mhurhangee/patent-ind-claim-en huggingface dataset:
An orally-administrated combination for use in regenerative therapy in patients with type 1 diabetes mellitus, namely, for recovery of the β-cells of the pancreas, characterized in that it consists of: a medication belonging to the group of dipeptidyl peptidase (DPP-4) inhibitors and contains a therapeutically effective amount of DPP-4 inhibitor, which makes up to 25 to 100 mg/day; a medication of the proton pump inhibitor group (PPI) which contains a therapeutically effective amount of PPI, comprising 10 to 40 mg/day; and therapeutically effective daily dose of gamma-aminobutyric acid preparation (GABA) or gamma amino butyric acid receptor agonist of 375 to 1500 mg/day.
A controller comprising means for performing: - discovering a mapping between receive analogue to digital converters, RxADCs , of a full duplex node and cable modems (111-113, 121-123, 131-133, 141-143) connected to the full duplex node; and wherein the cable modems share a common communication bandwidth ; and - determining , based on the mapping, sounding groups by grouping cable modems (111-113, 121-123) mapped to a same RxADC into a respective sounding group ; and wherein a sounding group is indicative for an upper bound of possible interfering cable modems; and wherein cable modems (111-113, 121-123, 131-133, 141-143) mapped to different RxADCs are connected to different radio frequency, RF, ports (110-120, 130-140). - discovering a mapping between receive analogue to digital converters, RxADCs , of a full duplex node and cable modems (111-113, 121-123, 131-133, 141-143) connected to the full duplex node; and wherein the cable modems share a common communication bandwidth ; and - determining , based on the mapping, sounding groups by grouping cable modems (111-113, 121-123) mapped to a same RxADC into a respective sounding group ; and wherein a sounding group is indicative for an upper bound of possible interfering cable modems; and wherein cable modems (111-113, 121-123, 131-133, 141-143) mapped to different RxADCs are connected to different radio frequency, RF, ports (110-120, 130-140). and wherein a sounding group is indicative for an upper bound of possible interfering cable modems; and wherein cable modems (111-113, 121-123, 131-133, 141-143) mapped to different RxADCs are connected to different radio frequency, RF, ports (110-120, 130-140).
A coupling sleeve for a quick-acting hose coupling having a base body , whereby the coupling sleeve is adapted to be fixed onto the base body , with the base body having at least one opening defining a slot through which at least part of a locking element is able to pass, the coupling sleeve is adapted to move between an engaged position and a disengaged position relative to the base body of the hose coupling , in the engaged position the locking element is held in a position where at least part of it is passed through the slot defined by the base body ; and in the disengaged position at least part of the locking element moves its positional relation to the slot ; whereby the coupling sleeve further includes at least one elastomeric, rubber like element adapted to bias the coupling sleeve in the engaged position characterized in that: the coupling sleeve is configured such that in the engaged position of the coupling sleeve the elastomeric, rubber like element has a C-shaped deformation, and in the disengaged position of the coupling sleeve the elastomeric, rubber like element has an S-shaped deformation. the coupling sleeve is adapted to be fixed onto the base body , with the base body having at least one opening defining a slot through which at least part of a locking element is able to pass, the coupling sleeve is adapted to move between an engaged position and a disengaged position relative to the base body of the hose coupling , in the engaged position the locking element is held in a position where at least part of it is passed through the slot defined by the base body ; and in the disengaged position at least part of the locking element moves its positional relation to the slot ; whereby the coupling sleeve further includes at least one elastomeric, rubber like element adapted to bias the coupling sleeve in the engaged position characterized in that: the coupling sleeve is configured such that in the engaged position of the coupling sleeve the elastomeric, rubber like element has a C-shaped deformation, and in the disengaged position of the coupling sleeve the elastomeric, rubber like element has an S-shaped deformation. the coupling sleeve is configured such that in the engaged position of the coupling sleeve the elastomeric, rubber like element has a C-shaped deformation, and in the disengaged position of the coupling sleeve the elastomeric, rubber like element has an S-shaped deformation.
