mhurhangee/ep-ind-claims huggingface dataset:
A method of setting up a secured connection between a requesting client (110, 111) and a secured wireless network, the method comprising the steps of: - generating an individual password by means of the requesting client (110, 111) for authentication of the requesting client (110, 111); - submitting the individual password to a routing device; - requesting a confirmation for setting up the secured connection based on the individual password from a confirmation authority; and - setting up the secured connection by means of authentication of the requesting client (110, 111) based on the individual password by means of the routing device after receiving the confirmation of the confirmation authority. - generating an individual password by means of the requesting client (110, 111) for authentication of the requesting client (110, 111); - submitting the individual password to a routing device; - requesting a confirmation for setting up the secured connection based on the individual password from a confirmation authority; and - setting up the secured connection by means of authentication of the requesting client (110, 111) based on the individual password by means of the routing device after receiving the confirmation of the confirmation authority.
An analysis method comprising: a sample preparation step of preparing a measurement sample by mixing a measurement object containing pyrroloquinoline quinone or a salt thereof with glycine so that the pyrroloquinoline quinone or the salt thereof reacts with the glycine to produce imidazopyrroloquinoline or a salt thereof; and characterised by a quantitative analysis step of determining quantitatively an amount of the pyrroloquinoline quinone or the salt thereof contained in the measurement object, based on a chromatogram of the imidazopyrroloquinoline or the salt thereof contained in the measurement sample obtained by chromatography. a sample preparation step of preparing a measurement sample by mixing a measurement object containing pyrroloquinoline quinone or a salt thereof with glycine so that the pyrroloquinoline quinone or the salt thereof reacts with the glycine to produce imidazopyrroloquinoline or a salt thereof; and characterised by a quantitative analysis step of determining quantitatively an amount of the pyrroloquinoline quinone or the salt thereof contained in the measurement object, based on a chromatogram of the imidazopyrroloquinoline or the salt thereof contained in the measurement sample obtained by chromatography.
A method for producing a chrysanthemum plant containing delphinidin in the petals thereof comprising the step of expressing flavonoid 3',5'-hydroxylase (F3'5'H) in a chrysanthemum plant using as a transcriptional regulatory region a nucleic acid selected from the group consisting of: a nucleic acid containing the nucleotide sequence indicated in SEQ ID NO. 34 or SEQ ID NO. 87; and a nucleic acid able to function as a transcriptional regulatory region of flavanone 3-hydroxylase (F3H) gene derived from chrysanthemum, and having sequence identity of at least 90% with the nucleotide sequence indicated in SEQ ID NO. 34 or SEQ ID NO. 87, wherein a translation enhancer derived from tobacco alcohol dehydrogenase is further used in addition to the transcriptional regulatory region. a nucleic acid containing the nucleotide sequence indicated in SEQ ID NO. 34 or SEQ ID NO. 87; and a nucleic acid able to function as a transcriptional regulatory region of flavanone 3-hydroxylase (F3H) gene derived from chrysanthemum, and having sequence identity of at least 90% with the nucleotide sequence indicated in SEQ ID NO. 34 or SEQ ID NO. 87,
A link adaptation method, comprising: detecting (S101, S501), by a first antenna device, a received signal strength indicator, RSSI, of a link between the first antenna device and a second antenna device; detecting (S102, S503), by the first antenna device, a signal to interference plus noise ratio, SINR, of the link in a case that the RSSI is greater than or equal to a first RSSI threshold; and choosing (S103, S504, S505, S506), by the first antenna device according to the RSSI and the SINR, to perform frequency adjustment and/or antenna alignment with the second antenna device; characterized in that when it is determined that the RSSI is less than the first RSSI threshold, choosing to perform frequency adjustment and antenna alignment with the second antenna device. detecting (S101, S501), by a first antenna device, a received signal strength indicator, RSSI, of a link between the first antenna device and a second antenna device; detecting (S102, S503), by the first antenna device, a signal to interference plus noise ratio, SINR, of the link in a case that the RSSI is greater than or equal to a first RSSI threshold; and choosing (S103, S504, S505, S506), by the first antenna device according to the RSSI and the SINR, to perform frequency adjustment and/or antenna alignment with the second antenna device; characterized in that when it is determined that the RSSI is less than the first RSSI threshold, choosing to perform frequency adjustment and antenna alignment with the second antenna device.
An optical sensor, the sensor comprising: - a flexible substrate, - an optical element being positioned on the substrate, the flexible substrate comprising a deformation affecting the optical element, - characterized in that the deformation is provided in a substrate deformation zone at least partly surrounding the optical element along a contour directly adjacent the optical element; the contour extending in a least two different directions along the optical element. - a flexible substrate, - an optical element being positioned on the substrate, the flexible substrate comprising a deformation affecting the optical element, - characterized in that the deformation is provided in a substrate deformation zone at least partly surrounding the optical element along a contour directly adjacent the optical element; the contour extending in a least two different directions along the optical element.
