mhurhangee/ep-ind-claims huggingface dataset:
A duct system, comprising: a duct defining a space between first and second walls (112,113); and a heat exchanger with increased heat transfer capability, the heat exchanger comprising first and second end plates (121,122), tubes extending between the first and second end plates and fins disposed between the tubes, and characterised by: the heat exchanger being disposable within and differing in shape from the space with end corners (1211,1212) of the first end plate abutting the first wall, a point of the second end plate abutting the second wall, the first wall diverging from the end corners of the first end plate to define a first open region and the second wall diverging from the point of the second end plate to define second open regions (131,132), and the first end plate and the second end plates comprising enhancements fluidly communicative with the first open region and with the second open regions, respectively. a duct defining a space between first and second walls (112,113); and a heat exchanger with increased heat transfer capability, the heat exchanger comprising first and second end plates (121,122), tubes extending between the first and second end plates and fins disposed between the tubes, and characterised by: the heat exchanger being disposable within and differing in shape from the space with end corners (1211,1212) of the first end plate abutting the first wall, a point of the second end plate abutting the second wall, the first wall diverging from the end corners of the first end plate to define a first open region and the second wall diverging from the point of the second end plate to define second open regions (131,132), and the first end plate and the second end plates comprising enhancements fluidly communicative with the first open region and with the second open regions, respectively. the heat exchanger being disposable within and differing in shape from the space with end corners (1211,1212) of the first end plate abutting the first wall, a point of the second end plate abutting the second wall, the first wall diverging from the end corners of the first end plate to define a first open region and the second wall diverging from the point of the second end plate to define second open regions (131,132), and the first end plate and the second end plates comprising enhancements fluidly communicative with the first open region and with the second open regions, respectively.
A fluid connector comprising: an adapter for connecting the connector to a container; an outer sleeve connected to the adapter; and a tubular body retained at least partially within the sleeve, wherein the adapter comprises a hollow rod that extends distally toward the tubular body and that is rigidly attached to a needle, and wherein the outer sleeve comprises a grip portion having a first dominant color and the tubular body comprises a second non-dominant color different from said first color, which encourages a user to hold the outer sleeve during manipulation of the connector. an adapter for connecting the connector to a container; an outer sleeve connected to the adapter; and a tubular body retained at least partially within the sleeve, wherein the adapter comprises a hollow rod that extends distally toward the tubular body and that is rigidly attached to a needle, and wherein the outer sleeve comprises a grip portion having a first dominant color and the tubular body comprises a second non-dominant color different from said first color, which encourages a user to hold the outer sleeve during manipulation of the connector.
A device for measuring blood pressure, comprising a) a measuring cuff, b) a pressure sensor, c) a pump for filling the measuring cuff, d) an electronic outlet valve, e) an analogue-to-digital converter, and f) a processor for open- and closed-loop control of the electronic outlet valve, the recorded data from the measuring cuff being relayable to the processor via the pressure sensor and the analogue-to-digital converter, the processor being configured in such a way that it open- and closed-loop controls the electronic outlet valve for individual input signals in real time in such a way that a pressure drop is constant over time over the entire measured pressure range, characterised in that the processor is configured such that it open- and closed-loop controls the electronic outlet valve for individual input signals in real time by means of a correction function in such a way that the outlet rate increases in linear manner with a pulse frequency. a) a measuring cuff, b) a pressure sensor, c) a pump for filling the measuring cuff, d) an electronic outlet valve, e) an analogue-to-digital converter, and f) a processor for open- and closed-loop control of the electronic outlet valve,
