mhurhangee/ep-ind-claims huggingface dataset:
A seismic source for generating seismic waves in a non-vertical borehole, the seismic source comprising: a housing; a flexible membrane attached to the housing and configured to hold a fluid; an actuator mechanism located inside the housing and configured to generate a fluctuating pressure on the flexible membrane; and a coupling device covered by the flexible membrane and configured to generate a static pressure on the flexible membrane; characterized in that said seismic source is configured to be switched between a first clamped mode in which said flexible membrane is pressed by said static pressure against walls of a borehole casing and a second unclamped mode in which said flexible membrane is not in contact with said walls so that said seismic source can move freely along an axial direction inside said borehole casing. a housing; a flexible membrane attached to the housing and configured to hold a fluid; an actuator mechanism located inside the housing and configured to generate a fluctuating pressure on the flexible membrane; and a coupling device covered by the flexible membrane and configured to generate a static pressure on the flexible membrane; characterized in that said seismic source is configured to be switched between a first clamped mode in which said flexible membrane is pressed by said static pressure against walls of a borehole casing and a second unclamped mode in which said flexible membrane is not in contact with said walls so that said seismic source can move freely along an axial direction inside said borehole casing.
Use in ion exchange chromatography of a chromatography medium comprising one or more non-woven electrospun cellulose nanofibres which are fused together at points where the nanofibres intersect one another and which in use form a stationary phase in the form of a membrane comprising a plurality of pores through which a mobile phase can permeate, wherein the chromatography medium is functionalised to interact with target molecules, and wherein the nanofibres have a diameter of 10nm to 1000nm.
An assembly for a gas turbine engine, the assembly comprising: an inner combustor wall configured with a plurality of quench apertures; a case displaced from the combustor wall such that a plenum is formed by and extends between the combustor wall and the case; the case comprising a case wall, a deflector and a conduit; the deflector projecting out from the case wall into the plenum towards the combustor wall, and the deflector arranged upstream of all of the quench apertures; and an inlet to the conduit arranged next to and downstream of the deflector. an inner combustor wall configured with a plurality of quench apertures; a case displaced from the combustor wall such that a plenum is formed by and extends between the combustor wall and the case; the case comprising a case wall, a deflector and a conduit; the deflector projecting out from the case wall into the plenum towards the combustor wall, and the deflector arranged upstream of all of the quench apertures; and an inlet to the conduit arranged next to and downstream of the deflector.
A method of operating a controller for modifying treatment parameters for a radiotherapy patient, the method comprising the steps of: (a) establishing a set of baseline treatment parameters; (b) providing at least two registered images of an anatomical region to be treated from a data storage device to a processor, wherein one or more of the images is a portal image from one or more beam directions, and at least one of the images is a non-x-ray-based 3D image (300, 305); (c) registering the at least two images to a coordinate system associated with a treatment device; (d) segmenting the at least one non-x-ray-based 3D image to form one or more 3D surfaces, each corresponding to a separate anatomical region; (e) projecting the one or more 3D surfaces onto the plane of one or more respective portal images, thereby enhancing the one or more portal images with data from the projected one or more surfaces, wherein the enhanced one or more portal images (310, 315) incorporate anatomy extracted from the non-x-ray-based image; and (f) modifying the baseline treatment parameters based on the registered images. (a) establishing a set of baseline treatment parameters; (b) providing at least two registered images of an anatomical region to be treated from a data storage device to a processor, wherein one or more of the images is a portal image from one or more beam directions, and at least one of the images is a non-x-ray-based 3D image (300, 305); (c) registering the at least two images to a coordinate system associated with a treatment device; (d) segmenting the at least one non-x-ray-based 3D image to form one or more 3D surfaces, each corresponding to a separate anatomical region; (e) projecting the one or more 3D surfaces onto the plane of one or more respective portal images, thereby enhancing the one or more portal images with data from the projected one or more surfaces, wherein the enhanced one or more portal images (310, 315) incorporate anatomy extracted from the non-x-ray-based image; and (f) modifying the baseline treatment parameters based on the registered images.
