mhurhangee/ep-ind-claims huggingface dataset:
A launch system for a pressurized pipeline, the launch system including a seal arrangement, comprising: a seal configured to engage a cable extending from outside the pipeline to inside the pipeline such that release of pressurized gas from inside the pipeline to an ambient environment outside the pipeline through the seal arrangement is inhibited; characterised in that the launch system further comprises: a vent disposed axially adjacent to the seal such that it receives gas passing between the seal and the cable, the vent being configured to direct the received gas to a predetermined location, wherein the vent includes a channel disposed at least partially around an outside surface thereof and at least one aperture disposed in the channel and through an inside surface of the vent such that gas received on an inside of the vent can pass through the at least one aperture and into the channel.
A gravimetric measuring system, comprising - a scale having a weighing chamber surrounded by a weighing chamber wall (23, 24, 26, 28), an electromechanical weighing system, an electronic control apparatus for controlling the system operation, and - a plurality of function modules (14, 16) generating heat during operation, which can be optionally inserted into module receptacles arranged at the weighing chamber wall, characterized in that the scale has a cooling device controllable by the control apparatus for cooling the weighing chamber; and that the module receptacles have device-side thermal interface components thermally connected to the cooling device and the function modules (14, 16) have corresponding module-side thermal interface components which in the inserted state of the respective function module (14, 16) thermally contact the device-side thermal interface component of the respectively assigned module receptacle. - a scale having a weighing chamber surrounded by a weighing chamber wall (23, 24, 26, 28), an electromechanical weighing system, an electronic control apparatus for controlling the system operation, and - a plurality of function modules (14, 16) generating heat during operation, which can be optionally inserted into module receptacles arranged at the weighing chamber wall, that the scale has a cooling device controllable by the control apparatus for cooling the weighing chamber; and that the module receptacles have device-side thermal interface components thermally connected to the cooling device and the function modules (14, 16) have corresponding module-side thermal interface components which in the inserted state of the respective function module (14, 16) thermally contact the device-side thermal interface component of the respectively assigned module receptacle.
An epoxy composition comprising: (a) an epoxy resin; and (b) a free radical initiator composition comprising a t-butyl hydroperoxide solution that contains no more than 7 weight percent water. (a) an epoxy resin; and (b) a free radical initiator composition comprising a t-butyl hydroperoxide solution that contains no more than 7 weight percent water.
In a client computing system, a method for participating in authentication with a server computing system, the method comprising: an act of receiving a first server request that includes the authentication mechanisms deployed at the server computing system and a server side nonce; an act of sending a first response that includes the authentication mechanisms deployed at the client computing system and a client side nonce; an act of identifying a tunnel key that can be used to encrypt content transferred between the client computing system and server computing system, comprising deriving the tunnel key based on a shared secret, the client side nonce, and the server side nonce; an act of receiving a second server request that includes encrypted authentication content (318, 328), the encrypted authentication content being encrypted with the tunnel key and including negotiation encrypted content which includes a challenge, a mutually deployed authentication mechanism and a trust anchor; an act of decrypting the encrypted authentication content (318, 328) with the tunnel key to reveal unencrypted authentication content; and an act of sending a second response, the second response including encrypted response data being encrypted with the tunnel key and being responsive to the unencrypted authentication content, including a response to the challenge, the encrypted response data for authenticating with the server computing system according to the mutually deployed authentication mechanism. an act of receiving a first server request that includes the authentication mechanisms deployed at the server computing system and a server side nonce; an act of sending a first response that includes the authentication mechanisms deployed at the client computing system and a client side nonce; an act of identifying a tunnel key that can be used to encrypt content transferred between the client computing system and server computing system, comprising deriving the tunnel key based on a shared secret, the client side nonce, and the server side nonce; an act of receiving a second server request that includes encrypted authentication content (318, 328), the encrypted authentication content being encrypted with the tunnel key and including negotiation encrypted content which includes a challenge, a mutually deployed authentication mechanism and a trust anchor; an act of decrypting the encrypted authentication content (318, 328) with the tunnel key to reveal unencrypted authentication content; and an act of sending a second response, the second response including encrypted response data being encrypted with the tunnel key and being responsive to the unencrypted authentication content, including a response to the challenge, the encrypted response data for authenticating with the server computing system according to the mutually deployed authentication mechanism.