A method for producing lacto-N-triose and/or lacto-N-tetraose and/or lacto-N-neotetraose which comprises carrying out a reaction using at least one culture of genetically modified yeasts which provide the activities of the enzymes responsible for producing lacto-N-triose and/or lacto-N-tetraose and/or lacto-N-neotetraose from lactose, which comprises: a) adding lactose and N-acetylglucosamine in the presence of beta-(1,3)-N-acetylglucosaminyltransferase to form lacto-N-triose, and b) adding galactose in the presence of beta-galactosyltransferase to form lacto-N-tetraose and/or lacto-N-neotetraose, c) allowing lacto-N-triose and/or lacto-N-tetraose and/or lacto-N-neotetraose to accumulate, and d) recovering lacto-N-triose and/or lacto-N-tetraose and/or lacto-N-neotetraose from said reaction mixture, characterized in that the enzymes necessary for producing the lacto-N-triose, and/or lacto-N-tetraose and/or lacto-N-neotetraose are produced by genetically modified yeasts from the species S. cerevisiae, which carry a recombinant vector comprising the nagA gene of Aspergillus niger SEQ ID NO: 1 expressing an enzyme with beta-1-3-N-acetylglucosaminyltransferase activity and a recombinant vector comprising the lacZ gene of Streptococcus thermophilus SEQ ID NO: 2 expressing an enzyme with beta-galactosyltransferase activity. a) adding lactose and N-acetylglucosamine in the presence of beta-(1,3)-N-acetylglucosaminyltransferase to form lacto-N-triose, and b) adding galactose in the presence of beta-galactosyltransferase to form lacto-N-tetraose and/or lacto-N-neotetraose, c) allowing lacto-N-triose and/or lacto-N-tetraose and/or lacto-N-neotetraose to accumulate, and d) recovering lacto-N-triose and/or lacto-N-tetraose and/or lacto-N-neotetraose from said reaction mixture, characterized in that the enzymes necessary for producing the lacto-N-triose, and/or lacto-N-tetraose and/or lacto-N-neotetraose are produced by genetically modified yeasts from the species S. cerevisiae, which carry a recombinant vector comprising the nagA gene of Aspergillus niger SEQ ID NO: 1 expressing an enzyme with beta-1-3-N-acetylglucosaminyltransferase activity and a recombinant vector comprising the lacZ gene of Streptococcus thermophilus SEQ ID NO: 2 expressing an enzyme with beta-galactosyltransferase activity.
Method for secure transmission of a virtual key from a server (50, S) to a mobile terminal (20, T) comprising a memory and suitable for communicating with the server (50, S), said method including steps of: a) the server (50, S) receiving a certification request for the mobile terminal (20, T), b) the server (50, S) providing and downloading a user application to the mobile terminal (20, T), and c) the server (50, S) providing a virtual key to the mobile terminal (20, T), and d) downloading and securing the virtual key in a security element of the mobile terminal (20, T), said virtual key being sent in encrypted form using a secure Internet connection implemented using a secure input key, characterized in that said security element is formed by an encryption software environment implementing a virtual safe in which it is possible to conceal the virtual key in order to secure it, and operating using a white-box cryptography technique, said virtual safe being intended to be stored in the memory of the mobile terminal apart from any physical security element. a) the server (50, S) receiving a certification request for the mobile terminal (20, T), b) the server (50, S) providing and downloading a user application to the mobile terminal (20, T), and c) the server (50, S) providing a virtual key to the mobile terminal (20, T), and d) downloading and securing the virtual key in a security element of the mobile terminal (20, T), said virtual key being sent in encrypted form using a secure Internet connection implemented using a secure input key,
An interactive display comprising: one or more display layers; a first illuminator positioned at a first location behind the one or more display layers; a second illuminator positioned at a second location behind the one or more display layers; a camera positioned behind the one or more display layers; a phase management mechanism configured to: control alternation of phases of the interactive display, the interactive display having a plurality of phases including at least a first phase, a second phase, a third phase and a fourth phase; when in the first phase, controlling the first illuminator to dominate over the second illuminator, and in that state causing the camera to take a first image; and when in the second phase, controlling the second illuminator to dominate over the first illuminator, and in that state causing the camera to take a second image; when in the third phase turning both the first and second illuminators off, and in that state causing the camera to take a third image; and when in the fourth phase turning both the first and second illuminators off, and in that state causing the camera to take a fourth image, an image construction mechanism configured to construct an input image using at least a portion of the first image, at least a portion of the second image, at least a portion of the third image, and at least a portion of the fourth image, wherein the first and the second phases interleave the third and fourth phases. one or more display layers; a first illuminator positioned at a first location behind the one or more display layers; a second illuminator positioned at a second location behind the one or more display layers; a camera positioned behind the one or more display layers; a phase management mechanism configured to: control alternation of phases of the interactive display, the interactive display having a plurality of phases including at least a first phase, a second phase, a third phase and a fourth phase; when in the first phase, controlling the first illuminator to dominate over the second illuminator, and in that state causing the camera to take a first image; and when in the second phase, controlling the second illuminator to dominate over the first illuminator, and in that state causing the camera to take a second image; control alternation of phases of the interactive display, the interactive display having a plurality of phases including at least a first phase, a second phase, a third phase and a fourth phase; when in the first phase, controlling the first illuminator to dominate over the second illuminator, and in that state causing the camera to take a first image; and when in the second phase, controlling the second illuminator to dominate over the first illuminator, and in that state causing the camera to take a second image;
