mhurhangee/patent-ind-claim-en huggingface dataset:
A shock strut, comprising: a strut cylinder ; a strut piston operatively coupled to the strut cylinder; a shrink piston disposed partially within and partially extending from the strut cylinder; and a shrink chamber at least partially defined by the shrink piston; wherein the shrink piston comprises: a shrink piston head ; a sleeve extending from the shrink piston head; and a first mechanical stop . a strut cylinder ; a strut piston operatively coupled to the strut cylinder; a shrink piston disposed partially within and partially extending from the strut cylinder; and a shrink chamber at least partially defined by the shrink piston; wherein the shrink piston comprises: a shrink piston head ; a sleeve extending from the shrink piston head; and a first mechanical stop . a shrink piston head ; a sleeve extending from the shrink piston head; and a first mechanical stop .
Coextruded, unstretched, transparent and thermoformable polyester film containing at least one base layer (B) made of a-PET and a heat-sealable outer layer (A), wherein the heat-sealable outer layer (A) comprises at least 80 % by weight of polyester, wherein a) the polyester of the outer layer (A) is composed of 25 to 95 mol% of units derived from at least one aromatic dicarboxylic acid and 5 to 75 mol% of units derived from at least one aliphatic dicarboxylic acid, and is constructed on the basis of aliphatic diols, wherein the reported amounts in mol% always sum to 100 %, b) the outer layer (A) contains up to 0.4 % by weight of inorganic or organic particles having an average diameter d 50 of 2.0 to 8.0 μ m, wherein the d 50 is determined as disclosed in the description, c) the outer layer (A) has a layer thickness of 10 to 100 μ m and d) the film has a thickness in the range from 100 to 1500 μ m and e) has a haze of less than 10 % and a clarity of at least 80 %, wherein the haze and the clarity are determined as disclosed in the description and f) has a sealed seam strength to itself (= FIN sealing) measured as disclosed in the description in the range from 3 to 10 N/15 mm. a) the polyester of the outer layer (A) is composed of 25 to 95 mol% of units derived from at least one aromatic dicarboxylic acid and 5 to 75 mol% of units derived from at least one aliphatic dicarboxylic acid, and is constructed on the basis of aliphatic diols, wherein the reported amounts in mol% always sum to 100 %, b) the outer layer (A) contains up to 0.4 % by weight of inorganic or organic particles having an average diameter d 50 of 2.0 to 8.0 μ m, wherein the d 50 is determined as disclosed in the description, c) the outer layer (A) has a layer thickness of 10 to 100 μ m and d) the film has a thickness in the range from 100 to 1500 μ m and e) has a haze of less than 10 % and a clarity of at least 80 %, wherein the haze and the clarity are determined as disclosed in the description and f) has a sealed seam strength to itself (= FIN sealing) measured as disclosed in the description in the range from 3 to 10 N/15 mm.
Arrangement comprising an air duct and a functional element mounted in the air duct , wherein the air duct extends substantially in a longitudinal direction (X) and has a duct wall which encloses a flow cross section and which has on its inner side at least one fastening device which has at least one linear rail which extends at least in sections in the duct longitudinal direction (X), and at least two undercut latching sections , wherein the functional element can be pushed onto the fastening device in the duct longitudinal direction (X), characterized in that the functional element has two latching feet which engage behind the undercut latching sections in order to fasten the functional element in the air duct .
An injection molding machine, comprising: a cylinder which drives a movable member which is a component of the injection molding machine; a liquid pressure pump which supplies a working liquid to the cylinder ; a flow path through which the liquid pressure pump and the cylinder are connected to each other; a flow path opening/closing unit which is provided in the flow path and opens or closes the flow path; and acontroller which is configured to control operations of the liquid pressure pump and the flow path opening/closing unit , wherein the controller is configured to open the flow path by the flow path opening/closing unit to operate the cylinder and to drive the movable member in a state of driving the liquid pressure pump in a state where the flow path is closed by the flow path opening/closing unit so as to increase a liquid pressure of the working liquid between the liquid pressure pump and the flow path opening/closing unit . a cylinder which drives a movable member which is a component of the injection molding machine; a liquid pressure pump which supplies a working liquid to the cylinder ; a flow path through which the liquid pressure pump and the cylinder are connected to each other; a flow path opening/closing unit which is provided in the flow path and opens or closes the flow path; and acontroller which is configured to control operations of the liquid pressure pump and the flow path opening/closing unit , wherein the controller is configured to open the flow path by the flow path opening/closing unit to operate the cylinder and to drive the movable member in a state of driving the liquid pressure pump in a state where the flow path is closed by the flow path opening/closing unit so as to increase a liquid pressure of the working liquid between the liquid pressure pump and the flow path opening/closing unit .
