mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising (a) (i) a L1 virus-like particle of human papillomavirus type 16, a L1 VLP of HPV type 18, or a combination thereof; and (ii) a deacylated non-toxic lipooligosaccharide having a molecular weight in a range of 2,000-4,000 Da, which is detoxificated by deacylation of lipid A of lipopolysaccharide isolated from E.coli (Escherichia coli) EG0021 having the Accession Number KCCM 10374, and aluminum hydroxide; and (b) a pharmaceutically acceptable carrier. (a) (i) a L1 virus-like particle of human papillomavirus type 16, a L1 VLP of HPV type 18, or a combination thereof; and (ii) a deacylated non-toxic lipooligosaccharide having a molecular weight in a range of 2,000-4,000 Da, which is detoxificated by deacylation of lipid A of lipopolysaccharide isolated from E.coli (Escherichia coli) EG0021 having the Accession Number KCCM 10374, and aluminum hydroxide; and (b) a pharmaceutically acceptable carrier.
A system comprising: a software defined networking, SDN,, controller, a forwarding device, an endpoint device manager and endpoint devices, wherein the SDN controller comprises: a receiver, configured to receive a route calculation request sent by an endpoint device manager, wherein the route calculation request carries information about endpoint devices that need route calculation; and a processor, configured to: perform route calculation for the endpoint devices that need said route calculation, and control, according to said calculated route information, a forwarding device to perform routing connection for said endpoint devices, upon selection by the SDN controller of a communication path that satisfies a preset communication quality requirement; wherein the information about said endpoint devices is obtained in the following manner: the endpoint device manager receives quality information that is reported by the endpoint devices and obtains, by screening, the identification of the endpoint devices whose communication quality does not satisfy a preset communication quality requirement; or wherein the information about the endpoint devices that need said route calculation is obtained in the following manner: the endpoint device manager receives identification information that is reported by an endpoint device and that identifies the endpoint devices whose communication quality does not satisfy a preset communication quality requirement; a receiver, configured to receive a route calculation request sent by an endpoint device manager, wherein the route calculation request carries information about endpoint devices that need route calculation; and a processor, configured to: perform route calculation for the endpoint devices that need said route calculation, and control, according to said calculated route information, a forwarding device to perform routing connection for said endpoint devices, upon selection by the SDN controller of a communication path that satisfies a preset communication quality requirement; the endpoint device manager receives quality information that is reported by the endpoint devices and obtains, by screening, the identification of the endpoint devices whose communication quality does not satisfy a preset communication quality requirement; or wherein the information about the endpoint devices that need said route calculation is obtained in the following manner: the endpoint device manager receives identification information that is reported by an endpoint device and that identifies the endpoint devices whose communication quality does not satisfy a preset communication quality requirement; the endpoint device manager receives identification information that is reported by an endpoint device and that identifies the endpoint devices whose communication quality does not satisfy a preset communication quality requirement;
A system for tracking a plurality of objects, comprising: a receiver capable of receiving programming instructions from a processing device; for each object to be tracked, a transmitter capable of receiving programming instructions from the processing device and capable of being secured to the object; a selectable coupling configured to facilitate communication between the processing device and the receiver and each transmitter; wherein the transmitter is configured to generate a signal; wherein each receiver configured to receive the signal generated by the transmitter; and wherein each receiver is configured to generate an alert signal when a distance between the transmitter and the receiver is greater than a predetermined value; characterized by a receiver corresponding to each transmitter, the receiver and the corresponding transmitter being configured to receive a unique identifier code, the unique identifier code being assigned to the receiver and the corresponding transmitter, and a wrist band comprising a plurality of slots, each slot for retaining one of each of said receivers and at least one button corresponding to each receiver for selecting features and controlling operations relating thereto. a receiver capable of receiving programming instructions from a processing device; for each object to be tracked, a transmitter capable of receiving programming instructions from the processing device and capable of being secured to the object; a selectable coupling configured to facilitate communication between the processing device and the receiver and each transmitter; wherein the transmitter is configured to generate a signal; wherein each receiver configured to receive the signal generated by the transmitter; and wherein each receiver is configured to generate an alert signal when a distance between the transmitter and the receiver is greater than a predetermined value; characterized by a receiver corresponding to each transmitter, the receiver and the corresponding transmitter being configured to receive a unique identifier code, the unique identifier code being assigned to the receiver and the corresponding transmitter, and a wrist band comprising a plurality of slots, each slot for retaining one of each of said receivers and at least one button corresponding to each receiver for selecting features and controlling operations relating thereto.
