mhurhangee/ep-ind-claims huggingface dataset:
Double-folding drafting unit, comprising five pairs of rollers (WI/W1, WII/W2, WIII/W3, WIV/W4, WV/W5), - a first (WI/W1), a second (WII/W2), a fourth (WIV/W4) and a fifth (WV/W5) pair of rollers having essentially an identical orientation of the respective axes of the rollers (WI, W1, WII, W2, WIV, W4, WV, W5), and a third pair of rollers (WIII/W3), which is positioned between the second (WII/W2) and the fourth (WIV/W4) pair of rollers, having an axial direction which is oriented perpendicularly to the axial direction of the other pairs of rollers (WI/W1, WII/W2, WIV/W4, WV/W5), - an apron (RIII, R3) being guided in each case around each roller (WIII, W3) of the third pair of rollers (WIII/W3) and at least one reversing rail (WSIII, WS3) assigned to the respective roller (WIII, W3), and - an apron (RIV, R4) being guided around each roller (WIV, W4) of the fourth pair of rollers (WIV/W4) and around a reversing rail (WSIV-1, WS4-1) in front of and a reversing rail (WSIV-2, WS4-2) behind the respective roller (WIV, W4). - a first (WI/W1), a second (WII/W2), a fourth (WIV/W4) and a fifth (WV/W5) pair of rollers having essentially an identical orientation of the respective axes of the rollers (WI, W1, WII, W2, WIV, W4, WV, W5), and a third pair of rollers (WIII/W3), which is positioned between the second (WII/W2) and the fourth (WIV/W4) pair of rollers, having an axial direction which is oriented perpendicularly to the axial direction of the other pairs of rollers (WI/W1, WII/W2, WIV/W4, WV/W5), - an apron (RIII, R3) being guided in each case around each roller (WIII, W3) of the third pair of rollers (WIII/W3) and at least one reversing rail (WSIII, WS3) assigned to the respective roller (WIII, W3), and - an apron (RIV, R4) being guided around each roller (WIV, W4) of the fourth pair of rollers (WIV/W4) and around a reversing rail (WSIV-1, WS4-1) in front of and a reversing rail (WSIV-2, WS4-2) behind the respective roller (WIV, W4).
Document obtainable from multiple film layers (10, 20, 30, 40, 50) by means of a laminating process and which contains an electric circuit on a carrier film layer that forms one of the film layers (10, 20, 30, 40, 50) of the document, wherein the electric circuit is formed by an electric circuit path structure and at least one electronic component electrically connected to the electric circuit path structure, wherein the carrier film layer together with the electric circuit and at least two other film layers (20, 30, 40, 50) are arranged one above the other, wherein the carrier film layer and the other film layers (20, 30, 40, 50) of the document are formed from polymer materials, of which the polymer material of the carrier film layer has a glass-transition temperature T g.TF which is at least 20 oC higher than the glass-transition temperature T g.DF of the polymer material of at least one of the other films (20, 30, 40, 50) of the document, characterized in that the polymer material of the carrier film layer contains polycarbonate or consists of polycarbonate, and that the polymer material of the other film layers (20, 30, 40, 50) of the document contains polycarbonate or consists of polycarbonate.
