mhurhangee/patent-ind-claim-en huggingface dataset:
A robot installation comprising a first robot and a second robot , each of the robots comprising: a first shaft and a second shaft extending in a first direction from respective first and second actuators , a third shaft extending in a second direction form a respective third actuator , the second direction being opposite to the first direction , a frame defining fixed positions of the first, second and third shafts in relation to each other, a first drive arm attached to the first shaft , a second drive arm attached to the second shaft , and a third drive arm attached to the third shaft , characterized in that the first robot is attached to a fixed position in relation to the second robot such that at least one of the following elements of the second robot lies within a reach of at least one drive arm of the first robot : the second shaft , the second and third drive arms , the first and second actuators and the frame . a first shaft and a second shaft extending in a first direction from respective first and second actuators , a third shaft extending in a second direction form a respective third actuator , the second direction being opposite to the first direction , a frame defining fixed positions of the first, second and third shafts in relation to each other, a first drive arm attached to the first shaft , a second drive arm attached to the second shaft , and a third drive arm attached to the third shaft , characterized in that the first robot is attached to a fixed position in relation to the second robot such that at least one of the following elements of the second robot lies within a reach of at least one drive arm of the first robot : the second shaft , the second and third drive arms , the first and second actuators and the frame .
A rail vehicle, comprising: a rail vehicle frame ; a pocket coupled to a frame portion of the rail vehicle frame , the frame portion comprising a transverse slot ; a first beam disposed in a cavity defined by the pocket, the first beam having a rectangular cross-section; a second beam disposed proximal to the first beam ; an end plate that couples the first beam and the second beam ; an actuator that extends the first and second beams such that the end plate is displaced transversely with respect to the rail vehicle frame ; and a workhead carrier comprising a protrusion , the workhead carrier (92', 92") operable to translate along the first and second beams and couple the second beam to the frame portion via the protrusion disposed in the transverse slot . a rail vehicle frame ; a pocket coupled to a frame portion of the rail vehicle frame , the frame portion comprising a transverse slot ; a first beam disposed in a cavity defined by the pocket, the first beam having a rectangular cross-section; a second beam disposed proximal to the first beam ; an end plate that couples the first beam and the second beam ; an actuator that extends the first and second beams such that the end plate is displaced transversely with respect to the rail vehicle frame ; and a workhead carrier comprising a protrusion , the workhead carrier (92', 92") operable to translate along the first and second beams and couple the second beam to the frame portion via the protrusion disposed in the transverse slot .
A kit of parts for assembling a control assembly for a roller blind, comprising a plurality of driven parts (A) each comprising a tubular body , the tubular body of each of said plurality of driven parts having a different diameter and/or profile adapted to be inserted into and drivingly engage a respective roller blind tube, characterised by a plurality of mounting parts (B) each having an outer face incorporating a different arrangement of securing formations adapted to be engageable with a respective mounting bracket, and a drive part (C) comprising a housing adapted to be coupled with any one of said mounting parts (B) and a drive means rotatingly mounted within the housing and adapted to be coupled with any one of said driven parts (A).
An anti-tumor agent other than sorafenib or a pharmaceutically acceptable salt thereof for use in treating a human subject having, suspected of having, or at risk of developing a hepatocellular carcinoma, wherein the treating comprises a method of predicting the response of the human subject to a therapy comprising sorafenib or a pharmaceutically acceptable salt thereof, the method comprising measuring or having measured a baseline expression level of fibroblast growth factor 21 (FGF21) in a biological sample obtained from the human subject, wherein a high baseline expression level of FGF21, as compared to a control, is predictive that the human subject is not responsive to the therapy comprising sorafenib or a pharmaceutically acceptable salt thereof, wherein the control is a sample obtained from a subject who is responsive to a therapy comprising a sorafenib compound, wherein the biological sample is a blood sample, a serum sample, or a plasma sample, and wherein the anti-tumor agent other than sorafenib or a pharmaceutically acceptable salt thereof is lenvatinib or a pharmaceutically acceptable salt thereof. wherein the treating comprises a method of predicting the response of the human subject to a therapy comprising sorafenib or a pharmaceutically acceptable salt thereof, the method comprising measuring or having measured a baseline expression level of fibroblast growth factor 21 (FGF21) in a biological sample obtained from the human subject, wherein a high baseline expression level of FGF21, as compared to a control, is predictive that the human subject is not responsive to the therapy comprising sorafenib or a pharmaceutically acceptable salt thereof, wherein the control is a sample obtained from a subject who is responsive to a therapy comprising a sorafenib compound, wherein the biological sample is a blood sample, a serum sample, or a plasma sample, and wherein the anti-tumor agent other than sorafenib or a pharmaceutically acceptable salt thereof is lenvatinib or a pharmaceutically acceptable salt thereof.
