mhurhangee/patent-ind-claim-en huggingface dataset:
A composition comprising a gRNA molecule comprising a targeting domain which is complementary with a target domain from a gene expressed in a eukaryotic cell, wherein the gRNA molecule: (a) comprises a 3' poly A tail; and (b) is complexed with a Cas9 protein. (a) comprises a 3' poly A tail; and (b) is complexed with a Cas9 protein.
A front vehicle-body structure for a vehicle, comprising: an exterior member covering an upper side of an engine room (ER) provided in a vehicle front portion; and a front grille disposed on a vehicle up-down-direction lower side relative to a front end portion of the exterior member , wherein a rectification member extending over substantially a full width of the exterior member in a vehicle width direction is provided on a lower side of the front end portion of the exterior member , and a front piece portion extending toward the vehicle up-down-direction lower side from the exterior member to an upper end portion of the front grille and a lower piece portion extending toward a vehicle rear side from an upper end of the front piece portion are formed in the rectification member , characterized in that : a rib for reinforcement is integrally formed from a front end face of an upper piece portion of the rectification member to a bottom face thereof. an exterior member covering an upper side of an engine room (ER) provided in a vehicle front portion; and a front grille disposed on a vehicle up-down-direction lower side relative to a front end portion of the exterior member , wherein a rectification member extending over substantially a full width of the exterior member in a vehicle width direction is provided on a lower side of the front end portion of the exterior member , and a front piece portion extending toward the vehicle up-down-direction lower side from the exterior member to an upper end portion of the front grille and a lower piece portion extending toward a vehicle rear side from an upper end of the front piece portion are formed in the rectification member , characterized in that : a rib for reinforcement is integrally formed from a front end face of an upper piece portion of the rectification member to a bottom face thereof.
A method for determining rotational rate of a movable member using an array of inertial sensors, the method comprising: defining a hidden Markov model ("HMM"), wherein hidden states of the HMM represent a discrete value measurement of the rotational rate of the movable member, and transition probability of the HMM accounts for a motion model of the movable member, and observation probability accounts for noise and bias of at least one of the inertial sensors in the array of inertial sensors; receiving, by a processor, input from the array of inertial sensors; and determining, by the processor, the rotational rate of the movable member by solving for an output of the HMM using the input received from the array of inertial sensors. defining a hidden Markov model ("HMM"), wherein hidden states of the HMM represent a discrete value measurement of the rotational rate of the movable member, and transition probability of the HMM accounts for a motion model of the movable member, and observation probability accounts for noise and bias of at least one of the inertial sensors in the array of inertial sensors; receiving, by a processor, input from the array of inertial sensors; and determining, by the processor, the rotational rate of the movable member by solving for an output of the HMM using the input received from the array of inertial sensors.
Shutter device for an article dispensing system, comprising a cabinet , with compartments, boxes or drawers for articles to be dispensed, two shutters (6, 8; 10, 12) coupled to each other for the front area of the cabinet and opening means for the shutters for article dispensing, characterized in that the shutters (6, 8; 10, 12) are dimensioned and arranged in their length such that their closing edges are located in the front region of the cabinet and their other end edges are arranged in the closed position of the blinds at a vertical distance (A) from one another which is at least the dimension of the greatest compartment height, positioning means are provided for moving the closed shutters with the closing edges in front of a selected compartment with articles to be dispensed, and opening/closing means are provided for moving apart the closing edges of the shutters moved in front of a selected compartment for opening the compartment , wherein the shutters are moved towards each other again after article dispensing.
A broadcast receiver , comprising: an interface connectable to an information processing apparatus ; a storage ; and a first controller configured to - acquire application data transmitted using a download data block, DDB, message, - store the acquired application data in the storage , - acquire a command transmitted using an event message, - transfer, if the acquired command is a first command for causing the information processing apparatus connected through the interface to acquire the acquired application data, the first command to the information processing apparatus, and - send the application data stored in the storage to the information processing apparatus in response to an acquisition request from the connected information processing apparatus. an interface connectable to an information processing apparatus ; a storage ; and a first controller configured to - acquire application data transmitted using a download data block, DDB, message, - store the acquired application data in the storage , - acquire a command transmitted using an event message, - transfer, if the acquired command is a first command for causing the information processing apparatus connected through the interface to acquire the acquired application data, the first command to the information processing apparatus, and - send the application data stored in the storage to the information processing apparatus in response to an acquisition request from the connected information processing apparatus. - acquire application data transmitted using a download data block, DDB, message, - store the acquired application data in the storage , - acquire a command transmitted using an event message, - transfer, if the acquired command is a first command for causing the information processing apparatus connected through the interface to acquire the acquired application data, the first command to the information processing apparatus, and - send the application data stored in the storage to the information processing apparatus in response to an acquisition request from the connected information processing apparatus.
