a wafer surface with an incident focused beam of the amount of x-ray radiation; a specimen positioning system that positions the measurement target at a plurality of orientations with respect to the incident focused beam; an x-ray detector configured to detect an intensity associated with each of a plurality of diffraction orders of an amount of radiation scattered from the measurement target in response to the incident focused beam at each orientation, wherein an optical path length between the illumination source and the detector is less than three meters, wherein two or more of the diffracted orders spatially overlap on the detector; and a computing system configured to determine a value of a parameter of interest associated with the measurement target based on the detected intensities of the plurality of diffraction orders at the plurality of different orientations; and wherein the computing system is further configured to determine an intensity of each of the overlapping diffraction orders based on a beam shape of the zeroth diffraction order. an x-ray illumination source configured to generate an amount of x-ray radiation at an energy level of 15 kiloelectronvolts or higher; an x-ray illumination optics subsystem configured to illuminate a measurement target formed on a wafer surface with an incident focused beam of the amount of x-ray radiation; a specimen positioning system that positions the measurement target at a plurality of orientations with respect to the incident focused beam; an x-ray detector configured to detect an intensity associated with each of a plurality of diffraction orders of an amount of radiation scattered from the measurement target in response to the incident focused beam at each orientation, wherein an optical path length between the illumination source and the detector is less than three meters, wherein two or more of the diffracted orders spatially overlap on the detector; and a computing system configured to determine a value of a parameter of interest associated with the measurement target based on the detected intensities of the plurality of diffraction orders at the plurality of different orientations; and wherein the computing system is further configured to determine an intensity of each of the overlapping diffraction orders based on a beam shape of the zeroth diffraction order.
A quick coupling for establishing a detachable connection in a fluid line with a coupling body, an insertion part, a holder and a securing element, wherein the coupling body has a through bore, wherein the holder can be used to preferably reversibly secure the insertion part introduced into the passage bore in the passage bore, wherein the holder has a ring corpus, wherein the securing element has a ring body, wherein the ring corpus and ring body circulate around the insertion part and/or coupling body, and wherein the securing element can be displaced in an axial direction relative to the passage bore out of a free position into a securing position if the insertion part is secured in the passage bore with the holder, characterized in that a lever arm or lever arms are molded onto the holder, wherein a coupling element on the securing element side abuts against the lever arm or a coupling element on the securing element side abuts against a respective lever arm, and wherein a radial compression of the insertion part presses exclusively via the lever arm or lever arms against the coupling element or coupling elements, and that the securing element is attached to the holder or connected with the holder in the securing position.
A compound of Formula I: T-L-P I wherein: T is a targeting moiety comprising a VAR2CSA polypeptide, the VAR2CSA polypeptide comprising a sequential amino acid sequence of ID1 and DBL2Xb, and optionally ID2a, and L―P is L 2 ―P 2; wherein: L 2 is a linker; P 2 is a cytotoxic compound selected from a hemiasterlin, a hemiasterlin analog, a tubulysin, a tubulysin analog, an auristatin and an auristatin analog; and L 2 ―P 2 has the following structure: wherein: R is selected from the group consisting of optionally substituted alkyl, optionally substituted alkylamino, optionally substituted cycloalkyl, optionally substituted aryl, optionally substituted heterocyclyl and optionally substituted heteroaryl,, or R is absent; P 3 is the remaining portion of compound P 2; and L 3 is the remaining portion of linker L 2 or is absent. T is a targeting moiety comprising a VAR2CSA polypeptide, the VAR2CSA polypeptide comprising a sequential amino acid sequence of ID1 and DBL2Xb, and optionally ID2a, and L―P is L 2 ―P 2; L 2 is a linker; P 2 is a cytotoxic compound selected from a hemiasterlin, a hemiasterlin analog, a tubulysin, a tubulysin analog, an auristatin and an auristatin analog; and L 2 ―P 2 has the following structure: wherein: R is selected from the group consisting of optionally substituted alkyl, optionally substituted alkylamino, optionally substituted cycloalkyl, optionally substituted aryl, optionally substituted heterocyclyl and optionally substituted heteroaryl,, or R is absent; P 3 is the remaining portion of compound P 2; and L 3 is the remaining portion of linker L 2 or is absent. R is selected from the group consisting of optionally substituted alkyl, optionally substituted alkylamino, optionally substituted cycloalkyl, optionally substituted aryl, optionally substituted heterocyclyl and optionally substituted heteroaryl,, or R is absent; P 3 is the remaining portion of compound P 2; and L 3 is the remaining portion of linker L 2 or is absent.