Process for the preparation of a compound of the formula (I): and pharmaceutically acceptable addition salts thereof, comprising the following steps: step a) oxidation of [3-(bromomethyl)oxetan-3-yl]methanol of formula (II) to form a compound of formula (III) step b) conversion of carboxy group of a compound of formula (III) to carbamate to form a compound of formula (IV) wherein R is C 1-6 alkyl, C 1-6 alkoxyphenyl-C x H 2x - or phenyl-C x H 2x -; wherein x is an integer selected from 1 to 6; step c) amination of a compound of formula (IV) to form a compound of formula (V) wherein R is as defined above; step d) salt formation of a compound of formula (V) with an acid to form a compound of formula (VI) wherein R is as defined above; step e) substitution reaction of a compound of formula (VI) with a compound of formula (IX) to give a compound of formula (VII) wherein R is as defined above; step f) substitution reaction of a compound of formula (VII) with a compound of formula (X) to give a compound of formula (VIII) wherein R is as defined above; step g) comprises deprotection of a compound of formula (VIII) to give a compound of formula (I) and if necessary, form a pharmaceutically acceptable addition salt. step a) oxidation of [3-(bromomethyl)oxetan-3-yl]methanol of formula (II) to form a compound of formula (III) step b) conversion of carboxy group of a compound of formula (III) to carbamate to form a compound of formula (IV) wherein R is C 1-6 alkyl, C 1-6 alkoxyphenyl-C x H 2x - or phenyl-C x H 2x -; wherein x is an integer selected from 1 to 6; step c) amination of a compound of formula (IV) to form a compound of formula (V) wherein R is as defined above; step d) salt formation of a compound of formula (V) with an acid to form a compound of formula (VI) wherein R is as defined above; step e) substitution reaction of a compound of formula (VI) with a compound of formula (IX) to give a compound of formula (VII) wherein R is as defined above; step f) substitution reaction of a compound of formula (VII) with a compound of formula (X) to give a compound of formula (VIII) wherein R is as defined above; step g) comprises deprotection of a compound of formula (VIII) to give a compound of formula (I) and if necessary, form a pharmaceutically acceptable addition salt.
Refrigeration appliance comprising a refrigeration compartment in which a storage compartment for refrigerated goods is mounted on a pull-out panel such that it can be displaced between an inserted position (I) and a pulled-out position (II), wherein the storage compartment can be arranged in a first position (A) and in a second position (B) on the pull-out panel , wherein the first position (A) and the second position (B) differ in the direction (Y) of the width of the refrigeration appliance, wherein a spacer is optionally arranged at a first point or at a second point on the pull-out panel , wherein with the spacer at the first point the storage compartment is in the first position (A) and with the spacer at the second point the storage compartment is in the second position (B), wherein the spacer is fastened to the pull-out panel , so that a minimal spacing from a collision edge of a refrigeration appliance door is maintained on one side of the storage compartment .
A shell member for an accumulator , the accumulator comprising a cover member , the shell member and an accumulation part , the shell member having a cylindrical portion , an opening portion formed at one end of the cylindrical portion and configured to be welded to the cover member , and a closed portion formed at another end of the cylindrical portion ; and the shell member being configured such that the accumulation part is accommodable in the shell member , wherein the cylindrical portion includes a first wall portion having a same thickness, a second wall portion having the opening portion and being thicker than the first wall portion , and a taper portion disposed between the first wall portion and the second wall portion and having a thickness gradually changed so as to protrude outward from the first wall portion and connect an outer surface of the first wall portion to an outer surface of the second wall portion , the shell member being characterized in that the first wall portion is disposed in a region from said another end to a substantially central portion in a height direction of the cylindrical portion and the taper portion extends from the substantially central portion in the height direction to the second wall portion . the shell member having a cylindrical portion , an opening portion formed at one end of the cylindrical portion and configured to be welded to the cover member , and a closed portion formed at another end of the cylindrical portion ; and the shell member being configured such that the accumulation part is accommodable in the shell member , wherein the cylindrical portion includes a first wall portion having a same thickness, a second wall portion having the opening portion and being thicker than the first wall portion , and a taper portion disposed between the first wall portion and the second wall portion and having a thickness gradually changed so as to protrude outward from the first wall portion and connect an outer surface of the first wall portion to an outer surface of the second wall portion , the shell member being characterized in that the first wall portion is disposed in a region from said another end to a substantially central portion in a height direction of the cylindrical portion and the taper portion extends from the substantially central portion in the height direction to the second wall portion .
