mhurhangee/ep-ind-claims huggingface dataset:
A dual auto hydrant for selectively supplying compressed air and water to a snowmaking gun, the dual auto hydrant being characterized by comprising: a hydrant base having an outer surface with a bottom end and a top end, a cylinder oriented along an axis from the bottom end to the top end, the hydrant base further comprising: a water inlet port passing between the outer surface and the cylinder; a water outlet port passing between the outer surface and the cylinder; a compressed air inlet port passing between the outer surface and the cylinder a compressed air outlet port passing between the outer surface and the cylinder; and a compressed air drain passing between the outer surface and the cylinder; a piston having a distal end and a proximal end, the piston passing through the cylinder, the piston further comprising a plurality of seals formed circumferentially around the piston at selected locations along a length of the piston; a controller housing coupled to the hydrant base; a rack and pinion mechanism disposed inside the controller housing and coupled to the proximal end of the piston; and a hydrant control lever (172, 174) coupled to the rack and pinion mechanism to selectively drive the piston to any one of three operating positions, hydrant closed position, hydrant air open water closed position and hydrant air open water open position, in that order or reverse order. a hydrant base having an outer surface with a bottom end and a top end, a cylinder oriented along an axis from the bottom end to the top end, the hydrant base further comprising: a water inlet port passing between the outer surface and the cylinder; a water outlet port passing between the outer surface and the cylinder; a compressed air inlet port passing between the outer surface and the cylinder a compressed air outlet port passing between the outer surface and the cylinder; and a compressed air drain passing between the outer surface and the cylinder; a water inlet port passing between the outer surface and the cylinder; a water outlet port passing between the outer surface and the cylinder; a compressed air inlet port passing between the outer surface and the cylinder a compressed air outlet port passing between the outer surface and the cylinder; and a compressed air drain passing between the outer surface and the cylinder; a piston having a distal end and a proximal end, the piston passing through the cylinder, the piston further comprising a plurality of seals formed circumferentially around the piston at selected locations along a length of the piston; a controller housing coupled to the hydrant base; a rack and pinion mechanism disposed inside the controller housing and coupled to the proximal end of the piston; and a hydrant control lever (172, 174) coupled to the rack and pinion mechanism to selectively drive the piston to any one of three operating positions, hydrant closed position, hydrant air open water closed position and hydrant air open water open position, in that order or reverse order.
A moisture sensor, comprising: a drive component that generates a drive signal; a drive electrode coupled to the drive component and having a sensed material-facing surface, the drive electrode, when driven by the drive signal, generating an electric field; a sense electrode having a sensed material-facing surface, the drive electrode and the sense electrode being structurally coupled to one another so the sensed material-facing surfaces of the drive electrode and the sense electrode are generally co-planar; a sensing component coupled to the sense electrode and generating a sensing signal indicative of a current produced in the sense electrode by the electric field, generated by the drive electrode, reaching the sense electrode; a guard electrode disposed about the sense electrode to form a guard about the sense electrode, and to define an opening to expose the sensed material-facing surface, an insulator disposed between the sense electrode and the guard electrode and an insulator disposed between the drive electrode and the guard electrode, characterized in that the guard electrode is disposed about substantially all surfaces of the sense electrode other than the sensed material-facing surface, the guard electrode arranged to inhibit the electric field from reaching the sense electrode other than through the sensed material-facing surface. a drive component that generates a drive signal; a drive electrode coupled to the drive component and having a sensed material-facing surface, the drive electrode, when driven by the drive signal, generating an electric field; a sense electrode having a sensed material-facing surface, the drive electrode and the sense electrode being structurally coupled to one another so the sensed material-facing surfaces of the drive electrode and the sense electrode are generally co-planar; a sensing component coupled to the sense electrode and generating a sensing signal indicative of a current produced in the sense electrode by the electric field, generated by the drive electrode, reaching the sense electrode; a guard electrode disposed about the sense electrode to form a guard about the sense electrode, and to define an opening to expose the sensed material-facing surface, an insulator disposed between the sense electrode and the guard electrode and an insulator disposed between the drive electrode and the guard electrode, characterized in that the guard electrode is disposed about substantially all surfaces of the sense electrode other than the sensed material-facing surface, the guard electrode arranged to inhibit the electric field from reaching the sense electrode other than through the sensed material-facing surface.
