mhurhangee/patent-ind-claim-en huggingface dataset:
A module for realizing modular building structures, wherein a modular building structures comprises a plurality of side by side modules arranged in horizontal rows and/or vertical columns, wherein the module comprises: - a bearing block having a side surface with mutually opposite pairs of flat faces (6-9) and each having jointing means for coupling with further similar modules ( 1' , 1" ) arranged in side by side position; - anchoring means for anchoring said bearing block to one or more bearing blocks of side-by-side modules ( 1' , 1") for realizing a wall or other building structure; wherein said anchoring means comprise at least one pair of passages mutually perpendicular and staggered along a first transverse direction (X), said passages extending into said block from respective of said flat faces (6-9); wherein said anchoring means comprise at least one pair of reinforcing bars having a length substantially close to that of said respective passages , each of said bars being adapted to be inserted in a pair of consecutive passages belonging to two mutually side-by-side modules to define a reinforcement meshed armor, wherein each of said bars has ends associated with male and female connecting elements for coupling with the female and male connecting elements of facing ends of contiguous bars belonging to a side-by-side module defining corresponding connecting portions; wherein said jointing means of said flat faces (6-9) are complementary shaped with each other, with first faces of said side surface being mutually orthogonal and contiguous and having a respective projection and second faces of said side surface opposite to respective of said first faces and orthogonal and contiguous with each other having a respective recess complementarily shaped with respect of the projection of the opposite of said first faces for the snap fitting of said projections into corresponding recesses of respective two further modules (1', 1") in side-by-side position; said faces (6-9) having circular grooves complementary shaped with respect to said connecting portions to guarantee the housing thereof when two adjacent modules are joined together; characterized in that all said faces (6-9) of said side surface are made of wood or of a wood-based material and have such a thickness to allow the connecting portions of two contiguous bars to be entirely contained within the thickness of the corresponding of said faces (6-9), said male end and said female end of said bars having respective axial length substantially equal to the maximum thickness of said flat faces (6-9) provided with said jointing means . - a bearing block having a side surface with mutually opposite pairs of flat faces (6-9) and each having jointing means for coupling with further similar modules ( 1' , 1" ) arranged in side by side position; - anchoring means for anchoring said bearing block to one or more bearing blocks of side-by-side modules ( 1' , 1") for realizing a wall or other building structure;
A robotic system comprising: a vehicle comprising: a plurality of wheels ; a driving assembly ; a platform ; a robot mounted on the platform of the vehicle ; a first removable rack mounted on the platform of the vehicle ; wherein the wheels are under the platform ; and wherein the driving assembly is installed in the front of the platform ; and wherein the vehicle is to move on the ground; and wherein the robot is to pick up the first removable rack to or from the platform ; and wherein the robot is to pick up the items on the first removable rack ; characterized by the fact that the robotic system further comprises a second removable rack mounted on the platform of the vehicle ; wherein the first removable rack is closer to the driving assembly than the second removable rack ; and wherein the robot is between the first removable rack and the second removable rack ; wherein the robot is a fork-shaped lifter comprising a base rotatable about a first direction, the base comprising a first slot and a second slot parallel to the first slot , the first slot being perpendicular to the first direction; a first pole translating along the first slot a second pole translating along the second slot ; a frame translating along the first direction, the frame being directly mounted on the first pole and the second pole ; a first fork prong directly mounted on the frame ; and a second fork prong directly mounted on the frame , the second fork prong being parallel to the first fork prong ; wherein a width between the first fork prong and the second fork prong is adjustable. a plurality of wheels ; a driving assembly ; a platform ; a robot mounted on the platform of the vehicle ; a first removable rack mounted on the platform of the vehicle ; wherein the wheels are under the platform ; and wherein the driving assembly is installed in the front of the platform ; and wherein the vehicle is to move on the ground; and wherein the robot is to pick up the first removable rack to or from the platform ; and wherein the robot is to pick up the items on the first removable rack ; characterized by the fact that the robotic system further comprises a second removable rack mounted on the platform of the vehicle ; wherein the first removable rack is closer to the driving assembly than the second removable rack ; and wherein the robot is between the first removable rack and the second removable rack ; wherein the robot is a fork-shaped lifter comprising a base rotatable about a first direction, the base comprising a first slot and a second slot parallel to the first slot , the first slot being perpendicular to the first direction; a first pole translating along the first slot a second pole translating along the second slot ; a frame translating along the first direction, the frame being directly mounted on the first pole and the second pole ; a first fork prong directly mounted on the frame ; and a second fork prong directly mounted on the frame , the second fork prong being parallel to the first fork prong ; wherein a width between the first fork prong and the second fork prong is adjustable.
