mhurhangee/patent-ind-claim-en huggingface dataset:
Locking device for locking to a mobile stand , comprising a base , a snap-in hook that is pivotable relative to the base between a locking position and an unlocking position about a pivot axis (S) running in a transverse direction (Y), and a snap-in device for blocking the snap-in hook in the locking position on the base , the snap-in hook having a snap-in portion and a control portion , the snap-in portion having a detent contour for receiving a profile of a stand in the locking position, the snap-in hook being arranged such that when a locking force is exerted on the control portion , the snap-in hook is pivoted from the unlocking position into the locking position, and the snap-in device being configured and arranged such that when the locking position is reached, the snap-in hook is automatically blocked by the snap-in device , the snap-in device reaching a blocking position in the process, characterised in that the snap-in portion has a ramp surface , which is arranged on a side of the detent contour facing away from the control portion and which runs in a sloped manner with respect to a longitudinal direction (X) and in a sloped manner with respect to a vertical direction (Z). the snap-in hook having a snap-in portion and a control portion , the snap-in portion having a detent contour for receiving a profile of a stand in the locking position, the snap-in hook being arranged such that when a locking force is exerted on the control portion , the snap-in hook is pivoted from the unlocking position into the locking position, and the snap-in device being configured and arranged such that when the locking position is reached, the snap-in hook is automatically blocked by the snap-in device , the snap-in device reaching a blocking position in the process, characterised in that the snap-in portion has a ramp surface , which is arranged on a side of the detent contour facing away from the control portion and which runs in a sloped manner with respect to a longitudinal direction (X) and in a sloped manner with respect to a vertical direction (Z).
A method for establishing a wireless local area network connection, wherein an access point locally stores an identifier of at least one station, and the method comprises: sending (S310, S520), by the access point, a beacon frame, wherein the beacon frame indicates that the access point supports automatic triggering of establishing a wireless local area network connection; receiving (S320, S540), by the access point, a probe request frame sent by a first station, and determining, by the access point, whether the identifier of the at least one station comprises an identifier of the first station, wherein the probe request frame carries the identifier of the first station, and the probe request frame is used to request to establish a wireless local area network connection; and if the identifier of the at least one station comprises the identifier of the first station, establishing (S330, S450, S580), by the access point, a wireless local area network connection to the first station according to a registrar protocol of Wi-Fi Simple Configuration, WSC. sending (S310, S520), by the access point, a beacon frame, wherein the beacon frame indicates that the access point supports automatic triggering of establishing a wireless local area network connection; receiving (S320, S540), by the access point, a probe request frame sent by a first station, and determining, by the access point, whether the identifier of the at least one station comprises an identifier of the first station, wherein the probe request frame carries the identifier of the first station, and the probe request frame is used to request to establish a wireless local area network connection; and if the identifier of the at least one station comprises the identifier of the first station, establishing (S330, S450, S580), by the access point, a wireless local area network connection to the first station according to a registrar protocol of Wi-Fi Simple Configuration, WSC.
A connector assembly , comprising: at least one elongated inner signal contact defining an axial direction and having a tube-like connection portion , wherein the tube-like connection portion comprises a first welding opening ; an insulating element comprising a first insulating part and a second insulating part , wherein the first insulating part defines at least one elongated cavity designed to accommodate the at least one elongated inner signal contact , characterized in that the second insulating part comprises at least one second welding opening , and in that the first welding opening and the at least one second welding opening are aligned in an assembled state of the connector assembly . at least one elongated inner signal contact defining an axial direction and having a tube-like connection portion , wherein the tube-like connection portion comprises a first welding opening ; an insulating element comprising a first insulating part and a second insulating part , wherein the first insulating part defines at least one elongated cavity designed to accommodate the at least one elongated inner signal contact , characterized in that the second insulating part comprises at least one second welding opening , and in that the first welding opening and the at least one second welding opening are aligned in an assembled state of the connector assembly .