An image sensor comprising: a substrate including a pixel region (PXR), the substrate extending in a first direction (D1) and a second direction (D2) intersecting the first direction (D1); a first photoelectric conversion region and a second photoelectric conversion region which are disposed in the pixel region (PXR) of the substrate and are adjacent to each other in the first direction (D1); a deep device isolation pattern penetrating the substrate in a third direction (D3) perpendicular to the first direction (D1) and the second direction (D2), and surrounding the pixel region (PXR), the deep device isolation pattern comprising first extensions (150P1) extending in the second direction (D2) between the first photoelectric conversion region and the second photoelectric conversion region , and the first extensions (150P1) spaced apart from each other in the second direction (D2); a plurality of first transfer gate electrodes (TG1) disposed on the pixel region (PXR) of the substrate and vertically overlapping with the first photoelectric conversion region in the third direction (D3); and a plurality of second transfer gate electrodes (TG2) disposed on the pixel region (PXR) of the substrate and vertically overlapping with the second photoelectric conversion region in the third direction (D3), wherein the first photoelectric conversion region extends in the second direction (D2) under the plurality of first transfer gate electrodes (TG1). a substrate including a pixel region (PXR), the substrate extending in a first direction (D1) and a second direction (D2) intersecting the first direction (D1); a first photoelectric conversion region and a second photoelectric conversion region which are disposed in the pixel region (PXR) of the substrate and are adjacent to each other in the first direction (D1); a deep device isolation pattern penetrating the substrate in a third direction (D3) perpendicular to the first direction (D1) and the second direction (D2), and surrounding the pixel region (PXR), the deep device isolation pattern comprising first extensions (150P1) extending in the second direction (D2) between the first photoelectric conversion region and the second photoelectric conversion region , and the first extensions (150P1) spaced apart from each other in the second direction (D2); a plurality of first transfer gate electrodes (TG1) disposed on the pixel region (PXR) of the substrate and vertically overlapping with the first photoelectric conversion region in the third direction (D3); and a plurality of second transfer gate electrodes (TG2) disposed on the pixel region (PXR) of the substrate and vertically overlapping with the second photoelectric conversion region in the third direction (D3), wherein the first photoelectric conversion region extends in the second direction (D2) under the plurality of first transfer gate electrodes (TG1).
A method comprising: receiving in a processor a plurality of synthetic beads carrying mineral particles, each of the synthetic beads comprising a surface and a plurality of molecules attached to the surface, the molecules comprising a functional group configured for attracting one or more of the mineral particles to the molecules, causing the mineral particles to form a chemical bond with the functional group for attaching to the surface of the synthetic beads; and interrupting the chemical bond of the functional group so as to remove the mineral particles from the synthetic beads, wherein the synthetic beads - consist of poly(dimethylsiloxane), or - consist of glass having a polysiloxanate coating, or - consist of ceramic having a fluoroalkylsilane coating. receiving in a processor a plurality of synthetic beads carrying mineral particles, each of the synthetic beads comprising a surface and a plurality of molecules attached to the surface, the molecules comprising a functional group configured for attracting one or more of the mineral particles to the molecules, causing the mineral particles to form a chemical bond with the functional group for attaching to the surface of the synthetic beads; and interrupting the chemical bond of the functional group so as to remove the mineral particles from the synthetic beads, wherein the synthetic beads - consist of poly(dimethylsiloxane), or - consist of glass having a polysiloxanate coating, or - consist of ceramic having a fluoroalkylsilane coating. - consist of poly(dimethylsiloxane), or - consist of glass having a polysiloxanate coating, or - consist of ceramic having a fluoroalkylsilane coating.
A stable complex comprising a) as active compound selected from the group of Sirolimus or its salts; b) polyvinylpyrrolidone as a complexing agent; c) sodium-lauryl-sulfate as a pharmaceutically acceptable excipient, wherein said complex is obtained by continuous flow mixing process and has a particle size in the range between 50 nm and 600 nm, preferably 50 nm and 200 nm.
