mhurhangee/patent-ind-claim-en huggingface dataset:
A medication injection pen comprising: a body ; a dose set knob rotatable with respect to said body to set a desired injection dose; a leadscrew provided with a thread element and advanceable in a first direction via a corresponding thread engagement, said first direction being that which expels medication from a cartridge ; a driver rotationally fixed to said leadscrew for preventing relative rotation therebetween, said driver being rotatable in a first direction to rotate said leadscrew and advance said leadscrew in said first direction; and a setback member rotationally fixed to said driver for preventing relative rotation therebetween; wherein said body further comprises an angled protrusion provided on a surface within said body, and said dose set knob further comprises a flexible leg which engages said protrusion to produce an audible signal upon completion of injection of a set dose. a body ; a dose set knob rotatable with respect to said body to set a desired injection dose; a leadscrew provided with a thread element and advanceable in a first direction via a corresponding thread engagement, said first direction being that which expels medication from a cartridge ; a driver rotationally fixed to said leadscrew for preventing relative rotation therebetween, said driver being rotatable in a first direction to rotate said leadscrew and advance said leadscrew in said first direction; and a setback member rotationally fixed to said driver for preventing relative rotation therebetween; wherein said body further comprises an angled protrusion provided on a surface within said body, and said dose set knob further comprises a flexible leg which engages said protrusion to produce an audible signal upon completion of injection of a set dose.
A method for a User Equipment, UE, operating in a wireless communication system, the method comprising: triggering (S1407) power headroom reports, PHRs, in a first Medium Access Control, MAC, entity and a second MAC entity when first type event occurs in the first MAC entity, wherein the UE is configured with the first MAC entity corresponding to a first base station and the second MAC entity corresponding to a second base station (S1401); triggering (S1413) a PHR in the first MAC entity only, when a second type event occurs in the first MAC entity, wherein the first type event includes: there are uplink resources allocated for transmission on any of activated serving cells of the first MAC entity and a required power backoff due to power management for the any of activated serving cells of the first MAC entity has changed more than a threshold when a prohibitPHR-timer of the first MAC entity expires, or wherein the first type event includes: there is PUCCH, Physical Uplink Control Channel, transmission on the any of activated serving cells of the first MAC entity and a required power backoff due to power management for the any of activated serving cells of the first MAC entity has changed more than a threshold when the prohibitPHR-timer of the first MAC entity expires. triggering (S1407) power headroom reports, PHRs, in a first Medium Access Control, MAC, entity and a second MAC entity when first type event occurs in the first MAC entity, wherein the UE is configured with the first MAC entity corresponding to a first base station and the second MAC entity corresponding to a second base station (S1401); triggering (S1413) a PHR in the first MAC entity only, when a second type event occurs in the first MAC entity, wherein the first type event includes: there are uplink resources allocated for transmission on any of activated serving cells of the first MAC entity and a required power backoff due to power management for the any of activated serving cells of the first MAC entity has changed more than a threshold when a prohibitPHR-timer of the first MAC entity expires, or wherein the first type event includes: there is PUCCH, Physical Uplink Control Channel, transmission on the any of activated serving cells of the first MAC entity and a required power backoff due to power management for the any of activated serving cells of the first MAC entity has changed more than a threshold when the prohibitPHR-timer of the first MAC entity expires.
A transition enforcing coding receiver , hereinafter TEC receiver, comprising: a first delay line circuit , arranged to delay a plurality of vector signals (s -s[m-1]) to generate a plurality of delayed vector signals (s _D-s[m-1]_D), respectively; and a transition detection circuit , arranged to detect a transition of at least one specific delayed vector signal among the delayed vector signals (s _D-s[m-1]_D); characterized by : a data sampling circuit , arranged to sample the vector signals (s -s[m-1]) according to a sampling timing determined based on an output of the transition detection circuit . a first delay line circuit , arranged to delay a plurality of vector signals (s -s[m-1]) to generate a plurality of delayed vector signals (s _D-s[m-1]_D), respectively; and a transition detection circuit , arranged to detect a transition of at least one specific delayed vector signal among the delayed vector signals (s _D-s[m-1]_D); characterized by : a data sampling circuit , arranged to sample the vector signals (s -s[m-1]) according to a sampling timing determined based on an output of the transition detection circuit .
