mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a compound represented by the following formula (I): wherein R1 and R2, identical or different, represent a C 2 -C 30 alkyl group, a C 2 -C 30 alkenyl group, a C 2 -C 30 alkynyl group, or a C 2 -C 30 alkoxy group, said groups being optionally substituted with at least one hydroxy, halogen, amino, C 1 -C 8 alkyl, or C 1 -C 8 alkoxy group, as a temperature change regulating agent in a thermochromic ink composition.
A seal assembly (60; 160) for a gas turbine engine comprising: a seal (66; 166) including a seal body extending circumferentially between opposed mate faces and at least one rail (80; 180) extending outwardly from the seal body , the seal body having a seal face that is configured to bound a gas path (C; G), and wherein at least one rail aperture (82; 182) is defined at least partially through the at least one rail (80; 180); at least one wear liner (84; 184; 284; 384; 484) including a liner body (84A; 184-1A, 184-2A; 284A, 384A; 484A), the liner body (84A...484A) defining a liner aperture (84D; 184D; 284D; 384D; 484D) and an outer periphery (84C; 184C; 284C; 384C; 484C) that mates with the at least one rail aperture (82; 182); a seal support mountable to an engine case , the seal support including at least one support hook (74; 174) that mates with the liner aperture (84D... 484D) to mount the seal (66; 166) to the seal support ; and wherein the at least one support hook (74; 174) is made of a first material, and the liner body (84A...484A) is made of a second material that differs in construction from the first material, characterised in that the first material has a first modulus of elasticity, and the second material has a second modulus of elasticity that is less than the first modulus of elasticity. a seal (66; 166) including a seal body extending circumferentially between opposed mate faces and at least one rail (80; 180) extending outwardly from the seal body , the seal body having a seal face that is configured to bound a gas path (C; G), and wherein at least one rail aperture (82; 182) is defined at least partially through the at least one rail (80; 180); at least one wear liner (84; 184; 284; 384; 484) including a liner body (84A; 184-1A, 184-2A; 284A, 384A; 484A), the liner body (84A...484A) defining a liner aperture (84D; 184D; 284D; 384D; 484D) and an outer periphery (84C; 184C; 284C; 384C; 484C) that mates with the at least one rail aperture (82; 182); a seal support mountable to an engine case , the seal support including at least one support hook (74; 174) that mates with the liner aperture (84D... 484D) to mount the seal (66; 166) to the seal support ; and wherein the at least one support hook (74; 174) is made of a first material, and the liner body (84A...484A) is made of a second material that differs in construction from the first material, characterised in that the first material has a first modulus of elasticity, and the second material has a second modulus of elasticity that is less than the first modulus of elasticity.
Composite comprising at least three directly adjacent layers (I)-(III) of the following type, bonded to one another in an adhesive manner: (I) layer of a polyamide moulding composition consisting of: (A) 30-99.9 weight percent of at least one polyamide selected from the group consisting of: at least one aliphatic or partially aromatic polyamide, each having a C to N ratio of at least 8; at least one aliphatic or partially aromatic polyamide built up from at least one dicarboxylic acid and at least one diamine, and optionally in a proportion of less than 50 mole percent based on the sum of dicarboxylic acids and diamine as 100 mole percent of lactams and/or aminocarboxylic acids; or mixtures thereof; (B) 0.1-5.0 weight percent of polyethyleneimine (PEI) or copolymers or derivatives thereof; (C) 0-60 weight percent of fillers and/or reinforcing materials; (D) 0-5.0% by weight of additives; wherein the sum formed from (A)-(D) is 100% of the thermoplastic polyamide moulding composition; (II) polyurethane layer; (III) mineral glass layer. (I) layer of a polyamide moulding composition consisting of: (A) 30-99.9 weight percent of at least one polyamide selected from the group consisting of: at least one aliphatic or partially aromatic polyamide, each having a C to N ratio of at least 8; at least one aliphatic or partially aromatic polyamide built up from at least one dicarboxylic acid and at least one diamine, and optionally in a proportion of less than 50 mole percent based on the sum of dicarboxylic acids and diamine as 100 mole percent of lactams and/or aminocarboxylic acids; or mixtures thereof; (B) 0.1-5.0 weight percent of polyethyleneimine (PEI) or copolymers or derivatives thereof; (C) 0-60 weight percent of fillers and/or reinforcing materials; (D) 0-5.0% by weight of additives; wherein the sum formed from (A)-(D) is 100% of the thermoplastic polyamide moulding composition; (A) 30-99.9 weight percent of at least one polyamide selected from the group consisting of: at least one aliphatic or partially aromatic polyamide, each having a C to N ratio of at least 8; at least one aliphatic or partially aromatic polyamide built up from at least one dicarboxylic acid and at least one diamine, and optionally in a proportion of less than 50 mole percent based on the sum of dicarboxylic acids and diamine as 100 mole percent of lactams and/or aminocarboxylic acids; or mixtures thereof; at least one aliphatic or partially aromatic polyamide, each having a C to N ratio of at least 8; at least one aliphatic or partially aromatic polyamide built up from at least one dicarboxylic acid and at least one diamine, and optionally in a proportion of less than 50 mole percent based on the sum of dicarboxylic acids and diamine as 100 mole percent of lactams and/or aminocarboxylic acids; or mixtures thereof; (B) 0.1-5.0 weight percent of polyethyleneimine (PEI) or copolymers or derivatives thereof; (C) 0-60 weight percent of fillers and/or reinforcing materials; (D) 0-5.0% by weight of additives; (II) polyurethane layer; (III) mineral glass layer.