A treatment device comprising: a flexible sheath; a control wire configured to move axially within the flexible sheath; a first treatment member connected to a distal end of the control wire; a second treatment member connected to a distal end of the first treatment member; and a protection member configured to cover the second treatment member, wherein: when the treatment device is in a first treatment mode, the second treatment member projects from a distal end of the protection member, and when the treatment device is in a second treatment mode, the first treatment member projects from a distal end of the flexible sheath, and the protection member covers the second treatment member. a flexible sheath; a control wire configured to move axially within the flexible sheath; a first treatment member connected to a distal end of the control wire; a second treatment member connected to a distal end of the first treatment member; and a protection member configured to cover the second treatment member, wherein: when the treatment device is in a first treatment mode, the second treatment member projects from a distal end of the protection member, and when the treatment device is in a second treatment mode, the first treatment member projects from a distal end of the flexible sheath, and the protection member covers the second treatment member. when the treatment device is in a first treatment mode, the second treatment member projects from a distal end of the protection member, and when the treatment device is in a second treatment mode, the first treatment member projects from a distal end of the flexible sheath, and the protection member covers the second treatment member.
Method for obtaining a sequestering agent, characterized in that a terpolymer is obtained by the reaction of 5-30% by weight of maleic acid, 1-7% by weight of sodium vinyl sulfonate, and 30-80% by weight of acrylic acid in the presence of 0.05-5% by weight of ammonium peroxydisulfate and 0.01-2% by weight of sodium bisulfite.
A heat generating device comprising a holder and a heat generating member that is enclosed in the holder and that contains an oxidizable metal, a reaction accelerator, an electrolyte, and water, the heat generating member containing a transdermally-absorbable medicament and a solvent in which the transdermally-absorbable medicament is dissolved, wherein said solvent is selected from alcohols that are liquid substances at 25°C, and the alcohols are polyols or lower alcohols.
An electrolyte, comprising or consisting of the following components: - methanesulfonic acid; and - more than one polyhydric alcohol, the content of methanesulfonic acid being less than 15 vol%, and furthermore the polyhydric alcohols comprising at least one diol and at least one polyalcohol, characterized in that the at least one diol accounts for 20 to 65 vol%, and the at least one polyalcohol accounts for 20 to 65 vol%. - methanesulfonic acid; and - more than one polyhydric alcohol,
A method for obtaining sequence information from a whole blood sample comprising cell-free DNA, said method comprising: (a) obtaining the plasma fraction of the whole blood sample, wherein the plasma fraction comprises cell-free DNA; (b) without first purifying the cell-free DNA from the plasma fraction, preparing a sequencing library from the cell-free DNA, wherein preparing a sequencing library from the cell-free DNA comprises exposing the plasma fraction to conditions that loosen cell-free DNA wrapped around histones, and wherein the conditions comprise heating and centrifuging the plasma fraction or treating the plasma fraction with polysorbate-20; and (c) sequencing said sequencing library to obtain sequence information. (a) obtaining the plasma fraction of the whole blood sample, wherein the plasma fraction comprises cell-free DNA; (b) without first purifying the cell-free DNA from the plasma fraction, preparing a sequencing library from the cell-free DNA, wherein preparing a sequencing library from the cell-free DNA comprises exposing the plasma fraction to conditions that loosen cell-free DNA wrapped around histones, and wherein the conditions comprise heating and centrifuging the plasma fraction or treating the plasma fraction with polysorbate-20; and (c) sequencing said sequencing library to obtain sequence information.
Device for varying the stroke volumes of a first hydraulic machine and of a second hydraulic machine, the stroke volumes of which are each dependent on pivoting positions of adjustable axles (5, 6) of the hydraulic machines (2, 3) and which can be connected to one another via lines (9, 10), wherein the axles (5, 6) can be connected to a piston cylinder device to which pressures, adjustable in the region of a regulating valve unit, can be applied in the region of effective areas in order to pivot the axles (5, 6), wherein the pressures can be limited in the region of the hydraulic machines (2, 3) by means of the regulating valve unit, and the regulating valve unit can be coupled via a valve apparatus to, in each case, that line of the lines (9, 10) connecting the hydraulic machines (2, 3) in which the relatively high pressure is present, and wherein an apparatus for determining a currently present actual pressure (p_HD_ist) is provided upstream of the regulating valve unit, characterized in that by means of the apparatus it is also possible to detect an actual pressure upstream of the valve apparatus in the region of one of the lines (9, 10) connecting the hydraulic machines (2, 3), wherein the pressure sides of the hydraulic machines (2, 3) can be determined, and wherein the regulating valve unit can be activated as a function of the actual pressure values (p_HD_ist) which can be determined by means of the apparatus.