Method for operating a handheld power tool which has a communication module for wireless communication, wherein the communication module is supplied with electrical energy from an energy store of the handheld power tool , characterized in that the communication module is only occasionally supplied with energy at least for transmitting data independently of an operating state of the handheld power tool .
A polymerizable composition, which comprises a polyiso(thio)cyanate compound; a bi- or higher functional thiol compound having at least one sulfide bond or at least one ester bond; a diketone compound; and a catalyst, and which satisfies the following Equation 1: Δ ln Y = b × Δ X wherein △ln Y is In Y X - In Yo, Yo is the initial viscosity (cps (mPa ∗ s)) of the polymerizable composition, being the viscosity at 10°C immediately after all components of the composition have been simultaneously mixed, and is 20 to 100 cps (mPa ∗ s), Yx is the viscosity (cps (mPa ∗ s)) of the polymerizable composition at a temperature of 10°C after X hour(s) have elapsed, △X is from 1 hour to 10 hours, and b is the slope of a graph derived from the value of △ln Y measured with respect to time X and is 0.1 hour -1 to 0.3 hour -1 , and the viscosity is as measured using a non-contact viscometer, wherein the diketone compound is used in an amount of 5 to 150% by weight based on the weight of the catalyst. a bi- or higher functional thiol compound having at least one sulfide bond or at least one ester bond; a diketone compound; and a catalyst, and which satisfies the following Equation 1: Δ ln Y = b × Δ X wherein △ln Y is In Y X - In Yo, Yo is the initial viscosity (cps (mPa ∗ s)) of the polymerizable composition, being the viscosity at 10°C immediately after all components of the composition have been simultaneously mixed, and is 20 to 100 cps (mPa ∗ s), Yx is the viscosity (cps (mPa ∗ s)) of the polymerizable composition at a temperature of 10°C after X hour(s) have elapsed, △X is from 1 hour to 10 hours, and b is the slope of a graph derived from the value of △ln Y measured with respect to time X and is 0.1 hour -1 to 0.3 hour -1 , and the viscosity is as measured using a non-contact viscometer, wherein the diketone compound is used in an amount of 5 to 150% by weight based on the weight of the catalyst.
A lithium-sulfur battery comprising a separator , wherein the separator comprises: a porous substrate; and a multi-layered coating layer formed on at least one side of the porous substrate, wherein the multi-layered coating layer comprises a graphene oxide layer and a boron nitride layer, and wherein the multi-layered coating layer is formed by alternately laminating the graphene oxide layer and the boron nitride layer. a porous substrate; and a multi-layered coating layer formed on at least one side of the porous substrate, wherein the multi-layered coating layer comprises a graphene oxide layer and a boron nitride layer, and wherein the multi-layered coating layer is formed by alternately laminating the graphene oxide layer and the boron nitride layer.
An apparatus for use in the treatment of substrates with a solid particulate material, said apparatus comprising: (a) a housing having mounted therein a rotatably mounted drum having an inner surface and an end wall ; and (b) access means for introducing said substrates into said drum , wherein said drum comprises storage means for storage of said solid particulate material and a plurality of flow paths to facilitate flow of said solid particulate material between said storage means and an interior of said drum , and wherein said drum has at least one elongate protrusion located on said inner surface of said drum , wherein the elongate protrusion extends in a direction away from said end wall , wherein said elongate protrusion has an end proximal to the end wall and an end distal to the end wall wherein said drum comprises a dispensing flow path to facilitate flow of said solid particulate material from said storage means to the interior of said drum , and a collecting flow path to facilitate flow of said particulate material from the interior of said drum to said storage means , characterised in that said dispensing flow path and said collecting flow path are different flow paths; wherein the elongate protrusion extends from said end wall and wherein the collecting flow path comprises a collecting aperture which is located in the elongate protrusion at its proximal end. (a) a housing having mounted therein a rotatably mounted drum having an inner surface and an end wall ; and (b) access means for introducing said substrates into said drum , wherein said drum comprises storage means for storage of said solid particulate material and a plurality of flow paths to facilitate flow of said solid particulate material between said storage means and an interior of said drum , said drum comprises a dispensing flow path to facilitate flow of said solid particulate material from said storage means to the interior of said drum , and a collecting flow path to facilitate flow of said particulate material from the interior of said drum to said storage means , characterised in that said dispensing flow path and said collecting flow path are different flow paths; wherein the elongate protrusion extends from said end wall and wherein the collecting flow path comprises a collecting aperture which is located in the elongate protrusion at its proximal end.