A method for handling, by a ring node of a network having a ring topology, a data transfer of data packets through the network via which the data packets are transmitted to their destination node, wherein each ring node has two neighbouring ring nodes, the method comprising the steps of: - detecting data packets of an incoming data transfer received from a non ring node to be transmitted through the network to their destination node, - adding an indication of a ring direction (72, 73) to the data packets of the incoming data transfer, the indication (72, 73) indicating in which direction the data packets of the incoming data transfer are passed through the network having the ring topology, - forwarding the data packets of the incoming data transfer to one of the two neighbouring ring nodes based on the added indication (72, 73), wherein when it is detected by one of the ring nodes, that it is not possible to pass the received data packets of the data transfer to its neighbouring ring node in accordance with the added indication (72, 73) due to a topology change in the network, said one ring node replaces the indication (72, 73) of the received data packets of the data transfer by the opposite indication (73, 72). - detecting data packets of an incoming data transfer received from a non ring node to be transmitted through the network to their destination node, - adding an indication of a ring direction (72, 73) to the data packets of the incoming data transfer, the indication (72, 73) indicating in which direction the data packets of the incoming data transfer are passed through the network having the ring topology, - forwarding the data packets of the incoming data transfer to one of the two neighbouring ring nodes based on the added indication (72, 73),
A steering column assembly having a shroud comprising: a first member and a second member, the first member having an end portion which is received within the second member, the second member having at least one slit through its wall extending partially along its length, a guide bush which comprises a sleeve that is located between an outward facing wall of the end portion of the first member and an inward facing wall of the second member, the guide bush being fixed relative to one of the members and providing a surface over which the other member can slide to alter the overall length of the shroud, and having at least one slit extending through its wall along a part or all of its length, and a clamp mechanism which in a clamped position squeezes the second member onto the guide bush which is in turn squeezed onto the first member so as to clamp the first member and second member together, characterised in that the cross section of the guide bush varies along its length such that the difference between the resistance it provides to crushing by the action of the clamp mechanism when the shroud is at its greatest length and the resistance it provides when the shroud is clamped at its shortest length is less than the difference that would be achieved if a guide bush of uniform material and having a uniform cross section along its length was provided. a first member and a second member, the first member having an end portion which is received within the second member, the second member having at least one slit through its wall extending partially along its length, a guide bush which comprises a sleeve that is located between an outward facing wall of the end portion of the first member and an inward facing wall of the second member, the guide bush being fixed relative to one of the members and providing a surface over which the other member can slide to alter the overall length of the shroud, and having at least one slit extending through its wall along a part or all of its length, and a clamp mechanism which in a clamped position squeezes the second member onto the guide bush which is in turn squeezed onto the first member so as to clamp the first member and second member together, characterised in that the cross section of the guide bush varies along its length such that the difference between the resistance it provides to crushing by the action of the clamp mechanism when the shroud is at its greatest length and the resistance it provides when the shroud is clamped at its shortest length is less than the difference that would be achieved if a guide bush of uniform material and having a uniform cross section along its length was provided.
