mhurhangee/patent-ind-claim-en huggingface dataset:
A component for a gas turbine engine , comprising: a platform ; an airfoil that extends from said platform ; and an insert positioned such that a first portion of said insert extends relative to a surface of said platform and a second portion extends inside said airfoil , wherein a plurality of standoffs protrude from said surface (80; 180) and support said insert radially above said surface , and said insert is attached to each of said standoffs , characterised in that : the plurality of standoffs are cast and/or machined as part of said platform ; and a radial gap extends between said surface of said platform and said first portion of said insert such that a cooling fluid (F) can be communicated through said radial gap . a platform ; an airfoil that extends from said platform ; and an insert positioned such that a first portion of said insert extends relative to a surface of said platform and a second portion extends inside said airfoil , wherein a plurality of standoffs protrude from said surface (80; 180) and support said insert radially above said surface , and said insert is attached to each of said standoffs , the plurality of standoffs are cast and/or machined as part of said platform ; and a radial gap extends between said surface of said platform and said first portion of said insert such that a cooling fluid (F) can be communicated through said radial gap .
Hydraulic drive system, consisting of at least two individual units , each of which has a hydraulic pump which can be operated by means of a drive and which feeds pressurised fluid into a common feed line on the outlet side, to which, associated with each individual unit , at least one valve device is connected for supplying a respective consumer, wherein two adjacent individual units are separated from each other or connected to each other in a fluid-conducting manner by means of a valve in the feed line , wherein the at least two individual units are of modular design, form a longitudinal chain with each other when strung together and each have a section of the feed line , wherein the respective sections of the feed line are connected to each other by fluid connection points , which can be separated from each other, between the adjacently arranged individual units , wherein the fluid-conducting connection of the individual units to each other via the feed line forms a type of longitudinal chain for the hydraulic pumps ; and wherein, due to the separable longitudinal chain of the individual units , the respective hydraulic consumers, such as actuators in the form of working cylinders or hydraulic motors, can be operated at rapid or creep speed or, if necessary, can produce high outputs when all individual units are connected.
A hot melt adhesive composition comprising: (i) an amorphous polyolefin copolymer composition comprising more than 40 wt.% 1-butene and from 30 mole % to 75 mole % of units derived from butene; and (ii) a second amorphous polymer comprising at least one butene monomer, wherein the second amorphous polymer: - is a polyisobutylene polymer having a molecular weight (MW n ) of at least 1000; - is compatible with the polyolefin copolymer, so that the materials blend into a uniform hot melt, and the cohesive strength of a mixture 70/30 to 50/50 by weight of the amorphous 1-butene polymer and the second amorphous polymer is maintained for construction purposes; and - has a Saybolt Universal Seconds (SUS) viscosity at 100 °C of from 100 to 20,000, and wherein the adhesive is substantially free of a tackifier. (i) an amorphous polyolefin copolymer composition comprising more than 40 wt.% 1-butene and from 30 mole % to 75 mole % of units derived from butene; and (ii) a second amorphous polymer comprising at least one butene monomer, wherein the second amorphous polymer: - is a polyisobutylene polymer having a molecular weight (MW n ) of at least 1000; - is compatible with the polyolefin copolymer, so that the materials blend into a uniform hot melt, and the cohesive strength of a mixture 70/30 to 50/50 by weight of the amorphous 1-butene polymer and the second amorphous polymer is maintained for construction purposes; and - has a Saybolt Universal Seconds (SUS) viscosity at 100 °C of from 100 to 20,000, and - is a polyisobutylene polymer having a molecular weight (MW n ) of at least 1000; - is compatible with the polyolefin copolymer, so that the materials blend into a uniform hot melt, and the cohesive strength of a mixture 70/30 to 50/50 by weight of the amorphous 1-butene polymer and the second amorphous polymer is maintained for construction purposes; and - has a Saybolt Universal Seconds (SUS) viscosity at 100 °C of from 100 to 20,000, and
Catalyst components for the polymerization of olefins CH2=CHR, wherein R is hydrogen or hydrocarbon radical having 1-12 carbon atoms comprising Ti, Mg, chlorine and an internal donor selected from C 1 -C 10 alkyl esters of C 2 -C 10 aliphatic monocarboxylic acids (EAA) and another internal donor selected from cyclic ethers (CE) such as the EAA/CE molar ratio ranges from 0.2 to less than 20.