A method for reducing a triplet population in a solid state organic light emitting semiconductor material of an organic light emitting device, the method comprising the step of providing, into the organic light emitting device, molecules exhibiting non-vertical triplet energy transfer in the solid state organic light emitting semiconductor material or at a distance smaller than 100 nm from the solid state organic light emitting semiconductor material, wherein said molecules exhibiting non-vertical triplet energy transfer comprise non-vertical triplet scavenging material meeting the following requirements: a) the triplet level of the non-vertical triplet scavenger is lower than the triplet level of the solid-state organic light emitting semiconductor material; b) the singlet level of the non-vertical triplet scavenger is higher than the singlet level of the solid-state organic light emitting semiconductor material; c) the non-vertical triplet scavenger possesses an intrinsic triplet lifetime which is shorter than the triplet lifetime of the solid-state organic light emitting semiconductor material, and wherein the intersystem crossing rate of said solid state organic light emitting semiconductor material comprising said non-vertical triplet scavenging material is not increased compared to the intersystem crossing rate of said solid state organic light emitting semiconductor material not comprising said non-vertical triplet scavenging material. a) the triplet level of the non-vertical triplet scavenger is lower than the triplet level of the solid-state organic light emitting semiconductor material; b) the singlet level of the non-vertical triplet scavenger is higher than the singlet level of the solid-state organic light emitting semiconductor material; c) the non-vertical triplet scavenger possesses an intrinsic triplet lifetime which is shorter than the triplet lifetime of the solid-state organic light emitting semiconductor material,
An actuating assembly for moving an operative member of a glassware forming machine, the assembly comprising a connecting casing (15,16,22) adapted to be fixed to a supporting structure of the machine; a shaft supporting the operative member and coupled to said connecting casing (15,16,22) so as to translate and rotate about a fixed axis thereof; a pneumatic jack for displacing said shaft along said axis and comprising a rod (28,29) connected to said shaft and a piston; a cam and tappet device for rotating the shaft in opposite directions about said axis; the device comprising a chamber and a cam and tappet assembly housed in said chamber and lubricated by a lubricating fluid present in said chamber; and hydraulic means for stabilizing the motion of said supporting shaft and comprising an operative fluid; characterized in that said chamber and said stabilization hydraulic means define part of a single closed hydraulic circuit for flowing a lubricating and operative fluid which is in common to said cam and tappet device and to said stabilization hydraulic means.
An image forming apparatus comprising: a bottle which is detachably mounted on an apparatus body to store toner; a shutter which is disposed on the bottle to open and close a discharge port which discharges the toner; and an engaging member which is disposed on the apparatus body to open and close the shutter by engaging with the shutter along with an insertion operation of the bottle, wherein the engaging member is disposed to be movable from a first position, which allows the shutter to be located at a closed position at which the discharge port is closed by the shutter in a state in which the bottle is mounted on the apparatus body, to a second position, in which the discharge port is to be opened and closed by the shutter along with an operation of attaching and detaching the bottle to and from the apparatus body, wherein the image forming apparatus further comprises a driving portion (207, 210, 211, 212) which is disposed on the apparatus body to drive the engaging member from the first position to the second position when the bottle is attached to the apparatus body. a bottle which is detachably mounted on an apparatus body to store toner; a shutter which is disposed on the bottle to open and close a discharge port which discharges the toner; and an engaging member which is disposed on the apparatus body to open and close the shutter by engaging with the shutter along with an insertion operation of the bottle, wherein the engaging member is disposed to be movable from a first position, which allows the shutter to be located at a closed position at which the discharge port is closed by the shutter in a state in which the bottle is mounted on the apparatus body, to a second position, in which the discharge port is to be opened and closed by the shutter along with an operation of attaching and detaching the bottle to and from the apparatus body, wherein the image forming apparatus further comprises a driving portion (207, 210, 211, 212) which is disposed on the apparatus body to drive the engaging member from the first position to the second position when the bottle is attached to the apparatus body.