A process for synthesis of lactones, said process comprising: (a) synthesizing polynucleotide sequence as set forth in SEQ ID No.: 4; (b) expressing a recombinant construct carrying said polynucleotide sequence of SEQ ID No. 4 in a host cell to obtain recombinant polypeptide peroxygenase of SEQ ID No.6 wherein the host cell is selected from the group consisting of E.coli BL21 or E.coli Rosetta; (c) catalyzing conversion of unsaturated fatty acids to epoxy fatty acids in presence of the recombinant polypeptide peroxygenase of SEQ ID No. 6 of step (b) to obtain epoxy fatty acids; (d) synthesizing polynucleotide sequence as set forth in SEQ ID No.: 1; (e) expressing a recombinant construct carrying said polynucleotide sequence of SEQ ID No. 1 in a host cell to obtain recombinant polypeptide epoxide hydrolase 2 of SEQ ID No.3; (f) catalyzing conversion of the epoxy fatty acids from step (c) to di-hydroxy fatty acids in presence of the recombinant polypeptide epoxide hydrolase 2 of SEQ ID No. 3 of step (e) to obtain di-hydroxy fatty acids; and (g) subjecting the di-hydroxy fatty acids of step (f) to multiple cycles of ω and β oxidation to obtain the lactones, wherein the lactones are selected from the group consisting of δ-valerolactone, γ-hexalactone, and δ-hexalactone. (a) synthesizing polynucleotide sequence as set forth in SEQ ID No.: 4; (b) expressing a recombinant construct carrying said polynucleotide sequence of SEQ ID No. 4 in a host cell to obtain recombinant polypeptide peroxygenase of SEQ ID No.6 wherein the host cell is selected from the group consisting of E.coli BL21 or E.coli Rosetta; (c) catalyzing conversion of unsaturated fatty acids to epoxy fatty acids in presence of the recombinant polypeptide peroxygenase of SEQ ID No. 6 of step (b) to obtain epoxy fatty acids; (d) synthesizing polynucleotide sequence as set forth in SEQ ID No.: 1; (e) expressing a recombinant construct carrying said polynucleotide sequence of SEQ ID No. 1 in a host cell to obtain recombinant polypeptide epoxide hydrolase 2 of SEQ ID No.3; (f) catalyzing conversion of the epoxy fatty acids from step (c) to di-hydroxy fatty acids in presence of the recombinant polypeptide epoxide hydrolase 2 of SEQ ID No. 3 of step (e) to obtain di-hydroxy fatty acids; and (g) subjecting the di-hydroxy fatty acids of step (f) to multiple cycles of ω and β oxidation to obtain the lactones,
An access control device for monitoring and controlling the passage of persons through a passageway or a doorway between an outside area and an inside area, said access control device comprising at least one transit authorization request device, said transit authorization request device to be activated by a person requesting authorization to pass through said passageway or doorway; a presence detection and tracking device for detecting the presence of a person in the vicinity of said passageway or doorway and for tracking the movement of a person within said passageway or doorway, and a control unit operatively coupled to said at least one transit authorization request device and said presence detection and tracking device, said control unit being configured for • controlling, upon activation of said transit authorization request device, said presence detection and tracking device to detect and localize, from a group of persons present in the vicinity of said passageway or doorway, the person having activated said transit authorization request device and to identify said person as the requesting person; • assigning a virtual transit ticket to said requesting person after authorization to pass through said passageway or doorway has been granted to said person, said virtual transit ticket being representative of the transit privileges granted to said requesting person, and • for controlling said presence detection and tracking device to track the movement of the requesting person with the virtual transit ticket with respect to the granted transit privileges, said control unit comprising a processing module with a configurable decision table for generating an output control signal based on an output signal of said at least one transit authorization request device and an output signal of said presence detection and tracking device, said output control signal to be used for the controlling of the passage of persons through a passageway or a doorway. • controlling, upon activation of said transit authorization request device, said presence detection and tracking device to detect and localize, from a group of persons present in the vicinity of said passageway or doorway, the person having activated said transit authorization request device and to identify said person as the requesting person; • assigning a virtual transit ticket to said requesting person after authorization to pass through said passageway or doorway has been granted to said person, said virtual transit ticket being representative of the transit privileges granted to said requesting person, and • for controlling said presence detection and tracking device to track the movement of the requesting person with the virtual transit ticket with respect to the granted transit privileges,
An isolated bacterium which belongs to Christensenella intestinihominis and has a sequence of 16s rDNA as shown in SEQ ID NO. 1, wherein the isolated bacterium is Christensenella intestinihominis AF73-05CM02 deposited at the China General Microbiological Culture Collection Center (CGMCC) with a deposit number of CGMCC 1.5207.
