mhurhangee/ep-ind-claims huggingface dataset:
A system for distribution and dispensing of beverages, comprising: a container for beverage, said container having a mouth portion, a shoulder portion, a base portion and a body portion extending between the shoulder portion and the base portion, formed in one piece, collapsible and disposable; and a tube structure comprising an elongate tube to be inserted in the container and having an inner conduit for beverage, and a closure element to be connected to the mouth portion of the container, wherein - in use - an inner end of the tube is located adjacent to the base portion of the container for passing beverage from said inner end, through said conduit and to the closure element for dispensing, said container is blow-moulded from a PET preform, has a capacity of 15-40 litres and is freestanding in use: characterised in that: said preform has been subject to a stretch ratio on the order of 10-20; the sidewall thickness of the container body portion is approximately 0.2-0.6 mm; and the container wall has a barrier against oxygen and carbon dioxide, the barrier being achieved by blend technique. a container for beverage, said container having a mouth portion, a shoulder portion, a base portion and a body portion extending between the shoulder portion and the base portion, formed in one piece, collapsible and disposable; and a tube structure comprising an elongate tube to be inserted in the container and having an inner conduit for beverage, and a closure element to be connected to the mouth portion of the container, wherein - in use - an inner end of the tube is located adjacent to the base portion of the container for passing beverage from said inner end, through said conduit and to the closure element for dispensing, said container is blow-moulded from a PET preform, has a capacity of 15-40 litres and is freestanding in use: characterised in that: said preform has been subject to a stretch ratio on the order of 10-20; the sidewall thickness of the container body portion is approximately 0.2-0.6 mm; and the container wall has a barrier against oxygen and carbon dioxide, the barrier being achieved by blend technique. said preform has been subject to a stretch ratio on the order of 10-20; the sidewall thickness of the container body portion is approximately 0.2-0.6 mm; and the container wall has a barrier against oxygen and carbon dioxide, the barrier being achieved by blend technique.
A mount for supporting a motor vehicle radiator, the mount comprising: resiliently flexible coupling means for coupling the mount to a support portion of the radiator, the coupling means comprising first and second pairs of opposed grip members for gripping the radiator support portion; and first and second pairs of support leg portions (142, 144) for supporting the mount on a surface, each pair having a first support leg portion projecting in a first direction and a second support leg portion projecting in a second direction different from the first, the support leg portions being disposed around the coupling means in a box formation, wherein a first slot is provided between the first and second support leg portions of each support leg portion pair for receiving a corresponding first member of the radiator support portion, and a second slot is provided between the first and second pairs of support leg portions for receiving a corresponding second member of the radiator support portion, and wherein, upon a compression force being applied to the mount, the support leg portions are arranged to urge the grip members towards one another so as to support the radiator by gripping the radiator support portion therebetween. resiliently flexible coupling means for coupling the mount to a support portion of the radiator, the coupling means comprising first and second pairs of opposed grip members for gripping the radiator support portion; and first and second pairs of support leg portions (142, 144) for supporting the mount on a surface, each pair having a first support leg portion projecting in a first direction and a second support leg portion projecting in a second direction different from the first, the support leg portions being disposed around the coupling means in a box formation, wherein a first slot is provided between the first and second support leg portions of each support leg portion pair for receiving a corresponding first member of the radiator support portion, and a second slot is provided between the first and second pairs of support leg portions for receiving a corresponding second member of the radiator support portion, and wherein, upon a compression force being applied to the mount, the support leg portions are arranged to urge the grip members towards one another so as to support the radiator by gripping the radiator support portion therebetween.
