mhurhangee/ep-ind-claims huggingface dataset:
Reactor with an ascending co-current flow of a mixture of a gas phase and a liquid phase contained in bottom of the reactor, said reactor comprising - at least one packed bed, - a distribution plate with at least one main chimney allowing circulation of said liquid phase towards the bed and at least one passage for feeding said gas phase into said bed, characterized in that plate also comprises at least one mixed chimney with a smaller height (H') than the height of main chimney and greater than the height of passage for circulation of the liquid phase towards the bed or for feeding the gas phase into said bed. - at least one packed bed, - a distribution plate with at least one main chimney allowing circulation of said liquid phase towards the bed and at least one passage for feeding said gas phase into said bed,
A method of radio link monitoring, RLM, in a User Equipment, UE, the method comprising: selecting, on a carrier, a control channel type to perform RLM on, wherein the selected control channel type includes: a physical downlink control channel, PDCCH, or an enhanced physical downlink control channel, EPDCCH; receiving a transmission on the carrier, the transmission comprising one or more reference signals; and determining the radio link quality of the carrier using the selected control channel type and the one or more reference signals, wherein determining the radio link quality of the carrier comprises: measuring a propagation channel condition using the one or more reference signals; and estimating a detection performance of the selected control channel type for carrying control information over the carrier. selecting, on a carrier, a control channel type to perform RLM on, wherein the selected control channel type includes: a physical downlink control channel, PDCCH, or an enhanced physical downlink control channel, EPDCCH; a physical downlink control channel, PDCCH, or an enhanced physical downlink control channel, EPDCCH; receiving a transmission on the carrier, the transmission comprising one or more reference signals; and determining the radio link quality of the carrier using the selected control channel type and the one or more reference signals, wherein determining the radio link quality of the carrier comprises: measuring a propagation channel condition using the one or more reference signals; and estimating a detection performance of the selected control channel type for carrying control information over the carrier. measuring a propagation channel condition using the one or more reference signals; and estimating a detection performance of the selected control channel type for carrying control information over the carrier.
An oxygenator (1; 10) comprising: a housing (2; 2A); a hollow fiber membrane layer that is stored in the housing and has multiple integrated hollow fiber membranes with a gas exchange function; a gas inlet portion and a gas outlet portion that are provided on the upstream and downstream of gas passages in lumens of the hollow fiber membranes, respectively; a blood inlet portion (51; 201) and a blood outlet portion that are provided on the upstream and downstream of blood passages outside the hollow fiber membranes, respectively; a first filter member (41; 41A) that is provided on the hollow fiber membrane layer in contact with a blood outlet portion side surface so as to cover substantially the entire surface and has a function to catch bubbles in blood; and a second filter member (43; 43A) that is separated from the first filter member, positioned between the first filter member and the blood outlet portion, and has a function to catch bubbles in blood, characterized in that the first filter member and the second filter member are each formed in a sheet shape, and the second filter member is smaller in area than the first filter member. a housing (2; 2A); a hollow fiber membrane layer that is stored in the housing and has multiple integrated hollow fiber membranes with a gas exchange function; a gas inlet portion and a gas outlet portion that are provided on the upstream and downstream of gas passages in lumens of the hollow fiber membranes, respectively; a blood inlet portion (51; 201) and a blood outlet portion that are provided on the upstream and downstream of blood passages outside the hollow fiber membranes, respectively; a first filter member (41; 41A) that is provided on the hollow fiber membrane layer in contact with a blood outlet portion side surface so as to cover substantially the entire surface and has a function to catch bubbles in blood; and a second filter member (43; 43A) that is separated from the first filter member, positioned between the first filter member and the blood outlet portion, and has a function to catch bubbles in blood, characterized in that the first filter member and the second filter member are each formed in a sheet shape, and the second filter member is smaller in area than the first filter member.
A carbon dioxide conversion system for an environment, comprising: a first gas-liquid contactor-separator (102, 202, 302) downstream of the environment to receive a flow of contaminated gas therefrom; an electrochemical conversion cell (130, 230, 330) downstream of the first gas-liquid contactor-separator to receive used ionic liquid discharged from the liquid contactor-separator, the electrochemical conversion cell configured to convert the used ionic liquid to oxygen and to separately discharge the oxygen and cleaned ionic liquid; and a cleaned ionic liquid storage (105, 205, 305) intermediate the first gas-liquid contactor-separator and the electrochemical conversion cell to supply cleaned ionic liquid to the first gas-liquid contactor-separator; wherein the first gas-liquid contactor-separator comprises a hollow fiber membrane bundle. a first gas-liquid contactor-separator (102, 202, 302) downstream of the environment to receive a flow of contaminated gas therefrom; an electrochemical conversion cell (130, 230, 330) downstream of the first gas-liquid contactor-separator to receive used ionic liquid discharged from the liquid contactor-separator, the electrochemical conversion cell configured to convert the used ionic liquid to oxygen and to separately discharge the oxygen and cleaned ionic liquid; and a cleaned ionic liquid storage (105, 205, 305) intermediate the first gas-liquid contactor-separator and the electrochemical conversion cell to supply cleaned ionic liquid to the first gas-liquid contactor-separator; wherein the first gas-liquid contactor-separator comprises a hollow fiber membrane bundle.