A prefabricated cable comprising a cable and an adapter (1; 1'; 1"; 1′′′; 1"") fastened to an end of the cable , wherein the cable has two pairs of internal conductors (7 v , 8 v , 11 v , 12 v ), which are shielded and in each case carry a differential signal, wherein the adapter (1; 1'; 1"; 1′′′; 1ʺʺ) has a first connection region with two first pairs (5 1 , 52) of contact regions each with a first and second contact region (6 11 , 612, 621, 622), and a second connection region with two second pairs (10 1 , 10 2 ) of contact regions, each with a third and fourth contact region (9 11 , 9 12 , 921, 922), wherein the two first pairs (5 1 , 5 2 ) of contact regions are arranged parallel to each other, wherein the two second pairs (10 1 , 10 2 ) of contact regions are arranged crossing one another, wherein the first and second contact regions of one first pair (5 1 ) of contact regions are electrically connected via in each case a different internal conductor of a pair (7 v , 8 v ) of internal conductors of the cable to the third or fourth contact region (9 11 , 9 21 ) of the one second pair (10 1 ) of contact regions and the first and second contact region of the other first pair (5 2 ) of contact regions is electrically connected via in each case a different internal conductor of the other pair (11 v , 12 v ) of internal conductors to the third or fourth contact region (9 12 , 9 22 ) of the other second pair (10 2 ) of contact regions, wherein two internal conductors (8 v , 12 v ) are in each case arranged parallel to one another within the adapter (1; 1'; 1"; 1′′′; 1ʺʺ), wherein only two internal conductors (7 v , 11 v ) are in each case arranged crossing one another within the adapter (1; 1'; 1"; 1′′′; 1ʺʺ), wherein within the adapter (1; 1'; 1"; 1′′′; 1ʺʺ) the internal conductors (7 v , 11 v ) arranged crossing one another are surrounded by a material with a lower permittivity than the two internal conductors (8 v , 12 v ), which are arranged parallel to one another.
Control device for an internal combustion engine comprising a flow housing in which a flow-through duct is formed which is defined by a housing wall and comprises a first duct section with a first flow cross section, a second duct section in which the flow cross section decreases, and a third duct section downstream of the second duct section , in which the duct continues with a reduced flow cross section, a flap body arranged rotatably on a shaft and supported in the flow housing by the shaft , an actuator via which the shaft is actuatable, and a first pressure measuring point in the first duct section of the flow housing and a second pressure measuring point in the third duct section , characterized in that the second pressure measuring point in the third duct section is arranged within an axial section , passed through by the flap body as it rotates, at the region of the flow housing remote from the shaft seen in the circumferential direction of the housing wall , wherein immediately downstream of the second pressure measuring point an abutment point of the flap body on the flow housing is arranged, wherein the flap body , upon rotation of the flap body from the position closing the duct , moves away from the second pressure measuring point .
Method on a textile machine with multiple similar spinning units with a thread delivery device having delivery rollers , wherein the thread is produced within the spinning unit and is drawn out of the spinning unit by means of the delivery rollers , for delivering the thread to a bobbin , for laying the thread onto the bobbin , for winding the thread onto the bobbin and for finding a thread end wound on the bobbin by means of a suction nozzle , wherein the thread end is sucked in by means of an opening turned towards the bobbin circumference that serves as an extraction mouth of the suction nozzle , characterized in that , the thread runs through the suction nozzle during the delivery to the bobbin , i.e. during normal production of the thread, wherein it enters through another opening in the suction nozzle serving as an inlet mouth for the thread and exits the suction nozzle through another opening, in particular through the extraction mouth , wherein the thread runs, initially freely after the delivery roller and only enters the suction nozzle directly in front of the bobbin .
