mhurhangee/patent-ind-claim-en huggingface dataset:
A method to obtain the spatial location and sequence information of a target sequence in a sample comprising at least one m-RNA strand comprising the steps a. providing a surface with a plurality of spacer units capable of binding at least one m-RNA strand and with at least one fiducial marker b. providing a sample comprising at least one m-RNA strand to the surface wherein at least one m-RNA strand of the sample binds to at least one spacer unit creating at least one single stranded oligomer c. taking a first image of the surface to obtain the spatial information of the sample relative to the fiducial marker d. removing sample form surface e. hybridizing at least one oligonucleotide comprising 50 - 1000 nucleic acids with its 5' and 3' ends to complementary parts of the single stranded oligomer thereby forming a padlock-shaped structure that is ligated to create a single strand circular template f. multiplying the single strand circular template by a polymerase capable of rolling circle amplification into a plurality of DNA concatemers thereby forming rolonies g. obtaining the sequence information of the rolonies h. linking the spatial information of the sample with the sequence information of the rolonies. a. providing a surface with a plurality of spacer units capable of binding at least one m-RNA strand and with at least one fiducial marker b. providing a sample comprising at least one m-RNA strand to the surface wherein at least one m-RNA strand of the sample binds to at least one spacer unit creating at least one single stranded oligomer c. taking a first image of the surface to obtain the spatial information of the sample relative to the fiducial marker d. removing sample form surface e. hybridizing at least one oligonucleotide comprising 50 - 1000 nucleic acids with its 5' and 3' ends to complementary parts of the single stranded oligomer thereby forming a padlock-shaped structure that is ligated to create a single strand circular template f. multiplying the single strand circular template by a polymerase capable of rolling circle amplification into a plurality of DNA concatemers thereby forming rolonies g. obtaining the sequence information of the rolonies h. linking the spatial information of the sample with the sequence information of the rolonies.
An electronic device comprising: a first connector having a plurality of contacts (206 -206(N), 207 -207(N), 208 -208 ); and control circuitry operatively coupled to at least some of the plurality of contacts, wherein the control circuitry is configured to: detect when a second connector associated with an accessory is mated with the first connector ; in response to the detection, send a command sequence , to the accessory, over a first contact in the plurality of contacts (206 -206(N), 207 -207(N), 208 -208 ) requesting information about configuration of contacts (112 -112(N), 114 -114(N)) in the second connector ; and if a response to the command sequence is received from the accessory over the first contact, set internal connections to one or more contacts in the plurality of contacts (206 -206(N), 207 -207(N), 208 -208 ) based on the information about configuration of contacts in the second connector in the response. a first connector having a plurality of contacts (206 -206(N), 207 -207(N), 208 -208 ); and control circuitry operatively coupled to at least some of the plurality of contacts, wherein the control circuitry is configured to: detect when a second connector associated with an accessory is mated with the first connector ; in response to the detection, send a command sequence , to the accessory, over a first contact in the plurality of contacts (206 -206(N), 207 -207(N), 208 -208 ) requesting information about configuration of contacts (112 -112(N), 114 -114(N)) in the second connector ; and if a response to the command sequence is received from the accessory over the first contact, set internal connections to one or more contacts in the plurality of contacts (206 -206(N), 207 -207(N), 208 -208 ) based on the information about configuration of contacts in the second connector in the response. detect when a second connector associated with an accessory is mated with the first connector ; in response to the detection, send a command sequence , to the accessory, over a first contact in the plurality of contacts (206 -206(N), 207 -207(N), 208 -208 ) requesting information about configuration of contacts (112 -112(N), 114 -114(N)) in the second connector ; and if a response to the command sequence is received from the accessory over the first contact, set internal connections to one or more contacts in the plurality of contacts (206 -206(N), 207 -207(N), 208 -208 ) based on the information about configuration of contacts in the second connector in the response.