A power cable (100;100a;200) comprising a cable jacket (106;106a;206) enclosing; - an electric conductor (103,103a,103c;203); - an electrical insulation layer (105;105a;205) surrounding the electrical conductor (103,103a,103c;203); - a cooling system comprising a cooling duct (101;101a;201) substantially parallel to the electrical conductor (103,103a,103c;203) along a power cable longitudinal axis and designed to be, in use, run through by a cooling fluid (102;102a); characterized in that the power cable further comprises: - a carbon allotrope layer (104;104a;204) in direct contact with the electrical conductor (103,103a,103c;203), wherein the carbon allotrope layer (104;104a;204) is a layer made of graphene or a layer made of carbon nanotubes (CNTs), wherein the carbon allotrope layer (104;104a;204) is provided between the electric conductor (103,103a,103c;203) and the cooling duct, wherein the cooling duct (101;101a;201) is at least partially in direct contact with the carbon allotrope layer (104;104a;204). - an electric conductor (103,103a,103c;203); - an electrical insulation layer (105;105a;205) surrounding the electrical conductor (103,103a,103c;203); - a cooling system comprising a cooling duct (101;101a;201) substantially parallel to the electrical conductor (103,103a,103c;203) along a power cable longitudinal axis and designed to be, in use, run through by a cooling fluid (102;102a); characterized in that the power cable further comprises: - a carbon allotrope layer (104;104a;204) in direct contact with the electrical conductor (103,103a,103c;203), wherein the carbon allotrope layer (104;104a;204) is a layer made of graphene or a layer made of carbon nanotubes (CNTs), wherein the carbon allotrope layer (104;104a;204) is provided between the electric conductor (103,103a,103c;203) and the cooling duct, wherein the cooling duct (101;101a;201) is at least partially in direct contact with the carbon allotrope layer (104;104a;204).
An axial gap type coreless rotating machine (20, 30) comprising: a housing (21, 31); a rotating shaft (22, 32) rotatably supported in the housing; two rotors (24, 27) capable of rotating integrally with the rotating shaft, the rotors disposed to face each other with a distance therebetween in an axial direction of the rotating shaft, comprising two rotating plates (23, 25, 33a, 33b) and permanent magnets (7, 26a, 34a, 34b) disposed in a circle around the rotating shaft on at least one of opposing faces of the rotating plates (23, 25, 33a, 33b) so that magnetic pole surfaces of the permanent magnets are positioned perpendicular to the rotating shaft; and a stator fixed to the housing, the stator disposed in an air gap formed between the rotating plates (23, 25, 33a, 33b) facing each other, comprising a fixing plate and coils disposed in a circle in the fixing plate so as to face the circle of the permanent magnets, wherein each of the coils comprises a winding wire formed by a bundle of at least two coil conductors having rectangular cross sections by aligning at least one of long sides and short sides thereof, and the winding wire has an outer circumference covered with an insulating coating and is wound such that the long sides in cross section of the coil conductors are positioned perpendicular to the magnetic pole surfaces of the permanent magnets (7, 26a, 34a, 34b). a housing (21, 31); a rotating shaft (22, 32) rotatably supported in the housing; two rotors (24, 27) capable of rotating integrally with the rotating shaft, the rotors disposed to face each other with a distance therebetween in an axial direction of the rotating shaft, comprising two rotating plates (23, 25, 33a, 33b) and permanent magnets (7, 26a, 34a, 34b) disposed in a circle around the rotating shaft on at least one of opposing faces of the rotating plates (23, 25, 33a, 33b) so that magnetic pole surfaces of the permanent magnets are positioned perpendicular to the rotating shaft; and a stator fixed to the housing, the stator disposed in an air gap formed between the rotating plates (23, 25, 33a, 33b) facing each other, comprising a fixing plate and coils disposed in a circle in the fixing plate so as to face the circle of the permanent magnets, wherein each of the coils comprises a winding wire formed by a bundle of at least two coil conductors having rectangular cross sections by aligning at least one of long sides and short sides thereof, and the winding wire has an outer circumference covered with an insulating coating and is wound such that the long sides in cross section of the coil conductors are positioned perpendicular to the magnetic pole surfaces of the permanent magnets (7, 26a, 34a, 34b).
A method of forming a via hole from a lower side of a substrate for electronic devices towards an upper side of a substrate at least partly through the substrate, wherein the method comprises the steps of: - etching a first lengthwise portion of the via hole comprising a substantially vertical sidewall followed by a tapering lower sidewall which narrows to form a constriction in the via hole; and - etching a second lengthwise portion of the via hole which leads from said constriction towards the upper side of the substrate such that said second lengthwise portion comprises a first sidewall which widens out horizontally from the constriction towards the upper side and narrows again, and wherein the method comprises the further step of opening the via hole by etching of the second lengthwise portion, with the constriction functioning as an etch mask in the etching of the second lengthwise portion of the via hole whereby size and shape of the opening of the via hole in the upper side essentially corresponds to the size and shape of the constriction. - etching a first lengthwise portion of the via hole comprising a substantially vertical sidewall followed by a tapering lower sidewall which narrows to form a constriction in the via hole; and - etching a second lengthwise portion of the via hole which leads from said constriction towards the upper side of the substrate such that said second lengthwise portion comprises a first sidewall which widens out horizontally from the constriction towards the upper side and narrows again, and wherein the method comprises the further step of opening the via hole by etching of the second lengthwise portion, with the constriction functioning as an etch mask in the etching of the second lengthwise portion of the via hole whereby size and shape of the opening of the via hole in the upper side essentially corresponds to the size and shape of the constriction.
