mhurhangee/ep-ind-claims huggingface dataset:
A catheter assembly comprising a catheter hub, a needle hub, and a valve having a thickness located inside the catheter hub, the valve comprising: a first surface having a first portion; an opposed second surface, the first surface and the second surface defining the thickness of the valve; a second portion recessed into the first surface; and a slit extending through the thickness of the valve at the second portion; wherein a rib projects along the first surface through an outer boundary of the second portion, such that the rib projects in a radial direction, wherein from the first portion, a plurality of ribs extend radially inward towards the center of the valve and the ribs are flush with the surface of the first portion. a first surface having a first portion; an opposed second surface, the first surface and the second surface defining the thickness of the valve; a second portion recessed into the first surface; and a slit extending through the thickness of the valve at the second portion; wherein a rib projects along the first surface through an outer boundary of the second portion, such that the rib projects in a radial direction, wherein from the first portion, a plurality of ribs extend radially inward towards the center of the valve and the ribs are flush with the surface of the first portion.
An ultrasound interface unit, communicatively coupleable in use with both: an ultrasound sensing apparatus and a patient monitoring unit, said ultrasound interface unit configured in use to: receive from the ultrasound sensing apparatus acquired ultrasound data representative of a subject, and perform processing of said data to derive at least one physiological or anatomical parameter related to the subject; generate a data output representative of said derived parameter and communicate said data output to the patient monitoring unit, and perform a configuration function comprising communicating with the ultrasound sensing apparatus to cause adjustment of one or more operating parameters of the ultrasound sensing apparatus for configuring the ultrasound sensing apparatus to acquire ultrasound data suitable for monitoring said physiological or anatomical parameter over time, characterized in that the interface unit is further configured to generate guidance information for guiding a user in positioning an ultrasound transducer unit of the ultrasound sensing apparatus relative to the subject for acquiring ultrasound data suitable for determining said at least one physiological or anatomical parameter, and wherein the interface unit is configured to generate a display output for use in controlling a display unit to display said guidance information for adjustment of the ultrasound transducer unit position. receive from the ultrasound sensing apparatus acquired ultrasound data representative of a subject, and perform processing of said data to derive at least one physiological or anatomical parameter related to the subject; generate a data output representative of said derived parameter and communicate said data output to the patient monitoring unit, and perform a configuration function comprising communicating with the ultrasound sensing apparatus to cause adjustment of one or more operating parameters of the ultrasound sensing apparatus for configuring the ultrasound sensing apparatus to acquire ultrasound data suitable for monitoring said physiological or anatomical parameter over time, characterized in that the interface unit is further configured to generate guidance information for guiding a user in positioning an ultrasound transducer unit of the ultrasound sensing apparatus relative to the subject for acquiring ultrasound data suitable for determining said at least one physiological or anatomical parameter, and wherein the interface unit is configured to generate a display output for use in controlling a display unit to display said guidance information for adjustment of the ultrasound transducer unit position.
A game system in which a plurality of pairs of separate input devices, each consisting of: a first input device provided with a first operation section (78, 761); and a second input device provided with a second operation section (72, 74, 701), are wirelessly connected to a game apparatus, and in which a game process is executed based on operation data obtained from the first input device and the second input device, each of the first input device and the second input device including: a display section (702, 703, 705, 762, 771, 772); wireless communication means (75, 764) for wirelessly communicating the operation data and information regarding each pair; and a display control section (751, 765) for controlling a display form of the display section, the display control section controlling the display form of the display section so as to be a display form corresponding to each pair, the game apparatus executing the game process (10, S44) based on the operation data for each pair. a display section (702, 703, 705, 762, 771, 772); wireless communication means (75, 764) for wirelessly communicating the operation data and information regarding each pair; and a display control section (751, 765) for controlling a display form of the display section, the display control section controlling the display form of the display section so as to be a display form corresponding to each pair, the game apparatus executing the game process (10, S44) based on the operation data for each pair.