Ventilation device for an inner region of a motor vehicle, in particular in a region of a second row of seats, comprising at least one air duct element , at least one supply device as part of an air conditioning system of the motor vehicle, which device is coupled to a first end of the at least one air duct element , at least one air outflow element which is coupled to a second end of the at least one air duct element and is designed to be arranged in the non-visible region of the inner region of the motor vehicle, at least one directional element and at least one light element , the arrangements of the at least one directional element and of the at least one air outflow element being designed to together cause the ventilation device to be continuously adjustable at least between two ventilation states in the inner region of the motor vehicle, which differ with respect to a seat region of the motor vehicle at least in each case by a direction of outflowing air aimed directly into the passenger compartment of the motor vehicle and a direction aimed indirectly along a roof liner designed for this purpose, characterized in that the at least one directional element is designed to be arranged in a non-visible roof region of the passenger compartment of the motor vehicle, the at least one directional element being designed to effect a change in shape of the adjacent visible roof region when the at least one directional element is activated, so that a direction of outflowing air from the at least one air flow element can be adjusted from a ventilation state to an additional ventilation state.
A detection system adapted to check the position of a pipeline in a bed of a body of water and extending along a predetermined route; the system comprising a device (3; 103), which is configured to be moved in a moving direction (D) and along the predetermined route in the body of water and comprises a support (9; 109), which mainly extends transversely to the moving direction (D), a number of acoustic wave sources , which are mounted on the support (9; 109) and are configured to transmit acoustic waves through the body of water and the bed of the body of water , and a number of acoustic wave receivers , which are located along the support (9; 109) and are configured to receive reflected acoustic waves and emit reception signals (SR) related to the reflected acoustic waves; and a processing unit comprising an acquisition unit , which is configured to receive, from the outside, at least one datum selected within a group of known or expected data comprising: the known value of the cross-section (D1) of the pipeline , an expected value of the trenching height (H) of the pipeline , the known shape of the pipeline , the expected bathymetric profile of the bed of the body of water , and an expected value of the position (P) of the pipeline ; the processing unit being configured to calculate a parameter related to the position (P) of the pipeline in the bed of the body of water on the basis of the reception signals (SR) and of said at least one datum selected within the group of data, and to check if the parameter (H) falls within certain ranges; wherein the number of receivers is equal to or greater than two; in particular the number of receivers is equal to or greater than three; wherein the receivers are distributed transversely to the moving direction (D); and comprising a mechanism to adjust the immersion depth of the support (9; 109) in the body of water , so as to place the support (9; 109) at a given estimated distance (D2) from the pipeline .
A system for reducing a temperature of a braking assembly, the system comprising: the braking assembly of a wheel assembly , the braking assembly comprising a plurality of friction disks ; an airflow amplifier coupled to the wheel assembly ; a conduit extending from a compressed gas source to the airflow amplifier; and characterized by further comprising a compressed gas source comprising a solid state material that generates gas via a chemical reaction; and wherein the airflow amplifier is configured to entrain ambient air in response to compressed gas from the compressed gas source flowing through the airflow amplifier via the conduit , wherein the airflow amplifier is configured to direct the entrained air and the compressed gas onto the braking assembly to reduce the temperature of the braking assembly. the braking assembly of a wheel assembly , the braking assembly comprising a plurality of friction disks ; an airflow amplifier coupled to the wheel assembly ; a conduit extending from a compressed gas source to the airflow amplifier; and characterized by further comprising a compressed gas source comprising a solid state material that generates gas via a chemical reaction; and wherein the airflow amplifier is configured to entrain ambient air in response to compressed gas from the compressed gas source flowing through the airflow amplifier via the conduit , wherein the airflow amplifier is configured to direct the entrained air and the compressed gas onto the braking assembly to reduce the temperature of the braking assembly.
An optical communication cable comprising: a jacket having an interior surface that defines a cable jacket internal cross-sectional area; a plurality of optical fibers, wherein the plurality of optical fibers defines a plurality of optical fiber ribbons , wherein the plurality of optical fiber ribbons is arranged in a plurality of ribbon stacks that define a plurality of subunits , and wherein each subunit has a subunit jacket , wherein the plurality of optical fiber subunits are unstranded, wherein less than 60% of the cable jacket internal cross-sectional area is occupied by the cross-sectional area of the plurality of optical fiber ribbons ; and a scaffolding structure provided adjacent to and supporting the jacket such that when the jacket is subjected to a burn and melts, the melted jacket material bonds to the scaffolding structure rather than sloughing off. a jacket having an interior surface that defines a cable jacket internal cross-sectional area; a plurality of optical fibers, wherein the plurality of optical fibers defines a plurality of optical fiber ribbons , wherein the plurality of optical fiber ribbons is arranged in a plurality of ribbon stacks that define a plurality of subunits , and wherein each subunit has a subunit jacket , wherein the plurality of optical fiber subunits are unstranded, wherein less than 60% of the cable jacket internal cross-sectional area is occupied by the cross-sectional area of the plurality of optical fiber ribbons ; and a scaffolding structure provided adjacent to and supporting the jacket such that when the jacket is subjected to a burn and melts, the melted jacket material bonds to the scaffolding structure rather than sloughing off.
