mhurhangee/ep-ind-claims huggingface dataset:
Household PEF cooking device (1; 11; 15) having - a cooking product container (2; 12; 16) which can be filled with liquid and comprises PEF electrodes (4a, 4b; 6a, 4b) lying opposite one another, between which a cooking product can be introduced, - a PEF signal generator for applying PEF signals to the PEF electrodes (4a, 4b; 6a, 4b), - a control device for controlling the PEF signal generator and - at least one IR sensor that measures contactlessly, is provided at a distance from the PEF electrodes (4a, 4b; 6a, 4b) and is connected to the control device, wherein - a measuring dot of the IR sensor encompasses an outer face of an electrically conductive region (4a; 14) of a wall (3; 12; 17) of the cooking product container (2; 12; 16), which region can be contacted on its inner face by the liquid when the cooking product container is full. - a cooking product container (2; 12; 16) which can be filled with liquid and comprises PEF electrodes (4a, 4b; 6a, 4b) lying opposite one another, between which a cooking product can be introduced, - a PEF signal generator for applying PEF signals to the PEF electrodes (4a, 4b; 6a, 4b), - a control device for controlling the PEF signal generator and - at least one IR sensor that measures contactlessly, is provided at a distance from the PEF electrodes (4a, 4b; 6a, 4b) and is connected to the control device, - a measuring dot of the IR sensor encompasses an outer face of an electrically conductive region (4a; 14) of a wall (3; 12; 17) of the cooking product container (2; 12; 16), which region can be contacted on its inner face by the liquid when the cooking product container is full.
A gripper device for picking up items from a first position where the items are arranged in a side by side arrangement, and releasing the items at a second position, wherein the gripper device comprises: • a plurality of side by side arranged and spaced apart item holders, where each of the item holders comprises a pick-up arrangement for picking up an item, the spaced apart item holders being configurable such that the pitch distance between adjacent item holders, prior to picking up the items, is substantially the same as the pitch distance between adjacent items at the first position, and • a pitch distance adjustment mechanism adapted to, subsequent to picking up the items from the first position, adjust the pitch distance between adjacent spaced apart item holders so as to arrange the received items into at least one group of items by altering the pitch distance within each of the at least one group of items before the at least one group is released at the second position, characterised in that the underside of each item holder defines an elongate groove for engaging with an item. • a plurality of side by side arranged and spaced apart item holders, where each of the item holders comprises a pick-up arrangement for picking up an item, the spaced apart item holders being configurable such that the pitch distance between adjacent item holders, prior to picking up the items, is substantially the same as the pitch distance between adjacent items at the first position, and • a pitch distance adjustment mechanism adapted to, subsequent to picking up the items from the first position, adjust the pitch distance between adjacent spaced apart item holders so as to arrange the received items into at least one group of items by altering the pitch distance within each of the at least one group of items before the at least one group is released at the second position,
A storage unit for storing a material, the storage unit comprising: at least one wall, the at least one wall defining a chamber; an opening; a storage unit valve arranged at the opening to selectively seal the chamber, the storage unit valve being able to be selectively opened and closed to allow fluid to flow through the storage unit valve; and a storage unit keying mechanism configured to allow the storage unit to only connect to a complementary docking station keying mechanism disposed on a docking station for receiving the storage unit; characterized in that the storage unit valve is configured to only be able to be selectively opened and closed when the storage unit keying mechanism is engaged with said complementary docking station keying mechanism, preferably wherein the storage unit is an ink cartridge and the material is a fluid such as ink. at least one wall, the at least one wall defining a chamber; an opening; a storage unit valve arranged at the opening to selectively seal the chamber, the storage unit valve being able to be selectively opened and closed to allow fluid to flow through the storage unit valve; and a storage unit keying mechanism configured to allow the storage unit to only connect to a complementary docking station keying mechanism disposed on a docking station for receiving the storage unit; characterized in that the storage unit valve is configured to only be able to be selectively opened and closed when the storage unit keying mechanism is engaged with said complementary docking station keying mechanism, preferably wherein the storage unit is an ink cartridge and the material is a fluid such as ink.
A system for reduction of emissions from volatile liquid cargo within a pipe work supplying cargo into a cargo tank (1.20), the pipe work including an upper pipe segment (1.1) and a lower pipe segment in the form of a mainly vertical drop pipe (1.4) adapted for terminating near the bottom of the cargo tank (1.20), and having means adapted for controlling the pressure within the pipe work during loading, characterized in that a flow restricting device is installed in the upper pipe segment (1.1) in front of the drop pipe (1.4) so as to assure positive pressure throughout the upper pipe segment, and that the drop pipe (1.4) is provided with a perforated pressure equalization pipe (1.7) and a free flow dampening device (1.6) surrounding said pressure equalization pipe, the upper portion of the drop pipe above the upper pipe segment (1.1) is provided with a top section (1.5) so as to form a gas collecting as well as pressure monitoring and controlling volume communicating with the pressure equalization pipe.