An end effector for use with a surgical instrument, the end effector comprising: a shaft portion ; an anvil extending distally from the shaft portion; a staple cartridge comprising a plurality of staples; an elongate channel configured to receive the staple cartridge, wherein the elongate channel is movable relative to the anvil between an open configuration and a closed configuration to capture tissue between the anvil and the staple cartridge; an opening cam movably engaged with the elongate channel; a firing member movable relative to the elongate channel to cause the plurality of staples to be deployed into the tissue; and a firing bar extending proximally from the firing member, wherein a retraction of the firing bar moves the opening cam to positively open the elongate channel, the end effector further comprising a channel pivot , wherein the elongate channel is rotatable about the channel pivot, and wherein the opening cam is positioned proximal to the channel pivot, characterized by a cam pivot , wherein the opening cam is rotatable about the cam pivot. a shaft portion ; an anvil extending distally from the shaft portion; a staple cartridge comprising a plurality of staples; an elongate channel configured to receive the staple cartridge, wherein the elongate channel is movable relative to the anvil between an open configuration and a closed configuration to capture tissue between the anvil and the staple cartridge; an opening cam movably engaged with the elongate channel; a firing member movable relative to the elongate channel to cause the plurality of staples to be deployed into the tissue; and a firing bar extending proximally from the firing member, wherein a retraction of the firing bar moves the opening cam to positively open the elongate channel, the end effector further comprising a channel pivot , wherein the elongate channel is rotatable about the channel pivot, and wherein the opening cam is positioned proximal to the channel pivot, characterized by a cam pivot , wherein the opening cam is rotatable about the cam pivot.
A coagulation method for a liquid containing pigment and a cleaning liquid recovered from a liquid ejecting device , the method comprising: storing the liquid; cooling the liquid such that at least a part of the liquid solidifies; heating a solid generated by solidifying at least a part of the liquid in order to liquefy the solid; and characterised in that the coagulation method further comprises the step of performing centrifugation to separate the pigment from a mixture generated by heating the solid. storing the liquid; cooling the liquid such that at least a part of the liquid solidifies; heating a solid generated by solidifying at least a part of the liquid in order to liquefy the solid; and characterised in that the coagulation method further comprises the step of performing centrifugation to separate the pigment from a mixture generated by heating the solid.
Roller for guiding a sheet by friction, the roller having: - a contact surface intended to be in contact with the sheet , the contact surface having overall a form of revolution when the roller is at rest, - a central portion configured to mechanically connect the roller to a rotating drive member, and - a deformation portion located between the contact surface and the central portion , the deformation portion being configured to deform elastically when the roller guides the sheet by friction, the deformation portion comprises at least one cut extending from the contact surface towards the central portion , the cut being arranged so that the deformation portion comprises at least one elastically deformable segment , characterised in that the deformation portion comprises an outer ring and a plurality of connection members (11.1) mechanically connecting the central portion and the outer ring , and at least one cut extending through the outer ring so as to interrupt the outer ring at least once, and wherein each connection member (11.1) forms a spoke for the roller . - a contact surface intended to be in contact with the sheet , the contact surface having overall a form of revolution when the roller is at rest, - a central portion configured to mechanically connect the roller to a rotating drive member, and - a deformation portion located between the contact surface and the central portion , the deformation portion being configured to deform elastically when the roller guides the sheet by friction, the deformation portion comprises at least one cut extending from the contact surface towards the central portion , the cut being arranged so that the deformation portion comprises at least one elastically deformable segment , characterised in that the deformation portion comprises an outer ring and a plurality of connection members (11.1) mechanically connecting the central portion and the outer ring , and at least one cut extending through the outer ring so as to interrupt the outer ring at least once, and wherein each connection member (11.1) forms a spoke for the roller .
A respirable dry powder comprising spray dried respirable dry particles that comprise a) magnesium salt having a solubility of ≥ 0.5 g/L in water; wherein the magnesium salt provides magnesium ion in an amount between 0.1% and 2.9% by weight of the dry particle, and b) a pharmaceutically active agent, wherein the respirable dry powder does not contain a phospholipid, and wherein the respirable dry particles are spray dried, have a volume median geometric diameter (VMGD) of 10 micrometers (microns) or less and a dispersibility ratio (1 bar/4 bar) of less than 1.5 as measured at the 1 bar and 4 bar dispersion settings by laser diffraction (RODOS/HELOS system) as measured in paragraph , and wherein the respirable dry particles have a tap density of greater than 0.4 g/mL (g/cc), as measured in paragraph by a SOTAX Tap Density Tester. a) magnesium salt having a solubility of ≥ 0.5 g/L in water; wherein the magnesium salt provides magnesium ion in an amount between 0.1% and 2.9% by weight of the dry particle, and b) a pharmaceutically active agent, wherein the respirable dry powder does not contain a phospholipid, and wherein the respirable dry particles are spray dried, have a volume median geometric diameter (VMGD) of 10 micrometers (microns) or less and a dispersibility ratio (1 bar/4 bar) of less than 1.5 as measured at the 1 bar and 4 bar dispersion settings by laser diffraction (RODOS/HELOS system) as measured in paragraph , and wherein the respirable dry particles have a tap density of greater than 0.4 g/mL (g/cc), as measured in paragraph by a SOTAX Tap Density Tester.
