mhurhangee/patent-ind-claim-en huggingface dataset:
An introducer to be used to insert a urinary incontinence device into a vagina, comprising: a housing including a vaginal insertion tube at a proximal end of the housing and a storage section at a distal end of the housing , the storage section is shaped and dimensioned for storage of the urinary incontinence device prior to insertion and the vaginal insertion tube is shaped and dimensioned for the passage of the urinary incontinence device therethrough, wherein dimensions of the storage section are such that the urinary incontinence device to be contained therein is in its deployed non-compressed state allowing the urinary incontinence device to be stored in its non-compressed state prior to use; and a plunger which travels within the housing , characterized in that the vaginal insertion tube includes a proximal first end and a distal second end that is secured to the storage section , the vaginal insertion tube has a cross section having the shape of a soft triangle and increases in cross sectional size as it extends from the proximal first end toward the distal second end of the vaginal insertion tube , wherein a diameter of the storage section is greater than a width dimension of the cross sectional of the vaginal insertion tube resulting in a vaginal abutment surface along the proximal first end of the storage section that prevents the storage section from entering the vagina when the vaginal insertion tube is inserted into the vagina. a housing including a vaginal insertion tube at a proximal end of the housing and a storage section at a distal end of the housing , the storage section is shaped and dimensioned for storage of the urinary incontinence device prior to insertion and the vaginal insertion tube is shaped and dimensioned for the passage of the urinary incontinence device therethrough, wherein dimensions of the storage section are such that the urinary incontinence device to be contained therein is in its deployed non-compressed state allowing the urinary incontinence device to be stored in its non-compressed state prior to use; and a plunger which travels within the housing , characterized in that the vaginal insertion tube includes a proximal first end and a distal second end that is secured to the storage section , the vaginal insertion tube has a cross section having the shape of a soft triangle and increases in cross sectional size as it extends from the proximal first end toward the distal second end of the vaginal insertion tube , wherein a diameter of the storage section is greater than a width dimension of the cross sectional of the vaginal insertion tube resulting in a vaginal abutment surface along the proximal first end of the storage section that prevents the storage section from entering the vagina when the vaginal insertion tube is inserted into the vagina.
High-pressure flexible pipe , comprising - an inner liner ; - a tape , wrapped around and bearing against the inner liner , wherein the tape comprises: • a polymer matrix ; and • a plurality of pultruded elements embedded in the polymer matrix , wherein the pultruded elements each comprise a plurality of elongated filaments covered by polymer resin ; wherein the polymer matrix and polymer resin are made of different materials; and wherein - the inner liner consists of a polymer and a gas barrier layer; or - the inner liner is made of a polymer. - an inner liner ; - a tape , wrapped around and bearing against the inner liner , wherein the tape comprises: • a polymer matrix ; and • a plurality of pultruded elements embedded in the polymer matrix , wherein the pultruded elements each comprise a plurality of elongated filaments covered by polymer resin ; • a polymer matrix ; and • a plurality of pultruded elements embedded in the polymer matrix , wherein the pultruded elements each comprise a plurality of elongated filaments covered by polymer resin ; wherein the polymer matrix and polymer resin are made of different materials; and wherein - the inner liner consists of a polymer and a gas barrier layer; or - the inner liner is made of a polymer. - the inner liner consists of a polymer and a gas barrier layer; or - the inner liner is made of a polymer.
A transmission method, comprising: sending , by a source base station, a handover command to a terminal, wherein the handover command is used to trigger a process of handing over the terminal from the source base station to a target base station, and the source base station maintains user data transmission with the terminal; characterized by , in the handover process, when maintaining of the user data transmission between the source base station and the terminal is stopped, sending , by the source base station, a first status report to the terminal, wherein the first status report is used to indicate, to the terminal, a status of receiving uplink data of the terminal by the source base station. sending , by a source base station, a handover command to a terminal, wherein the handover command is used to trigger a process of handing over the terminal from the source base station to a target base station, and the source base station maintains user data transmission with the terminal; characterized by , in the handover process, when maintaining of the user data transmission between the source base station and the terminal is stopped, sending , by the source base station, a first status report to the terminal, wherein the first status report is used to indicate, to the terminal, a status of receiving uplink data of the terminal by the source base station.
Astringent retraction paste for professional dental use, comprising a.) chitosan and/or chitosan derivatives, b.) tartaric acid, c.) solvent and d.) filler. a.) chitosan and/or chitosan derivatives, b.) tartaric acid, c.) solvent and d.) filler.
A binary silver-bismuth alloy electroplating composition comprising a source of silver ions, a source of bismuth ions, characterised in that the composition further comprises 2. a thiol terminal aliphatic compound having a general formula: HS-A-R 1 (I) wherein A is a substituted or unsubstituted (C 1 -C 4 )alkanediyl and R 1 is a sulfonic group or sulfonate group, and a pH of less than 7, wherein a substituent group is selected from the group consisting of (C 1 -C 3 )alkyl, carboxy(C 1 -C 3 )alkyl and -NH2.