Dishwasher , in particular household dishwasher, having a washing container for receiving items to be washed, having at least one water tank which, in heat-conducting contact with the washing container , serves to provide at least one condensation surface of the washing container during at least one drying cycle (TG) of at least one wash cycle (SG), and having a filling apparatus for filling the water tank with water, characterised in that the filling apparatus is embodied such that the water tank can be filled with water in a distributed manner during the period of time (ZTG) of the respective drying cycle (TG) in a number of filling phases (FP1, FP2, FP3) so that viewed during the period of time (ZTG) of the respective drying cycle (TG), the water tank is filled gradually in a number of stages (S1, S2, S3) during a number of temporally consecutive filling phases (FP1, FP2, FP3) and considered accumulated together over all filling phases, during the drying cycle the fill level of the water tank is increased more and more from an initial fill level to a final fill level.
A lightning arrester comprising: a housing ; a mainbody partially mounted in the housing ; an encapsulation cap mounted at a first end of the housing ; an elastic apparatus compressed between the encapsulation cap and the mainbody, and a directional pressure relief apparatus , wherein the encapsulation cap comprises: a circular base mounted at the first end of the housing ; characterized in that a mounting portion is formed at a substantial center of the base , and in that a first end of the elastic apparatus is mounted on the mounting portion and in that a second end thereof is abutted against the mainbody, and in that the mounting portion is configured to be a cylinder projecting from the base , and in that a part of the elastic apparatus is mounted in the cylinder. a housing ; a mainbody partially mounted in the housing ; an encapsulation cap mounted at a first end of the housing ; an elastic apparatus compressed between the encapsulation cap and the mainbody, and a directional pressure relief apparatus , wherein the encapsulation cap comprises: a circular base mounted at the first end of the housing ; characterized in that a mounting portion is formed at a substantial center of the base , and in that a first end of the elastic apparatus is mounted on the mounting portion and in that a second end thereof is abutted against the mainbody, and in that the mounting portion is configured to be a cylinder projecting from the base , and in that a part of the elastic apparatus is mounted in the cylinder. a circular base mounted at the first end of the housing ; characterized in that a mounting portion is formed at a substantial center of the base , and in that a first end of the elastic apparatus is mounted on the mounting portion and in that a second end thereof is abutted against the mainbody, and in that the mounting portion is configured to be a cylinder projecting from the base , and in that a part of the elastic apparatus is mounted in the cylinder.
Safety helmet comprising a shell and a comfort liner , the latter being coupled to the inner surface of said shell , said comfort liner being constrained to the front part and the rear part of said shell , characterized by comprising a webbing arranged between the shell and the comfort liner along the upper median portion of said comfort liner , said webbing comprising a front end constrained to the front part of the comfort liner and a rear end to move the webbing with respect to the shell and cause consequently the change of the overall dimensions of said comfort liner inside the helmet , said webbing being designed to be constrained, with respect to the shell , in at least one operative position corresponding to desired overall dimensions of said comfort liner inside the helmet .
A viscous fluid supply device comprising: a storage tray configured to store viscous fluid; an ejection device configured to eject the viscous fluid to the storage tray ; a squeegee configured to adjust a film thickness of the viscous fluid by contacting the viscous fluid ejected to the storage tray by the ejection device ; and a first moving device configured to relatively move the storage tray and the squeegee , wherein the ejection device has an ejection port configured to eject the viscous fluid, and a second moving device configured to relatively move the ejection port and the storage tray the first moving device is a device configured to rotate the storage tray , characterized in that: the viscous fluid supply device includes a control device configured to control operation of the ejection device , and the control device is configured to control the operation of the ejection device such that the viscous fluid is ejected by a smaller amount to a portion nearer to the outer edge of the storage tray after the viscous fluid stored in the storage tray has been used. a storage tray configured to store viscous fluid; an ejection device configured to eject the viscous fluid to the storage tray ; a squeegee configured to adjust a film thickness of the viscous fluid by contacting the viscous fluid ejected to the storage tray by the ejection device ; and a first moving device configured to relatively move the storage tray and the squeegee , wherein the ejection device has an ejection port configured to eject the viscous fluid, and a second moving device configured to relatively move the ejection port and the storage tray the first moving device is a device configured to rotate the storage tray , the viscous fluid supply device includes a control device configured to control operation of the ejection device , and the control device is configured to control the operation of the ejection device such that the viscous fluid is ejected by a smaller amount to a portion nearer to the outer edge of the storage tray after the viscous fluid stored in the storage tray has been used.