A catalyst comprising at least 80wt% chromia and at least one additional metal or compound thereof and wherein the catalyst has a total pore volume of greater than 0.3 cm 3 /g and the mean pore diameter is greater than or equal to 9 nm (90 Å), wherein the total pore volume is measured by N 2 adsorption porosimetry and the mean pore diameter is measured by N 2 BET adsorption porosimetry, and wherein the at least one additional metal is selected from Li, Na, K, Ca, Mg, Cs, Sc, Al, Y, Ti, Zr, Hf, V, Nb, Ta, Cr, Mo, W, Mn, Re, Fe, Ru, Co, Rh, Ir, Ni, Pd, In, Pt, Cu, Ag, Au, Zn, La, Ce and mixtures thereof.
A method comprising: applying a plurality of pressures to a three-dimensional reservoir rock sample in a closed volume, the reservoir rock sample comprising a plurality of porous regions distributed along a longitudinal axis of the reservoir rock sample, wherein the plurality of porous regions have a respective plurality of wettabilities, each wettability representing a quality of each porous region to absorb water; at each pressure of the plurality of pressures, applying a nuclear magnetic resonance pulse sequence to the plurality of porous regions distributed along the longitudinal axis of the reservoir rock sample; constructing a nuclear magnetic resonance gas adsorption isotherm curve for the reservoir rock sample in response to the application of the plurality of pressures and the application of the nuclear magnetic resonance pulse sequence; determining the plurality of wettabilities for the plurality of porous regions based on the nuclear magnetic resonance gas adsorption isotherm curve, each wettability of the plurality of wettabilities including a value representing the quality of each porous region to absorb water; determining a spatial wettability distribution for the reservoir rock sample based on the plurality of wettabilities; and providing the spatial wettability distribution for the reservoir rock sample. applying a plurality of pressures to a three-dimensional reservoir rock sample in a closed volume, the reservoir rock sample comprising a plurality of porous regions distributed along a longitudinal axis of the reservoir rock sample, wherein the plurality of porous regions have a respective plurality of wettabilities, each wettability representing a quality of each porous region to absorb water; at each pressure of the plurality of pressures, applying a nuclear magnetic resonance pulse sequence to the plurality of porous regions distributed along the longitudinal axis of the reservoir rock sample; constructing a nuclear magnetic resonance gas adsorption isotherm curve for the reservoir rock sample in response to the application of the plurality of pressures and the application of the nuclear magnetic resonance pulse sequence; determining the plurality of wettabilities for the plurality of porous regions based on the nuclear magnetic resonance gas adsorption isotherm curve, each wettability of the plurality of wettabilities including a value representing the quality of each porous region to absorb water; determining a spatial wettability distribution for the reservoir rock sample based on the plurality of wettabilities; and providing the spatial wettability distribution for the reservoir rock sample.
An apparatus for delivering a discrete cord during the construction of a tampon, the apparatus comprising: a supply path comprising a fluid flow, a deployed cord supply, a transfer member having a first surface comprising one or more apertures, and a cutting apparatus comprising a cutting implement enabled to sever the deployed cord supply to form a discrete cord; wherein the transfer member houses one or more carriers that are aligned with the apertures and enabled to move in a direction that crosses the aperture path; wherein the fluid flow directs the deployed cord supply towards the transfer member first surface; and wherein the transfer member first surface abuts the cutting apparatus. a supply path comprising a fluid flow, a deployed cord supply, a transfer member having a first surface comprising one or more apertures, and a cutting apparatus comprising a cutting implement enabled to sever the deployed cord supply to form a discrete cord; wherein the transfer member houses one or more carriers that are aligned with the apertures and enabled to move in a direction that crosses the aperture path; wherein the fluid flow directs the deployed cord supply towards the transfer member first surface; and wherein the transfer member first surface abuts the cutting apparatus.
A method for manufacturing a heating element, formed by a silicon carbide body, wherein the silicon carbide body comprises an electrically insulating zone and an electrically conductive zone, wherein the silicon carbide is provided as an N-doped silicon carbide in the electrically insulating zone, and wherein the electrically insulating zone and the electrically conductive zone are connected together by sintering in such a way that the silicon carbide body is a monolithic body, and wherein a surface layer of the silicon carbide body is formed by the electrically insulating zone at least in sections, comprising the following process steps: a) preparation of a green compact of sinterable silicon carbide compositions by shaping with the electrically insulating zone of N-doped silicon carbide and the electrically conductive zone provided, b) preparation of the monolithic silicon carbide body by pressureless sintering of the green compact. a) preparation of a green compact of sinterable silicon carbide compositions by shaping with the electrically insulating zone of N-doped silicon carbide and the electrically conductive zone provided, b) preparation of the monolithic silicon carbide body by pressureless sintering of the green compact.