mhurhangee/patent-ind-claim-en huggingface dataset:
A combination vaporizer, comprising: a first vaporizer element comprising a first body having an upper end and a lower end , the first body having a cavity in the upper end for receiving a cartridge , a first air inlet , and a first vapor outlet , a first cartridge disposed in the cavity, the first cartridge containing a first product and a first atomizer for atomizing the first product, and a battery secured in the first body; a second vaporizer element comprising a second body containing a heating element , a second air inlet, a second vapor outlet , and a second product, the second body having a recess complementary to a shape of the lower end of the first body thereby allowing the lower end of the first vaporizer element to be inserted into the recess; a controller in electrical communication with the first cartridge and the second vaporizer element , the controller configured to control an amount of vapor produced by the first cartridge and the second body ; a first fluid path passing from the second vapor outlet through the first air inlet to the first cartridge for combining vapor from the second vaporizer element with the vapor produced by the first cartridge; and a second fluid path passing from the first cartridge to the first vapor outlet. a first vaporizer element comprising a first body having an upper end and a lower end , the first body having a cavity in the upper end for receiving a cartridge , a first air inlet , and a first vapor outlet , a first cartridge disposed in the cavity, the first cartridge containing a first product and a first atomizer for atomizing the first product, and a battery secured in the first body; a second vaporizer element comprising a second body containing a heating element , a second air inlet, a second vapor outlet , and a second product, the second body having a recess complementary to a shape of the lower end of the first body thereby allowing the lower end of the first vaporizer element to be inserted into the recess; a controller in electrical communication with the first cartridge and the second vaporizer element , the controller configured to control an amount of vapor produced by the first cartridge and the second body ; a first fluid path passing from the second vapor outlet through the first air inlet to the first cartridge for combining vapor from the second vaporizer element with the vapor produced by the first cartridge; and a second fluid path passing from the first cartridge to the first vapor outlet.
Method for switching over communication interface, from a first communication interface to a second communication interface on a terminal that is currently communicating, characterized in that it includes the following steps: - in the event of detecting a lack of compressed data in an audio signal, to be decoded in a memory for receiving compressed data of an audio decoding processing chain, from said audio signal of an ongoing communication, sending a command to implement a process of replacing missing samples, said processing chain being internal to the terminal; - detecting (E201) a number of commands to implement the process of replacing missing samples during the audio decoding of the ongoing communication; - switching over (E203) to a second communication interface when the number of commands exceeds a threshold. - in the event of detecting a lack of compressed data in an audio signal, to be decoded in a memory for receiving compressed data of an audio decoding processing chain, from said audio signal of an ongoing communication, sending a command to implement a process of replacing missing samples, said processing chain being internal to the terminal; - detecting (E201) a number of commands to implement the process of replacing missing samples during the audio decoding of the ongoing communication; - switching over (E203) to a second communication interface when the number of commands exceeds a threshold.
A method, performed in a wireless device , of configuring a guard period in Half Duplex Frequency Division Duplex (HD-FDD) operation, the method comprising: - sending (S5a) a radio access capability of the wireless device to an access point , wherein the radio access capability indicates how fast the wireless device can switch from downlink-to-uplink - receiving (S1), from the access point , a timing advance between the wireless device and an access point; and - configuring (S3) a guard period in the wireless device based on the received timing advance and the radio access capability of the wireless device, wherein the guard period is an integer number of subframes or a fractional amount of a subframe, that is acceptable for the wireless device to skip receiving at transition from DL-to-UL. - sending (S5a) a radio access capability of the wireless device to an access point , wherein the radio access capability indicates how fast the wireless device can switch from downlink-to-uplink - receiving (S1), from the access point , a timing advance between the wireless device and an access point; and - configuring (S3) a guard period in the wireless device based on the received timing advance and the radio access capability of the wireless device, wherein the guard period is an integer number of subframes or a fractional amount of a subframe, that is acceptable for the wireless device to skip receiving at transition from DL-to-UL.
