mhurhangee/patent-ind-claim-en huggingface dataset:
A lifting floor for use in a body of water , the lifting floor comprising: (a) a plurality of adjacent float modules , each float module comprising a plurality of flexible joints disposed on respective corners of the float module, each flexible joint attached to a link retainer formed into the corner of each module and held in place with metal rods , each float module flexibly attached to an adjacent float module by means of the flexible joints, each float module comprising a hull comprising a plurality of downwardly extending side walls , a top wall connected to the plurality of downwardly extending side walls, a bottom connected to the plurality of downwardly extending side walls and a buoyancy compartment disposed within the hull; (b) each float module further comprising at least one container disposed within the float module , the container configured to retain a buoyancy fluid having a density less than that of water; and (c) a discharger apparatus comprising a controller capable of being programmed to discharge buoyancy fluid to the buoyancy compartments in different modules at different time intervals so as to fill the buoyancy compartments of some or all of the float modules with buoyancy fluid, thereby causing the plurality of float modules to float to a position at or near the surface of the body of water. (a) a plurality of adjacent float modules , each float module comprising a plurality of flexible joints disposed on respective corners of the float module, each flexible joint attached to a link retainer formed into the corner of each module and held in place with metal rods , each float module flexibly attached to an adjacent float module by means of the flexible joints, each float module comprising a hull comprising a plurality of downwardly extending side walls , a top wall connected to the plurality of downwardly extending side walls, a bottom connected to the plurality of downwardly extending side walls and a buoyancy compartment disposed within the hull; (b) each float module further comprising at least one container disposed within the float module , the container configured to retain a buoyancy fluid having a density less than that of water; and (c) a discharger apparatus comprising a controller capable of being programmed to discharge buoyancy fluid to the buoyancy compartments in different modules at different time intervals so as to fill the buoyancy compartments of some or all of the float modules with buoyancy fluid, thereby causing the plurality of float modules to float to a position at or near the surface of the body of water.
A pulse generator , comprising: a latch responsive to a clock input , wherein the clock input is coupled to an input of an inverter and an output of the inverter is coupled to a data input of the latch; and a logic circuit directly connected to the clock input and to an output of the latch, the logic circuit to provide a pulse output including at least one pulse having a pulse width that varies in response to a data propagation time of the latch, wherein the pulse width is associated with a delay time that includes the inverter delay time and the data propagation time of the latch, wherein the logic circuit includes circuitry that performs a logical AND function with respect to an output of the latch as a first input to the AND and the clock input as a second input to the AND, wherein the circuitry includes multiple transistors and an output inverter , wherein the output inverter provides the pulse output, and wherein the logic circuit further includes an enable input to selectively enable generation of the pulse output. a latch responsive to a clock input , wherein the clock input is coupled to an input of an inverter and an output of the inverter is coupled to a data input of the latch; and a logic circuit directly connected to the clock input and to an output of the latch, the logic circuit to provide a pulse output including at least one pulse having a pulse width that varies in response to a data propagation time of the latch, wherein the pulse width is associated with a delay time that includes the inverter delay time and the data propagation time of the latch, wherein the logic circuit includes circuitry that performs a logical AND function with respect to an output of the latch as a first input to the AND and the clock input as a second input to the AND, wherein the circuitry includes multiple transistors and an output inverter , wherein the output inverter provides the pulse output, and wherein the logic circuit further includes an enable input to selectively enable generation of the pulse output.
A head cover comprising: a surgical cap portion , wherein the surgical cap portion comprises a top surface and a side panel secured to the top surface via a seam ; and a bouffant cap portion , wherein the bouffant cap portion is secured to a rear portion of the side panel , further wherein the bouffant cap portion is maintained against the rear portion of the side panel in an undeployed state and is deployable from the rear portion of the side panel to contain a wearer's hair, characterized in that the bouffant cap portion of the head cover is not visible until it is deployed. a surgical cap portion , wherein the surgical cap portion comprises a top surface and a side panel secured to the top surface via a seam ; and a bouffant cap portion , wherein the bouffant cap portion is secured to a rear portion of the side panel , further wherein the bouffant cap portion is maintained against the rear portion of the side panel in an undeployed state and is deployable from the rear portion of the side panel to contain a wearer's hair, characterized in that the bouffant cap portion of the head cover is not visible until it is deployed.