A delivery device, comprising: an elongated delivery sleeve (402/502) configured to be slidably disposed about an outer cannula of a medical device; wherein the sleeve (402/502) comprises an outer cannula channel (414/514) and at least one delivery channel (412/512) having an open distal end; wherein the outer cannula channel (414/514) is positioned along a first channel axis such that the outer cannula is selectively received within the outer cannula channel (414/514), and the at least one delivery channel (412/512) positioned adjacent the outer cannula channel (414/514) so as not to be coaxial with the first channel axis, but positioned along a second channel-axis that is parallel to the first channel axis of the outer cannula channel (414/514) throughout an entire length of the supply channel, and wherein the open distal end of the delivery channel (412/512) serves as a delivery conduit to a surgical site during operation of the medical device; characterized in that the elongated delivery sleeve (402/502) further comprises a hub (406/506) having a body portion (403/503) with a first channel (409/509) and a second channel (411/511); wherein the first and second channels (409/509, 411/511) receive proximal ends (417/517, 419/519) of the outer cannula channel (414/514) and the delivery channel (412/512), respectively; and wherein the hub (406/506) further comprises a clip member (423/523) configured to grasp a portion of a mounting ring disposed on the medical device to secure hub (406, 506) to the medical device. an elongated delivery sleeve (402/502) configured to be slidably disposed about an outer cannula of a medical device; wherein the sleeve (402/502) comprises an outer cannula channel (414/514) and at least one delivery channel (412/512) having an open distal end; wherein the outer cannula channel (414/514) is positioned along a first channel axis such that the outer cannula is selectively received within the outer cannula channel (414/514), and the at least one delivery channel (412/512) positioned adjacent the outer cannula channel (414/514) so as not to be coaxial with the first channel axis, but positioned along a second channel-axis that is parallel to the first channel axis of the outer cannula channel (414/514) throughout an entire length of the supply channel, and wherein the open distal end of the delivery channel (412/512) serves as a delivery conduit to a surgical site during operation of the medical device; characterized in that the elongated delivery sleeve (402/502) further comprises a hub (406/506) having a body portion (403/503) with a first channel (409/509) and a second channel (411/511); wherein the first and second channels (409/509, 411/511) receive proximal ends (417/517, 419/519) of the outer cannula channel (414/514) and the delivery channel (412/512), respectively; and wherein the hub (406/506) further comprises a clip member (423/523) configured to grasp a portion of a mounting ring disposed on the medical device to secure hub (406, 506) to the medical device.
A fuel injector comprising: an injector body having a length with first and second end portions opposed to each other, said injector body also having a spray hole formed in the second end portion and a fuel flow path to which fuel is supplied externally and which communicates with the spray hole to spray the fuel; and a fuel pressure-sensing unit (94, 940) designed to be separate from said injector body, said fuel pressure-sensing unit (94, 940) being secured to the first end portion of said injector body via a sensor mount chamber being integrally provided in said injector body into which the fuel pressure-sensing unit (94, 940) is disposed, and including a diaphragm communicating with the fuel flow path in said injector body and a sensing device, the diaphragm being exposed to the fuel so as to be deformed as a function of a pressure of the fuel, the sensing device producing a signal as a function of a degree of deformation of the diaphragm wherein said fuel pressure-sensing unit (94, 940) includes an amplifier which works to amplify an electric output of the sensing device and a bottomed hollow cylindrical stem which has first and second ends opposed to each other, the first end being closed by a bottom which defines the diaphragm, the second end communicating with the fuel flow path, and wherein the stem is installed in the first end portion of said injector body to retain said fuel pressure-sensing unit (94, 940) to said injector body. an injector body having a length with first and second end portions opposed to each other, said injector body also having a spray hole formed in the second end portion and a fuel flow path to which fuel is supplied externally and which communicates with the spray hole to spray the fuel; and a fuel pressure-sensing unit (94, 940) designed to be separate from said injector body, said fuel pressure-sensing unit (94, 940) being secured to the first end portion of said injector body via a sensor mount chamber being integrally provided in said injector body into which the fuel pressure-sensing unit (94, 940) is disposed, and including a diaphragm communicating with the fuel flow path in said injector body and a sensing device, the diaphragm being exposed to the fuel so as to be deformed as a function of a pressure of the fuel, the sensing device producing a signal as a function of a degree of deformation of the diaphragm wherein said fuel pressure-sensing unit (94, 940) includes an amplifier which works to amplify an electric output of the sensing device and a bottomed hollow cylindrical stem which has first and second ends opposed to each other, the first end being closed by a bottom which defines the diaphragm, the second end communicating with the fuel flow path, and wherein the stem is installed in the first end portion of said injector body to retain said fuel pressure-sensing unit (94, 940) to said injector body.
