mhurhangee/patent-ind-claim-en huggingface dataset:
A system , comprising: an optically transmissive substrate comprising: a protective coating on a first surface (220-a) and a blocking coating on a second surface (220-b) that is opposite the first surface (220-a), wherein the protective coating is configured to protect the optically transmissive substrate from at least ultraviolet laser energy, and wherein the blocking coating has a first thickness that is less than about 280 nanometers and is adhered to a subset of the second surface (220-b); and a capping layer covering the blocking coating that is on the subset of the second surface (220-b) and having a second thickness less than the first thickness of the blocking coating ; a structure configured to support the optically transmissive substrate ; and a sealing component positioned between the capping layer (330,425 and the structure configured to support the optically transmissive substrate . an optically transmissive substrate comprising: a protective coating on a first surface (220-a) and a blocking coating on a second surface (220-b) that is opposite the first surface (220-a), wherein the protective coating is configured to protect the optically transmissive substrate from at least ultraviolet laser energy, and wherein the blocking coating has a first thickness that is less than about 280 nanometers and is adhered to a subset of the second surface (220-b); and a capping layer covering the blocking coating that is on the subset of the second surface (220-b) and having a second thickness less than the first thickness of the blocking coating ; a protective coating on a first surface (220-a) and a blocking coating on a second surface (220-b) that is opposite the first surface (220-a), wherein the protective coating is configured to protect the optically transmissive substrate from at least ultraviolet laser energy, and wherein the blocking coating has a first thickness that is less than about 280 nanometers and is adhered to a subset of the second surface (220-b); and a capping layer covering the blocking coating that is on the subset of the second surface (220-b) and having a second thickness less than the first thickness of the blocking coating ; a structure configured to support the optically transmissive substrate ; and a sealing component positioned between the capping layer (330,425 and the structure configured to support the optically transmissive substrate .
Electrostatic collector comprising: a collection chamber oriented along a first axis (z); a collection electrode , a discharge electrode , of elongate form, extending along said first axis (z) and comprising: - an end (10-1), in the shape of a tip, said end being disposed opposite the collection electrode ; - a first part, slender, of a first diameter, emerging on said tip-shaped end, - a second part of a second diameter, the second diameter being greater than or equal to twice the first diameter, the second diameter being preferably between 2 and 6 times the first diameter; and - a sudden widening , extending between the first part and the second part , characterised in that - the collection chamber is delimited by a tubular wall made from an electrically insulating material and - the collection electrode is intended to be disposed inside the collection chamber in an opening formed in the wall , and is removable, capable of being inserted into the electrostatic collector and capable of being removed therefrom. a collection chamber oriented along a first axis (z); a collection electrode , a discharge electrode , of elongate form, extending along said first axis (z) and comprising: - an end (10-1), in the shape of a tip, said end being disposed opposite the collection electrode ; - a first part, slender, of a first diameter, emerging on said tip-shaped end, - a second part of a second diameter, the second diameter being greater than or equal to twice the first diameter, the second diameter being preferably between 2 and 6 times the first diameter; and - a sudden widening , extending between the first part and the second part , - an end (10-1), in the shape of a tip, said end being disposed opposite the collection electrode ; - a first part, slender, of a first diameter, emerging on said tip-shaped end, - a second part of a second diameter, the second diameter being greater than or equal to twice the first diameter, the second diameter being preferably between 2 and 6 times the first diameter; and - a sudden widening , extending between the first part and the second part , characterised in that - the collection chamber is delimited by a tubular wall made from an electrically insulating material and - the collection electrode is intended to be disposed inside the collection chamber in an opening formed in the wall , and is removable, capable of being inserted into the electrostatic collector and capable of being removed therefrom. - the collection chamber is delimited by a tubular wall made from an electrically insulating material and - the collection electrode is intended to be disposed inside the collection chamber in an opening formed in the wall , and is removable, capable of being inserted into the electrostatic collector and capable of being removed therefrom.
