mhurhangee/patent-ind-claim-en huggingface dataset:
An awning, in particular a pergola awning, comprising a blind extendable from an awning box , with its front end attached to a drop rod , and further with lateral guide rails extending from the awning box , preferably, in the region of its front ends each one being received on an associated support , in which guide rails the blind and the drop rod are guided and which are associated with a spreading device, characterized in that in order to form the spreading the drop rod is provided with laterally protruding spreading elements attached to its lateral ends, and further that the guide rails are provided with inward protruding counter spreading elements positioned in the region of the front end position of the drop rod onto which counter spreading elements the spreading elements of the drop rod run when the front end position is reached, with the counter spreading elements and the spreading elements running onto the latter form a lateral spreading device, whereby the counter spreading elements and the spreading elements running onto the said spreading elements form a lateral spreading device, thus leading to a desirable spreading of the guide rails .
Method for error correction in a navigation system consisting of a base system with base sensors and a correction system with correction sensors , the base sensors and the correction sensors acquiring measurements, and the method comprising the following method steps: a) assigning measurement uncertainties to each measurement (S2) and computing error thresholds on the basis of these measurement uncertainties (S3) b) analyzing for the redundancy of a particular measurement with at least one other measurement for determining redundant measurements (S4) c) determining residuals for redundant measurements as a discrepancy between two or more redundant measurements (S5) d) increasing an error count for each redundant measurement involved in determination of the residuals which exceed the respective error thresholds (S6, S7) e) individually summing up for each redundant measurement the determined residuals (S8) f) selecting measurements on the basis of the respective error count and the summed up residuals and supplying the selected measurements to a fusion filter for calculating correction values (S10, S11, S12); g) feeding the calculated correction values to the base system and correcting a navigation system output or a sensor offset of the base system with the calculated correction values. a) assigning measurement uncertainties to each measurement (S2) and computing error thresholds on the basis of these measurement uncertainties (S3) b) analyzing for the redundancy of a particular measurement with at least one other measurement for determining redundant measurements (S4) c) determining residuals for redundant measurements as a discrepancy between two or more redundant measurements (S5) d) increasing an error count for each redundant measurement involved in determination of the residuals which exceed the respective error thresholds (S6, S7) e) individually summing up for each redundant measurement the determined residuals (S8) f) selecting measurements on the basis of the respective error count and the summed up residuals and supplying the selected measurements to a fusion filter for calculating correction values (S10, S11, S12); g) feeding the calculated correction values to the base system and correcting a navigation system output or a sensor offset of the base system with the calculated correction values.
A patient adapter for an eye laser apparatus, comprising: a first partial adapter unit including a suction ring portion to be placed on an eye and to be affixed to the eye by means of suction force, the suction ring portion having a ring axis; and a second partial adapter unit formed separately from the first partial adapter unit, the second partial adapter unit configured for releasable coupling to the eye laser apparatus and including an eye contact element for shaping a surface of the eye, wherein the first and second partial adapter units are held together mechanically in a module and are adjustable with respect to each other in the module between a first relative position in which the eye contact element assumes a first axial position with respect to the suction ring portion and a second relative position in which the eye contact element assumes a second axial position with respect to the suction ring portion, characterized in that one of the first and second partial adapter units is provided with an axially displaceable abutment face for axial abutment of the other of the first and second partial adapter units, wherein the patient adapter includes a control member which is adjustable between a first control position and a second control position, the control member prohibiting in the first control position an axial displacement of the abutment face and permitting in the second control position an axial displacement of the abutment face. a first partial adapter unit including a suction ring portion to be placed on an eye and to be affixed to the eye by means of suction force, the suction ring portion having a ring axis; and a second partial adapter unit formed separately from the first partial adapter unit, the second partial adapter unit configured for releasable coupling to the eye laser apparatus and including an eye contact element for shaping a surface of the eye, wherein the first and second partial adapter units are held together mechanically in a module and are adjustable with respect to each other in the module between a first relative position in which the eye contact element assumes a first axial position with respect to the suction ring portion and a second relative position in which the eye contact element assumes a second axial position with respect to the suction ring portion, characterized in that one of the first and second partial adapter units is provided with an axially displaceable abutment face for axial abutment of the other of the first and second partial adapter units, wherein the patient adapter includes a control member which is adjustable between a first control position and a second control position, the control member prohibiting in the first control position an axial displacement of the abutment face and permitting in the second control position an axial displacement of the abutment face.