Device for bringing into position and arranging a carcass part of slaughtered poultry on or in a product carrier (150; 550; 650; 950), which device comprises: - at least one assembly of a base part and an associated movable holder (221; 421; 521; 621; 921) for the carcass part of slaughtered poultry with positioning means associated with the holder (221; 421; 521; 621; 921) for the carcass part, which holder (221; 421; 521; 621; 921) is adapted for receiving a carcass part to be arranged on or in a product carrier (150; 550; 650; 950), - drive means for moving the holder (221; 421; 521; 621; 921) relative to the base part associated with the respective holder (221; 421; 521; 621; 921) between a receiving position in which the carcass part can be received and a transfer position in which the carcass part is brought into a position relative to the product carrier (150; 550; 650; 950) that is suitable for transfer to the product carrier (150; 550; 650; 950), characterized in that the holder (221; 421; 521; 621; 921) is adapted to receive at least one of the following: a back half, a leg, or a leg part, and wherein, in the transfer position, the holder (221; 421; 521; 621; 921) positions a leg or leg part of the carcass part such that the hip side of the leg or leg part is below the knee side of the leg or leg part. - at least one assembly of a base part and an associated movable holder (221; 421; 521; 621; 921) for the carcass part of slaughtered poultry with positioning means associated with the holder (221; 421; 521; 621; 921) for the carcass part, which holder (221; 421; 521; 621; 921) is adapted for receiving a carcass part to be arranged on or in a product carrier (150; 550; 650; 950), - drive means for moving the holder (221; 421; 521; 621; 921) relative to the base part associated with the respective holder (221; 421; 521; 621; 921) between a receiving position in which the carcass part can be received and a transfer position in which the carcass part is brought into a position relative to the product carrier (150; 550; 650; 950) that is suitable for transfer to the product carrier (150; 550; 650; 950), characterized in that the holder (221; 421; 521; 621; 921) is adapted to receive at least one of the following: a back half, a leg, or a leg part, and
A method for manufacturing a friction material containing a friction modifier, a fibrous material and a binder as raw materials, the method comprising: a step of mixing and agitating the raw materials by low frequency acoustic agitation at a frequency of 30 Hz to 1 kHz, wherein a time for performing the low frequency acoustic agitation is in the range from 60 seconds to 180 seconds. a step of mixing and agitating the raw materials by low frequency acoustic agitation at a frequency of 30 Hz to 1 kHz, wherein a time for performing the low frequency acoustic agitation is in the range from 60 seconds to 180 seconds.
A charge detection mass spectrometer, CDMS, including gain drift compensation, comprising: an electrostatic linear ion trap, ELIT, having a charge detection cylinder disposed between first and second ion mirrors (M1, M2), a source of ions configured to supply ions to the ELIT, a charge generator for generating a high frequency charge for inducing a charge on the charge detection cylinder, a charge sensitive preamplifier having an input coupled to the charge detection cylinder and an output configured to produce a charge detection signal corresponding to charge induced on the charge detection cylinder, and a processor configured to (a) control the charge generator to induce the high frequency charge on the charge detection cylinder, (b) control operation of the first and second ion mirrors (M1, M2) to trap an ion from the source of ions therein and to thereafter cause the trapped ion to oscillate back and forth between the first and second ion mirrors (M1, M2) each time passing through the charge detection cylinder and inducing a corresponding charge thereon, and (c) process the charge detection signal produced by the charge sensitive preamplifier to (i) determine a gain factor as a function of the high frequency charge induced by the charge generator on the charge detection cylinder, and (ii) modify a magnitude of the portion of the charge detection signal resulting from the charge induced on the charge detection cylinder by the trapped ion passing therethrough as a function of the gain factor. an electrostatic linear ion trap, ELIT, having a charge detection cylinder disposed between first and second ion mirrors (M1, M2), a source of ions configured to supply ions to the ELIT, a charge generator for generating a high frequency charge for inducing a charge on the charge detection cylinder, a charge sensitive preamplifier having an input coupled to the charge detection cylinder and an output configured to produce a charge detection signal corresponding to charge induced on the charge detection cylinder, and a processor configured to (a) control the charge generator to induce the high frequency charge on the charge detection cylinder, (b) control operation of the first and second ion mirrors (M1, M2) to trap an ion from the source of ions therein and to thereafter cause the trapped ion to oscillate back and forth between the first and second ion mirrors (M1, M2) each time passing through the charge detection cylinder and inducing a corresponding charge thereon, and (c) process the charge detection signal produced by the charge sensitive preamplifier to (i) determine a gain factor as a function of the high frequency charge induced by the charge generator on the charge detection cylinder, and (ii) modify a magnitude of the portion of the charge detection signal resulting from the charge induced on the charge detection cylinder by the trapped ion passing therethrough as a function of the gain factor.
