mhurhangee/patent-ind-claim-en huggingface dataset:
An integrated termination package for marine operations, comprising: a. a cable including a plurality of strands , a payload end and an extraction point distal to said payload end; b. an intelligent cable termination connected to said payload end of said cable , said intelligent cable termination including a payload connecting feature ; c. said intelligent cable termination including an instrument package, said instrument package including a processor; and d. a communication link contained within said instrument package, wherein said communication link is configured to transmit information from said processor, wherein the intelligent cable termination includes: a housing configured to transmit a tensile load placed on said cable to said payload connecting feature , the instrument package being contained within said housing ; a collector connected to the housing ; and a middle strand collector configured to slide over the plurality of strands and attach to a perimeter of the collector , wherein each individual strand includes a strand termination , and wherein the strand termination of each individual stand is configured to attach to the collector . a. a cable including a plurality of strands , a payload end and an extraction point distal to said payload end; b. an intelligent cable termination connected to said payload end of said cable , said intelligent cable termination including a payload connecting feature ; c. said intelligent cable termination including an instrument package, said instrument package including a processor; and d. a communication link contained within said instrument package, wherein said communication link is configured to transmit information from said processor, wherein the intelligent cable termination includes: a housing configured to transmit a tensile load placed on said cable to said payload connecting feature , the instrument package being contained within said housing ; a collector connected to the housing ; and a middle strand collector configured to slide over the plurality of strands and attach to a perimeter of the collector , wherein each individual strand includes a strand termination , and wherein the strand termination of each individual stand is configured to attach to the collector . a housing configured to transmit a tensile load placed on said cable to said payload connecting feature , the instrument package being contained within said housing ; a collector connected to the housing ; and a middle strand collector configured to slide over the plurality of strands and attach to a perimeter of the collector , wherein each individual strand includes a strand termination , and wherein the strand termination of each individual stand is configured to attach to the collector .
System for controlling access to a restricted-access area in a building, wherein the system comprises a sliding door system , a controller for the sliding door system , and a recognition device , wherein the sliding door system comprises a door frame and a sliding door which can be displaced in the door frame between a closed position and an open position by means of a drive unit actuated by the controller, wherein the door frame has a passage region and a wall shell region which at least partially accommodates the sliding door in the open position, and wherein the sliding door has an end face which points toward the passage region in the open position; wherein the controller has a processor unit and a sensor unit , wherein the sensor unit is arranged on the end face of the sliding door and wherein the processor unit is arranged in an inner space of the sliding door and is electrically connected to the sensor unit and the drive unit , and wherein the controller is designed to generate an alarm signal if a height (H) of an object in the passage region , as determined by the sensor unit , deviates from a height range stored for said object ; wherein the recognition device is arranged on the sliding door system or in the vicinity thereof and is communicatively connected to the controller, wherein the recognition device is designed to capture and check credentials presented by the object , wherein the processor unit is designed to determine a record in a storage device if the credentials are valid for the object , in which record the credentials are assigned to an opening width (W) of the sliding door and the height range. wherein the sliding door system comprises a door frame and a sliding door which can be displaced in the door frame between a closed position and an open position by means of a drive unit actuated by the controller, wherein the door frame has a passage region and a wall shell region which at least partially accommodates the sliding door in the open position, and wherein the sliding door has an end face which points toward the passage region in the open position; wherein the controller has a processor unit and a sensor unit , wherein the sensor unit is arranged on the end face of the sliding door and wherein the processor unit is arranged in an inner space of the sliding door and is electrically connected to the sensor unit and the drive unit , and wherein the controller is designed to generate an alarm signal if a height (H) of an object in the passage region , as determined by the sensor unit , deviates from a height range stored for said object ; wherein the recognition device is arranged on the sliding door system or in the vicinity thereof and is communicatively connected to the controller, wherein the recognition device is designed to capture and check credentials presented by the object , wherein the processor unit is designed to determine a record in a storage device if the credentials are valid for the object , in which record the credentials are assigned to an opening width (W) of the sliding door and the height range.
Use of a lubricant comprising at least 30% polytetrafluoroethylene, at least 0.5% graphite, and at least 0.5% molybdenum disulfide, characterized in that the lubricant is used at temperatures between 0 K and 273 K for friction reduction for a cleaning device of a heat exchanger used for cooling and/or liquefying gases.