Method for operating a hearing aid system having at least two hearing aids (110, 110') for arrangement on both sides of a head of a wearer, wherein the hearing aids (110, 110') have a transducer (2, 2') for picking up an audible signal and converting it into a respective first audio signal, wherein the hearing aid system has a signal processing apparatus (3, 3') for processing audio signals and a signal connection for transmitting a first audio signal from each hearing aid to the signal processing device (3, 3'), wherein a signal component from a preferential direction in relation to the head of the wearer in the first audio signals is rated in the signal processing apparatus (3, 3'), and the first audio signals are used to generate a first binaural directional microphone signal, and the directional pattern thereof is adjusted on the basis of the rating, characterized in that to rate the signal component a quotient is formed in the signal processing device (3, 3') from, firstly, a minimum of the level of the first audio signals or a minimum of the level of the first audio signals mapped into a plane of symmetry for the two hearing aids (110, 110'), and, secondly, a second reference signal having a reduced sensitivity in the preferential direction.
An electronic lock assembly comprising a latch, a dead lock mechanism of the latch, and an electric actuator to unlock and to lock the electronic lock assembly, the dead lock mechanism being connected to the latch, and the electric actuator being connected to the dead lock mechanism to drive it from the locked state to the unlocked state and vice versa, the electronic lock assembly further comprising a connection to an external power source, the connection being connected to the electric actuator, the electronic lock assembly further comprising a secondary power supply circuit connected to the connection and comprising a capacitor unit to store reserve capacity, wherein the electronic lock assembly comprises a test circuit to test the capacitor unit, the test circuit being arranged to couple a test load on the capacitor unit in order to test its condition, and to measure the voltage of the capacitor unit before connecting the test load, a second time after connecting the test load, and a third time before disconnecting the test load and after the second time, the electronic lock assembly comprising a control unit arranged to control the test circuit, to calculate an equivalent series resistance ESR value and a capacitance value of the capacitor unit on the basis of said measurements, and to determine the condition of the capacitor unit on the basis of these values.
A round baler comprising a bale chamber having a crop mouth for introducing bale material into the bale chamber and a plurality of pressing elements (16,18,60,52,6264) configured to compress bale material in the bale chamber to form a round bale, a binding apparatus configured to apply at least one strip of binding material to a cylindrical surface of a bale formed in the bale chamber to bind the bale, wherein the binding apparatus includes a supply device comprising a support for a supply of binding material and a feed device that feeds binding material from the supply to a feed opening of the bale chamber, wherein the feed device includes a pull-off device that is configured to draw binding material from the supply and a feed mouth that receives binding material from the pull-off device; a feed detector located between the pull-off device and the feed opening, which is configured to detect correct/incorrect feeding of the binding material into the bale chamber; characterised by the binding apparatus is configured to apply a plurality of strips of binding material to the cylindrical surface of a bale formed in the bale chamber to bind the bale, and wherein the feed detector is configured to detect correct/incorrect feeding of each of the strips of binding material into the bale chamber.
A method comprising: receiving first TCP data at a wide area network, WAN, device from a source device; increasing the TCP window size to the source device by the WAN device in conjunction with forwarding the first TCP data to a destination device of a WAN by the WAN device; receiving an ACK to the first TCP data from the destination device of the WAN at the WAN device; and forwarding the ACK to the first TCP data from the destination device of the WAN to the source device by the WAN device in conjunction with decreasing the TCP window size to the source device. receiving first TCP data at a wide area network, WAN, device from a source device; increasing the TCP window size to the source device by the WAN device in conjunction with forwarding the first TCP data to a destination device of a WAN by the WAN device; receiving an ACK to the first TCP data from the destination device of the WAN at the WAN device; and forwarding the ACK to the first TCP data from the destination device of the WAN to the source device by the WAN device in conjunction with decreasing the TCP window size to the source device.
