mhurhangee/ep-ind-claims huggingface dataset:
A method for activating a virtual machine (200, 300) from a plurality of inactive virtual machines available in an electronic device, comprising, at the electronic device: initiating a request to activate a virtual machine (200, 300) selected from the plurality of inactive virtual machines, and, transmitting the request to activate, along with a device identifier and a unique identifier which identifies the selected virtual machine (200, 300), to an external server initiating a host machine on the device, the host machine having a virtual machine manager that manages the plurality of inactive virtual machines (200, 300); receiving, in a virtualization layer of the device, a request from an external server to initiate an activation of the virtual machine (200, 300), wherein the request to initiate an activation comprises an activation code associated with one of the plurality of inactive virtual machines (200, 300) selected to be activated from the plurality of inactive virtual machines (200, 300) on the device; sending, by the virtualization layer, the received request to the virtual machine manager of the host machine; verifying, by the virtual machine manager, using a processor of the device, that the request to initiate the activation is a proper request, and if so, instructing a provisioning client that is a part of the virtualization layer to activate the virtual machine (200, 300) selected with the request; activating the inactive virtual machine (200, 300) selected with the request, by the provisioning client. initiating a request to activate a virtual machine (200, 300) selected from the plurality of inactive virtual machines, and, transmitting the request to activate, along with a device identifier and a unique identifier which identifies the selected virtual machine (200, 300), to an external server initiating a host machine on the device, the host machine having a virtual machine manager that manages the plurality of inactive virtual machines (200, 300); receiving, in a virtualization layer of the device, a request from an external server to initiate an activation of the virtual machine (200, 300), wherein the request to initiate an activation comprises an activation code associated with one of the plurality of inactive virtual machines (200, 300) selected to be activated from the plurality of inactive virtual machines (200, 300) on the device; sending, by the virtualization layer, the received request to the virtual machine manager of the host machine; verifying, by the virtual machine manager, using a processor of the device, that the request to initiate the activation is a proper request, and if so, instructing a provisioning client that is a part of the virtualization layer to activate the virtual machine (200, 300) selected with the request; activating the inactive virtual machine (200, 300) selected with the request, by the provisioning client.
A surgical nail for treating a bone, comprising: a nail body extending along a longitudinal axis from a first end to a second end and including a first locking aperture extending transversely through a first end portion thereof and a second locking aperture extending transversely through a second end portion thereof; a first connecting element coupled to a second end of the nail body, the first connecting element adapted and configured to be coupled to a first aiming guide; and characterised by comprising a second connecting element coupled to the first end of the nail body, the second connecting element adapted and configured to be coupled to a second aiming guide. a nail body extending along a longitudinal axis from a first end to a second end and including a first locking aperture extending transversely through a first end portion thereof and a second locking aperture extending transversely through a second end portion thereof; a first connecting element coupled to a second end of the nail body, the first connecting element adapted and configured to be coupled to a first aiming guide; and characterised by comprising a second connecting element coupled to the first end of the nail body, the second connecting element adapted and configured to be coupled to a second aiming guide.
A mist generating device comprising: a first fluid passage having a first fluid inlet and a first fluid outlet disposed about a longitudinal axis of the device; and a second fluid passage having a second fluid inlet and a second fluid outlet through which a second fluid passes, wherein the first and second fluid passage outlets (1084,1094) are oriented relative to one another such that they have an angle of incidence (α) of between 5 and 30 degrees; characterised in that: the first fluid passage surrounds the second fluid passage and has a divergent-convergent internal geometry such that it defines a curved profile that converges to the first fluid outlet; wherein the second fluid passage defines an equivalent angle of expansion of between 1 and 40 degrees and includes a throat portion located between the second fluid inlet and the second fluid outlet, the throat portion having a smaller cross sectional area than that of both the second fluid inlet and second fluid outlet such that the area ratio between the throat portion and the second fluid passage outlet is between 5:7 and 2:11; and wherein the ratio of the cross sectional area of the first fluid passage outlet to the second fluid passage outlet is between 10:3 and 1:12. the first fluid passage surrounds the second fluid passage and has a divergent-convergent internal geometry such that it defines a curved profile that converges to the first fluid outlet; wherein the second fluid passage defines an equivalent angle of expansion of between 1 and 40 degrees and includes a throat portion located between the second fluid inlet and the second fluid outlet, the throat portion having a smaller cross sectional area than that of both the second fluid inlet and second fluid outlet such that the area ratio between the throat portion and the second fluid passage outlet is between 5:7 and 2:11; and wherein the ratio of the cross sectional area of the first fluid passage outlet to the second fluid passage outlet is between 10:3 and 1:12.
