mhurhangee/ep-ind-claims huggingface dataset:
Method for distributing, in a content distribution network, a content that is provided by a source entity whose integrity is guaranteed by means of a private key, said method comprising the following steps implemented by an entity for distributing a content which does not have said private key: - reception of an access request for said content from a client entity; - sending, to a proxy entity which has said private key, of a request for signature of at least one datum by means of said private key; - reception, from the proxy entity, of said at least one signed datum, said at least one signed datum certifying the integrity of said distribution entity for the client entity; - sending of a public encryption key associated with the private key to the client entity; - sending of said at least one signed datum to the client entity and distribution of the content to the client entity. - reception of an access request for said content from a client entity; - sending, to a proxy entity which has said private key, of a request for signature of at least one datum by means of said private key; - reception, from the proxy entity, of said at least one signed datum, said at least one signed datum certifying the integrity of said distribution entity for the client entity; - sending of a public encryption key associated with the private key to the client entity; - sending of said at least one signed datum to the client entity and distribution of the content to the client entity.
A method of producing at least one olefin product comprising: providing at least one olefinic substrate, wherein the at least one olefinic substrate is a fatty acid methyl ester which is soy FAME; providing at least one alpha olefin; and contacting the at least one olefinic substrate with the at least one alpha olefin in the presence of a ruthenium complex bearing a cyclic alkyl amino carbene ligand under reaction conditions effective to allow a metathesis reaction to occur, thereby producing the at least one olefin product, wherein the ruthenium complex bearing a cyclic alkyl amino carbene ligand is a compound of Formula I, wherein the compound of Formula I has the structure: wherein, X is independently for each occurrence a monovalent ligand; R 2 is independently for each occurrence alkyl; R 3 is alkyl; R 4 is alkyl, aryl, heteroaryl, aralkyl, or heteroaralkyl, or R 3 and R 4, taken together with the carbon atom to which they are attached, form a five-, six-, or ten-membered cycloalkyl or heterocyclyl ring; R 5 is alkyl; R 6 is H or alkyl provided that R 5 and R 6 are not the same, and R 6 has fewer atoms than R 5; and R 7 is alkyl. providing at least one olefinic substrate, wherein the at least one olefinic substrate is a fatty acid methyl ester which is soy FAME; providing at least one alpha olefin; and contacting the at least one olefinic substrate with the at least one alpha olefin in the presence of a ruthenium complex bearing a cyclic alkyl amino carbene ligand under reaction conditions effective to allow a metathesis reaction to occur, thereby producing the at least one olefin product, wherein the ruthenium complex bearing a cyclic alkyl amino carbene ligand is a compound of Formula I, wherein the compound of Formula I has the structure: wherein, X is independently for each occurrence a monovalent ligand; R 2 is independently for each occurrence alkyl; R 3 is alkyl; R 4 is alkyl, aryl, heteroaryl, aralkyl, or heteroaralkyl, or R 3 and R 4, taken together with the carbon atom to which they are attached, form a five-, six-, or ten-membered cycloalkyl or heterocyclyl ring; R 5 is alkyl; R 6 is H or alkyl provided that R 5 and R 6 are not the same, and R 6 has fewer atoms than R 5; and R 7 is alkyl. X is independently for each occurrence a monovalent ligand; R 2 is independently for each occurrence alkyl; R 3 is alkyl; R 4 is alkyl, aryl, heteroaryl, aralkyl, or heteroaralkyl, or R 3 and R 4, taken together with the carbon atom to which they are attached, form a five-, six-, or ten-membered cycloalkyl or heterocyclyl ring; R 5 is alkyl; R 6 is H or alkyl provided that R 5 and R 6 are not the same, and R 6 has fewer atoms than R 5; and R 7 is alkyl.
A process for the production of a stretch film comprising a) providing a film web comprising a center portion comprising linear low density polyethylene (LLDPE) and edge portions comprising low density polyethylene (LDPE) using an encapsulation die, b) solidifying the film web to obtain a solidified film web comprising a solidified center portion comprising LLDPE and solidified edge portions comprising LDPE and c) removing the solidified edge portions from the solidified film web to obtain the stretch film. a) providing a film web comprising a center portion comprising linear low density polyethylene (LLDPE) and edge portions comprising low density polyethylene (LDPE) using an encapsulation die, b) solidifying the film web to obtain a solidified film web comprising a solidified center portion comprising LLDPE and solidified edge portions comprising LDPE and c) removing the solidified edge portions from the solidified film web to obtain the stretch film.
