mhurhangee/patent-ind-claim-en huggingface dataset:
An antibody or fragment thereof which binds human Anx-A1, wherein: (i) said antibody or fragment thereof comprises the complementarity-determining regions (CDRs) VLCDR1, VLCDR2, VLCDR3, VHCDR1, VHCDR2 and VHCDR3, wherein each of said CDRs has an amino acid sequence as follows: VLCDR1 has the sequence set forth in SEQ ID NO: 36; VLCDR2 has the sequence set forth in SEQ ID NO: 2; VLCDR3 has the sequence set forth in SEQ ID NO: 3; VHCDR1 has the sequence set forth in SEQ ID NO: 4; VHCDR2 has the sequence set forth in SEQ ID NO: 5; and VHCDR3 has the sequence set forth in SEQ ID NO: 6; and (ii) said antibody comprises a) a light chain variable region comprising the amino acid sequence set forth in SEQ ID NO: 48; and a heavy chain variable region comprising the amino acid sequence set forth in SEQ ID NO: 33; or b) a light chain variable region comprising the amino acid sequence set forth in SEQ ID NO: 50; and a heavy chain variable region comprising the amino acid sequence set forth in SEQ ID NO: 35. (i) said antibody or fragment thereof comprises the complementarity-determining regions (CDRs) VLCDR1, VLCDR2, VLCDR3, VHCDR1, VHCDR2 and VHCDR3, wherein each of said CDRs has an amino acid sequence as follows: VLCDR1 has the sequence set forth in SEQ ID NO: 36; VLCDR2 has the sequence set forth in SEQ ID NO: 2; VLCDR3 has the sequence set forth in SEQ ID NO: 3; VHCDR1 has the sequence set forth in SEQ ID NO: 4; VHCDR2 has the sequence set forth in SEQ ID NO: 5; and VHCDR3 has the sequence set forth in SEQ ID NO: 6; and VLCDR1 has the sequence set forth in SEQ ID NO: 36; VLCDR2 has the sequence set forth in SEQ ID NO: 2; VLCDR3 has the sequence set forth in SEQ ID NO: 3; VHCDR1 has the sequence set forth in SEQ ID NO: 4; VHCDR2 has the sequence set forth in SEQ ID NO: 5; and VHCDR3 has the sequence set forth in SEQ ID NO: 6; and (ii) said antibody comprises a) a light chain variable region comprising the amino acid sequence set forth in SEQ ID NO: 48; and a heavy chain variable region comprising the amino acid sequence set forth in SEQ ID NO: 33; or b) a light chain variable region comprising the amino acid sequence set forth in SEQ ID NO: 50; and a heavy chain variable region comprising the amino acid sequence set forth in SEQ ID NO: 35. a) a light chain variable region comprising the amino acid sequence set forth in SEQ ID NO: 48; and a heavy chain variable region comprising the amino acid sequence set forth in SEQ ID NO: 33; or b) a light chain variable region comprising the amino acid sequence set forth in SEQ ID NO: 50; and a heavy chain variable region comprising the amino acid sequence set forth in SEQ ID NO: 35.
Twin-spool bypass turbojet engine comprising a fan (S) positioned upstream from a gas generator and delimiting a primary flow and a secondary flow, said gas generator having the primary flow pass through it and comprising a low-pressure compressor , a high-pressure compressor , a combustion chamber , a high-pressure turbine and a low-pressure turbine , said low-pressure turbine being connected to said low-pressure compressor by a low-pressure rotating shaft and said high-pressure turbine being connected to said high-pressure compressor by a high-pressure rotating shaft , characterised by the fact that said turbojet engine comprises an electric motor forming a device for applying mechanical power to at least one of said rotating shafts , a device for drawing power from at least one of said rotating shafts, sized so as to extract excess power (w3, w5) relative to the requirement for actuating the auxiliary systems of the turbojet engine (w7), transforming said excess power into electrical energy, and an electricity storage means positioned between said power take-off device and said electric motor, the power being drawn from the low-pressure rotating shaft and power (w1, w2) being applied to the high-pressure rotating shaft .
