mhurhangee/ep-ind-claims huggingface dataset:
Valve bag having side walls and a bottom of a tube-shaped filling device and in addition at least a ventilation device of type - wherein the to the exterior bag pointing surface of the filling device is partially connected in a form-fit manner to the to the interior of the bag pointing surface of the ventilation device, so that a part of the to the interior of the bag pointing surface of the ventilation device forms the inner bottom surface of the valve bag in this area and - the ventilation device of type forms a ventilation chamber along the bottom, wherein this venting chamber is closed at the side of the filling device and characterized in that the valve bag has at least a venting device of type in form of a pocket opening to the interior of the bag, which is arranged in the same corner folding as the filling device between the bottom fold and the two flaps (11,12), formed by the side walls of the bag, and the pocket is made of a rectangular, air- and/or gas-permeable material with a folding parallel to the side border (29,30) of the rectangular material with two closed sides perpendicular to the folding, so that the pocket has three closed corners and on the fourth side an opening parallel to the folding. - wherein the to the exterior bag pointing surface of the filling device is partially connected in a form-fit manner to the to the interior of the bag pointing surface of the ventilation device, so that a part of the to the interior of the bag pointing surface of the ventilation device forms the inner bottom surface of the valve bag in this area and - the ventilation device of type forms a ventilation chamber along the bottom, wherein
An assay method for a gene fragment of interest comprising: amplifying at least one gene fragment of interest comprising or potentially comprising at least one SNP region of interest to form an initial amplification product; forming at least one single strand amplification product from the initial amplification product, wherein the single strand amplification product either comprises or potentially comprises the at least one SNP region of interest; hybridizing in solution the single strand amplification product with at least one reporter molecule which comprises at least two, different domains of oligonucleotide, wherein a first domain of oligonucleotide is for hybridization with the single strand amplification product and is for detection of the SNP, and wherein the second domain of oligonucleotide is for hybridization to at least one microarray probe surface, wherein the microarray probe surface comprises at least one capture probe to allow for hybridization, wherein the hybridization step comprises application of a temperature gradient covering at least two different hybridization temperatures; contacting the solution of the hybridized single strand amplification product with the at least one microarray probe surface which comprises at least one capture probe to allow for hybridization; detecting for the presence of the hybridized single strand amplification product on the microarray surface. amplifying at least one gene fragment of interest comprising or potentially comprising at least one SNP region of interest to form an initial amplification product; forming at least one single strand amplification product from the initial amplification product, wherein the single strand amplification product either comprises or potentially comprises the at least one SNP region of interest; hybridizing in solution the single strand amplification product with at least one reporter molecule which comprises at least two, different domains of oligonucleotide, wherein a first domain of oligonucleotide is for hybridization with the single strand amplification product and is for detection of the SNP, and wherein the second domain of oligonucleotide is for hybridization to at least one microarray probe surface, wherein the microarray probe surface comprises at least one capture probe to allow for hybridization, wherein the hybridization step comprises application of a temperature gradient covering at least two different hybridization temperatures; contacting the solution of the hybridized single strand amplification product with the at least one microarray probe surface which comprises at least one capture probe to allow for hybridization; detecting for the presence of the hybridized single strand amplification product on the microarray surface.
A method for designing at least one telescopic double crown for a patient comprising an internal crown and an external crown, where the internal crown is defined as a primary part and the external crown is defined as a secondary removable part, wherein the method comprises the steps of: - providing a 3D scan of the patient's teeth; - virtually designing the primary part using a computer; - virtually designing the secondary part using a computer; and - automatically generating the external surface of the primary part and the internal surface of the secondary part to have matching shapes using a data processing system, where at least a region of the external surface of the primary part and the corresponding region of the internal surface of the secondary part are substantially straight having the same well-defined angle characterised in that the method further comprises the steps of: - producing the primary part - providing a 3D scan of the external surface of the produced primary part, - using the external surface of the produced primary part to generate matching shapes of the external surface of the primary part and the internal surface of the secondary part. - providing a 3D scan of the patient's teeth; - virtually designing the primary part using a computer; - virtually designing the secondary part using a computer; and - automatically generating the external surface of the primary part and the internal surface of the secondary part to have matching shapes using a data processing system, - producing the primary part - providing a 3D scan of the external surface of the produced primary part, - using the external surface of the produced primary part to generate matching shapes of the external surface of the primary part and the internal surface of the secondary part.