A degradable branched-block copolymer comprising a polyether central core having n arms and polymer chains extending from each arm of the polyether central core, the polyether central core being a star core or a linear core, each polymer chain being constituted by I monomer unit(s) of a degradable polymer, characterized in that each degradable polymer chain is identical and functionalized at its extremity by a photoreactive group chosen among an aryl-azide derivative, a (meth)acrylate group or a thiol group, said degradable branched-block copolymer being illustrated by the following schema: wherein is the monomer unit of the degradable polymer constituting the polymer chain, G is the photoreactive group, and wherein is the star polyether central core, and is the monomer unit corresponding to the polyether core, and n is an integer of at least 4, m is comprised between 4 and 400 and I is comprised between 4 and 1500, or wherein is the monomer unit which forms the linear polyether central core, and R is a multivalent branched functional group comprising a number n/2 of terminal functions or atoms selected among oxygen atom or NH group, each of this terminal function being linked to one polymer chain and n is an integer of at least 4, advantageously between 4 and 32, m is comprised between 4 and 600 units and I is comprised between 2 and 400. R is a multivalent branched functional group comprising a number n/2 of terminal functions or atoms selected among oxygen atom or NH group, each of this terminal function being linked to one polymer chain and n is an integer of at least 4, advantageously between 4 and 32, m is comprised between 4 and 600 units and I is comprised between 2 and 400.
A method for wireless communications, performed by a user equipment, UE comprising: detecting a failure that occurs during a mobile originated call, wherein the mobile originated call is a mobile originated voice call; determining how to attempt retrying the mobile originated call based, at least in part, on a type of the detected failure and whether or not the mobile originated call is restricted to a particular radio access technology, RAT, wherein the type of the detected failure is a hard failure if a count of failures is greater than a maximum number of failures retry attempts and the time since call origination is greater or equal than a maximum time since call origination, and wherein, if the type of the detected failure is a hard failure, and if the mobile originated call is not restricted, the determining how to attempt retrying the mobile originated call comprises first attempting acquisition on inter-frequency neighbors and attempting acquisition on circuit-switched, CS RAT if there is an acquisition failure on all of the inter-frequency neighbors; and attempting to retry the mobile originated call. detecting a failure that occurs during a mobile originated call, wherein the mobile originated call is a mobile originated voice call; determining how to attempt retrying the mobile originated call based, at least in part, on a type of the detected failure and whether or not the mobile originated call is restricted to a particular radio access technology, RAT, wherein the type of the detected failure is a hard failure if a count of failures is greater than a maximum number of failures retry attempts and the time since call origination is greater or equal than a maximum time since call origination, and wherein, if the type of the detected failure is a hard failure, and if the mobile originated call is not restricted, the determining how to attempt retrying the mobile originated call comprises first attempting acquisition on inter-frequency neighbors and attempting acquisition on circuit-switched, CS RAT if there is an acquisition failure on all of the inter-frequency neighbors; and attempting to retry the mobile originated call.
A system comprising: an irreversible electroporation pulse generator (IPG) ; a focal catheter , comprising: an insertion tube, which is configured to insert the catheter into a patient body; first and second electrodes , which are coupled to a distal-end of the catheter at a predefined distance from one another, and are configured to: (i) receive, via the insertion tube, one or more irreversible electroporation (IRE) 2. pulses produced by the IPG, and (ii) apply the IRE pulses, between the first and second electrodes , to tissue of the patient body; a contact-force sensor , which is disposed between the first and second electrodes and is configured to produce an electrical signal indicative of a contact force applied between the distal-end of the catheter and the tissue; and the system further comprising a processor , which is configured, based on the electrical signal received from the contact-force sensor , to control the IPG to supply the one or more IRE pulses to the first and second electrodes . an insertion tube, which is configured to insert the catheter into a patient body; first and second electrodes , which are coupled to a distal-end of the catheter at a predefined distance from one another, and are configured to: (i) receive, via the insertion tube, one or more irreversible electroporation (IRE) 2. pulses produced by the IPG, and (ii) apply the IRE pulses, between the first and second electrodes , to tissue of the patient body; a contact-force sensor , which is disposed between the first and second electrodes and is configured to produce an electrical signal indicative of a contact force applied between the distal-end of the catheter and the tissue; and the system further comprising a processor , which is configured, based on the electrical signal received from the contact-force sensor , to control the IPG to supply the one or more IRE pulses to the first and second electrodes .
A method of increasing complement-dependent cytotoxicity (CDC) ex-vivo, without altering target independent fluid phase complement activation of a parent antibody comprising an Fc domain of an immunoglobulin and a binding region, which method comprises introducing a mutation to the parent antibody in an amino acid residue corresponding to E430G or E430S in the Fc region of a human IgG1 heavy chain, evaluating the CDC-response induced by the variant antibody when bound to the surface of an antigen-expressing cell in the presence of effector cells or complement as compared to the parent antibody; evaluating the target independent fluid phase complement activity of the variant antibody compared to the parent antibody by incubating the antibody in normal human serum and determining C4d generation compared to the parent antibody; and selecting a variant antibody having an increased CDC response and unaltered target independent phase complement activation.
