mhurhangee/patent-ind-claim-en huggingface dataset:
A process comprising: a) producing a first adduct comprising a reaction product of a difunctional epoxy and Isophrondiamine (IPDA); b) producing a second adduct comprising a reaction product of a difunctional epoxy and m-Xylylenediamine (MXDA) and c) contacting i) the first adduct; ii) the second adduct; iii) an accelerator; and iv) a modifier to form a hardener composition. a) producing a first adduct comprising a reaction product of a difunctional epoxy and Isophrondiamine (IPDA); b) producing a second adduct comprising a reaction product of a difunctional epoxy and m-Xylylenediamine (MXDA) and c) contacting i) the first adduct; ii) the second adduct; iii) an accelerator; and iv) a modifier i) the first adduct; ii) the second adduct; iii) an accelerator; and iv) a modifier
A kit for implanting a glenoid component, the kit comprising: a retroversion glenoid component including a flat glenoid bone contacting surface defining a first plane and also defining circular periphery, a first offset peg extending away from the glenoid bone contacting surface, a concave articulating surface , an upper surface extending about the concave articulating surface and generally opposite to the glenoid bone contacting surface, the upper surface defining a second plane, the second plane angled with respect to the first plane, and a centre peg centred within the circular periphery and extending away from the glenoid bone contacting surface and defining a centre peg axis , in which a nadir of the concave articulating surface is located on the centre peg axis, and a drill guide configured to guide a drill in forming a bore in a scapula to receive the first offset peg, characterised in that the centre peg axis forms an angle other than 90 degrees with the first plane. a retroversion glenoid component including a flat glenoid bone contacting surface defining a first plane and also defining circular periphery, a first offset peg extending away from the glenoid bone contacting surface, a concave articulating surface , an upper surface extending about the concave articulating surface and generally opposite to the glenoid bone contacting surface, the upper surface defining a second plane, the second plane angled with respect to the first plane, and a centre peg centred within the circular periphery and extending away from the glenoid bone contacting surface and defining a centre peg axis , in which a nadir of the concave articulating surface is located on the centre peg axis, and a flat glenoid bone contacting surface defining a first plane and also defining circular periphery, a first offset peg extending away from the glenoid bone contacting surface, a concave articulating surface , an upper surface extending about the concave articulating surface and generally opposite to the glenoid bone contacting surface, the upper surface defining a second plane, the second plane angled with respect to the first plane, and a centre peg centred within the circular periphery and extending away from the glenoid bone contacting surface and defining a centre peg axis , in which a nadir of the concave articulating surface is located on the centre peg axis, and a drill guide configured to guide a drill in forming a bore in a scapula to receive the first offset peg, characterised in that the centre peg axis forms an angle other than 90 degrees with the first plane.
A method of mounting a turbine retention device , comprising: aligning a mounting bracket with an opening in a cylindrical diffuser , the mounting bracket attached to a wing and a cylindrical bullet , wherein the cylindrical bullet is hollow with a cap providing a solid surface to prevent exhaust from flowing through the cylindrical bullet , and wherein the wings meet the cylindrical bullet at a substantially tangential angle such that the wings lie on a non-radial plane with respect to the cylindrical bullet ; and installing a fastener through the opening and the mounting bracket , wherein the opening is formed in the cylindrical diffuser while the cylindrical diffuser is installed on an aircraft. aligning a mounting bracket with an opening in a cylindrical diffuser , the mounting bracket attached to a wing and a cylindrical bullet , wherein the cylindrical bullet is hollow with a cap providing a solid surface to prevent exhaust from flowing through the cylindrical bullet , and wherein the wings meet the cylindrical bullet at a substantially tangential angle such that the wings lie on a non-radial plane with respect to the cylindrical bullet ; and installing a fastener through the opening and the mounting bracket , wherein the opening is formed in the cylindrical diffuser while the cylindrical diffuser is installed on an aircraft.
