mhurhangee/patent-ind-claim-en huggingface dataset:
A hair care composition comprising: a) a cationically modified guar polymer having a cationic degree of substitution of from 0.35 to 0.70; b) an ethoxylated alkyl sulfate anionic surfactant having a formula RO(CH 2 CH 2 O) n SO 3 M, wherein R is an alkyl or alkenyl group having from 8 to 18 carbon atoms; M is a solubilising cation comprising sodium, potassium, ammonium, substituted ammonium or mixtures thereof; n is the degree of ethoxylation of from 0.5 to 3; and c) from 0.01 to 10% by weight of an anti-dandruff agent selected from azole based anti-fungal agents, piroctone olamine, metal pyrithione salts, selenium sulfide or mixtures thereof; wherein the degree of substitution is measured using 1 HNMR and the spectrum is recorded at 25°C; and wherein the degree of ethoxylation of the ethoxylated alkyl sulfate anionic surfactant is 2. a) a cationically modified guar polymer having a cationic degree of substitution of from 0.35 to 0.70; b) an ethoxylated alkyl sulfate anionic surfactant having a formula RO(CH 2 CH 2 O) n SO 3 M, wherein R is an alkyl or alkenyl group having from 8 to 18 carbon atoms; M is a solubilising cation comprising sodium, potassium, ammonium, substituted ammonium or mixtures thereof; n is the degree of ethoxylation of from 0.5 to 3; and c) from 0.01 to 10% by weight of an anti-dandruff agent selected from azole based anti-fungal agents, piroctone olamine, metal pyrithione salts, selenium sulfide or mixtures thereof;
An orally consumable medical product comprising a capsule constructed of substantially nitrogen-free material, wherein substantially nitrogen-free means comprising less than 4% nitrogen, wherein the capsule contains a water-insoluble fluid-absorbing material having the capacity of absorbing in the range from its own weight up to 50 times its own weight or more.
Hinge to articulate a mobile structure with respect to a fixed structure , comprising a first hinging element , provided with a pin and configured to be attached to one of said two structures , and a second hinging element , provided with a part in which a cylindrical cavity is made and configured to be attached to the other of said two structures , wherein said pin and said cylindrical cavity are configured to be hinged to each other along a common hinging axis (X), and wherein first adjustment means are provided in at least one of said hinging elements in order to adjust the reciprocal distance (D) between said mobile structure and said fixed structure in a first direction perpendicular to said hinging axis (X), wherein said first adjustment means comprise a first articulation element attached to said pin or to said part in which said cylindrical cavity is made, and comprising a first plate shaped like a parallelepiped with a substantially rectangular base and a second articulation element configured to be attached to one of said two structures , wherein said two articulation elements are articulated to each other so that said first articulation element can incline with respect to said second articulation element , and wherein said first adjustment means comprise at least a connection member configured to be constrained to said first articulation element and screwable in said second articulation element , wherein said first plate has a first lateral edge parallel to said hinging axis (X) and attached to said pin or to said part in which said cylindrical cavity is made, and a second lateral edge opposed to said first edge, wherein said second articulation element comprises a second plate also shaped like a parallelepiped with a substantially rectangular base and substantially equal to said first plate , said second plate being provided on a lateral edge with a folding parallel to said hinging axis (X) and only a few millimeters deep, which defines a seating , slightly wider than the thickness of said second plate , in which said second lateral edge of said first plate is inserted with play, by a few millimeters, and wherein said least a connection member comprises a threaded stem screwable into a corresponding threaded hole of said second plate and two circular shoulders disposed at a reciprocal distance substantially equal to, or slightly greater than, the thickness of said first plate and engaging with the latter in correspondence with a corresponding through aperture of said first plate .
