mhurhangee/patent-ind-claim-en huggingface dataset:
A metal complex compound comprising a plurality of linear inorganic coordination polymer chains containing a repeating unit represented by the following Chemical Formula 1, wherein the plurality of polymer chains are linked to each other via a neutral ligand coordinately bonded to the central metal M of Chemical Formula 1. in the Chemical Formula 1, M is at least one transition metal element selected from the group consisting of Fe, Ni, Zn and Co, n represents an integer of 30 to 1,000,000, a solid line represents a covalent bond, a dotted line represents a coordinate bond, and * represents a linking moiety.
A capsule for a soluble and non-soluble product, such as coffee and its derivatives, tea and herbal teas and beverages, provided with a tray-like body made of plastic material and a film that closes the tray , a substance that can be detected by a sensor , characterized in that said substance detectable by a sensor is a powder and/or initially a substance in liquid form. embedded in said plastic material of the tray .
Timepiece movement including a resonator formed by the cooperation of a balance with a balance spring (7, 7', 7"), said resonator being pivotally mounted between a bar (2, 2', 2") and another part , characterized in that the timepiece movement further includes a device (19, 19', 19") for preventing adhesion of said balance spring against said bar comprising at least one recess and/or protruding portion, defining surface decreasing means formed on the bar (2', 2") and allowing the contact surface to be limited when the faces of said balance spring and of said bar touch each other.
An apparatus for negative-pressure therapy, the apparatus comprising: a negative-pressure source ; a distribution component configured to be fluidly coupled to the negative-pressure source , wherein the distribution component is a tube; and an agitator configured to be coupled to the distribution component; wherein the agitator is operable to generate vibrations in the distribution component, wherein the agitator comprises: an electrical energy source ; a vibration motor configured to be coupled to the distribution component; and characterised in that the agitator further comprises a pressure switch having an input aperture configured to be fluidly coupled to the negative-pressure source , and configured to electrically couple the vibration motor to the electrical energy source based on a pressure in the input aperture . a negative-pressure source ; a distribution component configured to be fluidly coupled to the negative-pressure source , wherein the distribution component is a tube; and an agitator configured to be coupled to the distribution component; wherein the agitator is operable to generate vibrations in the distribution component, wherein the agitator comprises: an electrical energy source ; a vibration motor configured to be coupled to the distribution component; and characterised in that the agitator further comprises a pressure switch having an input aperture configured to be fluidly coupled to the negative-pressure source , and configured to electrically couple the vibration motor to the electrical energy source based on a pressure in the input aperture .
A building element (1-8, 77-83) of a specified shape (1, 4, 7a-7d, 8, 77-83) having at least one surface (10-28) comprising at least two diagonally opposed projected portions and at least two diagonally opposed recessed portions in relation to the diagonally opposed projected portions, wherein each projected portion has a flat surface facing away from the center of the building element and a circumferential side having in a first consecutive order a first, a second, and a third side, wherein the first side faces one of the diagonally opposed recessed portions and the second side faces the other of the diagonally opposed recessed portions and the third side faces away from the diagonally opposed recessed portions, or in a second consecutive order a first, a second, a third and a fourth side, wherein the first and the third side are opposite each other and the second and fourth side are opposite each other and wherein the first side faces one of the diagonally opposed recessed portions and wherein the second side faces the other of the diagonally opposed recessed portions, and wherein each recessed portion has a flat surface facing away from the center of the building element and wherein the flat surface of each recessed portion is in a plane substantially parallel to the flat surface of each projected portions, characterized in that at least the first and second side of the projected portions are adapted to engage and interlock by snap fit and/or by interlock friction with a substantially identical first and second side of a corresponding building element.
A clasp for an implantable prosthetic device comprising: a fixed arm ; a moveable arm having a barbed portion ; and a hinge portion hingeably connecting the fixed arm to the moveable arm , the hinge portion comprising a plurality of spring segments (1222; 1400; 1500; 1600), wherein each spring segment is connected to a plurality of spring segments (1222; 1400; 1500; 1600). a fixed arm ; a moveable arm having a barbed portion ; and a hinge portion hingeably connecting the fixed arm to the moveable arm , the hinge portion comprising a plurality of spring segments (1222; 1400; 1500; 1600), wherein each spring segment is connected to a plurality of spring segments (1222; 1400; 1500; 1600).
