mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: providing a lyophilization chamber comprising a heat sink surface in thermal communication with a refrigerant; loading an array of containers comprising liquid solution into the lyophilization chamber above the heat sink surface, the liquid solution comprising a solute and a solvent and characterized by a top surface and a bottom surface and the array comprising center containers, edge containers, and optionally corner containers; forming a thermal conduction insulator between the bottom of the containers and the heat sink surface to isolate the container from thermal conductivity with the heat sink, wherein either: (a) the dimensions of a portion of the thermal conduction insulator for center containers differ from the dimensions of a portion of the thermal conduction insulator for edge containers or (b) the thermal conductivity of the portion of the thermal conduction insulator between center containers and heat sink differs from the thermal conductivity of the portion of the thermal conduction insulator between edge containers and heat sink; lowering the temperature of the heat sink and thereby the ambient temperature in the lyophilization chamber comprising the container to a temperature sufficient to freeze the liquid solution, the thermal insulator selected to provide freezing of the liquid solution from the top and the bottom surfaces at approximately the same temperature and thereby form a frozen solution; during or after freezing altering the thermal conduction insulator; and reducing the ambient pressure in the chamber to lyophilize the frozen solution after altering the thermal conduction insulator. providing a lyophilization chamber comprising a heat sink surface in thermal communication with a refrigerant; loading an array of containers comprising liquid solution into the lyophilization chamber above the heat sink surface, the liquid solution comprising a solute and a solvent and characterized by a top surface and a bottom surface and the array comprising center containers, edge containers, and optionally corner containers; forming a thermal conduction insulator between the bottom of the containers and the heat sink surface to isolate the container from thermal conductivity with the heat sink, wherein either: (a) the dimensions of a portion of the thermal conduction insulator for center containers differ from the dimensions of a portion of the thermal conduction insulator for edge containers or (b) the thermal conductivity of the portion of the thermal conduction insulator between center containers and heat sink differs from the thermal conductivity of the portion of the thermal conduction insulator between edge containers and heat sink; lowering the temperature of the heat sink and thereby the ambient temperature in the lyophilization chamber comprising the container to a temperature sufficient to freeze the liquid solution, the thermal insulator selected to provide freezing of the liquid solution from the top and the bottom surfaces at approximately the same temperature and thereby form a frozen solution;
A retaining bracket for a fagade substructure for fastening at least one essentially plate-shaped fagade element to an on-site subfloor, comprising a first leg to be fastened to the on-site subfloor and a second leg arranged essentially perpendicular to the first leg to accommodate a retaining profile of the façade substructure, wherein the second leg has a total area incorporating at least one recess, and wherein the percentage area of the one recess or several recesses measures at least 10% of the total area of the second leg, characterized in that at least one edge area of the first leg and/or second leg is reinforced by folding, so that the material is at least doubled in at least one edge area.
A therapeutically effective amount of a pharmaceutical composition comprising a prodrug of structure: or a pharmaceutically acceptable salt form thereof, for use in the treatment of a subject by administering the composition at a dosage amount ranging from about 70 mg/m 2 to about 300 mg/m 2 at a frequency of between once every 7 days to once every 30 days for a period of one month to six months or longer, of one or more cancerous solid tumours.
body of a mass transit vehicle chair, in the form of a spatially shaped element which forms connected seat and backrest plates, with external, lateral reinforcement of the structure, which are walls with an arching, changing over the entire length of the internal surface shape, which over the entire length changes into side walls with variable height, approximately perpendicular to the surface of the seat and backrest plate, characterized in that they have an external edge zone with a thickness above 1.5 of the wall thickness, in the zone of maximum bending of the seat and backrest plate they have the height approximately being 0.15 - 0.30 of the length of the part of the seat, lowering in the top zone of the seat and backrest, so that at a distance from the ends of the seat and backrest within limits 0.05 - 0.20 of the length of the seat and backrest, they have the height of 0,6-0,2 of the maximum height of the side wall, and they are connected by a slight arch with the border edges of the seat and backrest.
A non-therapeutic method for increasing the weight of fish, said method comprising the steps of a) adding one or more species of probiotic bacteria to water, wherein the species of bacteria comprises or consists of Aliivibrio njordis, Aliivibrio balderis and/or Aliivibrio nannie; and b) exposing the fish to the water containing the one or more species of probiotic bacteria, such as for a time period of 1 second to 5 hours, such as 1 second to 2 hours, such as 1 seconds to 1 hour, such as 30 seconds to 1 hour or 1 minute to 30 minutes. a) adding one or more species of probiotic bacteria to water, wherein the species of bacteria comprises or consists of Aliivibrio njordis, Aliivibrio balderis and/or Aliivibrio nannie; and b) exposing the fish to the water containing the one or more species of probiotic bacteria, such as for a time period of 1 second to 5 hours, such as 1 second to 2 hours, such as 1 seconds to 1 hour, such as 30 seconds to 1 hour or 1 minute to 30 minutes.