Surgical instrument comprising a tulip , a tulip extension and an extension shaft , wherein the tulip extension is connected to the tulip via a predetermined breaking point , wherein the tulip extension comprises a connecting thread on an outer side at a rear region and comprises an internal thread on its inner side and wherein the extension shaft comprises an extension thread, wherein the connecting thread is adapted to come into operative connection with the extension thread, characterized in that the connecting thread is a left-hand thread and the internal thread is a righthand thread. wherein the tulip extension is connected to the tulip via a predetermined breaking point , wherein the tulip extension comprises a connecting thread on an outer side at a rear region and comprises an internal thread on its inner side and wherein the extension shaft comprises an extension thread, wherein the connecting thread is adapted to come into operative connection with the extension thread, characterized in that the connecting thread is a left-hand thread and the internal thread is a righthand thread.
A method for preparation of a composition comprising squalane comprising: (i) preparing a composition comprising isosqualene by contacting β-farnesene with a palladium catalyst in a β-farnesene to palladium (S/C) ratio of at least 500:1, wherein the palladium catalyst: (a) is Pd(PPh 3 ) 2 Cl 2 ; or (b) comprises (i) a palladium complex selected from the group consisting of [Pd(allyl)Cl] 2 , Pd(cod)Cl 2 , Pd 2 (dba) 3 , Pd(dba) 2 , Pd(dba), Pd(acac) 2 , and a mixture of Pd(dba) 3 and Pd 2 (dba) 3 ; and (ii) a triphenyl phosphine ligand, wherein the catalytic reaction results in a selectivity for isosqualene of 80% or greater, wherein the isosqualene has the structure (I): and (ii) hydrogenating the isosqualene to obtain squalane in the composition. (i) preparing a composition comprising isosqualene by contacting β-farnesene with a palladium catalyst in a β-farnesene to palladium (S/C) ratio of at least 500:1, wherein the palladium catalyst: (a) is Pd(PPh 3 ) 2 Cl 2 ; or (b) comprises (i) a palladium complex selected from the group consisting of [Pd(allyl)Cl] 2 , Pd(cod)Cl 2 , Pd 2 (dba) 3 , Pd(dba) 2 , Pd(dba), Pd(acac) 2 , and a mixture of Pd(dba) 3 and Pd 2 (dba) 3 ; and (ii) a triphenyl phosphine ligand, wherein the catalytic reaction results in a selectivity for isosqualene of 80% or greater, wherein the isosqualene has the structure (I): and (a) is Pd(PPh 3 ) 2 Cl 2 ; or (b) comprises (i) a palladium complex selected from the group consisting of [Pd(allyl)Cl] 2 , Pd(cod)Cl 2 , Pd 2 (dba) 3 , Pd(dba) 2 , Pd(dba), Pd(acac) 2 , and a mixture of Pd(dba) 3 and Pd 2 (dba) 3 ; and (ii) a triphenyl phosphine ligand, (ii) hydrogenating the isosqualene to obtain squalane in the composition.
Pneumatic vehicle tyre comprising a tread with shoulder-side blocks , which extend in the axial direction and comprise block edges running parallel or substantially parallel to one another, and with central blocks between the shoulder-side blocks , the shoulder-side blocks and the central blocks being provided in each case with at least two sipes , which run parallel to one another in plan view and have a width of 0.4 mm to 0.8 mm and a depth at their deepest point of at least 50% of the profile depth, the shoulder-side blocks and the central blocks being provided with multiple micro grooves , in particular at least four micro grooves, which extend parallel to one another in plan view and have a width of 0.2 mm to 0.5 mm and a depth of 0.2 mm to 0.5 mm, the micro grooves extending parallel to the sipes and without crossing, characterized in that , at least over the majority of their extent in plan view, the sipes and the micro grooves formed in the shoulder-side blocks run in each case in the shape of baseless isosceles trapezoids, which adjoin one another and face alternatingly in one circumferential direction and the other, in that the central blocks are substantially parallelogram-shaped in plan view and stand on "tips" in the circumferential direction, and in that the sipes and micro grooves formed in the central blocks run in a wave shape or in a zigzag shape in plan view.