A process for producing acetic acid, comprising the steps of: reacting carbon monoxide with at feast one reactant in an eductor-based reactor containing a reaction medium to produce a reaction solution comprising acetic acid, wherein the at least one reactant is selected from the group consisting of methanol, methyl acetate, methyl formate, dimethyl ether and mixtures thereof, and wherein the reaction medium comprises water, acetic acid, methyl acetate, methyl iodide, and a catalyst; wherein the eductor-based reactor comprises eductor mixers extending into the reaction medium and positioned below the liquid level; withdrawing the reaction solution at a first flow rate from the eductor-based reactor; separating a portion of the reaction solution to form a pump around stream; optionally passing a portion of the pump around stream through one or more steam generators to produce an exiting process stream and steam; optionally passing a portion of the pump around stream through one or more heat exchangers to produce an outflow; and feeding a portion of one or more of the following: the pump around stream, the exiting process stream, or the outflow to at least one of the eductor mixers to provide mixing of the reaction medium in the eductor-based reactor. reacting carbon monoxide with at feast one reactant in an eductor-based reactor containing a reaction medium to produce a reaction solution comprising acetic acid, wherein the at least one reactant is selected from the group consisting of methanol, methyl acetate, methyl formate, dimethyl ether and mixtures thereof, and wherein the reaction medium comprises water, acetic acid, methyl acetate, methyl iodide, and a catalyst; wherein the eductor-based reactor comprises eductor mixers extending into the reaction medium and positioned below the liquid level; withdrawing the reaction solution at a first flow rate from the eductor-based reactor; separating a portion of the reaction solution to form a pump around stream; optionally passing a portion of the pump around stream through one or more steam generators to produce an exiting process stream and steam; optionally passing a portion of the pump around stream through one or more heat exchangers to produce an outflow; and feeding a portion of one or more of the following: the pump around stream, the exiting process stream, or the outflow to at least one of the eductor mixers to provide mixing of the reaction medium in the eductor-based reactor.
A locking device comprising an outer sleeve and at least one locking unit located in the outer sleeve , wherein the locking unit is formed by connecting a plurality of pressing blocks , with a gap between two adjacent ones of the pressing blocks , a rod locking hole is provided in the gap , and a fastening hole is provided on the outer sleeve at a position corresponding to the locking unit ; and when a fastener is inserted into the fastening hole to directly or indirectly press the locking unit , the locking unit deforms and drives the pressing blocks to tightly press rods mounted in the respective rod locking holes at the same time, characterized in that the locking unit is in the shape of a fan, the pressing blocks are distributed in the circumferential direction of the outer sleeve and roots of the pressing blocks are securely connected to each other, a sharp groove is provided on the pressing block in the middle, the tip of the sharp groove points to the center of the fan, and an inner wall of the outer sleeve is provided with a wedge block to be inserted into the sharp groove; a trapezoidal ejector block is also provided in the outer sleeve , and the trapezoidal ejector block is located between two pressing blocks on the outermost side of the locking unit ; and the fastening hole is directly opposite to the trapezoidal ejector block .
Packaging, in particular suitable for containing foodstuffs, comprising a container made of plastics material provided with a base and a continuous peripheral wall , the upper edge of the peripheral wall opposite the base delimiting an opening and being provided with a peripheral rim extending radially outward, and an outer covering cut from a planar blank made of recyclable cardboard material and arranged in contact with the outer face of the peripheral wall , means being provided for detachably connecting the covering to the container , said connecting means consisting of a peripheral groove delimiting a housing space which fits an upper edge of the covering of which the shape is adapted to the shape of the groove , characterized in that said peripheral groove runs along the outer face of the peripheral wall of the container , opens toward the base of the container and is delimited by two parallel walls each formed by an upper strip of the peripheral wall of the container adjoining the upper edge and by an outer wall of the peripheral rim facing said strip .
A bispecific antibody comprising a first antigen-binding and a second antigen-binding site, wherein the first antigen-binding site is an immunoglobulin molecule and the second antigen binding site is an scFv, scFab, Fab or Fv,: and wherein the first antigen-binding site includes a VL domain of sequence and a VH domain of sequence and wherein the second antigen-binding site includes either a VH domain of sequence and a VL domain of sequence or a VH domain of sequence and a VL domain of sequence and wherein the first antigen-binding site includes a VL domain of sequence and a VH domain of sequence and wherein the second antigen-binding site includes either a VH domain of sequence and a VL domain of sequence or a VH domain of sequence and a VL domain of sequence
Nalmefene for use in a method for treating a patient diagnosed with post-traumatic stress disorder (PTSD), said method comprising: a) administering a starting dose of 100 mg per day to a patient diagnosed with or having symptoms of PTSD; and b) increasing the dose by 100 mg per day, every 2-5 days, up to a maximum of 1000 mg, per day. a) administering a starting dose of 100 mg per day to a patient diagnosed with or having symptoms of PTSD; and b) increasing the dose by 100 mg per day, every 2-5 days, up to a maximum of 1000 mg, per day.
