mhurhangee/ep-ind-claims huggingface dataset:
A backblock for use in beverage dispensing, comprising: a body having: an inlet (23, 24, 25) configured to receive a fluid; an outlet (33, 34) configured to dispense the fluid; and a cavity (26, 27) defined within the body, the cavity open to the inlet and to the outlet; one or more spindles (61, 62) elongated in an axial dimension between a first end and a second end, one of the one or more spindles positioned with the first end within the cavity (26, 27) and the second end exterior of the body to permit rotation of the spindle about the axial dimension within the cavity; and a latching plate (41, 42) configured for translative movement relative to the body, the latching plate comprising a keyhole with a bore, wherein the bore is dimensioned to receive the spindle, the latching plate having a first latch position proximate to the body and a second latch position spaced apart from the body, characterised by a tab at the second end of the spindle; and by the latching plate keyhole further comprising a channel dimensioned to receive the spindle, wherein when the tab is in alignment with the channel, the latching plate can translate to the second latch position about the tab and when the tab is out of alignment with the channel, the tab retains the latching plate in the first latch position. a body having: an inlet (23, 24, 25) configured to receive a fluid; an outlet (33, 34) configured to dispense the fluid; and a cavity (26, 27) defined within the body, the cavity open to the inlet and to the outlet; an inlet (23, 24, 25) configured to receive a fluid; an outlet (33, 34) configured to dispense the fluid; and a cavity (26, 27) defined within the body, the cavity open to the inlet and to the outlet; one or more spindles (61, 62) elongated in an axial dimension between a first end and a second end, one of the one or more spindles positioned with the first end within the cavity (26, 27) and the second end exterior of the body to permit rotation of the spindle about the axial dimension within the cavity; and a latching plate (41, 42) configured for translative movement relative to the body, the latching plate comprising a keyhole with a bore, wherein the bore is dimensioned to receive the spindle, the latching plate having a first latch position proximate to the body and a second latch position spaced apart from the body, characterised by a tab at the second end of the spindle; and by the latching plate keyhole further comprising a channel dimensioned to receive the spindle, wherein when the tab is in alignment with the channel, the latching plate can translate to the second latch position about the tab and when the tab is out of alignment with the channel, the tab retains the latching plate in the first latch position.
Assembly of a connection cable and a connecting device, more specifically an audio jack plug, said connecting device comprising: - a substantially elongated inserting member that is extending in a longitudinal direction and that is insertable into a connection jack of an electronic device, said inserting member further comprising a transverse direction extending transverse thereto, said inserting member further comprising an outer surface with at least two electrically conductive parts (40, 60, 80, 100) with insulating material arranged there between; and characterized in that the inserting member is configured to, by means of compression, clamping said at least two wire ends (16, 20, 24, 28) between an inner wall of at least one of the at least two electrically conductive parts (40, 60, 80, 100) and an outer wall of an insulation member, mechanically and electrically connect the at least two electrically conductive parts with at least two wire ends (16, 20, 24, 28) of a connection cable within the space enclosed by the outer surface of said elongated inserting member and insertable into the connection jack of the electronic device; and - wherein wires of the connection cable branch out in different directions inside the space enclosed by the outer surface of the inserting member. - a substantially elongated inserting member that is extending in a longitudinal direction and that is insertable into a connection jack of an electronic device, said inserting member further comprising a transverse direction extending transverse thereto, said inserting member further comprising an outer surface with at least two electrically conductive parts (40, 60, 80, 100) with insulating material arranged there between; and characterized in that the inserting member is configured to, by means of compression, clamping said at least two wire ends (16, 20, 24, 28) between an inner wall of at least one of the at least two electrically conductive parts (40, 60, 80, 100) and an outer wall of an insulation member, mechanically and electrically connect the at least two electrically conductive parts with at least two wire ends (16, 20, 24, 28) of a connection cable within the space enclosed by the outer surface of said elongated inserting member and insertable into the connection jack of the electronic device; and - wherein wires of the connection cable branch out in different directions inside the space enclosed by the outer surface of the inserting member.