A polypropylene composition comprising: A) from 88.0 wt. % to 98.0 wt. %, of a copolymer of propylene containing from 0.8 wt. % to 4.8 wt. % of 1-hexene derived units; said random copolymers of propylene having: - a Melt Flow Rate: measured according to ISO 1133 (230 °C, 5 Kg) ranging from 0.5 to 4.4 g/10 min; B) from 2.0 wt. % to 12.0 wt. % of a terpolymer of propylene ethylene and 1-hexene having a content of ethylene derived units ranging from 35 wt. % to 60 wt. %; and a content of 1-hexene derived units ranging from 1 wt. % to 6 wt. %; wherein the polypropylene composition is endowed with a Melt Flow Rate: measured according to ISO 1133 (230 °C, 5 Kg) ranging from 0.5 to 5.0 g/10 min; the sum of the amounts of A) and B) being 100. A) from 88.0 wt. % to 98.0 wt. %, of a copolymer of propylene containing from 0.8 wt. % to 4.8 wt. % of 1-hexene derived units; said random copolymers of propylene having: - a Melt Flow Rate: measured according to ISO 1133 (230 °C, 5 Kg) ranging from 0.5 to 4.4 g/10 min; - a Melt Flow Rate: measured according to ISO 1133 (230 °C, 5 Kg) ranging from 0.5 to 4.4 g/10 min; B) from 2.0 wt. % to 12.0 wt. % of a terpolymer of propylene ethylene and 1-hexene having a content of ethylene derived units ranging from 35 wt. % to 60 wt. %; and a content of 1-hexene derived units ranging from 1 wt. % to 6 wt. %;
A method for transmitting a random access signal, comprising: determining , by a user equipment, at least one item of serial number information indicated by a network side device, wherein the at least one item of serial number information is associated with a resource indicator of at least one channel state information reference signal, CSI-RS, and with at least one random access resource subset; measuring , by the user equipment, the at least one CSI-RS to select a CSI-RS, and selecting a preamble from a random access resource subset corresponding to the selected CSI-RS; and transmitting , by the user equipment, the selected preamble; wherein the method further comprises: determining, by the user equipment, serial number information corresponding to the selected CSI-RS according to a first mapping relationship set between serial number information and a resource indicator of a CSI-RS; and determining, by the user equipment, the random access resource subset corresponding to the selected CSI-RS according to a preset second mapping relationship set between serial number information and a random access resource subset. determining , by a user equipment, at least one item of serial number information indicated by a network side device, wherein the at least one item of serial number information is associated with a resource indicator of at least one channel state information reference signal, CSI-RS, and with at least one random access resource subset; measuring , by the user equipment, the at least one CSI-RS to select a CSI-RS, and selecting a preamble from a random access resource subset corresponding to the selected CSI-RS; and transmitting , by the user equipment, the selected preamble; wherein the method further comprises: determining, by the user equipment, serial number information corresponding to the selected CSI-RS according to a first mapping relationship set between serial number information and a resource indicator of a CSI-RS; and determining, by the user equipment, the random access resource subset corresponding to the selected CSI-RS according to a preset second mapping relationship set between serial number information and a random access resource subset. determining, by the user equipment, serial number information corresponding to the selected CSI-RS according to a first mapping relationship set between serial number information and a resource indicator of a CSI-RS; and determining, by the user equipment, the random access resource subset corresponding to the selected CSI-RS according to a preset second mapping relationship set between serial number information and a random access resource subset.
A three pickoff sensor flow meter , comprising: a first flow conduit conducting a first flow stream; a second flow conduit conducting a second flow stream that is independent of the first flow stream; a common driver configured to vibrate the first flow conduit and the second flow conduit ; a shared pickoff sensor ; and two independent pickoff sensors configured to provide first and second time delay values (Δt 1 ) and (Δt 2 ) for the first flow conduit and the second flow conduit with respect to the response of the shared pickoff sensor . a first flow conduit conducting a first flow stream; a second flow conduit conducting a second flow stream that is independent of the first flow stream; a common driver configured to vibrate the first flow conduit and the second flow conduit ; a shared pickoff sensor ; and two independent pickoff sensors configured to provide first and second time delay values (Δt 1 ) and (Δt 2 ) for the first flow conduit and the second flow conduit with respect to the response of the shared pickoff sensor .