Piston comprising a first portion suitable for coupling with an actuator member and a second portion made of ceramic material suitable for sliding in a cylinder , the first portion and the second portion being axially connected along a longitudinal axis (L) of the piston , wherein the second portion has an elongated shape along the longitudinal axis (L) of the piston with a proximal interface base to the first portion and a free base distal from the first portion , wherein the free base is closed and overall defines a piston crown, wherein the second portion has a cup shape and comprises a cavity elongated along the longitudinal axis (L) of the piston accessible through an opening on the base of interface , and wherein the first portion comprises a stem elongated along the longitudinal axis (L) of the piston inserted axially into the cavity of the second portion , characterized in that the stem of the first portion comprises a first through hole with an axis transversal to the longitudinal axis (L) of the piston , and in that the second portion comprises a second through hole formed facing the cavity and coaxial with the first through hole , and wherein a pin is inserted axially into the first through hole and in the second through hole . wherein the second portion has a cup shape and comprises a cavity elongated along the longitudinal axis (L) of the piston accessible through an opening on the base of interface , and wherein the first portion comprises a stem elongated along the longitudinal axis (L) of the piston inserted axially into the cavity of the second portion , characterized in that the stem of the first portion comprises a first through hole with an axis transversal to the longitudinal axis (L) of the piston , and in that the second portion comprises a second through hole formed facing the cavity and coaxial with the first through hole , and wherein a pin is inserted axially into the first through hole and in the second through hole .
Line device for a cardiac support system , the line device having the following features: a guide cannula which is structured at least partially along a direction of extension and has structures in a sheath, and an electrical conducting element which is provided separately from the guide cannula and which is arranged in, on or at the structures in the sheath of the guide cannula , the electrical conducting element having a multi-layer structure, characterized in that the electrical conducting element has a sensor contact region for directly mounting and/or contacting at least one sensor . a guide cannula which is structured at least partially along a direction of extension and has structures in a sheath, and an electrical conducting element which is provided separately from the guide cannula and which is arranged in, on or at the structures in the sheath of the guide cannula , the electrical conducting element having a multi-layer structure, characterized in that the electrical conducting element has a sensor contact region for directly mounting and/or contacting at least one sensor .
A method of thermal energy exchange within an industrial gas turbine engine , comprising: heating a liquid within a heat exchanger using thermal energy from compressed air, the compressed air being bleed air from a compression section of the industrial gas turbine engine ; injecting the liquid into a combustion section of the industrial gas turbine engine ; and communicating the compressed air to a turbine section of the industrial gas turbine engine after the heating, thereby using the compressed air to cool the turbine section ; characterized in that the heating a liquid using thermal energy from compressed air occurs within a compression section of the industrial gas turbine engine at a position within the compression section that is located axially between a low-speed compressor and a high-speed compressor. heating a liquid within a heat exchanger using thermal energy from compressed air, the compressed air being bleed air from a compression section of the industrial gas turbine engine ; injecting the liquid into a combustion section of the industrial gas turbine engine ; and communicating the compressed air to a turbine section of the industrial gas turbine engine after the heating, thereby using the compressed air to cool the turbine section ; characterized in that the heating a liquid using thermal energy from compressed air occurs within a compression section of the industrial gas turbine engine at a position within the compression section that is located axially between a low-speed compressor and a high-speed compressor.
Composition for treating keratin fibres, comprising at least an aqueous dispersion of hybrid hydrophobic film-forming acrylic polymer particles, at least one linear block silicone copolymer, at least one amino acid or one amino acid derivative and one or more pigments, in which the hybrid acrylic film-forming polymer(s) are synthesized from at least one compound (i) chosen from monomers bearing at least one (meth)acrylic acid group and/or esters of these acid monomers and/or amides of these acid monomers and from at least one compound (ii) different from the compounds (i), which does not comprise any (meth)acrylic acid groups and/or esters of these acid monomers and/or amides of these acid monomers.
An apparatus for measuring particulate matter, the apparatus comprising: an air inflow device configured to receive air comprising particulate matter particles; two or more light sources configured to respectively emit light of different wavelengths to the air received; a pattern measuring device configured to measure scattering patterns for each wavelength of light based on detecting light that is forward-scattered by the particulate matter particles and light that is back-scattered by the particulate matter particles; a first detector configured to detect the back-scattered light; a second detector configured to detect the forward-scattered light, wherein the first and second detectors are disposed to face each other; and a processor configured to obtain a size of the particulate matter particles and a concentration of the particulate matter particles based on the scattering patterns for each wavelength of light; and characterized in that the two or more light sources are disposed at a center of the first detector and the second detector comprises an outlet through which light transmitted through the air exits. an air inflow device configured to receive air comprising particulate matter particles; two or more light sources configured to respectively emit light of different wavelengths to the air received; a pattern measuring device configured to measure scattering patterns for each wavelength of light based on detecting light that is forward-scattered by the particulate matter particles and light that is back-scattered by the particulate matter particles; a first detector configured to detect the back-scattered light; a second detector configured to detect the forward-scattered light, wherein the first and second detectors are disposed to face each other; and a processor configured to obtain a size of the particulate matter particles and a concentration of the particulate matter particles based on the scattering patterns for each wavelength of light; and characterized in that the two or more light sources are disposed at a center of the first detector and the second detector comprises an outlet through which light transmitted through the air exits.
