mhurhangee/patent-ind-claim-en huggingface dataset:
A method of apportioning desired video processing between a video source device and a video sink device , the method comprising, at one of said devices: presenting a user interface comprising at least one user interface control for specifying one or more video processing apportionment criteria; receiving said one or more specified video processing apportionment criteria, the specified video processing apportionment criteria comprising conserving power at either or both of said video source device and video sink device; based upon an indication of video processing algorithms of which the other of said video source device and said video sink device is capable and an indication of video processing algorithms of which said one device is capable: identifying (S904) a set of video processing algorithms for achieving desired video processing; and classifying (S905) the video processing algorithms of said set into a first subset of video processing algorithms for performance by said other device and a second subset of video processing algorithms for performance by said one device, wherein said classifying is performed in accordance with one or more video processing apportionment criteria; sending (S906) at least one command for causing said other device to effect the first subset of video processing algorithms; and configuring said one device to effect the second subset of video processing algorithms. presenting a user interface comprising at least one user interface control for specifying one or more video processing apportionment criteria; receiving said one or more specified video processing apportionment criteria, the specified video processing apportionment criteria comprising conserving power at either or both of said video source device and video sink device; based upon an indication of video processing algorithms of which the other of said video source device and said video sink device is capable and an indication of video processing algorithms of which said one device is capable: identifying (S904) a set of video processing algorithms for achieving desired video processing; and classifying (S905) the video processing algorithms of said set into a first subset of video processing algorithms for performance by said other device and a second subset of video processing algorithms for performance by said one device, wherein said classifying is performed in accordance with one or more video processing apportionment criteria; identifying (S904) a set of video processing algorithms for achieving desired video processing; and classifying (S905) the video processing algorithms of said set into a first subset of video processing algorithms for performance by said other device and a second subset of video processing algorithms for performance by said one device, wherein said classifying is performed in accordance with one or more video processing apportionment criteria; sending (S906) at least one command for causing said other device to effect the first subset of video processing algorithms; and configuring said one device to effect the second subset of video processing algorithms.
An integrated hydroprocessing and fluid catalytic cracking process for the direct processing of a crude oil to produce olefinic and aromatic petrochemicals, the process comprising: a. charging the crude oil and hydrogen to a hydroprocessing zone operating under conditions effective to produce a hydroprocessed effluent having a reduced content of contaminants, an increased paraffinicity and an increased American Petroleum Institute gravity; b. separating the hydroprocessed effluent into a lower boiling fraction and a higher boiling fraction; c. cracking the lower boiling fraction in a first downflow reactor of a fluid catalytic cracking unit in the presence of a predetermined amount of catalyst to produce cracked products and spent catalyst; d. cracking the higher boiling fraction in a second downflow reactor of the fluid catalytic cracking unit in the presence of a predetermined amount of catalyst to produce cracked products and spent catalyst; e. regenerating spent catalyst from both the first and second downflow reactors in a common regeneration zone and recycling the regenerated catalyst back to the first and second downflow reactors; and f. recovering the first and second cracked product streams. a. charging the crude oil and hydrogen to a hydroprocessing zone operating under conditions effective to produce a hydroprocessed effluent having a reduced content of contaminants, an increased paraffinicity and an increased American Petroleum Institute gravity; b. separating the hydroprocessed effluent into a lower boiling fraction and a higher boiling fraction; c. cracking the lower boiling fraction in a first downflow reactor of a fluid catalytic cracking unit in the presence of a predetermined amount of catalyst to produce cracked products and spent catalyst; d. cracking the higher boiling fraction in a second downflow reactor of the fluid catalytic cracking unit in the presence of a predetermined amount of catalyst to produce cracked products and spent catalyst; e. regenerating spent catalyst from both the first and second downflow reactors in a common regeneration zone and recycling the regenerated catalyst back to the first and second downflow reactors; and f. recovering the first and second cracked product streams.
