mhurhangee/patent-ind-claim-en huggingface dataset:
A retaining apparatus for use with a medicament delivery device, the medicament delivery device comprising a container holder assembly and an actuator assembly , the container holder assembly configured to receive a container containing a medicament, the container holder assembly configured to couple to the actuator assembly , wherein the actuator assembly comprises a plunger rod for engaging a stopper in the container , the retaining apparatus comprising: a plunger lock seated within a proximal end of the actuator assembly , the plunger lock securing the plunger rod ; characterised in a retaining member seated within the plunger lock ; and a biasing member secured between the proximal end of the actuator assembly and the retaining member ; wherein the retaining member is biased in a proximal direction by the biasing member ; wherein the plunger lock defines an internal cavity , and wherein the retaining member is slidably biased within the internal cavity of the plunger lock . a plunger lock seated within a proximal end of the actuator assembly , the plunger lock securing the plunger rod ; characterised in a retaining member seated within the plunger lock ; and a biasing member secured between the proximal end of the actuator assembly and the retaining member ; wherein the retaining member is biased in a proximal direction by the biasing member ; wherein the plunger lock defines an internal cavity , and wherein the retaining member is slidably biased within the internal cavity of the plunger lock .
A barrier for use in negative pressure wound therapy, the barrier comprising: a base layer defining a plurality of perforations extending entirely through the base layer , wherein the plurality of perforations are positioned, sized, and configured to allow flow therethrough for negative pressure wound therapy, wherein the base layer defines a top surface and a bottom surface that is configured to be positioned adjacent the surface of a wound ; and top surface structures positioned on the top surface of the base layer, wherein the top surface structures are positioned, sized, and configured to space porous foam material away from the perforations of the base layer when porous foam material is positioned on top of the barrier after the barrier is positioned in the wound . a base layer defining a plurality of perforations extending entirely through the base layer , wherein the plurality of perforations are positioned, sized, and configured to allow flow therethrough for negative pressure wound therapy, wherein the base layer defines a top surface and a bottom surface that is configured to be positioned adjacent the surface of a wound ; and top surface structures positioned on the top surface of the base layer, wherein the top surface structures are positioned, sized, and configured to space porous foam material away from the perforations of the base layer when porous foam material is positioned on top of the barrier after the barrier is positioned in the wound .
Method for producing a structure, wherein the structure comprises a first precast concrete part and a second precast concrete part , wherein the precast concrete parts form walls and/or supports of the structure, wherein the precast concrete parts are connected to one another at a joint formed between the precast concrete parts , wherein the joint is at least partially filled with filling material , wherein the first precast concrete part has a first receptacle and the second precast concrete part has a second receptacle for a connecting means, wherein the connecting means is arranged with a first portion in the first receptacle and with a second portion in the second receptacle , wherein, before positioning the precast concrete parts with respect to one another, the connecting means is completely arranged in the first receptacle , and, after positioning the precast concrete parts with respect to one another, is moved with its second portion into the second receptacle , and wherein the receptacles are then filled with filling material , characterized in that the two receptacles are designed to be closed towards the outer sides of the structure and only have openings which are open into the joint .
An AuNP(DTDTPA)(biomolecule) nanoconstruct comprising an Au nanoparticle (NP), DTDTPA, and a biomolecule, wherein the DTDTPA is diethylene triamine pentaacetic acid (DTPA) that is dithiolated (DT), and wherein the DTDTPA is linked to the surface of the Au nanoparticle by attaching a thiol group of the DTDTPA to the surface of the Au nanoparticle , characterized in that the biomolecule is a thioctic acid terminated peptide linked to the surface of the Au nanoparticle via an Au-S bond.
