mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for making packages from a web of interconnected bags , the apparatus comprising: an indexing mechanism configured to move the web of interconnected bags along a path of travel (P); an opening arrangement configured to open a bag of the web of interconnected bags such that an opening is formed in the bag and a product can be placed into the opening of the bag ; and a sealing arrangement configured to seal the opening of the bag , characterized in that the apparatus further comprises: a pair of engagement devices configured to engage the bag and close the opening of the bag and flatten an area of the bag , each engagement device having: a base member ; a first link pivotably connected to the base member ; a second link pivotably connected to the first link ; and a sliding pivot member , wherein the sliding pivot member is configured to allow the second link to slide through the sliding pivot member and wherein the sliding pivot member is configured to pivot in relation to the base member ; and a finger connected to the second link ; wherein the pair of engagement devices are configured to pull a first side and a second side of the bag in opposite directions, and wherein the sealing arrangement is configured to seal the opening in the flattened area of the bag . an indexing mechanism configured to move the web of interconnected bags along a path of travel (P); an opening arrangement configured to open a bag of the web of interconnected bags such that an opening is formed in the bag and a product can be placed into the opening of the bag ; and a sealing arrangement configured to seal the opening of the bag , a pair of engagement devices configured to engage the bag and close the opening of the bag and flatten an area of the bag , each engagement device having: a base member ; a first link pivotably connected to the base member ; a second link pivotably connected to the first link ; and a sliding pivot member , wherein the sliding pivot member is configured to allow the second link to slide through the sliding pivot member and wherein the sliding pivot member is configured to pivot in relation to the base member ; and a finger connected to the second link ; wherein the pair of engagement devices are configured to pull a first side and a second side of the bag in opposite directions, a base member ; a first link pivotably connected to the base member ; a second link pivotably connected to the first link ; and a sliding pivot member , wherein the sliding pivot member is configured to allow the second link to slide through the sliding pivot member and wherein the sliding pivot member is configured to pivot in relation to the base member ; and a finger connected to the second link ; wherein the pair of engagement devices are configured to pull a first side and a second side of the bag in opposite directions, and wherein the sealing arrangement is configured to seal the opening in the flattened area of the bag .
2-(3,5-dichloro-indazol-4-yl)-1-[ -3-(hydroxymethyl)-5-(1-hydroxy-1-methylethyl)-1-methyl-3,4-dihydro-1H-isoquinolin-2-yl]ethanone of formula (I), or a pharmaceutically acceptable salt thereof,
An automatic fluid injection device comprising: a body that is fastened to a support for coming into contact with an injection zone, said body containing one or more fluid reservoirs each containing an injection piston , a needle assembly including an injection needle for penetrating into the injection zone, and an injection mechanism , said injection mechanism comprising an actuator cap containing an expandable material and heater means for heating said expandable material thus causing it to expand so as to move said piston in said reservoir and thus inject the fluid into said injection zone through said injection needle , the device being characterized in that said expandable material comprises thermally expandable microspheres.
An injection molding machine , comprising: a mold clamping unit which includes a movable platen and a stationary platen ; a molding product group information acquisition unit configured to acquire information relating to a molding product group dropping from a movable mold attached to the movable platen ; a drop information calculation unit configured to calculate drop information relating to a distance between a stationary mold attached to the stationary platen and the molding product group, based on the information acquired by the molding product group information acquisition unit; and an adjusting unit configured to adjust a drop position of the molding product group with respect to the stationary mold according to the drop information calculated by the drop information calculation unit, wherein the adjusting unit is configured to change a synchronization ratio, which is a ratio between a mold opening speed of the movable platen and an ejection speed of the ejector unit which ejects the molding product group from the movable mold , to adjust the drop position of the molding product group with respect to the stationary mold . a mold clamping unit which includes a movable platen and a stationary platen ; a molding product group information acquisition unit configured to acquire information relating to a molding product group dropping from a movable mold attached to the movable platen ; a drop information calculation unit configured to calculate drop information relating to a distance between a stationary mold attached to the stationary platen and the molding product group, based on the information acquired by the molding product group information acquisition unit; and an adjusting unit configured to adjust a drop position of the molding product group with respect to the stationary mold according to the drop information calculated by the drop information calculation unit, wherein the adjusting unit is configured to change a synchronization ratio, which is a ratio between a mold opening speed of the movable platen and an ejection speed of the ejector unit which ejects the molding product group from the movable mold , to adjust the drop position of the molding product group with respect to the stationary mold .
