mhurhangee/patent-ind-claim-en huggingface dataset:
Seal arrangement , in particular for sealing a first fluid space from a second fluid space or a plurality of fluid spaces, comprising a sealing element for arrangement between a first object and a second object , the sealing element comprising two or more sealing element components which can be or are connected indirectly or directly to one another and which each comprise a base body part and a resilient sealing body part arranged on the base body part , the base body parts of the sealing element components forming a preferably dimensionally stable base body of the sealing element , the resilient sealing body parts of the sealing element components forming a resilient sealing body for providing a sealing function of the sealing element , the base body parts each comprising one or more, in particular in each case two, connecting portions for connecting the base body parts to one another, characterized in that the connecting portions are designed to be complementary to one another in such a way that they engage in one another in a form-fitting manner when the base body parts are connected to one another, each sealing element component comprising a one-piece resilient sealing body part and one or more base body parts , a plurality of base body parts of a sealing element component being connected to one another by means of the one-piece resilient sealing body part of the particular sealing element component . the base body parts of the sealing element components forming a preferably dimensionally stable base body of the sealing element , the resilient sealing body parts of the sealing element components forming a resilient sealing body for providing a sealing function of the sealing element , the base body parts each comprising one or more, in particular in each case two, connecting portions for connecting the base body parts to one another, characterized in that the connecting portions are designed to be complementary to one another in such a way that they engage in one another in a form-fitting manner when the base body parts are connected to one another, each sealing element component comprising a one-piece resilient sealing body part and one or more base body parts , a plurality of base body parts of a sealing element component being connected to one another by means of the one-piece resilient sealing body part of the particular sealing element component .
A sweetener composition comprising allulose and at least one mogroside, wherein the at least one mogroside is in a fruit extract from a fruit of a plant of the Cucurbitaceae family, wherein the fruit extract comprises 40% to 65% by weight of mogroside V and 0% to 30% by weight of mogroside IV, mogroside VI, oxomogroside V, mogroside IIIE or siamenoside I, or mixtures thereof, and wherein the composition comprises allulose in an amount of at least 97% by weight and fruit extract in an amount of at least 0.05% by weight relative to the total weight of allulose and fruit extract in the composition.
A cooling device comprising: a pressurized cabin of an airplane , in which an electronic device is arranged; a pressurizing system to supply pressurized air to the pressurized cabin ; a ram air channel for cooling the pressurized air; a partition wall air-tightly separating the pressurized cabin from the ram air channel ; and a heat exchanger thermally in contact with the electronic device extending from the pressurized cabin over the partition wall to the ram air channel and exposed to the ram air channel so as to radiate heat to a ram air (Ar), wherein the heat exchanger gets thermally in contact with both faces of the partition wall , one of the faces facing to the pressurized cabin and another of the faces facing to the ram air channel , whereby the heat exchanger and the partition wall constitute a heat transfer path for transmitting heat from the electronic device to the ram air channel . a pressurized cabin of an airplane , in which an electronic device is arranged; a pressurizing system to supply pressurized air to the pressurized cabin ; a ram air channel for cooling the pressurized air; a partition wall air-tightly separating the pressurized cabin from the ram air channel ; and a heat exchanger thermally in contact with the electronic device extending from the pressurized cabin over the partition wall to the ram air channel and exposed to the ram air channel so as to radiate heat to a ram air (Ar), wherein the heat exchanger gets thermally in contact with both faces of the partition wall , one of the faces facing to the pressurized cabin and another of the faces facing to the ram air channel , whereby the heat exchanger and the partition wall constitute a heat transfer path for transmitting heat from the electronic device to the ram air channel .