A clamping device (100, 400) for an external fixation system for stabilizing or reducing a bone fracture, the clamping device (100, 400) comprising: a post component (114, 414) having a yaw axis (154, 426), a first clamping system (102, 402) secured to the post component (114, 414) and rotatable about the yaw axis (154, 426), the first clamping system (102, 402) comprising a first outer jaw (110a, 410a); a first inner jaw (108a, 408) having an inner surface facing the outer jaw (110a, 408), the outer and inner jaws together forming an opening for receiving a first fixation element of the external fixation system, the first inner jaw (108a, 408) and first outer jaw (110a, 408) having a roll axis (150a, 422) alignable with a longitudinal axis of the fixation element, the clamping system (102, 402) and post component (114, 414) being rotatable about the roll axis (150a, 422), the first inner jaw (108a, 408) also having a cylindrical outer-facing surface; and a first base component (106a, 406a) having a cylindrical concave surface, having a pitch axis (152a, 424), the concave surface of the first base component interfacing with the outer facing component on the inner jaw (108a, 408), the first outer and inner jaws (110a, 410a, 108a, 408) being rotatable relative to the base and the post component about the pitch axis (152a, 424).
Use of a composite material for manufacturing a composition selected from the group consisting of food products, dietary supplements and pharmaceutical compositions, said composite material comprising (a) amyloid fibrils and (b) one or more nanoparticulate nutritional minerals located on the surface of said amyloid fibrils, and where the ratio (a) / (b) is in the range of 20 / 1 to 1 / 1 (w/w). said composite material comprising (a) amyloid fibrils and (b) one or more nanoparticulate nutritional minerals located on the surface of said amyloid fibrils, and where the ratio (a) / (b) is in the range of 20 / 1 to 1 / 1 (w/w).
A device pertaining to a control unit for a motor vehicle, comprising a housing for a carrier substrate on which a memory device is situated, characterised - in that the housing has an externally visible position marking which indicates a location for the memory device within the housing, and - that in the area of the position marking the housing is provided with at least one guide (6, 16, 17, 18) for a perforating tool, such that operation of the perforating tool when placed according to the position marking and guided by said at least one guide is appropriate to rendering the memory device unusable. - in that the housing has an externally visible position marking which indicates a location for the memory device within the housing, and - that in the area of the position marking the housing is provided with at least one guide (6, 16, 17, 18) for a perforating tool,
A method for configuring equalization circuitry of a communication device, the method comprising: determining, for a predefined first value of a tap weight of a decision feedback equalizer, DFE, of the equalization circuitry, whether a predefined error propagation condition occurs; iteratively updating the tap weight according to a predefined scheme, wherein each update of the tap weight occurs responsive to determining that the predefined error propagation condition occurs for a current value of the tap weight; and ceasing the updating of the tap weight responsive to determining a difference between values of the tap weight from adjacent iterations is less than a predefined resolution limit. determining, for a predefined first value of a tap weight of a decision feedback equalizer, DFE, of the equalization circuitry, whether a predefined error propagation condition occurs; iteratively updating the tap weight according to a predefined scheme, wherein each update of the tap weight occurs responsive to determining that the predefined error propagation condition occurs for a current value of the tap weight; and ceasing the updating of the tap weight responsive to determining a difference between values of the tap weight from adjacent iterations is less than a predefined resolution limit.
A recovery system for a treatment tank comprising a hollow main body designed to be positioned fixedly below a treatment tank, a movable basket capable of containing at least one item, such as for example infectious clinical waste, originating from the treatment tank, the main body having on one of its lateral walls an opening configured to allow the passage of the basket, and an extraction means arranged with the basket to allow a translation movement of said basket with respect to the main body through said opening between at least one first position called the storage position, in which the basket is positioned in the interior of the main body and a second position called the extraction position, in which the basket is positioned at least partially at the exterior of the main body, characterized in that the extraction means is arranged with the basket to allow, when the basket is in the second position, a rotation movement of the basket about itself so as to assume a third position, called the drainage position, in which the basket has an inclination allowing at least partial gravity drainage of its content.
