mhurhangee/patent-ind-claim-en huggingface dataset:
A printing device comprising a media handling system for handling a print medium in the printing device, the media handling system comprising a supporting structure for supporting the print medium, wherein the supporting structure comprises: a transport belt for advancing the print medium; an accessory belt that is to be reversibly placed around the transport belt, wherein a width of the accessory belt (d 1 ) is smaller than a width of the transport belt (d 2 ), the accessory belt comprising: a contact surface that is to come in contact with the print medium, wherein the contact surface comprises a dry adhesive material, wherein the dry adhesive material comprises a plurality of microscopic adhesive structures that are to adhere to the print medium; and a fastener that is to open and close the accessory belt by reversibly joining opposing end portions of the accessory belt; a supporting surface adjacent to an edge of the contact surface, wherein the supporting surface is a surface of the transport belt and is offset, by a distance between 4 mm and 20 mm, from the contact surface in a direction perpendicular to the contact surface and is to support an edge portion of the print medium on the supporting structure. a transport belt for advancing the print medium; an accessory belt that is to be reversibly placed around the transport belt, wherein a width of the accessory belt (d 1 ) is smaller than a width of the transport belt (d 2 ), the accessory belt comprising: a contact surface that is to come in contact with the print medium, wherein the contact surface comprises a dry adhesive material, wherein the dry adhesive material comprises a plurality of microscopic adhesive structures that are to adhere to the print medium; and a fastener that is to open and close the accessory belt by reversibly joining opposing end portions of the accessory belt; a contact surface that is to come in contact with the print medium, wherein the contact surface comprises a dry adhesive material, wherein the dry adhesive material comprises a plurality of microscopic adhesive structures that are to adhere to the print medium; and a fastener that is to open and close the accessory belt by reversibly joining opposing end portions of the accessory belt; a supporting surface adjacent to an edge of the contact surface, wherein the supporting surface is a surface of the transport belt and is offset, by a distance between 4 mm and 20 mm, from the contact surface in a direction perpendicular to the contact surface and is to support an edge portion of the print medium on the supporting structure.
Differential-pressure sensor for measuring the pressure in an exhaust pipe of a combustion engine, comprising: - a pressure-sensitive element , - a printed circuit comprising an opening closed by the pressure-sensitive element and electronic components electrically connected to the pressure-sensitive element by means of electrical connections , - a protective housing comprising a cavity in which the printed circuit and the pressure-sensitive element are housed, said protective housing comprising a first pressure inlet and a second pressure inlet , - the printed circuit being an epoxy resin printed circuit, - the pressure sensor comprising a solid material partially filling the cavity of the protective housing and encapsulating the printed circuit so as to insulate the external surface (11 and 32) thereof from the exhaust gases and so as to form two pressure pathways insulated from one another by the solid material , these being a first pressure pathway , which connects the first pressure inlet to the lower surface of the pressure-sensitive element , and a second pressure pathway , which connects the second pressure inlet to the upper surface of the pressure-sensitive element , the solid material being an injected epoxy resin characterized in that it also comprises: - a sensitive-element support comprising a casing supported by the printed circuit and comprising an upper opening and a lower opening which is closed by the pressure-sensitive element , said lower opening being extended by a tube inserted into the opening of the printed circuit . - a pressure-sensitive element , - a printed circuit comprising an opening closed by the pressure-sensitive element and electronic components electrically connected to the pressure-sensitive element by means of electrical connections , - a protective housing comprising a cavity in which the printed circuit and the pressure-sensitive element are housed, said protective housing comprising a first pressure inlet and a second pressure inlet , - the printed circuit being an epoxy resin printed circuit, - the pressure sensor comprising a solid material partially filling the cavity of the protective housing and encapsulating the printed circuit so as to insulate the external surface (11 and 32) thereof from the exhaust gases and so as to form two pressure pathways insulated from one another by the solid material , these being a first pressure pathway , which connects the first pressure inlet to the lower surface of the pressure-sensitive element , and a second pressure pathway , which connects the second pressure inlet to the upper surface of the pressure-sensitive element , the solid material being an injected epoxy resin - a sensitive-element support comprising a casing supported by the printed circuit and comprising an upper opening and a lower opening which is closed by the pressure-sensitive element , said lower opening being extended by a tube inserted into the opening of the printed circuit .
