mhurhangee/ep-ind-claims huggingface dataset:
An authoritative computer network comprising: at least one manager user; wherein the manager user is a node or device; a plurality of subordinate users; wherein the subordinate user is a node or device; and access control means adapted to allow the manager user to control access of one or more subordinate users to the authoritative computer network, wherein: the access control means comprises user validation data which is required to access the authoritative computer network, the user validation data comprises a user identifier and a user name assigned to a subordinate user, wherein the user validation data is generated by the manager user and transmitted from the manager user to the subordinate user, the access control means is configured to derive a salt from the user identifier and the user name, the access control means is configured to generate a unique identifier using a combination of the user name and the salt, the combination is hashed, and the authoritative computer network is provided as an overlay network on or within a distributed network. at least one manager user; wherein the manager user is a node or device; a plurality of subordinate users; wherein the subordinate user is a node or device; and access control means adapted to allow the manager user to control access of one or more subordinate users to the authoritative computer network, wherein: the access control means comprises user validation data which is required to access the authoritative computer network, the user validation data comprises a user identifier and a user name assigned to a subordinate user, wherein the user validation data is generated by the manager user and transmitted from the manager user to the subordinate user, the access control means is configured to derive a salt from the user identifier and the user name, the access control means is configured to generate a unique identifier using a combination of the user name and the salt, the combination is hashed, and the authoritative computer network is provided as an overlay network on or within a distributed network. the access control means comprises user validation data which is required to access the authoritative computer network, the user validation data comprises a user identifier and a user name assigned to a subordinate user, wherein the user validation data is generated by the manager user and transmitted from the manager user to the subordinate user, the access control means is configured to derive a salt from the user identifier and the user name, the access control means is configured to generate a unique identifier using a combination of the user name and the salt, the combination is hashed, and the authoritative computer network is provided as an overlay network on or within a distributed network.
A gas blower comprising: a housing having a receiving space and receiving a fan wheel inside the receiving space, wherein the housing has an inlet and an outlet in communication with the receiving space; a motor having a base and a shaft, wherein the base couples with the housing, and wherein the shaft rotatably couples with the base and firmly connects with the fan wheel; and a resilient sealing member arranged between the housing and the base and being in a ring shape, wherein the resilient sealing member has a central through hole for the shaft to extend through, as well as a radial extending portion extending in radial directions of the shaft, wherein the radial extending portion is in a disk shape and comprises a first surface and a second surface opposite to the first surface, and wherein the first and second surfaces (321 and 322) abut with the housing and the base, respectively, wherein the resilient sealing member has an annular flange on one of the first and second surfaces (321 and 322), and wherein the one of the first and second surfaces (321 and 322) having the annular flange abuts with the housing or the base through the annular flange, wherein the gas blower is characterized in that: the annular flange is arranged at an outer free edge of the radial extending portion away from the central through hole, wherein the shaft has an engaging groove, and wherein a fixing plate is disposed in the housing and is coupled with the fan wheel and the engaging groove. a housing having a receiving space and receiving a fan wheel inside the receiving space, wherein the housing has an inlet and an outlet in communication with the receiving space; a motor having a base and a shaft, wherein the base couples with the housing, and wherein the shaft rotatably couples with the base and firmly connects with the fan wheel; and a resilient sealing member arranged between the housing and the base and being in a ring shape, wherein the resilient sealing member has a central through hole for the shaft to extend through, as well as a radial extending portion extending in radial directions of the shaft, wherein the radial extending portion is in a disk shape and comprises a first surface and a second surface opposite to the first surface, and wherein the first and second surfaces (321 and 322) abut with the housing and the base, respectively, wherein the resilient sealing member has an annular flange on one of the first and second surfaces (321 and 322), and wherein the one of the first and second surfaces (321 and 322) having the annular flange abuts with the housing or the base through the annular flange, wherein the gas blower is characterized in that: the annular flange is arranged at an outer free edge of the radial extending portion away from the central through hole, wherein the shaft has an engaging groove, and wherein a fixing plate is disposed in the housing and is coupled with the fan wheel and the engaging groove.