Method for monitoring a status of a tyre fitted on a vehicle, the method comprising: - with said vehicle in motion and said tyre in rotation, acquiring (3, 6) a motion signal representative of a motion of a crown portion of said tyre, wherein said motion signal temporally corresponds to a plurality of turns of said tyre; - filtering (15, 42) from said motion signal a part of the motion signal temporally corresponding at least to each passage of said crown portion in a footprint area of the tyre, for obtaining a filtered motion signal; - obtaining (4, 7) a frequency spectrum of said filtered motion signal; - determining said status of the tyre based on said frequency spectrum, wherein said frequency spectrum comprises a plurality of peaks, characterized in that the method comprises identifying (5, 8) a determined peak in said plurality of peaks and determining a frequency of the determined peak, in that said determining said status of the tyre is carried out based on a time trend of said frequency of the determined peak, and in that said determining said status of the tyre comprises: - determining a status of loss of structural integrity of said tyre provided that said frequency of the determined peak temporally decreases, - determining a status of wear of a tread band of said tyre provided that said frequency of the determined peak temporally increases. - with said vehicle in motion and said tyre in rotation, acquiring (3, 6) a motion signal representative of a motion of a crown portion of said tyre, wherein said motion signal temporally corresponds to a plurality of turns of said tyre; - filtering (15, 42) from said motion signal a part of the motion signal temporally corresponding at least to each passage of said crown portion in a footprint area of the tyre, for obtaining a filtered motion signal; - obtaining (4, 7) a frequency spectrum of said filtered motion signal; - determining said status of the tyre based on said frequency spectrum, wherein said frequency spectrum comprises a plurality of peaks, - determining a status of loss of structural integrity of said tyre provided that said frequency of the determined peak temporally decreases, - determining a status of wear of a tread band of said tyre provided that said frequency of the determined peak temporally increases.
Abase station, comprising: a sending module (110, 130), configured to send a first request message to a mobility management control node, wherein the first request message comprises an address of a local gateway of a secondary base station, and the first request message is used to request to perform data offloading at the local gateway of the secondary base station; a receiving module, configured to receive a first response message that is sent by the mobility management control node in response to the first request message sent by the sending module, wherein the first response message comprises a first related identifier, ID, of the local gateway of the secondary base station, and the first related ID is used to indicate a first bearer for which data offloading is performed at the local gateway of the secondary base station; and the sending module (110, 130), further configured to send to the secondary base station a second request message comprising the first related ID of the first response message received by the receiving module, to instruct the secondary base station to perform data offloading at the local gateway of the secondary base station for the first bearer. a sending module (110, 130), configured to send a first request message to a mobility management control node, wherein the first request message comprises an address of a local gateway of a secondary base station, and the first request message is used to request to perform data offloading at the local gateway of the secondary base station; a receiving module, configured to receive a first response message that is sent by the mobility management control node in response to the first request message sent by the sending module, wherein the first response message comprises a first related identifier, ID, of the local gateway of the secondary base station, and the first related ID is used to indicate a first bearer for which data offloading is performed at the local gateway of the secondary base station; and the sending module (110, 130), further configured to send to the secondary base station a second request message comprising the first related ID of the first response message received by the receiving module, to instruct the secondary base station to perform data offloading at the local gateway of the secondary base station for the first bearer.
A method for automatically obtaining information to output to a user, the method comprises, at a user device: determining whether an event is triggered by automatically monitoring triggering information sent by a wearable smart device; obtaining the triggering information; and determining the event is triggered when the triggering information is received by the user device; if the event is triggered, automatically determining the user's current state by selecting from a plurality of predefined states based on the triggering information; transmitting a request to obtain information to a cloud server, wherein the request carries an identification of the user or an identification of the user device; automatically obtaining a set of information corresponding to the determined state, wherein the set of information corresponds to the identification of the user or the identification of the user device; and outputting the set of information to the user. determining whether an event is triggered by automatically monitoring triggering information sent by a wearable smart device; obtaining the triggering information; and determining the event is triggered when the triggering information is received by the user device; if the event is triggered, automatically determining the user's current state by selecting from a plurality of predefined states based on the triggering information; transmitting a request to obtain information to a cloud server, wherein the request carries an identification of the user or an identification of the user device; automatically obtaining a set of information corresponding to the determined state, wherein the set of information corresponds to the identification of the user or the identification of the user device; and outputting the set of information to the user.