A spin-detection method comprising the following steps: a) placing a sample (E) containing spins (SE) in a stationary magnetic field (B 0 ); b) magnetically coupling the sample to an electromagnetic resonator (REM) having a resonant frequency ω 0 /2π equal to the Larmor frequency of the spins in the stationary magnetic field, the coupling constant and the quality factor of the resonator being sufficiently high for the coupling to the resonator to dominate the dynamics of relaxation of the spins; c) exciting the spins of the sample by means of a radio-frequency or microwave electromagnetic pulse (IS) at said Larmor frequency; and d) detecting an electromagnetic signal (RS') emitted by the spins of the sample in a mode of the electromagnetic resonator in response to said pulse by means of a device (CP) for counting radio-frequency or microwave photons; characterized in that the radio-frequency or microwave electromagnetic pulse at the Larmor frequency is a spin-flipping pulse, whereby the detected signal is a noise signal produced by the return of the spins to equilibrium. a) placing a sample (E) containing spins (SE) in a stationary magnetic field (B 0 ); b) magnetically coupling the sample to an electromagnetic resonator (REM) having a resonant frequency ω 0 /2π equal to the Larmor frequency of the spins in the stationary magnetic field, the coupling constant and the quality factor of the resonator being sufficiently high for the coupling to the resonator to dominate the dynamics of relaxation of the spins; c) exciting the spins of the sample by means of a radio-frequency or microwave electromagnetic pulse (IS) at said Larmor frequency; and d) detecting an electromagnetic signal (RS') emitted by the spins of the sample in a mode of the electromagnetic resonator in response to said pulse by means of a device (CP) for counting radio-frequency or microwave photons;
A package of a heat-bent polarizing sheet suitable for producing an injection-molded polarizing lens, whereby the heat-bent polarizing sheet results from preparing a laminated polarizing sheet by bonding a transparent plastic sheet onto each of two sides of a polarizing film formed of a uniaxially stretched polyvinyl alcohol resin film with an adhesive layer interposed therebetween, using the said laminated polarizing sheet as an individual laminated polarizing sheet that has an original plate shape for individual lenses and subsequently heat-bending the individual laminated polarizing sheet to form a spherical surface or an aspherical surface under heating, wherein the package uses a dampproof package material and wherein the packaged heat-bent polarizing sheet has a moisture content of 0.35 wt% or less and preferably 0.3 wt% or less in order to thereby enable the injection-molding of a transparent resin for producing the polarizing lens without performing preliminary drying as a pretreatment of injection-molding.
An electrophoresis chip, comprising: a housing that includes a microchannel that extends from a first end to a second end of the housing, the microchannel containing an electrophoresis sieving medium that includes cellulose acetate paper at least partially saturated with a buffer solution; a sample loading port for introducing a sample to the microchannel and sieving medium; a first electrode and a second electrode for generating an electric field along a length of the sieving medium, wherein the generated electric field induces migration and separation of components of the sample introduced into the sample loading port along the length of the sieving medium, a portion of the housing being optically transparent for visualizing the migrated and separated sample along a portion of the length of the sieving medium. a housing that includes a microchannel that extends from a first end to a second end of the housing, the microchannel containing an electrophoresis sieving medium that includes cellulose acetate paper at least partially saturated with a buffer solution; a sample loading port for introducing a sample to the microchannel and sieving medium; a first electrode and a second electrode for generating an electric field along a length of the sieving medium, wherein the generated electric field induces migration and separation of components of the sample introduced into the sample loading port along the length of the sieving medium, a portion of the housing being optically transparent for visualizing the migrated and separated sample along a portion of the length of the sieving medium.
A secondary battery comprising a first electrode which is one of a positive electrode and a negative electrode , a second electrode which is the other of the positive electrode and the negative electrode , and a solid electrolyte layer which is a sheet comprising a solid electrolyte having a lithium ion conductivity, wherein a first lithium ion conductivity in a peripheral edge region along an in-plane direction of the sheet is lower than a second lithium ion conductivity in a central region along the in-plane direction of the sheet, the solid electrolyte layer has a first surface and a second surface facing the first surface, at least a portion of the first surface is in contact with the first electrode, at least a portion of the second surface is in contact with the second electrode, a width of the first electrode along each direction of in-plane direction of the sheet is larger than a width of the second electrode along the each direction, the peripheral edge region is a region corresponding to a difference between the width of the first electrode and the width of the second electrode and comprises a first portion which comprises a surface in contact with the first electrode and located in the first surface, the central region is a region corresponding to the width of the second electrode along the each direction and comprises a second portion which comprises a surface in contact with the first electrode and located in the first surface, the second portion further comprises a surface being in contact with the second electrode and located in the second surface, a first lithium ion conductivity of the first portion is lower than a second lithium ion conductivity of the second portion , the peripheral edge region comprises inorganic compound particles, and the inorganic compound particles are at least one selected from the group consisting of alumina, titanium oxide, titanium hydroxide, barium titanate, iron oxide, silicon oxide, aluminum hydroxide, gibbsite, boehmite, bayerite, magnesium oxide, silica, zirconium oxide, magnesium hydroxide, lithium tetraborate, lithium tantalate, mica, silicon nitride, aluminum nitride, and zeolite, the first lithium ion conductivity in the peripheral edge region is not more than 1×10 -10 S/cm, and the second lithium ion conductivity in the central region is not less than 1×10 -4 S/cm, the first lithium ion conductivity and the second lithium ion conductivity are both determined according to a measurement method described in the section <Measurement of Lithium Ion Conductivity> of the specification, a ratio of a width of the first portion along direction X among in-plane directions of the sheet to a width of the solid electrolyte layer along the direction X is within a range of 1% to 50%, and a ratio of the width of the first portion along direction Y among in-plane directions of the sheet to a width of the second electrode along the direction Y is within a range of 0% to 20%.