A method of wireless communication, comprising: receiving , at a first bandwidth and during a transmission time interval, TTI, a first control channel message, wherein the first control channel message comprises a first control channel message format; determining , based on a flag in the first control channel message, whether a second control channel message is present in the TTI, wherein the second control channel message comprises a second control channel message format different from the first control channel message format; receiving , at a second bandwidth, the second control channel message where the flag indicates that the second control channel message is present for the TTI; the method further comprising: receiving a first plurality of control channel messages based at least in part on the first control channel message format and a first transmission periodicity; and receiving a second plurality of control channel messages based at least in part on the second control channel message format and a second transmission periodicity, Z wherein the second transmission periodicity is less frequent than the first transmission periodicity. receiving , at a first bandwidth and during a transmission time interval, TTI, a first control channel message, wherein the first control channel message comprises a first control channel message format; determining , based on a flag in the first control channel message, whether a second control channel message is present in the TTI, wherein the second control channel message comprises a second control channel message format different from the first control channel message format; receiving , at a second bandwidth, the second control channel message where the flag indicates that the second control channel message is present for the TTI; the method further comprising: receiving a first plurality of control channel messages based at least in part on the first control channel message format and a first transmission periodicity; and receiving a second plurality of control channel messages based at least in part on the second control channel message format and a second transmission periodicity, Z wherein the second transmission periodicity is less frequent than the first transmission periodicity. receiving a first plurality of control channel messages based at least in part on the first control channel message format and a first transmission periodicity; and receiving a second plurality of control channel messages based at least in part on the second control channel message format and a second transmission periodicity, Z wherein the second transmission periodicity is less frequent than the first transmission periodicity.
A compound of formula (I): or a pharmaceutically acceptable salt thereof, wherein R 1 is (C 3 -C 6 )alkyl or (C 3 -C 6 )cycloalkyl; R 2 is methyl; R 3 is selected from (C 6 -C 10 )branched alkyl, (C 6 -C 10 )branched alkenyl, (C 5 -C 8 )cycloalkenyl, (C 5 -C 8 )cycloalkyl, or Het; wherein the (C 5 -C 8 )cycloalkenyl or (C 5 -C 8 )cycloalkyl is unsubstituted or is substituted by one, two, three or four substituents R 4 ; and wherein Het is substituted by one, two, three or four substituents R 4 ; each R 4 is independently selected from halo, (C 1 -C 4 )alkyl, halo(C 1 -C 4 )alkyl, (C 1 -C 4 )alkoxy, or halo(C 1 -C 4 )alkoxy; or two R 4 groups, when attached to the same carbon atom, may be taken together with the carbon atom to which they are attached to form a cyclopentyl, tetrahydrofuran or dioxolane ring; wherein Het is a 5 or 6 membered fully saturated or partially saturated heterocyclic ring comprising a) 1 oxygen atom in the 2- or 3- position, or b) 2 oxygen atoms in the 2- and 5-, or 2- and 6- positions, wherein the numbering is relative to the point of attachment; and (C 5 -C 8 )cycloalkyl may be a monocyclic ring or a bridged ring system containing 5, 6, 7 or 8 carbon atoms. R 1 is (C 3 -C 6 )alkyl or (C 3 -C 6 )cycloalkyl; R 2 is methyl; R 3 is selected from (C 6 -C 10 )branched alkyl, (C 6 -C 10 )branched alkenyl, (C 5 -C 8 )cycloalkenyl, (C 5 -C 8 )cycloalkyl, or Het; wherein the (C 5 -C 8 )cycloalkenyl or (C 5 -C 8 )cycloalkyl is unsubstituted or is substituted by one, two, three or four substituents R 4 ; and wherein Het is substituted by one, two, three or four substituents R 4 ; each R 4 is independently selected from halo, (C 1 -C 4 )alkyl, halo(C 1 -C 4 )alkyl, (C 1 -C 4 )alkoxy, or halo(C 1 -C 4 )alkoxy; or two R 4 groups, when attached to the same carbon atom, may be taken together with the carbon atom to which they are attached to form a cyclopentyl, tetrahydrofuran or dioxolane ring; wherein Het is a 5 or 6 membered fully saturated or partially saturated heterocyclic ring comprising a) 1 oxygen atom in the 2- or 3- position, or b) 2 oxygen atoms in the 2- and 5-, or 2- and 6- positions, wherein the numbering is relative to the point of attachment; and (C 5 -C 8 )cycloalkyl may be a monocyclic ring or a bridged ring system containing 5, 6, 7 or 8 carbon atoms.
