mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid, curable coating composition comprising in admixture: (a) one or more polyurethane film-forming polymers having the formula C-(D-[-(R-D) n -(P-D) m -] x E) k -C wherein: i) D is a residue of a diisocyanate group, ii) R is a residue of one or more diol or triol groups having a molecular weight less than or equal to 500 Daltons; iii) P is one or more oligomeric diol groups having a molecular weight of from about 500 Daltons to about 3000 Daltons; iv) E is a urea group having a molecular weight less than or equal to 500 Daltons; v) C is a residue of a monohydroxyl functional acrylate group or methacrylate group; wherein the equivalent ratio of (i) to (ii) is less than 1.5:1; and the equivalent ratio of (i) to (iii) is greater than 15:1; n = 20 to 450, m = 1 to 5, x = 1 to 10, and k = 1 to 10; (b) an alcohol solubilizer; (c) a non-alcohol solvent; (d) a photoinitiator in an amount sufficient to polymerize the polyurethane film-forming polymers when exposed to light energy having a wavelength of 395 nm or above at an energy level of about 1 J/cm 2 or more. (a) one or more polyurethane film-forming polymers having the formula C-(D-[-(R-D) n -(P-D) m -] x E) k -C wherein: i) D is a residue of a diisocyanate group, ii) R is a residue of one or more diol or triol groups having a molecular weight less than or equal to 500 Daltons; iii) P is one or more oligomeric diol groups having a molecular weight of from about 500 Daltons to about 3000 Daltons; iv) E is a urea group having a molecular weight less than or equal to 500 Daltons; v) C is a residue of a monohydroxyl functional acrylate group or methacrylate group; wherein the equivalent ratio of (i) to (ii) is less than 1.5:1; and the equivalent ratio of (i) to (iii) is greater than 15:1; n = 20 to 450, m = 1 to 5, x = 1 to 10, and k = 1 to 10; i) D is a residue of a diisocyanate group, ii) R is a residue of one or more diol or triol groups having a molecular weight less than or equal to 500 Daltons; iii) P is one or more oligomeric diol groups having a molecular weight of from about 500 Daltons to about 3000 Daltons; iv) E is a urea group having a molecular weight less than or equal to 500 Daltons; v) C is a residue of a monohydroxyl functional acrylate group or methacrylate group; (b) an alcohol solubilizer; (c) a non-alcohol solvent; (d) a photoinitiator in an amount sufficient to polymerize the polyurethane film-forming polymers when exposed to light energy having a wavelength of 395 nm or above at an energy level of about 1 J/cm 2 or more.
A method of forming an aerosol delivery device comprising: providing a fibrous substrate ; providing a shell ; wetting the fibrous substrate with a wetting liquid; inserting the wetted fibrous substrate into the shell; and adding an aerosol precursor composition to the fibrous substrate after the fibrous substrate has been inserted into the shell; wherein, after the inserting step, the shell further comprises one or more of a heater , a liquid transport element , and an electrical connection . providing a fibrous substrate ; providing a shell ; wetting the fibrous substrate with a wetting liquid; inserting the wetted fibrous substrate into the shell; and adding an aerosol precursor composition to the fibrous substrate after the fibrous substrate has been inserted into the shell; wherein, after the inserting step, the shell further comprises one or more of a heater , a liquid transport element , and an electrical connection .
A method in a wireless Local Area Network, LAN, the method comprising: receiving, by a station, STA , downlink, DL, data from an access point, AP , through a wireless resource, wherein the AP allocates the wireless resource on a frequency band, wherein the wireless resource is allocated based on a basic resource allocation unit having 242 tones, wherein entire available tones of the wireless resource include a multiple of the 242 tones based on a size of the frequency band, wherein when the size of the frequency band is 20 MHz and the basic resource allocation unit is used as one unit, the number of the entire available tones is set to 242 tones, wherein when the size of the frequency band is 20 MHz and the basic resource allocation unit is divided into 9 small tone units, the 242 tones are divided into 9 small tone units and each small tone unit has 26 tones, wherein information on configuration of the basic resource allocation is included in a signal field of the DL data and indicates one of a first case in which the basic resource allocation unit is used as the one unit and a second case in which the basic resource allocation unit is divided into the 9 small tone units. receiving, by a station, STA , downlink, DL, data from an access point, AP , through a wireless resource, wherein the AP allocates the wireless resource on a frequency band, wherein the wireless resource is allocated based on a basic resource allocation unit having 242 tones, wherein entire available tones of the wireless resource include a multiple of the 242 tones based on a size of the frequency band, wherein when the size of the frequency band is 20 MHz and the basic resource allocation unit is used as one unit, the number of the entire available tones is set to 242 tones, wherein when the size of the frequency band is 20 MHz and the basic resource allocation unit is divided into 9 small tone units, the 242 tones are divided into 9 small tone units and each small tone unit has 26 tones, wherein information on configuration of the basic resource allocation is included in a signal field of the DL data and indicates one of a first case in which the basic resource allocation unit is used as the one unit and a second case in which the basic resource allocation unit is divided into the 9 small tone units.
