mhurhangee/patent-ind-claim-en huggingface dataset:
Method for controlling a conveyor system comprising at least two conveying sections and at least three cars which are moved individually in cyclic operation, wherein each car, starting from a first starting position, passes through a first conveying section and subsequently through a second conveying section back to the first starting position, wherein at least one stop is provided along at least one conveying section and one or more successive stops are each assigned to a block , and wherein the travel of the cars is controlled in such a way that the cars respectively in sequence approach a block specified in advance and an equal cycle time (T) is specified for each car for passing through the first and the second conveying section, wherein the specific block of stops is assigned in advance respectively depending on the travel volume of each car, wherein this assignment is made on the basis of a known daily travel volume. wherein at least one stop is provided along at least one conveying section and one or more successive stops are each assigned to a block , and wherein the travel of the cars is controlled in such a way that the cars respectively in sequence approach a block specified in advance and an equal cycle time (T) is specified for each car for passing through the first and the second conveying section, wherein the specific block of stops is assigned in advance respectively depending on the travel volume of each car, wherein this assignment is made on the basis of a known daily travel volume.
An electrochemical cell stack compression system comprising: an integral, hollow structure having a defined shape and formed of a plurality of wound fibers, wherein the structure is formed of multiple layers ; a plurality of electrochemical cells arranged in a series along an axis to form an electrochemical stack , wherein the electrochemical stack is contained within the structure ; at least one end block contained within the structure and located at an end region of the structure ; and at least one compression mechanism contained within the structure , wherein the at least one compression mechanism is configured to apply a compressive force to the electrochemical stack , wherein the electrochemical stack , the at least one end block , and the at least one compression mechanism are contained in series within the structure such that the structure forms a continuous border around and adjacent to a periphery of the electrochemical stack , the at least one end block , and the at least one compression mechanism . an integral, hollow structure having a defined shape and formed of a plurality of wound fibers, wherein the structure is formed of multiple layers ; a plurality of electrochemical cells arranged in a series along an axis to form an electrochemical stack , wherein the electrochemical stack is contained within the structure ; at least one end block contained within the structure and located at an end region of the structure ; and at least one compression mechanism contained within the structure , wherein the at least one compression mechanism is configured to apply a compressive force to the electrochemical stack , wherein the electrochemical stack , the at least one end block , and the at least one compression mechanism are contained in series within the structure such that the structure forms a continuous border around and adjacent to a periphery of the electrochemical stack , the at least one end block , and the at least one compression mechanism .
A rapid-entry shoe comprising: a base ; a deformable element coupled to the base , wherein the deformable element is embedded within or extends along a rear portion of the rapid-entry shoe, and between the first anchor and the second anchor , wherein the deformable element has a collapsed configuration and an uncollapsed configuration, wherein in the collapsed configuration the deformable element is in a compressed state and bends downward and in the uncollapsed configuration the deformable element is oriented upwards and is in a reduced compressed state, an uncompressed state, or a partially bent state; and a heel piece including a paddle coupled to the deformable element , wherein the paddle is rotatable about the deformable element ; characterised in that , inward rotation of the paddle is prevented by upper and lower necks connecting the paddle to a second paddle ; and in that outward rotation of the paddle is assisted by the collapsing of the heel piece . a base ; a deformable element coupled to the base , wherein the deformable element is embedded within or extends along a rear portion of the rapid-entry shoe, and between the first anchor and the second anchor , wherein the deformable element has a collapsed configuration and an uncollapsed configuration, wherein in the collapsed configuration the deformable element is in a compressed state and bends downward and in the uncollapsed configuration the deformable element is oriented upwards and is in a reduced compressed state, an uncompressed state, or a partially bent state; and a heel piece including a paddle coupled to the deformable element , wherein the paddle is rotatable about the deformable element ; characterised in that , inward rotation of the paddle is prevented by upper and lower necks connecting the paddle to a second paddle ; and in that outward rotation of the paddle is assisted by the collapsing of the heel piece .