A surgical system for minimal invasive surgery comprising an illuminating element, a camera element and a surgical instrument assembly (1, 11, 31, 41, 51, 71, 81), the surgical instrument assembly comprises a surgical instrument and a pattern generating member (5, 15, 25, 55), said surgical instrument has a distal end and a proximal end and comprises a surgical tool (4, 14, 24, 54, 64) at its distal end, said pattern generating member (5, 15, 25, 55) comprises a pattern light source (6, 66) and a projector (8, 16, 18, 28, 48, 58, 68) adapted for projecting a light pattern (30, 39, 40, 80), at least said projector (8, 16, 18, 28, 48, 58, 68) is at least temporarily fixed to a body portion of said surgical instrument (3, 13, 23, 53, 63) connecting said tool (4, 14, 24, 54, 64) to the proximal end, such that a movement of said tool (4, 14, 24, 54, 64) results in a correlated movement of said projector (8, 16, 18, 28, 48, 58, 68), wherein the surgical tool (4, 14, 24, 54, 64) is adapted for performing an invasive surgical intervention and wherein said system comprises a computer, said computer being in data connection with said camera element and said computer is programmed to monitor a shape and size of the light pattern as a function of time and based thereon to determine the movements of the surgical tool of the surgical instrument.
A shielded X-ray radiation apparatus for analysis of materials via gamma activation analysis comprising: an X-ray source, wherein the X-ray source includes an electron accelerator for generating an electron beam having an electron beam direction, and an electron target at which the electron beam is directed; an X-ray attenuation shield (110, 111) including an elongate cavity to house the X-ray source and incorporating a region to accommodate a sample; a neutron attenuation shield (120, 121); and a gamma attenuation shield (130, 131); wherein the neutron attenuation shield is adjacent to and substantially surrounds the X-ray attenuation shield (110, 111); and wherein the gamma attenuation shield (130, 131) is adjacent to and substantially surrounds the neutron attenuation shield (120, 121). an X-ray source, wherein the X-ray source includes an electron accelerator for generating an electron beam having an electron beam direction, and an electron target at which the electron beam is directed; an X-ray attenuation shield (110, 111) including an elongate cavity to house the X-ray source and incorporating a region to accommodate a sample; a neutron attenuation shield (120, 121); and a gamma attenuation shield (130, 131); wherein the neutron attenuation shield is adjacent to and substantially surrounds the X-ray attenuation shield (110, 111); and wherein the gamma attenuation shield (130, 131) is adjacent to and substantially surrounds the neutron attenuation shield (120, 121).
A combination of an aerosol generation device and a fluid reservoir (1, 100, 330, 400), wherein the fluid reservoir (1, 100, 330, 400) is attachable to the aerosol generation device for guiding a fluid from a fluid container (16, 116, 300) to the aerosol generation device, the fluid reservoir (1, 100, 330, 400) having: an interface portion (2, 102, 202) arranged at the fluid reservoir (1, 100, 330, 400) for attaching the fluid reservoir (1, 100, 330, 400) to the aerosol generation device, and the aerosol generation device having: an attachment portion (52, 152) for receiving the interface portion (2, 102, 202) of the fluid reservoir (1, 100, 330, 400), characterized in that the interface portion (2, 102, 202) has a locking element (8, 10, 12, 14; 110, 114; 210, 214) configured to non-detachably lock the fluid reservoir (1, 100, 330, 400) to the aerosol generation device after attachment of the fluid reservoir (1, 100, 330, 400) to the aerosol generation device, and the locking element (8, 10, 12, 14; 110, 114; 210, 214) is breakable to enable detachment of the fluid reservoir (1, 100, 330, 400) from the aerosol generation device. an interface portion (2, 102, 202) arranged at the fluid reservoir (1, 100, 330, 400) for attaching the fluid reservoir (1, 100, 330, 400) to the aerosol generation device, and the aerosol generation device having: an attachment portion (52, 152) for receiving the interface portion (2, 102, 202) of the fluid reservoir (1, 100, 330, 400), characterized in that the interface portion (2, 102, 202) has a locking element (8, 10, 12, 14; 110, 114; 210, 214) configured to non-detachably lock the fluid reservoir (1, 100, 330, 400) to the aerosol generation device after attachment of the fluid reservoir (1, 100, 330, 400) to the aerosol generation device, and the locking element (8, 10, 12, 14; 110, 114; 210, 214) is breakable to enable detachment of the fluid reservoir (1, 100, 330, 400) from the aerosol generation device. an attachment portion (52, 152) for receiving the interface portion (2, 102, 202) of the fluid reservoir (1, 100, 330, 400), characterized in that the interface portion (2, 102, 202) has a locking element (8, 10, 12, 14; 110, 114; 210, 214) configured to non-detachably lock the fluid reservoir (1, 100, 330, 400) to the aerosol generation device after attachment of the fluid reservoir (1, 100, 330, 400) to the aerosol generation device, and the locking element (8, 10, 12, 14; 110, 114; 210, 214) is breakable to enable detachment of the fluid reservoir (1, 100, 330, 400) from the aerosol generation device.