A compound, which is a quinone of the formula: or which is the hydroquinone form thereof; for use in the treatment or suppression of a disorder in a subject in need thereof, said use comprising administering to the subject a therapeutically effective amount of the compound, wherein the disorder is amyotrophic lateral sclerosis (ALS), and wherein the compound is not a solvate or hydrate. or which is the hydroquinone form thereof; for use in the treatment or suppression of a disorder in a subject in need thereof, said use comprising administering to the subject a therapeutically effective amount of the compound, wherein the disorder is amyotrophic lateral sclerosis (ALS), and wherein the compound is not a solvate or hydrate.
Aircraft with a supporting structure and an envelope which is spanned by the supporting structure and can be filled with a gas, wherein envelope parts can be connected to one another via at least one zip fastener and the supporting structure has a plurality of rod or tube sections (24 - 30) which define a circular, elliptical or polygonal main span plane for the envelope , characterised in that the shell comprises two shell halves which are fixedly connected to each other at a short connecting region and can be unfolded in a shell-like manner when the at least one zip is open.
A process for generating a metal sulfate, the process comprising: crystallizing a metal sulfate from an aqueous solution to form a crystallized metal sulfate in a mother liquor, the mother liquor comprising an uncrystallized metal sulfate; separating the crystallized metal sulfate from the mother liquor; basifying a portion of the mother liquor to convert the uncrystallized metal sulfate to a basic metal salt; and using the basic metal salt upstream of crystallizing the metal sulfate, further comprising isolating the basic metal salt from the mother liquor. crystallizing a metal sulfate from an aqueous solution to form a crystallized metal sulfate in a mother liquor, the mother liquor comprising an uncrystallized metal sulfate; separating the crystallized metal sulfate from the mother liquor; basifying a portion of the mother liquor to convert the uncrystallized metal sulfate to a basic metal salt; and using the basic metal salt upstream of crystallizing the metal sulfate, further comprising isolating the basic metal salt from the mother liquor.
A composition comprising a binder comprising one or more siloxane polymers, silicone resins, silicone based elastomers, and mixtures thereof, wherein said binder optionally comprises one or more cross-linker components comprising a silane and/or a siloxane containing silicon-bonded hydrolysable groups; and a hydrophilic powder and/or gel selected from one or more amorphous, porous hydrophilic silica(s), one or more hydrophilic silica aerogel(s) and mixtures thereof, said amorphous, porous hydrophilic silica and/or said hydrophilic silica aerogel having a BET surface area determined by ISO 9277 of from 100 m 2 /g to 1500 m 2 /g or greater, and a thermal conductivity from 0.004 to 0.05 W/m·K at 20°C and atmospheric pressure determined by ASTM E1225-13. a binder comprising one or more siloxane polymers, silicone resins, silicone based elastomers, and mixtures thereof, wherein said binder optionally comprises one or more cross-linker components comprising a silane and/or a siloxane containing silicon-bonded hydrolysable groups; and a hydrophilic powder and/or gel selected from one or more amorphous, porous hydrophilic silica(s), one or more hydrophilic silica aerogel(s) and mixtures thereof, said amorphous, porous hydrophilic silica and/or said hydrophilic silica aerogel having a BET surface area determined by ISO 9277 of from 100 m 2 /g to 1500 m 2 /g or greater, and a thermal conductivity from 0.004 to 0.05 W/m·K at 20°C and atmospheric pressure determined by ASTM E1225-13.