A liquid surfactant concentrate comprising: (i) 20-87% by weight of a primary or secondary fatty alcohol alkoxylate of formula: (ii) 3-50% by weight of at least one nonionic surfactant alkoxylate of formulas, and (iii) 10-70% by weight water; wherein the percent by weight is based on the total weight of the fatty alcohol alkoxylate plus nonionic surfactant alkoxylate plus water and wherein R is a linear or branched, saturated or unsaturated hydrocarbon group having from 6 to 24 carbon atoms; R 0 is a linear or branched, saturated or unsaturated hydrocarbon group having from 6 to 24 carbon atoms or hydrogen; Z is an alkylene group having 2 to 4 carbon atoms; n is the alkylene oxide content ranging from 10 to 100 moles; R 1 is a fatty acid hydrocarbon chain containing from 5 to 21 carbon atoms; m and p+q are alkylene oxide contents ranging from 4 to 12 moles. (i) 20-87% by weight of a primary or secondary fatty alcohol alkoxylate of formula: (ii) 3-50% by weight of at least one nonionic surfactant alkoxylate of formulas, and (iii) 10-70% by weight water;
A method executed by a Neutral Host Network, NHN, to provide access services to connecting Wireless Devices, WD, with a Service Provider, SP, the method comprising: in the NHN, executing a first authentication for access between a connecting WD and the Service Provider, SP, based on first authentication information received from the WD; receiving information about a remote gateway, RG, from the SP, wherein the information includes at least an address of the RG and authentication instructions for the WD; providing the address of the RG and the authentication instructions to the WD, wherein the authentication instructions indicate to the WD that the WD needs to authenticate itself to the RG for a second authentication for a session with the RG; receiving second authentication information from the WD and forwarding the second authentication information to the RG, wherein the second authentication authenticates the WD with the SP, such that the SP can associate data transmitted through the RG with the appropriate WD; providing access service for the WD including forwarding data received from the WD to the indicated RG address; and forwarding WD associated data received from the RG address to the WD. in the NHN, executing a first authentication for access between a connecting WD and the Service Provider, SP, based on first authentication information received from the WD; receiving information about a remote gateway, RG, from the SP, wherein the information includes at least an address of the RG and authentication instructions for the WD; providing the address of the RG and the authentication instructions to the WD, wherein the authentication instructions indicate to the WD that the WD needs to authenticate itself to the RG for a second authentication for a session with the RG; receiving second authentication information from the WD and forwarding the second authentication information to the RG, wherein the second authentication authenticates the WD with the SP, such that the SP can associate data transmitted through the RG with the appropriate WD; providing access service for the WD including forwarding data received from the WD to the indicated RG address; and forwarding WD associated data received from the RG address to the WD.
A method of operating a cellular communications network and mobile user equipment, UE, in the network, the cellular network including a plurality of tracking areas, TAs, the method comprising: registering the UE with the network for operation within a registration area defined by a plurality of TAs; transmitting from the network to the UE a first list identifying a plurality of the TAs defining the registration area, wherein transmitting the first list includes transmitting a signalling S1 interface message including the first list to an E-Universal Terrestrial Radio Access Network, E-UTRAN, Node B, eNB; adjusting a size of the first list to fit inside the S1 interface message. registering the UE with the network for operation within a registration area defined by a plurality of TAs; transmitting from the network to the UE a first list identifying a plurality of the TAs defining the registration area, wherein transmitting the first list includes transmitting a signalling S1 interface message including the first list to an E-Universal Terrestrial Radio Access Network, E-UTRAN, Node B, eNB; adjusting a size of the first list to fit inside the S1 interface message.