An air conditioning apparatus comprising: an indoor fan ; an indoor heat exchanger that is configured to generate heated air by exchanging heat between refrigerant and room air either in a normal heating mode or in a hot air mode, wherein a temperature of outgoing air in the hot air mode is higher than the temperature of the outgoing air in the normal heating mode; a condenser ; a setting unit that is configured to set the hot air mode or the normal heating mode as operating modes; and a control unit that is configured to control a rotational speed of the indoor fan based on the setting of the hot air mode or the normal heating mode, characterized in that the air conditioner further comprises a temperature sensor that detects the temperature of the condenser, and wherein in a case where the operating mode is the normal heating mode, the control unit can lower the rotational speed of the indoor fan at a first rate, and in a case where the operating mode has been switched from the hot air heating mode to the normal heating mode, the control unit is configured to lower the rotational speed of the indoor fan at a second rate, which is slower than the first rate, if an output value of the temperature sensor is higher than a preset threshold value. an indoor fan ; an indoor heat exchanger that is configured to generate heated air by exchanging heat between refrigerant and room air either in a normal heating mode or in a hot air mode, wherein a temperature of outgoing air in the hot air mode is higher than the temperature of the outgoing air in the normal heating mode; a condenser ; a setting unit that is configured to set the hot air mode or the normal heating mode as operating modes; and a control unit that is configured to control a rotational speed of the indoor fan based on the setting of the hot air mode or the normal heating mode, characterized in that the air conditioner further comprises a temperature sensor that detects the temperature of the condenser, and wherein in a case where the operating mode is the normal heating mode, the control unit can lower the rotational speed of the indoor fan at a first rate, and in a case where the operating mode has been switched from the hot air heating mode to the normal heating mode, the control unit is configured to lower the rotational speed of the indoor fan at a second rate, which is slower than the first rate, if an output value of the temperature sensor is higher than a preset threshold value.
Compartment for refrigerated goods for a household refrigeration appliance , having a tray container , which has a loading opening for refrigerated goods, and a separate frame , which is arranged in the region of the loading opening on the tray container , wherein viewed in a plane at right angles to a longitudinal axis (A) of the frame the frame is embodied in an L shape, wherein in the assembled state of the frame a first limb of the L shape is arranged on the tray container in the interior of the tray container behind a wall of the tray container bounding the interior , wherein a second limb of the L shape is a roof limb which, in the assembled state of the frame , covers an upper edge of walls of the tray container at least in regions from above, wherein the frame is fastened directly to the tray container with locking connections , characterised in that on an exterior of the first limb facing a front wall of the tray container , the frame has a depression , and the second limb of the L shape on a lower side has a locking element , wherein on an upper edge bounding the loading opening the front wall has a counter locking element which engages into the depression in order to generate a first locking connection and the locking element is locked in a locking receiver in the counter locking element .
A separation duct segment configured to be combined with at least one additional separation duct segment for encompassing an elongate member , the separation duct segment comprising: an elongate body having an outer surface and an inner surface , the outer surface and the inner surface being bridged at ends thereof by associated mating faces ; and a plurality of spacers [208-1...208-8] extending inwardly away from the inner surface , characterised in that each spacer extending longitudinally from a location adjacent a first end of the elongate body in a direction toward a second end of the elongate body , wherein a longitudinal plane [L1-L2, L3-L4] associated with each of the spacers [208-1...208-8] is substantially parallel with a longitudinal plane [L1-L2, L3-L4] associated with the other ones of the spacers [208-1...208-8], the longitudinal plane [Ll-L2, L3-L4] associated with each of the spacers being a plane extending along a length of the spacer [208-1...208-8] and through a top and bottom of the spacer. an elongate body having an outer surface and an inner surface , the outer surface and the inner surface being bridged at ends thereof by associated mating faces ; and a plurality of spacers [208-1...208-8] extending inwardly away from the inner surface , characterised in that each spacer extending longitudinally from a location adjacent a first end of the elongate body in a direction toward a second end of the elongate body , wherein a longitudinal plane [L1-L2, L3-L4] associated with each of the spacers [208-1...208-8] is substantially parallel with a longitudinal plane [L1-L2, L3-L4] associated with the other ones of the spacers [208-1...208-8], the longitudinal plane [Ll-L2, L3-L4] associated with each of the spacers being a plane extending along a length of the spacer [208-1...208-8] and through a top and bottom of the spacer.