A system for testing a wireless data communication device under test, DUT, comprising: a packet transmission datapath for transmitting packetized data streams to said DUT; a packet reception datapath for receiving packetized data streams from said DUT; a protocol engine coupled to said packet transmission datapath and said packet reception datapath, and operative to implement a communication protocol; a sounding packet processor coupled to said packet transmission datapath and said packet reception datapath, and operative to receive sounding packets from said DUT; and a mobility effects scheduler coupled to said protocol engine and said sounding packet processor for receiving data packets from said DUT and withholding transmission of acknowledgement packets to said DUT and, responsive to receiving a sounding packet from said DUT triggered by said withholding of said transmission of said acknowledgment packets, said protocol engine and said sounding packet processor are configured for transmitting a beamforming report including a simulated channel matrix to said DUT. a packet transmission datapath for transmitting packetized data streams to said DUT; a packet reception datapath for receiving packetized data streams from said DUT; a protocol engine coupled to said packet transmission datapath and said packet reception datapath, and operative to implement a communication protocol; a sounding packet processor coupled to said packet transmission datapath and said packet reception datapath, and operative to receive sounding packets from said DUT; and a mobility effects scheduler coupled to said protocol engine and said sounding packet processor for receiving data packets from said DUT and withholding transmission of acknowledgement packets to said DUT and, responsive to receiving a sounding packet from said DUT triggered by said withholding of said transmission of said acknowledgment packets, said protocol engine and said sounding packet processor are configured for transmitting a beamforming report including a simulated channel matrix to said DUT.
A microneedle array (1, 3, 5, 6) comprising a first line (12, 12A) composed of a plurality of first microneedles that are inclined with respect to a support face; and a second line (12, 12A) composed of a plurality of second microneedles that are inclined with respect to the support face, wherein the first line (12, 12A) and the second line (12, 12A) extend radially, and wherein directions in which both the plurality of the first microneedles and the plurality of the second microneedles point are unified into one of a clockwise direction and a counterclockwise direction, and wherein tips of the plurality of the first microneedles point in a first direction (Da) and tips of the plurality of the second microneedles point in a second direction (Db) different from the first direction (Da), and wherein the first microneedle in contact with skin is stuck into the skin while rotationally moving in the first direction (Da) along a surface of the skin, and the second microneedle in contact with the skin is stuck into the skin while rotationally moving in the second direction (Db) along the surface of the skin. a second line (12, 12A) composed of a plurality of second microneedles that are inclined with respect to the support face, wherein the first line (12, 12A) and the second line (12, 12A) extend radially, and wherein directions in which both the plurality of the first microneedles and the plurality of the second microneedles point are unified into one of a clockwise direction and a counterclockwise direction, and wherein