A method for forming a headgear assembly for a respiratory interface, the method comprising securing a first textile casing onto an outer portion of a first substrate and a second textile casing onto an outer portion of a second substrate, connecting the first substrate and the second substrate along an inner portion of each of the first and second substrates, positioning the first and second substrates and the first and second textile casings within a moulding tool, and injecting molten plastic material between the pair of substrates, and allowing the molten plastic material to solidify to form a plastic core between the textile casings. securing a first textile casing onto an outer portion of a first substrate and a second textile casing onto an outer portion of a second substrate, connecting the first substrate and the second substrate along an inner portion of each of the first and second substrates, positioning the first and second substrates and the first and second textile casings within a moulding tool, and injecting molten plastic material between the pair of substrates, and allowing the molten plastic material to solidify to form a plastic core between the textile casings.
An energy-saving device designed to be inserted between a three-phase power source and a three-phase load, of the type comprising a three-phase electrical transformer, each phase of which comprises a transformation assembly involving a primary winding designed to be connected at a first end to one phase of said power source and electromagnetically coupled to a secondary winding connected at its second end to a phase of said load, said first end of each of said primary windings being connected to the first end of the corresponding secondary winding, so as to define a common reference between said primary winding and said secondary winding, characterized in that: - the second ends of said primary windings in each of said transformation assemblies lying opposite said first ends are electrically connected to one another by first switching means; - each of said secondary windings is connected in parallel to second switching means for enabling or disabling the operation of said energy-saving device between said power source and said load. - the second ends of said primary windings in each of said transformation assemblies lying opposite said first ends are electrically connected to one another by first switching means; - each of said secondary windings is connected in parallel to second switching means for enabling or disabling the operation of said energy-saving device between said power source and said load.
A connector comprising: a terminal electrically connected to an end of an electric wire; and a connector housing which accommodates the terminal and the electric wire, wherein the terminal is capable of being fastened to an opposite member by means of a fastening member so that the terminal is electrically connected to the opposite member; wherein the connector housing includes a housing lance which locks the terminal so as to prevent the terminal from coming off from the connector housing, characterized in that the connector housing further includes a housing arm which supports the terminal so as to be displaceable in a direction in which the fastening member is fastened to the opposite member. a terminal electrically connected to an end of an electric wire; and a connector housing which accommodates the terminal and the electric wire, wherein the terminal is capable of being fastened to an opposite member by means of a fastening member so that the terminal is electrically connected to the opposite member; wherein the connector housing includes a housing lance which locks the terminal so as to prevent the terminal from coming off from the connector housing, characterized in that the connector housing further includes a housing arm which supports the terminal so as to be displaceable in a direction in which the fastening member is fastened to the opposite member.
An apparatus comprising means for causing the apparatus at least to perform: detecting (604, 610YES) a need for a re-transmission of a data transmission (210, 210A, 210B) on one or more bandwidth parts BWP (402, 412) between a user apparatus and a radio access network; and in response to detecting (604, 610YES) the need for the re-transmission, resetting a timer, wherein an expiration of the timer causes automatic switching from using the one or more BWPs (402, 412) for the data transmission (210, 210A, 210B) to using a default BWP (400, 410) for the data transmission (210, 210A, 210B), wherein the timer is reset in response to detecting (604, 610YES) the need for the re-transmission, if a code block group CBG -based retransmission is not configured for the data transmission (210, 210A, 210B), and wherein the default BWP is an initial active bandwidth part allocated during an initial access by the user apparatus. detecting (604, 610YES) a need for a re-transmission of a data transmission (210, 210A, 210B) on one or more bandwidth parts BWP (402, 412) between a user apparatus and a radio access network; and in response to detecting (604, 610YES) the need for the re-transmission, resetting a timer, wherein an expiration of the timer causes automatic switching from using the one or more BWPs (402, 412) for the data transmission (210, 210A, 210B) to using a default BWP (400, 410) for the data transmission (210, 210A, 210B), wherein the timer is reset in response to detecting (604, 610YES) the need for the re-transmission, if a code block group CBG -based retransmission is not configured for the data transmission (210, 210A, 210B), and wherein the default BWP is an initial active bandwidth part allocated during an initial access by the user apparatus.