A polymer represented by the following Chemical Formula 1: wherein in Chemical Formula 1, R 1 and R 2 each independently represent -F or -CF 3 , P represents a polymer whose terminal is coupled to a carbon atom and which contains a polymerization unit of a vinyl-based monomer, a satisfies an integer of 1 to 95, and b satisfies an integer of 1 to 5. R 1 and R 2 each independently represent -F or -CF 3 , P represents a polymer whose terminal is coupled to a carbon atom and which contains a polymerization unit of a vinyl-based monomer, a satisfies an integer of 1 to 95, and b satisfies an integer of 1 to 5.
A method for being performed by a server node associated with a cellular communication system, for validation of a first position indication of a wireless communication device, the first position indication obtained via the wireless communication device by a first positioning system, wherein the wireless communication device is adapted to operate in connection with the cellular communication system, the method comprising: obtaining a serving cell identification of the wireless communication device, comprising: receiving a first message which comprises the serving cell identification, signed by a first signature associated with the serving cell; and verifying the serving cell identification based on the first signature; obtaining a second position indication of the wireless communication device based on the serving cell identification, comprising: receiving a second message which comprises the second position indication, signed by a second signature associated with a source node of the second position indication; and verifying the second position indication based on the second signature; and determining whether the first position indication is valid based on whether a metric based on the first and second position indications meets a validation criterion. obtaining a serving cell identification of the wireless communication device, comprising: receiving a first message which comprises the serving cell identification, signed by a first signature associated with the serving cell; and verifying the serving cell identification based on the first signature; obtaining a second position indication of the wireless communication device based on the serving cell identification, comprising: receiving a second message which comprises the second position indication, signed by a second signature associated with a source node of the second position indication; and verifying the second position indication based on the second signature; and determining whether the first position indication is valid based on whether a metric based on the first and second position indications meets a validation criterion.
A method of processing an iron-rich rare earth-bearing ore which includes the step of carbothermic smelting of the ore to produce a slag, the smelting step being regulated to control a level of residual FeO in the slag and to achieve at least 98% iron reduction by weight, and by adding at least one suitable flux and conditioning of the slag through controlled cooling to concentrate rare earth oxide minerals in a leachable species in the slag wherein the molten slag, after solidification, is milled to a size of the order of 35 micrometers, and the milled slag is leached in hydrochloric acid to extract the rare earth oxide minerals from the slag, and wherein, during the smelting step, iron and manganese oxides in the ore are reduced to a low manganese pig iron in a metal phase.
A computer-executable method for selecting an outbound face to forward an Interest, the method comprising: determining, by a Content-Centric Network, CCN, node comprising a computing device , one or more candidate outbound faces for forwarding an Interest by looking up the Interest's name or name prefix in a forwarding information base, FIB, , wherein a respective FIB entry maps a name prefix to a forwarding rule that includes a corresponding outbound face for the name prefix; determining a reputation value for each of the candidate outbound faces based on reputation information stored in association with the Interest's name or name prefix, the reputation information comprising one or more attributes each assigned a weight value, each attribute being a quantifiable property, policy or characteristic measurable by the CCN node, the weight value assigned to each attribute such that the reputation value achieves a desired objective of the CCN node and wherein attributes specific to each objective are used to compute a reputation value directed to the desired objective; selecting a candidate outbound face with a reputation value exceeding a first predetermined threshold; and forwarding the received Interest via the selected outbound face. determining, by a Content-Centric Network, CCN, node comprising a computing device , one or more candidate outbound faces for forwarding an Interest by looking up the Interest's name or name prefix in a forwarding information base, FIB, , wherein a respective FIB entry maps a name prefix to a forwarding rule that includes a corresponding outbound face for the name prefix; determining a reputation value for each of the candidate outbound faces based on reputation information stored in association with the Interest's name or name prefix, the reputation information comprising one or more attributes each assigned a weight value, each attribute being a quantifiable property, policy or characteristic measurable by the CCN node, the weight value assigned to each attribute such that the reputation value achieves a desired objective of the CCN node and wherein attributes specific to each objective are used to compute a reputation value directed to the desired objective; selecting a candidate outbound face with a reputation value exceeding a first predetermined threshold; and forwarding the received Interest via the selected outbound face.