A heat exchanger comprising: - a plurality of first fluid passages provided parallel to one another in a first plane that is a flat plane present in a heat transfer block, so as to extend through the heat transfer block; - a plurality of second fluid passages provided parallel to the first fluid passages in a second plane that is present in the heat transfer block and is parallel to the first plane, so as to extend through the heat transfer block; and - at least one lateral hole provided in the heat transfer block and communicating with all of the second fluid passages, wherein the at least one lateral hole extends perpendicularly to the second fluid passages, characterised in that a diameter of the at least one lateral hole and a number of at least one lateral hole are determined in such a manner as to satisfy L/A 2 d > L y /A y 2 d y, where A, d, and L are a passage cross-sectional area, an equivalent diameter, and a length, respectively, of the second fluid passages, and A y, d y, and L y are a passage cross-sectional area, an equivalent diameter, and an equivalent length, respectively, of the at least one lateral hole, and wherein the at least one lateral hole communicates with all of the second fluid passages so as not to protrude into a portion of the heat transfer block that is between the first fluid passages and some of the second fluid passages that are adjacent to the first fluid passages. - a plurality of first fluid passages provided parallel to one another in a first plane that is a flat plane present in a heat transfer block, so as to extend through the heat transfer block; - a plurality of second fluid passages provided parallel to the first fluid passages in a second plane that is present in the heat transfer block and is parallel to the first plane, so as to extend through the heat transfer block; and
An apparatus comprising: a first electrically conductive layer; a second electrically conductive layer; a plurality of optics elements between the first electrically conductive layer and the second electrically conductive layer, wherein the plurality of optics elements are configured to influence a plurality of beams of charged particles; a third electrically conductive layer between the first electrically conductive layer and the second electrically conductive layer; and an electrically insulating layer physically connected to the optics elements, wherein the electrically insulating layer is configured to electrically insulate the optics elements from the first electrically conductive layer, and the second electrically conductive layer 740); wherein the apparatus is characterized in that the electrically insulating layer comprises discrete portions, each of which is physically connected to one of the optics elements. a first electrically conductive layer; a second electrically conductive layer; a plurality of optics elements between the first electrically conductive layer and the second electrically conductive layer, wherein the plurality of optics elements are configured to influence a plurality of beams of charged particles; a third electrically conductive layer between the first electrically conductive layer and the second electrically conductive layer; and an electrically insulating layer physically connected to the optics elements, wherein the electrically insulating layer is configured to electrically insulate the optics elements from the first electrically conductive layer, and the second electrically conductive layer 740); wherein the apparatus is characterized in that the electrically insulating layer comprises discrete portions, each of which is physically connected to one of the optics elements.
A leveling head assembly for an elevating leveling pedestal, comprising a tiltable support-head having a support surface, and a cap having a centered cap aperture, wherein the centered cap aperture has an enlarged aperture diameter, said tiltable support-head overlying and attached to said cap, one of said tiltable support-head and said cap having a convex mating surface and the other of said tiltable support-head and said cap having a concave mating surface, characterized by an attachment device within said centered cap aperture for attaching the support-head to said cap, and said convex mating surface and said concave mating surface making said tiltable support-head and said cap slidably re-positionable with respect each other along their mating surface (34, 36) resulting in said tiltable support-head being tiltable with respect to said cap. a tiltable support-head having a support surface, and a cap having a centered cap aperture, wherein the centered cap aperture has an enlarged aperture diameter, said tiltable support-head overlying and attached to said cap, one of said tiltable support-head and said cap having a convex mating surface and the other of said tiltable support-head and said cap having a concave mating surface, characterized by an attachment device within said centered cap aperture for attaching the support-head to said cap, and said convex mating surface and said concave mating surface making said tiltable support-head and said cap slidably re-positionable with respect each other along their mating surface (34, 36) resulting in said tiltable support-head being tiltable with respect to said cap.