An emulsion polymer comprising: (a) structural units of a polymerizable surfactant having the structure of formula, wherein R 1 is a phenyl group or where R is an alkylene group; m1 is 1, 2, 3 or 4; R 2 is an alkyl or a substituted alkyl; m2 is 0 or 1; A represents an alkylene group or a substituted alkylene group, having 2 to 4 carbon atoms; n is an integer in the range of from 1 to 30; and X represents -(CH 2) a -SO 3 M or -(CH 2) b -COOM, where a and b are each independently an integer of from 0 to 4, and M is an aminium ion having one ethylenically unsaturated bond; (b) structural units of an ethylenically unsaturated anionic monomer; and (c) structural units of an ethylenically unsaturated nonionic monomer; wherein polymer segments that comprise structural units of the ethylenically unsaturated anionic monomer and polymer segments that comprise structural units of the ethylenically unsaturated nonionic monomer together have the following Hansen solubility parameters: 16.42 ⩽ δD ⩽ 16.64, 2.87 ⩽ δP ⩽ 3.79, and 3.94 ⩽ δH ⩽ 4.57. (a) structural units of a polymerizable surfactant having the structure of formula, wherein R 1 is a phenyl group or where R is an alkylene group; m1 is 1, 2, 3 or 4; R 2 is an alkyl or a substituted alkyl; m2 is 0 or 1; A represents an alkylene group or a substituted alkylene group, having 2 to 4 carbon atoms; n is an integer in the range of from 1 to 30; and X represents -(CH 2) a -SO 3 M or -(CH 2) b -COOM, where a and b are each independently an integer of from 0 to 4, and M is an aminium ion having one ethylenically unsaturated bond; (b) structural units of an ethylenically unsaturated anionic monomer; and (c) structural units of an ethylenically unsaturated nonionic monomer;
A mobile terminal comprising: a terminal body; a wireless communication unit configured to be wirelessly connected to an in-vehicle video display apparatus, the in-vehicle video display apparatus including a first display and a second display wherein a first camera is connected with the first display and a second camera is connected with the second display respectively, wherein the first display displays a first screen representing a first visual field captured by the first camera, wherein the second display displays a second screen representing a second visual field captured by the second camera; and a controller configured to control the first display and the second display, wherein the controller is characterized by being configured to: detect a directional change of a driver's eyes from the the first display to the second control the wireless communication unit to receive the first screen captured by the first camera, and to transmit the received first screen captured by the first camera to the second display and control the second display to display simultaneously the received first screen from the first camera and the second screen captured by the second camera in response to the detected directional change of driver's eyes from the first display to the second display; detect a fixed direction of the driver's eyes to the second screen on the second display for a pre-set period of time in a state where the first screen and the second screen are displayed simultaneously on the second display; control the second display to make the first screen disappear in response to the detected fixed direction of the driver's eyes to the second screen. a terminal body; a wireless communication unit configured to be wirelessly connected to an in-vehicle video display apparatus, the in-vehicle video display apparatus including a first display and a second display wherein a first camera is connected with the first display and a second camera is connected with the second display respectively, wherein the first display displays a first screen representing a first visual field captured by the first camera, wherein the second display displays a second screen representing a second visual field captured by the second camera; and a controller configured to control the first display and the second display, wherein
A method of removing unconsolidated powder from an additive layer manufactured component, the component having a first wall portion and a second wall portion, and a volume defined between the first and second wall portions (110:112), the volume containing unconsolidated powder material, the method comprising the steps of: (i) using an additive layer manufacturing process to form the component; (ii) saturating the unconsolidated powder material with water; (iii) reducing the temperature of the saturated unconsolidated powder material to a temperature below the freezing temperature of the water; (iv) allowing the water to freeze; (v) increasing the temperature of the saturated unconsolidated powder material to a temperature above the melting temperature of the water; and (vi) removing the unconsolidated powder material from the volume. (i) using an additive layer manufacturing process to form the component; (ii) saturating the unconsolidated powder material with water; (iii) reducing the temperature of the saturated unconsolidated powder material to a temperature below the freezing temperature of the water; (iv) allowing the water to freeze; (v) increasing the temperature of the saturated unconsolidated powder material to a temperature above the melting temperature of the water; and (vi) removing the unconsolidated powder material from the volume.