Water-based solvent-free and IR reflecting surface treatment composition comprising/consisting of the following compounds: - a base comprising a. 30 to 60% by weight of an acrylic resin; b. 1 to 10% by weight of an alkyd resin; c. 0.1 to 2% by weight of a polyolefin; d. 0.1 to 1% by weight of an ammonium salt; e. Less than 0.1% by weight of a preservative; f. Water such that base reaches 100% by weight: and - a paste comprising i. metal oxides having a mean particle size between 0.05 and 5μm ii. a polymeric binder said paste being obtained by adding the polymeric binder to the metal oxides in a grinding process in an industrial grinding mill whereby the polymeric binder will coat the very fine metal oxides, such that in use the polymer coated metal oxides will harden/dry in a manner such that the metal oxides will be distributed in a substantially very thin/single layer providing IR-reflective characteristics to the entire surface. - a base comprising a. 30 to 60% by weight of an acrylic resin; b. 1 to 10% by weight of an alkyd resin; c. 0.1 to 2% by weight of a polyolefin; d. 0.1 to 1% by weight of an ammonium salt; e. Less than 0.1% by weight of a preservative; f. Water such that base reaches 100% by weight: and a. 30 to 60% by weight of an acrylic resin; b. 1 to 10% by weight of an alkyd resin; c. 0.1 to 2% by weight of a polyolefin; d. 0.1 to 1% by weight of an ammonium salt; e. Less than 0.1% by weight of a preservative; f. Water such that base reaches 100% by weight: and - a paste comprising i. metal oxides having a mean particle size between 0.05 and 5μm ii. a polymeric binder i. metal oxides having a mean particle size between 0.05 and 5μm ii. a polymeric binder
A surgical tool, comprising: a shaft; an end effector ; and a firing drive , comprising: a rotatable input drive comprising a threaded transmission portion, wherein said input drive is rotatable in a first direction and a second direction; and a flexible output shaft comprising a thread operably engaged with said threaded transmission portion, wherein said flexible output shaft comprises a longitudinal axis, wherein said flexible output shaft is constrained from revolving about said longitudinal axis, wherein said rotatable input drive is configured to translate said flexible output shaft toward said end effector when said rotatable input drive is rotated in said first direction, and wherein said rotatable input drive is configured to translate said flexible output shaft away from said end effector when said rotatable input drive is rotated in said second direction; wherein said flexible output shaft comprises a body, and wherein said thread extends around said body, wherein said body comprises a longitudinal aperture extending therethrough. a shaft; an end effector ; and a firing drive , comprising: a rotatable input drive comprising a threaded transmission portion, wherein said input drive is rotatable in a first direction and a second direction; and a flexible output shaft comprising a thread operably engaged with said threaded transmission portion, wherein said flexible output shaft comprises a longitudinal axis, wherein said flexible output shaft is constrained from revolving about said longitudinal axis, wherein said rotatable input drive is configured to translate said flexible output shaft toward said end effector when said rotatable input drive is rotated in said first direction, and wherein said rotatable input drive is configured to translate said flexible output shaft away from said end effector when said rotatable input drive is rotated in said second direction; a rotatable input drive comprising a threaded transmission portion, wherein said input drive is rotatable in a first direction and a second direction; and a flexible output shaft comprising a thread operably engaged with said threaded transmission portion, wherein said flexible output shaft comprises a longitudinal axis, wherein said flexible output shaft is constrained from revolving about said longitudinal axis, wherein said rotatable input drive is configured to translate said flexible output shaft toward said end effector when said rotatable input drive is rotated in said first direction, and wherein said rotatable input drive is configured to translate said flexible output shaft away from said end effector when said rotatable input drive is rotated in said second direction; wherein said flexible output shaft comprises a body, and wherein said thread extends around said body, wherein said body comprises a longitudinal aperture extending therethrough.