A method for multiple access based on power modulation division communication comprising: determining, at a base station, modulation information, capacity information, resource scheduling information, and resource assignment information for multiple access by a plurality of User Equipment devices, UEs based on semi-orthogonal multiple access, SOMA, wherein the resource assignment information indicates assigned resource blocks for the UEs of the plurality of UEs; assigning a respective power offset to be used for each of a plurality of modulation layers in an assigned resource block; transmitting information to the plurality of UEs in a common control channel in accordance with the determined modulation information, capacity information and resource scheduling information; transmitting information to at least one UE of the plurality of UEs in a UE-specific control channel in accordance with the determined resource assignment information; receiving, at the plurality of UEs, the information in the common control channel; receiving, at the at least one UE, the information in the UE-specific control channel; and configuring a receiver at the at least one UE to independently decode user data for the UE based on the received information and the assigned power offsets without relying on successive interference cancellation, SIC, or treating interference as noise, TIN, in respect of resource blocks assigned to one or more other UEs in the plurality of UEs. determining, at a base station, modulation information, capacity information, resource scheduling information, and resource assignment information for multiple access by a plurality of User Equipment devices, UEs based on semi-orthogonal multiple access, SOMA, wherein the resource assignment information indicates assigned resource blocks for the UEs of the plurality of UEs; assigning a respective power offset to be used for each of a plurality of modulation layers in an assigned resource block; transmitting information to the plurality of UEs in a common control channel in accordance with the determined modulation information, capacity information and resource scheduling information; transmitting information to at least one UE of the plurality of UEs in a UE-specific control channel in accordance with the determined resource assignment information; receiving, at the plurality of UEs, the information in the common control channel; receiving, at the at least one UE, the information in the UE-specific control channel; and configuring a receiver at the at least one UE to independently decode user data for the UE based on the received information and the assigned power offsets without relying on successive interference cancellation, SIC, or treating interference as noise, TIN, in respect of resource blocks assigned to one or more other UEs in the plurality of UEs.
A stable high-strength herbicidal oil-in-water emulsion composition comprising: a) a discontinuous oil phase comprising, with respect to the oil-in-water emulsion, from 25 grams active ingredient per liter (g ai/L) to 300 g ai/L of at least one oil soluble herbicide active ingredient and from 0 grams per liter (g/L) to 300 g/L of a water immiscible organic solvent; b) a continuous aqueous phase comprising, with respect to the oil-in-water emulsion, from 260 g ai/L to 570 g ai /L of a water soluble salt of glyphosate and from 200 g/L to 500 g/L of water; and c) at least two non-ionic EO/PO block copolymer emulsifying surfactants with at least one having a hydrophile lipophile balance value of 13 to 16 and at least one having an HLB value of 22 to 29 and with each having a molecular weight (mw) of 5000 or higher, with the combined emulsifying surfactants comprising, with respect to the oil-in-water emulsion, from 1 g/L to 200 g/L. a) a discontinuous oil phase comprising, with respect to the oil-in-water emulsion, from 25 grams active ingredient per liter (g ai/L) to 300 g ai/L of at least one oil soluble herbicide active ingredient and from 0 grams per liter (g/L) to 300 g/L of a water immiscible organic solvent; b) a continuous aqueous phase comprising, with respect to the oil-in-water emulsion, from 260 g ai/L to 570 g ai /L of a water soluble salt of glyphosate and from 200 g/L to 500 g/L of water; and c) at least two non-ionic EO/PO block copolymer emulsifying surfactants with at least one having a hydrophile lipophile balance value of 13 to 16 and at least one having an HLB value of 22 to 29 and with each having a molecular weight (mw) of 5000 or higher, with the combined emulsifying surfactants comprising, with respect to the oil-in-water emulsion, from 1 g/L to 200 g/L.