Electrical unit, in particular a luminaire , provided for connecting to a trunking rail comprising an elongate trunking rail profile which, with two lateral walls , encloses a receiving space in which at least one busbar having contactable lines extending in the longitudinal direction is arranged, the lines of a busbar extending alternately in at least two planes (A1, B1) which are aligned in parallel with one another and spaced apart from one another, the electrical unit comprising means for contacting the lines of the busbar , which means have at least one rotatable contacting element , on the outer circumference of which contacting element, contacts are arranged which are pivoted out by rotating the contacting element and which are brought into abutment against the lines to be contacted, the means for contacting comprising a first group of contacts and a second group of contacts , the contacts of the first group being arranged with respect to a rotational axis (I) of the contacting element such that, by rotating the contacting element , the contacts are pivoted out in such a way that they are able to contact the lines extending in a first plane (A1), and the contacts of the second group being arranged with respect to a rotational axis (I) of the contacting element such that, by rotating the contacting element , the contacts are pivoted out in such a way that they are able to contact the lines extending in a second plane (B1); characterized in that at least one of the contacts is mounted on the contacting element in a height-adjustable manner, and this contact can only occupy positions which correspond to one of the two groups. the electrical unit comprising means for contacting the lines of the busbar , which means have at least one rotatable contacting element , on the outer circumference of which contacting element, contacts are arranged which are pivoted out by rotating the contacting element and which are brought into abutment against the lines to be contacted, the means for contacting comprising a first group of contacts and a second group of contacts , the contacts of the first group being arranged with respect to a rotational axis (I) of the contacting element such that, by rotating the contacting element , the contacts are pivoted out in such a way that they are able to contact the lines extending in a first plane (A1), and the contacts of the second group being arranged with respect to a rotational axis (I) of the contacting element such that, by rotating the contacting element , the contacts are pivoted out in such a way that they are able to contact the lines extending in a second plane (B1); characterized in that at least one of the contacts is mounted on the contacting element in a height-adjustable manner, and this contact can only occupy positions which correspond to one of the two groups.
A process to make a friable bale, wherein the friable bale is formed from a composition comprising coated polymer particles, which comprise polymer particles formed from a polymer composition comprising an olefin-based polymer, and a coating formed from a coating composition comprising an aqueous metal fatty acid dispersion, and an aqueous polysiloxane emulsion, said process comprising either: a) adding the coated polymer particles to a container; and b) allowing the coated polymer particles to mass together to form the friable bale; or c) adding the coated polymer particles to a baling machine to form the friable bale; wherein the friable bale has a compression force ≤ 1.00 MPa, and wherein compression force is measured according to the method in the description. a) adding the coated polymer particles to a container; and b) allowing the coated polymer particles to mass together to form the friable bale; or c) adding the coated polymer particles to a baling machine to form the friable bale;
A solar module having a layered structure, said solar module comprising: a solar cell layer comprising solar cells , said solar cells having an active front side having a first color, and a transparent or translucent coloring layer in front of said solar cell layer, whereby a coloring agent is distributed through at least a portion of the thickness of the transparent or translucent coloring layer in such a manner that said transparent or translucent coloring layer has a uniform third color or a non-uniform third color, whereby said transparent or translucent coloring layer comprises transparent fibers colored on their outer surface with said third color, preferably by pigments or toner or other coloring agents in said third color on said outer surface, and/or colored transparent or translucent fibers in said third color, preferably by pigments in said transparent or translucent fibers in said third color, and/or filaments dyed or coated in said third color, preferably by pigments or toner or other coloring agents in said third color in or on said filaments.. a solar cell layer comprising solar cells , said solar cells having an active front side having a first color, and a transparent or translucent coloring layer in front of said solar cell layer, whereby a coloring agent is distributed through at least a portion of the thickness of the transparent or translucent coloring layer in such a manner that said transparent or translucent coloring layer has a uniform third color or a non-uniform third color, whereby said transparent or translucent coloring layer comprises transparent fibers colored on their outer surface with said third color, preferably by pigments or toner or other coloring agents in said third color on said outer surface, and/or colored transparent or translucent fibers in said third color, preferably by pigments in said transparent or translucent fibers in said third color, and/or filaments dyed or coated in said third color, preferably by pigments or toner or other coloring agents in said third color in or on said filaments..