A method for sharing an application, App, implemented using a terminal, comprising: in response to detecting a preset trigger operation of enabling an App sharing interface for the App, displaying associated regions for associated devices, wherein each of the associated devices is a device to share interface display data of the App; in response to detecting a selecting operation for any of the associated regions, determining (104, 203) an associated device corresponding to the any of the associated regions as a target device; and sending the interface display data of the App to the target device, so that the target device displays a program interface of the App based on the received interface display data; characterized in that, the method further comprises: receiving control information returned by the target device, wherein the control information is generated by the target device in response to detecting that the program interface of the App displayed is triggered; generating interface display data for updating the program interface of the App based on the control information; and sending the generated interface display data to the target device, so that the target device updates the program interface of the App displayed based on the received interface display data. in response to detecting a preset trigger operation of enabling an App sharing interface for the App, displaying associated regions for associated devices, wherein each of the associated devices is a device to share interface display data of the App; in response to detecting a selecting operation for any of the associated regions, determining (104, 203) an associated device corresponding to the any of the associated regions as a target device; and sending the interface display data of the App to the target device, so that the target device displays a program interface of the App based on the received interface display data; characterized in that, the method further comprises: receiving control information returned by the target device, wherein the control information is generated by the target device in response to detecting that the program interface of the App displayed is triggered; generating interface display data for updating the program interface of the App based on the control information; and sending the generated interface display data to the target device, so that the target device updates the program interface of the App displayed based on the received interface display data. receiving control information returned by the target device, wherein the control information is generated by the target device in response to detecting that the program interface of the App displayed is triggered; generating interface display data for updating the program interface of the App based on the control information; and sending the generated interface display data to the target device, so that the target device updates the program interface of the App displayed based on the received interface display data.
A process to continuously treat a hydrogen sulphide comprising gas, said process comprising the following steps: (a) contacting the hydrogen sulphide comprising gas with an aqueous alkaline liquid comprising sulphide-oxidising bacteria and elemental sulphur particles thereby producing a loaded aqueous liquid comprising dissolved sulphide, polysulphide compounds, sulphide-oxidising bacteria and elemental sulphur particles and a gas having a lower content of hydrogen sulphide, and passing the loaded aqueous liquid through a polysulphide reactor zone comprising one or more plug flow reactor zones, (b) contacting the loaded aqueous liquid with an oxidant to enable the sulphide-oxidising bacteria to oxidise sulphide to elemental sulphur, thereby producing an enriched aqueous liquid comprising an increased amount of elemental sulphur particles, and (c) separating elemental sulphur particles from the enriched aqueous liquid, wherein the residence time of the loaded aqueous liquid between its preparation in step (a) and its supply to step (b) is between 3 and 45 minutes, and wherein the content of elemental sulphur as part of the polysulphide compounds in the loaded aqueous liquid [S 0 in S x 2-] as supplied to step (b) is above 0.7 mM, preferably above 1 mM. (a) contacting the hydrogen sulphide comprising gas with an aqueous alkaline liquid comprising sulphide-oxidising bacteria and elemental sulphur particles thereby producing a loaded aqueous liquid comprising dissolved sulphide, polysulphide compounds, sulphide-oxidising bacteria and elemental sulphur particles and a gas having a lower content of hydrogen sulphide, and passing the loaded aqueous liquid through a polysulphide reactor zone comprising one or more plug flow reactor zones, (b) contacting the loaded aqueous liquid with an oxidant to enable the sulphide-oxidising bacteria to oxidise sulphide to elemental sulphur, thereby producing an enriched aqueous liquid comprising an increased amount of elemental sulphur particles, and (c) separating elemental sulphur particles from the enriched aqueous liquid, wherein the residence time of the loaded aqueous liquid between its preparation in step (a) and its supply to step (b) is between 3 and 45 minutes, and wherein the content of elemental sulphur as part of the polysulphide compounds in the loaded aqueous liquid [S 0 in S x 2-] as supplied to step (b) is above 0.7 mM, preferably above 1 mM.
Fluid connection system comprising a sleeve, a hose, and a fluid connector, said fluid connector comprising at least one rigid body made of a sterilizable biocompatible material, defining a first bore, the rigid body comprising a first endpiece portion for mechanical assembly, said hose comprising a flexible connection portion made of at least partially elastomeric sterilizable biocompatible material, defining a second bore and an end, the flexible connection portion comprising a second portion for mechanical assembly, the fluid connector and the flexible connection portion of the hose being assembled to one another by mechanical engagement in an assembly region of the first endpiece portion and second endpiece portion for mechanical assembly, in an assembly configuration in which the flexible connection portion of the hose surrounds the rigid body, and the first and second bores (4', 12') are in fluid communication with each other, said sleeve being shrunk to be tight on the hose and extending over a provided stiffening region extending over at least a portion of the assembly region, the sleeve extends along a portion of the hose beyond the assembly region, characterized in that the stiffening region extends from the end of the hose and in that the sleeve is thermo-shrinkable and with free movement on the hose and extends from the end of the hose.