A method for time aligning uplink transmissions by a mobile terminal in a mobile communication system, wherein the mobile terminal is configured with a first radio cell comprising a downlink component carrier and a time aligned uplink component carrier, and a second radio cell comprising a downlink component carrier and a non-time aligned uplink component carrier, the method comprising the following steps: determining by the mobile terminal a reception time difference or propagation delay difference for downlink transmissions from an aggregation access point to the mobile terminal via the downlink component carrier of the first radio cell and via the downlink component carrier of the second radio cell, respectively, and time aligning the uplink component carrier of the second radio cell by adjusting a timing advance for uplink transmissions on the uplink component carrier of the second radio cell based on the timing advance for uplink transmissions on the time aligned uplink component carrier of the first radio cell and the determined reception time difference, so that uplink transmissions transmitted from the mobile terminal to the aggregation access point via the uplink component carrier of the first radio cell and the uplink component carrier of the second radio cell arrives at the aggregation access point simultaneously. determining by the mobile terminal a reception time difference or propagation delay difference for downlink transmissions from an aggregation access point to the mobile terminal via the downlink component carrier of the first radio cell and via the downlink component carrier of the second radio cell, respectively, and time aligning the uplink component carrier of the second radio cell by adjusting a timing advance for uplink transmissions on the uplink component carrier of the second radio cell based on the timing advance for uplink transmissions on the time aligned uplink component carrier of the first radio cell and the determined reception time difference, so that uplink transmissions transmitted from the mobile terminal to the aggregation access point via the uplink component carrier of the first radio cell and the uplink component carrier of the second radio cell arrives at the aggregation access point simultaneously.
A computer implemented method for fusing at least one ultrasound image with a pre-stored modality image comprising: recording ultrasound video data and storing it as a pre-stored ultrasound video data; selecting (S11) at least one ultrasound image frame from at least one portion of the pre-stored ultrasound video data which is replayed, defined as a selecting step, wherein the ultrasound video data comprises ultrasound image frames sampled from a target object along at least one plane and a position indicating information corresponding to each of the ultrasound image frames, wherein the position indicating information is generated by sensing a position of a position sensor fixed with an ultrasound probe while acquiring ultrasound image frames; registering (S12) the selected ultrasound image frame with the pre-stored modality image, defined as a registering step, by implementing the position indicating information corresponding to the selected ultrasound image frame in the registering step; and fusing (S13) the registered ultrasound image frame with the pre-stored modality image, defined as a fusing step. recording ultrasound video data and storing it as a pre-stored ultrasound video data; selecting (S11) at least one ultrasound image frame from at least one portion of the pre-stored ultrasound video data which is replayed, defined as a selecting step, wherein the ultrasound video data comprises ultrasound image frames sampled from a target object along at least one plane and a position indicating information corresponding to each of the ultrasound image frames, wherein the position indicating information is generated by sensing a position of a position sensor fixed with an ultrasound probe while acquiring ultrasound image frames; registering (S12) the selected ultrasound image frame with the pre-stored modality image, defined as a registering step, by implementing the position indicating information corresponding to the selected ultrasound image frame in the registering step; and fusing (S13) the registered ultrasound image frame with the pre-stored modality image, defined as a fusing step.
An apparatus for distributing samples, comprising: a sample package , wherein said sample package comprises a sample product to be distributed being attached to a sample backing ; a sample carrier, wherein said sample package is joined to said sample carrier, wherein said sample carrier is a publication , characterized in that said sample package is joined to the publication utilizing two adhesive strips , such that a flat surface of said sample backing of said sample package flatly abuts a surface of the binding of the publication , whereas a back of the sample package rests on the binding of the publication , whereas one of the adhesive strips is attached to the front cover of the publication , and whereas the other of the adhesive strips is attached to the back cover of the publication , whereas the adhesive strips of the sample backing have separation lines , and whereas the sample product being external to said publication . a sample package , wherein said sample package comprises a sample product to be distributed being attached to a sample backing ; a sample carrier, wherein said sample package is joined to said sample carrier, wherein said sample carrier is a publication , characterized in that said sample package is joined to the publication utilizing two adhesive strips , such that a flat surface of said sample backing of said sample package flatly abuts a surface of the binding of the publication , whereas a back of the sample package rests on the binding of the publication , whereas one of the adhesive strips is attached to the front cover of the publication , and whereas the other of the adhesive strips is attached to the back cover of the publication , whereas the adhesive strips of the sample backing have separation lines , and whereas the sample product being external to said publication .