The present composition for extinguishant mainly comprises of composite A and compound B, wherein said Composite A further comprises Compound C and Compound B is water or deionised water; wherein further, said Compound C is in turn synthetic hydrated calcium silicate of density 60 to 450 kg/m 3 ; which includes range of Tobermorite, Xenotlite and Wollastonite; said Compound C contains negligible amounts of Fe 2 O 3 , MgO and Al 2 O 3 ; wherein said Composite A has a particle size ranging from greater than zero μm to 72 μm and Compound B is at room temperature; wet composition of present composition for extinguishant comprises of 2% to 18% W/V of Composite A in Compound B, and dry composition for extinguishant comprises of Composite A: compound B = 82-98%:18-2%. wherein further, said Compound C is in turn synthetic hydrated calcium silicate of density 60 to 450 kg/m 3 ; which includes range of Tobermorite, Xenotlite and Wollastonite; said Compound C contains negligible amounts of Fe 2 O 3 , MgO and Al 2 O 3 ; wherein said Composite A has a particle size ranging from greater than zero μm to 72 μm and Compound B is at room temperature; wet composition of present composition for extinguishant comprises of 2% to 18% W/V of Composite A in Compound B, and dry composition for extinguishant comprises of Composite A: compound B = 82-98%:18-2%.
A method of operating and cleaning a compressor, the method comprising: a. passing a first fluid through the compressor, said first fluid comprising gas, and said compressor operating to compress the first fluid passed therethrough; b. modifying the first fluid to produce a second fluid comprising gas and liquid, said gas and liquid being from at least one well, wherein said modification comprises cooling said gas of the first fluid upstream of the compressor to condensate liquid, the liquid contained in the second fluid including said condensate liquid; and c. passing the second fluid through the compressor, wherein said second fluid is passed through the compressor for a limited time period to clean a surface inside the compressor, said compressor operating to compress the second fluid passed therethrough. a. passing a first fluid through the compressor, said first fluid comprising gas, and said compressor operating to compress the first fluid passed therethrough; b. modifying the first fluid to produce a second fluid comprising gas and liquid, said gas and liquid being from at least one well, wherein said modification comprises cooling said gas of the first fluid upstream of the compressor to condensate liquid, the liquid contained in the second fluid including said condensate liquid; and c. passing the second fluid through the compressor, wherein said second fluid is passed through the compressor for a limited time period to clean a surface inside the compressor, said compressor operating to compress the second fluid passed therethrough.
A method for facilitating discovery of a first peer communication device , the method being performed by the first peer communication device , the method comprising: receiving in the first peer communication device a communication from a second peer communication device via a server device , wherein both the first peer communication device and the second peer communication device had established a secure connection with the server device , the communication including both an identification of an event identifying a system software for receiving network communications and an identification of an application loaded onto the first peer communication device ; in response to receiving the communication, the first peer communication device generating or being assigned a dynamic address and associating said dynamic address with the identified application ; sending a second communication directly or indirectly to the second peer communication device , the second communication including the dynamic address; receiving a further communication including a file at the dynamic address using the identified system software ; checking which application that the file is to be associated with, based on the file being received at said dynamic address; sending a confirmation to the second peer communication device ; and automatically performing, after the identified system software has successfully received the file at the dynamic address, an application function on the file using the identified application . receiving in the first peer communication device a communication from a second peer communication device via a server device , wherein both the first peer communication device and the second peer communication device had established a secure connection with the server device , the communication including both an identification of an event identifying a system software for receiving network communications and an identification of an application loaded onto the first peer communication device ; in response to receiving the communication, the first peer communication device generating or being assigned a dynamic address and associating said dynamic address with the identified application ; sending a second communication directly or indirectly to the second peer communication device , the second communication including the dynamic address; receiving a further communication including a file at the dynamic address using the identified system software ; checking which application that the file is to be associated with, based on the file being received at said dynamic address; sending a confirmation to the second peer communication device ; and automatically performing, after the identified system software has successfully received the file at the dynamic address, an application function on the file using the identified application .
A thermal flow sensor comprising at least two elements suspended with respect to a support, said at least two suspended elements being formed by n first suspended elements (2, 2.1, 202.1) with respect to a support, n being a positive integer higher than or equal to 2, , each first suspended element (2, 2.1, 202.1) being of an electrically conductive material, first means (6, 6.1) for biasing each first suspended element (2, 2.1, 202.1) and first means (8, 8.1) for measuring the variation amplitude of the electric voltage at the terminals of each first suspended element (2, 2.1, 202.1), each first suspended element (2, 2.1, 202.1) being formed by at least one nanowire and said first biasing means (6, 6.1) being formed by an alternating current source the intensity of which provides heating of each first suspended element (2, 2.1, 202.1) by Joule effect.