Light-emitting device for emitting a radiation in a spectral range, the device successively comprising: - a substrate comprising a metal layer capable of reflecting the radiation; - a first layer of a III/N type alloy, p-type doped, and comprising a first surface , facing the metal layer , the first surface being provided with cavities ; - a light-emitting layer of a III/N-type alloy, capable of generating the radiation; - a second layer of a III/N-type alloy, n-type doped, having the radiation coming out therethrough; the device being characterized in that a filling material , non-metallic and transparent in the spectral range, is arranged within the cavities . - a substrate comprising a metal layer capable of reflecting the radiation; - a first layer of a III/N type alloy, p-type doped, and comprising a first surface , facing the metal layer , the first surface being provided with cavities ; - a light-emitting layer of a III/N-type alloy, capable of generating the radiation; - a second layer of a III/N-type alloy, n-type doped, having the radiation coming out therethrough;
A formulation prepared via mixing a plurality of components to provide an aqueous solution or dispersion, the components comprising a hypobromite salt, a chlorite salt, water, a pH adjusting agent, and a viscosity enhancer, wherein the resulting formulation has a pH of from about 4 to about 9.
A frozen confection product comprising a receptacle , a membrane , one or more frozen confections and at least one frozen confection coating composition , wherein the receptacle comprises the frozen confection and frozen confection coating composition , and the membrane comprises a convex recess and convex face , wherein the frozen confection coating composition comprises a surface and the surface is opposite to the concave face of the convex recess and the distance between the surface of the frozen confection coating composition and the closest point of the concave face of the membrane is from 0 % to 95 % of the maximum height of the concave face , wherein the surface of the frozen confection coating composition is substantially planar.
A process for analysing a single molecule or a plurality of single molecules comprising the following steps: (a) providing a planar support comprising a plurality of individual sample nano-spots thereon, wherein the individual sample nano-spots are at least partially made from an electrically conductive material, (b) contacting said support with a liquid medium comprising at least one single molecule or a plurality of single molecules to be analysed, whereby a reaction space of liquid medium on said sample nano-spots is formed, (c) applying an electrical field across said reaction space , wherein the electrical field is applied with a direct current voltage, whereby a concentration of said at least one single molecule , or said plurality of single molecules to be analysed at said sample spots is effected, and (d) individually analysing said at least one single molecule or said plurality of single molecules , characterized in that the single molecule or said plurality of single molecules at the individual sample nano-spots is illuminated by a light source providing an illuminated volume element, the volume element being an evanescent field generated by total internal reflection, light emitted from said single molecule or from said plurality of single molecules is individually detected with a light detector comprising a plurality of detection pixels, and wherein an optical projection of a detection pixel on the support has a diameter in the range of about 100 nm to 5 μm and wherein an individual sample nano-spot is aligned to the projection of a single detection pixel on the support. (a) providing a planar support comprising a plurality of individual sample nano-spots thereon, wherein the individual sample nano-spots are at least partially made from an electrically conductive material, (b) contacting said support with a liquid medium comprising at least one single molecule or a plurality of single molecules to be analysed, whereby a reaction space of liquid medium on said sample nano-spots is formed, (c) applying an electrical field across said reaction space , wherein the electrical field is applied with a direct current voltage, whereby a concentration of said at least one single molecule , or said plurality of single molecules to be analysed at said sample spots is effected, and (d) individually analysing said at least one single molecule or said plurality of single molecules , the single molecule or said plurality of single molecules at the individual sample nano-spots is illuminated by a light source providing an illuminated volume element, the volume element being an evanescent field generated by total internal reflection, light emitted from said single molecule or from said plurality of single molecules is individually detected with a light detector comprising a plurality of detection pixels, and wherein an optical projection of a detection pixel on the support has a diameter in the range of about 100 nm to 5 μm and wherein an individual sample nano-spot is aligned to the projection of a single detection pixel on the support.