A choline chloride microcapsule capable of passing through rumen, comprising a core material comprising choline chloride and a carrier; an inner membrane and an outer membrane, characterized in that : said inner membrane comprising at least one vegetable fat having a melting point higher than or equal to 60°C; and said outer membrane comprising rice bran wax, zinc oxide powders, and a film forming material; wherein: the film forming material is glucose phthalate, polyethylene glycol, or sodium alginate; the rice bran wax accounts for 5-10 wt. % of the microcapsule; and a mass ratio of the rice bran wax to the zinc oxide powders to the film forming material is 1-5: 0.1-1: 0.1-1. said inner membrane comprising at least one vegetable fat having a melting point higher than or equal to 60°C; and said outer membrane comprising rice bran wax, zinc oxide powders, and a film forming material; the film forming material is glucose phthalate, polyethylene glycol, or sodium alginate; the rice bran wax accounts for 5-10 wt. % of the microcapsule; and a mass ratio of the rice bran wax to the zinc oxide powders to the film forming material is 1-5: 0.1-1: 0.1-1.
Double pipe system with a primary pipeline conducting a medium and a secondary pipeline which is arranged around the primary pipeline for protection, containing pipes and fittings of the primary pipeline , wherein the pipes and fittings of the primary pipeline are connected together, and pipes and fittings of the surrounding secondary pipeline , wherein the pipes of the secondary pipeline are configured as one-piece plastics pipes and the fittings of the secondary pipeline have an axis and are configured as half-shells , wherein the half-shells of the fittings and the adjoining pipes of the secondary pipeline are connected together by means of electric welding sleeves , or the half-shells of the fittings of the secondary pipeline and the adjoining fittings consisting of half-shells are connected together by means of electric welding sleeves , characterized in that at least one half-shell of a fitting has a seal running along a parting plane running parallel to the axis, wherein the seal in the region of the electric welding sleeve creates a material connection with the half-shells of the fitting or the half-shells and the electric welding sleeve .
A device networking method, comprising: determining , by a first device, a second device as a master device in a communications system, wherein the second device is a device of a first type, the first device is a device of a second type, the device of the first type is a device that is powered by an external power supply, and the device of the second type is a device that is powered by a battery; establishing , by the first device as a slave device, a communications connection to the second device; determining , by the first device, a third device as a new master device in the communications system when an exception occurs on the second device, wherein the third device is a device of the second type; and establishing , by the first device as the slave device, a communications connection to the third device. determining , by a first device, a second device as a master device in a communications system, wherein the second device is a device of a first type, the first device is a device of a second type, the device of the first type is a device that is powered by an external power supply, and the device of the second type is a device that is powered by a battery; establishing , by the first device as a slave device, a communications connection to the second device; determining , by the first device, a third device as a new master device in the communications system when an exception occurs on the second device, wherein the third device is a device of the second type; and establishing , by the first device as the slave device, a communications connection to the third device.
A water heater containing a water tank featuring an external jacket and a pipe coil wound spirally around the water tank in the space between the said external jacket and a wall of the water tank, the water tank is closed at the bottom with a bottom wall fitted with an outlet stub pipe for the heated water, and open, at least partially, at the top providing access to the space between the water tank and the external jacket of the water tank , where the external jacket is fitted at the bottom with an inlet stub pipe for cold water, while the pipe coil is made up of at least two pipes twisted together spirally and wound around the said water tank , where the pipes feature collectors at their both ends, i.e. at the inlet and outlet , and where a working agent flows inside the pipes, while the outlet from the pipe coil for the working agent is positioned at the bottom of the external jacket of the water tank , wherein the inlet end through which the working agent flows into the pipe coil pierces the bottom of the water tank .