A production method comprising: (S1) preparing a raw material mixture by mixing a dicarboxylic acid and a C4-10 mono-alcohol, wherein the dicarboxylic acid comprises one or more selected from the group consisting of an isophthalic acid, a terephthalic acid, a succinic acid, an adipic acid, a cyclohexane 1,2-dicarboxylic acid, a cyclohexane 1,3-dicarboxylic acid, and a cyclohexane 1,4-dicarboxylic acid; and (S2) obtaining a product mixture including a diester-based material and product water by reacting the raw material mixture in the presence of a catalyst, wherein in Step (S2), Condition C below is applied, and the distinction between a beginning stage of a reaction and an ending stage of the reaction in Condition C above is based on a reaction control point, which is a point of time selected from points of time at which a conversion rate of the reaction is between 10% and 80%: Condition C: Add 10 to 50 vol% in the beginning stage of the reaction, and add 50 to 90 vol% in the ending stage of the reaction based on the total input amount of an inert gas. (S1) preparing a raw material mixture by mixing a dicarboxylic acid and a C4-10 mono-alcohol, wherein the dicarboxylic acid comprises one or more selected from the group consisting of an isophthalic acid, a terephthalic acid, a succinic acid, an adipic acid, a cyclohexane 1,2-dicarboxylic acid, a cyclohexane 1,3-dicarboxylic acid, and a cyclohexane 1,4-dicarboxylic acid; and (S2) obtaining a product mixture including a diester-based material and product water by reacting the raw material mixture in the presence of a catalyst, wherein in Step (S2), Condition C below is applied, and the distinction between a beginning stage of a reaction and an ending stage of the reaction in Condition C above is based on a reaction control point, which is a point of time selected from points of time at which a conversion rate of the reaction is between 10% and 80%: Condition C: Add 10 to 50 vol% in the beginning stage of the reaction, and add 50 to 90 vol% in the ending stage of the reaction based on the total input amount of an inert gas.
A cab for a work machine , the cab comprising: a cab body which is formed with a doorway ; a door which is rotatably supported on the cab body so as to open and close the doorway ; a locking unit that locks the door so as to disable it from rotating relative to the cab body ; and an actuator that generates a driving force to unlock the door locked by the locking unit, the actuator being mounted on the cab body and supported by the cab body , characterized in that the actuator further generates a driving force to open and close the door . a cab body which is formed with a doorway ; a door which is rotatably supported on the cab body so as to open and close the doorway ; a locking unit that locks the door so as to disable it from rotating relative to the cab body ; and an actuator that generates a driving force to unlock the door locked by the locking unit, the actuator being mounted on the cab body and supported by the cab body , characterized in that the actuator further generates a driving force to open and close the door .
A variable transmittance window assembly (400; 502) comprising: a housing structure (504; 610) defining an opening therethrough; an electro-optic cell having a clear aperture of at least 0.1 m 2 secured inside said opening; a dust cover (414; 914; 1100; 1200; 2401) affixedly disposed in said opening in a spaced-apart relationship to said electro-optic cell , wherein the dust cover comprises a first optically transparent substrate having an area of at least 0.1 m 2 ; and a user interface (UI) , wherein the variable transmittance window assembly (400; 502) is characterized in that the UI is articulated to a surface (622a, 622b; 904a, 904b) of the first optically transparent substrate of said dust cover (414; 914; 1100; 1200; 2401) and is devoid of moveable elements, the UI including visually perceivable indicia (624; 1010, 1020; 1120a, 1120b, 1120c; 1501a, 1501b, 1501c, 1501d; 1902a, 1902b, 1902c; 2203a, 2203b, 2203c) representing an operational parameter of said variable transmittance window assembly (400; 502). a housing structure (504; 610) defining an opening therethrough; an electro-optic cell having a clear aperture of at least 0.1 m 2 secured inside said opening; a dust cover (414; 914; 1100; 1200; 2401) affixedly disposed in said opening in a spaced-apart relationship to said electro-optic cell , wherein the dust cover comprises a first optically transparent substrate having an area of at least 0.1 m 2 ; and a user interface (UI) , wherein the variable transmittance window assembly (400; 502) is characterized in that the UI is articulated to a surface (622a, 622b; 904a, 904b) of the first optically transparent substrate of said dust cover (414; 914; 1100; 1200; 2401) and is devoid of moveable elements, the UI including visually perceivable indicia (624; 1010, 1020; 1120a, 1120b, 1120c; 1501a, 1501b, 1501c, 1501d; 1902a, 1902b, 1902c; 2203a, 2203b, 2203c) representing an operational parameter of said variable transmittance window assembly (400; 502).