A delayed release pharmaceutical formulation for delivering an active agent to the intestine, comprising carrier particles and at least one active agent associated with the carrier particles, wherein the carrier particles are porous particles and are surrounded by a material for colon targeting, wherein the carrier particles comprise functionalized calcium carbonate, wherein the carrier particles are associated with at least 15 % by weight of the at least one active agent based on the total weight of the carrier particles including the weight of the at least one active agent.
A bed device comprising: a surface configured to support a user; an input unit configured to receive an instruction as input from an operator to cause a bed operation from the list of back rise, leg rise or knee rise movement of the bed device; a detector configured to detect a position of the user on the surface; a memory configured to store a limitation content in association with a first area (R12, R14) that is located above the surface, and in association with the instruction; and a controller configured to control a movement of the surface based on the instruction and the limitation content stored in the memory, wherein when the instruction is input from an operator and the position of the user on the surface is detected in the first area (R12, R14), the controller being configured to decide whether or not to suspend the bed operation based on the limitation content stored in association with the first area (R12, R14) and the instruction. a surface configured to support a user; an input unit configured to receive an instruction as input from an operator to cause a bed operation from the list of back rise, leg rise or knee rise movement of the bed device; a detector configured to detect a position of the user on the surface; a memory configured to store a limitation content in association with a first area (R12, R14) that is located above the surface, and in association with the instruction; and a controller configured to control a movement of the surface based on the instruction and the limitation content stored in the memory, wherein when the instruction is input from an operator and the position of the user on the surface is detected in the first area (R12, R14), the controller being configured to decide whether or not to suspend the bed operation based on the limitation content stored in association with the first area (R12, R14) and the instruction.
An electronic device comprising: a substrate ; a gate electrode on the substrate ; a ferroelectric layer between the substrate and the gate electrode , wherein the ferroelectric layer is crystallized; and a carbon layer between the substrate and the ferroelectric layer , the carbon layer having an sp 2 bonding structure and includes nanocrystalline graphene including nano-sized crystals, wherein the nano-sized crystals in the nanocrystalline graphene have a size of 0.5 nm to 100 nm and the nanocrystalline graphene contains 1 atomic percent (at%) to 20 at% of hydrogen and has a ratio of carbon having an sp 2 bonding structure to total carbon of 50 % to 99 %. a substrate ; a gate electrode on the substrate ; a ferroelectric layer between the substrate and the gate electrode , wherein the ferroelectric layer is crystallized; and a carbon layer between the substrate and the ferroelectric layer , the carbon layer having an sp 2 bonding structure and includes nanocrystalline graphene including nano-sized crystals, wherein the nano-sized crystals in the nanocrystalline graphene have a size of 0.5 nm to 100 nm and the nanocrystalline graphene contains 1 atomic percent (at%) to 20 at% of hydrogen and has a ratio of carbon having an sp 2 bonding structure to total carbon of 50 % to 99 %.
A curable mixture comprising: (a) a first curable composition comprising a (meth)acrylate copolymer having at least two pendant (meth)acryloyl groups, the (meth)acrylate copolymer having a weight average molecular weight in a range of 35,000 to 300,000 Daltons, determined by gel permeation chromatography as described in the examples in the description; and a free radical photoinitiator that is sensitive to actinic radiation of a first wavelength; and (b) a second curable composition comprising an epoxy resin; a polyether polyol; and a photo-acid generator that is sensitive to actinic radiation of a second wavelength and that is not sensitive to actinic radiation of the first wavelength. (a) a first curable composition comprising a (meth)acrylate copolymer having at least two pendant (meth)acryloyl groups, the (meth)acrylate copolymer having a weight average molecular weight in a range of 35,000 to 300,000 Daltons, determined by gel permeation chromatography as described in the examples in the description; and a free radical photoinitiator that is sensitive to actinic radiation of a first wavelength; and a (meth)acrylate copolymer having at least two pendant (meth)acryloyl groups, the (meth)acrylate copolymer having a weight average molecular weight in a range of 35,000 to 300,000 Daltons, determined by gel permeation chromatography as described in the examples in the description; and a free radical photoinitiator that is sensitive to actinic radiation of a first wavelength; and (b) a second curable composition comprising an epoxy resin; a polyether polyol; and a photo-acid generator that is sensitive to actinic radiation of a second wavelength and that is not sensitive to actinic radiation of the first wavelength. an epoxy resin; a polyether polyol; and a photo-acid generator that is sensitive to actinic radiation of a second wavelength and that is not sensitive to actinic radiation of the first wavelength.