An ion guiding device comprising: two or more parallel conjoined ion guides; wherein the two or more parallel conjoined ion guides comprise a first ion guide comprising a rod set ion guide comprising a plurality of rod electrodes, and a second ion guide comprising a rod set ion guide comprising a plurality of rod electrodes; wherein the first ion guide comprises a first ion guiding region having a first cross-sectional area, and the second ion guide comprises a second ion guiding region having a second cross-sectional area; wherein ions may be transferred radially between the first ion guide and the second ion guide over at least 1%, 5%, 10%, 20%, 30%, 40%, 50%, 60%, 70%, 80%, 90%, 95% or 100% of the length of the first ion guide and/or the second ion guide; and wherein the first ion guide comprises a first central longitudinal axis and the second ion guide comprises a second central longitudinal axis, and wherein the first central longitudinal axis is not co-linear or co-axial with the second central longitudinal axis for 100% of the length of the first ion guide and/or the second ion guide; characterised in that the first and second cross-sectional areas are substantially different. two or more parallel conjoined ion guides; wherein the two or more parallel conjoined ion guides comprise a first ion guide comprising a rod set ion guide comprising a plurality of rod electrodes, and a second ion guide comprising a rod set ion guide comprising a plurality of rod electrodes; wherein the first ion guide comprises a first ion guiding region having a first cross-sectional area, and the second ion guide comprises a second ion guiding region having a second cross-sectional area; wherein ions may be transferred radially between the first ion guide and the second ion guide over at least 1%, 5%, 10%, 20%, 30%, 40%, 50%, 60%, 70%, 80%, 90%, 95% or 100% of the length of the first ion guide and/or the second ion guide; and wherein the first ion guide comprises a first central longitudinal axis and the second ion guide comprises a second central longitudinal axis, and wherein the first central longitudinal axis is not co-linear or co-axial with the second central longitudinal axis for 100% of the length of the first ion guide and/or the second ion guide; characterised in that the first and second cross-sectional areas are substantially different.
An IR sensor apparatus for capturing an image, comprising: an array of sensor pixels configured to convert light into current, each sensor pixel of the array of sensor pixels comprising: a photodetector region configured to convert the light into current; a lens configured to focus light , that is incident on the lens, into the photodetector region, the lens positioned adjacent to the photodetector region such that the incident light propagates through the lens and into the photodetector region; and a substrate disposed such that the photodetector region is between the substrate and the lens, the substrate having one or more transistors formed therein, characterized in that each sensor pixel of the array of sensor pixels further comprises: one or more reflective structures positioned within the photodetector region such that a portion of the photodetector region is between the one or more reflective structures and the lens, the one or more reflective structures configured to reflect the light that has passed through at least the portion of the photodetector region within the photodetector region. a photodetector region configured to convert the light into current; a lens configured to focus light , that is incident on the lens, into the photodetector region, the lens positioned adjacent to the photodetector region such that the incident light propagates through the lens and into the photodetector region; and a substrate disposed such that the photodetector region is between the substrate and the lens, the substrate having one or more transistors formed therein, characterized in that each sensor pixel of the array of sensor pixels further comprises: one or more reflective structures positioned within the photodetector region such that a portion of the photodetector region is between the one or more reflective structures and the lens, the one or more reflective structures configured to reflect the light that has passed through at least the portion of the photodetector region within the photodetector region.
A method performed by a first user equipment, UE, to receive device-to-device, D2D, data transmissions from a second UE, the method comprising: receiving , from the second UE, a first data transmission; determining whether the first data transmission was correctly received; determining a first set of frequency-domain parameters to use for generating a time-domain sequence; and transmitting , to the second UE using a time-domain sequence generated from the first set of frequency-domain parameters and comprising a plurality of time-domain repetitions of the basic frequency-domain sequence, each repetition carrying first hybrid ARQ, HARQ, indicator of whether the first data transmission was correctly received; wherein the first set of frequency-domain parameters includes the following: the basic frequency-domain sequence; a width, X indicating a frequency-domain spacing between successive elements of the basic frequency-domain sequence; and an offset, Y indicating a frequency-domain position of the first element of the basic frequency-domain sequence; wherein determining the first set of frequency-domain parameters comprises obtaining , from a network node in a radio access network, RAN, or from a memory of the first UE, one or more criteria for selecting the first set of frequency-domain parameters; wherein the first data transmission is a groupcast transmission; and the one or more criteria include a relation for determining X as a function of the number of UEs targeted by the first data transmission. receiving , from the second UE, a first data transmission; determining whether the first data transmission was correctly received; determining a first set of frequency-domain parameters to use for generating a time-domain sequence; and transmitting , to the second UE using a time-domain sequence generated from the first set of frequency-domain parameters and comprising a plurality of time-domain repetitions of the basic frequency-domain sequence, each repetition carrying first hybrid ARQ, HARQ, indicator of whether the first data transmission was correctly received; wherein the first set of frequency-domain parameters includes the following: the basic frequency-domain sequence; a width, X indicating a frequency-domain spacing between successive elements of the basic frequency-domain sequence; and an offset, Y indicating a frequency-domain position of the first element of the basic frequency-domain sequence; wherein determining the first set of frequency-domain parameters comprises obtaining , from a network node in a radio access network, RAN, or from a memory of the first UE, one or more criteria for selecting the first set of frequency-domain parameters; wherein the first data transmission is a groupcast transmission; and the one or more criteria include a relation for determining X as a function of the number of UEs targeted by the first data transmission.
