mhurhangee/patent-ind-claim-en huggingface dataset:
A method for exponentially amplifying circular DNA by repeating replication cycles, comprising a step of: forming a reaction mixture composed of a reaction solution containing (a) a first enzyme group that catalyzes replication of circular DNA; (b) a second enzyme group that catalyzes an Okazaki fragment maturation and synthesizes two sister circular DNAs constituting a catenane; and (c) a third enzyme group that catalyzes a separation of two sister circular DNAs; and circular DNA that constitutes a template, wherein the circular DNA includes a replication origin sequence (origin of chromosome ( oriC )) that can bind to an enzyme having DnaA activity. forming a reaction mixture composed of a reaction solution containing (a) a first enzyme group that catalyzes replication of circular DNA; (b) a second enzyme group that catalyzes an Okazaki fragment maturation and synthesizes two sister circular DNAs constituting a catenane; and (c) a third enzyme group that catalyzes a separation of two sister circular DNAs; and circular DNA that constitutes a template, wherein (a) a first enzyme group that catalyzes replication of circular DNA; (b) a second enzyme group that catalyzes an Okazaki fragment maturation and synthesizes two sister circular DNAs constituting a catenane; and (c) a third enzyme group that catalyzes a separation of two sister circular DNAs; and circular DNA that constitutes a template, wherein the circular DNA includes a replication origin sequence (origin of chromosome ( oriC )) that can bind to an enzyme having DnaA activity.
A starting platform for swimmers comprising: a base supporting a tread surface , a first side panel and an opposite second side panel spaced apart from the first side panel , the base further including an interior cavity disposed between the tread surface , first side panel , and second side panel ; a shaft extending along a horizontal axis from the first side panel to the second side panel of the base , a portion of the shaft disposed within the interior cavity of the base ; a first adjustment mechanism coupled to a first end of the shaft , the first adjustment mechanism disposed along the first side panel of the base ; and an anchor ledge assembly including an anchor ledge extending downwardly relative to the base , the anchor ledge operatively coupled to the first adjustment mechanism , wherein the first adjustment mechanism is actuatable to rotate the shaft along a rotational axis thereof and adjust a position of the anchor ledge relative to the base . a base supporting a tread surface , a first side panel and an opposite second side panel spaced apart from the first side panel , the base further including an interior cavity disposed between the tread surface , first side panel , and second side panel ; a shaft extending along a horizontal axis from the first side panel to the second side panel of the base , a portion of the shaft disposed within the interior cavity of the base ; a first adjustment mechanism coupled to a first end of the shaft , the first adjustment mechanism disposed along the first side panel of the base ; and an anchor ledge assembly including an anchor ledge extending downwardly relative to the base , the anchor ledge operatively coupled to the first adjustment mechanism , wherein the first adjustment mechanism is actuatable to rotate the shaft along a rotational axis thereof and adjust a position of the anchor ledge relative to the base .
Hearing device comprising a flat flexible electric connection between device components that are pivotably connected to each other, the electric connection comprising an originally flat flexible circuit comprising one or more electric conductors embedded in a flexible substrate , said flexible circuit comprising a centre portion that is curved in its original, flat state and that in its mounted stage is bent to form a turn such that two curved sections of the curved centre portion emerge that are arranged opposite to each other in two spaced apart planes that essentially are parallel to each other.
Concentrator photovoltaic module, comprising a housing ; a photovoltaic chip ; at least two electrical contacts for contacting the photovoltaic chip ; a transparent cover ; wherein the housing has a receiving tray for receiving the photovoltaic chip ; the receiving tray has side walls with at least a first and a second reflective region , the first reflective region being oriented at a first angle (φ1) with respect to a horizontal plane of the housing and the second reflective region being oriented at a second angle (φ2) with respect to the horizontal plane of the housing ; and the first angle (φ1) is different from the second angle (φ2); characterized in that the housing comprises a base body made of plastic; the base body made of plastic has a recess forming the receiving tray with a recessed bottom portion for receiving the photovoltaic chip ; and the concentrator photovoltaic module is formed as a surface mountable module in SMD-technique. a housing ; a photovoltaic chip ; at least two electrical contacts for contacting the photovoltaic chip ; a transparent cover ; wherein the housing has a receiving tray for receiving the photovoltaic chip ; the receiving tray has side walls with at least a first and a second reflective region , the first reflective region being oriented at a first angle (φ1) with respect to a horizontal plane of the housing and the second reflective region being oriented at a second angle (φ2) with respect to the horizontal plane of the housing ; and the first angle (φ1) is different from the second angle (φ2); characterized in that the housing comprises a base body made of plastic; the base body made of plastic has a recess forming the receiving tray with a recessed bottom portion for receiving the photovoltaic chip ; and the concentrator photovoltaic module is formed as a surface mountable module in SMD-technique.