A method of wireless communication in a wireless communication network for a scheduling entity to communicate with a set of one or more scheduled entities , the method comprising: transmitting opportunistic mode information to a scheduled entity via radio resource control, RRC, signaling or within a physical broadcast control channel, PDCCH, wherein the opportunistic mode information indicates whether to enable or disable an opportunistic mode on the scheduled entity ; identifying a set of unused uplink resources unassigned to any of the set of one or more scheduled entities within a slot ; transmitting unused resource information identifying the set of unused uplink resources to the set of one or more scheduled entities ; and receiving an opportunistic uplink transmission from the scheduled entity of the set of one or more scheduled entities within the set of unused uplink resources of the slot when the opportunistic mode information indicates to enable the opportunistic mode on the scheduled entity . transmitting opportunistic mode information to a scheduled entity via radio resource control, RRC, signaling or within a physical broadcast control channel, PDCCH, wherein the opportunistic mode information indicates whether to enable or disable an opportunistic mode on the scheduled entity ; identifying a set of unused uplink resources unassigned to any of the set of one or more scheduled entities within a slot ; transmitting unused resource information identifying the set of unused uplink resources to the set of one or more scheduled entities ; and receiving an opportunistic uplink transmission from the scheduled entity of the set of one or more scheduled entities within the set of unused uplink resources of the slot when the opportunistic mode information indicates to enable the opportunistic mode on the scheduled entity .
A method, comprising: receiving , at an interface, an authentication context associated with a first service; causing , at least in part, storage of the authentication context in a first cache associated with the interface; and causing , at least in part, population of the authentication context to a second cache associated with a second service, the second cache not directly linked to the interface, wherein the authentication context in the second cache authenticates access to the second service; and wherein the population of the authentication context to the second cache comprises: converting the authentication context based, at least in part, on an authentication protocol associated with the second service, wherein the authentication context in the second cache is the converted authentication context. receiving , at an interface, an authentication context associated with a first service; causing , at least in part, storage of the authentication context in a first cache associated with the interface; and causing , at least in part, population of the authentication context to a second cache associated with a second service, the second cache not directly linked to the interface, wherein the authentication context in the second cache authenticates access to the second service; and wherein the population of the authentication context to the second cache comprises: converting the authentication context based, at least in part, on an authentication protocol associated with the second service, wherein the authentication context in the second cache is the converted authentication context. converting the authentication context based, at least in part, on an authentication protocol associated with the second service, wherein the authentication context in the second cache is the converted authentication context.
A communication system comprising: three or more nodes ; and a multi-core fiber having a plurality of cores, the multi-core fiber being used in at least a partial segment of a connection between the nodes, wherein one node of the nodes is connected to the multi-core fiber and includes a connector configured to add and drop a signal to and from an allocated core exclusively allocated from among the cores as a communication path between the one node and another node of the nodes and configured to relay a signal transmitted through another core of the cores allocated for communication between other nodes in the multi-core fiber connected to the one node, wherein a relative positional relationship between a connection point of the allocated core in which a signal is added or dropped in the connector and a connection point of another core in which a signal is relayed in the connector is the same for all of the nodes connected to the multi-core fiber, characterized in that a connection, in the connector, between cores through which the signal is relayed is determined in accordance with a logical topology in the communication system. three or more nodes ; and a multi-core fiber having a plurality of cores, the multi-core fiber being used in at least a partial segment of a connection between the nodes, wherein one node of the nodes is connected to the multi-core fiber and includes a connector configured to add and drop a signal to and from an allocated core exclusively allocated from among the cores as a communication path between the one node and another node of the nodes and configured to relay a signal transmitted through another core of the cores allocated for communication between other nodes in the multi-core fiber connected to the one node, wherein a relative positional relationship between a connection point of the allocated core in which a signal is added or dropped in the connector and a connection point of another core in which a signal is relayed in the connector is the same for all of the nodes connected to the multi-core fiber, characterized in that a connection, in the connector, between cores through which the signal is relayed is determined in accordance with a logical topology in the communication system.