A system for selectively activating inspiratory or expiratory muscles in a subject comprising: one or more electrical signal generators ;a first stimulation system comprising one or more first electrical stimulators electrically coupled to the one or more electrical signal generators; and a second stimulation system comprising one or more second electrical stimulators electrically coupled to the one or more electrical signal generators; wherein the one or more first stimulators are configured to be positioned at one or more levels of the upper thoracic spinal cord and/or near the phrenic nerve of the subject; the one or more second stimulators are configured to be positioned at one or more levels of the lower thoracic and/or upper lumbar spinal cord, wherein said one or more first electrical stimulators and one or more second electrical stimulators are configured to selectively deliver electrical stimulation from the one or more electrical signal generators, wherein the first electrical system and the second electrical system are separately ground to limit to prevent the flow of electrical current to both the expiratory and inspiratory muscles at the same time, and wherein the electrical signal generators are configured to selectively deliver electrical stimulation asynchronously to the inspiratory or expiratory muscle motor neurons via the first and second electrical stimulators, respectively. one or more electrical signal generators ;a first stimulation system comprising one or more first electrical stimulators electrically coupled to the one or more electrical signal generators; and a second stimulation system comprising one or more second electrical stimulators electrically coupled to the one or more electrical signal generators; wherein the one or more first stimulators are configured to be positioned at one or more levels of the upper thoracic spinal cord and/or near the phrenic nerve of the subject; the one or more second stimulators are configured to be positioned at one or more levels of the lower thoracic and/or upper lumbar spinal cord, wherein said one or more first electrical stimulators and one or more second electrical stimulators are configured to selectively deliver electrical stimulation from the one or more electrical signal generators, wherein the first electrical system and the second electrical system are separately ground to limit to prevent the flow of electrical current to both the expiratory and inspiratory muscles at the same time, and wherein the electrical signal generators are configured to selectively deliver electrical stimulation asynchronously to the inspiratory or expiratory muscle motor neurons via the first and second electrical stimulators, respectively.
A modular rail system for an upper receiver of a firearm , comprising: a bottom portion having a forward portion located forward of a top rail of the upper receiver ; an upper rail extension or upper portion separate from the upper receiver and the bottom portion , the upper rail extension or upper portion having an opening proximate to a rearward end of the upper rail extension or upper portion for providing access to a forward end of a sight ; and a release mechanism for releasably securing the upper portion or upper rail extension to the forward portion of the bottom portion ; wherein the bottom portion is configured to be removably secured to the upper receiver and the upper rail extension or upper portion is configured to be removably secured to the forward portion of the bottom portion ; characterized in that the forward portion being an integrally formed part of the bottom portion , and the bottom portion further having an integrally formed bottom rail ; and the forward portion of the bottom portion extending forward of the opening of the upper rail extension or upper portion so that the release mechanism is located forward of the opening of the upper rail extension or upper portion . a bottom portion having a forward portion located forward of a top rail of the upper receiver ; an upper rail extension or upper portion separate from the upper receiver and the bottom portion , the upper rail extension or upper portion having an opening proximate to a rearward end of the upper rail extension or upper portion for providing access to a forward end of a sight ; and a release mechanism for releasably securing the upper portion or upper rail extension to the forward portion of the bottom portion ; wherein the bottom portion is configured to be removably secured to the upper receiver and the upper rail extension or upper portion is configured to be removably secured to the forward portion of the bottom portion ; characterized in that the forward portion being an integrally formed part of the bottom portion , and the bottom portion further having an integrally formed bottom rail ; and the forward portion of the bottom portion extending forward of the opening of the upper rail extension or upper portion so that the release mechanism is located forward of the opening of the upper rail extension or upper portion .
An esophageal stent comprising: a stent body having a proximal portion and a distal portion , wherein the proximal portion includes an anchoring structure , the anchoring structure including a plurality of prongs each oriented towards the distal portion; and a valve attached to the distal portion of the esophageal stent , wherein the esophageal stent does not include proximally-oriented or horizontal spikes. a stent body having a proximal portion and a distal portion , wherein the proximal portion includes an anchoring structure , the anchoring structure including a plurality of prongs each oriented towards the distal portion; and a valve attached to the distal portion of the esophageal stent , wherein the esophageal stent does not include proximally-oriented or horizontal spikes.
A method for localizing a mobile device having a processor and a memory , the method being executed by the processor and comprising: detecting, using a temperature sensor of the mobile device at a first sampling rate, an ambient temperature anomaly along an indoor route within an indoor facility being traversed; characterised by determining, based on switching to a second sampling rate, that the ambient temperature anomaly persists over a sequence of positions along the indoor route , the second sampling rate being higher than the first sampling rate; filtering a set of barometric ambient pressure measurements contemporaneously associated with the sequence of positions, the set obtained using a barometric pressure sensor of the mobile device ; and localizing the mobile device based at least partly on the filtered set of barometric ambient pressure measurements. detecting, using a temperature sensor of the mobile device at a first sampling rate, an ambient temperature anomaly along an indoor route within an indoor facility being traversed; characterised by determining, based on switching to a second sampling rate, that the ambient temperature anomaly persists over a sequence of positions along the indoor route , the second sampling rate being higher than the first sampling rate; filtering a set of barometric ambient pressure measurements contemporaneously associated with the sequence of positions, the set obtained using a barometric pressure sensor of the mobile device ; and localizing the mobile device based at least partly on the filtered set of barometric ambient pressure measurements.