Shut-off device for interrupting a flow path in a pipe, with at least one first pipe fitting (3.1), with a first flow cross-section (7.1), with a closure device , which can be moved between an opening position, in which the flow path is open, to a closing position in which the flow path is blocked, wherein the closure device is borne in a radially rotatable manner and has second flow cross-section (7.3) reduced by a shut-off wall (7.4), wherein in the opening position the first flow cross-section (7.1) at least partially aligns with the second flow cross-section (7.3) and in the closing position is blocked by the shut-off wall (7.4), wherein the closure device comprises an axis of rotation (D) and a longitudinal axis (L) which are in parallel to each other, wherein the axis of rotation (D) and the longitudinal axis (L) of the closure device coincide, characterised in that the closure device is essentially designed as a pipe section (5.1) and in that arranged on the closure device is an actuating device with which the closure device can be made to rotate about the axis of rotation (D).
A closing device for closing screw caps comprising a motor and a drive train and configured to transmit force from the motor to the screw caps by means of the drive train , further comprising a control device which dynamically adjusts the motor operation using a measured actual value of an operating parameter of the motor , a target closing torque and an actual closing torque model, wherein the actual closing torque model is configured in such a way that it provides a modelled actual closure torque resulting from this modelled torque based on a modelled torque acting on the closure, wherein the control device is configured to dynamically adjust the motor operation based on a control loop , characterised in that the control loop is configured to represent a value and/or a value range and/or an upper and/or lower limit for the value based on the measured actual value of the operating parameter and a predetermined target closing torque as input variables at least for one operating parameter to be set, wherein the control loop is configured to determine a current value of the actual closing torque using the actual closing torque model and to determine the value and/or the value range and/or the upper and/or lower limit for the at least one operating parameter to be set based on a comparison of the current value of the actual closing torque with the value of the target closing torque. further comprising a control device which dynamically adjusts the motor operation using a measured actual value of an operating parameter of the motor , a target closing torque and an actual closing torque model, wherein the actual closing torque model is configured in such a way that it provides a modelled actual closure torque resulting from this modelled torque based on a modelled torque acting on the closure, wherein the control device is configured to dynamically adjust the motor operation based on a control loop , characterised in that the control loop is configured to represent a value and/or a value range and/or an upper and/or lower limit for the value based on the measured actual value of the operating parameter and a predetermined target closing torque as input variables at least for one operating parameter to be set, wherein the control loop is configured to determine a current value of the actual closing torque using the actual closing torque model and to determine the value and/or the value range and/or the upper and/or lower limit for the at least one operating parameter to be set based on a comparison of the current value of the actual closing torque with the value of the target closing torque.
Steering gear which comprises two planetary gearboxes which are configured with toothed-belt pulleys , wherein first toothed-belt pulleys of a first planetary gearbox are in each case disposed in pairs with first toothed-belt pulleys of a second planetary gearbox in planet carriers so as to be rotatable on a shaft , and the drive input of the shafts and of the toothed-belt pulleys (22a, 22b, 22c; 24a, 24b, 24c) disposed on the shafts is performed by way of the rotatable planet carriers ; wherein a second toothed-belt pulley of the first planetary gearbox is disposed so as to be stationary, and a second toothed-belt pulley of the second planetary gearbox is disposed so as to be rotatable relative to the second toothed-belt pulley of the first planetary gearbox ; wherein the second rotatable toothed-belt pulley of the second planetary gearbox forms the drive output of the steering gear ; wherein toothed belts , which are provided with two running surfaces disposed opposite one another, are disposed as damping elements between the first toothed-belt pulleys (22a, 22b, 22c; 24a, 24b, 24c) and the second toothed-belt pulleys of the planetary gearboxes ; wherein disposed on the running surfaces are toothings which are oriented obliquely to the axial direction (X), wherein the obliquity is in each case defined by helix angles between the axial direction (X) and the direction of the tooth flanks of the respective toothings , and the helix angle of the first toothing is oriented oppositely to the helix angle of the second toothing .
A vesicle comprising a membrane which is formed of a first block copolymer containing a non-chargeable hydrophilic segment and a chargeable segment, and a second block copolymer containing a non-chargeable hydrophilic segment and a chargeable segment having an electric charge which is opposite to that of the chargeable segment in the first block copolymer, wherein the non-chargeable hydrophilic segment in the first block copolymer and the non-chargeable hydrophilic segment in the second block copolymer are polyethylene glycol and/or poly(2-isopropyl-2-oxazoline).