A medical system based on microwave technology for prevention and diagnosis of diseases, said system comprising: an internal unit which, in use, is introduced within a body passage of a patient, said internal unit including means configured to transmit a first energy signal to one or more body tissues and configured to detect a second energy signal scattered by said one or more body tissues; and an external computing unit which, in use, is located outside the body of the patient and connected with said internal unit to receive said second energy signal detected by said internal unit and to convert said received second energy signal into an image, wherein said means configured to transmit a first energy signal and configured to detect a second energy signal of the internal unit comprises two arrays of N transmitter and N receiver antennas (11T, 11R), said first and second energy signals comprising microwave signals, said system being characterized in that said internal unit further includes feeding and multiplexing means in connection with said N transmitter and N receiver antennas (11T, 11R) and with said external computing unit, configured to provide, under the control of a controller of said external computing unit, a continuous sequential selection of different pairs of transmitter and receiver antennas (11T, 11R) to perform the transmission of the microwave signal and the detection of the scattered microwave signal, wherein the N transmitter and N receiver antennas (11T, 11R) and the feeding and multiplexing means are arranged on a same electronic substrate having two faces, the N transmitter and N receiver antennas (11T, 11R) being positioned on one of said two faces and the feeding and multiplexing means being positioned on the other face. an internal unit which, in use, is introduced within a body passage of a patient, said internal unit including means configured to transmit a first energy signal to one or more body tissues and configured to detect a second energy signal scattered by said one or more body tissues; and an external computing unit which, in use, is located outside the body of the patient and connected with said internal unit to receive said second energy signal detected by said internal unit and to convert said received second energy signal into an image, wherein said means configured to transmit a first energy signal and configured to detect a second energy signal of the internal unit comprises two arrays of N transmitter and N receiver antennas (11T, 11R), said first and second energy signals comprising microwave signals,
Oil separator that is provided with a housing with an inlet for an oil-gas mixture and which defines a space that is closed off at the top by means of a top housing lid, whereby a screen in the form of a tube is provided in the aforementioned space, wherein in the space enclosed by the wall of said tube a cylindrical filter element is provided, wherein said tube is extending axially from the top housing lid to an open end at a distance of the bottom of the housing so that the oil-gas mixture will flow in a downward direction along said tube between said tube and said housing and will then flow around said open end of the tube and continue to flow in an upward direction to said cylindrical filter element, wherein said cylindrical filter element has an upper end and a lower end and an interior, wherein a pipe or collector connects said interior of the filter element to an outlet of the housing for purified gas, wherein this filter element has a mantle provided with a filter material extending between said upper end and lower end and wherein the filter element is closed off by a lid at its upper end and by a bottom at its lower end, wherein said bottom is collecting oil that has been filtered out, whereby a drainage line is provided for the removal of the oil that has been filtered out, characterised in, that the pipe or collector extends in said interior from the lid of the filter element through the bottom and below the tube to the outlet for purified gas, wherein said pipe or collector is connected to said lid of the filter element by means of an electrically conductive connecting element, whereby the sidewall of the pipe or collector is provided with at least one opening for the removal of purified gas, whereby the pipe or collector is electrically connected to the housing which is connected to earth.
An in vitro method for integrating a transgene within the genome of a cell comprising: (a) Providing at least one RNA comprising: (i) sequence encoding foamy virus Gag protein, (ii) sequence encoding foamy virus Pol protein; (iii) Foamy Virus genomic sequence, which comprises foamy virus cis-acting sequences essential for efficient gene transfer, and a transgene, and optionally iv) a sequence encoding a foamy virus Env protein; and (b) Introducing said RNA directly into a cell by electroporation such that the transgene integrates into the genome of said cell. (a) Providing at least one RNA comprising: (i) sequence encoding foamy virus Gag protein, (ii) sequence encoding foamy virus Pol protein; (iii) Foamy Virus genomic sequence, which comprises foamy virus cis-acting sequences essential for efficient gene transfer, and a transgene, and optionally iv) a sequence encoding a foamy virus Env protein; and (b) Introducing said RNA directly into a cell by electroporation such that the transgene integrates into the genome of said cell.