A method for purifying N-(a-alkoxyethyl)formamide from a mixture containing the N-(a-alkoxyethyl)formamide by using a plurality of distillation columns, wherein the plurality of distillation columns are disposed in series, and the method comprises: introducing the column bottom liquid at a preceding stage into a distillation column at a subsequent stage; condensing an overhead efflux of a distillation column at a subsequent stage to obtain a condensate; and returning at least a part of the condensate to a distillation column at a preceding stage. the plurality of distillation columns are disposed in series, and the method comprises: introducing the column bottom liquid at a preceding stage into a distillation column at a subsequent stage; condensing an overhead efflux of a distillation column at a subsequent stage to obtain a condensate; and returning at least a part of the condensate to a distillation column at a preceding stage. introducing the column bottom liquid at a preceding stage into a distillation column at a subsequent stage; condensing an overhead efflux of a distillation column at a subsequent stage to obtain a condensate; and returning at least a part of the condensate to a distillation column at a preceding stage.
A membrane-spanning nanopore, the nanopore comprising: a. one or more polynucleotide strands that provide a scaffold component; and b. a plurality of polynucleotide strands that provide a plurality of staple components; wherein each of the plurality of staple components hybridise to the scaffold component; wherein the orientation of more than 50% of the total length of at least one polynucleotide strand comprised within the scaffold component is parallel to a planar surface of a membrane as well as embedded within and coplanar with the membrane; wherein the nanopore defines a channel that is suitable for perforating the membrane; the channel having a longitudinal axis extending along the centre thereof and a minimum internal dimension perpendicular to the longitudinal axis of at least about 3 nm. a. one or more polynucleotide strands that provide a scaffold component; and b. a plurality of polynucleotide strands that provide a plurality of staple components; wherein each of the plurality of staple components hybridise to the scaffold component; wherein the orientation of more than 50% of the total length of at least one polynucleotide strand comprised within the scaffold component is parallel to a planar surface of a membrane as well as embedded within and coplanar with the membrane; wherein the nanopore defines a channel that is suitable for perforating the membrane; the channel having a longitudinal axis extending along the centre thereof and a minimum internal dimension perpendicular to the longitudinal axis of at least about 3 nm.
A method for weaving a fabric with warp yarns and in-woven weft yarns on a weaving loom which comprises : - heddles for moving the warp yarns in order to form a shed; - a shed forming mechanism for moving the heddles; - weft bobbins which provide weft yarns to the loom; - a weft insertion mechanism , for drawing-in a weft yarn from a pick-up position into the shed, along a weft insertion axis (Y20) and in a forward direction (A10), the weft insertion mechanism including a gripper openable at the pick-up position; - a weft selector which defines several selectable distribution channels parallel to the weft insertion axis (Y20), each selectable distribution channel including a forward guiding member , for guiding a weft yarn toward the gripper, and a clamp ;, this method including at least the following steps: a) opening the gripper; b) positioning a movable carriage of the weft selector, by a aligning a selected distribution channel on the weft insertion axis (Y120), so that the gripper is aligned with a selected weft yarn ; c) clamping (A11) the weft yarn in the selected distribution channel , with the clamp of this channel; d) moving (A6) the weft yarn along the selected distribution channel toward the gripper , while the gripper is opened, by moving the clamp along the selected distribution channel; e) catching the selected weft yarn with the gripper at the pick-up position; f) drawing-in (A10) the weft yarn with the weft insertion mechanism, from the pick-up position into the shed, along the weft insertion axis and in the forward direction; and g) cutting the weft yarn. - heddles for moving the warp yarns in order to form a shed; - a shed forming mechanism for moving the heddles; - weft bobbins which provide weft yarns to the loom; - a weft insertion mechanism , for drawing-in a weft yarn from a pick-up position into the shed, along a weft insertion axis (Y20) and in a forward direction (A10), the weft insertion mechanism including a gripper openable at the pick-up position; - a weft selector which defines several selectable distribution channels parallel to the weft insertion axis (Y20), each selectable distribution channel including a forward guiding member , for guiding a weft yarn toward the gripper, and a clamp ;, a) opening the gripper; b) positioning a movable carriage of the weft selector, by a aligning a selected distribution channel on the weft insertion axis (Y120), so that the gripper is aligned with a selected weft yarn ; c) clamping (A11) the weft yarn in the selected distribution channel , with the clamp of this channel; d) moving (A6) the weft yarn along the selected distribution channel toward the gripper , while the gripper is opened, by moving the clamp along the selected distribution channel; e) catching the selected weft yarn with the gripper at the pick-up position; f) drawing-in (A10) the weft yarn with the weft insertion mechanism, from the pick-up position into the shed, along the weft insertion axis and in the forward direction; and g) cutting the weft yarn.