A method for wireless communication at a user equipment, UE, comprising: receiving , from a first access point using a first radio access technology, RAT, a configuration associated with a logical traffic connection, the configuration comprising at least one parameter for communicating data associated with the logical traffic connection via a second access point associated with a second RAT; characterized by estimating a subset of a total amount of data buffered in a packet data convergence protocol, PDCP, queue associated with the logical traffic connection expected to be transmitted via the second access point for a time period ending at an expected time of receipt of an uplink grant from the first access point; wherein the subset of the total amount of data is estimated based at least in part on a minimum data size associated with communicating with the second access point using the second RAT, a maximum data size associated with communicating with the second access point using the second RAT, a history of uplink transmission scheduling by the first access point, or combinations thereof; determining a buffer reporting value associated with the logical traffic connection based at least in part on the subset of the total amount of data and the at least one parameter; and transmitting a buffer status report, BSR, including the buffer reporting value to the first access point. receiving , from a first access point using a first radio access technology, RAT, a configuration associated with a logical traffic connection, the configuration comprising at least one parameter for communicating data associated with the logical traffic connection via a second access point associated with a second RAT; characterized by estimating a subset of a total amount of data buffered in a packet data convergence protocol, PDCP, queue associated with the logical traffic connection expected to be transmitted via the second access point for a time period ending at an expected time of receipt of an uplink grant from the first access point; wherein the subset of the total amount of data is estimated based at least in part on a minimum data size associated with communicating with the second access point using the second RAT, a maximum data size associated with communicating with the second access point using the second RAT, a history of uplink transmission scheduling by the first access point, or combinations thereof; determining a buffer reporting value associated with the logical traffic connection based at least in part on the subset of the total amount of data and the at least one parameter; and transmitting a buffer status report, BSR, including the buffer reporting value to the first access point.
A semiconductor device , comprising: a substrate having a crystal orientation facing a channel flow direction, and a upper surface; at least one p-type semiconductor body and at least one n-type semiconductor body both disposed on the substrate and both having at least initially strained semiconductor material comprising silicon germanium, SiGe, the individual semiconductor bodies having a channel region disposed between a source region and a drain region ; a strained cladding layer disposed on the channel region of the n-type semiconductor body and being made of silicon, Si; a gate dielectric layer disposed over the cladding layer; and a gate electrode disposed over the gate dielectric layer, wherein no cladding layer exists on the p-type semiconductor bodies. a substrate having a crystal orientation facing a channel flow direction, and a upper surface; at least one p-type semiconductor body and at least one n-type semiconductor body both disposed on the substrate and both having at least initially strained semiconductor material comprising silicon germanium, SiGe, the individual semiconductor bodies having a channel region disposed between a source region and a drain region ; a strained cladding layer disposed on the channel region of the n-type semiconductor body and being made of silicon, Si; a gate dielectric layer disposed over the cladding layer; and a gate electrode disposed over the gate dielectric layer, wherein no cladding layer exists on the p-type semiconductor bodies.
Vehicle seat having an adjusting device for adjusting a relative position between a first component and a second component of the vehicle seat , wherein the adjusting device has a securing device for blocking the adjusting device by means of a frictional engagement between a braking ring and braking elements of the adjusting device , wherein the braking ring is connected directly to the first component or directly to the second component , wherein the braking ring has a pot-shaped basic form, which has a hole in the middle, as a result of which the braking ring has an open form, wherein the braking elements in the form of rollers lie against the braking ring on the outside and against a component of the adjusting device that is connected to a pinion for conjoint rotation therewith on the inside as seen in the radial direction, and the braking ring is welded and/or adhesively bonded directly to the first component or to the second component , wherein a diameter of the hole is considerably larger than a diameter of a circular-cylindrical base of the pinion , wherein there is a peripheral gap between an outer contour of the base and a border of the hole .