An apparatus comprising: a first curved lens portion ; a second curved lens portion , wherein the first curved lens portion and the second lens portion are configured to form at least part of a lens of an eye-mountable device; and a first arm structure that extends between the first curved lens portion and the second curved lens portion, wherein a flexibility of the first arm structure is greater than a flexibility of at least one of the first curved lens portion and the second curved lens portion, wherein the first arm structure is configured to be deformed to overlap the first curved lens portion with the second curved lens portion; characterized in that the apparatus further comprises: first circuitry disposed in or on the first curved lens portion; and second circuitry disposed in or on the second curved lens portion, wherein the first circuitry is coupled to the second circuitry via one or more signal traces disposed in or on the first arm structure. a first curved lens portion ; a second curved lens portion , wherein the first curved lens portion and the second lens portion are configured to form at least part of a lens of an eye-mountable device; and a first arm structure that extends between the first curved lens portion and the second curved lens portion, wherein a flexibility of the first arm structure is greater than a flexibility of at least one of the first curved lens portion and the second curved lens portion, wherein the first arm structure is configured to be deformed to overlap the first curved lens portion with the second curved lens portion; characterized in that the apparatus further comprises: first circuitry disposed in or on the first curved lens portion; and second circuitry disposed in or on the second curved lens portion, wherein the first circuitry is coupled to the second circuitry via one or more signal traces disposed in or on the first arm structure. first circuitry disposed in or on the first curved lens portion; and second circuitry disposed in or on the second curved lens portion, wherein the first circuitry is coupled to the second circuitry via one or more signal traces disposed in or on the first arm structure.
Machine for sectioning the core of a fruit, comprising: gripping means , provided to assume a gripping configuration, in which they hold a fruit (F) in a cutting position, and a release configuration, in which they release the fruit (F); a tubular blade , concentric to a longitudinal axis (Y), which is provided with a cutting edge and is movable along the longitudinal axis (Y) between an advanced position and a retracted position; an abutment , located in an opposite position to the tubular blade and provided to be positioned in contact with the fruit (F) in a position opposite the tubular blade ; wherein the tubular blade is movable in a cutting stroke, from the retracted position to the advanced position, along which it crosses the fruit (F), sectioning the core (T), and in a return stroke, from the advanced position to the retracted position, along which it exits the fruit (F); a pusher , arranged inside the tubular blade and movable with respect to the tubular blade between a first position, in which it is at a shorter distance from the cutting edge , and a second position, in which it is at a greater distance from the cutting edge ; in the first position, the pusher is able to push the core (T) out of the tubular blade ; in the second position, the pusher enables the carrying out of the cutting stroke of the tubular blade ; characterised in that in that it comprises: an actuator , connected to the pusher to activate the pusher in a displacement with respect to the tubular blade . gripping means , provided to assume a gripping configuration, in which they hold a fruit (F) in a cutting position, and a release configuration, in which they release the fruit (F); a tubular blade , concentric to a longitudinal axis (Y), which is provided with a cutting edge and is movable along the longitudinal axis (Y) between an advanced position and a retracted position; an abutment , located in an opposite position to the tubular blade and provided to be positioned in contact with the fruit (F) in a position opposite the tubular blade ; wherein the tubular blade is movable in a cutting stroke, from the retracted position to the advanced position, along which it crosses the fruit (F), sectioning the core (T), and in a return stroke, from the advanced position to the retracted position, along which it exits the fruit (F); a pusher , arranged inside the tubular blade and movable with respect to the tubular blade between a first position, in which it is at a shorter distance from the cutting edge , and a second position, in which it is at a greater distance from the cutting edge ; in the first position, the pusher is able to push the core (T) out of the tubular blade ; in the second position, the pusher enables the carrying out of the cutting stroke of the tubular blade ; characterised in that in that it comprises: an actuator , connected to the pusher to activate the pusher in a displacement with respect to the tubular blade .
A folded camera, comprising: a top lid and a bottom lid and a lens held by a lens carrier positioned in an optical path between an optical path folding element (OPFE) and an image sensor, the lens having a lens height and an optical axis, wherein the folded camera has a height equal to the lens height, a thickness of the top lid, a thickness of the bottom lid, a thickness of an air gap between the lens and top lid and a thickness of an air gap between the lens and bottom lid, the height not exceeding the lens height by more than 800 μm.
A semiconductor storage device comprising: a first memory area configured in a volatile semiconductor memory which performs writing of data by a first unit or less, the first unit being an access unit to the semiconductor storage device; second and third memory areas configured in a nonvolatile semiconductor memory which performs writing of data by a second unit and performs erasing of data by a third unit, the third unit being twice or larger natural number times as large as the second unit; and a controller executing: a first processing for storing a plurality of data by the first unit in the first memory area; characterized by a second processing for storing data outputted from the first memory area by a first management unit in the second memory area , the first management unit being twice or larger natural number times as large as the first unit and being less than the third unit; and a third processing for storing data outputted from the first memory area by a second management unit in the third memory area , the second management unit being twice or larger natural number times as large as the first management unit. a first memory area configured in a volatile semiconductor memory which performs writing of data by a first unit or less, the first unit being an access unit to the semiconductor storage device; second and third memory areas configured in a nonvolatile semiconductor memory which performs writing of data by a second unit and performs erasing of data by a third unit, the third unit being twice or larger natural number times as large as the second unit; and a controller executing: a first processing for storing a plurality of data by the first unit in the first memory area; characterized by a second processing for storing data outputted from the first memory area by a first management unit in the second memory area , the first management unit being twice or larger natural number times as large as the first unit and being less than the third unit; and a third processing for storing data outputted from the first memory area by a second management unit in the third memory area , the second management unit being twice or larger natural number times as large as the first management unit. a first processing for storing a plurality of data by the first unit in the first memory area; characterized by a second processing for storing data outputted from the first memory area by a first management unit in the second memory area , the first management unit being twice or larger natural number times as large as the first unit and being less than the third unit; and a third processing for storing data outputted from the first memory area by a second management unit in the third memory area , the second management unit being twice or larger natural number times as large as the first management unit.