A drug delivery system , comprising: - a reservoir containing a drug to be administered; - a drug application device adapted for injection or infusion of the drug; - a pumping device adapted to generate a flow of the drug from the reservoir to the drug application device ; and - a control system , comprising a pressure sensor adapted to measure pressure signals indicative of a resistance against the flow of the drug, and a processing device functionally connected to the pressure sensor ; wherein the control system is configured to - detect pressure signals on a series of consecutive days indicative of a tissue resistance against the flow of the drug while the drug is administered by the pressure sensor ; - determine a tissue resistance value from the pressure signals; and - compare the tissue resistance value to a reference tissue resistance value; characterized in that the control system is further configured to detect leakage if there is a drop in the tissue resistance value after a sequence of tissue resistance values rising daily and the measured tissue resistance value is below the reference tissue resistance value, wherein the reference tissue resistance value is calculated for each day by subtracting a tolerance tissue resistance value from the previous day's tissue resistance value. - a reservoir containing a drug to be administered; - a drug application device adapted for injection or infusion of the drug; - a pumping device adapted to generate a flow of the drug from the reservoir to the drug application device ; and - a control system , comprising a pressure sensor adapted to measure pressure signals indicative of a resistance against the flow of the drug, and a processing device functionally connected to the pressure sensor ; - detect pressure signals on a series of consecutive days indicative of a tissue resistance against the flow of the drug while the drug is administered by the pressure sensor ; - determine a tissue resistance value from the pressure signals; and - compare the tissue resistance value to a reference tissue resistance value;
A method of sintering a dental material using a dental furnace, the dental furnace comprising a furnace hood , a furnace base , a heating chamber and a support surface , the dental material to be sintered being received on the support surface in the heating chamber , wherein the sinter material to be sintered is heated in a first heating period at a heating rate of more than 50°K/min, wherein the furnace is heated up to at least 1000°C, in particular to 1100°C to 1250°C, wherein this temperature reached corresponds to a presintering temperature of the dental material, wherein the first heating period is set independently of the material, wherein the first heating period is followed by an intermediate heating period which is at least 5 minutes, in particular at least 10 minutes, the heating rate of which is less than 10°K/min, wherein the intermediate heating period is defined with respect to its length and its heating rate as a function of the material to be sintered, the intermediate heating period being followed by a final heating period, the heating rate of which is at least 20°K/min, in particular more than 50°K/min, wherein the final heating period is followed by a holding time for at least 5 minutes, in particular for 25 minutes, above the temperature which exists towards the end of the first heating period, wherein the final heating period is set independently of the material, wherein, subsequently thereto, cooling, in particular forced cooling of the furnace is performed, which causes cooling of the dental material to a withdrawal temperature, in particular of approximately 400°C in less than 60 minutes, in particular 20 to 60 minutes.
A sealing device, comprising an intermediate bushing , which by forming a gap seal is arranged between an outer sleeve and an inner body which is mounted to be movable therein relative thereto, characterized in that chambers which can be filled with a pressurized liquid are provided between the intermediate bushing and the adjacent outer sleeve , said chambers being laterally delimited by sealing elements , whereby the seal comprises a sealing ring , which on the one hand is supported on the inner wall of the outer sleeve and on the other hand on the intermediate bushing , whereby the sealing ring is held in a holder .