A non-naturally occurring composition comprising: a) a CRISPR-RNA (crRNA), wherein the crRNA is a single stranded RNA comprising: a tag region comprising at least 5 to no greater than 12 nucleotides, and a guide region comprising a nucleotide sequence of at least 15 nucleotides, wherein the tag region is immediately upstream of the guide region; b) a Cmr complex, wherein the Cmr complex comprises at least 4 proteins comprising Cmr2, Cmr3, Cmr4, and Cmr5, wherein the Cmr4 protein comprises a mutation that reduces the RNase activity of the Cmr complex; and c) an activating RNA (actRNA), wherein the actRNA is a single stranded RNA comprising: a target region comprising a nucleotide sequence of at least 12 nucleotides, wherein the nucleotide sequence of the target region is complementary to at least a portion of the guide region of the crRNA, and a PAM region immediately downstream of the target region, wherein the PAM comprises a sequence 5'-NGN, 5'-NNG, 5'-NAA, or 5'-NAC, wherein N is A, U, G, or C. a) a CRISPR-RNA (crRNA), wherein the crRNA is a single stranded RNA comprising: a tag region comprising at least 5 to no greater than 12 nucleotides, and a guide region comprising a nucleotide sequence of at least 15 nucleotides, wherein the tag region is immediately upstream of the guide region; b) a Cmr complex, wherein the Cmr complex comprises at least 4 proteins comprising Cmr2, Cmr3, Cmr4, and Cmr5, wherein the Cmr4 protein comprises a mutation that reduces the RNase activity of the Cmr complex; and c) an activating RNA (actRNA), wherein the actRNA is a single stranded RNA comprising: a target region comprising a nucleotide sequence of at least 12 nucleotides, wherein the nucleotide sequence of the target region is complementary to at least a portion of the guide region of the crRNA, and a PAM region immediately downstream of the target region, wherein the PAM comprises a sequence 5'-NGN, 5'-NNG, 5'-NAA, or 5'-NAC, wherein N is A, U, G, or C. a target region comprising a nucleotide sequence of at least 12 nucleotides, wherein the nucleotide sequence of the target region is complementary to at least a portion of the guide region of the crRNA, and a PAM region immediately downstream of the target region, wherein the PAM comprises a sequence 5'-NGN, 5'-NNG, 5'-NAA, or 5'-NAC, wherein N is A, U, G, or C.
An apparatus comprising: a remote optically pumped amplifier (ROPA) (200, 300, 400, 500, 600, 700, 800, 900, 1014, 1018, 1308a-1308m) comprising: a bypass filter configured to receive an optical signal and first remote pump signal and to separate the optical signal and the first remote pump signal; an amplifier configured to receive the optical signal from the bypass filter and to amplify the optical signal; and characterised by an optical combiner/multiplexer (208, 308, 402-404, 502-504, 602-604, 702-704, 808, 908, 1102c, 1120) configured to receive: the first remote pump signal from the bypass filter , receive at least second and third remote pump signals, combine at least two of the first, second and third remote pump signals, and provide said different remote pump signals or combinations of said remote pump signals to different locations within the ROPA (200, 300, 400, 500, 600, 700, 800, 900, 1014, 1018, 1308a-1308m) to feed the amplifier . a bypass filter configured to receive an optical signal and first remote pump signal and to separate the optical signal and the first remote pump signal; an amplifier configured to receive the optical signal from the bypass filter and to amplify the optical signal; and characterised by an optical combiner/multiplexer (208, 308, 402-404, 502-504, 602-604, 702-704, 808, 908, 1102c, 1120) configured to receive: the first remote pump signal from the bypass filter , receive at least second and third remote pump signals, combine at least two of the first, second and third remote pump signals, and provide said different remote pump signals or combinations of said remote pump signals to different locations within the ROPA (200, 300, 400, 500, 600, 700, 800, 900, 1014, 1018, 1308a-1308m) to feed the amplifier .
An immunocytokine comprising: (a) a human interferon-beta mutein; and (b) an antibody that is directly or indirectly covalently linked to the human interferon-beta mutein, wherein the human interferon-beta mutein is an interferon-beta mutein having the amino acid sequence of SEQ ID NO: 2, has human interferon-beta activity, and comprises an N-linked glycan.
Device for sealing a bearing housing , which accommodates lubricating oil, of an exhaust-gas turbocharger having a rotor which is guided through the bearing housing into an adjoining compressor housing which can be charged with a mass flow, comprising an intermediate wall which separates a large oil space , surrounded by the bearing housing, and a wheel-rear-side chamber of the compressor housing from one another and which has an axially extending wall projection which is led annularly around the rotor, an annular sealing disc which is fastened to a shaft of the rotor and which protrudes into the large oil space , a first parting gap which is arranged between the sealing disc and the wall projection , a seal arranged between rotor and intermediate wall , wherein a predominantly axially extending cover is arranged in the large oil space , wherein the cover is offset radially outwards in relation to the axially extending wall projection and, together with the sealing disc , divides the large oil space into an inner oil-collecting chamber and an outer oil-collecting chamber , characterized in that the cover has a first predominantly axially extending portion and a second predominantly axially extending portion, wherein the first predominantly axially extending portion extends from the intermediate wall in the direction of the sealing disc into the large oil space , wherein the second predominantly axially extending portion has a greater radial spacing to the axis (A) of the rotor than the first predominantly axially extending portion and shields the outer edge of the sealing disc radially from the outside, wherein the first and the second predominantly axially extending portion are connected to one another by a predominantly radially extending portion of the cover , and wherein a second parting gap is arranged between the sealing disc and the predominantly radially extending portion and the second predominantly axially extending portion of the cover .