A system in which a transmitter is configured to move through the ground in a region during an operational procedure while transmitting a depth signal at a depth frequency and a data stream at one or more data frequencies that at least characterizes an orientation parameter of the transmitter , said system comprising an antenna for receiving the depth signal and the data frequencies to produce an output, characterized in that it further comprises a switchable filter section for limiting the antenna output in a normal mode to one frequency band that is above a predetermined frequency to pass the depth signal and the data stream at one or more frequencies and for limiting the antenna output in a rebar passive interference mode to another frequency band to pass the depth signal at less than the predetermined frequency and the data stream including the one or more frequencies above the predetermined frequency; and a processor configured for switching the switchable filter section between the normal mode and the rebar passive interference mode to recover the depth signal and data stream responsive to selection of normal mode and the rebar passive interference mode. an antenna for receiving the depth signal and the data frequencies to produce an output, characterized in that it further comprises a switchable filter section for limiting the antenna output in a normal mode to one frequency band that is above a predetermined frequency to pass the depth signal and the data stream at one or more frequencies and for limiting the antenna output in a rebar passive interference mode to another frequency band to pass the depth signal at less than the predetermined frequency and the data stream including the one or more frequencies above the predetermined frequency; and a processor configured for switching the switchable filter section between the normal mode and the rebar passive interference mode to recover the depth signal and data stream responsive to selection of normal mode and the rebar passive interference mode.
Waffle iron comprising a baking mould , a heating element , a pressure body with tensioning means configured to clamp the heating element against the baking mould, and a housing part in which the pressure body and the heating element are received, wherein the baking mould has an outer surface which is accessible by a user and an inner surface adjacent to the heating element, characterized in that the tensioning means are accessible at the outer surface of the baking mould and extend from the baking mould at least up to the pressure body and at most up to an inner wall of the housing part facing toward the pressure body.
Gold alloy consisting of: - at least 990 ‰ in weight of gold, - a quantity greater than or equal to 0.6‰ and less than or equal to 10‰ of two alloying elements: ∗ a first alloying element chosen from silicon, yttrium, titanium and germanium, and mixtures thereof, and ∗ a second alloying element chosen from tin, germanium, and mixtures thereof, - any impurities representing less than 50 ppm by weight of the alloy, the first alloying element and the second alloying element being different, and the quantity of the first alloying element being greater than the quantity of the second alloying element, the gold alloy having a hardness of at least 90 Hv. - at least 990 ‰ in weight of gold, - a quantity greater than or equal to 0.6‰ and less than or equal to 10‰ of two alloying elements: ∗ a first alloying element chosen from silicon, yttrium, titanium and germanium, and mixtures thereof, and ∗ a second alloying element chosen from tin, germanium, and mixtures thereof, ∗ a first alloying element chosen from silicon, yttrium, titanium and germanium, and mixtures thereof, and ∗ a second alloying element chosen from tin, germanium, and mixtures thereof, - any impurities representing less than 50 ppm by weight of the alloy,
A method performed by a wireless device configured with Multi-Radio Access Technology Dual Connectivity (MR-DC), the method comprising: receiving, from a first network node, at least one message in a reconfiguration procedure for a first cell group, wherein the reconfiguration procedure for the first cell group is a mobility procedure for the wireless device, said mobility procedure comprising one or more of: a change of a special cell for the first cell group, a change of at least one other cell for the first cell group, a handover and a reconfiguration with sync of the first cell group; wherein the at least one message indicates a power saving mode of operation to be applied by the wireless device for a second cell group , wherein the power saving mode comprises a suspend mode or dormant mode or deactivated mode or inactivated mode of operation, and operating the second cell group according to the mode of operation indicated in the at least one message. receiving, from a first network node, at least one message in a reconfiguration procedure for a first cell group, wherein the reconfiguration procedure for the first cell group is a mobility procedure for the wireless device, said mobility procedure comprising one or more of: a change of a special cell for the first cell group, a change of at least one other cell for the first cell group, a handover and a reconfiguration with sync of the first cell group; wherein the at least one message indicates a power saving mode of operation to be applied by the wireless device for a second cell group , wherein the power saving mode comprises a suspend mode or dormant mode or deactivated mode or inactivated mode of operation, and operating the second cell group according to the mode of operation indicated in the at least one message.