A method for determining parameters in a model of a transmission line comprising basic transmission line parameters comprising a basic resistive transmission line parameter R v (y), a basic capacitive transmission line parameter C ∞ (y) and a basic inductive transmission line parameter L ∞ (y), the method comprising the steps of: obtaining (36; 44) measurements of the line comprising reflection coefficient defining data and the total line capacitance y (d) and characterised by introducing a capacitive length as the capacitance integrated along the whole length of the transmission line, estimating a model value r m (0,w) of the reflection coefficient using a differential equation that is based on the basic transmission line parameters and the capacitive length, applying (38; 58), in an objective function J(p) for the line, true reflection coefficients r t (w) obtained through said reflection coefficient defining data, said objective function comprising a sum of error signals, each error signal comprising the difference between the model value r m (0,w) of the reflection coefficient and a corresponding true reflection coefficient r t (w), minimising (40; 60) the objective function by utilizing gradients of the objective function with respect to the transmission line parameters to be determined and employing the capacitive length y(x), and determining (42; 46) at least two further transmission line parameters p 1 (y), p 2 (y) as combinations of the basic transmission line parameters in the transmission line model. obtaining (36; 44) measurements of the line comprising reflection coefficient defining data and the total line capacitance y (d) and characterised by introducing a capacitive length as the capacitance integrated along the whole length of the transmission line, estimating a model value r m (0,w) of the reflection coefficient using a differential equation that is based on the basic transmission line parameters and the capacitive length, applying (38; 58), in an objective function J(p) for the line, true reflection coefficients r t (w) obtained through said reflection coefficient defining data, said objective function comprising a sum of error signals, each error signal comprising the difference between the model value r m (0,w) of the reflection coefficient and a corresponding true reflection coefficient r t (w), minimising (40; 60) the objective function by utilizing gradients of the objective function with respect to the transmission line parameters to be determined and employing the capacitive length y(x), and determining (42; 46) at least two further transmission line parameters p 1 (y), p 2 (y) as combinations of the basic transmission line parameters in the transmission line model.
Composition comprising, particularly in a cosmetically acceptable medium: a) at least one aqueous phase; and b) composite particles with a number-average elementary size greater than 0.1 μm comprising: i) a perlite matrix, ii) at least one inorganic UV filter, and iii) a silica coating, said silica representing at least 1% by weight relative to the total weight of the composite particle. a) at least one aqueous phase; and b) composite particles with a number-average elementary size greater than 0.1 μm comprising: i) a perlite matrix, ii) at least one inorganic UV filter, and iii) a silica coating, said silica representing at least 1% by weight relative to the total weight of the composite particle. i) a perlite matrix, ii) at least one inorganic UV filter, and iii) a silica coating, said silica representing at least 1% by weight relative to the total weight of the composite particle.
An apparatus comprising a network function of a core network of a wireless communication network, the network function comprising at least one processor and at least one memory including computer program code, wherein the at least one memory and the computer program code are configured, with the at least one processor, to cause the apparatus to perform: receiving a single request for locations of a plurality of user equipments, UEs, for communicating in the wireless communication network, said request comprising a group identifier for identifying said plurality of UEs; checking whether each of two or more UEs of said identified plurality of UEs has been registered on the network; in response to determining that at least one UE of the two or more UEs has been registered on the network, determining and reporting at least one location for the at least one UE determined to be registered on the network; characterized in that the at least one memory and the computer program code are configured, with the at least one processor, to cause the apparatus to: in response to determining that at least one UE of the two or more UEs has not been registered on the network, storing in memory of the network function at least one indication of at least one pending request for at least one location of the at least one UE not registered on the network. receiving a single request for locations of a plurality of user equipments, UEs, for communicating in the wireless communication network, said request comprising a group identifier for identifying said plurality of UEs; checking whether each of two or more UEs of said identified plurality of UEs has been registered on the network; in response to determining that at least one UE of the two or more UEs has been registered on the network, determining and reporting at least one location for the at least one UE determined to be registered on the network; characterized in that the at least one memory and the computer program code are configured, with the at least one processor, to cause the apparatus to: in response to determining that at least one UE of the two or more UEs has not been registered on the network, storing in memory of the network function at least one indication of at least one pending request for at least one location of the at least one UE not registered on the network.