A GHRH antagonist peptide selected from the group having the formulae: SEQ ID NO: P-11479 [(Ac-Ada) 0 -Tyr 1, D-Arg 2, (Phe 5) 6, Ala 8, Har 9, Tyr(Me) 10, His 11, Orn 12, 68 Abu 15, His 20, Orn 21, Nle 27, D-Arg 28, Har 29]hGH-RH NH 2, P-11491 [(Dca-Ada) 0 -Tyr 1, D-Arg 2, (Phe 5) 6, Ala 8, Har 9, Tyr(Me) 10, His 11, Orn 12, 73 Abu 15, His 20, Orn 21, Nle 27, D-Arg 28, Har 29]hGH-RH NH 2, and P-11602 [(PhAc-Ada) 0 -Tyr 1, D-Arg 2, (Phe 5) 6, Ala 8, Har 9, Tyr(Me) 10, His 11, 84 Orn 12, Abu 15, His 20, Orn 21, Nle 27, D-Arg 28, Har 29]hGH-RH NH 2. SEQ ID NO: P-11479 [(Ac-Ada) 0 -Tyr 1, D-Arg 2, (Phe 5) 6, Ala 8, Har 9, Tyr(Me) 10, His 11, Orn 12, 68 Abu 15, His 20, Orn 21, Nle 27, D-Arg 28, Har 29]hGH-RH NH 2, P-11491 [(Dca-Ada) 0 -Tyr 1, D-Arg 2, (Phe 5) 6, Ala 8, Har 9, Tyr(Me) 10, His 11, Orn 12, 73 Abu 15, His 20, Orn 21, Nle 27, D-Arg 28, Har 29]hGH-RH NH 2, and P-11602 [(PhAc-Ada) 0 -Tyr 1, D-Arg 2, (Phe 5) 6, Ala 8, Har 9, Tyr(Me) 10, His 11, 84 Orn 12, Abu 15, His 20, Orn 21, Nle 27, D-Arg 28, Har 29]hGH-RH NH 2. P-11479 [(Ac-Ada) 0 -Tyr 1, D-Arg 2, (Phe 5) 6, Ala 8, Har 9, Tyr(Me) 10, His 11, Orn 12, 68 Abu 15, His 20, Orn 21, Nle 27, D-Arg 28, Har 29]hGH-RH NH 2, P-11491 [(Dca-Ada) 0 -Tyr 1, D-Arg 2, (Phe 5) 6, Ala 8, Har 9, Tyr(Me) 10, His 11, Orn 12, 73 Abu 15, His 20, Orn 21, Nle 27, D-Arg 28, Har 29]hGH-RH NH 2, and P-11602 [(PhAc-Ada) 0 -Tyr 1, D-Arg 2, (Phe 5) 6, Ala 8, Har 9, Tyr(Me) 10, His 11, 84 Orn 12, Abu 15, His 20, Orn 21, Nle 27, D-Arg 28, Har 29]hGH-RH NH 2.
One or more non-transitory computer-readable media storing instructions which, when executed by one or more processors in a device, cause the device to: provide, using a speaker on the device, an auditory cue; initiate, after providing the auditory cue, a hold period of a predetermined duration; receive a set of zero or more taps provided on a touch sensor on the device during the hold period; determine a number of taps in the set of zero or more taps by a secure microcontroller; store, after the conclusion of the hold period, a value in a sequence based on the number of taps by the secure microcontroller; transmit a value accepted signal from the secure microcontroller to an applications processor after storing the number of taps; and generate a digit received symbol for a display of the device using the applications processor after receiving the value accepted signal on the applications processor. provide, using a speaker on the device, an auditory cue; initiate, after providing the auditory cue, a hold period of a predetermined duration; receive a set of zero or more taps provided on a touch sensor on the device during the hold period; determine a number of taps in the set of zero or more taps by a secure microcontroller; store, after the conclusion of the hold period, a value in a sequence based on the number of taps by the secure microcontroller; transmit a value accepted signal from the secure microcontroller to an applications processor after storing the number of taps; and generate a digit received symbol for a display of the device using the applications processor after receiving the value accepted signal on the applications processor.
A vapour recovery pump for a fuel dispensing unit, comprising a pump housing with a first chamber, a second chamber and a third chamber, each one of said chambers (3, 4, 5) having a vapour port (8, 9, 12), the first and second chambers (3, 4) being separated by a first piston comprising a first vapour inlet valve, and the second and third chambers (4, 5) being separated by a second piston comprising a second vapour inlet valve, wherein the first and second pistons (6, 7) are arranged to move reciprocally and out of phase in relation to each other such that the volumes of the chambers (3, 4, 5) repeatedly decrease and increase to allow a flow of vapour between the first and third chambers (3, 5), and the second chamber.