A device for separation of a biological sample into a first phase and a second phase, said device comprising: a container including at least a first portion having a first diameter, a second portion having a second diameter, and a third portion having a third diameter; an inlet located adjacent the first portion, said inlet configured for receiving the biological sample; an outlet located adjacent the third portion wherein the second portion is located between the first and third portion; a separator located within the container and disposed between the inlet and the outlet, the separator for separating the biological sample into the first phase and the second phase; and a member for creating a pressure gradient across the separator to increase a rate of movement of the biological sample through the separator such that the first phase exits the separator and the outlet prior to the second phase, and wherein the first, second, and third diameters (D1, D2, D3) progressively decrease in size with the first diameter being the largest in size and the third diameter being the smallest in size, wherein the container is configured such that the biological sample moves through the container in a vertical direction and characterized in that the inlet comprises a narrow feed channel having a diameter which is less than the first diameter of the first portion. a container including at least a first portion having a first diameter, a second portion having a second diameter, and a third portion having a third diameter; an inlet located adjacent the first portion, said inlet configured for receiving the biological sample; an outlet located adjacent the third portion wherein the second portion is located between the first and third portion; a separator located within the container and disposed between the inlet and the outlet, the separator for separating the biological sample into the first phase and the second phase; and a member for creating a pressure gradient across the separator to increase a rate of movement of the biological sample through the separator such that the first phase exits the separator and the outlet prior to the second phase, and wherein the first, second, and third diameters (D1, D2, D3) progressively decrease in size with the first diameter being the largest in size and the third diameter being the smallest in size, wherein the container is configured such that the biological sample moves through the container in a vertical direction and characterized in that the inlet comprises a narrow feed channel having a diameter which is less than the first diameter of the first portion.
An applicator with a skin cooling arrangement, the applicator comprising: a housing and a support structure extending from a distal end of the housing, the support structure including at least one cooling fluid conducting channel; a transparent window mounted on the support structure, the transparent window including at least one cooling fluid conducting channel being in fluid communication with the at least one fluid conducting channel in the support structure, the transparent window arranged to cool a treated tissue area in contact with the transparent window; a light pipe homogenizing rod; and characterized by: a pair of lenses configured to receive a homogenized beam of optical energy from the light pipe homogenizing rod and to image an output facet of the light pipe homogenizing rod to a treated skin or tissue plane, wherein the output facet of the light pipe homogenizing rod has a trapezoidal or oval shape. a housing and a support structure extending from a distal end of the housing, the support structure including at least one cooling fluid conducting channel; a transparent window mounted on the support structure, the transparent window including at least one cooling fluid conducting channel being in fluid communication with the at least one fluid conducting channel in the support structure, the transparent window arranged to cool a treated tissue area in contact with the transparent window; a light pipe homogenizing rod; and characterized by: a pair of lenses configured to receive a homogenized beam of optical energy from the light pipe homogenizing rod and to image an output facet of the light pipe homogenizing rod to a treated skin or tissue plane, wherein the output facet of the light pipe homogenizing rod has a trapezoidal or oval shape. a pair of lenses configured to receive a homogenized beam of optical energy from the light pipe homogenizing rod and to image an output facet of the light pipe homogenizing rod to a treated skin or tissue plane, wherein the output facet of the light pipe homogenizing rod has a trapezoidal or oval shape.
A clamping collar comprising a metal belt carrying a protruding lug in the vicinity of a first end and a hook in the vicinity of a second end, characterized in that the hook has a front wall and a common part which extends rearwardly from this front wall up to an area of connection of the hook to the second end of the belt, the front wall being intended to be retained behind the lug while the hook is hooked on the lug to keep the collar in the clamped state, the common part linking the front wall to the belt and having a gripping surface protruding radially outwardly and two lateral borders (18, 19) which extend axially on either side of the gripping surface by being radially set back from the gripping surface, the lateral borders (18, 19) being linked to the end of the belt in the continuity of the latter, characterized in that the lateral borders (18, 19) are linked to the end of the belt in the continuity of the latter without a radial fold outwardly and having, with respect to a plane tangent to the outer circumferential surface of the belt in the area of attachment of the hook to said circumferential surface, an inclination comprised between 5° and 60°.