Manually operated garden shears having a blade arrangement, which is formed in an opened state to receive cuttings and can be closed for a cutting procedure by the effect of manual force on a handle arrangement, wherein a drive motor is available to apply a motorised closing force to the blade arrangement, wherein at least one sensor is provided to determine a parameter of a cutting procedure, and an electronic control device controls the drive motor according to a certain value of the parameter and switches on the motorised drive force, wherein the sensor is equipped to emit a sensor signal representing the parameter, and the sensor is equipped to emit a manual force sensor signal representing the manual force exerted by the user on the handle arrangement, wherein a threshold value for the manual force sensor signal is predetermined in the control device, and the control device does not switch on the motorised closing force in the case of the manual force sensor signal being below the threshold value, characterised in that the control of the motorised closing force after it has been switched on takes place adaptively under further continuous review of the parameters of the cutting procedure, by the control device switching off the motorised closing force when the manual force of the user alone is sufficient for the continuation of the cutting procedure.
A continuous glucose monitoring system comprising: an orthogonally redundant glucose sensor, comprising: an optical glucose sensor having a proximal portion that is disposed externally to a body of a user and a distal portion for internal placement in the user's body, wherein the optical glucose sensor includes an assay having a glucose receptor, a glucose analog, and a first fluorophore; and a non-optical glucose sensor having a proximal portion that is disposed externally to the user's body and a distal portion for internal placement in the user's body; a hand-held monitor having a display; and an external transmitter having a housing that houses the proximal portion of the optical glucose sensor and the proximal portion of the non-optical glucose sensor, wherein the transmitter includes instrumentation in said housing to receive an optical signal from the optical sensor and a non-optical signal from the non-optical sensor and to convert each of said optical and non-optical signals to respective glucose values, and wherein the transmitter wirelessly transmits said respective glucose values. an orthogonally redundant glucose sensor, comprising: an optical glucose sensor having a proximal portion that is disposed externally to a body of a user and a distal portion for internal placement in the user's body, wherein the optical glucose sensor includes an assay having a glucose receptor, a glucose analog, and a first fluorophore; and a non-optical glucose sensor having a proximal portion that is disposed externally to the user's body and a distal portion for internal placement in the user's body; a hand-held monitor having a display; and an external transmitter having a housing that houses the proximal portion of the optical glucose sensor and the proximal portion of the non-optical glucose sensor, wherein the transmitter includes instrumentation in said housing to receive an optical signal from the optical sensor and a non-optical signal from the non-optical sensor and to convert each of said optical and non-optical signals to respective glucose values, and wherein the transmitter wirelessly transmits said respective glucose values. an optical glucose sensor having a proximal portion that is disposed externally to a body of a user and a distal portion for internal placement in the user's body, wherein the optical glucose sensor includes an assay having a glucose receptor, a glucose analog, and a first fluorophore; and a non-optical glucose sensor having a proximal portion that is disposed externally to the user's body and a distal portion for internal placement in the user's body; a hand-held monitor having a display; and an external transmitter having a housing that houses the proximal portion of the optical glucose sensor and the proximal portion of the non-optical glucose sensor, wherein the transmitter includes instrumentation in said housing to receive an optical signal from the optical sensor and a non-optical signal from the non-optical sensor and to convert each of said optical and non-optical signals to respective glucose values, and wherein the transmitter wirelessly transmits said respective glucose values.
A base station comprising means for transmitting, to a user equipment, UE, first information and second information, the first information indicating a starting subframe configuration for a search space for a Physical Downlink Control Channel, PDCCH, and being used for giving a parameter named G, the second information indicating maximum numbers of repetitions for the search space for the PDCCH and being used for giving a parameter named r max, wherein a starting subframe, for the search space, is determined based on 10 n f + ⌊ n s / 2 ⌋ mod T = 0, where n f corresponds to a system frame number, n s corresponds to a slot number, and T = r max ⋅ G. means for transmitting, to a user equipment, UE, first information and second information, the first information indicating a starting subframe configuration for a search space for a Physical Downlink Control Channel, PDCCH, and being used for giving a parameter named G, the second information indicating maximum numbers of repetitions for the search space for the PDCCH and being used for giving a parameter named r max, wherein a starting subframe, for the search space, is determined based on 10 n f + ⌊ n s / 2 ⌋ mod T = 0, where n f corresponds to a system frame number, n s corresponds to a slot number, and T = r max ⋅ G. n f corresponds to a system frame number, n s corresponds to a slot number, and T = r max ⋅ G.