An anesthetic evaporator, comprising a housing, an anesthetic agent storage tank, and a cover that is movably connected with the housing, the anesthetic agent storage tank being provided with an anesthetic agent adding barrel arranged corresponding to the cover, wherein the anesthetic evaporator further comprises a mechanical pressure relief assembly; the mechanical pressure relief assembly is connected with the anesthetic agent storage tank, and the mechanical pressure relief assembly is provided with a first state in which a pressure within the anesthetic agent storage tank is maintained and a second state in which a pressure within the anesthetic agent storage tank is released; characterized in that the anesthetic evaporator further comprises a linkage mechanism; when adding an anesthetic agent, an operation action on the cover of the anesthetic evaporator drives the linkage mechanism when a first end of the linkage mechanism is connected with the cover; and the linkage mechanism drives the mechanical pressure relief assembly to be switched from the first state to the second state.
A method for channel state information, CSI, quality triggered determination of autoregressive, AR, model order for a channel prediction filter, the method being performed by a network node, the method comprising: obtaining an indication of declining CSI quality in a radio environment; and in response thereto: obtaining an estimation of current channel conditions in the radio environment; determining the AR model order based on the estimation of current channel conditions; and performing channel prediction of the radio environment using the channel prediction filter, wherein the channel prediction filter is defined by an AR model having the determined AR model order. obtaining an estimation of current channel conditions in the radio environment; determining the AR model order based on the estimation of current channel conditions; and performing channel prediction of the radio environment using the channel prediction filter, wherein the channel prediction filter is defined by an AR model having the determined AR model order.
Method for producing a lens element for progressive spectacles having at least one reading zone and one distance zone which have different focusing effects, and a total prismatic effect, characterized in that the total prismatic effect is decomposed into its horizontal component and its vertical component and in that the vertical component of the total prismatic effect is implemented at a first point of the lens element, and the horizontal component of the total prismatic effect is implemented at a second point, different from the first point, of the lens element, that is to say the prismatic effect at the respective point (20, 22) corresponds to that of the prescription plus any possible thickness reduction prism.
A preform disinfection method, the preforms being disinfected and molded in a device for producing sterile bottles, the disinfection method comprises at least the following step: making a disinfectant solution into disinfectant solution aerosol by means of an ultrasonic atomizer, and spraying the disinfectant solution aerosol onto the preforms, so as to attach a substantially uniform thin layer of disinfectant solution to at least the inner surfaces of the preforms to be disinfected; heating the preforms treated in step by radiation to raise a temperature of at least the inner surfaces of the preforms to a first temperature, where the first temperature is greater than or equal to the activation temperature of the disinfectant solution, so as to disinfect at least the inner surfaces of the preforms; in step, first heating the disinfectant solution or the disinfectant solution aerosol to raise a temperature of the disinfectant solution aerosol to a second temperature, then spraying the disinfectant solution aerosol raised to the second temperature onto the preforms, where the second temperature is greater than the temperature of the preforms before heating in step and lower than the first temperature. making a disinfectant solution into disinfectant solution aerosol by means of an ultrasonic atomizer, and spraying the disinfectant solution aerosol onto the preforms, so as to attach a substantially uniform thin layer of disinfectant solution to at least the inner surfaces of the preforms to be disinfected; heating the preforms treated in step by radiation to raise a temperature of at least the inner surfaces of the preforms to a first temperature, where the first temperature is greater than or equal to the activation temperature of the disinfectant solution, so as to disinfect at least the inner surfaces of the preforms;