A composition comprising at least one thiosemicarbazone compound for use in a method for the treatment of anti-cancer therapy induced cognitive impairment, the use comprising the step of administering to a patient the composition comprising the at least one thiosemicarbazone compound (Formula II):
A piperonylic acid derivative, characterized in that the structure of the piperonylic acid derivative is shown in a general formula I: wherein: X 1 is selected from halogens; X 2 is selected from H or halogens; R is selected from H, C 1 -C 3 alkyl or C 1 -C 3 haloalkyl; Y 1 is selected from halogens or C 1 -C 3 haloalkyl; Y 2 is selected from halogens or C 1 -C 3 haloalkyl. X 1 is selected from halogens; X 2 is selected from H or halogens; R is selected from H, C 1 -C 3 alkyl or C 1 -C 3 haloalkyl; Y 1 is selected from halogens or C 1 -C 3 haloalkyl; Y 2 is selected from halogens or C 1 -C 3 haloalkyl.
A platform for a gas turbine engine comprising: a platform body defining one or more slots between a plurality of flanges, the one or more slots dimensioned to receive a respective flange of a hub, and the platform body including a plurality of composite layers that join together to define an internal cavity; and a filler extending in the internal cavity between the plurality of composite layers and including a stacked composite structure (76-1, 76-2, 76-3) having a multitude of composite layers, characterized in that: the multitude of composite layers in the stacked composite structure are arranged in parallel planes; and the multitude of composite layers in the stacked composite structure are surrounded by an overwrap ply, the overwrap ply including a single layer defining a butt joint with a discontinuity in the overwrap ply to form an opening to the stacked composite structure. a platform body defining one or more slots between a plurality of flanges, the one or more slots dimensioned to receive a respective flange of a hub, and the platform body including a plurality of composite layers that join together to define an internal cavity; and a filler extending in the internal cavity between the plurality of composite layers and including a stacked composite structure (76-1, 76-2, 76-3) having a multitude of composite layers, characterized in that: the multitude of composite layers in the stacked composite structure are arranged in parallel planes; and the multitude of composite layers in the stacked composite structure are surrounded by an overwrap ply, the overwrap ply including a single layer defining a butt joint with a discontinuity in the overwrap ply to form an opening to the stacked composite structure. the multitude of composite layers in the stacked composite structure are arranged in parallel planes; and the multitude of composite layers in the stacked composite structure are surrounded by an overwrap ply, the overwrap ply including a single layer defining a butt joint with a discontinuity in the overwrap ply to form an opening to the stacked composite structure.
A method of forming an article of footwear, comprising: forming an upper using a rapid manufacturing additive fabrication technique, wherein the step of forming the upper includes forming a plurality of upper portions using the rapid manufacturing additive fabrication technique and engaging the plurality of upper portions together to form the upper; forming a sole structure using a manufacturing technique that is not a rapid manufacturing technique, including: forming a midsole including a midsole impact force attenuation system, and engaging an outsole with the midsole; and engaging the upper with the sole structure. forming an upper using a rapid manufacturing additive fabrication technique, wherein the step of forming the upper includes forming a plurality of upper portions using the rapid manufacturing additive fabrication technique and engaging the plurality of upper portions together to form the upper; forming a sole structure using a manufacturing technique that is not a rapid manufacturing technique, including: forming a midsole including a midsole impact force attenuation system, and engaging an outsole with the midsole; and forming a midsole including a midsole impact force attenuation system, and engaging an outsole with the midsole; and engaging the upper with the sole structure.
A power supply control apparatus, comprising: - a DC power supply that is configured to be electrically connected to a load and has a positive electrode and a negative electrode; - a relay that includes one pair of contact points which are configured to mechanically move and that is connected to a current path from the positive electrode to the negative electrode through the load in series; - a switching device that is a semiconductor device having a switching function and that is connected to the current path in series; - a sensor (7A, 7B; 6A-C) that is connected to the current path and that is configured to detect a current or a voltage; and - a controller that is configured - to open or close the relay and the switching device, - to detect a state in which a current flowing through the current path is lower than a predetermined current threshold as a non-conductive state by using the sensor (7A, 7B; 6A-C) and, in a case in which the current path is the non-conductive state, - to open the current path by setting the relay to an OFF state and by then switching the switching device to the OFF state. - a DC power supply that is configured to be electrically connected to a load and has a positive electrode and a negative electrode; - a relay that includes one pair of contact points which are configured to mechanically move and that is connected to a current path from the positive electrode to the negative electrode through the load in series; - a switching device that is a semiconductor device having a switching function and that is connected to the current path in series; - a sensor (7A, 7B; 6A-C) that is connected to the current path and that is configured to detect a current or a voltage; and - a controller that is configured - to open or close the relay and the switching device, - to detect a state in which a current flowing through the current path is lower than a predetermined current threshold as a non-conductive state by using the sensor (7A, 7B; 6A-C) and, in a case in which the current path is the non-conductive state, - to open the current path by setting the relay to an OFF state and by then switching the switching device to the OFF state. - to open or close the relay and the switching device, - to detect a state in which a current flowing through the current path is lower than a predetermined current threshold as a non-conductive state by using the sensor (7A, 7B; 6A-C) and, in a case in which the current path is the non-conductive state, - to open the current path by setting the relay to an OFF state and by then switching the switching device to the OFF state.