A method for controlling the rendering of a haptic effect, the method being implemented in a haptic rendering device and comprising: - obtaining a signal comprising information representative of a first haptic effect to be rendered, the information carrying at least a first information representative of a second haptic effect to be performed after the first haptic effect; - providing a first haptic command representative of the first haptic effect to a haptic actuator to perform the first haptic effect; characterized by : - computing a second haptic command representative of the second haptic effect, the second haptic command being adapted to capabilities of the haptic rendering device; and - providing the second haptic command to the haptic actuator to perform the second haptic effect, wherein, when the first haptic effect results in increasing a value, the second haptic effect results in decreasing the value and when the first haptic effect results in decreasing a value, the second haptic effect results in increasing the value. - obtaining a signal comprising information representative of a first haptic effect to be rendered, the information carrying at least a first information representative of a second haptic effect to be performed after the first haptic effect; - providing a first haptic command representative of the first haptic effect to a haptic actuator to perform the first haptic effect; - computing a second haptic command representative of the second haptic effect, the second haptic command being adapted to capabilities of the haptic rendering device; and - providing the second haptic command to the haptic actuator to perform the second haptic effect,
A proton beam therapy system comprising: an accelerator configured to provide a proton beam with an initial energy; a gantry assembly coupled to said accelerator and configured to rotate around an iso-center of said proton beam therapy system, wherein said gantry assembly is mounted to and supported by an external structure in a cantilevered manner; and a beam nozzle coupled to a first end of said gantry assembly , wherein said first end is a free end of said gantry assembly , and wherein said gantry assembly is mounted to said external structure at a location proximate to a second end of said gantry assembly that is opposite to said first end; wherein said gantry assembly comprises a bearing configured to enable said gantry assembly to rotate around said iso-center in a range of 360°; and wherein said gantry assembly further comprises: a gantry beamline comprising: focusing magnets; a first bend magnet operable to bend said proton beam by an acute angle; and a second bend magnet operable to bend said proton beam by an obtuse angle; wherein the proton beam therapy system further comprises a monocoque housing configured to contain and support said gantry beam line, wherein the monocoque housing is operable to be affixed to said external structure ; characterised in that the monocoque housing is also configured to contain and support said bearing , wherein said bearing is a slew bearing. an accelerator configured to provide a proton beam with an initial energy; a gantry assembly coupled to said accelerator and configured to rotate around an iso-center of said proton beam therapy system, wherein said gantry assembly is mounted to and supported by an external structure in a cantilevered manner; and a beam nozzle coupled to a first end of said gantry assembly , wherein said first end is a free end of said gantry assembly , and wherein said gantry assembly is mounted to said external structure at a location proximate to a second end of said gantry assembly that is opposite to said first end; wherein said gantry assembly comprises a bearing configured to enable said gantry assembly to rotate around said iso-center in a range of 360°; and a gantry beamline comprising: focusing magnets; a first bend magnet operable to bend said proton beam by an acute angle; and a second bend magnet operable to bend said proton beam by an obtuse angle; wherein the proton beam therapy system further comprises a monocoque housing configured to contain and support said gantry beam line, wherein the monocoque housing is operable to be affixed to said external structure ; focusing magnets; a first bend magnet operable to bend said proton beam by an acute angle; and a second bend magnet operable to bend said proton beam by an obtuse angle; wherein the proton beam therapy system further comprises a monocoque housing configured to contain and support said gantry beam line, wherein the monocoque housing is operable to be affixed to said external structure ; characterised in that the monocoque housing is also configured to contain and support said bearing , wherein said bearing is a slew bearing.
An imaging system for generating an image of an object, the imaging system comprising: - a measured projection data providing unit for providing spectral measured projection data and non-spectral measured projection data, wherein the spectral measured projection data and the non-spectral measured projection data have been generated by a detector having spectral detection elements and non-spectral detection elements , respectively, based on radiation having traversed an imaging region including the object , characterized by - an estimation unit for estimating spectral estimated projection data, which correspond to radiation paths ending at the non-spectral detection elements , wherein for estimating a spectral estimated projection data value for a radiation path ending at a non-spectral detection element the estimation unit is adapted to a) determine a model material distribution within the imaging region , which could have caused a non-spectral measured projection data value that corresponds to the radiation path, based on the non-spectral measured projection data and b) simulate a measurement of the spectral estimated projection data value based on the model material distribution, - a reconstruction unit for reconstructing an image of the object based on the spectral measured projection data and the spectral estimated projection data. - a measured projection data providing unit for providing spectral measured projection data and non-spectral measured projection data, wherein the spectral measured projection data and the non-spectral measured projection data have been generated by a detector having spectral detection elements and non-spectral detection elements , respectively, based on radiation having traversed an imaging region including the object , characterized by - an estimation unit for estimating spectral estimated projection data, which correspond to radiation paths ending at the non-spectral detection elements , wherein for estimating a spectral estimated projection data value for a radiation path ending at a non-spectral detection element the estimation unit is adapted to a) determine a model material distribution within the imaging region , which could have caused a non-spectral measured projection data value that corresponds to the radiation path, based on the non-spectral measured projection data and b) simulate a measurement of the spectral estimated projection data value based on the model material distribution, - a reconstruction unit for reconstructing an image of the object based on the spectral measured projection data and the spectral estimated projection data.