Closing device having - a first closing part which has a housing and a blocking piece disposed on the housing, - a second closing part which has a sprung locking element which at least in portions is configured so as to be spring-elastic, - magnetic means which act between the blocking piece of the first closing part and the second closing part and cause a magnetic attraction force between the blocking piece of the first closing part and the second closing part, wherein - the first closing part for closing the closing device is capable of being placed on the second closing part in a closing direction, - the blocking piece and the sprung locking element in a closing position are mutually engaged such that the first closing part in the direction counter to the closing direction is locked in relation to the second closing part, and - the sprung locking element for releasing the closing device is displaceable relative to the blocking piece in an opening direction that is substantially transverse to the closing direction, so as to disengage the sprung locking element and the blocking piece, wherein the blocking piece is disposed so as to be movable on the housing of the first closing part in such a manner that said blocking piece in a retracted position is at least in part enclosed in a receptacle chamber of the housing , and in a deployed position protrudes from the housing in such a manner that said blocking piece can be brought to engage with the sprung locking element , characterized in that at least one first electrical contact element is disposed on the blocking piece and/or the housing , and at least one second electrical contact element is disposed on the second closing part . - a first closing part which has a housing and a blocking piece disposed on the housing, - a second closing part which has a sprung locking element which at least in portions is configured so as to be spring-elastic, - magnetic means which act between the blocking piece of the first closing part and the second closing part and cause a magnetic attraction force between the blocking piece of the first closing part and the second closing part, - the first closing part for closing the closing device is capable of being placed on the second closing part in a closing direction, - the blocking piece and the sprung locking element in a closing position are mutually engaged such that the first closing part in the direction counter to the closing direction is locked in relation to the second closing part, and - the sprung locking element for releasing the closing device is displaceable relative to the blocking piece in an opening direction that is substantially transverse to the closing direction, so as to disengage the sprung locking element and the blocking piece,
An emergency landing apparatus for an aircraft , the emergency landing apparatus comprising: a housing for ejection from the aircraft; a parachute , arranged for deployment from the housing, comprising a canopy ; a rocket motor , positioned in the housing, arranged to provide upwards thrust to control descent of the aircraft during emergency landing of the aircraft; a rocket motor initiator , positioned in the housing, arranged to initiate the rocket motor; and one or more sensors for sensing ejection of the housing from the aircraft and for arming the rocket motor initiator in response to sensing ejection of the housing from the aircraft. a housing for ejection from the aircraft; a parachute , arranged for deployment from the housing, comprising a canopy ; a rocket motor , positioned in the housing, arranged to provide upwards thrust to control descent of the aircraft during emergency landing of the aircraft; a rocket motor initiator , positioned in the housing, arranged to initiate the rocket motor; and one or more sensors for sensing ejection of the housing from the aircraft and for arming the rocket motor initiator in response to sensing ejection of the housing from the aircraft.
A method performed in a scheduler for scheduling data transmission in a wireless communication system , wherein the wireless communication system comprises a plurality of base stations, each base station comprising one or more radio units communicating with a plurality of wireless communication devices, wherein the scheduler is comprised in a base station of the plurality of base stations, and wherein the base station comprises a radio unit , the method comprising: buffering data packets in a buffer; monitoring the status of the buffer; when the buffer contains a data packet which is associated with a priority level higher than a priority level of a predefined priority threshold, PT, selecting a modulation and coding scheme, MCS, for the buffered data packets; and sending the buffered data packets with the selected MCS to the radio unit for transmission. buffering data packets in a buffer; monitoring the status of the buffer; when the buffer contains a data packet which is associated with a priority level higher than a priority level of a predefined priority threshold, PT, selecting a modulation and coding scheme, MCS, for the buffered data packets; and sending the buffered data packets with the selected MCS to the radio unit for transmission.
A method of processing packets comprising: receiving a packet at a gateway; determining , at a network processing unit of the gateway, if the packet matches a limited set of criteria and, if there is a match, forwarding the packet to a corresponding process instance in the gateway, otherwise forwarding the packet to a demux manager in the gateway, wherein the method then further comprises: receiving the packet at the demux manager and comparing the packet to a set of criteria of packets associated with a process instance and, if there is a match , forwarding the packet to that process instance, otherwise allocating the packet to a new process instance to handle a new packet flow; receiving a new packet at a process instance that is assigned from the demux manager and creating a cache entry with information from the new packet; and sending from the process instance a limited set of criteria to set up a flow in the network processing unit to forward packets that match the limited set of criteria. receiving a packet at a gateway; determining , at a network processing unit of the gateway, if the packet matches a limited set of criteria and, if there is a match, forwarding the packet to a corresponding process instance in the gateway, otherwise forwarding the packet to a demux manager in the gateway, if there is a match, forwarding the packet to a corresponding process instance in the gateway, otherwise forwarding the packet to a demux manager in the gateway, wherein the method then further comprises: receiving the packet at the demux manager and comparing the packet to a set of criteria of packets associated with a process instance and, if there is a match , forwarding the packet to that process instance, otherwise allocating the packet to a new process instance to handle a new packet flow; if there is a match , forwarding the packet to that process instance, otherwise allocating the packet to a new process instance to handle a new packet flow; receiving a new packet at a process instance that is assigned from the demux manager and creating a cache entry with information from the new packet; and sending from the process instance a limited set of criteria to set up a flow in the network processing unit to forward packets that match the limited set of criteria.