An information processing method for a communications system supporting retransmission, wherein the method comprises: obtaining a starting position k 0 for an output bit sequence in a circular buffer of length N CB , the output bit sequence is a redundancy version of a bit sequence D to be transmitted; and determining the output bit sequence for each initial transmission or retransmission from the circular buffer based on the starting position ko for the output bit sequence; wherein the circular buffer comprises all bits of the bit sequence D, a length of the bit sequence D is K D bits, and the bit sequence D is an encoded bit sequence that is obtained by encoding a bit sequence C with a length K based on a quasi-cyclic low-density parity-check, QC-LDPC, matrix; characterized in that the starting position k 0 is one element in { p 0 , p 1 , p 2, p 3 }, 0 ≤p 0 < p 1 < p 2 < p 3 < N CB , p 0 , p 1 , p 2 , p 3 are all integers, and there are two or more intervals between two adjacent values in { p 0 , p 1 , p 2 , p 3 }, the intervals in { p 0 , p 1 , p 2, p 3 } are uneven and ( p 1 - p 0 ) > ( p 2 - p 1 ), wherein N CB ≥ K D , 0 ≤p 0 < ( p 0 + K) ≤ p 1 < p 2 < p 3 . obtaining a starting position k 0 for an output bit sequence in a circular buffer of length N CB , the output bit sequence is a redundancy version of a bit sequence D to be transmitted; and determining the output bit sequence for each initial transmission or retransmission from the circular buffer based on the starting position ko for the output bit sequence; wherein the circular buffer comprises all bits of the bit sequence D, a length of the bit sequence D is K D bits, and the bit sequence D is an encoded bit sequence that is obtained by encoding a bit sequence C with a length K based on a quasi-cyclic low-density parity-check, QC-LDPC, matrix; characterized in that the starting position k 0 is one element in { p 0 , p 1 , p 2, p 3 }, 0 ≤p 0 < p 1 < p 2 < p 3 < N CB , p 0 , p 1 , p 2 , p 3 are all integers, and there are two or more intervals between two adjacent values in { p 0 , p 1 , p 2 , p 3 }, the intervals in { p 0 , p 1 , p 2, p 3 } are uneven and ( p 1 - p 0 ) > ( p 2 - p 1 ), wherein N CB ≥ K D , 0 ≤p 0 < ( p 0 + K) ≤ p 1 < p 2 < p 3 .
A multi part condensation curable silicone composition for making a silicone material and/or elastomer comprising: (i) at least one condensation curable silyl terminated polymer having at least one, typically at least two hydroxyl functional groups per molecule; (ii) a cross-linker selected from the group of • silanes having at least 2 hydrolysable groups, alternatively at least 3 hydrolysable groups per molecule group; and/or • silyl functional molecules having at least 2 silyl groups, each silyl group containing at least one hydrolysable group, (iii) a condensation catalyst selected from the group of titanates and/or zirconates, and (iv) at least one chemical compound that prevents or scavenges the formation of free radicals; Wherein components (i), (ii) and (iii) are not all in the same part, characterized in that the molar ratio of total silicon bonded hydroxyl groups to total hydrolysable groups is between 0.5:1 to 2:1 for silanes and between 0.5:1 and 10:1 for silyl functional molecules; and the molar ratio of catalyst M-OR functions to the total silicon bonded hydroxyl groups is comprised between 0.01:1 and 0.5:1, where M is titanium or zirconium. (i) at least one condensation curable silyl terminated polymer having at least one, typically at least two hydroxyl functional groups per molecule; (ii) a cross-linker selected from the group of • silanes having at least 2 hydrolysable groups, alternatively at least 3 hydrolysable groups per molecule group; and/or • silyl functional molecules having at least 2 silyl groups, each silyl group containing at least one hydrolysable group, • silanes having at least 2 hydrolysable groups, alternatively at least 3 hydrolysable groups per molecule group; and/or • silyl functional molecules having at least 2 silyl groups, each silyl group containing at least one hydrolysable group, (iii) a condensation catalyst selected from the group of titanates and/or zirconates, and (iv) at least one chemical compound that prevents or scavenges the formation of free radicals;
A method comprising: creating a virtual peer on a network device , all border gateway protocol, BGP, capabilities configured on the network device are enabled on the virtual peer, wherein the BGP capabilities configured on the network device comprise a BGP capability that is not enabled on the network device ; acquiring, by a border gateway protocol monitoring protocol, BMP, module of the network device , the enabled BGP capabilities from the virtual peer; wherein the BMP module is configured to send the acquired BGP capabilities to a monitoring server. creating a virtual peer on a network device , all border gateway protocol, BGP, capabilities configured on the network device are enabled on the virtual peer, wherein the BGP capabilities configured on the network device comprise a BGP capability that is not enabled on the network device ; acquiring, by a border gateway protocol monitoring protocol, BMP, module of the network device , the enabled BGP capabilities from the virtual peer; wherein the BMP module is configured to send the acquired BGP capabilities to a monitoring server.