An apparatus for making measurements of a multi-core fiber having multiple optical cores , a center optical core of the multiple optical cores being positioned along a center axis of the multi-core fiber , the measurements being based on back reflections of laser light within the multiple optical cores , the apparatus comprising: detection circuitry (U) configured to track spatially continuously along the multi-core fiber , for each core of a set of cores of the multiple optical cores , a total phase change of a light signal reflected from that core as a function of distance along the multi-core fiber , the total phase change for any core of the set of cores at any point along the multi-core fiber corresponding to a total change in optical length of that core up to that point on the multi-core fiber ; and calculation circuitry (A) configured to: determine a difference between the total changes in optical length for the cores of the set of cores, and determine a twist parameter associated with the multi-core fiber at the point on the multi-core fiber based on the difference. detection circuitry (U) configured to track spatially continuously along the multi-core fiber , for each core of a set of cores of the multiple optical cores , a total phase change of a light signal reflected from that core as a function of distance along the multi-core fiber , the total phase change for any core of the set of cores at any point along the multi-core fiber corresponding to a total change in optical length of that core up to that point on the multi-core fiber ; and calculation circuitry (A) configured to: determine a difference between the total changes in optical length for the cores of the set of cores, and determine a twist parameter associated with the multi-core fiber at the point on the multi-core fiber based on the difference. determine a difference between the total changes in optical length for the cores of the set of cores, and determine a twist parameter associated with the multi-core fiber at the point on the multi-core fiber based on the difference.
A method of sterilization of a medical device placed in a closable airtight container , comprising the following steps: a) placing said medical device inside a closable airtight container (S1); b) closing said container (S2); c) placing a Vacuum Ultraviolet Light source at a distance comprised between 0 and 5 cm of a window of said container (S3), wherein said window is transparent to Vacuum Ultraviolet light and the rest of said container consists of an ultraviolet non-transparent material; d) irradiating a volume inside said container with Vacuum Ultraviolet Light through said window in order to generate ozone and/or ozonites within said volume (S4); e) removing said Vacuum Ultraviolet Light source (S5); f) waiting for an incubation time (S6). a) placing said medical device inside a closable airtight container (S1); b) closing said container (S2); c) placing a Vacuum Ultraviolet Light source at a distance comprised between 0 and 5 cm of a window of said container (S3), wherein said window is transparent to Vacuum Ultraviolet light and the rest of said container consists of an ultraviolet non-transparent material; d) irradiating a volume inside said container with Vacuum Ultraviolet Light through said window in order to generate ozone and/or ozonites within said volume (S4); e) removing said Vacuum Ultraviolet Light source (S5); f) waiting for an incubation time (S6).
A method of removing a pellicle from a photomask , comprising the step of: cooling an adhesive between a frame of the pellicle and the photomask ; wherein the step of cooling the adhesive comprises the step of: cooling the frame of the pellicle , wherein the step of cooling the frame of the pellicle comprises placing a manifold containing coolant against the pellicle frame , characterized in that the manifold contains weep holes. cooling an adhesive between a frame of the pellicle and the photomask ; wherein the step of cooling the adhesive comprises the step of: cooling the frame of the pellicle , wherein the step of cooling the frame of the pellicle comprises placing a manifold containing coolant against the pellicle frame , characterized in that the manifold contains weep holes. cooling the frame of the pellicle , wherein the step of cooling the frame of the pellicle comprises placing a manifold containing coolant against the pellicle frame , characterized in that the manifold contains weep holes.
An adeno-associated virus (AAV) virion produced in an insect cell, comprising in its genome at least one nucleotide sequence encoding a gene product of interest, whereby the at least one nucleotide sequence is not a native AAV nucleotide sequence, and whereby in the stoichiometry of the AAV capsid proteins the amount of VP1 is at least 11% of the amount of VP3, and wherein the amount of VP1 is at least 110% of the amount of VP2, and wherein AAV capsid protein VP1 has been translated from a CTG initiation codon.