A method for continuously producing particulate water absorbent resin, said method comprising: a first classification step in which a first screen and a gravity are used to classify particulate water absorbent resin obtained by polymerizing an unsaturated monomer so as to form a cross-linked polymer hydrogel and drying and pulverizing the cross-linked polymer hydrogel; and a second classification step, the method being characterized in that in the second classification step, so as to remove fine powder, a second screen and an aerial current are used to further classify the water absorbent resin having passed through the first screen; an amount of particulate water absorbent resin to be classified in the second classification step is smaller than that in the first classification step; and a pneumatic classifier having the second screen is used in the second classification step; wherein the mesh size of the first screen is 150 μm or more and 300 μm or less, and the mesh size of the second screen is 106 μm or more and 180 μm or less. a first classification step in which a first screen and a gravity are used to classify particulate water absorbent resin obtained by polymerizing an unsaturated monomer so as to form a cross-linked polymer hydrogel and drying and pulverizing the cross-linked polymer hydrogel; and a second classification step, the method being characterized in that in the second classification step, so as to remove fine powder, a second screen and an aerial current are used to further classify the water absorbent resin having passed through the first screen; an amount of particulate water absorbent resin to be classified in the second classification step is smaller than that in the first classification step; and a pneumatic classifier having the second screen is used in the second classification step; wherein the mesh size of the first screen is 150 μm or more and 300 μm or less, and the mesh size of the second screen is 106 μm or more and 180 μm or less.
An electronic apparatus, comprising: a housing; a mainboard provided within the housing; and a first display screen connected to the mainboard; the housing comprises a front side face, a rear side face, a left side face and a right side face opposite to each other, and a top face; a storage groove is defined on the top face of the housing in a left-right direction and is located between the front side face and the rear side face; wherein the first display screen is provided on the front side face of the housing; the electronic apparatus further comprises a mounting frame and a rotating box rotatably connected to the mounting frame, the rotating box being provided with a camera connected to the mainboard, the mounting frame being configured to protrude out of or retract into the storage groove to drive the rotating box to move out of or into the storage groove, such that the camera is exposed out of or hidden into the housing; and the mounting frame further comprises a first driving device for driving the rotating box to rotate when the mounting frame protrudes out of the storage groove. a housing; a mainboard provided within the housing; and a first display screen connected to the mainboard; the housing comprises a front side face, a rear side face, a left side face and a right side face opposite to each other, and a top face; a storage groove is defined on the top face of the housing in a left-right direction and is located between the front side face and the rear side face; wherein the first display screen is provided on the front side face of the housing; the electronic apparatus further comprises a mounting frame and a rotating box rotatably connected to the mounting frame, the rotating box being provided with a camera connected to the mainboard, the mounting frame being configured to protrude out of or retract into the storage groove to drive the rotating box to move out of or into the storage groove, such that the camera is exposed out of or hidden into the housing; and the mounting frame further comprises a first driving device for driving the rotating box to rotate when the mounting frame protrudes out of the storage groove.
Method for detecting temporally variable thermomechanical stresses and/or stress gradients across the wall thickness of metal bodies, in particular pipelines, in which a temperature is measured in at least one measurement point on an outer surface of the body, in addition ultrasonic transit-time, amplitude and/or eddy current impedance measurements are carried out with electromagnetic ultrasonic transducers in the area of the measurement point in order to determine the stresses and/or stress gradients across the wall thickness of metal bodies from the additional measurements in conjunction with the temperature measurement, wherein a temperature profile between an inner surface and the outer surface is determined from the measured temperature and the determination of the stresses and/or stress gradients is made on the basis of a layer model of the wall of the body, which model uses the determined temperature profile and a stress profile derived therefrom as well as the measured and temperature-adjusted ultrasonic transit-times, amplitudes and eddy current impedances as input variables and delivers ultrasonic transit-times, amplitudes, eddy current impedances and stress profiles relating to individual layers as output variables, wherein the layer-related stress profiles are determined from the layer-related ultrasonic transit-times, amplitude and eddy current impedances by an iterative optimisation of the layer model.
A radio frequency, RF, resource allocation device that distributes to a mobile terminal a communication setting notification including a communication setting to be used in a radio communication, the RF resource allocation device comprising: an acquisition unit configured to acquire a measurement result or an estimation result of communication conditions at a plurality of positions; a generation unit configured to determine, for each region in a geographic area covered by the radio communication, the communication setting to be used by the mobile terminal in the radio communication based on the communication conditions, and to generate the communication setting notification including the communication setting for each region; and a transmission unit configured to transmit the communication setting notification to the mobile terminal, wherein the acquisition of the communication conditions by the acquisition unit and the generation of the communication setting notification by the generation unit are executed repeatedly at predetermined time intervals, characterized in that the generation unit is configured to determine the size of each region based on the communication conditions, and the communication conditions include communication performance of each communication setting or a utilization rate of a channel. an acquisition unit configured to acquire a measurement result or an estimation result of communication conditions at a plurality of positions; a generation unit configured to determine, for each region in a geographic area covered by the radio communication, the communication setting to be used by the mobile terminal in the radio communication based on the communication conditions, and to generate the communication setting notification including the communication setting for each region; and a transmission unit configured to transmit the communication setting notification to the mobile terminal, wherein the acquisition of the communication conditions by the acquisition unit and the generation of the communication setting notification by the generation unit are executed repeatedly at predetermined time intervals, characterized in that the generation unit is configured to determine the size of each region based on the communication conditions, and the communication conditions include communication performance of each communication setting or a utilization rate of a channel.