Method for manufacturing co-extruded food products, comprising the processing steps of: A) co-extruding an elongate dough strand and a casing enclosing the elongate dough strand to form a non-coagulated food product, B) bringing the casing into contact with a salt solution, and C) dividing the encased elongate food strand into individual products, whereafter the co-extruded food products are subjected to an airflow, wherein the food products are subjected to two successive airflows physically separated from each other, wherein the process conditions of the airflows can be controlled independently of each other, wherein the food products are still not fully coagulated after passing through the airflows, and characterised in that after passing through the two successive drying phases the food products are heated such that the proteins of the core of the extruded food products are coagulated, by canning the products and then sterilizing the content thereof, heating the products after they are packed in a foil packaging (also referred to as "cook in pack"), or cooking unpackaged extrusion products by means of steam. A) co-extruding an elongate dough strand and a casing enclosing the elongate dough strand to form a non-coagulated food product, B) bringing the casing into contact with a salt solution, and C) dividing the encased elongate food strand into individual products, whereafter the co-extruded food products are subjected to an airflow, wherein the food products are subjected to two successive airflows physically separated from each other, wherein the process conditions of the airflows can be controlled independently of each other, wherein the food products are still not fully coagulated after passing through the airflows, and characterised in that after passing through the two successive drying phases the food products are heated such that the proteins of the core of the extruded food products are coagulated, by canning the products and then sterilizing the content thereof, heating the products after they are packed in a foil packaging (also referred to as "cook in pack"), or cooking unpackaged extrusion products by means of steam.
A surgical hand tool comprising: a handle having an inner cavity, a proximal end, and a distal end; a primary tube extending outwardly from the cavity at the distal end; a reinforcing slider slidably disposed over the primary tube; characterised by further comprising: a biasing member coupled to the handle that biases the reinforcing slider away from the handle; and a retention mechanism coupled to the handle, the retention mechanism configured to engage and disengage with the reinforcing slider to control relative movement between the reinforcement slider and the handle. a handle having an inner cavity, a proximal end, and a distal end; a primary tube extending outwardly from the cavity at the distal end; a reinforcing slider slidably disposed over the primary tube; characterised by further comprising: a biasing member coupled to the handle that biases the reinforcing slider away from the handle; and a retention mechanism coupled to the handle, the retention mechanism configured to engage and disengage with the reinforcing slider to control relative movement between the reinforcement slider and the handle. a biasing member coupled to the handle that biases the reinforcing slider away from the handle; and a retention mechanism coupled to the handle, the retention mechanism configured to engage and disengage with the reinforcing slider to control relative movement between the reinforcement slider and the handle.
An adaptable cover assembly for an acid reflux mattress, the assembly comprising: - a top piece, a bottom piece, and a fastening device configured for fastening the top piece to the bottom piece; - wherein each one of the top and bottom pieces (1,2) are comprised of a planar side (11,21), two oppositely arranged lateral sides having a straight outer edge (12,13,22,23) and two oppositely arranged lateral sides having a sloped outer edge (14,15,24,25); - wherein one straight edged lateral side (13,23) has a higher height than the opposite straight edged lateral side (12,22) such that it extends past it, and wherein said difference in height determines the slope of the sloped edged lateral sides (14,15,24,25); - wherein the cover assembly is configured for free assembly in one of at least two configurations: - a planar configuration, whereby the higher straight edged side of the top piece is aligned with the shorter straight edged side of the bottom piece, and vice versa for the other sides (12,23); and, - a sloped configuration, whereby the higher straight edged side of the top piece is aligned with the higher straight edged side of the bottom piece, and vice versa for the other sides (12,22). - a top piece, a bottom piece, and a fastening device configured for fastening the top piece to the bottom piece; - wherein each one of the top and bottom pieces (1,2) are comprised of a planar side (11,21), two oppositely arranged lateral sides having a straight outer edge (12,13,22,23) and two oppositely arranged lateral sides having a sloped outer edge (14,15,24,25); - wherein one straight edged lateral side (13,23) has a higher height than the opposite straight edged lateral side (12,22) such that it extends past it, and wherein said difference in height determines the slope of the sloped edged lateral sides (14,15,24,25); - wherein the cover assembly is configured for free assembly in one of at least two configurations: - a planar configuration, whereby the higher straight edged side of the top piece is aligned with the shorter straight edged side of the bottom piece, and vice versa for the other sides (12,23); and, - a sloped configuration, whereby the higher straight edged side of the top piece is aligned with the higher straight edged side of the bottom piece, and vice versa for the other sides (12,22). - a planar configuration, whereby the higher straight edged side of the top piece is aligned with the shorter straight edged side of the bottom piece, and vice versa for the other sides (12,23); and, - a sloped configuration, whereby the higher straight edged side of the top piece is aligned with the higher straight edged side of the bottom piece, and vice versa for the other sides (12,22).