A furring strip for mounting a wall cladding article to a building substrate, the furring strip comprising: a substantially planar face defined generally by a length and a width, the substantially planar face comprising a first edge and a second edge opposite the first edge along the width; a plurality of substantially planar webs, each substantially planar web extending from the first edge or the second edge of the substantially planar face; and a plurality of substantially planar legs parallel to the substantially planar face, each substantially planar leg extending from one of the plurality of substantially planar webs at an end opposite the substantially planar face; wherein the substantially planar face comprises a plurality of protrusions configured to produce one or more drainage channels between the substantially planar face and a cladding article secured to the substantially planar face, wherein the protrusions comprise an array of dimples extending from an outer side of the substantially planar face and wherein said drainage channels define at least one gravity-assisted fluid flow path when the furring strip is mounted in a horizontal or vertical orientation. a substantially planar face defined generally by a length and a width, the substantially planar face comprising a first edge and a second edge opposite the first edge along the width; a plurality of substantially planar webs, each substantially planar web extending from the first edge or the second edge of the substantially planar face; and a plurality of substantially planar legs parallel to the substantially planar face, each substantially planar leg extending from one of the plurality of substantially planar webs at an end opposite the substantially planar face; wherein the substantially planar face comprises a plurality of protrusions configured to produce one or more drainage channels between the substantially planar face and a cladding article secured to the substantially planar face, wherein the protrusions comprise an array of dimples extending from an outer side of the substantially planar face and wherein said drainage channels define at least one gravity-assisted fluid flow path when the furring strip is mounted in a horizontal or vertical orientation.
A method of fabricating a rod of composite material from a fiber preform comprising a certain number of primary fiber plies connected together by links allowing plies to slide relative to one another while the preform is being shaped, the preform including a central portion for constituting the body of the rod and including two opposite side portions (6, 7), together with extensions for forming lugs of the rod, which method includes the step of shaping the fiber preform so as to give it a hollow shape while keeping the two opposite side portions spaced apart so as to give the fiber preform an open profile in its central portion, followed by injecting resin and causing it to polymerize, the fiber preform having a varying thickness that increases perpendicularly to a plane of symmetry of the preform on going from the center thereof towards the side portions (6, 7) so that the side portions (6, 7) are stiffened to increase local buckling strength.
Pressure-controlled 2-way flow control valve (130; 230; 330) for hydraulic applications, wherein a first pressure signal in the closing control direction of the 2-way flow control valve (130; 230; 330) is applicable to the 2-way flow control valve (130; 230; 330) via a first tapping on the output side and a second pressure signal in the opening control direction is applicable to the 2-way flow control valve (130; 230; 330) via an LS pressure signal line (114; 214; 314), and wherein a pressure signal falsifying the first or second pressure signal is applied to the 2-way flow control valve (130; 230; 330) in the closing or opening control direction via a second tapping effective over at least a part of the control stroke of the 2-way flow control valve (130; 230; 330), characterised in that the falsifying pressure signal is applied only over a part of the control stroke (H1; H2; H3) of the 2-way flow control valve (130; 230; 330).
A method of managing device discovery by a Wireless Fidelity, Wi-Fi, Peer-to-Peer, P2P, device in a wireless system, the method comprising: performing a periodic search operation to discover a peer device without performing a listening operation; receiving information from the peer device while performing the periodic search operation; determining whether the received information corresponds to predefined information or not; and responsive to the determination that the received information corresponds to the predefined information, changing the periodic search operation into a periodic listening operation such that the periodic listening operation is performed without performing the periodic search operation. performing a periodic search operation to discover a peer device without performing a listening operation; receiving information from the peer device while performing the periodic search operation; determining whether the received information corresponds to predefined information or not; and responsive to the determination that the received information corresponds to the predefined information, changing the periodic search operation into a periodic listening operation such that the periodic listening operation is performed without performing the periodic search operation.