A sleep disordered breathing treatment device, comprising: an implantable circuit; a flexible carrier; at least one pair of implantable electrodes (158a, 158b), electrically connected with the implantable circuit, wherein the circuit and the electrodes (158a, 158b) are configured for implantation in a subject proximal to a genioglossus muscle in the vicinity of a hypoglossal nerve; and wherein the electrodes (158a, 158b) are mounted on or integrated with the flexible carrier; wherein the electrodes are exposed on a single side of the carrier; wherein the electrodes are line electrodes or a series of point electrodes; wherein the electrodes form anode and cathode electrode pairs which are spaced apart by a distance of 1 mm to 10 mm; wherein the circuit is configured to deliver to the electrodes (158a, 158b) an electrical signal having a current less than about 1.6 milliamps, and wherein the electrodes (158a, 158b) are configured to emit an electric field having field lines such that a portion of the field lines extend along a length of the hypoglossal nerve such that the delivery of the electrical signal of less than about 1.6 milliamps causes modulation of the hypoglossal nerve when the electrodes (158a, 158b) are implanted in the vicinity of the hypoglossal nerve; wherein the device is securable to non-nerve tissue and configured to provide contactless neuromodulation of the hypoglossal nerve. an implantable circuit; a flexible carrier; at least one pair of implantable electrodes (158a, 158b), electrically connected with the implantable circuit, wherein the circuit and the electrodes (158a, 158b) are configured for implantation in a subject proximal to a genioglossus muscle in the vicinity of a hypoglossal nerve; and wherein the electrodes (158a, 158b) are mounted on or integrated with the flexible carrier; wherein the electrodes are exposed on a single side of the carrier; wherein the electrodes are line electrodes or a series of point electrodes; wherein the electrodes form anode and cathode electrode pairs which are spaced apart by a distance of 1 mm to 10 mm; wherein the circuit is configured to deliver to the electrodes (158a, 158b) an electrical signal having a current less than about 1.6 milliamps, and wherein the electrodes (158a, 158b) are configured to emit an electric field having field lines such that a portion of the field lines extend along a length of the hypoglossal nerve such that the delivery of the electrical signal of less than about 1.6 milliamps causes modulation of the hypoglossal nerve when the electrodes (158a, 158b) are implanted in the vicinity of the hypoglossal nerve; wherein the device is securable to non-nerve tissue and configured to provide contactless neuromodulation of the hypoglossal nerve.
Compound of the formula where n is 1, 2 or 3, Z is an aryl radical substituted by an alkyl or alkoxy group and having a total of 12 to 26 carbon atoms, A is an n-valent organic radical having a molecular weight in the range from 15 to 10 000 g/mol, X is O or S or NR 0 where R 0 is a monovalent organic radical having 1 to 18 carbon atoms and Y is a 1,2-ethylene or 1,3-propylene radical which is optionally substituted, where A and Y in the case that n = 1 may also be bonded to a trivalent radical having 4 to 10 carbon atoms. n is 1, 2 or 3, Z is an aryl radical substituted by an alkyl or alkoxy group and having a total of 12 to 26 carbon atoms, A is an n-valent organic radical having a molecular weight in the range from 15 to 10 000 g/mol, X is O or S or NR 0 where R 0 is a monovalent organic radical having 1 to 18 carbon atoms and Y is a 1,2-ethylene or 1,3-propylene radical which is optionally substituted, where A and Y in the case that n = 1 may also be bonded to a trivalent radical having 4 to 10 carbon atoms.
Capacitive block, notably for an electrical equipment, comprising - a housing, - a capacitive element housed in the housing, - a substance filling the space between the housing and the capacitive element so as to provide the sealing of the capacitive element, - a heat sink on which the capacitive element is directly abutting, in which the heat sink of the capacitive block is different from said filling substance, a face of said heat sink, called free face, forming an outer face of the capacitive block and being without said filling substance. - a housing, - a capacitive element housed in the housing, - a substance filling the space between the housing and the capacitive element so as to provide the sealing of the capacitive element, - a heat sink on which the capacitive element is directly abutting,
A method of reducing the content of hazardous chemicals when handling malodorous gases, such as non-condensable gases containing sulphur compounds, emanating from a pulp mill and before burning said malodorous gases In final incineration equipment in oxygen excess environment In order to oxidise the sulphur compounds characterised in that the flow of malodorous gases are transported to final incineration by using liquid ring pumps (1a,1b), and where the hazardous chemical is bound in the liquid used in the liquid ring pump, and where a part of the liquid used in the liquid ring pump is bled off (33a,33b) to final destruction different than said final incineration equipment in oxygen excess environment.