An insect eliminating device comprising: a housing , the housing including: a top ; an outer cage extending down from the top; and a base connected to the outer cage; a transparent cage mounted in the base and positioned inside the outer cage and extending substantially from the top to the base; the transparent cage including a plurality of openings formed therein and configured to allow insects to pass therethrough; a conducting grid positioned inside of the transparent cage: a light portion provided inside the conducting grid; the light portion including: a plurality of flickering light sources (40A1, 40A2) configured to simulate a flame; at least one constant light source configured to provide constant light; and at least one UV light source provided in the housing and configured to emit UV light; a control circuit operably connected to the conducting grid and the light portion to control activation of the plurality of flickering light sources, the at least one constant light source, the at least one UV light source and the conducting grid. a housing , the housing including: a top ; an outer cage extending down from the top; and a base connected to the outer cage; a top ; an outer cage extending down from the top; and a base connected to the outer cage; a transparent cage mounted in the base and positioned inside the outer cage and extending substantially from the top to the base; the transparent cage including a plurality of openings formed therein and configured to allow insects to pass therethrough; a conducting grid positioned inside of the transparent cage: a light portion provided inside the conducting grid; the light portion including: a plurality of flickering light sources (40A1, 40A2) configured to simulate a flame; at least one constant light source configured to provide constant light; and at least one UV light source provided in the housing and configured to emit UV light; a control circuit operably connected to the conducting grid and the light portion to control activation of the plurality of flickering light sources, the at least one constant light source, the at least one UV light source and the conducting grid. a light portion provided inside the conducting grid; the light portion including: a plurality of flickering light sources (40A1, 40A2) configured to simulate a flame; at least one constant light source configured to provide constant light; and at least one UV light source provided in the housing and configured to emit UV light; a plurality of flickering light sources (40A1, 40A2) configured to simulate a flame; at least one constant light source configured to provide constant light; and at least one UV light source provided in the housing and configured to emit UV light; a control circuit operably connected to the conducting grid and the light portion to control activation of the plurality of flickering light sources, the at least one constant light source, the at least one UV light source and the conducting grid.
A polarizer assembly , comprising: a first component including a first channel portion extending along a first component axis (A-A) and having a plurality of first locking projections and/or first openings on opposite sides of the first channel portion ; and a second component including a second channel portion extending along a second component axis (B-B) and having a plurality of second locking projections and/or second openings on opposite sides of the second channel portion ; wherein the second component is rotatable relative to the first component about a common rotation axis (C-C) between a pre-assembled position in which the second component axis (B-B) is angularly offset from the first component axis (A-A), and an assembled position in which the second locking projections and/or second openings mate with the first locking projections and/or first openings and the first and second channel portions form a channel configured to polarize waveforms. a first component including a first channel portion extending along a first component axis (A-A) and having a plurality of first locking projections and/or first openings on opposite sides of the first channel portion ; and a second component including a second channel portion extending along a second component axis (B-B) and having a plurality of second locking projections and/or second openings on opposite sides of the second channel portion ; wherein the second component is rotatable relative to the first component about a common rotation axis (C-C) between a pre-assembled position in which the second component axis (B-B) is angularly offset from the first component axis (A-A), and an assembled position in which the second locking projections and/or second openings mate with the first locking projections and/or first openings and the first and second channel portions form a channel configured to polarize waveforms.
An actuator device having an adjustable stiffness profile, comprising: an actuator member , comprising: an electroactive material , adapted to deform in response to application of an electrical stimulus; and light absorbing filler elements within the electroactive material, adapted to absorb and convert incident light energy to heat energy; a controllable light source , optically coupled with the actuator member, and operable to provide a light output onto the actuator member, the light output being controllable between a range of different intensity levels and/or spectral compositions so as to controllably adjust a stiffness profile of the actuator member; and a controller operable to control the intensity level and/or spectral profile of the light output so as to selectively realize in the actuator member any of a range of at least three different stiffness profiles. an actuator member , comprising: an electroactive material , adapted to deform in response to application of an electrical stimulus; and light absorbing filler elements within the electroactive material, adapted to absorb and convert incident light energy to heat energy; an electroactive material , adapted to deform in response to application of an electrical stimulus; and light absorbing filler elements within the electroactive material, adapted to absorb and convert incident light energy to heat energy; a controllable light source , optically coupled with the actuator member, and operable to provide a light output onto the actuator member, the light output being controllable between a range of different intensity levels and/or spectral compositions so as to controllably adjust a stiffness profile of the actuator member; and a controller operable to control the intensity level and/or spectral profile of the light output so as to selectively realize in the actuator member any of a range of at least three different stiffness profiles.