A microlens array reflective diffuser plate including a single lens group positioned on a surface of a transparent base material , wherein there are variations in aperture diameter and radius of curvature that respective single lenses constituting the single lens group have in the single lens group as a whole, and vertex positions of the respective single lenses are located irregularly, a luminance distribution of reflected light of light vertically incident on the single lens group is substantially uniform in a predetermined diffusion angle range so that the luminance distribution of reflected light has a top hat shape and reflected light luminance values fall within a range of ±10% centering on a peak value Nit top of reflected light luminance within the predetermined diffusion angle range, for at least either light incident on the single lens group from a direction that forms an angle of 20 degrees with a surface normal direction of the transparent base material or light incident on the single lens group from a direction that forms an angle of 40 degrees with the surface normal direction of the transparent base material , a relation of 0.3 ≤ A/B ≤ 1 holds where A represents a reflection luminance value in the surface normal direction, and B represents a peak reflection luminance value of a diffuse reflection component, and a relation expressed by Expression below holds where D [μm] represents the aperture diameter, R [μm] represents the radius of curvature, and δ [%] represents a variation proportion of each of the aperture diameter D and the radius of curvature R. δ ≥ R 80 2 ⋅ D − 115 2 − 3 there are variations in aperture diameter and radius of curvature that respective single lenses constituting the single lens group have in the single lens group as a whole, and vertex positions of the respective single lenses are located irregularly, a luminance distribution of reflected light of light vertically incident on the single lens group is substantially uniform in a predetermined diffusion angle range so that the luminance distribution of reflected light has a top hat shape and reflected light luminance values fall within a range of ±10% centering on a peak value Nit top of reflected light luminance within the predetermined diffusion angle range, for at least either light incident on the single lens group from a direction that forms an angle of 20 degrees with a surface normal direction of the transparent base material or light incident on the single lens group from a direction that forms an angle of 40 degrees with the surface normal direction of the transparent base material , a relation of 0.3 ≤ A/B ≤ 1 holds where A represents a reflection luminance value in the surface normal direction, and B represents a peak reflection luminance value of a diffuse reflection component, and a relation expressed by Expression below holds where D [μm] represents the aperture diameter, R [μm] represents the radius of curvature, and δ [%] represents a variation proportion of each of the aperture diameter D and the radius of curvature R. δ ≥ R 80 2 ⋅ D − 115 2 − 3
A method for transmitting network identifiers in a communication system comprising: transmitting a first TDM symbol configured to communicate at least timing information; transmitting a second TDM symbol configured to communicate first information including network identification information concerning a first network, including frequency interlaces filled with pilot channels, wherein four interlaces of one of even interlaces and odd interlaces are filled with pilot channels and interlaces of the other one of even and odd interlaces are zeroed out resulting in two repeated copies of a same waveform in the time domain, each pilot transmitted on a pilot channel being scrambled by a pseudo random noise sequence seeded with the first network identifier, WOI ID; and transmitting a third TDM symbol configured to communicate second information including network identification information concerning a second network, including frequency interlaces filled with pilot channels, wherein four interlaces of one of even interlaces and odd interlaces are filled with pilot channels and interlaces of the other one of even and odd interlaces are zeroed out resulting in two repeated copies of a same waveform in the time domain, each pilot transmitted on a pilot channel being scrambled by a pseudo random noise sequence seeded with the second network identifier, LOI ID, where the second network identifier LOI ID, includes at least a portion of the first network identifier, WOI ID, wherein the first, second and third TDM symbols are dedicated OFDM symbols in a TDM pilot channel of a preamble portion of a frame. transmitting a first TDM symbol configured to communicate at least timing information; transmitting a second TDM symbol configured to communicate first information including network identification information concerning a first network, including frequency interlaces filled with pilot channels, wherein four interlaces of one of even interlaces and odd interlaces are filled with pilot channels and interlaces of the other one of even and odd interlaces are zeroed out resulting in two repeated copies of a same waveform in the time domain, each pilot transmitted on a pilot channel being scrambled by a pseudo random noise sequence seeded with the first network identifier, WOI ID; and transmitting a third TDM symbol configured to communicate second information including network identification information concerning a second network, including frequency interlaces filled with pilot channels, wherein four interlaces of one of even interlaces and odd interlaces are filled with pilot channels and interlaces of the other one of even and odd interlaces are zeroed out resulting in two repeated copies of a same waveform in the time domain, each pilot transmitted on a pilot channel being scrambled by a pseudo random noise sequence seeded with the second network identifier, LOI ID, where the second network identifier LOI ID, includes at least a portion of the first network identifier, WOI ID, wherein the first, second and third TDM symbols are dedicated OFDM symbols in a TDM pilot channel of a preamble portion of a frame.
An observation apparatus comprising: a structured illumination section that emits structured illumination light having a light-dark pattern; a phase difference measurement illumination section that emits illumination light for phase difference measurement onto a subject-mount surface; a phase contrast lens that has a phase plate for dimming illumination light for phase difference measurement, where the illumination light for phase difference measurement having passed through the subject-mount surface is incident into the phase contrast lens , and the structured illumination light is incident into the phase contrast lens in a direction different from a direction of incidence of the illumination light for phase difference measurement through an optical system ; a detection section that detects reflected light of the structured illumination light which is reflected on the subject-mount surface; and an observation section that images the illumination light for phase difference measurement which has passed through the phase contrast lens , wherein the phase plate has wavelength characteristics in which a transmittance of the structured illumination light is higher than a transmittance of the illumination light for phase difference measurement. a structured illumination section that emits structured illumination light having a light-dark pattern; a phase difference measurement illumination section that emits illumination light for phase difference measurement onto a subject-mount surface; a phase contrast lens that has a phase plate for dimming illumination light for phase difference measurement, where the illumination light for phase difference measurement having passed through the subject-mount surface is incident into the phase contrast lens , and the structured illumination light is incident into the phase contrast lens in a direction different from a direction of incidence of the illumination light for phase difference measurement through an optical system ; a detection section that detects reflected light of the structured illumination light which is reflected on the subject-mount surface; and an observation section that images the illumination light for phase difference measurement which has passed through the phase contrast lens , wherein the phase plate has wavelength characteristics in which a transmittance of the structured illumination light is higher than a transmittance of the illumination light for phase difference measurement.