A tube joining apparatus that melts and cuts an end portion of a first tube (T1) and an end portion of a second tube (T2) with a heated plate-shaped cutting member (WF), and then exchanges positions of the cut end portion of the first tube (T1) and the cut end portion of the second tube (T2) and joins the tubes under aseptic conditions, the apparatus comprising: a housing ; a lid relatively movable toward and away from the housing ; a tube holding part that holds the first tube (T1) and the second tube (T2) individually in a state of being placed side by side in an oblique direction (D1) with respect to a height direction (Z) of the housing ; and a tube pressing part , and characterised in that the tube pressing part presses the first tube (T1) and the second tube (T2) against each other along an oblique direction (D1) in which the first tube (T1) and the second tube (T2) are placed side by side as the lid relatively moves toward the housing . a housing ; a lid relatively movable toward and away from the housing ; a tube holding part that holds the first tube (T1) and the second tube (T2) individually in a state of being placed side by side in an oblique direction (D1) with respect to a height direction (Z) of the housing ; and a tube pressing part , and characterised in that the tube pressing part presses the first tube (T1) and the second tube (T2) against each other along an oblique direction (D1) in which the first tube (T1) and the second tube (T2) are placed side by side as the lid relatively moves toward the housing .
Sensor device, in particular a rod sensor, for measuring the rotational speed on a wheel of a vehicle, wherein the sensor device has a sensor carrier , in particular a rod, with a sensor integrated in the sensor carrier , in order to sense, for the measurement of the rotational speed, the rotation of a pole wheel which rotates along with the wheel, having clamping means which are integrated in the sensor carrier and by means of which, for the measurement of the rotational speed, the sensor carrier can be clamped in an axially displaceable fashion in a holding opening in the region of the wheel and can be clamped in any desired orientation with respect to rotations about the longitudinal axis (Z) of the sensor carrier , wherein the clamping means have at least one, in particular precisely three or precisely four, clamping strips (8, 8', 8", 8"') which extend in the axial direction laterally on the sensor carrier and have a plurality of spring elements (10, 10', 10", 10"'), in order to bring about a defined friction connection between the sensor carrier and the holding opening in the axial direction of the sensor carrier , wherein the clamping strip (8, 8', 8", 8"') has in each case a plurality of spring elements (10, 10', 10", 10"') which are arranged axially one behind the other.
An elongated object label applicator comprising: a wrapping mechanism configured to apply a label to an elongated object and a label applicator guide characterized in that the label applicator guide includes a base which base includes a top portion , a side portion , and a base portion in a C-shaped configuration forming a channel , wherein the channel of the base mates to a base plate of the elongated object label applicator; and a controller moveably secured to the base adjacent to the wrapping mechanism in a pivoting relationship through a first knuckle of the controller pivotably connected to a second knuckle of the base, with a pin extending through the first knuckle and second knuckle, wherein the controller is configured to guide the elongated object into the wrapping mechanism to apply the label. a wrapping mechanism configured to apply a label to an elongated object and a label applicator guide characterized in that the label applicator guide includes a base which base includes a top portion , a side portion , and a base portion in a C-shaped configuration forming a channel , wherein the channel of the base mates to a base plate of the elongated object label applicator; and a controller moveably secured to the base adjacent to the wrapping mechanism in a pivoting relationship through a first knuckle of the controller pivotably connected to a second knuckle of the base, with a pin extending through the first knuckle and second knuckle, wherein the controller is configured to guide the elongated object into the wrapping mechanism to apply the label.
Use of flat racks for the building of component groups of a wind turbine at the erection site of the latter, characterized in that at least two flat racks are detachably connected to at least one assembly aid element , wherein the assembly aid element is designed for supporting or detachably receiving at least one component of the component group to be assembled.