Light unit (100, 100', 100'') for use in an illumination apparatus (2; 2a, 2b) for a motor vehicle, having at least one light module having a two-dimensional light body embodied in the form of a light guide and at least one light-emitting means, whose light beams are able to be coupled or are coupled into a side face of the light body, wherein the light beams can exit or do exit to the outside via a light exit face that is surrounded by side faces of the light body and wherein at least a part of the side faces and a rear-side face located opposite the light exit face are covered by a reflective or diffusely back-scattering covering, wherein the covering of the one light body is formed by a frame-type component having a rear wall and an opening opposite the rear wall, wherein the dimensions of the light body are such that it substantially fills the frame-type component in its mounted position, characterized in that a side wall of the frame-type component has an opening through which the light body is brought laterally into the frame-type component, wherein the at least one light-emitting means is arranged at the side wall of the frame-type component exhibiting the opening, wherein the light body has a transmittance in a range from approximately 85% to approximately 95% and wherein the light unit (100, 100', 100'') is formed from a plurality of light modules in which the frame-type components and also the two-dimensional light bodies are in each case connected to one another to form one piece and wherein the frame-type components are attached to a common printed circuit board carrying the light-emitting means that are assigned to the two-dimensional light bodies.
Spraying device for generating a water jet intended for washing the body or a part of the body, comprising a water inlet connected to a high-pressure water pipe and a water outlet, characterized in that, with the said water pressure at the water inlet being between 80 and 130 bar, this device comprises at least one solid-cone nozzle placed at the water outlet, and at least one screen spaced from the said nozzle by a distance d so as to sufficiently fine down the water droplets of the said water jet to provide gentle washing.
A quickly foldable crib frame, comprising: a first U-shaped surrounding frame and a second U-shaped surrounding frame, wherein a first surrounding frame connector and a second surrounding frame connector, which are integrally formed, are arranged at each of tail ends on both sides of the first U-shaped surrounding frame and the second U-shaped surrounding frame, respectively, the first surrounding frame connector and the second surrounding frame connector on each of both sides are rotatably riveted to an upper vertical rod connector, respectively, wherein the upper vertical rod connector is fixedly sleeved on a top end of an upper vertical rod, a bottom end of the upper vertical rod is slidably inserted in an inner cavity of a lower vertical rod, a bottom end of the lower vertical rod is fixedly inserted in a rotating base, one end of a first bottom horizontal brace rod and one end of a second bottom horizontal brace rod are rotatably riveted to a front side and a rear side of the rotating base, respectively, one end of a first bottom horizontal brace linkage and one end of a second bottom horizontal brace linkage are rotatably riveted to inner walls of the first bottom horizontal brace rod and the second bottom horizontal brace rod, respectively, a sliding sleeve is slidably sleeved on the lower vertical rod, and both the other end of the first bottom horizontal brace linkage and the other end of the second bottom horizontal brace linkage are rotatably riveted to the sliding sleeve.
Method of performing atomic layer deposition on a substrate, which method comprises supplying a precursor gas towards the substrate using a deposition head, the deposition head including one or more gas supplies including a precursor gas supply for supplying the precursor gas; having the precursor gas react on a surface of the substrate so as to form an atomic layer, the deposition head having an output face that at least partly faces the surface of the substrate during depositing the atomic layer, the output face being provided with the one or more gas supplies and having a substantially rounded shape defining a movement path of the substrate, wherein the method further comprises moving the precursor-gas supply relative to and along the substrate by rotating the deposition head while supplying the precursor gas; thus depositing a stack of atomic layers while continuously moving the precursor-gas supply in one direction, wherein method is performed while keeping the surface of the substrate contactless with the output face by means of a gas bearing provided using the one or more gas supplies, and wherein the method comprises guiding the substrate at least one of to or from the movement path using a guiding unit for bending the substrate having the surface of the substrate on an outer bend side, and is characterized by: pulling the substrate away from the output face during said guiding by using a pressure based pulling unit (120a, 120b) contiguous to the guiding unit opposite the output face, for preventing contact between the substrate surface and the output face near the guiding unit.
A device for the transfer of imaging layers from a substrate foil onto print sheets at least with an application unit for image-based coating of the print sheets with an adhesive and with a coating module for transferring the imaging layers from the substrate foil onto the print sheet in a nip between an impression cylinder and a press roll, wherein the substrate foil with the coated side contacting the print sheet jointly with the same is guided through the nip and in the process the imaging layers are transferred onto the print sheet in an image-based manner, and with a device for feeding the transfer foil to the coating unit and for discharging from the coating unit with a drive for moving the transfer foil in working direction, wherein the foil feed of the transfer foil is controllable by means of a device for foil guidance in such a manner that the transport of the transfer foil is stopped in particular when in the nip of the coating unit no transfer of an imaging layer onto a print sheet takes place, wherein a control in connection with foil guidance of the transfer foil is provided in such a manner that the foil transport at fixed times is stopped interrupted or started during the transport of the transfer foil through the nip, wherein the surface of the press cylinder comprises a press covering, which is provided with one or multiple format underpackings (30 to 37) which contour the support surface of the press covering on the press roll and extend as far as to an outline of a press area, wherein the format underpackings (30, 31, 32) are formed as calibrated underpacking sheets for blankets and as underpacking sheets for blankets that can be clamped to the press roll jointly with the press covering or as underpacking sheets for blankets which are separately held and mounted unheld below the press covering on the press roll and/or wherein the format underpackings (30 to 32) are formed as underblankets and that the underblankets are held on the press roll jointly with the press covering or that the underblankets are held separately and mounted and held on the press roll under the press covering, wherein the press area on the press roll is limited to the maximum region to be coated, and wherein when a region of the press roll passes through outside the press area limited by the format underpackings (30 to 37) to the region to be coated the foil feed is stopped, wherein the press roll slidingly passes through subject to further contacting of the transfer foil.