Opening device for a motor vehicle door element comprising an electric drive and a control means , wherein the control means has a locking means , in particular a locking lever , and can be adjusted by means of the drive and a gear mechanism arranged between the control means and the drive , so that a movement of the door element can be enabled and a sensor , wherein the door element can be held by means of the control means , characterized in that the locking means is controllable by means of an electric motor drive , and in that the locking means has a locking slide that can be operated by means of the electric drive .
A container holder comprising: an inner liner , an outer shell , and an intermediate layer in between the inner liner and the outer shell , the inner liner providing an inner wall , where the inner wall defines a cavity for receiving a container ; the container holder defining a first portion and a second portion and the first portion follows a curved profile and the second portion follows a flat profile such that a cross-section of the container holder follows a D-shape; a pocket located on the outer shell and on the first portion ; the second portion having a series of openings extending through the outer shell to vent the cavity to an outside; characterized in that a series of loops covers the series of openings on the second portion and in that the container holder comprises a pair of clips mounted to the series of loops . an inner liner , an outer shell , and an intermediate layer in between the inner liner and the outer shell , the inner liner providing an inner wall , where the inner wall defines a cavity for receiving a container ; the container holder defining a first portion and a second portion and the first portion follows a curved profile and the second portion follows a flat profile such that a cross-section of the container holder follows a D-shape; a pocket located on the outer shell and on the first portion ; the second portion having a series of openings extending through the outer shell to vent the cavity to an outside; characterized in that a series of loops covers the series of openings on the second portion and in that the container holder comprises a pair of clips mounted to the series of loops .
A drop and go bracket comprising: a chassis bracket attachable to a vehicle chassis ; and a fuel system bracket attachable to a vehicle fuel system, wherein the drop and go bracket is characterized in that : the chassis bracket comprises a groove and a pin at a separate location from the groove; the fuel system bracket comprises a cut-out and another pin at a separate location from the cut-out; and the chassis bracket and the fuel system bracket are connected to one another when the cut-out of the fuel system bracket engages with the pin of the chassis bracket when the pin of the fuel system bracket slides into the groove of the chassis bracket, such that the chassis bracket and the fuel system bracket are fixed relative to one another in a lateral direction and in a vertical direction. a chassis bracket attachable to a vehicle chassis ; and a fuel system bracket attachable to a vehicle fuel system, wherein the drop and go bracket is characterized in that : the chassis bracket comprises a groove and a pin at a separate location from the groove; the fuel system bracket comprises a cut-out and another pin at a separate location from the cut-out; and the chassis bracket and the fuel system bracket are connected to one another when the cut-out of the fuel system bracket engages with the pin of the chassis bracket when the pin of the fuel system bracket slides into the groove of the chassis bracket, such that the chassis bracket and the fuel system bracket are fixed relative to one another in a lateral direction and in a vertical direction. the chassis bracket comprises a groove and a pin at a separate location from the groove; the fuel system bracket comprises a cut-out and another pin at a separate location from the cut-out; and the chassis bracket and the fuel system bracket are connected to one another when the cut-out of the fuel system bracket engages with the pin of the chassis bracket when the pin of the fuel system bracket slides into the groove of the chassis bracket, such that the chassis bracket and the fuel system bracket are fixed relative to one another in a lateral direction and in a vertical direction.