A small motor having a polygonal external shape in which a field magnet having four or more poles is attached to an inner circumferential surface of a motor casing made of metal, the motor comprising: the motor casing having a side wall formed into a polygonal shape such that flat side portions equal in number to the poles and arcuate corner portions equal in number to the side portions and located at respective corners between the side portions are continuously joined together; and the field magnet which has an outer circumferential shape approximately coinciding with the inner circumferential shape of the motor casing, and magnet corner portions corresponding to the corner portions of the motor casing, characterized in that the field magnet has magnet side portions corresponding to the side portions of the motor casing, and ribs provided on outer circumferential surfaces of the magnet side portions, wherein the magnet is integrally formed into the overall shape of a ring from a magnetic plastic compound; and wherein the magnet is disposed, through press-fitting, within the motor casing such that the ribs come into contact with the inner circumferential surface of the motor casing, the magnet side portions, excluding the ribs, being formed such that small clearances are formed between the magnet side portions and the side portions of the motor casing, or at least such that no pressing force acts on the magnet side portions, excluding the ribs. the motor casing having a side wall formed into a polygonal shape such that flat side portions equal in number to the poles and arcuate corner portions equal in number to the side portions and located at respective corners between the side portions are continuously joined together; and the field magnet which has an outer circumferential shape approximately coinciding with the inner circumferential shape of the motor casing, and magnet corner portions corresponding to the corner portions of the motor casing, characterized in that the field magnet has magnet side portions corresponding to the side portions of the motor casing, and ribs provided on outer circumferential surfaces of the magnet side portions, wherein the magnet is integrally formed into the overall shape of a ring from a magnetic plastic compound; and wherein the magnet is disposed, through press-fitting, within the motor casing such that the ribs come into contact with the inner circumferential surface of the motor casing, the magnet side portions, excluding the ribs, being formed such that small clearances are formed between the magnet side portions and the side portions of the motor casing, or at least such that no pressing force acts on the magnet side portions, excluding the ribs.
A system for recording call sessions over a telephony network, the system comprising: one or more user telephone stations, at least one of the user telephone stations including a telephone and computer desktop, the computer desktop including a desktop recording service configured for recording call sessions conducted over the telephone; one or more additional network recording services or network record servers configured for recording call sessions conducted over the telephone, at least one of the one or more additional network recording services or network record servers being able to record a call session conducted over the telephone when the desktop recording service is unable or unavailable to record the call session; a means for directing an active call session from a caller to the desktop recording service; a means for monitoring the health or status of the desktop recording service during the active call session; a means for redirecting the active call session for recording to the at least one of the one or more additional network recording services or network record servers in response to detecting a failure or error of the desktop recording service has occurred, wherein a lack of response to a message by the desktop recording service indicates a failure or error; and a means for communicating a call status of the active call session to the desktop recording service and the at least one of the one or more additional network recording services or network record servers for capturing and preserving a recording of the active call session. one or more user telephone stations, at least one of the user telephone stations including a telephone and computer desktop, the computer desktop including a desktop recording service configured for recording call sessions conducted over the telephone; one or more additional network recording services or network record servers configured for recording call sessions conducted over the telephone, at least one of the one or more additional network recording services or network record servers being able to record a call session conducted over the telephone when the desktop recording service is unable or unavailable to record the call session; a means for directing an active call session from a caller to the desktop recording service; a means for monitoring the health or status of the desktop recording service during the active call session; a means for redirecting the active call session for recording to the at least one of the one or more additional network recording services or network record servers in response to detecting a failure or error of the desktop recording service has occurred, wherein a lack of response to a message by the desktop recording service indicates a failure or error; and a means for communicating a call status of the active call session to the desktop recording service and the at least one of the one or more additional network recording services or network record servers for capturing and preserving a recording of the active call session.