A device, DEV, for dispensing a droplet of a fluid, FLU, onto the inner surface of a cap or onto the inner surface of a body of a capsule; the device, DEV, comprises a cannula , a fluid dispensing cavity and a valve ; the cannula is a tube with two ends which are both open; one of the two ends of the cannula dispenses the droplet of the fluid, FLU; the other end of the two ends of the cannula opens into the fluid dispensing cavity , the valve thereby is fluid connection via its outlet channel (5-1) and then via the fluid dispensing cavity and then via the cannula with the open end of the cannula , and the fluid, FLU, flows from the valve via said fluid connection to the open end of the cannula ; characterized in that the valve comprises an outlet channel (5-1) which ends with an open end; the open end of the outlet channel (5-1) of the valve opens into the fluid dispensing cavity . the device, DEV, comprises a cannula , a fluid dispensing cavity and a valve ; the cannula is a tube with two ends which are both open; one of the two ends of the cannula dispenses the droplet of the fluid, FLU; the other end of the two ends of the cannula opens into the fluid dispensing cavity , the valve thereby is fluid connection via its outlet channel (5-1) and then via the fluid dispensing cavity and then via the cannula with the open end of the cannula , and the fluid, FLU, flows from the valve via said fluid connection to the open end of the cannula ; characterized in that the valve comprises an outlet channel (5-1) which ends with an open end; the open end of the outlet channel (5-1) of the valve opens into the fluid dispensing cavity .
A transmission method using a server (S) for transmitting information relating to a fault in an electrical installation (I), wherein the server (S) regularly receives status information (D, D 1 , D N ) relating to at least one electrical device (p 1 , p N , P 1 , P N ) of the electrical installation (I), the transmission method comprising the following steps implemented by the server (S) : • when the server (S) does not receive said status information (D, D 1 , D N ) during a determined time period, emitting (E18; E20) to a user (U) information (A 2 ; A 3 ) that a fault has occurred; characterised in that it comprises the following additional steps: • after said emission (E18; E20), receiving (E22) new status information (D, D 1 , D N ); • as a function of the new status information (D, D 1 , D N ), determining (E24) a type for the fault that has occurred; and • emitting (E26; E28) to the user (U) data (A 4 ; A 5 ) specifying the type of the fault that has occurred. • when the server (S) does not receive said status information (D, D 1 , D N ) during a determined time period, emitting (E18; E20) to a user (U) information (A 2 ; A 3 ) that a fault has occurred; • after said emission (E18; E20), receiving (E22) new status information (D, D 1 , D N ); • as a function of the new status information (D, D 1 , D N ), determining (E24) a type for the fault that has occurred; and • emitting (E26; E28) to the user (U) data (A 4 ; A 5 ) specifying the type of the fault that has occurred.
A paper sheet binding apparatus, comprising: a pressing member that presses a stacked bundle (T') with a plurality of stacked paper sheets in a stacking direction of the paper sheets to move the stacked bundle (T') in the stacking direction; a feed unit that feeds a binding belt (f) in a direction orthogonal to the stacking direction ahead of a moving direction of the stacked bundle (T'); an upper gripper and a lower gripper , the pressing member being present between the upper gripper and the lower gripper , the upper gripper and the lower gripper function as to fold the binding belt (f) along a back end in the moving direction of the stacked bundle (T') around which the binding belt (f) is wound, and function as press members that press the back end of the stacked bundle (T') so that the stacked bundle (T') pressed in the stacking direction does not move in the reverse direction; and a welding and cutting unit that welds the folded binding belts (f) with each other and cuts the binding belts (f) characterized in that the pressing member comprises a fixed portion and a sliding portion movable with respect to the fixed portion , and the sliding portion is arranged so as to be pressed in the direction orthogonal to the stacking direction by the upper gripper in a state of pressing the back end. a pressing member that presses a stacked bundle (T') with a plurality of stacked paper sheets in a stacking direction of the paper sheets to move the stacked bundle (T') in the stacking direction; a feed unit that feeds a binding belt (f) in a direction orthogonal to the stacking direction ahead of a moving direction of the stacked bundle (T'); an upper gripper and a lower gripper , the pressing member being present between the upper gripper and the lower gripper , the upper gripper and the lower gripper function as to fold the binding belt (f) along a back end in the moving direction of the stacked bundle (T') around which the binding belt (f) is wound, and function as press members that press the back end of the stacked bundle (T') so that the stacked bundle (T') pressed in the stacking direction does not move in the reverse direction; and a welding and cutting unit that welds the folded binding belts (f) with each other and cuts the binding belts (f) characterized in that the pressing member comprises a fixed portion and a sliding portion movable with respect to the fixed portion , and the sliding portion is arranged so as to be pressed in the direction orthogonal to the stacking direction by the upper gripper in a state of pressing the back end.