Method of producing a compressed tablet with a liquid or semi-liquid centre in a rotary tablet press, the method comprising the steps of i) adding a first powdered portion of tablet base material into a punch die of a rotary tablet press, ii) pressing said first tablet base material by means of an upper and a lower punch to obtain a first pressed material, iii) inserting an object at the upper face of the first pressed material and fixing the object in a central cavity of the first pressed material, iv) adding a second powdered portion of tablet base material into the punch die of the rotary tablet press, and v) pressing said first and second tablet base material around the object to enclose the object from the surface of the tablet, wherein the object is based on a material different from the first and/or the second powdered portion of tablet base material, wherein the object comprises a liquid and/or a semi-liquid and a membrane as a barrier, wherein the weight ratio between the powdered tablet base material in the tablet and the object is 20:1 to 3:1, and wherein at least one of the first and the second powdered portion of tablet base material comprises granules of gum base or chewing gum. i) adding a first powdered portion of tablet base material into a punch die of a rotary tablet press, ii) pressing said first tablet base material by means of an upper and a lower punch to obtain a first pressed material, iii) inserting an object at the upper face of the first pressed material and fixing the object in a central cavity of the first pressed material, iv) adding a second powdered portion of tablet base material into the punch die of the rotary tablet press, and v) pressing said first and second tablet base material around the object to enclose the object from the surface of the tablet,
A detector device, comprising: a sensor portion that is configured to at least emit or receive a first type of radiation; a cover near the sensor portion, the cover is transparent to the first type of radiation to allow the first type of radiation to pass through the cover; a radiation source that emits a second type of radiation into the cover, the second type of radiation is different than the first type of radiation; and a plurality of reflecting surfaces (46, 48) that are transparent to the first type of radiation and at least partially opaque to the second type of radiation to at least partially reflect the second type of radiation in the cover to increase a temperature of at least a portion of the cover, wherein the reflecting surfaces (46, 48) respectively comprise at least one of a coating on the cover, a film on or in the cover, a layer on or in the cover, a grating near, on or in the cover, and a filter near, on or in the cover. a sensor portion that is configured to at least emit or receive a first type of radiation; a cover near the sensor portion, the cover is transparent to the first type of radiation to allow the first type of radiation to pass through the cover; a radiation source that emits a second type of radiation into the cover, the second type of radiation is different than the first type of radiation; and a plurality of reflecting surfaces (46, 48) that are transparent to the first type of radiation and at least partially opaque to the second type of radiation to at least partially reflect the second type of radiation in the cover to increase a temperature of at least a portion of the cover, wherein the reflecting surfaces (46, 48) respectively comprise at least one of a coating on the cover, a film on or in the cover, a layer on or in the cover, a grating near, on or in the cover, and a filter near, on or in the cover.
A clamping device comprising: a handle having a first end and a second end (109, 108), the handle comprising a first protrusion and a second protrusion, wherein the first and second protrusions are rounded, and wherein each of the first and second protrusions is located nearer the first end than the second end; a base having a first end and a second end, the base comprising a first channel configured to receive a first segment of control wire, and a second channel configured to receive a second segment of control wire; wherein the first and second protrusions of the handle are configured to mate with respective concave depressions in the first channel and second channel of the base; and a spring having a bottom portion attached to the base and a top portion attached to the handle, the spring configured to exert a force the second end of the handle causing the second end of the handle to transition away from the second end of the base such that the first end of the handle is caused to direct force toward the first end of the base. a handle having a first end and a second end (109, 108), the handle comprising a first protrusion and a second protrusion, wherein the first and second protrusions are rounded, and wherein each of the first and second protrusions is located nearer the first end than the second end; a base having a first end and a second end, the base comprising a first channel configured to receive a first segment of control wire, and a second channel configured to receive a second segment of control wire; wherein the first and second protrusions of the handle are configured to mate with respective concave depressions in the first channel and second channel of the base; and a spring having a bottom portion attached to the base and a top portion attached to the handle, the spring configured to exert a force the second end of the handle causing the second end of the handle to transition away from the second end of the base such that the first end of the handle is caused to direct force toward the first end of the base.
A method for wireless communication performed by a station (106, 606, 2206), the method comprising: receiving a paging message from an access point (104, 2304) indicating the access point has data for the station; determining a schedule for transmitting a polling message to the access point for receiving the data, characterised in that the schedule is based on at least one paging identifier assigned to the station. receiving a paging message from an access point (104, 2304) indicating the access point has data for the station; determining a schedule for transmitting a polling message to the access point for receiving the data, characterised in that the schedule is based on at least one paging identifier assigned to the station.