An intelligent in-vehicle wireless charging device, comprising an electric power supply unit , a control unit , a signal modulation and demodulation unit , a driving unit , a coil module unit , and a communication unit ; wherein the control unit is connected to the electric power supply unit , the control unit is connected to the signal modulation and demodulation unit , the control unit is connected to the driving unit , and the control unit is connected to the communication unit ; the driving unit is connected to the coil module unit ; the coil module unit is connected to the signal modulation and demodulation unit ; the electric power supply unit is adapted to supply power to other units; the control unit adapted to control the driving unit to drive the coil module unit to generate oscillation; the signal modulation and demodulation unit adapted to demodulate information from electronic devices and simultaneously to modulate information sent by the control unit onto the coil module unit ; and the communication unit adapted to interact and share information with devices internally on a vehicle or separated from the vehicle through the signal modulation and demodulation unit ; the signal modulation and demodulation unit comprises a multi-channel signal identification module , a signal processing module , a protocol module , and a multi-channel signal transmission module ; the multi-channel signal identification module , the signal processing module , the protocol module , and the multi-channel signal transmission module are connected successively; the multi-channel signal identification module is adapted to demodulate multi-channel ASK signals simultaneously to realize a conversion from an analog signal to a digital signal; the signal processing module is adapted to be responsible for a routing management of a communication of multiple electronic devices, and to encode and encapsulate digital signals of the multi-channel signal identification module ; an encapsulated signal is translated by the protocol module adapted accordingly according to an QI standard or a PMA standard; the protocol module adapted to pass translated signal to the control unit for processing, ; to transmit a control command signal from the control unit to the multi-channel signal transmission module according to the QI standard or the PMA standard; the multi-channel signal transmission module adapted to simultaneously modulate the multi-channel signal according to a FSK mode and to load a modulated signal onto a specified coil of the coil module unit .
Carrying device for frontal removal of a roll body from a roll mill, comprising a main frame and a receiving section for the roll body, which can be transferred from an introduction position (E) into a supporting position (S), wherein the receiving section has a profile which encloses the roll body at least partly in the supporting position (S), and wherein the carrying device can be pushed in below the roll body with the receiving section in the introduction position (E) and the roll body is carried with the receiving section in the supporting position (S).
A rotation-blocking device comprising a stator , a rotor mounted to pivot about a pivot axis , at least one blocking element mounted between the stator and the rotor to be movable between a position of interaction with the rotor and the stator and a position retracted relative to the rotor, and actuator means for actuating the blocking element between these two positions, the device being characterized in that the actuator means comprise a coil that is wound on the stator around an axis coaxial with the rotor and that is connected to a control unit for powering the coil in such a manner as to create a magnetic field, and in that the blocking element is made of material that is sensitive to the magnetic field in such a manner that powering the coil causes the blocking element to move towards one of its positions.
A method of performing uplink transmission by a user equipment , UE, in a wireless communication system, the method comprising: performing a procedure for transmitting a signal for a physical uplink shared channel, PUSCH, on a first resource block, RB, set of a subframe #n; performing a procedure for transmitting a signal for a physical uplink control channel, PUCCH, on a second RB set of the subframe #n; and configuring a limit on transmission of one of the signal for the PUCCH or the signal for the PUSCH in one or more RBs at which the first RB set and the second RB set are overlapped, wherein the limit on the transmission of one of the signal for the PUCCH or the signal for the PUSCH is configured based on whether Hybrid Automatic Request-Acknowledgement, HARQ-ACK, or periodic channel state information, CSI, are included in uplink control information, UCI, in the PUCCH, wherein the limit on the transmission of the signal for the PUCCH is configured, based on that only the periodic CSI is included in the UCI, and wherein the limit on the transmission of the signal for the PUSCH is configured, based on that the HARQ-ACK is included in the UCI. performing a procedure for transmitting a signal for a physical uplink shared channel, PUSCH, on a first resource block, RB, set of a subframe #n; performing a procedure for transmitting a signal for a physical uplink control channel, PUCCH, on a second RB set of the subframe #n; and configuring a limit on transmission of one of the signal for the PUCCH or the signal for the PUSCH in one or more RBs at which the first RB set and the second RB set are overlapped, wherein the limit on the transmission of one of the signal for the PUCCH or the signal for the PUSCH is configured based on whether Hybrid Automatic Request-Acknowledgement, HARQ-ACK, or periodic channel state information, CSI, are included in uplink control information, UCI, in the PUCCH, wherein the limit on the transmission of the signal for the PUCCH is configured, based on that only the periodic CSI is included in the UCI, and wherein the limit on the transmission of the signal for the PUSCH is configured, based on that the HARQ-ACK is included in the UCI.