The use of a blood collection tube for the collection and stabilization of cell-free nucleic acid within a blood sample, the tube containing a composition containing from 200 to less than 1000 grams per litre of a protective agent prior to blood draw comprising a mixture of imidazolidinyl urea and/or diazolidinyl urea and ethylenediaminetetraacetic acid (EDTA); in the ratio of 1 part by weight IDU and/or DU to 2 parts of EDTA, and wherein the composition is free of separately added formaldehyde, to enable analysis of the sample up to 14 days after collection of the sample.
A wireless transmit/receive unit, WTRU, performing dynamic demodulation, the WTRU comprising: a memory; and a processor configured to: receive a first reference signal over a first set of resources during a first time period, the first reference signal being associated with the first set of resources; receive a second reference signal over a second set of resources during a second time period, the second reference signal being associated with the second set of resources; receive a downlink control information, DCI, wherein the DCI indicates that the first reference signal associated with the first set of resources and the second reference signal associated with the second set of resources are associated with a precoder set, and wherein the DCI further indicates a relative timing of the first time period associated with the first set of resources relative to the second time period associated with the second set of resources. a memory; and a processor configured to: receive a first reference signal over a first set of resources during a first time period, the first reference signal being associated with the first set of resources; receive a second reference signal over a second set of resources during a second time period, the second reference signal being associated with the second set of resources; receive a downlink control information, DCI, wherein the DCI indicates that the first reference signal associated with the first set of resources and the second reference signal associated with the second set of resources are associated with a precoder set, and wherein the DCI further indicates a relative timing of the first time period associated with the first set of resources relative to the second time period associated with the second set of resources. receive a first reference signal over a first set of resources during a first time period, the first reference signal being associated with the first set of resources; receive a second reference signal over a second set of resources during a second time period, the second reference signal being associated with the second set of resources; receive a downlink control information, DCI, wherein the DCI indicates that the first reference signal associated with the first set of resources and the second reference signal associated with the second set of resources are associated with a precoder set, and wherein the DCI further indicates a relative timing of the first time period associated with the first set of resources relative to the second time period associated with the second set of resources.
A method for controlling the movement of an articulated hose mount , which carries the suction hose of a suction dredge , wherein the articulated hose mount has at least n > 2 members and wherein a change in angle can be induced between neighboring members with the help of a respective drive , wherein the following steps are carried out: a) Determining the starting position of the n members with the help of sensors ; b) Input of a direction vector and a velocity parameter; c) Determining a target position, which should be assumed by a suction crown on the free end of the last member; d) Determining n angle changes which must be carried out on the n members in order to reach the target position while maintaining the following conditions: d.i. the suction crown moves into the target position along a straight path of movement; and d.ii. the sum of all angle changes on the n members is minimal; e) Controlling the drives associated with the n members in order to perform the predetermined angle change on the n members ; f) Cyclically repeating the aforementioned method steps until the direction vector and/or the velocity parameter are zero. a) Determining the starting position of the n members with the help of sensors ; b) Input of a direction vector and a velocity parameter; c) Determining a target position, which should be assumed by a suction crown on the free end of the last member; d) Determining n angle changes which must be carried out on the n members in order to reach the target position while maintaining the following conditions: d.i. the suction crown moves into the target position along a straight path of movement; and d.ii. the sum of all angle changes on the n members is minimal; d.i. the suction crown moves into the target position along a straight path of movement; and d.ii. the sum of all angle changes on the n members is minimal; e) Controlling the drives associated with the n members in order to perform the predetermined angle change on the n members ; f) Cyclically repeating the aforementioned method steps until the direction vector and/or the velocity parameter are zero.
Machine for the treatment of a laminar support on which at least one chemical substance intended to be applied to a leather is spread, configured to be inserted in a treatment line of leather and comprising: - a first reel formed by said laminar support intended to receive said chemical substance which must then be applied to said leather , - a second reel formed by said laminar support after said chemical substance has been applied to said leather , - an apparatus for removing from said laminar support , before its winding on said second reel , of the residues of said chemical substance that has not been applied to said leather , characterized in that during use: - said second reel is in a position substantially below the footprint of said apparatus in the direction of development of said treatment line . - a first reel formed by said laminar support intended to receive said chemical substance which must then be applied to said leather , - a second reel formed by said laminar support after said chemical substance has been applied to said leather , - an apparatus for removing from said laminar support , before its winding on said second reel , of the residues of said chemical substance that has not been applied to said leather , - said second reel is in a position substantially below the footprint of said apparatus in the direction of development of said treatment line .