A thrust increasing device comprising: a fuel injector which ejects fuel toward a jet flow; an ignition device disposed downstream from the fuel injector; a cylindrical duct which surrounds a combustion region; a flame holder disposed in the duct; and a swirling flow generating part (10d1, 10d2) which maintains a flow of the jet flow in an axial direction of the duct in an outer region of the duct in a radial direction inside the duct and converts the jet flow to a swirling flow centered on an axis of the duct in an inner region of the duct in the radial direction inside the duct, characterized in that the swirling flow generating part (10d1, 10d2) is made up of a plurality of radial gutters (10d1, 10d2) which are arranged around the axis of the duct in an annular shape and each of which injects air toward a place displaced from the axis of the duct by the same distance when viewed in the axial direction of the duct. a fuel injector which ejects fuel toward a jet flow; an ignition device disposed downstream from the fuel injector; a cylindrical duct which surrounds a combustion region; a flame holder disposed in the duct; and a swirling flow generating part (10d1, 10d2) which maintains a flow of the jet flow in an axial direction of the duct in an outer region of the duct in a radial direction inside the duct and converts the jet flow to a swirling flow centered on an axis of the duct in an inner region of the duct in the radial direction inside the duct, characterized in that the swirling flow generating part (10d1, 10d2) is made up of a plurality of radial gutters (10d1, 10d2) which are arranged around the axis of the duct in an annular shape and each of which injects air toward a place displaced from the axis of the duct by the same distance when viewed in the axial direction of the duct.
A method of calibrating a first catheter for detecting interference with magnetic field sensing caused by presence of a second catheter or other metal or ferrous object, comprising: providing a catheter with a first sensor (S 1, S 2, S 3) and a second sensor (S x, S y) with both first and second sensors adapted to respond to a magnetic field generated by a field generator; driving the field generator to enable the first (S 1, S 2, S 3) and second (S x, S y) sensors to generate calibration signals; applying forces of axial displacement and angular deflection on the catheter; calibrating the calibration signals from the first sensor to create a first calibration file and calibrating the calibration signals from the second sensor to create a second calibration file. providing a catheter with a first sensor (S 1, S 2, S 3) and a second sensor (S x, S y) with both first and second sensors adapted to respond to a magnetic field generated by a field generator; driving the field generator to enable the first (S 1, S 2, S 3) and second (S x, S y) sensors to generate calibration signals; applying forces of axial displacement and angular deflection on the catheter; calibrating the calibration signals from the first sensor to create a first calibration file and calibrating the calibration signals from the second sensor to create a second calibration file.
A vehicle seat suspension mechanism (1A, 1B, 1C, 1D, 1E, 1F), comprising: a vehicle mount; a seat support; a suspension arrangement linking the seat support to the vehicle mount, wherein the suspension arrangement is in the form of a parallelogram linkage arrangement that allows the seat support to fall with respect to the vehicle mount under load, the suspension arrangement comprising a first link connecting the seat support to the vehicle mount by pivots (6a, 6b) at each end thereof and a second link connecting the seat support to the vehicle mount by pivots (7a, 7b) at each end thereof; a shock strut arranged to resist the seat support falling with respect to the vehicle mount during a compression stroke; and a control link arranged to be driven about a control link pivot by the fall of the seat support, the control link being pivotally coupled by a shock strut pivot to a first end (3a, 3b) of the shock strut to guide the first end with respect to a second end (3b, 3a) of the shock strut in a manner which causes a motion ratio of the suspension mechanism to increase during progression of the compression stroke. a vehicle mount; a seat support; a suspension arrangement linking the seat support to the vehicle mount, wherein the suspension arrangement is in the form of a parallelogram linkage arrangement that allows the seat support to fall with respect to the vehicle mount under load, the suspension arrangement comprising a first link connecting the seat support to the vehicle mount by pivots (6a, 6b) at each end thereof and a second link connecting the seat support to the vehicle mount by pivots (7a, 7b) at each end thereof; a shock strut arranged to resist the seat support falling with respect to the vehicle mount during a compression stroke; and a control link arranged to be driven about a control link pivot by the fall of the seat support, the control link being pivotally coupled by a shock strut pivot to a first end (3a, 3b) of the shock strut to guide the first end with respect to a second end (3b, 3a) of the shock strut in a manner which causes a motion ratio of the suspension mechanism to increase during progression of the compression stroke.