A dispense interface for use with a drug delivery device, said dispense interface comprising: a main outer body, an inner body positioned within at least a portion of said main outer body and configured for connection to a drug delivery device, said inner body defining a first inner body reservoir and a second inner body reservoir, a first piercing needle provided by said inner body, said first piercing needle in fluid communication with said first inner body reservoir and positioned for piercing a first cartridge contained within the drug delivery device, a second piercing needle provided by said inner body, said second piercing needle in fluid communication with said second inner body reservoir and positioned for piercing a second cartridge contained within the drug delivery device, characterised in that, a manifold positioned adjacent a generally flat surface of said inner body, said manifold comprising a fluid groove arrangement; a diaphragm valve arrangement (2700, 2750) positioned between said inner body and said manifold, wherein said diaphgram valve arrangement (2700, 2750) controls fluid communication of a first fluid contained in said first cartridge and a second fluid contained in said second cartridge by way of said fluid groove arrangement to a holding chamber of said inner body. a main outer body, an inner body positioned within at least a portion of said main outer body and configured for connection to a drug delivery device, said inner body defining a first inner body reservoir and a second inner body reservoir, a first piercing needle provided by said inner body, said first piercing needle in fluid communication with said first inner body reservoir and positioned for piercing a first cartridge contained within the drug delivery device, a second piercing needle provided by said inner body, said second piercing needle in fluid communication with said second inner body reservoir and positioned for piercing a second cartridge contained within the drug delivery device, characterised in that, a manifold positioned adjacent a generally flat surface of said inner body, said manifold comprising a fluid groove arrangement; a diaphragm valve arrangement (2700, 2750) positioned between said inner body and said manifold, wherein said diaphgram valve arrangement (2700, 2750) controls fluid communication of a first fluid contained in said first cartridge and a second fluid contained in said second cartridge by way of said fluid groove arrangement to a holding chamber of said inner body.
A data transmission method, comprising: sending, by a first user equipment, wherein the first user equipment has a device to device, D2D, communication function, an indication signal, wherein the indication signal indicates frequency resource numbers of one or more physical resources; determining, by the first user equipment according to the frequency resource numbers, a frequency resource occupied by a data signal; and sending, by the first user equipment, the data signal by using the frequency resource; wherein the determining, by the first user equipment according to the frequency resource numbers, a frequency resource occupied by the data signal comprises: determining, by the first user equipment according to a formula n ̃ PRB i = mod n ̃ VRB + f hop i ⋅ N RB sb + N RB sb − 1 − 2 n ̃ VRB mod N RB sb ⋅ f m i, N RB sb ⋅ N sb, a frequency resource number ñ PRB ( i) occupied by the data signal, wherein: mod() is a mod function; a value of i is 0 or a positive integer; ñ VRB is a frequency resource number indicated by the indication signal or any frequency resource number of multiple frequency resource numbers indicated by the indication signal, and is 0 or a positive integer; N sb is a quantity of frequency resources, and is a positive integer; N RB sb is a quantity of physical resources comprised in each frequency resource, and is a positive integer; and f hop ( i) and f m ( i) are frequency resource adjustment values, and are 0 or positive integers. sending, by a first user equipment, wherein the first user equipment has a device to device, D2D, communication function, an indication signal, wherein the indication signal indicates frequency resource numbers of one or more physical resources; determining, by the first user equipment according to the frequency resource numbers, a frequency resource occupied by a data signal; and sending, by the first user equipment, the data signal by using the frequency resource; wherein the determining, by the first user equipment according to the frequency resource numbers, a frequency resource occupied by the data signal comprises: determining, by the first user equipment according to a formula n ̃ PRB i = mod n ̃ VRB + f hop i ⋅ N RB sb + N RB sb − 1 − 2 n ̃ VRB mod N RB sb ⋅ f m i, N RB sb ⋅ N sb, a frequency resource number ñ PRB ( i) occupied by the data signal, wherein: mod() is a mod function; a value of i is 0 or a positive integer; ñ VRB is a frequency resource number indicated by the indication signal or any frequency resource number of multiple frequency resource numbers indicated by the indication signal, and is 0 or a positive integer; N sb is a quantity of frequency resources, and is a positive integer; N RB sb is a quantity of physical resources comprised in each frequency resource, and is a positive integer; and f hop ( i) and f m ( i) are frequency resource adjustment values, and are 0 or positive integers.