A computer-implemented non-therapeutic and non-surgical method of determining a location of a personal care device with respect to a skin surface of a subject, the personal care device being configured to perform a personal care treatment to the skin when in contact with the skin surface, the method comprising: receiving data representative of a measured degree of curvature of the skin surface within a first region of the skin surface of the subject, with which the personal care device is in contact; determining , by comparing the measured degree of curvature with curvature information for a plurality of regions of the skin surface of the subject contained in a database, an indication of a location of the first region of the skin surface on the subject; and performing , based on the determined indication of the location of the first region, an action in respect of the personal care device, characterized in that the data representative of the measured degree of curvature of the skin surface within the first region of the skin surface comprises a measure of a relative orientation of a first surface-engaging element and a second surface-engaging element of a skin surface curvature measurement mechanism, the first and second surface-engaging elements being moveable relative to one another. receiving data representative of a measured degree of curvature of the skin surface within a first region of the skin surface of the subject, with which the personal care device is in contact; determining , by comparing the measured degree of curvature with curvature information for a plurality of regions of the skin surface of the subject contained in a database, an indication of a location of the first region of the skin surface on the subject; and performing , based on the determined indication of the location of the first region, an action in respect of the personal care device,
Container liner for holding liquid goods, wherein the liner comprises a film comprising one or more layers, wherein at least one of said layers is a layer L1 comprising (a) ≥ 20.0 wt%, preferably ≥ 20.0 and ≤ 80.0 wt%, with regard to the total weight of that layer L1, of a polyethylene P1 having: • a density of > 905 and < 913 kg/m 3 as determined in accordance with ASTM D1505 ; • a melt mass flow rate of ≥ 0.1 and ≤ 5.0 g/10 min, preferably of ≥ 0.5 and ≤ 2.0 g/10 min, as determined in accordance with ISO 1133-1 at 190°C using a load of 2.16 kg; and (b) ≥ 20.0 wt%, preferably ≥ 20.0 and ≤ 80.0 wt%, with regard to the total weight of that layer L1, of a polyethylene plastomer P2 having: • a density of > 880 and < 905 kg/m 3 , preferably of > 890 and < 904 kg/m 3 as determined in accordance with ASTM D1505 ; • a melt mass flow rate of ≥ 0.1 and ≤ 5.0 g/10 min, preferably of ≥ 0.5 and ≤ 2.0 g/10 min, as determined in accordance with ISO 1133-1 at 190°C using a load of 2.16 kg. (a) ≥ 20.0 wt%, preferably ≥ 20.0 and ≤ 80.0 wt%, with regard to the total weight of that layer L1, of a polyethylene P1 having: • a density of > 905 and < 913 kg/m 3 as determined in accordance with ASTM D1505 ; • a melt mass flow rate of ≥ 0.1 and ≤ 5.0 g/10 min, preferably of ≥ 0.5 and ≤ 2.0 g/10 min, as determined in accordance with ISO 1133-1 at 190°C using a load of 2.16 kg; • a density of > 905 and < 913 kg/m 3 as determined in accordance with ASTM D1505 ; • a melt mass flow rate of ≥ 0.1 and ≤ 5.0 g/10 min, preferably of ≥ 0.5 and ≤ 2.0 g/10 min, as determined in accordance with ISO 1133-1 at 190°C using a load of 2.16 kg; • a density of > 880 and < 905 kg/m 3 , preferably of > 890 and < 904 kg/m 3 as determined in accordance with ASTM D1505 ; • a melt mass flow rate of ≥ 0.1 and ≤ 5.0 g/10 min, preferably of ≥ 0.5 and ≤ 2.0 g/10 min, as determined in accordance with ISO 1133-1 at 190°C using a load of 2.16 kg.
Method of producing stainless steel of the ferritic steel group AISI 4xx, particularly the steel group AISI 430, on the basis of liquid pig iron and FeCr solids, wherein after pretreatment in the blast furnace and a DDD treatment the slag-free liquid pig iron in an AOD converter is heated, refined or alloyed, reduced and finally an adaptation/adjustment of the treated steel melt is carried out in the pouring ladle , characterised in that - the DDD treatment is carried out at an extremely low temperature of approximately 1150° C in an appropriately constructed metallurgical device , - slag-forming materials are fed to the AOD converter, - the treated and heated melt is introduced into the AOD converter, - the following method steps of heating, refining/alloying by addition of revert scrap, cooling scrap and FeCr60 and reduction of the liquid pig iron at high blowing rates by lateral nozzles and an upper blowing lance are carried out in the AOD converter , - after the heating and the slag removal subsequent thereto, for refining the metal melt oxygen is blown onto the metal melt by way of the upper blowing lance and a mixture of oxygen and inert gas (argon or nitrogen) is blown into the metal melt through the lateral nozzles, beginning with an oxygen-rich mixture, the ratio of oxygen and inert gas of which changes during the blowing process, and with a constant division of the total oxygen quantity during the blowing process between the upper blowing lance and the lateral nozzles. - the DDD treatment is carried out at an extremely low temperature of approximately 1150° C in an appropriately constructed metallurgical device , - slag-forming materials are fed to the AOD converter, - the treated and heated melt is introduced into the AOD converter, - the following method steps of heating, refining/alloying by addition of revert scrap, cooling scrap and FeCr60 and reduction of the liquid pig iron at high blowing rates by lateral nozzles and an upper blowing lance are carried out in the AOD converter , - after the heating and the slag removal subsequent thereto, for refining the metal melt oxygen is blown onto the metal melt by way of the upper blowing lance and a mixture of oxygen and inert gas (argon or nitrogen) is blown into the metal melt through the lateral nozzles, beginning with an oxygen-rich mixture, the ratio of oxygen and inert gas of which changes during the blowing process, and with a constant division of the total oxygen quantity during the blowing process between the upper blowing lance and the lateral nozzles.