A method for producing an electrolyte solution, comprising: a supply step of continuously supplying an emulsion comprising a polymer electrolyte and a solvent into a dissolution facility; and a dissolution step of continuously dissolving the polymer electrolyte in the solvent by heating an interior of the dissolution facility and maintaining a pressure within the dissolution facility to be constant to obtain the electrolyte solution, and a discharge step of discharging the electrolyte solution out of the dissolution facility by a back pressure regulating valve. a supply step of continuously supplying an emulsion comprising a polymer electrolyte and a solvent into a dissolution facility; and a dissolution step of continuously dissolving the polymer electrolyte in the solvent by heating an interior of the dissolution facility and maintaining a pressure within the dissolution facility to be constant to obtain the electrolyte solution, and a discharge step of discharging the electrolyte solution out of the dissolution facility by a back pressure regulating valve.
A hinged panel operation system comprising: a mechanical linkage assembly coupled between a fixed structure and a trailing edge device , the mechanical linkage assembly comprising a first link operatively coupled to the trailing edge device, a second link pivotably connected at a first end to the first link and pivotably connected at a second end to a first end of a third link , and an eccentric attachment connecting the second link to the third link; and, a hinged panel positioned forward of the trailing edge device and being operatively coupled to the mechanical linkage assembly, the hinged panel having a leading end connected to the fixed structure via an attachment element and being movable by the mechanical linkage assembly between a stowed position and a drooped position , and the mechanical linkage assembly providing a load path to the hinged panel; wherein the eccentric attachment comprises a spherical bearing or a bolt fixed to the second link with its center offset from that of the second link, and wherein the eccentric attachment is attached to the hinged panel , and a second end of the third link is connected to the fixed structure via an attachment element . a mechanical linkage assembly coupled between a fixed structure and a trailing edge device , the mechanical linkage assembly comprising a first link operatively coupled to the trailing edge device, a second link pivotably connected at a first end to the first link and pivotably connected at a second end to a first end of a third link , and an eccentric attachment connecting the second link to the third link; and, a hinged panel positioned forward of the trailing edge device and being operatively coupled to the mechanical linkage assembly, the hinged panel having a leading end connected to the fixed structure via an attachment element and being movable by the mechanical linkage assembly between a stowed position and a drooped position , and the mechanical linkage assembly providing a load path to the hinged panel; wherein the eccentric attachment comprises a spherical bearing or a bolt fixed to the second link with its center offset from that of the second link, and wherein the eccentric attachment is attached to the hinged panel , and a second end of the third link is connected to the fixed structure via an attachment element .
A method for forming texture in a surface of a glass substrate, comprising: - contacting a glass surface of a glass substrate having a glass transition temperature and a template electrode ; - heating the electrode-contacted glass surface to a temperature at least 200°C less than the glass transition temperature; and - applying a DC bias to the electrode effective to transport ions within the glass surface and form a textured glass surface; - wherein a bulk composition of the glass substrate comprises less than 1 mol% alkali metal oxide. - contacting a glass surface of a glass substrate having a glass transition temperature and a template electrode ; - heating the electrode-contacted glass surface to a temperature at least 200°C less than the glass transition temperature; and - applying a DC bias to the electrode effective to transport ions within the glass surface and form a textured glass surface; - wherein a bulk composition of the glass substrate comprises less than 1 mol% alkali metal oxide.