Centrifuge , in particular laboratory centrifuge, comprising a swing-out rotor (12; 50) which is driven by drive means, has an axis of rotation (D) and has one or more suspended elements (30; 52), preferably buckets , which have a suspended element longitudinal axis (L), and a rotor hub for coupling to the drive means, wherein the suspended element (30; 52) is mounted so as to swing out between two rotor arms of a rotor base body, wherein a swung-out state is present in which the suspended element longitudinal axis (L) extends perpendicularly to the axis of rotation (D) of the swing-out rotor , wherein the rotor arms comprise recesses into which the suspended element and/or sample containers accommodated therein dip at least in sections in the swung-out state, characterised in that the recesses cover a region of the rotor arms which corresponds, with respect to the radius of the swing-out rotor , to half the distance between the axis of rotation (D) of the swing-out rotor and the support of the suspended element (30; 52).
A rectifying circuit comprising: between a first terminal of application of an A.C. voltage (Vac) and a first terminal of delivery of a rectified voltage (Vout), a first diode (D3, D4); between a second terminal of application of the A.C. voltage and a second terminal of delivery of the rectified voltage, a first anode-gate thyristor (T2, T1; T), the anode of the first thyristor being connected to the second rectified voltage delivery terminal ; and at least one stage (29; 25, 26) for controlling the first thyristor, comprising: another diode (D29; D25, D26) connected by its anode to the first thyristor gate and by its cathode to the second terminal for delivering the rectified voltage (Vout); and a capacitive element (C29; C25, C26) in series with a resistive element (R29; R25, R26) adapted to connect the first thyristor gate to a control pulse generation circuit . between a first terminal of application of an A.C. voltage (Vac) and a first terminal of delivery of a rectified voltage (Vout), a first diode (D3, D4); between a second terminal of application of the A.C. voltage and a second terminal of delivery of the rectified voltage, a first anode-gate thyristor (T2, T1; T), the anode of the first thyristor being connected to the second rectified voltage delivery terminal ; and at least one stage (29; 25, 26) for controlling the first thyristor, comprising: another diode (D29; D25, D26) connected by its anode to the first thyristor gate and by its cathode to the second terminal for delivering the rectified voltage (Vout); and a capacitive element (C29; C25, C26) in series with a resistive element (R29; R25, R26) adapted to connect the first thyristor gate to a control pulse generation circuit . another diode (D29; D25, D26) connected by its anode to the first thyristor gate and by its cathode to the second terminal for delivering the rectified voltage (Vout); and a capacitive element (C29; C25, C26) in series with a resistive element (R29; R25, R26) adapted to connect the first thyristor gate to a control pulse generation circuit .
A method for producing exosomes for elongating telomeres of cells, the method comprising steps of: a) providing direct ultrasound stimulation to cells at 0.1 to 3 W/cm 2 and a frequency of 20 kHz to 20 MHz for a duration of 0.1 seconds to 20 minutes; b) culturing a mixture of the cells provided in step a) and a medium for a predetermined time; and c) isolating exosomes from the mixture, where in step a) the providing direct ultrasound stimulation to cells is applying the ultrasound stimulation to a medium containing the cells; wherein an expression level of one or more of TERT, TERF2, DKC1, TERF2IP, RFC1, RAD50, TERF1, PINX1, TNKS1BP1, ACD, NBN, HSPA1L, PARP1, PTGES3, SMG6, BLM, XRCC5, XRCC6, ERCC4, PRKDC, TEP1 and β-catenin genes in the isolated exosomes is higher than that in the exosomes secreted from the cells before being subjected to the method. a) providing direct ultrasound stimulation to cells at 0.1 to 3 W/cm 2 and a frequency of 20 kHz to 20 MHz for a duration of 0.1 seconds to 20 minutes; b) culturing a mixture of the cells provided in step a) and a medium for a predetermined time; and c) isolating exosomes from the mixture, where in step a) the providing direct ultrasound stimulation to cells is applying the ultrasound stimulation to a medium containing the cells; wherein an expression level of one or more of TERT, TERF2, DKC1, TERF2IP, RFC1, RAD50, TERF1, PINX1, TNKS1BP1, ACD, NBN, HSPA1L, PARP1, PTGES3, SMG6, BLM, XRCC5, XRCC6, ERCC4, PRKDC, TEP1 and β-catenin genes in the isolated exosomes is higher than that in the exosomes secreted from the cells before being subjected to the method.