An armor panel with multi-hit capacity comprising: a central layer of ballistic tiles; an inner layer of fiber weave wrapped around the central layer; a polymer support plate directly attached to the inner layer of fiber weave, said support plate comprising aliphatic-based urethane; a layer of high strength fiber weave attached to the support plate; and an outer layer of fiber weave wrapped around the support plate, the layer of high strength fiber weave and the inner layer of fiber weave. a central layer of ballistic tiles; an inner layer of fiber weave wrapped around the central layer; a polymer support plate directly attached to the inner layer of fiber weave, said support plate comprising aliphatic-based urethane; a layer of high strength fiber weave attached to the support plate; and an outer layer of fiber weave wrapped around the support plate, the layer of high strength fiber weave and the inner layer of fiber weave.
Method for producing a leak-tight vessel for storage of gas and/or liquid, comprising at least one leak tight inner barrier layer comprising a heat-sealable thermoplastic material and a plurality of functional layers (41, 42) each comprising a fibre-reinforced heat-sealable thermoplastic material (61, 62), comprising the steps of: a) forming said at least one leak tight inner barrier layer; b) forming the plurality of functional layers (41, 42) by winding successive functional tapes on said leak tight inner barrier, each functional layer (41, 42) comprising a fibre-reinforced heat sealable thermoplastic material, wherein at least two functional layers (41, 42) of the plurality of functional layers comprise different fibre-reinforced thermoplastic materials (61, 62) and wherein the thermoplastic material of the at least one inner barrier layer and the thermoplastic materials of the functional layers (P1, P2) have melting points situated in a 40°C temperature range, the 40°C temperature range being situated between 100 °C and 400 °C; c) consolidating the functional layers (41, 42) and the at least one barrier layer thereby forming a monolithic consolidated wall structure with a continuity between the thermoplastic materials of the barrier layer and the fibre-reinforced heat-sealable thermoplastic materials (61, 62) of the functional layers (41,42). a) forming said at least one leak tight inner barrier layer; b) forming the plurality of functional layers (41, 42) by winding successive functional tapes on said leak tight inner barrier, each functional layer (41, 42) comprising a fibre-reinforced heat sealable thermoplastic material, wherein at least two functional layers (41, 42) of the plurality of functional layers comprise different fibre-reinforced thermoplastic materials (61, 62) and wherein the thermoplastic material of the at least one inner barrier layer and the thermoplastic materials of the functional layers (P1, P2) have melting points situated in a 40°C temperature range, the 40°C temperature range being situated between 100 °C and 400 °C; c) consolidating the functional layers (41, 42) and the at least one barrier layer thereby forming a monolithic consolidated wall structure with a continuity between the thermoplastic materials of the barrier layer and the fibre-reinforced heat-sealable thermoplastic materials (61, 62) of the functional layers (41,42).
Injector for being mounted on a vehicle exhaust pipe and for being supplied with a treatment liquid, said injector having a body, a pressurized volume of treatment liquid within the body, and means operatively associated with the body for discharging the pressurized liquid into the exhaust pipe as an atomized swirl, comprising: a chamber (514, 614) in fluid communication with said pressurized volume of treatment liquid; a valve (524, 624) between said chamber and said pressurized volume of treatment liquid; a discharge port (516, 616) from the chamber to a discharge orifice; a swirl element (518, 618) situated in the chamber, while leaving a substantially cylindrical free space (520, 620) immediately above the discharge port; whereby when the valve is closed, no fluid can enter said chamber and when the valve is open, pressurized fluid flows into said chamber, through said swirl element into said space, forming a whirl in said space before passing through said discharge port and exiting said discharge orifice as an atomized whirling spray, wherein the chamber is substantially cylindrical, the swirl element (518, 618) is fixed within the chamber, and the swirl element has at least one flow channel (522, 622) leading to said space (520, 620); characterized in that the swirl element comprises a substantially cylindrical plug with upper and lower ends; the at least one flow channel is a plurality of slots at the lower end of the plug or a flat disc is at the lower end of the plug, said at least one flow channel provided as a plurality of slots in said disc. a chamber (514, 614) in fluid communication with said pressurized volume of treatment liquid; a valve (524, 624) between said chamber and said pressurized volume of treatment liquid; a discharge port (516, 616) from the chamber to a discharge orifice; a swirl element (518, 618) situated in the chamber, while leaving a substantially cylindrical free space (520, 620) immediately above the discharge port;