An image filtering method, comprising: determining a filter coefficient of a chroma filter based on a filter coefficient of a luma filter, wherein filter coefficients of the luma filter present a first geometric distribution, filter coefficients of the chroma filter present a second geometric distribution; and respectively performing filtering processing on luma samples and chroma samples of a to-be-processed image by using the luma filter and the chroma filter; characterized in that a filter coefficient of the chroma filter at an edge of the second geometric distribution is calculated by using more than one filter coefficient of the luma filter at the first geometric distribution; wherein a filter coefficient distribution of the luma filter being the first geometric distribution is shown in the following table: wherein a filter coefficient distribution of the chroma filter being the second geometric distribution is shown in the following table: and wherein the filter coefficient of the chroma filter at an edge of the second geometric distribution comprises: Co, C1, C3, and C4, wherein a relationship between filter coefficients of the luma filter and filter coefficients of the chroma filter is as follows: C 6 = L 20 ; C 2 = L 12 ; C 5 = L 19 ; C 0 = L 1 + L 2 + L 3 + L 0 + L 6 ; C 1 = L 4 + L 5 + L 10 + L 11 ; C 3 = L 7 + L 8 + L 13 + L 14 ; and C 4 = L 9 + L 15 + L 16 + L 17 + L 18 . determining a filter coefficient of a chroma filter based on a filter coefficient of a luma filter, wherein filter coefficients of the luma filter present a first geometric distribution, filter coefficients of the chroma filter present a second geometric distribution; and respectively performing filtering processing on luma samples and chroma samples of a to-be-processed image by using the luma filter and the chroma filter; a filter coefficient of the chroma filter at an edge of the second geometric distribution is calculated by using more than one filter coefficient of the luma filter at the first geometric distribution; wherein a filter coefficient distribution of the luma filter being the first geometric distribution is shown in the following table: wherein a filter coefficient distribution of the chroma filter being the second geometric distribution is shown in the following table: and wherein the filter coefficient of the chroma filter at an edge of the second geometric distribution comprises: Co, C1, C3, and C4, wherein a relationship between filter coefficients of the luma filter and filter coefficients of the chroma filter is as follows: C 6 = L 20 ; C 2 = L 12 ; C 5 = L 19 ; C 0 = L 1 + L 2 + L 3 + L 0 + L 6 ; C 1 = L 4 + L 5 + L 10 + L 11 ; C 3 = L 7 + L 8 + L 13 + L 14 ; and C 4 = L 9 + L 15 + L 16 + L 17 + L 18 .
A device for dispensing a cosmetic product comprising: - a dispensing nozzle ; - a mechanism for dispensing a dose of a cosmetic product via the dispensing nozzle, from a capsule of a cosmetic preparation ready to be dispensed; characterised in that it further incorporates means for the aerial diffusion of an aromatherapy composition, and in that it comprises: - means for receiving disposable capsules of cosmetic preparation ready to be dispensed and/or of aromatherapy composition for aerial diffusion, the reception means including a first housing for cosmetic product capsules, and a second housing for aromatherapy composition capsules; - common electronic means for triggering the dispensing mechanism and the diffusion means; - means for reading identification codes that may be carried by capsules inserted into the reception means ; - electronic means for managing the dispensing of a cosmetic product and the aerial diffusion of an aromatherapy composition, the electronic management means being coupled to the means for reading identification codes so that during the insertion of a capsule of a cosmetic product and a capsule of an aromatherapy composition, the reading means read the identification codes carried by each of the capsules, allowing the electronic means for managing the dispensing of the cosmetic product and the aerial diffusion of the aromatherapy composition to determine how the distribution and diffusion are to be achieved. - a dispensing nozzle ; - a mechanism for dispensing a dose of a cosmetic product via the dispensing nozzle, from a capsule of a cosmetic preparation ready to be dispensed; - means for receiving disposable capsules of cosmetic preparation ready to be dispensed and/or of aromatherapy composition for aerial diffusion, the reception means including a first housing for cosmetic product capsules, and a second housing for aromatherapy composition capsules; - common electronic means for triggering the dispensing mechanism and the diffusion means; - means for reading identification codes that may be carried by capsules inserted into the reception means ; - electronic means for managing the dispensing of a cosmetic product and the aerial diffusion of an aromatherapy composition, the electronic management means being coupled to the means for reading identification codes so that during the insertion of a capsule of a cosmetic product and a capsule of an aromatherapy composition, the reading means read the identification codes carried by each of the capsules, allowing the electronic means for managing the dispensing of the cosmetic product and the aerial diffusion of the aromatherapy composition to determine how the distribution and diffusion are to be achieved.
A method for transferring eggs to a poultry house that have been pre-incubated in setter trays , wherein the pre-incubated eggs are transferred to the poultry house, a layer of insulating covering material is provided in the poultry house and the pre-incubated eggs are positioned on said covering material , characterised in that the pre-incubated eggs are transferred to the poultry house in said setter trays , they are removed in the poultry house from the setter trays by means of a set of egg pickup members of a transfer machine and they are subsequently positioned on said covering material by means of the transfer machine , with the transfer machine driving through the poultry house during the transfer of the eggs from the setter trays to said covering material .