A plastic bottle including: (a) a base at a bottom end of the bottle ; (b) a body extending about an axis of the bottle from the base towards a top end of the bottle ; and (c) a finish extending about the axis of the bottle from the body to the top end of the bottle , wherein the finish includes: (i) a crimp ring extending outwardly from an adjacent surface of the finish , the crimp ring forming an upper surface of the bottle and an outer surface of the bottle ; (ii) a first sealing projection extending from the upper surface ; and (iii) a second sealing projection extending from the upper surface , the second sealing projection being positioned a further distance from the axis of the bottle than the first sealing projection is positioned from the axis of the bottle , wherein the crimp ring comprises at least one slot that extends inwardly from the outer surface , the at least one slot including a first section extending from the upper surface , and a second section below the first section , the second section being a shorter distance from the axis of the bottle than the first section is distanced from the axis of the bottle , and wherein the first section extends less than half of a length of the crimp ring in the axial direction, and the second section extends more than half of the length of the crimp ring in the axial direction. (a) a base at a bottom end of the bottle ; (b) a body extending about an axis of the bottle from the base towards a top end of the bottle ; and (c) a finish extending about the axis of the bottle from the body to the top end of the bottle , wherein the finish includes: (i) a crimp ring extending outwardly from an adjacent surface of the finish , the crimp ring forming an upper surface of the bottle and an outer surface of the bottle ; (ii) a first sealing projection extending from the upper surface ; and (iii) a second sealing projection extending from the upper surface , the second sealing projection being positioned a further distance from the axis of the bottle than the first sealing projection is positioned from the axis of the bottle , wherein the crimp ring comprises at least one slot that extends inwardly from the outer surface , the at least one slot including a first section extending from the upper surface , and a second section below the first section , the second section being a shorter distance from the axis of the bottle than the first section is distanced from the axis of the bottle , and (i) a crimp ring extending outwardly from an adjacent surface of the finish , the crimp ring forming an upper surface of the bottle and an outer surface of the bottle ; (ii) a first sealing projection extending from the upper surface ; and (iii) a second sealing projection extending from the upper surface , the second sealing projection being positioned a further distance from the axis of the bottle than the first sealing projection is positioned from the axis of the bottle ,
A method of producing INS+ NKX6.1+ immature β-like cells from human pluripotent stem cells comprising: (a) incubating pluripotent stem cells (PSCs) in culture medium comprising Wnt3a, Activin A, an inhibitor of TGFβ, and keratinocyte growth factor (KGF) for 3-7 days; (b) exposing the cells resulting from step (a) to medium comprising retinoic acid (RA) for 2-3 days; (c) culturing the cells resulting from step (b) in medium comprising RA, epidermal growth factor (EGF), and KGF, thereby producing a culture comprising greater than 70% PDX1 + NKX6.1 + endocrine progenitor cells; and (d) incubating the culture comprising PDX1 + NKX6.1 + endocrine progenitor cells in medium comprising ALK5 inhibitor (Alki), T3, XXi, LDN-193189, non-essential amino acids (NEAA), N -acetyl Cysteine, zinc sulfate, glutamax, heparin, and vitamin C for at least 8 days, thereby producing INS + NKX6.1 + immature β-like cells, preferably the culture is incubated for 8-10 days. (a) incubating pluripotent stem cells (PSCs) in culture medium comprising Wnt3a, Activin A, an inhibitor of TGFβ, and keratinocyte growth factor (KGF) for 3-7 days; (b) exposing the cells resulting from step (a) to medium comprising retinoic acid (RA) for 2-3 days; (c) culturing the cells resulting from step (b) in medium comprising RA, epidermal growth factor (EGF), and KGF, thereby producing a culture comprising greater than 70% PDX1 + NKX6.1 + endocrine progenitor cells; and (d) incubating the culture comprising PDX1 + NKX6.1 + endocrine progenitor cells in medium comprising ALK5 inhibitor (Alki), T3, XXi, LDN-193189, non-essential amino acids (NEAA), N -acetyl Cysteine, zinc sulfate, glutamax, heparin, and vitamin C for at least 8 days, thereby producing INS + NKX6.1 + immature β-like cells, preferably the culture is incubated for 8-10 days.