An implantable blood pump for use in a partial-support assist device, comprising: a housing having an inlet and an outlet , the housing configured to be implanted within a patient; a rectangular membrane (48, 48', 48", 48"', 75, 95, 148, 148', 148", 175, 183, 195) disposed within the housing; a magnet assembly disposed within the housing and comprising one or more magnets ; and an electromagnetic assembly disposed within the housing, the electromagnetic assembly configured to generate, when electrically activated, a magnetic field applied to the one or more magnets to induce wave-like deformation of the rectangular membrane, thereby pumping blood from the inlet, along the rectangular membrane, and out the outlet, wherein the electromagnetic assembly comprises a first electromagnet portion and a second electromagnet portion , wherein the first electromagnet portion and the second electromagnet portion are electrically activated independently, wherein the magnet assembly is disposed between the first electromagnet portion and the second electromagnet portion. a housing having an inlet and an outlet , the housing configured to be implanted within a patient; a rectangular membrane (48, 48', 48", 48"', 75, 95, 148, 148', 148", 175, 183, 195) disposed within the housing; a magnet assembly disposed within the housing and comprising one or more magnets ; and an electromagnetic assembly disposed within the housing, the electromagnetic assembly configured to generate, when electrically activated, a magnetic field applied to the one or more magnets to induce wave-like deformation of the rectangular membrane, thereby pumping blood from the inlet, along the rectangular membrane, and out the outlet, wherein the electromagnetic assembly comprises a first electromagnet portion and a second electromagnet portion , wherein the first electromagnet portion and the second electromagnet portion are electrically activated independently, wherein the magnet assembly is disposed between the first electromagnet portion and the second electromagnet portion.
Use of a polymer as a defoaming agent in a lubricating oil composition, wherein the polymer has a weight average molecular weight of 100,000 to 1,000,000, the polymer comprising: a repeating unit represented by the following general formula ; and a repeating unit represented by the following general formula : wherein in the general formula , X 1 is a repeating unit obtainable by polymerization of a first (meth)acryloyl group; Y 1 is a side chain comprising a linear or branched polysiloxane structure, the polysiloxane structure comprising a repeating unit represented by the following general formula and having a polymerization degree of 5 to 300; and Z 1 is a linking group linking the repeating unit X 1 and the side chain Y 1 ; wherein in the general formula , R 1 and R 2 are each independently an organic group having a carbon number of 1 to 18; and wherein in the general formula , X 2 is a repeating unit obtainable by polymerization of a second (meth)acryloyl group; Y 2 is a C 1-30 hydrocarbyl side chain; and Z 2 is a linking group linking the repeating unit X 2 and the side chain Y 2 . a repeating unit represented by the following general formula ; and a repeating unit represented by the following general formula : wherein in the general formula , X 1 is a repeating unit obtainable by polymerization of a first (meth)acryloyl group; Y 1 is a side chain comprising a linear or branched polysiloxane structure, the polysiloxane structure comprising a repeating unit represented by the following general formula and having a polymerization degree of 5 to 300; and Z 1 is a linking group linking the repeating unit X 1 and the side chain Y 1 ; wherein in the general formula , R 1 and R 2 are each independently an organic group having a carbon number of 1 to 18; and wherein in the general formula , X 2 is a repeating unit obtainable by polymerization of a second (meth)acryloyl group; Y 2 is a C 1-30 hydrocarbyl side chain; and Z 2 is a linking group linking the repeating unit X 2 and the side chain Y 2 .
An atomizing assembly , comprising: a housing provided with a liquid storage chamber and an airflow channel , the liquid storage chamber being configured to store liquid; an atomizing base fixed to the housing and configured to seal the liquid storage chamber , the atomizing base being provided with a liquid inlet in communication with the liquid storage chamber ; an atomizing element disposed in the atomizing base and configured to atomize the liquid flowing into the atomizing element through the liquid inlet ; and a sealing member movably disposed on the atomizing base and configured to seal or unseal the liquid inlet , wherein the atomizing base is provided with a sliding slot , the liquid inlet is located at a bottom of the sliding slot , and the sealing member is slidably disposed within the sliding slot to seal or unseal the liquid inlet , characterized in that the sealing member comprises: a pull rod disposed through the atomizing base ; and a sealing portion located in the sliding slot , wherein the pull rod has a first end connected to the sealing portion and a second end extending out of the atomizing base , and the pull rod is movable towards or away from the liquid inlet , such that the sealing portion is slidable within the sliding slot to seal or unseal the liquid inlet . a housing provided with a liquid storage chamber and an airflow channel , the liquid storage chamber being configured to store liquid; an atomizing base fixed to the housing and configured to seal the liquid storage chamber , the atomizing base being provided with a liquid inlet in communication with the liquid storage chamber ; an atomizing element disposed in the atomizing base and configured to atomize the liquid flowing into the atomizing element through the liquid inlet ; and a sealing member movably disposed on the atomizing base and configured to seal or unseal the liquid inlet , wherein the atomizing base is provided with a sliding slot , the liquid inlet is located at a bottom of the sliding slot , and the sealing member is slidably disposed within the sliding slot to seal or unseal the liquid inlet , characterized in that the sealing member comprises: a pull rod disposed through the atomizing base ; and a sealing portion located in the sliding slot , wherein the pull rod has a first end connected to the sealing portion and a second end extending out of the atomizing base , and the pull rod is movable towards or away from the liquid inlet , such that the sealing portion is slidable within the sliding slot to seal or unseal the liquid inlet . a pull rod disposed through the atomizing base ; and a sealing portion located in the sliding slot , wherein the pull rod has a first end connected to the sealing portion and a second end extending out of the atomizing base , and the pull rod is movable towards or away from the liquid inlet , such that the sealing portion is slidable within the sliding slot to seal or unseal the liquid inlet .
