mhurhangee/ep-ind-claims huggingface dataset:
A bicycle derailleur gears for transmitting power between a crank and a rear wheel of a bicycle with an incrementally adjustable gear transmission ratio, wherein the derailleur gears comprise a cogset for the rear wheel and a gearing mechanism for incremental adjustment of the transmission ratio, characterized in that the cogset comprises at least 6 sprockets, wherein all sprockets of the cogset comprise one teeth increments, and the gearing mechanism comprises at least a first, second and a third stage (2a, 2b, 2c), wherein the second gear effects a reduction of 2/3 ± 7% over the first stage, and the third stage effects a further reduction of 2/3 ± 7% over the second stage, so that the first stage to the second stage and to the third stage have a ratio of 1: 2/3: 4/9, ± 7%, in particular ± 3%.
A barrel for a material processing system comprising: a barrel like structure having a circumferential wall with an impervious textured inner impact surface extending circumferentially about a central axis of the barrel-like structure, at least one inlet opening (20, 20a, 20b) to the barrel-like structure and at least one outlet opening from the barrel-like structure, the at least one inlet opening (20, 20a, 20b) and the at least one outlet opening being spaced along the central axis wherein the impact surface is formed with a plurality of valleys or protrusions or both valleys and protrusions configured to guide, or otherwise induce motion of, the material entering through the at least one inlet opening (20, 20a, 20b) to travel in a spiral path about the central axis toward the at least one outlet opening characterised in that the at least one inlet opening and the at least one outlet opening comprise: (i) respective inlet openings (20a, 20b) located at or near opposite axial ends of the barrel like structure, and an outlet opening located between the respective inlet openings; or, (ii) respective outlet openings located at or near opposite axial ends of the barrel like structure, and an inlet opening located between the respective outlet openings.
A wireless transmit/receive unit, WTRU, configured to use a power saving state, the WTRU comprising: a transmitter; a receiver; and a processor, wherein: the transmitter is configured to send a request message, wherein the request message includes a plurality of parameters associated with a plurality of power saving states supported by the WTRU; the receiver is configured to receive, from a mobility management entity, MME, an accept message comprising at least one selected parameter associated with at least one selected power saving state, wherein the at least one selected power saving state is from the plurality of power saving states supported by the WTRU, wherein the accept message further comprises at least one value associated with the at least one selected power saving state; the processor is configured to activate the at least one selected power saving state; and the processor is further configured to, upon a determination that a time equal to the at least one value has elapsed, deactivate the at least one selected power saving state. a transmitter; a receiver; and a processor, wherein: the transmitter is configured to send a request message, wherein the request message includes a plurality of parameters associated with a plurality of power saving states supported by the WTRU; the receiver is configured to receive, from a mobility management entity, MME, an accept message comprising at least one selected parameter associated with at least one selected power saving state, wherein the at least one selected power saving state is from the plurality of power saving states supported by the WTRU, wherein the accept message further comprises at least one value associated with the at least one selected power saving state; the processor is configured to activate the at least one selected power saving state; and the processor is further configured to, upon a determination that a time equal to the at least one value has elapsed, deactivate the at least one selected power saving state. the transmitter is configured to send a request message, wherein the request message includes a plurality of parameters associated with a plurality of power saving states supported by the WTRU; the receiver is configured to receive, from a mobility management entity, MME, an accept message comprising at least one selected parameter associated with at least one selected power saving state, wherein the at least one selected power saving state is from the plurality of power saving states supported by the WTRU, wherein the accept message further comprises at least one value associated with the at least one selected power saving state; the processor is configured to activate the at least one selected power saving state; and the processor is further configured to, upon a determination that a time equal to the at least one value has elapsed, deactivate the at least one selected power saving state.