A method for producing a gene of T cell receptor specific to an antigen A, in-vitro which comprises: 1) the step of stimulating a group of T cells including a T cell specific to an antigen A under a condition effective for amplification of a TCR gene; 2) the step of identifying a T cell specific to an antigen A among the group of T cells including a T cell specific to the antigen A, and sorting one T cell specific to the antigen A into a vessel; and 3) the step of subjecting the one activated T cell specific to the antigen A in the vessel to PCR to amplify a gene of TCR specific to the antigen A wherein the condition effective for amplification of a TCR gene mentioned in the step 1) consists of maintaining the group of cells in the presence of interleukin 2(IL-2) and phytohemagglutinin, or interleukin 7 (IL-7) and phytohemagglutinin;or phorbol 12-myristate 13-acetate and cycloheximide, and the steps 1), 2), and 3) are performed in this order, step 2) is performed by flow cytometry or immunospot array assay on a chip (ISAAC) method, wherein the step 2) (i) is a step of sorting the cell by flow cytometry using a multimer of a complex of a major histocompatibility complex molecule and an antigen A-derived antigen peptide (p) (MHC/p tetramer), and anti-CD8 antibody, (ii) is a step of sorting the cell by flow cytometry using an anti-interferon γ (IFN-γ) antibody, and anti-CD8 antibody, or (iii) is a step using a microwell array having a plurality of wells of such a size that only one T-cell is contained in each well on one main surface of a substrate. 1) the step of stimulating a group of T cells including a T cell specific to an antigen A under a condition effective for amplification of a TCR gene; 2) the step of identifying a T cell specific to an antigen A among the group of T cells including a T cell specific to the antigen A, and sorting one T cell specific to the antigen A into a vessel; and 3) the step of subjecting the one activated T cell specific to the antigen A in the vessel to PCR to amplify a gene of TCR specific to the antigen A wherein the condition effective for amplification of a TCR gene mentioned in the step 1) consists of maintaining the group of cells in the presence of interleukin 2(IL-2) and phytohemagglutinin, or interleukin 7 (IL-7) and phytohemagglutinin;or (i) is a step of sorting the cell by flow cytometry using a multimer of a complex of a major histocompatibility complex molecule and an antigen A-derived antigen peptide (p) (MHC/p tetramer), and anti-CD8 antibody, (ii) is a step of sorting the cell by flow cytometry using an anti-interferon γ (IFN-γ) antibody, and anti-CD8 antibody, or (iii) is a step using a microwell array having a plurality of wells of such a size that only one T-cell is contained in each well on one main surface of a substrate.
Method to control an adaptive cruise control in a vehicle, comprising the steps: - to determine that the vehicle ahead is in a state, wherein the vehicle ahead is neither accelerated nor decelerated, - when the vehicle ahead is in a state, wherein the vehicle ahead is neither accelerated nor decelerated, to determine the mass of the vehicle ahead, from a kinetic relation of the vehicle ahead, based on the use of a kinetic relation, wherein continuous determination of speed and speed changes of the vehicle ahead, and of the gradient of the road, on which said vehicle ahead is travelling, is carried out and, - to control the adaptive cruise control, depending on the determined mass of the vehicle ahead. - to determine that the vehicle ahead is in a state, wherein the vehicle ahead is neither accelerated nor decelerated, - when the vehicle ahead is in a state, wherein the vehicle ahead is neither accelerated nor decelerated, to determine the mass of the vehicle ahead, from a kinetic relation of the vehicle ahead, based on the use of a kinetic relation, wherein continuous determination of speed and speed changes of the vehicle ahead, and of the gradient of the road, on which said vehicle ahead is travelling, is carried out and, - to control the adaptive cruise control, depending on the determined mass of the vehicle ahead.