A method for preparing a bio-based polycarbonate ester, comprising the steps of: converting a compound of Formula 2 into an intermediate reactant having a functional group that is readily detached and then subjecting the intermediate reactant to a nucleophilic reaction with phenol to yield a compound of Formula 3; and subjecting the compound of Formula 3 prepared in step , a compound of Formula 4, and 1,4:3,6-dianhydrohexitol to a polycarbonate melt polycondensation reaction to yield the bio-based polycarbonate ester comprising a repeating unit of Formula 1: wherein R is methyl or hydrogen, R 1 and R 2 are each independently a substituted or unsubstituted C 1- C 18 aliphatic group, or a substituted or unsubstituted C 1 -C 18 aromatic group, and x is a real number of 0 < x < 1. converting a compound of Formula 2 into an intermediate reactant having a functional group that is readily detached and then subjecting the intermediate reactant to a nucleophilic reaction with phenol to yield a compound of Formula 3; and subjecting the compound of Formula 3 prepared in step , a compound of Formula 4, and 1,4:3,6-dianhydrohexitol to a polycarbonate melt polycondensation reaction to yield the bio-based polycarbonate ester comprising a repeating unit of Formula 1: wherein R is methyl or hydrogen, R 1 and R 2 are each independently a substituted or unsubstituted C 1- C 18 aliphatic group, or a substituted or unsubstituted C 1 -C 18 aromatic group, and x is a real number of 0 < x < 1. R is methyl or hydrogen, R 1 and R 2 are each independently a substituted or unsubstituted C 1- C 18 aliphatic group, or a substituted or unsubstituted C 1 -C 18 aromatic group, and x is a real number of 0 < x < 1.
A device for delivery of remote ischemic conditioning treatment to a subject, said device comprising a cuff configured for placement over a limb of the subject and a controller operably connected to said cuff , said cuff comprises a single inflatable bladder and is further configured to at least partially reduce blood flow in said limb upon inflation thereof; wherein said controller is configured upon activation to deliver said remote ischemic conditioning treatment by performing a plurality of remote ischemic conditioning treatment cycles, each treatment cycle comprising: a period of cuff inflation when said controller is causing said cuff to be inflated to and maintained at or above a pressure sufficient to cause a partial reduction of blood flow in said limb to produce an ischemic stress therein for at least about one minute, or a period of cuff inflation when said controller is causing said cuff to alternate between partial and complete blood flow cessation states in said limb to produce an ischemic stress therein for at least about one minute, whereby said each treatment cycle further comprising: a period of cuff deflation when said controller is causing said cuff to deflate so as to increase blood flow in said limb and relieve said ischemic stress, wherein said controller is configured to inflate the cuff to a pressure exceeding diastolic blood pressure to cause said remote ischemic conditioning treatment, said controller is further configured to avoid complete blood flow cessation of said limb by said cuff lasting more than about one minute during at least one of said treatment cycles and wherein said controller is configured to inflate said cuff during at least a portion of said period of cuff inflation to a pressure below a lesser pressure of either the systolic blood pressure of said subject or the pressure of complete blood flow cessation of said subject. a period of cuff inflation when said controller is causing said cuff to be inflated to and maintained at or above a pressure sufficient to cause a partial reduction of blood flow in said limb to produce an ischemic stress therein for at least about one minute, or a period of cuff inflation when said controller is causing said cuff to alternate between partial and complete blood flow cessation states in said limb to produce an ischemic stress therein for at least about one minute, whereby said each treatment cycle further comprising: a period of cuff deflation when said controller is causing said cuff to deflate so as to increase blood flow in said limb and relieve said ischemic stress,
A propulsion assembly configured to be worn on one of a user's hands and/or forearms, comprising: at least first and second hand propulsion units , the first hand propulsion unit arranged to provide net force along a first axis (Xa), the second hand propulsion unit arranged to provide net force along a second axis (Xb), wherein the first axis (Xa) is not parallel with the second axis (Xb); a sleeve configured to be worn on the one of a user's hands and/or forearms; and mountings , wherein each propulsion unit is mounted to the sleeve via one of the mountings . at least first and second hand propulsion units , the first hand propulsion unit arranged to provide net force along a first axis (Xa), the second hand propulsion unit arranged to provide net force along a second axis (Xb), wherein the first axis (Xa) is not parallel with the second axis (Xb); a sleeve configured to be worn on the one of a user's hands and/or forearms; and mountings , wherein each propulsion unit is mounted to the sleeve via one of the mountings .