Use of an article to convert a polydisperse population of droplets into a population of droplets having a narrower distribution in the characteristic dimension of the droplets, the article comprising: a microfluidic channel comprising a two-dimensional array of obstructions therein, arranged in a plurality of rows of regularly-spaced obstructions, the rows arranged orthogonal to a direction of average fluid flow through the microfluidic channel, wherein at least some of the rows of regularly-spaced obstructions are offset relative to an adjacent row of regularly-spaced obstructions, wherein at least some of the rows of regularly spaced obstructions are offset such that the midpoint between the centers of two obstructions of a row is aligned with the center of an obstruction in an adjacent row. a microfluidic channel comprising a two-dimensional array of obstructions therein, arranged in a plurality of rows of regularly-spaced obstructions, the rows arranged orthogonal to a direction of average fluid flow through the microfluidic channel, wherein at least some of the rows of regularly-spaced obstructions are offset relative to an adjacent row of regularly-spaced obstructions, wherein at least some of the rows of regularly spaced obstructions are offset such that the midpoint between the centers of two obstructions of a row is aligned with the center of an obstruction in an adjacent row.
Modified allophanate that is or may be prepared according to a method comprising (a) preparing an allophanate of formula wherein ∘ R 1 is a monoalcohol compound that comprises an ether or polyether function after reaction of the hydrogen of the OH function of the monoalcohol with a compound having an isocyanate function; ∘ R 2 and R 3, which are either identical or different, are a hydrocarbon group, comprising a derivative or non-derivative isocyanate function; then (b) reacting with at least one ester that ∘ is hydroxy-functionalised; ∘ comprises at least one acrylate function and ∘ is or may be prepared by reacting an acid, selected from acrylic acid and methacrylic acid, with at least one alcohol. (a) preparing an allophanate of formula wherein ∘ R 1 is a monoalcohol compound that comprises an ether or polyether function after reaction of the hydrogen of the OH function of the monoalcohol with a compound having an isocyanate function; ∘ R 2 and R 3, which are either identical or different, are a hydrocarbon group, comprising a derivative or non-derivative isocyanate function; then ∘ R 1 is a monoalcohol compound that comprises an ether or polyether function after reaction of the hydrogen of the OH function of the monoalcohol with a compound having an isocyanate function; ∘ R 2 and R 3, which are either identical or different, are a hydrocarbon group, comprising a derivative or non-derivative isocyanate function; (b) reacting with at least one ester that ∘ is hydroxy-functionalised; ∘ comprises at least one acrylate function and ∘ is or may be prepared by reacting an acid, selected from acrylic acid and methacrylic acid, with at least one alcohol. ∘ is hydroxy-functionalised; ∘ comprises at least one acrylate function and ∘ is or may be prepared by reacting an acid, selected from acrylic acid and methacrylic acid, with at least one alcohol.
A jack assembly comprising: a fluid jack including a cylinder and a ram, the cylinder having at least one fluid chamber configured to receive a pressurized fluid to move the ram; and a device removably coupled to the fluid jack for providing fluid communication between the fluid jack and at least one fluid conduit (42, 44), characterized by the device including a link movable between a first position and a second position, the device being secured to the jack while the link is in the first position, the device being disconnectable from the jack while the link is in the second position. a fluid jack including a cylinder and a ram, the cylinder having at least one fluid chamber configured to receive a pressurized fluid to move the ram; and a device removably coupled to the fluid jack for providing fluid communication between the fluid jack and at least one fluid conduit (42, 44), characterized by the device including a link movable between a first position and a second position, the device being secured to the jack while the link is in the first position, the device being disconnectable from the jack while the link is in the second position.