A method for manufacturing an upper for an article of footwear , the method comprising: positioning a skin layer adjacent to a knitted component and in an overlapping configuration, the knitted component having regions with different thicknesses, the knitted component including a first tubular protrusion and a second tubular protrusion that protrude from an adjacent area of the knitted component, the first and second tubular protrusions each protruding in a similar configuration from the adjacent area and forming outwardly-extending portions in the knitted component such that the knitted component comprises two non-flat opposite surfaces at the locations of the tubular protrusions; locating the skin layer and the knitted component between a first surface and a second surface of a press , the first surface including a first material , and the second surface including a second material , the first material having greater compressibility than the second material; and compressing the skin layer and the knitted component between the first surface and the second surface to join the skin layer to the knitted component, wherein areas of the skin layer that are adjacent to the first and second tubular protrusions protrude into a surface formed by the first material to a first depth, wherein areas of the knitted component that are adjacent to the first and second tubular protrusions protrude into a surface formed by the second material to a second depth, and wherein the first depth is greater than the second depth. positioning a skin layer adjacent to a knitted component and in an overlapping configuration, the knitted component having regions with different thicknesses, the knitted component including a first tubular protrusion and a second tubular protrusion that protrude from an adjacent area of the knitted component, the first and second tubular protrusions each protruding in a similar configuration from the adjacent area and forming outwardly-extending portions in the knitted component such that the knitted component comprises two non-flat opposite surfaces at the locations of the tubular protrusions; locating the skin layer and the knitted component between a first surface and a second surface of a press , the first surface including a first material , and the second surface including a second material , the first material having greater compressibility than the second material; and compressing the skin layer and the knitted component between the first surface and the second surface to join the skin layer to the knitted component, wherein areas of the skin layer that are adjacent to the first and second tubular protrusions protrude into a surface formed by the first material to a first depth, wherein areas of the knitted component that are adjacent to the first and second tubular protrusions protrude into a surface formed by the second material to a second depth, and wherein the first depth is greater than the second depth.
A method of fabricating a diffractive backlight, the method comprising: providing a light guide having a diffraction grating; diffractively scattering guided light out of the light guide using the diffraction grating to selectively expose photoresist adjacent to a surface of the light guide, selective exposure providing an opening in the photoresist that is aligned with the diffraction grating; and depositing a reflective material into the opening to form a reflective island aligned with the diffraction grating, wherein a reflective diffraction grating element of the diffractive backlight comprises a combination of the diffraction grating and the reflective island. providing a light guide having a diffraction grating; diffractively scattering guided light out of the light guide using the diffraction grating to selectively expose photoresist adjacent to a surface of the light guide, selective exposure providing an opening in the photoresist that is aligned with the diffraction grating; and depositing a reflective material into the opening to form a reflective island aligned with the diffraction grating, wherein a reflective diffraction grating element of the diffractive backlight comprises a combination of the diffraction grating and the reflective island.
Method for coupling a jacket with a foundation pile , comprising; - mounting a first flange with the jacket, - contacting a second flange with the foundation pile such that the second flange is supported by the foundation pile, - mutually positioning the first flange and the second flange such that the jacket may be supported by the pile through the first flange and the second flange , - arranging an inflatable spacing member between the first flange and second flange such that the spacing member contacts both the first flange and second flange for supporting the jacket through the spacing member, - inflating the spacing member for increasing a spacing (s) between the first flange and second flange , and - providing a grout coupling between the pile and the jacket. - mounting a first flange with the jacket, - contacting a second flange with the foundation pile such that the second flange is supported by the foundation pile, - mutually positioning the first flange and the second flange such that the jacket may be supported by the pile through the first flange and the second flange , - arranging an inflatable spacing member between the first flange and second flange such that the spacing member contacts both the first flange and second flange for supporting the jacket through the spacing member, - inflating the spacing member for increasing a spacing (s) between the first flange and second flange , and - providing a grout coupling between the pile and the jacket.
A method for forming a stacked switches system , comprising: providing multiple stack member devices; dividing the multiple stack member devices into more than two stack groups , wherein the number of the stack groups is less than a number of the stack member devices; connecting the stack member devices of a same stack group via a first stack link, whereby each stack member of a stack group is connected to each stack member of the same stack group, the first stack link connecting stack members in a ring or in a chain; connecting each stack member device with each stack member device in an adjacent stack group via a second stack link; and binding multiple second stack links connected with a respective stack member device in an adjacent stack group , so as to form an aggregated stack link group. providing multiple stack member devices; dividing the multiple stack member devices into more than two stack groups , wherein the number of the stack groups is less than a number of the stack member devices; connecting the stack member devices of a same stack group via a first stack link, whereby each stack member of a stack group is connected to each stack member of the same stack group, the first stack link connecting stack members in a ring or in a chain; connecting each stack member device with each stack member device in an adjacent stack group via a second stack link; and binding multiple second stack links connected with a respective stack member device in an adjacent stack group , so as to form an aggregated stack link group.