A method for managing a number of Ethernet links of a cable connecting a first node to a second node, the first and second nodes comprising a respective media access controller , MAC, and physical layer entity , PHY, the method comprising: identifying a number of Ethernet links to utilize a number of channels of a cable based on a number of capabilities and a number of policies of the MACs and of the PHYs of both the first and second nodes; determining a number of Ethernet link types to be configured for the cable based on the capabilities and policies of the MACs and PHYs , whereby the determining comprises determining if the communication link type is a central management or a port management; negotiating a number of parameters to allow multi-channel ports of the first and second nodes connected to the cable to establish communications through the number of Ethernet links based on the determined number of Ethernet link types and the utilized number of channels; managing the cable configuration describing the MACs to be supported by the number of channels within the cable based on the number of policies; and determining a length of the cable to determine the number of channels to allocate to allow the number of nodes to establish communications. identifying a number of Ethernet links to utilize a number of channels of a cable based on a number of capabilities and a number of policies of the MACs and of the PHYs of both the first and second nodes; determining a number of Ethernet link types to be configured for the cable based on the capabilities and policies of the MACs and PHYs , whereby the determining comprises determining if the communication link type is a central management or a port management; negotiating a number of parameters to allow multi-channel ports of the first and second nodes connected to the cable to establish communications through the number of Ethernet links based on the determined number of Ethernet link types and the utilized number of channels; managing the cable configuration describing the MACs to be supported by the number of channels within the cable based on the number of policies; and determining a length of the cable to determine the number of channels to allocate to allow the number of nodes to establish communications.
A method for managing a mobile device entering a wireless coverage area of a home gateway connected to a wide area network through a mobile communication network , said method comprising: a) as said mobile device connects to said home gateway via a wireless interface of said mobile device , by said home gateway requesting an onloading token for said mobile device to a management server cooperating with said mobile communication network ; and b) at said mobile device , upon reception of said onloading token from said home gateway disconnecting from said home gateway and starting exchanging mobile data traffic with said wide area network through said mobile communication network using a mobile interface of said mobile device , wherein at step a) said home gateway requests said onloading token to said management server by using a mobile connection of said home gateway with said mobile communication network , the management server checks whether the mobile device and the home gateway are eligible for the onloading procedure and, if affirmative, said home gateway receives said onloading token from said management server by using said mobile connection with said mobile communication network . a) as said mobile device connects to said home gateway via a wireless interface of said mobile device , by said home gateway requesting an onloading token for said mobile device to a management server cooperating with said mobile communication network ; and b) at said mobile device , upon reception of said onloading token from said home gateway disconnecting from said home gateway and starting exchanging mobile data traffic with said wide area network through said mobile communication network using a mobile interface of said mobile device ,
A housing assembly , comprising a middle frame and a rear cover , wherein the rear cover comprises a support and a decorative part , the support being made of a fiber reinforced resin material, the decorative part being made of vegan leather, silica gel, leather texture vegetation, or animal leather; the middle frame comprises a middle frame body , an avoidance part and a border frame , wherein the border frame is connected to an outer edge of the middle frame body by the avoidance part , a groove (a) is formed by the middle frame body , the avoidance part and the border frame ; the support comprises a support body , a support end (b) and a protrusion (c); the support end (b) is connected to an outer edge of the support body ; the support end (b) is connected to the protrusion (c); the support body comprises a first support surface and a second support surface , the first support surface and the second support surface facing away from each other; the protrusion (c) protruding from the first support surface , the support end or the protrusion (c) is partially located in the groove (a), a gap is present between the support end and the avoidance part ; and the decorative part is mounted on the first support surface with an end of the decorative part connected to the protrusion (c); and the support is mounted on the middle frame with the second support surface facing the middle frame . the rear cover comprises a support and a decorative part , the support being made of a fiber reinforced resin material, the decorative part being made of vegan leather, silica gel, leather texture vegetation, or animal leather; the middle frame comprises a middle frame body , an avoidance part and a border frame , wherein the border frame is connected to an outer edge of the middle frame body by the avoidance part , a groove (a) is formed by the middle frame body , the avoidance part and the border frame ; the support comprises a support body , a support end (b) and a protrusion (c); the support end (b) is connected to an outer edge of the support body ; the support end (b) is connected to the protrusion (c); the support body comprises a first support surface and a second support surface , the first support surface and the second support surface facing away from each other; the protrusion (c) protruding from the first support surface , the support end or the protrusion (c) is partially located in the groove (a), a gap is present between the support end and the avoidance part ; and the decorative part is mounted on the first support surface with an end of the decorative part connected to the protrusion (c); and the support is mounted on the middle frame with the second support surface facing the middle frame .