A flexible textile composite comprising a meltable, flammable outer textile comprising an inner side and an outer side, a continuous layer of heat reactive material comprising a polymer resin-expandable graphite mixture, wherein the expandable graphite has an expansion of at least 900μm upon heating to 280°C according to the Thermo-Mechanical Analysis (TMA) Expansion Test of the description and an endotherm of at least 100 J/g when measured according to the DSC Endotherm Test of the description, the polymer resin-expandable graphite mixture disposed on the inner side of the outer textile to form the heat reactive material, wherein the flexible textile composite has an afterflame of less than 20 seconds, preferably of less than 10 seconds, when tested according to the Self-Extinguishing Test of the description. a meltable, flammable outer textile comprising an inner side and an outer side, a continuous layer of heat reactive material comprising a polymer resin-expandable graphite mixture, wherein the expandable graphite has an expansion of at least 900μm upon heating to 280°C according to the Thermo-Mechanical Analysis (TMA) Expansion Test of the description and an endotherm of at least 100 J/g when measured according to the DSC Endotherm Test of the description, the polymer resin-expandable graphite mixture disposed on the inner side of the outer textile to form the heat reactive material, wherein the flexible textile composite has an afterflame of less than 20 seconds, preferably of less than 10 seconds, when tested according to the Self-Extinguishing Test of the description.
Composite insulator with a core , in particular of a fibre-reinforced thermoset, and with a protective layer , in particular of an insulating elastomer, surrounding this core , wherein the protective layer comprises in certain portions particles influencing the field of the insulator and wherein the protective layer has a number of sheds to extend the creepage distance, characterized in that a partial number of sheds , i.e., a plurality of sheds but not all sheds , comprise the protective layer with the field-influencing particles , in that the protective layer comprises the field-influencing particles on the underside of this partial number of sheds and in that the upper side of this partial number of sheds is free from field-influencing particles .
Module-based system for material handling in connection with plug and abandonment operations of wells on an offshore installation, wherein the module-based system is adapted to operate independent of main drilling tower or external rigs on the offshore installation by comprising modules , wherein the offshore installation comprises an upper main deck in the form of a main rig and skidding deck and at least one lower deck (240-250) with limited available lifting height, characterized in that the module-based system is adapted and installed at the lower deck of the offshore installation by means of a frame module acting as a foundation for all other modules , said frame module having a telescopic extension to adjust the height of said frame module to the available lifting height, and wherein the module-based system being configured to perform all material handling operations in connection with the plug and abandonment operations by comprising a lift module and integrated material handling modules in the form of transport trolley module , pipe manipulator module , jack module and winch module interchangeable based on the operation to be performed wherein the module-based system is adapted to operate independent of main drilling tower or external rigs on the offshore installation by comprising modules , wherein the offshore installation comprises an upper main deck in the form of a main rig and skidding deck and at least one lower deck (240-250) with limited available lifting height, characterized in that the module-based system is adapted and installed at the lower deck of the offshore installation by means of a frame module acting as a foundation for all other modules , said frame module having a telescopic extension to adjust the height of said frame module to the available lifting height, and wherein the module-based system being configured to perform all material handling operations in connection with the plug and abandonment operations by comprising a lift module and integrated material handling modules in the form of transport trolley module , pipe manipulator module , jack module and winch module interchangeable based on the operation to be performed
A method of processing a peripheral pulse waveform derived from an oscillometric measurement to estimate a corresponding intra-arterial waveform, the method comprising: filtering the peripheral pulse waveform with respective filters to provide a plurality of waveforms; and multiplexing together in a time division manner the plurality of waveforms to provide a combined waveform of continuous waves representing the estimated intra-arterial waveform, whereby each phase of the estimated intra-arterial waveform is provided by a different filter. filtering the peripheral pulse waveform with respective filters to provide a plurality of waveforms; and multiplexing together in a time division manner the plurality of waveforms to provide a combined waveform of continuous waves representing the estimated intra-arterial waveform, whereby each phase of the estimated intra-arterial waveform is provided by a different filter.
A contact determination server device communicable, through a network, with a terminal device including a probe , the probe being configured to be continuously attached to a body surface of a subject while being in contact with the body surface, transmit ultrasonic waves into a body of the subject, and receive reflected waves of ultrasonic waves, the contact determination server device being configured to receive reflected waves transmitted from the terminal device , the contact determination server device comprising a controller configured to determine a contact state of the probe with the body surface and determine whether a urinary bladder is detected or not based on received waves, wherein the controller determines the contact state of the probe with the body surface by comparing at least two received waves acquired through transmission and reception of ultrasonic waves by the probe at different times of the received waves obtained to determine whether the urinary bladder is detected or not. a controller configured to determine a contact state of the probe with the body surface and determine whether a urinary bladder is detected or not based on received waves, wherein the controller determines the contact state of the probe with the body surface by comparing at least two received waves acquired through transmission and reception of ultrasonic waves by the probe at different times of the received waves obtained to determine whether the urinary bladder is detected or not.