An online extracorporeal photopheresis system comprising: (a) a disposable fluid circuit comprising: i. a processing chamber for separating whole blood into one or more components including mononuclear cells, ii. at least one storage container adapted to receive mononuclear cells wherein at least a portion of said container is transparent to light of a selected wavelength, (b) a separation device adapted to receive said processing chamber for effecting separation of said mononuclear cells from whole blood, the processing chamber being mounted thereon, (c) an irradiation device housed separately from said separation device , and adapted to receive said mononuclear cell storage container for treating said mononuclear cells with a selected dose of light, the storage container being mounted thereon; (d) a micro-processor based separate controller associated with each of the separation device and the irradiation device , so that operation of both the separation device and the irradiation device can be controlled by its associated controller; wherein said disposable fluid circuit provides a sterile closed pathway between the separation chamber mounted in said separation device and said storage container mounted in irradiation device . (a) a disposable fluid circuit comprising: i. a processing chamber for separating whole blood into one or more components including mononuclear cells, ii. at least one storage container adapted to receive mononuclear cells wherein at least a portion of said container is transparent to light of a selected wavelength, i. a processing chamber for separating whole blood into one or more components including mononuclear cells, ii. at least one storage container adapted to receive mononuclear cells wherein at least a portion of said container is transparent to light of a selected wavelength, (b) a separation device adapted to receive said processing chamber for effecting separation of said mononuclear cells from whole blood, the processing chamber being mounted thereon, (c) an irradiation device housed separately from said separation device , and adapted to receive said mononuclear cell storage container for treating said mononuclear cells with a selected dose of light, the storage container being mounted thereon; (d) a micro-processor based separate controller associated with each of the separation device and the irradiation device , so that operation of both the separation device and the irradiation device can be controlled by its associated controller; wherein said disposable fluid circuit provides a sterile closed pathway between the separation chamber mounted in said separation device and said storage container mounted in irradiation device .
A method for adjusting a queue of broadcast receiving applications, characterized by comprising: acquiring a historical parameter of any broadcast receiving application, wherein the broadcast receiving application is arranged in a first queue of broadcast receiving applications; determining whether the historical parameter meets a first predefined condition; generating a second queue of broadcast receiving applications, when the historical parameter of a first target broadcast receiving application in the first queue of broadcast receiving applications meets the first predefined condition; and moving the first target broadcast receiving application to the second queue of broadcast receiving applications, such that the first target broadcast receiving application in the second queue processes broadcast messages in parallel with other broadcast receiving applications rather than the first target broadcast receiving application in the first queue, while the other broadcast receiving applications in the first queue process the broadcast messages in sequence. acquiring a historical parameter of any broadcast receiving application, wherein the broadcast receiving application is arranged in a first queue of broadcast receiving applications; determining whether the historical parameter meets a first predefined condition; generating a second queue of broadcast receiving applications, when the historical parameter of a first target broadcast receiving application in the first queue of broadcast receiving applications meets the first predefined condition; and moving the first target broadcast receiving application to the second queue of broadcast receiving applications, such that the first target broadcast receiving application in the second queue processes broadcast messages in parallel with other broadcast receiving applications rather than the first target broadcast receiving application in the first queue, while the other broadcast receiving applications in the first queue process the broadcast messages in sequence.
Heating device, having a heating unit for heating a liquid, a flow line connected to the aforesaid heating unit for conducting liquid via a connectable central heating line having at least one heat consumer connected thereto, a return line connected to the aforesaid heating unit for returning the cooled liquid from the heat consumer out of the central heating line , a domestic water supply line , a filling line connected to the domestic water supply line , the flow line or the return line for the purpose of feeding tap water in, a filling valve for controlling the liquid flow through the filling line, an expansion tank connected to the connectable central heating line , a pressure sensor attached to the flow line or the return line for determining the liquid pressure, and a monitoring unit connected to the aforesaid pressure sensor for evaluating the measured data obtained from the pressure sensor when the filling valve is open; characterized in that the monitoring unit is configured in such a way that, for the case in which the pressure measurements evaluated by the monitoring unit deviate from at least one previously defined scheme, the monitoring unit detects this and displays a message relating to the fault via a user interface connected to the monitoring unit .