Multi-lobe tank for containing pressurized liquids, such as liquefied gas, for mounting into a ships hull, wherein the tank comprises at least a first longitudinally extending multi-lobe tank part having a center line (A) and a second longitudinally extending multi-lobe tank part having a center line (B) that are positioned behind each other resulting in a forward multi-lobe tank part and a rear multi-lobe tank part with aligned center lines, wherein the first part is tapered towards an end of the first part characterised in that the multi-lobe tank further comprises a transverse web at the connection between the first part and the second part .
A topical antioxidant composition comprising: (a) at least 0.5 to 3 wt.% neohesperidin dihydrochalcone, and optionally one or more additional antioxidants; (b) about 1 wt.% to about 30 wt.% by weight of one or more of fatty compounds, preferably selected from the group consisting of natural oils of vegetable, animal or marine origin, synthetic oils, mineral oils, hydrogenated oils, silicone oils, hydrocarbon-based compounds, saturated or unsaturated fatty acids, fatty acid esters, liquid waxes, fatty alcohols, and a mixture thereof; (c) about 0.1 wt.% to about 2 wt.% by weight of one or more natural thickeners; (d) at least 20 wt.% of 1,3-propanediol; (e) about 1 wt.% to about 15 wt.% by weight of one or more emulsifiers; (f) optionally, one or more natural active compounds; (g) water; and (h) optionally glycerin, wherein the composition is in the form of an emulsion; and the composition does not exhibit phase separation and/or visible crystallization for at least two months at a temperature of about 25°C. (a) at least 0.5 to 3 wt.% neohesperidin dihydrochalcone, and optionally one or more additional antioxidants; (b) about 1 wt.% to about 30 wt.% by weight of one or more of fatty compounds, preferably selected from the group consisting of natural oils of vegetable, animal or marine origin, synthetic oils, mineral oils, hydrogenated oils, silicone oils, hydrocarbon-based compounds, saturated or unsaturated fatty acids, fatty acid esters, liquid waxes, fatty alcohols, and a mixture thereof; (c) about 0.1 wt.% to about 2 wt.% by weight of one or more natural thickeners; (d) at least 20 wt.% of 1,3-propanediol; (e) about 1 wt.% to about 15 wt.% by weight of one or more emulsifiers; (f) optionally, one or more natural active compounds; (g) water; and (h) optionally glycerin,
A method of making a composite material, comprising: providing a dispersion comprising CNTs and an anionic glycosaminoglycan or an anionic polysaccharide; depositing a dispersion onto a surface to form a film; wherein the film comprises the CNTs and the anionic glycosaminoglycan or anionic polysaccharide; and washing the film with an aqueous acidic solution having a pH between 0 and 4; and wherein the anionic glycosaminoglycan or anionic polysaccharide contains cations that are at least partly removed by the washing with the aqueous acidic solution. providing a dispersion comprising CNTs and an anionic glycosaminoglycan or an anionic polysaccharide; depositing a dispersion onto a surface to form a film; wherein the film comprises the CNTs and the anionic glycosaminoglycan or anionic polysaccharide; and washing the film with an aqueous acidic solution having a pH between 0 and 4; and wherein the anionic glycosaminoglycan or anionic polysaccharide contains cations that are at least partly removed by the washing with the aqueous acidic solution.
Rescue vehicle comprising a chassis movable on ground, said rescue vehicle comprising a ladder assembly configured to extend or retract with respect to said chassis , said rescue vehicle comprising a winch device configured to control the extraction or retraction of said ladder assembly , wherein said ladder assembly defines a ladder base , said winch device being carried in a movable way by said ladder base , characterized in that said winch device is carried in a movable way with respect to said ladder base along a longitudinal axis (A) of said rescue vehicle .