A method of assessing the condition of a tyre on a wheel which is mounted on a vehicle , while the vehicle is moving and the tyre is rotating and moving longitudinally along a path of movement, the periphery of the tyre having tread portions separated by tread gaps; in which the method comprises using an imaging device to capture images of a plurality of different portions of the periphery of the tyre whilst the tyre revolves, the images being captured whilst longitudinally spaced flash units (F1, F2, F3, F4) are activated to illuminate portions of the periphery of the tyre, the flash units being positioned to one side of the path of movement (A) of the tyre and directing light at an acute angle to the path of movement of the tyre, the light causing shadows to be cast in the tread gaps between tread portions; and the images are analysed by data processing apparatus which determines the extent of shadows in the tread gaps so as to provide an indication of the depth of the tread gaps; wherein each flash unit causes a series of flashes of light to be produced when the flash unit is activated, each flash of light in the series being separated from the next flash of light in the series by an interval; wherein for any flash units (F1, F2, F3, F4) which are activated at the same time and illuminate overlapping portions of the periphery of tyre, the respective series of flashes of light are out of phase so that the flashes of light from one flash unit are emitted in the intervals between the flashes of light from the or each other flash unit, and wherein the capturing of the images is synchronised with the production of the respective flashes of light when the flash units (F1, F2, F3, F4) are activated. using an imaging device to capture images of a plurality of different portions of the periphery of the tyre whilst the tyre revolves, the images being captured whilst longitudinally spaced flash units (F1, F2, F3, F4) are activated to illuminate portions of the periphery of the tyre, the flash units being positioned to one side of the path of movement (A) of the tyre and directing light at an acute angle to the path of movement of the tyre, the light causing shadows to be cast in the tread gaps between tread portions; and the images are analysed by data processing apparatus which determines the extent of shadows in the tread gaps so as to provide an indication of the depth of the tread gaps; wherein each flash unit causes a series of flashes of light to be produced when the flash unit is activated, each flash of light in the series being separated from the next flash of light in the series by an interval; wherein for any flash units (F1, F2, F3, F4) which are activated at the same time and illuminate overlapping portions of the periphery of tyre, the respective series of flashes of light are out of phase so that the flashes of light from one flash unit are emitted in the intervals between the flashes of light from the or each other flash unit, and wherein the capturing of the images is synchronised with the production of the respective flashes of light when the flash units (F1, F2, F3, F4) are activated.
A terminal apparatus configured to communicate with a base station apparatus , the terminal apparatus comprising: a monitor unit configured to monitor qualities of one or more radio links for monitoring at least one Physical Downlink Control Channel, PDCCH, each radio link being associated with a reference signal for decoding the at least one PDCCH from the base station apparatus ; a physical layer processing unit configured to send an indication to a higher layer in a case that the qualities of the one or more radio links are worse than a threshold associated with block error rate; and a higher layer processing unit configured to transmit a recovery request to the base station apparatus in a case of receiving the indication a prescribed number of times. a monitor unit configured to monitor qualities of one or more radio links for monitoring at least one Physical Downlink Control Channel, PDCCH, each radio link being associated with a reference signal for decoding the at least one PDCCH from the base station apparatus ; a physical layer processing unit configured to send an indication to a higher layer in a case that the qualities of the one or more radio links are worse than a threshold associated with block error rate; and a higher layer processing unit configured to transmit a recovery request to the base station apparatus in a case of receiving the indication a prescribed number of times.
A method for resetting a print chip mounted on a print cartridge for use in a printing device , wherein the print cartridge has an identifier associated therewith and the print cartridge has an expected print yield that is higher than an original expected print yield of the print cartridge , the method comprising using a virtual printer for: determining that the print cartridge installed in the printing device has an identifier associated therewith; determining that a predetermined condition has been met; determining that the print cartridge has the expected print yield that is higher than the original expected print yield of the print cartridge ; and providing a message indicating that the printing device should be powered off, wherein powering off the printing device after the predetermined condition has been met resets the print chip to a print chip of a print cartridge that has still printing material therein, and allowing printing to continue, when reading, by the printer device, the print chip of a print cartridge that still has print material therein. determining that the print cartridge installed in the printing device has an identifier associated therewith; determining that a predetermined condition has been met; determining that the print cartridge has the expected print yield that is higher than the original expected print yield of the print cartridge ; and providing a message indicating that the printing device should be powered off, wherein powering off the printing device after the predetermined condition has been met resets the print chip to a print chip of a print cartridge that has still printing material therein, and allowing printing to continue, when reading, by the printer device, the print chip of a print cartridge that still has print material therein.