An integrated blower and humidification system for providing heated humidified gases to a user, comprising: a humidifier unit adapted to contain a volume of water and also adapted for use in conjunction with a heater base such that said volume of water can be heated, said humidifier unit having a gases inlet port, a gases outlet port and a top fill aperture, a blower unit having an outer casing and having a humidifier compartment into which said humidifier unit locates in use, said humidifier unit substantially enclosed within said compartment in use, said compartment having the heater base , said blower unit further having an inlet vent open to atmosphere on said outer casing, a blower inlet port , a gases path running between said inlet vent and said blower inlet port , and a fan unit to provide a pressurised gases stream along said gases path, in use said blower inlet port and said humidifier gases inlet port aligned to provide a gases route for gases exiting said blower unit via said blower inlet port and entering said humidifier unit via said humidifier gases inlet port , said gases exiting said humidifier unit via said humidifier gases outlet port , a connector to allow said gases stream exiting said humidifier unit to enter a patient interface, a lid unit , said lid unit and said blower unit adapted to mutually connect in such a manner that said lid unit closes and seals said humidifier unit , and said humidifier unit is held in position in said humidifier compartment . a humidifier unit adapted to contain a volume of water and also adapted for use in conjunction with a heater base such that said volume of water can be heated, said humidifier unit having a gases inlet port, a gases outlet port and a top fill aperture, a blower unit having an outer casing and having a humidifier compartment into which said humidifier unit locates in use, said humidifier unit substantially enclosed within said compartment in use, said compartment having the heater base , said blower unit further having an inlet vent open to atmosphere on said outer casing, a blower inlet port , a gases path running between said inlet vent and said blower inlet port , and a fan unit to provide a pressurised gases stream along said gases path, in use said blower inlet port and said humidifier gases inlet port aligned to provide a gases route for gases exiting said blower unit via said blower inlet port and entering said humidifier unit via said humidifier gases inlet port , said gases exiting said humidifier unit via said humidifier gases outlet port , a connector to allow said gases stream exiting said humidifier unit to enter a patient interface, a lid unit , said lid unit and said blower unit adapted to mutually connect in such a manner that said lid unit closes and seals said humidifier unit , and said humidifier unit is held in position in said humidifier compartment .
A method for transmitting and receiving signals by a user equipment, UE, for a wireless communication system, the method comprising: performing (S1801) a 2-step random access channel, RACH, procedure; after performing the 2-step RACH procedure, monitoring (S1803) a physical downlink control channel, PDCCH, for an on duration based on a configured DRX operation; and starting (S1805) an inactivity timer and staying awake based on the successfully received PDCCH for the on duration; wherein, during the 2-step RACH procedure, Message A including a physical random access channel, PRACH, and a Physical Uplink Shared Channel, PUSCH, is transmitted, wherein the PRACH is transmitted on a specific PRACH Occasion, RO, and the PUSCH is transmitted on a specific PUSCH Occasion, PO, wherein a starting RB index for the specific RO is determined based on a lowest RB index of a first RB set including the specific RO and an offset value, wherein the offset value is obtained by subtracting a lowest RB index of a second RB set including a lowest RO in a frequency domain among frequency division multiplexed, FDMed, ROs from a starting RB index of the lowest RO, and wherein the specific RO is one of the FDMed ROs and is not the lowest RO, and there is an intra-cell guard band between the first RB set and the second RB set. performing (S1801) a 2-step random access channel, RACH, procedure; after performing the 2-step RACH procedure, monitoring (S1803) a physical downlink control channel, PDCCH, for an on duration based on a configured DRX operation; and starting (S1805) an inactivity timer and staying awake based on the successfully received PDCCH for the on duration; wherein, during the 2-step RACH procedure, Message A including a physical random access channel, PRACH, and a Physical Uplink Shared Channel, PUSCH, is transmitted, wherein the PRACH is transmitted on a specific PRACH Occasion, RO, and the PUSCH is transmitted on a specific PUSCH Occasion, PO, wherein a starting RB index for the specific RO is determined based on a lowest RB index of a first RB set including the specific RO and an offset value, wherein the offset value is obtained by subtracting a lowest RB index of a second RB set including a lowest RO in a frequency domain among frequency division multiplexed, FDMed, ROs from a starting RB index of the lowest RO, and wherein the specific RO is one of the FDMed ROs and is not the lowest RO, and there is an intra-cell guard band between the first RB set and the second RB set.