Method for impregnating a semi-finished fibre product (40, 740) with a liquid matrix system (45, 745), in particular a textile or a fibre composite (40, 740) of technical fibres with a liquid resin (45, 745), wherein the following steps are carried out: - the semi-finished fibre product (40, 740) in flat form is provided and is placed in flat form in a flexible and sealable envelope (539, 739), - the liquid matrix system (45, 745) is introduced into the envelope (539, 739), preferably separately from and at a distance from the semi-finished fibre product (40, 740), before or after introduction of the semi-finished fibre product (40, 740) into the envelope (539, 739), - pressure is applied to the envelope (539, 739) from above and/or from below, preferably at least 0.1 N/cm 2, as compression, starting at one end region of the envelope (539, 739) over the entire width of the envelope (539, 739), continuously and without gaps, - the compression is carried out continuously or without interruption along a direction of travel of the process, which runs from a first end region of the envelope (539, 739) to a second end region of the envelope (539, 739), at least over the entire length of the semi-finished fibre product (40, 740), wherein the compression begins at a region of the envelope (539, 739), and wherein the liquid matrix system (45, 745) is located in the direction of travel between the beginning compression and the semi-finished fibre product (40, 740), characterised in that an additional pre-compression is carried out continuously and without gaps over the entire width of the envelope (539, 739) in the direction of travel before the compression. - the semi-finished fibre product (40, 740) in flat form is provided and is placed in flat form in a flexible and sealable envelope (539, 739), - the liquid matrix system (45, 745) is introduced into the envelope (539, 739), preferably separately from and at a distance from the semi-finished fibre product (40, 740), before or after introduction of the semi-finished fibre product (40, 740) into the envelope (539, 739), - pressure is applied to the envelope (539, 739) from above and/or from below, preferably at least 0.1 N/cm 2, as compression, starting at one end region of the envelope (539, 739) over the entire width of the envelope (539, 739), continuously and without gaps, - the compression is carried out continuously or without interruption along a direction of travel of the process, which runs from a first end region of the envelope (539, 739) to a second end region of the envelope (539, 739), at least over the entire length of the semi-finished fibre product (40, 740),
Multi blades turbine with central core with polygonal cross-section and being a ducted system composed of: • a container casing with a structural function and supporting the fixed and mobile parts of the device; • rotating blades, with naca type profile, which form the rotor of the turbine; • a central core with a polygonal cross-section with three or more surfaces; • an inclined or curved wall to direct the flow of fluids in the turbine; • grooves or reliefs applied to the surface of the wall to improve the impact of the fluids with the blades of the rotor; • dividing plates placed in adequate number along the axis of rotation of the turbine, which create compartments or subdivisions of the volume of the rotating body of the turbine itself; • valves that open and close the flow of fluids in ducts that feed the turbine compartments; • ducts placed in correspondence of the relevant compartments that optimize the technical characteristics of fluid flow (velocity and pressure); • fixed conveyors that are connected to the walls and to the grooves or reliefs and that complete the compartments created with the rotating dividing plates; • reduced passage section areas (Venturi tube type) placed between the blades and the central core, in which an increase in the velocity of the fluids generates during the passage through the same; wherein fluids are completely channeled, conveyed to the rotor of the turbine and forced to lap on the blades and the central core. • a container casing with a structural function and supporting the fixed and mobile parts of the device; • rotating blades, with naca type profile, which form the rotor of the turbine; • a central core with a polygonal cross-section with three or more surfaces; • an inclined or curved wall to direct the flow of fluids in the turbine; • grooves or reliefs applied to the surface of the wall to improve the impact of the fluids with the blades of the rotor; • dividing plates placed in adequate number along the axis of rotation of the turbine, which create compartments or subdivisions of the volume of the rotating body of the turbine itself; • valves that open and close the flow of fluids in ducts that feed the turbine compartments; • ducts placed in correspondence of the relevant compartments that optimize the technical characteristics of fluid flow (velocity and pressure); • fixed conveyors that are connected to the walls and to the grooves or reliefs and that complete the compartments created with the rotating dividing plates; • reduced passage section areas (Venturi tube type) placed between the blades and the central core, in which an increase in the velocity of the fluids generates during the passage through the same;