A titanium material or a titanium alloy material, comprising a titanium or a titanium alloy, and a titanium oxide film formed on a surface of the titanium or the titanium alloy and as an outermost surface and comprising TiO and TiO 2 , wherein the composition ratio of TiO (I TiO /(I Ti + I TiO )) × 100 found from the maximum intensity of the X-ray diffraction peaks of TiO (I TiO ) and the maximum intensity of the X-ray diffraction peaks of metal titanium (I Ti ) in X-ray diffraction measured at an incident angle to the surface of 0.3° is 0.5% or more, no diffraction peak from TiO 2 is found in X-ray diffraction measured at an incident angle to the surface of 0.3° while TiO 2 is detected from the outermost surface by X-ray photoelectron spectroscopy, a thickness of the oxide film is 3 to 15 nm, and C is at 10 atomic% or less, N at 1 atomic% or less, and B at 1 atomic% or less as a result of an analysis of the surface of the titanium material or a titanium alloy material using X-ray photoelectron spectroscopy (XPS) after the surface has been subjected to sputtering of 5 nm with argon, wherein the wavelength used in X-ray diffraction measurements is 1.7902 Å using Co-Kα.
A connector converter, comprising a shell , a digital signal board and a connecting wire , wherein the digital signal board is integrated with a digital circuit, the digital signal board is provided in the shell, an inner end of the connecting wire is electrically connected to the digital signal board , an outer end of the connecting wire extends out to the shell and is provided with an input interface, the digital signal board is provided with a plurality of output interfaces, and the shell is provided with an outer pocket positioned corresponding to the output interface such that the output interface is exposed; characterized in that the connector converter comprises further a power source board , the power source board is integrated with a power source circuit, the power source board is also provided in the shell and electrically connected to digital signal board, and the digital signal board and the power source board are provided at a distance from each other so that signal interference between the digital circuit and power source circuit can be effectively avoided during operation of the connector converter. characterized in that the connector converter comprises further a power source board , the power source board is integrated with a power source circuit, the power source board is also provided in the shell and electrically connected to digital signal board, and the digital signal board and the power source board are provided at a distance from each other so that signal interference between the digital circuit and power source circuit can be effectively avoided during operation of the connector converter.
A method for acquiring timing information of a first timing information source using timing information of a second timing information source , the method being performed by a wireless device and comprising the steps of: receiving (S208) instructions from a network node to use second timing information of the second timing information source as a source for deriving first timing information of the first timing information source; receiving (S210) the second timing information from the second timing information source; and determining , based on the second timing information, timing for when to monitor a downlink channel. receiving (S208) instructions from a network node to use second timing information of the second timing information source as a source for deriving first timing information of the first timing information source; receiving (S210) the second timing information from the second timing information source; and determining , based on the second timing information, timing for when to monitor a downlink channel.
A physical uplink shared channel, PUSCH, transmission method carried out by a user equipment, UE, to a base station, BS, the method comprising: receiving, from the BS, a sounding reference signal, SRS, resource indicator, SRI, that indicates SRS resources (S501); selecting, one or more transmission resources for use in PUSCH transmission, corresponding to the SRI (S502); and transmitting a PUSCH using the one or more selected transmission resources (S503), the method characterised by : transmitting, with the UE, transmission resource information as UE capability information (S701), the transmission resource information including the number of transmission resources which are simultaneously able to transmit signals from the UE, and the transmission resource information including the number of transceiver units, TXRUs, the number of streams, and the transport block size for each transmission resource. receiving, from the BS, a sounding reference signal, SRS, resource indicator, SRI, that indicates SRS resources (S501); selecting, one or more transmission resources for use in PUSCH transmission, corresponding to the SRI (S502); and transmitting a PUSCH using the one or more selected transmission resources (S503), the method characterised by : transmitting, with the UE, transmission resource information as UE capability information (S701), the transmission resource information including the number of transmission resources which are simultaneously able to transmit signals from the UE, and the transmission resource information including the number of transceiver units, TXRUs, the number of streams, and the transport block size for each transmission resource.