Method for generation of a washing program for operation of an automatic washing installation (WA) for vehicles, comprising the following method steps: - reading-in (S11) an equipment data set which represents how the washing installation is currently equipped with machine components; - specifying (S12) activatable function blocks from a stored group of function blocks (FuB) based on the read-in equipment data set and providing (S13) same for selection; wherein a function block (FuB) is a digital object in which the correspondingly necessary machine components are allocated to the functionality thereof; - detecting (S14) a selection of the provided activatable function blocks; - automatically generating (S15) the washing program with a computed sequence of selected activatable function blocks for operation of the washing installation (WA). - reading-in (S11) an equipment data set which represents how the washing installation is currently equipped with machine components; - specifying (S12) activatable function blocks from a stored group of function blocks (FuB) based on the read-in equipment data set and providing (S13) same for selection; wherein a function block (FuB) is a digital object in which the correspondingly necessary machine components are allocated to the functionality thereof; - detecting (S14) a selection of the provided activatable function blocks; - automatically generating (S15) the washing program with a computed sequence of selected activatable function blocks for operation of the washing installation (WA).
A method for producing a hollow composite structure , comprising: placing a membrane within a mold tool , the membrane being permeable to air and impermeable to resin; placing a mandrel within the mold tool, the mandrel enclosed in an air tight layer that includes a vent; placing fiber reinforcement material around the mandrel within the mold tool; sealing the membrane at least partly around the fiber reinforcement material and mandrel; closing the mold tool, the vent line from the mandrel extending through the sealed membrane to outside of the mold tool; drawing a vacuum in the mold tool through one or more vacuum ports of the mould tool while the mandrel is vented to outside of the mold tool; and while the vacuum is being drawn, infusing resin into the mold tool around the mandrel at one or more locations between the membrane and the mandrel such that the resin is drawn towards the membrane. placing a membrane within a mold tool , the membrane being permeable to air and impermeable to resin; placing a mandrel within the mold tool, the mandrel enclosed in an air tight layer that includes a vent; placing fiber reinforcement material around the mandrel within the mold tool; sealing the membrane at least partly around the fiber reinforcement material and mandrel; closing the mold tool, the vent line from the mandrel extending through the sealed membrane to outside of the mold tool; drawing a vacuum in the mold tool through one or more vacuum ports of the mould tool while the mandrel is vented to outside of the mold tool; and while the vacuum is being drawn, infusing resin into the mold tool around the mandrel at one or more locations between the membrane and the mandrel such that the resin is drawn towards the membrane.
A method for producing polyaspartic acid, comprising the following steps: (a) contacting a mixture of: (i) aspartic acid, (ii) 1 to 25 mol%, based on the amount of aspartic acid used in moles, of an acidic catalyst, and (iii) water in a reactor; (b) heating the mixture according to (a) under reflux cooling without distillative removal of water at a reaction temperature of 100 to 220°C up to a degree of conversion of the aspartic acid of at least 1%; (c) polycondensing the reaction mixture according to (b) with simultaneous distillative removal of water at 170 to 250°C; (d) hydrolyzing the polycondensates according to (c) with addition of a base; and (e) optionally acidifying the salts of polyaspartic acid obtained in (d). (a) contacting a mixture of: (i) aspartic acid, (ii) 1 to 25 mol%, based on the amount of aspartic acid used in moles, of an acidic catalyst, and (iii) water in a reactor; (i) aspartic acid, (ii) 1 to 25 mol%, based on the amount of aspartic acid used in moles, of an acidic catalyst, and (iii) water (b) heating the mixture according to (a) under reflux cooling without distillative removal of water at a reaction temperature of 100 to 220°C up to a degree of conversion of the aspartic acid of at least 1%; (c) polycondensing the reaction mixture according to (b) with simultaneous distillative removal of water at 170 to 250°C; (d) hydrolyzing the polycondensates according to (c) with addition of a base; and (e) optionally acidifying the salts of polyaspartic acid obtained in (d).