Kit for producing a greenable wall element, having a housing part which has a front-side installation opening and an inner cavity which is delimited by a rear wall , a left-hand side wall , a right-hand side wall and a housing base of the housing part , wherein the rear wall , the side walls and the housing base are of watertight form and the rear wall is connected in a watertight manner to the side walls and to the housing base and the latter is connected in a watertight manner to the side walls , having at least one wall component which has at least one planting opening and which is insertable into the installation opening of the housing part , and connectable thereto, in such a way that the wall component extends in a vertical direction and, between the surface spanned by the planting opening and the rear wall of the housing part , there is formed at least one cavity which is fillable with a planting substrate in such a way that a plant rooted in the planting substrate can grow through the planting opening to the front side, directed away from the cavity , of the wall component , wherein at least the rear wall of the housing part is of thermally insulating design, wherein the housing part has an upper housing wall which is connected to the rear wall and to the side walls and which upwardly delimits the inner cavity of the housing part , and wherein provision is made on the rear wall of the housing part of fastening points at which there are able to be attached fastening elements passing through the rear wall for anchoring in the outer wall of the building, characterized in that , for integrating the greenable wall element into a thermal-insulation composite layer arranged on an outer wall of a building, provision is made at the boundary of the housing part , which borders the installation opening , of plaster-connection profiles which have a plaster pull-off edge and which are connected to at least one plaster-in fabric , in that the plaster-in fabric(s) , for plastering into a plaster layer to be applied to an insulation-material layer of the thermal-insulation composite layer that is adjacent to the wall element, protrudes/protrude beyond the outer contour of the housing part on all sides, in that the kit has covers for the fastening points that are connectable in a watertight manner to the wall region of the rear wall that borders the fastening point , and in that provision is made on the housing part of a drip strip which extends along the lower boundary of the installation opening and whose boundary region which is directed away from the rear wall protrudes in relation to the plane spanned by the plaster pull-off edges of the plaster-connection profiles .
A urine analysis device for bed side monitoring of a patient, comprising: an inlet sized and shaped for fluid communication with a urine collecting tube that is adapted to receive urine from a patient; a drip chamber through which the urine can flow towards an outlet; at least one illuminating source for illuminating each drop of urine during its fall through said drip chamber, said illuminating source is adapted to project light in a perpendicular direction to a falling direction of said each drop; a sensor that is configured to capture at least one image of said each drop during its fall through said drip chamber, wherein said sensor comprises a camera positioned on an opposite side of said drop chamber from said illuminating source; a timing mechanism for measuring a reference time for each drop; a program store configured to store code; and a hardware processor coupled to the program store for implementing the stored code, the code comprising: code to estimate a volume of said each drop by analyzing said at least one image to calculate a plurality of cross sectional areas for a plurality of different parts of the drop; code to calculate a urine output flow rate of the urine output flowing through the chamber according to the estimated volume of each drop of the urine and the reference time for each drop; code to calculate and update in real-time, at bedside, a trend in said urine output flow rate which is identified according to a least square regression analysis conducted using a sliding window of a predefined number of urine output flow rate measurements of said patient; code to predict a future urine output flow rate based on said calculated trend; and code to output the urine output flow rate, said calculated trend and said predicted future output flow rate to be dynamically displayed in real-time. code to estimate a volume of said each drop by analyzing said at least one image to calculate a plurality of cross sectional areas for a plurality of different parts of the drop; code to calculate a urine output flow rate of the urine output flowing through the chamber according to the estimated volume of each drop of the urine and the reference time for each drop; code to calculate and update in real-time, at bedside, a trend in said urine output flow rate which is identified according to a least square regression analysis conducted using a sliding window of a predefined number of urine output flow rate measurements of said patient; code to predict a future urine output flow rate based on said calculated trend; and code to output the urine output flow rate, said calculated trend and said predicted future output flow rate to be dynamically displayed in real-time.
A flowpath component of a gas turbine comprising: a body including at least one internal cooling passage ; and the internal cooling passage being defined by a surface layer comprising a first material, and an interior layer comprising a second material distinct from the first material, wherein the surface layer and the internal layer are additively manufactured as a single unitary structure; characterised in that : the internal cooling passage includes at least one altered cooling region , wherein the surface layer comprises a third material at the at least one altered cooling region ; and the surface layer at the at least one altered cooling region has a first thickness distinct from a remainder of the surface layer , wherein the thickness of the surface layer has a gradient as the surface layer approaches the at least one altered cooling region . a body including at least one internal cooling passage ; and the internal cooling passage being defined by a surface layer comprising a first material, and an interior layer comprising a second material distinct from the first material, wherein the surface layer and the internal layer are additively manufactured as a single unitary structure; the internal cooling passage includes at least one altered cooling region , wherein the surface layer comprises a third material at the at least one altered cooling region ; and the surface layer at the at least one altered cooling region has a first thickness distinct from a remainder of the surface layer , wherein the thickness of the surface layer has a gradient as the surface layer approaches the at least one altered cooling region .
Method for restoring a wear part consisting of a carrier and a wear layer , comprising the following steps : a) introduction of the carrier into an injection mould, b) application of a wear layer of polyurethane to the roughened surface of the carrier , c) removal of the wear part from the injection mould when the polyurethane is sufficiently cured. a) introduction of the carrier into an injection mould, b) application of a wear layer of polyurethane to the roughened surface of the carrier , c) removal of the wear part from the injection mould when the polyurethane is sufficiently cured.