mhurhangee/ep-ind-claims huggingface dataset:
A method for predicting a response to treatment with a vascular disrupting agent in a patient, the method comprising: identifying a patient having a level of a biological marker prior to administration with the vascular disrupting agent which is different to the level of the biological marker following administration with the vascular disrupting agent, wherein the biological marker is Serum Amyloid P, and wherein a level of the biological marker prior to administration with the vascular disrupting agent that is different to the level of the biological marker following administration with the vascular disrupting agent is indicative of the patient responding to treatment with the vascular disrupting agent. identifying a patient having a level of a biological marker prior to administration with the vascular disrupting agent which is different to the level of the biological marker following administration with the vascular disrupting agent, wherein the biological marker is Serum Amyloid P, and wherein a level of the biological marker prior to administration with the vascular disrupting agent that is different to the level of the biological marker following administration with the vascular disrupting agent is indicative of the patient responding to treatment with the vascular disrupting agent.
A tubing system for use in a blood sampling-blood pressure monitoring system that includes a control valve, a reservoir with a plunger, a sampling site, and a blood pressure transducer for measuring the blood pressure of a patient, the tubing system comprising: a plurality of flexible tubing sections; and a plurality of rigid tubing sections, wherein the plurality of rigid tubing sections and the flexible tubing sections are interlinked with one another between the patient and the blood pressure transducer for the blood pressure measurement of the patient. a plurality of flexible tubing sections; and a plurality of rigid tubing sections, wherein the plurality of rigid tubing sections and the flexible tubing sections are interlinked with one another between the patient and the blood pressure transducer for the blood pressure measurement of the patient.
A delivery composition comprising: an aqueous carrier; a lipid component suspended in the aqueous carrier, comprising significant amounts of type A lipid, fatty acid, and bilayer-stabilizing steroid(s), wherein type A lipid is one or more of any of phospholipid, ceramide(s), sphingomyelin(s), glucocerebroside(s) or a conjugate of phospholipid, ceramide(s), sphingomyelin(s) or glucocerebroside(s) and flexible soluble polymers, wherein the contribution of the phospholipid, ceramide(s), sphingomyelin(s) or glucocerebroside(s) portion of the conjugate to the lipid component is 10 mole % or less, the lipid component formulated in the aqueous carrier to have: a) a lipid particle component comprising particles of said lipids and having an average diameter of 1 micron or more, said particles being surrounded by a lipid monolayer, and b) a vesicle component comprising vesicles enclosed by a single lipid bilayer, the bilayer comprising said lipids; and a bioactive agent suitable for transmucosal systemic delivery; wherein the delivery composition is packaged with a label with directions for mucosal, pulmonary or oral administration. an aqueous carrier; a lipid component suspended in the aqueous carrier, comprising significant amounts of type A lipid, fatty acid, and bilayer-stabilizing steroid(s), wherein type A lipid is one or more of any of phospholipid, ceramide(s), sphingomyelin(s), glucocerebroside(s) or a conjugate of phospholipid, ceramide(s), sphingomyelin(s) or glucocerebroside(s) and flexible soluble polymers, wherein the contribution of the phospholipid, ceramide(s), sphingomyelin(s) or glucocerebroside(s) portion of the conjugate to the lipid component is 10 mole % or less, the lipid component formulated in the aqueous carrier to have: a) a lipid particle component comprising particles of said lipids and having an average diameter of 1 micron or more, said particles being surrounded by a lipid monolayer, and b) a vesicle component comprising vesicles enclosed by a single lipid bilayer, the bilayer comprising said lipids; and a) a lipid particle component comprising particles of said lipids and having an average diameter of 1 micron or more, said particles being surrounded by a lipid monolayer, and b) a vesicle component comprising vesicles enclosed by a single lipid bilayer, the bilayer comprising said lipids; and
A trans-mucosal component for a dental implant intended to support a prosthetic restoration, said trans-mucosal component being designed for the purpose of improving the quality and stability of the biological adhesion of the junctional epithelium and of the connective tissue, wherein: the trans-mucosal component is provided with a waist-shaped or inwardly narrowed part for reducing the necessary height of the trans-mucosal component and creating a volume for generation of a stabilizing and retentive belt of soft tissue, the distance in the longitudinal direction along the contact surface of the waist-shaped or narrowed part at least corresponds to the required width of the adjoining soft tissue, the component is a separate member, which can be connected to a bone-anchoring part of the dental implant, and comprises a continuous recess for a screw securing the component to the bone anchoring part of the dental implant, the waist-shaped or inwardly narrowed part is located entirely on the outer surface of the trans-mucosal component and between a lower base portion of the trans-mucosal component, via which the component is configured to bear against the dental implant, and an upper narrowed part of the trans-mucosal component, and the waist-shaped or inwardly narrowed part has a mean depth of 0.2 - 1.5mm. the trans-mucosal component is provided with a waist-shaped or inwardly narrowed part for reducing the necessary height of the trans-mucosal component and creating a volume for generation of a stabilizing and retentive belt of soft tissue, the distance in the longitudinal direction along the contact surface of the waist-shaped or narrowed part at least corresponds to the required width of the adjoining soft tissue, the component is a separate member, which can be connected to a bone-anchoring part of the dental implant, and comprises a continuous recess for a screw securing the component to the bone anchoring part of the dental implant, the waist-shaped or inwardly narrowed part is located entirely on the outer surface of the trans-mucosal component and between a lower base portion of the trans-mucosal component, via which the component is configured to bear against the dental implant, and an upper narrowed part of the trans-mucosal component, and the waist-shaped or inwardly narrowed part has a mean depth of 0.2 - 1.5mm.