A load handling system , comprising: a load handling device having a load support that is configured to engage a load and a first drive that is adapted to drive said load support with respect to a load; and a conveyor moveable along said load support and a second drive that is adapted to propel said conveyor with respect to said load support ; a control that is adapted to operating said first and second drives to engage the load (P) with the load support wherein said control is adapted to operate said first and second drives independent from each other and wherein said first and second drives are bi-directional; characterised in that the load handling system further comprises a vertical drive that is operational to drive said load support vertically upward or downward wherein said control is adapted to operate said vertical drive to elevate a load being picked from a rack while said first drive is extending said load support and said second drive is propelling said conveyor toward said load handling device and wherein said control is adapted to operate said vertical drive to lower a load (P) being deposited on a rack while said first drive is retracting said load support and said second drive is propelling said conveyor away from said load handling device . a load handling device having a load support that is configured to engage a load and a first drive that is adapted to drive said load support with respect to a load; and a conveyor moveable along said load support and a second drive that is adapted to propel said conveyor with respect to said load support ; a control that is adapted to operating said first and second drives to engage the load (P) with the load support wherein said control is adapted to operate said first and second drives independent from each other and wherein said first and second drives are bi-directional; characterised in that the load handling system further comprises a vertical drive that is operational to drive said load support vertically upward or downward wherein said control is adapted to operate said vertical drive to elevate a load being picked from a rack while said first drive is extending said load support and said second drive is propelling said conveyor toward said load handling device and wherein said control is adapted to operate said vertical drive to lower a load (P) being deposited on a rack while said first drive is retracting said load support and said second drive is propelling said conveyor away from said load handling device .
A process for producing a two-stage cross-linked biopolymer membrane for corneal trauma repair, being characterized by that the process lies in preparation of a mixed solution of biopolymers consisting of collagen and chitosan, dropwise adding a solution of the primary crosslinking agent from the group of tannins and pouring the solution onto a flat pad and then drying to form a thin primary cross-linked chitosan-collagen membrane with a thickness after drying of 5 to 10 μm and this is then cross-linked in the second stage with a solution of genipin as a secondary crosslinking agent.
An autoinjector , comprising an audible indicator , - wherein the audible indicator comprises a resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) configured to reside in two or more states (S1, S2) having two or more different conformations, - wherein in a relaxed state (S1), the resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) is relaxed in a first conformation, - wherein in a biased state (S2), the resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) is biased to store energy in a second conformation different to the first conformation, and - wherein the resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) releases stored energy to generate an audible signal when changing from the biased state (S2) into the relaxed state (S1) due to a transition from the second conformation to the first conformation, wherein the resilient force member (313.1, 413.1, 513.1) is supported by a retaining element (10, 15.2, 110, 210, 310, 410, 510, 610) in the biased state (S2) in order to prevent transition into the relaxed state (S1). - wherein the audible indicator comprises a resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) configured to reside in two or more states (S1, S2) having two or more different conformations, - wherein in a relaxed state (S1), the resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) is relaxed in a first conformation, - wherein in a biased state (S2), the resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) is biased to store energy in a second conformation different to the first conformation, and - wherein the resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) releases stored energy to generate an audible signal when changing from the biased state (S2) into the relaxed state (S1) due to a transition from the second conformation to the first conformation, wherein the resilient force member (313.1, 413.1, 513.1) is supported by a retaining element (10, 15.2, 110, 210, 310, 410, 510, 610) in the biased state (S2) in order to prevent transition into the relaxed state (S1).
A method for provisioning a plurality of IC devices, the method comprising: providing, by a first entity, a plurality of integrated circuit (IC) devices for use in a plurality of manufactured products; storing, by the first entity, in at least one IC device of the plurality of IC devices used as a provisioning device, one or more keys, and a public key; installing, by the first entity, provisioning software in the provisioning device; signing, by the first entity, the provisioning software using a private key, the private key corresponding to the public key; providing , by the first entity, the at least one IC device with the signed provisioning software to a second entity, wherein the second entity verifies the provisioning software using the public key and executes the provisioning software, and wherein the provisioning software encrypts assets provided by the second entity; providing , by the first entity, the signed provisioning software to a third entity; executing , by the third entity, the signed provisioning software on all the plurality of IC devices to be provisioned, and receiving, by the signed provisioning software executed on said plurality of IC devices, the encrypted assets from the second entity, wherein during the manufacturing of the manufactured products by the third entity, the provisioning software executed on said plurality of IC devices verifies and decrypts the encrypted assets of the second entity to provision all the plurality of IC devices. providing, by a first entity, a plurality of integrated circuit (IC) devices for use in a plurality of manufactured products; storing, by the first entity, in at least one IC device of the plurality of IC devices used as a provisioning device, one or more keys, and a public key; installing, by the first entity, provisioning software in the provisioning device; signing, by the first entity, the provisioning software using a private key, the private key corresponding to the public key; providing , by the first entity, the at least one IC device with the signed provisioning software to a second entity, wherein the second entity verifies the provisioning software using the public key and executes the provisioning software, and wherein the provisioning software encrypts assets provided by the second entity; providing , by the first entity, the signed provisioning software to a third entity; executing , by the third entity, the signed provisioning software on all the plurality of IC devices to be provisioned, and receiving, by the signed provisioning software executed on said plurality of IC devices, the encrypted assets from the second entity, wherein during the manufacturing of the manufactured products by the third entity, the provisioning software executed on said plurality of IC devices verifies and decrypts the encrypted assets of the second entity to provision all the plurality of IC devices.