A device arranged for providing audio and/or video content to a media rendering device over a physical connection and further arranged for controlling one or more wireless lighting devices of a plurality of wireless lighting devices to render light effects based on an analysis of said audio and/or video content while said audio and/or video content is being rendered on said media rendering device , said device comprising: at least one input interface ; at least one output interface ; and characterized in that the at least one processor is configured to: - obtain distance information via said at least one input interface , said distance information being indicative of distances between said device and each of said plurality of wireless lighting devices (31-34), - select, based on said distance information, said one or more wireless lighting devices from said plurality of wireless lighting devices (31-34), such that said distance between said device and each of said selected one or more wireless lighting devices do not exceed a threshold, - perform said analysis of said audio and/or video content, - determine said light effects based on said analysis of said audio and/or video content, and - control, via said at least one output interface , said selected one or more wireless lighting devices to render said light effects. at least one input interface ; at least one output interface ; and characterized in that the at least one processor is configured to: - obtain distance information via said at least one input interface , said distance information being indicative of distances between said device and each of said plurality of wireless lighting devices (31-34), - select, based on said distance information, said one or more wireless lighting devices from said plurality of wireless lighting devices (31-34), such that said distance between said device and each of said selected one or more wireless lighting devices do not exceed a threshold, - perform said analysis of said audio and/or video content, - determine said light effects based on said analysis of said audio and/or video content, and - control, via said at least one output interface , said selected one or more wireless lighting devices to render said light effects. - obtain distance information via said at least one input interface , said distance information being indicative of distances between said device and each of said plurality of wireless lighting devices (31-34), - select, based on said distance information, said one or more wireless lighting devices from said plurality of wireless lighting devices (31-34), such that said distance between said device and each of said selected one or more wireless lighting devices do not exceed a threshold, - perform said analysis of said audio and/or video content, - determine said light effects based on said analysis of said audio and/or video content, and - control, via said at least one output interface , said selected one or more wireless lighting devices to render said light effects.
A lamp comprising: a housing ; a substrate disposed in the housing ; a first light source and a second light source disposed on one surface of the substrate and the other opposite surface of the substrate , respectively; and a light guide disposed on an emission line of light of the second light source , characterized in that , the light guide is formed in a polygonal pillar shape in which one area thereof is bent, and in that the light guide comprises an incidence surface to which the light of the second light source is incident; an exit surface ; and a plurality of side surfaces disposed between the incidence surface and the exit surface . a housing ; a substrate disposed in the housing ; a first light source and a second light source disposed on one surface of the substrate and the other opposite surface of the substrate , respectively; and a light guide disposed on an emission line of light of the second light source , characterized in that , the light guide is formed in a polygonal pillar shape in which one area thereof is bent, and in that the light guide comprises an incidence surface to which the light of the second light source is incident; an exit surface ; and a plurality of side surfaces disposed between the incidence surface and the exit surface .
Stench trap , comprising: - a body with an upper surface and a peripheral surface directed downward from the peripheral edge of the upper surface ; - a seal arranged substantially parallel to the peripheral edge and enclosing the peripheral surface for the purpose of sealing the peripheral surface against a wall of an outlet pipe or housing in the mounted state of the stench trap. - a channel extending through the body, wherein the channel debouches at a first end in an inflow opening arranged in the upper surface and debouches at a second end in an outflow opening , wherein the outflow opening lies opposite the inflow opening relative to the plane through the seal - a closing surface which is formed on the body and is arranged all around the outflow opening ; and - a flexible flap which is fastened with its edge to the body and lies against the closing surface in order to close the outflow opening ; characterized in that the closing surface is a surface with a curve in a single direction, which surface with a curve in a single direction is parallel to the edge with which the flexible flap is fastened to the body, such that the flexible flap will lie against the closing surface by gravity. - a body with an upper surface and a peripheral surface directed downward from the peripheral edge of the upper surface ; - a seal arranged substantially parallel to the peripheral edge and enclosing the peripheral surface for the purpose of sealing the peripheral surface against a wall of an outlet pipe or housing in the mounted state of the stench trap. - a channel extending through the body, wherein the channel debouches at a first end in an inflow opening arranged in the upper surface and debouches at a second end in an outflow opening , wherein the outflow opening lies opposite the inflow opening relative to the plane through the seal - a closing surface which is formed on the body and is arranged all around the outflow opening ; and - a flexible flap which is fastened with its edge to the body and lies against the closing surface in order to close the outflow opening ;
A base station comprising: means for determining a periodicity, T, for a search space of a machine-type communications, MTC, Physical Downlink Control Channel, M-PDCCH; and means for transmitting, to a user equipment, LTE, , a radio resource control, RRC, message including a parameter, Rmax, indicating a maximum number of repetitions for the search space of the M-PDCCH over a plurality of consecutive subframes and a parameter, G, indicating a starting subframe for the search space of the M-PDCCH, and wherein the periodicity, T, is represented by a numerical formula: T = Rmax * G . means for determining a periodicity, T, for a search space of a machine-type communications, MTC, Physical Downlink Control Channel, M-PDCCH; and means for transmitting, to a user equipment, LTE, , a radio resource control, RRC, message including a parameter, Rmax, indicating a maximum number of repetitions for the search space of the M-PDCCH over a plurality of consecutive subframes and a parameter, G, indicating a starting subframe for the search space of the M-PDCCH, and wherein the periodicity, T, is represented by a numerical formula: T = Rmax * G .