A method for resetting a master device (MT_A, MT_B) configured to initiate transactions (TRSCT) on a bus (BUS_1, BUS_2) of a system-on-chip (SYS), comprising monitoring a completed or non-completed state of the transactions (TRSCT) initiated by the master device and, in case of reception of a master device reset command (COM_RST), effectively resetting (COM_RST_EFF) the master device when the transactions initiated by the master device are in the completed state, wherein a blocking signal is generated at the time of reception of the master device reset command (COM_RST), so as to block initiation of a new transaction by the master device (MT_A, MT_B), characterised in that in case of reception of the master device reset command (COM_RST) during transmission of a request, the blocking signal is generated after the end of transmission of this request.
Aeronautical device for distributing gas in an aircraft between at least one source of liquefied gas and at least one gas-consumer member , comprising at least one first controlled all-or-nothing valve at the output of each source of liquefied gas , a cryogenic distributor connected to each first controlled valve , and supplied with liquid, second controlled all-or-nothing valves connected to the cryogenic distributor in parallel, two-phase buffer reservoirs , supplied with liquid, each by one of said second controlled valves , and supplying gas, third controlled valves , mounted at the output of each buffer reservoir , for supplying gas, a pressure-reducing valve mounted at the output of the third controlled valves , a collector supplied by the pressure-reducing valve to supply said at least one consumer member . at least one first controlled all-or-nothing valve at the output of each source of liquefied gas , a cryogenic distributor connected to each first controlled valve , and supplied with liquid, second controlled all-or-nothing valves connected to the cryogenic distributor in parallel, two-phase buffer reservoirs , supplied with liquid, each by one of said second controlled valves , and supplying gas, third controlled valves , mounted at the output of each buffer reservoir , for supplying gas, a pressure-reducing valve mounted at the output of the third controlled valves , a collector supplied by the pressure-reducing valve to supply said at least one consumer member .
Tool for fastening an element (C) adapted to reversibly block a horizontal wire (W) onto a rod (R) for plants, said rod being vertically stuck into the ground, comprising a command handle extending along a rectilinear axis (X-X), a first portion being one piece with said handle and a second portion hinged onto said first portion by means of a rotating pin , wherein said first portion and said second portion delimit a space for receiving said rod (R) and said blocking element (C), said first portion comprising a fork for pushing arms (C3) of said blocking element (C) and said second portion comprising a first fork for centring the rod (R) and for engaging in rotation with said wire (W), said first fork being rotatable fixed outwardly to said first portion characterised in that a second fork for partially diverging said arms (C3), which second fork is rotatable fixed internally to said fork for pushing of said first portion .
A horology mobile comprising an arbor , which extends in an axial direction of this mobile, and a plate friction-fitted on the arbor and forming a wheel, the arbor comprising an axial stop surface for the plate and being designed to be capable of holding this plate, once fitted, in a substantially functional axial position in which it is against the axial stop surface, the plate comprising at least one first arm and at least one second arm together forming a clip designed to be capable of gripping, by resilient distortion of at least one of its arms in a direction of opening of the clip, a friction surface of revolution comprised by said arbor in the vicinity of the axial stop surface; said horology mobile being such that the arbor comprises a cylindrical fitting part which is located, in said axial direction, beyond the friction surface of revolution relative to the axial stop surface , the cylindrical fitting part having an oblong-shaped cross-section with a major axis (A), along a longitudinal direction of this cross-section, and a minor axis (B) perpendicular to the major axis and with smaller dimensions than this major axis and than the minimum diameter of said friction surface of revolution, the arbor being configured to enable the mobile to be assembled by inserting the cylindrical fitting part, with no noticeable distortion of the clip, in a central zone between the arms of the clip by aligning this cylindrical fitting part so that the minor axis of its cross-section is parallel to the direction of opening of the clip, then by a certain opening of the clip generated by a rotation of substantially ninety degrees (90°) of the arbor relative to the plate , and lastly by a final axial movement of the plate towards its functional axial position in which the clip has a resilient distortion providing functional friction for the horology mobile.
Header box for a heat exchanger , said header box extends along a main axis (X), said header box comprising a first manifold and a second manifold , each manifold comprises parts, parts being at least a header plate , a cover and a distribution plate , said distribution plate being localized between the header plate and the cover , wherein at least a header plate comprises linking elements configured to grab the corresponding cover , said linking elements extend from two longitudinal sides of said header plate to the corresponding cover , said longitudinal sides extending along the main axis (X) of the header box , characterized in that one of the parts of the first manifold comprises a mechanical link with one of the parts of the second manifold , while the two other parts of the first manifold are separated from the two other parts of the second manifold .