A method for managing communication in a wireless communication network, the method being performed by a base transceiver station comprising: receiving a first request message from a first communication device to establish a first communication channel with at least one communication device; transmitting, to the first communication device, first information of a first time slot for establishing the first communication channel; establishing the first communication channel with the first communication device using the first time slot; receiving a second request message from a second communication device to establish a second communication channel with at least one communication device; transmitting, to the second communication device, second information of the first time slot and a second time slot simultaneously for establishing the second communication channel; establishing the second communication channel with the second communication device using the first time slot and the second time slot; performing a communication with the second communication device on the second communication channel using the second time slot; monitoring a first value of at least one of a plurality of predefined parameters at the first time slot; relinquishing the second communication channel established using the second time slot, if the first value of the at least one of the plurality of predefined parameters at the first time slot is above a threshold value; and performing a communication with the second communication device on the second communication channel using the first time slot. receiving a first request message from a first communication device to establish a first communication channel with at least one communication device; transmitting, to the first communication device, first information of a first time slot for establishing the first communication channel; establishing the first communication channel with the first communication device using the first time slot; receiving a second request message from a second communication device to establish a second communication channel with at least one communication device; transmitting, to the second communication device, second information of the first time slot and a second time slot simultaneously for establishing the second communication channel; establishing the second communication channel with the second communication device using the first time slot and the second time slot; performing a communication with the second communication device on the second communication channel using the second time slot; monitoring a first value of at least one of a plurality of predefined parameters at the first time slot; relinquishing the second communication channel established using the second time slot, if the first value of the at least one of the plurality of predefined parameters at the first time slot is above a threshold value; and performing a communication with the second communication device on the second communication channel using the first time slot.
A compound of formula I: wherein: R 7 is OR A, where R A is selected from C 1-4 saturated alkyl, optionally substituted by phenyl, which may bear a chloro substituent, pyridyl and furanyl; chloro; NH 2; -CH 2 -O-C(=O)Me; the compound is a dimer with each monomer independently being of formula, where the R 8 groups of each monomer form together a dimer bridge having the formula -X-R"-X-linking the monomers, where R" is a C 3-12 saturated alkylene group, which group may be interrupted by O, S, NH, NMe, phenylene or pyridylene, where the phenylene and pyridylene groups are optionally substituted by NH 2, and each X is independently selected from O, S, or NH; R 9 is selected from H, methyl and methoxy; R S is selected from CF 3, (CF 2) 3 CF 3, CH 3 and and R C is selected: (i) -C(=O)-OR C1, where R C1 is a saturated C 1-4 alkyl group; (ii) -CH 2 -O-C(=O)R C2, where R C2 is methyl or phenyl; (iii) -CH 2 -O-Si-(R Si1)(R Si2)(R Si3), where R Si1, R Si2, R Si3 are independently selected from C 1-6 a saturated alkyl group and a phenyl group; and (iv) -C(-YR C3)(-YR C4) where each Y is independently O or S, and where R C3 and R C4 are independently a saturated C 1-4 alkyl group, or together form a C 2-3 alkylene, which is is substantially free of any of the corresponding compound of formula IB: R 7 is OR A, where R A is selected from C 1-4 saturated alkyl, optionally substituted by phenyl, which may bear a chloro substituent, pyridyl and furanyl; chloro; NH 2; -CH 2 -O-C(=O)Me; the compound is a dimer with each monomer independently being of formula, where the R 8 groups of each monomer form together a dimer