A user equipment, UE, that communicates with a base station apparatus on serving cells comprising a primary cell and one or more secondary cells, comprising: receiving unit configured to receive a radio resource control, RRC, message comprising first information configuring a code block group, CBG, based transmission for a physical downlink shared channel, PDSCH, the receiving unit configured to receive a RRC message comprising second information configuring a maximum number of CBGs per transport block, the receiving unit is configured to receive a RRC message comprising third information configuring whether a CBG flush indicator is present in a first downlink control information, DCI, format, the first DCI format being used for scheduling of the PDSCH, wherein in a case that the CBG flush indicator is present in the first DCI format, the number of the CBG flush indicator is always 1 bit, and processing unit configured to determine the number of bits for CBG transmission information comprised in the first DCI format, wherein in a case that the first information is configured, the number of bits for the CBG transmission information comprised in the first DCI format is determined based on the second information, the first information and the second information are configured for each of the primary cell and the one or more secondary cells, and cyclic redundancy check, CRC, scrambled by a cell-radio network temporary identifier, C-RNTI, is attached to the first DCI format. receiving unit configured to receive a radio resource control, RRC, message comprising first information configuring a code block group, CBG, based transmission for a physical downlink shared channel, PDSCH, the receiving unit configured to receive a RRC message comprising second information configuring a maximum number of CBGs per transport block, the receiving unit is configured to receive a RRC message comprising third information configuring whether a CBG flush indicator is present in a first downlink control information, DCI, format, the first DCI format being used for scheduling of the PDSCH, wherein in a case that the CBG flush indicator is present in the first DCI format, the number of the CBG flush indicator is always 1 bit, and processing unit configured to determine the number of bits for CBG transmission information comprised in the first DCI format, wherein in a case that the first information is configured, the number of bits for the CBG transmission information comprised in the first DCI format is determined based on the second information, the first information and the second information are configured for each of the primary cell and the one or more secondary cells, and cyclic redundancy check, CRC, scrambled by a cell-radio network temporary identifier, C-RNTI, is attached to the first DCI format.
A system for improving routing of a commodity through a network, comprising: a processor ; a main memory in communication with the processor via a communication infrastructure characterised in that the main memory storing instructions that, when executed by the processor, cause the processor to: recognize two or more nodes (A, B, C, D) in the network ; ascertain one or more links between the two or more nodes; compute a price value for each of the one or more links in the network using link-state information of the one or more links; receive request for routing at least one unit of the commodity from a source node to a destination node in the network; compute at each node during each iteration an optimal subsequent node for each commodity using the link-state information of the iteration; and repeat the compute step at each subsequent node until the destination node is reached, and accordingly, optimizing an entire pathway between the source node and the destination node by adapting the routing of each commodity at each node during each iteration. a processor ; a main memory in communication with the processor via a communication infrastructure characterised in that the main memory storing instructions that, when executed by the processor, cause the processor to: recognize two or more nodes (A, B, C, D) in the network ; ascertain one or more links between the two or more nodes; compute a price value for each of the one or more links in the network using link-state information of the one or more links; receive request for routing at least one unit of the commodity from a source node to a destination node in the network; compute at each node during each iteration an optimal subsequent node for each commodity using the link-state information of the iteration; and repeat the compute step at each subsequent node until the destination node is reached, and accordingly, optimizing an entire pathway between the source node and the destination node by adapting the routing of each commodity at each node during each iteration. recognize two or more nodes (A, B, C, D) in the network ; ascertain one or more links between the two or more nodes; compute a price value for each of the one or more links in the network using link-state information of the one or more links; receive request for routing at least one unit of the commodity from a source node to a destination node in the network; compute at each node during each iteration an optimal subsequent node for each commodity using the link-state information of the iteration; and repeat the compute step at each subsequent node until the destination node is reached, and accordingly, optimizing an entire pathway between the source node and the destination node by adapting the routing of each commodity at each node during each iteration.
Ice cream scoop comprising an elongated handle connected to a hemispherical spoon designed, in use, to collect an ice cream portion inside the hemispherical spoon which forms, by rolling along the inner surface of the hemispherical spoon itself, a spherical portion of said ice cream when said spoon is moved through a bulk of said ice cream, wherein it comprises dispensing means of at least one food sauce contained in a container and designed to dispense said food sauce during the formation of said spherical portion; the dispensing means are configured to deposit the sauce itself on the outer surface of the ice cream sphere so that the sauce spreads on the outer surface; characterized in that the dispensing means comprise a plurality of dispensing nozzles located in the vicinity of a substantially median area of the inner surface (SI) of the spoon , with respect to the direction (L) of longitudinal development of the handle , said dispensing nozzles being connected through a conduit to at least said one container containing said food sauce . the dispensing means are configured to deposit the sauce itself on the outer surface of the ice cream sphere so that the sauce spreads on the outer surface; characterized in that the dispensing means comprise a plurality of dispensing nozzles located in the vicinity of a substantially median area of the inner surface (SI) of the spoon , with respect to the direction (L) of longitudinal development of the handle , said dispensing nozzles being connected through a conduit to at least said one container containing said food sauce .
A stent comprising a polymeric substrate wherein the polymeric substrate comprises 10-50% (w/w) of alginate; 45-85% (w/w) of gelatine; a polymeric biodegradable resin for coating said polymeric substrate; and no more than 5 % (w/w) of an anti-cancer drug, wherein the at least one anti-cancer drug is selected from the list consisting of paclitaxel, epirubicin, doxorubicin, gemcitabine, and mixtures thereof; wherein the polymeric biodegradable resin for coating comprises the resin added in a solution having a concentration of 3-50% (w/v). 10-50% (w/w) of alginate; 45-85% (w/w) of gelatine; a polymeric biodegradable resin for coating said polymeric substrate; and no more than 5 % (w/w) of an anti-cancer drug, wherein the at least one anti-cancer drug is selected from the list consisting of paclitaxel, epirubicin, doxorubicin, gemcitabine, and mixtures thereof; wherein the polymeric biodegradable resin for coating comprises the resin added in a solution having a concentration of 3-50% (w/v).
Method for producing a fibre reinforced composite element from a fibre composite, wherein a fibre material of the fibre composite is placed in a mould, the fibre material which is placed in the mould is infused with a matrix material, and subsequently the matrix material which is infused into the fibre material is cured, wherein a mould is made available on which at least one sensor for monitoring the flow front of the matrix material during the infusion is arranged, comprising - acquiring sensor signals by means of the at least one sensor during the infusion at least within a time period in which the matrix material wets the boundary layer between the mould surface and the fibre material at the sensor position of the sensor, wherein the sensor signal correlates with the wetted area of the boundary layer between the mould surface and the fibre material at the given sensor position, and, by means of an evaluation unit, - determining a sensor signal progression over time from the acquired sensor signals, and - calculating a flow front speed during the infusion of the matrix material as a function of a change in the sensor signal which is derived from the sensor signal progression over time and a known sensor dimension and/or a sensor area of the sensor supplying the sensor signal, and/or - calculating a flow front direction at non-rotationally-symmetrical sensor cross sections with respect to the mould during the infusion of the matrix material as a function of a change in the sensor signal which is derived from the sensor signal progression over time and a sensor orientation with respect to the mould. - acquiring sensor signals by means of the at least one sensor during the infusion at least within a time period in which the matrix material wets the boundary layer between the mould surface and the fibre material at the sensor position of the sensor, wherein the sensor signal correlates with the wetted area of the boundary layer between the mould surface and the fibre material at the given sensor position, and, by means of an evaluation unit, - determining a sensor signal progression over time from the acquired sensor signals, and - calculating a flow front speed during the infusion of the matrix material as a function of a change in the sensor signal which is derived from the sensor signal progression over time and a known sensor dimension and/or a sensor area of the sensor supplying the sensor signal, and/or - calculating a flow front direction at non-rotationally-symmetrical sensor cross sections with respect to the mould during the infusion of the matrix material as a function of a change in the sensor signal which is derived from the sensor signal progression over time and a sensor orientation with respect to the mould.