A method for a base station to transmit a service in a cell, wherein a frequency band of the cell is divided into N frequency ranges, each of the N frequency ranges supports one radio interface technology, the cell supports at least two radio interface technologies in the frequency band, N is an integer, N≥2 and the method comprising: sending, by the base station, radio resource configuration information of the N frequency ranges to a user equipment, UE, wherein the radio resource configuration information comprises frequency band information and characteristic information of the radio interface technologies supported by the N frequency ranges; sending, by the base station, indication information to the UE, wherein the indication information is used to indicate a frequency range of which a physical layer resource is to be used by a data radio bearer, DRB of the UE; and transmitting, by the base station using a radio interface technology supported by the frequency range of which the physical layer resource used by the DRB of the UE, the service carried on the DRB to the UE; wherein the characteristic information of the radio interface technologies comprises frame structure of the radio interface technologies. sending, by the base station, radio resource configuration information of the N frequency ranges to a user equipment, UE, wherein the radio resource configuration information comprises frequency band information and characteristic information of the radio interface technologies supported by the N frequency ranges; sending, by the base station, indication information to the UE, wherein the indication information is used to indicate a frequency range of which a physical layer resource is to be used by a data radio bearer, DRB of the UE; and transmitting, by the base station using a radio interface technology supported by the frequency range of which the physical layer resource used by the DRB of the UE, the service carried on the DRB to the UE; wherein the characteristic information of the radio interface technologies comprises frame structure of the radio interface technologies.
Extruder based print head for 3D printing, comprising a material feed unit for providing material in granular and/or liquid feed form, a material extrusion unit arranged to receive the material in granular and/or liquid feed form and transform the material into liquefied material in print form, and a nozzle unit in fluid communication with the material extrusion unit, the nozzle unit comprising an output channel and a nozzle arranged to output the liquefied material, further comprising an internal volume enlargement unit in fluid communication with the output channel of the nozzle unit, wherein the internal volume enlargement unit has a first internal volume in a first operational status and a second internal volume in a second operational status, wherein the second internal volume is larger than the first internal volume, and wherein the internal volume enlargement unit comprises an expansion volume (S1-S2) within the material extrusion unit, and an actuator connected to an extrusion screw, characterized in that the actuator is arranged to linearly move the extrusion screw within the expansion volume (S1-S2) to retract the liquefied material into the expansion volume (S1-S2). a material feed unit for providing material in granular and/or liquid feed form, a material extrusion unit arranged to receive the material in granular and/or liquid feed form and transform the material into liquefied material in print form, and a nozzle unit in fluid communication with the material extrusion unit, the nozzle unit comprising an output channel and a nozzle arranged to output the liquefied material, further comprising an internal volume enlargement unit in fluid communication with the output channel of the nozzle unit, wherein the internal volume enlargement unit has a first internal volume in a first operational status and a second internal volume in a second operational status, wherein the second internal volume is larger than the first internal volume, and wherein the internal volume enlargement unit comprises an expansion volume (S1-S2) within the material extrusion unit, and an actuator connected to an extrusion screw, characterized in that the actuator is arranged to linearly move the extrusion screw within the expansion volume (S1-S2) to retract the liquefied material into the expansion volume (S1-S2).
Communication system for simultaneous data transmissions, comprising a physical medium and a plurality of nodes connected to the physical medium and communicating with one another through said physical medium, the nodes being adapted for communicating with one another through the physical medium by means of a field protocol and a corresponding fieldbus, and simultaneously by means of an additional communication protocol adapted for supporting a data flow larger than the data flow that the field protocol is able to support, the nodes being adapted for communicating by means of the field protocol in a frequency spectrum below a boundary frequency (Ff1, Ff2) and for communicating by means of the additional protocol in a frequency spectrum above said boundary frequency (Ff1, Ff2), characterized in that the system is configured for dynamically adjusting the boundary frequency (Ff1, Ff2), depending on the information transmitted by means of the field protocol, and for establishing a higher boundary frequency (Ff1, Ff2) the more the transitions there are in the data transmitted by means of the field protocol, and a lower boundary frequency (Ff1, Ff2) the fewer the transitions there are in said data, the transmitted data corresponding with upper levels (Ns) and with lower levels (Ni) and each change from an upper level (Ns) to a lower level (Ni) or vice versa corresponding with a transition, such that said boundary frequency (Ff1, Ff2) is high enough to prevent what is transmitted by means of said additional protocol from losing or modifying the data transmitted by means of the field protocol, avoiding the loss of information transmitted by means of said field protocol, such that both protocols simultaneously coexist on the same physical medium of the fieldbus.