A display module (DM1) comprising: a display panel (DP); an optical layer (PP) disposed on the display panel (DP); and an antireflection layer (ARL) disposed on the optical layer (PP), characterized in that the antireflection layer (ARL) includes: a first layer (IL1) including silicon oxynitride in contact with an upper surface of the optical layer (PP); a second layer (IL2) including silicon nitride disposed on the first layer (IL1) and in contact with an upper surface of the first layer (IL1); and a third layer (IL3) including polysilazane disposed on the second layer (IL2) and in contact with an upper surface of the second layer (IL2), wherein an upper surface of the third layer (IL3) defines an outermost surface of the antireflection layer (ARL). a display panel (DP); an optical layer (PP) disposed on the display panel (DP); and an antireflection layer (ARL) disposed on the optical layer (PP), characterized in that the antireflection layer (ARL) includes: a first layer (IL1) including silicon oxynitride in contact with an upper surface of the optical layer (PP); a second layer (IL2) including silicon nitride disposed on the first layer (IL1) and in contact with an upper surface of the first layer (IL1); and a first layer (IL1) including silicon oxynitride in contact with an upper surface of the optical layer (PP); a second layer (IL2) including silicon nitride disposed on the first layer (IL1) and in contact with an upper surface of the first layer (IL1); and a third layer (IL3) including polysilazane disposed on the second layer (IL2) and in contact with an upper surface of the second layer (IL2), wherein an upper surface of the third layer (IL3) defines an outermost surface of the antireflection layer (ARL).
A method of purifying a chimeric protein, comprising: (i) subjecting the chimeric protein to a factor VIII ("FVIII")-specific affinity chromatography, and (ii) subjecting the chimeric protein to an anion exchange (AEX) chromatography; wherein the affinity chromatography is performed prior to the AEX chromatography; wherein the chimeric protein comprises a FVIII protein; wherein the chimeric protein is eluted from the resins of the AEX chromatography using an AEX chromatography elution buffer; and wherein the AEX elution buffer comprises a salt concentration of at least 0.8M. (i) subjecting the chimeric protein to a factor VIII ("FVIII")-specific affinity chromatography, and (ii) subjecting the chimeric protein to an anion exchange (AEX) chromatography;
A polypeptide comprising the polypeptide of SEQ ID NO: 1 wherein the residue X at position 89 of SEQ ID NO: 1 is not a cysteine, or a functionally equivalent variant of said polypeptide having a degree of identity with respect to SEQ ID NO: 1 greater than 90% and having a threonine at the position corresponding to position 61 of SEQ ID NO: 1, an isoleucine at the position corresponding to position 68 of SEQ ID NO: 1, a glutamine at the position corresponding to position 74 of SEQ ID NO: 1 and an asparagine at the position corresponding to position 75 of SEQ ID NO: 1, and wherein the residue X at the position corresponding to position 89 of SEQ ID NO: 1 is not a cysteine, wherein said functionally equivalent variant preserves the tumor suppressor activity of the SEQ ID NO: 1 wherein the residue X at position 89 of SEQ ID NO: 1 is not a cysteine.
A method of controlling access of nodes to at least two coexisting wireless communication systems, which coexisting wireless communication systems are configured to share a frequency spectrum in a common coverage area , wherein each node is configured to access at least one wireless communication system in dependence of at least one access parameter, wherein the common coverage area is divided into at least two geographically defined zones (Z1, Z2, Z3, Z4), and wherein each node in the common coverage area is associated with at least one geographically defined zone, the method comprising: a control unit collecting usage data indicative of usage of the shared frequency spectrum by the nodes in the geographically defined zone, the control unit determining , by using the usage data, a relationship between the respective shared frequency spectrum usages of the wireless communication systems per geographically defined zone, the control unit determining for each geographically defined zone, by using the relationship between the respective frequency spectrum usages, at least one access parameter configured to allow at least one node associated with the respective geographically defined zone access to at least one of the coexisting wireless communication systems, and the control unit transmitting the access parameters to the respective nodes. which coexisting wireless communication systems are configured to share a frequency spectrum in a common coverage area , wherein each node is configured to access at least one wireless communication system in dependence of at least one access parameter, wherein the common coverage area is divided into at least two geographically defined zones (Z1, Z2, Z3, Z4), and wherein each node in the common coverage area is associated with at least one geographically defined zone, a control unit collecting usage data indicative of usage of the shared frequency spectrum by the nodes in the geographically defined zone, the control unit determining , by using the usage data, a relationship between the respective shared frequency spectrum usages of the wireless communication systems per geographically defined zone, the control unit determining for each geographically defined zone, by using the relationship between the respective frequency spectrum usages, at least one access parameter configured to allow at least one node associated with the respective geographically defined zone access to at least one of the coexisting wireless communication systems, and the control unit transmitting the access parameters to the respective nodes.