Distribution assembly for product in liquid or dough or foam form, for delivering and depositing a precise quantity of product on a support , where the distribution assembly comprises: - a cylinder , having an axis A, - a piston , which can be displaced in the cylinder by at least one actuator (7; 71, 72), - a path for taking in the product, - an ejection head , which comprises a slide valve movable between a first position (P1) called closed and a second position (P2) called open, and an outlet nozzle , the slide valve being a mechanically distinct and an independent part from the piston , - a preparation chamber arranged in the cylinder between the piston and the ejection head, and - at least one transfer passage , connecting, selectively according to the position of the slide valve, the preparation chamber with the outlet nozzle, where the distribution assembly is arranged such that when the cylinder comes towards the support, the physical contact with the support moves the slide valve from the first position to the second position and triggers delivery of the product, pushed by the piston, via the transfer passage, and when the piston arrives at the forward end of range, the piston moves the slide valve from the second position to the first position and thus closes the passage for the product via the transfer passage, and where the first and second positions are stable. - a cylinder , having an axis A, - a piston , which can be displaced in the cylinder by at least one actuator (7; 71, 72), - a path for taking in the product, - an ejection head , which comprises a slide valve movable between a first position (P1) called closed and a second position (P2) called open, and an outlet nozzle , the slide valve being a mechanically distinct and an independent part from the piston , - a preparation chamber arranged in the cylinder between the piston and the ejection head, and - at least one transfer passage , connecting, selectively according to the position of the slide valve, the preparation chamber with the outlet nozzle,
A male electrical connector (20, 20-1, 20-2) configured for electrically connecting a first printed circuit board (10-1) and a second printed circuit board (10-2) of a voltage converter , said male electrical connector (20, 20-1, 20-2) being U-shaped and comprising a first end and a second end , said first end and said second end being configured respectively for being connected to a female electrical connector (12-1) mounted on the first printed circuit board (10-1) and to a female electrical connector (12-2) mounted on the second printed circuit board (10-2); the male electrical connector (20, 20-1, 20-2) being characterized in comprising an external electrically conducting layer , an internal electrically conducting layer , and an electrically isolating layer arranged between the external electrically conducting layer and the internal electrically conducting layer .
Toy puppet , characterized in that it comprises: - at least one pair of lower half-shells internally hollow and having first joining edges and associable with each other at said first joining edges to form, in an assembly configuration, a substantially hemispherical lower surface ; - at least one pair of upper half-shells internally hollow having second joining edges and associable with each other at said second joining edges to form, in said assembly configuration, a body reproducing the features of a character; and - at least one balancing element housed inside said lower surface ; characterised in that said pair of lower half-shells is associable with said pair of upper half-shells by interposition of corresponding union and centering means formed on said pair of lower half-shells and said pair of upper half-shells. - at least one pair of lower half-shells internally hollow and having first joining edges and associable with each other at said first joining edges to form, in an assembly configuration, a substantially hemispherical lower surface ; - at least one pair of upper half-shells internally hollow having second joining edges and associable with each other at said second joining edges to form, in said assembly configuration, a body reproducing the features of a character; and - at least one balancing element housed inside said lower surface ; characterised in that said pair of lower half-shells is associable with said pair of upper half-shells by interposition of corresponding union and centering means formed on said pair of lower half-shells and said pair of upper half-shells.
A handover method, comprising: sending (S101, S203, S303), by a source mobility management network element, a forward relocation request message to a target mobility management network element, wherein the forward relocation request message comprises single radio voice call continuity, SRVCC, capability information, wherein the SRVCC capability information indicates that a user is allowed to use SRVCC; and, sending (S102, S206, S306), by the target mobility management network element, a first request message that carries information of SRVCC operation possible to a target access network element, and wherein the information of SRVCC operation possible indicates that the user is SRVCC capable and the target mobility management network element is SRVCC capable. sending (S101, S203, S303), by a source mobility management network element, a forward relocation request message to a target mobility management network element, wherein the forward relocation request message comprises single radio voice call continuity, SRVCC, capability information, wherein the SRVCC capability information indicates that a user is allowed to use SRVCC; and, sending (S102, S206, S306), by the target mobility management network element, a first request message that carries information of SRVCC operation possible to a target access network element, and wherein the information of SRVCC operation possible indicates that the user is SRVCC capable and the target mobility management network element is SRVCC capable.
Boom , in particular for the distributor mast of a concrete pump , having a first end and a second end, wherein provided on at least one end of the boom is a rotary joint, having a joint axis , and a holding element which at a position defined in terms of the joint axis projects from the boom , characterized in that provided for fastening the holding element on the boom is a sleeve which completely penetrates the boom , is closed on one side, and of which the flange face has a through bore to which the holding element is fastened by way of a fastening element introduced through the open end of the sleeve .