A method for cleaning a medical instrument and for detecting residue thereon, said residue consisting of any essentially solid remainings or debris, primarily of organic nature, accumulated or lodged on/in the medical/surgical instrument during its normal use, the method comprising: (a) obtaining a non-sterile or conventionally sterilized medical instrument; (b) loading said instrument into a deposition and/or analysis apparatus; (c) exposing said instrument to pressure below 100 hPa, (d) exposing said instrument to at least one gas reactive to the residue, characterized in that , during at least exposing said medical instrument to pressure below 100 hPa and/or exposing said medical instrument to at least one gas reactive to the residue, the residue is detected and/or quantified by at least one sensor device . (a) obtaining a non-sterile or conventionally sterilized medical instrument; (b) loading said instrument into a deposition and/or analysis apparatus; (c) exposing said instrument to pressure below 100 hPa, (d) exposing said instrument to at least one gas reactive to the residue,
An analgesic active benefit agent for use in a non-surgical method of treating pain, wherein the method comprises enhancing penetration of the active benefit agent comprising the steps of: a. providing a topical composition comprising the active benefit agent; b. applying the topical composition to an area of the skin or scalp in need of treatment from the active benefit agent; c. providing a device having power source and an acoustic transducer electrically connected to the power source, the transducer calibrated to generate acoustic energy at a frequency ranging from about 100 kHz to about 3000 kHz; d. orienting the device such that any ultrasound waves generated by the transducer are projected at an angle e that ranges from 5° to 75°relative to the surface of skin at the area on which the topical composition was applied; and e. delivering the ultrasound to the area on which the topical composition was applied while maintaining the projection angle e that ranges from 5° to 75° relative to the surface of the skin at the area on which the topical composition was applied. a. providing a topical composition comprising the active benefit agent; b. applying the topical composition to an area of the skin or scalp in need of treatment from the active benefit agent; c. providing a device having power source and an acoustic transducer electrically connected to the power source, the transducer calibrated to generate acoustic energy at a frequency ranging from about 100 kHz to about 3000 kHz; d. orienting the device such that any ultrasound waves generated by the transducer are projected at an angle e that ranges from 5° to 75°relative to the surface of skin at the area on which the topical composition was applied; and e. delivering the ultrasound to the area on which the topical composition was applied while maintaining the projection angle e that ranges from 5° to 75° relative to the surface of the skin at the area on which the topical composition was applied.
A method of repairing damaged internal protein of hair by increasing the denaturation temperature of the internal protein, comprising the step of applying a shampoo composition to the hair, wherein the composition comprises a soluble zinc compound selected from zinc sulphate, zinc chloride, zinc gluconate, zinc acetate, zinc citrate and mixtures thereof and a cleansing surfactant selected from anionic surfactant and mixtures thereof.; and wherein the composition has a pH of from 3 to 5, and leaving the composition on the hair for a maximum time period of 20 minutes and rinsing the composition from the hair.
Method for lowering a formwork or protective element when working on buildings, wherein the formwork or protective element is connected via a support to a guiding and holding device fastened to a part of the building, wherein the support comprises a large number of engaging elements arranged spaced apart from one another in the direction of the longitudinal extent of the support , and the guiding and holding device comprises a receiving unit having a holding element , characterised in that the support , from an initial position in which the holding element is in engagement with a first engaging element of the support , is raised substantially in the vertical direction, wherein, during the raising step, the holding element is moved temporarily, by means of a control device , into an inactive position in which the support is lowered beyond its initial position, and the holding element is then moved, by means of the control device , back into an active position, so that, when the support is lowered, a second engaging element of the support engages with the holding element of the receiving unit , wherein the support is raised and lowered by means of a linear drive element , preferably by means of a hydraulic cylinder , wherein the linear drive element comprises a connecting element which, in an active position, is brought into engagement with another of the engaging elements of the support , wherein, before the linear drive element is connected to the other of the engaging elements for the lowering step, pressure is applied via the linear drive element and the control device to the connecting element so that the connecting element is moved from an active to an inactive position in which the connecting element is disengaged from a third engaging element which is located below the other engaging element and above the first and second engaging elements .