A photoelectric conversion element comprising: a pair of electrodes including a first electrode and a second electrode ; a first insulator layer having a first capacitance, and disposed to make contact with the first electrode ; a second insulator layer having a second capacitance, which is smaller than the first capacitance of the first insulator layer , and disposed to make contact with the second electrode , wherein the second insulator layer is a solid insulator or an ionic liquid; and an organic semiconductor configured to receive a light to generate an electromotive force, and interposed between the first insulator layer and the second insulator layer to make contact therewith, characterized in that the first insulator layer includes an ionic liquid whose major components are a positive ion and a negative ion. a pair of electrodes including a first electrode and a second electrode ; a first insulator layer having a first capacitance, and disposed to make contact with the first electrode ; a second insulator layer having a second capacitance, which is smaller than the first capacitance of the first insulator layer , and disposed to make contact with the second electrode , wherein the second insulator layer is a solid insulator or an ionic liquid; and an organic semiconductor configured to receive a light to generate an electromotive force, and interposed between the first insulator layer and the second insulator layer to make contact therewith, characterized in that the first insulator layer includes an ionic liquid whose major components are a positive ion and a negative ion.
A delivery device for delivering a stented prosthetic heart valve to a native heart valve; the delivery device comprising: an inner shaft assembly on which the prosthetic heart valve can be releasably connected in a loaded state with a suture ; a primary release mechanism configured for releasing the suture from the stented prosthetic heart valve ; and a secondary release mechanism configured to sever the suture ; characterised in that the primary release mechanism is a release pin . an inner shaft assembly on which the prosthetic heart valve can be releasably connected in a loaded state with a suture ; a primary release mechanism configured for releasing the suture from the stented prosthetic heart valve ; and a secondary release mechanism configured to sever the suture ; characterised in that the primary release mechanism is a release pin .
A blood pump system comprising: a rotary motor comprising a stator and a rotor , the rotor having a predefined number of permanent magnetic poles for magnetic levitation of the rotor , the stator having a plurality of pole pieces (123a-f) arranged circumferentially at intervals; and a controller configured to control a start phase of the rotor , wherein the start phase is prior to the rotor being positioned in a predefined geometric volume for pumping blood and wherein the start phase includes at least one of: performing a rotation of the rotor by an angle within a predetermined range, the angle being larger than an angle corresponding to a quarter of an angular distance between two neighboring magnetic poles of the rotor ; and rolling the rotor from a start position to a target position, wherein a magnet of the rotor experiences a reduced magnetic attraction at the target position compared to the start position. a rotary motor comprising a stator and a rotor , the rotor having a predefined number of permanent magnetic poles for magnetic levitation of the rotor , the stator having a plurality of pole pieces (123a-f) arranged circumferentially at intervals; and a controller configured to control a start phase of the rotor , wherein the start phase is prior to the rotor being positioned in a predefined geometric volume for pumping blood and wherein the start phase includes at least one of: performing a rotation of the rotor by an angle within a predetermined range, the angle being larger than an angle corresponding to a quarter of an angular distance between two neighboring magnetic poles of the rotor ; and rolling the rotor from a start position to a target position, wherein a magnet of the rotor experiences a reduced magnetic attraction at the target position compared to the start position. performing a rotation of the rotor by an angle within a predetermined range, the angle being larger than an angle corresponding to a quarter of an angular distance between two neighboring magnetic poles of the rotor ; and rolling the rotor from a start position to a target position, wherein a magnet of the rotor experiences a reduced magnetic attraction at the target position compared to the start position.
A transmission apparatus comprising: a transmission signal generator which, in operation, generates a transmission signal that includes a legacy preamble, a non-legacy preamble and a data field, the non-legacy preamble comprising a first field for indicating a number of spatial streams, Nss, in the data field and a second field for indicating one of a plurality of modulation and coding schemes, MCSs; and a transmitter which, in operation, transmits the generated transmission signal, characterized in that two or more frequency diversity transmission schemes are supported and one of the two or more frequency diversity transmission schemes is specified based on a value of the Nss. a transmission signal generator which, in operation, generates a transmission signal that includes a legacy preamble, a non-legacy preamble and a data field, the non-legacy preamble comprising a first field for indicating a number of spatial streams, Nss, in the data field and a second field for indicating one of a plurality of modulation and coding schemes, MCSs; and a transmitter which, in operation, transmits the generated transmission signal, characterized in that two or more frequency diversity transmission schemes are supported and one of the two or more frequency diversity transmission schemes is specified based on a value of the Nss.