A mobile communication device, configured for Non Access Stratum, NAS, signaling low priority, comprising: a wireless module adapted to perform wireless transmissions and receptions to and from a service network; and a controller module adapted to originate an EXTENDED SERVICE REQUEST message for requesting emergency bearer services in an EMM IDLE mode, and adapted to transmit an RRC CONNECTION REQUEST message comprising an establishment cause indicating an emergency case to the service network via the wireless module in response to originating the EXTENDED SERVICE REQUEST message, wherein the emergency bearer services are prioritized in an Access Stratum, AS, layer in response to the establishment cause indicating the emergency case, and wherein the emergency bearer services are further prioritized in a NAS layer in response to a service type, included into the EXTENDED SERVICE REQUEST message having been transmitted to the service network and indicating that the request is for the emergency bearer services, wherein the AS layer and the NAS layer relate to the mobile communication device and the service network and wherein the prioritization of the AS layer and the NAS layer is performed at both the mobile communication device and the service network. a wireless module adapted to perform wireless transmissions and receptions to and from a service network; and a controller module adapted to originate an EXTENDED SERVICE REQUEST message for requesting emergency bearer services in an EMM IDLE mode, and adapted to transmit an RRC CONNECTION REQUEST message comprising an establishment cause indicating an emergency case to the service network via the wireless module in response to originating the EXTENDED SERVICE REQUEST message, wherein the emergency bearer services are prioritized in an Access Stratum, AS, layer in response to the establishment cause indicating the emergency case, and wherein the emergency bearer services are further prioritized in a NAS layer in response to a service type, included into the EXTENDED SERVICE REQUEST message having been transmitted to the service network and indicating that the request is for the emergency bearer services, wherein the AS layer and the NAS layer relate to the mobile communication device and the service network and wherein the prioritization of the AS layer and the NAS layer is performed at both the mobile communication device and the service network.
Device for supporting a roller-blind or a such-like product, said device comprising a base-plate which can be mounted on a vertical and/or horizontal wall, said base-plate being provided with means for supporting an end-portion of a roller-blind, means being provided for adjusting the position of said end-portion, said means comprising at least a screw-like element which can be rotated from the outsude by means of a screw driver or such like, characterized in that said base-plate is provided with a support-plate lying directly or indirectly against it, said support-plate being movable in horizontal direction, as seen in the mounted position of said base-plate, and comprising an obliquely upward extending part, a receiving member being supported by said part and lying as well directly or indirectly against said base-plate and being provided with a sleeve or such like for receiving an end-portion of said roller-blind, means being provided for moving said support-plate, said means being attainable when said roller-blind is present.
An R-Fe-B permanent magnet, wherein the permanent magnet comprises at least a grain boundary and composite main phase grains; the grain boundary comprises an RH-rich phase distributed in the form of an agglomerate within the grain boundary between the composite main phase grains, preferably at the intersection of any adjacent three or more composite main phase grains; the RH-rich phase is continuously distributed along the grain boundary in the form of a thin-layer stripe; RH in the grain boundary has a content greater than that of the RH in the main phase grains, and the RH is at least one selected from heavy rare earth metals such as Dy, Tb, and Ho; the composite main phase grain has a core-shell structure, wherein the core-shell structure comprises a core structure having an R-T-B type phase structure and a shell structure on the outer layer of the core structure; characterized in that the core structure comprises Ce-rich main phase grains and Ce-poor main phase grains; wherein Ce in the Ce-rich main phase grains has a content of 1-15 wt%, and Ce in the Ce-poor main phase grains has a content of 0.1-1 wt%; and the RH-rich phase comprises at least one heavy rare earth metal RH selected from Dy, Tb, and Ho, at least one light rare earth metal RL selected from Pr and Nd, and optionally at least one metal M selected from Ga and Cu. the grain boundary comprises an RH-rich phase distributed in the form of an agglomerate within the grain boundary between the composite main phase grains, preferably at the intersection of any adjacent three or more composite main phase grains; the RH-rich phase is continuously distributed along the grain boundary in the form of a thin-layer stripe; RH in the grain boundary has a content greater than that of the RH in the main phase grains, and the RH is at least one selected from heavy rare earth metals such as Dy, Tb, and Ho; the composite main phase grain has a core-shell structure, wherein the core-shell structure comprises a core structure having an R-T-B type phase structure and a shell structure on the outer layer of the core structure; characterized in that the core structure comprises Ce-rich main phase grains and Ce-poor main phase grains; wherein Ce in the Ce-rich main phase grains has a content of 1-15 wt%, and Ce in the Ce-poor main phase grains has a content of 0.1-1 wt%; and the RH-rich phase comprises at least one heavy rare earth metal RH selected from Dy, Tb, and Ho, at least one light rare earth metal RL selected from Pr and Nd, and optionally at least one metal M selected from Ga and Cu.
A fusion protein comprising: (a) a β-amyloid precursor protein domain, said domain having an activity of selectively inhibiting matrix metalloproteinase-2 and (b) a tissue inhibitor of metalloproteinase-2; wherein said tissue inhibitor of metalloproteinase-2 is located C terminal to said β-amyloid precursor protein domain and: 1 to 10 amino acids are added to the C-terminus of said β-amyloid precursor protein domain, or said tissue inhibitor of metalloproteinase-2 is added to the C-terminus of said β-amyloid precursor protein domain. 1 to 10 amino acids are added to the C-terminus of said β-amyloid precursor protein domain, or said tissue inhibitor of metalloproteinase-2 is added to the C-terminus of said β-amyloid precursor protein domain.