A method for the production of a recombinant lentiviral vector, comprising: - culturing, in suspension in a serum-free medium, HEK293T cells transfected with at least one plasmid adapted for the production of a lentiviral vector, the culture being carried out in a volume of at least 50 L; - harvesting the produced recombinant lentiviral vector from the culture medium. - culturing, in suspension in a serum-free medium, HEK293T cells transfected with at least one plasmid adapted for the production of a lentiviral vector, the culture being carried out in a volume of at least 50 L; - harvesting the produced recombinant lentiviral vector from the culture medium.
A multimeric fusion protein comprising two or more polypeptide monomer units; wherein each polypeptide monomer unit comprises an antibody Fc-domain comprising two heavy chain Fc-regions; wherein each heavy chain Fc-region comprises any amino acid residue other than cysteine at position 309, and is fused at its C-terminal to a tailpiece which causes the monomer units to assemble into a multimer; wherein each polypeptide monomer unit does neither comprise an antibody variable region nor an N-terminal fusion partner; and wherein each heavy chain Fc-region comprises either: IgG1 CH2 and CH3 domains in which the leucine residue at position 234 has been substituted with a phenylalanine residue and the proline residue at position 331 has been substituted with a serine residue (L234F/P331S), IgG4 CH2 and CH3 domains in which the phenylalanine residue at position 234 has been substituted with a leucine residue (F234L), IgG4 CH2 and CH3 domains in which the phenylalanine residue at position 234 has been substituted with a leucine residue and the phenylalanine residue at position 296 has been substituted with a tyrosine residue (F234L/F296Y), IgG4 CH2 and CH3 domains in which the glycine residue at position 327 has been substituted with an alanine residue and the serine residue at position 330 has been substituted with an alanine residue (G327A/S330A), IgG4 CH2 and CH3 domains in which the glycine residue at position 327 has been substituted with an alanine residue and the serine residue at position 331 has been substituted with a proline residue (G327A/S331P), IgG4 CH2 and CH3 domains in which the serine residue at position 330 has been substituted with an alanine residue and the serine residue at position 331 has been substituted with a proline residue (S330A/S331P), or an IgG4 CH2 domain and an IgG1 CH3 domain. IgG1 CH2 and CH3 domains in which the leucine residue at position 234 has been substituted with a phenylalanine residue and the proline residue at position 331 has been substituted with a serine residue (L234F/P331S), IgG4 CH2 and CH3 domains in which the phenylalanine residue at position 234 has been substituted with a leucine residue (F234L), IgG4 CH2 and CH3 domains in which the phenylalanine residue at position 234 has been substituted with a leucine residue and the phenylalanine residue at position 296 has been substituted with a tyrosine residue (F234L/F296Y), IgG4 CH2 and CH3 domains in which the glycine residue at position 327 has been substituted with an alanine residue and the serine residue at position 330 has been substituted with an alanine residue (G327A/S330A), IgG4 CH2 and CH3 domains in which the glycine residue at position 327 has been substituted with an alanine residue and the serine residue at position 331 has been substituted with a proline residue (G327A/S331P), IgG4 CH2 and CH3 domains in which the serine residue at position 330 has been substituted with an alanine residue and the serine residue at position 331 has been substituted with a proline residue (S330A/S331P), or an IgG4 CH2 domain and an IgG1 CH3 domain.
A method for producing cellulose nanofibers, the method comprising: pretreating pulp fibers in a slurry; and refining, using a high-pressure homogenizer, the pulp fibers in the slurry, the pulp fibers being pretreated, wherein a weight average molecular weight of cellulose of cellulose nanofibers obtained through the refining is 65% or more of a weight average molecular weight of cellulose of the pulp fibers before the pretreating, wherein the weight average molecular weight is measured as defined herein, a refiner apparatus is used for a pretreatment in the pretreating, a pulp fiber concentration in the slurry to be subjected to the pretreating is 1% by mass or more and 8% by mass or less, a fines content of the pulp fibers which have been subjected to the pretreating and are to be subjected to the refining is 50% or more, the high-pressure homogenizer is a counter collision-type high-pressure homogenizer which discharges the slurry at a pressure of 10 MPa or more, a pulp fiber concentration in the slurry to be subjected to the refining is 0.5% by mass or more and 10% by mass or less, a temperature of the slurry in the refining is 10 °C or more, a water retention value of the cellulose nanofibers is 300% or more and 500% or less, measured in accordance with JAPAN TAPPI No. 26, and as the pretreatment in the pretreating, no chemical treatment is performed on the pulp fibers. pretreating pulp fibers in a slurry; and refining, using a high-pressure homogenizer, the pulp fibers in the slurry, the pulp fibers being pretreated, wherein a weight average molecular weight of cellulose of cellulose nanofibers obtained through the refining is 65% or more of a weight average molecular weight of cellulose of the pulp fibers before the pretreating, wherein the weight average molecular weight is measured as defined herein, a refiner apparatus is used for a pretreatment in the pretreating, a pulp fiber concentration in the slurry to be subjected to the pretreating is 1% by mass or more and 8% by mass or less, a fines content of the pulp fibers which have been subjected to the pretreating and are to be subjected to the refining is 50% or more, the high-pressure homogenizer is a counter collision-type high-pressure homogenizer which discharges the slurry at a pressure of 10 MPa or more, a pulp fiber concentration in the slurry to be subjected to the refining is 0.5% by mass or more and 10% by mass or less, a temperature of the slurry in the refining is 10 °C or more, a water retention value of the cellulose nanofibers is 300% or more and 500% or less, measured in accordance with JAPAN TAPPI No. 26, and as the pretreatment in the pretreating, no chemical treatment is performed on the pulp fibers.