A vehicle body structure in which left and right side frames are located on both sides in a vehicle width direction, wherein each of the left and right side frames includes a distal end on an external force acting side that receives a collision load (As) in a vehicle longitudinal direction acting from outside of a vehicle, and a proximal end on an opposite side of the distal end , the left and right side frames are provided with a plurality of fragile portions on left and right sides, the plurality of fragile portions on the left and right sides comprise at least left and right first fragile portions located at the distal ends , and left and right second fragile portions located on sides of the proximal ends apart from the left and right first fragile portions , and an area (A1) of each of the left and right first fragile portions is set to be larger than each of areas (A2, A3) of the left and right second fragile portions , characterized in that the left and right side frames have left and right through holes in some left and right fragile portions in the plurality of fragile portions on the left and right sides, and the left and right through holes are located substantially at a center in the vehicle longitudinal direction of the fragile portions with the left and right through holes as starting points of a deformation caused by the collision load (fs).
A sighting device for use in a security sensor system (S) for adjusting a direction of transmission of a detecting wave transmitter and/or a direction of receipt of a detecting wave receiver , which device comprises: an eyepiece lens ; an objective lens ; and a reflecting mirror disposed on an optical path extending between the eyepiece lens and the objective lens, characterized in that the eyepiece lens is provided with a microlens , the objective lens is provided with a first marker encompassed within a field of view of the eyepiece lens, and the first marker is comprised of a circular contour line or a polygonal contour line and is so configured that when a viewing axis offsets from a tolerance, a virtual image of the first marker magnified by the microlens is viewed with a part thereof dropped out having been offset from the field of view of the microlens. an eyepiece lens ; an objective lens ; and a reflecting mirror disposed on an optical path extending between the eyepiece lens and the objective lens, characterized in that the eyepiece lens is provided with a microlens , the objective lens is provided with a first marker encompassed within a field of view of the eyepiece lens, and the first marker is comprised of a circular contour line or a polygonal contour line and is so configured that when a viewing axis offsets from a tolerance, a virtual image of the first marker magnified by the microlens is viewed with a part thereof dropped out having been offset from the field of view of the microlens.
A machine tool comprising: a spindle headstock movable in an X axis direction (X3); a tool post that includes a movement axis (X2) in the X axis direction and a movement axis (Ys) in a direction which is inclined relative to the X axis and intersects with the X axis without being orthogonal to the X axis, and is movable relative to the spindle headstock ; and a controller , wherein the tool post is movable in a Y axis direction orthogonal to the X axis by combining movements along the two movement axes (X2, Ys), characterized in that the controller performs superposition control of movement of the tool post and movement of the spindle headstock , the controller includes a regulator that regulates movement of the spindle headstock in the superposition control, which corresponds to the movement of the tool post in the X axis direction associated with movement of the tool post in the Y axis direction, and wherein when the tool post is moved in the Y axis direction, the controller sets respective moving velocities along both of the movement axes (X2, Ys) to cancel the movement in the X axis direction by the movement in a same time. a spindle headstock movable in an X axis direction (X3); a tool post that includes a movement axis (X2) in the X axis direction and a movement axis (Ys) in a direction which is inclined relative to the X axis and intersects with the X axis without being orthogonal to the X axis, and is movable relative to the spindle headstock ; and a controller , wherein the tool post is movable in a Y axis direction orthogonal to the X axis by combining movements along the two movement axes (X2, Ys), characterized in that the controller performs superposition control of movement of the tool post and movement of the spindle headstock , the controller includes a regulator that regulates movement of the spindle headstock in the superposition control, which corresponds to the movement of the tool post in the X axis direction associated with movement of the tool post in the Y axis direction, and wherein when the tool post is moved in the Y axis direction, the controller sets respective moving velocities along both of the movement axes (X2, Ys) to cancel the movement in the X axis direction by the movement in a same time.