bridge having the formula -X-R"-X-linking the monomers, where R" is a C 3-12 saturated alkylene group, which group may be interrupted by O, S, NH, NMe, phenylene or pyridylene, where the phenylene and pyridylene groups are optionally substituted by NH 2, and each X is independently selected from O, S, or NH; R 9 is selected from H, methyl and methoxy; R S is selected from CF 3, (CF 2) 3 CF 3, CH 3 and and R C is selected: (i) -C(=O)-OR C1, where R C1 is a saturated C 1-4 alkyl group; (ii) -CH 2 -O-C(=O)R C2, where R C2 is methyl or phenyl; (iii) -CH 2 -O-Si-(R Si1)(R Si2)(R Si3), where R Si1, R Si2, R Si3 are independently selected from C 1-6 a saturated alkyl group and a phenyl group; and (iv) -C(-YR C3)(-YR C4) where each Y is independently O or S, and where R C3 and R C4 are independently a saturated C 1-4 alkyl group, or together form a C 2-3 alkylene, which is is substantially free of any of the corresponding compound of formula IB: (i) -C(=O)-OR C1, where R C1 is a saturated C 1-4 alkyl group; (ii) -CH 2 -O-C(=O)R C2, where R C2 is methyl or phenyl; (iii) -CH 2 -O-Si-(R Si1)(R Si2)(R Si3), where R Si1, R Si2, R Si3 are independently selected from C 1-6 a saturated alkyl group and a phenyl group; and (iv) -C(-YR C3)(-YR C4) where each Y is independently O or S, and where R C3 and R C4 are independently a saturated C 1-4 alkyl group, or together form a C 2-3 alkylene, which is is substantially free of any of the corresponding compound of formula IB:
A half-duplex radio communication method across a plurality of communication control systems of different carriers comprising the steps of: accepting an application to a radio communication controller of an other carrier together with positional condition from a sender terminal which requests sending of multicast data to each terminal of radio communication terminals of different carriers, picking up user information of each terminal of the radio communication terminals as destinations of the multicast data applied based on the positional condition and line connectability of the terminal; registering the terminals to form a CUG based on the user information; and multicasting data from the sender terminal to each terminal of the CUG. accepting an application to a radio communication controller of an other carrier together with positional condition from a sender terminal which requests sending of multicast data to each terminal of radio communication terminals of different carriers, picking up user information of each terminal of the radio communication terminals as destinations of the multicast data applied based on the positional condition and line connectability of the terminal; registering the terminals to form a CUG based on the user information; and multicasting data from the sender terminal to each terminal of the CUG.
A radio communication mobile station apparatus comprising: an arrangement section configured to arrange a second signal in a tail end of a guard time of a first signal, the second signal being a signal to be transmitted periodically from the radio communication mobile station apparatus to a radio communication base station apparatus in a second transmission field, the first signal being a signal having the guard time set in a transmission time field and to be transmitted periodically from another radio communication mobile station apparatus to the radio communication base station apparatus in a first transmission field that is equal to the second transmission field for the second signal, the guard time being set to prevent the first signal from delaying in reception timing and causing interference with a signal in a next transmission time field; and a transmitting section configured to transmit the second signal arranged in the guard time. an arrangement section configured to arrange a second signal in a tail end of a guard time of a first signal, the second signal being a signal to be transmitted periodically from the radio communication mobile station apparatus to a radio communication base station apparatus in a second transmission field, the first signal being a signal having the guard time set in a transmission time field and to be transmitted periodically from another radio communication mobile station apparatus to the radio communication base station apparatus in a first transmission field that is equal to the second transmission field for the second signal, the guard time being set to prevent the first signal from delaying in reception timing and causing interference with a signal in a next transmission time field; and a transmitting section configured to transmit the second signal arranged in the guard time.