Detachable fastening system for two intersecting formwork beams (10, 20), said two intersecting formwork beams (10, 20) forming between them a non-zero angle, and said system comprising: - an upper beam for supporting formwork panels, - a lower beam on which the upper beam rests and which forms a non-zero angle with the upper beam and - a connection device for connecting the upper beam to the lower beam, wherein said connection device comprises a resilient one-piece structure having two curved arms (1, 2) which connect zones intended to press on one of said upper and lower beams (20, 10) in support zones and zones intended to be fastened to the other beam of the upper and lower beam (20, 10), the system having connection means between the device and said other beam, to which saic connection device is fastened, which connect the connection device to said other bearr (10, 20) such that it cannot be lost, thus allowing said other beam (10, 20) and the connection device to be handled together like a single part, the connection device having the ability to slide relative to said other beam to which it is fastened, wherein the system has, further to the connection device, friction-increasing means for increasing the friction comprising a protuberance the system being characterised by the protuberance being on a contact face between said upper beam and said lower beam, said protuberance being located on an upper surface of the lower beam comprising two parallel, toothed lines arranged longitudinally, preventing unwanted sliding between said lower beam and upper beam. - an upper beam for supporting formwork panels, - a lower beam on which the upper beam rests and which forms a non-zero angle with the upper beam and - a connection device for connecting the upper beam to the lower beam, wherein said connection device comprises a resilient one-piece structure having two curved arms (1, 2) which connect zones intended to press on one of said upper and lower beams (20, 10) in support zones and zones intended to be fastened to the other beam of the upper and lower beam (20, 10), the system having connection means between the device and said other beam, to which saic connection device is fastened, which connect the connection device to said other bearr (10, 20) such that it cannot be lost, thus allowing said other beam (10, 20) and the connection device to be handled together like a single part, the connection device having the ability to slide relative to said other beam to which it is fastened, wherein the system has, further to the connection device, friction-increasing means for increasing the friction comprising a protuberance the system being characterised by the protuberance being on a contact face between said upper beam and said lower beam, said protuberance being located on an upper surface of the lower beam comprising two parallel, toothed lines arranged longitudinally, preventing unwanted sliding between said lower beam and upper beam.