A wind turbine , comprising a generator for converting wind energy into electrical energy, a hydrogen production system for producing hydrogen by means of the electrical energy, a first auxiliary group of electrical consumers (22 - 24), a second auxiliary group of electrical consumers (27 - 29), an auxiliary power network for powering the first auxiliary group and the second auxiliary group , and a power conditioning device for providing power to the hydrogen production system as well as to the auxiliary power network , wherein only the first auxiliary group can be electrically disconnected from the auxiliary power network by means of one or a plurality of switch disconnectors to reduce the energy consumption of the auxiliary power network .
A rare earth sintered magnet in the form of an anisotropic sintered body comprising Nd 2 Fe 14 B crystal phase as primary phase and having the composition R 1 a T b M c Al f Si ci B e , wherein R 2 which is one or both of Dy and Tb is diffused into the anisotropic sintered body from its surface, wherein R 1 is at least one element selected from rare earth elements, Sc and Y, T is one or both of Fe and Co, M is at least one element selected from the group consisting of Cu, Zn, In, P, S, Ti, V, Cr, Mn, Ni, Ga, Ge, Zr, Nb, Mo, Pd, Ag, Cd, Sn, Sb, Hf, Ta, and W, Al is aluminium, Si is silicon, B is boron, "a" to "f" indicative of atomic percent in the alloy are in the range: 12 ≤ a ≤ 17, 0 ≤ c ≤ 5, 0.3 ≤ f ≤ 10, 5 ≤ e ≤ 10, the balance of b, and characterised in that 0.6 ≤ d ≤ 7.
A miR-92a inhibitor compound for use in the prevention or the treatement of extracapillary glomerulonephritis in a subject in need thereof, wherein said miR-92a inhibitor compound is a nucleic acid that hybridizes with miR-92a.
An installation aid adapted for use when mounting a window frame in a roof structure of a building, said installation aid comprising a plate portion adapted for being arranged on an exterior side of the roof structure , so that it extends in parallel with the plane of the roof structure, wherein the plate portion has an interior side adapted to face the roof structure in the mounted state and an exterior side adapted to face the exterior, the plate portion having a thickness measured from the interior side to the exterior side, a length in a direction substantially parallel to the interior side and/or exterior side, and a width in a direction perpendicular to the length direction and substantially parallel to the interior side and/or exterior side, wherein the plate portion has top, bottom and side members defining an inner edge and an outer edge opposite the inner edge, where said inner edge defines an opening at least when the installation aid is in the mounted condition, where said plate portion is adapted for surrounding a window frame by the inner edge, and where shape and size of the opening substantially matches the shape and size of the window frame, at least when the installation aid is in the mounted condition, said installation aid being characterised in that the plate portion comprises at least one receiving section adapted for accommodating a mounting bracket of the window frame, and in that the at least one receiving section comprises a section of reduced material thickness, said section of reduced material thickness is achieved either by compression of the material, by removal of material, or by using less material.
A process for the preparation of an enriched ethylene oxide stream comprising the steps of: (a) providing a rich cycle water stream containing ethylene oxide, methane, and ethylene; (b) separating, in a flash drum , a light gas solute vapor from the rich cycle water stream; (c) directing upwardly the light gas solute vapor through an opening in the flash drum allowing fluid communication to an absorber affixed to the top surface of the flash drum to form the absorber overhead; (d) pumping the rich cycle water from a liquid bottoms of the flash drum to a stripper , the rich cycle water in the liquid bottoms of the flash drum containing from about 1.5 mol% to about 4 mol% ethylene oxide; and (e) separating, in the stripper , the rich cycle water into: an enriched overhead stripper stream comprising at least about 40 mol% ethylene oxide; and a lean cycle water solution in the stripper bottoms containing about 1 to about 50 molar ppm ethylene oxide in the stripper bottoms. (a) providing a rich cycle water stream containing ethylene oxide, methane, and ethylene; (b) separating, in a flash drum , a light gas solute vapor from the rich cycle water stream; (c) directing upwardly the light gas solute vapor through an opening in the flash drum allowing fluid communication to an absorber affixed to the top surface of the flash drum to form the absorber overhead; (d) pumping the rich cycle water from a liquid bottoms of the flash drum to a stripper , the rich cycle water in the liquid bottoms of the flash drum containing from about 1.5 mol% to about 4 mol% ethylene oxide; and (e) separating, in the stripper , the rich cycle water into: an enriched overhead stripper stream comprising at least about 40 mol% ethylene oxide; and a lean cycle water solution in the stripper bottoms containing about 1 to about 50 molar ppm ethylene oxide in the stripper bottoms.