A transmission method, comprising: receiving , by a first device, a first radio resource control, RRC, message sent by a second device, wherein the first RRC message comprises first data and identification information, the first data is data to be sent to a network device, the first device is a first relay node that accesses a donor eNB, the second device is a second relay node or the terminal device, and the identification information is identification information of the terminal device or identification information of the relay node; and sending , by the first device, the first data and the identification information to the donor eNB of the first device by using a second RRC message, wherein before the receiving , by a first device, a first RRC message sent by a second device, the method further comprises: determining, by the first device, a cell of the donor eNB as a serving cell based on strength and/or quality of an interface radio signal of the donor eNB or configured serving cell information; initiating, by the first device, random access to the serving cell to set up an RRC connection to the donor eNB; and receiving, by the first device, configuration information sent by the donor eNB, and configuring a cell of the first device based on the configuration information. receiving , by a first device, a first radio resource control, RRC, message sent by a second device, wherein the first RRC message comprises first data and identification information, the first data is data to be sent to a network device, the first device is a first relay node that accesses a donor eNB, the second device is a second relay node or the terminal device, and the identification information is identification information of the terminal device or identification information of the relay node; and sending , by the first device, the first data and the identification information to the donor eNB of the first device by using a second RRC message, wherein before the receiving , by a first device, a first RRC message sent by a second device, the method further comprises: determining, by the first device, a cell of the donor eNB as a serving cell based on strength and/or quality of an interface radio signal of the donor eNB or configured serving cell information; initiating, by the first device, random access to the serving cell to set up an RRC connection to the donor eNB; and receiving, by the first device, configuration information sent by the donor eNB, and configuring a cell of the first device based on the configuration information. determining, by the first device, a cell of the donor eNB as a serving cell based on strength and/or quality of an interface radio signal of the donor eNB or configured serving cell information; initiating, by the first device, random access to the serving cell to set up an RRC connection to the donor eNB; and receiving, by the first device, configuration information sent by the donor eNB, and configuring a cell of the first device based on the configuration information.
A method for precharging an application bus through a battery module system comprising a first and a second bypassable battery modules connected in series with a precharge circuit , each of the bypassable modules being capable of being in an active state, where a voltage of said bypassable battery module may contribute to an output voltage of the bypassable battery module system , or a bypassed state, where a voltage of said bypassable battery module may not contribute to an output voltage of the bypassable battery module system , the method comprising: activating the first bypassable battery module , to precharge the application bus through the precharge circuit ; and activating the second bypassable battery module , to precharge the application bus through the precharge circuit , based on the first bypassable battery module being in the active state, wherein the method further comprises determining that a first voltage difference between a first output voltage of the bypassable battery module system and a first application bus voltage, based on the first bypassable battery module being in the active state, is less than a threshold voltage difference; and wherein activating the second bypassable battery module comprises: activating the second bypassable battery module based on the first bypassable battery module being in the active state and based on determining that the first voltage difference is less than the threshold voltage difference. activating the first bypassable battery module , to precharge the application bus through the precharge circuit ; and activating the second bypassable battery module , to precharge the application bus through the precharge circuit , based on the first bypassable battery module being in the active state, wherein the method further comprises determining that a first voltage difference between a first output voltage of the bypassable battery module system and a first application bus voltage, based on the first bypassable battery module being in the active state, is less than a threshold voltage difference; and wherein activating the second bypassable battery module comprises: activating the second bypassable battery module based on the first bypassable battery module being in the active state and based on determining that the first voltage difference is less than the threshold voltage difference.