A method for providing information necessary for diagnosing hepatocellular carcinoma, the method comprising: measuring a level of an autoantibody against a WASF2 protein from a sample isolated from a patient; comparing the measured level of the autoantibody with that of a control sample; and determining as hepatocellular carcinoma when the measured level of the autoantibody is higher than that of the control sample. measuring a level of an autoantibody against a WASF2 protein from a sample isolated from a patient; comparing the measured level of the autoantibody with that of a control sample; and determining as hepatocellular carcinoma when the measured level of the autoantibody is higher than that of the control sample.
A fuel nozzle of a gas turbine combustor for dimethyl ether characterized by comprising a pilot fuel injection hole formed at the center of the fuel nozzle and a plurality of fuel injection ports formed at equiangular positions around the pilot fuel injection hole to inject DME, wherein each of the fuel injection ports comprises a pair of upper and lower DME injection orifices (102, 103) communicating with a fuel-air mixture injection swirler, and the upper DME injection orifice has a channel to be gradually wider toward an outlet of fuel, the lower DME injection orifice has a channel tapered toward an outlet of the fuel.
A flexible pipe for transporting a fluid, comprising: - an internal polymeric sheath delimiting a passage for circulation of fluid with a central axis(A-A'); - at least one layer of armors (24, 25) positioned outside the internal sheath; - an internal carcass, able to come into contact with the fluid circulating in the internal sheath, the internal carcass being positioned in the internal sheath, the internal carcass comprising a first bent tape delimiting a helicoidal gap opening towards the central axis (A-A'); - a helicoidal insert obturating inwards the helicoidal gap; wherein the helicoidal insert is partly positioned in the helicoidal gap and obturates the helicoidal gap towards the central axis (A-A'), the helicoidal insert having a lazy-S-shaped section taken in a axial midplane, the lazy-S-shaped section including an axial outer region, a radial intermediate region and an axial inner region protruding from the radial intermediate region axially opposite to and radially away from the axial outer region, the axial inner region obturating at least partly the helicoidal gap, and wherein the inner assembly formed by the carcass and by the insert is permeable to the passing of the fluid from the inside of the carcass to the outside of the carcass. - an internal polymeric sheath delimiting a passage for circulation of fluid with a central axis(A-A'); - at least one layer of armors (24, 25) positioned outside the internal sheath; - an internal carcass, able to come into contact with the fluid circulating in the internal sheath, the internal carcass being positioned in the internal sheath, the internal carcass comprising a first bent tape delimiting a helicoidal gap opening towards the central axis (A-A'); - a helicoidal insert obturating inwards the helicoidal gap;
Method for correcting at least a bug located in native code of at least one target secure element by loading at least one native code correction, added element or added function on the at least one target secure element comprising a Java Card Virtual Machine and native code, said method comprising the following steps: - providing a modified CAP file composed of at least one custom CAP component comprising a native code correction, added element, or added function to the native code of the at least one target secure element; - extracting said native code correction, added element, or added function from the custom CAP component; - installing said native code correction, added element, or added function in the native code of the target secure element to correct the bug. - providing a modified CAP file composed of at least one custom CAP component comprising a native code correction, added element, or added function to the native code of the at least one target secure element; - extracting said native code correction, added element, or added function from the custom CAP component; - installing said native code correction, added element, or added function in the native code of the target secure element to correct the bug.