A method for welding an optical fiber, in particular a hollow-core fiber, and a perforated element, in particular made of glass, by means of a pulsed laser beam, in particular a USP laser beam, wherein the optical fiber is inserted into a hole of the perforated element so that the outer circumference of the optical fiber and the inner circumference of the hole form a cylindrical joining surface, wherein the optical fiber and the perforated element are locally melted in the region of the joining surface by means of the laser beam focused into the workpiece material and thereby welded to one another, characterized in that a pulsed laser beam whose beam direction extends in the axial direction of the cylindrical joining surface is focused on the region of the joining surface, and in that the laser focus in the region of the joining surface is moved in the axial direction in or opposite to the beam direction of the laser beam in order to produce at least one weld seam, in particular an axial weld seam, in the region of the joining surface.
A harness assembly (100, 200) for a respiratory protection device, comprising: a strap support (120, 220) having an attachment point (123, 223); a first strap (142a, 242a) having a first strap attachment element (150, 250); and a second strap having a second strap attachment element (160, 260); wherein the first strap attachment element is attachable to the second strap attachment element and attachable to the attachment point of the strap support, and the first and second straps are positionable between a first configuration in which the first strap attachment element is attached only to the second strap attachment element and a second configuration in which the first strap attachment element is attached to the second strap attachment element and the attachment point of the strap support, characterized in that the first strap attachment element comprises a first ring defining a first central opening and the second strap attachment element comprises a second ring defining a second central opening and in that the first strap attachment element (150, 250) is able to rotate at least 30° relative to the second strap attachment element (160, 260) when the first and second strap attachment elements are attached. a strap support (120, 220) having an attachment point (123, 223); a first strap (142a, 242a) having a first strap attachment element (150, 250); and a second strap having a second strap attachment element (160, 260); wherein the first strap attachment element is attachable to the second strap attachment element and attachable to the attachment point of the strap support, and the first and second straps are positionable between a first configuration in which the first strap attachment element is attached only to the second strap attachment element and a second configuration in which the first strap attachment element is attached to the second strap attachment element and the attachment point of the strap support, characterized in that the first strap attachment element comprises a first ring defining a first central opening and the second strap attachment element comprises a second ring defining a second central opening and in that the first strap attachment element (150, 250) is able to rotate at least 30° relative to the second strap attachment element (160, 260) when the first and second strap attachment elements are attached.
A boat comprising a cradle assembly, the boat being capable of cradling a smaller boat in the cradle assembly, the cradle assembly comprising: a support, comprising one or more support fenders; one or more enclosure fenders extending along opposite lengths of the support; an arrestor located at one end of the support; an open-ended enclosure for a smaller boat being formed between the support, the one or more enclosure fenders and the arrestor, the one or more support fenders facing into the enclosure, and the open end of the open-ended enclosure being opposite the arrestor wherein the enclosure fenders comprise an energy absorbing component to absorb impact when the smaller boat enters the enclosure, characterised by the cradle assembly being configured to be located in a section of the boat, within which section a fluid level is controllable to lower the smaller boat onto the support of the cradle assembly and/or raise the smaller boat from the support, and wherein the arrestor comprises a net and/or one or more kinetic energy recovery elements, the arrestor provided to arrest motion of the smaller boat when the smaller boat enters into or onto the cradle assembly. a support, comprising one or more support fenders; one or more enclosure fenders extending along opposite lengths of the support; an arrestor located at one end of the support; an open-ended enclosure for a smaller boat being formed between the support, the one or more enclosure fenders and the arrestor, the one or more support fenders facing into the enclosure, and the open end of the open-ended enclosure being opposite the arrestor wherein the enclosure fenders comprise an energy absorbing component to absorb impact when the smaller boat enters the enclosure, characterised by the cradle assembly being configured to be located in a section of the boat, within which section a fluid level is controllable to lower the smaller boat onto the support of the cradle assembly and/or raise the smaller boat from the support, and wherein the arrestor comprises a net and/or one or more kinetic energy recovery elements, the arrestor provided to arrest motion of the smaller boat when the smaller boat enters into or onto the cradle assembly.