A covered stent for implantation at vascular branches, comprising a stent body (101, 201, 301, 401) and a membrane fixedly connected to the stent body (101, 201, 301, 401), characterized in that one or more microporous areas (102, 202, 302, 402) are provided on the membrane, and each of the one or more microporous areas (102, 202, 302, 402) has a plurality of micropores which are arranged into an array with pore spacing ranging from 0.2mm to 2.0mm, and the micropores are capable of allowing blood flow to pass through, and during implantation of the covered stent (100, 200, 300, 400), each of the one or more microporous areas (102, 202, 302, 402) is used to identify a branch region of a blood vessel and provide an access path for implantation of a branch stent and each of the one or more microporous areas (102, 202, 302, 402) is arranged in a range of 15 degrees to 360 degrees along the circumferential direction of the covered stent (100, 200, 300, 400); wherein the diameters of the micropores are in the range 0.1 mm to 0.6 mm, and wherein a plurality of development marks (103, 203, 303, 403) are provided on the edge of each of the one or more microporous areas (102, 202, 302, 402) to indicate the position of the respective microporous area (102, 202, 302, 402) and a material of the development marks (103, 203, 303, 403) includes platinum, gold, tantalum metal or medical stainless steel.
A cell handover method, comprising: determining, by a source base station, to hand over a terminal from a cell of the source base station to a cell of a target base station; acquiring, by the source base station, a wireless resource, wherein the wireless resource is to be used to carry a handover request sent to the terminal; sending, by the source base station, a message to a neighboring base station, wherein the message comprises the wireless resource, and the message is used to instruct the neighboring base station to avoid occupying the wireless resource; and sending, by the source base station, the handover request carried by the wireless resource to the terminal, so as to hand over the terminal to the cell of the target base station; wherein the wireless resource is a time frequency resource, the neighboring base station and the source base station have neighboring cells. determining, by a source base station, to hand over a terminal from a cell of the source base station to a cell of a target base station; acquiring, by the source base station, a wireless resource, wherein the wireless resource is to be used to carry a handover request sent to the terminal; sending, by the source base station, a message to a neighboring base station, wherein the message comprises the wireless resource, and the message is used to instruct the neighboring base station to avoid occupying the wireless resource; and sending, by the source base station, the handover request carried by the wireless resource to the terminal, so as to hand over the terminal to the cell of the target base station;
A pane module adapted to be installed in a window frame and comprising a pane element (1,111) and a border element (2,32,54), wherein the pane element includes at least two sheet elements (31,35,51,53), such as sheets of glass, separated by one or more spacer members (34,52,112), wherein the border element is made by moulding, wherein the border element surrounds the pane element, at least partially encasing the edge of at least one sheet element, and wherein the border element has at least one functional face, wherein a functional face comprises an embedded fitting (33,86) projecting through the functional face for connecting the border element to a window frame, characterized in that the fitting is adapted for attachment of the border element to the window frame by means of detachable connecting means in the form of screws.
A block copolymer comprising at least one (poly)2-C 1-3 alkyl-2-oxazoline block and at least one polybutadiene block, which is a diblock copolymer AB in which (poly)2-C 1-3 alkyl-2-oxazoline forms the A block and polybutadiene forms the B block, and which has at least one end group at the end of a (poly)2-C 1-3 alkyl-2-oxazoline block which is selected from carboxy, activated carboxy, amine, methacrylate, thiol, azide, and alkyne.
Method of locating a terrestrial transmitting source of an unknown signal which is transmitted to a receiver, characterized in that the method comprises the step of - comparing a power fluctuation of the unknown signal with a power fluctuation of at least one known signal allocated to and transmitted by a terrestrial transmitting source and determining a degree of similarity between the power fluctuation of the unknown signal and the power fluctuation of the at least one known signal, wherein (i) the unknown signal and the at least one known signal are transmitted to the receiver which is located in a satellite or (ii) the unknown signal and the at least one known signal are transmitted via a satellite to the receiver which is a terrestrial receiver; wherein the degree of similarity between the power fluctuations (PF1, PF2) of the unknown signal and the at least one known signal is used as a measure for the distance between the terrestrial transmitting source of the unknown signal and the terrestrial transmitting source of the at least one known signal. - comparing a power fluctuation of the unknown signal with a power fluctuation of at least one known signal allocated to and transmitted by a terrestrial transmitting source and determining a degree of similarity between the power fluctuation of the unknown signal and the power fluctuation of the at least one known signal, wherein (i) the unknown signal and the at least one known signal are transmitted to the receiver which is located in a satellite or (ii) the unknown signal and the at least one known signal are transmitted via a satellite to the receiver which is a terrestrial receiver; wherein the degree of similarity between the power fluctuations (PF1, PF2) of the unknown signal and the at least one known signal is used as a measure for the distance between the terrestrial transmitting source of the unknown signal and the terrestrial transmitting source of the at least one known signal.