A receiver for receiving payload data from a downstream signal, the receiver comprising an analogue receiving filter configured to receive the downstream signal representing the payload data, and including physical layer signalling data identifying downstream communications resources which represent the payload data, an analogue to digital converter configured to receive the downstream signal from the analogue receiving filter and to convert the downstream signal into a sampled digital form in accordance with a sampling rate which is matched to a bandwidth of the analogue receiving filter, a demodulator configured to demodulate the digital form of the downstream signal to recover the payload data and the physical layer signalling data, wherein the physical layer signalling data includes a mode switch signal to indicate whether the receiver should switch from one of an active mode or a sleep mode to the other of the active mode and the sleep mode, and a controller configured to detect the mode switch signal and in response to the mode switch signal to control the analogue to digital converter to switch from a first sampling rate to a second sampling rate, and to control the analogue receiving filter to switch from a first frequency band to a second frequency band, wherein the first frequency band serves to perform anti-alias filtering in respect of the first sampling rate, and the second frequency band serves to perform anti-alias filtering in respect of the second sampling rate, characterized in that: a first part of the physical layer signalling data is transmitted within a preamble of the downstream signal with a lower order modulation scheme than a modulation scheme which has been used to modulate sub-carriers of one or more OFDM symbols with the payload data and a second part of the physical layer signalling data, and the receiving filter is adapted to operate with a greater noise floor in accordance with the lower order modulation scheme than a noise floor operated with in accordance with the modulation scheme which has been used to modulate the sub-carriers of the OFDM symbols, wherein the downstream signal provides the payload data transmitted within the first frequency band, and the physical layer signalling provides the mode switch signal in the first and second frequency bands, the second frequency band being less than and within the first frequency band.
A method of configuring a connector (220, 420) of a mobile host device (200,400) for connecting to a connector (270, 1070) of an accessory device (250, 1050), comprising: receiving an indication of one or more functions supported by the accessory device connector (270, 1070) from the accessory device (250, 1050); at the mobile host device (200,400), selecting one or more functions to be enabled for connecting to the accessory device (250, 1050), wherein the accessory device (250, 1050) is releasably attached to the mobile host device (200,400); configuring one or more pins of the mobile host device connector (220, 420), the configuring comprising enabling the one or more selected functions at the mobile host device connector (220, 420); and instructing the accessory device (250, 1050) to configure one or more pins (278, 1078) of the accessory device connector (270, 1070) to support the one or more selected functions; wherein the mobile host device connector (220,420) comprises one or more fixed-function pins and one or more multi-function pins; the one or more functions supported by the accessory device connector (270, 1070) are received at the one or more fixed-function pins; the one or more functions to be enabled at the accessory device (250,1050) are sent from the one or more fixed-function pins; and the one or more pins of the mobile host device (200,400) that are configured are multi-function pins. receiving an indication of one or more functions supported by the accessory device connector (270, 1070) from the accessory device (250, 1050); at the mobile host device (200,400), selecting one or more functions to be enabled for connecting to the accessory device (250, 1050), wherein the accessory device (250, 1050) is releasably attached to the mobile host device (200,400); configuring one or more pins of the mobile host device connector (220, 420), the configuring comprising enabling the one or more selected functions at the mobile host device connector (220, 420); and instructing the accessory device (250, 1050) to configure one or more pins (278, 1078) of the accessory device connector (270, 1070) to support the one or more selected functions; wherein the mobile host device connector (220,420) comprises one or more fixed-function pins and one or more multi-function pins; the one or more functions supported by the accessory device connector (270, 1070) are received at the one or more fixed-function pins; the one or more functions to be enabled at the accessory device (250,1050) are sent from the one or more fixed-function pins; and the one or more pins of the mobile host device (200,400) that are configured are multi-function pins.
A flexible, sterilizable pouch comprising: a first wall; a second wall coupled to the first wall; and a cavity defined between the first wall and the second wall, wherein the cavity is configured to receive a medical device, wherein the pouch is configured to seal the medical device within the cavity; and wherein the first wall includes a first layer coupled to an adjacent second layer such that a breach in one of the first and second layers will not breach the seal of the pouch, wherein the first layer is a gas-impermeable layer and the second layer is a gas-impermeable layer, wherein the first wall further includes a pocket between the first layer and the second layer, wherein the pocket is configured to receive a gas under pressure, wherein when the gas is received within the pocket, the first wall transitions from an uninflated state to an inflated state; and wherein the first wall in the inflated state is configured to protect the medical device disposed within the cavity of the pouch. a first wall; a second wall coupled to the first wall; and a cavity defined between the first wall and the second wall, wherein the cavity is configured to receive a medical device, wherein the pouch is configured to seal the medical device within the cavity; and wherein the first wall includes a first layer coupled to an adjacent second layer such that a breach in one of the first and second layers will not breach the seal of the pouch, wherein the first layer is a gas-impermeable layer and the second layer is a gas-impermeable layer, wherein the first wall further includes a pocket between the first layer and the second layer, wherein the pocket is configured to receive a gas under pressure, wherein when the gas is received within the pocket, the first wall transitions from an uninflated state to an inflated state; and wherein the first wall in the inflated state is configured to protect the medical device disposed within the cavity of the pouch.