A method of making a bevel gear system comprising: providing a pinion gear ; providing a first set of side gears and a second set of side gears ; determining a desired gear ratio of the bevel gear system ; selecting a member of the first set of side gears and a member of the second set of side gears corresponding to the desired gear ratio, wherein a selected first side gear has a different number of teeth than a selected second side gear ; and assembling the bevel gear system such that the selected first and second side gears rotatably engage the pinion gear , wherein the pinion gear is rotatably disposed on a pin on a spider that is positioned in a case and the configuration of the spider remains constant regardless of which members of the first and second sets of side gears are selected. providing a pinion gear ; providing a first set of side gears and a second set of side gears ; determining a desired gear ratio of the bevel gear system ; selecting a member of the first set of side gears and a member of the second set of side gears corresponding to the desired gear ratio, wherein a selected first side gear has a different number of teeth than a selected second side gear ; and assembling the bevel gear system such that the selected first and second side gears rotatably engage the pinion gear , wherein the pinion gear is rotatably disposed on a pin on a spider that is positioned in a case and the configuration of the spider remains constant regardless of which members of the first and second sets of side gears are selected.
A method for checking the completeness and/or authenticity of documents of value, wherein at least one document of value comprises at least one machine-readable characteristic material at at least two locations, having the steps of: - at least local excitation of the document of value (S2) - spatially resolved detection of a characteristic intensity (M) with respect to the machine-readable characteristic material at several different locations of the document of value (S3a); - location-based classification of the location-based characteristic intensities by means of a threshold value (S5); - determining location-based limits of an expected location distribution of the machine-readable characteristic material (S6); and - determining a completeness measure for the entire document of value based on an evaluation of a location-based distribution of the classified characteristic intensities (S7), wherein the evaluation is performed with respect to a relative location of classified pixels relative below a threshold to the determined limits of the expected location distribution of the machine-readable characteristic material. - at least local excitation of the document of value (S2) - spatially resolved detection of a characteristic intensity (M) with respect to the machine-readable characteristic material at several different locations of the document of value (S3a); - location-based classification of the location-based characteristic intensities by means of a threshold value (S5); - determining location-based limits of an expected location distribution of the machine-readable characteristic material (S6); and - determining a completeness measure for the entire document of value based on an evaluation of a location-based distribution of the classified characteristic intensities (S7), wherein the evaluation is performed with respect to a relative location of classified pixels relative below a threshold to the determined limits of the expected location distribution of the machine-readable characteristic material.
A heat-insulating hinged panel, such as door or window, comprising a frame made of interconnected longitudinal frame members and a sash made of interconnected longitudinal sash members, which is hingedly disposed within the frame and embeds a glass pane assembly , wherein at least one glass pane having the external surface coplanar with the external surface of the external pane of the pane assembly is fixed to the frame , whereby said glass pane assembly is secured to the sash by means of longitudinal profiled members fixed to the sash and having projections introduced into the glass pane assembly at the perimeter thereof, so that the external surface of the external glass pane of the glass pane assembly is the most external surface of the sash , and said at least one glass pane fixed to the frame at least partially covers the sash , characterized in that said glass pane assembly has a rectangular box shape and comprises a number of glass panes separated at their perimeters with an elastomeric spacing insulation , while said projections of said longitudinal profiled members are pushed inside said spacing insulation . at least one glass pane having the external surface coplanar with the external surface of the external pane of the pane assembly is fixed to the frame , whereby said glass pane assembly is secured to the sash by means of longitudinal profiled members fixed to the sash and having projections introduced into the glass pane assembly at the perimeter thereof, so that the external surface of the external glass pane of the glass pane assembly is the most external surface of the sash , and said at least one glass pane fixed to the frame at least partially covers the sash , characterized in that said glass pane assembly has a rectangular box shape and comprises a number of glass panes separated at their perimeters with an elastomeric spacing insulation , while said projections of said longitudinal profiled members are pushed inside said spacing insulation .