A computer-implemented method for detecting a copy of a reference video, comprising: segmenting respective ones of multiple frames of the reference video into multiple regions; determining the number of image features appearing in each of the multiple regions in respective ones of the multiple frames, wherein determining the number of image features includes determining the number of interest points, each interest point having a location in a region of a frame and an orientation; storing the number of determined interest points for each respective region in a storage device; determining a rank for each of the respective regions based on the number of interest points in corresponding regions across the multiple frames; assigning an ordinal value to the ranked regions along the time-line of the multiple frames; generating a spatio-temporal signature for the reference video in the form of a matrix (lambda), wherein the spatio-temporal signature includes spatial information from the multiple regions and temporal information from ranking each region along a time-line and using the ordinal value along the time-line of the multiple frames; and comparing the spatio-temporal signature for the reference video against a spatio-temporal signature of a query video to determine a likelihood of a match. segmenting respective ones of multiple frames of the reference video into multiple regions; determining the number of image features appearing in each of the multiple regions in respective ones of the multiple frames, wherein determining the number of image features includes determining the number of interest points, each interest point having a location in a region of a frame and an orientation; storing the number of determined interest points for each respective region in a storage device; determining a rank for each of the respective regions based on the number of interest points in corresponding regions across the multiple frames; assigning an ordinal value to the ranked regions along the time-line of the multiple frames; generating a spatio-temporal signature for the reference video in the form of a matrix (lambda), wherein the spatio-temporal signature includes spatial information from the multiple regions and temporal information from ranking each region along a time-line and using the ordinal value along the time-line of the multiple frames; and comparing the spatio-temporal signature for the reference video against a spatio-temporal signature of a query video to determine a likelihood of a match.
A screw compressor, comprising: a casing in which a low-pressure space and a high-pressure space are formed; a screw rotor on which a plurality of helical grooves forming a compression chamber are provided, and which is configured to be inserted in a cylinder part of the casing; and a slide valve provided in the cylinder part to be moveable along an axis of the screw rotor, and facing an outer periphery of the screw rotor to form a discharge port through which the compression chamber communicates with the high-pressure space, wherein when the screw rotor rotates, a fluid in the low-pressure space is sucked in the compression chamber, compressed, and then discharged to the high-pressure space, the slide valve includes a sealing projection that is located on a back surface of the slide valve opposite to the screw rotor and that separates the low-pressure space and the high-pressure space from each other when the sealing projection is in slidable contact with the casing, a portion of the slide valve extending from the discharge port toward the low-pressure space serves as a valve body, the valve body has a first end facing the low-pressure space and a second end facing the discharge port, and the sealing projection extends along the second end of the valve body characterized in that in a portion of the valve body extending from the sealing projection to the first end, the valve body includes a supporting projection that is located on a back surface of the valve body and is configured to be in slidable contact with the casing. a casing in which a low-pressure space and a high-pressure space are formed; a screw rotor on which a plurality of helical grooves forming a compression chamber are provided, and which is configured to be inserted in a cylinder part of the casing; and a slide valve provided in the cylinder part to be moveable along an axis of the screw rotor, and facing an outer periphery of the screw rotor to form a discharge port through which the compression chamber communicates with the high-pressure space, wherein when the screw rotor rotates, a fluid in the low-pressure space is sucked in the compression chamber, compressed, and then discharged to the high-pressure space, the slide valve includes a sealing projection that is located on a back surface of the slide valve opposite to the screw rotor and that separates the low-pressure space and the high-pressure space from each other when the sealing projection is in slidable contact with the casing, a portion of the slide valve extending from the discharge port toward the low-pressure space serves as a valve body, the valve body has a first end facing the low-pressure space and a second end facing the discharge port, and the sealing projection extends along the second end of the valve body characterized in that in a portion of the valve body extending from the sealing projection to the first end, the valve body includes a supporting projection that is located on a back surface of the valve body and is configured to be in slidable contact with the casing.
A damper for damping relative movements between a hinge arm and a hinge housing of a hinge, with a housing, which comprises a working space, with a piston received in the working space and translationally movable in relation to the housing, by which piston the working space is divided into two working chambers (18, 20), with a piston rod connected to the piston and translationally movable together with the piston in relation to the housing, and with a disk formed integrally with the piston rod, to which disk the piston formed separately from the disk is fixed, characterized in that the piston and the disk each comprise at least one passage opening (54, 56) capable of being passed by a damping fluid received in the working chamber, wherein a valve element formed separately from the piston and separately from the disk and retained on the piston is associated with the passage opening of the piston, by means of which valve element the passage opening of the piston can be blocked for the damping fluid in a first direction and can be unblocked for the damping fluid in a second direction opposite to the first direction.