A method for encoding a sequence of image frames depicting an object whose privacy is to be protected, comprising: receiving a sequence of image frames to be encoded, wherein the sequence of image frames depicts different types of objects whose privacy is to be protected; generating a first and a second version of the sequence of image frames, wherein, when generating the first version of the sequence of image frames, the image frames of the first version are provided with privacy masks to protect the privacy of all types of objects whose privacy is to be protected; encoding the first version of the sequence of image frames as a first encoded sequence of intra-coded image frames and inter-coded image frames; encoding the second version of the sequence of image frames as a second encoded sequence of inter-coded image frames, wherein the inter-coded image frames of the second encoded sequence are encoded by using the intra-coded image frames of the first encoded sequence; encrypting the inter-coded image frames of the second encoded sequence; and merging the first and the second encoded sequence into a single output sequence by interleaving image frames of the first and the second encoded sequence; characterized in that when generating the second version of the sequence of image frames, the image frames of the second version of the sequence are provided with privacy masks to protect the privacy of all but a first type of objects whose privacy is to be protected. receiving a sequence of image frames to be encoded, wherein the sequence of image frames depicts different types of objects whose privacy is to be protected; generating a first and a second version of the sequence of image frames, wherein, when generating the first version of the sequence of image frames, the image frames of the first version are provided with privacy masks to protect the privacy of all types of objects whose privacy is to be protected; encoding the first version of the sequence of image frames as a first encoded sequence of intra-coded image frames and inter-coded image frames; encoding the second version of the sequence of image frames as a second encoded sequence of inter-coded image frames, wherein the inter-coded image frames of the second encoded sequence are encoded by using the intra-coded image frames of the first encoded sequence; encrypting the inter-coded image frames of the second encoded sequence; and merging the first and the second encoded sequence into a single output sequence by interleaving image frames of the first and the second encoded sequence; characterized in that when generating the second version of the sequence of image frames, the image frames of the second version of the sequence are provided with privacy masks to protect the privacy of all but a first type of objects whose privacy is to be protected.
A method of treating process water, comprising: determining a chlorine dioxide level in the process water; feeding an acid through a first feed line into a diluent stream in a diluent line or a solution in a tank; feeding a chlorate salt through a second feed line into the diluent stream or the solution in the tank; and injecting the diluent stream or the solution in the tank into the process water, wherein feeding the acid and feeding the chlorate salt are asynchronous, so that the diluent stream or the solution in the tank comprises a fluctuating chlorine dioxide concentration. determining a chlorine dioxide level in the process water; feeding an acid through a first feed line into a diluent stream in a diluent line or a solution in a tank; feeding a chlorate salt through a second feed line into the diluent stream or the solution in the tank; and injecting the diluent stream or the solution in the tank into the process water, wherein feeding the acid and feeding the chlorate salt are asynchronous, so that the diluent stream or the solution in the tank comprises a fluctuating chlorine dioxide concentration.
A filter (100, 200, 300) for a body lumen, comprising; a first axial portion (105, 206) adjacent a first end of the filter, a second axial portion (106, 206) adjacent a second end of the filter, and a plurality of struts (110, 210) disposed between and coupled to the first and second axial portions, each strut comprising; a first apex (118, 218), and a second apex (114, 214) offset a longitudinal distance from the first apex, each first apex and each second apex configured to contact a vessel wall when the filter is deployed, characterized in that each strut further comprises; a first leg (122a, 222a); and a second leg (122b, 222b) wherein the first leg and the second leg are each disposed between the first apex and the first axial portion and wherein portions of the struts which are distal to the first and second legs form a sparser matrix than the matrix formed by the first and second legs. a first axial portion (105, 206) adjacent a first end of the filter, a second axial portion (106, 206) adjacent a second end of the filter, and a plurality of struts (110, 210) disposed between and coupled to the first and second axial portions, each strut comprising; a first apex (118, 218), and a second apex (114, 214) offset a longitudinal distance from the first apex, each first apex and each second apex configured to contact a vessel wall when the filter is deployed, characterized in that each strut further comprises; a first apex (118, 218), and a second apex (114, 214) offset a longitudinal distance from the first apex, each first apex and each second apex configured to contact a vessel wall when the filter is deployed, characterized in that each strut further comprises; a first leg (122a, 222a); and a second leg (122b, 222b) wherein the first leg and the second leg are each disposed between the first apex and the first axial portion and wherein portions of the struts which are distal to the first and second legs form a sparser matrix than the matrix formed by the first and second legs.
A method of producing electret fine particles, comprising emulsifying a fluorine-containing compound in a liquid phase under atmospheric or elevated pressure in a liquid that is incompatible with the fluorine-containing compound, to obtain emulsified particles, redispersing the emulsified particles in an electrophoretic medium and then irradiating the emulsified particles with an electron ray or a radial ray, wherein the radial ray irradiation is performed by emitting a gamma ray of 1 to 15 kGy, and wherein the electrophoretic medium includes ethylene glycol, propylene glycol, glycerin, silicone oil, fluorine-containing oil, and petroleum oil.