Device with a gripper for gripping a box from above, which gripper has a central arm which is mounted in a mounting point so as to be rotatable about a mounting axis , and has a first outer arm which is mounted on the central arm in a first suspension point so as to be rotatable about a first suspension axis in such a way that, with the rotatability, a relative distance between an end (11.1) of the first outer arm , which end is distal from the central arm , and the mounting axis can be varied, wherein the rotatability about the first suspension axis is coupled to the rotatability about the mounting axis in the opposite direction of rotation, wherein the device is designed for vertically lowering the gripper in order to approach the box from above, and for rotating the central arm and the first outer arm in order to vary the relative distance in order to grip the box, characterized in that a first clamping element is arranged at the distal end (11.1) of the first outer arm , which first clamping element is mounted in a first distal suspension point on the first outer arm so as to be rotatable about a first distal suspension axis , specifically is coupled in the opposite direction to the rotatability of the first outer arm about the first suspension axis , wherein the first clamping element has a support which is designed such that the load rests thereon when the box is lifted. which gripper has a central arm which is mounted in a mounting point so as to be rotatable about a mounting axis , and has a first outer arm which is mounted on the central arm in a first suspension point so as to be rotatable about a first suspension axis in such a way that, with the rotatability, a relative distance between an end (11.1) of the first outer arm , which end is distal from the central arm , and the mounting axis can be varied, wherein the rotatability about the first suspension axis is coupled to the rotatability about the mounting axis in the opposite direction of rotation, wherein the device is designed for vertically lowering the gripper in order to approach the box from above, and for rotating the central arm and the first outer arm in order to vary the relative distance in order to grip the box, characterized in that a first clamping element is arranged at the distal end (11.1) of the first outer arm , which first clamping element is mounted in a first distal suspension point on the first outer arm so as to be rotatable about a first distal suspension axis , specifically is coupled in the opposite direction to the rotatability of the first outer arm about the first suspension axis , wherein the first clamping element has a support which is designed such that the load rests thereon when the box is lifted.
A NiCrFe alloy, comprising a chemical composition consisting of: in mass%, C: 0.03 to 0.15%, Si: not more than 1.00%, Mn: not more than 2.00%, P: not more than 0.040%, S: not more than 0.0050%, Cr: 18.0 to 25.0%, Ni: 25.0 to 40.0%, Ti: 0.10 to 1.60%, Al: 0.05 to 1.00%, N: not more than 0.020%, O: not more than 0.008%, Rare earth metal (REM): 0.001 to 0.100%, B: 0 to 0.010%, Ca: 0 to 0.010%, Mg: 0 to 0.010%, V: 0 to 0.5%, Nb: 0 to 1.0%, Ta: 0 to 1.0%, Hf: 0 to 1.0%, Mo: 0 to 1.0%, W: 0 to 2.0%, Co: 0 to 3.0%, and Cu: 0 to 3.0%, with the balance being Fe and impurities, the chemical composition satisfying the following Formulae to : 0.50 ≤ Ti + 48 Al / 27 ≤ 2.20 0.40 ≤ Ti / Ti + 48 Al / 27 ≤ 0.80 ∑ REM / A REM − S / 32 − 2 / 3 · O / 16 ≥ 0 where, each symbol of element in Formulae to is substituted by the content mass% of the corresponding element, and A(REM) in Formula is substituted by the atomic weight of each rare earth metal.
A method for informing an eNodeB of a transmit power status of a user equipment, UE, in a wireless communication system using component carrier aggregation, in which two or more component carriers, CCs, are aggregated, wherein the method comprises the following steps performed by the UE: generating a power status report that includes: (i) a CC specific maximum transmission power, P CMAX,c , for each configured and activated uplink CC, wherein P CMAX,c shall be set within following bounds: P CMAX _ L , c < = P CMAX , c < = P CMAX _ H , c where P CMAX_L,c is a lower bound and P CMAX_H,c is a higher bound of a CC specific maximum transmission power, and (ii) a power headroom report indicative of a difference between the CC specific maximum transmission power, P CMAX,c , and an estimated UE transmit power, per each configured and activated uplink CC, wherein the CC specific maximum transmission power, P CMAX,c , for each configured and activated CC is included in the power status report when a resource is assigned for the configured and activated uplink CC for the UE, and transmitting the power status report to the eNodeB. generating a power status report that includes: (i) a CC specific maximum transmission power, P CMAX,c , for each configured and activated uplink CC, wherein P CMAX,c shall be set within following bounds: P CMAX _ L , c < = P CMAX , c < = P CMAX _ H , c where P CMAX_L,c is a lower bound and P CMAX_H,c is a higher bound of a CC specific maximum transmission power, and (ii) a power headroom report indicative of a difference between the CC specific maximum transmission power, P CMAX,c , and an estimated UE transmit power, per each configured and activated uplink CC, wherein the CC specific maximum transmission power, P CMAX,c , for each configured and activated CC is included in the power status report when a resource is assigned for the configured and activated uplink CC for the UE, and (i) a CC specific maximum transmission power, P CMAX,c , for each configured and activated uplink CC, wherein P CMAX,c shall be set within following bounds: P CMAX _ L , c < = P CMAX , c < = P CMAX _ H , c where P CMAX_L,c is a lower bound and P CMAX_H,c is a higher bound of a CC specific maximum transmission power, and (ii) a power headroom report indicative of a difference between the CC specific maximum transmission power, P CMAX,c , and an estimated UE transmit power, per each configured and activated uplink CC, transmitting the power status report to the eNodeB.