A method comprising: producing an optical bonding apparatus (30; 40) with at least a pressure sensitive bonding layer (310; 410) and a thermal flow pressure sensitive bonding layer (320; 420) bonded together; and placing the optical bonding apparatus (30; 40) between a touch panel and an LCD panel, wherein the material of the thermal flow pressure sensitive bonding layer (320; 420) is a thermal flow type; wherein the detailed processes comprise: laminating the thermal flow pressure sensitive bonding layer (320; 420) on the rough surface of the touch panel; laminating the pressure sensitive bonding layer on the thermal flow pressure sensitive bonding layer; and laminating the LCD panel on the pressure sensitive bonding layer; wherein the method further comprises a process of auto-claving after each process of laminating. producing an optical bonding apparatus (30; 40) with at least a pressure sensitive bonding layer (310; 410) and a thermal flow pressure sensitive bonding layer (320; 420) bonded together; and placing the optical bonding apparatus (30; 40) between a touch panel and an LCD panel, wherein the material of the thermal flow pressure sensitive bonding layer (320; 420) is a thermal flow type; wherein the detailed processes comprise: laminating the thermal flow pressure sensitive bonding layer (320; 420) on the rough surface of the touch panel; laminating the pressure sensitive bonding layer on the thermal flow pressure sensitive bonding layer; and laminating the LCD panel on the pressure sensitive bonding layer; wherein the method further comprises a process of auto-claving after each process of laminating. laminating the thermal flow pressure sensitive bonding layer (320; 420) on the rough surface of the touch panel; laminating the pressure sensitive bonding layer on the thermal flow pressure sensitive bonding layer; and laminating the LCD panel on the pressure sensitive bonding layer; wherein the method further comprises a process of auto-claving after each process of laminating.
The use of a mixture comprising a diester of an acid selected from the group consisting of aliphatic dicarboxylic acids and aliphatic dicarboxylic acid anhydrides and b1) a monoalcohol having 10 carbon atoms and a structure of the general formula I, wherein R 1 is pentyl, R 2 is H, R 3 is propyl, and a diester of an acid selected from the group consisting of aliphatic dicarboxylic acids and aliphatic dicarboxylic acid anhydrides and b2) a monoalcohol having 10 carbon atoms and a structure of the general formula II, wherein R 4 is 2-methyl-butyl, R 5 is H and R 6 is propyl as lubricants.
An indwelling catheter system configured to be implantable within a vein of a patient, comprising: a sheath configured to be at least partially implantable within a patient's vein, the sheath having a lumen extending therethrough; and a catheter shaft movably positioned within and extending through the lumen of the sheath, the catheter shaft being configured to be at least partially implantable within a patient's vein and a proximal end extending from a proximal end of the sheath and a distal end extending from a distal end of the sheath, the catheter shaft having a suction lumen extending therethrough, and one or more suction ports disposed therein and in fluid communication with the suction lumen; characterized in that the catheter system further comprises a flexible membrane attached around a partial portion or full portion of the circumference of a distal portion of the catheter shaft, the flexible membrane being a collapsible, tube-like member having a lumen extending therethrough; a selectively deployable restriction member formed over a portion of the flexible membrane; and at least one inflation lumen extending through the catheter shaft, the at least one inflation lumen being in fluid communication with the restriction member, such that movement of fluid through the inflation lumen results in inflation of the restriction member, which expands the flexible membrane. a sheath configured to be at least partially implantable within a patient's vein, the sheath having a lumen extending therethrough; and a catheter shaft movably positioned within and extending through the lumen of the sheath, the catheter shaft being configured to be at least partially implantable within a patient's vein and a proximal end extending from a proximal end of the sheath and a distal end extending from a distal end of the sheath, the catheter shaft having a suction lumen extending therethrough, and one or more suction ports disposed therein and in fluid communication with the suction lumen; characterized in that the catheter system further comprises a flexible membrane attached around a partial portion or full portion of the circumference of a distal portion of the catheter shaft, the flexible membrane being a collapsible, tube-like member having a lumen extending therethrough; a selectively deployable restriction member formed over a portion of the flexible membrane; and at least one inflation lumen extending through the catheter shaft, the at least one inflation lumen being in fluid communication with the restriction member, such that movement of fluid through the inflation lumen results in inflation of the restriction member, which expands the flexible membrane.
A method for producing printed textiles for motor vehicles, wherein the textiles have a polyester-based top material and a bottom material, and in which method at least one thickener and a UV absorber are introduced into the top material in a foulard process, the top material is dried, the digital printing process is performed on the dried top material, and the printed top material is laminated with the bottom material, characterised in that colourless ink is applied to the top material in the printing process when the coloured ink is applied, and in that the colourless ink is applied simultaneously with the coloured ink by means of a separate print head.