A tyre changing apparatus for mounting/demounting a tyre on/from a respective vehicle wheel rim, comprising: - a frame , including a base and a column , extending along a vertical direction (V); - a chuck for clamping the rim, associated with the base and rotatable about an axis of rotation (R) parallel to the vertical direction (V); - a working unit including a first working tool and a second working tool ; - an articulated arm extending from a first end , which is hinged to the column of the frame , to a second end , which is connected to the working unit ; - an actuator for varying the distance between the working unit and the clamping chuck , the apparatus being characterized in that the working unit comprises a supporting rod oriented perpendicularly to the vertical direction (V), the first working tool and the second working tool being connected to the supporting rod , and being spaced from each other, and in that the actuator is interposed between the second end of the articulated arm and the supporting rod to vary the distance between the working unit and the second end of the articulated arm along the vertical direction (V). - a frame , including a base and a column , extending along a vertical direction (V); - a chuck for clamping the rim, associated with the base and rotatable about an axis of rotation (R) parallel to the vertical direction (V); - a working unit including a first working tool and a second working tool ; - an articulated arm extending from a first end , which is hinged to the column of the frame , to a second end , which is connected to the working unit ; - an actuator for varying the distance between the working unit and the clamping chuck ,
A wireless power transmission device for a vehicle, comprising: a wireless power transmission module including at least one wireless power transmission antenna for transmitting wireless power, and a magnetic-field shielding sheet disposed on one surface of the at least one wireless power transmission antenna ; a heat dissipation case configured to discharge heat generated from a heat source, wherein the wireless power transmission module is coupled to one side of the heat dissipation case and at least one circuit board for driving the wireless power transmission module is embedded in the heat dissipation case ; a heat dissipation plate disposed between the wireless power transmission module and the heat dissipation case and configured to dissipate heat generated from the at least one wireless power transmission antenna ; an insulating layer disposed on one surface of the heat dissipation plate and configured to block transfer of heat between the heat dissipation case and the heat dissipation plate ; and a cover detachably coupled to the heat dissipation case , wherein the wireless power transmission device further comprises a ground cable connected the heat dissipation case and connectable a body of a vehicle, wherein the heat dissipation case is formed of a metal material to absorb electromagnetic waves generated from the at least one circuit board , and wherein the heat dissipation case includes a fastening hole to which an end of the ground cable is fastened so that electromagnetic waves absorbed by the heat dissipation case can be transferred to the body of the vehicle through the ground cable . a wireless power transmission module including at least one wireless power transmission antenna for transmitting wireless power, and a magnetic-field shielding sheet disposed on one surface of the at least one wireless power transmission antenna ; a heat dissipation case configured to discharge heat generated from a heat source, wherein the wireless power transmission module is coupled to one side of the heat dissipation case and at least one circuit board for driving the wireless power transmission module is embedded in the heat dissipation case ; a heat dissipation plate disposed between the wireless power transmission module and the heat dissipation case and configured to dissipate heat generated from the at least one wireless power transmission antenna ; an insulating layer disposed on one surface of the heat dissipation plate and configured to block transfer of heat between the heat dissipation case and the heat dissipation plate ; and a cover detachably coupled to the heat dissipation case , wherein the wireless power transmission device further comprises a ground cable connected the heat dissipation case and connectable a body of a vehicle, wherein the heat dissipation case is formed of a metal material to absorb electromagnetic waves generated from the at least one circuit board , and wherein the heat dissipation case includes a fastening hole to which an end of the ground cable is fastened so that electromagnetic waves absorbed by the heat dissipation case can be transferred to the body of the vehicle through the ground cable .