A method for accessing a memory device in a system, wherein the system comprises a memory controller and a memory device and the memory device comprises a medium controller, a memory, and a buffer, the method comprises: sending, by the memory controller, at least one access request to the medium controller; sending, by the memory controller, a query request to the medium controller based on a preset query period, wherein the query request is used to query whether data has been written into the buffer; dynamically adjusting the preset query period based on a busy degree of an interconnection channel between the memory controller and the memory device such that, when the interconnection channel is relatively busy, the preset query period is prolonged and, when the interconnection channel is relatively idle, the preset query period is shortened; reading, by the medium controller, data requested by said at least one access request and writing, by the medium controller, the data into the buffer; determining by the medium controller, based on the query request, whether the data has been written into the buffer; if data has been written into the buffer, sending by the medium controller the data to the memory controller; and receiving, by the memory controller, the data. sending, by the memory controller, at least one access request to the medium controller; sending, by the memory controller, a query request to the medium controller based on a preset query period, wherein the query request is used to query whether data has been written into the buffer; dynamically adjusting the preset query period based on a busy degree of an interconnection channel between the memory controller and the memory device such that, when the interconnection channel is relatively busy, the preset query period is prolonged and, when the interconnection channel is relatively idle, the preset query period is shortened; reading, by the medium controller, data requested by said at least one access request and writing, by the medium controller, the data into the buffer; determining by the medium controller, based on the query request, whether the data has been written into the buffer; if data has been written into the buffer, sending by the medium controller the data to the memory controller; and receiving, by the memory controller, the data.
A coupler for translating a rotational force, comprising: a first rotational element defining a first pocket; a second rotational element in axial alignment with the first rotational element and defining a second pocket facing the first pocket, the first pocket and the second pocket define a dampening chamber therebetween that varies in volume based on an overlap thereof; and a fluid positioned in the dampening chamber, a portion of the fluid being dispelled from the dampening chamber when the first rotational element rotates relative to the second rotational element and decreases the volume of the dampening chamber, characterized in that the coupler further comprises a dampener positioned in the dampening chamber: a plunger receiver; a plunger positioned at least partially therein; and an elastic member, the plunger receiver being positioned in contact with an end of the elastic member, the portion of the fluid being dispelled when the elastic member is compressed, and wherein the first pocket mirrors and aligns with the second pocket when the dampener is in a fully extended position, and the first pocket is offset from the second pocket when the dampener is not in the fully extended position. a first rotational element defining a first pocket; a second rotational element in axial alignment with the first rotational element and defining a second pocket facing the first pocket, the first pocket and the second pocket define a dampening chamber therebetween that varies in volume based on an overlap thereof; and a fluid positioned in the dampening chamber, a portion of the fluid being dispelled from the dampening chamber when the first rotational element rotates relative to the second rotational element and decreases the volume of the dampening chamber, characterized in that the coupler further comprises a dampener positioned in the dampening chamber: a plunger receiver; a plunger positioned at least partially therein; and an elastic member, the plunger receiver being positioned in contact with an end of the elastic member, the portion of the fluid being dispelled when the elastic member is compressed, and wherein the first pocket mirrors and aligns with the second pocket when the dampener is in a fully extended position, and the first pocket is offset from the second pocket when the dampener is not in the fully extended position. a plunger receiver; a plunger positioned at least partially therein; and an elastic member, the plunger receiver being positioned in contact with an end of the elastic member, the portion of the fluid being dispelled when the elastic member is compressed, and wherein the first pocket mirrors and aligns with the second pocket when the dampener is in a fully extended position, and the first pocket is offset from the second pocket when the dampener is not in the fully extended position.
An electrostatic charge image developing carrier comprising: a carrier particle formed by coating a surface of a core material particle with a coating material comprising a resin and a sulfur element, wherein the resin is obtained by polymerizing a monomer including at least an alicyclic methacrylic acid ester compound or an alicyclic acrylic acid ester compound using a polymerization initiator having the sulfur element, and wherein the ratio (S/C) of the sulfur element content to the carbon element content in the coating material is 0.003 to 0.008, as determined using X-ray photoelectronic spectrum analysis. a carrier particle formed by coating a surface of a core material particle with a coating material comprising a resin and a sulfur element, wherein the resin is obtained by polymerizing a monomer including at least an alicyclic methacrylic acid ester compound or an alicyclic acrylic acid ester compound using a polymerization initiator having the sulfur element, and wherein the ratio (S/C) of the sulfur element content to the carbon element content in the coating material is 0.003 to 0.008, as determined using X-ray photoelectronic spectrum analysis.