A cooling device (30; 40; 50; 60) for effusion or transpiration cooling, including a cooling element which has a cooling surface facing a gas current, wherein the cooling element is formed from an open-pore material, and wherein a cooling fluid is guidable through the cooling element in a direction transverse to the cooling surface and forms a cooling fluid film on the cooling surface, wherein the cooling element includes, in the direction of incoming flow of the gas current, an end sub-region in which the throughput of cooling fluid per unit surface area of the cooling surface is higher than in the other regions of the cooling element, characterised in that the cooling element is connected, in the direction of incoming flow of the gas current, to a terminal connection element, wherein at least one gap that is open towards the gas current is formed between the cooling element and the terminal connection element.
A method for preparing an artificial hepatocyte comprising the following steps: the differentiation induction step 1 of culturing an iPS cell in a differentiation induction medium I containing activin A, the differentiation induction step 2 of culturing a cell obtained in the differentiation induction step 1 in a differentiation induction medium II containing bone morphogenetic protein 4 and fibroblast growth factor 2; and the differentiation induction step 3 of culturing a cell obtained in the differentiation induction step 2 in a differentiation induction medium III containing hepatocyte growth factor, oncostatin M, dexamethasone, and N,N'-(methylenebis)(4,1-phenylene)diacetamide and 2-N-(5-chloro-2-methylphenyl)(methylsulfonamido)-N-(2,6-difluorophenyl)acetamide to obtain an artificial hepatocyte. the differentiation induction step 1 of culturing an iPS cell in a differentiation induction medium I containing activin A, the differentiation induction step 2 of culturing a cell obtained in the differentiation induction step 1 in a differentiation induction medium II containing bone morphogenetic protein 4 and fibroblast growth factor 2; and the differentiation induction step 3 of culturing a cell obtained in the differentiation induction step 2 in a differentiation induction medium III containing hepatocyte growth factor, oncostatin M, dexamethasone, and N,N'-(methylenebis)(4,1-phenylene)diacetamide and 2-N-(5-chloro-2-methylphenyl)(methylsulfonamido)-N-(2,6-difluorophenyl)acetamide to obtain an artificial hepatocyte.
A method for magnetizing a superconductor bulk magnet, with the following steps: step a) placing the superconductor bulk magnet inside a charger bore of an electrical charger magnet; followed by step b) (206, 216) applying at least one electrical current (I 0) to the charger magnet, thus generating with the charger magnet a magnetic field which is applied to the superconductor bulk magnet from the outside, wherein a temperature T bulk of the superconductor bulk magnet is above a critical temperature T c of the superconductor bulk magnet; followed by step c) (208, 218) lowering the temperature T bulk of the superconductor bulk magnet below the critical temperature T c of the superconductor bulk magnet; followed by step d) (210, 220) turning off the at least one electrical current (I 0) at the charger magnet, wherein T bulk < T c; followed by step e) removing the superconductor bulk magnet from the charger bore and keeping T bulk < T c; characterized by the method further including the steps of step a') placing a field correction unit at least partially inside a superconductor bore of the superconductor bulk magnet, such that a correction coil system of the field correction unit is located at least partially within the superconductor bore; and step b') applying at least one auxiliary electrical current (I 1, I 2, I 3) to the field correction unit, thus generating with the field correction unit an auxiliary magnetic field (53; 63; 73) which is applied to the super-conductor bulk magnet from within the superconductor bore, wherein T bulk > T c, with step a') being performed before step b') and step b') being performed before step c); and step d') turning off the at least one auxiliary electrical current (I 1, I 2, I 3) at the field correction unit, wherein T bulk < T c, with step d') being performed after step c). step a) placing the superconductor bulk magnet inside a charger bore of an electrical charger magnet; followed by step b) (206, 216) applying at least one electrical current (I 0) to the charger magnet, thus generating with the charger magnet a magnetic field which is applied to the superconductor bulk magnet from the outside, wherein a temperature T bulk of the superconductor bulk magnet is above a critical temperature T c of the superconductor bulk magnet; followed by step c) (208, 218) lowering the temperature T bulk of the superconductor bulk magnet below the critical temperature T c of the superconductor bulk magnet; followed by step d) (210, 220) turning off the at least one electrical current (I 0) at the charger magnet, wherein T bulk < T c; followed by step e) removing the superconductor bulk magnet from the charger bore and keeping T bulk < T c;