A distribution apparatus configured to perform a distribution operation of secret data and to enable a restoration operation of the secret data by generating a plurality of distributed data (SD1-SD4) based on a plurality of divided blocks (DB1-DB18), including first divided blocks (DB1-DB8) and second divided blocks (DB9-DB16), divided from the secret data, comprising: an arithmetic processing unit configured to perform exclusive OR calculation for operation between a predetermined divided block of the plurality of the divided blocks (DB1-DB18) and other divided blocks of the plurality of the divided blocks (DB1-DB18), the arithmetic processing unit is configured to generate at least first distributed data and second distributed data by performing the exclusive OR calculation on at least two divided blocks included in the first divided blocks (DB1-DB8) or the second divided blocks (DB9-DB16), wherein the first distributed data includes a result of the exclusive OR calculation on at least two divided blocks included in the first divided blocks (DB1-DB8), the second distributed data includes a result of the exclusive OR calculation on at least one of the first divided blocks (DB1-DB8) and at least one of the second divided blocks (DB9-DB16), the second distributed data being larger than the first distributed data, and the distribution apparatus further comprises a transmitting unit and an internal storage, wherein the transmitting unit is configured to distribute the first distributed data to external storage through a network and wherein the distribution apparatus is further configured to store the second distributed data to the internal storage. an arithmetic processing unit configured to perform exclusive OR calculation for operation between a predetermined divided block of the plurality of the divided blocks (DB1-DB18) and other divided blocks of the plurality of the divided blocks (DB1-DB18), the arithmetic processing unit is configured to generate at least first distributed data and second distributed data by performing the exclusive OR calculation on at least two divided blocks included in the first divided blocks (DB1-DB8) or the second divided blocks (DB9-DB16), wherein the first distributed data includes a result of the exclusive OR calculation on at least two divided blocks included in the first divided blocks (DB1-DB8), the second distributed data includes a result of the exclusive OR calculation on at least one of the first divided blocks (DB1-DB8) and at least one of the second divided blocks (DB9-DB16), the second distributed data being larger than the first distributed data, and the distribution apparatus further comprises a transmitting unit and an internal storage, wherein the transmitting unit is configured to distribute the first distributed data to external storage through a network and wherein the distribution apparatus is further configured to store the second distributed data to the internal storage.
A container for a drug bag, the container comprising two shells (6, 7) movable between a closed position, in which the two shells (6, 7) define a compartment for housing the bag, and an open position; and a gripper fitted outside the compartment and comprising two jaws (12a, 12b) movable between a grip position and a release position to grip and release at least one access conduit (3, 4) allowing access to the content of the bag; the container being characterized by further comprising a first cover fitted removably to the shells (6, 7) to cover a feed tube of the bag connected to the access conduit (3, 4) outside the two shells (6, 7); the first cover being bounded by a first face positioned substantially contacting at least one said shell (6, 7), having a first opening formed through the first face, and having a first rubber partition at least partly closing the first opening and having a first slit engaged by the feed tube; and the first cover being further bounded by a second face opposite the first face, having a second opening formed through the second face, and having a second rubber partition at least partly closing the second opening and having a second slit engaged by the feed tube.
Method for decorating an exotic leather, namely leather from exotic animals such as alligators, crocodiles, caimans, lizards, ostriches, pythons and the like, comprising the steps of: preparing an exotic leather in a semi-finished state, that is to say tanned but not finished, said step of arranging an exotic leather in a semi-finished state comprising the step of tanning the exotic leather with chromium in such a way that the percentage of chromium present in the leather is between 6% and 10%; decorating the exotic leather in the semi-finished state by tattooing with water-based acrylic colours. preparing an exotic leather in a semi-finished state, that is to say tanned but not finished, said step of arranging an exotic leather in a semi-finished state comprising the step of tanning the exotic leather with chromium in such a way that the percentage of chromium present in the leather is between 6% and 10%; decorating the exotic leather in the semi-finished state by tattooing with water-based acrylic colours.