A method for predictive take-off rejection, TOR, of an aircraft , comprising: receiving , at a computing device on the aircraft and at a time before the aircraft takes off for a current flight, outputs from a plurality of sensors positioned on the aircraft, wherein the plurality of sensors output data representative of different types of physical phenomena; comparing the outputs received from the plurality of sensors for the current flight to reference flight data , wherein the reference flight data includes a data stream collected for the same sensors positioned at a substantially same location on the aircraft, during substantially same flight conditions, and during a successful takeoff of the aircraft; based on comparing the outputs received from the plurality of sensors for the current flight to the reference flight data, the computing device making a determination of whether to initiate a TOR procedure before the aircraft reaches a takeoff speed on a runway, wherein when the outputs received from the plurality of sensors for the current flight are outside of a threshold range of the reference flight data, the computing device determines to initiate the TOR procedure; and based on determining to initiate the TOR procedure, the computing device sending a signal to a control device on the aircraft to initiate the TOR procedure. receiving , at a computing device on the aircraft and at a time before the aircraft takes off for a current flight, outputs from a plurality of sensors positioned on the aircraft, wherein the plurality of sensors output data representative of different types of physical phenomena; comparing the outputs received from the plurality of sensors for the current flight to reference flight data , wherein the reference flight data includes a data stream collected for the same sensors positioned at a substantially same location on the aircraft, during substantially same flight conditions, and during a successful takeoff of the aircraft; based on comparing the outputs received from the plurality of sensors for the current flight to the reference flight data, the computing device making a determination of whether to initiate a TOR procedure before the aircraft reaches a takeoff speed on a runway, wherein when the outputs received from the plurality of sensors for the current flight are outside of a threshold range of the reference flight data, the computing device determines to initiate the TOR procedure; and based on determining to initiate the TOR procedure, the computing device sending a signal to a control device on the aircraft to initiate the TOR procedure.
A stereo comparator adaptor for adjusting and aligning an optical assembly of a stereo endoscope, the stereo comparator adaptor comprising: a housing having a distal end and a proximal end, a plurality of optical components supported by the housing, the optical components including a first deflecting component , a second deflecting component , and an eyepiece coupled to a camera ; and wherein the distal end of the housing includes a coupler , the coupler being configured to removably connect the stereo comparator adaptor to the proximal end of the optical assembly of the stereo endoscope and aligning a left and right optical axes of the optical assembly with the first and second deflecting components , characterized in that , the optical components further including a third deflecting component and a beam splitter , wherein the first deflecting component is arranged to deflect a first beam from the left optical axis to the beam splitter , the second deflecting component is arranged to deflect a second beam from the right optical axis to the third deflecting component , the third deflecting component is arranged to deflect the second beam to the beam splitter and the beam splitter is arranged to combine the first beam with the second beam to form a first combined beam that extends along a first common optical axis of the eye piece , and wherein the stereo comparator adaptor further comprises a switch mechanism located distally to the plurality of optical components and arranged to selectively block transmission of the first beam or the second beam to the plurality of optical components. a housing having a distal end and a proximal end, a plurality of optical components supported by the housing, the optical components including a first deflecting component , a second deflecting component , and an eyepiece coupled to a camera ; and wherein the distal end of the housing includes a coupler , the coupler being configured to removably connect the stereo comparator adaptor to the proximal end of the optical assembly of the stereo endoscope and aligning a left and right optical axes of the optical assembly with the first and second deflecting components , characterized in that , the optical components further including a third deflecting component and a beam splitter , wherein the first deflecting component is arranged to deflect a first beam from the left optical axis to the beam splitter , the second deflecting component is arranged to deflect a second beam from the right optical axis to the third deflecting component , the third deflecting component is arranged to deflect the second beam to the beam splitter and the beam splitter is arranged to combine the first beam with the second beam to form a first combined beam that extends along a first common optical axis of the eye piece , and wherein the stereo comparator adaptor further comprises a switch mechanism located distally to the plurality of optical components and arranged to selectively block transmission of the first beam or the second beam to the plurality of optical components.
A polyimide cover substrate, comprising: a polyimide film; and a device protection layer formed of a urethane acrylate compound on at least one side of the polyimide film, wherein the urethane acrylate compound is a urethane acrylate compound represented by Chemical Formula 1 below: wherein R is each independently a benzene group, an alkylbenzene group having 1 to 5 carbon atoms, an alkoxybenzene group having 1 to 5 carbon atoms, a cyclohexane group, an alkylcyclohexane group having 1 to 5 carbon atoms, a diphenylmethane group, a diphenylethane group, a dicyclohexylmethane group or an alkyl group having 1 to 10 carbon atoms. a polyimide film; and a device protection layer formed of a urethane acrylate compound on at least one side of the polyimide film, wherein the urethane acrylate compound is a urethane acrylate compound represented by Chemical Formula 1 below: wherein R is each independently a benzene group, an alkylbenzene group having 1 to 5 carbon atoms, an alkoxybenzene group having 1 to 5 carbon atoms, a cyclohexane group, an alkylcyclohexane group having 1 to 5 carbon atoms, a diphenylmethane group, a diphenylethane group, a dicyclohexylmethane group or an alkyl group having 1 to 10 carbon atoms.