A display device, comprising: a first substrate; a first subpixel disposed on the first substrate; and a second subpixel disposed adjacent to the first subpixel and spaced apart from each other by a pitch (S p), and at least one of the first subpixel and the second subpixel comprises: a light-emitting unit comprising an active layer, the active layer having a first length along a direction that is perpendicular to a normal direction of the first substrate; a light conversion layer disposed on the light-emitting unit, the light conversion layer having a second length along the direction that is perpendicular to the normal direction of the first substrate; a first insulating layer disposed adjacent to the light-emitting unit; a second insulating layer disposed on the first insulating layer adjacent to the light conversion layer, a first reflective layer disposed on a portion of the first insulating layer; and a first spacer layer disposed between the first insulating layer and the second insulating layer; wherein the first length, the second length and the pitch conform to the following formula: A+1 micrometers < B < S p -1 micrometers, and wherein the first reflective layer is disposed on a top surface of the first insulating layer and extends between the first spacer layer and the first insulating layer. a first substrate; a first subpixel disposed on the first substrate; and a second subpixel disposed adjacent to the first subpixel and spaced apart from each other by a pitch (S p), and at least one of the first subpixel and the second subpixel comprises: a light-emitting unit comprising an active layer, the active layer having a first length along a direction that is perpendicular to a normal direction of the first substrate; a light conversion layer disposed on the light-emitting unit, the light conversion layer having a second length along the direction that is perpendicular to the normal direction of the first substrate; a first insulating layer disposed adjacent to the light-emitting unit; a second insulating layer disposed on the first insulating layer adjacent to the light conversion layer, a first reflective layer disposed on a portion of the first insulating layer; and a first spacer layer disposed between the first insulating layer and the second insulating layer; wherein the first length, the second length and the pitch conform to the following formula: A+1 micrometers < B < S p -1 micrometers, and wherein the first reflective layer is disposed on a top surface of the first insulating layer and extends between the first spacer layer and the first insulating layer.
A method for virus localization comprising: computing a plurality of sequences of file blocks (14, 16, 18, 20) of a host file, wherein the file comprises n file blocks, the method comprising computing the sequences for each of a plurality of steps, where a sequence of file blocks at a given step j comprises n / 2 j blocks; for each of the plurality of steps, calculating a set of first hashes for the sequences of file blocks computed for the respective step; calculating a plurality of second hashes for corresponding sequences of file blocks from an infected file version of the host file; comparing said first hashes and said second hashes of said sequences of file blocks, and based on one or more of said first hashes and said second hashes not matching, determining and outputting a location of a virus with respect to the infected file. computing a plurality of sequences of file blocks (14, 16, 18, 20) of a host file, wherein the file comprises n file blocks, the method comprising computing the sequences for each of a plurality of steps, where a sequence of file blocks at a given step j comprises n / 2 j blocks; for each of the plurality of steps, calculating a set of first hashes for the sequences of file blocks computed for the respective step; calculating a plurality of second hashes for corresponding sequences of file blocks from an infected file version of the host file; comparing said first hashes and said second hashes of said sequences of file blocks, and based on one or more of said first hashes and said second hashes not matching, determining and outputting a location of a virus with respect to the infected file.