A system for generating meshes for object models of structures comprising: at least one processor configured to: classify a type of an input face of a three dimensional object model of a structure based at least in part on a number of loops included by the input face , a loop being a continuous surface portion that extends around the input face or bounds an opening or aperture through the input face ; select based on the classified type of the input face a multi-block decomposition algorithm from among a plurality of multi-block decomposition algorithms that the processor is configured to use; use the selected multi-block decomposition algorithm to determine locations of a plurality of blocks across the input face, the blocks being virtual faces into which the selected multi-block decomposition algorithm splits the input face ; determine virtual face data representative of the virtual faces and including split lines defining blocks that subdivide the input face ; and mesh each block to produce mesh data defining a mesh that divides the input face into a plurality of quadrilateral elements based on the virtual face data.
An apparatus for artificial weathering or lightfastness testing of samples, comprising a weathering chamber in which at least one sample can be arranged; a plurality of radiation sources which are arranged in the weathering chamber and which can be operated independently of one another, wherein the apparatus is configured such that the at least one sample is movable on a closed path about the plurality of radiation sources , characterized in that the radiation sources are formed by xenon gas discharge lamps, the radiation sources can be operated successively in time and/or at least partially simultaneously, and further comprising control means configured to generate control signals for driving said radiation sources and having a plurality of outputs connectable to said plurality of radiation sources , wherein the control device is configured to determine an optimum operating mode on the basis of a combined radiation power of the radiation sources desired by the user, in which the radiation sources are exposed to the lowest possible loads.
An item of furniture having at least one sliding door , which closes at least a portion of a furniture body and is movable on a runway, and an electromechanical closure system, using which the sliding door is lockable in a closed position, wherein the electromechanical closure system comprises a closing bolt movable in and opposite to a closing direction (x) between a release position and a locked position by means of an electric motor , wherein the closing bolt itself effectuates locking of the sliding door ; characterized in that - a blocking element is accommodated in a cavity of the closing bolt , - wherein the blocking element is displaceable between a blocking position protruding from an opening in a lateral surface of the closing bolt and a neutral position not protruding therefrom, wherein a housing of the closure system accommodating the electric motor is fastened on a side facing away from the sliding door of a wall element of the item of furniture arranged in parallel to the sliding door , wherein the housing comprises a guide protruding into a borehole of the wall element, in which the closing bolt is guided so it is displaceable, wherein the closing bolt protrudes into a pocket of the sliding door provided on the side facing toward the wall element in the locking position. - a blocking element is accommodated in a cavity of the closing bolt , - wherein the blocking element is displaceable between a blocking position protruding from an opening in a lateral surface of the closing bolt and a neutral position not protruding therefrom,
A steering for a marine propulsion unit , comprising: an electric actuator configured to change a direction of a thrust force of the marine propulsion unit ; a storage configured to store an output region set based on a steering speed (ω) and a steering torque (T) according to the steering speed (ω) due to the electric actuator ; and a controller re configured or programmed to acquire a required steering speed (wr) and a required steering torque (Tr) according to a rotation angle (θh) of a steering wheel to be operated by a user, to adjust at least one of the required steering speed (ωr) and the required steering torque (Tr) such that the required steering speed (ωr) and the required steering torque (Tr) fall within the output region when the acquired required steering speed (ωr) and required steering torque (Tr) are outside the output region, to set a target steering angle (θs) according to the adjusted required steering speed (ωr) and required steering torque (Tr), to set the target steering angle (θs) according to the rotation angle (θh) of the steering wheel when the acquired required steering speed (ωr) and required steering torque (Tr) are within the output region, and to drive and control the electric actuator according to the set target steering angle (θs). an electric actuator configured to change a direction of a thrust force of the marine propulsion unit ; a storage configured to store an output region set based on a steering speed (ω) and a steering torque (T) according to the steering speed (ω) due to the electric actuator ; and a controller re configured or programmed to acquire a required steering speed (wr) and a required steering torque (Tr) according to a rotation angle (θh) of a steering wheel to be operated by a user, to adjust at least one of the required steering speed (ωr) and the required steering torque (Tr) such that the required steering speed (ωr) and the required steering torque (Tr) fall within the output region when the acquired required steering speed (ωr) and required steering torque (Tr) are outside the output region, to set a target steering angle (θs) according to the adjusted required steering speed (ωr) and required steering torque (Tr), to set the target steering angle (θs) according to the rotation angle (θh) of the steering wheel when the acquired required steering speed (ωr) and required steering torque (Tr) are within the output region, and to drive and control the electric actuator according to the set target steering angle (θs).