A system for controlling oxygen delivery to a cell implant, the system comprising: a water electrolyzer , the water electrolyzer being configured to generate gaseous oxygen; a first cell capsule (13, 113, 413, 513-1), the first cell capsule (13, 113, 413, 513-1) comprising a cell compartment adapted to hold cells and further comprising a gas compartment ; a first gas conduit , the first gas conduit fluidically coupled to the water electrolyzer and to the first cell capsule (13, 113, 413, 513-1), whereby gaseous oxygen generated by the water electrolyzer is delivered to the first cell capsule (13, 113, 413, 513-1); and a controller , the controller being electrically coupled to the water electrolyzer , wherein the controller is configured to control the water electrolyzer ; characterized in that the system further comprises a first total fluid pressure sensor (17, 117, 217, 617-1), wherein the water electrolyzer is configured to output oxygen with a variable output, wherein the first total fluid pressure sensor (17, 117, 217, 617-1) is placed so as to sense the total fluid pressure within the gas compartment of the first cell capsule (13, 113, 413, 513-1), wherein the controller is also electrically coupled to the first total fluid pressure sensor (17, 117, 217, 617-1), and wherein the controller is configured to control the variable output of the water electrolyzer based on one or more sensed total pressure readings from the first total fluid pressure sensor (17, 117, 217, 617-1). a water electrolyzer , the water electrolyzer being configured to generate gaseous oxygen; a first cell capsule (13, 113, 413, 513-1), the first cell capsule (13, 113, 413, 513-1) comprising a cell compartment adapted to hold cells and further comprising a gas compartment ; a first gas conduit , the first gas conduit fluidically coupled to the water electrolyzer and to the first cell capsule (13, 113, 413, 513-1), whereby gaseous oxygen generated by the water electrolyzer is delivered to the first cell capsule (13, 113, 413, 513-1); and a controller , the controller being electrically coupled to the water electrolyzer , wherein the controller is configured to control the water electrolyzer ;
Ventilation profile arranged in a wall , in particular in a frame provided with a window , of a space for the purpose of ventilating this space through a passage extending through the profile , wherein the ventilation profile is provided with closing means such as a flap or a tube-like member configured to close and open the passage, wherein the ventilation profile further comprises on the side toward the space a cover grating for covering the passage , wherein the cover grating is provided with connecting means co-acting with the ventilation profile , wherein the cover grating is further provided with a ventilation device provided with at least one fan , a mounting frame on which the fan is arranged, a power source operatively coupled to the fan and a control unit for controlling the fan , wherein a ventilating direction of the fan lies substantially transversely of the plane of the cover grating , wherein the ventilation device is configured to displace air through the passage , characterized in that the mounting frame is provided with mounting means configured to connect the ventilation device to the cover grating of the ventilation profile , wherein the ventilation device is connected to the cover grating using the mounting means .
A nitric oxide delivery device comprising a nitric oxide (NO) delivery system, wherein the nitric oxide delivery system is adapted to deliver a pulse of a gas comprising NO i. at a delivery concentration in the range from 2,200 ppm NO to 5,000 ppm NO, ii. at a dosing rate of less than or equal to 166 μg NO per second, iii. at a therapeutic gas flow rate of less than or equal to 1 L/min, and wherein the pulse has a volume of 0.05 mL, 0.1 mL, 0.15 mL, 0.2 mL, 0.25 mL, 0.3 mL, 0.35 mL, 0.4 mL, 0.45 mL, 0.5 mL, 0.55 mL, 0.6 mL, 0.65 mL, 0.7 mL, 0.75 mL, 0.8 mL, 0.85 mL, 0.9 mL, 0.95 mL or 1 mL. i. at a delivery concentration in the range from 2,200 ppm NO to 5,000 ppm NO, ii. at a dosing rate of less than or equal to 166 μg NO per second, iii. at a therapeutic gas flow rate of less than or equal to 1 L/min,
A method for receiving feedback information of uplink transmission, the method comprising: transmitting (S21), by a terminal, a Physical Uplink Shared Channel, PUSCH, in a special subframe m, wherein m is an integer; detecting (S22), by the terminal, a downlink control channel with an uplink Downlink Control Information, DCI, format, in a subframe comprising a downlink transmission resource subsequent to the special subframe m, or in a subframe m+k, wherein k is a positive integer; the method being characterized in further comprising: deciding (S23), by the terminal, whether to retransmit the PUSCH transmitted in the special subframe m, according to an indicating field carried in the downlink control channel for indicating whether to retransmit the PUSCH. transmitting (S21), by a terminal, a Physical Uplink Shared Channel, PUSCH, in a special subframe m, wherein m is an integer; detecting (S22), by the terminal, a downlink control channel with an uplink Downlink Control Information, DCI, format, in a subframe comprising a downlink transmission resource subsequent to the special subframe m, or in a subframe m+k, wherein k is a positive integer; the method being characterized in further comprising: deciding (S23), by the terminal, whether to retransmit the PUSCH transmitted in the special subframe m, according to an indicating field carried in the downlink control channel for indicating whether to retransmit the PUSCH.