An aerosol delivery system, comprising: a control body (102; 202; 502; 702) for an aerosol delivery device, the control body (102; 202; 502; 702) comprising processing circuitry (310; 510); and an accessory cartridge (328; 504; 704) carrying control information that is readable by the processing circuitry (310; 510); wherein the control body (102; 202; 502; 702) further comprises a cartridge engaging portion configured to removably engage a cartridge that comprises a consumable arrangement comprising aerosol precursor composition and at least one heating element (134; 234) operably engaged therewith; and the control body cartridge engaging portion is also configured to removably engage the accessory cartridge (328; 504; 704) that does not comprise aerosol precursor composition or a heating element; and wherein the processing circuitry (310; 510) is configured to at least: read the control information carried by the accessory cartridge (328; 504; 704) when the control body (102; 202; 502; 702) and accessory cartridge (328; 504; 704) are engaged; and perform an action based at least in part on the control information; and wherein the accessory cartridge (328; 504; 704) is configured to cause performance of the action when engaged with the control body (102; 202; 502; 702). a control body (102; 202; 502; 702) for an aerosol delivery device, the control body (102; 202; 502; 702) comprising processing circuitry (310; 510); and an accessory cartridge (328; 504; 704) carrying control information that is readable by the processing circuitry (310; 510); wherein the control body (102; 202; 502; 702) further comprises a cartridge engaging portion configured to removably engage a cartridge that comprises a consumable arrangement comprising aerosol precursor composition and at least one heating element (134; 234) operably engaged therewith; and the control body cartridge engaging portion is also configured to removably engage the accessory cartridge (328; 504; 704) that does not comprise aerosol precursor composition or a heating element; and wherein the processing circuitry (310; 510) is configured to at least: read the control information carried by the accessory cartridge (328; 504; 704) when the control body (102; 202; 502; 702) and accessory cartridge (328; 504; 704) are engaged; and perform an action based at least in part on the control information; and read the control information carried by the accessory cartridge (328; 504; 704) when the control body (102; 202; 502; 702) and accessory cartridge (328; 504; 704) are engaged; and perform an action based at least in part on the control information; and wherein the accessory cartridge (328; 504; 704) is configured to cause performance of the action when engaged with the control body (102; 202; 502; 702).
A corner connector for connecting sections of spacer bars, said spacer bars being placed between two panels of a window to achieve a desired distance between glass panels, the corner connector comprising a first arm and a second arm connected with each other by a corner and placed at an angle of 90° to each other, wherein, on each edge area of the longitudinal outer surface of the first arm and the second arm , there is a plurality of upper projections inclined at an angle in the range of 4° - 10° to the corresponding outer surface towards the corner , and on the side surfaces of the first arm and the second arm , there is a plurality of side projections inclined at an angle in the range of 30° - 40° to the corresponding side surface towards the corner , wherein the arithmetic average of profile deviations from the mean line, i.e. the roughness Ra, of the side surface of the corner , said side surface being adapted to be in contact with a binder, is greater than the arithmetic average of profile deviations from the mean line, i.e. the roughness Ra, of the surfaces of the other elements of the corner connector.
Motor vehicle headlamp having a light source and at least two optical elements which are set up to distribute light from the light source in a predetermined manner, a first optical element being arranged at a comparatively large distance (d_14) from the light source and a second optical element being arranged at a comparatively small distance (d_16) from the light source such that a light distribution (LV_14) generated by the first optical element and a light distribution (LV_16) generated by the second optical element overlap, characterized in that the first optical element has a longer focal length than the second optical element , in that the light source has a plurality of semiconductor light sources , which semiconductor light sources can be switched on individually or in groups and are arranged in a row aligned transversely to a main radiation direction of the headlamp .