A stent assembly, comprising: a. a stent jacket, comprising an expansible mesh structure, having a retracted state and a deployed state, and further wherein in the deployed state, the expansible mesh structure defines apertures and the mesh structure has a coverage area of less than 25%, wherein the expansible mesh structure is formed of fibers of a diameter between about 5 micrometers and about 25 micrometers, the diameter having a property of forming a substantially stable layer of endothelial cells, covering the fibers, thus reducing platelet aggregation, wherein in the deployed state the expansible mesh structure defines apertures having aperture diameters greater than 20 micrometers; and b. an expansible stent, operatively associated with the stent jacket, the stent jacket being located on the exterior of the expansible stent; wherein the stent jacket is attached to the expansible stent using a sliding connection. a. a stent jacket, comprising an expansible mesh structure, having a retracted state and a deployed state, and further wherein in the deployed state, the expansible mesh structure defines apertures and the mesh structure has a coverage area of less than 25%, wherein the expansible mesh structure is formed of fibers of a diameter between about 5 micrometers and about 25 micrometers, the diameter having a property of forming a substantially stable layer of endothelial cells, covering the fibers, thus reducing platelet aggregation, wherein in the deployed state the expansible mesh structure defines apertures having aperture diameters greater than 20 micrometers; and b. an expansible stent, operatively associated with the stent jacket, the stent jacket being located on the exterior of the expansible stent;
A lens system (100, 200, 300, 400, 500) comprising: a first lens array assembly (102, 202, 302, 402, 502) including a first pair of lens arrays (104, 206, 306, 410, 506, 507) and comprising a first plurality of cells, wherein each cell of the first plurality of cells includes a Fourier transform pair of array lenses with one lens from each array; and a second lens array assembly (106, 204, 304, 404, 504) including a second pair of lens arrays (108, 208, 310, 414, 508, 509) and comprising a second plurality of cells, wherein each cell of the second plurality of cells includes a Fourier transform pair of array lenses with one lens from each array; wherein: the pitch for the lenslets of the first array of the first pair of lens arrays is d 1a, the pitch for the lenslets of the second array of the first pair of lens arrays is d 1b, the pitch for the lenslets of the first array of the second pair of lens arrays is d 2a and the pitch for the lenslets of the second array of the second pair of lens arrays is d 2b, wherein the pitches of all four lens arrays differ from one another and the pitches are configured such that d 1a < d 1b < d 2a < d 2b; and the first and second lens array assemblies and the first and second pairs of lens arrays are positioned relative to one another along an optical axis of the lens system such that a representation of a Fourier transform of light from an object is developed at a plane between the first and second pairs and an image of the object is provided at an image conjugate distance from the second pair. a first lens array assembly (102, 202, 302, 402, 502) including a first pair of lens arrays (104, 206, 306, 410, 506, 507) and comprising a first plurality of cells, wherein each cell of the first plurality of cells includes a Fourier transform pair of array lenses with one lens from each array; and a second lens array assembly (106, 204, 304, 404, 504) including a second pair of lens arrays (108, 208, 310, 414, 508, 509) and comprising a second plurality of cells, wherein each cell of the second plurality of cells includes a Fourier transform pair of array lenses with one lens from each array; wherein: the pitch for the lenslets of the first array of the first pair of lens arrays is d 1a, the pitch for the lenslets of the second array of the first pair of lens arrays is d 1b, the pitch for the lenslets of the first array of the second pair of lens arrays is d 2a and the pitch for the lenslets of the second array of the second pair of lens arrays is d 2b, wherein the pitches of all four lens arrays differ from one another and the pitches are configured such that d 1a < d 1b < d 2a < d 2b; and the first and second lens array assemblies and the first and second pairs of lens arrays are positioned relative to one another along an optical axis of the lens system such that a representation of a Fourier transform of light from an object is developed at a plane between the first and second pairs and an image of the object is provided at an image conjugate distance from the second pair.