A hand held spray device, comprising: a body comprising a reservoir to house a total fill of material; an actuator comprising an actuator exit orifice; a valve in fluid communication with the actuator exit orifice and the reservoir; a propellant stored in the reservoir, the propellant having a concentration from 30% to 70% by weight of the total fill of materials stored within the reservoir; an antiperspirant composition stored in the reservoir, the antiperspirant composition comprising a non-volatile silicone fluid having a concentration from 30% to 70% by weight of the antiperspirant composition, an antiperspirant active, an organoclay material and at least one liquid activation enhancer having a Hansen Solubility Parameter for Hydrogen Bonding, δ h, between 2 and 6 and a light transmittance value greater than 90% in the non-volatile silicone fluid according to the Light Transmittance Value Test Method, and a liquid fragrance material; wherein the concentration of the liquid activation enhancer is from 2% to 30% by weight of the antiperspirant composition and the liquid activation enhancer has the following formula: R 1 -X-R 2 wherein R 1 contains from 8 to 20 carbon atoms, X is selected from the group consisting of an alcohol, ester, amide and aryl group, and R 2 is selected from the group consisting of null, H, 1 to 4 carbon atoms, and C 6 H 5. a body comprising a reservoir to house a total fill of material; an actuator comprising an actuator exit orifice; a valve in fluid communication with the actuator exit orifice and the reservoir; a propellant stored in the reservoir, the propellant having a concentration from 30% to 70% by weight of the total fill of materials stored within the reservoir; an antiperspirant composition stored in the reservoir, the antiperspirant composition comprising a non-volatile silicone fluid having a concentration from 30% to 70% by weight of the antiperspirant composition, an antiperspirant active, an organoclay material and at least one liquid activation enhancer having a Hansen Solubility Parameter for Hydrogen Bonding, δ h, between 2 and 6 and a light transmittance value greater than 90% in the non-volatile silicone fluid according to the Light Transmittance Value Test Method, and a liquid fragrance material; wherein the concentration of the liquid activation enhancer is from 2% to 30% by weight of the antiperspirant composition and the liquid activation enhancer has the following formula: R 1 -X-R 2 wherein R 1 contains from 8 to 20 carbon atoms, X is selected from the group consisting of an alcohol, ester, amide and aryl group, and R 2 is selected from the group consisting of null, H, 1 to 4 carbon atoms, and C 6 H 5.
A hinge-plate for a door, which can be secured to the outer face of the door, it being possible for a cover to be slided onto the hinge-plate, at least some sections of the cover engaging behind the hinge-plate, and the cover being provided with a removal protection which can be accessed from the inner face of the door, characterized in that the removal protection is formed by a sliding element guided in the hinge-plate, the sliding element in its working position blocking a lug of the cover in the removal direction of the cover, the sliding element having a handle which passes through an opening in the hinge-plate that runs transversely to the longitudinal direction of the hinge-plate, so that the sliding element can be displaced by means of the handle, by manual action from the inner face of the door.
Method for producing a profile having a target dimension having the following steps - sharpening an end of a starting profile such that the profile has a meeting point at a profile end and a sharpened profile with a sharpened end is present - guiding the sharpened profile through a shaping die and subsequently - passing the sharpened profile through the shaping die such that after the passing the profile has substantially the target dimension, characterised in that - the sharpening is carried out by means of recursive modulated axial shaping, wherein the end of the starting profile is pressed increasingly into the shaping die by means of an axial to and fro movement, which shaping die successively stamps a profile on the end of the starting profile, wherein the recursive axial shaping is carried out several 100 times a second. - sharpening an end of a starting profile such that the profile has a meeting point at a profile end and a sharpened profile with a sharpened end is present - guiding the sharpened profile through a shaping die and subsequently - passing the sharpened profile through the shaping die such that after the passing the profile has substantially the target dimension, - the sharpening is carried out by means of recursive modulated axial shaping, wherein the end of the starting profile is pressed increasingly into the shaping die by means of an axial to and fro movement, which shaping die successively stamps a profile on the end of the starting profile, wherein the recursive axial shaping is carried out several 100 times a second.
A silicon carbide-based power device, comprising: a silicon carbide drift layer having a planar surface that forms an off-axis angle with a <0001> direction that is between 2° and 4°; a silicon carbide substrate having a planar surface that forms an off-axis angle with the <0001> direction that is between 2° and 4°, and wherein the silicon carbide drift layer comprises an epitaxial layer on the planar surface of the silicon carbide substrate; and a silicon carbide buffer layer that is epitaxially grown on the silicon carbide substrate and is between the silicon carbide substrate and the silicon carbide drift layer, wherein the silicon carbide buffer layer has a thickness between 10 μm and 25 pm, wherein the buffer layer has a basal plane dislocation density at a surface opposite the substrate of less than 10/cm 2. a silicon carbide drift layer having a planar surface that forms an off-axis angle with a <0001> direction that is between 2° and 4°; a silicon carbide substrate having a planar surface that forms an off-axis angle with the <0001> direction that is between 2° and 4°, and wherein the silicon carbide drift layer comprises an epitaxial layer on the planar surface of the silicon carbide substrate; and a silicon carbide buffer layer that is epitaxially grown on the silicon carbide substrate and is between the silicon carbide substrate and the silicon carbide drift layer, wherein the silicon carbide buffer layer has a thickness between 10 μm and 25 pm, wherein the buffer layer has a basal plane dislocation density at a surface opposite the substrate of less than 10/cm 2.