A tank comprising: a tank body , and a strainer that comprises a strainer body having a cylindrical shape, characterized in that the tank comprises an injection pipe that serves as an injection opening through which a liquid containing a reducing agent is injected into the tank body and that is a tubular member with one end communicating with the interior of the tank body , and the other end provided outside the tank body , wherein the strainer is provided in the injection pipe , the strainer comprises a front end portion integrally formed with an end of the strainer body on a side serving as an outlet of the liquid, and having a triangular or trapezoidal shape when a cross section is taken along a plane including an axis of the strainer body , and the front end portion is formed using a material through which the liquid cannot pass and protruding toward a hollow portion of the strainer body . a tank body , and a strainer that comprises a strainer body having a cylindrical shape, characterized in that the tank comprises an injection pipe that serves as an injection opening through which a liquid containing a reducing agent is injected into the tank body and that is a tubular member with one end communicating with the interior of the tank body , and the other end provided outside the tank body , wherein the strainer is provided in the injection pipe , the strainer comprises a front end portion integrally formed with an end of the strainer body on a side serving as an outlet of the liquid, and having a triangular or trapezoidal shape when a cross section is taken along a plane including an axis of the strainer body , and the front end portion is formed using a material through which the liquid cannot pass and protruding toward a hollow portion of the strainer body .
A fusion protein for improving a protein expression level from a target mRNA, the fusion protein comprising: (A) one or more functional domains which improve a protein expression level from an mRNA; and (B) a polypeptide moiety which can bind to a target mRNA in an RNA base-selective or RNA base sequence-specific manner, wherein polypeptide moiety (B) is a polypeptide moiety comprising one or more pentatricopeptide repeat (PPR) motifs, each PPR motif comprising a polypeptide consisting of 30 to 38 amino acids in length and being represented by Formula 1: [Formula 1] (Helix A)-X-(Helix B)-L (Formula 1) where Helix A is a moiety which consists of 12 amino acids in length and can form an α-helix structure, and is represented by Formula 2: [Formula 2] A 1 -A 2 -A 3 -A 4 -A 5 -A 6 -A 7 -A 8 -A 9 -A 10 -A 11 -A 12 (Formula 2) where A 1 to A 12 each independently represent an amino acid; X is not present, or is a moiety consisting of 1 to 9 amino acids in length; Helix B is a moiety which consists of 11 to 13 amino acids in length and can form an α-helix structure; L is a moiety consisting of 2 to 7 amino acids in length and represented by Formula 3: [Formula 3] L vii -L vi -L v -L iv -L iii -L ii -L i (Formula 3) where the amino acids are numbered from the C-terminal as "i" (-1), "ii" (-2), ... and L iii to L vii may not be present, and a combination of three amino acids A 1 , A 4 , and L ii or a combination of two amino acids A 4 and L ii corresponds to a base or base sequence of the target mRNA, wherein one or more functional domains (A) are selected from the group consisting of a domain which guides ribosome to the mRNA, a domain which initiates or promotes translation of the mRNA, a domain associated with nuclear export of the mRNA, a domain which binds to an endoplasmic reticulum membrane, a domain containing an endoplasmic reticulum retention signal (ER retention signal) sequence, and a domain containing an endoplasmic reticulum signal sequence. (A) one or more functional domains which improve a protein expression level from an mRNA; and (B) a polypeptide moiety which can bind to a target mRNA in an RNA base-selective or RNA base sequence-specific manner, where A 1 to A 12 each independently represent an amino acid; X is not present, or is a moiety consisting of 1 to 9 amino acids in length; Helix B is a moiety which consists of 11 to 13 amino acids in length and can form an α-helix structure; L is a moiety consisting of 2 to 7 amino acids in length and represented by Formula 3: where the amino acids are numbered from the C-terminal as "i" (-1), "ii" (-2), ... and L iii to L vii may not be present, and a combination of three amino acids A 1 , A 4 , and L ii or a combination of two amino acids A 4 and L ii corresponds to a base or base sequence of the target mRNA,