A universal platform, wherein the universal platform comprising: a bottom base; an upper cover, disposed on the bottom base, and having a through hole and a plurality of positioning posts; a fixed base, disposed between the upper cover and the bottom base, and having a concave aligned to the through hole to form a receiving space, wherein the fixed base has a plurality of positioning holes for respectively accommodating the plurality of positioning posts so that an end of each positioning posts protrudes through each of the positioning holes; a rotating base, disposed in the receiving space, and partially protruding outside of the through hole; at least one locking member, connected to the upper cover through the fixed base; and at least one elastic member, disposed between the fixed base and the at least one locking member; wherein the universal platform is characterized by further comprising: a plurality of spacers respectively sleeved on the ends of the plurality of positioning posts. a bottom base; an upper cover, disposed on the bottom base, and having a through hole and a plurality of positioning posts; a fixed base, disposed between the upper cover and the bottom base, and having a concave aligned to the through hole to form a receiving space, wherein the fixed base has a plurality of positioning holes for respectively accommodating the plurality of positioning posts so that an end of each positioning posts protrudes through each of the positioning holes; a rotating base, disposed in the receiving space, and partially protruding outside of the through hole; at least one locking member, connected to the upper cover through the fixed base; and at least one elastic member, disposed between the fixed base and the at least one locking member; wherein the universal platform is characterized by further comprising: a plurality of spacers respectively sleeved on the ends of the plurality of positioning posts.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving configuration information for one or more positioning reference signal, PRS, block sets each including a plurality of PRS blocks, the configuration information including a plurality of PRS block identifiers, IDs, of the plurality of PRS, a transmission periodicity and a slot offset for each PRS block set; and receiving a PRS in a PRS block based on the configuration information, wherein, within a time duration of a PRS block set, each of the plurality of the PRS blocks in the PRS block set is repeated for a repetition number that is configured in the UE through the configuration information, and wherein each of the plurality of PRS blocks in the PRS block set is associated with each of a plurality of PRS beams. receiving configuration information for one or more positioning reference signal, PRS, block sets each including a plurality of PRS blocks, the configuration information including a plurality of PRS block identifiers, IDs, of the plurality of PRS, a transmission periodicity and a slot offset for each PRS block set; and receiving a PRS in a PRS block based on the configuration information, wherein, within a time duration of a PRS block set, each of the plurality of the PRS blocks in the PRS block set is repeated for a repetition number that is configured in the UE through the configuration information, and wherein each of the plurality of PRS blocks in the PRS block set is associated with each of a plurality of PRS beams.
A long-distance coverage method, comprising: determining, by a base station according to an initial radius, a round trip delay, wherein the initial radius is a cell radius of an initial coverage area of the base station; adjusting, by the base station according to the round trip delay, a downlink sending moment and an uplink receiving moment between the base station and long-distance user equipment UE; and communicating, by the base station, with the long-distance UE based on an adjusted downlink sending moment and an adjusted uplink receiving moment; wherein the communicating, by the base station, with the long-distance UE based on an adjusted downlink sending moment and an adjusted uplink receiving moment comprises: delivering, by the base station, a timing advance TA value to the long-distance UE; sending, by the base station, a downlink signal to the long-distance UE at the adjusted downlink sending moment; and receiving, by the base station at the adjusted uplink receiving moment, an uplink signal sent by the long-distance UE. determining, by a base station according to an initial radius, a round trip delay, wherein the initial radius is a cell radius of an initial coverage area of the base station; adjusting, by the base station according to the round trip delay, a downlink sending moment and an uplink receiving moment between the base station and long-distance user equipment UE; and communicating, by the base station, with the long-distance UE based on an adjusted downlink sending moment and an adjusted uplink receiving moment; wherein the communicating, by the base station, with the long-distance UE based on an adjusted downlink sending moment and an adjusted uplink receiving moment comprises: delivering, by the base station, a timing advance TA value to the long-distance UE; sending, by the base station, a downlink signal to the long-distance UE at the adjusted downlink sending moment; and receiving, by the base station at the adjusted uplink receiving moment, an uplink signal sent by the long-distance UE. delivering, by the base station, a timing advance TA value to the long-distance UE; sending, by the base station, a downlink signal to the long-distance UE at the adjusted downlink sending moment; and receiving, by the base station at the adjusted uplink receiving moment, an uplink signal sent by the long-distance UE.