An anticancer agent degradation method comprising: obtaining a degree of ozone-induced degradation of an anticancer agent that varies with an increase in a CT value in an environment humidified by humidifying means as a function of relative humidity -said CT value in a degradation environment, the CT value being the product of ozone concentration and duration of degradation; measuring a relative humidity of said humidified ozone-containing air and an ozone concentration (Co) in degradation treatment for said anticancer agent performed assuming a preset humidity specified in said humidifying means; correcting an increment (ΔCTr) of said CT value corresponding to a predetermined time period (Δt,Te) on the basis of a ratio between said degree (ΔRr) of degradation at said measured relative humidity obtained under application of said function and said degree (ΔRb) of degradation at said preset humidity obtained under application of said function; and bringing said ozone-induced degradation treatment for said anticancer agent to an end upon said CT value (Sct) reaching a CT setting (Ect) specified as a degradation termination point corresponding to said preset humidity, wherein the anticancer agent is selected from the group comprising: Fluorouracil, Cytarabine, Cyclophoaphamide, Ifosfamide, Doxorubicin, Etoposide, Gemcitabine hydrochloid, Paclitaxel and Docetaxel hydrate. obtaining a degree of ozone-induced degradation of an anticancer agent that varies with an increase in a CT value in an environment humidified by humidifying means as a function of relative humidity -said CT value in a degradation environment, the CT value being the product of ozone concentration and duration of degradation; measuring a relative humidity of said humidified ozone-containing air and an ozone concentration (Co) in degradation treatment for said anticancer agent performed assuming a preset humidity specified in said humidifying means; correcting an increment (ΔCTr) of said CT value corresponding to a predetermined time period (Δt,Te) on the basis of a ratio between said degree (ΔRr) of degradation at said measured relative humidity obtained under application of said function and said degree (ΔRb) of degradation at said preset humidity obtained under application of said function; and bringing said ozone-induced degradation treatment for said anticancer agent to an end upon said CT value (Sct) reaching a CT setting (Ect) specified as a degradation termination point corresponding to said preset humidity, wherein the anticancer agent is selected from the group comprising: Fluorouracil, Cytarabine, Cyclophoaphamide, Ifosfamide, Doxorubicin, Etoposide, Gemcitabine hydrochloid, Paclitaxel and Docetaxel hydrate.
Method for controlling an aircraft light so as to emit a desired light intensity, wherein the aircraft light comprises a plurality of LEDs (16, 20) and wherein each of the LEDs (16, 20) is subjected to thermal stress due to at least one of environmental conditions and operational conditions, wherein at least one of the LEDs or at least one group of the LEDs is subjected to a maximum thermal stress, with the method being characterized by the steps of - providing a reference LED located within or outside of the aircraft light, - providing thermal conditions resulting in a thermal stress for the reference LED similar to the maximum thermal stress, wherein said thermal conditions are a simulation of the thermal conditions of the at least one LED or the at least one group of LEDs being subjected to the maximum thermal stress, - observing the reference LED by means of an optical sensor for monitoring the optical aging behavior of the reference LED throughout its lifetime, and - emitting a desired light intensity by the aircraft light, and controlling the plurality of LEDs (16, 20) of the aircraft light in accordance with the monitored optical aging behavior of the reference LED. - providing a reference LED located within or outside of the aircraft light, - providing thermal conditions resulting in a thermal stress for the reference LED similar to the maximum thermal stress, wherein said thermal conditions are a simulation of the thermal conditions of the at least one LED or the at least one group of LEDs being subjected to the maximum thermal stress, - observing the reference LED by means of an optical sensor for monitoring the optical aging behavior of the reference LED throughout its lifetime, and - emitting a desired light intensity by the aircraft light, and controlling the plurality of LEDs (16, 20) of the aircraft light in accordance with the monitored optical aging behavior of the reference LED.
A system for dosing one or more fluids on a substrate, the system comprising: a rotating roll comprising: a central longitudinal axis, wherein the rotating roll rotates about the central longitudinal axis; an exterior surface defining an interior region and substantially surrounding the central longitudinal axis; a vascular network disposed within the interior region and configured for transporting the one or more fluids in a predetermined path from the interior region to the exterior surface of the rotating roll, the vascular network comprising a plurality of main arteries, a plurality of junctions, a plurality of capillaries (24, 26) and a plurality of fluid exits on the exterior surface, wherein: each main artery comprises an inlet and is substantially parallel to the central longitudinal axis of the rotating roll, wherein the fluid enters the vascular network at the inlet; characterized in that each main artery is connected to one or more capillary through a junction and each capillary is in fluid communication with at least two fluid exits through a substantially radial fluid path to form a tree. a central longitudinal axis, wherein the rotating roll rotates about the central longitudinal axis; an exterior surface defining an interior region and substantially surrounding the central longitudinal axis; a vascular network disposed within the interior region and configured for transporting the one or more fluids in a predetermined path from the interior region to the exterior surface of the rotating roll, the vascular network comprising a plurality of main arteries, a plurality of junctions, a plurality of capillaries (24, 26) and a plurality of fluid exits on the exterior surface, wherein: each main artery comprises an inlet and is substantially parallel to the central longitudinal axis of the rotating roll, wherein the fluid enters the vascular network at the inlet; characterized in that each main artery is connected to one or more capillary through a junction and each capillary is in fluid communication with at least two fluid exits through a substantially radial fluid path to form a tree. each main artery comprises an inlet and is substantially parallel to the central longitudinal axis of the rotating roll, wherein the fluid enters the vascular network at the inlet; characterized in that each main artery is connected to one or more capillary through a junction and each capillary is in fluid communication with at least two fluid exits through a substantially radial fluid path to form a tree.