A whole-cell bacterial vaccine composition for use in preventing whooping cough caused by Bordetella parapertussis, said composition comprising whole cells of B. parapertussis as immunogen, wherein the antigen is obtained by the steps of (a) and (b) below: (a) culturing B. parapertussis cells at 37°C for one to three days to produce a B. parapertussis culture preparation with a final cell concentration of 10 10 cells/mL; and (b) inactivating the whole B. parapertussis cell by adding a formalin solution comprising formaldehyde at a final formaldehyde concentration of 0.1 to 0.2% to the B . parapertussis culture preparation, wherein an effective single dose of said vaccine composition in humans is 0.02 mL to 0.5 mL when the final cell concentration of said vaccine formulation is adjusted to 10 10 cells/mL. (a) culturing B. parapertussis cells at 37°C for one to three days to produce a B. parapertussis culture preparation with a final cell concentration of 10 10 cells/mL; and (b) inactivating the whole B. parapertussis cell by adding a formalin solution comprising formaldehyde at a final formaldehyde concentration of 0.1 to 0.2% to the B . parapertussis culture preparation,
An organic electroluminescence device comprising: at least an anode electrode; a hole injection layer a hole transport layer ; a light emitting layer ; an electron transport layer ; a cathode electrode; and a capping layer in the stated order, wherein the capping layer includes a material having an extinction coefficient of not less than 0.3 at wavelengths of from 400 nm to 410 nm and an absorbance of not less than 0.2 at wavelengths of from 400 nm to 410 nm in the absorption spectrum of a concentration of 10 -5 mol/l, characterized in that the hole injection layer includes an electron acceptor (Acceptor-1) of the following structural formula and a compound (3-1) of the following structural formula, and the electron transport layer includes a compound (3-4) of the following structural formula a hole injection layer a hole transport layer ; a light emitting layer ; an electron transport layer ; a cathode electrode; and a capping layer in the stated order, wherein the capping layer includes a material having an extinction coefficient of not less than 0.3 at wavelengths of from 400 nm to 410 nm and an absorbance of not less than 0.2 at wavelengths of from 400 nm to 410 nm in the absorption spectrum of a concentration of 10 -5 mol/l, characterized in that the hole injection layer includes an electron acceptor (Acceptor-1) of the following structural formula and a compound (3-1) of the following structural formula, and the electron transport layer includes a compound (3-4) of the following structural formula
A landing gear assembly of an aircraft, comprising: a hollow-bodied thin skin support member defining an internal cavity and a cylindrical cavity , wherein the support member comprises a mounting interface at an upper end thereof configured for coupling to the aircraft; a cylinder extending from the cylindrical cavity; an axle extending from the cylinder; and a torsion link coupled to the axle and a torsion interface of the support member; the support member having a cutaway section on the upper end of the support member to reduce the weight of the support member. a hollow-bodied thin skin support member defining an internal cavity and a cylindrical cavity , wherein the support member comprises a mounting interface at an upper end thereof configured for coupling to the aircraft; a cylinder extending from the cylindrical cavity; an axle extending from the cylinder; and a torsion link coupled to the axle and a torsion interface of the support member; the support member having a cutaway section on the upper end of the support member to reduce the weight of the support member.
A pneumatic tire comprising a tire tread portion comprising: a plurality of main grooves extending in a tire circumferential direction (CD); a plurality of transverse grooves extending in a direction which intersects with the main grooves ; a plurality of land portion rows formed by arranging a plurality of land portions formed by the main grooves and the transverse grooves in the tire circumferential direction (CD), characterized in that assuming a tire circumferential length of an element formed of each land portion and the transverse groove disposed adjacently to said each land portion on one side in the tire circumferential direction (CD) as a pitch length (P), the number of pitches which is the number of the elements in each land portion row over the whole circumference of the tire as N, and the number of land portion rows as L, each land portion row includes the elements having plural kinds of pitch lengths (P), and at least one land portion row includes the elements which differ in pitch length (P) from the elements of other land portion rows , and the number of kinds j of pitch lengths (P) over the whole tire tread portion is set to N/4 or more and N×L or less, and assuming the pitch lengths (P) over the whole tire tread portion in a descending order as P 1 , P 2 , ..., P j and t as an integer of 2 to j, a relationship of P t-1 /P t <1.050 and a relationship of 1.60≤P 1 /P j <2.00 are satisfied. a plurality of main grooves extending in a tire circumferential direction (CD); a plurality of transverse grooves extending in a direction which intersects with the main grooves ; a plurality of land portion rows formed by arranging a plurality of land portions formed by the main grooves and the transverse grooves in the tire circumferential direction (CD), characterized in that assuming a tire circumferential length of an element formed of each land portion and the transverse groove disposed adjacently to said each land portion on one side in the tire circumferential direction (CD) as a pitch length (P), the number of pitches which is the number of the elements in each land portion row over the whole circumference of the tire as N, and the number of land portion rows as L, each land portion row includes the elements having plural kinds of pitch lengths (P), and at least one land portion row includes the elements which differ in pitch length (P) from the elements of other land portion rows , and the number of kinds j of pitch lengths (P) over the whole tire tread portion is set to N/4 or more and N×L or less, and assuming the pitch lengths (P) over the whole tire tread portion in a descending order as P 1 , P 2 , ..., P j and t as an integer of 2 to j, a relationship of P t-1 /P t <1.050 and a relationship of 1.60≤P 1 /P j <2.00 are satisfied.