A method of measuring the molecular weight of a sample in a gas state, comprising the steps of: letting a sample in a gas state to be measured impinge on a structure to effect a change in a characteristic of the structure, the change in a characteristic being a deflection; and obtaining the molecular weight of the sample in a gas state based on the amount of the change, wherein a drag force F D by the sample in a gas state is calculated based on the amount of the deflection of the structure; and the molecular weight M of the gas is obtained based on the following approximation mathematical formula: F D = PV 2 C D A 2 RT M wherein, in the approximation mathematical formula, R is a gas constant, T is a temperature of the gas, P is a pressure of the gas, V is a relative velocity of the gas, C D is a drag coefficient, and A is a surface area on which the drag force is applied. letting a sample in a gas state to be measured impinge on a structure to effect a change in a characteristic of the structure, the change in a characteristic being a deflection; and obtaining the molecular weight of the sample in a gas state based on the amount of the change, wherein a drag force F D by the sample in a gas state is calculated based on the amount of the deflection of the structure; and the molecular weight M of the gas is obtained based on the following approximation mathematical formula: F D = PV 2 C D A 2 RT M wherein, in the approximation mathematical formula, R is a gas constant, T is a temperature of the gas, P is a pressure of the gas, V is a relative velocity of the gas, C D is a drag coefficient, and A is a surface area on which the drag force is applied.
A frozen storage container configured for storing a biological sample or drug, and configured to be cooled by liquid nitrogen, comprising: a container body with an internal space; and a partition wall which divides the internal space of the container body at least into a first space and a second space, wherein in the container body, the first space is liquid-tightly sealed and the second space has an opening which is in communication with the outside, and wherein the second space is configured for receiving the biological sample or drug and is liquid-tightly sealable by welding the container body, wherein the partition wall includes: a tubular portion which is capable of being inserted into the internal space of the container body; and a wall portion which divides an internal space of the tubular portion along a direction intersecting an axial direction of the tubular portion, and wherein the partition wall has been inserted into the internal space of the container body, and the tubular portion has been welded to the container body. a container body with an internal space; and a partition wall which divides the internal space of the container body at least into a first space and a second space, wherein in the container body, the first space is liquid-tightly sealed and the second space has an opening which is in communication with the outside, and wherein the second space is configured for receiving the biological sample or drug and is liquid-tightly sealable by welding the container body, wherein the partition wall includes: a tubular portion which is capable of being inserted into the internal space of the container body; and a wall portion which divides an internal space of the tubular portion along a direction intersecting an axial direction of the tubular portion, a tubular portion which is capable of being inserted into the internal space of the container body; and a wall portion which divides an internal space of the tubular portion along a direction intersecting an axial direction of the tubular portion, and wherein the partition wall has been inserted into the internal space of the container body, and the tubular portion has been welded to the container body.
A process for preparing a CL2A-SN-38 compound, comprising: (a) derivatizing an SN-38 drug with a first linker, wherein the first linker contains a reactive moiety that is capable of combining with a second linker, a PEG moiety comprising 8 monomeric subunits, a lysine amino acid spacer between the drug and the first linker, and a carbonate intracellularly-cleavable moiety, which is cleavable by intracellular peptidases or cleavable by the low pH environment of endosomal and lysosomal vesicles; (b) providing a second linker, which contains a targeting-moiety-coupling group, which is a maleimide group, and further contains a reactive group capable of reacting with the drug-first linker conjugate; and (c) reacting the second linker with the drug-first linker conjugate by a copper (+1) ion-catalyzed acetylene-azide cycloaddition reaction, to produce a compound having a structure represented by: (a) derivatizing an SN-38 drug with a first linker, wherein the first linker contains a reactive moiety that is capable of combining with a second linker, a PEG moiety comprising 8 monomeric subunits, a lysine amino acid spacer between the drug and the first linker, and a carbonate intracellularly-cleavable moiety, which is cleavable by intracellular peptidases or cleavable by the low pH environment of endosomal and lysosomal vesicles; (b) providing a second linker, which contains a targeting-moiety-coupling group, which is a maleimide group, and further contains a reactive group capable of reacting with the drug-first linker conjugate; and (c) reacting the second linker with the drug-first linker conjugate by a copper (+1) ion-catalyzed acetylene-azide cycloaddition reaction, to produce a compound having a structure represented by: