mhurhangee/ep-ind-claims huggingface dataset:
An apparatus (100, 200) comprising: a nano-scale spectrum sensor (120, 220) configured to be electromagnetically excitable at a predetermined frequency based on received ambient electromagnetic radiation, and a graphene frequency multiplier (110, 210) configured to multiply a frequency of one or more portions of received ambient electromagnetic radiation, prior to detection by said nano-scale spectrum sensor, so as to shift a frequency range of said one or more portions of received ambient electromagnetic radiation into a particular predetermined frequency of said nano-scale spectrum sensor, the apparatus being configured to use excitation of said nano-scale spectrum sensor to determine ambient electromagnetic radiation spectrum usage. a nano-scale spectrum sensor (120, 220) configured to be electromagnetically excitable at a predetermined frequency based on received ambient electromagnetic radiation, and a graphene frequency multiplier (110, 210) configured to multiply a frequency of one or more portions of received ambient electromagnetic radiation, prior to detection by said nano-scale spectrum sensor, so as to shift a frequency range of said one or more portions of received ambient electromagnetic radiation into a particular predetermined frequency of said nano-scale spectrum sensor, the apparatus being configured to use excitation of said nano-scale spectrum sensor to determine ambient electromagnetic radiation spectrum usage.
An isolated chimeric homopolyligand or heteropolyligand polypeptide having a structure selected from the group consisting of: (a) X-S 1 -X-S 2 -Y-S 3 -Z, wherein X is SEQ.ID.NO:44, Y is SEQ.ID.NO:42, Z is SEQ.ID.NO:43, and wherein Xaa is selected from (i) Ala or Phe; or (ii) Ser, Thr or Tyr, and S 1, S 2 and S 3 are spacers; (b) A-S 1 -B-S 2 -C-S 3 -D, wherein A is SEQ.ID.NO: 41, B is SEQ.ID.NO: 42, C is SEQ.ID.NO: 49, and D is SEQ.ID.NO: 43, Xaa is selected from (i) Ala or Phe; or (ii) Ser, Thr or Tyr, and S 1, S 2 and S 3 are spacers; (c) A-S 1 -B-S 2 -C-S 3 -D, wherein A is SEQ.ID.NO: 51, B is SEQ.ID.NO: 43, C is SEQ.ID.NO: 42, D is SEQ.ID.NO: 44, Xaa is selected from (i) Ala or Phe, and S 1, S 2, and S 3 are spacers; (d) A-S 4 -B-S 5 -A-S 4 -B, wherein A is SEQ.ID.NO:48, B is SEQ.ID.NO:50, Xaa is Ala, and S 4 and S 5 are spacers; and (e) A-S 1 -A-S 2 -A, wherein A is SEQ.ID.NO:45, Xaa is Alanine or Phenylalanine, and S 1 and S 2 are spacers, wherein said homopolyligand or heteropolyligand modulates MEK activity. (a) X-S 1 -X-S 2 -Y-S 3 -Z, wherein X is SEQ.ID.NO:44, Y is SEQ.ID.NO:42, Z is SEQ.ID.NO:43, and wherein Xaa is selected from (i) Ala or Phe; or (ii) Ser, Thr or Tyr, and S 1, S 2 and S 3 are spacers; (b) A-S 1 -B-S 2 -C-S 3 -D, wherein A is SEQ.ID.NO: 41, B is SEQ.ID.NO: 42, C is SEQ.ID.NO: 49, and D is SEQ.ID.NO: 43, Xaa is selected from (i) Ala or Phe; or (ii) Ser, Thr or Tyr, and S 1, S 2 and S 3 are spacers; (c) A-S 1 -B-S 2 -C-S 3 -D, wherein A is SEQ.ID.NO: 51, B is SEQ.ID.NO: 43, C is SEQ.ID.NO: 42, D is SEQ.ID.NO: 44, Xaa is selected from (i) Ala or Phe, and S 1, S 2, and S 3 are spacers; (d) A-S 4 -B-S 5 -A-S 4 -B, wherein A is SEQ.ID.NO:48, B is SEQ.ID.NO:50, Xaa is Ala, and S 4 and S 5 are spacers; and (e) A-S 1 -A-S 2 -A, wherein A is SEQ.ID.NO:45, Xaa is Alanine or Phenylalanine, and S 1 and S 2 are spacers, wherein said homopolyligand or heteropolyligand modulates MEK activity.
A pharmaceutical composition comprising three different isolated, double stranded siRNA molecules, and a pharmaceutically acceptable carrier, wherein said three different isolated, double-stranded siRNA molecules are the siRNA molecules 3m (SEQ ID NO: 5 and 6), 6m (SEQ ID NO: 11 and 12), and 12m (SEQ ID NO: 23 and 24) as defined in table B including the modifications described therein.
A method for controlling a pump, in particular a centrifugal pump, during pumping of a liquid, comprising the following steps: fixing a setpoint value of a flow rate of the pump; measuring an inlet pressure of the liquid upstream of the pump and an outlet pressure of the liquid downstream of the pump; determining a setpoint value of a rotational speed of the pump from a performance map of the pump, wherein the fixed setpoint value of the flow rate and a difference between the outlet pressure and the inlet pressure are incorporated into the performance map as input values; and setting the rotational speed of the pump to the setpoint value of the rotational speed; wherein the fixing of the setpoint value of the flow rate comprises the following steps: determining a time average value of the difference between the outlet pressure and the inlet pressure; and fixing the setpoint value of the flow rate from the performance map of the pump, the time average value of the difference between the outlet pressure and the inlet pressure as well as a current rotational speed of the pump being incorporated into the performance map as input values. fixing a setpoint value of a flow rate of the pump; measuring an inlet pressure of the liquid upstream of the pump and an outlet pressure of the liquid downstream of the pump; determining a setpoint value of a rotational speed of the pump from a performance map of the pump, wherein the fixed setpoint value of the flow rate and a difference between the outlet pressure and the inlet pressure are incorporated into the performance map as input values; and setting the rotational speed of the pump to the setpoint value of the rotational speed; wherein the fixing of the setpoint value of the flow rate comprises the following steps: determining a time average value of the difference between the outlet pressure and the inlet pressure; and fixing the setpoint value of the flow rate from the performance map of the pump, the time average value of the difference between the outlet pressure and the inlet pressure as well as a current rotational speed of the pump being incorporated into the performance map as input values. determining a time average value of the difference between the outlet pressure and the inlet pressure; and fixing the setpoint value of the flow rate from the performance map of the pump, the time average value of the difference between the outlet pressure and the inlet pressure as well as a current rotational speed of the pump being incorporated into the performance map as input values.
A method performed by a user equipment, UE, (2f-01) in a wireless communication system, the method comprising: receiving (2f-05), from a base station (2f-02), a radio resource control, RRC, release message; entering (2f-10) an inactive state based on the RRC release message; reselecting (2f-15) a cell belonging to an equivalent public land mobile network, PLMN, associated with a shared network; transmitting (2f-25), to the base station (2f-02), an RRC resume request message including a resume cause, wherein the resume cause is configured to mobile originated, mo,- signaling based on reselection of the cell belonging to the equivalent PLMN associated with the shared network in case that (2f-20) a radio access network, RAN,-based notification area update procedure is triggered; receiving (2f-30), from the base station (2f-02), an RRC resume message as a response to the RRC resume request message; entering (2f-35) a connected state; and transmitting (2f-40), to the base station (2f-02), an RRC resume complete message as a response to the RRC resume message, the RRC resume complete message including a non-access stratum, NAS, protocol data unit, PDU, and an identifier of a reselected PLMN. receiving (2f-05), from a base station (2f-02), a radio resource control, RRC, release message; entering (2f-10) an inactive state based on the RRC release message; reselecting (2f-15) a cell belonging to an equivalent public land mobile network, PLMN, associated with a shared network; transmitting (2f-25), to the base station (2f-02), an RRC resume request message including a resume cause, wherein the resume cause is configured to mobile originated, mo,- signaling based on reselection of the cell belonging to the equivalent PLMN associated with the shared network in case that (2f-20) a radio access network, RAN,-based notification area update procedure is triggered; receiving (2f-30), from the base station (2f-02), an RRC resume message as a response to the RRC resume request message; entering (2f-35) a connected state; and transmitting (2f-40), to the base station (2f-02), an RRC resume complete message as a response to the RRC resume message, the RRC resume complete message including a non-access stratum, NAS, protocol data unit, PDU, and an identifier of a reselected PLMN.
An apparatus comprising: a key assembly comprising: a keycap having a plinth extending from an underside surface thereof; a contact-responsive switch; a key mat disposed between the keycap and the contact-responsive switch and having a recessed area formed therein sized and configured to receive the plinth; characterized in that an elastic layer disposed between the keycap and the contact-responsive switch, and wherein the elastic layer has at least one opening disposed therethrough, which opening is disposed at least in part in common with the recessed area of the key mat. a key assembly comprising: a keycap having a plinth extending from an underside surface thereof; a contact-responsive switch; a key mat disposed between the keycap and the contact-responsive switch and having a recessed area formed therein sized and configured to receive the plinth; a keycap having a plinth extending from an underside surface thereof; a contact-responsive switch; a key mat disposed between the keycap and the contact-responsive switch and having a recessed area formed therein sized and configured to receive the plinth;
An impeller for a molten metal pump comprised of a generally cylindrical ceramic or graphite body, said cylindrical body having opposed top and bottom surfaces and a circumferential sidewall, characterised in that the cylindrical body comprises an annular recess extending from said top surface and forming an outer ring and an inner column extending above a bottom wall of said annular recess, said annular recess having a depth less than one half of the overall height of said cylindrical body, a bore formed in said inner column to accommodate a shaft, and a plurality of passages formed in said sidewall, said passages intersecting said annular recess.
A method of transmitting a hybrid automatic repeat request-acknowledgement, HARQ-ACK, signal by a user equipment, UE, in a wireless communication system, the method comprising: receiving, in a first bandwidth part, BWP, at least one first physical downlink shared channel, PDSCH; receiving downlink control information, DCI, for switching an active BWP related to a downlink signal from the first BWP to a second BWP; receiving, in the second BWP, at least one second PDSCH; obtaining, based on a semi-static HARQ-ACK codebook scheme, a HARQ-ACK signal to be transmitted in response to the at least one first PDSCH and the at least one second PDSCH; and transmitting, in a slot of the second BWP, the HARQ-ACK signal, wherein the HARQ-ACK signal does not include HARQ-ACK information for the at least one first PDSCH, and wherein a size of the HARQ-ACK signal is determined only based on a number of candidate PDSCH reception occasions in at least one slot of the second BWP among the candidate PDSCH reception occasions for a feedback timing of the HARQ-ACK signal included in a plurality of slots, and wherein the plurality of slots include (i) the at least one slot of the second BWP and (ii) at least one slot of the first BWP. receiving, in a first bandwidth part, BWP, at least one first physical downlink shared channel, PDSCH; receiving downlink control information, DCI, for switching an active BWP related to a downlink signal from the first BWP to a second BWP; receiving, in the second BWP, at least one second PDSCH; obtaining, based on a semi-static HARQ-ACK codebook scheme, a HARQ-ACK signal to be transmitted in response to the at least one first PDSCH and the at least one second PDSCH; and transmitting, in a slot of the second BWP, the HARQ-ACK signal, wherein the HARQ-ACK signal does not include HARQ-ACK information for the at least one first PDSCH, and wherein a size of the HARQ-ACK signal is determined only based on a number of candidate PDSCH reception occasions in at least one slot of the second BWP among the candidate PDSCH reception occasions for a feedback timing of the HARQ-ACK signal included in a plurality of slots, and wherein the plurality of slots include (i) the at least one slot of the second BWP and (ii) at least one slot of the first BWP.
Drain channel (1; 20), comprising: - a lower tray (2; 21; 43) with a bottom surface and an outlet opening arranged in the bottom surface; - a holder (9; 23; 30; 40; 70) placed on the bottom surface of the lower tray (2; 21), which holder (9; 23; 30; 40; 60; 70) comprises a substantially U-shaped cross-section with a bottom surface (31; 71) and standing walls (32, 33; 72, 73) along the bottom surface (31; 71); characterized in that at least one standing wall (32; 72, 73) of the holder (9; 23; 30; 40; 70) is formed from double-folded plate such that the wall has an upward directed wall part and a downward directed wall part (34; 73) lying thereagainst, wherein supports (10; 36; 74) are arranged on the underside of the holder (9; 23; 30; 40; 70) in order to hold the holder (9; 23; 30; 40; 70) at a distance relative to the bottom surface of the lower tray (2; 21), which supports (10; 36; 74) are either formed by the downward directed wall part (34; 73) extending to a position below the bottom surface (31; 71) of the holder or are bent out of the bottom surface of the holder (9; 23). - a lower tray (2; 21; 43) with a bottom surface and an outlet opening arranged in the bottom surface; - a holder (9; 23; 30; 40; 70) placed on the bottom surface of the lower tray (2; 21), which holder (9; 23; 30; 40; 60; 70) comprises a substantially U-shaped cross-section with a bottom surface (31; 71) and standing walls (32, 33; 72, 73) along the bottom surface (31; 71);
A capsule assembly for a medical device introducer, the capsule assembly comprising: a capsule retriever having a plug portion and a tail portion, the plug portion having a lead-in surface, the tail portion having an elongate body extending proximally from the plug portion to an end stop receiver; a capsule tube having an end stop feature at a proximal end thereof and terminating in a distal end; and a capsule cavity inside the capsule tube, a proximal end of a medical device being receivable in the cavity, wherein the capsule tube is slidably movable with respect to the capsule retriever from a first position in which the distal end of the capsule tube surrounds an opening into the capsule cavity to a second position in which the distal end of the capsule tube is adjacent to the lead-in surface of the plug portion and the end stop feature and end stop receiver are engaged. a capsule retriever having a plug portion and a tail portion, the plug portion having a lead-in surface, the tail portion having an elongate body extending proximally from the plug portion to an end stop receiver; a capsule tube having an end stop feature at a proximal end thereof and terminating in a distal end; and a capsule cavity inside the capsule tube, a proximal end of a medical device being receivable in the cavity,
Method for transmitting data from a wheel unit (20-1 to 20-4) arranged on a wheel (W1-W4) of a vehicle to a central unit of the vehicle, involving: - sending the data in the form of data transmissions (R1-R4) at intervals of time from the wheel unit (20-1 to 20-4) to the central unit, wherein transmission times of the data transmissions (R1-R4) are stipulated by the wheel unit (20-1 to 20-4) according to a transmission algorithm, - receiving the data transmissions (R1-R4) sent by the wheel unit (20-1 to 20-4) by means of the central unit, - evaluating reception times at which the data transmissions (R1-R4) are each received by the central unit, according to an evaluation algorithm that takes into consideration the transmission algorithm, - rating the data transmissions (R1-R4) on the basis of a result of the evaluation of the reception times, characterized in that after a respective reception of a data transmission (R1-R4) the central unit stipulates a period of time (dtf) and, should a data transmission (R1-R4) of the relevant wheel unit (20-1 to 20-4) be received during this period of time (dtf), said data transmission is fundamentally rated as invalid unless the content of this data transmission (R1-R4) reveals that the relevant wheel unit (20-1 to 20-4) has changed to an alarm mode of operation, and that the detected reception time is compatible with the provisions of the transmission algorithm for the alarm mode of operation. - sending the data in the form of data transmissions (R1-R4) at intervals of time from the wheel unit (20-1 to 20-4) to the central unit, wherein transmission times of the data transmissions (R1-R4) are stipulated by the wheel unit (20-1 to 20-4) according to a transmission algorithm, - receiving the data transmissions (R1-R4) sent by the wheel unit (20-1 to 20-4) by means of the central unit, - evaluating reception times at which the data transmissions (R1-R4) are each received by the central unit, according to an evaluation algorithm that takes into consideration the transmission algorithm, - rating the data transmissions (R1-R4) on the basis of a result of the evaluation of the reception times,
A switching device comprising: a main circuit including a switching element, a first input terminal connected to the switching element and a second input terminal connected to the switching element; a control circuit which generates a control signal for switching the switching element between an on state and an off state and includes a first output terminal and a second output terminal for outputting the generated control signal; and a first signal line connecting the first output terminal and the first input terminal and a second signal line connecting the second output terminal and the second input terminal which transfer the control signal outputted from the control circuit, to the main circuit, wherein a value of characteristic impedance of the first and second signal lines (3, 4) which transfer the control signal is set between a value of output impedance of the control circuit which outputs the control signal and a value of input impedance of the main circuit to which the control signal is inputted. a main circuit including a switching element, a first input terminal connected to the switching element and a second input terminal connected to the switching element; a control circuit which generates a control signal for switching the switching element between an on state and an off state and includes a first output terminal and a second output terminal for outputting the generated control signal; and a first signal line connecting the first output terminal and the first input terminal and a second signal line connecting the second output terminal and the second input terminal which transfer the control signal outputted from the control circuit, to the main circuit, wherein a value of characteristic impedance of the first and second signal lines (3, 4) which transfer the control signal is set between a value of output impedance of the control circuit which outputs the control signal and a value of input impedance of the main circuit to which the control signal is inputted.
Drive belt having an elastic main body, comprising a top layer as a belt backing and a substructure having a power transmission zone, wherein the top layer and/or the substructure are made of at least one fibre-containing polymer mixture, characterized in that the polymer mixture contains at least one copolymer of butadiene and acrylonitrile having a Mooney viscosity [(ML 1+4), 100°C)] between 10 and 50 and additionally at least one further copolymer of butadiene and acrylonitrile having a Mooney viscosity [(ML 1+4), 100°C)] of not less than 60.
A wireless communication method, comprising: receiving, by a network device, a data packet which is transmitted from a first terminal device through a user plane within a 3rd Generation Partnership Project, 3GPP, network; and sending, by the network device, the data packet to a second terminal device through the user plane within the 3GPP network, wherein there are a second session connection between the first terminal device and a User Plane Function, UPF, of the first terminal device, and a third session connection between the second terminal device and a UPF of the second terminal device, the UPF of the first terminal device and the UPF of the second terminal device are a same fourth UPF, and the network device is the fourth UPF, wherein the data packet carries identification information of the second terminal device, and wherein sending, by the network device, the data packet to the second terminal device through the user plane within the 3GPP network comprises: determining address information of the third session connection by the fourth UPF based on the identification information of the second terminal device; and encapsulating the address information of the third session connection in the data packet and sending the data packet to the second terminal device by the fourth UPF. receiving, by a network device, a data packet which is transmitted from a first terminal device through a user plane within a 3rd Generation Partnership Project, 3GPP, network; and sending, by the network device, the data packet to a second terminal device through the user plane within the 3GPP network, wherein there are a second session connection between the first terminal device and a User Plane Function, UPF, of the first terminal device, and a third session connection between the second terminal device and a UPF of the second terminal device, the UPF of the first terminal device and the UPF of the second terminal device are a same fourth UPF, and the network device is the fourth UPF, wherein the data packet carries identification information of the second terminal device, and wherein sending, by the network device, the data packet to the second terminal device through the user plane within the 3GPP network comprises: determining address information of the third session connection by the fourth UPF based on the identification information of the second terminal device; and encapsulating the address information of the third session connection in the data packet and sending the data packet to the second terminal device by the fourth UPF. determining address information of the third session connection by the fourth UPF based on the identification information of the second terminal device; and encapsulating the address information of the third session connection in the data packet and sending the data packet to the second terminal device by the fourth UPF.