A method for increasing the nutritional value for ruminants of a vegetable material by subjection of a vegetable material to heating by means of radiation in the radio frequency range to achieve a temperature of between 110°C and 180°C, wherein the range of the radio frequency radiation is between 10MHz and 50MHz, and wherein an additive is added to said vegetable material before or during subjecting said vegetable material to heating, wherein said additive is a feed grade polar substance, said additive comprising an alcohol, or an alkane polyol; to obtain an RF treated vegetable material in which: the Aufrère value, measured as described in the description, has increased, compared to the value of the vegetable material, with between 2 and 60 percentage units; and/or the RUS value, measured as described in the description, has increased, compared to the value of the vegetable material, by between 5 and 50 percentage units; and/or the RUF value, measured as described in the description, has increased, compared to the value of the vegetable material, by between 5 and 50 percentage units. the Aufrère value, measured as described in the description, has increased, compared to the value of the vegetable material, with between 2 and 60 percentage units; and/or the RUS value, measured as described in the description, has increased, compared to the value of the vegetable material, by between 5 and 50 percentage units; and/or the RUF value, measured as described in the description, has increased, compared to the value of the vegetable material, by between 5 and 50 percentage units.
A method performed by a UE, the method comprising: performing a random-access procedure, wherein performing the random-access procedure includes transmitting a physical uplink shared channel, PUSCH, Msg3; determining whether the UE is in a radio resource control, RRC, CONNECTED state; identifying a number of configured closed-loop power control, CL-PC, processes for an uplink, UL, channel or signal; calculating a transmit power for the PUSCH Msg3 using a CL-PC process with an index zero in response to the UE being in the RRC CONNECTED state and the number of configured CL-PC processes for the UL channel or signal being more than one; receiving a random access response, RAR, when performing the random-access procedure; and resetting a CL-PC accumulation for the CL-PC process with the index zero in response to receiving the RAR. performing a random-access procedure, wherein performing the random-access procedure includes transmitting a physical uplink shared channel, PUSCH, Msg3; determining whether the UE is in a radio resource control, RRC, CONNECTED state; identifying a number of configured closed-loop power control, CL-PC, processes for an uplink, UL, channel or signal; calculating a transmit power for the PUSCH Msg3 using a CL-PC process with an index zero in response to the UE being in the RRC CONNECTED state and the number of configured CL-PC processes for the UL channel or signal being more than one; receiving a random access response, RAR, when performing the random-access procedure; and resetting a CL-PC accumulation for the CL-PC process with the index zero in response to receiving the RAR.
A high-strength steel material having excellent brittle crack arrestability and welding zone brittle crack initiation resistance, comprising: by wt%, carbon (C): 0.05% to 0.09%, manganese (Mn): 1.61% to 2.0%, nickel (Ni) : 0.3% to 0.8%, niobium (Nb) : 0.005% to 0.04%, titanium (Ti): 0.005% to 0.04%, copper (Cu): 0.1% to 0.5%, silicon (Si): 0.05% to 0.3%, aluminum (Al): 0.005% to 0.05%, phosphorus (P): 100 ppm or less, sulfur (S): 40 ppm or less, iron (Fe) as a residual component thereof, and inevitable impurities, wherein a microstructure of a central portion includes, by area%, acicular ferrite in an amount of 70% or greater, pearlite in an amount of 10% or less, and one or more selected from a group consisting of ferrite, bainite, and martensite-austenite (MA), as residual components; a circle-equivalent diameter of pearlite being 15 μm or less; a surface portion microstructure in a region at a depth of 2 mm or less, directly below a surface, includes, by area%, ferrite in an amount of 30% or greater and one or more of bainite, martensite, and pearlite as residual components; and a heat affected zone (HAZ) formed during welding includes, by area%, martensite-austenite (MA) in an amount of 5% or less. by wt%, carbon (C): 0.05% to 0.09%, manganese (Mn): 1.61% to 2.0%, nickel (Ni) : 0.3% to 0.8%, niobium (Nb) : 0.005% to 0.04%, titanium (Ti): 0.005% to 0.04%, copper (Cu): 0.1% to 0.5%, silicon (Si): 0.05% to 0.3%, aluminum (Al): 0.005% to 0.05%, phosphorus (P): 100 ppm or less, sulfur (S): 40 ppm or less, iron (Fe) as a residual component thereof, and inevitable impurities, wherein a microstructure of a central portion includes, by area%, acicular ferrite in an amount of 70% or greater, pearlite in an amount of 10% or less, and one or more selected from a group consisting of ferrite, bainite, and martensite-austenite (MA), as residual components; a circle-equivalent diameter of pearlite being 15 μm or less; a surface portion microstructure in a region at a depth of 2 mm or less, directly below a surface, includes, by area%, ferrite in an amount of 30% or greater and one or more of bainite, martensite, and pearlite as residual components; and a heat affected zone (HAZ) formed during welding includes, by area%, martensite-austenite (MA) in an amount of 5% or less.