Evacuated tube transport system tube which, in use, is near vacuum, comprising a plurality of tube segments wherein the tube segments have an exterior side and an interior side (1") characterised in that each tube segment is composed of a plurality of prefabricated steel tube wall parts wherein the parts comprise an essentially quadrangular portion having an outwardly facing surface in the direction of the exterior of the tube segment and an inwardly facing surface (3") in the direction of the interior of the tube segment, said portion having two tangential edges (4, 5) and two axial edges (6, 7), wherein at least the axial edges (6, 7) are provided with flanges along one or both edges (6, 7), wherein - all flanges of the prefabricated steel tube wall parts extend towards the interior side (1") of the tube segment, or wherein - all flanges of the prefabricated steel tube wall parts extend towards the exterior side of the tube segment, or wherein - some of the flanges of the prefabricated steel tube wall parts extend towards the interior side (1") of the tube segment and the other flanges extend towards the exterior side of the tube segment and wherein the material used for producing the prefabricated steel tube wall parts is hot-rolled steel strip. - all flanges of the prefabricated steel tube wall parts extend towards the interior side (1") of the tube segment, or wherein - all flanges of the prefabricated steel tube wall parts extend towards the exterior side of the tube segment, or wherein - some of the flanges of the prefabricated steel tube wall parts extend towards the interior side (1") of the tube segment and the other flanges extend towards the exterior side of the tube segment
A method of production of high strength thin-gauge steel sheet with excellent elongation and hole expandability, the tensile strength of the high strength thin-gauge steel sheet being 500 MPa or more, characterized by producing a slab consisting of, by mass%, C: 0.03 to 0.25%, Si: 0.013 to 0.299%, Mn: 0.8 to 3.1%, P≤0.02%, S≤0.02%, A1: 0.2 to 2.0% and N≤0.01% and, further, optionally one or more selected from V: 0.005 to 1%, Ti: 0.002 to 1%, Nb: 0.002 to 1%, Cr: 0.005 to 2%, Mo: 0.005 to 1%, B: 0.0002 to 0.1%, Mg: 0.0005 to 0.01%, REM: 0.0005 to 0.01%, and Ca: 0.0005 to 0.01%, and a balance of Fe and unavoidable impurities, heating it in a range of 1150 to 1250°C, then finishing hot rolling it in a temperature range of 800 to 950°C, coiling it at 400 to 700°C, then pickling it as normal, then cold rolling by a reduction rate of 30 to 80%, then in the continuous annealing process, soaking at 600°C to the Ac 3 point +50°C for recrystallization annealing, cooling the steel sheet to 600°C to Ar 3 at an average cooling rate of 30°C/s or less, further cooling by an average cooling rate of 10 to 150°C/s to 400°C or less, then heating and holding a first time at 150 to 400°C for 1 to 20 minutes, cooling to the martensitic transformation point or less, heating and holding a second time at the cooling end temperature + 50 to +300°C, and 500°C or less for 1 to 100 seconds, then cooling to thereby obtain a metal structure having a microstructure consisting of ferrite with an area fraction of 10% to 85%, residual austenite with a volume fraction of 1 to 10%, tempered martensite with an area fraction of 10% to 60% and a balance of bainite. producing a slab consisting of, by mass%, C: 0.03 to 0.25%, Si: 0.013 to 0.299%, Mn: 0.8 to 3.1%, P≤0.02%, S≤0.02%, A1: 0.2 to 2.0% and N≤0.01% and, further, optionally one or more selected from V: 0.005 to 1%, Ti: 0.002 to 1%, Nb: 0.002 to 1%, Cr: 0.005 to 2%, Mo: 0.005 to 1%, B: 0.0002 to 0.1%, Mg: 0.0005 to 0.01%, REM: 0.0005 to 0.01%, and Ca: 0.0005 to 0.01%, and a balance of Fe and unavoidable impurities, heating it in a range of 1150 to 1250°C, then finishing hot rolling it in a temperature range of 800 to 950°C, coiling it at 400 to 700°C, then pickling it as normal, then cold rolling by a reduction rate of 30 to 80%, then in the continuous annealing process, soaking at 600°C to the Ac 3 point +50°C for recrystallization annealing, cooling the steel sheet to 600°C to Ar 3 at an average cooling rate of 30°C/s or less, further cooling by an average cooling rate of 10 to 150°C/s to 400°C or less, then heating and holding a first time at 150 to 400°C for 1 to 20 minutes, cooling to the martensitic transformation point or less, heating and holding a second time at the cooling end temperature + 50 to +300°C, and 500°C or less for 1 to 100 seconds, then cooling to thereby obtain a metal structure having a microstructure consisting of ferrite with an area fraction of 10% to 85%, residual austenite with a volume fraction of 1 to 10%, tempered martensite with an area fraction of 10% to 60% and a balance of bainite.